Normal and Tangential Acceleration

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SUMMARY

The discussion focuses on calculating the maximum constant speed of a motorcyclist traveling around a curved path with a radius of 450 ft, while experiencing a tangential acceleration of 1.10 ft/s² and a maximum total acceleration of 7.00 ft/s². The key equation used is a = √(at)² + (an)², where at represents tangential acceleration and an represents centripetal acceleration. The solution involves determining the centripetal acceleration using an = v²/ρ, where ρ is the radius of the curve. The approach discussed successfully leads to the correct calculation of the motorcyclist's speed.

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  • Understanding of kinematics and acceleration concepts
  • Familiarity with vector addition of forces
  • Knowledge of centripetal acceleration formulas
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Homework Statement



A motorcyclist travels around a curved path that has a radius of 450 ft. While traveling around the curved path, the motorcyclist increases speed by 1.10\frac{ft}{s}. Determine the maximum constant speed of the motorcyclist when the maximum acceleration is 7.00 \frac{ft}{s^2}

Homework Equations



a = √(at)2+(an)2

at=\dot{v}
an = \frac{v^2}{ρ}

The Attempt at a Solution



I've already solved for the speed at a given acceleration, and the magnitude of the acceleration at a given speed.

But this part is a little confusing for me. I am thinking that I have to use the equation a = √(at)2+(an)2 and set a = 7.00 \frac{ft}{s^2} and then I can solve for an...then solve for v in the equation an = \frac{v^2}{ρ}, where ρ = 450 ft? But I'm not sure. I will give it a try, though.

If anyone can weigh in on my approach, I would greatly appreciate it as always!
 
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That's how I'd interpret the problem - the total acceleration would be the vector sum of the tangential and centripetal accelerations.
 
Simon Bridge said:
That's how I'd interpret the problem - the total acceleration would be the vector sum of the tangential and centripetal accelerations.

Thanks. Worked out fine.
 

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