Choose all the equations below that are dimensionally correct. In the equations below, F is force, v is velocity, t is time, m is mass, a is acceleration, and k is spring constant. kr = ma – F Oat? = vt – x %3D = = axt %3D O + at = 22 Ft
Choose all the equations below that are dimensionally correct. In the equations below, F is force, v is velocity, t is time, m is mass, a is acceleration, and k is spring constant. kr = ma – F Oat? = vt – x %3D = = axt %3D O + at = 22 Ft
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![**Title: Understanding Dimensional Analysis in Physics**
**Instruction:**
Choose all the equations below that are dimensionally correct. In the equations below, \( F \) is force, \( v \) is velocity, \( t \) is time, \( m \) is mass, \( a \) is acceleration, and \( k \) is the spring constant.
**Equations:**
1. \[ kx = ma - F \]
2. \[ at^2 = vt - x \]
3. \[ \frac{x^2}{t} = axt \]
4. \[ \frac{v^2}{x} + at = \frac{x^2}{v} - Ft \]
**Explanation:**
- The first equation involves the spring constant \( k \), displacement \( x \), mass \( m \), and force \( F \).
- The second equation relates acceleration \( a \), time squared \( t^2 \), velocity \( v \), and displacement \( x \).
- The third equation features displacement squared divided by time \(\frac{x^2}{t}\), acceleration \( a \), and displacement \( x \) multiplied by time \( t \).
- The fourth equation combines velocity squared over displacement \(\frac{v^2}{x}\), acceleration \( a \), time \( t \), displacement squared over velocity \(\frac{x^2}{v}\), and force times time \( Ft \).
**Note:**
Verify the dimensional consistency of each equation using the fundamental dimensions: mass \([M]\), length \([L]\), and time \([T]\).](/v2/_next/image?url=https%3A%2F%2Fcontent.bartleby.com%2Fqna-images%2Fquestion%2Fdac48a7c-98c2-4f78-84b8-98cce02408b4%2Fa0ee47c2-7429-405d-b47f-7ae4e4457305%2Fprtqy66_processed.jpeg&w=3840&q=75)
Transcribed Image Text:**Title: Understanding Dimensional Analysis in Physics**
**Instruction:**
Choose all the equations below that are dimensionally correct. In the equations below, \( F \) is force, \( v \) is velocity, \( t \) is time, \( m \) is mass, \( a \) is acceleration, and \( k \) is the spring constant.
**Equations:**
1. \[ kx = ma - F \]
2. \[ at^2 = vt - x \]
3. \[ \frac{x^2}{t} = axt \]
4. \[ \frac{v^2}{x} + at = \frac{x^2}{v} - Ft \]
**Explanation:**
- The first equation involves the spring constant \( k \), displacement \( x \), mass \( m \), and force \( F \).
- The second equation relates acceleration \( a \), time squared \( t^2 \), velocity \( v \), and displacement \( x \).
- The third equation features displacement squared divided by time \(\frac{x^2}{t}\), acceleration \( a \), and displacement \( x \) multiplied by time \( t \).
- The fourth equation combines velocity squared over displacement \(\frac{v^2}{x}\), acceleration \( a \), time \( t \), displacement squared over velocity \(\frac{x^2}{v}\), and force times time \( Ft \).
**Note:**
Verify the dimensional consistency of each equation using the fundamental dimensions: mass \([M]\), length \([L]\), and time \([T]\).
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