Is the same as the mass of the particles and be then Yes, of course. So we know that the average kinetic energy in A has to be higher. Well, what we are interested here is in the uh velocity of the particles. That equation is E equals one half and the squared. Well, let's remember the equation for the kinetic energy of a particle. And next we uh the last statement is whether the molecules in A can be moving faster than those and be and whether they can uh whether they have to and whether they can. So this is our first uh statements which has to be true no matter what. Is higher, that means that by definition the average kinetic energy of the particles has to be higher. So since we know that the temperature of A. Well, we remember that the definition of the temperature of a gas is just that it's the average kinetic energy of particles of the gas. Um So we know that A and B can contain different types of uh different types of gas, but I don't have to and um yeah, the next statement is uh whether the molecules in the in box A can or have to have on average more kinetic energy than those in B. Um uh this equation could still work even if the two bosses containing some types of gases, uh even if the pressures are the exact same or the number of particles are the exact same. We know that the temperature in A is higher as we've been through before. Oh, this could still work if uh if for example, the temperature and A. Is this necessary? However well, um if A and B contain the exact same type of gas. Um uh huh That your gas a theoretical concepts and there exists a different theoretical visual gases now. Third statement is whether A and B could contain different types of gas and yeah, this is entirely possible. So once again with and it's possible, but it's not necessary. That and will be lower in A because we have a higher temperature and for the situation to work then we would get a lower end. Is not 1000 times higher than temperature and be um That would mean that uh in order for this, uh both of these equations to work, we need this pen to be higher in a however, it's also possible if for example, the pressures are the exact same. So for example, if I say our pressure here is like 1000 times higher than the pressure and be then that would mean because our temperature and A. Um Second statement is the same thing but for the number of politics for n well, yeah, well if there is a much much much higher pressure in A than there isn't be then that would also uh force and to be hired. All right, let's take a look at the second statement. That it's entirely possible that the pressure in A will not be higher than the pressure and be so the pressure can be higher but it doesn't have to. However, if for example the number of particles is significantly lower in A. Then pressure will have to be higher in order for this equation to work. So if for example the number of particles in A is the exact same as the number of particles in B. Now let's take a look um whether the pressure in A can be higher than the pressure and be well we know that the temperature is higher. So it's also equal across these two equations. And the volume and V are equal and are is a constant. And are not colored is because we know that the volume and A. Is temperature um and everything and now in different colours here for A. The MKT is widely used in the pharmaceutical industry.Equals NRT ps pressure views volume and the number of particles or is the gas constant and T. Mean kinetic temperature ( MKT) is a simplified way of expressing the overall effect of temperature fluctuations during storage or transit of perishable goods.

Mean kinetic temperature definition