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Calculators Created by Urvi Rathod
Urvi Rathod
Vishwakarma Government Engineering College
(VGEC)
,
Ahmedabad
https://www.linkedin.com/in/urvi-rathod-a3b634177
1539
Formulas Created
1942
Formulas Verified
466
Across Categories
List of Calculators by Urvi Rathod
Following is a combined list of all the calculators that have been created and verified by Urvi Rathod. Urvi Rathod has created 1539 and verified 1942 calculators across 466 different categories till date.
Acme Thread
(17)
Verified
Coefficient of Friction of Power Screw given Effort in Lowering Load with Acme Threaded Screw
Go
Verified
Coefficient of Friction of Power Screw given Effort in Moving Load with Acme Threaded Screw
Go
Verified
Coefficient of Friction of Power Screw given Torque Required in Lifting Load with Acme Thread
Go
Verified
Coefficient of Friction of Power Screw given Torque Required in Lowering Load with Acme Thread
Go
Verified
Efficiency of Acme Threaded Power Screw
Go
Verified
Effort Required in Lifting Load with Acme Threaded Screw
Go
Verified
Effort Required in Lowering Load with Acme Threaded Screw
Go
Verified
Helix Angle of Power Screw given Effort Required in Lifting Load with Acme Threaded Screw
Go
Verified
Helix Angle of Power Screw given Load and Coefficient of Friction
Go
Verified
Helix Angle of Power Screw given Torque Required in Lifting Load with Acme Threaded Screw
Go
Verified
Helix Angle of Power Screw given Torque Required in Lowering Load with Acme Threaded Screw
Go
Verified
Load on Power Screw given Effort Required in Lifting Load with Acme Threaded Screw
Go
Verified
Load on Power Screw given Effort Required in Lowering Load with Acme Threaded Screw
Go
Verified
Load on Power Screw given Torque Required in Lifting Load with Acme Threaded Screw
Go
Verified
Load on Power Screw given Torque Required in Lowering Load with Acme Threaded Screw
Go
Verified
Mean Diameter of Power Screw given Torque Required in Lowering Load with Acme Threaded Screw
Go
Verified
Torque Required in Lowering Load with Acme Threaded Power Screw
Go
1 More Acme Thread Calculators
Go
Conduction, Convection and Radiation
(3)
Verified
Black Bodies Heat Exchange by Radiation
Go
Verified
Heat Exchange by Radiation due to Geometric Arrangement
Go
Verified
Non Ideal Body Surface Emittance
Go
10 More Conduction, Convection and Radiation Calculators
Go
Design Against Fluctuating Load
(22)
Verified
Diameter of Spring Wire given Mean Stress in Spring
Go
Verified
Diameter of Spring Wire given Torsional Stress Amplitude
Go
Verified
Force Amplitude of Spring
Go
Verified
Force Amplitude on Spring given Torsional Stress Amplitude
Go
Verified
Maximum Force on Spring given Force Amplitude
Go
Verified
Maximum Force on Spring given Mean Force
Go
Verified
Mean Coil Diameter of Spring given Torsional Stress Amplitude
Go
Verified
Mean Diameter of Spring coil given Mean Stress on Spring
Go
Verified
Mean Force on spring
Go
Verified
Mean Force on Spring given Mean Stress
Go
Verified
Mean Stress on Spring
Go
Verified
Minimum Force on Spring given Force Amplitude
Go
Verified
Minimum Force on Spring given Mean Force
Go
Verified
Shear Stress Correction Factor for Spring given Mean Stress
Go
Verified
Shear Stress Factor for Spring given Torsional stress amplitude
Go
Verified
Shear Yield Strength of Oil-hardened Tempered Steel Wires
Go
Verified
Shear Yield Strength of Patented and Cold-drawn Steel Wires
Go
Verified
Spring Index given Mean Stress on spring
Go
Verified
Spring Index given Torsional Stress Amplitude
Go
Verified
Torsional Stress Amplitude in Spring
Go
Verified
Ultimate Tensile Stress of Ol hardened tempered Steel wires
Go
Verified
Ultimate Tensile Stress of Patented and Cold drawn Steel wires
Go
Force Taken By Leaves
(8)
Verified
Force applied at end of Spring given Bending Stress on Graduated length leaves
Go
Verified
Force Applied at End of Spring given Force Taken by Graduated length Leaves
Go
Verified
Force taken by Extra Full length leaves given Number of leaves
Go
Verified
Force Taken by Full Length Leaves given Bending Stress in Plate Extra Full Length
Go
Verified
Force Taken by Full length Leaves given Force at end of Spring
Go
Verified
Force taken by Graduated length leaves given Bending Stress in Plate
Go
Verified
Force Taken by Graduated length leaves given Deflection at Load Point
Go
Verified
Force taken by graduated length leaves given force applied at end of spring
Go
3 More Force Taken By Leaves Calculators
Go
Geometry of Helical Springs
(9)
Verified
Diameter of Spring Wire from Load Stress Equation
Go
Verified
Diameter of Spring Wire given Spring Index
Go
Verified
Inside Diameter of Spring Coil given Mean Coil Diameter
Go
Verified
Mean Coil Diameter given Spring Index
Go
Verified
Mean Coil Diameter of Spring
Go
Verified
Outside Diameter of Spring given Mean Coil Diameter
Go
Verified
Spring Index
Go
Verified
Spring Index given Shear stress in Spring
Go
Verified
Total Number of Coils given Solid Length of Spring
Go
Length of Cantilever
(4)
Verified
Length of Cantilever given Bending Stress in Plate
Go
Verified
Length of Cantilever given Bending Stress in Plate of Extra Full Length
Go
Verified
Length of Cantilever given Bending Stress on Graduated Length Leaves
Go
Verified
Length of Cantilever given Deflection at Load Point of Graduated length leaves
Go
Maximum Shear Stress Theory
(1)
Verified
Shear Yield Strength by Maximum Shear Stress Theory
Go
2 More Maximum Shear Stress Theory Calculators
Go
Series and Parallel Connections
(4)
Verified
Combined Stiffness of 2 Springs when Connected in Parallel
Go
Verified
Combined Stiffness of 3 Springs when Connected in Parallel
Go
Verified
Combined Stiffness of Three Springs Connected in Series
Go
Verified
Combined Stiffness of Two Springs Connected in Series
Go
Torque Requirement in Lowering Load using Square threaded Screws
(6)
Verified
Coefficient of Friction of Screw Thread given Load
Go
Verified
Effort Required in Lowering Load
Go
Verified
Helix Angle of Power Screw given Effort Required in Lowering Load
Go
Verified
Load on power Screw given Effort Required in Lowering Load
Go
Verified
Load on power Screw given Torque Required in Lowering Load
Go
Verified
Torque Required in Lowering Load on Power Screw
Go
3 More Torque Requirement in Lowering Load using Square threaded Screws Calculators
Go
2 Wire System
(5)
Created
Length using Volume of Conductor Material (DC 2-Wire OS)
Go
Created
Line Losses using Volume of Conductor Material (DC 2-Wire OS)
Go
Created
Load Current using Line Losses(DC Two-Wire OS)
Go
Created
Maximum Voltage using Area of X-Section(DC Two-Wire OS)
Go
Created
Resistance(2-Wire DC OS)
Go
AC Circuit Design
(2)
Created
Line to Neutral Current using Reactive Power
Go
Created
Line to Neutral Current using Real Power
Go
43 More AC Circuit Design Calculators
Go
AC Circuits
(3)
Verified
In-Phase Potentiometer Reading
Go
Verified
Potentiometer Voltage
Go
Verified
Quadrature Potentiometer Reading
Go
4 More AC Circuits Calculators
Go
AC Power
(12)
Created
Complex Power
Go
Created
Complex Power given Power Factor
Go
Created
Power in Single-Phase AC Circuits
Go
Created
Power in Single-Phase AC Circuits using Current
Go
Created
Power in Single-Phase AC Circuits using Voltage
Go
Created
Power in Three-Phase AC Circuits using Phase Current
Go
Created
Reactive Power
Go
Created
Reactive Power using Line-to-Neutral Current
Go
Created
Reactive Power using RMS Voltage and Current
Go
Created
Real Power in AC Circuit
Go
Created
Real Power using Line-to-Neutral Voltage
Go
Created
Real Power using RMS Voltage and Current
Go
Ammeter
(4)
Verified
Average Meter Current
Go
Verified
Current at Full-scale reading
Go
Verified
Microammeter Current
Go
Verified
Peak Meter Current
Go
6 More Ammeter Calculators
Go
Amplification Factor or Gain
(9)
Verified
Common-Base Current Gain
Go
Verified
Common-Emitter Current Gain using Common-Base Current Gain
Go
Verified
Forced Common-Emitter Current Gain
Go
Verified
Intrinsic Gain of BJT
Go
Verified
Overall Voltage Gain given Load Resistance of BJT
Go
Verified
Overall Voltage Gain of Amplifier when Load Resistance is Connected to Output
Go
Verified
Overall Voltage Gain of Buffer Amplifier given Load Resistance
Go
Verified
Voltage Gain given all Voltages
Go
Verified
Voltage Gain given Collector Current
Go
7 More Amplification Factor or Gain Calculators
Go
Amplification Factor or Gain
(4)
Verified
Maximum Voltage Gain at Bias Point
Go
Verified
Maximum Voltage Gain given all Voltages
Go
Verified
Voltage Gain given Drain Voltage
Go
Verified
Voltage Gain given Load Resistance of MOSFET
Go
2 More Amplification Factor or Gain Calculators
Go
Amplifier Characteristics
(2)
Verified
Saturation Current
Go
Verified
Voltage Gain given Load Resistance
Go
19 More Amplifier Characteristics Calculators
Go
Analog VLSI Design
(16)
Verified
Drain Voltage
Go
Verified
Gate to Base Capacitance
Go
Verified
Gate to Channel Voltage
Go
Verified
Gate to Collector Potential
Go
Verified
Gate to Drain Capacitance
Go
Verified
Gate to Drain Potential
Go
Verified
Gate to Source Capacitance
Go
Verified
Gate to Source Potential
Go
Verified
High Noise Margin
Go
Verified
Low Noise Margin
Go
Verified
Maximum Low Input Voltage
Go
Verified
Maximum Low Output Voltage
Go
Verified
Minimum High Input Voltage
Go
Verified
Minimum High Output Voltage
Go
Verified
Potential between Source to Body
Go
Verified
Potential from Drain to Source
Go
Antenna Theory Parameters
(4)
Verified
Antenna Gain
Go
Verified
Average Radiation Intensity
Go
Verified
Directivity of Antenna
Go
Verified
Radiation Intensity
Go
20 More Antenna Theory Parameters Calculators
Go
Applications of Fluid Force
(4)
Verified
Distance between Plates given Dynamic Viscosity of Fluid
Go
Verified
Friction Factor given Frictional Velocity
Go
Verified
Shear Stress using Dynamic Viscosity of Fluid
Go
Verified
Total Surface Area of Object Submerged in Liquid
Go
5 More Applications of Fluid Force Calculators
Go
Arms of Cast Iron Pulley
(23)
Verified
Bending Moment on Arm of Belt Driven Pulley
Go
Verified
Bending Moment on Arm of Belt Driven Pulley given Bending Stress in Arm
Go
Verified
Bending Moment on Arm of Belt Driven Pulley given Torque Transmitted by Pulley
Go
Verified
Bending Stress in Arm of Belt Driven Pulley
Go
Verified
Bending Stress in Arm of Belt Driven Pulley given Torque Transmitted by Pulley
Go
Verified
Major Axis of Elliptical Cross-Section of Pulley's Arm given Moment of Inertia of Arm
Go
Verified
Minor Axis of Elliptical Cross-Section of Arm given Moment of Inertia of Arm
Go
Verified
Minor Axis of Elliptical Cross-Section of Pulley's Arm given Bending Stress in Arm
Go
Verified
Minor Axis of Elliptical Cross-Section of Pulley's Arm given Moment of Inertia of Arm
Go
Verified
Minor Axis of Elliptical Cross-Section of Pulley's Arm given Torque and Bending Stress
Go
Verified
Moment of Inertia of Pulley's Arm
Go
Verified
Moment of Inertia of Pulley's Arm given Bending Stress in Arm
Go
Verified
Moment of Inertia of Pulley's Arm given Minor Axis of Elliptical Section Arm
Go
Verified
Number of Arms of Pulley given Bending Moment on Arm
Go
Verified
Number of Arms of Pulley given Bending Stress in Arm
Go
Verified
Number of Arms of Pulley given Torque Transmitted by Pulley
Go
Verified
Radius of Rim of Pulley given Bending Moment Acting on Arm
Go
Verified
Radius of Rim of Pulley given Torque Transmitted by Pulley
Go
Verified
Tangential Force at End of Each Arm of Pulley given Bending Moment on Arm
Go
Verified
Tangential Force at End of Each Arm of Pulley given Torque Transmitted by Pulley
Go
Verified
Torque Transmitted by Pulley
Go
Verified
Torque Transmitted by Pulley given Bending Moment on Arm
Go
Verified
Torque Transmitted by Pulley given Bending Stress in Arm
Go
Array Datapath Subsystem
(19)
Verified
Area of Memory Cell
Go
Verified
Area of Memory Containing N Bits
Go
Verified
Array Efficiency
Go
Verified
Bit Capacitance
Go
Verified
Carry-Increamentor Adder Delay
Go
Verified
Carry-Looker Adder Delay
Go
Verified
Carry-Ripple Adder Critical Path Delay
Go
Verified
Carry-Skip Adder Delay
Go
Verified
Cell Capacitance
Go
Verified
Critical Delay in Gates
Go
Verified
Ground Capacitance
Go
Verified
Group Propagation Delay
Go
Verified
K-Input 'And' Gate
Go
Verified
Multiplexer Delay
Go
Verified
N-Bit Carry-Skip Adder
Go
Verified
N-Input 'And' Gate
Go
Verified
Tree Adder Delay
Go
Verified
Voltage Swing On Bitline
Go
Verified
'XOR' Delay
Go
ASME Code for Shaft Desgin
(4)
Verified
Diameter of Shaft given Principle Shear Stress
Go
Verified
Equivalent Bending Moment when Shaft is Subjected to Fluctuating Loads
Go
Verified
Equivalent Torsional Moment when Shaft is Subjected to Fluctuating Loads
Go
Verified
Principle Shear Stress Maximum Shear Stress Theory of Failure
Go
1 More ASME Code for Shaft Desgin Calculators
Go
Band Brakes
(8)
Verified
Angle of Wrap given Tension on Loose Side of Band
Go
Verified
Coefficient of Friction between Friction Lining and Brake Drum
Go
Verified
Radius of Brake Drum given Torque Absorbed by Brake
Go
Verified
Tension of Tight Side of Band
Go
Verified
Tension on Loose Side of Band
Go
Verified
Tension on Loose Side of Band given Torque Absorbed by Brake
Go
Verified
Tension on Tight Side of Band given Torque Absorbed by Brake
Go
Verified
Torque Absorbed by Brake
Go
Base Current
(12)
Verified
Base Current 1 of BJT
Go
Verified
Base Current 2 of BJT
Go
Verified
Base Current of PNP Transistor given Emitter Current
Go
Verified
Base Current of PNP Transistor using Collector Current
Go
Verified
Base Current of PNP Transistor using Common-Base Current Gain
Go
Verified
Base Current of PNP Transistor using Saturation Current
Go
Verified
Base Current using Saturation Current in DC
Go
Verified
Drain Current given Device Parameter
Go
Verified
Reference Current of BJT Mirror
Go
Verified
Reference Current of BJT Mirror given Collector Current
Go
Verified
Saturation Current using Doping Concentration
Go
Verified
Total Base Current
Go
2 More Base Current Calculators
Go
Basic Characteristics
(1)
Verified
Amount of Feedback Given Loop Gain
Go
3 More Basic Characteristics Calculators
Go
Basic Formulas in Statistics
(7)
Verified
Class Width of Data
Go
Verified
F Value of Two Samples
Go
Verified
F Value of Two Samples given Sample Standard Deviations
Go
Verified
Number of Classes given Class Width
Go
Verified
Number of Individual Values given Residual Standard Error
Go
Verified
P Value of Sample
Go
Verified
Sample Size given P Value
Go
11 More Basic Formulas in Statistics Calculators
Go
Basic Formulas of Thermodynamics
(1)
Verified
Degree of Freedom given Equipartition Energy
Go
15 More Basic Formulas of Thermodynamics Calculators
Go
Basics of Current Electricity
(2)
Verified
Drift Speed
Go
Verified
Drift Speed given Cross-Sectional Area
Go
7 More Basics of Current Electricity Calculators
Go
Basics of Electromagentic Induction
(5)
Verified
Current Value for Alternating Current
Go
Created
EMF Induced in Rotating Coil
Go
Verified
Power Factor
Go
Verified
Resonant Frequency for LCR Circuit
Go
Created
Total Flux in Mutual Inductance
Go
10 More Basics of Electromagentic Induction Calculators
Go
Basics of Image Processing
(4)
Verified
Digital Image Column
Go
Verified
Digital Image Row
Go
Verified
Number of Bits
Go
Verified
Number of Grey Level
Go
13 More Basics of Image Processing Calculators
Go
Beam Tube
(9)
Verified
Carrier Frequency in Spectral Line
Go
Verified
Plasma Frequency
Go
Verified
Power Generated in Anode Circuit
Go
Verified
Power Obtained from DC Power Supply
Go
Verified
Rectangular Microwave Pulse Peak Power
Go
Verified
Reduced Plasma Frequency
Go
Verified
Repeller Voltage
Go
Verified
Return Loss
Go
Verified
Skin Depth
Go
14 More Beam Tube Calculators
Go
Bending Moment in Spiral Spring
(8)
Verified
Bending Moment due to Force
Go
Verified
Bending Moment due to Force given Angle of Rotation of Arbor with Respect to Drum
Go
Verified
Bending Moment due to Force given Bending Stress induced in Spring
Go
Verified
Bending Moment due to Force given Deflection of one End of Spring
Go
Verified
Bending Moment given Strain Energy Stored in Spring
Go
Verified
Deflection of one End of Spring with Respect to Other End
Go
Verified
Distance of centre of Gravity of Spiral from outer end given Bending Moment due to Force
Go
Verified
Distance of centre of Gravity of Spiral from outer end given Deflection of one End of Spring
Go
BJT Microwave Devices
(11)
Verified
Base Collector Delay Time
Go
Verified
Base Resistance
Go
Verified
Base Transit Time
Go
Verified
Collector Base Capacitance
Go
Verified
Collector Charging Time
Go
Verified
Cut-off Frequency of Microwave
Go
Verified
Emitter Base Charging Time
Go
Verified
Emitter to Collector Delay Time
Go
Verified
Emitter to Collector Distance
Go
Verified
Maximum Frequency of Oscillations
Go
Verified
Saturation Drift Velocity
Go
4 More BJT Microwave Devices Calculators
Go
Block Brake
(12)
Verified
Actual Coefficient of Friction given Equivalent Coefficient of Friction
Go
Verified
Braking Torque when Brakes are Applied
Go
Verified
Coefficient of Friction given Braking Torque
Go
Verified
Distance from Center of Drum to Pivoted Shoe
Go
Verified
Equivalent Coefficient of Friction in Block Brake with Long Shoe
Go
Verified
Length of Block given Normal Reaction
Go
Verified
Normal Reaction Force
Go
Verified
Normal Reaction Force given Braking Torque
Go
Verified
Permissible Pressure between Block and Brake Drum given Normal Reaction
Go
Verified
Radius of Drum Brake given Braking Torque
Go
Verified
Radius of Drum given Distance from Center of Drum to Pivoted Shoe
Go
Verified
Width of Block given Normal Reaction Force
Go
Bolt Dimensions
(3)
Verified
Core Diameter of Bolt given Maximum Tensile Stress in Bolt
Go
Verified
Core Diameter of Bolt given Tensile Force on Bolt in Tension
Go
Verified
Nominal Diameter of Bolt given Diameter of Hole inside Bolt
Go
5 More Bolt Dimensions Calculators
Go
Buffer Solution
(3)
Verified
Buffer Capacity
Go
Verified
Maximum pH of Basic Buffer
Go
Verified
Maximum pOH of Acidic Buffer
Go
8 More Buffer Solution Calculators
Go
Butt Welds
(4)
Verified
Inner Diameter of Boiler given Thickness of Welded Boiler Shell
Go
Verified
Internal Pressure in Boiler given Thickness of Welded Boiler Shell
Go
Verified
Tensile Stress in Boiler Butt Weld given Thickness of Boiler Shell
Go
Verified
Thickness of Welded Boiler Shell given Stress in Weld
Go
12 More Butt Welds Calculators
Go
BW Extension and Signal Interference
(2)
Verified
Gain at Mid and High Frequencies
Go
Verified
Upper 3-DB Frequency of Feedback Amplifier
Go
3 More BW Extension and Signal Interference Calculators
Go
Capacitance
(4)
Created
Capacitance for Parallel RLC Circuit using Q Factor
Go
Created
Capacitance for Series RLC Circuit given Q Factor
Go
Created
Capacitance given Cut off Frequency
Go
Created
Capacitance using Time Constant
Go
Capacitance
(2)
Verified
Capacitance for Parallel Plate Capacitors with Dielectric between them
Go
Verified
Capacitor with Dielectric
Go
10 More Capacitance Calculators
Go
Cascode Ampifier
(2)
Verified
Drain Resistance of Cascode Amplifier
Go
Verified
Output voltage gain of MOS Cascode Amplifier
Go
3 More Cascode Ampifier Calculators
Go
Castigliano's Theorem for Deflection in Complex Structures
(14)
Verified
Cross-sectional Area of Rod given Strain Energy stored in Rod
Go
Verified
Force Applied on Rod given Strain Energy Stored in Tension Rod
Go
Verified
Length of Rod given Strain Energy Stored
Go
Verified
Length of Shaft given Strain Energy Stored in Shaft Subjected to Bending Moment
Go
Verified
Length of Shaft when Strain Energy in Shaft Subjected to External Torque
Go
Verified
Modulus of Elasticity given Strain Energy Stored in Shaft Subjected to Bending Moment
Go
Verified
Modulus of Elasticity of Rod given Strain Energy Stored
Go
Verified
Modulus of Rigidity of Rod given Strain Energy in Rod
Go
Verified
Moment of Inertia of Shaft when Strain Energy Stored in Shaft Subjected to Bending Moment
Go
Verified
Polar Moment of Inertia of Rod given Strain Energy in Rod
Go
Verified
Strain Energy in Rod when it is Subjected to External Torque
Go
Verified
Strain Energy Stored in Rod Subjected to Bending Moment
Go
Verified
Strain Energy Stored in Tension Rod
Go
Verified
Torque given Strain Energy in Rod Subjected to External Torque
Go
Cationic and Anionic Salt Hydrolysis
(5)
Verified
Concentration of Hydronium Ion in Salt of Weak Acid and Strong Base
Go
Verified
Concentration of Hydronium ion in Weak Base and Strong Acid
Go
Verified
Degree of Hydrolysis in Salt of Weak Acid and Strong Base
Go
Verified
Hydrolysis Constant in Strong Acid and Weak Base
Go
Verified
Hydrolysis Constant in Weak Acid and Strong Base
Go
8 More Cationic and Anionic Salt Hydrolysis Calculators
Go
Cellular Concepts
(13)
Verified
Average Calling Time
Go
Verified
Cell Radius
Go
Verified
Co-Channel Interference
Go
Verified
Frequency Reuse Distance
Go
Verified
Hamming Distance
Go
Verified
Maximum Calls per Hour per Cell
Go
Verified
New Cell Area
Go
Verified
New Cell Radius
Go
Verified
New Traffic Load
Go
Verified
Offered Load
Go
Verified
Old Cell Area
Go
Verified
Old Cell Radius
Go
Verified
Traffic Load
Go
3 More Cellular Concepts Calculators
Go
Charge Carrier Characteristics
(5)
Verified
Electrostatic Deflection Sensitivity of CRT
Go
Verified
Force on Current Element in Magnetic Field
Go
Verified
Holes Diffusion Constant
Go
Verified
Intrinsic Concentration
Go
Verified
Thermal Voltage using Einstein's Equation
Go
11 More Charge Carrier Characteristics Calculators
Go
Circumference of Circle
(1)
Verified
Circumference of Circle given Diameter
Go
4 More Circumference of Circle Calculators
Go
CMOS Circuit Characteristics
(15)
Verified
Area of Source Diffusion
Go
Verified
CMOS Critical Voltage
Go
Verified
CMOS Mean Free Path
Go
Verified
Critical Electric Field
Go
Verified
Depletion Region Width
Go
Verified
Effective Capacitance in CMOS
Go
Verified
Effective Channel Length
Go
Verified
Oxide Layer Thickness
Go
Verified
Permittivity of Oxide Layer
Go
Verified
PN Junction Length
Go
Verified
Sidewall Perimeter of Source Diffusion
Go
Verified
Transition Width of CMOS
Go
Verified
Voltage at Minimum EDP
Go
Verified
Width of Gate
Go
Verified
Width of Source Diffusion
Go
CMOS Delay Characteristics
(12)
Verified
Delay of 1-Bit Propagate Gates
Go
Verified
Delay of AND-OR Gate in Gray Cell
Go
Verified
Delay Rise
Go
Verified
Edge Rate
Go
Verified
Fall Time
Go
Verified
Normalized Delay
Go
Verified
Propagation Delay
Go
Verified
Propagation Delay without Parasitic Capacitance
Go
Verified
Rise Time
Go
Verified
Small Deviation Delay
Go
Verified
VCDL Gain
Go
Verified
Voltage-Controlled Delay Line
Go
1 More CMOS Delay Characteristics Calculators
Go
CMOS Design Characteristics
(24)
Verified
Adjacent Capacitance
Go
Verified
Agression Driver
Go
Verified
Agression Time Constant
Go
Verified
Agressor Voltage
Go
Verified
Branching Effort
Go
Verified
Built-in Potential
Go
Verified
Capacitance Offpath
Go
Verified
Capacitance Onpath
Go
Verified
Change in Frequency Clock
Go
Verified
Ground to Agression Capacitance
Go
Verified
Lock Voltage
Go
Verified
Off-Path Capacitance of CMOS
Go
Verified
Output Clock Phase
Go
Verified
Static Current
Go
Verified
Static Power Dissipation
Go
Verified
Thermal Voltage of CMOS
Go
Verified
Time Constant Ratio of Agression to Victim
Go
Verified
Total Capacitance Seen by Stage
Go
Verified
VCO Control Voltage
Go
Verified
VCO Offset Voltage
Go
Verified
VCO Single Gain Factor
Go
Verified
Victim Driver
Go
Verified
Victim Time Constant
Go
Verified
Victim Voltage
Go
CMOS Power Metrics
(15)
Verified
Activity Factor
Go
Verified
Contention Current in Ratioed Circuits
Go
Verified
Dynamic Power in CMOS
Go
Verified
Gate Leakage through Gate Dielectric
Go
Verified
Gates on Critical Path
Go
Verified
Leakage Energy in CMOS
Go
Verified
Output Switching at Load Power Consumption
Go
Verified
Short-Circuit Power in CMOS
Go
Verified
Static Power in CMOS
Go
Verified
Subthreshold Leakage through OFF Transistors
Go
Verified
Switching Energy in CMOS
Go
Verified
Switching Power
Go
Verified
Switching Power in CMOS
Go
Verified
Total Energy in CMOS
Go
Verified
Total Power in CMOS
Go
2 More CMOS Power Metrics Calculators
Go
CMOS Special Purpose Subsystem
(20)
Verified
Capacitance of External Load
Go
Verified
Change in Frequency of Clock
Go
Verified
Change in Phase of Clock
Go
Verified
Delay for Two Inverters in Series
Go
Verified
Fanout of Gate
Go
Verified
Feedback Clock PLL
Go
Verified
Gate Delay
Go
Verified
Input Clock Phase PLL
Go
Verified
Invertor Electric Effort 1
Go
Verified
Invertor Electric Effort 2
Go
Verified
Invertor Power
Go
Verified
Output Clock Phase PLL
Go
Verified
PLL Phase Detector Error
Go
Verified
Power Consumption of Chip
Go
Verified
Series Resistance from Die to Package
Go
Verified
Series Resistance from Package to Air
Go
Verified
Stage Effort
Go
Verified
Temperature Difference between Transistors
Go
Verified
Thermal Resistance between Junction and Ambient
Go
Verified
Transfer Function of PLL
Go
CMOS Time Characteristics
(16)
Verified
Acceptable MTBF
Go
Verified
Aperture Time for Falling Input
Go
Verified
Aperture Time for Rising Input
Go
Verified
Hold Time at High logic
Go
Verified
Hold Time at Low logic
Go
Verified
Initial Voltage of Node A
Go
Verified
Metastable Voltage
Go
Verified
Phase Detector Average Voltage
Go
Verified
Probability of Synchronizer Failure
Go
Verified
Setup Time at High Logic
Go
Verified
Setup Time at Low Logic
Go
Verified
Small Signal Offset Voltage
Go
Verified
XOR Phase Detector Current
Go
Verified
XOR Phase Detector Phase
Go
Verified
XOR Phase Detector Phase with reference to Detector Current
Go
Verified
XOR Phase Detector Voltage
Go
1 More CMOS Time Characteristics Calculators
Go
Coefficients
(1)
Verified
Coefficient of Variation Ratio
Go
6 More Coefficients Calculators
Go
Collector Current
(9)
Verified
Collector Current given Early Voltage for PNP Transistor
Go
Verified
Collector Current of BJT
Go
Verified
Collector Current of PNP Transistor
Go
Verified
Collector Current of PNP Transistor when Common-Emitter Current Gain
Go
Verified
Collector Current using Early Voltage for NPN Transistor
Go
Verified
Collector Current using Emitter Current
Go
Verified
Collector Current using Leakage Current
Go
Verified
Collector Current using Saturation Current
Go
Verified
Collector Current when Saturation Current due to DC Voltage
Go
1 More Collector Current Calculators
Go
Common Base Amplifier
(7)
Verified
Common Base Current Gain
Go
Verified
Emitter Current of Common-Base Amplifier
Go
Verified
Input Impedance of Common-Base Amplifier
Go
Verified
Input Resistance of Common-Base Circuit
Go
Verified
Negative Voltage Gain from Base to Collector
Go
Verified
Resistance of Emitter in Common-Base Amplifier
Go
Verified
Voltage Gain of Common-Base Amplifier
Go
1 More Common Base Amplifier Calculators
Go
Common Emitter Amplifier
(7)
Verified
Fundamental Voltage in Common-Emitter Amplifier
Go
Verified
Input Resistance of Common Emitter Amplifier
Go
Verified
Input Resistance of Common Emitter Amplifier given Small-Signal Input Resistance
Go
Verified
Input Resistance of Common-Emitter Amplifier given Emitter Resistance
Go
Verified
Overall Feedback Voltage Gain of Common-Collector Amplifier
Go
Verified
Overall Feedback Voltage Gain of Common-Emitter Amplifier
Go
Verified
Overall Voltage Gain of Common-Emitter Amplifier
Go
1 More Common Emitter Amplifier Calculators
Go
Common Mode Rejection Ratio (CMRR)
(9)
Verified
Common-Mode Input Signal of MOSFET
Go
Verified
Common-Mode Rejection Ratio of MOS Controlled Source Transistor
Go
Verified
Common-Mode Rejection Ratio of MOS with Current-Mirror Load
Go
Verified
Common-Mode Rejection Ratio of MOS with Current-Mirror Load when Resistance at Drains are Equal
Go
Verified
Common-Mode Rejection Ratio of MOSFET
Go
Verified
Common-Mode Rejection Ratio of MOSFET given Resistance
Go
Verified
Common-Mode Rejection Ratio of MOSFET in Decibels
Go
Verified
Common-Mode Rejection Ratio of MOSFET when Transconductance Mismatches
Go
Verified
Common-Mode Signal of MOSFET given Output Voltage at Drain Q2
Go
1 More Common Mode Rejection Ratio (CMRR) Calculators
Go
Common Source Amplifier
(5)
Verified
Emitter Voltage with respect to Voltage Gain
Go
Verified
Load Voltage of CS Amplifier
Go
Verified
Open-Circuit Voltage Gain of CS Amplifier
Go
Verified
Overall Feedback Voltage Gain of Common-Source Amplifier
Go
Verified
Overall Voltage Gain of Source Follower
Go
6 More Common Source Amplifier Calculators
Go
Concentration Terms
(8)
Verified
Molarity
Go
Verified
Molarity using Molality
Go
Verified
Molarity using Mole Fraction
Go
Verified
Mole Fraction of Solute
Go
Verified
Mole Fraction of Solvent
Go
Verified
Mole Fraction using Molality
Go
Verified
Mole Fraction using Molarity
Go
Verified
Number of Moles of Solute using Molarity
Go
14 More Concentration Terms Calculators
Go
Concentric Springs
(10)
Verified
Axial Force transmitted by Outer Spring
Go
Verified
Cross-Sectional Area of Inner Spring given Axial force transmitted
Go
Verified
Cross-sectional Area of Inner Spring Wire
Go
Verified
Cross-sectional Area of Outer Spring given Axial force transmitted
Go
Verified
Cross-sectional Area of Outer Spring Wire
Go
Verified
Radial Clearance between Concentric Springs
Go
Verified
Wire Diameter of Inner Spring given Axial Force transmitted by Outer Spring
Go
Verified
Wire Diameter of Inner Spring given Radial Clearance between Springs
Go
Verified
Wire Diameter of Outer Spring given Axial Force transmitted by Outer Spring
Go
Verified
Wire Diameter of Outer Spring given Radial Clearance between Springs
Go
1 More Concentric Springs Calculators
Go
Continuous Conduction Mode
(3)
Verified
Duty Cycle for Buck Regulator (CCM)
Go
Verified
Input Voltage for Buck Regulator (CCM)
Go
Verified
Output Voltage for Buck Regulator (CCM)
Go
Continuous Conduction Mode
(3)
Verified
Duty Cycle for Boost Regulator (CCM)
Go
Verified
Input Voltage for Boost Regulator (CCM)
Go
Verified
Output Voltage for Boost Regulator (CCM)
Go
Continuous Conduction Mode
(3)
Verified
Duty Cycle for Buck-Boost Regulator (CCM)
Go
Verified
Input Voltage for Buck-Boost Regulator (CCM)
Go
Verified
Output Voltage for Buck-Boost Regulator (CCM)
Go
Core Design Parameters
(28)
Verified
Actual Number of Teeth on Gear given Virtual Number of Teeth
Go
Verified
Addendum Circle Diameter of Gear
Go
Verified
Addendum Circle Diameter of Gear given Pitch Circle Diameter
Go
Verified
Addendum of Gear given Addendum Circle Diameter
Go
Verified
Angular Velocity of Gear given Speed Ratio
Go
Verified
Angular Velocity of Pinion given Speed Ratio
Go
Verified
Center to Center distance between Two Gears
Go
Verified
Dedendum Circle Diameter of Gear given Pitch Circle Diameter
Go
Verified
Normal Module of Helical Gear
Go
Verified
Normal Module of Helical Gear given Addendum Circle Diameter
Go
Verified
Normal Module of Helical Gear given Center to Center Distance between Two Gears
Go
Verified
Normal Module of Helical Gear given Pitch Circle Diameter
Go
Verified
Normal Module of Helical Gear given Virtual Number of Teeth
Go
Verified
Number of Teeth on First Gear given Center to Center Distance between Two Gears
Go
Verified
Number of Teeth on Gear given Addendum Circle Diameter
Go
Verified
Number of Teeth on Gear given Pitch Circle Diameter
Go
Verified
Number of Teeth on Helical Gear given Speed Ratio for Helical Gears
Go
Verified
Number of Teeth on Pinion given Speed Ratio
Go
Verified
Number of Teeth on Second Helical Gear given Center to Center Distance between Two Gears
Go
Verified
Pitch Circle Diameter of Gear given Addendum Circle Diameter
Go
Verified
Pitch Circle Diameter of Gear given Dedendum Circle Diameter
Go
Verified
Pitch Circle Diameter of Gear given Radius of Curvature at Point
Go
Verified
Pitch Circle Diameter of Helical Gear
Go
Verified
Speed Ratio for Helical Gears
Go
Verified
Transverse Module of Helical Gear given Normal Module
Go
Verified
Transverse Module of Helical Gear given Transverse Diametrical Pitch
Go
Verified
Virtual Number of Teeth on Helical Gear
Go
Verified
Virtual Number of Teeth on Helical Gear given Actual Number of Teeth
Go
Crossed Belt Drives
(5)
Verified
Belt Length for Cross Belt Drive
Go
Verified
Center Distance given Wrap Angle for Small Pulley of Cross Belt Drive
Go
Verified
Diameter of Big Pulley given Wrap Angle for Small Pulley of Cross Belt Drive
Go
Verified
Diameter of Small Pulley given Wrap Angle for Small Pulley of Cross Belt Drive
Go
Verified
Wrap Angle for Small Pulley of Cross Belt Drive
Go
Cuk Regulator
(3)
Verified
Duty Cycle for Cuk Regulator
Go
Verified
Input Voltage for Cuk Regulator
Go
Verified
Output Voltage for Cuk Regulator
Go
Current
(4)
Created
Armature Current of Shunt DC Motor given Input Power
Go
Created
Armature Current of Shunt DC Motor given Torque
Go
Created
Armature Current of Shunt DC Motor given Voltage
Go
Created
Field Current of DC Shunt Motor
Go
Current
(3)
Created
Armature Current for DC Shunt Generator
Go
Created
Field Current of DC Shunt Generator
Go
Created
Field Current of DC Shunt Generator given Load Current
Go
Current
(6)
Created
Current using Complex Power
Go
Created
Current using Power Factor
Go
Created
Electric Current using Reactive Power
Go
Created
Electric Current using Real Power
Go
Created
RMS Current using Reactive Power
Go
Created
RMS Current using Real Power
Go
Current
(4)
Created
Armature Current given Power in Induction Motor
Go
Created
Field Current using Load Current in Induction Motor
Go
Created
Load Current in Induction Motor
Go
Created
Rotor Current in Induction Motor
Go
1 More Current Calculators
Go
Current
(6)
Created
Primary Current given Primary Leakage Reactance
Go
Created
Primary Current given Voltage Transformation Ratio
Go
Created
Primary Current using Primary Parameters
Go
Created
Secondary Current given Secondary Leakage Reactance
Go
Created
Secondary Current given Voltage Transformation Ratio
Go
Created
Secondary Current using Secondary Parameters
Go
Current
(5)
Created
Armature Current of Series DC Generator given Output Power
Go
Created
Armature Current of Series DC Generator given Torque
Go
Created
Armature Current of Series DC Generator using Terminal Voltage
Go
Created
Load Current of Series DC Generator given Load Power
Go
Created
Load Current of Series DC Generator given Output Power
Go
Current
(4)
Created
Armature Current of Series DC Motor
Go
Created
Armature Current of Series DC Motor given Input Power
Go
Created
Armature Current of Series DC Motor given Speed
Go
Created
Armature Current of Series DC Motor using Voltage
Go
Current
(5)
Created
Armature Current of Synchronous Motor given 3 Phase Mechanical Power
Go
Created
Armature Current of Synchronous Motor given Input Power
Go
Created
Armature Current of Synchronous Motor given Mechanical Power
Go
Created
Load Current of Synchronous Motor given 3 Phase Mechanical Power
Go
Created
Load Current of Synchronous Motor using 3 Phase Input Power
Go
Current
(6)
Verified
Drain Current in Load Line
Go
Verified
Drain Current without Channel-Length Modulation of MOSFET
Go
Verified
Drain Saturation Current of MOSFET
Go
Verified
First Drain Current of MOSFET on Large-Signal Operation
Go
Verified
First Drain Current of MOSFET on Large-Signal Operation given Overdrive Voltage
Go
Verified
Second Drain Current of MOSFET on Large-Signal Operation
Go
6 More Current Calculators
Go
Current
(14)
Created
A-Phase Current using A-Phase Voltage(LGF)
Go
Created
A-Phase Current using Negative Sequence Current (LGF)
Go
Created
A-Phase Current using Positive Sequence Current (LGF)
Go
Created
A-Phase Current using Zero Sequence Current (LGF)
Go
Created
Negative Sequence Current for L-G-F
Go
Created
Negative Sequence Current using A-Phase Current (LGF)
Go
Created
Negative Sequence Current using A-Phase EMF (LGF)
Go
Created
Positive Sequence Current for L-G-F
Go
Created
Positive Sequence Current using A-Phase Current (LGF)
Go
Created
Positive Sequence Current using A-Phase EMF (LGF)
Go
Created
Positive Sequence Current using Fault Impedance(LGF)
Go
Created
Zero Sequence Current for L-G-F
Go
Created
Zero Sequence Current using A-Phase Current (LGF)
Go
Created
Zero Sequence Current using A-Phase EMF (LGF)
Go
5 More Current Calculators
Go
Current
(6)
Created
B-Phase Current (LLF)
Go
Created
B-Phase Current using Fault Impedance (LLF)
Go
Created
C-Phase Current using Fault Impedance (LLF)
Go
Created
C-Phase Current(LLF)
Go
Created
Negative Sequence Current(LLF)
Go
Created
Positive Sequence Current (LLF)
Go
4 More Current Calculators
Go
Current
(10)
Created
B-Phase Current (LLGF)
Go
Created
C-Phase Current (LLGF)
Go
Created
Fault Current (LLGF)
Go
Created
Fault Current using B-Phase Voltage (LLGF)
Go
Created
Fault Current using C-Phase Voltage (LLGF)
Go
Created
Negative Sequence Current using Negative Sequence Voltage (LLGF)
Go
Created
Positive Sequence Current using Positive Sequence Voltage (LLGF)
Go
Created
Zero Sequence Current using B-Phase Voltage (LLGF)
Go
Created
Zero Sequence Current using C-Phase Voltage (LLGF)
Go
Created
Zero Sequence Current using Zero Sequence Voltage (LLGF)
Go
6 More Current Calculators
Go
Current
(9)
Created
Receiving End Current using Impedance (STL)
Go
Created
Receiving End Current using Losses (STL)
Go
Created
Receiving End Current using Receiving End Power (STL)
Go
Created
Receiving End Current using Sending End Angle (STL)
Go
Created
Receiving End Current using Transmission Efficiency (STL)
Go
Created
Sending End Current using Losses (STL)
Go
Created
Sending End Current using Sending End Power (STL)
Go
Created
Sending End Current using Transmission Efficiency (STL)
Go
Created
Transmitted Current (SC Line)
Go
Current and Voltage
(5)
Created
Load Current(Two-Wire One Conductor Earthed)
Go
Created
Maximum Voltage using K(Two-Wire One Conductor Earthed)
Go
Created
Maximum Voltage using Line Losses(Two-Wire One Conductor Earthed)
Go
Created
Maximum Voltage using Load Current(Two-Wire One Conductor Earthed)
Go
Created
Maximum Voltage using Volume(Two-Wire One Conductor Earthed)
Go
Current and Voltage
(6)
Created
Load Current using Line Losses(Two-Wire Mid-Point Earthed)
Go
Created
Load Current(Two-Wire Mid-Point Earthed)
Go
Created
Maximum Voltage (Two-Wire Mid-Point Earthed)
Go
Created
Maximum Voltage using Line Losses(Two-Wire Mid-Point Earthed)
Go
Created
Maximum Voltage using Load Current(Two-Wire Mid-Point Earthed)
Go
Created
Maximum Voltage using Volume of Conductor Material(2-Wire Mid-Point Earthed OS)
Go
Current and Voltage
(8)
Created
Load Current using Area of X-Section(DC 3-Wire)
Go
Created
Load Current using Line Losses(DC 3-Wire)
Go
Created
Load Current(DC 3-Wire)
Go
Created
Maximum Power using Constant(DC 3-Wire)
Go
Created
Maximum Power using Load Current(DC 3-Wire)
Go
Created
Maximum Voltage using Area of X-Section(DC 3-Wire)
Go
Created
Maximum Voltage using Line Losses(DC 3-Wire)
Go
Created
Maximum Voltage using Volume of Conductor Material (DC 3-Wire)
Go
Current and Voltage
(7)
Created
Load Current using Area of X-Section(Single Phase Two Wire OS)
Go
Created
Load Current using Line Losses (Single Phase Two Wire OS)
Go
Created
Load Current(Single Phase Two Wire OS)
Go
Created
Maximum Voltage using Area of X-Section(Single Phase Two Wire OS)
Go
Created
Maximum Voltage using Load Current (Single Phase Two Wire OS)
Go
Created
RMS Voltage using Area of X-Section(Single Phase Two Wire OS)
Go
Created
RMS Voltage using Load Current (Single Phase Two Wire OS)
Go
Current and Voltage
(8)
Created
Load Current(Single-Phase Two-Wire Mid-Point Earthed)
Go
Created
Maximum Voltage using Area of X-section(Single-Phase Two-Wire Mid-Point Earthed OS)
Go
Created
Maximum Voltage using Line Losses (Single-Phase Two-Wire Mid-Point OS)
Go
Created
Maximum Voltage using Load Current (Single-Phase Two-Wire Mid-Point OS)
Go
Created
Maximum Voltage(Single-Phase Two-Wire Mid-Point Earthed)
Go
Created
RMS Voltage using Area of X-Section(Single-Phase Two-Wire Mid-Point Earthed OS)
Go
Created
RMS Voltage using Line Losses (Single-Phase Two-Wire Mid-Point OS)
Go
Created
RMS Voltage using Load Current (Single-Phase Two-Wire Mid-Point OS)
Go
Current and Voltage
(11)
Created
Load Current using Area of X-Section(Single-Phase Three-Wire OS)
Go
Created
Load Current using Line Losses (Single-Phase Three-Wire OS)
Go
Created
Load Current(Single-Phase Three-Wire OS)
Go
Created
Maximum Voltage using Area of X-Section(Single-Phase Three-Wire OS)
Go
Created
Maximum Voltage using Line Losses (Single-Phase Three-Wire OS)
Go
Created
Maximum Voltage using Load Current (Single-Phase Three-Wire OS)
Go
Created
Maximum Voltage using Volume of Conductor Material (Single-Phase Three-Wire OS)
Go
Created
Maximum Voltage(Single-Phase Three-Wire OS)
Go
Created
RMS Voltage using Area of X-Section(Single-Phase Three-Wire OS)
Go
Created
RMS Voltage using Line Losses (Single-Phase Three-Wire OS)
Go
Created
RMS Voltage using Load Current (Single-Phase Three-Wire OS)
Go
Current and Voltage
(10)
Created
Load Current using Area of X-Section(2-Phase 4-Wire OS)
Go
Created
Load Current using Line Losses (2-Phase 4-Wire OS)
Go
Created
Load Current(2-Phase 4-Wire OS)
Go
Created
Maximum Voltage using Area of X-Section(2-Phase 4-Wire OS)
Go
Created
Maximum Voltage using Line Losses (2-Phase 4-Wire OS)
Go
Created
Maximum Voltage using Load Current (2-Phase 4-Wire OS)
Go
Created
Maximum Voltage(2-Phase 4-Wire OS)
Go
Created
RMS Voltage using Area of X-Section(2-Phase 4-Wire OS)
Go
Created
RMS Voltage using Line Losses (2-Phase 4-Wire OS)
Go
Created
RMS Voltage using Load Current (2-Phase 4-Wire OS)
Go
Current and Voltage
(8)
Created
Load Current(3-Phase 3-Wire OS)
Go
Created
Maximum Voltage using Area of X-Section(3-Phase 3-Wire OS)
Go
Created
Maximum Voltage using Load Current(3-Phase 3-Wire OS)
Go
Created
Maximum Voltage(3-Phase 3-Wire OS)
Go
Created
Resistance(3-Phase 3-Wire OS)
Go
Created
Resistivity using Area of X-Section(3-Phase 3-Wire OS)
Go
Created
RMS Voltage using Area of X-Section(3-Phase 3-Wire OS)
Go
Created
RMS Voltage using Load Current(3-Phase 3-Wire OS)
Go
Current and Voltage
(7)
Created
Load Current(3-Phase 4-Wire OS)
Go
Created
Maximum Voltage using Area of X-Section(3-Phase 4-Wire OS)
Go
Created
Maximum Voltage using Load Current (3-Phase 4-Wire OS)
Go
Created
Maximum Voltage using Volume of Conductor Material (3-Phase 4-Wire OS)
Go
Created
Maximum Voltage(3-Phase 4-Wire OS)
Go
Created
RMS Voltage using Area of X-Section(3-Phase 4-Wire OS)
Go
Created
RMS Voltage using Load Current (3-Phase 4-Wire OS)
Go
Current and Voltage
(12)
Created
Load Current in Each Outer (Two-Phase Three-Wire OS)
Go
Created
Load Current of Neutral Wire (Two-Phase Three-Wire OS)
Go
Created
Load Current using Area of X-Section(Two-Phase Three-Wire OS)
Go
Created
Load Current(Two-Phase Three-Wire OS)
Go
Created
Maximum Voltage using Area of X-Section(Two-Phase Three-Wire OS)
Go
Created
Maximum Voltage using Line Losses (Two-Phase Three-Wire OS)
Go
Created
Maximum Voltage using Load Current (Two-Phase Three-Wire OS)
Go
Created
Maximum Voltage using Volume of Conductor Material (Two-Phase Three-Wire OS)
Go
Created
Maximum Voltage(Two-Phase Three-Wire OS)
Go
Created
RMS Voltage using Area of X-Section(Two-Phase Three-Wire OS)
Go
Created
RMS Voltage using Line Losses (Two-Phase Three-Wire OS)
Go
Created
RMS Voltage using Load Current (Two-Phase Three-Wire OS)
Go
Current and Voltage
(17)
Created
Load Current (1-Phase 2-Wire US)
Go
Created
Load Current using Constant (1-Phase 2-Wire US)
Go
Created
Load Current using Line Losses (1-Phase 2-Wire US)
Go
Created
Load Current using Resistance (1-Phase 2-Wire US)
Go
Created
Maximum Voltage using Area of X-Section (1-Phase 2-Wire US)
Go
Created
Maximum Voltage using Constant (1-Phase 2-Wire US)
Go
Created
Maximum Voltage using Line Losses (1-Phase 2-Wire US)
Go
Created
Maximum Voltage using Load Current (1-Phase 2-Wire US)
Go
Created
Maximum Voltage using Resistance (1-Phase 2-Wire US)
Go
Created
Maximum Voltage using Volume of Conductor Material (1-Phase 2-Wire US)
Go
Created
RMS Voltage using Area of X-Section (1-Phase 2-Wire US)
Go
Created
RMS Voltage using Constant (1-Phase 2-Wire US)
Go
Created
RMS Voltage using Line Losses (1-Phase 2-Wire US)
Go
Created
RMS Voltage using Load Current (1-Phase 2-Wire US)
Go
Created
RMS Voltage using Resistance (1-Phase 2-Wire US)
Go
Created
RMS Voltage using Volume of Conductor Material (1-Phase 2-Wire US)
Go
Created
RMS Voltage(1-Phase 2-Wire US)
Go
Current and Voltage
(1)
Verified
Emitter Current of BJT Differential Amplifier
Go
10 More Current and Voltage Calculators
Go
Current and Voltage
(5)
Created
Receiving End Current using Sending End Current (LTL)
Go
Created
Receiving End Current using Sending End Voltage (LTL)
Go
Created
Receiving End Voltage using Sending End Current (LTL)
Go
Created
Sending End Current (LTL)
Go
Created
Sending End Voltage (LTL)
Go
Current and Voltage
(7)
Created
Load Current (3 Phase 4 Wire US)
Go
Created
Load Current using Line Losses (3 Phase 4 Wire US)
Go
Created
Load Current using Volume of Conductor Material (3 Phase 4 Wire US)
Go
Created
Maximum Voltage using Area of X-Section (3 Phase 4 Wire US)
Go
Created
Maximum Voltage using Line Losses (3 Phase 4 Wire US)
Go
Created
Maximum Voltage using Load Current (3 Phase 4 Wire US)
Go
Created
Maximum Voltage using Volume of Conductor Material (3 Phase 4 Wire US)
Go
Current and Voltage
(14)
Created
Current using Line Losses (3-Phase 3-Wire US)
Go
Created
Load Current Per Phase (3-Phase 3-Wire US)
Go
Created
Load Current using Line Losses (DC Three-Wire US)
Go
Created
Maximum Voltage between Each Phase and Neutral (3-Phase 3-Wire US)
Go
Created
Maximum Voltage using Area of X-Section (3-Phase 3-Wire US)
Go
Created
Maximum Voltage using Area of X-Section (DC Three-Wire US)
Go
Created
Maximum Voltage using Line Losses (DC Three-Wire US)
Go
Created
Maximum Voltage using Load Current Per Phase (3-Phase 3-Wire US)
Go
Created
Maximum Voltage using RMS Voltage Per Phase (3-Phase 3-Wire US)
Go
Created
Maximum Voltage using Volume of Conductor Material (3-Phase 3-Wire US)
Go
Created
Maximum Voltage using Volume of Conductor Material(DC Three-Wire US)
Go
Created
RMS Voltage Per Phase (3-Phase 3-Wire US)
Go
Created
RMS Voltage using Area of X-Section (3-Phase 3-Wire US)
Go
Created
RMS Voltage using Load Current Per Phase (3-Phase 3-Wire US)
Go
Current and Voltage
(14)
Created
Current in Each Outer (2-Phase 3-Wire US)
Go
Created
Current in Each Outer using Current in Neutral Wire (2-Phase 3-Wire US)
Go
Created
Current in Neutral Wire (2-Phase 3-Wire US)
Go
Created
Current in Neutral Wire using Current in Each Outer (2-Phase 3-Wire US)
Go
Created
Maximum Phase Voltage between Outer and Neutral Wire (2-Phase 3-Wire US)
Go
Created
Maximum Voltage using Current in Each Outer (2-Phase 3-Wire US)
Go
Created
Maximum Voltage using Current in Neutral Wire (2-Phase 3-Wire US)
Go
Created
Maximum Voltage using Line Losses (2-Phase 3-Wire US)
Go
Created
Maximum Voltage using RMS Voltage between Outer and Neutral Wire (2-Phase 3-Wire US)
Go
Created
Maximum Voltage using Volume of Conductor Material (2-phase 3-wire US)
Go
Created
RMS Voltage between Outer and Neutral Wire (2-Phase 3-Wire US)
Go
Created
RMS Voltage using Current in Each Outer (2-Phase 3-Wire US)
Go
Created
RMS Voltage using Current in Neutral Wire (2-Phase 3-Wire US)
Go
Created
RMS Voltage using Line Losses (2-Phase 3-Wire US)
Go
Current and Voltage
(10)
Created
Load Current using Area of X-section (1 Phase 3 Wire US)
Go
Created
Load Current using Line Losses (1 Phase 3 Wire US)
Go
Created
Maximum Voltage using Area of X-section (1 Phase 3 Wire US)
Go
Created
Maximum Voltage using Line Losses (1 Phase 3 Wire US)
Go
Created
Maximum Voltage using Load Current (1 Phase 3 Wire US)
Go
Created
Maximum Voltage using Volume of Conductor Material(1 Phase 3 Wire US)
Go
Created
RMS Voltage using Area of X-section (1 Phase 3 Wire US)
Go
Created
RMS Voltage using Line Losses (1 Phase 3 Wire US)
Go
Created
RMS Voltage using Load Current (1 Phase 3 Wire US)
Go
Created
RMS Voltage using Volume of Conductor Material(1 Phase 3 Wire US)
Go
Current and Voltage
(8)
Created
Load Current (1-Phase 2-Wire Mid-Point Earthed)
Go
Created
Load Current using Line Losses (1-Phase 2-Wire Mid-Point Earthed)
Go
Created
Maximum Voltage using Area of X-Section (1-Phase 2-Wire Mid-Point Earthed)
Go
Created
Maximum Voltage using Line Losses (1-Phase 2-Wire Mid-Point Earthed)
Go
Created
Maximum Voltage using Load Current (1-Phase 2-Wire Mid-Point Earthed)
Go
Created
RMS Voltage using Area of X-Section (1-Phase 2-Wire Mid-Point Earthed)
Go
Created
RMS Voltage using Line Losses (1-Phase 2-Wire Mid-Point Earthed)
Go
Created
RMS Voltage using Load Current (1-Phase 2-Wire Mid-Point Earthed)
Go
Current and Voltage
(10)
Created
Load Current (2 Phase 4 Wire US)
Go
Created
Load Current using Area of X-Section (2 Phase 4 Wire US)
Go
Created
Load Current using Line Losses (2 Phase 4 Wire US)
Go
Created
Load Current using Volume of Conductor Material (2 Phase 4 Wire US)
Go
Created
Maximum Voltage using Area of X-Section (2 Phase 4 Wire US)
Go
Created
Maximum Voltage using Line Losses (2 Phase 4 Wire US)
Go
Created
Maximum Voltage using Load Current (2 Phase 4 Wire US)
Go
Created
RMS Voltage using Area of X-Section (2 Phase 4 Wire US)
Go
Created
RMS Voltage using Line Losses (2 Phase 4 Wire US)
Go
Created
RMS Voltage using Load Current (2 Phase 4 Wire US)
Go
Current and Voltage
(5)
Created
Load Current (2-Wire Mid-Point DC US)
Go
Created
Maximum Voltage using Area of X-Section (2-Wire Mid-Point Earthed DC US)
Go
Created
Maximum Voltage using Load Current (2-Wire Mid-Point DC US)
Go
Created
Maximum Voltage using Volume of Conductor Material (2-Wire Mid-Point DC US)
Go
Created
RMS Voltage using Area of X-Section (2-Wire Mid-Point Earthed DC US)
Go
Current and Voltage
(3)
Created
Load Current using Line Losses (DC Two-Wire US)
Go
Created
Maximum Voltage using Area of X-Section (DC Two-Wire US)
Go
Created
Maximum Voltage using Line Losses (DC Two-Wire US)
Go
Current Feedback Amplifiers
(2)
Verified
Input Resistance with Feedback Current Amplifier
Go
Verified
Output Resistance with Feedback Current Amplifier
Go
Data Analysis
(15)
Verified
Actual S by N Ratio at Output
Go
Verified
Average Duration of Fade
Go
Verified
Capability of Error Correction Bits
Go
Verified
Coding Noise
Go
Verified
Expected Number of Transmission
Go
Verified
Expected One Transmission(E1)
Go
Verified
Header Bits
Go
Verified
Information Bits
Go
Verified
Input Waveform
Go
Verified
Number of Bits Per Word
Go
Verified
Success Probability
Go
Verified
Undetected Error Probability per Single-Word Message
Go
Verified
Undetected Probability per Word
Go
Verified
Unsuccess Probability
Go
Verified
Word Error Rate
Go
DC Circuits
(1)
Created
Voltage in DC Circuit
Go
16 More DC Circuits Calculators
Go
DC Circuits
(2)
Verified
Line Voltage
Go
Verified
Voltage Division Ratio
Go
4 More DC Circuits Calculators
Go
DC Generator Characteristics
(13)
Created
Armature Current of DC Generator given Power
Go
Created
Armature Power in DC Generator
Go
Created
Armature Resistance of DC Generator using Output Voltage
Go
Created
Back EMF of DC Generator given Flux
Go
Created
Converted Power in DC Generator
Go
Created
Core Losses of DC Generator given Converted Power
Go
Created
EMF for DC Generator for Wave Winding
Go
Created
Field Copper Loss in DC Generator
Go
Created
Induced Armature Voltage of DC Generator given Converted Power
Go
Created
Mechanical Efficiency of DC Generator using Armature Voltage
Go
Created
Output Voltage in DC Generator using Converted Power
Go
Created
Power Drop in Brush DC Generator
Go
Created
Stray Losses of DC Generator given Converted Power
Go
4 More DC Generator Characteristics Calculators
Go
DC Machine Characterstics
(13)
Created
Angular Speed of DC Machine using Kf
Go
Created
Armature Induced Voltage of DC Machine given Kf
Go
Created
Back EMF of DC Generator
Go
Created
Back Pitch for DC Machine
Go
Verified
Back Pitch for DC Machine given Coil Span
Go
Verified
Coil Span of DC Motor
Go
Created
Design Constant of DC Machine
Go
Created
Electrical Efficiency of DC Machine
Go
Created
EMF Generated in DC Machine with Lap Winding
Go
Created
Front Pitch for DC Machine
Go
Created
Input Power of DC Motor
Go
Created
Magnetic Flux of DC Machine given Torque
Go
Created
Output Power of DC Machine
Go
3 More DC Machine Characterstics Calculators
Go
DC Motor Characteristics
(23)
Created
Angular Speed given Electrical Efficiency of DC Motor
Go
Created
Armature Current given Electrical Efficiency of DC Motor
Go
Created
Armature Current of DC Motor
Go
Created
Armature Torque given Electrical Efficiency of DC Motor
Go
Created
Armature Torque given Mechanical Efficiency of DC Motor
Go
Created
Constant Losses given Mechanical Loss
Go
Created
Converted Power given Electrical Efficiency of DC Motor
Go
Created
Core Loss given Mechanical Loss of DC Motor
Go
Created
DC Motor Frequency given Speed
Go
Created
Electrical Efficiency of DC Motor
Go
Created
Input Power given Electrical Efficiency of DC Motor
Go
Created
Magnetic Flux of DC Motor
Go
Created
Mechanical Efficiency of DC Motor
Go
Created
Mechanical Power Developed in DC Motor given Input Power
Go
Created
Motor Speed of DC Motor given Flux
Go
Created
Motor Torque given Mechanical Efficiency of DC Motor
Go
Created
Motor Torque of Series DC Motor given Machine Constant
Go
Created
Output Power given Overall Efficiency of DC Motor
Go
Created
Overall Efficiency of DC Motor
Go
Created
Overall Efficiency of DC Motor given Input Power
Go
Created
Supply Voltage given Electrical Efficiency of DC Motor
Go
Created
Supply Voltage given Overall Efficiency of DC Motor
Go
Created
Total Power Loss given Overall Efficiency of DC Motor
Go
3 More DC Motor Characteristics Calculators
Go
DC Offset
(1)
Verified
Input Offset Voltage of BJT Differential Amplifier
Go
3 More DC Offset Calculators
Go
De Broglie Hypothesis
(1)
Verified
De Brogile Wavelength
Go
15 More De Broglie Hypothesis Calculators
Go
Density for Gases
(3)
Verified
Mass of Gas using Vapor Density
Go
Verified
Specific Gravity
Go
Verified
Vapour Density of Gas using Mass
Go
14 More Density for Gases Calculators
Go
Design of Hollow Shaft
(18)
Verified
Angle of Twist of Hollow Shaft on Basis of Torsional Rigidity
Go
Verified
Axial Tensile Force given Tensile Stress in Hollow Shaft
Go
Verified
Inner Diameter of Hollow Shaft given Ratio of Diameters
Go
Verified
Length of Shaft given Angle of Twist of Hollow Shaft on Basis of Torsional Rigidity
Go
Verified
Modulus of Rigidity given Angle of Twist of Hollow Shaft on basis of Torsional Rigidity
Go
Verified
Outer Diameter given Ratio of Diameters
Go
Verified
Outer Diameter of Hollow Shaft given Angle of Twist Torsional Rigidity
Go
Verified
Outer Diameter of Hollow Shaft given Principle Stress
Go
Verified
Outer Diameter of Shaft given Torsional Shear Stress
Go
Verified
Principle Stress Maximum Principle Stress Theory
Go
Verified
Ratio of Diameter given Torsional Shear Stress in Hollow Shaft
Go
Verified
Ratio of Diameters given Angle of Twist of Hollow Shaft and Torsional Rigidity
Go
Verified
Ratio of Diameters given Bending Stress of Hollow Shaft
Go
Verified
Ratio of Diameters given Principle Stress
Go
Verified
Ratio of Diameters given Tensile Stress in Hollow Shaft
Go
Verified
Ratio of Inner Diameter to Outer Diameter
Go
Verified
Torsional Moment given Angle of Twist on Basis of Torsional Rigidity
Go
Verified
Torsional Moment given Torsional Shear Stress in Hollow Shaft
Go
6 More Design of Hollow Shaft Calculators
Go
Design of Kennedy Key
(9)
Verified
Compressive Stress in Kennedy Key
Go
Verified
Diameter of Shaft given Compressive Stress in Kennedy Key
Go
Verified
Diameter of Shaft given Shear Stress in Kennedy Key
Go
Verified
Length of Kennedy Key given Compressive Stress in Key
Go
Verified
Length of Kennedy Key given Shear Stress in Key
Go
Verified
Shear Stress in Kennedy Key
Go
Verified
Torque Transmitted by Kennedy Key given Compressive Stress in Key
Go
Verified
Torque Transmitted by Kennedy Key given Shear Stress in Key
Go
Verified
Width of Key given Compressive Stress in Key
Go
Design of Screw and Nut
(6)
Verified
Core Diameter of Power Screw
Go
Verified
Helix Angle of Thread
Go
Verified
Mean Diameter of Power Screw
Go
Verified
Nominal Diameter of Power Screw
Go
Verified
Pitch of Power Screw
Go
Verified
Pitch of Screw given Mean Diameter
Go
27 More Design of Screw and Nut Calculators
Go
Design of Solid Shaft
(1)
Verified
Polar Moment of Inertia of Solid Circular Shaft
Go
Design of Splines
(9)
Verified
Major Diameter of Spline given Mean Radius
Go
Verified
Mean Radius of Splines
Go
Verified
Mean Radius of Splines given Torque Transmitting Capacity
Go
Verified
Minor Diameter of Spline given Mean Radius
Go
Verified
Permissible Pressure on Splines given Torque Transmitting Capacity
Go
Verified
Torque Transmitting Capacity of Splines
Go
Verified
Torque Transmitting Capacity of Splines given Diameter of Splines
Go
Verified
Total Area of Splines
Go
Verified
Total Area of Splines given Torque Transmitting Capacity
Go
Design of Square and Flat Keys
(13)
Verified
Compressive Stress in Key
Go
Verified
Compressive Stress in Square Key due to Transmitted Torque
Go
Verified
Force on Key
Go
Verified
Height of Key given Compressive Stress in Key
Go
Verified
Length of Key given Compressive Stress in Key
Go
Verified
Length of Key given Shear Stress
Go
Verified
Shaft Diameter given Compressive Stress in Key
Go
Verified
Shaft Diameter given Force on Key
Go
Verified
Shear Stress in given Force on Key
Go
Verified
Shear Stress in Key given Torque Transmitted
Go
Verified
Torque Transmitted by Keyed Shaft given Force on Keys
Go
Verified
Torque Transmitted by Keyed Shaft given Stress in Key
Go
Verified
Width of Key given Shear Stress in Key
Go
1 More Design of Square and Flat Keys Calculators
Go
Design Parameters
(2)
Verified
Factor of Safety for Bi-Axial State of Stress
Go
Verified
Factor of Safety for Tri-axial State of Stress
Go
8 More Design Parameters Calculators
Go
Devices with Optical Components
(3)
Verified
Apex Angle
Go
Verified
Current Due to Optically Generated Carrier
Go
Verified
Diffusion Length of Transition Region
Go
11 More Devices with Optical Components Calculators
Go
Differential Configuration
(6)
Verified
Input Offset Voltage of MOS Differential Amplifier given Saturation Current
Go
Verified
Input Voltage of MOS Differential Amplifier on Small-Signal Operation
Go
Verified
Maximum Input Common-Mode Range of MOS Differential Amplifier
Go
Verified
Minimum Input Common-Mode Range of MOS Differential Amplifier
Go
Verified
Total Input Offset Voltage of MOS Differential Amplifier given Saturation Current
Go
Verified
Transconductance of MOS Differential Amplifier on Small-Signal Operation
Go
3 More Differential Configuration Calculators
Go
Digital Switching System
(15)
Verified
Average Switching Time per Stage
Go
Verified
Equipment Utilization Factor
Go
Verified
Instantaneous Resistance of Microphone
Go
Verified
Maximum Variation Resistance by Carbon Granules
Go
Verified
Number of SE in Equivalent Multistage
Go
Verified
Number of SE in Single Switch
Go
Verified
Number of SE when SC Fully Utilised
Go
Verified
Number of Switching Elements
Go
Verified
Number of Switching Stage
Go
Verified
Power Ratio
Go
Verified
Quiescent Resistance of Microphone
Go
Verified
Sinusoidal Input
Go
Verified
Switching Element Advantage Factor
Go
Verified
Theoretical Maximum Load
Go
Verified
Total Number of SE in System
Go
Diode Characteristics
(8)
Verified
Cut-off Frequency of Varactor Diode
Go
Verified
Diode Equation for Germanium at Room Temperature
Go
Verified
Ideal Diode Equation
Go
Verified
Maximum Wavelight
Go
Verified
Non-Ideal Diode Equation
Go
Verified
Quality Factor of Varactor Diode
Go
Verified
Self-Resonance Frequency of Varactor Diode
Go
Verified
Thermal Voltage of Diode Equation
Go
8 More Diode Characteristics Calculators
Go
Discontinuous Conduction Mode
(3)
Verified
Inductor Value for Buck Regulator (DCM)
Go
Verified
Output Current for Buck Regulator (DCM)
Go
Verified
Output Voltage for Buck Regulator (DCM)
Go
Discontinuous Conduction Mode
(5)
Verified
Commutation Period for Boost Regulator (DCM)
Go
Verified
Duty Cycle for Boost Regulator (DCM)
Go
Verified
Inductor Value for Boost Regulator (DCM)
Go
Verified
Output Current for Boost Regulator (DCM)
Go
Verified
Output Voltage for Boost Regulator (DCM)
Go
Discontinuous Conduction Mode
(3)
Verified
Inductor Value for Buck-Boost Regulator (DCM)
Go
Verified
Output Current for Buck-Boost Regulator (DCM)
Go
Verified
Output Voltage for Buck-Boost Regulator (DCM)
Go
Disk Brakes
(12)
Verified
Actuating Force
Go
Verified
Actuating Force given Torque Capacity of Disk Brake
Go
Verified
Angular Dimension of Pad given Area of Brake Pad
Go
Verified
Area of Brake Pad
Go
Verified
Area of Pad given Actuating Force
Go
Verified
Average Pressure given Actuating Force
Go
Verified
Coefficient of Friction given Torque Capacity of Disk Brake
Go
Verified
Friction Radius given Torque Capacity of Disk Brake
Go
Verified
Friction Radius of Disk Brake
Go
Verified
Inner Radius of Brake Pad given Area of Brake Pad
Go
Verified
Outer Radius of Brake Pad given Area of Brake Pad
Go
Verified
Torque Capacity of Disk Brake
Go
Distortion Energy Theory
(1)
Verified
Shear Yield Strength by Maximum Distortion Energy Theory
Go
12 More Distortion Energy Theory Calculators
Go
Dynamic and Equivalent Load
(7)
Verified
Axial Thrust Load on Bearing given Equivalent Dynamic Load
Go
Verified
Equivalent Dynamic Load for Back to Back Bearings when subjected to Pure Radial Load
Go
Verified
Equivalent Dynamic Load for Back to Back Bearings when subjected to Pure Thrust Load
Go
Verified
Race Rotation Factor for Bearing given Radial Factor
Go
Verified
Radial Factor of Bearing given Equivalent Dynamic Load
Go
Verified
Radial Load of Bearing given Radial Factor
Go
Verified
Thrust Factor on Bearing given Equivalent Dynamic Load
Go
8 More Dynamic and Equivalent Load Calculators
Go
Eccentric Load in Plane of Welds
(10)
Verified
Couple on Weld given Torsional Shear Stress in Throat Area of Weld
Go
Verified
Distance of point in Weld from Center of Gravity given Torsional Shear Stress
Go
Verified
Length of Weld given Polar Moment of Inertia of Weld about its Center of Gravity
Go
Verified
Load acting on Weld given Primary Stress
Go
Verified
Polar Moment of Inertia of Weld about Center of Gravity
Go
Verified
Polar Moment of Inertia of Weld about Center of Gravity given Torsional Shear Stress
Go
Verified
Primary Shear Stress in Weld
Go
Verified
Throat Area of Weld given Polar Moment of Inertia of Weld about Center
Go
Verified
Throat Area of Weld given Primary Shear Stress
Go
Verified
Torsional Shear Stress in Throat Area of Weld
Go
Electric Potential and Energy Density
(1)
Verified
Energy Density in Electric Field given Free Space Permittivity
Go
4 More Electric Potential and Energy Density Calculators
Go
Electrolytes and Ions
(9)
Verified
Concentration of Hydronium ion using pH
Go
Verified
Concentration of Hydronium Ion using pOH
Go
Verified
Ionic Product of Water
Go
Verified
pH of Salt of Weak Acid and Strong Base
Go
Verified
pH of Salt of Weak Base and Strong Base
Go
Verified
pH Value of Ionic Product of Water
Go
Verified
pOH of Salt of Weak Base and Strong Base
Go
Verified
pOH of Strong acid and Strong base
Go
Verified
Relation between pH and pOH
Go
16 More Electrolytes and Ions Calculators
Go
Electrons and Holes
(17)
Verified
AC Conductance
Go
Verified
Difference in Electron Concentration
Go
Verified
Electron Component
Go
Verified
Electron Current Density
Go
Verified
Electron Flux Density
Go
Verified
Electron in Region
Go
Verified
Electron Multiplication
Go
Verified
Electron Out of Region
Go
Verified
Hole Component
Go
Verified
Hole Current Density
Go
Verified
Mean Free Path
Go
Verified
Mean Time Spend by Hole
Go
Verified
Phi-dependent Wave Function
Go
Verified
Quantum State
Go
Verified
Radius of Nth Orbit of Electron
Go
Verified
Total Carrier Current Density
Go
Verified
Wave Function Amplitude
Go
1 More Electrons and Holes Calculators
Go
Electrons and Orbits
(3)
Verified
Change in Wave Number of Moving Particle
Go
Verified
Change in Wavelength of Moving Particle
Go
Verified
Total Energy of Electron
Go
13 More Electrons and Orbits Calculators
Go
Electrostatic Parameters
(1)
Verified
Angular Speed of Particle in Magnetic Field
Go
13 More Electrostatic Parameters Calculators
Go
Emitter Current
(8)
Verified
Emitter Current given Base Current
Go
Verified
Emitter Current given Collector Current
Go
Verified
Emitter Current given Saturation Current
Go
Verified
Emitter Current of BJT
Go
Verified
Emitter Current through Minority Carrier Concentration
Go
Verified
Emitter Current using Collector Current and Current Gain
Go
Verified
Emitter Current using Common Emitter Current Gain
Go
Verified
Emitter Current using Transistor Constant
Go
1 More Emitter Current Calculators
Go
Emitter Follower
(9)
Verified
Base Resistance across Emitter follower Junction
Go
Verified
Collector Current of Emitter Follower Transistor
Go
Verified
Input Resistance of Emitter Follower
Go
Verified
Input Resistance of Transistor Amplifier
Go
Verified
Input Voltage of Emitter Follower
Go
Verified
Output Resistance of Emitter Follower
Go
Verified
Output Resistance of Transistor at Intrinsic Gain
Go
Verified
Saturation Current of Emitter Follower
Go
Verified
Total Emitter Resistance of Emitter Follower
Go
1 More Emitter Follower Calculators
Go
End Condenser Method in Medium Line
(17)
Created
Admittance using A Parameter in End Condenser Method
Go
Created
Capacitive Current in End Condenser Method
Go
Created
Impedance using A Parameter in End Condenser Method
Go
Created
Impedance(ECM)
Go
Created
Line Losses in End Condenser Method
Go
Created
Medium Line A Parameter (LEC)
Go
Created
Receiving End Angle using Sending End Power in End Condenser Method
Go
Created
Receiving End Current in End Condenser Method
Go
Created
Receiving End Voltage in End Condenser Method
Go
Created
Resistance using Losses in End Condenser Method
Go
Created
Sending End Current in End Condenser Method
Go
Created
Sending End Current using Impedance in End Condenser Method
Go
Created
Sending End Current using Losses in End Condenser Method
Go
Created
Sending End Power in End Condenser Method
Go
Created
Sending End Voltage in End Condenser Method
Go
Created
Transmission Efficiency in End Condenser Method
Go
Created
Voltage Regulation in End Condenser Method
Go
Energy and Thermal Equation
(19)
Verified
Brake Drum Rotational Angle given Work Done by Brake
Go
Verified
Braking Torque given Work Done by Brake
Go
Verified
Final Angular Velocity of Body given Kinetic Energy of Rotating Body
Go
Verified
Final Velocity given Kinetic Energy Absorbed by Brakes
Go
Verified
Initial Angular Velocity of Body given Kinetic Energy of Rotating Body
Go
Verified
Initial Velocity of System given Kinetic Energy Absorbed by Brakes
Go
Verified
Kinetic Energy Absorbed by Brake
Go
Verified
Kinetic energy of Rotating Body
Go
Verified
Mass of Brake Drum Assembly given Temperature Rise of Brake Drum Assembly
Go
Verified
Mass of System given Kinetic Energy Absorbed by Brakes
Go
Verified
Mass of System given Kinetic Energy of Rotating Body
Go
Verified
Mass of System given Potential Energy Absorbed during Braking Period
Go
Verified
Moment of Inertia of System given Kinetic Energy of Rotating Body
Go
Verified
Potential Energy Absorbed during Braking Period
Go
Verified
Radius of Gyration given Kinetic Energy of Rotating Body
Go
Verified
Specific Heat of Brake Drum Material given Temperature Rise of Brake Drum Assembly
Go
Verified
Temperature Rise of Brake Drum Assembly
Go
Verified
Total Energy Absorbed by Brake
Go
Verified
Total Energy Absorbed by Brake given Temperature Rise of Brake Drum Assembly
Go
Energy Band and Charge Carrier
(18)
Verified
Carrier Lifetime
Go
Verified
Concentration in Conduction Band
Go
Verified
Concentration of Holes in Valence Band
Go
Verified
Conduction Band Energy
Go
Verified
Distribution Coefficient
Go
Verified
Effective Density of State
Go
Verified
Effective Density State in Valence Band
Go
Verified
Energy Gap
Go
Verified
Excess Carrier Concentration
Go
Verified
Fermi Function
Go
Verified
Intrinsic Carrier Concentration
Go
Verified
Liquid Concentration
Go
Verified
Net Rate of Change in Conduction Band
Go
Verified
Optical Generation Rate
Go
Verified
Photoelectron Energy
Go
Verified
Recombination Lifetime
Go
Verified
Steady State Electron Concentration
Go
Verified
Valence Band Energy
Go
2 More Energy Band and Charge Carrier Calculators
Go
Energymeter
(6)
Verified
Average Load of Meter
Go
Verified
Average Monthly Load Factor
Go
Verified
Energy Recorded
Go
Verified
Maximum Demand
Go
Verified
Number of Revolution made
Go
Verified
Revolution in KWh
Go
Entropy Generation
(3)
Verified
Entropy using Helmholtz Free Energy
Go
Verified
Internal Energy using Helmholtz Free Energy
Go
Verified
Temperature using Helmholtz Free Energy
Go
13 More Entropy Generation Calculators
Go
Equivalent Weight
(1)
Verified
Relative Atomic Mass
Go
14 More Equivalent Weight Calculators
Go
Errors
(2)
Verified
Residual Standard Error of Data given Degrees of Freedom
Go
Verified
Standard Error of Data given Variance
Go
5 More Errors Calculators
Go
Extra Full Length Leaves
(26)
Verified
Bending Stress in extra full length leaves
Go
Verified
Bending Stress in Plate Extra Full Length
Go
Verified
Bending Stress in Plate Graduated Length Leaves
Go
Verified
Deflection at Load Point Graduated Length Leaves
Go
Verified
Deflection of leaf Spring at load point
Go
Verified
Force applied at end of Spring given Bending Stress in extra full length leaves
Go
Verified
Force applied at end of Spring given Deflection at end of Spring
Go
Verified
Force applied at end of Spring given Force taken by extra full length leaves
Go
Verified
Length of Cantilever given Bending Stress in extra full length leaves
Go
Verified
Length of Cantilever given Deflection at end of Spring
Go
Verified
Length of Cantilever given Deflection of Spring at load point
Go
Verified
Modulus of Elasticity of leaf given Deflection at Load Point Graduated Length Leaves
Go
Verified
Modulus of Elasticity of leaf of leaf spring given Deflection of Spring at load point
Go
Verified
Modulus of Elasticity of Spring given Deflection at end of Spring
Go
Verified
Number of extra full length leaves given Bending Stress in extra full length leaves
Go
Verified
Number of extra full length leaves given Deflection at end of Spring
Go
Verified
Number of extra full length leaves given Deflection of Spring at load point
Go
Verified
Number of Graduated length leaves given Bending Stress in extra full length leaves
Go
Verified
Number of Graduated length leaves given Deflection at End of Spring
Go
Verified
Number of Graduated length leaves given Force taken by extra full length leaves
Go
Verified
Portion of Force taken by extra full length leaf given deflection of Spring at load point
Go
Verified
Thickness of each leaf given Bending Stress in extra full length leaves
Go
Verified
Thickness of each leaf given Deflection at end of Spring
Go
Verified
Width of each leaf given Bending Stress in extra full length leaves
Go
Verified
Width of each leaf of leaf Spring given Deflection of Spring at load point
Go
Verified
Width of Leaf given Deflection at end of Spring
Go
3 More Extra Full Length Leaves Calculators
Go
Factors of Thermodynamics
(3)
Verified
Molar Mass of Gas given Average Speed of Gas
Go
Verified
Molar Mass of Gas given Most Probable Speed of Gas
Go
Verified
Molar Mass of Gas given RMS Velocity of Gas
Go
10 More Factors of Thermodynamics Calculators
Go
Fiber Design Characteristics
(9)
Verified
Graded Index Length of Fiber
Go
Verified
Group Delay
Go
Verified
Normalized Frequency
Go
Verified
Numerical Aperture
Go
Verified
Optical Pulse Duration
Go
Verified
Plane Wave Velocity
Go
Verified
Ray Optics Critical Angle
Go
Verified
Refractive Index of Cladding
Go
Verified
Refractive Index of Fiber Core
Go
3 More Fiber Design Characteristics Calculators
Go
Fiber Modelling Parameters
(7)
Verified
Diameter of Fiber
Go
Verified
Fiber Attenuation Coefficient
Go
Verified
Fiber Length
Go
Verified
Gaussian Pulse
Go
Verified
Number of Modes using Normalized Frequency
Go
Verified
Optical Dispersion
Go
Verified
Power Loss in Fiber
Go
12 More Fiber Modelling Parameters Calculators
Go
Flow Measurement
(16)
Verified
Absolute Viscosity
Go
Verified
Average Velocity of Fluid
Go
Verified
Density of Liquid
Go
Verified
Drag Coefficient of Pipe
Go
Verified
Flow Rate
Go
Verified
Head Loss
Go
Verified
Head Loss Due to Fitting
Go
Verified
Length of Pipe
Go
Verified
Length of weighing platform
Go
Verified
Loss Coefficient for Various Fitting
Go
Verified
Mass Flow Rate
Go
Verified
Pipe Diameter
Go
Verified
Reynolds number of fluid flowing in Pipe
Go
Verified
Speed of Conveyor Belt
Go
Verified
Volume Flow Rate
Go
Verified
Weight of Material on Length of Weighing Platform
Go
Flow Rate
(2)
Verified
Rate of Flow given Head loss in Laminar Flow
Go
Verified
Rate of Flow given Hydraulic Transmission Power
Go
6 More Flow Rate Calculators
Go
Flux
(2)
Created
Magnetic Flux of DC Shunt Motor given Kf
Go
Created
Magnetic Flux of DC Shunt Motor given Torque
Go
Frequency
(1)
Created
Frequency given Number of Poles in Induction Motor
Go
2 More Frequency Calculators
Go
Frequency
(2)
Created
Cut Off Frequency for RC circuit
Go
Created
Frequency using Time Period
Go
1 More Frequency Calculators
Go
Frequency
(2)
Created
Frequency given EMF Induced in Primary Winding
Go
Created
Frequency given EMF Induced in Secondary Winding
Go
Frequency
(3)
Verified
Absolute Frequency
Go
Verified
Relative Frequency
Go
Verified
Total Frequency
Go
Frequency Reuse Concept
(9)
Verified
Coherence Bandwidth for Random Phases of Two Received Signals
Go
Verified
Coherence Bandwidth for Two Fading Amplitudes of Two Received Signals
Go
Verified
Delay Spread
Go
Verified
Forward Frame
Go
Verified
M-Ary PAM
Go
Verified
M-Ary QAM
Go
Verified
Reverse Frame
Go
Verified
Symbol Time Period
Go
Verified
Time Slots
Go
7 More Frequency Reuse Concept Calculators
Go
Fundamental Characteristics
(9)
Verified
Depth of Permanent Magnet
Go
Verified
Maximum Resistance Deviation in Ohmmeter
Go
Verified
Multiplier Resistance in Ohmmeter
Go
Verified
Percent Linearity in Ohmmeter
Go
Verified
Resistance of Meter
Go
Verified
Resistance of Path of Eddy Current
Go
Verified
Resistivity of Material Disc
Go
Verified
Thickness of Metal Disc
Go
Verified
Volume Resistance of Insulation
Go
Fundamental Parameters
(2)
Verified
Closed Loop Negative Feedback Gain
Go
Verified
Gain-Bandwidth Product
Go
17 More Fundamental Parameters Calculators
Go
Fundamental Parameters
(7)
Verified
Horizontal Frequency
Go
Verified
One Horizontal Line
Go
Verified
One Horizontal Line Scan
Go
Verified
One Horizontal Line Tracing
Go
Verified
One Horizontal Time
Go
Verified
Video Bandwidth
Go
Verified
Video Bandwidth Signal
Go
G Parameters
(16)
Created
Current-1 (G-Parameter)
Go
Created
Current-1 given G11 Parameter (G-Parameter)
Go
Created
Current-2 given Voltage-2 (G-Parameter)
Go
Created
Delta-G given A' Parameter
Go
Created
G11 Parameter (G-Parameter)
Go
Created
G11 Parameter given Current-1 (G-Parameter)
Go
Created
G11 Parameter in Terms of T Parameters
Go
Created
G11 Parameter in Terms of Y Parameters
Go
Created
G12 Parameter (G-Parameter)
Go
Created
G12 Parameter given Current-1 (G-Parameter)
Go
Created
G21 Parameter (G-Parameter)
Go
Created
G21 Parameter in Terms of T Parameters
Go
Created
G21 Parameter in Terms of Y Parameters
Go
Created
G21 Parameter in Terms of Z Parameters
Go
Created
G22 Parameter in Terms of Y Parameters
Go
Created
G22 Parameter in Terms of Z Parameters
Go
Gain
(1)
Verified
Common-Mode Current Gain of Controlled Source Transistor
Go
1 More Gain Calculators
Go
Galvanometer
(7)
Verified
Area of Secondary Coil
Go
Verified
Ballistic Sensitivity
Go
Verified
Ballistic Sensitivity using Flux Linkage Sensitivity
Go
Verified
Charge passing through Galvanometer
Go
Verified
Constant of Galvanometer
Go
Verified
Length of Solenoid
Go
Verified
Throw of Galvanometer
Go
10 More Galvanometer Calculators
Go
Geometric Relationships for Chain
(23)
Verified
Average Chain Velocity given Number of Teeth on Sprocket
Go
Verified
Average Velocity of Chain
Go
Verified
Chain Pitch given Minimum Tooth Height above Pitch Polygon
Go
Verified
Length of Chain
Go
Verified
Number of Links in Chain
Go
Verified
Number of Links in Chain given Length of Chain
Go
Verified
Number of Teeth on Driven Sprocket given Velocity of Chain Drives
Go
Verified
Number of Teeth on Driving and Driven Sprockets given Average Chain Velocity
Go
Verified
Number of Teeth on Driving Sprocket given Velocity of Chain Drives
Go
Verified
Number of Teeth on Sprocket given Pitch Circle Diameter
Go
Verified
Pitch of chain given Average Chain Velocity
Go
Verified
Pitch of chain given Length of Chain
Go
Verified
Pitch of chain given Pitch Circle Diameter
Go
Verified
Roller Radius given Maximum Tooth Height above Pitch Polygon
Go
Verified
Roller Radius given Minimum Roller Seating Radius
Go
Verified
Roller Radius given Minimum Tooth Flank Radius
Go
Verified
Roller Radius given Minimum Tooth Height above Pitch Polygon
Go
Verified
Roller Radius given Tooth Flank Radius
Go
Verified
Roller Radius given Top Diameter of Sprocket Wheel
Go
Verified
Speed of Rotation of Driven Shaft given Velocity Ratio of Chain Drives
Go
Verified
Speed of Rotation of Driving Shaft given Velocity Ratio of Chain Drives
Go
Verified
Speed of Rotations of Driving and Driven Shafts given Average Chain Velocity
Go
Verified
Velocity Ratio of Chain Drives
Go
Geostationary Orbit
(9)
Verified
Acute Value
Go
Verified
Angle of Elevation
Go
Verified
Angle of Tilt
Go
Verified
Azimuth Angle
Go
Verified
Earth Station Latitude
Go
Verified
Geostationary Height
Go
Verified
Geostationary Radius
Go
Verified
Satellite Geostationary Radius
Go
Verified
Time of Perigee Passage
Go
5 More Geostationary Orbit Calculators
Go
H Parameters
(26)
Created
Current-1 given Current-2 (H-Parameter)
Go
Created
Current-1 given H11 Parameter (H-Parameter)
Go
Created
Current-1 given H21 Parameter (H-Parameter)
Go
Created
Current-1 given Voltage-1 (H-Parameter)
Go
Created
Current-2 (H-Parameter)
Go
Created
Current-2 given H21 Parameter (H-Parameter)
Go
Created
Current-2 given H22 Parameter (H-Parameter)
Go
Created
H11 Parameter (H-Parameter)
Go
Created
H11 Parameter in Terms of T' Parameters
Go
Created
H11 Parameter in Terms of Y Parameters
Go
Created
H11 Parameter in Terms of Z Parameters
Go
Created
H12 Parameter (H-Parameter)
Go
Created
H12 Parameter given Voltage-1 (H-Parameter)
Go
Created
H12 Parameter in Terms of G Parameters
Go
Created
H12 Parameter in Terms of Z Parameters
Go
Created
H21 Parameter (H-Parameter)
Go
Created
H21 Parameter in Terms of G Parameters
Go
Created
H21 Parameter in Terms of Y Parameters
Go
Created
H21 Parameter in Terms of Z Parameters
Go
Created
H22 Parameter (H-Parameter)
Go
Created
H22 Parameter given Current-2 (H-Parameter)
Go
Created
H22 Parameter in Terms of Y Parameters
Go
Created
H22 Parameter in Terms of Z Parameters
Go
Created
Voltage-1 given H11 Parameter (H-Parameter)
Go
Created
Voltage-1 given H12 Parameter (H-Parameter)
Go
Created
Voltage-2 given H22 Parameter (H-Parameter)
Go
Helical Torsion Springs
(9)
Verified
Bending Moment applied on Spring given Bending Stress
Go
Verified
Bending Stress in Spring
Go
Verified
Diameter of Spring Wire given Bending Stress in Spring
Go
Verified
Diameter of Spring Wire given Stiffness
Go
Verified
Mean Coil Diameter of Spring given Stiffness
Go
Verified
Modulus of Elasticity of Spring given Stiffness
Go
Verified
Number of Coils of Spring given Stiffness of Helical Torsion Spring
Go
Verified
Stiffness of Helical Torsion Spring
Go
Verified
Stress Concentration Factor given Bending Stress in Spring
Go
Helix Geometry
(27)
Verified
Axial Pitch of Helical Gear given Helix Angle
Go
Verified
Helix Angle of Helical Gear given Actual and Virtual Number of Teeth
Go
Verified
Helix Angle of Helical Gear given Addendum Circle Diameter
Go
Verified
Helix Angle of Helical Gear given Axial Pitch
Go
Verified
Helix Angle of Helical Gear given Center to Center Distance between Two Gears
Go
Verified
Helix Angle of Helical Gear given Normal Circular Pitch
Go
Verified
Helix Angle of Helical Gear given Normal Module
Go
Verified
Helix Angle of Helical Gear given Pitch Circle Diameter
Go
Verified
Helix Angle of Helical Gear given Pressure Angle
Go
Verified
Helix Angle of Helical Gear given Radius of Curvature at Point
Go
Verified
Helix Angle of Helical Gear given Virtual Number of Teeth
Go
Verified
Normal Circular Pitch of Helical Gear
Go
Verified
Normal Circular Pitch of Helical Gear given Virtual Number of Teeth
Go
Verified
Normal Pressure Angle of Helical Gear given Helix Angle
Go
Verified
Pitch Circular Diameter of Gear given Radius of Curvature
Go
Verified
Pitch Circular Diameter of Gear given Virtual Gear
Go
Verified
Pitch Circular Diameter of Gear given Virtual Number of Teeth
Go
Verified
Pitch of Helical Gear given Axial Pitch
Go
Verified
Pitch of Helical Gear given Normal Circular Pitch
Go
Verified
Radius of Curvature at Point on Helical Gear
Go
Verified
Radius of Curvature at Point on Virtual Gear
Go
Verified
Radius of Curvature of Virtual Gear given Pitch Circular Diameter
Go
Verified
Radius of Curvature of Virtual Gear given Virtual Number of Teeth
Go
Verified
Semi Major Axis of Elliptical Profile given Radius of Curvature at Point
Go
Verified
Semi Minor Axis of Elliptical Profile given Radius of Curvature at Point
Go
Verified
Transverse Diametrical Pitch of Helical Gear given Transverse Module
Go
Verified
Transverse Pressure Angle of Helical Gear given Helix Angle
Go
Helix Tube
(12)
Verified
DC Voltage
Go
Verified
Gate Length
Go
Verified
Insertion Loss
Go
Verified
Mismatched Loss
Go
Verified
Phase Velocity
Go
Verified
Pitch Angle
Go
Verified
Power Standing Wave Ratio
Go
Verified
Ratio of Voltage Wave
Go
Verified
Reflection Coefficient
Go
Verified
Round Trip DC Transit Time
Go
Verified
Saturation Drift Voltage
Go
Verified
Voltage Standing Wave Ratio
Go
1 More Helix Tube Calculators
Go
Humidity Measurement
(5)
Verified
Actual Humidity
Go
Verified
Humidity ratio
Go
Verified
Mass of Dry Air or Gas in Mixture
Go
Verified
Mass of Water Vapor in Mixture
Go
Verified
Saturated Humidity
Go
Hydrodynamics Basics
(2)
Verified
Metacentric Height given Time Period of Rolling
Go
Verified
Reynolds Number given Frictional Factor of Laminar Flow
Go
7 More Hydrodynamics Basics Calculators
Go
Hydrogen Spectrum
(1)
Verified
Number of Spectral Lines
Go
20 More Hydrogen Spectrum Calculators
Go
Hydrolysis for Weak Acid and Weak Base
(7)
Verified
Acid Ionization Constant of Weak Acid
Go
Verified
Basic Ionization Constant of Weak Base
Go
Verified
Concentration of Hydronium ion in Salt of Weak Acid and Weak Base
Go
Verified
Degree of Hydrolysis in Salt of Weak Acid and Weak Base
Go
Verified
Hydrolysis Constant in Weak Acid and Weak Base
Go
Verified
pH of Salt of Weak Acid and Weak base
Go
Verified
pOH of Salt of Weak Acid and Weak Base
Go
6 More Hydrolysis for Weak Acid and Weak Base Calculators
Go
Hydrostatic Fluid
(7)
Verified
Distance between Buoyancy Point and Center of Gravity given Metacenter Height
Go
Verified
Moment of Inertia of Waterline Area using Metacentric Height
Go
Verified
Radius of Gyration given Time Period of Rolling
Go
Verified
Surface Area given Surface Tension
Go
Verified
Surface Energy given Surface Tension
Go
Verified
Volume of Liquid Displaced given Metacentric Height
Go
Verified
Volume of Submerged Object given Buoyancy Force
Go
13 More Hydrostatic Fluid Calculators
Go
IC Amplifiers
(4)
Verified
Emitter Resistance in Widlar Current Source
Go
Verified
Output Resistance of Wilson MOS Mirror
Go
Verified
Reference Current of IC Amplifier
Go
Verified
Reference Current of Wilson Current Mirror
Go
6 More IC Amplifiers Calculators
Go
Ideal Gas
(4)
Verified
Degree of Freedom given Molar Internal Energy of Ideal Gas
Go
Verified
Isothermal Compression of Ideal Gas
Go
Verified
Number of Moles given Internal Energy of Ideal Gas
Go
Verified
Temperature of Ideal Gas given its Internal Energy
Go
4 More Ideal Gas Calculators
Go
Impedance
(7)
Created
Impedance given Complex Power and Current
Go
Created
Impedance given Complex Power and Voltage
Go
Created
Impedance using Power Factor
Go
Created
Resistance for Parallel RLC Circuit using Q Factor
Go
Created
Resistance for Series RLC Circuit given Q Factor
Go
Created
Resistance using Power Factor
Go
Created
Resistance using Time Constant
Go
Impedance
(2)
Created
Reactance given Slip at Maximum Torque
Go
Created
Resistance given Slip at Maximum Torque
Go
2 More Impedance Calculators
Go
Impedance
(3)
Verified
Impedance for LCR Circuit
Go
Verified
Impedance for LR Circuit
Go
Verified
Impedance for RC Circuit
Go
1 More Impedance Calculators
Go
Impedance
(6)
Created
Equivalent Impedance of Transformer from Primary Side
Go
Created
Equivalent Impedance of Transformer from Secondary Side
Go
Created
Impedance of Primary Winding
Go
Created
Impedance of Primary Winding given Primary Parameters
Go
Created
Impedance of Secondary Winding
Go
Created
Impedance of Secondary Winding given Secondary Parameters
Go
Impedance
(2)
Created
Armature Resistance of Synchronous Motor given 3 Phase Mechanical Power
Go
Created
Armature Resistance of Synchronous Motor given Input Power
Go
Impedance
(7)
Created
Fault Impedance using A-Phase Voltage(LGF)
Go
Created
Negative Sequence Impedance for L-G-F
Go
Created
Negative Sequence Impedance using A-Phase EMF (LGF)
Go
Created
Positive Sequence Impedance for L-G-F
Go
Created
Positive Sequence Impedance using A-Phase EMF (LGF)
Go
Created
Zero Sequence Impedance for L-G-F
Go
Created
Zero Sequence Impedance using A-Phase EMF (LGF)
Go
3 More Impedance Calculators
Go
Impedance
(1)
Created
Fault Impedance using Positive Sequence Current (LLF)
Go
3 More Impedance Calculators
Go
Impedance
(2)
Created
Fault Impedance using B-Phase Voltage (LLGF)
Go
Created
Fault Impedance using C-Phase Voltage (LLGF)
Go
4 More Impedance Calculators
Go
Impedance 1,2 and 3
(20)
Created
Impedance-1 for Transmitted Coefficient of Current-2 (Line PL)
Go
Created
Impedance-1 for Transmitted Coefficient of Current-3 (Line PL)
Go
Created
Impedance-1 using Incident Current and Voltage (Line PL)
Go
Created
Impedance-1 using Reflected Coefficient of Current (Line PL)
Go
Created
Impedance-1 using Transmitted Coefficient of Current-2 (Line PL)
Go
Created
Impedance-1 using Transmitted Coefficient of Current-3 (Line PL)
Go
Created
Impedance-1 using Transmitted Voltage (Line PL)
Go
Created
Impedance-2 for Transmitted Coefficient of Current-2 (Line PL)
Go
Created
Impedance-2 using Reflected Coefficient of Current (Line PL)
Go
Created
Impedance-2 using Reflected Coefficient of Voltage (Line PL)
Go
Created
Impedance-2 using Transmitted Coefficient of Current-2 (Line PL)
Go
Created
Impedance-2 using Transmitted Coefficient of Voltage (Line PL)
Go
Created
Impedance-2 using Transmitted Current-2 (Line PL)
Go
Created
Impedance-2 using Transmitted Voltage (Line PL)
Go
Created
Impedance-3 for Transmitted Coefficient of Current-3 (Line PL)
Go
Created
Impedance-3 using Reflected Coefficient of Current (Line PL)
Go
Created
Impedance-3 using Reflected Coefficient of Voltage (Line PL)
Go
Created
Impedance-3 using Transmitted Coefficient of Current-3 (Line PL)
Go
Created
Impedance-3 using Transmitted Coefficient of Voltage (Line PL)
Go
Created
Impedance-3 using Transmitted Voltage (Line PL)
Go
Impedance and Admittance
(12)
Created
Admittance using Characteristic Impedance (LTL)
Go
Created
Admittance using Propagation Constant (LTL)
Go
Created
Capacitance using Surge Impedance (LTL)
Go
Created
Characteristic Impedance (LTL)
Go
Created
Characteristic Impedance using B Parameter (LTL)
Go
Created
Characteristic Impedance using C Parameter (LTL)
Go
Created
Characteristic Impedance using Sending End Current (LTL)
Go
Created
Characteristic Impedance using Sending End Voltage (LTL)
Go
Created
Impedance using Characteristic Impedance (LTL)
Go
Created
Impedance using Propagation Constant (LTL)
Go
Created
Inductance using Surge Impedance (LTL)
Go
Created
Surge Impedance (LTL)
Go
Incident Wave
(1)
Created
Characteristic Impedance for Incident Waves
Go
Inductance
(3)
Created
Inductance for Parallel RLC Circuit using Q Factor
Go
Created
Inductance for Series RLC Circuit given Q Factor
Go
Created
Inductance using Time Constant
Go
Instrument Characteristics
(23)
Verified
Angular Deflection of Spring
Go
Verified
Angular Speed of Disc
Go
Verified
Angular Speed of Former
Go
Verified
Damping Constant
Go
Verified
Damping Torque
Go
Verified
EMF generated in Former
Go
Verified
EMF induced in portion below magnetic Field
Go
Verified
Flat Spiral Spring Controlling Torque
Go
Verified
Full-Scale Resistance Deviation
Go
Verified
Full-Scale Voltage Reading
Go
Verified
Instrumentation Span
Go
Verified
Inverse Sensitivity or Scale Factor
Go
Verified
Largest Reading(Xmax)
Go
Verified
Linear velocity of Former
Go
Verified
Magnitude of Input
Go
Verified
Magnitude of Output Response
Go
Verified
Maximum Displacement Deviation
Go
Verified
Maximum Fiber Stress in Flat Spring
Go
Verified
Power Consumed at Full-Scale Reading
Go
Verified
Sensitivity
Go
Verified
Smallest reading(Xmin)
Go
Verified
Strength of Magnetic Field
Go
Verified
Youngs Modulus of Flat Spring
Go
2 More Instrument Characteristics Calculators
Go
Instrument Dimensions
(11)
Verified
Area of Capillary Tube
Go
Verified
Breadth of Former
Go
Verified
Coefficient of volumetric Expansion
Go
Verified
Length of Capillary Tube
Go
Verified
Length of Former
Go
Verified
Length of Spring
Go
Verified
Sharpness of Curve
Go
Verified
Standard Deviation for Normal Curve
Go
Verified
Thickness of Spring
Go
Verified
Volume of Bulb in Capillary Tube
Go
Verified
Width of Spring
Go
Instrument Error Measurement
(11)
Verified
Absolute Static Error of Quantity
Go
Verified
Average Deviation
Go
Verified
Erroneous Quantity
Go
Verified
Location of Point
Go
Verified
Measured Value of quantity
Go
Verified
Nominal Value
Go
Verified
Percentage Error
Go
Verified
Relative Limiting Error
Go
Verified
Relative Static Error
Go
Verified
True Quantity
Go
Verified
True Value of Quantity
Go
Instrument Transformer
(4)
Verified
Flux Linkage Sensitivity
Go
Verified
Primary Phasor
Go
Verified
Secondary Phasor
Go
Verified
Transformer Ratio
Go
2 More Instrument Transformer Calculators
Go
Integrator and Difference
(1)
Verified
Common Mode Rejection Ratio of Difference Amplifiers
Go
7 More Integrator and Difference Calculators
Go
Internal Capacitive Effects and High Frequency Model
(3)
Verified
Conductance of Channel of MOSFETs
Go
Verified
Magnitude of Electron Charge in Channel of MOSFET
Go
Verified
Total Capacitance between Gate and Channel of MOSFETs
Go
12 More Internal Capacitive Effects and High Frequency Model Calculators
Go
Internal Capacitive Effects and High Frequency Model
(7)
Verified
Base-Emitter Junction Capacitance
Go
Verified
Collector-Base Junction Capacitance
Go
Verified
Concentration of Electrons Injected from Emitter to Base
Go
Verified
Small-Signal Diffusion Capacitance
Go
Verified
Small-Signal Diffusion Capacitance of BJT
Go
Verified
Stored Electron Charge in Base of BJT
Go
Verified
Thermal Equilibrium Concentration of Minority Charge Carrier
Go
4 More Internal Capacitive Effects and High Frequency Model Calculators
Go
Introduction of Belt Drives
(15)
Verified
Angle of Wrap given Belt Tension in Tight Side
Go
Verified
Belt Tension in Loose Side of Belt given Tension in Tight Side
Go
Verified
Belt Tension in Tight Side
Go
Verified
Center Distance from Small Pulley to Big Pulley given Wrap Angle of Big Pulley
Go
Verified
Center Distance from Small Pulley to Big Pulley given Wrap Angle of Small Pulley
Go
Verified
Coefficient of Friction in between Surfaces given Belt Tension in Tight Side
Go
Verified
Diameter of Big Pulley given Wrap Angle for Big Pulley
Go
Verified
Diameter of Big Pulley given Wrap Angle of Small Pulley
Go
Verified
Diameter of Small Pulley given Wrap Angle of Big Pulley
Go
Verified
Diameter of Small Pulley given Wrap Angle of Small Pulley
Go
Verified
Length of Belt
Go
Verified
Mass per unit length of belt
Go
Verified
Velocity of Belt given Tension of Belt in Tight Side
Go
Verified
Wrap Angle for Big Pulley
Go
Verified
Wrap Angle for Small Pulley
Go
Joint Analysis
(3)
Verified
Factor of Safety given Tensile Force on Bolt in Tension
Go
Verified
Maximum Tensile Stress in Bolt
Go
Verified
Yield Strength of Bolt in Tension given Tensile Force on Bolt in Tension
Go
5 More Joint Analysis Calculators
Go
Joint Geometry and Dimensions
(1)
Verified
Thickness of Cotter Joint
Go
26 More Joint Geometry and Dimensions Calculators
Go
Klystron
(10)
Verified
Anode Voltage
Go
Verified
Beam Loading Conductance
Go
Verified
Cavity Conductance
Go
Verified
Copper Loss of Cavity
Go
Verified
DC Power Supply
Go
Verified
DC Transit Time
Go
Verified
Klystron Efficiency
Go
Verified
Mutual Conductance of Klystron Amplifier
Go
Verified
Power Loss in Anode Circuit
Go
Verified
Resonant Frequency of Cavity
Go
3 More Klystron Calculators
Go
Klystron Cavity
(7)
Verified
Average Distance between Cavities
Go
Verified
Buncher Cavity Gap
Go
Verified
Conductance of Resonator
Go
Verified
Induced Current in Catcher Cavity
Go
Verified
Induced Current in Walls of Catcher Cavity
Go
Verified
Number of Resonant Cavities
Go
Verified
Phase Constant of Fundamental Mode Field
Go
7 More Klystron Cavity Calculators
Go
Lasers
(3)
Verified
Plane of Polarizer
Go
Verified
Plane of Transmission of Analyzer
Go
Verified
Single Pinhole
Go
9 More Lasers Calculators
Go
Level Measurement
(18)
Verified
Buoyancy
Go
Verified
Buoyancy Force on Cylindrical Displacer
Go
Verified
Capacitance with No Liquid
Go
Verified
Cross-Sectional Area of Object
Go
Verified
Depth of Fluid
Go
Verified
Float diameter
Go
Verified
Height of plates
Go
Verified
Immersed Depth
Go
Verified
Length of displacer submerged in liquid
Go
Verified
Liquid Level
Go
Verified
Magnetic Permeability of Liquid
Go
Verified
Non-Conductive Liquid Capacitance
Go
Verified
Volume of Material in Container
Go
Verified
Weight of Air
Go
Verified
Weight of Body in Liquid
Go
Verified
Weight of Displacer
Go
Verified
Weight of Material in Container
Go
Verified
Weight on Force Sensor
Go
Light Measurement
(18)
Verified
Area affected by Light Incident
Go
Verified
Area Projected at solid angle
Go
Verified
Flux at Solid Angle
Go
Verified
Illuminance
Go
Verified
Incident Luminous Flux
Go
Verified
Intensity on Solid Angle
Go
Verified
Irradiation
Go
Verified
Light flux
Go
Verified
Light Power
Go
Verified
Luminous Flux incident upon Object
Go
Verified
Luminous Flux Transmitted by Object
Go
Verified
Luminous Intensity in Direction at Angle
Go
Verified
Luminous Intensity in Direction Normal to Surface
Go
Verified
Photoelectric Current
Go
Verified
Photoelectric Sensitivity
Go
Verified
Reflected Luminous Flux
Go
Verified
Reflection Factor
Go
Verified
Transmission Factor
Go
Line Is Open Circuited
(3)
Created
Incident Current using Transmitted Current (Line OC)
Go
Created
Incident Voltage using Reflected Voltage (Line OC)
Go
Created
Transmitted Current (Line OC)
Go
Line Is Short Circuited
(4)
Created
Incident Current using Reflected Current (Line SC)
Go
Created
Incident Voltage using Transmitted Voltage (Line SC)
Go
Created
Reflected Current (Line SC)
Go
Created
Transmitted Voltage (Line SC)
Go
Line Parameters
(5)
Created
Impedance (STL)
Go
Created
Losses using Transmission Efficiency (STL)
Go
Created
Resistance using Losses (STL)
Go
Created
Transmission Efficiency (STL)
Go
Created
Voltage Regulation in Transmission Line
Go
Line Parameters
(7)
Created
Line Losses (1-phase 2-wire Mid-point Earthed)
Go
Created
Line Losses (1-Phase 2-Wire US)
Go
Created
Line Losses using Area of X-Section (1-Phase 2-Wire US)
Go
Created
Line Losses using Constant (1-Phase 2-Wire US)
Go
Created
Line Losses using Load Current (1-Phase 2-Wire US)
Go
Created
Line Losses using Resistance (1-Phase 2-Wire US)
Go
Created
Line Losses using Volume of Conductor Material (1-Phase 2-Wire US)
Go
Line Parameters
(9)
Created
Length using A Parameter (LTL)
Go
Created
Length using B Parameter (LTL)
Go
Created
Length using C Parameter (LTL)
Go
Created
Length using D Parameter (LTL)
Go
Created
Propagation Constant (LTL)
Go
Created
Propagation Constant using A Parameter (LTL)
Go
Created
Propagation Constant using B Parameter (LTL)
Go
Created
Propagation Constant using C Parameter (LTL)
Go
Created
Propagation Constant using D Parameter (LTL)
Go
Line Performance Characteristics
(5)
Created
B-Parameter using Receiving End Reactive Power Component
Go
Created
B-Parameter using Receiving End Real Power Component
Go
Created
Complex Power given Current
Go
Created
Receiving End Real Power Component
Go
Created
Skin Depth in Conductor
Go
10 More Line Performance Characteristics Calculators
Go
Line Sequence Impedance
(7)
Created
Fault Impedance using A-Phase Current
Go
Created
Fault Impedance using Positive Sequence Current
Go
Created
Negative Sequence Impedance for Delta Connected Load
Go
Created
Positive Sequence Impedance for Delta Connected Load
Go
Created
Sequence Impedance
Go
Created
Zero Sequence Impedance for Delta Connected Load
Go
Created
Zero Sequence Impedance for Star Connected Load
Go
Line With Parallel Loads
(21)
Created
Incident Current using Impedance-1 (Line PL)
Go
Created
Incident Current using Transmitted Coefficient of Current-2 (Line PL)
Go
Created
Incident Current using Transmitted Coefficient of Current-3 (Line PL)
Go
Created
Incident Current using Transmitted Current-3 and 2 (Line PL)
Go
Created
Incident Voltage using Impedance-1 (Line PL)
Go
Created
Incident Voltage using Transmitted Coefficient of Current-3 (Line PL)
Go
Created
Incident Voltage using Transmitted Voltage (Line PL)
Go
Created
Reflected Coefficient of Current (Line PL)
Go
Created
Reflected Current using Impedance-1 (Line PL)
Go
Created
Reflected Current using Transmitted Current-3 and 2 (Line PL)
Go
Created
Reflected Voltage using Impedance-1 (Line PL)
Go
Created
Transmitted Coefficient of Voltage (Line PL)
Go
Created
Transmitted Coefficient of Voltage using Transmitted Coefficient of Current-2 (Line PL)
Go
Created
Transmitted Coefficient of Voltage using Transmitted Coefficient of Current-3 (Line PL)
Go
Created
Transmitted Coefficient of Voltage using Transmitted Voltage (Line PL)
Go
Created
Transmitted Voltage using Incident Voltage (Line PL)
Go
Created
Transmitted Voltage using Transmitted Coefficient of Current-2 (Line PL)
Go
Created
Transmitted Voltage using Transmitted Coefficient of Current-3 (Line PL)
Go
Created
Transmitted Voltage using Transmitted Coefficient of Voltage(Line PL)
Go
Created
Transmitted Voltage using Transmitted Current-2 (Line PL)
Go
Created
Transmitted Voltage using Transmitted Current-3 (Line PL)
Go
Linear Voltage Regulator
(5)
Verified
Input Voltage of Shunt Regulator
Go
Verified
Load Current in Shunt Regulator
Go
Verified
Output Voltage of Shunt Regulator
Go
Verified
Shunt Current in Shunt Regulator
Go
Verified
Shunt Resistance in Shunt Regulator
Go
Liquid Jet
(7)
Verified
Angle of Jet given Maximum Vertical Elevation
Go
Verified
Angle of Jet given Time of Flight of Liquid Jet
Go
Verified
Angle of Jet given Time to Reach Highest Point
Go
Verified
Initial Velocity given Time of Flight of Liquid Jet
Go
Verified
Initial Velocity given Time to Reach Highest Point of Liquid
Go
Verified
Initial Velocity of Liquid Jet given Maximum Vertical Elevation
Go
Verified
Mean Velocity given Frictional Velocity
Go
5 More Liquid Jet Calculators
Go
Liquid Properties Measuring Equipments
(1)
Verified
Angle of Inclined Manometer
Go
8 More Liquid Properties Measuring Equipments Calculators
Go
Load and Strength Characteristics
(2)
Verified
Tensile Force on Bolt given Maximum Tensile Stress in Bolt
Go
Verified
Tensile Force on Bolt in Tension
Go
11 More Load and Strength Characteristics Calculators
Go
Load IS Open Circuited
(4)
Created
Incident Current using Reflected Current (Load OC)
Go
Created
Reflected Current (Load OC)
Go
Created
Transmitted Current (Load OC)
Go
Created
Transmitted Voltage (Load OC)
Go
Load Is Short Circuited
(4)
Created
Incident Current using Transmitted Current (Load SC)
Go
Created
Incident Voltage using Reflected Voltage (Load SC)
Go
Created
Transmitted Current (Load SC)
Go
Created
Transmitted Voltage (Load SC)
Go
Loop Antennas
(1)
Verified
Isotropic Radiation Intensity for Loop Antenna
Go
7 More Loop Antennas Calculators
Go
Losses
(2)
Created
Armature Copper Loss for DC Shunt Generator
Go
Created
Shunt Field Copper Loss for DC Shunt Generator
Go
2 More Losses Calculators
Go
Losses
(2)
Created
Mechanical Losses of Series DC Generator given Converted Power
Go
Created
Series Field Copper Loss in DC Generator
Go
Magnetic Flux
(2)
Created
Maximum Flux Density given Primary Winding
Go
Created
Maximum Flux Density using Secondary Winding
Go
3 More Magnetic Flux Calculators
Go
Magnetic Flux
(10)
Verified
Armature Flux per pole
Go
Verified
Field Strength at Center
Go
Verified
Flux Density at Center of Solenoid
Go
Verified
Flux Density of Field Traverse to Strip
Go
Verified
Flux in Magnetic Circuit
Go
Verified
Flux Linkage of Search Coil
Go
Verified
Flux linkages of Secondary Coil
Go
Verified
Leakage Factor
Go
Verified
Maximum Flux Density
Go
Verified
Total Flux per pole
Go
Magnetic Instruments
(18)
Verified
Actual length of Specimen
Go
Verified
Apparent Magnetic Force at length l
Go
Verified
Area of Cross-section of Specimen
Go
Verified
Area of hysteresis loop
Go
Verified
Extention of Specimen
Go
Verified
Hall Coefficient
Go
Verified
Hysteresis Coefficient
Go
Verified
Hysteresis loss per unit volume
Go
Verified
Magnetic Field of Solenoid
Go
Verified
Magneto Motive Force(MMF)
Go
Verified
Number of Turns in Solenoid
Go
Verified
Number of turns per unit length of magnetic coil
Go
Verified
Reluctance of Joints
Go
Verified
Reluctance of Magnetic Circuit
Go
Verified
Reluctance of Yoke's
Go
Verified
Specimen Extension Factor
Go
Verified
Thickness of Strip
Go
Verified
True Magnetizing Force
Go
Magnetron Oscillator
(16)
Verified
Anode Current
Go
Verified
Characteristic Admittance
Go
Verified
Circuit Efficiency in Magnetron
Go
Verified
Cyclotron Angular Frequency
Go
Verified
Distance between Anode and Cathode
Go
Verified
Electron Uniform Velocity
Go
Verified
Electronic Efficiency
Go
Verified
Hull Cutoff Magnetic Flux Density
Go
Verified
Hull Cut-off Voltage
Go
Verified
Magnetron Phase Shift
Go
Verified
Modulation Linearity
Go
Verified
Noise Ratio
Go
Verified
Receiver Sensitivity
Go
Verified
Repetition Frequency of Pulse
Go
Verified
RF Pulse Width
Go
Verified
Spectral Line Frequency
Go
1 More Magnetron Oscillator Calculators
Go
Maximum and Minimum Values of Data
(7)
Verified
Maximum Value of Data given Class Width
Go
Verified
Maximum Value of Data given Mid Range
Go
Verified
Maximum Value of Data given Range
Go
Verified
Mid Range of Data
Go
Verified
Minimum Value of Data given Class Width
Go
Verified
Minimum Value of Data given Mid Range
Go
Verified
Minimum Value of Data given Range
Go
Maximum Power Conditions
(21)
Verified
Actual Power Transmitted given Power Transmitted by Flat for Design Purpose
Go
Verified
Belt Tension in Loose Side of Belt given Initial Tension in Belt
Go
Verified
Belt Tension in Tight Side of Belt given Initial Tension in Belt
Go
Verified
Belt Tension in Tight Side of Belt given Tension due to Centrifugal Force
Go
Verified
Belt Velocity given Tension in Belt Due to Centrifugal Force
Go
Verified
Initial Tension in Belt Drive
Go
Verified
Initial Tension in Belt given Velocity of Belt for Maximum Power Transmission
Go
Verified
Load Correction Factor given Power Transmitted by Flat Belt for Design Purpose
Go
Verified
Mass of One Meter Length of Belt given Maximum Permissible Tensile Stress of Belt
Go
Verified
Mass of One Meter Length of Belt given Tension in Belt Due to Centrifugal Force
Go
Verified
Mass of One Meter Length of Belt given Velocity for Maximum Power Transmission
Go
Verified
Maximum Belt Tension
Go
Verified
Maximum Belt Tension given Tension Due to Centrifugal Force
Go
Verified
Maximum Permissible Tensile Stress of Belt Material
Go
Verified
Optimum Velocity of Belt for Maximum Power Transmission
Go
Verified
Power Transmitted by Flat Belt for Design Purpose
Go
Verified
Tension in Belt Due to Centrifugal Force
Go
Verified
Tension in Belt Due to Centrifugal Force given Permissible Tensile Stress of Belt Material
Go
Verified
Thickness of Belt given Maximum Belt Tension
Go
Verified
Velocity of Belt for Maximum Power Transmission given Maximum Permissible Tensile Stress
Go
Verified
Width of Belt given Maximum Belt Tension
Go
Maximum Shear Stress and Principal Stress Theory
(11)
Verified
Diameter of Shaft given Permissible Value of Maximum Principle Stress
Go
Verified
Equivalent Bending Moment given Torsional Moment
Go
Verified
Factor of Safety given Permissible Value of Maximum Principle Stress
Go
Verified
Factor of Safety given Permissible Value of Maximum Shear Stress
Go
Verified
Maximum Shear Stress in Shafts
Go
Verified
Permissible Value of Maximum Principle Stress
Go
Verified
Permissible Value of Maximum Principle Stress using Factor of Safety
Go
Verified
Permissible Value of Maximum Shear Stress
Go
Verified
Torsional Moment given Equivalent Bending Moment
Go
Verified
Yield Strength in Shear Maximum Shear Stress Theory
Go
Verified
Yield Stress in Shear given Permissible Value of Maximum Principle Stress
Go
6 More Maximum Shear Stress and Principal Stress Theory Calculators
Go
Maxwell Bridge
(1)
Verified
Iron Loss in Maxwell Bridge
Go
3 More Maxwell Bridge Calculators
Go
Mean
(3)
Verified
Mean of Data given Coefficient of Variation
Go
Verified
Mean of Data given Median and Mode
Go
Verified
Mean of Data given Standard Deviation
Go
4 More Mean Calculators
Go
Mechanical Specification
(3)
Created
Armature Winding Constant of Synchronous Motor
Go
Created
Magnetic Flux of Synchronous Motor given Back EMF
Go
Created
Number of Poles given Synchronous Speed in Synchronous Motor
Go
2 More Mechanical Specification Calculators
Go
Mechanical Specifications
(2)
Created
Force by Linear Induction Motor
Go
Created
Thrust in Linear Induction Motor
Go
1 More Mechanical Specifications Calculators
Go
Mechanical Specifications
(2)
Created
Number of Turns in Primary Winding given Transformation Ratio
Go
Created
Number of Turns in Secondary Winding given Transformation Ratio
Go
6 More Mechanical Specifications Calculators
Go
Mechanical Specifications
(2)
Created
Angular Speed of Series DC Generator given Torque
Go
Created
Torque of Series DC Generator given Angular Speed and Armature Current
Go
1 More Mechanical Specifications Calculators
Go
Mechanical Specifications
(7)
Created
Machine Constant of DC Shunt Motor given Torque
Go
Created
Machine Construction Constant of DC Shunt Motor given Angular Speed
Go
Created
Machine Construction Constant of Shunt DC Motor
Go
Created
Machine Construction Constant using Speed of Shunt DC Motor
Go
Created
Number of Armature Conductors of DC Shunt Motor using K
Go
Created
Number of Parallel Paths of Shunt DC Motor
Go
Created
Number of Poles of Shunt DC Motor
Go
Mechanical Specifications
(3)
Created
Machine Construction Constant of Series DC Motor using Armature Induced Voltage
Go
Created
Machine Construction Constant of Series DC Motor using Speed
Go
Created
Magnetic Flux of Series DC Motor given Speed
Go
Median
(1)
Verified
Median of Data given Mean and Mode
Go
1 More Median Calculators
Go
MESFET Characteristics
(9)
Verified
Cut-off Frequency
Go
Verified
Drain Resistance of MESFET
Go
Verified
Gate Length of MESFET
Go
Verified
Gate Metallization Resistance
Go
Verified
Gate Source Capacitance
Go
Verified
Input Resistance
Go
Verified
Maximum Frequency of Oscillations in MESFET
Go
Verified
Source Resistance
Go
Verified
Transconductance in MESFET
Go
4 More MESFET Characteristics Calculators
Go
Miller’s Theorem
(2)
Verified
Change in Drain Current
Go
Verified
Miller Capacitance
Go
4 More Miller’s Theorem Calculators
Go
Mobile Radio Propogation
(15)
Verified
Block of N Serial Source
Go
Verified
Cumulative Distribution Function
Go
Verified
Long Term Fading
Go
Verified
Maximum Possible S by N Ratio
Go
Verified
Mobile Radio Distance
Go
Verified
Mobile Radio Signal
Go
Verified
Mobile Reciever Carrier Power
Go
Verified
Multipath Fading
Go
Verified
Noise Figure
Go
Verified
Path Loss Coefficient
Go
Verified
Selective Retransmission
Go
Verified
Serial to Parallel Modulation Time Period
Go
Verified
Short Term Fading
Go
Verified
Stop-and-Wait ARQ Technique
Go
Verified
Symbol Duration
Go
1 More Mobile Radio Propogation Calculators
Go
Molality
(2)
Verified
Molality using Molarity
Go
Verified
Molality using Mole Fraction
Go
3 More Molality Calculators
Go
MOSFET
(1)
Verified
Transistor Aspect Ratio
Go
8 More MOSFET Calculators
Go
N Channel Enhancement
(16)
Verified
Body Effect in NMOS
Go
Verified
Current Entering Drain Source at Boundary of Saturation and Triode Region of NMOS
Go
Verified
Current Entering Drain Terminal of NMOS
Go
Verified
Current Entering Drain Terminal of NMOS given Gate Source Voltage
Go
Verified
Current Entering Drain-Source at Saturation Region of NMOS
Go
Verified
Current Entering Drain-Source at Saturation Region of NMOS given Effective Voltage
Go
Verified
Current Entering Drain-Source in Triode Region of NMOS
Go
Verified
Drain Current given NMOS Operates as Voltage-Controlled Current Source
Go
Verified
Drain Current when NMOS Operates as Voltage-Controlled Current Source
Go
Verified
Electron Drift Velocity of Channel in NMOS Transistor
Go
Verified
Fabrication Process Parameter of NMOS
Go
Verified
NMOS as Linear Resistance
Go
Verified
Output Resistance of Current Source NMOS given Drain Current
Go
Verified
Oxide Capacitance of NMOS
Go
Verified
Positive Voltage given Channel Length in NMOS
Go
Verified
Total Power Dissipated in NMOS
Go
1 More N Channel Enhancement Calculators
Go
Negative Sequence
(2)
Created
Negative Sequence Current using Negative Sequence Impedance (One Conductor Open)
Go
Created
Negative Sequence Voltage using Negative Sequence Impedance (One Conductor Open)
Go
1 More Negative Sequence Calculators
Go
Negative Sequence
(4)
Created
Negative Sequence Current using A-Phase Current(Two Conductor Open)
Go
Created
Negative Sequence Current using Negative Sequence Voltage (Two Conductor Open)
Go
Created
Negative Sequence Potential Difference (Two Conductor Open)
Go
Created
Negative Sequence Voltage using Negative Sequence Current (Two Conductor Open)
Go
1 More Negative Sequence Calculators
Go
Nipping of Leaf Spring
(12)
Verified
Force Applied at End of Spring
Go
Verified
Force Applied at End of Spring given Pre-Load Required to Close Gap
Go
Verified
Initial Nip in Leaf Spring
Go
Verified
Initial Pre-Load Required to Close Gap
Go
Verified
Length of Cantilever given Initial Nip of Leaf Spring
Go
Verified
Modulus of Elasticity given Initial Nip of Spring
Go
Verified
Number of Full Length Leaves given Initial Pre-load Required to Close Gap
Go
Verified
Number of Graduated length leaves given Initial Pre-Load required to close gap
Go
Verified
Thickness of Each Leaf given Initial Nip of Leaf Spring
Go
Verified
Total Number of Leaves given Initial Nip of Leaf Spring
Go
Verified
Total Number of Leaves given Pre-Load Required to Close Gap
Go
Verified
Width of Each Leaf given Initial Nip of Leaf Spring
Go
Nominal Pi Method in Medium Line
(20)
Created
A-Parameter in Nominal Pi Method
Go
Created
B Parameter for Reciprocal Network in Nominal Pi Method
Go
Created
C Parameter in Nominal Pi Method
Go
Created
D Parameter in Nominal Pi Method
Go
Created
Impedance using A Parameter in Nominal Pi Method
Go
Created
Load Current using Losses in Nominal Pi Method
Go
Created
Load Current using Transmission Efficiency in Nominal Pi Method
Go
Created
Losses in Nominal Pi Method
Go
Created
Losses using Transmission Efficiency in Nominal Pi Method
Go
Created
Receiving End Angle using Transmission Efficiency in Nominal Pi Method
Go
Created
Receiving End Current using Transmission Efficiency in Nominal Pi Method
Go
Created
Receiving End Voltage using Sending End Power in Nominal Pi Method
Go
Created
Receiving End Voltage using Voltage Regulation in Nominal Pi Method
Go
Created
Resistance using Losses in Nominal Pi Method
Go
Created
Sending End Current using Transmission Efficiency in Nominal Pi Method
Go
Created
Sending End Power using Transmission Efficiency in Nominal Pi Method
Go
Created
Sending End Voltage using Transmission Efficiency in Nominal Pi Method
Go
Created
Sending End Voltage using Voltage Regulation in Nominal Pi Method
Go
Created
Transmission Efficiency (Nominal Pi Method)
Go
Created
Voltage Regulation (Nominal Pi Method)
Go
Nominal T Method in Medium Line
(19)
Created
Admittance using A Parameter in Nominal T Method
Go
Created
Admittance using D Parameter in Nominal T Method
Go
Created
A-Parameter for Reciprocal Network in Nominal T Method
Go
Created
A-Parameter in Nominal T Method
Go
Created
B Parameter in Nominal T Method
Go
Created
Capacitive Current in Nominal T Method
Go
Created
Capacitive Voltage in Nominal T Method
Go
Created
Capacitive Voltage using Sending End Voltage in Nominal T Method
Go
Created
Impedance using Capacitive Voltage in Nominal T Method
Go
Created
Impedance using D Parameter in Nominal T Method
Go
Created
Losses in Nominal T Method
Go
Created
Receiving End Angle using Sending End Power in Nominal T Method
Go
Created
Receiving End Voltage using Capacitive Voltage in Nominal T Method
Go
Created
Sending End Current in Nominal T Method
Go
Created
Sending End Current using Losses in Nominal T Method
Go
Created
Sending End Voltage using Capacitive Voltage in Nominal T Method
Go
Created
Sending End Voltage using Voltage Regulation in Nominal T Method
Go
Created
Transmission Efficiency in Nominal T Method
Go
Created
Voltage Regulation using Nominal T Method
Go
Non Linear Circuits
(16)
Verified
Amplifier Gain of Tunnel Diode
Go
Verified
Average Diode Temperature using Single Side Band Noise
Go
Verified
Bandwidth using Dynamic Quality Factor
Go
Verified
Dynamic Q Factor
Go
Verified
Magnitude of Negative Resistance
Go
Verified
Maximum Applied Current across Diode
Go
Verified
Maximum Applied Voltage across Diode
Go
Verified
Negative Conductance of Tunnel Diode
Go
Verified
Noise Figure of Double Side Band
Go
Verified
Noise Figure of Single Side Band
Go
Verified
Power Gain of Tunnel Diode
Go
Verified
Ratio Negative Resistance to Series Resistance
Go
Verified
Reactive Impedence
Go
Verified
Room Temperature
Go
Verified
Tunnel Diode Output Power
Go
Verified
Voltage Reflection Coefficient of Tunnel Diode
Go
Normal Stress
(2)
Verified
Equivalent Stress by Distortion Energy Theory
Go
Verified
Stress Amplitude
Go
6 More Normal Stress Calculators
Go
Number of leaves
(7)
Verified
Number of Extra Full length leaves given Bending Stress on Graduated length leaves
Go
Verified
Number of Extra Full Length Leaves given Force Taken by Graduated Length Leaves
Go
Verified
Number of Full Length Leaves given Bending Stress in Plate Extra Full Length
Go
Verified
Number of Graduated length leaves given Bending Stress in Plate
Go
Verified
Number of Graduated length leaves given Bending Stress on Graduated length leaves
Go
Verified
Number of Graduated length leaves given Deflection at Load Point Graduated-Length Leaves
Go
Verified
Number of Graduated length leaves given Force taken by Graduated length leaves
Go
1 More Number of leaves Calculators
Go
Nut Dimensions
(1)
Verified
Diameter of Hole Inside Bolt
Go
4 More Nut Dimensions Calculators
Go
One Conductor Open
(4)
Created
A-Phase EMF using Zero Sequence Impedance (One Conductor Open)
Go
Created
B-Phase Current (One Conductor Open)
Go
Created
C-Phase Current (One Conductor Open)
Go
Created
Potential Difference between A-Phase using Zero Sequence Potential Difference (One Conductor Open)
Go
2 More One Conductor Open Calculators
Go
Oscilloscope
(26)
Verified
Deflection Factor
Go
Verified
Deflection on Screen
Go
Verified
Deflection Sensitivity
Go
Verified
Degree Per Division
Go
Verified
Display Rise Time of Oscilloscope
Go
Verified
Horizontal Division Per Cycle
Go
Verified
Length of Oscilloscope
Go
Verified
Modulus Number of Counter
Go
Verified
Number of Gaps in Circle
Go
Verified
Number of Positive Peak
Go
Verified
Number of Right Hand Side Peak
Go
Verified
Oscillation Time Period
Go
Verified
Output Time Period
Go
Verified
Peak to Peak Voltage of Waveform
Go
Verified
Phase Difference between Two Sine Wave
Go
Verified
Phase Difference in Division
Go
Verified
Potential between Deflection Plate
Go
Verified
Pulse Width of Oscilloscope
Go
Verified
Ratio of Modulating Frequency to Deflecting Plate
Go
Verified
Rise Time Imposed by Oscilloscope
Go
Verified
Rise Time of Oscilloscope
Go
Verified
Time Constant of Oscilloscope
Go
Verified
Time Per Division of Oscilloscope
Go
Verified
Time Period of Waveform
Go
Verified
Vertical Frequency
Go
Verified
Vertical Peak to Peak Division
Go
1 More Oscilloscope Calculators
Go
Others and Extra
(1)
Verified
Maximum Efficiency of Steam Engine
Go
20 More Others and Extra Calculators
Go
P Channel Enhancement
(8)
Verified
Body Effect in PMOS
Go
Verified
Drain Current in Saturation Region of PMOS Transistor
Go
Verified
Drain Current in Saturation Region of PMOS Transistor given Vov
Go
Verified
Drain Current in Triode Region of PMOS Transistor
Go
Verified
Drain Current in Triode Region of PMOS Transistor given Vsd
Go
Verified
Overall Drain Current of PMOS Transistor
Go
Verified
Overdrive Voltage of PMOS
Go
Verified
Process Transconductance Parameter of PMOS
Go
7 More P Channel Enhancement Calculators
Go
Pair of Lines
(1)
Verified
Obtuse Angle between Pair of Lines
Go
2 More Pair of Lines Calculators
Go
Parallel Fillet Welds
(1)
Verified
Width of Plane in Double Parallel Fillet Weld
Go
14 More Parallel Fillet Welds Calculators
Go
Parametric Devices
(13)
Verified
Bandwidth of Negative Resistance Parametric Amplifier (NRPA)
Go
Verified
Bandwidth of Parametric Up-Converter
Go
Verified
Gain-Degradation Factor
Go
Verified
Idler Frequency using Pumping Frequency
Go
Verified
Noise Figure of Parametric Up-Converter
Go
Verified
Output Frequency in Up-Convertor
Go
Verified
Output Resistance of Signal Generator
Go
Verified
Power Gain for Parametric Up-Converter
Go
Verified
Power Gain of Demodulator
Go
Verified
Power Gain of Down-Converter
Go
Verified
Power Gain of Modulator
Go
Verified
Pumping Frequency using Demodulator Gain
Go
Verified
Signal frequency
Go
Percentage Concentration Terms
(2)
Verified
Hardness of Water
Go
Verified
Percentage of Chlorine in Bleaching Powder
Go
9 More Percentage Concentration Terms Calculators
Go
Performance Factors
(1)
Verified
Power Transmitted
Go
4 More Performance Factors Calculators
Go
Performance Metrics
(13)
Verified
Acceleration Execution Time
Go
Verified
Baudrate
Go
Verified
Compilation
Go
Verified
CPU Time for Useful Work
Go
Verified
CPU Utilization
Go
Verified
Cyclomatic Complexity
Go
Verified
Execution Time
Go
Verified
Number of Component in Graph
Go
Verified
Optimization
Go
Verified
Read Time
Go
Verified
Total Available CPU Time
Go
Verified
Translation
Go
Verified
Write Time
Go
2 More Performance Metrics Calculators
Go
Photonics Devices
(1)
Verified
Wavelength of Radiation in Vaccum
Go
12 More Photonics Devices Calculators
Go
Pipes
(5)
Verified
Depth of Centroid given Total Hydrostatic Force
Go
Verified
Diameter of Pipe given Head Loss due to Laminar Flow
Go
Verified
Head Loss using Efficiency of Hydraulic Transmission
Go
Verified
Length of Pipe given Head loss
Go
Verified
Viscous Force using Head loss Due to Laminar Flow
Go
7 More Pipes Calculators
Go
Planck Quantum Theory
(4)
Verified
Energy of Moving Particle given Frequency
Go
Verified
Energy of Moving Particle given Wave Number
Go
Verified
Energy of Moving Particle given Wavelength
Go
Verified
Frequency of Moving Particle
Go
2 More Planck Quantum Theory Calculators
Go
Polygonal Effect
(6)
Verified
Diameter of Pitch Circle of Sprocket given Minimum Linear Velocity of Sprocket
Go
Verified
Linear Velocity of Sprocket
Go
Verified
Minimum Linear Velocity of Sprocket
Go
Verified
Pitch Circle Diameter of Sprocket given Linear Velocity of Sprocket
Go
Verified
Speed of Rotation of Shaft given Linear Velocity of Sprocket
Go
Verified
Speed of Rotation of Shaft given Minimum Linear Velocity of Sprocket
Go
Positive Sequence
(5)
Created
Positive Sequence Current using Positive Sequence Voltage (One Conductor Open)
Go
Created
Positive Sequence Current using Zero Sequence Impedance (One Conductor Open)
Go
Created
Positive Sequence Impedance using Positive Sequence Voltage (One Conductor Open)
Go
Created
Positive Sequence Potential Difference using A-Phase Potential Difference (One Conductor Open)
Go
Created
Positive Sequence Voltage using Positive Sequence Impedance (One Conductor Open)
Go
Positive Sequence
(7)
Created
Positive Sequence Current (Two Conductor Open)
Go
Created
Positive Sequence Current using A-Phase EMF (Two Conductor Open)
Go
Created
Positive Sequence Current using Positive Sequence Voltage (Two Conductor Open)
Go
Created
Positive Sequence Impedance using A-Phase EMF (Two Conductor Open)
Go
Created
Positive Sequence Impedance using Positive Sequence Voltage (Two Conductor Open)
Go
Created
Positive Sequence Potential Difference (Two Conductor Open)
Go
Created
Positive Sequence Voltage using Positive Sequence Current (Two Conductor Open)
Go
Power
(1)
Created
Power Converted in Induction Motor
Go
4 More Power Calculators
Go
Power
(1)
Created
Power Generated given Armature Current in DC Shunt Generator
Go
1 More Power Calculators
Go
Power
(2)
Created
Converted Power of Series DC Generator given Input Power
Go
Created
Converted Power of Series DC Generator given Output Power
Go
Power
(7)
Created
3 Phase Input Power of Synchronous Motor
Go
Created
3 Phase Mechanical Power of Synchronous Motor
Go
Created
Input Power of Synchronous Motor
Go
Created
Mechanical Power of Synchronous Motor
Go
Created
Mechanical Power of Synchronous Motor given Gross Torque
Go
Created
Mechanical Power of Synchronous Motor given Input Power
Go
Created
Output Power for Synchronous Motor
Go
1 More Power Calculators
Go
Power and Phase Difference
(7)
Created
Receiving End Angle using Losses (STL)
Go
Created
Receiving End Angle using Receiving End Power (STL)
Go
Created
Receiving End Angle using Transmission Efficiency (STL)
Go
Created
Receiving End Power (STL)
Go
Created
Sending End Angle using Receiving End Parameters (STL)
Go
Created
Sending End Angle using Sending End Power (STL)
Go
Created
Sending End Power (STL)
Go
1 More Power and Phase Difference Calculators
Go
Power and Power Factor
(5)
Created
Power Transmitted using K(Two-Wire One Conductor Earthed)
Go
Created
Transmitted Power using Area of X-Section(Two-Wire One Conductor Earthed)
Go
Created
Transmitted Power using Line Losses(Two-Wire One Conductor Earthed)
Go
Created
Transmitted Power using Load Current(Two-Wire One Conductor Earthed)
Go
Created
Transmitted Power using Volume(Two-Wire One Conductor Earthed)
Go
Power and Power Factor
(3)
Created
Power Transmitted using Line Losses(Two-Wire Mid-Point Earthed)
Go
Created
Power Transmitted using Load Current(Two-Wire Mid-Point Earthed)
Go
Created
Power Transmitted using Volume of Conductor Material(2-Wire Mid-Point Earthed OS)
Go
Power and Power Factor
(6)
Created
Power Transmitted per Phase (DC 3-Wire)
Go
Created
Power Transmitted using Area of X-Section(DC 3-Wire)
Go
Created
Power Transmitted using Constant(DC 3-Wire)
Go
Created
Power Transmitted using Line Losses(DC 3-Wire)
Go
Created
Power Transmitted using Load Current(DC 3-Wire)
Go
Created
Power Transmitted using Volume of Conductor Material (DC 3-Wire)
Go
Power and Power Factor
(7)
Created
Power Factor using Area of X-Section(2-Phase 4-Wire OS)
Go
Created
Power Factor using Line Losses (2-Phase 4-Wire OS)
Go
Created
Power Factor using Load Current (2-Phase 4-Wire OS)
Go
Created
Power Transmitted using Area of X-Section(2-Phase 4-Wire OS)
Go
Created
Power Transmitted using Line Losses (2-Phase 4-Wire OS)
Go
Created
Power Transmitted using Load Current (2-Phase 4-Wire OS)
Go
Created
Power Transmitted(2-Phase 4-Wire OS)
Go
Power and Power Factor
(10)
Created
Angle of PF using Area of X-Section(3-Phase 4-Wire OS)
Go
Created
Angle of PF using Load Current (3-Phase 4-Wire OS)
Go
Created
Angle of PF using Volume of Conductor Material (3-Phase 4-Wire OS)
Go
Created
Power Factor using Area of X-Section(3-Phase 4-Wire OS)
Go
Created
Power Factor using Load Current (3-Phase 4-Wire OS)
Go
Created
Power Factor using Volume of Conductor Material (3-Phase 4-Wire OS)
Go
Created
Power Transmitted using Area of X-Section(3-Phase 4-Wire OS)
Go
Created
Power Transmitted using Load Current (3-Phase 4-Wire OS)
Go
Created
Power Transmitted using Volume of Conductor Material (3-Phase 4-Wire OS)
Go
Created
Power Transmitted(3-Phase 4-Wire OS)
Go
Power and Power Factor
(7)
Created
Angle of PF using Area of X-Section(3-Phase 3-Wire OS)
Go
Created
Angle of PF using Load Current(3-Phase 3-Wire OS)
Go
Created
Power Factor using Area of X-Section(3-Phase 3-Wire OS)
Go
Created
Power Factor using Load Current(3-Phase 3-Wire OS)
Go
Created
Power Transmitted using Area of X-Section(3-Phase 3-Wire OS)
Go
Created
Power Transmitted(3-Phase 3-Wire OS)
Go
Created
Transmitted Power using Load Current(3-Phase 3-Wire OS)
Go
Power and Power Factor
(10)
Created
Angle of PF using Line Losses (Two-Phase Three-Wire OS)
Go
Created
Angle of PF using Volume of Conductor Material (Two-Phase Three-Wire OS)
Go
Created
Power Factor using Area of X-section(Two-Phase Three-Wire OS)
Go
Created
Power Factor using Line Losses (Two-Phase Three-Wire OS)
Go
Created
Power Factor using Volume of Conductor Material (Two-Phase Three-Wire OS)
Go
Created
Power Transmitted using Area of X-Section(Two-Phase Three-Wire OS)
Go
Created
Power Transmitted using Load Current (Two-Phase Three-Wire OS)
Go
Created
Power Transmitted using Volume of Conductor Material (Two-Phase Three-Wire OS)
Go
Created
Power Transmitted(Two-Phase Three-Wire OS)
Go
Created
Transmitted Power using Line Losses (Two-Phase Three-Wire OS)
Go
Power and Power Factor
(8)
Created
Power Factor using Area of X-Section(Single-Phase Three-Wire OS)
Go
Created
Power Factor using Line Losses (Single-Phase Three-Wire OS)
Go
Created
Power Factor using Load Current (Single-Phase Three-Wire OS)
Go
Created
Power Factor using Volume of Conductor Material (Single-Phase Three-Wire OS)
Go
Created
Power Transmitted using Area of X-Section(Single-Phase Three-Wire OS)
Go
Created
Power Transmitted using Line Losses (Single-Phase Three-Wire OS)
Go
Created
Power Transmitted using Load Current (Single-Phase Three-Wire OS)
Go
Created
Power Transmitted using Volume of Conductor Material (Single-Phase Three-Wire OS)
Go
Power and Power Factor
(4)
Created
Power Factor using Area of X-Section(Single phase Two Wire OS)
Go
Created
Power Factor using Load Current (Single Phase Two Wire OS)
Go
Created
Power Transmitted using Area of X-Section(Single Phase Two Wire OS)
Go
Created
Power Transmitted using Load Current (Single Phase Two Wire OS)
Go
Power and Power Factor
(6)
Created
Power Factor using Area of X-Section(Single-Phase Two-Wire Mid-Point Earthed OS)
Go
Created
Power Factor using Line Losses (Single-Phase Two-Wire Mid-Point OS)
Go
Created
Power Factor using Load Current (Single-Phase Two-Wire Mid-Point OS)
Go
Created
Power Transmitted using Area of X-Section(Single-Phase Two-Wire Mid-Point Earthed OS)
Go
Created
Power Transmitted using Line Losses (Single-Phase Two-Wire Mid-Point OS)
Go
Created
Power Transmitted using Load Current (Single-Phase Two-Wire Mid-Point OS)
Go
Power and Power Factor
(12)
Created
Power Factor using Area of X-Section (1-Phase 2-Wire US)
Go
Created
Power Factor using Constant (1-Phase 2-Wire US)
Go
Created
Power Factor using Line Losses (1-Phase 2-Wire US)
Go
Created
Power Factor using Load Current (1-Phase 2-Wire US)
Go
Created
Power Factor using Resistance (1-Phase 2-Wire US)
Go
Created
Power Factor using Volume of Conductor Material (1-Phase 2-Wire US)
Go
Created
Power Transmitted using Area of X-Section (1-Phase 2-Wire US)
Go
Created
Power Transmitted using Constant (1-Phase 2-Wire US)
Go
Created
Power Transmitted using Line Losses (1-Phase 2-Wire US)
Go
Created
Power Transmitted using Load Current (1-Phase 2-Wire US)
Go
Created
Power Transmitted using Resistance (1-Phase 2-Wire US)
Go
Created
Power Transmitted using Volume of Conductor Material (1-Phase 2-Wire US)
Go
Power and Power Factor
(13)
Created
Angle of PF using Volume of Conductor Material (3 Phase 4 Wire US)
Go
Created
Power Factor using Area of X-Section (3 Phase 4 Wire US)
Go
Created
Power Factor using Line Losses (3 Phase 4 Wire US)
Go
Created
Power Factor using Load Current (3 Phase 4 Wire US)
Go
Created
Power Factor using Volume of Conductor Material (3 Phase 4 Wire US)
Go
Created
Power Transmitted using Area of X-Section (3 Phase 4 Wire US)
Go
Created
Power Transmitted using Line Losses (3 Phase 4 Wire US)
Go
Created
Power Transmitted using Load Current (3 Phase 4 Wire US)
Go
Created
Power Transmitted using Volume of Conductor Material (3 Phase 4 Wire US)
Go
Created
RMS Voltage using Area of X-Section (3 Phase 4 Wire US)
Go
Created
RMS Voltage using Line Losses (3 Phase 4 Wire US)
Go
Created
RMS Voltage using Load Current (3 Phase 4 Wire US)
Go
Created
RMS Voltage using Volume of Conductor Material (3 Phase 4 Wire US)
Go
Power and Power Factor
(8)
Created
Power Factor Angle for 3 Phase 3 Wire System
Go
Created
Power Factor using Area of X-Section (3 Phase 3 Wire US)
Go
Created
Power Factor using Load Current Per Phase (3 Phase 3 Wire US)
Go
Created
Power Factor using Volume of Conductor Material (3 Phase 3 Wire US)
Go
Created
Power Transmitted Per Phase (3 Phase 3 Wire US)
Go
Created
Power Transmitted using Area of X-Section (3 Phase 3 Wire US)
Go
Created
Power Transmitted using Load Current Per Phase (3 Phase 3 Wire US)
Go
Created
Power Transmitted using Volume of Conductor Material (3 Phase 3 Wire US)
Go
Power and Power Factor
(8)
Created
Power Factor using Current in Each Outer (2-Phase 3-Wire US)
Go
Created
Power Factor using Current in Neutral Wire (2-Phase 3-Wire US)
Go
Created
Power Factor using Line Losses (2-Phase 3-Wire US)
Go
Created
Power Factor using Volume of Conductor Material (2 Phase 3 Wire US)
Go
Created
Power Transmitted using Current in Each Outer (2-Phase 3-Wire US)
Go
Created
Power Transmitted using Current in Neutral Wire (2-Phase 3-Wire US)
Go
Created
Power Transmitted using Volume of Conductor Material (2 Phase 3 Wire US)
Go
Created
Transmitted Power using Line Losses (2-Phase 3-Wire US)
Go
Power and Power Factor
(9)
Created
Power Factor Angle for Single Phase 3 Wire System
Go
Created
Power Factor using Area of X Section (1 Phase 3 Wire US)
Go
Created
Power Factor using Line Losses (1 Phase 3 Wire US)
Go
Created
Power Factor using Load Current (1 Phase 3 Wire US)
Go
Created
Power Factor using Volume of Conductor Material(1 Phase 3 Wire US)
Go
Created
Power Transmitted using Area of X Section (1 Phase 3 Wire US)
Go
Created
Power Transmitted using Line Losses (1 Phase 3 Wire US)
Go
Created
Transmitted Power using Load Current (1 Phase 3 Wire US)
Go
Created
Transmitted Power using Volume of Conductor Material(1 Phase 3 Wire US)
Go
Power and Power Factor
(6)
Created
Power Factor using Area of X-Section (1-Phase 2-Wire Mid-Point Earthed)
Go
Created
Power Factor using Line Losses (1-Phase 2-Wire Mid-Point Earthed)
Go
Created
Power Factor using Load Current (1-Phase 2-Wire Mid-Point Earthed)
Go
Created
Power Transmitted using Area of X-Section (1-Phase 2-Wire Mid-Point Earthed)
Go
Created
Power Transmitted using Line Losses (1-Phase 2-Wire Mid-Point Earthed)
Go
Created
Power Transmitted using Load Current (1-Phase 2-Wire Mid-Point Earthed)
Go
Power and Power Factor
(7)
Created
Angle using Load Current (2 Phase 4 Wire US)
Go
Created
Power Factor using Area of X-Section (2 Phase 4 Wire US)
Go
Created
Power Factor using Line Losses (2 Phase 4 Wire US)
Go
Created
Power Factor using Load Current (2 Phase 4 Wire US)
Go
Created
Power Transmitted using Area of X-Section (2 Phase 4 Wire US)
Go
Created
Power Transmitted using Line Losses (2 Phase 4 Wire US)
Go
Created
Power Transmitted using Load Current (2 Phase 4 Wire US)
Go
Power and Resistance
(5)
Created
Power Transmitted using Area of X-Section (DC Two-Wire US)
Go
Created
Power Transmitted using Line Losses (DC Two-Wire US)
Go
Created
Resistance using Line Losses (DC Two-Wire US)
Go
Created
Resistivity using Area of X-Section (DC Two-Wire US)
Go
Created
Resistivity using Line Losses (DC Two-Wire US)
Go
Power and Resistivity
(5)
Created
Power Transmitted using Area of X-Section (2-Wire Mid-Point Earthed DC US)
Go
Created
Power Transmitted using Load Current (2-Wire Mid-Point DC US)
Go
Created
Power Transmitted using Volume of Conductor Material (2-Wire Mid-Point DC US)
Go
Created
Resistivity using Area of X-Section (2-wire Mid-point earthed DC US)
Go
Created
Resistivity using Volume of Conductor Material (2-Wire Mid-Point DC US)
Go
Power Factor and Phase Angle
(6)
Created
Phase Angle between Load Voltage and Current given 3 Phase Input Power
Go
Created
Phase Angle between Voltage and Armature Current given 3 Phase Mechanical Power
Go
Created
Phase Angle between Voltage and Armature Current given Input Power
Go
Created
Power Factor of Synchronous Motor given 3 Phase Mechanical Power
Go
Created
Power Factor of Synchronous Motor given Input Power
Go
Created
Power Factor of Synchronous Motor using 3 Phase Input Power
Go
Power Factor and Q Factor
(5)
Created
Power Factor given Impedance
Go
Created
Power Factor given Power
Go
Created
Power Factor given Power Factor Angle
Go
Created
Q Factor for Parallel RLC Circuit
Go
Created
Q Factor for Series RLC Circuit
Go
Power Plant Operational Factors
(2)
Created
Average Load for Load Curve
Go
Created
Unit Generated per Annum
Go
13 More Power Plant Operational Factors Calculators
Go
Power Rating of Roller Chains
(8)
Verified
Allowable Tension in Chain given Power Transmitted by Roller Chain
Go
Verified
Average Velocity of Chain given Power Transmitted by Roller Chain
Go
Verified
Multiple Strand Factor given Power Rating of Chain
Go
Verified
Power Rating of Chain
Go
Verified
Power to be Transmitted given Power Rating of Chain
Go
Verified
Power Transmitted by Roller Chain
Go
Verified
Service Factor given Power Rating of Chain
Go
Verified
Tooth Correction Factor given Power Rating of Chain
Go
Power Transmission
(6)
Verified
Belt Tension in Loose Side of V-Belt given Power Transmitted
Go
Verified
Belt Tension in Tight Side of Belt given Power Transmitted using V-Belt
Go
Verified
Belt Velocity given Power Transmitted using V-Belt
Go
Verified
Drive Power to be Transmitted given Number of Belts Required
Go
Verified
Power Rating of Single V-Belt given Number of Belts Required
Go
Verified
Power Transmitted using V Belt
Go
Pressure Measurement
(7)
Verified
Change in Pressure
Go
Verified
Height of liquid in column
Go
Verified
Pressure Difference in Manometer
Go
Verified
Pressure Difference in U-tube Manometer
Go
Verified
Pressure on Left of Manometer
Go
Verified
Pressure on right of Manometer
Go
Verified
Shear Stress in Fluid
Go
1 More Pressure Measurement Calculators
Go
Pressure Relations
(19)
Verified
Absolute Pressure at Height h
Go
Verified
Angle of Inclined Manometer given Pressure at Point
Go
Verified
Area of Surface Wetted given Center of Pressure
Go
Verified
Bulk Modulus given Velocity of Pressure Wave
Go
Verified
Density of Liquid given Dynamic Pressure
Go
Verified
Depth of Centroid given Center of Pressure
Go
Verified
Diameter of Droplet given Change in Pressure
Go
Verified
Diameter of Soap Bubble
Go
Verified
Height of Fluid 1 given Differential Pressure between Two Points
Go
Verified
Height of Fluid 2 given Differential Pressure between Two Points
Go
Verified
Height of Liquid given its Absolute Pressure
Go
Verified
Length of Inclined Manometer
Go
Verified
Mass Density given Velocity of Pressure Wave
Go
Verified
Moment of Inertia of Centroid given Center of Pressure
Go
Verified
Pressure using Inclined Manometer
Go
Verified
Pressure Wave Velocity in Fluids
Go
Verified
Surface Tension of Liquid Drop given Change in Pressure
Go
Verified
Surface Tension of Soap Bubble
Go
Verified
Velocity of Fluid given Dynamic Pressure
Go
11 More Pressure Relations Calculators
Go
Production of Power from Heat
(1)
Verified
Thermal Expansion
Go
12 More Production of Power from Heat Calculators
Go
Proportion
(1)
Verified
Population Proportion
Go
2 More Proportion Calculators
Go
Proportions of the Sprocket Wheel
(22)
Verified
Chain Pitch given Maximum Tooth Height above Pitch Polygon
Go
Verified
Maximum Roller Seating Angle
Go
Verified
Maximum Tooth Height above Pitch Polygon
Go
Verified
Minimum Roller Seating Angle
Go
Verified
Minimum Roller Seating Radius
Go
Verified
Minimum Tooth Flank Radius
Go
Verified
Minimum Tooth Height above Pitch Polygon
Go
Verified
Number of Teeth given Maximum Roller Seating Angle
Go
Verified
Number of Teeth given Maximum Tooth Height above Pitch Polygon
Go
Verified
Number of Teeth given Minimum Roller Seating Angle
Go
Verified
Number of Teeth given Minimum Tooth Flank Radius
Go
Verified
Number of Teeth on Sprocket given Pitch Angle of Sprocket
Go
Verified
Pitch Angle of Sprocket
Go
Verified
Pitch Circle Diameter given Average Velocity of Chain
Go
Verified
Pitch Circle Diameter given Pitch
Go
Verified
Pitch Circle Diameter given Root Diameter of Sprocket Wheel
Go
Verified
Pitch Circle Diameter given Top Diameter of Sprocket Wheel
Go
Verified
Roller Seating Radius given Roller Radius
Go
Verified
Roller Seating Radius given Root Diameter of Sprocket Wheel
Go
Verified
Root Diameter of Sprocket Wheel
Go
Verified
Tooth Flank Radius
Go
Verified
Top Diameter of Sprocket Wheel
Go
Q Factor
(8)
Verified
External Q-Factor
Go
Verified
Q-Factor of Beam Loading
Go
Verified
Q-Factor of Catcher Wall
Go
Verified
Q-Factor of External Load
Go
Verified
Q-Factor of Loaded Catcher Cavity
Go
Verified
Q-Factor of Loaded Resonator Circuit
Go
Verified
Quality Factor of Cavity Resonator
Go
Verified
Unloaded Q-factor
Go
6 More Q Factor Calculators
Go
Quartile Deviation
(1)
Verified
Quartile Deviation given Coefficient of Quartile Deviation
Go
1 More Quartile Deviation Calculators
Go
Radar and Antenna Specifications
(24)
Verified
Antenna Aperture Efficiency
Go
Verified
Antenna Area
Go
Verified
Cumulative Probability of Detection
Go
Verified
Doppler Angular Frequency
Go
Verified
Doppler Frequency
Go
Verified
Effective Area of Receiving Antenna
Go
Verified
Maximum Gain of Antenna
Go
Verified
Maximum Power Density Radiated by Antenna
Go
Verified
Maximum Range of Radar
Go
Verified
Maximum Unambiguous Range
Go
Verified
Measured Runtime
Go
Verified
Minimum Detectable Signal
Go
Verified
N Scans
Go
Verified
Power Density Radiated by Lossless Antenna
Go
Verified
Probability of Detection
Go
Verified
Pulse Repetition Frequency
Go
Verified
Pulse Repetition Time
Go
Verified
Radar Antenna Height
Go
Verified
Radial Velocity
Go
Verified
Range of Target
Go
Verified
Target Height
Go
Verified
Target Velocity
Go
Verified
Transmitted Frequency
Go
Verified
Transmitted Gain
Go
Radio Wave Propagation
(8)
Verified
Earth Station Altitude
Go
Verified
Effective Path Length
Go
Verified
Effective Path Length using Reduction Factor
Go
Verified
Rain Height
Go
Verified
Reduction Factor using Slant Length
Go
Verified
Slant Length
Go
Verified
Specific Attenuation
Go
Verified
Total Attenuation
Go
6 More Radio Wave Propagation Calculators
Go
Radius of Bohr's Orbit
(4)
Verified
Angular Momentum using Radius of Orbit
Go
Verified
Bohr's Radius
Go
Verified
Frequency using Energy
Go
Verified
Radius of Orbit
Go
4 More Radius of Bohr's Orbit Calculators
Go
Reactance
(16)
Created
Equivalent Reactance from Primary Side given Equivalent Impedance
Go
Created
Equivalent Reactance from Secondary Side given Equivalent Impedance
Go
Created
Equivalent Reactance of Transformer from Primary Side
Go
Created
Equivalent Reactance of Transformer from Secondary Side
Go
Created
Primary Leakage Reactance
Go
Created
Primary Leakage Reactance given Equivalent Reactance from Secondary Side
Go
Created
Primary Leakage Reactance given Impedance of Primary Winding
Go
Created
Primary Leakage Reactance using Equivalent Reactance from Primary Side
Go
Created
Reactance of Primary in Secondary using Equivalent Reactance from Secondary Side
Go
Created
Reactance of Primary Winding in Secondary
Go
Created
Reactance of Secondary in Primary using Equivalent Reactance from Primary Side
Go
Created
Reactance of Secondary Winding in Primary
Go
Created
Secondary Leakage Reactance
Go
Created
Secondary Leakage Reactance given Equivalent Reactance from Primary Side
Go
Created
Secondary Leakage Reactance given Equivalent Reactance from Secondary Side
Go
Created
Secondary Leakage Reactance given Impedance of Secondary Winding
Go
Receiving End Connected To A Resistance Or Cable
(3)
Created
Characteristic Impedance using Transmitted Coefficient of Current
Go
Created
Load Impedance using Transmitted Coefficient of Current
Go
Created
Load Impedance using Transmitted Coefficient of Voltage
Go
Reflected Waves
(7)
Created
Characteristic Impedance for Reflected Waves
Go
Created
Characteristic Impedance using Reflected Current
Go
Created
Characteristic Impedance using Reflected Voltage
Go
Created
Incident Voltage using Reflected Current
Go
Created
Load Impedance using Reflected Voltage
Go
Created
Reflected Current using Incident and Transmitted Current
Go
Created
Reflected Current using Load Impedance
Go
Reflection Coefficient For Current
(1)
Created
Incident Current using Reflection Coefficient of Current
Go
Reflection Coefficient For Voltage
(2)
Created
Incident Voltage using Reflection Coefficient of Voltage
Go
Created
Reflection Coefficient of Current using Reflection Coefficient of Voltage
Go
Relation Between Coefficients
(10)
Created
Characteristic Impedance using Transmitted Coefficients
Go
Created
Load Impedance using Transmitted Coefficients
Go
Created
Reflected Coefficient of Current using Reflected Coefficient of Voltage
Go
Created
Reflected Coefficient of Current using Transmitted Coefficient of Current
Go
Created
Reflected Coefficient of Voltage using Reflected Coefficient of Current
Go
Created
Reflected Coefficient of Voltage using Transmitted Coefficient of Voltage
Go
Created
Transmitted Coefficient of Current using Reflected Coefficient of Current
Go
Created
Transmitted Coefficient of Current using Transmitted Coefficient of Voltage
Go
Created
Transmitted Coefficient of Voltage using Reflected Coefficient of Voltage
Go
Created
Transmitted Coefficient of Voltage using Transmitted Coefficient of Current
Go
Resistance
(2)
Verified
Resistance of Wire
Go
Verified
Temperature Dependence of Resistance
Go
6 More Resistance Calculators
Go
Resistance
(17)
Created
Equivalent Resistance from Primary Side
Go
Created
Equivalent Resistance from Primary Side using Equivalent Impedance from Primary Side
Go
Created
Equivalent Resistance from Secondary Side
Go
Created
Equivalent Resistance from Secondary Side using Equivalent Impedance from Secondary Side
Go
Created
Equivalent Resistance of Transformer from Primary Side
Go
Created
Equivalent Resistance of Transformer from Secondary Side
Go
Created
Primary Winding Resistance
Go
Created
Primary Winding Resistance given Impedance of Primary Winding
Go
Created
Primary Winding Resistance given Secondary Winding Resistance
Go
Created
Resistance of Primary in Secondary using Equivalent Resistance from Secondary Side
Go
Created
Resistance of Primary Winding in Secondary
Go
Created
Resistance of Secondary in Primary using Equivalent Resistance from Primary Side
Go
Created
Resistance of Secondary Winding in Primary
Go
Created
Secondary Winding Resistance
Go
Created
Secondary Winding Resistance given Equivalent Resistance from Primary Side
Go
Created
Secondary Winding Resistance given Impedance of Secondary Winding
Go
Created
Secondary Winding Resistance given Primary Winding Resistance
Go
1 More Resistance Calculators
Go
Resistance
(3)
Created
Armature Resistance of Series DC Generator given Output Power
Go
Created
Armature Resistance of Series DC Generator using Terminal Voltage
Go
Created
Series Field Resistance of Series DC Generator using Terminal Voltage
Go
Resistance
(2)
Created
Armature Resistance of Shunt DC Motor given Voltage
Go
Created
Shunt Field Resistance of Shunt DC Motor given Shunt Field Current
Go
Resistance
(3)
Created
Armature Resistance of Series DC Motor given Voltage
Go
Created
Series Field Resistance of Series DC Motor given Speed
Go
Created
Series Field Resistance of Series DC Motor given Voltage
Go
Resistance
(5)
Verified
Drain Output Resistance
Go
Verified
Electron Mean Free Path
Go
Verified
MOSFET as Linear Resistance
Go
Verified
MOSFET as Linear Resistance given Aspect Ratio
Go
Verified
Output Resistance of Differential Amplifier
Go
9 More Resistance Calculators
Go
Resistance
(9)
Verified
Emitter Resistance given Threshold Voltage
Go
Verified
Emitter Resistance of BJT
Go
Verified
Output Resistance of BJT
Go
Verified
Output Resistance of Current Source given Device Parameter
Go
Verified
Output Resistance of Transistor when Base Current is Constant
Go
Verified
Small-Signal Input Resistance between Base and Emitter
Go
Verified
Small-Signal Input Resistance between Base and Emitter using Base Current
Go
Verified
Small-Signal Input Resistance between Base and Emitter using Transconductance
Go
Verified
Small-Signal Input Resistance given Emitter Current
Go
6 More Resistance Calculators
Go
Resistance
(3)
Verified
Differential Input Resistance of BJT Amplifier
Go
Verified
Differential Input Resistance of BJT Amplifier given Common-Emitter Current Gain
Go
Verified
Differential Input Resistance of BJT Amplifier given Small-Signal Input Resistance
Go
1 More Resistance Calculators
Go
Resistance and Resistivity
(6)
Created
Resistance using Line Losses(Two-Wire One Conductor Earthed)
Go
Created
Resistivity using Area of X-Section(Two-Wire One Conductor Earthed)
Go
Created
Resistivity using K(Two-Wire One Conductor Earthed)
Go
Created
Resistivity using Line Losses(Two-Wire One Conductor Earthed)
Go
Created
Resistivity using Resistance(Two-Wire One Conductor Earthed)
Go
Created
Resistivity using Volume(Two-Wire One Conductor Earthed)
Go
Resistance and Resistivity
(4)
Created
Resistance using Line Losses(Two-Wire Mid-Point Earthed)
Go
Created
Resistance(Two-Wire Mid-Point Earthed)
Go
Created
Resistivity using Line Losses(Two-Wire Mid-Point Earthed)
Go
Created
Resistivity using Volume of Conductor Material(2-Wire Mid-Point Earthed OS)
Go
Resistance and Resistivity
(6)
Created
Resistance using Line Losses(DC 3-Wire)
Go
Created
Resistance(DC 3-Wire)
Go
Created
Resistivity using Area of X-Section(DC 3-Wire)
Go
Created
Resistivity using Constant(DC 3-Wire)
Go
Created
Resistivity using Line Losses(DC 3-Wire)
Go
Created
Resistivity using Volume of Conductor Material (DC 3-Wire)
Go
Resistance and Resistivity
(6)
Created
Resistance using Line Losses (Single Phase Two Wire OS)
Go
Created
Resistance using Load Current (Single Phase Two Wire OS)
Go
Created
Resistance(Single-Phase Two-Wire OS)
Go
Created
Resistivity using Area of X-Section(Single-Phase Two-Wire OS)
Go
Created
Resistivity using Line Losses (Single-Phase Two-Wire OS)
Go
Created
Resistivity using Load Current (Single-Phase Two-Wire OS)
Go
Resistance and Resistivity
(5)
Created
Resistance using Line Losses (Single-Phase Two-Wire Mid-Point OS)
Go
Created
Resistance using Load Current (Single-Phase Two-Wire Mid-Point OS)
Go
Created
Resistance(Single-Phase Two-Wire Mid-Point Earthed OS)
Go
Created
Resistivity using Area of X-Section(Single-Phase Two-Wire Mid-Point Earthed OS)
Go
Created
Resistivity using Load Current (Single-Phase Two-Wire Mid-Point OS)
Go
Resistance and Resistivity
(7)
Created
Resistance using Line Losses (Single-Phase Three-Wire OS)
Go
Created
Resistance using Load Current (Single-Phase Three-Wire OS)
Go
Created
Resistance(Single-Phase Three-Wire OS)
Go
Created
Resistivity using Area of X-section(Single-Phase Three-Wire OS)
Go
Created
Resistivity using Line Losses (Single-Phase Three-Wire OS)
Go
Created
Resistivity using Load Current (Single-Phase Three-Wire OS)
Go
Created
Resistivity using Volume of Conductor Material (Single-Phase Three-Wire OS)
Go
Resistance and Resistivity
(6)
Created
Resistance using Line Losses (2-Phase 4-Wire OS)
Go
Created
Resistance using Load Current (2-Phase 4-Wire OS)
Go
Created
Resistance(2-Phase 4-Wire OS)
Go
Created
Resistivity using Area of X-Section(2-Phase 4-Wire OS)
Go
Created
Resistivity using Line Losses (2-Phase 4-Wire OS)
Go
Created
Resistivity using Load Current (2-Phase 4-Wire OS)
Go
Resistance and Resistivity
(7)
Created
Resistance of Neutral Wire (Two-Phase Three-Wire OS)
Go
Created
Resistance using Line Losses (Two-Phase Three-Wire OS)
Go
Created
Resistance(Two-Phase Three-Wire OS)
Go
Created
Resistivity using Area of X-Section(Two-Phase Three-Wire OS)
Go
Created
Resistivity using Line Losses (Two-Phase Three-Wire OS)
Go
Created
Resistivity using Resistance (Two-Phase Three-Wire OS)
Go
Created
Resistivity using Volume of Conductor Material (Two-Phase Three-Wire OS)
Go
Resistance and Resistivity
(4)
Created
Resistance(3-Phase 4-Wire OS)
Go
Created
Resistivity using Area of X-Section(3-Phase 4-Wire OS)
Go
Created
Resistivity using Resistance (3-Phase 4-Wire OS)
Go
Created
Resistivity using Volume of Conductor Material (3-Phase 4-Wire OS)
Go
Resistance and Resistivity
(9)
Created
Resistance (1-Phase 2-Wire US)
Go
Created
Resistance using Constant (1-Phase 2-Wire US)
Go
Created
Resistance using Line Losses (1-Phase 2-Wire US)
Go
Created
Resistance using Volume of Conductor Material (1-Phase 2-Wire US)
Go
Created
Resistivity using Area of X-Section (1-Phase 2-Wire US)
Go
Created
Resistivity using Constant (1-Phase 2-Wire US)
Go
Created
Resistivity using Line Losses (1-Phase 2-Wire US)
Go
Created
Resistivity using Load Current (1-Phase 2-Wire US)
Go
Created
Resistivity using Volume of Conductor Material (1-Phase 2-Wire US)
Go
Resistance and Resistivity
(6)
Created
Resistance using Line Losses (3 Phase 4 Wire US)
Go
Created
Resistance using Volume of Conductor Material (3 Phase 4 Wire US)
Go
Created
Resistivity using Area of X-Section (3 Phase 4 Wire US)
Go
Created
Resistivity using Line Losses (3 Phase 4 Wire US)
Go
Created
Resistivity using Load Current (3 Phase 4 Wire US)
Go
Created
Resistivity using Volume of Conductor Material (3 Phase 4 Wire US)
Go
Resistance and Resistivity
(5)
Created
Angle of PF using Volume of Conductor Material (3 Phase 3 Wire US)
Go
Created
Angle using Area of X-Section (3 Phase 3 Wire US)
Go
Created
Resistance using Line Losses (3 Phase 3 Wire US)
Go
Created
Resistivity using Area of X-Section (3 Phase 3 Wire US)
Go
Created
Resistivity using Volume of Conductor Material (3 Phase 3 Wire US)
Go
Resistance and Resistivity
(5)
Created
Resistance of Neutral Wire (2-Phase 3-Wire US)
Go
Created
Resistance using Line Losses (2-Phase 3-Wire US)
Go
Created
Resistivity using Line Losses (2-Phase 3-Wire US)
Go
Created
Resistivity using Resistance of Natural Wire (2-Phase 3-Wire US)
Go
Created
Resistivity using Volume of Conductor Material (2 Phase 3 Wire US)
Go
Resistance and Resistivity
(4)
Created
Resistance using Line Losses (1 Phase 3 Wire US)
Go
Created
Resistivity using Area of X Section (1 Phase 3 Wire US)
Go
Created
Resistivity using Line Losses (1 Phase 3 Wire US)
Go
Created
Resistivity using Volume of Conductor Material(1 Phase 3 Wire US)
Go
Resistance and Resistivity
(3)
Created
Resistance using Line Losses (1-Phase 2-Wire Mid-Point Earthed)
Go
Created
Resistivity using Area of X-Section (1-Phase 2-Wire Mid-Point Earthed)
Go
Created
Resistivity using Line Losses (1-Phase 2-Wire Mid-Point Earthed)
Go
Resistance and Resistivity
(5)
Created
Resistance using Line Losses (2 Phase 4 Wire US)
Go
Created
Resistivity using Area of X-Section (2 Phase 4 Wire US)
Go
Created
Resistivity using Line Losses (2 Phase 4 Wire US)
Go
Created
Resistivity using Load Current (2 Phase 4 Wire US)
Go
Created
Resistivity using Volume of Conductor Material (2 Phase 4 Wire US)
Go
Resistance, Resistivity and Power
(7)
Created
Power Transmitted using Area of X-Section (DC Three-Wire US)
Go
Created
Power Transmitted using Line Losses (DC Three-Wire US)
Go
Created
Resistance using Line Losses (DC Three-Wire US)
Go
Created
Resistivity using Area of X-Section (DC Three-Wire US)
Go
Created
Resistivity using Line Losses (DC Three-Wire US)
Go
Created
Resistivity using Volume of Conductor Material(DC Three-Wire US)
Go
Created
Transmitted Power using Volume of Conductor Material(DC Three-Wire US)
Go
Resolution Parameters
(10)
Verified
Aspect Ratio
Go
Verified
Height of Rectangle Picture Frame
Go
Verified
Horizontal Resolution
Go
Verified
Kell Factor or Resolution Factor
Go
Verified
Number of Frames Per Sec
Go
Verified
Number of Horizontal Lines Lost during Vertical Retrace
Go
Verified
Number of Lines in Frame
Go
Verified
Vertical Resolution (VR)
Go
Verified
Vertical Retrace Time
Go
Verified
Width of Rectangle Picture
Go
Response of Cascode Amplifier
(3)
Verified
3-DB Frequency in Design Insight and Trade-Off
Go
Verified
Amplifier Gain given Function of Complex Frequency Variable
Go
Verified
Drain Resistance in Cascode Amplifier
Go
2 More Response of Cascode Amplifier Calculators
Go
Response of CE Amplifier
(3)
Verified
Collector Base Junction Resistance of CE Amplifier
Go
Verified
High-Frequency Gain of CE Amplifier
Go
Verified
Input Capacitance in High-Frequency Gain of CE Amplifier
Go
5 More Response of CE Amplifier Calculators
Go
Response of CE Amplifier
(3)
Verified
Resistance due to Capacitor CC1 using Method Short-Circuit Time Constants
Go
Verified
Time Constant Associated with Cc1 using Method Short-Circuit Time Constants
Go
Verified
Time Constant of CE Amplifier
Go
Response of CG Amplifier
(2)
Verified
Load Resistance of CG Amplifier
Go
Verified
Second Pole-Frequency of CG Amplifier
Go
4 More Response of CG Amplifier Calculators
Go
Response of Source and Emitter Follower
(2)
Verified
Dominant Pole-Frequency of Source-Follower
Go
Verified
Transition Frequency of Source-Follower Transfer Function
Go
5 More Response of Source and Emitter Follower Calculators
Go
Rivet Dimensions
(7)
Verified
Diameter of Rivet given Margin of Rivet
Go
Verified
Margin of Rivet
Go
Verified
Number of Rivets Per Pitch given Crushing Resistance of Plates
Go
Verified
Pitch of Rivet
Go
Verified
Pitch of Rivets given Tensile Resistance of Plate between two Rivets
Go
Verified
Transverse Pitch for Zig-Zag riveting
Go
Verified
Transverse Pitch of Rivet Chain Riveting
Go
9 More Rivet Dimensions Calculators
Go
Rivet Shank Dimensions
(5)
Verified
Length of Rivet Shank
Go
Verified
Length of Shank Portion necessary to form Closing Head
Go
Verified
Shank Diameter of Rivet given Crushing Resistance of Plates
Go
Verified
Shank Diameter of Rivet given Pitch of Rivet
Go
Verified
Shank diameter of Rivet subjected to double shear given Shear resistance of Rivet per Pitch
Go
Satellite Orbital Characteristics
(4)
Verified
Local Sidereal Time
Go
Verified
Mean Anomaly
Go
Verified
Range Vector
Go
Verified
True Anomaly
Go
12 More Satellite Orbital Characteristics Calculators
Go
Schering Bridge
(7)
Verified
Capacitance due to Space between Specimen and Dielectric
Go
Verified
Capacitance of Specimen
Go
Verified
Capacitance with Specimen as Dielectric
Go
Verified
Effective Area of Electrode in Schering Bridge
Go
Verified
Effective Capacitance in Schering Bridge
Go
Verified
Relative Permittivity
Go
Verified
Spacing between Electrodes in Schering Bridge
Go
3 More Schering Bridge Calculators
Go
Schrodinger Wave Equation
(6)
Verified
Angular Momentum using Quantum Number
Go
Verified
Magnetic Moment
Go
Verified
Number of Spherical Nodes
Go
Verified
Orbital Angular Momentum
Go
Verified
Spin Angular Momentum
Go
Verified
Total Number of Nodes
Go
16 More Schrodinger Wave Equation Calculators
Go
Selection of V Belts
(7)
Verified
Correction Factor for Industrial Service given Design Power
Go
Verified
Design Power for V Belt
Go
Verified
Pitch diameter of big pulley of V Belt drive
Go
Verified
Pitch diameter of smaller pulley given pitch diameter of big pulley
Go
Verified
Speed of bigger pulley given speed of smaller pulley
Go
Verified
Speed of smaller pulley given pitch diameter of both pulleys
Go
Verified
Transmitted Power given Design Power
Go
Semiconductor Characteristics
(4)
Verified
Conductivity of Extrinsic Semiconductor for P-Type
Go
Verified
Drift Current Density
Go
Verified
Electric Field due to Hall Voltage
Go
Verified
Majority Carrier Concentration in Semiconductor
Go
9 More Semiconductor Characteristics Calculators
Go
Sequence Current and Voltage
(12)
Created
Negative Phase Current for Delta Connected Load
Go
Created
Negative Sequence Current for Star Connected Load
Go
Created
Negative Sequence Voltage for Delta Connected Load
Go
Created
Negative Sequence Voltage for Star Connected Load
Go
Created
Positive Sequence Current for Delta Connected Load
Go
Created
Positive Sequence Current for Star Connected Load
Go
Created
Positive Sequence Voltage for Delta Connected Load
Go
Created
Positive Sequence Voltage for Star Connected Load
Go
Created
Symmetric Component Current using Sequence Impedance
Go
Created
Symmetric Component Voltage using Sequence Impedance
Go
Created
Zero Sequence Current for Star Connected Load
Go
Created
Zero Sequence Voltage for Star Connected Load
Go
Series Feedback Amplifiers
(2)
Verified
Open Loop Gain of Feedback Transconductance Amplifier
Go
Verified
Output Resistance with Feedback of Feedback Transconductance Amplifier
Go
1 More Series Feedback Amplifiers Calculators
Go
Shaft Design on Strength Basis
(10)
Verified
Axial Force given Tensile Stress in Shaft
Go
Verified
Bending Moment given Bending Stress Pure Bending
Go
Verified
Bending Stress in Shaft Pure Bending Moment
Go
Verified
Diameter of Shaft given Bending Stress Pure Bending
Go
Verified
Diameter of Shaft given Tensile Stress in Shaft
Go
Verified
Diameter of Shaft given Torsional Shear Stress in Shaft Pure Torsion
Go
Verified
Normal Stress given Both Bending and Torsional act on Shaft
Go
Verified
Tensile Stress given Normal Stress
Go
Verified
Torsional Moment given Torsional Shear Stress in Shaft Pure Torsion
Go
Verified
Torsional Shear Stress in Shaft Pure Torsion
Go
6 More Shaft Design on Strength Basis Calculators
Go
Shunt Feedback Amplifiers
(1)
Verified
Open Loop Gain of Feedback Transresistance Amplifier (Shunt-Shunt)
Go
2 More Shunt Feedback Amplifiers Calculators
Go
Signal Amplifier
(1)
Verified
Voltage Gain of Amplifier with Current-Source Load
Go
6 More Signal Amplifier Calculators
Go
Signal Analysis
(2)
Verified
Error Signal
Go
Verified
Loop Gain of Feedback Amplifier
Go
3 More Signal Analysis Calculators
Go
Slip
(5)
Created
Breakdown Slip of Induction Motor
Go
Created
Slip at Pull Out Torque
Go
Created
Slip given Efficiency in Induction Motor
Go
Created
Slip given Frequency in Induction Motor
Go
Created
Slip of Motor in Induction Motor
Go
Slope of Line
(1)
Verified
Slope of Line given Numerical Coefficients
Go
3 More Slope of Line Calculators
Go
Slope of Perpendicular of Line
(1)
Verified
Slope of Perpendicular of Line given Two Points on Line
Go
3 More Slope of Perpendicular of Line Calculators
Go
Small Signal Analysis
(2)
Verified
Amplification Factor for Small Signal MOSFET Model
Go
Verified
Drain Current of MOSFET Small Signal
Go
13 More Small Signal Analysis Calculators
Go
Special Purpose Radars
(21)
Verified
Amplitude of Reference Signal
Go
Verified
Amplitude of Signal Received from Target at Range
Go
Verified
CFA DC Power Input
Go
Verified
CFA RF Drive Power
Go
Verified
CFA RF Power Output
Go
Verified
Distance from Antenna 1 to Target in Monopulse Radar
Go
Verified
Distance from Antenna 2 to Target in Monopulse Radar
Go
Verified
Doppler Frequency Shift
Go
Verified
Echo Signal Voltage
Go
Verified
Efficiency of Cross Field Amplifier(CFA)
Go
Verified
Measured Position at Nth Scan
Go
Verified
Peak Quantization Lobe
Go
Verified
Phase Difference between Echo Signals in Monopulse Radar
Go
Verified
Position Smoothing Parameter
Go
Verified
Predicted Position of Target
Go
Verified
Range Resolution
Go
Verified
Reference Voltage of CW Oscillator
Go
Verified
Smoothed Position
Go
Verified
Smoothed Velocity
Go
Verified
Time between Observations
Go
Verified
Velocity Smoothing Parameter
Go
Specific Weight
(8)
Verified
Specific Weight of Fluid 1 given Differential Pressure between Two Points
Go
Verified
Specific Weight of Fluid 2 given Differential Pressure between Two Points
Go
Verified
Specific Weight of Inclined Manometer Liquid
Go
Verified
Specific Weight of Liquid given Buoyancy Force
Go
Verified
Specific Weight of Liquid given Head loss Due to Laminar Flow
Go
Verified
Specific Weight of Liquid given Hydraulic Transmission Power
Go
Verified
Specific Weight of Liquid given its Absolute Pressure at Height
Go
Verified
Specific Weight of Liquid given Total Hydrostatic Force
Go
2 More Specific Weight Calculators
Go
Speed
(6)
Created
Motor Speed given Efficiency in Induction Motor
Go
Created
Motor Speed given Synchronous Speed
Go
Created
Motor Speed in Induction Motor
Go
Created
Synchronous Speed given Mechanical Power
Go
Created
Synchronous Speed given Motor Speed
Go
Created
Synchronous Speed of Induction Motor given Efficiency
Go
2 More Speed Calculators
Go
Speed
(6)
Created
Angular Speed of DC Shunt Motor given Kf
Go
Created
Angular Speed of DC Shunt Motor given Output Power
Go
Created
Full Load Speed of Shunt DC Motor
Go
Created
No Load Speed of Shunt DC Motor
Go
Created
Speed Regulation of Shunt DC Motor
Go
Created
Torque of DC Motor given Output Power
Go
Speed
(2)
Created
Angular Speed of DC Motor given Output Power
Go
Created
Speed of Series DC Motor
Go
Speed
(2)
Created
Synchronous Speed of Synchronous Motor
Go
Created
Synchronous Speed of Synchronous Motor given Mechanical Power
Go
Spring Material Mechanics
(10)
Verified
Angle of Rotation of Arbor with Respect to Drum
Go
Verified
Force given Bending Moment Due to that Force
Go
Verified
Length of Strip from Outer end to inner End given Angle of Rotation of Arbor
Go
Verified
Length of Strip from Outer end to inner End given Deflection of one End of Spring
Go
Verified
Length of Strip from Outer end to Inner End given Strain Energy Stored in Spring
Go
Verified
Maximum Bending Stress induced at outer end of Spring
Go
Verified
Modulus of Elasticity given Angle of Rotation of Arbor
Go
Verified
Modulus of Elasticity given Deflection of one End of Spring with Respect to Other End
Go
Verified
Modulus of Elasticity of Spring Wire given Strain Energy Stored in Spring
Go
Verified
Strain Energy Stored in Spiral Spring
Go
SSD Junction
(14)
Verified
Acceptor Concentration
Go
Verified
Cross-Sectional Area of Junction
Go
Verified
Donor Concentration
Go
Verified
Junction Capacitance
Go
Verified
Junction Transition Width
Go
Verified
Junction Voltage
Go
Verified
Length of P-Side Junction
Go
Verified
Net Distribution of Charge
Go
Verified
N-Type Width
Go
Verified
P-N Junction Length
Go
Verified
Quantum Number
Go
Verified
Series Resistance in N-type
Go
Verified
Series Resistance in P-type
Go
Verified
Total Acceptor Charge
Go
2 More SSD Junction Calculators
Go
Strength and Stress
(4)
Verified
Compressive Stress of Spigot
Go
Verified
Permissible Shear Stress for Cotter
Go
Verified
Permissible Shear Stress for Spigot
Go
Verified
Tensile Stress in Spigot
Go
9 More Strength and Stress Calculators
Go
Stress
(1)
Verified
Stress developed in wire due to fluid pressure given strain in wire
Go
20 More Stress Calculators
Go
Stress and Deflections in Springs
(24)
Verified
Deflection of Spring
Go
Verified
Deflection of Spring given Strain Energy Stored
Go
Verified
Diameter of Spring Wire given Deflection in Spring
Go
Verified
Diameter of Spring Wire given Rate of Spring
Go
Verified
Diameter of Spring Wire given Resultant Stress in Spring
Go
Verified
Diameter of Spring Wire given Shear Stress Correction Factor
Go
Verified
Force acting on Spring given Resultant Stress
Go
Verified
Force Applied on Spring given Deflection in Spring
Go
Verified
Force Applied on Spring given Strain Energy Stored in Spring
Go
Verified
Mean Coil Diameter given Deflection in Spring
Go
Verified
Mean Coil Diameter given Rate of Spring
Go
Verified
Mean Coil Diameter given Resultant Stress in Spring
Go
Verified
Mean Coil diameter given Shear Stress Correction Factor
Go
Verified
Modulus of Rigidity given Deflection in Spring
Go
Verified
Modulus of Rigidity given Rate of Spring
Go
Verified
Number of Active Coils given Deflection in Spring
Go
Verified
Rate of Spring
Go
Verified
Rate of Spring given Deflection
Go
Verified
Resultant Stress in Spring
Go
Verified
Shear Stress Correction Factor
Go
Verified
Shear Stress Correction Factor given Diameter of Spring Wire
Go
Verified
Spring Index given Shear Stress Correction Factor
Go
Verified
Strain Energy Stored in Spring
Go
Verified
Stress Factor of Spring
Go
Stress and Strain
(1)
Verified
Normal Stress 2
Go
19 More Stress and Strain Calculators
Go
Stresses and Resistances
(8)
Verified
Crushing Resistance of Plates per Pitch Length
Go
Verified
Permissible Compressive Stress of Plate Material given Crushing Resistance of Plates
Go
Verified
Permissible Shear Stress for Rivet for Single Shear
Go
Verified
Permissible Shear Stress for Rivet given Shear Resistance of Rivet Per Pitch Length
Go
Verified
Shear Resistance of Rivet per Pitch Length
Go
Verified
Shear Resistance of Rivet Per Pitch Length for Double Shear
Go
Verified
Shear Resistance of Rivet Per Pitch Length for Single Shear
Go
Verified
Tensile Resistance of Plate between two Rivets
Go
1 More Stresses and Resistances Calculators
Go
Stribeck’s Equation
(12)
Verified
Angle between adjacent Balls of Ball Bearing
Go
Verified
Diameter of Ball of Bearing from Stribeck's Equation
Go
Verified
Diameter of Ball of Bearing given Force required to produce Permanent Deformation in Ball
Go
Verified
Force required to produce Permanent Deformation of Balls of Ball Bearing
Go
Verified
Force required to produce Permanent Deformation of Balls of Ball Bearing given Static Load
Go
Verified
K Factor for Ball Bearing from Stribeck's Equation
Go
Verified
K Factor for Ball Bearing given Force required to produce Permanent Deformation of Balls
Go
Verified
Number of Balls of Ball Bearing from Stribeck's Equation
Go
Verified
Number of Balls of Ball Bearing given Angle between Balls
Go
Verified
Number of Balls of Ball Bearing given Static Load
Go
Verified
Static Load on Ball of Ball Bearing from Stribeck's Equation
Go
Verified
Static Load on Ball of Ball Bearing given Primary force
Go
Structure of Atom
(9)
Verified
Energy in Electron Volts
Go
Verified
Energy of Electron
Go
Verified
Kinetic Energy in Electron Volts
Go
Verified
Kinetic Energy of Electron
Go
Verified
Total Energy in Electron Volts
Go
Verified
Velocity of Particle
Go
Verified
Wave Number of Moving Particle
Go
Verified
Wavelength of Moving Particle
Go
Verified
Wavelength using Energy
Go
21 More Structure of Atom Calculators
Go
Sum of Squares
(3)
Verified
Residual Sum of Squares
Go
Verified
Residual Sum of Squares given Residual Standard Error
Go
Verified
Sum of Squares
Go
Surge in Springs
(11)
Verified
Angular Frequency of Spring
Go
Verified
Axial Deflection of Spring due to Axial load given Stiffness of Spring
Go
Verified
Axial Spring Force given Stiffness of Spring
Go
Verified
Mass of Spring
Go
Verified
Mass of Spring given Natural angular frequency of Spring
Go
Verified
Mass of Spring given Natural angular frequency of Spring whose one end is free
Go
Verified
Natural angular frequency of Spring whose one end is free
Go
Verified
Shear stress in spring
Go
Verified
Solid Length of Spring
Go
Verified
Stiffness of Spring given Natural angular frequency of Spring
Go
Verified
Stiffness of Spring given Natural angular frequency of Spring whose one end is free
Go
1 More Surge in Springs Calculators
Go
System Design
(1)
Verified
Number of Edges in Control Complexity
Go
3 More System Design Calculators
Go
T Parameters
(19)
Created
A Parameter In Terms Of G Parameters
Go
Created
A Parameter In Terms Of T' Parameters
Go
Created
A-Inverse Parameter (A'B'C'D'-Parameter)
Go
Created
A-Parameter (ABCD Parameter)
Go
Created
A-Parameter in Terms of Voltage 1 (ABCD Parameter)
Go
Created
B Inverse Parameter (A'B'C'D'-Parameter)
Go
Created
B Parameter (ABCD Parameter)
Go
Created
B Parameter given Voltage 1 (ABCD Parameter)
Go
Created
B Parameter in Terms of G Parameters
Go
Created
B Parameter in Terms of Z Parameters
Go
Created
C Parameter (ABCD Parameter)
Go
Created
C Parameter in Terms of Y Parameters
Go
Created
C Parameter in Terms of Z Parameters
Go
Created
Current 1 (ABCD Parameter)
Go
Created
Current 2 given Voltage 1 (ABCD Parameter)
Go
Created
Voltage 1 (ABCD Parameter)
Go
Created
Voltage 1 given A Parameter (ABCD Parameter)
Go
Created
Voltage 2 given Current 1 (ABCD Parameter)
Go
Created
Voltage-1 given A' Parameter (A'B'C'D'-Parameter)
Go
Telecommunication Traffic System
(22)
Verified
Availability
Go
Verified
Average Holding Time
Go
Verified
Average Number of Call
Go
Verified
Average Occupancy
Go
Verified
Average Poisson Call Arrival Rate
Go
Verified
Call Setup Time
Go
Verified
Cost Capacity Index
Go
Verified
Cost of Common Hardware
Go
Verified
Cost of Switching System
Go
Verified
Cost per Subscriber
Go
Verified
Downtime
Go
Verified
Grade of Service
Go
Verified
Number of Lost Call
Go
Verified
Poisson Arrival
Go
Verified
Quantization Error
Go
Verified
Switching Capacity
Go
Verified
Time Required for Functions other than Switching
Go
Verified
Total Number of Offered Calls
Go
Verified
Traffic Handling Capability
Go
Verified
Trunk Occupancy
Go
Verified
Unavailability of System
Go
Verified
Uptime
Go
Temperature
(5)
Verified
Temperature of Gas given Average Speed of Gas
Go
Verified
Temperature of Gas given Equipartition energy
Go
Verified
Temperature of Gas given Most Probable Speed of Gas
Go
Verified
Temperature of Gas given RMS Velocity of Gas
Go
Verified
Temperature of Gas using Equipartition Energy for Molecule
Go
6 More Temperature Calculators
Go
Temperature Measurement
(3)
Verified
Area of thermal contact
Go
Verified
Heat Transfer Coefficient
Go
Verified
Thermal time constant
Go
Temperature Rise
(1)
Verified
Maximum temperature in secondary deformation zone
Go
19 More Temperature Rise Calculators
Go
Thermal Parameters
(1)
Verified
Stefan Boltzmann Law
Go
16 More Thermal Parameters Calculators
Go
Thickness of Leaf
(5)
Verified
Thickness of each Leaf given Bending Stress in Plate
Go
Verified
Thickness of each Leaf given Bending Stress in Plate Extra Full Length
Go
Verified
Thickness of Each Leaf given Bending Stress on Graduated Length Leaves
Go
Verified
Thickness of Each Leaf given Deflection
Go
Verified
Thickness of each Leaf given Deflection at Load Point for Graduated length leaves
Go
Thickness of Plates
(4)
Verified
Thickness of plate 1 given Length of Rivet Shank
Go
Verified
Thickness of Plate 2 given Length of Rivet Shank
Go
Verified
Thickness of Plate given Tensile Resistance of Plate between two Rivets
Go
Verified
Thickness of Plates given Crushing Resistance
Go
2 More Thickness of Plates Calculators
Go
Thickness of Strip
(4)
Verified
Thickness of Strip given Bending Stress induced at outer end of Spring
Go
Verified
Thickness of Strip given Deflection of one end of Spring with respect to other end
Go
Verified
Thickness of Strip given Strain Energy Stored in Strip
Go
Verified
Thickness of Strip when Angle of Rotation of Arbor with Respect to Drum
Go
Three Conductor Open
(4)
Created
Potential Difference between A-Phase (Three Conductor Open)
Go
Created
Potential Difference between B-Phase (Three Conductor Open)
Go
Created
Potential Difference between C-Phase (Three Conductor Open)
Go
Created
Zero Sequence Potential Differences (Three Conductor Open)
Go
Three Phase Half Wave Converters
(1)
Verified
RMS Output Voltage for Resistive Load
Go
4 More Three Phase Half Wave Converters Calculators
Go
Time Constant
(2)
Created
Time Constant for RC Circuit
Go
Created
Time Constant for RL Circuit
Go
1 More Time Constant Calculators
Go
Titration
(9)
Verified
Titration of Sodium Carbonate with Sodium Bicarbonate after first end point for Methyl Orange
Go
Verified
Titration of Sodium Carbonate with Sodium Bicarbonate after First End Point phenolphthalein
Go
Verified
Titration of Sodium Carbonate with Sodium Bicarbonate after Second End Point for Methyl Orange
Go
Verified
Titration of Sodium Carbonate with Sodium Bicarbonate after Second End Point phenolphthalein
Go
Verified
Titration of Sodium Hydroxide and Sodium Carbonate Methyl Orange
Go
Verified
Titration of Sodium Hydroxide and Sodium Carbonate Phenolphthalein
Go
Verified
Titration of Sodium Hydroxide with Sodium Bicarbonate after First End Point Methyl Orange
Go
Verified
Titration of Sodium Hydroxide with Sodium Carbonate after Second End Point Methyl Orange
Go
Verified
Titration of Sodium Hydroxide with Sodium Carbonate after Second End Point using Phenolphthalein
Go
Torque and Efficiency
(4)
Created
Gross Torque Developed per Phase
Go
Created
Maximum Running Torque
Go
Created
Starting Torque of Induction Motor
Go
Created
Torque of Induction Motor under Running Condition
Go
2 More Torque and Efficiency Calculators
Go
Torque Requirement in Lifting Load using Square Threaded Screw
(7)
Verified
Coefficient of Friction for Screw Thread given Efficiency of Square Threaded Screw
Go
Verified
Coefficient of Friction of Power Screw given Torque Required to Lift Load
Go
Verified
Effort Required in Lifting load using Power Screw
Go
Verified
Effort Required to Lift Load given Torque Required to Lift Load
Go
Verified
Load on Power Screw given Effort Required to Lift Load
Go
Verified
Load on Power Screw given Torque Required to Lift Load
Go
Verified
Torque Required to Lift Load given Effort
Go
9 More Torque Requirement in Lifting Load using Square Threaded Screw Calculators
Go
Torsional Rigidity
(4)
Verified
Angle of Twist of Shaft
Go
Verified
Length of Shaft Subjected to Torsional Moment given Angle of Twist
Go
Verified
Modulus of Rigidity given Angle of Twist
Go
Verified
Torsional Moment given Angle of Twist in Shaft
Go
1 More Torsional Rigidity Calculators
Go
Transconductance
(5)
Verified
Body Effect on Transconductance
Go
Verified
Drain Current using Transconductance
Go
Verified
MOSFET Transconductance Parameter using Process Transconductance
Go
Verified
Process Transconductance Parameter of MOSFET
Go
Verified
Transconductance in MOSFET
Go
11 More Transconductance Calculators
Go
Transconductance
(2)
Verified
Body Transconductance
Go
Verified
Transconductance using Collector Current
Go
2 More Transconductance Calculators
Go
Transducers
(24)
Verified
Area of Detector
Go
Verified
Capacitance of Amplifier
Go
Verified
Capacitance of Cable
Go
Verified
Capacitance of Transducer
Go
Verified
Change in Irradiation
Go
Verified
Change in Resistance
Go
Verified
Current Generator Capacitance
Go
Verified
Detectivity
Go
Verified
Detectivity of Transducer
Go
Verified
Efficiency of transducer
Go
Verified
Input Signal of Transducer
Go
Verified
Noise Equivalent of Bandwidth
Go
Verified
Normalized Detectivity
Go
Verified
Output Signal of Transducer
Go
Verified
Responsivity of Detector
Go
Verified
Responsivity of Transducer
Go
Verified
Rise in Temperature
Go
Verified
RMS Incident Power of Detector
Go
Verified
RMS Noise Voltage of Cell
Go
Verified
RMS output Voltage Detector
Go
Verified
Sensitivity of LVDT
Go
Verified
Sensitivity of Photoresistive Transducer
Go
Verified
Size of Output Signal
Go
Verified
Temperature Difference
Go
Transformation Ratio
(10)
Created
Transformation Ratio given Equivalent Reactance from Primary Side
Go
Created
Transformation Ratio given Equivalent Reactance from Secondary Side
Go
Created
Transformation Ratio given Equivalent Resistance from Primary Side
Go
Created
Transformation Ratio given Equivalent Resistance from Secondary Side
Go
Created
Transformation Ratio given Primary and Secondary Current
Go
Created
Transformation Ratio given Primary and Secondary Induced Voltage
Go
Created
Transformation Ratio given Primary and Secondary Number of Turns
Go
Created
Transformation Ratio given Primary and Secondary Voltage
Go
Created
Transformation Ratio given Primary Leakage Reactance
Go
Created
Transformation Ratio given Secondary Leakage Reactance
Go
Transformer Design
(6)
Created
Area of Core given EMF Induced in Primary Winding
Go
Created
Area of Core given EMF Induced in Secondary Winding
Go
Created
Maximum Flux in Core using Primary Winding
Go
Created
Maximum Flux in Core using Secondary Winding
Go
Created
Number of Turns in Primary Winding
Go
Created
Number of Turns in Secondary Winding
Go
13 More Transformer Design Calculators
Go
Transformer Sequence Impedance
(8)
Created
Delta Impedance using Star Impedance
Go
Created
Leakage Impedance for Transformer given Positive Sequence Voltage
Go
Created
Leakage Impedance for Transformer given Zero Sequence Current
Go
Created
Negative Sequence Impedance for Transformer
Go
Created
Neutral Impedance for Star Connected Load using Zero Sequence Voltage
Go
Created
Positive Sequence Impedance for Transformer
Go
Created
Star Impedance using Delta Impedance
Go
Created
Zero Sequence Impedance for Transformer
Go
Transient
(36)
Created
Characteristic Impedance (Line SC)
Go
Created
Characteristic Impedance using Reflected Coefficient of Current
Go
Created
Characteristic Impedance using Reflected Coefficient of Voltage
Go
Created
Characteristic Impedance using Transmitted Coefficient of Voltage
Go
Created
Characteristic Impedance using Transmitted Current
Go
Created
Characteristic Impedance using Transmitted Voltage
Go
Created
Impedance-3 using Transmitted Current-3 (Line PL)
Go
Created
Incident Current for Incident Wave
Go
Created
Incident Current using Reflected and Transmitted Current
Go
Created
Incident Voltage of Incident Wave
Go
Created
Incident Voltage using Reflected and Transmitted Voltage
Go
Created
Incident Voltage using Reflected Voltage
Go
Created
Incident Voltage using Transmitted Coefficient of Current-2 (Line PL)
Go
Created
Incident Voltage using Transmitted Voltage (Load OC)
Go
Created
Load Impedance for Transmitted Waves
Go
Created
Load Impedance using Reflected Coefficient of Current
Go
Created
Load Impedance using Reflected Coefficient of Voltage
Go
Created
Load Impedance using Reflected Current
Go
Created
Load Impedance using Transmitted Voltage
Go
Created
Reflected Coefficient of Voltage (Line PL)
Go
Created
Reflected Current for Refracted Wave
Go
Created
Reflected Current using Reflection Coefficient of Current
Go
Created
Reflected Voltage (Line OC)
Go
Created
Reflected Voltage (Load SC)
Go
Created
Reflected Voltage for Refracted Wave
Go
Created
Reflected Voltage using Incident and Transmitted Voltage
Go
Created
Reflected Voltage using Load Impedance
Go
Created
Reflected Voltage using Reflection Coefficient of Voltage
Go
Created
Reflection Coefficient for Current
Go
Created
Reflection Coefficient for Voltage
Go
Created
Reflection Coefficient of Voltage using Reflection Coefficient of Current
Go
Created
Transmission Coefficient for Current
Go
Created
Transmission Coefficient for Voltage
Go
Created
Transmitted Current Transmitted Wave
Go
Created
Transmitted Current using Transmission Coefficient of Current
Go
Created
Transmitted Voltage using Incident and Reflected Voltage
Go
3 More Transient Calculators
Go
Transistor Amplifier Characteristics
(10)
Verified
Amplifier Input of Transistor Amplifier
Go
Verified
Current Entering Drain Terminal of MOSFET at Saturation
Go
Verified
Current Flowing through Induced Channel in Transistor given Oxide Voltage
Go
Verified
DC Current Gain of Amplifier
Go
Verified
Drain Current of Transistor
Go
Verified
Input Resistance of Common-Collector Amplifier
Go
Verified
Input Resistance of Common-Gate Circuit
Go
Verified
Overall Effective Voltage of MOSFET Transconductance
Go
Verified
Test Current of Transistor Amplifier
Go
Verified
Transconductance Parameter of MOS Transistor
Go
8 More Transistor Amplifier Characteristics Calculators
Go
Transistor Based Circuits
(3)
Verified
Collector Current
Go
Verified
Common Emitter Current Gain
Go
Verified
Transistor Base Current
Go
Transistor Characteristics
(10)
Created
Alpha Parameter of Transistor
Go
Created
Alpha Parameter of Transistor given Beta
Go
Created
Base Current of Transistor given Beta
Go
Created
Beta Parameter of Transistor
Go
Created
Beta Parameter of Transistor given Base Current
Go
Created
Collector Current of Transistor using Alpha
Go
Created
Collector Current of Transistor using Beta
Go
Created
Current in Transistor
Go
Created
Emitter Current of Transistor using Alpha
Go
Created
Transconductance
Go
Transmission Coefficient For Current
(1)
Created
Incident Current using Transmission Coefficient of Current
Go
Transmission Coefficient For Voltage
(2)
Created
Incident Voltage using Transmission Coefficient of Voltage
Go
Created
Transmitted Voltage using Transmission Coefficient of Voltage
Go
Transmitted Coefficient OF Current
(8)
Created
Transmitted Coefficient of Current-2 (Line PL)
Go
Created
Transmitted Coefficient of Current-2 using Impedance-1 and 2 (Line PL)
Go
Created
Transmitted Coefficient of Current-2 using Transmitted Coefficient of Voltage (Line PL)
Go
Created
Transmitted Coefficient of Current-2 using Transmitted Voltage (Line PL)
Go
Created
Transmitted Coefficient of Current-3 (Line PL)
Go
Created
Transmitted Coefficient of Current-3 using Impedance-1 and 3 (Line PL)
Go
Created
Transmitted Coefficient of Current-3 using Transmitted Coefficient of Voltage (Line PL)
Go
Created
Transmitted Coefficient of Current-3 using Transmitted Voltage (Line PL)
Go
Transmitted Current 1,2 and 3
(9)
Created
Transmitted Current-1 (Line PL)
Go
Created
Transmitted Current-2 (Line PL)
Go
Created
Transmitted Current-2 using Reflected Current (Line PL)
Go
Created
Transmitted Current-2 using Transmitted Coefficient of Current-2 (Line PL)
Go
Created
Transmitted Current-2 using Transmitted Voltage (Line PL)
Go
Created
Transmitted Current-3 (Line PL)
Go
Created
Transmitted Current-3 using Reflected Current (Line PL)
Go
Created
Transmitted Current-3 using Transmitted Coefficient of Current-3 (Line PL)
Go
Created
Transmitted Current-3 using Transmitted Voltage (Line PL)
Go
Transmitted Or Refracted Waves
(7)
Created
Incident Current using Transmitted Current
Go
Created
Incident Voltage using Transmitted Voltage
Go
Created
Load Impedance using Transmitted Current
Go
Created
Transmitted Current using Incident and Reflected Current
Go
Created
Transmitted Current using Incident Current
Go
Created
Transmitted Voltage Transmitted Wave
Go
Created
Transmitted Voltage using Incident Current
Go
Transverse Fillet Weld
(8)
Verified
Allowable Load per mm Length of Transverse Fillet Weld
Go
Verified
Force Acting given Shear Stress-induced in Plane that is Inclined at angle theta
Go
Verified
Leg of Weld given Maximum Shear Stress-induced in Plane
Go
Verified
Leg of Weld given Shear Stress-induced in Plane
Go
Verified
Length of Weld given Maximum Shear Stress-induced in Plane
Go
Verified
Length of Weld given Shear Stress-induced in Plane that is inclined at Angle theta
Go
Verified
Maximum Shear Stress-induced in Plane that is Inclined at Angle theta
Go
Verified
Shear Stress-Induced in Plane that is inclined at Angle theta to Horizontal
Go
8 More Transverse Fillet Weld Calculators
Go
Trapezoidal Thread
(16)
Verified
Coefficient of Friction of Power Screw given Efficiency of Trapezoidal Threaded Screw
Go
Verified
Coefficient of Friction of Screw given Efficiency of Trapezoidal Threaded Screw
Go
Verified
Coefficient of Friction of Screw given Effort in Lowering Load
Go
Verified
Coefficient of Friction of Screw given Torque Required in Lifting Load with Trapezoidal Thread
Go
Verified
Coefficient of Friction of Screw given Torque Required in Lowering Load with Trapezoidal Thread
Go
Verified
Efficiency of Trapezoidal Threaded Screw
Go
Verified
Effort Required in Lowering Load with Trapezoidal Threaded Screw
Go
Verified
Helix Angle of Screw given Effort Required in Lowering Load with Trapezoidal Threaded Screw
Go
Verified
Helix Angle of Screw given Torque Required in Lifting Load with Trapezoidal Threaded Screw
Go
Verified
Helix Angle of Screw given Torque Required in Lowering Load with Trapezoidal Threaded Screw
Go
Verified
Load on Screw given helix Angle
Go
Verified
Load on Screw given Torque Required in Lifting Load with Trapezoidal Threaded Screw
Go
Verified
Load on Screw given Torque Required in Lowering Load with Trapezoidal Threaded Screw
Go
Verified
Mean Diameter of Screw given Torque in Lifting Load with Trapezoidal Threaded Screw
Go
Verified
Mean Diameter of Screw given Torque in Lowering Load with Trapezoidal Threaded Screw
Go
Verified
Torque Required in Lowering Load with Trapezoidal Threaded Screw
Go
5 More Trapezoidal Thread Calculators
Go
Two Conductor Open
(5)
Created
A-Phase Current (Two Conductor Open)
Go
Created
A-Phase EMF using Positive Sequence Current (Two Conductor Open)
Go
Created
A-Phase EMF using Positive Sequence Voltage (Two Conductor Open)
Go
Created
Potential Difference between B-Phase (Two Conductor Open)
Go
Created
Potential Difference between C-Phase (Two Conductor Open)
Go
1 More Two Conductor Open Calculators
Go
Uniform Distribution
(1)
Verified
Variance in Uniform Distribution
Go
2 More Uniform Distribution Calculators
Go
V Belt Characteristics and Parameters
(11)
Verified
Angle of Wrap of V-Belt given Belt Tension in Loose Side of Belt
Go
Verified
Belt Tension in Loose Side of V-Belt
Go
Verified
Belt Tension in Tight Side of V-Belt
Go
Verified
Belt Velocity of V-Belt given Belt Tension in Loose Side
Go
Verified
Coefficient of Friction in V-Belt given Belt Tension in Loose Side of Belt
Go
Verified
Correcting Factor for Belt Length given Number of Belts Required
Go
Verified
Correction Factor for Arc of Contact given Number of Belts Required
Go
Verified
Correction Factor for Industrial Services given Number of Belts Required
Go
Verified
Effective Pull in V-Belt
Go
Verified
Mass of One Meter Length of V-Belt given Belt Tension in Loose Side
Go
Verified
Number of V Belts Required for Given Applications
Go
Variance
(2)
Verified
Variance given Standard Deviation
Go
Verified
Variance of Scalar Multiple of Random Variable
Go
3 More Variance Calculators
Go
Viscosity Measurement
(6)
Verified
Boundary area being moved
Go
Verified
Distance between boundaries
Go
Verified
Dynamic viscosity
Go
Verified
Resisting Motion in fluid
Go
Verified
Shear Stress in Viscosity
Go
Verified
Velocity of Moving Boundaries
Go
VLSI Material Optimization
(16)
Verified
Body Effect Coefficient
Go
Verified
Channel Charge
Go
Verified
Critical Voltage
Go
Verified
DIBL Coefficient
Go
Verified
Gate Capacitance
Go
Verified
Gate Length using Gate Oxide Capacitance
Go
Verified
Gate Oxide Capacitance
Go
Verified
Intrinsic Gate Capacitance
Go
Verified
Junction Current
Go
Verified
K-Prime
Go
Verified
Mobility in Mosfet
Go
Verified
Subthreshold Slope
Go
Verified
Surface Potential
Go
Verified
Threshold Voltage
Go
Verified
Threshold Voltage when Source is at Body Potential
Go
Verified
Total Source Parasitic Capacitance
Go
23 More VLSI Material Optimization Calculators
Go
Voltage
(8)
Created
Line to Neutral Voltage using Reactive Power
Go
Created
Line to Neutral Voltage using Real Power
Go
Created
RMS Voltage using Reactive Power
Go
Created
RMS Voltage using Real Power
Go
Created
Voltage using Complex Power
Go
Created
Voltage using Power Factor
Go
Created
Voltage using Reactive Power
Go
Created
Voltage using Real Power
Go
Voltage
(4)
Created
Armature Induced Voltage of Series DC motor given Voltage
Go
Created
Input Power of Series DC Motor
Go
Created
Voltage Equation of Series DC Motor
Go
Created
Voltage of Series DC Motor given Input Power
Go
Voltage
(8)
Verified
Conductance of Channel of MOSFET using Gate to Source Voltage
Go
Verified
Overdrive Voltage
Go
Verified
Overdrive Voltage when MOSFET Acts as Amplifier with Load Resistance
Go
Verified
Positive Voltage given Device Parameter in MOSFET
Go
Verified
Saturation Voltage of MOSFET
Go
Verified
Treshold Voltage of MOSFET
Go
Verified
Voltage across Gate and Source of MOSFET on Operation with Differential Input Voltage
Go
Verified
Voltage at Drain Q2 in MOSFET
Go
12 More Voltage Calculators
Go
Voltage
(8)
Created
Receiving End Voltage using Impedance (STL)
Go
Created
Receiving End Voltage using Receiving End Power (STL)
Go
Created
Receiving End Voltage using Transmission Efficiency (STL)
Go
Created
Sending End Voltage in Transmission Line
Go
Created
Sending End Voltage using Power Factor(STL)
Go
Created
Sending End Voltage using Sending End Power (STL)
Go
Created
Sending End Voltage using Transmission Efficiency (STL)
Go
Created
Transmitted Inductance (SC Line)
Go
Voltage
(4)
Verified
Collector to Emitter Voltage at Saturation
Go
Verified
Small Signal Input Voltage given Transconductance
Go
Verified
Voltage across Collector-Emitter of BJT Amplifier
Go
Verified
Voltage between Gate and Source
Go
8 More Voltage Calculators
Go
Voltage and EMF
(1)
Created
Terminal Voltage for DC Shunt Generator
Go
1 More Voltage and EMF Calculators
Go
Voltage and EMF
(2)
Created
Induced EMF given Linear Synchronous Speed
Go
Created
Induced Voltage given Power
Go
Voltage and EMF
(11)
Created
EMF Induced in Primary Winding
Go
Created
EMF Induced in Primary Winding given Input Voltage
Go
Created
EMF Induced in Primary Winding given Voltage Transformation Ratio
Go
Created
EMF Induced in Secondary Winding
Go
Created
EMF Induced in Secondary Winding given Voltage Transformation Ratio
Go
Created
Input Voltage when EMF Induced in Primary Winding
Go
Created
Output Voltage given EMF Induced in Secondary Winding
Go
Created
Primary Voltage given Voltage Transformation Ratio
Go
Created
Secondary Voltage given Voltage Transformation Ratio
Go
Created
Self-Induced EMF in Primary Side
Go
Created
Self-Induced EMF in Secondary Side
Go
1 More Voltage and EMF Calculators
Go
Voltage and EMF
(3)
Created
Armature Induced Voltage of Series DC Generator
Go
Created
Terminal Voltage of Series DC Generator
Go
Created
Terminal Voltage of Series DC Generator given Output Power
Go
Voltage and EMF
(2)
Created
Voltage of Shunt DC Motor
Go
Created
Voltage of Shunt DC Motor given Shunt Field Current
Go
Voltage and EMF
(6)
Created
Back EMF of Synchronous Motor given Armature Winding Constant
Go
Created
Back EMF of Synchronous Motor using Mechanical Power
Go
Created
Load Voltage of Synchronous Motor given 3 Phase Mechanical Power
Go
Created
Load Voltage of Synchronous Motor using 3 Phase Input Power
Go
Created
Voltage Equation of Synchronous Motor
Go
Created
Voltage of Synchronous Motor given Input Power
Go
Voltage and EMF
(12)
Created
A-Phase EMF using Negative Sequence Current (LGF)
Go
Created
A-Phase EMF using Positive Sequence Current(LGF)
Go
Created
A-Phase EMF using Positive Sequence Voltage (LGF)
Go
Created
A-Phase EMF using Zero Sequence Current (LGF)
Go
Created
A-Phase Voltage(LGF)
Go
Created
Negative Sequence Voltage for LGF
Go
Created
Negative Sequence Voltage using A-Phase Current (LGF)
Go
Created
Positive Sequence Voltage for L-G-F
Go
Created
Positive Sequence Voltage using Positive Sequence Current
Go
Created
Zero Sequence Voltage for LGF
Go
Created
Zero Sequence Voltage using A-Phase Current (LGF)
Go
Created
Zero Sequence Voltage using Positive Sequence Current
Go
4 More Voltage and EMF Calculators
Go
Voltage and EMF
(6)
Created
B-Phase Voltage (LLF)
Go
Created
B-Phase Voltage using C-Phase Current (LLF)
Go
Created
C-Phase Voltage (LLF)
Go
Created
C-Phase Voltage using C-Phase Current (LLF)
Go
Created
Negative Sequence Voltage (LLF)
Go
Created
Positive Sequence Voltage (LLF)
Go
7 More Voltage and EMF Calculators
Go
Voltage and EMF
(12)
Created
A-Phase EMF using Positive Sequence Voltage (LLGF)
Go
Created
A-Phase Voltage using Zero Sequence Voltage (LLGF)
Go
Created
B-Phase Voltage using Fault Current (LLGF)
Go
Created
B-Phase Voltage using Zero Sequence Current (LLGF)
Go
Created
B-Phase Voltage using Zero-Sequence Voltage (LLGF)
Go
Created
C-Phase Voltage using Fault Current (LLGF)
Go
Created
C-Phase Voltage using Zero Sequence Current (LLGF)
Go
Created
Negative Sequence Voltage using Negative Sequence Current (LLGF)
Go
Created
Positive Sequence Voltage using Fault Impedance (LLGF)
Go
Created
Zero Sequence Voltage using A-Phase Voltage (LLGF)
Go
Created
Zero Sequence Voltage using B-Phase Voltage (LLGF)
Go
Created
Zero Sequence Voltage using Fault Impedance (LLGF)
Go
3 More Voltage and EMF Calculators
Go
Voltage Feedback Amplifiers
(3)
Verified
Input Resistance with Feedback of Feedback Voltage Amplifier Given Loop Gain
Go
Verified
Output Resistance with Feedback Voltage Amplifier
Go
Verified
Output Voltage of Feedback Voltage Amplifier
Go
2 More Voltage Feedback Amplifiers Calculators
Go
Voltmeter Specifications
(9)
Verified
Additional Capacitance
Go
Verified
Capacitance of Voltmeter
Go
Verified
Range of Voltmeter
Go
Verified
Self-Capacitance of Coil
Go
Verified
Voltage across Capacitance
Go
Verified
Voltage across Capacitance while Charging
Go
Verified
Voltmeter current
Go
Verified
Voltmeter Resistance
Go
Verified
Volts per Division
Go
8 More Voltmeter Specifications Calculators
Go
Wattmeter Circuit
(7)
Verified
Current in pressure coil circuit
Go
Verified
Resistance of coil S1
Go
Verified
Resistance of Watt-meter pressure Coil
Go
Verified
Total copper loss in secondary winding circuit
Go
Verified
Voltage applied to wattmeter pressure coil
Go
Verified
Voltage Induced in S2
Go
Verified
Wattmeter Reading
Go
8 More Wattmeter Circuit Calculators
Go
Wave Propagation
(1)
Verified
Antenna Beamwidth
Go
15 More Wave Propagation Calculators
Go
Welded Joints Subjected to Bending Moment
(8)
Verified
Bending Moment given Bending Stress
Go
Verified
Bending Stress Caused Due to Bending Moment
Go
Verified
Bending Stress given Resultant Shear Stress in Weld
Go
Verified
Distance of Point in Weld from Neutral Axis given Bending Stress in Weld
Go
Verified
Moment of Inertia of all Welds given Bending Moment
Go
Verified
Primary Shear Stress given Resultant Shear Stress
Go
Verified
Primary Shear Stress-induced due to Eccentric Load
Go
Verified
Resultant Shear Stress in Weld
Go
Welded Joints Subjected to Torsional Moment
(5)
Verified
Polar Moment of Inertia of Thickened Hollow Welded Shaft
Go
Verified
Radius of Shaft given Torsional Shear Stress in Weld
Go
Verified
Thickness of Shaft given Torsional Shear Stress in Weld
Go
Verified
Torsional Moment given Torsional Shear Stress in Weld
Go
Verified
Torsional Shear Stress in Weld
Go
2 More Welded Joints Subjected to Torsional Moment Calculators
Go
Width of Leaf
(4)
Verified
Width of Each Leaf given Bending Stress in Plate
Go
Verified
Width of Each Leaf given Bending Stress in Plate Extra Full Length
Go
Verified
Width of Each Leaf given Bending Stress on Graduated Length Leaves
Go
Verified
Width of Each Leaf given Deflection at Load Point Graduated Length Leaves
Go
Width of Strip
(5)
Verified
Width of Strip given Angle of Rotation of Arbor with Respect to Drum
Go
Verified
Width of Strip given Bending Stress induced at uuter end of Spring
Go
Verified
Width of Strip given Deflection of one End of Spring
Go
Verified
Width of Strip given Deflection of one End of Spring with Respect to Other End
Go
Verified
Width of Strip given Strain Energy Stored in Spring
Go
Wire Parameters
(14)
Created
Area of X-Section using Line Losses(Two-Wire One Conductor Earthed)
Go
Created
Area of X-Section using Resistance(Two-Wire One Conductor Earthed)
Go
Created
Area of X-Section using Volume(Two-Wire One Conductor Earthed)
Go
Created
Area of X-Section(Two-Wire One Conductor Earthed)
Go
Created
K(Two-Wire One Conductor Earthed)
Go
Created
Length of Line using Area of X-Section(Two-Wire One Conductor Earthed)
Go
Created
Length of Line using Line Losses(Two-Wire One Conductor Earthed)
Go
Created
Length of Wire using K(Two-Wire One Conductor Earthed)
Go
Created
Length of Wire using Resistance(Two-Wire One Conductor Earthed)
Go
Created
Line Losses using Area of X-section(Two-Wire One Conductor Earthed)
Go
Created
Line Losses using K(Two-Wire One Conductor Earthed)
Go
Created
Line Losses(Two-Wire One Conductor Earthed)
Go
Created
Volume of Conductor Material(Two-Wire One Conductor Earthed)
Go
Created
Volume using K(Two-Wire One Conductor Earthed)
Go
Wire Parameters
(11)
Created
Area of X-Section using Line Losses(Two-Wire Mid-Point Earthed)
Go
Created
Area of X-Section using Volume of Conductor Material(2-Wire Mid-Point Earthed OS)
Go
Created
Area of X-Section(Two-Wire Mid-Point Earthed)
Go
Created
Constant using Volume of Conductor Material(2-Wire Mid-Point Earthed OS)
Go
Created
Constant(Two-Wire Mid-Point Earthed)
Go
Created
Length of Wire using Line Losses(Two-Wire Mid-Point Earthed)
Go
Created
Length using Volume of Conductor Material(2-Wire Mid-Point Earthed OS)
Go
Created
Line Losses using Volume of Conductor Material(2-Wire Mid-Point Earthed OS)
Go
Created
Line Losses(Two-Wire Mid-Point Earthed)
Go
Created
Volume of Conductor Material(Two-Wire Mid-Point Earthed)
Go
Created
Volume using K(Two-Wire Mid-Point Earthed)
Go
Wire Parameters
(16)
Created
Area of X-Section using Line Losses(DC 3-Wire)
Go
Created
Area of X-Section using Volume of Conductor Material (DC 3-Wire)
Go
Created
Area of X-Section(DC 3-Wire)
Go
Created
Constant using Volume of Conductor Material (DC 3-Wire)
Go
Created
Constant(DC 3-Wire)
Go
Created
Length using Area of X-Section(DC 3-Wire)
Go
Created
Length using Constant(DC 3-Wire)
Go
Created
Length using Line Losses(DC 3-Wire)
Go
Created
Length using Volume of Conductor Material (DC 3-Wire)
Go
Created
Line Losses using Area of X-Section(DC 3-Wire)
Go
Created
Line Losses using Constant(DC 3-Wire)
Go
Created
Line Losses using Volume of Conductor Material (DC 3-Wire)
Go
Created
Line Losses(DC 3-Wire)
Go
Created
Volume of Conductor Material (DC 3-Wire)
Go
Created
Volume of Conductor Material using Area of X-Section(DC 3-Wire)
Go
Created
Volume of Conductor Material using Constant(DC 3-Wire)
Go
Wire Parameters
(15)
Created
Area of X-Section using Line Losses (Single-Phase Two-Wire OS)
Go
Created
Area of X-Section using Load Current (Single-Phase Two-Wire OS)
Go
Created
Area of X-Section(Single-Phase Two-Wire OS)
Go
Created
Constant using Line Losses (Single-Phase Two-Wire OS)
Go
Created
Constant using Load Current (Single-Phase Two-Wire OS)
Go
Created
Constant(Single-Phase Two-Wire OS)
Go
Created
Length of Wire using Area of X-Section(Single-Phase Two-Wire OS)
Go
Created
Length using Line Losses (Single-Phase Two-Wire OS)
Go
Created
Length using Load Current (Single-Phase Two-Wire OS)
Go
Created
Line Losses using Area of X-Section(Single-Phase Two-Wire OS)
Go
Created
Line Losses using Load Current (Single-Phase Two-Wire OS)
Go
Created
Line Losses(Single-Phase Two-Wire OS)
Go
Created
Volume of Conductor Material using Line Losses (Single-Phase Two-Wire OS)
Go
Created
Volume of Conductor Material using Load Current (Single-Phase Two-Wire OS)
Go
Created
Volume of Conductor Material(Single-Phase Two-Wire OS)
Go
Wire Parameters
(12)
Created
Area of X-Section using Line Losses (Single Phase Two Wire Mid-Point OS)
Go
Created
Area of X-Section using Load Current (Single Phase Two Wire Mid-Point OS)
Go
Created
Area of X-Section(Single Phase Two Wire Mid-Point Earthed)
Go
Created
Constant (Single Phase Two Wire Mid-Point Earthed)
Go
Created
Constant using Line Losses (Single Phase Two Wire Mid-Point OS)
Go
Created
Constant using Load Current (Single Phase Two Wire Mid-Point OS)
Go
Created
Length of Wire using Area of X-Section(Single Phase Two Wire Mid-Point Earthed OS)
Go
Created
Length using Load Current (Single Phase Two-Wire Mid-Point OS)
Go
Created
Line Losses using Area of X-Section(Single Phase Two Wire Mid-Point Earthed OS)
Go
Created
Line Losses using Load Current (Single Phase Two Wire Mid-Point OS)
Go
Created
Volume of Conductor Material using Line Losses (Single Phase Two Wire Mid-Point OS)
Go
Created
Volume of Conductor Material using Load Current (Single Phase Two Wire Mid-Point OS)
Go
Wire Parameters
(19)
Created
Area of X-Section using Line Losses (Single-Phase Three-Wire OS)
Go
Created
Area of X-Section using Load Current (Single-Phase Three-Wire OS)
Go
Created
Area of X-section using Volume of Conductor Material (Single-Phase Three-Wire OS)
Go
Created
Area of X-Section(Single-Phase Three-Wire OS)
Go
Created
Constant using Line Losses (Single-Phase Three-Wire OS)
Go
Created
Constant using Load Current (Single-Phase Three-Wire OS)
Go
Created
Constant using Volume of Conductor Material (Single-Phase Three-Wire OS)
Go
Created
Constant(Single-Phase Three-Wire OS)
Go
Created
Length of Wire using Area of X-Section(Single-Phase Three-Wire OS)
Go
Created
Length using Line Losses (Single-Phase Three-Wire OS)
Go
Created
Length using Load Current (Single-Phase Three-Wire OS)
Go
Created
Length using Volume of Conductor Material (Single-Phase Three-Wire OS)
Go
Created
Line Losses using Area of X-Section(Single-Phase Three-Wire OS)
Go
Created
Line Losses using Load Current (Single-Phase Three-Wire OS)
Go
Created
Line Losses using Volume of Conductor Material (Single-Phase Three-Wire OS)
Go
Created
Line Losses(Single-Phase Three-Wire OS)
Go
Created
Volume of Conductor Material using Line Losses (Single-Phase Three-Wire OS)
Go
Created
Volume of Conductor Material using Load Current (Single-Phase Three-Wire OS)
Go
Created
Volume of Conductor Material(Single-Phase Three-Wire OS)
Go
Wire Parameters
(16)
Created
Area of X-Section using Line Losses (2-Phase 4-Wire OS)
Go
Created
Area of X-Section using Load Current (2-Phase 4-Wire OS)
Go
Created
Area of X-Section(2-Phase 4-Wire OS)
Go
Created
Constant using Line Losses (2-Phase 4-Wire OS)
Go
Created
Constant using Load Current (2-Phase 4-Wire OS)
Go
Created
Constant(2-Phase 4-Wire OS)
Go
Created
Length of Wire using Area of X-Section(2-Phase 4-Wire OS)
Go
Created
Length using Line Losses (2-Phase 4-Wire OS)
Go
Created
Length using Load Current (2-Phase 4-Wire OS)
Go
Created
Line Losses using Area of X-Section(2-Phase 4-Wire OS)
Go
Created
Line Losses using Load Current (2-Phase 4-Wire OS)
Go
Created
Line Losses(2-Phase 4-Wire OS)
Go
Created
Volume of Conductor Material using Area of X-Section(2-Phase 4-Wire OS)
Go
Created
Volume of Conductor Material using Line Losses (2-Phase 4-Wire OS)
Go
Created
Volume of Conductor Material using Load Current (2-Phase 4-Wire OS)
Go
Created
Volume of Conductor Material(2-Phase 4-Wire OS)
Go
Wire Parameters
(13)
Created
Area of X-Section using Resistance (3-Phase 4-Wire OS)
Go
Created
Area of X-section using Volume of Conductor Material (3-Phase 4-Wire OS)
Go
Created
Area of X-Section(3-Phase 4-Wire OS)
Go
Created
Constant using Volume of Conductor Material (3-Phase 4-Wire OS)
Go
Created
Constant(3-Phase 4-Wire OS)
Go
Created
Length of Wire using Area of X-Section(3-Phase 4-Wire OS)
Go
Created
Length of Wire using Resistance (3-Phase 4-Wire OS)
Go
Created
Length using Volume of Conductor Material (3-Phase 4-Wire OS)
Go
Created
Line Losses using Area of X-Section(3-Phase 4-Wire OS)
Go
Created
Line Losses using Volume of Conductor Material (3-Phase 4-Wire OS)
Go
Created
Line Losses(3-Phase 4-Wire OS)
Go
Created
Volume of Conductor Material using Constant(3-Phase 4-Wire OS)
Go
Created
Volume of Conductor Material(3-Phase 4-Wire OS)
Go
Wire Parameters
(6)
Created
Area of X-Section(3-Phase 3-Wire OS)
Go
Created
Constant(3-Phase 3-Wire OS)
Go
Created
Length of Wire using Area of X-Section(3-Phase 3-Wire OS)
Go
Created
Line Losses using Area of X-Section(3-Phase 3-Wire OS)
Go
Created
Line Losses(3-Phase 3-Wire OS)
Go
Created
Volume of Conductor Material(3-Phase 3-Wire OS)
Go
Wire Parameters
(15)
Created
Area of X-Section using Line Losses (Two-Phase Three-Wire OS)
Go
Created
Area of X-Section using Resistance (Two-Phase Three-Wire OS)
Go
Created
Area of X-Section using Volume of Conductor Material (Two-Phase Three-Wire OS)
Go
Created
Area of X-Section(Two-Phase Three-Wire OS)
Go
Created
Constant using Volume of Conductor Material (Two-Phase Three-Wire OS)
Go
Created
Constant(Two-Phase Three-Wire OS)
Go
Created
Length of Wire using Area of X-Section(Two-Phase Three-Wire OS)
Go
Created
Length of Wire using Resistance (Two-Phase Three-Wire OS)
Go
Created
Length using Line Losses (Two-Phase Three-Wire OS)
Go
Created
Length using Volume of Conductor Material (Two-Phase Three-Wire OS)
Go
Created
Line Losses using Area of X-Section(Two-Phase Three-Wire OS)
Go
Created
Line Losses using Volume of Conductor Material (Two-Phase Three-Wire OS)
Go
Created
Line Losses(Two-Phase Three-Wire OS)
Go
Created
Volume of Conductor Material using Area of X-Section(Two-Phase Three-Wire OS)
Go
Created
Volume of Conductor Material(Two-Phase Three-Wire OS)
Go
Wire Parameters
(23)
Created
Area of X-Section (1-Phase 2-Wire US)
Go
Created
Area of X-Section using Constant (1-Phase 2-Wire US)
Go
Created
Area of X-Section using Line Losses (1-Phase 2-Wire US)
Go
Created
Area of X-Section using Load Current (1-Phase 2-Wire US)
Go
Created
Area of X-Section using Resistance (1-Phase 2-Wire US)
Go
Created
Area of X-Section using Volume of Conductor Material (1-Phase 2-Wire US)
Go
Created
Constant (1-Phase 2-Wire US)
Go
Created
Constant using Area of X-Section (1-Phase 2-Wire US)
Go
Created
Constant using Line Losses (1-Phase 2-Wire US)
Go
Created
Constant using Load Current (1-Phase 2-Wire US)
Go
Created
Constant using Resistance (1-Phase 2-Wire US)
Go
Created
Constant using Volume of Conductor Material (1-Phase 2-Wire US)
Go
Created
Length of Wire using Constant (1-Phase 2-Wire US)
Go
Created
Length using Area of X-Section (1-Phase 2-Wire US)
Go
Created
Length using Line Losses (1-Phase 2-Wire US)
Go
Created
Length using Load Current (1-Phase 2-Wire US)
Go
Created
Length using Resistance (1-Phase 2-Wire US)
Go
Created
Length using Volume of Conductor Material (1-Phase 2-Wire US)
Go
Created
Voltage of Conductor Material (1-Phase 2-Wire US)
Go
Created
Volume of Conductor Material using Area of X-Section (1-Phase 2-Wire US)
Go
Created
Volume of Conductor Material using Constant (1-Phase 2-Wire US)
Go
Created
Volume of Conductor Material using Line Losses (1-Phase 2-Wire US)
Go
Created
Volume of Conductor Material using Load Current (1-Phase 2-Wire US)
Go
Wire Parameters
(18)
Created
Angle using Area of X-Section (3 Phase 4 Wire US)
Go
Created
Angle using Line Losses (3 Phase 4 Wire US)
Go
Created
Angle using Load Current (3 Phase 4 Wire US)
Go
Created
Area of X-Section (3 Phase 4 Wire US)
Go
Created
Area of X-Section using Volume of Conductor Material (3 Phase 4 Wire US)
Go
Created
Area using Line Losses (3 Phase 4 Wire US)
Go
Created
Constant using Volume of Conductor Material (3 Phase 4 Wire US)
Go
Created
Length using Area of X-Section (3 Phase 4 Wire US)
Go
Created
Length using Line Losses (3 Phase 4 Wire US)
Go
Created
Line Losses (3 Phase 4 Wire US)
Go
Created
Line Losses using Area of X-Section (3 Phase 4 Wire US)
Go
Created
Line Losses using Load Current (3 Phase 4 Wire US)
Go
Created
Line Losses using Volume of Conductor Material (3 Phase 4 Wire US)
Go
Created
Volume of Conductor Material (3 Phase 4 Wire US)
Go
Created
Volume of Conductor Material using Load Current (3 Phase 4 Wire US)
Go
Created
Volume of Conductor Material when Area and Length is Given(3 Phase 4 Wire US)
Go
Created
Volume of Conductor Material when K is Given(3 Phase 4 Wire US)
Go
Created
Volume of Conductor Material when Resistance is Given(3 Phase 4 Wire US)
Go
Wire Parameters
(9)
Created
Area of X Section using Volume of Conductor Material (3 Phase 3 Wire US)
Go
Created
Constant using Volume of Conductor Material (3 Phase 3 Wire US)
Go
Created
Line Losses (3 Phase 3 Wire US)
Go
Created
Line Losses using Volume of Conductor Material (3 Phase 3 Wire US)
Go
Created
Volume of Conductor Material (3 Phase 3 Wire US)
Go
Created
Volume of Conductor Material when Area and Length is Given(3 Phase 3 Wire US)
Go
Created
Volume of Conductor Material when K is Given(3 Phase 3 Wire US)
Go
Created
Volume of Conductor Material when Load Current is Given(3 Phase 3 Wire US)
Go
Created
Volume of Conductor Material when Resistance is Given(3 Phase 3 Wire US)
Go
Wire Parameters
(17)
Created
Angle of Pf using Line Losses (2-Phase 3-Wire US)
Go
Created
Angle of PF using Volume of Conductor Material (2 Phase 3 Wire US)
Go
Created
Angle using Current in Each Outer (2-Phase 3-Wire US)
Go
Created
Angle using Current in Neutral Wire (2-Phase 3-Wire US)
Go
Created
Area of X Section using Volume of Conductor Material (2 Phase 3 Wire US)
Go
Created
Area of X-Section using Line Losses (2-Phase 3-Wire US)
Go
Created
Area using Resistance of Natural Wire (2-Phase 3-Wire US)
Go
Created
Constant using Volume of Conductor Material (2 Phase 3 Wire US)
Go
Created
Length using Line Losses (2-Phase 3-Wire US)
Go
Created
Length using Resistance of Natural Wire (2-Phase 3-Wire US)
Go
Created
Length using Volume of Conductor Material (2 Phase 3 Wire US)
Go
Created
Line Losses using Volume of Conductor Material (2 Phase 3 Wire US)
Go
Created
Volume of Conductor Material (2 Phase 3 Wire US)
Go
Created
Volume of Conductor Material using Area and Length(2 Phase 3 Wire US)
Go
Created
Volume of Conductor Material using Constant(2 Phase 3 Wire US)
Go
Created
Volume of Conductor Material using Load Current (2 Phase 3 Wire US)
Go
Created
Volume of Conductor Material using Resistance (2 Phase 3 Wire US)
Go
Wire Parameters
(15)
Created
Area of X-Section (DC Three-Wire US)
Go
Created
Area of X-section using Volume of Conductor Material(DC Three-Wire US)
Go
Created
Constant using Volume of Conductor Material(DC Three-Wire US)
Go
Created
Length using Area of X-Section (DC Three-Wire US)
Go
Created
Length using Line Losses (DC Three-Wire US)
Go
Created
Length using Volume of Conductor Material(DC Three-Wire US)
Go
Created
Line Losses (DC Three-Wire US)
Go
Created
Line Losses using Area of X-Section (DC Three-Wire US)
Go
Created
Line Losses using Resistance (DC Three-Wire US)
Go
Created
Line Losses using Volume of Conductor Material(DC Three-Wire US)
Go
Created
Volume of Conductor Material (DC Three-Wire US)
Go
Created
Volume of Conductor Material using Area and Length(DC Three-Wire US)
Go
Created
Volume of Conductor Material using Constant(DC Three-Wire US)
Go
Created
Volume of Conductor Material using Load Current (DC Three-Wire US)
Go
Created
Volume of Conductor Material using Resistance (DC Three-Wire US)
Go
Wire Parameters
(14)
Created
Angle of PF using Volume of Conductor Material(1 Phase 3 Wire US)
Go
Created
Angle using Area of X Section (1 Phase 3 Wire US)
Go
Created
Area of X-Section using Line Losses (1 Phase 3 Wire US)
Go
Created
Constant using Volume of Conductor Material(1 Phase 3 Wire US)
Go
Created
Length using Area of X Section (1 Phase 3 Wire US)
Go
Created
Length using Line Losses (1 Phase 3 Wire US)
Go
Created
Length using Volume of Conductor Material(1 Phase 3 Wire US)
Go
Created
Line Losses using Area of X Section (1 Phase 3 Wire US)
Go
Created
Line Losses using Volume of Conductor Material(1 Phase 3 Wire US)
Go
Created
Volume of Conductor Material using Area and Length (1 Phase 3 Wire US)
Go
Created
Volume of Conductor Material using Constant(1 Phase 3 Wire US)
Go
Created
Volume of Conductor Material using Load Current(1 Phase 3 Wire US)
Go
Created
Volume of Conductor Material using Resistance (1 Phase 3 Wire US)
Go
Created
Volume of Conductor Material(1 Phase 3 Wire US)
Go
Wire Parameters
(14)
Created
Angle using Area of X-Section (1-Phase 2-Wire Mid-Point Earthed)
Go
Created
Angle using Load Current (1-Phase 2-Wire Mid-Point Earthed)
Go
Created
Area of X-Section (1-Phase 2-Wire Mid-Point Earthed)
Go
Created
Area using Line Losses (1-Phase 2-Wire Mid-Point Earthed)
Go
Created
Area using Volume of Conductor Material (1-Phase 2-Wire Mid-Point Earthed)
Go
Created
Length using Area of X-Section (1-Phase 2-Wire Mid-Point Earthed)
Go
Created
Length using Line Losses (1-Phase 2-Wire Mid-Point Earthed)
Go
Created
Length using Volume of Conductor Material (1-Phase 2-Wire Mid-Point Earthed)
Go
Created
Line Losses using Area of X-Section (1-Phase 2-Wire Mid-Point Earthed)
Go
Created
Volume of Conductor Material (1-Phase 2-Wire Mid-Point Earthed)
Go
Created
Volume of Conductor Material using Area and Length(1-Phase 2-Wire Mid-Point US)
Go
Created
Volume of Conductor Material using Constant(1-Phase 2-Wire Mid-Point Earthed)
Go
Created
Volume of Conductor Material using Load Current (1-Phase 2-Wire Mid-Point Earthed)
Go
Created
Volume of Conductor Material using Resistance (1-Phase 2-Wire Mid-Point Earthed)
Go
Wire Parameters
(14)
Created
Area using Line Losses (2 Phase 4 Wire US)
Go
Created
Area using Volume of Conductor Material (2 Phase 4 Wire US)
Go
Created
Length using Area of X-Section (2 Phase 4 Wire US)
Go
Created
Length using Line Losses (2 Phase 4 Wire US)
Go
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Length using Volume of Conductor Material (2 Phase 4 Wire US)
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Line Losses (2 Phase 4 Wire US)
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Line Losses using Area of X-Section (2 Phase 4 Wire US)
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Line Losses using Load Current (2 Phase 4 Wire US)
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Line Losses using Volume of Conductor Material (2 Phase 4 Wire US)
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Volume of Conductor Material (2 Phase 4 Wire US)
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Volume of Conductor Material Main(2 Phase 4 Wire US)
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Volume of Conductor Material using Constant(2 Phase 4 Wire US)
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Volume of Conductor Material using Load Current (2 Phase 4 Wire US)
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Volume of Conductor Material using Load Current(2 Phase 4 Wire US)
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Wire Parameters
(9)
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Area using Volume of Conductor Material (2-Wire Mid-Point DC US)
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Length using Area of X-Section (2-Wire Mid-Point Earthed DC US)
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Length using Volume of Conductor Material (2-Wire Mid-Point DC US)
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Line Losses using Area of X-Section (2-Wire Mid-Point Earthed DC US)
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Line Losses using Volume of Conductor Material (2-Wire Mid-Point DC US)
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Volume of Conductor Material (2-Wire Mid-Point DC US)
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Volume of Conductor Material using Area and Length (2-Wire Mid-Point DC US)
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Volume of Conductor Material using Load Current (2-Wire Mid-Point DC US)
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Volume of Conductor Material using Resistance (2-Wire Mid-Point DC US)
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Wire Parameters
(10)
Created
Area of X-Section (DC Two-Wire US)
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Length using Area of X-Section (DC Two-Wire US)
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Created
Length using Line Losses (DC Two-Wire US)
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Created
Line Losses (DC Two-Wire US)
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Created
Line Losses using Area of X-Section(DC Two-Wire US)
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Created
Line Losses using Resistance (DC Two-Wire US)
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Volume of Conductor Material (DC Two-Wire US)
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Volume of Conductor Material using Area and Length(DC Two-Wire US)
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Volume of Conductor Material using Load Current (DC Two-Wire US)
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Volume of Conductor Material using Resistance (DC Two-Wire US)
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Y Parameters
(20)
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Current 1 (Y Parameter)
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Current 1 given Y11 Parameter (Y Parameter)
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Current 1 given Y12 Parameter (Y Parameter)
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Current 2 (Y Parameter)
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Current 2 given Y21 Parameter (Y Parameter)
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Current 2 given Y22 Parameter (Y Parameter)
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Driving Point Input Admittance (Y11)
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Driving Point Output Admittance (Y22)
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Input Transfer Admittance (Y12)
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Output Transfer Admittance (Y21)
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Y11 Parameter in Terms of G Parameters
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Y11 Parameter in Terms of H Parameters
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Y11 Parameter in Terms of T Parameters
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Y11 Parameter in Terms of Z Parameters
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Y12 Parameter in Terms of H Parameters
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Y12 Parameter in Terms of Z Parameters
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Y21 Parameter in Terms of T Parameters
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Y21 Parameter in Terms of Z Parameters
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Y22 Parameter in Terms of T Parameters
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Y22 Parameter in Terms of Z Parameters
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Z Parameters
(23)
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Current 1 given Voltage 1 (Z Parameter)
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Current 1 given Z11 Parameter (Z Parameter)
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Current 1 given Z21 Parameter (Z Parameter)
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Current 2 given Voltage 1 (Z Parameter)
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Current 2 given Voltage 2 (Z Parameter)
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Current 2 given Z22 Parameter (Z Parameter)
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Driving Point Input Impedance (Z11)
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Driving Point Output Impedance (Z22)
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Input Transfer Impedance (Z12)
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Output Transfer Impedance (Z21)
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Voltage 1 (Z Parameter)
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Voltage 2 (Z Parameter)
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Z11 Parameter given Voltage 1 (Z Parameter)
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Z11 Parameter in Terms of G Parameters
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Z11 Parameter in Terms of H Parameters
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Z11 Parameter in Terms of T Parameters
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Z11 Parameter in Terms of Y Parameters
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Z12 Parameter given Voltage 1 (Z Parameter)
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Z12 Parameter in Terms of H Parameters
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Z12 Parameter in Terms of T' Parameters
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Z21 Parameter given Voltage 2 (Z Parameter)
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Z21 Parameter in Terms of G Parameters
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Z22 Parameter given Voltage 2 (Z Parameter)
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Zero Sequence
(4)
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Zero Sequence Current (One Conductor Open)
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Created
Zero Sequence Current using Zero Sequence Voltage (One Conductor Open)
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Zero Sequence Impedance using Zero Sequence Voltage (One Conductor Open)
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Zero Sequence Voltage using Zero Sequence Impedance (One Conductor Open)
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Zero Sequence
(5)
Created
Zero Sequence Current using Zero Sequence Voltage (Two Conductor Open)
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Zero Sequence Impedance using Zero Sequence Voltage (Two Conductor Open)
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Zero Sequence Potential Difference (Two Conductor Open)
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Zero Sequence Potential Difference using Potential Difference between B-Phase(Two Conductor Open)
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Zero Sequence Voltage using Zero Sequence Current (Two Conductor Open)
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1 More Zero Sequence Calculators
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ΔH In Terms Of Different Parameters
(9)
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Delta H given A Parameter
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Delta H given B Parameter
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Delta H given B' Parameter
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Delta H given Delta T'
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Delta H given Delta Y
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Delta H given Delta Z
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Delta H given G21 Parameter
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Delta H given Y22 Parameter
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Delta H given Z11 Parameter
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ΔT In Terms Of Different Parameters
(8)
Created
Delta T given A' Parameter
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Created
Delta T given B' Parameter
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Delta T given C' Parameter
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Delta T given D' Parameter
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Delta T given Delta G
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Delta T given Delta H
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Delta T given Delta Y
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Delta T given Delta Z
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Δ'T In Terms Of Different Parameters
(4)
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Delta T' given A Parameter
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Delta T' given Delta G
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Delta T' given Delta H
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Delta T' given Delta Z
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ΔY In Terms Of Different Parameters
(5)
Created
Delta Y given A Parameter
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Created
Delta Y given Delta H
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Created
Delta Y given Delta T
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Delta Y given G11 Parameter
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Created
Delta Y given G12 Parameter
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ΔZ In Terms Of Different Parameters
(5)
Created
Delta Z given A Parameter
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Created
Delta Z given A' Parameter
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Created
Delta Z given D Parameter
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Created
Delta Z given Delta H Parameter
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Created
Delta Z given Delta T' Parameter
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