MATHS 🧮 LAB 🔬
Using Cramer’s Rule to solve simultaneous equation, you get different answer when using elimination method provided the questions are same.
False
Using Cramer’s Rule and the elimination method to solve the same system of linear equations will yield the same answer, assuming the system has a unique solution. Both methods are valid mathematical techniques for finding the unique intersection point of linear equations. Both methods are designed to solve the same, unique, linear systems.
While elimination is often more computationally efficient, both methods are mathematically equivalent.
Note: Differences in answers usually only occur if there is a calculation error, such as a mistake in finding determinants in Cramer's rule or a sign error during elimination.
@edmathlab
Using Cramer’s Rule and the elimination method to solve the same system of linear equations will yield the same answer, assuming the system has a unique solution. Both methods are valid mathematical techniques for finding the unique intersection point of linear equations. Both methods are designed to solve the same, unique, linear systems.
While elimination is often more computationally efficient, both methods are mathematically equivalent.
Note: Differences in answers usually only occur if there is a calculation error, such as a mistake in finding determinants in Cramer's rule or a sign error during elimination.
@edmathlab
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MATHS 🧮 LAB 🔬
If a quadratic has equal roots, its graph touches the x-axis at exactly one point.
True. If a quadratic equation has equal roots (i.e., its discriminant D = b²-4ac = 0), the vertex of its parabolic graph lies directly on the x-axis. This means the parabola touches or "bounces" off the x-axis at exactly one point (the root), rather than crossing it at two points.
@edmathlab
@edmathlab
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MATHS 🧮 LAB 🔬
True. If a quadratic equation has equal roots (i.e., its discriminant D = b²-4ac = 0), the vertex of its parabolic graph lies directly on the x-axis. This means the parabola touches or "bounces" off the x-axis at exactly one point (the root), rather than crossing…
Let's learn for other roots as well
Distinct real roots ( D > 0): Graph crosses the x-axis at two points.
No real roots ( D < 0): Graph does not intersect the x-axis.
@edmathlab
Distinct real roots ( D > 0): Graph crosses the x-axis at two points.
No real roots ( D < 0): Graph does not intersect the x-axis.
@edmathlab
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MATHS 🧮 LAB 🔬
The minimum or maximum of a quadratic occurs at its vertex
True.
The minimum or maximum value of a quadratic function (a parabola) always occurs at its vertex.
If the parabola opens upward (a > 0 ), the vertex is the minimum point.
If the parabola opens downward (a < 0), the vertex is the maximum point.
The vertex acts as the turning point of the graph, and its y-coordinate represents the maximum or minimum value of the function.
@edmathlab
The minimum or maximum value of a quadratic function (a parabola) always occurs at its vertex.
If the parabola opens upward (a > 0 ), the vertex is the minimum point.
If the parabola opens downward (a < 0), the vertex is the maximum point.
The vertex acts as the turning point of the graph, and its y-coordinate represents the maximum or minimum value of the function.
@edmathlab
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MATHS 🧮 LAB 🔬
Parallel lines never meet in Euclidean geometry.
True. In Euclidean geometry, parallel lines are defined as straight lines in a plane that never intersect or meet, regardless of how far they are extended in either direction. This is based on Euclid's Parallel Postulate, which serves as a foundational axiom of the system.
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Yes Ramanujan one of India's Greatest Mathematician 😌❤️
Want to know more about him?
Watch The Man who knew Infinity 😌❤️
@edmathlab
Want to know more about him?
Watch The Man who knew Infinity 😌❤️
@edmathlab
God willing tomorrow we will be having quiz on conventions 😌👍
@edmathlab
@edmathlab
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