It's inertia. Inertia is the force that resists change in motion, like the planets and gravity. Inertia is effected by gravity
Answer:
1.52M in NaCl
Explanation:
Molarity = moles solute / volume solution in Liters
=> molarity (M) = 3.8 moles / 2.5 Liters solution = 1.52 molar solution in NaCl
Answer:Acids taste sour, react with metals, react with carbonates, and turn blue litmus paper red. Bases taste bitter, feel slippery, do not react with carbonates and turn red litmus paper blue.
Explanation:
- Sour taste (though you should never use this characteristic to identify an acid in the lab)
- Reacts with a metal to form hydrogen gas.
- Increases the H+ concentration in water.
Answer:
The answer to your question is: 0.0265 moles of H3PO4
Explanation:
Data
[H3PO4] = ?
Volume Ba(OH)2= 0.186 l
[Ba(OH)2] = 0.214 M
Equation
2H3PO4 (aq) + 3 Ba(OH)2 (aq) ---> 6H2O (l) + Ba3(PO4)2 (s)
Process
Molarity = moles / volume
moles = Molarity x volume
moles of Ba(OH)2 = 0.214 x 0.186
= 0.0398
Rule of three
2 moles of H3PO4 -------------------- 3 moles of Ba(OH)2
x -------------------- 0.0398 moles of Ba(OH)2
x = (0.0398 x 2) / 3
x = 0.0265 moles of H3PO4
Answer:
A. Ka = [CO2] / [C] [O2]^1/2
B. Kb = [CO2] / [CO] [O2]^1/2
Explanation:
Equilibrium constant is simply defined as the ratio of the concentration of the products raised to their coefficient to the concentration of the reactants raised to their coefficient.
Now, we shall obtain the expression for the equilibrium constant for the reaction as follow:
A. Determination of the expression for equilibrium constant Ka.
This is illustrated below:
C(s) + 1/2 O2(g) <==> CO(g)
Ka = [CO2] / [C] [O2]^1/2
B. Determination of the expression for equilibrium constant Kb.
This is illustrated below:
CO(g) + 1/2 O2(g) <==> CO2(g)
Kb = [CO2] / [CO] [O2]^1/2
