A quality control technician uses a system of linear inequalities to define the safe operating limits for a machine's pressure ($x$) and temperature ($y$). The system is defined as:

$\{x - 5y > 10, 2x + 3y > -2\}$

The technician tests a prototype and finds that its measurements satisfy the first inequality but fail to satisfy the second inequality. Based on the fundamental definition of a solution to a system of inequalities, how should this prototype be classified?

A quality control technician is testing whether a machine setting, represented by the ordered pair $({}3, -1)$, satisfies the following safety system:

$\begin{cases} x - 5y > 10 \\ {}2x + 3y > -2 \end{cases}$

True or False: The setting $({}3, -1)$ is a valid solution to this system because it satisfies the second inequality, ${}2x + 3y > -2$.

An industrial safety inspector is evaluating two proposed machine settings, $({}3, -1)$ and $({}6, -3)$, against a safety system defined by the following inequalities:

$\begin{cases} x - 5y > 10 \\ {}2x + 3y > -2 \end{cases}$

Match each item with its correct evaluation result or definition based on the system's requirements.

A compliance officer is verifying if a facility's noise and vibration levels, represented by the coordinate pair $(6, -3)$, satisfy the safety regulations defined by the system: $\begin{cases} x - 5y > 10 \\ 2x + 3y > -2 \end{cases}$. Arrange the following steps in the correct sequence to recall the procedure for determining if this pair is a valid solution.

Validating Solutions to Inequality Systems in Safety Checks