iPaper.ai

What if readers could play with your research? iPaper.ai turns papers into interactive experiences: change a parameter, explore a mechanism, see what happens. Your paper. Made interactive. ipaper.ai #SciComm #AcademicSky

Heat the long arm: the transmission peak moves to longer wavelengths. Heat the short arm: it moves the other way. doi.org/10.1364/OE.5... Vatandoust et al. (2026). Conceptual iPaper.ai diagram of the measured cascaded response.

One printed splitter, two different results at 1330 and 1550 nm. Move the wavelength slider to compare. ipaper.ai/papers/3d-pr... Bertoncini & Liberale (2020 preprint). Edited iPaper.ai browser states; the spots are illustrative.

More pump light brings more photon pairs, and more accidental matches. Try the power slider. ipaper.ai/papers/high-... Sewidan et al. (2026). iPaper.ai teaching curves, not measured points.

Tilt the laser from 15° to 40° and watch the beam direction shift. ipaper.ai/papers/coher... Dulat et al. (2025). iPaper.ai grating-rule illustration, not a PIC simulation.

Moving a port changes how the feedback phase advances across resonances. Follow the red path in panel e: it hops between locked branches. www.nature.com/articles/s41... Reichler et al. (2026), Fig. 1. Schematic, browser capture. CC BY 4.0: creativecommons.org/licenses/by/...

Reshape the path and let the surrounding cells settle. ipaper.ai/papers/freef... Amoah et al. (2026). iPaper.ai geometry lab. No optical transmission is calculated.

Rank the prints by light absorbed, then by voltage per watt. ipaper.ai/papers/tailo... Bose et al. (2026). iPaper.ai screenshot comparison; ≈ values from figures.

Change the laser detuning, and the same silicon nanobeam switches between hardening and softening. ir.amolf.nl/pub/11345 Slim & Verhagen (2026). iPaper.ai teaching curves, not measured sweeps.

Encoding two photons per logical qubit makes extra detector patterns identifiable. arxiv.org/abs/2609.10698 Kumar, Reiß, van Loock and Barz (2026). The measured 70.8% is for post-selected, corrected four-photon data.

Sort the arrivals by phase. The blurred edge becomes a narrow band. ipaper.ai/papers/nanos... Rehmann et al. (2026). iPaper.ai synthetic example.

Swap the mirror. Watch the field trace change. ipaper.ai/papers/broad... Chaudhary et al. (2026). iPaper.ai, digitized spectra.

Look along the field to reveal the split. ipaper.ai/papers/zeema... Triantafyllidis et al. (2025). iPaper.ai teaching model.

Tip the magnets. Split the energies. ipaper.ai/papers/pyroc... Berchialla, van den Berg et al. (2026). iPaper.ai point-dipole model.

Move the mixing dial into the island. Every echo pattern then shrinks. ipaper.ai/papers/accel... Karamehmedović & Triki, arXiv (2026). iPaper.ai 64×64 browser model.

From our founder, Andrea Bertoncini. A co-authored optics paper, now interactive. ipaper.ai/papers/paper... Reddy, Bertoncini & Liberale, Optica (2022). iPaper.ai analytical model. Normalized brightness.

Raise the field. Find the temperature plateau. ipaper.ai/papers/direc... Triantafyllidis et al. (2026). iPaper.ai teaching model.

Move the cut until the polarisations split. ipaper.ai/papers/3d-pr... Bertoncini & Liberale (2020). iPaper.ai ideal model, edited UI states.

Add a second light pulse. Move it around the ring and watch the comb change. ipaper.ai/papers/milli... iPaper.ai illustration of Peters et al. (2026). Not measured spectra.

Fill one hole. Light gathers in the solid core. Try the iPaper.ai scalar model. Bertoncini & Liberale (2020). ipaper.ai/papers/3d-pr...

The sources stay put. Switch them from in step to out of step and the quiet lines shift. Try the timing control: ipaper.ai Two paused views of iPaper.ai's illustrative wave model.

Change the beam order. A bright center becomes a dark one. Try the iPaper.ai beam lab. Reddy, Bertoncini & Liberale, Optica (2022). Analytical model, normalized brightness. ipaper.ai/papers/paper...

Tap ELI5 for plain words. Then switch Empty to Live and watch D2 in the iPaper.ai illustration. Pereira Pinto et al., Braz. J. Phys. (2023). Simulated photons, ideal probabilities. ipaper.ai/papers/paper...

Can a lake survive on a planet with permanent day and night? Explore the iPaper.ai illustration. Williams et al., arXiv preprint (2026). Creation flow: sped-up mock-up. ipaper.ai/papers/paper...

A trace of surfactant, ~20× the first droplet's volume, at the paper's critical conditions. Try the illustrative iPaper.ai replay. Rodríguez-Aparicio et al., JFM (2026). ipaper.ai/papers/paper...

Explore this paper: ipaper.ai/papers/paper... Made interactive with iPaper.ai.

Can sound hold a bead in mid-air? Try the illustrative TinyLev model. Marzo, Barnes & Drinkwater (2017). ipaper.ai/papers/tinyl...

Can sound lift a drop of water? Change the timing in our new TinyLev experience. Marzo, Barnes & Drinkwater, Rev. Sci. Instrum. (2017). Illustrative model. ipaper.ai/papers/tinyl...

Change a spin. Swap a block. See what happens. Two iPaper.ai experiences: cilia (Liu et al., Nature) and STARTER (Paul et al., Lab on a Chip). Illustrative models. Cilia: ipaper.ai/papers/3d-pr... STARTER: ipaper.ai/papers/start...

Same pumps. Same chips. Swap one routing block: a different fluid circuit. Explore STARTER with iPaper.ai. Research: Paul et al., Lab on a Chip (2026). Illustrative model. ipaper.ai/papers/start...

Can tiny gel hairs steer water? Change their spin in this iPaper.ai experience. Research: Liu et al., Nature (2026). Simplified teaching model. ipaper.ai/papers/3d-pr...

Years of experiments. Reviewer 2. Finally: ACCEPTED! And then… manuscript_final_v7.pdf. Your discovery deserves a world people can explore. See your research come alive with iPaper.ai. ipaper.ai #SciComm #AcademicSky