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Let y = g(x) be the inverse of a bijective mapping f : R → R, f(x) = 3x3 + 2x. The area bounded by graph of g(x), the x-axis and the ordinate at x = 5 is -
Correct answer is '3.25'. Can you explain this answer?
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Let y = g(x) be the inverse of a bijective mapping f : R → R, f(x...
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Let y = g(x) be the inverse of a bijective mapping f : R → R, f(x...
If y = g(x) is the inverse of a bijective mapping f: R → R, then it means that f is a one-to-one and onto function. In other words, for every real number x, there exists a unique real number y such that f(x) = y.
The inverse function g(x) reverses the mapping of f. This means that if f(x) = y, then g(y) = x. In other words, g(x) undoes what f(x) does.
Since f is a bijective mapping, it means that every real number x has a unique image y under f, and every real number y has a unique pre-image x under g. This property ensures that the inverse function exists and is well-defined.
The notation y = g(x) is used to represent the inverse function, where y is the image of x under the original mapping f, and x is the pre-image of y under the inverse mapping g.
The inverse function g(x) reverses the mapping of f. This means that if f(x) = y, then g(y) = x. In other words, g(x) undoes what f(x) does.
Since f is a bijective mapping, it means that every real number x has a unique image y under f, and every real number y has a unique pre-image x under g. This property ensures that the inverse function exists and is well-defined.
The notation y = g(x) is used to represent the inverse function, where y is the image of x under the original mapping f, and x is the pre-image of y under the inverse mapping g.
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Let y = g(x) be the inverse of a bijective mapping f : R → R, f(x) = 3x3+ 2x. The area bounded by graph of g(x), the x-axis and the ordinate at x = 5 is -Correct answer is '3.25'. Can you explain this answer?
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Let y = g(x) be the inverse of a bijective mapping f : R → R, f(x) = 3x3+ 2x. The area bounded by graph of g(x), the x-axis and the ordinate at x = 5 is -Correct answer is '3.25'. Can you explain this answer? for JEE 2024 is part of JEE preparation. The Question and answers have been prepared according to the JEE exam syllabus. Information about Let y = g(x) be the inverse of a bijective mapping f : R → R, f(x) = 3x3+ 2x. The area bounded by graph of g(x), the x-axis and the ordinate at x = 5 is -Correct answer is '3.25'. Can you explain this answer? covers all topics & solutions for JEE 2024 Exam. Find important definitions, questions, meanings, examples, exercises and tests below for Let y = g(x) be the inverse of a bijective mapping f : R → R, f(x) = 3x3+ 2x. The area bounded by graph of g(x), the x-axis and the ordinate at x = 5 is -Correct answer is '3.25'. Can you explain this answer?.
Let y = g(x) be the inverse of a bijective mapping f : R → R, f(x) = 3x3+ 2x. The area bounded by graph of g(x), the x-axis and the ordinate at x = 5 is -Correct answer is '3.25'. Can you explain this answer? for JEE 2024 is part of JEE preparation. The Question and answers have been prepared according to the JEE exam syllabus. Information about Let y = g(x) be the inverse of a bijective mapping f : R → R, f(x) = 3x3+ 2x. The area bounded by graph of g(x), the x-axis and the ordinate at x = 5 is -Correct answer is '3.25'. Can you explain this answer? covers all topics & solutions for JEE 2024 Exam. Find important definitions, questions, meanings, examples, exercises and tests below for Let y = g(x) be the inverse of a bijective mapping f : R → R, f(x) = 3x3+ 2x. The area bounded by graph of g(x), the x-axis and the ordinate at x = 5 is -Correct answer is '3.25'. Can you explain this answer?.
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Let y = g(x) be the inverse of a bijective mapping f : R → R, f(x) = 3x3+ 2x. The area bounded by graph of g(x), the x-axis and the ordinate at x = 5 is -Correct answer is '3.25'. Can you explain this answer?, a detailed solution for Let y = g(x) be the inverse of a bijective mapping f : R → R, f(x) = 3x3+ 2x. The area bounded by graph of g(x), the x-axis and the ordinate at x = 5 is -Correct answer is '3.25'. Can you explain this answer? has been provided alongside types of Let y = g(x) be the inverse of a bijective mapping f : R → R, f(x) = 3x3+ 2x. The area bounded by graph of g(x), the x-axis and the ordinate at x = 5 is -Correct answer is '3.25'. Can you explain this answer? theory, EduRev gives you an
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