APL scientists have leveraged the global coverage of satellite imagery and the strengths of machine learning to create the first automated approach for estimating greenhouse gas emissions from the road transportation sector.
A new technology’s value depends on whether people can actually use it. APL engineers played key roles in developing a Human Readiness Level scale, designed to indicate a system’s readiness for use by humans.
Years of JHU-APL engineering and technical leadership for the Missile Defense Agency Ground Sensors Directorate culminated last December as Lockheed Martin built and installed the multi-mission Long Range Discrimination Radar at Clear Space Force Station, Alaska.
APL researchers are standardizing an amazing collection of high-resolution brain mapping data, an effort that would enable unprecedented analysis and make the Laboratory a focal point for neuroscience research.
APL is bringing its expertise in public health, artificial intelligence, autonomous systems and climate change into a collaboration with the Howard County Economic Development Authority to incorporate smart and connected community concepts within the county’s Gateway District.
APL is analyzing application scenarios for large structures manufactured in space, a capability to be enabled by the Defense Advanced Research Projects Agency NOM4D program.
When the European Space Agency’s Rosetta spacecraft discovered abundant molecular oxygen bursting from comet 67P/Churyumov-Gerasimenko (67P) in 2015, it puzzled scientists. They had never seen a comet emit oxygen, let alone in such abundance. But most alarming were the deeper implications: that researchers had to account for so much oxygen, which meant reconsidering everything they thought they already knew about the chemistry of the early solar system and how it formed. A new analysis, however, led by planetary scientist Adrienn Luspay-Kuti at the Johns Hopkins Applied Physics Laboratory (APL) in Laurel, Maryland, shows Rosetta’s discovery may not be as strange as scientists first imagined.
Dr. James N. Miller, former Under Secretary of Defense for Policy and an expert in nuclear deterrence, missile defense, cyber conflict and space policy, has been named as the Johns Hopkins Applied Physics Laboratory’s (APL) Assistant Director for Policy and Analysis.
APL researchers set out to better understand the influence of different defects on the mechanical performance of additively manufactured materials. In a recent journal article, they provide data to help understand the effects of defects and enable decision-making.
An expanded collaboration between APL and the Amazon Web Services' Open Data Sponsorship Program will further enable the storage and accessibility of ever-expanding neuroimaging datasets generated by the neuroscience research community.
As part of a larger study exploring neural multiplexing and new modes of perception enabled by brain-computer interface (BCI), Johns Hopkins researchers have demonstrated the ability to “feel” virtual objects by integrating neural stimulation in a mixed-reality environment.
APL created an additive to turn commercial glue into a rapidly curing underwater adhesive that is effective on a range of surfaces, including aluminum, stainless steel, glass and plastic. The adhesive performed best on untreated aluminum surfaces with a high bonding strength of approximately 400 pounds in 60 seconds.
Almost two years into a research study conducted by Johns Hopkins APL and Johns Hopkins Medicine, a quadriplegic patient can now control two robotic arms with his brain — and can even feed himself.
In exploring ways to make it easier for users to control a prosthesis, researchers at the Johns Hopkins Applied Physics Laboratory (APL), in Laurel, Maryland, found that giving them sensory stimulation enhances the perception of their phantom hand and leads to more reliable and repeatable muscle movement signals, which are used to control a prosthetic arm. Their most recent findings, “Sensory Stimulation Enhances Phantom Limb Perception and Movement Decoding,” were published in the Journal of Neural Engineering.
A new automated data feed that helps defend state and local government computer systems from cyberattacks and rapidly blocks threats across state lines reduced cyber defense time from some three days to less than three minutes in a successful pilot program across four states.
The event summary for the second annual National Health Symposium, organized by the Johns Hopkins Applied Physics Laboratory (APL) in Laurel, Maryland, is now available.
APL scientists are working with the intelligence community to develop fundamentally new methods to inspect artificial intelligence for Trojans — vulnerabilities that deep networks are exposed to during the AI training process.
The Johns Hopkins Applied Physics Laboratory secured the No. 3 spot on Fast Company’s 2020 Best Workplaces for Innovators list — marking the second consecutive year that APL appeared among businesses and organizations around the globe honored for demonstrating a deep commitment to encouraging innovation at all levels.
The story of how the Johns Hopkins Applied Physics Laboratory (APL) turned a three-year air and missile defense prototyping plan into a working version in just 12 months is a tale of collaboration, innovation, and intelligent risk-taking.
Now, a team of researchers from the Johns Hopkins Applied Physics Laboratory in Laurel, Maryland, and Durham University in England has provided a way that could end the decades-long stalemate. Using data from NASA's MErcury Surface, Space ENvironment, GEochemistry, and Ranging (MESSENGER) spacecraft, the team shows that the lifetime of a neutron can be measured from space. The findings were reported June 11 in the journal Physical Review Research.
NASA may be best known for focusing on what’s beyond Earth’s atmosphere, but the agency also has another role — searching for human life on our home planet, especially when those lives are in danger. Staff members from the Air and Missile Defense Sector at the Johns Hopkins Applied Physics Laboratory are working with NASA Goddard Space Flight Center and its partners to upgrade NASA’s Search and Rescue system.
Last summer, the captain of the USS Bunker Hill offered to test an APL air-defense tool if the Lab could provide a prototype before the ship deployed in six months. When the Bunker Hill left San Diego in January, the tool was onboard — and Lab engineers now await valuable warfighter feedback on its use.
A public health electronic surveillance tool developed by the Johns Hopkins Applied Physics Laboratory in Laurel, Maryland, is helping to fill gaps by tracking the COVID-19’s spread symptomatically.
Inside the molecular diagnostics laboratory at Johns Hopkins Hospital in Baltimore two biologists from the Johns Hopkins Applied Physics Laboratory (APL) are working alongside them. Peter Thielen and Tom Mehoke, members of APL’s Research and Exploratory Development Department, are waiting for the positive tests. Certainly, positive tests are no cause for celebration; but for Thielen and Mehoke, they are an invaluable sample — and a key to learning more about the rapidly spreading virus.
Scientists at the Johns Hopkins University Applied Physics Laboratory (APL), in Laurel, Maryland, have identified highly absorbent materials that can extract drinkable water out of thin air – which could potentially lead to technologies that supply potable water in the driest areas on the planet.
Researchers at the Johns Hopkins Applied Physics Laboratory (APL), in Laurel, Maryland, have demonstrated a novel and groundbreaking way to additively print gallium nitride (GaN) — a material that can be used to produce semiconductor power devices as well as radio-frequency components and light-emitting diodes – using a combination of liquid and gas. Their work was detailed in "A pathway to compound semiconductor additive manufacturing," published recently in the journal MRS Communications.
Admiral John M. Richardson, former Chief of Naval Operations, has joined the Johns Hopkins Applied Physics Laboratory as a Senior Fellow. Admiral Richardson served as the 31st Chief of Naval Operations from September 2015 to August 2019.
A team of researchers from the Johns Hopkins Applied Physics Laboratory (APL) in Laurel, Maryland, has realized another landmark achievement with their breakthrough lithium-ion battery technology. The flexible Li-ion battery that can operate under extreme conditions — including cutting, submersion and simulated ballistic impact — can now also add incombustible to its resume.
Researchers from the Johns Hopkins University’s Applied Physics Laboratory and School of Medicine have, for the first time, demonstrated simultaneous control of two of the world’s most advanced prosthetic limbs through a brain-machine interface. The team is also developing strategies for providing sensory feedback for both hands at the same time using neural stimulation.
The Johns Hopkins University Applied Physics Laboratory (APL), in Laurel, Maryland, has been tapped by the Department of Energy to develop advanced quantum computing and networking technologies. The award is part of larger DOE effort to address basic research gaps in the ideas, methods and tools that connect quantum computing applications to hardware.
The Johns Hopkins Applied Physics Laboratory (APL) in Laurel, Maryland, has been named to the inaugural Fast Company Best Workplaces for Innovators list. APL’s history of solving tough technical problems dates back to 1942, when the Laboratory developed a variable timing fuze that revolutionized air defense and helped turn the tide of World War II. Today, the Lab’s work spans from deep sea to deep space, encompassing complex systems vital to national security and health, including breakthroughs in machine learning and artificial intelligence.
With a recent award from the Defense Advanced Research Projects Agency, researchers from the Johns Hopkins University Applied Physics Laboratory (APL) in Laurel, Maryland, will develop a brain-machine interface that will enable the control of complex systems at the speed of thought.
The Johns Hopkins Applied Physics Laboratory (APL), in Laurel, Maryland, and Johns Hopkins Medicine have launched the Precision Medicine Analytics Platform (PMAP), a new data analytics tool that will facilitate big-data research across the JHU enterprise and enable clinicians to make discoveries and improve their patient care.
In a paper published in Nature Scientific Reports, APL researchers describe a way to manipulate the critical elements of a quantum computer and their control components that will be an important piece of scaling quantum computer systems to the larger sizes needed for more complex applications.
“A Preface to Strategy: The Foundations of American National Security,” a new paper from the Johns Hopkins Applied Physics Laboratory’s Senior Fellows, examines the nation’s core strengths and how they should shape new strategies.
Researchers at the Johns Hopkins Applied Physics Laboratory (APL) in Laurel, Maryland, collaborating with scientists from Johns Hopkins University and many other universities and research organizations
A new paper from Johns Hopkins APL Senior Fellow Dr. Paul Stockton examines how power companies can partner with the Department of Energy to defeat attacks on the U.S. electric system.
Researchers from the Johns Hopkins University Applied Physics Laboratory (APL) in Laurel, Maryland, and collaborators at the Johns Hopkins School of Medicine, have developed image analysis and machine learning tools to detect age-related macular degeneration, and report in Nature Medicine that such tools can be applied to other image-based medical diagnoses.
Staff members from the Air and Missile Defense Sector (AMDS) at the Johns Hopkins Applied Physics Laboratory (APL) in Laurel, Maryland, have collected more than 15,000 books for children living below the poverty line in the local area.
NASA’s Parker Solar Probe — designed, built and managed by Johns Hopkins Applied Physics Laboratory (APL) — will launch in summer 2018 and travel to our star on a historic mission to “touch the Sun.” Now you can get on board and be a part of this voyage of extreme exploration.
The Johns Hopkins Applied Physics Laboratory and the Financial Services Information Sharing and Analysis Center are operationalizing the Integrated Adaptive Cyber Defense (IACD) framework, which will enable companies to improve the ability to quickly and broadly share information and prevent and respond to cyberattacks.
Researchers at Johns Hopkins Applied Physics Laboratory have demonstrated a significant advancement in the preservation of certain kinds of therapeutics in a portable, stable, and heat resistant form that is ideal for applications in remote or challenging areas.
Johns Hopkins APL researchers created a fixed-wing, unmanned vehicle that could autonomously operate underwater and then propel itself fast enough to make the transition into the air, becoming an autonomous flying aerial vehicle.
A team of engineers from the Johns Hopkins University Applied Physics Laboratory (APL), in Laurel, Maryland, has successfully demonstrated a high-bandwidth, free space optical (FSO) communications system between two moving ships, proving operational utility of FSO technology in the maritime environment.
The Dragonfly mission concept would use an instrumented, radioisotope-powered, dual-quadcopter to explore Saturn's largest moon, Titan, one of our solar system’s “ocean worlds.”