Power Output of Motor using Efficiency of Gear Transmission Calculator

✖Tractive Effort, the term tractive force can either refer to the total traction a vehicle exerts on a surface, or the amount of the total traction that is parallel to the direction of motion.ⓘ Tractive Effort [F_t]			+10% -10%
✖Velocity is defined as the ratio of distance that an object travels to the time for which the object has travelled.ⓘ Velocity [V]			+10% -10%
✖Gear Efficiency is simply the ratio of output shaft power to the Input shaft power.ⓘ Gear Efficiency [η_gear]			+10% -10%

✖Power Output Train is the amount of energy transferred or converted per unit time.ⓘ Power Output of Motor using Efficiency of Gear Transmission [P]

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Formula

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Power Output of Motor using Efficiency of Gear Transmission

Formula

`"P" = ("F"_{"t"}*"V")/(3600*"η"_{"gear"})`

Example

`"7.692525W"=("545N"*"150km/h")/(3600*"0.82")`

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Power Output of Motor using Efficiency of Gear Transmission Solution

STEP 0: Pre-Calculation Summary

Formula Used

Power Output Train = (Tractive Effort*Velocity)/(3600*Gear Efficiency)
P = (F_t*V)/(3600*η_gear)
This formula uses 4 Variables

Variables Used

Power Output Train - (Measured in Watt) - Power Output Train is the amount of energy transferred or converted per unit time.
Tractive Effort - (Measured in Newton) - Tractive Effort, the term tractive force can either refer to the total traction a vehicle exerts on a surface, or the amount of the total traction that is parallel to the direction of motion.
Velocity - (Measured in Meter per Second) - Velocity is defined as the ratio of distance that an object travels to the time for which the object has travelled.
Gear Efficiency - Gear Efficiency is simply the ratio of output shaft power to the Input shaft power.

STEP 1: Convert Input(s) to Base Unit

Tractive Effort: 545 Newton --> 545 Newton No Conversion Required
Velocity: 150 Kilometer per Hour --> 41.6666666666667 Meter per Second (Check conversion here)
Gear Efficiency: 0.82 --> No Conversion Required

STEP 2: Evaluate Formula

Substituting Input Values in Formula

P = (F_t*V)/(3600*η_gear) --> (545*41.6666666666667)/(3600*0.82)

Evaluating ... ...

P = 7.69252484191509

STEP 3: Convert Result to Output's Unit

7.69252484191509 Watt --> No Conversion Required

FINAL ANSWER

7.69252484191509 ≈ 7.692525 Watt <-- Power Output Train

(Calculation completed in 00.004 seconds)

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Credits

Created by Prahalad Singh

Jaipur Engineering College and Research Centre (JECRC), Jaipur

Prahalad Singh has created this Calculator and 100+ more calculators!

Verified by Payal Priya

Birsa Institute of Technology (BIT), Sindri

Payal Priya has verified this Calculator and 1900+ more calculators!

< 8 Power & Energy Calculators

Energy Consumption at Axle of Train

Go Energy Consumption at Axle of Train = 0.01072*(Crest Speed^2/Distance Travelled by Train)*(Accelerating Weight of Train/Weight of Train)+0.2778*Specific Resistance Train*(Diameter of Pinion 1/Distance Travelled by Train)

Energy Available during Regeneration

Go Energy Consumption during Regeneration = 0.01072*(Accelerating Weight of Train/Weight of Train)*(Final Velocity^2-Initial Velocity^2)

Energy Available due to Reduction in Speed

Go Energy Consumption by Train = 0.01072*Accelerating Weight of Train*Final Velocity^2-Initial Velocity^2

Specific Energy Consumption

Go Specific Energy Consumption = Energy required by Train/(Weight of Train*Distance Travelled by Train)

Energy Consumption for Overcoming Gradient and Tracking Resistance

Go Energy Consumption for Overcoming Gradient = Tractive Effort*Velocity*Time Taken by Train

Energy Consumption for Run

Go Energy Consumption for Run = 0.5*Tractive Effort*Crest Speed*Time for Acceleration

Power Output of Motor using Efficiency of Gear Transmission

Go Power Output Train = (Tractive Effort*Velocity)/(3600*Gear Efficiency)

Maximum Power Output from Driving Axle

Go Maximum Output Power = (Tractive Effort*Crest Speed)/3600

< 15 Traction Physics Calculators

Tractive Effort on Driven Wheel

Go Wheel Tractive Effort = (Gear Ratio of Transmission*Gear Ratio of Final Drive*(Efficiency of Driveline/100)*Torque Output from Powerplant)/Effective Radius of Wheel

Energy Available during Regeneration

Go Energy Consumption during Regeneration = 0.01072*(Accelerating Weight of Train/Weight of Train)*(Final Velocity^2-Initial Velocity^2)

Tractive Effort during Acceleration

Go Acceleration Tractive Effort = (277.8*Accelerating Weight of Train*Acceleration of Train)+(Weight of Train*Specific Resistance Train)

Slip of Scherbius Drive given RMS Line Voltage

Go Slip = (Back Emf/RMS Value of Rotor Side Line Voltage)*modulus(cos(Firing Angle))

Tractive Effort Required while going down Gradient

Go Down Gradient Tractive Effort = (Weight of Train*Specific Resistance Train)-(98.1*Weight of Train*Gradient)

Tractive Effort Required during Free-Running

Go Free Run Tractive Effort = (98.1*Weight of Train*Gradient)+(Weight of Train*Specific Resistance Train)

Total Tractive Effort Required for Propulsion of Train

Go Train Tractive Effort = Resistance Overcome Tractive Effort+Gravity Overcome Tractive Effort+Force

Tractive Effort Required to Overcome Effect of Gravity

Go Gravity Tractive Effort = 1000*Weight of Train*[g]*sin(Angle D)

Tractive Effort at Wheel

Go Wheel Tractive Effort = (Pinion Edge Tractive Effort*Diameter of Pinion 2)/Diameter of Wheel

Energy Consumption for Overcoming Gradient and Tracking Resistance

Go Energy Consumption for Overcoming Gradient = Tractive Effort*Velocity*Time Taken by Train

Power Output of Motor using Efficiency of Gear Transmission

Go Power Output Train = (Tractive Effort*Velocity)/(3600*Gear Efficiency)

Tractive Effort Required for Linear and Angular Acceleration

Go Angular Accelration Tractive Effort = 27.88*Weight of Train*Acceleration of Train

Tractive Effort Required to Overcome Train Resistance

Go Resistance Overcome Tractive Effort = Specific Resistance Train*Weight of Train

Tractive Effort at Edge of Pinion

Go Pinion Edge Tractive Effort = (2*Engine Torque)/Diameter of Pinion 1

Tractive Effort Required to Overcome Effect of Gravity given Gradient during up Gradient

Go Tractive Effort of Up Gradient = 98.1*Weight of Train*Gradient

Power Output of Motor using Efficiency of Gear Transmission Formula

Power Output Train = (Tractive Effort*Velocity)/(3600*Gear Efficiency)
P = (F_t*V)/(3600*η_gear)

What are the factor affect the specific energy consumption ?

Specific energy consumption is affected by Retardation and acceleration values, Gradient, the distance between stops.

How to Calculate Power Output of Motor using Efficiency of Gear Transmission?

Power Output of Motor using Efficiency of Gear Transmission calculator uses Power Output Train = (Tractive Effort*Velocity)/(3600*Gear Efficiency) to calculate the Power Output Train, Power output of motor using efficiency of gear transmission formula is defined as the ratio of the product of tractive effort and velocity to the product of constant 3600 and gear efficiency. Power Output Train is denoted by P symbol.

How to calculate Power Output of Motor using Efficiency of Gear Transmission using this online calculator? To use this online calculator for Power Output of Motor using Efficiency of Gear Transmission, enter Tractive Effort (F_t), Velocity (V) & Gear Efficiency (η_gear) and hit the calculate button. Here is how the Power Output of Motor using Efficiency of Gear Transmission calculation can be explained with given input values -> 7.692525 = (545*41.6666666666667)/(3600*0.82).

FAQ

What is Power Output of Motor using Efficiency of Gear Transmission?

Power output of motor using efficiency of gear transmission formula is defined as the ratio of the product of tractive effort and velocity to the product of constant 3600 and gear efficiency and is represented as P = (F_t*V)/(3600*η_gear) or Power Output Train = (Tractive Effort*Velocity)/(3600*Gear Efficiency). Tractive Effort, the term tractive force can either refer to the total traction a vehicle exerts on a surface, or the amount of the total traction that is parallel to the direction of motion, Velocity is defined as the ratio of distance that an object travels to the time for which the object has travelled & Gear Efficiency is simply the ratio of output shaft power to the Input shaft power.

How to calculate Power Output of Motor using Efficiency of Gear Transmission?

Power output of motor using efficiency of gear transmission formula is defined as the ratio of the product of tractive effort and velocity to the product of constant 3600 and gear efficiency is calculated using Power Output Train = (Tractive Effort*Velocity)/(3600*Gear Efficiency). To calculate Power Output of Motor using Efficiency of Gear Transmission, you need Tractive Effort (F_t), Velocity (V) & Gear Efficiency (η_gear). With our tool, you need to enter the respective value for Tractive Effort, Velocity & Gear Efficiency and hit the calculate button. You can also select the units (if any) for Input(s) and the Output as well.

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