If the lines cross then there is one solution. If they are on top of each other then there are infinite solutions. If they are parallel then there are no solutions.
No because they are essentially the same line
Any system of linear equations can have the following number of solutions: 0 if the system is inconsistent (one of the equations degenerates to 0=1) 1 if the system is linearly independent infinity if the system has free variables and is not inconsistent.
A system of two linear equations in two unknowns can have three possible types of solutions: exactly one solution (when the lines intersect at a single point), no solutions (when the lines are parallel and never intersect), or infinitely many solutions (when the two equations represent the same line). Thus, there are three potential outcomes for such a system.
False. There can either be zero, one, or infinite solutions to a system of two linear equations.
Yes, a system of linear equations can have zero solutions, which is known as an inconsistent system. This occurs when the equations represent parallel lines that never intersect, meaning there is no point that satisfies all equations simultaneously. A common example is the system represented by the equations (y = 2x + 1) and (y = 2x - 3), which are parallel and thus have no solutions.
No because they are essentially the same line
Any system of linear equations can have the following number of solutions: 0 if the system is inconsistent (one of the equations degenerates to 0=1) 1 if the system is linearly independent infinity if the system has free variables and is not inconsistent.
A system of two linear equations in two unknowns can have three possible types of solutions: exactly one solution (when the lines intersect at a single point), no solutions (when the lines are parallel and never intersect), or infinitely many solutions (when the two equations represent the same line). Thus, there are three potential outcomes for such a system.
A system of linear equations can only have: no solution, one solution, or infinitely many solutions.
If the equations are linear, they may have no common solutions, one common solutions, or infinitely many solutions. Graphically, in the simplest case you have two straight lines; these can be parallel, intersect in a same point, or actually be the same line. If the equations are non-linear, they may have any amount of solutions. For example, two different intersecting ellipses may intersect in up to four points.
False. There can either be zero, one, or infinite solutions to a system of two linear equations.
Yes, a system of linear equations can have zero solutions, which is known as an inconsistent system. This occurs when the equations represent parallel lines that never intersect, meaning there is no point that satisfies all equations simultaneously. A common example is the system represented by the equations (y = 2x + 1) and (y = 2x - 3), which are parallel and thus have no solutions.
As there is no system of equations shown, there are zero solutions.
Yes, a system can, in fact, have exactly two solutions.
Yes, it is possible to write more than one augmented matrix for a system of linear equations, as the augmented matrix represents the same system in different forms. For example, if the equations are manipulated through row operations, the resulting augmented matrix will change while still representing the same system. Additionally, different orderings of the equations or the variables can also yield different augmented matrices. However, all valid forms will encapsulate the same solutions to the system.
Yes, a system of linear equations can have an infinite number of solutions when the equations represent the same line or when they are dependent on each other. This typically occurs in systems with fewer independent equations than variables, leading to free variables that allow for multiple solutions. In such cases, the solutions can be expressed in terms of parameters, indicating a whole line or plane of solutions rather than a single point.
NO! A linear system can only have one solution (the lines intersect at one point), no solution (the lines are parallel), and infinitely many solutions (the lines are equivalent).