Chapter 7: Problem 10
Sketch the graph of the inequality. $$10 \geq y$$
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Chapter 7: Problem 10
Sketch the graph of the inequality. $$10 \geq y$$
These are the key concepts you need to understand to accurately answer the question.
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Find the value of \(k\) such that the system of linear equations is inconsistent. $$\left\\{\begin{array}{l} 4 x-8 y=-3 \\ 2 x+k y=16 \end{array}\right.$$
A fruit grower raises crops \(A\) and \(B\). The yield is 300 bushels per acre for crop \(\mathrm{A}\) and 500 bushels per acre for crop B. Research and available resources indicate the following constraints. "The fruit grower has 150 acres of land for raising the crops. \(\cdot\) It takes 1 day to trim an acre of crop \(A\) and 2 days to trim an acre of crop \(\mathbf{B},\) and there are 240 days per year available for trimming. \(\cdot\) It takes 0.3 day to pick an acre of crop \(\mathrm{A}\) and 0.1 day to pick an acre of crop \(\mathbf{B},\) and there are 30 days per year available for picking. What is the optimal acreage for each fruit? What is the optimal yield?
Find values of \(x, y,\) and \(\lambda\) that satisfy the system. These systems arise in certain optimization problems in calculus, and \(\lambda\) is called a Lagrange multiplier. $$\left\\{\begin{aligned} 2+2 y+2 \lambda &=0 \\ 2 x+1+\lambda &=0 \\ 2 x+y-100 &=0 \end{aligned}\right.$$
System A system of pulleys is loaded with 128-pound and 32 -pound weights (see figure). The tensions \(t_{1}\) and \(t_{2}\) in the ropes and the acceleration \(a\) of the 32-pound weight are found by solving the system of equations $$ \left\\{\begin{aligned} t_{1}-2 t_{2}\quad\quad =0 \\ t_{1}\quad\quad -2 a=128 \\ \quad t_{2}+a =32 \end{aligned}\right. $$ where \(t_{1}\) and \(t_{2}\) are in pounds and \(a\) is in feet per second squared. Solve this system.
Describe two ways of solving for the constants in a partial fraction decomposition.
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