MANIFESTO OF THE LAST QUANTUM OF FLESH AND BLOOD

This reflection begins with a simple problem: computing power is increasing, but heat, energy and the physical limits of silicon are becoming major obstacles. The intuition developed here is neither a scientific demonstration nor a completed technical architecture. It points towards a direction: seeking the next breakthrough not only in a new chip, but in a new way of manufacturing matter itself.

1. The real lock: heat

The future of miniaturisation will not depend solely on smaller transistors. The denser the components become and the more layers are stacked, the harder heat becomes to remove.

A chip producing far less heat for the same amount of computation would transform the entire computing economy: electricity consumption, cooling, density, data-centre costs and available power.

2. Carbon as a possible passage beyond silicon

Carbon offers several forms with very different properties: graphene, carbon nanotubes, synthetic diamond and other nanoscale structures.

Some of these forms possess exceptional electrical or thermal properties. The idea is therefore not simply to replace silicon with carbon, but to use carbon’s diversity as the basis for new architectures.

Synthetic diamond also shows that a material long considered difficult to produce can become industrial once its tools and manufacturing processes are finally mastered.

3. Quantum physics and carbon

As we descend towards the atomic scale, the quantum behaviour of matter can no longer be ignored. The intuition is that the path beyond silicon could pass through the encounter between carbon and quantum physics.

Carbon would not necessarily be the final destination, but it could form a technological bridge: learning to organise, connect and control matter at scales where quantum phenomena become directly exploitable.

4. The problem of successive operations

Manufacturing in several stages creates interfaces. Each interface can introduce misalignment, contamination, contact resistance or a break in continuity.

At the nanoscale, and even more so at the quantum scale, these imperfections become critical. Hence a central intuition: the ideal structure should, as far as possible, be formed in one continuous piece.

Several operations potentially mean the loss of a perfect connection. The technological leap would therefore be to manufacture a complex structure whose internal logic is already organised, in a single formation.

5. The manufacturing matrix

The decisive problem may not be the material itself, but the tool that is still missing.

What would be needed is a kind of matrix capable of imposing geometry, orientation, connections, and conductive, insulating and quantum zones simultaneously, instead of manufacturing and then correcting layer after layer.

This matrix would be to the atomic world what a mould is at our scale, but with infinitely greater precision: it would no longer merely engrave matter; it would bring it directly into being in the desired form.

6. Vacuum as a natural environment

Such manufacturing would require an extraordinarily clean environment. A vacuum would remove the oxygen responsible for carbon oxidation and greatly limit molecular contamination.

A vacuum does not remove heat: it removes convection. Heat would therefore have to be evacuated by conduction through the materials and towards suitable heat sinks.

The necessary laboratory would also have to control temperature, vibrations, electrical and magnetic fields, and the purity of the environment.

7. A ‘NASA of the infinitely small’

Such a programme would probably exceed the means of an isolated laboratory. It would have to bring together quantum physicists, chemists, carbon specialists, nanofabrication, vacuum, atomic metrology, robotics and machine engineering.

It would be the equivalent of a NASA devoted not to the conquest of the very large, but to that of the infinitely small.

Its objective could be formulated as follows: learning to construct matter with the same precision with which we know how to engrave it today.

8. Space as a workshop

Space could become a privileged location for such a laboratory. It naturally offers a vacuum and can provide particular conditions of microgravity and isolation.

Radiation, thermal variations, energy, robotic maintenance and the cost of access would obviously have to be controlled. But space could become not only a territory to explore, but a workshop where humanity would manufacture structures that are impossible to produce easily on Earth.

This reversal is essential: conquering space in order to better conquer the infinitely small.

9. The fictional continuation

This intuition joins the ending of the novel ‘The Last of the Qbites’: space becomes the place where a new mastery of matter is prepared.

But this conquest guarantees no liberation. On the contrary, it could create a form of domination more plausible and more terrible than a takeover by robots.

Two technologically dominant human groups might seek to eliminate one another while making the rest of humanity dependent on their infrastructure, energy, production and computing systems.

Earth’s inhabitants would not necessarily be conquered by an army. They would become slaves because they could no longer live outside the systems controlled by these two powers.

10. The final question

The paradox would then be complete: at the very moment when humanity learned to master the infinitely small, it could lose its own freedom.

The novel’s question would therefore no longer be only: how far can we miniaturise matter?

It would become: what happens to the human being when a few possess the tool capable of manufacturing matter, information and the dependence of others?