This section details the calculation for the time taken to swim downstream, using the provided speeds and distance.
To find the speed while swimming downstream, we add the speed of the man in still water to the speed of the stream.
Downstream speed ($v_d$) is calculated as: $v_d = v_m + v_s$
Substituting the given values: $v_d = 6 \text{ km/h} + 3 \text{ km/h} = 9 \text{ km/h}$
The time taken to travel a certain distance is found by dividing the distance by the speed.
Time $= \frac{\text{Distance}}{\text{Speed}}$
Using the downstream speed and distance:
Time $= \frac{d}{v_d} = \frac{37 \text{ km}}{9 \text{ km/h}}$
Time $= \frac{37}{9}$ hours
To express the time as a mixed fraction:
Divide 37 by 9: $37 \div 9 = 4$ with a remainder of $1$.
So, the time is $4 \frac{1}{9}$ hours.
The time taken by the man to swim 37 km downstream is $4 \frac{1}{9}$ hours.
A boat goes 30 km upstream in 3 hours and downstream in 1 hour. How much time (in hours) will this boat take to cover 60 km in still water?
The speed of a motorboat in still water is 20 km/h. It travels 150 km downstream and then returns to the starting point. If the round trip takes a total of 16 hours, what is the speed (in km/h) of the flow of river?
The time taken by a boat to travel 13 km downstream is the same as time taken by it to travel 7 km upstream. If the speed of the stream is 3 km/h, then how much time (in hours) will it take to travel a distance of 44.8 km in still water?
A man can row a distance of 8 km downstream in a certain time and can row 6 km upstream in the same time. If he rows 24 km upstream and the same distance downstream in \(1\frac{3}{4}\) hours, then the speed (in km/h) of the current is:
A boat goes 27 km upstream and 33 km downstream in 6 hours. In the same time it can go 36 km upstream and 22 km downstream. How much time will it take to go 36 km upstream and 44 km downstream?