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In this video I show how I made a self-organisating network of Kuramoto-style oscillators in a system undergoing metaheuristic-guided synchronization. There are also ways to visually demonstrate this with relatively simple hardware, such as using modified microelectronics, controlled using microcontroller circuits.

In this project, which I have dubbed “Feynman’s Quantum Fireflies” I program individual systems of oscillators which display discontinuous pas coupling which can be implemented in a network of transceiver circuits. Using the Path Integral Approach is one way to understand how the system behaves like a quantum thermal bath.

This example is a self-organising network of flashing optical transceiver circuits, each circuit containing and RGB LED and phototransistor.

Each circuit is programmed under a simple principle of discontinuous pas-coupling as discussed before to achieve synchronization but this results in behavior across the entire network space that is a collective emergent behavior that has not been explicitly programmed, it emerges as a discrete simulation of a pseudo-quantum system.

This emergent behavior of the network is in fact a visual demonstration of how the network regulates itself over time to the most energy efficient configuration possible, which is to the state of most uniform synchronisation.

We can understand this synchronized state as being the ground state of our whole system, which the set of oscillators wants to head towards.

Fascinating new episode with NASA planetary geophysicist Bruce Banerdt, the principal investigator for the Mars InSight lander which is changing the way scientists now view Mars’ interior dynamics and inner workings. Please have a listen.


I welcome Bruce Banerdt, the principal investigator for NASA’s Mars InSight lander, which has been operating on the Martian surface for two years now. Although it’s had some technical issues, it’s offered a sea change in how geophysicists are interpreting the dynamics and makeup of the Martian core. In this episode, we talk about what we currently understand about Mars’ geophysical makeup and, among other things, whether it ever had plate tectonics which was so crucial for the evolution of sentient life here on Earth.

In a new report on Science Advances, Mark Elowitz, and a team of scientists in physical sciences, optical physics, planetary science and radiation research in the U.S., U.K., India, and Taiwan, presented the first analysis of far-ultraviolet reflectance spectra of regions on Rhea’s leading and trailing hemispheres—as collected by the Cassini ultraviolet imaging spectrograph during targeted flybys. In this work, they specifically aimed to explain the unidentified broad absorption feature centered near 184 nanometers of the resulting spectra. Using laboratory measurements of the UV spectroscopy of a set of molecules, Elowitz et al. found a good fit to Rhea’s spectra with both hydrazine monohydrate and several chlorine-containing molecules. They showed hydrazine monohydrate to be the most plausible candidate to explain the absorption feature at 184 nm.

Viasat on Feb. 2 received a $50.8 million contract from the Air Force Research Laboratory to develop a broad range of space systems.


WASHINGTON — Viasat, a provider of satellite communications and wireless networking technology, received a $50.8 million contract from the Air Force Research Laboratory to develop a broad range of space systems.

The Defense Department announced the contract Feb. 2. The contract was first announced Nov. 20. A spokesperson told SpaceNews at the time that the contract terms had not yet been finalized so the award would be reposted at a later day.

Nikolai Kardashev, creator of the civilization ranking scale, outstanding space explorer, specialist in experimental and theoretical astrophysics and radio astronomy, Doctor of Physical and Mathematical Sciences, Director of the Astro Space Center of the Lebedev Physical Institute, died in August 3, 2019. The Russian scientist was 87 years old.

The scientist’s most famous work is the Kardashev Scale — the cosmic civilization ranking system. As part of the Search for Extraterrestrial Intelligence (SETI), he proposed a model of cosmic civilisations and calculated the scale of ranking civilisations

The Kardashev Scale

In 1963, he studied the quasar CTA-102. It was the first contribution of Soviet scientists to SETI, since the radio source CTA-102 was first assumed to be evidence of an extraterrestrial civilization.

In his paper ‘Transmission of Information by Extraterrestrial Civilisations’, published in 1964, Kardashev explored the idea that other galactic civilisations may have existed for billions of years before ours, so they would be far more advanced. He proposed a theoretical scale of technological development of civilisations based on the amount of energy that civilization is able to utilize. According to the theory, there are 3 main types of advanced civilisations:

Type I: Planetary Civilization

A civilisation that can use and store all the energy available on its planet — a small fraction of a star’s energy emissions that reach the surface. In the case of Earth and the Sun that’s about 1016 watts. For now, humanity has not quite reached Type I civilisation status, consuming only about 1012 watts.

Type II: Stellar Civilization

A civilization in possession of resources of its parental star and could control the energy in their solar system, by exploiting the total energy output of the star. Such a civilization could meet its energy requirements by building an equivalent of what is known as the Dyson sphere, a number of structures that surround a star in a dense formation to capture a large percentage of its power output, making available 1026 watts of energy. The concept was proposed by American physicist and mathematician Freeman Dyson in 1960.

Type III: Galactic Civilization

A civilization that has evolved so far it possess the energy resources of their entire galaxy. This would give a further increase in energy consumption to at least 1036 watts.
The author of the theory didn’t suppose that further increase in energy consumption is possible, so he didn’t propose a Type IV.

The Kardashev Scale is used by physicists and futurists all over the world to this day. Michio Kaku, professor of theoretical physics and futurist in his book ‘Physics of the Future’, claims that humanity may attain Planetary Civilization status in just 100 years. Carl Edward Sagan, American astronomer, astrobiologist and astrophysicist supported the theory, too, however, pointed out that the energy gaps between Kardashev’s civilization types of were so great that the scale might need to be refined with additonal ranking

Becoming an Astrophysics legend

However, his contribution to the Search for Extraterrestrial Intelligence isn’t the only achievement the scientist is worth to be remembered for. Kardashev produced pioneering work on low frequency cosmic radiation that started a new era in radio astronomy, he conducted numerous experiments and took part in telescope developments, studied the active nuclei of galaxies, quasars, and stellar systems.

In the early 1960s, Kardashev predicted the discovery of pulsars — highly magnetized rotating neutron stars that emit electromagnetic radiation. The radiation can be observed only when the beam of emission is pointing toward Earth and is responsible for the pulsed appearance of emission.

One of his latest contributions to science was the work on the radio telescope Spektr-R, launched in 2011 to perform research on the structure and dynamics of radio sources in our galaxy and beyond.

Astronomers from the ARC Centre of Excellence for Gravitational Wave Discovery (OzGrav) and CSIRO have just observed bizarre, never-seen-before behavior from a ‘radio-loud’ magnetar—a rare type of neutron star and one of the strongest magnets in the Universe.

Their new findings, published in the Monthly Notices of the Royal Astronomical Society (MNRAS), suggest magnetars have more complex magnetic fields than previously thought – which may challenge theories of how they are born and evolve over time.

Magnetars are a rare type of rotating neutron star with some of the most powerful magnetic fields in the Universe. Astronomers have detected only thirty of these objects in and around the Milky Way —most of them detected by X-ray telescopes following a high-energy outburst.

Quantum computing offers the promise of solutions to previously unsolvable problems, but in order to deliver on this promise, it will be necessary to preserve and manipulate information that is contained in the most delicate of resources: highly entangled quantum states. One thing that makes this so challenging is that quantum devices must be ensconced in an extreme environment in order to preserve quantum information, but signals must be sent to each qubit in order to manipulate this information—requiring, in essence, an information superhighway into this extreme environment. Both of these problems must, moreover, be solved at a scale far beyond that of present-day quantum device technology.

Microsoft’s David Reilly, leading a team of Microsoft and University of Sydney researchers, has developed a novel approach to the latter problem. Rather than employing a rack of room-temperature electronics to generate voltage pulses to control qubits in a special-purpose refrigerator whose base temperature is 20 times colder than interstellar space, they invented a control chip, dubbed Gooseberry, that sits next to the quantum device and operates in the extreme conditions prevalent at the base of the fridge. They’ve also developed a general-purpose cryo-compute core that operates at the slightly warmer temperatures comparable to that of interstellar space, which can be achieved by immersion in liquid Helium. This core performs the classical computations needed to determine the instructions that are sent to Gooseberry which, in turn, feeds voltage pulses to the qubits. These novel classical computing technologies solve the I/O nightmares associated with controlling thousands of qubits.

Quantum computing could impact chemistry, cryptography, and many more fields in game-changing ways. The building blocks of quantum computers are not just zeroes and ones but superpositions of zeroes and ones. These foundational units of quantum computation are known as qubits (short for quantum bits). Combining qubits into complex devices and manipulating them can open the door to solutions that would take lifetimes for even the most powerful classical computers.