Then they are simultaneous equations.
Consistent dependent systems are characterized by lines that overlap, meaning they represent the same line in a graph. This occurs when the equations of the lines are equivalent, resulting in an infinite number of solutions. In such cases, every point on the line is a solution to the system of equations, indicating that the lines are not only consistent but also dependent.
A consistent system with independent equations is one in which there is at least one solution, and the equations do not overlap in their constraints, meaning that no equation can be derived from another. In such a system, the equations represent different planes (or lines in two dimensions), and they intersect at one unique point (in the case of two variables) or along a line (for three variables). This unique intersection indicates that the system has a single solution that satisfies all equations simultaneously.
They do not. A set of lines can also be considered as a system of linear equations. But the fact that there is such a system does not mean that the lines intersect.
When two lines intersect, the system of equations has exactly one solution. This solution corresponds to the point of intersection, where both equations are satisfied simultaneously. If the lines are parallel, there would be no solutions, and if they coincide, there would be infinitely many solutions.
Inconsistent
coincidental -Lines that share the same solution sets.
Consistent dependent systems are characterized by lines that overlap, meaning they represent the same line in a graph. This occurs when the equations of the lines are equivalent, resulting in an infinite number of solutions. In such cases, every point on the line is a solution to the system of equations, indicating that the lines are not only consistent but also dependent.
A consistent system with independent equations is one in which there is at least one solution, and the equations do not overlap in their constraints, meaning that no equation can be derived from another. In such a system, the equations represent different planes (or lines in two dimensions), and they intersect at one unique point (in the case of two variables) or along a line (for three variables). This unique intersection indicates that the system has a single solution that satisfies all equations simultaneously.
A system of equations will have no solutions if the line they represent are parallel. Remember that the solution of a system of equations is physically represented by the intersection point of the two lines. If the lines don't intersect (parallel) then there can be no solution.
That they, along with the equations, are invisible!
A system of equations with exactly one solution intersects at a singular point, and none of the equations in the system (if lines) are parallel.
The two equations represent parallel lines.
They do not. A set of lines can also be considered as a system of linear equations. But the fact that there is such a system does not mean that the lines intersect.
The solution of a system of equations corresponds to the point where the graphs of the equations intersect. If the equations have one unique point of intersection, that point represents the solution of the system. If the graphs are parallel and do not intersect, the system has no solution. If the graphs overlap and coincide, the system has infinitely many solutions.
one solution; the lines that represent the equations intersect an infinite number of solution; the lines coincide, or no solution; the lines are parallel
If you refer to linear equations, graphed as straight lines, two inconsistent equations would result in two parallel lines.
Inconsistent