Use the equation Y -5= x/3 to fill in the missing values in the table below

X y
- 1
-3 4
0 -
6. -
- 8

0
1
5
7
12
-12
9
Fill in all the boxes

11 answers

To fill in the missing values in the table using the equation \( Y - 5 = \frac{x}{3} \), we can rearrange the equation to express \( Y \) in terms of \( x \):

\[ Y = \frac{x}{3} + 5 \]

Now we can calculate \( Y \) for each \( x \) value provided in the table and also fill in any missing \( x \) values when \( Y \) is known.

Given Entries:

  1. When \( x = - \) and \( Y = 1 \): \[ 1 = \frac{x}{3} + 5 \implies \frac{x}{3} = 1 - 5 \implies \frac{x}{3} = -4 \implies x = -12 \] So, \( x = -12 \)

  2. When \( x = -3 \) and \( Y = 4 \): \[ 4 = \frac{-3}{3} + 5 \implies 4 = -1 + 5 \implies 4 = 4 \quad \text{(This is already correct)} \]

  3. When \( x = 0 \) and \( Y = - \): \[ Y = \frac{0}{3} + 5 = 0 + 5 = 5 \] So, \( Y = 5 \)

  4. When \( x = 6 \) and \( Y = - \): \[ Y = \frac{6}{3} + 5 = 2 + 5 = 7 \] So, \( Y = 7 \)

  5. When \( x = - \) and \( Y = 8 \): \[ 8 = \frac{x}{3} + 5 \implies \frac{x}{3} = 8 - 5 \implies \frac{x}{3} = 3 \implies x = 9 \] So, \( x = 9 \)

Final Table:

Now we can summarize the completed table:

| X | Y | |-----|-----| | -12 | 1 | | -3 | 4 | | 0 | 5 | | 6 | 7 | | 9 | 8 |

The missing values have been filled in as specified.

What are the steps used to isolate the variable in the equation?
H/7+2=11
Multiply h/7 And 11 by 7 Then subtract two
Subtract two from both sides of the equation then multiply both sides with seven
Add to both sides of the equation and divide by seven
Subtract 11 from both sides of the equation multiplied by seven

To isolate the variable \( H \) in the equation \( \frac{H}{7} + 2 = 11 \), we can follow these steps:

  1. Subtract 2 from both sides of the equation: This creates a simplified equation by eliminating the constant on the left side.

    \[ \frac{H}{7} + 2 - 2 = 11 - 2 \]

    Resulting in:

    \[ \frac{H}{7} = 9 \]

  2. Multiply both sides by 7: This step eliminates the fraction on the left side.

    \[ 7 \cdot \frac{H}{7} = 7 \cdot 9 \]

    Resulting in:

    \[ H = 63 \]

So, the correct steps to isolate \( H \) in the equation \( \frac{H}{7} + 2 = 11 \) according to the options you've provided are:

  • Subtract 2 from both sides of the equation then multiply both sides by 7.

Thus, the answer is: Subtract two from both sides of the equation then multiply both sides with seven.

What is the first step when solving? 14/7-x=3
Divide 14 by7 to get 2-x=3
Add x to both sides of the equation
Multiply both sides of the equation by 7-x/1
Subtract 7 from both sides of the equation

To solve the equation \( \frac{14}{7} - x = 3 \), let's analyze the first step among the provided options.

Given Options:

  1. Divide \( 14 \) by \( 7 \) to get \( 2 - x = 3 \)
  2. Add \( x \) to both sides of the equation
  3. Multiply both sides of the equation by \( \frac{7 - x}{1} \)
  4. Subtract \( 7 \) from both sides of the equation

Correct First Step:

Since the equation starts with \( \frac{14}{7} - x = 3 \), the first logical step is to simplify the left side by dividing \( 14 \) by \( 7 \):

\[ \frac{14}{7} = 2 \]

This simplifies the equation to:

\[ 2 - x = 3 \]

So the correct first step is: Divide \( 14 \) by 7 to get \( 2 - x = 3 \).

What's the solution set for x+1>or = 5 and 2x> or = to 4

To find the solution set for the inequalities \( x + 1 \geq 5 \) and \( 2x \geq 4 \), we'll solve each inequality separately.

Solving the first inequality:

\[ x + 1 \geq 5 \]

  1. Subtract \( 1 \) from both sides: \[ x \geq 5 - 1 \] \[ x \geq 4 \]

Solving the second inequality:

\[ 2x \geq 4 \]

  1. Divide both sides by \( 2 \): \[ x \geq \frac{4}{2} \] \[ x \geq 2 \]

Combining the Results:

Now we have two inequalities:

  1. \( x \geq 4 \)
  2. \( x \geq 2 \)

Since the first inequality \( x \geq 4 \) is the more restrictive condition, the solution set is determined by it.

Conclusion:

The solution set for both inequalities is: \[ \boxed{[4, \infty)} \]

This means that \( x \) can take any value greater than or equal to \( 4 \).

A large dehumidifier removed 2 quarts of water form the air around it per house the dehumidifier can hold up to 50 quarts which inequality represents how much time the dehumidifier can run before it becomes full
2h>=50
2h<=50
-2h>=50
-2h<=50

To determine the appropriate inequality that represents how long the dehumidifier can run before it becomes full, we can follow these steps:

  1. Identify the Variables:

    • Let \( h \) represent the number of hours the dehumidifier runs.
    • The dehumidifier removes 2 quarts of water per hour.
  2. What We Know:

    • The dehumidifier can hold up to 50 quarts.
    • After \( h \) hours, the dehumidifier will have removed \( 2h \) quarts of water.
  3. Set Up the Inequality:

    • We want to find the maximum time \( h \) that can pass before the dehumidifier reaches its capacity of 50 quarts.
    • We can set up the inequality as: \[ 2h \leq 50 \]

So, the correct inequality that represents how much time the dehumidifier can run before it becomes full is: \[ \boxed{2h \leq 50} \]

A b c or d

Based on the options you've provided in previous messages, the correct choice for how to represent the situation with a dehumidifier that removes 2 quarts of water per hour and can hold up to 50 quarts is:

B) \(2h \leq 50\)

This inequality indicates that the amount of water removed (which is \(2h\)) must be less than or equal to the capacity of the dehumidifier (50 quarts).

If you have further options labeled a, b, c, or d, please provide those specifically for a more definitive answer. If "B" corresponds to the \(2h \leq 50\) option, then that is the correct answer.