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Back to the main course index page to see more lectures and direct links to the 2.43 MIT-OCW webpages.

Download the PDF version of the Complete Analytical Index of the Course with Hyperlinks to All Videos and Slides.

Complete analytical index all topics covered in the course

• Activated complex - Slide 19.08 - Video timestamp

• Activated complex - Slide 20.02 - Video timestamp

• Activated complex - Slide 20.08 - Video timestamp

• Active matter - Slide 25.18 - Video timestamp

• Activities and activity coefficients - Slide 16.12 - Video timestamp

• Adiabatic availability definition - Slide 02.23 - Video timestamp

• Adiabatic availability graphical representation - Slide 03.21 - Video timestamp

• Adiabatic availability graphical representation - Slide 04.03 - Video timestamp

• Adiabatic availability of mixing ideal gases - Slide 12.14 - Video timestamp

• Adiabatic availability of mixing ideal gases - Slide 12.15 - Video timestamp

• Adiabatic availability of mixing ideal gases - Slide 13.08 - Video timestamp

• Adiabatic availability of mixing ideal gases - Slide 15.04 - Video timestamp

• Adiabatic flame temperature in a closed combustion chamber - Slide 18.25 - Video timestamp

• Adiabatic flame temperature in a closed combustion chamber - Slide 18.27 - Video timestamp

• Adiabatic flame temperature in a closed combustion chamber - Slide 19.20 - Video timestamp

• Adiabatic flame temperature in an open burner - Slide 18.22 - Video timestamp

• Adiabatic process definition - Slide 05.04 - Video timestamp

• Adiabatic process versus weight process - Slide 05.04 - Video timestamp

• Advanced Thermodynamics, 2.43 Course introduction - Slide 01.01 - Video timestamp

• Advanced Thermodynamics, 2.43 Course objectives, Part 1 - Slide 01.05 - Video timestamp

• Advanced Thermodynamics, 2.43 Course objectives, Part 2 - Slide 01.06 - Video timestamp

• Advanced Thermodynamics, 2.43 Course objectives, Part 3 - Slide 01.07 - Video timestamp

• Advanced Thermodynamics, 2.43 Grading policy - Slide 01.08 - Video timestamp

• Affinity and degree of disequilibrium - Slide 20.13 - Video timestamp

• Affinity and direction of reaction - Slide 20.14 - Video timestamp

• Affinity and reaction rates - Slide 21.03 - Video timestamp

• Affinity and reaction rates - Slide 21.05 - Video timestamp

• Affinity De Donder - Slide 19.11 - Video timestamp

• Affinity entropic versus energetic - Slide 20.04 - Video timestamp

• Affinity of a reaction - Slide 19.12 - Video timestamp

• Allocation methods in heat and power cogeneration - Slide 10.25 - Video timestamp

• Allocation methods in heat and power cogeneration - Slide 11.16 - Video timestamp

• Allocation methods in hybrid solar-fossil power production - Slide 10.38 - Video timestamp

• Allocation methods in hybrid solar-fossil power production - Slide 11.23 - Video timestamp

• Amagat law of additive volumes - Slide 12.12 - Video timestamp

• Anand, Lallit - Slide 22.04 - Video timestamp

• Anisotropic Fourier conduction - Slide 21.17 - Video timestamp

• Anisotropic Fourier conduction - Slide 21.19 - Video timestamp

• Antanovskii, Leonid K. - Slide 25.24 - Video timestamp

• Arrhenius law and activation barrier - Slide 20.10 - Video timestamp

• Availability function and related stability conditions - Slide 06.22 - Video timestamp

• Availability function general concept - Slide 06.20 - Video timestamp

• Availability function graphical representation - Slide 06.21 - Video timestamp

• Availability function graphical representation - Slide 07.13 - Video timestamp

• Availability function w.r.to a fixed V and n reservoir - Slide 06.19 - Video timestamp

• Availability function w.r.to a fixed V and n reservoir - Slide 07.12 - Video timestamp

• Availability function w.r.to a fixed V and variable n_i reservoir - Slide 07.19 - Video timestamp

• Availability function w.r.to a variable V and n reservoir - Slide 07.21 - Video timestamp

• Availability function w.r.to a variable V and fixed n reservoir - Slide 07.17 - Video timestamp

• Available energy and its related availability function - Slide 06.20 - Video timestamp

• Available energy and its related availability function - Slide 07.12 - Video timestamp

• Available energy graphical representation - Slide 03.25 - Video timestamp

• Available energy graphical representation - Slide 04.05 - Video timestamp

• Available energy graphical representation - Slide 06.21 - Video timestamp

• Available energy graphical representation - Slide 07.13 - Video timestamp

• Available energy w.r.to a fixed V and n reservoir - Slide 02.33 - Video timestamp

• Available energy w.r.to a fixed V and n reservoir - Slide 06.20 - Video timestamp

• Available energy w.r.to a fixed V and n reservoir - Slide 07.12 - Video timestamp

• Available energy w.r.to a fixed V and variable n_i reservoir - Slide 07.19 - Video timestamp

• Available energy w.r.to a variable V and n reservoir - Slide 07.21 - Video timestamp

• Available energy w.r.to a variable V and fixed n reservoir - Slide 06.19 - Video timestamp

• Available energy w.r.to a variable V and fixed n reservoir - Slide 07.17 - Video timestamp

• Average kinetic energy versus temperature - Slide 03.18 - Video timestamp

• Avogadro's number - Slide 13.11 - Video timestamp

• Azeotrope - Slide 16.15 - Video timestamp

• Balance equations for a continuum of a generic extensive property - Slide 22.06 - Video timestamp

• Balance equations for a continuum of a generic extensive property - Slide 22.09 - Video timestamp

• Balance equations for a continuum of the main extensive properties - Slide 23.04 - Video timestamp

• Balance equations for a continuum one-dimensional heat and mass transfer - Slide 22.05 - Video timestamp

• Balance equations for a continuum Reynolds theorem - Slide 22.09 - Video timestamp

• Balancing the stoichiometric coefficients - Slide 18.09 - Video timestamp

• Baricentric velocity - Slide 22.08 - Video timestamp

• Baricentric velocity - Slide 22.11 - Video timestamp

• Bedeaux, Dick - Slide 22.12 - Video timestamp

• Bedeaux, Dick - Slide 23.15 - Video timestamp

• Bedeaux, Dick - Slide 25.22 - Video timestamp

• Bejan, Adrian - Slide 23.27 - Video timestamp

• Bejan, Adrian - Slide 23.35 - Video timestamp

• Binodal miscibility curve - Slide 17.07 - Video timestamp

• Blue energy, osmotic power - Slide 14.11 - Video timestamp

• Boiling point elevation - Slide 16.06 - Video timestamp

• Boltzmann constant - Slide 13.11 - Video timestamp

• Boltzmann constant - Slide 13.13 - Video timestamp

• Boltzmann, Ludwig - Slide 01.03 - Video timestamp

• Brownian motion - Slide 25.12 - Video timestamp

• Bubble chamber - Slide 15.20 - Video timestamp

• Bubble line - Slide 16.04 - Video timestamp

• Bubble line - Slide 16.15 - Video timestamp

• Bubble line - Slide 17.03 - Video timestamp

• Bulk viscosity - Slide 23.14 - Video timestamp

• Bulk-flow and local equilibrium - Slide 23.03 - Video timestamp

• Bulk-flow and local equilibrium - Slide 23.06 - Video timestamp

• Bulk-flow and partial energy - Slide 24.04 - Video timestamp

• Bulk-flow interaction - Slide 08.17 - Video timestamp

• Bulk-flow state - Slide 08.17 - Video timestamp

• Cahn-Hilliard square-gradient model - Slide 25.24 - Video timestamp

• Callen, Herbert B. - Slide 02.42 - Video timestamp

• Canonical distribution of probabilities - Slide 13.13 - Video timestamp

• Canonical distribution of probabilities - Slide 13.14 - Video timestamp

• Caratheodory, Constantin - Slide 01.03 - Video timestamp

• Carnot coefficient - Slide 05.06 - Video timestamp

• Carnot coefficient - Slide 05.13 - Video timestamp

• Carnot, Nicolas Leonard Sadi, 200th anniversary of the birth of Thermodynamics - Slide 01.02 - Video timestamp

• Carnot, Nicolas Leonard Sadi, 200th anniversary of the birth of Thermodynamics - Slide 01.03 - Video timestamp

• Carnot, Nicolas Leonard Sadi, 200th anniversary of the birth of Thermodynamics - Slide 25.26 - Video timestamp

• Cattaneo-Vernotte heat conduction equation - Slide 21.20 - Video timestamp

• Centrifuges for uranium enrichment - Slide 15.12 - Video timestamp

• Characteristic SES functions - Slide 06.13 - Video timestamp

• Characteristic SES functions - Slide 06.17 - Video timestamp

• Characteristic SES functions - Slide 07.03 - Video timestamp

• Charge densities in terms of mole and mass fractions and molar and mass densities - Slide 22.11 - Video timestamp

• Charge density - Slide 23.08 - Video timestamp

• Charge flux definition in “Heat&diffusion” interactions - Slide 22.24 - Video timestamp

• Charge flux definition in “Heat&diffusion” interactions - Slide 24.03 - Video timestamp

• Chemical equilibrium complete - Slide 19.23 - Video timestamp

• Chemical equilibrium Gordon-McBride NASA computer code - Slide 19.23 - Video timestamp

• Chemical equilibrium necessary condition - Slide 19.16 - Video timestamp

• Chemical equilibrium necessary condition - Slide 19.22 - Video timestamp

• Chemical equilibrium pH and pOH of pure water - Slide 20.06 - Video timestamp

• Chemical equilibrium stable equilibrium states - Slide 19.11 - Video timestamp

• Chemical kinetics - Slide 19.08 - Video timestamp

• Chemical kinetics - Slide 20.07 - Video timestamp

• Chemical kinetics vs heat conduction - Slide 22.03 - Video timestamp

• Chemical potential and multicomponent equilibria - Slide 11.29 - Video timestamp

• Chemical potential as functions of T and p - Slide 05.25 - Video timestamp

• Chemical potential definition - Slide 02.42 - Video timestamp

• Chemical potential definition - Slide 03.14 - Video timestamp

• Chemical potential equality at mutual equilibrium - Slide 03.15 - Video timestamp

• Chemical potential for ideal gas mixtures - Slide 12.11 - Video timestamp

• Chemical potential for ideal solutions - Slide 14.04 - Video timestamp

• Chemical potential ideal and excess - Slide 16.09 - Video timestamp

• Chemical potential van'f Hoff relation - Slide 14.05 - Video timestamp

• Chemical reaction direction of spontaneous process - Slide 18.12 - Video timestamp

• Chemical reaction exergy - Slide 18.16 - Video timestamp

• Chemical reaction maximum work obtainable - Slide 18.16 - Video timestamp

• Chemical reaction minimum work required - Slide 18.16 - Video timestamp

• Clausius inequalities and irreversibilities - Slide 05.11 - Video timestamp

• Clausius inequalities generalized proof - Slide 22.22 - Video timestamp

• Clausius inequalities graphical proof - Slide 05.02 - Video timestamp

• Clausius inequalities proof - Slide 04.23 - Video timestamp

• Clausius inequalities proof - Slide 05.02 - Video timestamp

• Clausius inequalities proof - Slide 22.20 - Video timestamp

• Clausius, Rudolf - Slide 01.03 - Video timestamp

• Clausius-Clapeyron relation - Slide 09.24 - Video timestamp

• Clausius-Clapeyron relation - Slide 16.06 - Video timestamp

• Climate4you.com website - Slide 15.10 - Video timestamp

• Cloud chamber - Slide 15.20 - Video timestamp

• CO2 concentration at sea level - Slide 15.09 - Video timestamp

• CO2 concentration with elevation - Slide 15.09 - Video timestamp

• CO2 removal from atospheric air, minimum work required - Slide 14.14 - Video timestamp

• CO2 stored in bottom layers of oceans - Slide 15.10 - Video timestamp

• Cogeneration - Slide 08.35 - Video timestamp

• Cogeneration - Slide 10.25 - Video timestamp

• Cogeneration - Slide 11.09 - Video timestamp

• Cogeneration - Slide 11.10 - Video timestamp

• Cogeneration - Slide 11.10 - Video timestamp

• Coherent light - Slide 20.21 - Video timestamp

• Coleman-Noll procedure - Slide 22.04 - Video timestamp

• Collisions in reacting systems - Slide 19.07 - Video timestamp

• Collisions in reacting systems - Slide 20.09 - Video timestamp

• Combined heat and power (CHP) - Slide 10.25 - Video timestamp

• Combined heat and power (CHP) - Slide 11.10 - Video timestamp

• Compatible compositions, meaning - Slide 19.04 - Video timestamp

• Compatible values of amounts of constituents - Slide 19.04 - Video timestamp

• Complete chemical equilibrium - Slide 19.23 - Video timestamp

• Compressibility factor - Slide 15.17 - Video timestamp

• Constructal law of design and evolution in Nature - Slide 23.35 - Video timestamp

• Continuum approximation - Slide 22.14 - Video timestamp

• Continuum approximation - Slide 25.17 - Video timestamp

• Convective fluxes - Slide 22.08 - Video timestamp

• Convective fluxes - Slide 22.10 - Video timestamp

• Convective fluxes - Slide 23.02 - Video timestamp

• Cornish engine - Slide 10.19 - Video timestamp

• Covalent bond strength versus Van der Waals forces - Slide 17.17 - Video timestamp

• Covalent bond strength versus Van der Waals forces - Slide 18.07 - Video timestamp

• Cross effects between vectorial forces and fluxes - Slide 25.05 - Video timestamp

• Cross effects summary and Curie principle - Slide 23.15 - Video timestamp

• Cross effects summary and Curie principle - Slide 24.02 - Video timestamp

• Cross effects summary and Curie principle - Slide 25.02 - Video timestamp

• Cross effects thermo-diffusive - Slide 25.10 - Video timestamp

• Cross effects thermo-electric - Slide 24.07 - Video timestamp

• Cross effects thermo-electric - Slide 25.06 - Video timestamp

• Cross effects thermo-osmosis - Slide 25.08 - Video timestamp

• Cross effects thermophoresis - Slide 25.13 - Video timestamp

• Curie symmetry principle - Slide 23.15 - Video timestamp

• Curie, Pierre - Slide 23.15 - Video timestamp

• Curie, Pierre - Slide 24.02 - Video timestamp

• Current density and diffusive flux of charge - Slide 23.08 - Video timestamp

• Cyclic relation - Slide 07.09 - Video timestamp

• Dalton law of additive partial pressures - Slide 12.10 - Video timestamp

• Darcy law of permeability - Slide 25.09 - Video timestamp

• De Donder affinity, see also Affinity - Slide 19.11 - Video timestamp

• De Groot, Sybren Ruurds - Slide 01.03 - Video timestamp

• De Groot, Sybren Ruurds - Slide 22.23 - Video timestamp

• Degree of disequilibrium in chemical kinetics - Slide 20.13 - Video timestamp

• Degree of disequilibrium in chemical kinetics - Slide 20.18 - Video timestamp

• Degree of disequilibrium in entropy production density - Slide 23.07 - Video timestamp

• Degree of disequilibrium in local near equilibrium - Slide 24.06 - Video timestamp

• Degree of disequilibrium in steepest entropy ascent - Slide 23.31 - Video timestamp

• Desalination of seawater - Slide 14.10 - Video timestamp

• Detailed balance principle - Slide 20.13 - Video timestamp

• Dew line - Slide 16.04 - Video timestamp

• Dew line - Slide 16.15 - Video timestamp

• Dew line - Slide 17.03 - Video timestamp

• Dewar, Roderick - Slide 23.27 - Video timestamp

• Diffuse interface modeling of spinodal decomposition - Slide 15.21 - Video timestamp

• Diffuse-interface model - Slide 23.15 - Video timestamp

• Diffuse-interface model - Slide 25.24 - Video timestamp

• Diffusion Darcy's law - Slide 25.09 - Video timestamp

• Diffusion Fick's law - Slide 23.15 - Video timestamp

• Diffusion Fick's law - Slide 24.02 - Video timestamp

• Diffusion Fick's law - Slide 25.12 - Video timestamp

• Diffusion Maxwell-Stefan law - Slide 25.12 - Video timestamp

• Diffusion self-diffusion - Slide 25.12 - Video timestamp

• Diffusion thermophoresis - Slide 25.14 - Video timestamp

• Diffusive fluxes - Slide 22.08 - Video timestamp

• Diffusive fluxes - Slide 22.10 - Video timestamp

• Diffusive fluxes - Slide 23.02 - Video timestamp

• Diffusive fluxes - Slide 24.04 - Video timestamp

• Diffusive fluxes - Slide 25.04 - Video timestamp

• Directional pressured for a single particle in a box - Slide 13.16 - Video timestamp

• Dissipation function - Slide 23.07 - Video timestamp

• Dissipation metric in nonequilibrium dynamics - Slide 23.19 - Video timestamp

• Distillation - Slide 16.05 - Video timestamp

• District heating in Brescia - Slide 08.35 - Video timestamp

• Divers' decompression sickness (the bends) - Slide 17.05 - Video timestamp

• Dufour effect - Slide 23.15 - Video timestamp

• Dufour effect - Slide 24.02 - Video timestamp

• Dufour effect - Slide 25.15 - Video timestamp

• Duhem, Pierre - Slide 01.03 - Video timestamp

• Duhem-Margules relation - Slide 11.37 - Video timestamp

• Duhem-Margules relation - Slide 16.09 - Video timestamp

• Efficiency in the production of heating - Slide 10.13 - Video timestamp

• Efficiency in the production of heating - Slide 10.25 - Video timestamp

• Efficiency in the production of heating - Slide 11.08 - Video timestamp

• Efficiency in the production of heating - Slide 11.15 - Video timestamp

• Efficiency in the production of heating - Slide 11.17 - Video timestamp

• Einstein, Albert - Slide 01.03 - Video timestamp

• Electrochemical potential - Slide 14.17 - Video timestamp

• Electrochemical potential - Slide 15.13 - Video timestamp

• Electrochemical systems - Slide 25.21 - Video timestamp

• Electromagnetic radiation carries energy and entropy - Slide 24.05 - Video timestamp

• Energy performance a residential building - Slide 10.25 - Video timestamp

• Energy vs entropy diagram adiabatic availability - Slide 03.21 - Video timestamp

• Energy vs entropy diagram adiabatic availability - Slide 04.03 - Video timestamp

• Energy vs entropy diagram adiabatic flame temperature - Slide 18.27 - Video timestamp

• Energy vs entropy diagram available energy - Slide 03.25 - Video timestamp

• Energy vs entropy diagram available energy - Slide 04.05 - Video timestamp

• Energy vs entropy diagram definition - Slide 03.16 - Video timestamp

• Energy vs entropy diagram definition - Slide 04.02 - Video timestamp

• Energy vs entropy diagram energy, entropy, and exergy of combustion - Slide 18.27 - Video timestamp

• Energy vs entropy diagram enthalpy and entropy of reaction - Slide 18.06 - Video timestamp

• Energy vs entropy diagram for a seven level quantum system - Slide 13.14 - Video timestamp

• Energy vs entropy diagram graphical proof of Clausius inequalities - Slide 04.28 - Video timestamp

• Energy vs entropy diagram graphical proof of Clausius inequalities - Slide 04.29 - Video timestamp

• Energy vs entropy diagram graphical proof of Clausius inequalities - Slide 05.02 - Video timestamp

• Energy vs entropy diagram negative temperatures - Slide 03.19 - Video timestamp

• Energy vs entropy diagram negative temperatures - Slide 13.14 - Video timestamp

• Energy vs entropy diagram states of a thermal reservoir - Slide 03.23 - Video timestamp

• Energy vs entropy diagram states of a thermal reservoir - Slide 04.04 - Video timestamp

• Energy additivity - Slide 01.19 - Video timestamp

• Energy and the first law of Thermodynamics - Slide 01.18 - Video timestamp

• Energy and the first law of Thermodynamics - Slide 02.11 - Video timestamp

• Energy balance equation - Slide 01.21 - Video timestamp

• Energy balance equation - Slide 02.12 - Video timestamp

• Energy balance equation - Slide 03.03 - Video timestamp

• Energy balance equation - Slide 08.26 - Video timestamp

• Energy balance equation - Slide 17.13 - Video timestamp

• Energy balance equation - Slide 18.03 - Video timestamp

• Energy conservation - Slide 01.19 - Video timestamp

• Energy definition - Slide 01.18 - Video timestamp

• Energy definition - Slide 02.11 - Video timestamp

• Energy definition - Slide 03.02 - Video timestamp

• Energy exchangeability via interactions - Slide 01.20 - Video timestamp

• Energy flux carried by electromagnetic radiation - Slide 24.05 - Video timestamp

• Energy notation for exchanges between systems - Slide 01.21 - Video timestamp

• Energy-entropy-volume diagram for water - Slide 09.27 - Video timestamp

• Enthalpy definition - Slide 05.21 - Video timestamp

• Enthalpy definition - Slide 06.14 - Video timestamp

• Enthalpy in bulk-flow interaction - Slide 08.21 - Video timestamp

• Enthalpy of isothermobaric mixing - Slide 06.14 - Video timestamp

• Enthalpy of isothermobaric mixing - Slide 16.09 - Video timestamp

• Enthapy of formation vs bond energy - Slide 17.16 - Video timestamp

• Enthapy of formation vs bond energy - Slide 18.06 - Video timestamp

• Enthapy of formation vs bond energy - Slide 19.11 - Video timestamp

• Entropy balance in fluid mechanics - Slide 23.04 - Video timestamp

• Entropy production density force-flux shorthand notation - Slide 23.11 - Video timestamp

• Entropy production density general expression for a continuum - Slide 23.06 - Video timestamp

• Entropy production density general expression in terms of heat flux - Slide 23.07 - Video timestamp

• Entropy production density general expression in terms of heat flux and current density - Slide 23.08 - Video timestamp

• Entropy production density in steady-state heat transfer - Slide 21.15 - Video timestamp

• Entropy production density in steepest entropy ascent - Slide 23.31 - Video timestamp

• Entropy production density in terms of relative diffusive fluxes and forces - Slide 24.06 - Video timestamp

• Entropy production density in terms of relative diffusive fluxes and forces - Slide 25.04 - Video timestamp

• Entropy additivity - Slide 02.35 - Video timestamp

• Entropy balance equation - Slide 02.38 - Video timestamp

• Entropy balance equation - Slide 03.09 - Video timestamp

• Entropy balance equation - Slide 08.26 - Video timestamp

• Entropy balance equation - Slide 17.13 - Video timestamp

• Entropy definition - Slide 02.32 - Video timestamp

• Entropy definition - Slide 03.06 - Video timestamp

• Entropy engineering meaning - Slide 02.34 - Video timestamp

• Entropy engineering meaning - Slide 03.07 - Video timestamp

• Entropy exchangeability via interactions - Slide 02.37 - Video timestamp

• Entropy flux carried by electromagnetic radiation - Slide 24.05 - Video timestamp

• Entropy generated in mixing ideal gases - Slide 12.13 - Video timestamp

• Entropy generated in mixing ideal gases - Slide 13.07 - Video timestamp

• Entropy generated in mixing ideal gases - Slide 15.03 - Video timestamp

• Entropy in terms of probabilities - Slide 13.12 - Video timestamp

• Entropy in terms of quantum probabilities - Slide 13.13 - Video timestamp

• Entropy in terms of quantum probabilities - Slide 13.14 - Video timestamp

• Entropy of isothermobaric mixing - Slide 12.05 - Video timestamp

• Entropy of isothermobaric mixing - Slide 16.09 - Video timestamp

• Entropy of radiation - Slide 10.43 - Video timestamp

• Entropy of radiation - Slide 24.05 - Video timestamp

• Entropy of solar radiation - Slide 24.05 - Video timestamp

• Entropy of spontaneus mixing of ideal gases - Slide 12.13 - Video timestamp

• Entropy of spontaneus mixing of ideal gases - Slide 13.07 - Video timestamp

• Entropy of spontaneus mixing of ideal gases - Slide 13.11 - Video timestamp

• Entropy principle of non-decrease in a weight process - Slide 02.35 - Video timestamp

• Equation of state - Slide 05.23 - Video timestamp

• Equilibrium constant dependence on temperature - Slide 19.17 - Video timestamp

• Equilibrium constant for pure water - Slide 20.06 - Video timestamp

• Equilibrium constant from properties of formation - Slide 19.18 - Video timestamp

• Equilibrium constant in non-equilibrium law of mass action - Slide 20.05 - Video timestamp

• Equilibrium constant in terms of activities - Slide 19.16 - Video timestamp

• Equilibrium constant in terms of concentrations - Slide 19.14 - Video timestamp

• Equilibrium constant in terms of mole fractions - Slide 19.14 - Video timestamp

• Equipartition theorem - Slide 13.16 - Video timestamp

• Equivalence ratio - Slide 18.18 - Video timestamp

• Euler free energy and minimum work of partitioning a small system - Slide 09.10 - Video timestamp

• Euler free energy and mixture properties - Slide 11.37 - Video timestamp

• Euler free energy and properties of small systems - Slide 09.09 - Video timestamp

• Euler free energy definition - Slide 06.14 - Video timestamp

• Euler free energy equal to zero in the simple-system (large n limit) model - Slide 11.34 - Video timestamp

• Euler free energy how to measure it for small systems - Slide 09.09 - Video timestamp

• Euler free energy how to measure it for small systems - Slide 09.10 - Video timestamp

• Euler free energy importance for small systems - Slide 11.31 - Video timestamp

• Euler free energy physical interpretation - Slide 09.11 - Video timestamp

• Euler free energy vanishes in the large n limit - Slide 11.32 - Video timestamp

• Euler free entropy definition - Slide 06.17 - Video timestamp

• Euler relation for a pure substance - Slide 11.34 - Video timestamp

• Euler relation general - Slide 11.32 - Video timestamp

• Euler relation in terms of molar and mass specific properties - Slide 22.16 - Video timestamp

• Euler relation in terms of volume specific properties - Slide 22.17 - Video timestamp

• Euler relation proof - Slide 08.15 - Video timestamp

• Euler relation proof - Slide 09.07 - Video timestamp

• Excess air - Slide 18.18 - Video timestamp

• Excess chemical potential - Slide 16.09 - Video timestamp

• Excess entropy of isothermobaric mixing - Slide 16.09 - Video timestamp

• Exergy and direction of chemical reaction - Slide 18.12 - Video timestamp

• Exergy and direction of chemical reaction - Slide 18.15 - Video timestamp

• Exergy and direction of chemical reaction - Slide 18.16 - Video timestamp

• Exergy and second-law efficiency - Slide 08.35 - Video timestamp

• Exergy and second-law efficiency - Slide 09.32 - Video timestamp

• Exergy balance equation - Slide 08.28 - Video timestamp

• Exergy balance equation - Slide 10.09 - Video timestamp

• Exergy dissipation in a continuum - Slide 23.10 - Video timestamp

• Exergy dissipation in steady-state heat transfer - Slide 21.15 - Video timestamp

• Exergy general concept - Slide 08.27 - Video timestamp

• Exergy general concept - Slide 08.28 - Video timestamp

• Exergy general concept - Slide 08.32 - Video timestamp

• Exergy in chemical reactors - Slide 18.16 - Video timestamp

• Exergy in chemical reactors - Slide 18.27 - Video timestamp

• Exergy in heating and cooling of bulk flows - Slide 10.05 - Video timestamp

• Exergy in heating and cooling of bulk flows - Slide 10.08 - Video timestamp

• Exergy in heating and cooling of bulk flows - Slide 11.03 - Video timestamp

• Exergy minimum for low temperature heating - Slide 10.13 - Video timestamp

• Exergy minimum for low temperature heating - Slide 11.04 - Video timestamp

• Exergy of a fossil fuel - Slide 10.14 - Video timestamp

• Exergy of a fossil fuel - Slide 18.27 - Video timestamp

• Exergy of a hydraulic jump - Slide 10.07 - Video timestamp

• Exergy of hydrocarbons - Slide 18.22 - Video timestamp

• Exergy of solar radiation - Slide 10.43 - Video timestamp

• Exergy transfer in a bulk-flow interaction - Slide 09.33 - Video timestamp

• Exergy transfer in a bulk-flow interaction - Slide 10.03 - Video timestamp

• Exergy transfer in a heat interaction - Slide 08.33 - Video timestamp

• Exergy various forms - Slide 10.01 - Video timestamp

• Extensive property - Slide 09.13 - Video timestamp

• Extensive property - Slide 22.12 - Video timestamp

• Fermi, Enrico - Slide 01.03 - Video timestamp

• Feynman, Richard P. - Slide 01.20 - Video timestamp

• Fick interdiffusion coefficient - Slide 25.12 - Video timestamp

• Fick interdiffusion coefficient - Slide 25.14 - Video timestamp

• Fick law of molecular diffusion - Slide 23.14 - Video timestamp

• Fick law of molecular diffusion - Slide 23.15 - Video timestamp

• Fick law of molecular diffusion - Slide 24.02 - Video timestamp

• Fick law of molecular diffusion - Slide 25.15 - Video timestamp

• First law of Thermodynamics and the definition of energy - Slide 01.18 - Video timestamp

• First law of Thermodynamics and the law of time evolution - Slide 01.13 - Video timestamp

• First law of Thermodynamics general statement - Slide 01.16 - Video timestamp

• First law of Thermodynamics main consequences - Slide 01.18 - Video timestamp

• First-law efficiency for a heat engine - Slide 05.13 - Video timestamp

• First-law efficiency for a heat pump - Slide 05.15 - Video timestamp

• First-law efficiency for a refrigerator - Slide 05.14 - Video timestamp

• First-law efficiency general definition - Slide 08.30 - Video timestamp

• Flame-based fuel-to-power conversion technologies - Slide 10.21 - Video timestamp

• Flame-based fuel-to-power conversion technologies - Slide 11.07 - Video timestamp

• Fleck, George - Slide 23.27 - Video timestamp

• Fluctuation relation in chemical kinetics - Slide 20.14 - Video timestamp

• Fluxes convective - Slide 22.08 - Video timestamp

• Fluxes convective - Slide 22.10 - Video timestamp

• Fluxes convective - Slide 23.02 - Video timestamp

• Fluxes diffusive - Slide 22.08 - Video timestamp

• Fluxes diffusive - Slide 22.10 - Video timestamp

• Fluxes diffusive - Slide 23.02 - Video timestamp

• Fluxes Lagrangian - Slide 22.08 - Video timestamp

• Fluxes Lagrangian - Slide 22.10 - Video timestamp

• Fluxes Lagrangian - Slide 23.02 - Video timestamp

• Force-flux relations cross coupling effects - Slide 23.15 - Video timestamp

• Force-flux relations cross coupling effects - Slide 24.02 - Video timestamp

• Force-flux relations direct linear laws - Slide 23.14 - Video timestamp

• Force-flux relations from steepest entropy ascent - Slide 23.26 - Video timestamp

• Force-flux relations general - Slide 23.13 - Video timestamp

• Force-flux relations general - Slide 24.06 - Video timestamp

• Forward and backward half-reactions - Slide 19.09 - Video timestamp

• Forward and backward half-reactions - Slide 20.11 - Video timestamp

• Fourier law of thermal conduction - Slide 21.17 - Video timestamp

• Fourier law of thermal conduction - Slide 23.14 - Video timestamp

• Fourier law of thermal conduction - Slide 23.15 - Video timestamp

• Fourier law of thermal conduction - Slide 24.02 - Video timestamp

• Fourier law of thermal conduction - Slide 25.15 - Video timestamp

• Fourth law of Thermodynamics captures forty years of nonequilbrium theories - Slide 23.25 - Video timestamp

• Fourth law of Thermodynamics existence of the nonequilibrium metric $\underline{\underline{G}}$ - Slide 23.25 - Video timestamp

• Fourth law of Thermodynamics steepest-entropy-ascent time evolution towards stable equilibrium - Slide 13.15 - Video timestamp

• Freezing point depression - Slide 16.06 - Video timestamp

• Fuel-cell-based fuel-to-power conversion technologies - Slide 10.23 - Video timestamp

• Fuel-cell-based fuel-to-power conversion technologies - Slide 11.06 - Video timestamp

• Fuel-to-power technologies flame based - Slide 10.20 - Video timestamp

• Fuel-to-power technologies flame based - Slide 11.05 - Video timestamp

• Fuel-to-power technologies fuel-cell based - Slide 10.23 - Video timestamp

• Fuel-to-power technologies fuel-cell based - Slide 11.06 - Video timestamp

• Fuel-to-power technologies three centuries of improvements in second-law efficiency - Slide 10.17 - Video timestamp

• Fugacities and fugacity coefficients - Slide 16.13 - Video timestamp

• Fundamental relation concavity - Slide 04.15 - Video timestamp

• Fundamental relation concavity - Slide 06.23 - Video timestamp

• Fundamental relation concavity - Slide 07.23 - Video timestamp

• Fundamental relation construction from measurements - Slide 05.28 - Video timestamp

• Fundamental relation construction from measurements - Slide 06.13 - Video timestamp

• Fundamental relation definition - Slide 02.41 - Video timestamp

• Fundamental relation definition - Slide 03.11 - Video timestamp

• Fundamental relation for a single particle in a box - Slide 13.13 - Video timestamp

• Fundamental relation for chemical equilibrium states - Slide 19.12 - Video timestamp

• Fundamental relation fundamental $u$-$s$-$v$ surface - Slide 09.26 - Video timestamp

• Fundamental relation of a pure substance - Slide 09.20 - Video timestamp

• Fundamental relation representation on $E$-$S$ diagrams - Slide 03.18 - Video timestamp

• Fundamental relation when volume is the only important parameter - Slide 13.16 - Video timestamp

• Gas constant - Slide 13.11 - Video timestamp

• Gheorghiu-Svirschevski, Speranta - Slide 23.27 - Video timestamp

• Ghoniem, Ahmed F. - Slide 11.20 - Video timestamp

• Gibbs free energy definition - Slide 05.25 - Video timestamp

• Gibbs free energy definition - Slide 06.14 - Video timestamp

• Gibbs free energy ideal and excess - Slide 16.09 - Video timestamp

• Gibbs free energy of combustion and fuel exergy - Slide 10.15 - Video timestamp

• Gibbs paradox - Slide 13.11 - Video timestamp

• Gibbs phase rule - Slide 09.17 - Video timestamp

• Gibbs relation for a continuum - Slide 22.17 - Video timestamp

• Gibbs relation for a continuum - Slide 23.06 - Video timestamp

• Gibbs relation for a single particle in a box - Slide 13.16 - Video timestamp

• Gibbs relation for small systems - Slide 11.31 - Video timestamp

• Gibbs relation for small systems - Slide 11.33 - Video timestamp

• Gibbs relation general - Slide 03.13 - Video timestamp

• Gibbs relation general - Slide 08.14 - Video timestamp

• Gibbs relation general - Slide 09.06 - Video timestamp

• Gibbs relation in terms of molar and mass specific properties - Slide 22.16 - Video timestamp

• Gibbs relation in terms of volume specific properties - Slide 22.17 - Video timestamp

• Gibbs, Josiah Willard - Slide 01.03 - Video timestamp

• Gibbs-Duhem relation and local-equilibrium simple-system bulk-flow approximations - Slide 22.15 - Video timestamp

• Gibbs-Duhem relation and local-equilibrium simple-system bulk-flow approximations - Slide 24.06 - Video timestamp

• Gibbs-Duhem relation for a continuum - Slide 22.17 - Video timestamp

• Gibbs-Duhem relation for a continuum - Slide 24.06 - Video timestamp

• Gibbs-Duhem relation for a continuum - Slide 25.04 - Video timestamp

• Gibbs-Duhem relation for a pure substance - Slide 09.24 - Video timestamp

• Gibbs-Duhem relation for a pure substance - Slide 11.34 - Video timestamp

• Gibbs-Duhem relation general - Slide 08.14 - Video timestamp

• Gibbs-Duhem relation general - Slide 09.06 - Video timestamp

• Gibbs-Duhem relation general - Slide 11.32 - Video timestamp

• Gibbs-Duhem relation in terms of molar and mass specific properties - Slide 22.17 - Video timestamp

• Gibbs-Duhem relation in terms of volume specific properties - Slide 22.16 - Video timestamp

• Glansdorff, Paul - Slide 23.38 - Video timestamp

• Glansdorff-Prigogine minimum entropy production theorem - Slide 23.38 - Video timestamp

• Glaser bubble chamber - Slide 15.20 - Video timestamp

• Global warming average temperature of atmospheric air - Slide 15.10 - Video timestamp

• Global warming average temperature of upper ocean layers - Slide 15.10 - Video timestamp

• Global warming climate4you.com website - Slide 15.10 - Video timestamp

• Global warming delay between CO2 and temperature peaks - Slide 15.10 - Video timestamp

• Global warming solar wind activity measured by sun spots - Slide 15.10 - Video timestamp

• Gordon, Sanford - Slide 19.23 - Video timestamp

• Grmela, Miroslav - Slide 23.27 - Video timestamp

• Grmela, Miroslav - Slide 23.33 - Video timestamp

• Guggenheim binary mixture model - Slide 16.10 - Video timestamp

• Guggenheim, Edward Armand - Slide 01.03 - Video timestamp

• Gyftopoulos, Elias P. - Slide 01.04 - Video timestamp

• Gyftopoulos, Elias P. - Slide 23.27 - Video timestamp

• Gyftopoulos, Elias P. - Slide 25.28 - Video timestamp

• Hadjiconstantinou, Nicolas G. - Slide 08.09 - Video timestamp

• Hadjiconstantinou, Nicolas G. - Slide 21.09 - Video timestamp

• Hall effect - Slide 24.19 - Video timestamp

• Hatsopoulos, George N. - Slide 01.03 - Video timestamp

• Hatsopoulos, George N. - Slide 01.04 - Video timestamp

• Hatsopoulos, George N. - Slide 01.25 - Video timestamp

• Hatsopoulos, George N. - Slide 02.16 - Video timestamp

• Hatsopoulos, George N. - Slide 23.27 - Video timestamp

• Hatsopoulos, George N. - Slide 25.22 - Video timestamp

• Hatsopoulos, George N. - Slide 25.28 - Video timestamp

• Heat bath - Slide 07.12 - Video timestamp

• Heat capacity at costant pressure - Slide 05.21 - Video timestamp

• Heat capacity at costant volume - Slide 05.22 - Video timestamp

• Heat conduction Cattaneo-Vernotte equation - Slide 21.20 - Video timestamp

• Heat conduction Fourier equation - Slide 21.17 - Video timestamp

• Heat conduction in anisotropic media - Slide 21.18 - Video timestamp

• Heat conduction vs near-equilibrium chemical kinetics - Slide 22.03 - Video timestamp

• Heat engines between reservoirs - Slide 05.13 - Video timestamp

• Heat engines, heat pumps, refrigerators - Slide 05.10 - Video timestamp

• Heat flux definition in “Heat&diffusion” interactions - Slide 22.23 - Video timestamp

• Heat flux definition in “Heat&diffusion” interactions - Slide 22.24 - Video timestamp

• Heat flux definition in “Heat&diffusion” interactions - Slide 22.25 - Video timestamp

• Heat flux definition in “Heat&diffusion” interactions - Slide 24.03 - Video timestamp

• Heat flux in Fourier conduction - Slide 21.17 - Video timestamp

• Heat flux vs energy flux in “Heat&diffusion” interactions - Slide 22.23 - Video timestamp

• Heat flux vs energy flux in “Heat&diffusion” interactions - Slide 22.24 - Video timestamp

• Heat flux vs energy flux in “Heat&diffusion” interactions - Slide 22.25 - Video timestamp

• Heat flux vs energy flux in “Heat&diffusion” interactions - Slide 24.03 - Video timestamp

• Heat flux vs entropy flux in “Heat&diffusion” interactions - Slide 22.23 - Video timestamp

• Heat flux vs entropy flux in “Heat&diffusion” interactions - Slide 22.24 - Video timestamp

• Heat flux vs entropy flux in “Heat&diffusion” interactions - Slide 22.25 - Video timestamp

• Heat flux vs entropy flux in “Heat&diffusion” interactions - Slide 24.03 - Video timestamp

• Heat interaction definition - Slide 05.06 - Video timestamp

• Heat interaction definition - Slide 06.02 - Video timestamp

• Heat interaction definition - Slide 22.19 - Video timestamp

• Heat interaction definition - Slide 24.03 - Video timestamp

• Heat interaction definition versus usual understanding - Slide 05.07 - Video timestamp

• Heat interaction generalization to heat&diffusion interaction - Slide 22.21 - Video timestamp

• Heat interaction in a continuum - Slide 05.08 - Video timestamp

• Heat interaction in a continuum - Slide 06.03 - Video timestamp

• Heat interaction measurable heat flux in heat&diffusion - Slide 22.23 - Video timestamp

• Heat interaction transport velocities for energy and entropy - Slide 22.08 - Video timestamp

• Heat of transport - Slide 24.03 - Video timestamp

• Heat transfer Cattaneo-Vernotte thermal conduction equation - Slide 21.20 - Video timestamp

• Heat transfer Fourier law of thermal conduction - Slide 21.17 - Video timestamp

• Heat transfer in anisotropic media - Slide 21.17 - Video timestamp

• Heat transfer in anisotropic media - Slide 23.19 - Video timestamp

• Heat transfer requires nonequilibrium - Slide 05.08 - Video timestamp

• Heat transfer requires nonequilibrium - Slide 21.15 - Video timestamp

• Heat transfer steepest entropy ascent interpretation - Slide 23.19 - Video timestamp

• Heat&diffusion interaction definition - Slide 22.21 - Video timestamp

• Heat&diffusion interaction definition - Slide 22.23 - Video timestamp

• Heat&diffusion interaction definition - Slide 23.06 - Video timestamp

• Heat&diffusion interaction relation between energy flux, entropy flux, and molar fluxes - Slide 23.03 - Video timestamp

• Heat&diffusion interaction relation between independent diffusive fluxes - Slide 24.02 - Video timestamp

• Heat&diffusion interaction relation between independent diffusive fluxes - Slide 25.03 - Video timestamp

• Heating values and exergy of hydrocarbons - Slide 10.15 - Video timestamp

• Heating values and exergy of hydrocarbons - Slide 18.19 - Video timestamp

• Helmholtz free energy - Slide 06.14 - Video timestamp

• Helmholtz, Hermann, von - Slide 01.03 - Video timestamp

• Henry's law - Slide 17.04 - Video timestamp

• Hess relation - Slide 18.09 - Video timestamp

• Hessian - Slide 06.23 - Video timestamp

• Hessian - Slide 06.24 - Video timestamp

• Hessian - Slide 07.16 - Video timestamp

• Hessian - Slide 07.23 - Video timestamp

• Hessian - Slide 16.09 - Video timestamp

• Hill, Terrell L. - Slide 06.14 - Video timestamp

• History of fuel to power conversion - Slide 10.17 - Video timestamp

• Home energy score - Slide 10.25 - Video timestamp

• Hortsmann free entropy - Slide 06.17 - Video timestamp

• Hybrid solar-fossil power and CHP production - Slide 10.38 - Video timestamp

• Ideal entropy of isothermobaric mixing - Slide 14.04 - Video timestamp

• Ideal entropy of isothermobaric mixing - Slide 16.09 - Video timestamp

• Ideal Amagat-Leduc mixture behavior - Slide 12.10 - Video timestamp

• Ideal gas behavior - Slide 09.22 - Video timestamp

• Ideal gas equation of state for a single particle in a box - Slide 13.13 - Video timestamp

• Ideal gas model - Slide 09.22 - Video timestamp

• Ideal gas model and Lennard-Jones potential - Slide 12.09 - Video timestamp

• Ideal gas model and Lennard-Jones potential - Slide 13.17 - Video timestamp

• Ideal gas model and Lennard-Jones potential - Slide 14.03 - Video timestamp

• Ideal Gibbs-Dalton mixture behavior - Slide 12.10 - Video timestamp

• Ideal Gibbs-Dalton mixture behavior - Slide 13.05 - Video timestamp

• Ideal Gibbs-Dalton mixture of ideal gases - Slide 12.12 - Video timestamp

• Ideal incompressible behavior - Slide 09.23 - Video timestamp

• Ideal incompressible fluid model - Slide 09.21 - Video timestamp

• Ideal incompressible solid model - Slide 09.21 - Video timestamp

• Ideal solution behavior - Slide 13.17 - Video timestamp

• Ideal solution behavior - Slide 14.03 - Video timestamp

• Information theory interpretation - Slide 13.12 - Video timestamp

• Intensive property - Slide 09.15 - Video timestamp

• Intensive state - Slide 09.15 - Video timestamp

• Interdiffusion coefficient - Slide 25.12 - Video timestamp

• Interdiffusion of two constituents - Slide 25.11 - Video timestamp

• Inversion of population - Slide 20.21 - Video timestamp

• Irreversibility in fuel-cell based technologies - Slide 10.23 - Video timestamp

• Irreversibility of flame-based combustion - Slide 10.20 - Video timestamp

• Irreversibility of flame-based combustion - Slide 11.05 - Video timestamp

• Irreversible process, definition - Slide 02.21 - Video timestamp

• Isobaric expansion coefficient - Slide 05.23 - Video timestamp

• Isoentropic compressibility - Slide 05.24 - Video timestamp

• Isothermal compressibility - Slide 05.23 - Video timestamp

• Jacobian determinants, general properties - Slide 07.06 - Video timestamp

• Jaynes, Edwin T. - Slide 13.12 - Video timestamp

• Jordan, Richard - Slide 23.27 - Video timestamp

• Jordan, Richard - Slide 23.34 - Video timestamp

• Joule coefficient - Slide 05.24 - Video timestamp

• Joule heating in electrical conduction - Slide 24.13 - Video timestamp

• Joule heating in electrical conduction - Slide 24.18 - Video timestamp

• Joule, James P. - Slide 01.03 - Video timestamp

• Joule-Thomson coefficient - Slide 05.24 - Video timestamp

• Kaufman, Allan N. - Slide 23.27 - Video timestamp

• Keck, James C. - Slide 19.21 - Video timestamp

• Keck, James C. - Slide 19.23 - Video timestamp

• Keck, James C. - Slide 20.18 - Video timestamp

• Keck, James C. - Slide 25.28 - Video timestamp

• Keenan school of teaching Thermodynamics - Slide 01.04 - Video timestamp

• Keenan, Joseph H. - Slide 01.03 - Video timestamp

• Keenan, Joseph H. - Slide 01.04 - Video timestamp

• Kelvin, William Thomson, Lord - Slide 01.03 - Video timestamp

• Kinderlehrer, David - Slide 23.27 - Video timestamp

• Kinderlehrer, David - Slide 23.34 - Video timestamp

• Kjelstrup, Signe - Slide 22.12 - Video timestamp

• Kjelstrup, Signe - Slide 25.22 - Video timestamp

• Knudsen diffusion - Slide 25.17 - Video timestamp

• Knudsen number - Slide 22.14 - Video timestamp

• Lagrange multipliers, method - Slide 13.12 - Video timestamp

• Lagrange multipliers, method - Slide 19.22 - Video timestamp

• Lagrange multipliers, method - Slide 21.09 - Video timestamp

• Lagrange multipliers, method - Slide 23.17 - Video timestamp

• Lagrange multipliers, method - Slide 23.26 - Video timestamp

• Lagrange multipliers, method - Slide 23.32 - Video timestamp

• Lagrangian fluxes - Slide 22.08 - Video timestamp

• Lagrangian fluxes - Slide 22.10 - Video timestamp

• Lagrangian fluxes - Slide 23.02 - Video timestamp

• Lamb law of bulk viscosity - Slide 23.14 - Video timestamp

• Lamb law of bulk viscosity - Slide 23.15 - Video timestamp

• Lamb law of bulk viscosity - Slide 24.02 - Video timestamp

• Laser based on nonequilibrium buildup in a nozzle - Slide 20.19 - Video timestamp

• Law of mass action at chemical equilibrium - Slide 19.14 - Video timestamp

• Law of mass action at non-equilibrium - Slide 19.14 - Video timestamp

• Law of mass action for ideal Gibbs-Dalton gas mixtures - Slide 19.14 - Video timestamp

• Law of mass action for ideal Gibbs-Dalton gas mixtures - Slide 19.19 - Video timestamp

• Law of mass action for ideal Gibbs-Dalton gas mixtures - Slide 20.05 - Video timestamp

• Law of mass action for ideal solutions - Slide 19.15 - Video timestamp

• Law of mass action in terms of activities - Slide 19.15 - Video timestamp

• Law of maximum local entropy production - Slide 23.27 - Video timestamp

• Law of maximum local entropy production - Slide 23.36 - Video timestamp

• Law of maximum local entropy production - Slide 23.37 - Video timestamp

• Law of maximum local entropy production vs minimum global entropy production - Slide 23.38 - Video timestamp

• Law of time evolution and the first law of Thermodynamics - Slide 01.13 - Video timestamp

• Law of time evolution and the second law of Thermodynamics - Slide 01.13 - Video timestamp

• Law of time evolution of the state of a system - Slide 01.13 - Video timestamp

• Learning curve in fuel-to-power conversion technologies - Slide 10.17 - Video timestamp

• Learning curve in fuel-to-power conversion technologies - Slide 11.15 - Video timestamp

• LeChatelier-Braun principle assertion I - Slide 06.25 - Video timestamp

• LeChatelier-Braun principle assertion I - Slide 07.16 - Video timestamp

• LeChatelier-Braun principle assertion I - Slide 07.26 - Video timestamp

• LeChatelier-Braun principle assertion I - Slide 23.13 - Video timestamp

• LeChatelier-Braun principle assertion II - Slide 07.27 - Video timestamp

• LeChatelier-Braun principle assertion II - Slide 08.02 - Video timestamp

• LeChatelier-Braun principle assertion II - Slide 25.05 - Video timestamp

• LeChatelier-Braun principle for a van der Waals fluid - Slide 15.19 - Video timestamp

• Legendre transform definition - Slide 05.30 - Video timestamp

• Legendre transform definition - Slide 07.16 - Video timestamp

• Legendre transform definition - Slide 07.26 - Video timestamp

• Legendre transform of fundamental relation in energy form - Slide 06.14 - Video timestamp

• Legendre transform of fundamental relation in entropy form - Slide 06.17 - Video timestamp

• Lennard-Jones binary mixture model - Slide 16.17 - Video timestamp

• Lennard-Jones potential ideal gas behavior - Slide 14.03 - Video timestamp

• Lennard-Jones potential ideal solution behavior - Slide 13.17 - Video timestamp

• Lennard-Jones potential ideal solution behavior - Slide 14.03 - Video timestamp

• Lennard-Jones potential Lennradjonesium - Slide 15.17 - Video timestamp

• Lennard-Jones potential model of intermolecular forces - Slide 12.09 - Video timestamp

• Lennard-Jones potential model of intermolecular forces - Slide 13.04 - Video timestamp

• Lennard-Jones potential model of intermolecular forces - Slide 15.16 - Video timestamp

• Lieb, Elliot H. - Slide 03.22 - Video timestamp

• Liquid-vapor equilibrium - Slide 09.24 - Video timestamp

• Liquid-vapor equilibrium - Slide 09.25 - Video timestamp

• Liquid-vapor equilibrium - Slide 16.03 - Video timestamp

• Liquid-vapor equilibrium - Slide 16.06 - Video timestamp

• Liquid-vapor equilibrium - Slide 16.15 - Video timestamp

• Liquid-vapor equilibrium - Slide 17.03 - Video timestamp

• Local equilibrium assumption in general nonequilibrium modeling - Slide 23.06 - Video timestamp

• Local equilibrium assumption in general nonequilibrium modeling - Slide 24.04 - Video timestamp

• Local equilibrium assumption in heat transfer - Slide 05.09 - Video timestamp

• Logarithmic mean of forward and backward reactions - Slide 21.03 - Video timestamp

• Logarithmic mean of inlet and outlet temperatures - Slide 10.10 - Video timestamp

• Lorente, Sylvie - Slide 23.35 - Video timestamp

• Lyapunov, Aleksandr Mikhailovich - Slide 01.24 - Video timestamp

• Macroscopic limit simple-system model - Slide 08.07 - Video timestamp

• Macroscopic limit simple-system model - Slide 09.02 - Video timestamp

• Macroscopic limit simple-system model - Slide 09.06 - Video timestamp

• Manometer - Slide 05.18 - Video timestamp

• Many-particle limit simple-system model - Slide 08.07 - Video timestamp

• Many-particle limit simple-system model - Slide 09.02 - Video timestamp

• Many-particle limit simple-system model - Slide 09.06 - Video timestamp

• Margules one-parameter binary mixture model - Slide 16.10 - Video timestamp

• Margules one-parameter binary mixture model - Slide 16.14 - Video timestamp

• Margules one-parameter binary mixture model - Slide 17.07 - Video timestamp

• Margules two-parameter binary mixture model - Slide 16.10 - Video timestamp

• Margules two-parameter binary mixture model - Slide 16.14 - Video timestamp

• Martyushev, Leonid M. - Slide 23.27 - Video timestamp

• Mass densities in terms of mole and mass fractions and molar densities - Slide 22.11 - Video timestamp

• Mass fractions in terms of mole fractions and molar and mass densities - Slide 22.11 - Video timestamp

• Massieu free entropy - Slide 06.17 - Video timestamp

• Massieu, Francois J.D. - Slide 01.03 - Video timestamp

• Material derivative - Slide 22.10 - Video timestamp

• Mauri, Roberto - Slide 15.21 - Video timestamp

• Maximum entropy principle and chemical equilibrium - Slide 19.22 - Video timestamp

• Maximum entropy principle for reacting systems - Slide 19.05 - Video timestamp

• Maximum entropy principle proof - Slide 02.39 - Video timestamp

• Maximum entropy principle proof - Slide 03.10 - Video timestamp

• Maximum local entropy production - Slide 23.27 - Video timestamp

• Maximum local entropy production - Slide 23.36 - Video timestamp

• Maximum local entropy production rate principle - Slide 21.09 - Video timestamp

• Maximum work obtainable from a chemical reaction - Slide 18.16 - Video timestamp

• Maxwell relations - Slide 06.15 - Video timestamp

• Maxwell relations - Slide 06.16 - Video timestamp

• Maxwell relations - Slide 06.18 - Video timestamp

• Maxwell relations - Slide 07.04 - Video timestamp

• Maxwell relations - Slide 19.12 - Video timestamp

• Maxwell-Boltzmann distribution of velocities - Slide 20.09 - Video timestamp

• Maxwell-Stefan interdiffusion coefficient - Slide 25.12 - Video timestamp

• Mayer relation - Slide 05.24 - Video timestamp

• Mayer relation - Slide 07.10 - Video timestamp

• Mayer relation for the van der Waals model - Slide 15.18 - Video timestamp

• Mazur, Peter - Slide 01.03 - Video timestamp

• Mazur, Peter - Slide 22.23 - Video timestamp

• Mazur, Peter - Slide 23.15 - Video timestamp

• McBride, Bonnie J. - Slide 19.23 - Video timestamp

• Mean free path - Slide 22.14 - Video timestamp

• Measurable heat flux in a heat&diffusion interaction - Slide 22.21 - Video timestamp

• Measurable heat flux in a heat&diffusion interaction - Slide 22.23 - Video timestamp

• Measurable heat flux in a heat&diffusion interaction - Slide 24.03 - Video timestamp

• Measurable heat flux in a heat&diffusion interaction - Slide 24.04 - Video timestamp

• Measurement procedure defining adiabatic availability - Slide 02.23 - Video timestamp

• Measurement procedure defining available energy - Slide 02.33 - Video timestamp

• Measurement procedure defining chemical potentials - Slide 05.26 - Video timestamp

• Measurement procedure defining energy - Slide 01.18 - Video timestamp

• Measurement procedure defining energy - Slide 02.11 - Video timestamp

• Measurement procedure defining energy - Slide 03.02 - Video timestamp

• Measurement procedure defining entropy - Slide 02.32 - Video timestamp

• Measurement procedure defining entropy - Slide 03.06 - Video timestamp

• Measurement procedure defining heat capacities - Slide 05.20 - Video timestamp

• Measurement procedure defining partial pressures - Slide 05.26 - Video timestamp

• Measurement procedure defining pressure - Slide 05.18 - Video timestamp

• Measurement procedure defining temperature - Slide 05.17 - Video timestamp

• Measurement procedure defining temperature of a thermal reservoir - Slide 02.29 - Video timestamp

• Mechano-caloric coefficient - Slide 25.09 - Video timestamp

• Mesoscopic Nonequilibrium Thermodynamics - Slide 25.24 - Video timestamp

• Metastable equilibrium state definition - Slide 01.24 - Video timestamp

• Metastable equilibrium state in a partially miscible mixture - Slide 17.07 - Video timestamp

• Metastable equilibrium state in Margules one-parameter mixture model - Slide 17.09 - Video timestamp

• Metastable equilibrium state in Van der Waals' fluid model - Slide 15.19 - Video timestamp

• Mielke, Alexander - Slide 23.27 - Video timestamp

• Mielke, Alexander - Slide 23.34 - Video timestamp

• Minimum energy principle - Slide 02.40 - Video timestamp

• Minimum energy principle - Slide 03.10 - Video timestamp

• Minimum entropy production theorem - Slide 23.38 - Video timestamp

• Minimum exergy required for low temperature heating - Slide 10.13 - Video timestamp

• Minimum work of complete separation of a mixture - Slide 14.13 - Video timestamp

• Minimum work of complete separation of a mixture - Slide 15.05 - Video timestamp

• Minimum work of partial separation of a mixture - Slide 14.14 - Video timestamp

• Minimum work of partitioning a small system - Slide 09.10 - Video timestamp

• Minimum work required for a chemical reaction - Slide 18.16 - Video timestamp

• Minimum work required to remove CO2 from atmospheric air - Slide 14.14 - Video timestamp

• Miscibility gap - Slide 17.08 - Video timestamp

• Mixing and demixing graphical representation - Slide 15.06 - Video timestamp

• Mixing and demixing minimum work of complete separation - Slide 14.13 - Video timestamp

• Mixing and demixing minimum work of complete separation - Slide 15.05 - Video timestamp

• Mixing and demixing minimum work of partial separation - Slide 14.14 - Video timestamp

• Mixing and demixing of a liquid mixture - Slide 14.16 - Video timestamp

• Mixing and demixing of atmospheric air - Slide 14.15 - Video timestamp

• Mixing and demixing of ideal gases - Slide 12.13 - Video timestamp

• Mixing and demixing of ideal gases - Slide 13.07 - Video timestamp

• Mixtures dilute non-ideal solutions - Slide 17.04 - Video timestamp

• Mixtures ideal and excess chemical potentials - Slide 16.09 - Video timestamp

• Mixtures liquid-vapor equilibria - Slide 16.02 - Video timestamp

• Mixtures liquid-vapor equilibria - Slide 16.18 - Video timestamp

• Mixtures liquid-vapor equilibria - Slide 17.02 - Video timestamp

• Mixtures partial pressures - Slide 11.30 - Video timestamp

• Mixtures properties from chemical potentials - Slide 11.30 - Video timestamp

• Mixtures properties from partial properties - Slide 12.04 - Video timestamp

• Mixtures properties from properties of mixing - Slide 13.03 - Video timestamp

• Mixtures properties in general depend on n - Slide 11.30 - Video timestamp

• Mixtures properties within the simple-system model - Slide 11.30 - Video timestamp

• Mixtures stable equilibrium properties - Slide 11.30 - Video timestamp

• Mixtures stable equilibrium properties - Slide 12.02 - Video timestamp

• Mixtures various binary mixture models - Slide 16.10 - Video timestamp

• Model reduction schemes in chemical kinetics - Slide 19.21 - Video timestamp

• Modeling how nonequilibrium states evolve in time - Slide 13.15 - Video timestamp

• Modes of interaction between systems Bulk flow - Slide 08.17 - Video timestamp

• Modes of interaction between systems Bulk flow - Slide 23.03 - Video timestamp

• Modes of interaction between systems Bulk flow - Slide 23.06 - Video timestamp

• Modes of interaction between systems Bulk flow - Slide 24.04 - Video timestamp

• Modes of interaction between systems Heat - Slide 05.06 - Video timestamp

• Modes of interaction between systems Heat - Slide 06.02 - Video timestamp

• Modes of interaction between systems Heat - Slide 22.19 - Video timestamp

• Modes of interaction between systems Heat&diffusion - Slide 22.21 - Video timestamp

• Modes of interaction between systems Heat&diffusion - Slide 22.23 - Video timestamp

• Modes of interaction between systems Heat&diffusion - Slide 23.06 - Video timestamp

• Modes of interaction between systems Heat&diffusion - Slide 24.03 - Video timestamp

• Modes of interaction between systems Work - Slide 05.04 - Video timestamp

• Molar densities in terms of mole and mass fractions and mass densities - Slide 22.11 - Video timestamp

• Mole fractions in terms of mass fractions and molar and mass densities - Slide 22.11 - Video timestamp

• Molecular motors - Slide 25.19 - Video timestamp

• Mollier $h$-$s$ diagram for water - Slide 09.28 - Video timestamp

• Momentum balance in fluid mechanics - Slide 23.04 - Video timestamp

• Momentum flux - Slide 22.08 - Video timestamp

• Momentum flux - Slide 22.12 - Video timestamp

• Momentum flux - Slide 23.10 - Video timestamp

• Morel, Richard E. - Slide 23.27 - Video timestamp

• Morrison, Philip J. - Slide 23.27 - Video timestamp

• Mutual equilibrium between ocean and atmosphere - Slide 15.10 - Video timestamp

• Mutual equilibrium CO2 concentration at sea level - Slide 15.10 - Video timestamp

• Mutual equilibrium definition - Slide 02.26 - Video timestamp

• Mutual equilibrium necessary conditions - Slide 03.15 - Video timestamp

• Mutual equilibrium necessary conditions - Slide 04.07 - Video timestamp

• Mutual equilibrium proof of chemical potential equality - Slide 04.12 - Video timestamp

• Mutual equilibrium proof of pressure equality - Slide 04.09 - Video timestamp

• Mutual equilibrium proof of temperature equality - Slide 04.09 - Video timestamp

• Mutual equilibrium Young-Laplace equation - Slide 04.16 - Video timestamp

• Nabla - Slide 21.20 - Video timestamp

• Nanothermodynamics - Slide 06.14 - Video timestamp

• Navier law of momentum diffusion - Slide 23.14 - Video timestamp

• Navier law of momentum diffusion - Slide 23.15 - Video timestamp

• Navier law of momentum diffusion - Slide 24.02 - Video timestamp

• Near-equilibrium linearized relation between rates and affinities - Slide 21.05 - Video timestamp

• Near-equilibrium linearized relation between rates and affinities - Slide 21.07 - Video timestamp

• Near-equilibrium Onsager relations - Slide 21.07 - Video timestamp

• Negative temperatures - Slide 03.19 - Video timestamp

• Nernst effect - Slide 24.19 - Video timestamp

• Nernst, Walther H. - Slide 01.03 - Video timestamp

• Newcomen, Thomas - Slide 10.19 - Video timestamp

• Nonequilibrium cross effects - Slide 23.15 - Video timestamp

• Nonequilibrium cross effects - Slide 24.02 - Video timestamp

• Nonequilibrium cross effects - Slide 25.02 - Video timestamp

• Nonequilibrium cross effects - Slide 25.05 - Video timestamp

• Nonequilibrium gasdynamic infrared power laser - Slide 20.19 - Video timestamp

• Nonequilibrium law of mass action for ideal Gibbs-Dalton gas mixtures - Slide 19.14 - Video timestamp

• Nonequilibrium law of mass action for ideal Gibbs-Dalton gas mixtures - Slide 19.19 - Video timestamp

• Nonequilibrium law of mass action for ideal Gibbs-Dalton gas mixtures - Slide 20.05 - Video timestamp

• Nonequilibrium law of mass action for ideal solutions - Slide 19.15 - Video timestamp

• Nonequilibrium law of mass action in terms of activities - Slide 19.15 - Video timestamp

• Nonequilibrium states and the fourth law of thermodyanmics - Slide 23.25 - Video timestamp

• Nonequilibrium states modeling time evolution - Slide 13.15 - Video timestamp

• Nonequilibrium states representation on $E$-$S$ diagrams - Slide 03.18 - Video timestamp

• Nonequilibrium theory Coleman-Noll procedure vs ours - Slide 22.04 - Video timestamp

• Nonequilibrium theory heat transfer vs chemical kinetics - Slide 22.03 - Video timestamp

• Nonequilibrium theory the logic and the assumptions - Slide 22.03 - Video timestamp

• Non-Local nonequilibrium models - Slide 25.24 - Video timestamp

• Non-work interaction definition - Slide 05.05 - Video timestamp

• Non-work interaction not necessarily heat - Slide 05.05 - Video timestamp

• NRTL mixture model - Slide 16.10 - Video timestamp

• Ohm law of charge diffusion - Slide 23.14 - Video timestamp

• Ohm law of charge diffusion - Slide 23.15 - Video timestamp

• Ohm law of charge diffusion - Slide 24.02 - Video timestamp

• Onsager reciprocity relations near chemical equilbrium - Slide 21.07 - Video timestamp

• Onsager reciprocity relations proof from Ziegler's maximal entropy production principle - Slide 21.09 - Video timestamp

• Onsager reciprocity relations proof from Ziegler's maximal entropy production principle - Slide 23.17 - Video timestamp

• Onsager reciprocity relations sketch of original proof - Slide 23.16 - Video timestamp

• Onsager reciprocity relations summary of cross effects - Slide 23.15 - Video timestamp

• Onsager reciprocity relations summary of cross effects - Slide 24.02 - Video timestamp

• Onsager reciprocity relations summary of cross effects - Slide 25.02 - Video timestamp

• Onsager, Lars - Slide 01.03 - Video timestamp

• Onsager, Lars - Slide 21.07 - Video timestamp

• Osmotic free energy definition - Slide 06.14 - Video timestamp

• Osmotic power, blue energy - Slide 14.11 - Video timestamp

• Osmotic pressure and blue energy - Slide 14.11 - Video timestamp

• Osmotic pressure definition - Slide 14.05 - Video timestamp

• Osmotic pressure in biology - Slide 14.06 - Video timestamp

• Osmotic pressure in desalination - Slide 14.10 - Video timestamp

• Osmotic pressure in lithium-ion batteries - Slide 14.07 - Video timestamp

• Osmotic pressure of seawater - Slide 14.08 - Video timestamp

• Osmotic pressure Van't Hoff relation - Slide 14.05 - Video timestamp

• Ottinger, Hans Christian - Slide 22.12 - Video timestamp

• Ottinger, Hans Christian - Slide 23.27 - Video timestamp

• Ottinger, Hans Christian - Slide 23.33 - Video timestamp

• Otto, Felix - Slide 23.27 - Video timestamp

• Otto, Felix - Slide 23.34 - Video timestamp

• Ouzo effect - Slide 17.11 - Video timestamp

• Oxidation of hydrocarbons - Slide 18.18 - Video timestamp

• Park, James L. - Slide 23.27 - Video timestamp

• Park, James L. - Slide 25.28 - Video timestamp

• Parsons, Charles A. - Slide 10.19 - Video timestamp

• Partial pressure and chemical potential - Slide 11.35 - Video timestamp

• Partial pressure definition - Slide 05.26 - Video timestamp

• Partial pressure definition - Slide 11.35 - Video timestamp

• Partial pressure for small systems - Slide 11.35 - Video timestamp

• Partial pressure measurement - Slide 06.10 - Video timestamp

• Partial properties from chemical potentials - Slide 11.30 - Video timestamp

• Partial properties from chemical potentials - Slide 12.03 - Video timestamp

• Partial properties from partial pressures - Slide 12.08 - Video timestamp

• Partial properties from properties of mixing - Slide 12.05 - Video timestamp

• Partial shifting chemical equilibrium - Slide 20.16 - Video timestamp

• Partial stable equilibrium states - Slide 19.11 - Video timestamp

• Partition function - Slide 13.13 - Video timestamp

• Partition function - Slide 13.16 - Video timestamp

• Partitioning small systems Euler free energy - Slide 09.10 - Video timestamp

• Partitioning small systems minimum work - Slide 09.10 - Video timestamp

• Peletier, Mark A. - Slide 23.27 - Video timestamp

• Peltier effect - Slide 23.15 - Video timestamp

• Peltier effect - Slide 24.02 - Video timestamp

• Peltier effect - Slide 24.14 - Video timestamp

• Perfect gas behavior - Slide 09.22 - Video timestamp

• Perfect gas model - Slide 09.22 - Video timestamp

• Perfect incompressible behavior - Slide 09.23 - Video timestamp

• Perfect incompressible fluid model - Slide 09.21 - Video timestamp

• Perfect incompressible solid model - Slide 09.21 - Video timestamp

• Perpetual motion machine of the second kind - Slide 01.25 - Video timestamp

• Perpetual motion machine of the second kind - Slide 02.19 - Video timestamp

• Perpetual motion machine of the second kind - Slide 02.20 - Video timestamp

• Phase definition - Slide 09.16 - Video timestamp

• Phase Gibbs rule - Slide 09.17 - Video timestamp

• Photon flux carried by electromagnetic radiation - Slide 24.05 - Video timestamp

• Pioneers of Thermodynamics - Slide 01.03 - Video timestamp

• Planck free entropy - Slide 06.17 - Video timestamp

• Planck, Max - Slide 01.03 - Video timestamp

• Potential energy surface - Slide 19.08 - Video timestamp

• Potential energy surface - Slide 20.08 - Video timestamp

• Poynting effect - Slide 16.03 - Video timestamp

• Prausnitz, John M. - Slide 01.03 - Video timestamp

• Pressure retarded osmosis - Slide 14.11 - Video timestamp

• Pressure tensor - Slide 22.08 - Video timestamp

• Pressure capturing tendency for energy - Slide 06.06 - Video timestamp

• Pressure definition - Slide 02.42 - Video timestamp

• Pressure definition - Slide 03.14 - Video timestamp

• Pressure equality at mutual equilibrium - Slide 03.15 - Video timestamp

• Pressure for a single particle in a box - Slide 13.16 - Video timestamp

• Pressure measurement - Slide 05.18 - Video timestamp

• Pressure measurement - Slide 06.09 - Video timestamp

• Pressure mechanical versus thermodynamic - Slide 22.08 - Video timestamp

• Pressure mechanical versus thermodynamic - Slide 23.07 - Video timestamp

• Pressure mechanical versus thermodynamic - Slide 23.14 - Video timestamp

• Pressure vs force per unit area - Slide 05.19 - Video timestamp

• Pressure-volume diagram for a van der Waals fluid - Slide 09.30 - Video timestamp

• Pressure-volume diagram for water - Slide 09.29 - Video timestamp

• Prigogine Prize for Thermodynamics - Slide 21.13 - Video timestamp

• Prigogine Prize for Thermodynamics - Slide 25.27 - Video timestamp

• Prigogine, Ilya - Slide 01.03 - Video timestamp

• Prigogine, Ilya - Slide 21.13 - Video timestamp

• Prigogine, Ilya - Slide 23.38 - Video timestamp

• Prigogine, Ilya - Slide 25.28 - Video timestamp

• Primary energy savings in heat and power cogeneration - Slide 10.26 - Video timestamp

• Primary energy savings in hybrid solar-fossil power production - Slide 10.39 - Video timestamp

• Principal radii of interfacial curvature - Slide 04.20 - Video timestamp

• Principle of detailed balance - Slide 20.13 - Video timestamp

• Process definition - Slide 01.14 - Video timestamp

• Process definition - Slide 02.08 - Video timestamp

• Process reversible - Slide 02.08 - Video timestamp

• Product-favored reaction - Slide 18.12 - Video timestamp

• Properties of formation - Slide 18.09 - Video timestamp

• Properties of reaction - Slide 17.15 - Video timestamp

• Properties of reaction - Slide 18.05 - Video timestamp

• Property definition - Slide 01.11 - Video timestamp

• Property definition - Slide 02.05 - Video timestamp

• Property extensive - Slide 09.13 - Video timestamp

• Property extensive - Slide 22.12 - Video timestamp

• Property intensive - Slide 09.15 - Video timestamp

• Property of isothermobaric mixing - Slide 12.05 - Video timestamp

• Property specific - Slide 09.14 - Video timestamp

• Proportionality relations - Slide 17.14 - Video timestamp

• Proportionality relations - Slide 18.04 - Video timestamp

• Proportionality relations - Slide 19.03 - Video timestamp

• Pulsion work - Slide 08.21 - Video timestamp

• Pulsion work - Slide 22.23 - Video timestamp

• Pure substance properties of homogeneous SES's - Slide 09.20 - Video timestamp

• Pure substance properties of ideal gas SES's - Slide 09.22 - Video timestamp

• Pure substance properties of ideal incompressible SES's - Slide 09.21 - Video timestamp

• Pure substance properties of two-phase SES's - Slide 09.25 - Video timestamp

• Quantum Thermodynamics, Hatsopoulos and Gyftopoulos pioneers - Slide 01.05 - Video timestamp

• Quincke effect - Slide 23.15 - Video timestamp

• Quincke effect - Slide 24.02 - Video timestamp

• Radiation, energy and entropy of - Slide 10.43 - Video timestamp

• Radiation, energy and entropy of - Slide 24.05 - Video timestamp

• Ramsey, Norman F. - Slide 03.19 - Video timestamp

• Rankine, William J.M. - Slide 01.03 - Video timestamp

• Raoult's law - Slide 16.03 - Video timestamp

• Raoult's law - Slide 18.21 - Video timestamp

• Raoult's lawii - Slide 17.04 - Video timestamp

• Rational Extended Thermodynamics - Slide 25.24 - Video timestamp

• Rayleigh-Benard instability - Slide 23.36 - Video timestamp

• Reactant-favored reaction - Slide 18.12 - Video timestamp

• Reaction coordinates - Slide 17.14 - Video timestamp

• Reaction coordinates - Slide 18.04 - Video timestamp

• Reaction coordinates - Slide 19.03 - Video timestamp

• Reaction rate constants - Slide 20.11 - Video timestamp

• Reaction rate constants - Slide 20.15 - Video timestamp

• Reaction rates - Slide 20.11 - Video timestamp

• Reaction rates - Slide 20.15 - Video timestamp

• Reaction rates - Slide 21.03 - Video timestamp

• Reaction rates - Slide 21.05 - Video timestamp

• Real-estate energy-efficiency regulations - Slide 10.25 - Video timestamp

• Redlich-Kister binary mixture model - Slide 16.10 - Video timestamp

• Relative diffusive fluxes - Slide 24.06 - Video timestamp

• Relative diffusive fluxes - Slide 24.06 - Video timestamp

• Relative diffusive fluxes - Slide 25.03 - Video timestamp

• Relative volatility - Slide 16.05 - Video timestamp

• Reservoir: see Thermal reservoir - Slide 02.26 - Video timestamp

• Reuss effect - Slide 23.15 - Video timestamp

• Reuss effect - Slide 24.02 - Video timestamp

• Reverse electrodialysis - Slide 14.11 - Video timestamp

• Reversible combustion - Slide 18.28 - Video timestamp

• Reversible process criteria for a weight process - Slide 02.24 - Video timestamp

• Reversible process definition - Slide 02.21 - Video timestamp

• Reynolds theorem - Slide 22.09 - Video timestamp

• Righi-Leduc effect - Slide 21.18 - Video timestamp

• Rohsenow, Warren M. - Slide 22.05 - Video timestamp

• Savery, Thomas - Slide 10.19 - Video timestamp

• Scatchard binary mixture model - Slide 16.10 - Video timestamp

• Seawater desalination - Slide 14.10 - Video timestamp

• Second coefficient of viscosity - Slide 23.14 - Video timestamp

• Second law of Thermodynamics and the law of time evolution - Slide 01.13 - Video timestamp

• Second law of Thermodynamics Clausius statement - Slide 04.23 - Video timestamp

• Second law of Thermodynamics compatible compositions - Slide 19.04 - Video timestamp

• Second law of Thermodynamics for systems with chemical reactions - Slide 19.04 - Video timestamp

• Second law of Thermodynamics general statement - Slide 01.25 - Video timestamp

• Second law of Thermodynamics Hatsopoulos-Keenan statement - Slide 01.25 - Video timestamp

• Second law of Thermodynamics Hatsopoulos-Keenan statement - Slide 02.16 - Video timestamp

• Second law of Thermodynamics Hatsopoulos-Keenan statement - Slide 02.22 - Video timestamp

• Second law of Thermodynamics Hatsopoulos-Keenan statement for reacting systems - Slide 19.04 - Video timestamp

• Second law of Thermodynamics importance of second part - Slide 02.22 - Video timestamp

• Second law of Thermodynamics importance of second part - Slide 03.04 - Video timestamp

• Second law of Thermodynamics Kelvin-Planck statement - Slide 01.25 - Video timestamp

• Second law of Thermodynamics Kelvin-Planck statement - Slide 02.19 - Video timestamp

• Second law of Thermodynamics proof of Clausius statement - Slide 04.23 - Video timestamp

• Second law of Thermodynamics proof of Clausius statement - Slide 05.02 - Video timestamp

• Second law of Thermodynamics proof of generalized Clausius statement - Slide 22.22 - Video timestamp

• Second-law efficiency for a heat engine - Slide 05.13 - Video timestamp

• Second-law efficiency for a heat pump - Slide 05.15 - Video timestamp

• Second-law efficiency for a refrigerator - Slide 05.14 - Video timestamp

• Second-law efficiency general definition - Slide 08.31 - Video timestamp

• Second-law efficiency in heating and cooling of bulk flows - Slide 09.08 - Video timestamp

• Second-law efficiency of a thermoelectric generator - Slide 24.17 - Video timestamp

• Second-law efficiency of a thermoelectric generator - Slide 25.07 - Video timestamp

• Second-law efficiency of fuel-to-power conversion - Slide 11.14 - Video timestamp

• Second-law efficiency of fuel-to-power conversion technologies - Slide 10.17 - Video timestamp

• Seebeck effect - Slide 23.15 - Video timestamp

• Seebeck effect - Slide 24.02 - Video timestamp

• Seebeck effect - Slide 24.12 - Video timestamp

• Self diffusion - Slide 25.12 - Video timestamp

• Semipermeable membranes - Slide 11.35 - Video timestamp

• Semipermeable membranes - Slide 12.03 - Video timestamp

• Semipermeable membranes - Slide 12.15 - Video timestamp

• Semipermeable membranes - Slide 13.10 - Video timestamp

• Semipermeable membranes - Slide 15.07 - Video timestamp

• Shannon information entropy - Slide 13.12 - Video timestamp

• Shapiro, Asher H. - Slide 22.05 - Video timestamp

• Shear viscosity - Slide 23.14 - Video timestamp

• Sieniutycz, Stanislaw - Slide 23.27 - Video timestamp

• Sieniutycz, Stanislaw - Slide 23.34 - Video timestamp

• Silvestri, Mario - Slide 25.28 - Video timestamp

• Simple-system model and rarefaction effects near walls - Slide 08.13 - Video timestamp

• Simple-system model effect of inserting and removing partitions - Slide 08.13 - Video timestamp

• Simple-system model effect of inserting and removing partitions - Slide 09.05 - Video timestamp

• Simple-system model extension for reacting systems - Slide 19.10 - Video timestamp

• Simple-system model extension for reacting systems - Slide 20.03 - Video timestamp

• Simple-system model proof of Euler relation - Slide 08.15 - Video timestamp

• Simple-system model rarefaction effects near walls - Slide 08.08 - Video timestamp

• Simple-system model rarefaction effects near walls - Slide 09.03 - Video timestamp

• Simple-system model valid in the macroscopic limit - Slide 08.07 - Video timestamp

• Small scale hydrodynamics - Slide 25.24 - Video timestamp

• Small systems and Euler free energy - Slide 09.10 - Video timestamp

• Small systems definition of partial pressure - Slide 11.35 - Video timestamp

• Small systems general comments on the range of validity of thermodynamics - Slide 06.01 - Video timestamp

• Small systems minimum work of partitioning - Slide 09.10 - Video timestamp

• Small systems much of thermodynamics still holds - Slide 06.01 - Video timestamp

• Small systems properties of a pure substance - Slide 06.11 - Video timestamp

• Small systems properties of a pure substance - Slide 11.33 - Video timestamp

• Small systems properties of mixtures - Slide 06.11 - Video timestamp

• Small systems properties of mixtures - Slide 11.31 - Video timestamp

• Small systems properties of mixtures - Slide 11.37 - Video timestamp

• Small systems SES properties depend on n - Slide 09.09 - Video timestamp

• Small systems simple-system model (large n limit) - Slide 09.06 - Video timestamp

• Small systems vs large n limit - Slide 08.07 - Video timestamp

• Small systems vs large n limit - Slide 09.02 - Video timestamp

• Small systems vs large n limit - Slide 11.31 - Video timestamp

• Small systems vs large n limit - Slide 11.33 - Video timestamp

• Solar energy and solar entropy - Slide 10.43 - Video timestamp

• Solar energy and solar entropy - Slide 11.26 - Video timestamp

• Solar energy and solar entropy - Slide 24.05 - Video timestamp

• Solar radiation, energy and entropy - Slide 24.05 - Video timestamp

• Solubility gap - Slide 17.08 - Video timestamp

• Sommerfeld, Arnold - Slide 01.03 - Video timestamp

• Sonin, Ain A. - Slide 22.05 - Video timestamp

• Soret effect - Slide 23.15 - Video timestamp

• Soret effect - Slide 24.02 - Video timestamp

• Soret effect - Slide 25.15 - Video timestamp

• Specific heat for an incompressible substance - Slide 09.21 - Video timestamp

• Specific heats and degrees of freedom for ideal gases - Slide 09.22 - Video timestamp

• Specific property - Slide 09.14 - Video timestamp

• Speed of sound propagation - Slide 05.24 - Video timestamp

• Spin-Hall effect - Slide 24.19 - Video timestamp

• Spin-Nernst effect - Slide 24.19 - Video timestamp

• Spinodal curve in Margules one-parameter mixture model - Slide 17.07 - Video timestamp

• Spinodal curve in Van der Waals' fluid model - Slide 15.19 - Video timestamp

• Spinodal decomposition - Slide 15.21 - Video timestamp

• Spinodal decomposition - Slide 17.10 - Video timestamp

• Spin-Seebeck effect - Slide 24.20 - Video timestamp

• Spontanueous emission of photons - Slide 20.20 - Video timestamp

• Stability conditions and availability functions - Slide 06.22 - Video timestamp

• Stability conditions and availability functions - Slide 06.24 - Video timestamp

• Stability conditions and availability functions - Slide 07.14 - Video timestamp

• Stability conditions and availability functions - Slide 07.18 - Video timestamp

• Stability conditions and availability functions - Slide 07.20 - Video timestamp

• Stability conditions and availability functions - Slide 07.22 - Video timestamp

• Stability conditions and availability functions - Slide 07.24 - Video timestamp

• Stability conditions and LeChatelier-Braun principle - Slide 06.25 - Video timestamp

• Stability conditions and LeChatelier-Braun principle - Slide 07.16 - Video timestamp

• Stability conditions and LeChatelier-Braun principle - Slide 07.26 - Video timestamp

• Stability conditions for a partially miscible mixture - Slide 16.11 - Video timestamp

• Stability conditions for a partially miscible mixture - Slide 17.07 - Video timestamp

• Stable equilibrium state definition - Slide 01.24 - Video timestamp

• Stable equilibrium state for systems with chemical reaction - Slide 19.05 - Video timestamp

• Stable equilibrium state heterogeneous - Slide 09.16 - Video timestamp

• Stable equilibrium state homogeneous - Slide 09.16 - Video timestamp

• Stable equilibrium state properties depend on n, for small systems - Slide 09.09 - Video timestamp

• Stable equilibrium state properties of a pure substance (large n) - Slide 06.11 - Video timestamp

• Stable equilibrium state properties of a pure substance (large n) - Slide 11.34 - Video timestamp

• Stable equilibrium state properties of a pure substance (small n) - Slide 06.11 - Video timestamp

• Stable equilibrium state properties of a pure substance (small n) - Slide 11.33 - Video timestamp

• Stable equilibrium state properties of mixtures (large n) - Slide 06.11 - Video timestamp

• Stable equilibrium state properties of mixtures (large n) - Slide 11.32 - Video timestamp

• Stable equilibrium state properties of mixtures (small n) - Slide 06.11 - Video timestamp

• Stable equilibrium state properties of mixtures (small n) - Slide 11.31 - Video timestamp

• Standard reversible weight process - Slide 02.28 - Video timestamp

• State changes, law of time evolution - Slide 01.13 - Video timestamp

• State changes, law of time evolution - Slide 02.08 - Video timestamp

• State of a system definition - Slide 01.12 - Video timestamp

• State of a system definition - Slide 02.06 - Video timestamp

• State of a system equilibrium - Slide 01.22 - Video timestamp

• State of a system equilibrium - Slide 02.14 - Video timestamp

• State of a system metastable equilibrium - Slide 01.04 - Video timestamp

• State of a system metastable equilibrium - Slide 02.15 - Video timestamp

• State of a system nonequilibrium - Slide 01.22 - Video timestamp

• State of a system nonequilibrium - Slide 02.14 - Video timestamp

• State of a system representation on $E$-$S$ diagrams - Slide 03.18 - Video timestamp

• State of a system stable equilibrium - Slide 01.24 - Video timestamp

• State of a system stable equilibrium - Slide 02.15 - Video timestamp

• State of a system steady - Slide 01.22 - Video timestamp

• State of a system steady - Slide 02.14 - Video timestamp

• State of a system unstable equilibrium - Slide 01.24 - Video timestamp

• State of a system unstable equilibrium - Slide 02.15 - Video timestamp

• State of a system unsteady - Slide 01.22 - Video timestamp

• State of a system unsteady - Slide 02.14 - Video timestamp

• State principle - Slide 02.41 - Video timestamp

• State principle - Slide 03.11 - Video timestamp

• State principle in reacting systems - Slide 19.05 - Video timestamp

• Steepest entropy ascent a “great” principle from Nonequilbrium Thermodynamics - Slide 23.28 - Video timestamp

• Steepest entropy ascent abstract geometrical construction - Slide 23.29 - Video timestamp

• Steepest entropy ascent and the fourth law of Thermodynamics - Slide 23.25 - Video timestamp

• Steepest entropy ascent dissipation metric - Slide 23.19 - Video timestamp

• Steepest entropy ascent entropy production rate - Slide 23.31 - Video timestamp

• Steepest entropy ascent general evolution equation - Slide 23.32 - Video timestamp

• Steepest entropy ascent generalized overall degree of disequilibrium - Slide 23.31 - Video timestamp

• Steepest entropy ascent graphical illustration - Slide 23.21 - Video timestamp

• Steepest entropy ascent implies Onsager reciprocity - Slide 23.20 - Video timestamp

• Steepest entropy ascent in anisotropic heat conduction - Slide 23.19 - Video timestamp

• Steepest entropy ascent maximum entropy production rate principle - Slide 21.09 - Video timestamp

• Steepest entropy ascent model of relaxation toward SES - Slide 15.08 - Video timestamp

• Steepest entropy ascent nonequilibrium Massieu operator - Slide 23.31 - Video timestamp

• Steepest entropy ascent orthogonality condition - Slide 23.30 - Video timestamp

• Steepest entropy ascent variational statement - Slide 23.32 - Video timestamp

• Steepest entropy ascent versus GENERIC - Slide 23.33 - Video timestamp

• Steepest entropy ascent versus gradient flows - Slide 23.33 - Video timestamp

• Steepest-entropy-ascent time evolution towards stable equilibrium - Slide 13.15 - Video timestamp

• Stefan-Boltzmann constant - Slide 24.05 - Video timestamp

• Stevin, Simon - Slide 15.09 - Video timestamp

• Stimulated emission of photons - Slide 20.20 - Video timestamp

• Stoichiometry - Slide 17.14 - Video timestamp

• Stoichiometry - Slide 18.04 - Video timestamp

• Stoichiometry - Slide 19.03 - Video timestamp

• Stratification of air components in the atmosphere - Slide 15.09 - Video timestamp

• Stratification of gas and liquid charge carriers in an electric field - Slide 15.13 - Video timestamp

• Stratification of ideal gas and liquid mixtures - Slide 14.17 - Video timestamp

• Stratification of ideal gas and liquid mixtures in a centrifuge - Slide 15.11 - Video timestamp

• Stratification of ideal gas and liquid mixtures in a gravity field - Slide 15.08 - Video timestamp

• Stress tensor - Slide 22.08 - Video timestamp

• Surface tension and Young-Laplace equation - Slide 04.19 - Video timestamp

• Surprise - Slide 13.12 - Video timestamp

• Swenson, Rod - Slide 23.27 - Video timestamp

• System definition - Slide 01.09 - Video timestamp

• System definition - Slide 02.04 - Video timestamp

• System definition, for systems with chemical reactions - Slide 19.04 - Video timestamp

• System SES properties for small n - Slide 09.02 - Video timestamp

• System SES properties for small n - Slide 09.09 - Video timestamp

• System simple-system model for large n - Slide 08.08 - Video timestamp

• System small vs large n limit - Slide 08.07 - Video timestamp

• System small vs large n limit - Slide 09.02 - Video timestamp

• System small vs large n limit - Slide 11.31 - Video timestamp

• System with chemical reactions - Slide 17.12 - Video timestamp

• System with chemical reactions - Slide 18.03 - Video timestamp

• Temperature definition for a general SES - Slide 02.42 - Video timestamp

• Temperature definition for a general SES - Slide 03.14 - Video timestamp

• Temperature definition for a thermal reservoir - Slide 02.29 - Video timestamp

• Temperature definition for a thermal reservoir - Slide 03.05 - Video timestamp

• Temperature equality at mutual equilibrium - Slide 03.15 - Video timestamp

• Temperature escaping tendency for energy - Slide 06.05 - Video timestamp

• Temperature log-mean, in heating, cooling, boiling and condensing of bulk flows - Slide 10.10 - Video timestamp

• Temperature measurement - Slide 05.17 - Video timestamp

• Temperature measurement - Slide 06.08 - Video timestamp

• Temperature negative - Slide 03.19 - Video timestamp

• Temperature versus average kinetic energy - Slide 03.18 - Video timestamp

• Termodiffusion coefficient - Slide 25.14 - Video timestamp

• The bends (decompression sickness) - Slide 17.05 - Video timestamp

• Thermal conductivity Fourier law of thermal conduction - Slide 21.17 - Video timestamp

• Thermal conductivity of an anisotropic material - Slide 21.18 - Video timestamp

• Thermal diffusivity - Slide 20.21 - Video timestamp

• Thermal reservoir definition - Slide 02.26 - Video timestamp

• Thermal reservoir with fixed V and n - Slide 02.33 - Video timestamp

• Thermal reservoir with fixed V and n - Slide 06.20 - Video timestamp

• Thermal reservoir with fixed V and n - Slide 07.12 - Video timestamp

• Thermal reservoir with fixed V and variable n_i - Slide 07.19 - Video timestamp

• Thermal reservoir with variable V and n - Slide 06.19 - Video timestamp

• Thermal reservoir with variable V and n - Slide 07.21 - Video timestamp

• Thermal reservoir with variable V and fixed n - Slide 07.17 - Video timestamp

• Thermocouple - Slide 24.12 - Video timestamp

• Thermocouple - Slide 24.20 - Video timestamp

• Thermodiffusion effects - Slide 25.10 - Video timestamp

• Thermodynamics much of it applies also to modeling of small systems - Slide 06.01 - Video timestamp

• Thermodynamics of small systems - Slide 06.14 - Video timestamp

• Thermodynamics, what is it? - Slide 01.09 - Video timestamp

• Thermoelectric effects - Slide 24.07 - Video timestamp

• Thermoelectric effects - Slide 25.06 - Video timestamp

• Thermoelectric generator - Slide 24.13 - Video timestamp

• Thermometer - Slide 05.17 - Video timestamp

• Thermo-osmosis effect - Slide 25.08 - Video timestamp

• Thermo-osmotic permeability - Slide 25.09 - Video timestamp

• Thermophoresis - Slide 25.13 - Video timestamp

• Thermophoresis - Slide 25.16 - Video timestamp

• Thermophoresis - Slide 25.20 - Video timestamp

• Third law of Thermodynamics - Slide 03.16 - Video timestamp

• Third law of Thermodynamics - Slide 03.18 - Video timestamp

• Third law of Thermodynamics - Slide 03.19 - Video timestamp

• Thomson effect - Slide 24.18 - Video timestamp

• Time evolution towards stable equilibrium - Slide 13.15 - Video timestamp

• Total potentials definition - Slide 14.17 - Video timestamp

• Total potentials definition - Slide 15.13 - Video timestamp

• Total potentials in heat&diffusion interactions - Slide 22.24 - Video timestamp

• Total potentials in heat&diffusion interactions - Slide 22.25 - Video timestamp

• Total potentials in heat&diffusion interactions - Slide 23.03 - Video timestamp

• Total potentials in heat&diffusion interactions - Slide 24.04 - Video timestamp

• Touchette, Hugo - Slide 23.27 - Video timestamp

• Transition state - Slide 19.08 - Video timestamp

• Transport velocity for a generic extensive property - Slide 22.08 - Video timestamp

• Transport velocity for energy and entropy - Slide 22.08 - Video timestamp

• Transport velocity for mass, barycentric velocity - Slide 22.08 - Video timestamp

• Tribus, Myron - Slide 13.12 - Video timestamp

• Trigeneration - Slide 11.13 - Video timestamp

• Triple point of water - Slide 02.26 - Video timestamp

• UNIFAC mixture model - Slide 16.10 - Video timestamp

• UNIQUAC mixture model - Slide 16.10 - Video timestamp

• Unstable equilibrium state, definition - Slide 01.24 - Video timestamp

• Upper bounded vs unbounded energy spectrum - Slide 13.14 - Video timestamp

• Uranium enrichment in centrifuges - Slide 15.12 - Video timestamp

• Van der Waals p-V diagram - Slide 09.30 - Video timestamp

• Van der Waals cloud and bubble chambers - Slide 15.20 - Video timestamp

• Van der Waals forces vs covalent bonds - Slide 17.17 - Video timestamp

• Van der Waals forces vs covalent bonds - Slide 18.07 - Video timestamp

• Van der Waals isotherms and chemical potential - Slide 15.19 - Video timestamp

• Van der Waals liquid-vapor spinodal decomposition - Slide 15.21 - Video timestamp

• Van der Waals metastable and unstable states - Slide 15.19 - Video timestamp

• Van der Waals model for a pure substance - Slide 09.30 - Video timestamp

• Van der Waals model for a pure substance - Slide 15.18 - Video timestamp

• Van der Waals, Johannes - Slide 01.03 - Video timestamp

• Van Laar binary mixture model - Slide 15.14 - Video timestamp

• Van Laar binary mixture model - Slide 16.10 - Video timestamp

• Van Laar binary mixture model - Slide 16.14 - Video timestamp

• Van 't Hoff relation for osmotic pressure - Slide 14.05 - Video timestamp

• Van 't Hoff, Jacobus - Slide 01.03 - Video timestamp

• Velocity of transport for a generic extensive property - Slide 22.08 - Video timestamp

• Velocity of transport for energy and entropy - Slide 22.08 - Video timestamp

• Velocity of transport for mass, barycentric velocity - Slide 22.08 - Video timestamp

• Vibrational levels of the CO2 molecule - Slide 20.19 - Video timestamp

• Viscosity, second coefficient of - Slide 23.14 - Video timestamp

• Viscosity, shear vs bulk - Slide 23.14 - Video timestamp

• Viscous dissipation function - Slide 23.06 - Video timestamp

• Viscous dissipation function - Slide 23.07 - Video timestamp

• Viscous dissipation function - Slide 23.08 - Video timestamp

• Viscous dissipation function - Slide 23.09 - Video timestamp

• Volta effect - Slide 23.15 - Video timestamp

• Volta effect - Slide 24.02 - Video timestamp

• Volume of isothermobaric mixing - Slide 12.07 - Video timestamp

• Von Spakovsky, Michael R. - Slide 23.27 - Video timestamp

• Water desalination - Slide 14.10 - Video timestamp

• Watt, James - Slide 10.19 - Video timestamp

• Weight process criteria for reversibility - Slide 02.24 - Video timestamp

• Weight process criteria for reversibility - Slide 02.36 - Video timestamp

• Weight process criteria for reversibility - Slide 03.08 - Video timestamp

• Weight process definition - Slide 01.15 - Video timestamp

• Weight process definition - Slide 02.09 - Video timestamp

• Weight process standard reversible - Slide 02.28 - Video timestamp

• Weight process versus adiabatic process - Slide 05.04 - Video timestamp

• Wilson binary mixture model - Slide 16.10 - Video timestamp

• Wilson cloud chamber - Slide 15.20 - Video timestamp

• Wine, alcohol content - Slide 14.16 - Video timestamp

• Work interaction, definition - Slide 05.04 - Video timestamp

• Young-Laplace equation for surface tension - Slide 04.19 - Video timestamp

• Zanchini, Enzo - Slide 03.22 - Video timestamp

• Ziegler orthogonality relations - Slide 21.09 - Video timestamp

• Ziegler orthogonality relations - Slide 21.10 - Video timestamp

• Ziegler orthogonality relations - Slide 23.17 - Video timestamp

• Ziegler orthogonality relations - Slide 23.18 - Video timestamp

• Ziegler, Hans - Slide 01.03 - Video timestamp

• Ziegler, Hans - Slide 21.09 - Video timestamp

• Ziegler, Hans - Slide 21.10 - Video timestamp

• Ziegler, Hans - Slide 23.18 - Video timestamp

• Ziegler, Hans - Slide 23.27 - Video timestamp

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