The equation for specific heat capacity allows you to work out the energy produced. If the value in J or kJ is positive then the reaction is exothermic, because it produced an excess of energy. If the value is negative then of course it's endothermic, because it requires an input of energy, so that the reaction even takes place.
Generally, no. Specific heat has to do with thermodynamics, which is an equilibrium science. Thermal conductivity deals with the transport of heat (i.e., how quickly it can absorb) vs. how much it can absorb for heat capacity. No formal connection has been made yet, though there is some promise in the realm of nonequilibrium thermodynamics, which deals with the transport of material properties using some of the basic thermodynamic approaches and assumptions. This has yet to be extended to open systems, however, so most of the advances have nothing to do with real scenarios.
In statistical mechanics, the heat capacity is proportional to the variance of the internal energy of a system, so if a system fluctuates about its equilibrium value to a higher extent (due to lower energy level differences), then it will have a higher heat capacity, as more of its energy levels can be filled up. Potentially, this could lead to a connection between the heat transfer, as when higher energy levels are more easily accessed, the heat transfer rate should increase as well, since more perturbations/fluctuations through the system should facilitate this. Like I said, though, no formal connection has yet to be made. Perhaps you are the one to do it!
specific heat is directly proportional to heat capacity
inversly proportional to each other
Changes of: density, viscosity, boiling point, freezing point, electrical conductivity, thermal conductivity, compressibility, etc.
The thermal conductivity of sodium chloride is 6,5 W/m.K at 25 0C.
Mass and volume
The viscosity of melted uranium at approx. 1200 0C is approx. 6 centipoise.
The thermal conductivity of beryllium is 200 W/m.K.
Examples are: density, thermal conductivity, refractive index, viscosity.
Examples are: density, thermal conductivity, refractive index, viscosity.
Examples are: density, thermal conductivity, refractive index, viscosity.
James Torrance Ritchie Watson has written: 'Thermal conductivity of gases in metric units' -- subject(s): Rare Gases, Tables, Thermal conductivity 'Viscosity of gases in metric units' -- subject(s): Tables, Viscosity
Examples: density, viscosity, hardness after drying, adhesivity, thermal and electrical conductivity, etc.
Examples: density, viscosity, hardness after drying, adhesivity, thermal and electrical conductivity, etc.
The ratio between the kinematic viscosity and the thermal diffusivity is called the Prandtl Number.
Prandtl number is dimensionless number, denoted by Npr.Npr = Cp (viscosity)/(thermal conductivity) Cp - specific heat, J per ( Kg Kelvin) viscosity in poise (gm per( cm sec)) thermal conductivity in Watt per (meter kelvin) Prandtl number is important in heat transfer.
Changes of: density, viscosity, boiling point, freezing point, electrical conductivity, thermal conductivity, compressibility, etc.
The thermal conductivity of boron is 27.4
Thermal conductivity is a Physical property
Superfluidity is a state of matter. When some gases are cooled to near 0 degrees Kelvin, they become superfluid. In this state they have zero viscosity because the viscosity of gases increases with temperature. They have zero entropy because they have infinite thermal conductivity and there is no thermal transfer from high temperature regions to low temperature regions. Viscosity is the resistance of a fluid to flow, honey has a higher viscosity than water. Entropy states that thermal energy travels from hot to cold. Infinite thermal conductivity means there cannot be a difference in temperature in the superfluid because any change is instantaneous throughout the entire sample.