The Love Affair of "Coupled" Pendulum (Normal Modes & Frequencies) | Lagrangian EOM - Matrix form

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  • Опубликовано: 12 сен 2024

Комментарии • 51

  • @FortheLoveofPhysics
    @FortheLoveofPhysics  3 года назад +2

    Next Up - COUPLED OSCILLATORS (Spring mass systems)
    ruclips.net/video/4WhrNjg3I_o/видео.html

  • @ManojKumar-cj7oj
    @ManojKumar-cj7oj 3 года назад +16

    Very few things are perfect around us like your explanation 🎩❤️

  • @drvanhelsingz5133
    @drvanhelsingz5133 2 года назад +5

    You sir should have 2 million followers. This stuff is awesome.

  • @pravitrawat7213
    @pravitrawat7213 3 года назад +3

    This is amazing!
    The first normal frequency corresponds to just a normal pendulum. ie. √(g/l)
    The second one also includes the effect of a spring too, the natural frequency of a spring with two masses = k/(m/2) here m/2 is the reduced mass. And the second normal mode is just √(g/l +2k/m) . Kind of the sum of a spring and simple pendulum.
    Brilliant lecture sir! Love this channel!

  • @renjithaa9060
    @renjithaa9060 2 года назад +4

    Thank you very much .i never got this excited in any of my Physics class .. superbly explained 💓💓💓

  • @press2701
    @press2701 10 месяцев назад

    Amazing video. I am transfixed by the patient, clear, methodical process of solving such an elegant system. I am an engineer in process control theory, poles, zeros, PID, dead-time, stochastics and z-transforms. You have my respect, well done.

  • @speedbird7587
    @speedbird7587 Год назад

    I really enjoy how you explain in a very intuitive manner ,
    Thanks for the video!

  • @p.kalyanachakravarty7530
    @p.kalyanachakravarty7530 Год назад +1

    What a gem of a video and such an excellent presentation.....👌

  • @AmitKumar-wl7gg
    @AmitKumar-wl7gg 3 года назад +3

    Sir your explanation is great👍👏👏👏

  • @Stuk4s
    @Stuk4s 3 года назад +2

    Wow, great video, u are a great teacher

  • @DeepakSharma-sr5bb
    @DeepakSharma-sr5bb 3 года назад +3

    Sir, Great explanation. Please also tell about simulation software . Is this any simulation software ?

  • @argujjar835
    @argujjar835 3 года назад +1

    Always waited for your videos...plz make a video series of Quantum mechanics

  • @nolanjohnston9500
    @nolanjohnston9500 2 года назад

    Another amazing video. Thank you so much!

  • @ayushthakur8836
    @ayushthakur8836 3 года назад +1

    Superrb as usual👍👍👍❤️❤️

  • @Lime-rr6te
    @Lime-rr6te 2 года назад

    I look forward to your next video.

  • @anuragmajumdar6678
    @anuragmajumdar6678 Год назад

    Loved your explanation sir.....very useful for our ug program

  • @FredericoPiresdosSantos
    @FredericoPiresdosSantos 2 месяца назад

    Very Good!!!!!!!

  • @maskarammaskaram3580
    @maskarammaskaram3580 3 года назад +2

    Sir...Small oscillations of connected pendulums is my project topic. Can u plz share the future work of this topic?

  • @jaynehinson7522
    @jaynehinson7522 10 месяцев назад

    Fantastic :D

  • @peonyrose8694
    @peonyrose8694 Год назад

    This is so neat.

  • @saadhassan8813
    @saadhassan8813 10 месяцев назад

    Nice lecture

  • @saadhassan8813
    @saadhassan8813 10 месяцев назад

    Dear Sir, when deriving the expression for potential energy, you only used extension of the spring in the x-axis only, why did you not include extension in y-axis?

  • @pauldirac6243
    @pauldirac6243 Год назад

    Great presentation. Can you provide a screenshot of the entire Scilab program so we can play around with it a little? It cuts off pretty short..

  • @user-rg5qr6zn9m
    @user-rg5qr6zn9m 3 года назад

    Thank you for your efforts

  • @joydeepguha4108
    @joydeepguha4108 3 года назад

    Explanation is great 👌👌👌

  • @isro_iuac
    @isro_iuac Год назад

    sir aap kaun sa simulation use kar rahe hai

  • @darwinvironomy3538
    @darwinvironomy3538 Год назад

    for the extension of the spring, isn't there the extension from the y difference also? why are you applying only for x where the pendulum could be in different y?
    even so, i think your way still works since y in small oscillation almost never oscillate.

  • @mamonahassan3962
    @mamonahassan3962 3 года назад

    Wonderful

  • @asifbhutta3101
    @asifbhutta3101 2 года назад

    Sir Plz tell in eq 1 "K" is ppsitive butin eq 2 "K" is negative
    What is its physical meaning

  • @cunningham.s_law
    @cunningham.s_law Год назад

    what software are you using for this?

  • @hashensenevirathna1245
    @hashensenevirathna1245 Год назад

    what is the simulation software that used

  • @NRUSINGHAPRASADMAHAPATRA
    @NRUSINGHAPRASADMAHAPATRA 3 года назад

    Thanks sir 🙏🙏😊

  • @M.ZEE14
    @M.ZEE14 3 года назад

    Sir kindly make a video for cross section of nuclear scattering please

  • @thetimesonseffect7289
    @thetimesonseffect7289 Год назад

    how did you consider determinant that's where I got struck .

  • @M.ZEE14
    @M.ZEE14 3 года назад

    Love you sir from pakistan...

  • @ankitmishra2723
    @ankitmishra2723 3 года назад

    Thanks sir

  • @sachinmishra4045
    @sachinmishra4045 3 года назад +1

    I wish I could study under you.. sir🔥

  • @nthumara6288
    @nthumara6288 Год назад

    what is mean lagrangin

  • @tusharkumar1268
    @tusharkumar1268 2 года назад

    @23:54 why didnt sir used +- after resolving roots?

  • @shashwatsrivastava253
    @shashwatsrivastava253 3 года назад +1

    Sir is coupled pendulum a part of jee syllabus

    • @FortheLoveofPhysics
      @FortheLoveofPhysics  3 года назад +1

      No, it's usually studied in Classical Mechanics, while discussing normal modes etc

    • @shashwatsrivastava253
      @shashwatsrivastava253 3 года назад +1

      @@FortheLoveofPhysics ok thanks I guessed so..

  • @catsyrup1289
    @catsyrup1289 2 года назад

    How do you get the determinant equation???

    • @nolanjohnston9500
      @nolanjohnston9500 2 года назад

      I know I am kind of late in replying but I believe it is because oscillatory motion is assumed with angular frequency omega.

  • @mayankwasnikiitkgp3430
    @mayankwasnikiitkgp3430 2 года назад

    👌👌

  • @Sandhaan108
    @Sandhaan108 3 года назад

    Who are You? How do you perform these simulations?

  • @PrivateSi
    @PrivateSi 3 года назад

    The first few minutes of the pendulum diagram animation is how positrons and electrons do NOT (always) annihilate in my growing Positronic Universe model.. Only an exactly opposite phase electron + positron annihilate (ie. those created as an entangled pair at exactly the same time, if they get close enough to each other)... Else a 'noton' forms..
    --
    A neutrino is an unquantised math fudge to balance erroneous charge energy equations, notons stabilise via the strong force as a tiny particle as it has no electrostatic charge field and the strong force bonds are as short as can be... Notons could be, and probably are less massive than electrons/positrons, even though they are made of one of each, as electrons and positrons have spin loops going in and out at the particle centre focal point, with radius stretching as far as the e-/p+ near electrostatic field...
    --
    Protons are much more massive as the central electron (down quark) only half neutralises each Positron (up quark), so they repel each other, lengthening the strong force bonds (merged e- and p+ spin loops = magnetic field), increasing mass... This balances as well as QCD in a simpler manner.. my electrons and positrons have 6 ot 12 bond points, depending on the model version.. More is possible but ugly... 12 field cells surround 1 extra, free, mobile field cell (positron) or hole (electron)... It's a close packed Dirac Sea of +ve fuzzballs, with the bonus that field cells can break free, forming a vibrating positron + electron pair...

  • @twinbabiesreaction5830
    @twinbabiesreaction5830 3 года назад

    "Class apart"

  • @HEMANTKUMAR-gz4zt
    @HEMANTKUMAR-gz4zt 3 года назад

    👏👏👏👏👏👏❤❤❤❤❤❤❤❤❤