A systematic error in data is called
1 answer:
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The map be changed <u>by adding vectors that are all the same length and placing them above the current top row of vectors</u>
<h3>Further explanation</h3>A motion map represents the position, velocity, or acceleration of an object at various time readings
a small point or dot describes the position of the object. the object's velocity / acceleration is represented by an arrow / vector.
In this motion map, The arrows (vectors) are all the same length (same speed) and point in the same direction (direction to the right) for t = 0 (origin) to t = 4s
At t = 5s, the object has slowed down, and at t = 7s and 8s the object stops
At t = 9s-11 s, the object accelerates to the left
So the position of the next moving object will be above the previous movement, and the length of the same vector shows the same speed / acceleration
So that motion maps show constant acceleration after the object changes direction, it can be done by adding vectors that are all the same length and placing them above the current top row of vectors
<h3>Learn more</h3>
The initial velocity of the bird before the gust of wind
Keywords: motion map, constant acceleration, dot, arrows, object,length, vectors, row
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Answer:
The shortest distance is
Explanation:
The free body diagram of this question is shown on the first uploaded image
From the question we are told that
The speed of the bicycle is
The distance between the axial is
The mass center of the cyclist and the bicycle is behind the front axle
The mass center of the cyclist and the bicycle is above the ground
For the bicycle not to be thrown over the
Momentum about the back wheel must be zero so
=>
=>
Here
So
Apply the equation of motion to this motion we have
Where
and since the bicycle is coming to a stop
=>
The acceleration of gravity on Moon B is D) 0.25 m/s2
Explanation:
The data listed in the problem are not clear: find them in the table attached.
The acceleration of gravity on a planet is given by the following equation:
where:
is the gravitational constant
M is the mass of the planet
R is the radius of the planet
Here we want to find the acceleration of gravity on the surface of Moon B, which has the following data:
(mass)
(radius)
And substituting into the equation, we find:
Learn more about gravity:
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