using ( ∂f/∂t)cryst = – c · fmelt · ∂Tnorm/∂t , where c is a mineral - dependent rate parameter(passive) was setCrystallization rate
largely(passive) can be ... influencedThe crystallization rate
molecular structure(passive) is ... influenced bythe crystallization rate
the neighbouring Ni sources(passive) is ... influenced byThe crystallization rate
irregularities in the surface of the receiving mediummay influencethe crystallization rate
the decrease in Ts under higher humidity conditions(passive) caused bythe crystallization rate
The thermal strain energycan influencethe crystallization rate
convection and agitation / mixing through rotation mechanism as well(passive) is influenced bycrystallization rate
including the talc(passive) caused bythe crystallization rate
thermal disturbance by regulation of a first heating source(passive) triggered bycrystallization rate
in porous morphologyresultingin porous morphology
the addition of crystal molecules to the surface , which is necessary for their normal formationpreventthe addition of crystal molecules to the surface , which is necessary for their normal formation
to significant amorphous regionsleadingto significant amorphous regions
in the formation of the large spherulitesresultsin the formation of the large spherulites
the type of rock 1influencesthe type of rock 1
to loss of cryoprotectantleadingto loss of cryoprotectant
in a faster programming speedresultsin a faster programming speed
in a desired degree of crystallizationresultsin a desired degree of crystallization
in the formation of heterogenous and large sized nanoparticlesresultingin the formation of heterogenous and large sized nanoparticles
in a smaller surface area on which adsorption of organic matter took placeresultedin a smaller surface area on which adsorption of organic matter took place
to a difference of a reflection coefficientleadingto a difference of a reflection coefficient