{"id":71655,"date":"2022-02-07T17:00:49","date_gmt":"2022-02-07T11:30:49","guid":{"rendered":"https:\/\/www.cbselabs.com\/?p=71655"},"modified":"2022-02-07T17:11:10","modified_gmt":"2022-02-07T11:41:10","slug":"integrals-class-12-notes","status":"publish","type":"post","link":"https:\/\/www.cbselabs.com\/integrals-class-12-notes\/","title":{"rendered":"Integrals Class 12 Notes Maths Chapter 7"},"content":{"rendered":"

Class 12 Maths Notes<\/a> students can refer to the Integrals Class 12 Notes Maths Chapter 7 https:\/\/www.cbselabs.com\/integrals-class-12-notes\/ Pdf here. They can also access the CBSE Class 12 Integrals Chapter 7 Notes while gearing up for their Board exams.<\/p>\n

CBSE Class 12 Maths Notes Chapter 7 Integrals<\/h2>\n

Integrals Class 12 Notes Chapter 7<\/strong><\/p>\n

Integration is the inverse process of differentiation. In the differential calculus, we are given a function and we have to find the derivative or differential of this function, but in the integral calculus, we are to find a function whose differential is given. Thus, integration is a process which is the inverse of differentiation.
\nThen, \u222bf(x) dx = F(x) + C, these integrals are called indefinite integrals or general integrals. C is an arbitrary constant by varying which one gets different anti-derivatives of the given function.
\nNote: Derivative of a function is unique but a function can have infinite anti-derivatives or integrals.<\/p>\n

Integration Class 12 Notes Chapter 7<\/strong><\/p>\n

Properties of Indefinite Integral<\/strong>
\n(i) \u222b[f(x) + g(x)] dx = \u222bf(x) dx + \u222bg(x) dx
\n(ii) For any real number k, \u222bk f(x) dx = k\u222bf(x)dx.
\n(iii) In general, if f1<\/sub>, f2<\/sub>,………, fn<\/sub> are functions and k1<\/sub>, k2<\/sub>,…, kn<\/sub> are real numbers, then
\n\u222b[k1<\/sub>f1<\/sub>(x) + k2<\/sub> f2<\/sub>(x)+…+ kn<\/sub>fn<\/sub>(x)] dx = k1<\/sub> \u222bf1<\/sub>(x) dx + k2<\/sub> \u222b f2<\/sub>(x) dx+…+ kn<\/sub> \u222bfn<\/sub>(x) dx<\/p>\n

Basic Formulae<\/strong>
\n\"Integrals
\n\"Integration<\/p>\n

Integration Notes Chapter 7 Class 12<\/strong><\/p>\n

Integration using Trigonometric Identities<\/strong>
\nWhen the integrand involves some trigonometric functions, we use the following identities to find the integral:<\/p>\n