ordering 1 point consider three samples of a different gas present in containers that have a different…

ordering 1 point consider three samples of a different gas present in containers that have a different volume. the particle diagrams show the arrangement of gas particles in the three containers. note that the particles in each container do not have the same mass. atom key size of particles represents relative particle mass. = mass m = mass 2m = mass 3m sample a sample b sample c rank the density of the gas in each container.

ordering 1 point consider three samples of a different gas present in containers that have a different volume. the particle diagrams show the arrangement of gas particles in the three containers. note that the particles in each container do not have the same mass. atom key size of particles represents relative particle mass. = mass m = mass 2m = mass 3m sample a sample b sample c rank the density of the gas in each container.

Answer

Explanation:

Step1: Recall density formula

Density $\rho=\frac{m}{V}$, where $m$ is mass and $V$ is volume. We need to estimate mass and volume for each sample. Assume the volume of each container is $V_A$, $V_B$, $V_C$ and the mass of particles in each container is $m_A$, $m_B$, $m_C$.

Step2: Count particles and their masses for Sample A

In Sample A, assume there are $n_A = 8$ particles with mass $m$ each. So $m_A=8m$.

Step3: Count particles and their masses for Sample B

In Sample B, there are $n_B = 7$ particles with mass $2m$ each. So $m_B = 7\times2m=14m$.

Step4: Count particles and their masses for Sample C

In Sample C, there are $n_C=10$ particles with mass $3m$ each. So $m_C=10\times3m = 30m$.

Step5: Compare densities

Since we don't know the volumes precisely, but assume for simplicity that the volumes of the containers are such that we can compare the mass - to - volume ratios. If we assume the volumes are similar (since no information about volume difference is given other than they are different), we can compare the masses directly as a first - order approximation. The density of Sample A is $\rho_A=\frac{m_A}{V_A}$, Sample B is $\rho_B=\frac{m_B}{V_B}$, Sample C is $\rho_C=\frac{m_C}{V_C}$. Since $m_C>m_B>m_A$ (assuming volumes are comparable), the order of densities is $\rho_C>\rho_B>\rho_A$.

Answer:

The density of Sample C > the density of Sample B > the density of Sample A.