Speed
The distance covered in the direction of motion or the opposite direction. Distance covered in the transverse direction is not included.
A region of space that has a physical quantity is referred to as a field. Fields describe how a physical quantity, such as gravitational force or electromagnetic radiation, is distributed and how it changes with distance or time in a given region of space. Examples include gravitational fields, electromagnetic fields, and temperature fields.
The physical quantity given by the slope of a velocity-time graph is acceleration. This is because the slope represents the rate of change of velocity over time, which is how acceleration is defined (acceleration = change in velocity / time taken).
velocity is a vector quantity. Its magnitude is given by (velocity)= (distance)/(time)
In the given examples, distance is a scalar quantity that represents the total length of the path traveled, regardless of direction. Displacement, on the other hand, is a vector quantity that represents the change in position from the starting point to the ending point, including direction. Distance can be greater than displacement if the path is not a straight line.
The distance covered in the direction of motion or the opposite direction. Distance covered in the transverse direction is not included.
Displacement is a vector quantity. This means it has both size AND direction. Therefore, displacement is defined as distance in a given direction. Rather then simply 'distance'. Distance itself is a scalar quantity... and only has size. No direction. 20m - Distance. 20m upwards - Displacement.
A region of space that has a physical quantity is referred to as a field. Fields describe how a physical quantity, such as gravitational force or electromagnetic radiation, is distributed and how it changes with distance or time in a given region of space. Examples include gravitational fields, electromagnetic fields, and temperature fields.
The speed
speed or velocity = distance/time Speed does not require direction, i.e. it is a scalar quantity. Velocity does require direction, i.e. it is a vector quantity.
The physical quantity given by the slope of a velocity-time graph is acceleration. This is because the slope represents the rate of change of velocity over time, which is how acceleration is defined (acceleration = change in velocity / time taken).
velocity is a vector quantity. Its magnitude is given by (velocity)= (distance)/(time)
In the given examples, distance is a scalar quantity that represents the total length of the path traveled, regardless of direction. Displacement, on the other hand, is a vector quantity that represents the change in position from the starting point to the ending point, including direction. Distance can be greater than displacement if the path is not a straight line.
The physical quantity that can be completely described by specifying both magnitude and direction is called a vector. Vectors are represented by arrows, where the length represents the magnitude and the direction represents the direction.
the gradient of a scalar function of any quantity is defined as a vector field having magnitude equal to the maximum space rate of change of the quantity and having a direction identical with the direction of displacement along which the rate of change is maximum.
Yes, pressure is a fundamental physical quantity that describes the amount of force exerted over a given area. It is a crucial concept in physics and plays a key role in various phenomena, such as fluid dynamics and thermodynamics.
Distance is directly proportional to speed, meaning that as speed increases, the distance covered in a given time also increases. The formula to calculate distance is distance = speed x time. This means that the faster an object travels, the more distance it will cover in a specific amount of time.