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