So we were told that a certain amount of glucose is burned in a constant volume calorie meter, and we're supposed to find how much heat is evolved per mole, given the temperature rise of the water and the bomb of the Kalorama. So we know that the heat that is released or evolved by the glucose must be equal to the heat of the water as well, or in addition to the heat of the bomb. And so first, let's find the heat that is absorbed by the bomb. So are changing. Temperature is 25 0.2 to minus are 21.7, and we multiply that by the given heat capacity, which is 650. Google's per Kelvin. And so, using this, we can find that the heat absorbed by the bomb is 2000 288. Jules and we can do the same thing for the water. We know that queues equal to emcee times, Delta T mass specific eat and change in temperature. And so if we're told that there's 575 grams of water, of course, times are specific. It of water, which is 4.184 And that is Jules Per Gram Kelvin and our change in temperature, which is the same as the last, just 3.52 degrees Celsius. And that gives us times 4.4 in times 575 8000 468 jewels making our total of this plus this 10,756 jewels. And using this, we just have to divide by the the most of glucose. So we confined how much heat Permal of glucose is involved. So to do that, we just have to divide our sample of 0.6 92 grams of glucose over the molar mass of glucose. It just happens to be 180 0.2 grams per mole. Adding up all the individual more masses of glucose, which is C six h 12 06 Our grams are going to cancel here, and we will be left with our answer of 0.0 three 84 moles, you know we have to do is divide our heat 10,756 duels. Or we can equate this to kill a jewels by dividing it by 1000 which I will do it quickly. 10.756 killer jewels. We can divide this by our most his 0.38 for Morse. And we can get our final answer of 2000 800 and one killer jewels. Permal, let me fix it. That kill. Oh, really quickly. And there you have.