Cosimir Pro -

The Cosimir Pro unit (see Fig. 1) integrates three functional layers:

J. Vance, L. Nakamura, A. Ionescu Institute for Quantum Vacuum Engineering (IQVE)

The Casimir effect is a result of the quantum fluctuations of the electromagnetic field, which cause the plates to experience a force. These fluctuations create virtual particles and antiparticles that constantly pop in and out of existence. When two plates are brought close together, the fluctuations between the plates are suppressed, creating a region with fewer virtual particles than outside the plates. This disparity in the number of virtual particles creates a pressure difference between the inside and outside of the plates, resulting in an attractive force. cosimir pro

One of the most powerful features of COSIMIR Pro is Offline Programming. Traditionally, robots were programmed by "teaching" them via a pendant while the robot was online—meaning it wasn't working. This represents significant downtime. With COSIMIR Pro, engineers can write the code on a PC, simulate the perfect path, and generate the code. This code can then be uploaded to the real robot. The result is a drastic reduction in setup times.

Among the various tools available to robotics engineers, stands out as a specialized, high-fidelity simulation environment. While it may not have the household recognition of some broader CAD suites, within the specific niche of automated manufacturing and educational robotics, it is a powerhouse. The Cosimir Pro unit (see Fig

A prototype 5 cm x 5 cm Cosimir Pro tile was suspended on a torsional balance inside a vacuum chamber at 10⁻⁶ Pa.

The Casimir effect, a quantum mechanical force arising from vacuum fluctuations, has traditionally been viewed as a source of stiction in microelectromechanical systems (MEMS). This paper introduces , a novel engineered surface architecture that not only nullifies parasitic Casimir forces but actively converts vacuum energy into usable electrical potential and thrust. By utilizing a dynamic metamaterial lattice with tunable electromagnetic boundary conditions, Cosimir Pro demonstrates a net repulsive force of 12 nN/mm² and a power density of 4.2 µW/cm² under lab conditions. This work represents the first commercially viable pathway toward zero-point energy extraction. Nakamura, A

The Casimir effect predicts an attractive force between two uncharged, perfectly conducting plates in a vacuum. For decades, this force has been a nuisance in nanoscale engineering. However, recent advances in suggest that by modifying the geometry and material composition of the interacting surfaces, the attractive force can be reversed (repulsive Casimir effect) or amplified.