potential :)
Any object above ground level has gravitational potential energy. Actually, ground level is commonly chosen as the reference level, but any other level may be chosen as well. The choice is arbitrary.
Fluid pressure at a given level in a fluid is distributed equally in all directions. This is known as Pascal's principle, where the pressure is transmitted undiminished in an enclosed fluid. The pressure is dependent on the depth of the fluid, with greater depths resulting in higher pressures due to the weight of the fluid above.
In Bernoulli's equation, the variable "z" represents the elevation or height of a point above a reference level. It is significant because it accounts for the potential energy of the fluid due to its position in a gravitational field.
It isn't clear to me what you mean with "indicators" - an object has positive gravitational potential energy if it has mass, and if it is above ground level (or above any other reference level you choose to define as level zero).
Weight, height above the ground level (or other reference level), the strength of the gravitational field.Weight, height above the ground level (or other reference level), the strength of the gravitational field.Weight, height above the ground level (or other reference level), the strength of the gravitational field.Weight, height above the ground level (or other reference level), the strength of the gravitational field.
The level of energy possessed by all electrons in one type of orbital
The level of energy possessed by all electrons in one type of orbital
a line representing the level of a collection of fluid seen in profile with air or gas above it.
The energy possessed by electrons is typically in the form of kinetic energy, which is associated with their movement around the nucleus of an atom. Electrons can also possess potential energy, related to their position in an atomic orbital.
If it is above a chosen reference level (e.g., ground level), it has potential energy. While it is moving, it has kinetic energy.
level 1 (bottom)
Any object above ground level has gravitational potential energy. Actually, ground level is commonly chosen as the reference level, but any other level may be chosen as well. The choice is arbitrary.
If it is moving the kinetic energy is 1/2 mass x velocity2 . If it is raised above a datum level(such as the observer's level) then it has potential energy mass x g x height above that level. If it has temperature raised above a datum level (such as room temperature) then it has thermal energy (specific heat capacity x mass x temperature difference)
Any object that is above the reference level (usually taken as ground level) has potential energy, according to the formula PE = mgh.Any object that is above the reference level (usually taken as ground level) has potential energy, according to the formula PE = mgh.Any object that is above the reference level (usually taken as ground level) has potential energy, according to the formula PE = mgh.Any object that is above the reference level (usually taken as ground level) has potential energy, according to the formula PE = mgh.
When it moves it has kinetic energy. And when it is above the chosen reference level (for example, above ground level), it has potential energy. A common practical situation is that an object falls down. When it starts falling, it has only potential energy; when it reaches ground level, it has only kinetic energy. At any point in between it has both.
The fluid level is checked at the transmission screw plug. The screw plug is located on the side of the transmission somewhat above the center of the body. Unscrew and remove the plug. If fluid drains out, the level is full. If it doesn't drain out, add fluid through the plug hole until the fluid is level with the bottom of the plug. Make sure you use the correct fluid.
Fluid pressure at a given level in a fluid is distributed equally in all directions. This is known as Pascal's principle, where the pressure is transmitted undiminished in an enclosed fluid. The pressure is dependent on the depth of the fluid, with greater depths resulting in higher pressures due to the weight of the fluid above.