HomeMolecular BiologyElectrospinning Jet: Force-Balance Thinning & Whip Model

Electrospinning Jet: Force-Balance Thinning & Whip Model (2D)

Interactive 2D electrospinning simulator: instead of an N-body bead-spring simulation, a closed-form force-balance ODE sets each jet element's velocity, mass conservation sets its shrinking cross-section, and a linear-stability dispersion relation predicts the whipping wavelength and growth rate directly from voltage, flow rate, gap and viscosity.

Molecular Biology2DAdvanced60 FPS📱 Mobile-adapted⇄ 3D version
2d-tissue-engineering-medicine ↗ Open standalone

The 3D version of this simulator drives the whipping instability by simulating real pairwise Coulomb repulsion, spring tension and drag across a chain of jet beads — the bending emerges from the N-body force sum. This 2D counterpart takes a genuinely different route to the same physics: each jet element's axial velocity comes from the exact analytic solution of a first-order force-balance ODE (electric driving force against viscous drag), its shrinking cross-section follows directly from mass conservation once that velocity history is known, and the whipping wavelength and growth rate are predicted up front from a linear-stability dispersion relation of the kind used in the electrospinning literature, rather than left to emerge from particle-particle forces. Tune voltage, flow rate, tip-to-collector distance and solution viscosity and watch the fiber diameter, whip wavelength and growth rate respond to the closed-form physics in real time.

⚙ Under the hood

Interactive 2D electrospinning simulator: a closed-form force-balance ODE sets each jet element's velocity, mass conservation shrinks its cross-section, and a linear-stability dispersion relation predicts the whipping wavelength and growth rate directly from voltage, flow rate, gap and viscosity — a genuinely distinct, independently-computed counterpart to the 3D N-body bead-spring simulation.

electrospinningnanofiberscaffoldtissue engineeringbiomaterialspolymer jetlinear stability2D

2D · HTML5 Canvas 2D · 60 FPS target · runs fully client-side, no install

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