There is no unique solution for the system of equations y = mx + 1 and y = 2.

**And now take a closer look**

The system of equations y = mx + 1 and y = 2 is a simultaneous linear equation with two variables, y and x. The given system of equations suggests that y equals both mx + 1 and 2, which implies that mx + 1 = 2. Substituting the value of y in the first equation, we get mx + 1 = 2, which implies mx = 1. Therefore, x = 1/m.

There is no unique solution for the given system of equations because the equations represent two distinct and parallel lines with different y-intercepts. As a result, the lines will never intersect, and there will be no intersection point. In other words, there is no value for x and y that satisfies both equations simultaneously, except when the two lines represent the same line (i.e., they are coincident).

A similar concept is explained by the famous mathematician John Von Neumann, who said, “In mathematics, you don’t understand things. You just get used to them.” By solving various problems and mathematical equations, one can get used to their solutions and patterns.

Some interesting facts about simultaneous linear equations are:

- They represent a system of two or more linear equations that have the same variables.
- These types of equations can be solved using different methods, such as substitution, elimination, or matrix operations.
- Simultaneous linear equations are widely used in various fields, such as physics, engineering, economics, and computer science, to model real-world phenomena.
- These equations can have unique, no solution, or infinite solutions, depending on their coefficients and constants.
- They can also be represented graphically as lines, and their solution is the point of intersection of the lines.

In conclusion, the system of equations y = mx + 1 and y = 2 has no unique solution because the equations represent two parallel lines that never intersect. By understanding the concept of simultaneous linear equations, one can solve various problems and model the real world mathematically.

y = mx + 1 | y = 2 |
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x = 1/m | y = 2 |

## Here are some other responses to your query

The solution to the system of equations y = -(1/3)x + 6 and y = (1/3)x6 is (18, 0) option fourth (18,0) is correct.What is linear equation?It is defined as the relation between two variables, if we plot the graph of the linear equation we will get a straight line.If in the linear equation, one variable is present, then the equation is known as the linear equation in one variable. We have a system of equations:y = -(1/3)x + 6 and y = (1/3)x6Add both the equations2y = 0y = 0Plug y = 0 in the first equation:x = 18Thus, the solution to the system of equations y = -(1/3)x + 6 and y = (1/3)x6 is (18, 0) option fourth (18,0) is correct.Learn more about the linear equation here:brainly.com/question/11897796#SPJ2

## Answer to your inquiry in video form

In this video, we learn how to solve systems of equations with two variables using both the elimination and substitution methods. The elimination method involves adding the two equations to eliminate one of the variables, while the substitution method involves replacing one variable in one equation with an expression in terms of the other, and then solving for the remaining variable. The video provides examples of both methods and shows how to interpret the solutions as ordered pairs representing the intersection points of the two equations. We also learn about special cases where there are no solutions or infinite solutions to the system of equations.

## I am sure you will be interested in these topics as well

**How do you find out the solution to this system of equations?**

As a response to this: Plus 4 equals 10 and therefore you can see 10 equals 10 and we have our solution. Right good all right. So we have an issue. Though is what if i say y plus x equals 3..

**How to solve y1 y2 x1 x2?**

As a response to this: Is the second X y2 is the Y connected to it. You can plug those numbers straight. Into this equation. Y2 is 13 y1 is 7 X 2 is 6 x1 is negative 3.

Simply so, **What is the solution to this system of linear equations 2x y 1 3x y =- 6?**

2x+y=1 and 3x-y=-6. Summary: The solution to the linear equation 2x+y=1 and 3x-y=-6 is (-1, 3).

**How many solutions does this linear system have y =- 6x 2 =- 4?**

y = -6x + 2 and -12x – 2y = -4, how many solutions does this linear system have? Summary: The linear system of equations y = -6x + 2 and -12x – 2y = -4 has infinitely many solutions.

Besides, **What is the solution to the system of equations y mx – 1 & y – 2?** The answer is: I got a different answer to your first question. Through substitution, x = 3. So the solution to the system of equations y = mx – 1 and y = (m – 1)x – 2 is the ordered pair (3, y). So the lines will intersect at (3, y) where y is an extremely big number.

Additionally, **How do you solve a system of equations?**

Response will be: The solutions to systems of equations are the variable mappings such that all component equations are satisfied—in other words, the locations at which all of these equations intersect. To solve a system is to **find all such common solutions or points of intersection**.

**How many solutions does a linear equation have?** As an answer to this: This system of linear equations have only one solution. In which m is the slope and b is the y-intercept. So in the first equation, -2 is the slope. And in the second equation, 3 is the slope. And it becomes very obvious — two lines with a DIFFERENT slope will always intersect at some point! So this system has only one solution.

Moreover, **What is a system of linear equations involving more than two variables?**

The answer is: Systems of linear equations involving more than two variables **work similarly, having either one solution, no solutions or infinite solutions** (the latter in the case that all component equations are equivalent). More general systems involving nonlinear functions are possible as well.

Subsequently, **What is the solution to the system of equations y mx – 1 & y – 2?**

The answer is: I got a different answer to your first question. Through substitution, x = 3. So the solution to the system of equations y = mx – 1 and y = (m – 1)x – 2 is the ordered pair **(3, y)**. So the lines will intersect at (3, y) where y is an extremely big number.

**How do you solve a system of equations graphed?** Identify **the solution **for **the system of equations **graphed here. A **system of **linear **equations **can be solved graphically, by substitution, by elimination, and by **the **use **of **matrices. **1**) C 2) (-2,0) 3) 4) 5) c )S= { (0,3)} 6) (0,2) 7) 8) Missing graph 9) Vertical line (check below) 10) B 11) **1**) Solving by **the **Addition/Elimination Method.

**What equation did Tomas write?**

The response is: Tomas wrote the equation **y = 3x +**. When Sandra wrote her equation, they discovered that her equation had all the same solutions as Tomas’s equation. Which equation could be Sandra’s? How many solutions does this linear system have? Raphael graphed the system of equations shown.

Also to know is, **How many solutions does a linear equation have?**

This system of linear equations have only one solution. In which m is the slope and b is the y-intercept. So in the first equation, -2 is the slope. And in the second equation, 3 is the slope. And it becomes very obvious — two lines with a DIFFERENT slope will always intersect at some point! So this system has only one solution.