When three planes coincide, they represent a single plane in three-dimensional space. This situation occurs when the equations of the planes are dependent, meaning they can be expressed as scalar multiples of one another or as linear combinations that yield the same geometric plane. Mathematically, this leads to an infinite number of solutions, as any point on the plane satisfies all three equations simultaneously. In such cases, the system of equations is consistent and has infinitely many solutions.
Yes, it is possible for a system of three linear equations to have one solution. This occurs when the three equations represent three planes that intersect at a single point in three-dimensional space. For this to happen, the equations must be independent, meaning no two equations are parallel, and not all three planes are coplanar. If these conditions are met, the system will yield a unique solution.
A line where two planes meet is called the line of intersection. This occurs when the two planes are not parallel and do not coincide. The line consists of all the points that lie on both planes simultaneously. In three-dimensional geometry, this line can be determined mathematically by solving the equations that represent the two planes.
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.
The intersection of three planes is either a point, a line, or there is no intersection if any two of the planes are parallel to each other. This tells us about possible solutions to 3 equations in 3 unknowns. There may be one solution, no solution, or infinite number of solutions.
The intersection of two planes in three-dimensional space is typically a line, provided the planes are not parallel. If the planes are parallel, they do not intersect at all. If the two planes are coincident, they overlap completely, resulting in an infinite number of intersection points. The line of intersection can be found by solving the equations of the two planes simultaneously.
Yes, it is possible for a system of three linear equations to have one solution. This occurs when the three equations represent three planes that intersect at a single point in three-dimensional space. For this to happen, the equations must be independent, meaning no two equations are parallel, and not all three planes are coplanar. If these conditions are met, the system will yield a unique solution.
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.
True. To solve a three variable system of equations you can use a combination of the elimination and substitution methods.
The intersection of three planes is either a point, a line, or there is no intersection if any two of the planes are parallel to each other. This tells us about possible solutions to 3 equations in 3 unknowns. There may be one solution, no solution, or infinite number of solutions.
The three types arethe system has a unique solutionthe system has no solutionsthe system has infinitely many solutions.
The intersection of two planes in three-dimensional space is typically a line, provided the planes are not parallel. If the planes are parallel, they do not intersect at all. If the two planes are coincident, they overlap completely, resulting in an infinite number of intersection points. The line of intersection can be found by solving the equations of the two planes simultaneously.
There are three kinds:the equations have a unique solutionthe equations have no solutionthe equations have infinitely many solutions.
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Parallel planes can be named using a system of identifiers, typically by using letters or numbers. For example, two parallel planes might be named Plane A and Plane B. In mathematical contexts, they can also be described by equations that express their relationships in three-dimensional space. The key characteristic is that they never intersect, maintaining a constant distance apart.
No. There could be no solution - no values for x, y, and z so that the 3 equations are true.
You can solve the system of equations with three variables using the substitute method, or using matrix operations.
The three quantities of solution for linear equations are consistent, inconsistent, and dependent. A consistent system has at least one solution, either unique or infinitely many. An inconsistent system has no solutions, meaning the equations represent parallel lines that never intersect. A dependent system has infinitely many solutions, indicating that the equations represent the same line in different forms.