Assertion: calorimeter's heat | /r/HasProperty | absorbed by the solution
Facets:
value: as an example
type: OTHER
value: in other words
type: OTHER
value: entirely
type: DEGREE
Source sentences:
text: For example, when an exothermic reaction occurs in solution in a calorimeter, the heat produced by the reaction is absorbed by the solution, which increases its temperature.
text: Next, we know that the heat absorbed by the solution depends on its specific heat, mass, and temperature change: [latex]{q}_{\text{solution}}={\left(c\times m\times
text: For example, when an exothermic reaction occurs in solution in a calorimeter, the heat produced by the reaction is absorbed by the solution, which increases its temperature.
text: Next, we know that the heat absorbed by the solution depends on its specific heat, mass, and temperature change: [latex]q_{\text{solution}} = (c \times m
text: The temperature of the solution increased because heat was absorbed by the solution (q > 0).
text: We can calculate the amount of heat absorbed by the solution or the amount of heat removed from the solution with the following equation:
text: For example, when an exothermic reaction occurs in solution in a calorimeter, the heat produced by the reaction is absorbed by the solution, which increases its temperature.
text: Next, we know that the heat absorbed by the solution depends on its specific heat, mass, and temperature change: \({q}_{\text{solution}}={\left(c\phantom{\rule{0.2em}{0ex}}×\phantom{\rule{0.2em}{0ex}}m\phantom{\rule{0.2em}{0ex}}×\phantom{\rule{0.2em}{0ex}}\text{Δ}T\right)}_{\text{solution}}\)
text: In other words, the heat produced by the reaction, q rxn , is entirely absorbed by the solution; it does not escape the calorimeter.
text: For example, when an exothermic reaction occurs in solution in a calorimeter, the heat produced by the reaction is absorbed by the solution, which increases its temperature.
text: Next, we know that the heat absorbed by the solution depends on its specific heat, mass, and temperature change: [latex]{q}_{\text{solution}}={\left(c\times m\times
text: For example, when an exothermic reaction occurs in solution in a calorimeter, the heat produced by the reaction is absorbed by the solution, which increases its temperature.
text: Next, we know that the heat absorbed by the solution depends on its specific heat, mass, and temperature change: \[q_\ce{solution}=(c×m×ΔT)_\ce{solution}
text: For example, when an exothermic reaction occurs in solution in a calorimeter, the heat produced by the reaction is absorbed by the solution, which increases its temperature.
text: Next, we know that the heat absorbed by the solution depends on its specific heat, mass, and temperature change: q solution =
text: The temperature of the solution increased because heat was absorbed by the solution (q > 0).
text: As an example, the heat produced by exothermic reactions in calorimeters is absorbed by the solution, which raises its temperature.
text: For example, when an exothermic reaction occurs in solution in a calorimeter, the heat produced by the reaction is absorbed by the solution, which increases its temperature.
text: Next, we know that the heat absorbed by the solution depends on its specific heat, mass, and temperature change: [latex]{q}_{\text{solution}}={\left(c\times m\times
text: For example, when an exothermic reaction occurs in solution in a calorimeter, the heat produced by the reaction is absorbed by the solution, which increases its temperature.
text: Next, we know that the heat absorbed by the solution depends on its specific heat, mass, and temperature change: