Search
Menu
Meadowlark Optics - Wave Plates 6/24 LB 2024

Boeing to Demonstrate Entanglement Swapping: Quantum Briefing: 09/13/24

Facebook X LinkedIn Email
Boeing has scheduled the 2026 launch of a satellite — dubbed Q4S — which is designed to demonstrate quantum entanglement swapping capabilities on orbit. The year-long Q4S demonstration involves two entangled-photon pair sources housed within a space vehicle. Boeing's payload and technology partner, HRL Laboratories, a joint venture between Boeing and GM, has made significant advancements in benchtop exercises as the joint team finalizes technical designs of a space-hardened payload that is ready for launch.
On-orbit render of the Q4S satellite which promises to unlock understanding of how quantum entanglement swapping behaves on orbit. Courtesy of Boeing.
On-orbit render of the Q4S satellite which promises to unlock understanding of how quantum entanglement swapping behaves on orbit. Courtesy of Boeing.

CANBERRA, Australia — Quantum Brilliance, a developer of diamond-based quantum technology, announced a strategic collaboration with Oak Ridge National Laboratory (ORNL) to build a joint platform that enables collaborative development of quantum computing with high-performance computing (HPC) by exploring the on-premises integration of QB's quantum computing cluster into HPC systems at ORNL. The team plans to co-develop new computational methods that exploit parallel and hybrid computing and new software tools that will enable users to implement those methods and develop their own.

BOULDER, Colo. — Quantum sensing company Mesa Quantum closed an oversubscribed seed funding round of $3.7 million. The funding enables Mesa Quantum to build a new research and development facility, hire top technical talent, and position themselves to commercialize chip-scale quantum sensors for deployment at scale. The company’s technology has applications in defense, energy, space, telecommunications, and several other key economic areas.

Opto Diode Corp. - Detector Spotlight 10-24 MR
Initial testing QuantX’s first article optical clocks is showing almost an order of magnitude improvement on the performance of the current microwave atomic clocks used in today’s Global Navigation Satellite System. Courtesy of QuantX Labs.
Initial testing of QuantX’s first article optical clocks is showing almost an order of magnitude improvement on the performance of the current microwave atomic clocks used in today’s Global Navigation Satellite System. Courtesy of QuantX Labs.

ADELAIDE, Australia — QuantX Labs has made the first sales of its optical atomic clocks. The company recently signed two contracts with the Commonwealth of Australia's Department of Defense totaling over AUD 2.7 million ($1.8 million). QuantX will deliver a mobile precision timing test bed for Defense Systems to DSTG Edinburgh. The testbed, due for delivery in early 2025, can be used to test and evaluate sensors, communication, and navigation systems to determine operational resilience in a GPS-degraded scenario. QuantX will also deliver optical atomic clocks under AUKUS Pillar II by the end of 2024, enabling AUKUS — a trilateral security partnership between Australia, the U.K., and the U.S. — to develop advanced precision navigation and timing capabilities.

Published: September 2024
Glossary
quantum
The term quantum refers to the fundamental unit or discrete amount of a physical quantity involved in interactions at the atomic and subatomic scales. It originates from quantum theory, a branch of physics that emerged in the early 20th century to explain phenomena observed on very small scales, where classical physics fails to provide accurate explanations. In the context of quantum theory, several key concepts are associated with the term quantum: Quantum mechanics: This is the branch of...
optical clock
An optical clock is a highly precise and advanced timekeeping device that relies on the oscillations of electromagnetic radiation in the optical or ultraviolet part of the electromagnetic spectrum. Unlike traditional atomic clocks, which use microwave frequencies, optical clocks operate at much higher frequencies, typically involving transitions in atoms or ions at optical wavelengths. Optical clocks have the potential to provide unprecedented accuracy and stability in timekeeping. Key points...
Businessquantumentanglementquantum computingSensors & Detectorsoptical clockAustraliaOak Ridge National LaboratoryORNLBoeingQuantum BrillianceMesa QuantumQuantX LabsdefenseAmericas

We use cookies to improve user experience and analyze our website traffic as stated in our Privacy Policy. By using this website, you agree to the use of cookies unless you have disabled them.