Since it is an inequality, there is no way to solve for x. It equals all real numbers.
If the absolute value inequality is of the form where the absolute value of the difference between a variable (X) and some constant (a) is compared to another constant (b) eg |X - a| compared with b, then if the comparison is < or ≤, the compound inequality is a double inequality of the form c < X < d (or ≤), and if the comparison is > or ≥, the compound inequality is a disjoint inequality of the form X < c or X > d (or including the equals). In both cases, c = b - a, d = b + a (>c)
One possible inequality that has x = 0.8 as a solution is x ≤ 0.8. This means that any value of x that is less than or equal to 0.8 will satisfy the inequality.
To write and solve an absolute value inequality, start by expressing the inequality in the form |x| < a or |x| > a, where a is a positive number. For |x| < a, split it into two inequalities: -a < x < a. For |x| > a, split it into two separate inequalities: x < -a or x > a. Finally, solve each inequality to find the solution set and represent it using interval notation or a number line.
Any value of x that is more than 4, for example 4.000000000000001
The largest values in an inequality refer to the upper limits that satisfy the conditions of that inequality. For example, in the inequality (x < 5), the largest value that (x) can take is just below 5, such as 4.999. In cases of non-strict inequalities, like (x \leq 5), the largest value is exactly 5. Understanding these values is crucial for solving and graphing inequalities.
If the absolute value inequality is of the form where the absolute value of the difference between a variable (X) and some constant (a) is compared to another constant (b) eg |X - a| compared with b, then if the comparison is < or ≤, the compound inequality is a double inequality of the form c < X < d (or ≤), and if the comparison is > or ≥, the compound inequality is a disjoint inequality of the form X < c or X > d (or including the equals). In both cases, c = b - a, d = b + a (>c)
One possible inequality that has x = 0.8 as a solution is x ≤ 0.8. This means that any value of x that is less than or equal to 0.8 will satisfy the inequality.
In an inequality, "at least" signifies that a certain value must be greater than or equal to a specified number. For example, if an inequality states that ( x \geq 5 ), it means that ( x ) can be any value that is 5 or greater. This term establishes a lower boundary for the values that satisfy the inequality.
The mathematical inequality that represents the relationship described is 14 < 2x. This inequality states that the value of 14 is less than twice the value of x. To solve for x, we can divide both sides of the inequality by 2 to isolate x, giving us x > 7. Therefore, any value of x greater than 7 will satisfy the given condition.
To write and solve an absolute value inequality, start by expressing the inequality in the form |x| < a or |x| > a, where a is a positive number. For |x| < a, split it into two inequalities: -a < x < a. For |x| > a, split it into two separate inequalities: x < -a or x > a. Finally, solve each inequality to find the solution set and represent it using interval notation or a number line.
It is x + 423. There is no equation nor an inequality that can be solved for the value of x. It is simply an expression.
13
Any value of x that is more than 4, for example 4.000000000000001
4
The largest values in an inequality refer to the upper limits that satisfy the conditions of that inequality. For example, in the inequality (x < 5), the largest value that (x) can take is just below 5, such as 4.999. In cases of non-strict inequalities, like (x \leq 5), the largest value is exactly 5. Understanding these values is crucial for solving and graphing inequalities.
The inequality ( x^2 < 100 ) can be solved by first taking the square root of both sides, giving ( -10 < x < 10 ). Thus, the solution is the interval ( (-10, 10) ). This means that any value of ( x ) within this range will satisfy the inequality.
To solve the inequality -3x < 57, first divide both sides by -3, remembering that dividing by a negative number reverses the inequality sign. This gives us x > -19. Therefore, the value of x must be greater than -19.