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yes since it is law of energy balance so irrespective of the process it can be applied to any process but small change comes when we deal with reversible and irreversible processes. it can be explained in text form : please give attention to the text; CHANGE IN TOTAL ENERGY( it is sum of change in macroscopic kinetic energy and change in macroscopic potential energy and change in internal energy,U) = HEAT TAKEN BY THE SYSTEM {actually heat taken by the medium which we use often an ideal gas}(sum of heat given to the system from outside+ heat generated with in the system ) + WORK DONE BY THE MEDIUM OR SYSTEM {again it includes all kind of works such as expansion work shaft work electrical work etc. also when the process is IRREVERSIBLE it includes internal work which is consumed to overcome the friction} for reversible processes there is no dissipation of internal heat and internal work in that case we consider that the piston cylinder which we use to explain first law is frictionless . and also since they have a characteristic property of INFINITE SLOWNESS the reversible process can be considered at equilibrium at each state. For irreversible processes the heat is generally generates with in the system because we do not use the friction less piston cylinder arrangement.
More or less - however, any energy conversion is subject to the Second Law of Thermodynamics. A simplified explanation is that there are irreversible processes in nature, and that energy converted to heat can no longer be completely converted to other types of energy.
It forbids heat to move from a cold region to a hot regions spontaneously (you have to "pump" it there - meaning you have to do work to get it to move that direction). Alternatively - it forbids any natural/spontaneous process to DECREASE the entropy of the universe.
1) Any physical process is subject to the Second Law. Assuming otherwise would not be a realistic description of our Universe. 2) The maximum possible efficiency is a factor of 1 (equivalent to 100%). If some energy is wasted, as is usually the case, the actual amount will be somewhat less.
Every reaction in the universe increases the disorder, or entropy, of the universe. This is because energy that goes into a reaction is usable energy, but after the reaction, the energy is not usable anymore.
Thermodynamics is concerned with macroscopic processes
T. Markovic has written: 'Irreversible thermodynamics of corrosion processes' -- subject(s): Corrosion and anti-corrosives, Irreversible processes, Thermodynamics
Joel Keizer has written: 'Statistical thermodynamics of nonequilibrium processes' -- subject(s): Nonequilibrium thermodynamics, Statistical thermodynamics
G. D. C. Kuiken has written: 'Thermodynamics of irreversible processes with applications to diffusion and rheology' -- subject(s): Diffusion, Irreversible processes, Rheology 'Thermodynamics of irreversible processes' -- subject(s): Diffusion, Irreversible processes, Rheology
by flicking the button that says "OFF" instead of the one that says "ON"
The thermodynamics of chemistry is used in pretty much all processes.
D. N. Zubarev has written: 'Statistical mechanics of nonequilibrium processes' -- subject(s): Statistical thermodynamics, Nonequilibrium thermodynamics
The first and second laws of thermodynamics.
Thermal is an adjective, meaning to do with heat. Thermodynamics is a noun, a branch of physics to do with the thermal properties of materials, and has several laws which are the basis of design of heat engines and other thermal processes.
They don't. What they do support is that the Universe must have had a beginning. This is because, according to the Second Law of Thermodynamics, there are irreversible processes in nature - the Universe can't remain the way it is forever.
I. Prigogine has written: 'Advances In Chemical Physics Volume 24 (Advances in Chemical Physics)' 'Advances In Chemical Physics Volume 18' 'Treatise on thermodynamics' -- subject(s): Thermodynamics, Thermochemistry 'La nouvelle alliance' -- subject(s): Philosophy, Physics, Science, Physique, Philosophie, Sciences, Histoire, Irreversible processes, Thermodynamics, History 'Introduction to thermodynamics of irreversible processes' -- subject(s): Irreversible processes, Thermodynamics 'Kinetic theory of vehicular traffic' -- subject(s): Motion, Mathematical models, Traffic engineering, Statistical physics 'Advances In Chemical Physics Volume 46 (Advances in Chemical Physics)' 'Treatise on thermodynamics based on the methods of Gibbs and De Donder' -- subject(s): Thermodynamics, Thermochemistry 'Dialog mit der Natur' -- subject(s): Philosophy, Natural history, Science 'Order out of chaos' -- subject(s): Philosophy, Science, Physics, Irreversible processes, Thermodynamics 'Advances In Chemical Physics Volume 23 (Advances in Chemical Physics)' 'The molecular theory of solutions' -- subject(s): Molecular theory, Solution (Chemistry) 'Advances in Chemical Physics'
heating and melting it