Three resistors are made out of three different materials andMaterial 10.00479 Q-mhave different (but uniform) cross sections. Resistor 1 has aMaterial 20.391 Q-mcircular cross section of radius 1.18 mm. Resistor 2 has aMaterial 36.87 x 10- 2.msquare cross section with a side length of 1.37 mm. The thirdresistor's cross section is a right triangle with two sides oflength 6.47 mm. All of the resistors are 0.838 cm in length.Use the provided table of resistivities to calculate the resistance3of each resistor.R1R2R3 =

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Three resistors are made out of three different materials and Material 1 0.00479 Q·m have different (but uniform) cross sections. Resistor 1 has a Material 2 0.391 N·m circular cross section of radius 1.18 mm. Resistor 2 has a Material 3 6.87 x 10-5 2-m square cross section with a side length of 1.37 mm. The third resistor's cross section is a right triangle with two sides of length 6.47 mm. All of the resistors are 0.838 cm in length. Use the provided table of resistivities to calculate the resistance 3 2 of each resistor.

Three resistors are made out of three different materials and Material 1 0.00479 Q·m have different (but uniform) cross sections. Resistor 1 has a Material 2 0.391 N·m circular cross section of radius 1.18 mm. Resistor 2 has a Material 3 6.87 x 10-5 2-m square cross section with a side length of 1.37 mm. The third resistor's cross section is a right triangle with two sides of length 6.47 mm. All of the resistors are 0.838 cm in length. Use the provided table of resistivities to calculate the resistance 3 2 of each resistor.

College Physics

1st Edition

ISBN:9781938168000

Author:Paul Peter Urone, Roger Hinrichs

Publisher:Paul Peter Urone, Roger Hinrichs

Chapter29: Introduction To Quantum Physics

Section: Chapter Questions

Problem 62PE: (a) If the position of an electron in a membrane is measured to an accuracy of 1.00 m, what is the...

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