Play with research. We turn papers into interactive experiences: visual explanations, simulations & experiments you can try. Your paper. Made interactive.ipaper.aiJoined October 2026
The same kind of heater can move this circuit's transmission peak either way. The arm you heat sets the change in optical path difference.
doi.org/10.1364/OE.596…
Vatandoust et al. (2026). Conceptual iPaper.ai schematic.
At 1330 nm, both polarisations leave both cores. Near 1550 nm, they separate. Try the wavelength slider.
ipaper.ai/papers/3d-prin…
Bertoncini & Liberale (2020 preprint). iPaper.ai illustration, not detector footage.
A brighter photon-pair source can have a less clean coincidence signal. Move the pump-power slider to see the tradeoff.
ipaper.ai/papers/high-pe…
Sewidan et al. (2026). This iPaper.ai graph is a teaching model.
Laser tilt changes the timing between neighboring pillars. Try 15° and 40° in the model.
ipaper.ai/papers/coheren…
Dulat et al. (2025). This iPaper.ai illustration uses the grating rule, not a PIC simulation.
Panel e shows a laser jumping between resonances while staying locked. The mode-hop-free result uses a separate piezoelectric sweep.
nature.com/articles/s4156…
Reichler et al. (2026), Fig. 1. Schematic, browser capture. CC BY 4.0: creativecommons.org/licenses/by/4.…
Try Arch, then S bend. The network rebuilds around the route you choose.
ipaper.ai/papers/freefor…
Amoah et al. (2026). This iPaper.ai geometry reconstruction shows the construction rules. The bright line marks the route; no optical transmission is calculated.
The 23 µm film absorbs the most infrared. The 12 µm thermocouple gives the strongest voltage per watt.
Switch the ranking in this iPaper.ai screenshot comparison. Bose et al. (2026); ≈ values read from figures.
ipaper.ai/papers/tailori…
A nonlinear resonance can bend toward higher or lower frequencies. Laser detuning flips that direction in Slim and Verhagen's silicon nanobeam.
Illustrative Duffing curves from iPaper.ai, not measured data.
ir.amolf.nl/pub/11345
More detection patterns identify the input state when each logical qubit uses two photons. Kumar et al. (2026): 70.8% success in post-selected four-photon data, with background and detector corrections.
arxiv.org/abs/2609.10698
Sort electron arrivals by phase to localize a moving edge. Add more frames and the counts per frame drop.
Rehmann et al. (2026). iPaper.ai synthetic teaching example, assuming repeatable motion.
ipaper.ai/papers/nanosec…
A linearly polarized THz wave comes back nearly circular from these printed gold L shapes. Swap the mirror in the illustration.
Chaudhary et al. (2026). Field traces reconstructed from digitized spectra.
ipaper.ai/papers/broadba…
At 20 T, looking across the field gives one broad nitrogen peak. Look along it and the split appears.
Rotate the spectrometer in iPaper.ai.
Triantafyllidis et al. (2025). Simplified model, not the authors' PPPB code.
ipaper.ai/papers/zeeman-…
Six balanced magnetic states can share one energy. Tilting the magnets changes that.
Try 35.3° and 45° in iPaper.ai.
Berchialla, van den Berg et al., Small Structures (2026).
Point-dipole model, not measured energies.
ipaper.ai/papers/pyrochl…
The scattering problem stays the same. Change how you add its echoes.
Move the mixing dial into the island in iPaper.ai.
Karamehmedović & Triki, arXiv preprint (2026).
64×64 browser calculation.
ipaper.ai/papers/acceler…
A co-authored optics paper became an interactive explanation. From iPaper.ai founder Andrea Bertoncini.
Reddy, Bertoncini & Liberale, Optica (2022).
Analytical teaching model. Printed devices stay fixed; controls compare designs.
ipaper.ai/papers/paper--…
Raise the magnetic field from 0 to 10 to 20 tesla. The temperature gain levels off in this experiment.
Try the field control in iPaper.ai.
Triantafyllidis et al., Phys. Rev. Research (2026). Illustrative electron paths.
ipaper.ai/papers/direct-…
@SileNicChormaic@JPhysPhotonics The sharper dips after the shallow slit pattern in Fig. 6 caught my eye. Adding that small pattern recovers some of the Q lost to the larger cut.
Two polarisations swap cores at different rates. Move the cut to choose where each one leaves.
Try the coupling-length slider in iPaper.ai.
Bertoncini & Liberale (2020). Ideal model, edited live UI states.
ipaper.ai/papers/3d-prin…
A second light pulse changes which comb teeth stand out.
Drag it around the ring in this iPaper.ai illustration.
Peters et al., Nature Communications (2026). Not measured spectra.
ipaper.ai/papers/millime…
What changes when one air hole becomes solid polymer?
Light gathers in the new core in this iPaper.ai scalar teaching model. Try the centre-hole switch.
Bertoncini & Liberale (2020).
ipaper.ai/papers/3d-prin…
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