This sounds suspiciously like statistical thermodynamics, a graduate-level chemistry/physics class. You're probably best off consulting a good text, like McQuarrie's Statistical Thermodynamics.
The average translational kinetic energy of particles in a plasma is 3kT/2, i.e. the equation for kinetic energy of plasma particles is the same as any other form of matter. In this respect, a plasma is not significantly different from a gas. The average kinetic energy is directly proportional to the temperature. In a real sense, kinetic energy at the molecular level and temperature at the macro level are the same thing; quantities like the universal gas constant (R) and Boltzman's constant (k) can be viewed as simply unit conversion factors between degrees and joules.
There is no simple answer to how temperature is defined at the microscopic level. However, though this is not entirely accurate, it helps to think of temperature as the average kinetic energy of the particles.
Annual Average Temperature (F): 76.4 Annual Average High Temperature (F): 85.9 Annual Average Low Temperature (F): 69.1 Annual Average Precipitation (in): 43.9
The average temperature is 5400 ºF (3000ºC),
the average temperature on Neptune is -200 degrees Celsius, or -328 degrees Fahrenheit.
Temperature.
no, temperature is one form of energy, heat.
Directly proportional-- If average KE increases, temperature increases, and vice versa.
The kinetic energy of a single gas molecule is not proportional to anything. The average kinetic energy of gas molecules is proportional to their absolute temperature.
The kinetic energy of a single gas molecule is not proportional to anything. The average kinetic energy of gas molecules is proportional to their absolute temperature.
Temperature is a measure of the average kinetic energy of an object. This is proportional to how quickly the particles move.
The average translational kinetic energy of a monotomic atom is directly proportional to the thermodynamic temperature of the atom. E=1.5 (kT) where k = the Boltzman Constant where T = The Thermodynamic Temperature in Kelvin since it is the average kinetic energy is applied... 0.5mv2 = 1.5kT T = (mv2)/3k where m is the mass of the atom and v is the speed of the particle. Thus, the thermodynamic temperature is proportional to the square of the velocity.
This will surely depend on how hot, or how cold. Convert the temperatures to absolute temperatures (Kelvin), then, assuming that the temperature is related to a great extent to the kinetic energy of the particles, the temperature would be proportional to the kinetic energy, or: the temperature is proportional to the square of the average particle speed. For example, under these assumptions, a 10% increase (factor 1.1) in the average particle speed would correspond to a 21% (factor 1.21) increase in the absolute temperature.
As an object is heated, the rate of increase in temperature is proportional to the rate of heat added. The proportionality is called the heat capacity. Because the heat capacity is actually a function of temperature in real materials, the total amount of energy added will be equal to the integral of the heat capacity function over the interval from the initial temperature to the final temperature. If you just assume an average heat capacity over the temperature range, then the rise in temperature will be exactly proportional to the amount of heat added.
Thermodynamic temperature (absolute temperature) is proportional to the averagekinetic energy of particles in "gases". An increase in temperature will increase theaverage kinetic energy of the particles of the gas and at the same time the particle'skinetic energy distribution gets broader.If pressure of the gas is kept constant, the gas expands (increases its volume).If the volume of the gas is kept constant, the gas pressure increases.
This is the thermodinamic scale (Kelvin scale).
As an object is heated, the rate of increase in temperature is proportional to the rate of heat added. The proportionality is called the heat capacity. Because the heat capacity is actually a function of temperature in real materials, the total amount of energy added will be equal to the integral of the heat capacity function over the interval from the initial temperature to the final temperature. If you just assume an average heat capacity over the temperature range, then the rise in temperature will be exactly proportional to the amount of heat added.