(b) Belt drive system using a flat belt with a cross-section of 500 mm² and density of the flat belt is 1300 kg/m³. The angle of lap is 165° on the smaller wheel. The coefficient of friction is 0.35 and the maximum force allowed in the belt is 600 N. When the belt runs at 10 m/s, calculate: (i) centrifugal force exerted in the belt drive system, (ii) power transmitted, (iii) initial tension in the belt. (iv) if flat in belt is replaced with V belt with 30° groove angle, calculate the power transmitted by the V belt.

(b) Belt drive system using a flat belt with a cross-section of 500 mm² and density of the flat belt is 1300 kg/m³. The angle of lap is 165° on the smaller wheel. The coefficient of friction is 0.35 and the maximum force allowed in the belt is 600 N. When the belt runs at 10 m/s, calculate: (i) centrifugal force exerted in the belt drive system, (ii) power transmitted, (iii) initial tension in the belt. (iv) if flat in belt is replaced with V belt with 30° groove angle, calculate the power transmitted by the V belt.

Elements Of Electromagnetics

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Author:Sadiku, Matthew N. O.

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Concept explainers

Power Transmission Elements

It is defined as the energy transfer from one location to another location. The energy will start moving from the energy generation source to the energy applied position to obtain the work output. From this method, a large amount of electric energy moves from the power station to various electrical substations.

Question

(b)
Belt drive system using a flat belt with a cross-section of 500 mm² and density of the
flat belt is 1300 kg/m³. The angle of lap is 165° on the smaller wheel. The coefficient
of friction is 0.35 and the maximum force allowed in the belt is 600 N. When the belt
runs at 10 m/s, calculate:
(i)
centrifugal force exerted in the belt drive system,
(ii)
power transmitted,
(iii)
initial tension in the belt.
(iv)
if flat in belt is replaced with V belt with 30° groove angle, calculate the
power transmitted by the V belt.

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