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Finite Temperature Differences 11.3.2(passive) Caused byEntropy Generation
true perfect fluidity ... nonhydrodynamical microscopic degrees of freedomleadto entropy production
extra work ... irreversible processesleadto entropy production
irreversible processes within the system(passive) caused bythe entropy production
the motion of fluid and heat transfer(passive) caused byentropy generation
irreversibilities in the process(passive) caused byentropy production
the heat transfer in each isothermal process during the cycle(passive) caused bythe entropy production rate
heat transfer and the entropy generation caused by pressure loss(passive) caused byentropy generation
heat transfer loss on the initial portion of the power stroke(passive) caused byentropy generation
the irreversibilities of the oil flow through the permeable reservoir rock(passive) is caused bythe entropy production
Fluid Friction 11.4 Thermodynamic Irreversibility and Temperature Cross(passive) Caused byEntropy Generation
more undesirable heat transfer between one pass ( e.g. , top half 1001 ) and the other pass ( e.g. , bottom half 1002 ... the end of heat exchanger module 1026 near header 1092may causeentropy production
Flows of exergy during spontaneous reactionsresultin entropy production
an energy flow ... in turnscausesproduction of entropy
a nonequilibrium statecausesentropy generation
a collisioncausesentropy generation
the mechanismscausingentropy generation
the irreversible influence of heat and mass transfer of nanofluid and viscous dissipation of the considered liquid(passive) caused byEntropy generation
heating jEcontributeto the entropy production
These microscopic fluxes ,resultingin entropy production
that are maintained far from TE dissipate energyresultingin entropy production
irreversible energy dissipa tion(passive) caused byThe entropy production
which converts kinetic energy into heatresultingin entropy production
of the time integral of the instantaneous steady entropy production rate and the excess entropy production(passive) is composedThe average entropy production
dissipation of exergyresultingin entropy production
Ohmic heating and classical heat conduction under the constraint that momentum and energy balance be conserved(passive) caused bythe entropy production
the nonequilibrium flux in the system(passive) caused byentropy production
the driving force(passive) can be influenced bythe entropy production
the deterioration path of the component(passive) caused byentropy generation
Chemical potential gradientswill also causeentropy production
mechanical , chemical , radioactive and electrical process contributions , which must be positive or zero according to the second law of thermodynamics(passive) caused bythe entropy production
chemical reactions and mass transfer(passive) caused bythe entropy production rate
When the wavelength falls below the damping scale kD-1 , the acoustic modes diffuse and thermalizecausingentropy production
parameters in constitutive relationsinfluencethe entropy production
an interaction quench of few dipolar bosons in an external harmonic trap(passive) triggered byentropy production
the multiple zone simulationresultedin less entropy production
fluctuations around the minimum potential energy of inflaton(passive) is caused byThe entropy production
If CPT - Parity is a constant of nature , then you have n't explainedcausesentropy production
mechanical workresultingin entropy production ( dissipation
the unusually high energy with which the molecules impact each othercausesthe production of entropy
in a loss of information of propagating wavesresultsin a loss of information of propagating waves
to lost work.)[2][2leadsto lost work.)[2][2
to lost work.)2 Occasionallyleadsto lost work.)2 Occasionally
from the nonequilibrium conditions arising due to the exchange of energy within the fluidresultsfrom the nonequilibrium conditions arising due to the exchange of energy within the fluid
from the resistance of heat - transferring fluids to flowresultingfrom the resistance of heat - transferring fluids to flow
from a bath with infinite temperatureoriginatingfrom a bath with infinite temperature
to an increase of entropy when the energy is transferred from one system ( a ) with high temperature ( i.e. low entropy ) to another system ( b ) with low temperature ( i.e. high entropyleadsto an increase of entropy when the energy is transferred from one system ( a ) with high temperature ( i.e. low entropy ) to another system ( b ) with low temperature ( i.e. high entropy
from natural convective heat transfer in square enclosures with local heating of the bottom and symmetrical cooling of the sidewallsresultingfrom natural convective heat transfer in square enclosures with local heating of the bottom and symmetrical cooling of the sidewalls
from viscous fluid effects and heat transferresultingfrom viscous fluid effects and heat transfer
from imperfect gate operation ΔS∼EPG , where EPG is the error per gateresultingfrom imperfect gate operation ΔS∼EPG , where EPG is the error per gate
from irreversible moist processes increases at a similar fractional rate as the entropy sink and at a lower rate than that implied by Clausius - Clapeyron scalingresultingfrom irreversible moist processes increases at a similar fractional rate as the entropy sink and at a lower rate than that implied by Clausius - Clapeyron scaling
from the heat transfer between the working substance and the heat reservoir in each isothermal processoriginatingfrom the heat transfer between the working substance and the heat reservoir in each isothermal process
from heat transfer accompanying phase changeresultingfrom heat transfer accompanying phase change
from cell destructionresultingfrom cell destruction
from maintenance and growth processesresultingfrom maintenance and growth processes
limitations on the statistics of dissipated heat in the cellssetslimitations on the statistics of dissipated heat in the cells
from the respiration of carbohydratesresultingfrom the respiration of carbohydrates
a transitory phase(passive) created bya transitory phase
forecausedfore
design structures to evolve in order to maximize flowcausesdesign structures to evolve in order to maximize flow
from its effortsresultsfrom its efforts
to the genesis of information systemsleadingto the genesis of information systems
in the best performanceresultingin the best performance
from irreversible processes inside the system ( i.e. Sirrevresultingfrom irreversible processes inside the system ( i.e. Sirrev
from an ideal gas second - order reaction taking place in a closed systemoriginatedfrom an ideal gas second - order reaction taking place in a closed system
to an increase of stabilityleadsto an increase of stability
from internal irreversible processesresultingfrom internal irreversible processes
to overheating in the nanostructures ... which is why it is important to get more information on their heat transmission propertiesleadsto overheating in the nanostructures ... which is why it is important to get more information on their heat transmission properties
from the area with higher blade loading ( IIoriginatingfrom the area with higher blade loading ( II
the physical time scale(passive) is set bythe physical time scale
from the rate of workresultingfrom the rate of work
from the heat absorbed by the system from the thermal bathresultingfrom the heat absorbed by the system from the thermal bath
the cell to a sequence of defined stages , Mechleadingthe cell to a sequence of defined stages , Mech
from combined effects of velocity and temperature gradientsresultingfrom combined effects of velocity and temperature gradients
a person to support one economic theory over anothershould leada person to support one economic theory over another
to agingleadsto aging
in a better selection of the best forecast simulation from an ensemble of weather prediction simulations ( Tapiador and Gallardo 2006could also resultin a better selection of the best forecast simulation from an ensemble of weather prediction simulations ( Tapiador and Gallardo 2006