Answer:
AgNO3 + NaOH = AgOH + NaNO3.
Explanation:
<em><u>Balancing Strategies: In this reaction, the products are initially NaNO3 + AgOH. However the AgOH would break down into Ag2O and H2O. This would give us NaNO3 + Ag2O + H2O as our products for the overall reaction.</u></em>
<em><u>Balancing Strategies: In this reaction, the products are initially NaNO3 + AgOH. However the AgOH would break down into Ag2O and H2O. This would give us NaNO3 + Ag2O + H2O as our products for the overall reaction.However, the equation balanced here is the initial reaction which produces AgOH and NaNO3.</u></em>
The answer would be
A) synthesis
Answer:
T=34.20 °C
Explanation:
The formula given by the problem is
ρ= 1.5794 - 1.836*10⁻³ *(T-15)
ρ is density (in g/mL), and T is temperature (in °C).
To solve the problem we use a ρ of 1.543 g/mL and solve the equation for T:
1.543 = 1.5794 - 1.836*10⁻³ *(T-15)
0.0364 = 1.836*10⁻³ *(T-15)
19.1983=T-15
T=34.20 °C
Increasing reaction temperature increased the kinetic energy in the system. In fact, the <em>measurement of</em> <em>temperature </em>indirectly relates the relative amount of kinetic energy in a system.
An increase in kinetic energy results in more rapid and forceful molecular collisions, thereby increasing the rate of molecular interactions (and in a fixed-volume system, the pressure increases as well!). Hence, the reaction can occur more quickly.
Answer:
Explanation:
You have an acid that is acidic or a base that is basic. When you mix the two, they form water (assuming those are bronsted-lowry acids and bases) which is neutral.
