Fundamental quantities are those which do not depend on other quantities. (i.e. temperature, mass, length)Derived quantities are those which depend on fundamental quantities. (i.e. force, volume, density)
The derived quantities of physics are: Field and anomylous radiations. Spacial time frameworks of the future. Working measures of useful dimensionality. God doses of human perceptual clarity. Degenerated ageing half lives.
Length, mass, and time are the three fundamental dimensions on which the measurement of all physical quantities is dependent.
Fundamental qualities are basic traits or characteristics that are essential to something's nature or existence. They represent the core attributes that define the essence of a system, concept, or object.
The basic fundamental quantities in physics are related to energy. They are mass m; charge e; and distance r and speed c. Three fundamental constants relate these fundamental quantities; G the gravitational constant; c the speed of light and z the free space impedance.These quantities and constants are related in the fundamental energy of mass and charge:mass Energy Em = -GmM/r + mcV and charge Energy Ec = -zce^2/4pi r + mcV
The fundamental quantities:TimeSpace (or length)MassTemperatureElectrical currentLuminosityAmount of matterA fundamental quantity is an irreducible "thing". It cannot be described in terms of other "things". This is in contrast to derived quantities, which can be described in terms of other "things". Fundamental quantities are also called base quantitiesFundamental quantities can be considered to be dimensions, but in a loose context. In physics, when we refer to dimensions, we usually refer to space and time (and theoretically higher similar dimensions), and not the dimension of the luminosity (see below).Each fundamental quantity has an associated unit in the SI system:Time: seconds (s)Space: meters (m)Mass: kilograms (kg)Temperature: degrees kelvin (K)Electrical current: ampere (A)Luminosity: candela (l)Amount of matter: moleDerived QuantitiesAll other quantities in physics can be expressed in terms of the fundamental quantities. Examples are velocity (space divided by time), acceleration (space divided by time squared), force (mass times space divided by time squared) or energy (mass times the constant representing the speed of light squared - aka. space divided by time all squared). Understanding this concept helps in understanding how all equations work, and how different "things" are related CommentThere are no such things as SI 'derived units'; the correct term is 'base units'.
Scalars and Vectors quantities
mmhgftfvh
importance of physics in home
mass lenght time e current luminus intensity amount of substance
Technology is the tools (machines) that do things, physics is understanding why they work.
Those quantities which cannot be derived from any other such as length, mass, time, temperature, electric current, light luminosity are examples for fundamental physical quantities.
seven types of quantities may all physics measurements be expressed?