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#specialfunctions — Public Fediverse posts

Live and recent posts from across the Fediverse tagged #specialfunctions, aggregated by home.social.

  1. @AdrianRiskin
    Sketching the function in my head it's pretty clear that it has a maximum somewhere between -2 and 0. Doing the algebra I get x=exp(W(3e-1))-3 = −1.1454... which makes me confident :-)
    Nice problem - wrong course.
    #maths #SpecialFunctions #LambertW

  2. @AdrianRiskin
    Sketching the function in my head it's pretty clear that it has a maximum somewhere between -2 and 0. Doing the algebra I get x=exp(W(3e-1))-3 = −1.1454... which makes me confident :-)
    Nice problem - wrong course.
    #maths #SpecialFunctions #LambertW

  3. @AdrianRiskin
    Sketching the function in my head it's pretty clear that it has a maximum somewhere between -2 and 0. Doing the algebra I get x=exp(W(3e-1))-3 = −1.1454... which makes me confident :-)
    Nice problem - wrong course.
    #maths #SpecialFunctions #LambertW

  4. In mathematics, theta functions are special functions of several complex variables. They appear in various topics, including Abelian varieties, moduli spaces, quadratic forms, and solitons. As Grassmann algebras, they appear in quantum field theory.
    #ThetaFunction #JacobiThetaFunction #SpecialFunctions #ComplexVariables

  5. In mathematics, theta functions are special functions of several complex variables. They appear in various topics, including Abelian varieties, moduli spaces, quadratic forms, and solitons. As Grassmann algebras, they appear in quantum field theory.
    #ThetaFunction #JacobiThetaFunction #SpecialFunctions #ComplexVariables

  6. In mathematics, theta functions are special functions of several complex variables. They appear in various topics, including Abelian varieties, moduli spaces, quadratic forms, and solitons. As Grassmann algebras, they appear in quantum field theory.
    #ThetaFunction #JacobiThetaFunction #SpecialFunctions #ComplexVariables

  7. A few days back, I posted some #AnimatedGifs of the exact solution for a large-amplitude undamped, unforced #Pendulum. I then thought to complete the study to include the case when it has been fed enough #energy to allow it just to undergo #FullRotations, rather than just #oscillations. Well, it turns out that it is “a bit more complicated than I first expected” but I finally managed it.

    #Mathematics #AppliedMathematics #SpecialFunctions #DynamicalSystems #NonlinearPhenomena

  8. A few days back, I posted some #AnimatedGifs of the exact solution for a large-amplitude undamped, unforced #Pendulum. I then thought to complete the study to include the case when it has been fed enough #energy to allow it just to undergo #FullRotations, rather than just #oscillations. Well, it turns out that it is “a bit more complicated than I first expected” but I finally managed it.

    #Mathematics #AppliedMathematics #SpecialFunctions #DynamicalSystems #NonlinearPhenomena

  9. A few days back, I posted some #AnimatedGifs of the exact solution for a large-amplitude undamped, unforced #Pendulum. I then thought to complete the study to include the case when it has been fed enough #energy to allow it just to undergo #FullRotations, rather than just #oscillations. Well, it turns out that it is “a bit more complicated than I first expected” but I finally managed it.

    #Mathematics #AppliedMathematics #SpecialFunctions #DynamicalSystems #NonlinearPhenomena

  10. A few days back, I posted some #AnimatedGifs of the exact solution for a large-amplitude undamped, unforced #Pendulum. I then thought to complete the study to include the case when it has been fed enough #energy to allow it just to undergo #FullRotations, rather than just #oscillations. Well, it turns out that it is “a bit more complicated than I first expected” but I finally managed it.

    #Mathematics #AppliedMathematics #SpecialFunctions #DynamicalSystems #NonlinearPhenomena

  11. A few days back, I posted some #AnimatedGifs of the exact solution for a large-amplitude undamped, unforced #Pendulum. I then thought to complete the study to include the case when it has been fed enough #energy to allow it just to undergo #FullRotations, rather than just #oscillations. Well, it turns out that it is “a bit more complicated than I first expected” but I finally managed it.

    #Mathematics #AppliedMathematics #SpecialFunctions #DynamicalSystems #NonlinearPhenomena

  12. from "Definite integration using the generalized hypergeometric functions" by Ioannis Dimitrios Avgoustis (1977)

    dspace.mit.edu/handle/1721.1/1

    #math #specialfunctions

  13. from "Definite integration using the generalized hypergeometric functions" by Ioannis Dimitrios Avgoustis (1977)

    dspace.mit.edu/handle/1721.1/1

    #math #specialfunctions

  14. from "Definite integration using the generalized hypergeometric functions" by Ioannis Dimitrios Avgoustis (1977)

    dspace.mit.edu/handle/1721.1/1

    #math #specialfunctions

  15. from "Definite integration using the generalized hypergeometric functions" by Ioannis Dimitrios Avgoustis (1977)

    dspace.mit.edu/handle/1721.1/1

    #math #specialfunctions

  16. from "On the Specialness of Special Functions (The Nonrandom Effusions of the Divine Mathematician)" by R.W. Batterman (2007)

    philsci-archive.pitt.edu/2629/

    #math #specialfunctions

  17. from "On the Specialness of Special Functions (The Nonrandom Effusions of the Divine Mathematician)" by R.W. Batterman (2007)

    philsci-archive.pitt.edu/2629/

    #math #specialfunctions

  18. from "On the Specialness of Special Functions (The Nonrandom Effusions of the Divine Mathematician)" by R.W. Batterman (2007)

    philsci-archive.pitt.edu/2629/

    #math #specialfunctions

  19. from "On the Specialness of Special Functions (The Nonrandom Effusions of the Divine Mathematician)" by R.W. Batterman (2007)

    philsci-archive.pitt.edu/2629/

    #math #specialfunctions

  20. from "Delay differential equations via the matrix Lambert W function and bifurcation analysis: application to machine tool chatter" by Sun Yi, Patrick W. Nelson, and A. Galip Ulsoy (2007)

    pubmed.ncbi.nlm.nih.gov/176589

    #math #delaydifferentialequations #specialfunctions #lambertw

  21. from "Delay differential equations via the matrix Lambert W function and bifurcation analysis: application to machine tool chatter" by Sun Yi, Patrick W. Nelson, and A. Galip Ulsoy (2007)

    pubmed.ncbi.nlm.nih.gov/176589

    #math #delaydifferentialequations #specialfunctions #lambertw

  22. from "Delay differential equations via the matrix Lambert W function and bifurcation analysis: application to machine tool chatter" by Sun Yi, Patrick W. Nelson, and A. Galip Ulsoy (2007)

    pubmed.ncbi.nlm.nih.gov/176589

    #math #delaydifferentialequations #specialfunctions #lambertw

  23. from "Delay differential equations via the matrix Lambert W function and bifurcation analysis: application to machine tool chatter" by Sun Yi, Patrick W. Nelson, and A. Galip Ulsoy (2007)

    pubmed.ncbi.nlm.nih.gov/176589

    #math #delaydifferentialequations #specialfunctions #lambertw

  24. from "Special Functions of Mathematical Physics and Chemistry" by Ian N Sneddon (1956)

    #math #specialfunctions #physics #chemistry

  25. from "Special Functions of Mathematical Physics and Chemistry" by Ian N Sneddon (1956)

    #math #specialfunctions #physics #chemistry

  26. from "Special Functions of Mathematical Physics and Chemistry" by Ian N Sneddon (1956)

    #math #specialfunctions #physics #chemistry

  27. from "Special Functions of Mathematical Physics and Chemistry" by Ian N Sneddon (1956)

    #math #specialfunctions #physics #chemistry

  28. From "The analytic continuation of the Gaussian hypergeometric function 2F1(a,b;c;z) for arbitrary parameters" by W. Becken and P. Schmelcher (2000)

    core.ac.uk/download/pdf/821080

    #math #specialfunctions

  29. From "The analytic continuation of the Gaussian hypergeometric function 2F1(a,b;c;z) for arbitrary parameters" by W. Becken and P. Schmelcher (2000)

    core.ac.uk/download/pdf/821080

    #math #specialfunctions

  30. From "The analytic continuation of the Gaussian hypergeometric function 2F1(a,b;c;z) for arbitrary parameters" by W. Becken and P. Schmelcher (2000)

    core.ac.uk/download/pdf/821080

    #math #specialfunctions