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)
Quantities are called fundamental if they are independent and cannot be expressed in terms of other physical quantities. Fundamental quantities are considered basic building blocks in a specific field of study and serve as a starting point for defining other derived quantities. Examples include length, time, and mass in physics.
Time period is a fundamental concept in physics, representing the duration of one cycle of a repeating event. It is not derived from other quantities but rather is a basic parameter used to describe various phenomena, such as oscillations and wave motion.
The term you are looking for is "physical equations." These equations describe the relationships between quantities in the physical world, often derived from fundamental principles of physics.
There are seven basic fundamental quantities in physics: length, time, mass, electric current, temperature, amount of substance, and luminous intensity.
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.
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
Derived quantities are physical quantities that are calculated from two or more base quantities. They are expressed as a combination of base units using mathematical operations such as multiplication, division, and exponentiation. Examples of derived quantities include velocity (derived from distance and time) and density (derived from mass and volume). These derived quantities play a crucial role in physics and other sciences for describing and understanding complex relationships between different physical quantities.
Length, mass, and time are the three fundamental dimensions on which the measurement of all physical quantities is dependent.
In physics, dimensions refer to the physical quantities such as length, time, and mass that are used to describe the properties of objects and phenomena. These dimensions are fundamental in defining and measuring various physical quantities. The dimensions of a physical quantity help in understanding how it relates to other quantities and how it can be expressed in terms of basic units.
Derived quantities are physical quantities that are derived from one or more base quantities through mathematical operations. Examples include velocity (derived from distance and time with the formula v = d/t), acceleration (derived from velocity and time with the formula a = Δv/Δt), and density (derived from mass and volume with the formula ρ = m/V). These derived quantities are essential in physics and other scientific fields for describing and analyzing various phenomena.
The term "differential of physics" typically refers to small changes or differentials in physical quantities, such as position, velocity, acceleration, or energy. Differential equations are used in physics to describe how these quantities change with respect to one another, and they are fundamental in understanding various physical phenomena.
Electric current is considered a fundamental quantity in physics. It is measured in units of amperes (A) and is one of the seven base SI units.