XMA, with its space heritage spanning from low-Earth orbit (LEO) to deep space exploration units, embarked on a journey to enter the supply chain for quantum computing more than 10 years ago. The driving force behind this industry expansion was XMA’s success in cryogenic temperatures down to approximately 4 K in space environments. XMA managed to strike the perfect balance between rugged materials that remained non-superconductive at cold temperatures and low-mass products. When quantum technologists cooled these components to millikelvin temperatures, the specifications remained unchanged. This consistent performance from ambient to cryogenic conditions has become XMA’s baseline for success. With the cross-pollination of knowledge between the space and quantum industries, XMA has experienced steady growth in both sectors, thanks to its novel designs and successful environmental testing. As space exploration and quantum computing continue to advance, XMA leverages the newfound knowledge from each industry to improve the other. 

Northrop Grumman Corporation’s SpaceLogistics has sold its third Mission Extension Pod (MEP), a propulsion “jet pack” that extends the life of legacy satellites, allowing them to operate longer and more profitably. Under a purchase agreement with Intelsat, SpaceLogistics’ Mission Robotic Vehicle (MRV), a servicing spacecraft equipped with robotic arms, will install the jet pack on an Intelsat communications satellite in geosynchronous Earth orbit (GEO) to extend its life by at least six years. This capability builds on a long-standing relationship between SpaceLogistics and Intelsat that includes the world’s only commercial satellite-servicing missions in GEO.

Understanding the basic principles of dilution refrigeration is essential for operating a ZPC dilution refrigerator effectively. While there are comprehensive guides available on the subject, we provide a condensed overview for quick reference. The first principle involves the cooling of helium isotopes. Helium-4 (4He), the common isotope, liquefies at 4.2 K under standard pressure. Further cooling can be achieved by pumping on it, extracting its latent heat of vaporization. However, the cooling power is limited by the exponentially decreasing vapor pressure of helium. This restricts the achievable temperature to around 0.8 K, realistically reaching 1.2 K in the laboratory.

At CERN’s Neutrino Platform on the Laboratory’s Prévessin site in France sit two large boxes encased in a red grating. Inside these boxes are vast chambers surrounded by shiny stainless steel. The boxes are the cryostat modules of the ProtoDUNE experiment. Despite their large size, they are tiny in comparison to the future size of their successors for the Deep Underground Neutrino Experiment (DUNE), a vast neutrino experiment currently being built in the USA. The Neutrino Platform also houses an assembly station for the Tokai to Kamioka (T2K) experiment, another vast neutrino facility in Japan.

Swift Aircraft, the visionary company behind the innovative British aerobatic light aircraft called the Swift, has joined forces with a team of British innovators to drive sustainable flight forward. Their collaboration is supported by the Project MONET contract, awarded by the UK Ministry of Defence (MoD), aimed at demonstrating technologies for achieving net-zero emissions during flight.

Aspen Aerogels, a leading technology company specializing in aerogel-based sustainability and electrification solutions, has announced the grand opening of its state-of-the-art engineering and rapid prototyping facility in Marlborough, MA. This 59,000-square-foot facility, known as the Advanced Thermal Barrier Center (ATBC), will serve as the engineering hub for PyroThin cell-to-cell barriers, which play a vital role in optimizing the safety and performance of battery packs for the rapidly growing eMobility and energy storage system (ESS) markets. 

How electrons pair in cuprate superconductors depends, in part, on the crystalline landscape the electrons occupy. That landscape can be altered by applying pressure, which in turn causes the critical temperature (T_c) in some cuprates to rise, fall, and rise again as the pressure grows. But are the changes in T_c due to the atoms being pressed into a new crystalline structure or just being squeezed closer together? Experimental evidence is contradictory. To resolve the question, Alexander Mark of the University of Illinois Chicago and his collaborators performed experiments on the three members of the BSCCO family of cuprates [1]. They showed that the pressure-induced shifts in T_c coincide with changes in how the materials compress, which in turn reflect changes in electronic structure.

On Tuesday, May 22, NASA’s NICER (Neutron Star Interior Composition Explorer), an X-ray telescope on the International Space Station, developed a “light leak,” in which unwanted sunlight enters the instrument. While analyzing incoming data since then, the team identified an impact to daytime observations. Nighttime observations seem to be unaffected. The team suspects that at least one of the thin thermal shields on NICER’s 56 X-ray Concentrators has been damaged, allowing sunlight to reach its sensitive detectors.

Semiconductors are foundational components of modern energy, communication, and myriad other technologies. Research on tailoring the underlying nanostructure of semiconductors for optimizing device performance has been ongoing for decades. Now, in a study recently published in Scientific Reports, researchers from the University of Tsukuba and collaborating partner UNISOKU Co., LTD., have facilitated technology development—easy-to-use, time-resolved scanning tunneling microscopy (STM)—for measuring the movement of electrons in nanostructures at high temporal and spatial resolution, in a manner that will be invaluable for optimizing nanostructure performance.

Within superconductors there are little tornadoes of electrons known as quantum vortices that can occur, vortices that have important implications in superconducting applications such as quantum sensors. Now a new kind of superconducting vortex has been found, according to an international team of researchers.^[1]

Among the most fundamental questions in astronomy: how did the first stars and galaxies form? NASA’s James Webb Space Telescope is already providing new insights into this question. One of the largest programs in Webb’s first year of science is the JWST Advanced Deep Extragalactic Survey, or JADES, which will devote about 32 days of telescope time to uncover and characterize faint, distant galaxies. While the data is still coming in, JADES already has discovered hundreds of galaxies that existed when the universe was less than 600 million years old. The team also has identified galaxies sparkling with a multitude of young, hot stars.

Ziath, an Azenta Life Sciences company, announced a revolution in cryogenic sample management – the Ri-Track Mirage 2D barcoded tube whole rack reader. Traditionally, identifying the identity of frost-covered racks of 2D barcoded tubes taken from low temperature storage has been a time-consuming and error-prone process. Drawing upon proprietary Radio Frequency Identification (RFID) tagging technology – the Ri-Track Mirage can reliably read 2D barcoded racks covered in ice and with racks taken directly from vapor-phase liquid nitrogen storage. The need to warm your rack to thaw it out, which may degrade thermally sensitive samples, to read your identity of your sample rack is eliminated.

Precision measurements reveal connection between electron density and atomic arrangements in charge-ordered states of a superconducting copper-oxide material. Researchers at the Brookhaven National Laboratory have discovered a direct connection between the disappearance of certain atomic vibrations and the emergence of a “charge density wave” in superconducting copper-oxide materials. This discovery, achieved through precision measurement, uncovers a vital relationship between atomic structure and charge distribution, advancing our understanding of superconductivity.

The stable isotopes hydrogen and oxygen (δ2H and δ18O, respectively) in soil water are widely used in ecological studies, which rely on the accurate extraction of unfractionated water from different soil types. Cryogenic vacuum distillation (CVD) is the laboratory-based technique most widely used in eco-hydrological studies. However, the reliability of this technique in reflecting soil water δ2H and δ18O is still of concern.

The pressure to reduce greenhouse gas emissions continues as does the search for ‘greener energy solutions’ and one of the consequences of this is significant growth in the use of Liquid Natural Gas for marine applications. LNG has long been regarded as a sustainable fuel and has gained significant traction as a viable alternative for a wide range of commercial transport applications, including marine and shipping. It is estimated that 3% of global greenhouse gas emissions such as carbon dioxide is generated by maritime traffic, which is why the International Maritime Organization (IMO) is increasingly looking to reduce CO2 emissions. While LNG is a much ‘greener’ fuel than the highly viscous diesel fuels typically used to power container ships and cruise liners, it does present significant challenges to fuel systems and pumps, specifically dealing with extreme (cryogenic) temperatures.

Researchers from Polytechnique Fédérale de Lausanne in Switzerland have developed a new approach for identifying isomeric and isobaric metabolites using high-resolution ion mobility spectrometry (IMS) and cryogenic infrared (IR) spectroscopy. The complex structure of metabolites has made their identification challenging, and analytical standards are often required to confirm their presence in a sample. However, the new approach can separate isomeric metabolites in a matter of milliseconds and provide highly structured IR fingerprints for their unambiguous identification. Additionally, this approach allows for the automatic identification of metabolite isomers by comparing their IR fingerprints with those in a database, thereby eliminating the need for analytical standards.

Chart Industries, Inc. and Crane Company have successfully tested a new cryogenic valve designed and built by Crane for liquid hydrogen applications. This is the first valve launched from Crane’s CRYOFLO™ line of bellow seal vacuum jacketed globe valves, designed and tested by Crane, with final validation, review, and testing conducted by Chart. Final testing was conducted at Chart’s one-of-a-kind liquid hydrogen test facility in New Prague, MN, USA, leveraging Chart’s 60 years of experience with hydrogen equipment and the facility’s availability of the extremely cold cryogenic liquid for testing. Liquid hydrogen is over 100 degrees Fahrenheit colder than liquid nitrogen, and significantly colder than the temperature limit of most cryogenic valves.

The Innovate UK-funded CryoCMOS Consortium, led by SureCore Ltd, reports that it has successfully created new, PDK-quality, transistor models characterized for both 4 K and 77 K cryogenic operation. SureCore is using these to develop key foundation IP to enable the design of cryo-control ASICs for use in the quantum computing space. Key to supporting this activity were the accurate cryogenic measurements undertaken by Incize of Louvain-la-Neuve, Belgium.

Helium is a gas with properties that make it useful for many different purposes, from cooling to providing lift in airships. By understanding the basics of its cryogenic principles, we can understand how this gas works and its various uses. The aspects of cryogenic science emerged in early 19th-century experiments by Faraday and Joule. Cryogenics involves subjecting materials to extremely low temperatures, usually below -150° C.

Quantum Sensing: Necessity for low temperature and low vibrations-Most quantum states are only visible and controllable when the thermal energy KBT is comparable or smaller than the energy difference ΔE between the quantum states. Therefore, to see the quantum properties of materials or devices, they often need to be cooled to and maintained at millikelvin temperatures. In the last ten years, we have seen great progress in improving the accessibility to millikelvin environments via advanced cryogenic platforms offered by industry. On the basis of these platforms, the application can be developed that would allow probing quantum states of materials or devices, for example by means of Scanning Probe Microscopy (SPM) techniques. However, for low temperature SPM techniques, besides the low temperature, low vibrations are also essential. First, the interaction distance between probe and quantum state needs to be maintained and second, in case of force-sensors like M(R)FM, the sensor needs to be decoupled from force-noise due to accelerations. It is to this end that quantum sensing will require progression towards low temperature and low vibration environments to use quantum-enhanced probe sensors for opening a new paradigm of Scanning Probe Microscopy: qSPM.