Answer:
The graph of the relationship of temperature one volume is a graphical representation of Charles law.
Explanation:
The graph shows the relationship between volume vs temperature plotted at constant pressure for a fixed amount of gas. As can be observed from the graph, the volume increases with an increase in the temperature, and vice versa. Thus, volume is directly proportional to temperature at a constant pressure, which is the statement of Charles's law.
Volume is plotted on the y- axis, and temperature is on x-axis. The graph is a straight line with a positive slope passing the origin. The equation of the line is V = kT, which is the equation of Charles's law. The slope of the line is k. As temperature approaches zero kelvin, volume also approaches zero.
Real gases do not obey Charles's law at low temperatures. As temperature approaches absolute zero (0 K), the real gases start deviating significantly from Charles's law.
Answer:
Transition metals are the elements
Answer:
Water - H2O
Ammonia - NH3
Sulfur dioxide - SO2
Hydrogen sulfide - H2S
Ethanol - C2H6O
Explanation:
Those are some atoms with polar covalent bonds. Hope this helps!!
Answer:
615 μK/ms.
Explanation:
The conversion of 615mK/s to μK/ms can be obtained as follow:
1 mK/s = 10^-3 K/s
Therefore, 615mK/s = 615x10^-3 K/s
1K/s = 10^6 μK/s
Therefore,
615x10^-3 K/s = 615 x 10^-3 x 10^6 μK/s = 615x10^3 μK/s.
1s = 10^3ms
Therefore,
615x10^3 μK/s = 615x10^3 μK/ 10^3ms = 615 μK/ms.
Therefore,
615 mK/s = 615 μK/ms.
a. k=0.256/day
b.sample of Au-198 remains after seven days : 1.67 g
<h3>Further explanation</h3>
1. A half-life of 2.7 days⇒t1/2=2.7 days
The half-life can be expressed in a decay constant( λ)

2. We can use formula : (integrated rate law) :
![\tt ln[A]=-kt+ln[Ao]\\\\ln(\dfrac{Ao}{A})=kt](https://tex.z-dn.net/?f=%5Ctt%20ln%5BA%5D%3D-kt%2Bln%5BAo%5D%5C%5C%5C%5Cln%28%5Cdfrac%7BAo%7D%7BA%7D%29%3Dkt)
Ao=10 g
t=7 days
k=0.256/day
