Assertion: calorimeter | /r/CapableOf | prevent heat transfer
Facets:
value: between the solution
type: TRANSITIVE-OBJECT
Source sentences:
text: Answer We assume that the calorimeter prevents heat transfer between the solution and its external environment (including the calorimeter itself), in which case: [latex]{q}_{\text{rxn}}=-{q}_{\text{soln}}[/latex] with “rxn” and “soln” used as shorthand for “reaction” and “solution,” respectively.
text: Show Answer 1.33 kJ; assume that the calorimeter prevents heat transfer between the solution and its external environment (including the calorimeter itself) and that the specific heat of the solution is the same as that for water
text: We assume that the calorimeter prevents heat transfer between the solution and its external environment (including the calorimeter itself), in which case: [latex]q_{\text{rxn}} = -q_{\text{soln}}[/latex] with “rxn” and “soln” used as shorthand for “reaction” and “solution,” respectively.
text: Answer: 1.33 kJ; assume that the calorimeter prevents heat transfer between the solution and its external environment (including the calorimeter itself) and that the specific heat of the solution is the same as that for water
text: We assume that the calorimeter prevents heat transfer between the solution and its external environment (including the calorimeter itself), in which case: \({q}_{\text{rxn}}=\text{−}{q}_{\text{soln}}\) with “rxn” and “soln” used as shorthand for “reaction” and “solution,” respectively.
text: Answer: 1.33 kJ; assume that the calorimeter prevents heat transfer between the solution and its external environment (including the calorimeter itself) and that the specific heat of the solution is the same as that for water
text: We assume that the calorimeter prevents heat transfer between the solution and its external environment (including the calorimeter itself), in which case: [latex]{q}_{\text{rxn}}=\text{-}{q}_{\text{soln}}[/latex] with “rxn” and “
text: Answer: 1.33 kJ; assume that the calorimeter prevents heat transfer between the solution and its external environment (including the calorimeter itself) and that the specific heat of the solution is the same as that for water
text: We assume that the calorimeter prevents heat transfer between the solution and its external environment (including the calorimeter itself), in which case: \[q_\ce{rxn}=−q_\ce{soln}\] with “rxn” and “
text: Answer 1.33 kJ; assume that the calorimeter prevents heat transfer between the solution and its external environment (including the calorimeter itself) and that the specific heat of the solution is the same as that for water.
text: We assume that the calorimeter prevents heat transfer between the solution and its external environment (including the calorimeter itself), in which case: q rxn = − q soln q rxn = − q soln with “rxn” and “
text: Answer: 1.33 kJ; assume that the calorimeter prevents heat transfer between the solution and its external environment (including the calorimeter itself) and that the specific heat of the solution is the same as that for water
text: Answer We assume that the calorimeter prevents heat transfer between the solution and its external environment (including the calorimeter itself), in which case: [latex]{q}_{\text{rxn}}+{q}_{\text{solution}}=0[/latex] [latex]{q}_{\text{rxn}}=-{q}_{\text{soln}}[/latex]
text: Show Answer 1.33 kJ; assume that the calorimeter prevents heat transfer between the solution and its external environment (including the calorimeter itself) and that the specific heat of the solution is the same as that for water
text: We assume that the calorimeter prevents heat transfer between the solution and its external environment (including the calorimeter itself), in which case:
text: 1.33 kJ; assume that the calorimeter prevents heat transfer between the solution and its external environment (including the calorimeter itself) and that the specific heat of the solution is the same as that for water