HRL Laboratories has demonstrated universal control of encoded spin qubits using a novel silicon-based qubit device architecture. The achievement offers a strong pathway toward scalable fault tolerance and computational advantage in quantum computing, with potential applications in materials development, drug discovery, and mitigating ...
Researchers at HRL Laboratories found that targeted transcranial electrical stimulation during slow-wave sleep can improve metamemories of specific episodes by nearly 20% after just one viewing. This non-invasive approach may benefit patients with learning and memory deficits, as well as those with PTSD.
HRL Laboratories' microlattice impact attenuator pads demonstrate up to 48% improved absorption efficiency over vinyl nitrile foam when impacted repeatedly. The unique open-celled structure of the microlattice allows for better airflow, resulting in a cooler wearing experience.
HRL Laboratories' breakthrough alloy is the world's first printable high-strength aluminum, registered with the Aluminum Association. The registration validates its commercial value and enables companies to access the alloy through specific powder numbers.
Researchers at HRL Laboratories developed a novel system that uses closed-loop electrical brain stimulation to improve memory retention. The technique, which matches transcranial alternating current stimulation with the brain's slow-wave oscillations during sleep, enhances learning and skill acquisition by about 48%. This study offers ...
HRL Laboratories joins DARPA's Assured Autonomy program with the Expressive Assurance Case Toolkit (ExACT) to ensure autonomous vehicle systems perform as programmed without unsafe behavior. The tool kit mathematically verifies algorithms lead to safe and reliable system behavior, considering physics and dynamics of the system.
The HRL team will use magnetoelastic material for man-portable low-frequency radio antennas, enabling communication in traditionally radio-denied conditions. The project aims to create a communications system that transmits at less than a thousand hertz and is man-portable.
A study published in Current Biology confirms that transcranial direct current stimulation (tDCS) improves associative learning by modulating brain connectivity between areas, not neuron firing rates. tDCS was shown to increase learning speed in macaques by up to 40% with no increased neuronal firing.
Researchers at HRL Laboratories successfully 3D print high-strength aluminum alloys, including Al7075 and Al6061, overcoming a long-standing challenge in additive manufacturing. Their nanoparticle functionalization technique prevents hot cracking and retains alloy strength.
HRL Laboratories has received a NASA award to develop additive manufactured ceramic rocket engine components. The company's technique combines polymer additive manufacturing with high-temperature ceramics, enabling new designs, lower costs, and reduced lead time.
HRL Laboratories has developed a reversible alkali atom source that runs at low power and low voltage, enabling smaller and more efficient atomic clocks. The device can capture and cool rubidium atoms near absolute zero, reducing measurement noise and increasing accuracy.
Researchers at HRL Laboratories are developing a man-portable system using high-definition transcranial current stimulation (HD-tCS) to tag specific memories and skills during learning. The STAMP method aims to improve consolidation by reactivating neural representations during sleep.
ATLAS project aims to break performance and cost barriers in inertial sensors using atomic frequency reference and MEMS Coriolis Gyroscope. The goal is to achieve robust GPS-independent navigation and guidance for the US military.
Researchers from HRL Laboratories used transcranial direct current stimulation (tDCS) to improve pilot learning in a realistic flight simulator. The study found that subjects who received tDCS showed improved piloting abilities, with enhanced skill retention and faster learning rates.
HRL Laboratories developed an active variable stiffness vibration isolator capable of 100x stiffness changes and millisecond actuation times. This innovation solves long-standing challenges in shock and vibration problems for next-generation transportation platforms.