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I need to find the pedaling frequency and the kg resistance of the third stage of the GXT protocol.  I believe I need to use the power = force x distance / time equation The workrate of the third stage is 540 kgm/min and the flywheel on the bodyguard travels 6m per pedal revolution.

I need to find the pedaling frequency and the kg resistance of the third stage of the GXT protocol.  I believe I need to use the power = force x distance / time equation The workrate of the third stage is 540 kgm/min and the flywheel on the bodyguard travels 6m per pedal revolution.

Elements Of Electromagnetics
Elements Of Electromagnetics
7th Edition
ISBN:9780190698614
Author:Sadiku, Matthew N. O.
Publisher:Sadiku, Matthew N. O.
ChapterMA: Math Assessment
Section: Chapter Questions
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I need to find the pedaling frequency and the kg resistance of the third stage of the GXT protocol. 

I believe I need to use the power = force x distance / time equation

The workrate of the third stage is 540 kgm/min and the flywheel on the bodyguard travels 6m per pedal revolution.

16 6 when arly to ur- his h, ls y and gr Video rapid. in speed CYCLE ERGOMETER MAXIMAL EXERCISE TESTS 4.4 The cycle ergometer is a widely used instrument for assessing cardiorespiratory fitness and is the preferred modality for exercise tests conducted on individuals or jog on a treadmill (Balady et al. 2010). On a fric- with conditions affecting their ability to safely walk tion-type cycle ergometer (see figure 4.5), resistance is applied against the flywheel using a belt and weighted pendulums. The hand wheel adjusts the workload by tightening or loosening the brake belt. The workload on the cycle ergometer is raised through increases in the resistance on the flywheel. The power output is usually expressed in kilogram-meters per minute (kgm-min-¹) or watts (1 W ~ 6 kgm-min-¹) and is easily measured using the equation power = force x distance / time where force equals the resistance or tension set- ting on the ergometer (kilograms) and distance is the distance traveled by the flywheel rim for each revolution of the pedal multiplied by the number of revolutions per minute. On the Monark and Body-ow guard cycle ergometers, the flywheel travels 6 m per pedal revolution. Therefore, if a resistance of 2 kg is applied and the pedaling rate is 60 rpm, then power = 2 kg x 6 m x 60 rpm = 720 kgm-min-¹ or 120 W. To calculate the distance traveled by the flywheel of cycle ergometers with varying-sized flywheels, MONARK FIGURE 4.5 braked). measure the ci tance track or cumference by during one co (Gledhill and When you on a friction-t maintain a c ergometers h individual's p to make cert stant pedalin speedometer establish you the pedaling ergometer (f magnetic br slower or fa: power outpu however, is Most cyc cyclists use
Transcribed Image Text:16 6 when arly to ur- his h, ls y and gr Video rapid. in speed CYCLE ERGOMETER MAXIMAL EXERCISE TESTS 4.4 The cycle ergometer is a widely used instrument for assessing cardiorespiratory fitness and is the preferred modality for exercise tests conducted on individuals or jog on a treadmill (Balady et al. 2010). On a fric- with conditions affecting their ability to safely walk tion-type cycle ergometer (see figure 4.5), resistance is applied against the flywheel using a belt and weighted pendulums. The hand wheel adjusts the workload by tightening or loosening the brake belt. The workload on the cycle ergometer is raised through increases in the resistance on the flywheel. The power output is usually expressed in kilogram-meters per minute (kgm-min-¹) or watts (1 W ~ 6 kgm-min-¹) and is easily measured using the equation power = force x distance / time where force equals the resistance or tension set- ting on the ergometer (kilograms) and distance is the distance traveled by the flywheel rim for each revolution of the pedal multiplied by the number of revolutions per minute. On the Monark and Body-ow guard cycle ergometers, the flywheel travels 6 m per pedal revolution. Therefore, if a resistance of 2 kg is applied and the pedaling rate is 60 rpm, then power = 2 kg x 6 m x 60 rpm = 720 kgm-min-¹ or 120 W. To calculate the distance traveled by the flywheel of cycle ergometers with varying-sized flywheels, MONARK FIGURE 4.5 braked). measure the ci tance track or cumference by during one co (Gledhill and When you on a friction-t maintain a c ergometers h individual's p to make cert stant pedalin speedometer establish you the pedaling ergometer (f magnetic br slower or fa: power outpu however, is Most cyc cyclists use
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