Answer:
In order to grow a plant one should first look and compare the climate of the local environment in which the plant grows with the climate in which the person is planning to grow the plant. Thus, in the given case, Becky should do more examinations on the kind of environment and the kind of soil in which the flower is grown generally. By finding the kind of soil, one should perform some brisk assessment on the structure and composition of the soils that will permit one to find that whether or not the planting location is suitable for the growth of the flower.
(2) The block gains heat from the water until both are at 90.0°C.
(3) The water loses heat and the block gains heat until both are at the same temperature that is between 10.0°C and 90.0°C.
(4) The water gains heat and the block loses heat until both are at the same temperature that is between 10.0°C and 90.0°C.
Heat transfers from the water to the copper block until both reach an equilibrium temperature.
The transfer of heat in this system can be described by (4) The water gains heat and the block loses heat until both are at the same temperature that is between 10.0°C and 90.0°C.
This is because heat always flows from the object with higher temperature to the object with lower temperature. In this case, the water at 90.0°C has a higher temperature than the copper block at 10.0°C. As a result, heat will transfer from the water to the copper block, causing the water to cool down and the copper block to heat up. Eventually, both objects will reach an equilibrium temperature somewhere between 10.0°C and 90.0°C.
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Answer:
The answer to your question is m = 52.22 g
Explanation:
Data
mass of Cu = ?
Energy = 2653.8 J
temperature 1 = 155°C
temperature 2 = 23°C
Specific heat = 0.385 J/g°C
To calculate the mass of Copper, use the formula of specific heat and solve it for mass.
Formula
Q = mC(Temperature 2 - Temperature 1)
Solve for m
m = Q / C (Temperature 2 - Temperature 1)
Substitution
m = 2653.8 / 0.385(23 - 155)
Simplification
m = 2653.8 / 0.385(132)
m = 2653.8 / 50.82
Result
m = 52.22 g
Answer:
The mass of the copper is 53.22 grams
Explanation:
Step 1: Data given
Energy = 2653.8 J
Initial temperature = 155 °C
Final temperature = 23°C
Specific heat of copper = 0.385 J/ g°C
Step 2: Calculate mass of copper
Q = m*c*ΔT
⇒ with Q = the energy = 2653.8 J
⇒ with m = the mass of copper = TO BE DETERMINED
⇒ with c= The specific heat of copper = 0.385 J/g°C
⇒ΔT = The difference in temperature = T2 - T1 = 23 - 155 = -132°C
2653.8 J = m * 0.385 J/g°C * 132 °C
m = 2653.8 / (0.385*132)
mass of copper = 52.22 grams
The mass of the copper is 53.22 grams
(2) only hydrogen ions in solution
(3) hydrogen ions as the only positive ions in solution
(4) hydrogen ions as the only negative ions in solution
Answer: (3) hydrogen ions as the only positive ions in solution
Explanation: Arrhenius acids are substances which dissociate in water to give ions.
For example: is an Arrhenius acid.
Arrhenius bases are substances which dissociate in water to give ions.
For example: is an Arrhenius base.
Density
Mass
Gravity