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#livingmatter — Public Fediverse posts

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

  1. With Pierre Recho, we're now giving a doctoral-level course on #continuumMechanics and #thermodynamics of #LivingMatter.

    That's the 2nd edition, the 1st one led us to write the ⬆️ above paper ⬆️ .

    Lecture notes are online, happy to have feedback!

    liphy-annuaire.univ-grenoble-a

  2. With Pierre Recho, we're now giving a doctoral-level course on #continuumMechanics and #thermodynamics of #LivingMatter.

    That's the 2nd edition, the 1st one led us to write the ⬆️ above paper ⬆️ .

    Lecture notes are online, happy to have feedback!

    liphy-annuaire.univ-grenoble-a

  3. With Pierre Recho, we're now giving a doctoral-level course on #continuumMechanics and #thermodynamics of #LivingMatter.

    That's the 2nd edition, the 1st one led us to write the ⬆️ above paper ⬆️ .

    Lecture notes are online, happy to have feedback!

    liphy-annuaire.univ-grenoble-a

  4. With Pierre Recho, we're now giving a doctoral-level course on #continuumMechanics and #thermodynamics of #LivingMatter.

    That's the 2nd edition, the 1st one led us to write the ⬆️ above paper ⬆️ .

    Lecture notes are online, happy to have feedback!

    liphy-annuaire.univ-grenoble-a

  5. With Pierre Recho, we're now giving a doctoral-level course on #continuumMechanics and #thermodynamics of #LivingMatter.

    That's the 2nd edition, the 1st one led us to write the ⬆️ above paper ⬆️ .

    Lecture notes are online, happy to have feedback!

    liphy-annuaire.univ-grenoble-a

  6. Our article on the #mechanics of "active" entropic biopolymer networks [possibly including #actomyosin, this is debated experimentally] is now published in J Elas.

    Compared to enthalpic models, we're able to go right from the #thermodynamics of an unbiased #molecularMotor activity (in the spirit of the model by #JacquesProst for #myosin) at the molecular scale to a network-scale model in a closed form.

    And we derive a method for solving quite easily the (usually tough) #viscoelastic #liquid model that we obtain, using #deformationGradientDecomposition.

    doi.org/10.1007/s10659-024-101
    (I share a paywall-free link to my followers below, but it's also on arXiv: arxiv.org/abs/2405.07287 and on my webpage liphy-annuaire.univ-grenoble-a)

    #cytoskeleton #cell #tissue #morphogenesis #activeMatter #livingMatter

  7. Our article on the #mechanics of "active" entropic biopolymer networks [possibly including #actomyosin, this is debated experimentally] is now published in J Elas.

    Compared to enthalpic models, we're able to go right from the #thermodynamics of an unbiased #molecularMotor activity (in the spirit of the model by #JacquesProst for #myosin) at the molecular scale to a network-scale model in a closed form.

    And we derive a method for solving quite easily the (usually tough) #viscoelastic #liquid model that we obtain, using #deformationGradientDecomposition.

    doi.org/10.1007/s10659-024-101
    (I share a paywall-free link to my followers below, but it's also on arXiv: arxiv.org/abs/2405.07287 and on my webpage liphy-annuaire.univ-grenoble-a)

    #cytoskeleton #cell #tissue #morphogenesis #activeMatter #livingMatter

  8. Our article on the #mechanics of "active" entropic biopolymer networks [possibly including #actomyosin, this is debated experimentally] is now published in J Elas.

    Compared to enthalpic models, we're able to go right from the #thermodynamics of an unbiased #molecularMotor activity (in the spirit of the model by #JacquesProst for #myosin) at the molecular scale to a network-scale model in a closed form.

    And we derive a method for solving quite easily the (usually tough) #viscoelastic #liquid model that we obtain, using #deformationGradientDecomposition.

    doi.org/10.1007/s10659-024-101
    (I share a paywall-free link to my followers below, but it's also on arXiv: arxiv.org/abs/2405.07287 and on my webpage liphy-annuaire.univ-grenoble-a)

    #cytoskeleton #cell #tissue #morphogenesis #activeMatter #livingMatter

  9. Our article on the #mechanics of "active" entropic biopolymer networks [possibly including #actomyosin, this is debated experimentally] is now published in J Elas.

    Compared to enthalpic models, we're able to go right from the #thermodynamics of an unbiased #molecularMotor activity (in the spirit of the model by #JacquesProst for #myosin) at the molecular scale to a network-scale model in a closed form.

    And we derive a method for solving quite easily the (usually tough) #viscoelastic #liquid model that we obtain, using #deformationGradientDecomposition.

    doi.org/10.1007/s10659-024-101
    (I share a paywall-free link to my followers below, but it's also on arXiv: arxiv.org/abs/2405.07287 and on my webpage liphy-annuaire.univ-grenoble-a)

    #cytoskeleton #cell #tissue #morphogenesis #activeMatter #livingMatter

  10. Our article on the #mechanics of "active" entropic biopolymer networks [possibly including #actomyosin, this is debated experimentally] is now published in J Elas.

    Compared to enthalpic models, we're able to go right from the #thermodynamics of an unbiased #molecularMotor activity (in the spirit of the model by #JacquesProst for #myosin) at the molecular scale to a network-scale model in a closed form.

    And we derive a method for solving quite easily the (usually tough) #viscoelastic #liquid model that we obtain, using #deformationGradientDecomposition.

    doi.org/10.1007/s10659-024-101
    (I share a paywall-free link to my followers below, but it's also on arXiv: arxiv.org/abs/2405.07287 and on my webpage liphy-annuaire.univ-grenoble-a)

    #cytoskeleton #cell #tissue #morphogenesis #activeMatter #livingMatter