How to solve Series Solution of Legendre's Differential Equation by using simple steps

In this video explaining one method of Series Solution of Legendre's differential Equation. This is very simple method and using simple steps.
Overall Lagrange's partial differential equations have a wide range of applications in various areas of mathematics physics engineering and economics.
#easymathseasytricks #ledendredifferential
18MAT21 MODULE 1:Vector Calculus
• Vector Calculus
18MAT21 MODULE 2:Differential Equation higher order
• Ordinary Differential ...
18MAT21 MODULE 3: Partial differential equations
• Partial differential e...
18MAT21 MODULE 4: Infiinite series & Power series solution
• Special Functions
18MAT21 MODULE 5: Numerical methods
• Numerical methods
18MAT11 Module1: Differential Calculus1
• Differential Calculus1...
18MAT11 Module2: differential Calculus2
• Series Expansion & Mul...
18MAT11 Module3: Integral Calculus • Multiple Integrals & B...
18MAT11 Module4: Ordinary differential equations
• Ordinary differential ...
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LAPLACE TRANSFORM : 18MAT31
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Fourier Transforms Z-transform : 18MAT31 & 17MAT31
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Fourier Series: 18MAT31 & 17MAT31
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Calculus of Variation & Numerical Methods 18MAT31
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Calculus of Complex Functions: 18MAT41 & 17MAT41
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[@holyshit922]

Yes but after solving this equation by power series i would like to have following
If we assume that a_{0} = arbitrary constant and a_{1} = 0 for n even
or a_{0} = 0 and c_{1} = arbitrary constant for n odd
then series solution terminates after nth term
Moreover to get P_{n}(x) we need to have y(1) = 1

[@SD-wc4cg]

Why is the index running from 0 and not 2 in the double derivative?

[@juandavidmitrecedeno6890]

Because the terms with index lower than 2 in the power series become constants when you differentiate twice, and so when you take the derivatives of constants that is equal to 0. There would be no point summing cero twice to get to the 2-index term. Hope you find it helpful.

[@md.munnajomaddar8221]

Thank you sir, your video very helpful for us. I like you because u can solved problem very easy method. I see your video from Bangladesh .❤❤❤

[@EASYMATHSEASYTRICKS]

Thanks and welcome

[@macarenasantillan1404]

Thank you so much! this was so well explained!

[@ismritaneupane6828]

Thank you so much sir

[@noshinaamanullah524]

Can you please make a video on solution of associate legendre equation by power series method????

[@PoojaKumari-yo5ol]

Hnji Sir 🙏

[@moemyat2229]

I know legendre’s equation your explain .So,thank you so much

[@sankistudio1771]

Thank you so much sir, Well explained.

[@Dollygehan012]

Thankyou sir for this video..helped me alot..

[@sowmyasnayak8789]

Good and clear
explanation

[@EASYMATHSEASYTRICKS]

Thanks and welcome

[@sujatashiwakoti8821]

Sir can u please upload the video of hermite differential equation

[@armankaushik1646]

Good explanation in less time.....thanks a lot

[@fiziksbyamritha8103]

Please took video of solution of bessel function

[@anthonyochieng9041]

Thanks but At second derivative it's supposed to run from n=2 sir kindly

[@dushmantasagar147]

Ascending or descending this equation solve??

[@subhankardash5597]

Superb explanation

[@EASYMATHSEASYTRICKS]

Thank you 🙂

[@dhanasekara6626]

Very useful

[@meafordaaronpinto9895]

Very helpful

[@liker6]

❤ thx a lot sir

[@arunaru873]

Sir please explain W=e^z

[@artworld31]

Thank you sir much needed explanation ☺☺

[@ilyasansari7034]

Y ko differentiate krte time r=0.to r=1,2 nhi kiye h

[@bhyregowdagr5808]

How to write equations

[@RawootherKani]

Tnq sir very usefull video

[@EASYMATHSEASYTRICKS]

Welcome

[@RawootherKani]

Pls upload topology 1 subject sir

[@KumarKumar-gh8db]

Super explanation

[@EASYMATHSEASYTRICKS]

Thank you 🙂

[@maryamtahir2858]

Well explained..!!✨✨

[@EASYMATHSEASYTRICKS]

Thank you 🙂

[@prashanthkumars3761]

Nice

[@pratheekbidri2808]

thank u sir..

[@EASYMATHSEASYTRICKS]

Welcome

[@PoojaKumari-yo5ol]

Thanku sir 🙏🙏

[@kicchasamarth398]

🎉

[@bindassbinod9143]

what'sapp no sir

[@RakshithBS-qx4td]

You are too fast man.i think u thought of going somewhere at that time

[@PEACEFUL_ISLAM148]

🙂