• Proof of randomness for stronger future digital security

    Nearly all secure online traffic — from shopping to banking to communications — relies on a technique of randomly generating a number that serves as a key to unlock encrypted communication. The problem is that small programming errors can make these systems vulnerable, and those vulnerabilities can often be very difficult to detect. In an effort to block emerging threats to online security, researchers have developed a method to verify the strength of random number generators that form the basis of most encryption systems.

  • DARPA’s Software Defined Radio (SDR) Hackfest explores solutions for spectrum challenges

    The DARPA Bay Area Software Defined Radio (SDR) Hackfest came to a close on Friday, 17 November at the NASA Ames Conference Center in Moffett Field, California. During the weeklong event, over 150 members of the SDR community came together to discuss, innovate, and ideate around the future of software radio technology and its potential to address challenging communications issues that are emerging due to the increasingly congested electromagnetic (EM) spectrum and the proliferation of wireless-enabled devices.

  • New simulator tool allows testing the explosive vulnerabilities of aircraft

    Each day, more than twenty-six thousand commercial flights transport passengers and cargo to destinations around the world. S&T’s Commercial Aircraft Vulnerability and Mitigation (CAVM) program supports testing and evaluation efforts to assess potential vulnerabilities and evaluate countermeasures that can mitigate the impact of explosives on commercial aircraft. Newer generations of commercial aircraft fuselages are being made with composite materials, such as carbon fiber reinforced plastic, so CAVM needs to develop a sustainable and representative testing solution in order to all evaluations of new composite aircraft structures to explosive-based threats could continue as needed.

  • U.S. ends 3-year ban on research involving enhanced-lethality viruses

    The U.S. National Institutes of Health (NIH) yesterday announced it was ending its three-year moratorium on funding of gain-of-function research, that is, research which aims to make extremely dangerous viruses even more dangerous in order to find a vaccine or cure for them. The U.S. government instituted the ban in 2014, against the backdrop of rising worries that these “gain-of-function” studies would allow scientists to increase the ability of the infectious disease to spread by enhancing its pathogenicity, or its ability to cause disease. Scientists who supported continuing research involving enhancing the transmissibility of infectious disease were not helped by a series of safety mishaps at federal research facilities.

  • Helping secure first responder apps from cyberattacks

    In emergency and disaster situations, mobile devices and apps enable public-safety professionals to receive and share critical information in real-time, which enhances the delivery of life-saving services. As reliance on mobile technology grows, it is important that mobile apps used by public safety are free of malware or vulnerabilities.

  • Computer modeling aids solder reliability in nuclear weapons

    Solder isn’t the first thing that comes to mind as essential to a nuclear weapon. But since weapons contain hundreds of thousands of solder joints, each potentially a point of failure, Sandia National Laboratories has developed and refined computer models to predict their performance and reliability.

  • New technique could help coal plants reduce greenhouse gas emissions

    Carbon capture could help the nation’s coal plants reduce greenhouse gas emissions, yet economic challenges are part of the reason the technology isn’t widely used today. That could change if power plants could turn captured carbon into a usable product.

  • Biosecurity conference fosters international, multidisciplinary collaboration

    Biosecurity prevents unauthorized access, loss and intentional release of biological pathogens, information and equipment that may cause harm. Biosecurity professionals from across the United States and Mexico gathered on Arizona State University’s Tempe campus 7-8 December, the first time a biosecurity conference of this scope had taken place in Arizona and one of the largest ever to be held in the United States. Leaders in the field shared multidisciplinary approaches and perspectives on biosecurity.

  • A portable, shoe-box-sized chemical detector

    A chemical sensor prototype will be able to detect “single-fingerprint quantities” of substances from a distance of more than 100 feet away, and its developers are working to shrink it to the size of a shoebox. It could potentially be used to identify traces of drugs and explosives, as well as speeding the analysis of certain medical samples. A portable infrared chemical sensor could be mounted on a drone or carried by users such as doctors, police, border officials and soldiers.

  • DNA has gone digital – what could possibly go wrong?

    Biology is becoming increasingly digitized. Researchers like us use computers to analyze DNA, operate lab equipment and store genetic information. But new capabilities also mean new risks – and biologists remain largely unaware of the potential vulnerabilities that come with digitizing biotechnology. In 2010, a nuclear plant in Iran experienced mysterious equipment failures which paralyzed Iran’s nuclear weapons program. Months later, a security firm was called in to troubleshoot an apparently unrelated problem, and found a malicious computer virus called Stuxnet, which was telling uranium-enrichment centrifuges to vibrate. Stuxnet demonstrated that cybersecurity breaches can cause physical damages. What if those damages had biological consequences? Could bioterrorists target government laboratories studying infectious diseases? What about pharmaceutical companies producing lifesaving drugs? As life scientists become more reliant on digital workflows, the chances are likely rising. The emerging field of cyberbiosecurity explores the whole new category of risks that come with the increased use of computers in the life sciences.

  • Using smartphones — instead of body parts — for identification to deter cybercrime

    Not comfortable with Face ID and other biometrics? This cybersecurity advancement may be for you. Researchers have discovered how to identify smartphones by examining just one photo taken by the device. The advancement opens the possibility of using smartphones — instead of body parts — as a form of identification to deter cybercrime.

  • Reusable sponge soaks up oil, revolutionizing oil spill and diesel cleanup

    When the Deepwater Horizon drilling pipe blew out seven years ago, beginning the worst oil spill in U.S. history, those in charge of the recovery discovered a new wrinkle: the millions of gallons of oil bubbling from the sea floor weren’t all collecting on the surface where it could be skimmed or burned. Some of it was forming a plume and drifting through the ocean under the surface. Scientists have invented a new foam, called Oleo Sponge, that addresses this problem.

  • Bolstering cybersecurity in harsh environments

    According to the U.S. Federal Bureau of Investigation, the financial loss from cybercrime in the U.S. was over $1.3 billion in 2016. As this number is only expected to rise in the upcoming years, the military, businesses and individuals are seeking new ways to guard their information. Physical unclonable function (PUF) devices hold promise.

  • Simple tool tells whether websites suffered a data breach

    Computer scientists have built and successfully tested a tool designed to detect when websites are hacked by monitoring the activity of email accounts associated with them. The researchers were surprised to find that almost 1 percent of the websites they tested had suffered a data breach during their 18-month study period, regardless of how big the companies’ reach and audience are. “No one is above this—companies or nation states— it’s going to happen; it’s just a question of when,” said the senior researcher.

  • Bioelectronic “nose” detects food spoilage by sensing the smell of death

    Strong odors are an indicator that food has gone bad, but there could soon be a new way to sniff foul smells earlier on. Researchers have developed a bioelectronic “nose” that can specifically detect a key decay compound at low levels, enabling people to potentially take action before the stink spreads. It can detect rotting food, as well as be used to help find victims of natural disasters or crimes.