ORI-C

Holograms of the Living

Representing cells, dynamic flows and regulatory loops through light

Explore
01

Holographic imaging of biological forms

Capturing real living systems in three dimensions

La digital holographic microscopy (DHM) makes it possible to observe living cells in 3D without damaging them. The technique reconstructs three-dimensional images that reveal movement and interactions within living matter.

Researchers at Caltech have developed DHM systems able to detect living microbes, while at Kobe University a multimodal system combines 3D phase and fluorescence to visualise cell division or energy dissipation in real time.

How to proceed

  1. Scan biological samples (bacteria, plant tissues, miniature ecosystems) with a holographic microscope
    Leica Thorlabs ~50 000 €
  2. Process the data with holographic reconstruction software — add layers to visualise the flows
    HoloStudio MATLAB
  3. Project through a holographic display for an immersive visualisation
    Looking Glass HoloLens
02

Simulating flows, loops and dissipation

Making the invisible dynamics of living systems visible

The dynamic aspects of living systems — self-maintenance, production of coherence, resistance to entropy — remain invisible to the naked eye. Prigogine's dissipative structures show that living systems are a far-from-equilibrium regime.

These processes can be modelled in holographic 3D: flows appear as vortices, constraints as pulsing membranes, autocatalytic loops as rotating spirals. Hybridising them with real data creates a complete representation.

Simulation of energy flows
and entropy dissipation

Modelling tools

  1. Model with 3D software and holographic plug-ins
    Unity Blender
  2. Hybridise real data and simulations for a complete representation
  3. Allow interaction: zoom in, perturb the equilibrium, observe the resistance
    HoloLens 2 RED Holographics
03

Multi-scale integration

From the cell to the ecosystem, a living hologram

To represent all the forms of living systems, multimodal holograms make it possible to navigate between scales: from cellular metabolism to tissue flows and up to the global dissipation of an ecosystem.

Inspired by Susskind's holographic principle, this approach visualises life as a coherent projection of information — a photonic geometry in which coherence, loops and dissipation intertwine.

Micro Cell
Metabolic loops
Meso Tissues
Blood flows
Macro Ecosystem
Carbon cycle

Generative creation

  1. Create a multi-scale hologram with fluid navigation between levels
  2. Use generative AI for dynamic 3D simulations
    Stable Diffusion HoloGAN
  3. Add gestural interactions: perturb an equilibrium, observe the resistance of the system