If a thermodynamic process takes place at a constant temperature it is called "isothermal".
A word of caution however: the internal energy of a system may not remain the same in an isothermal process if the composition or phase changes; e.g. melting ice can be an isodthermal process but there is certainly a change in internal energy when it happens.
Reversible process.
The one and only macroscopic thermodynamic property that the internal energy of an ideal gas depends on is its temperature.
For mammals very little, except for the energy expenditure required to maintain a constant internal temperature.
If a reaction is carried out in constant temperature and constant volume no work is done and heat exchanged with surroundings is equal to the internal energy.
In microscopic particles, it's called internal energy. In macroscopic object it's called thermodynamic energy
An isobaric process is a thermodynamic-processin which the pressure stays constant: Δp = 0 The term derives from the Greek isos, meaning "equal," and barus, "heavy." The heat transferred to the system does work but also changes the internal energy of the system:
Thermodynamic properties are specific volume, density, pressure, and temperature. Other properties are constant pressure, constant volume specific heats, Gibbs free energy, specific internal energy and enthalpy, and entropy.
Yes, internal energy is a thermodynamic function or state function,
It is called homeostasis (internal environment maintained at a constant level) or thermostasis (internal heat maintained at a constant temperature). The overall name for the processes by which temperature is controlled is thermoregulation.
homeostasis
The heat supplied to a system can increase its internal energy if no work is extracted from the system. If any work is done by the system, then the increase in internal energy will be less than the heat supplied to the system. The thermodynamic variable defined by the zeroeth law is Temperature.
The one and only macroscopic thermodynamic property that the internal energy of an ideal gas depends on is its temperature.
For mammals very little, except for the energy expenditure required to maintain a constant internal temperature.
the maintenance of a constant internal environment e.g blood sugar levels or temperature
It is change in internal energy. If the volume of the system remains unchanged (isochoric process)then the heat given to the system is entirely utilized to increase the internal energy of that system. It is to be noted that no pressure-voulme work is done in such processes.
it is the maintenance of the internal environment of the body like keeping the blood glucose level constant or keeping the body temperature constant
All quantitative variables will be reduced including: Internal energy Enthalpy Gibbs energy Volume Mass Moles All intensive properties will remain unchanged including: Specific internal energy Specific enthalpy Specific Gibbs energy Specific volume (and its reciprocal density) Temperature Pressure Heat capacity Elasticity Conductivity etc.
Homeostasis is the term that describes an organism's ability to regulate and maintain a relatively constant internal temperature, regardless of external conditions.