Question
4x + y = 7
2x - 7y = 1
If(x, y) is the solution to the given system of equations, what is the value of x ?
The correct answer is: 1.6
HINT: Given 2 linear equations with two variables. Solve and find x.
Complete step by step solution:
Let 4x + y = 7…(i) and 2x - 7y = 1…(ii)
Multiply (i) with 7 to make the coefficients of to be the same.
We get (i) to be 7(4x + y = 7) = 28x + 7y = 49
Let 28x + 7y = 49…(iii)
On adding (ii) and (iii)
Then, LHS becomes 2x - 7y + 28x + 7y = 30x
RHS will be 1 + 49 = 50
On equating LHS and RHS, we get 30x = 50
On dividing both sides by 30 we get ![fraction numerator 30 x over denominator 30 end fraction equals 50 over 30](data:image/png;base64,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)
![x equals 5 over 3](data:image/png;base64,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)
Thus, the value of x is
= 1.6 .
Note: We can solve this by first multiplying (ii) with 2. We get (ii) to be 4x - 14y = 2 and let this be (iii). By solving (ii) and (iii), we get the value of y to be
. By substituting the value of y in (i) we can find the value of x. Thus, we get the value of x to be
.
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![](data:image/png;base64,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)
The graph of
where a and c are constants, is shown. What is the value of a ?
![](data:image/png;base64,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)
The graph of
where a and c are constants, is shown. What is the value of a ?
x2 - 2x – 1 = 0
The equation above has solutions
and
where n and k are positive integers. What is the value of n + k ?
x2 - 2x – 1 = 0
The equation above has solutions
and
where n and k are positive integers. What is the value of n + k ?
An office building has a room with a square-shaped floor. The actual length of the floor is 90 times the length of the floor on a blueprint drawn to scale. The actual area of the floor is p times the area of the floor on the blueprint. What is the value of p ?
An office building has a room with a square-shaped floor. The actual length of the floor is 90 times the length of the floor on a blueprint drawn to scale. The actual area of the floor is p times the area of the floor on the blueprint. What is the value of p ?
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In the figure shown, BC is parallel to AD and AB =CD . What is the perimeter of quadrilateral ABCD?
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k5vlbEnrhNrIfRhRomuOQQgqDJc6pMZC9xEsgIwk+q9JlJGHSWQrgpi3TG6c4d9Eor2CQmNjGnMwSaY3QnX7lpcbqW4ItezBkfgbpJHa4Jfn6HO9sU6iaSwOa7FVXmVItqQuzqZrqMWS6DwWAwGAwGg8FgMBgMBoPBYDAYDAaDwbN4vf4DPqrUj9qwzIMAAAAASUVORK5CYII=)
In the figure shown, BC is parallel to AD and AB =CD . What is the perimeter of quadrilateral ABCD?
A manager purchased cones for ice cream. Find a formula for the length of the radius , in terms of its volume V.
For such questions, we should know the formula of cone.
A manager purchased cones for ice cream. Find a formula for the length of the radius , in terms of its volume V.
For such questions, we should know the formula of cone.
The function
is defined by
For what value of x does
?
The function
is defined by
For what value of x does
?
4T - 8D = 12H
The given equation can be rewritten as
T = aD + bH , where a and b are constants. What is the value of a?
A constant is a fixed value that does not change. Symbols such as a, b, c, etc., often represent constants. These constant symbols are used in algebraic expressions and equations to represent fixed values that do not change as per the above question; a and b are constants.
4T - 8D = 12H
The given equation can be rewritten as
T = aD + bH , where a and b are constants. What is the value of a?
A constant is a fixed value that does not change. Symbols such as a, b, c, etc., often represent constants. These constant symbols are used in algebraic expressions and equations to represent fixed values that do not change as per the above question; a and b are constants.
![9 n plus 3 equals 15 n](data:image/png;base64,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)
What value of n satisfies the given equation?
![9 n plus 3 equals 15 n](data:image/png;base64,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)
What value of n satisfies the given equation?
Solve for in terms of for the given ![y equals 1 third left parenthesis x minus 5 right parenthesis](data:image/png;base64,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)
For such questions, we should know the concept of functions.
Solve for in terms of for the given ![y equals 1 third left parenthesis x minus 5 right parenthesis](data:image/png;base64,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)
For such questions, we should know the concept of functions.
![table attributes columnalign right columnspacing 1em end attributes row cell 2 x plus 3 y equals 2 end cell row cell x minus 2 y equals 8 end cell end table](data:image/png;base64,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)
The solution to the given system of equations is (x, y). What is the value of x?
![table attributes columnalign right columnspacing 1em end attributes row cell 2 x plus 3 y equals 2 end cell row cell x minus 2 y equals 8 end cell end table](data:image/png;base64,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)
The solution to the given system of equations is (x, y). What is the value of x?
![](data:image/png;base64,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)
The table shows several values of x and their corresponding values of f(x). The function f is defined by f(x) = mx + b, where and are constants. What is the value of b ?
![](data:image/png;base64,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)
The table shows several values of x and their corresponding values of f(x). The function f is defined by f(x) = mx + b, where and are constants. What is the value of b ?
Find the range of the function
.
For such questions, we should know the concept of function.
Find the range of the function
.
For such questions, we should know the concept of function.