Calculating Average Velocity for a Remote Controlled Vehicle in 4.0 Seconds

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SUMMARY

The discussion focuses on calculating the average velocity of a remote-controlled vehicle that starts at a speed of 1.0 m/s [forward] and accelerates at 0.08 m/s² [backward] over a duration of 4.0 seconds. The average velocity (Vavg) is determined using the formula Vavg = deltaD/deltaT, where deltaD represents the change in distance and deltaT is the time interval. Participants clarify that the initial speed and acceleration provide sufficient information to solve the problem without needing additional time data for forward travel.

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Homework Statement



Calculate the average velocity for a remote controlled vehicle that starts with a speed of 1.0 m/s [forward] and then accelerates at 0.08 m/s2 [backward] for 4.0 s


Homework Equations



Vavg=deltaD/deltaT

The Attempt at a Solution



I'm unsure of how to go about this even though it seems its an easy question. Is there enough information to even solve it? Wouldn't i need the time at which it travels forward? Thanks for any help
 
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Hi adhoward24! :smile:

(have a delta: ∆ and try using the X2 tag just above the Reply box :wink:)
adhoward24 said:
Wouldn't i need the time at which it travels forward?

I don't understand this …

you know its speed at t = 0, and you know ∆t = 4.

Hint: find an equation for ∆D, and divide it by ∆t. :wink:
 

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