Question
The Applied Force is less than the quantity of Mass times Acceleration? The Applied Force is greater than the quantity of Mass times Acceleration? The Applied Force is equal to the quantity of Mass times Acceleration? The Applied Force is equal and opposite to the quantity of Mass times Acceleration?
Ask by May Griffiths. in the United States
Jan 25,2025
Real Tutor Solution
Tutor-Verified Answer
Answer
The Applied Force is less than Mass times Acceleration: \( F < m \times a \)
The Applied Force is greater than Mass times Acceleration: \( F > m \times a \)
The Applied Force is equal to Mass times Acceleration: \( F = m \times a \)
The Applied Force is equal and opposite to Mass times Acceleration: \( F = -m \times a \)
Solution
The Applied Force is less than the quantity of Mass times Acceleration is represented by the equation:
\[ F < m \times a \]
The Applied Force is greater than the quantity of Mass times Acceleration is represented by the equation:
\[ F > m \times a \]
The Applied Force is equal to the quantity of Mass times Acceleration is represented by the equation:
\[ F = m \times a \]
The Applied Force is equal and opposite to the quantity of Mass times Acceleration is represented by the equation:
\[ F = -m \times a \]
Where:
- \( F \) is the Applied Force
- \( m \) is the Mass
- \( a \) is the Acceleration
Reviewed and approved by the UpStudy tutoring team
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Explain 
Simplify this solution The Deep Dive
When the applied force is less than the product of mass and acceleration (F < ma), the object will decelerate or not move as intended, which means friction or another opposing force is taking over. Think of it like trying to push a heavy cart uphill; your push isn't enough to make it go up! If the forces are equal (F = ma), you’re in a state of equilibrium, meaning the object remains at rest or moves at a constant speed. It’s that magical moment where nothing is speeding up or slowing down, just cruising along without a care in the world. Imagine a perfectly balanced seesaw where neither side gets pushed down!
