Autonomous Path Planning

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  • Опубликовано: 21 авг 2024
  • Github Repo w/ Python Code to Solve this problem: github.com/twa...
    This video explains a way to mathematically find paths in space that avoid obstacles. It is assumed you have an understanding of at least calculus, but differential equations is also useful. Another video will be posted that utilizes the equations derived in this video in a computer program to actually make paths (here we just derive differential equations that the paths satisfy). Sorry I can't keep track of my greek alphabet but you get the point

Комментарии • 22

  • @danh7203
    @danh7203 4 года назад +6

    Ya know, some 30 years ago, I took multi-var calc and diff eq. I remember learning Euler-Lagrange equation and thinking "When the crap am I ever going to use this?" Well... today is that day!

  • @kevinchou4147
    @kevinchou4147 5 лет назад +2

    good explanation and impressive greek writting style!

  • @neelshah9349
    @neelshah9349 4 года назад

    I must say that you explained the topic very well. Thank you.

  • @womanescence4931
    @womanescence4931 5 лет назад +1

    This is so brilliantly explained!! Thank you so much!!!

  • @danh7203
    @danh7203 4 года назад +1

    Awesome video. Thank you for sharing!

  • @kid-vf4lu
    @kid-vf4lu 7 лет назад +2

    Good job! You're a natural at explaining
    Can you shared your sources?

    • @torenwallengren1714
      @torenwallengren1714  7 лет назад +2

      Thank you! I learned about the functional derivative and various applications through the books "Calculus of Variations" by Gelfand and Fomin and a book of the same title by Robert Weinstock. But the rest of the stuff in the video I figured out on my own (I'm sure it's been done before, but I haven't looked too deeply into that). I've been meaning to post a video of a program that actually creates paths through obstacles to show the equations work, but have not gotten around to it.

  • @ccli5701
    @ccli5701 Год назад

    I just love the title.
    But you are sketching.

  • @iffatjamil2976
    @iffatjamil2976 4 года назад

    Hello! Can you provide an explanation on RVO(Reciprocal Velocity Obstacles)and ORCA(Optimal Reciprocal Collision Avoidance)? Particularly RVO, in a way that exaplain yhis, I mean with mathematical equations so it will be easy to implement as a program

  • @MohamedWMehrez
    @MohamedWMehrez 3 года назад

    Hi, Thank you for the video. I was wondering if this method can work for multiple robots as well.

  • @harishkumaranandan5946
    @harishkumaranandan5946 6 лет назад +1

    Dear Toren:
    I went through the Path Planning video,it is really nice and interesting one. Can you let me know the simulation video so that i can get the complete outcome.

    • @torenwallengren1714
      @torenwallengren1714  6 лет назад

      Thanks! I've actually already finished the program that creates paths using these equations and I intend to post a video showing solutions within the next few days.

    • @harishkumaranandan5946
      @harishkumaranandan5946 6 лет назад

      That sounds good! I appreciate that, is there a way to connect with you except here ?

    • @harishkumaranandan5946
      @harishkumaranandan5946 6 лет назад

      Hi Tore, can you share me the link of the above said program. Thank you!

    • @torenwallengren1714
      @torenwallengren1714  6 лет назад

      Hey sorry it's taken so long, but here it is finally: ruclips.net/video/YenHzVpw6Rw/видео.html

  • @hanna7657
    @hanna7657 6 лет назад

    Hello! When will you upload the simulation video? :)

    • @torenwallengren1714
      @torenwallengren1714  6 лет назад

      Just did it! ruclips.net/video/YenHzVpw6Rw/видео.html

    • @hanna7657
      @hanna7657 6 лет назад

      I have some questions do you have an email I can get? Br

    • @torenwallengren1714
      @torenwallengren1714  6 лет назад

      Hanna sure! Send them to toren.wallengren@gmail.com

    • @rexiri1032
      @rexiri1032 5 лет назад

      @@torenwallengren1714 I was wondering if you could upload the messy algebra for part 38:30 in the video?