No. It is derived from the fundamental SI units of length, the meter, and time, the second. The derived unit for acceleration is m/s/s or m/s2.
These are called derived units. In the SI system (or metric system), there are base units for length, mass and time, among others. These are:metre (m)kilogram (kg)second (s)The unit of acceleration is expressed as m/s2. An example of a derived unit is the unit of force called the newton (N). Force is equal to mass multiplied by acceleration. Therefore:force = mass × accelerationN = kg·m/s2
Acceleration due to gravity is expressed in the same units as any other acceleration ... Meters per second per second = m/s2 Also feet per second per second = ft/sec2 Any unit with dimensions of (length)/(time)2 is a valid unit of acceleration, such as (furlongs)/(fortnight)2
In the SI, the unit of force is defined by Newton's Second Law (force = mass x acceleration). The unit, called Newton, is the product of a mass (in kilograms) and an acceleration (in meters per square second). That is, a newton is the force required to provide a mass of one kilogram with an acceleration of one meter per second square.
Newton is called a derived unit because equals 1 kilogram multiplied by the acceleration (meter per sq second) of the object.
In the SI, acceleration is expressed in meters / second2.
No. It is derived from the fundamental SI units of length, the meter, and time, the second. The derived unit for acceleration is m/s/s or m/s2.
If you mean the SI (international system of units), the derived unit for acceleration is meters per square second. There is no special name for this unit.
These are called derived units. In the SI system (or metric system), there are base units for length, mass and time, among others. These are:metre (m)kilogram (kg)second (s)The unit of acceleration is expressed as m/s2. An example of a derived unit is the unit of force called the newton (N). Force is equal to mass multiplied by acceleration. Therefore:force = mass × accelerationN = kg·m/s2
If you mean in the SI, it is defined to be a fundamental unit. Consider, for example, Newton's Second Law (force = mass x acceleration), used to define force as a derived unit in the SI. Acceleration is already a derived unit (derived from distance and time) - let's keep it this way, for the sake of discussion. Now, in SI units, force is defined to be derived from mass (and acceleration). Mass is the "fundamental" unit, and force is the "derived" unit. The same relationship, i.e. Newton's Second Law, could just as well have been used the other way round. That is, force could have been defined as the fundamental unit, and mass derived from force (and acceleration). The creators of SI basically defined certain units as "base units" because they could be defined with a high degree of precision.
Meters per second . I don't think there's a "name" for that particular derived unit.(m/s2)
You don't. It's a completely different unit, they are derived from m/s(unit of velocity) and m/s2(unit of acceleration).
Acceleration due to gravity is expressed in the same units as any other acceleration ... Meters per second per second = m/s2 Also feet per second per second = ft/sec2 Any unit with dimensions of (length)/(time)2 is a valid unit of acceleration, such as (furlongs)/(fortnight)2
In the SI, the unit of force is defined by Newton's Second Law (force = mass x acceleration). The unit, called Newton, is the product of a mass (in kilograms) and an acceleration (in meters per square second). That is, a newton is the force required to provide a mass of one kilogram with an acceleration of one meter per second square.
Newton is called a derived unit because equals 1 kilogram multiplied by the acceleration (meter per sq second) of the object.
Newton, the unit of force, is defined based on Newton's Second Law (F=ma), as the force required to give a mass of one kilogram an acceleration of 1 meter/second2. Thus, it is derived from these other units.
'ms-2' is the SI derived unit of acceleration. It means that a speed X is changing by 1ms-1 for every second of its acceleration.