Answer:
0.64 J/g-K
Explanation:
Solving this question relies on the relization that both blocks receive the same amount of energy but of course their temperature cannot rise by the same amount even if you had the same mass of both because they have different specific heat capacities.
amount of energy received by block 1 = amount of energy received by block 2
specific heat of block 1 * ΔT of block 1 = specific of block 2 * ΔT of block 2
C * 3 = 0.24 * 8
C = 0.64 J/g-K
Hello there!
Hydrogen has one proton because the number of protons in an atom is equal to the atomic number of the element. S ince hydrogen's atomic number is 1, it has one proton.
I hope that's help !
Answer:1
Explanation:
hydrogen only has 1
According to periodic trends, bismuth has the greatest atomic radius.
The reactant surface area increases.
The reaction rate decreases.
The reaction is not affected at all.
The reaction stops completely.
Answer:
The increase in pressure alters the equilibrium of the reaction. In this case, the number of gaseous products in the reactant side is zero while the product side contains 1 gaseous product. The increase in pressure favors the side with less number of gaseous molecules which is the reactant side. Hence, the reaction rate decreases.
Explanation:
(Relative atomic mass: S=32,0=16)
(A) 0.56 g
B) 5.6 g
(C) 56 g
C) 560g
The mass of oxygen gas contains the same number of moles as 56g of sulphur is 56g
Calculation,
Number of moles of sulphur = given mass/ molar mass of sulphur
Number of moles of sulphur = 56/ 32 moles
Number of moles of sulphur = 1.75 moles
According to question,
Number of moles of sulphur = Number of moles of oxygen(O2)
So, Let mass of oxygen be X.
Number of moles of oxygen = X/16×2 = 1.75 moles
Mass of oxygen (X) = 1.75×16×2 grams
Mass of oxygen (X) = 56 grams
The 6.022×1023 of chemical species like an electrons, molecules atoms, ions etc is called moles
To learn more about moles here.
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Answer:
C. 56 g
Explanation:
56 g S (1 mol S/ 32 g) = 1.75 mol S
1.75 mol O2 (32 g/ 1 mol O) = 56 g O2
c. cohesion energy
b. activation energy
d. chemical energy