Power Losses for TEM Mode Solution

STEP 0: Pre-Calculation Summary
Formula Used
Power Losses for the TEM Mode = 2*Attenuation Constant*Transmitting Power
Ploss = 2*α*Pt
This formula uses 3 Variables
Variables Used
Power Losses for the TEM Mode - (Measured in Watt) - Power Losses for the TEM Mode is the total loss of power in in coaxial lines or circular waveguides which is required to be minimized to avoid wastage of power lost.
Attenuation Constant - (Measured in Decibel per Meter) - Attenuation Constant is a function of the microstrip geometry, the electrical properties of the dielectric substrate and the conductors, and frequency.
Transmitting Power - (Measured in Watt) - Transmitting Power is the movement of energy from its place of generation to a location where it is applied to perform useful work .
STEP 1: Convert Input(s) to Base Unit
Attenuation Constant: 0.91 Decibel per Meter --> 0.91 Decibel per Meter No Conversion Required
Transmitting Power: 1.23 Watt --> 1.23 Watt No Conversion Required
STEP 2: Evaluate Formula
Substituting Input Values in Formula
Ploss = 2*α*Pt --> 2*0.91*1.23
Evaluating ... ...
Ploss = 2.2386
STEP 3: Convert Result to Output's Unit
2.2386 Watt --> No Conversion Required
FINAL ANSWER
2.2386 Watt <-- Power Losses for the TEM Mode
(Calculation completed in 00.004 seconds)

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17 Microwave Devices Calculators

Propagation Constant
​ Go Propagation Constant = Angular Frequency*(sqrt(Magnetic Permeability*Dielectric Permittivity))*(sqrt(1-((Cut-off Frequency/Frequency)^2)))
Attenuation for TEmn mode
​ Go Attenuation for the TEmn mode = (Conductivity*Intrinsic Impedance)/(2*sqrt(1-((Cut-off Frequency)/(Frequency))^2))
Attenuation for TMmn mode
​ Go Attenuation for the TMmn mode = ((Conductivity*Intrinsic Impedance)/2)*sqrt(1-(Cut-off Frequency/Frequency)^2)
Cut-off Frequency of Rectangular Waveguide
​ Go Cut-off Frequency = (1/(2*pi*sqrt(Magnetic Permeability*Dielectric Permittivity)))*Cut-off Wave Number
Surface Resistance of Guide Walls
​ Go Surface Resistance = sqrt((pi*Frequency*Magnetic Permeability)/(Conductivity))
Power Density of Spherical Wave
​ Go Power Density = (Power Transmitted*Transmitting Gain)/(4*pi*Distance between Antennas)
Wavelength for TEmn Modes
​ Go Wavelength for TEmn modes = (Wavelength)/(sqrt(1-(Cut-off Frequency/Frequency)^2))
Force Exerted on Particle
​ Go Force Exerted on Particle = (Charge of a Particle*Velocity of a Charged Particle)*Magnetic Flux Density
Cut-off Frequency of Circular Waveguide in Transverse Electric 11 Mode
​ Go Cut-off Frequency Circular Waveguide TE11 = ([c]*1.841)/(2*pi*Radius of Circular Waveguide)
Cut-off Frequency of Circular Waveguide in Transverse Magnetic 01 Mode
​ Go Cut-off Frequency Circular Waveguide TM01 = ([c]*2.405)/(2*pi*Radius of Circular Waveguide)
Characteristic Wave Impedance
​ Go Characteristic Wave Impedance = (Angular Frequency*Magnetic Permeability)/(Phase Constant)
Quality Factor
​ Go Quality Factor = (Angular Frequency*Maximum Stored Energy)/(Average Power Loss)
Maximum Stored Energy
​ Go Maximum Stored Energy = (Quality Factor*Average Power Loss)/Angular Frequency
Power Received by Antenna
​ Go Power Received by Antenna = Power Density of Antenna*Effective Area Antenna
Power Losses for TEM Mode
​ Go Power Losses for the TEM Mode = 2*Attenuation Constant*Transmitting Power
Critical Frequency for Vertical Incidence
​ Go Critical Frequency = 9*sqrt(Maximum Electron Density)
Phase Velocity of Rectangular Waveguide
​ Go Phase Velocity = Angular Frequency/Phase Constant

Power Losses for TEM Mode Formula

Power Losses for the TEM Mode = 2*Attenuation Constant*Transmitting Power
Ploss = 2*α*Pt

How many conductors are required to support TEM mode?

To support TEM mode, a minimum of two conductors are required. Parallel plate and stripline transmission lines support only the TEM mode of wave propagation. However, with non-idealities in the conductors and dielectric, the characteristics of the wave propagation vary.

How to Calculate Power Losses for TEM Mode?

Power Losses for TEM Mode calculator uses Power Losses for the TEM Mode = 2*Attenuation Constant*Transmitting Power to calculate the Power Losses for the TEM Mode, Power Losses for TEM Mode formula is defined as the total loss of power in coaxial lines or circular waveguides. It is calculated in order to avoid or minimize the wastage of power loss. Power Losses for the TEM Mode is denoted by Ploss symbol.

How to calculate Power Losses for TEM Mode using this online calculator? To use this online calculator for Power Losses for TEM Mode, enter Attenuation Constant (α) & Transmitting Power (Pt) and hit the calculate button. Here is how the Power Losses for TEM Mode calculation can be explained with given input values -> 2.2386 = 2*0.91*1.23.

FAQ

What is Power Losses for TEM Mode?
Power Losses for TEM Mode formula is defined as the total loss of power in coaxial lines or circular waveguides. It is calculated in order to avoid or minimize the wastage of power loss and is represented as Ploss = 2*α*Pt or Power Losses for the TEM Mode = 2*Attenuation Constant*Transmitting Power. Attenuation Constant is a function of the microstrip geometry, the electrical properties of the dielectric substrate and the conductors, and frequency & Transmitting Power is the movement of energy from its place of generation to a location where it is applied to perform useful work .
How to calculate Power Losses for TEM Mode?
Power Losses for TEM Mode formula is defined as the total loss of power in coaxial lines or circular waveguides. It is calculated in order to avoid or minimize the wastage of power loss is calculated using Power Losses for the TEM Mode = 2*Attenuation Constant*Transmitting Power. To calculate Power Losses for TEM Mode, you need Attenuation Constant (α) & Transmitting Power (Pt). With our tool, you need to enter the respective value for Attenuation Constant & Transmitting Power 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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