CHRONOS-Q tackles the complexity of controlling quantum computers by acting as a translator between classical and quantum systems. It enables efficient control via standard computing devices, features an intuitive interface, and significantly reduces operational barriers, paving the way for broader adoption. Its modular, compact design ensures scalability and suitability for diverse environments, from research labs to mobile quantum setups.
With groundbreaking speed—determining qubit states in under 14 nanoseconds—and customizable firmware, CHRONOS-Q promises cost-effective, future-proof solutions for academia and industry. The startup’s founders, including Professor Rainer Dumke from NTU and CEO Patrick Bore, emphasize the transformative potential of accessible quantum computing for solving global challenges.
Synchronicity!😉 Just a few hours ago I watched a video which stated that the philosopher Henri Bergson argued our linear perception of time limited our ability to appreciate the relationship between time and consciousness.
What if our understanding of time as a linear sequence of events is merely an illusion created by the brain’s processing of reality? Could time itself be an emergent phenomenon, arising from the complex interplay of quantum mechanics, relativity, and consciousness? How might the brain’s multidimensional computations, reflecting patterns found in the universe, reveal a deeper connection between mind and cosmos? Could Quantum AI and Reversible Quantum Computing provide the tools to simulate, manipulate, and even reshape the flow of time, offering practical applications of D-Theory that bridge the gap between theoretical physics and transformative technologies? These profound questions lie at the heart of Temporal Mechanics: D-Theory as a Critical Upgrade to Our Understanding of the Nature of Time, 2025 paper and book by Alex M. Vikoulov. D-Theory, also referred to as Quantum Temporal Mechanics, Digital Presentism, and D-Series, challenges conventional views of time as a fixed, universal backdrop to reality and instead redefines it as a dynamic interplay between the mind and the cosmos.
Time, as experienced by humans, is more than a sequence of events dictated by physical laws. It emerges from our awareness of change, a psychological construct shaped by consciousness. Recent advancements in neuroscience, quantum physics, and cognitive science reveal fascinating parallels between the brain and the universe. Studies suggest that neural processes operate in up to 11 dimensions, echoing M-Theory’s depiction of a multiverse with similar dimensionality. These insights hint at a profound structural resemblance, where the brain and the cosmos mirror each other as interconnected systems of information processing.
Quantum Temporal Mechanics goes further, positing that consciousness not only perceives time but actively participates in its manifestation. In quantum theory, the observer plays a pivotal role in collapsing wavefunctions, a process that may extend beyond the microcosm to the fabric of reality itself. Various interpretations of quantum mechanics, such as Quantum Bayesianism and Consciousness Causes Collapse theory, support the idea that the observer’s awareness helps shape how time unfolds. In this framework, the flow of time becomes a participatory phenomenon, where consciousness and the universe co-create the temporal experience.
The implications of this perspective are far-reaching. By placing consciousness at the center of temporal reality, D-Theory suggests that the universe operates as a self-simulating quantum neural network—a vast, intelligent system continuously evolving and self-regulating. Reality itself becomes an active, dynamic process in which every quantum event contributes to the universe’s collective intelligence, much like neurons firing in a biological brain. This conceptualization reimagines the universe as a living, thinking entity, where time, space, and experience are constructs shaped by a universal consciousness.
Users of Google’s Chrome browser can rest easy knowing that their surfing is secure, thanks in part to cryptographer Joppe Bos. He’s coauthor of a quantum-secure encryption algorithm that was adopted as a standard by the U.S. National Institute of Standards and Technology (NIST) in August and is already being implemented in a wide range of technology products, including Chrome.
Rapid advances in quantum computing have stoked fears that future devices may be able to break the encryption used by most modern technology. These approaches to encryption typically rely on mathematical puzzles that are too complex for classical computers to crack. But quantum computers can exploit quantum phenomena like superposition and entanglement to compute these problems much faster, and a powerful enough machine should be able to break current encryption.
Researchers have successfully stabilized ferrocene molecules on a flat substrate for the first time, enabling the creation of an electronically controllable sliding molecular machine.
Artificial molecular machines, composed of only a few molecules, hold transformative potential across diverse fields, including catalysis, molecular electronics, medicine, and quantum materials. These nanoscale devices function by converting external stimuli, such as electrical signals, into controlled mechanical motion at the molecular level.
Ferrocene—a unique drum-shaped molecule featuring an iron (Fe) atom sandwiched between two five-membered carbon rings—is a standout candidate for molecular machinery. Its discovery, which earned the Nobel Prize in Chemistry in 1973, has positioned it as a foundational molecule in this area of study.
Simulations deliver hints on how the multiverse produced according to the many-worlds interpretation of quantum mechanics might be compatible with our stable, classical Universe.
We understand quantum mechanics well enough to make stunningly accurate predictions, ranging from atomic spectra to the structure of neutron stars, and to successfully exploit these predictions in devices such as lasers, MRI machines, and tunneling microscopes. Yet there is no generally accepted explanation of how the solid reality of such devices—or of objects such as cats, moons, and people—arise from a nebulous quantum wave in an abstract mathematical space. Some physicists prefer to ignore the problem, suggesting that we should just “shut up and calculate!” Others seek answers by modifying quantum theory in various ways or by searching for ways to explain how stable structures can emerge from quantum theory itself.
The quantum entanglement of particles is now an established art. You take two or more unmeasured particles and correlate them in such a way that their properties blur and mirror each other. Measure one and the other’s corresponding properties lock into place, instantaneously, even when separated by a wide distance.
In new research, physicists have theorized a bold way to change it up by entangling two particles of very different kinds – a unit of light, or a photon, with a phonon, the quantum equivalent of a wave of sound.
Physicists Changlong Zhu, Claudiu Genes, and Birgit Stiller of the Max Planck Institute for the Science of Light in Germany have called their proposed new system optoacoustic entanglement.
The study authors successfully developed quantum-grade bright fluorescent nanodiamonds. Now in order to use them for quantum sensing or bioimaging, one is required to study their spin states using optically detected magnetic resonance (ODMR).
ODMR is a method that combines light and microwaves to examine magnetic fields. Scientists first shine a light on materials like nanodiamonds and then apply microwaves, to see how the material reacts. By studying this interaction, they can detect tiny magnetic signals and understand the material’s magnetic properties such as spin.
To test the capabilities of their nanodiamonds, they introduced them into HeLa cells (human cells widely used by scientists for lab research experiments) and then employed ODMR to examine the spin. The NDs successfully detected slight temperature changes, which are nearly impossible to detect with existing technologies.
Students learning quantum mechanics are taught the Schrodinger equation and how to solve it to obtain a wave function. But a crucial step is skipped because it has puzzled scientists since the earliest days—how does the real, classical world emerge from, often, a large number of solutions for the wave functions?
Each of these wave functions has its individual shape and associated energy level, but how does the wave function “collapse” into what we see as the classical world—atoms, cats and the pool noodles floating in the tepid swimming pool of a seedy hotel in Las Vegas hosting a convention of hungover businessmen trying to sell the world a better mousetrap?
At a high level, this is handled by the “Born rule”—the postulate that the probability density for finding an object at a particular location is proportional to the square of the wave function at that position.
An international team of scientists, led by Dr. Lukas Bruder, a junior research group leader at the University of Freiburg’s Institute of Physics, has successfully created and controlled hybrid electron-photon quantum states in helium atoms.
The team accomplished this by generating specially designed, highly intense extreme ultraviolet light pulses using the FERMI free electron laser in Trieste, Italy. By employing an innovative laser pulse-shaping technique, they were able to precisely control these hybrid quantum states. The groundbreaking findings have been published in Nature.
