Toggle light / dark theme

Electronic systems – from the processors powering smartphones to the embedded devices keeping the Internet of Things humming – have become a critical part of daily life. The security of these systems is of paramount importance to the Department of Defense (DoD), commercial industry, and beyond. To help protect these systems from common means of exploitation, DARPA launched the System Security Integration Through Hardware and Firmware (SSITH) program in 2017. Instead of relying on patches to ensure the safety of our software applications, SSITH seeks to address the underlying hardware vulnerabilities at the source. Research teams are developing hardware security architectures and tools that protect electronic systems against common classes of hardware vulnerabilities exploited through software.

To help harden the SSITH hardware security protections in development, DARPA today announced its first ever bug bounty program called, the Finding Exploits to Thwart Tampering (FETT) Bug Bounty. FETT aims to utilize hundreds of ethical researchers, analysts, and reverse engineers to deep dive into the hardware architectures in development and uncover potential vulnerabilities or flaws that could weaken their defenses. DARPA is partnering with the DoD’s Defense Digital Service (DDS) and Synack, a trusted crowdsourced security company on this effort. In particular, FETT will utilize Synack’s existing community of vetted, ethical researchers as well as artificial intelligence (AI) and machine learning (ML) enabled technology along with their established vulnerability disclosure process to execute the crowdsourced security engagement.

Bug bounty programs are commonly used to assess and verify the security of a given technology, leveraging monetary rewards to encourage hackers to report potential weaknesses, flaws, or bugs in the technology. This form of public Red Teaming allows organizations or individual developers to address the disclosed issues, potentially before they become significant security challenges.

Samsung’s latest scientific breakthrough might change the very way we perceive semiconductors, largely on account of the fact it’s two-dimensional. Called amorphous boron nitride (a-BN), the substance in question is composed of but a single layer of atoms and characterized by an amorphous (liquid-like) molecule structure. It’s also the best 2D material for insulation ever synthetized, with Samsung hoping it will be able to utilize in production of revolutionary graphene wafers with unprecedentedly low level of electrical interference.

The discovery of a-BN is hardly Samsung’s first foray into 2D materials. The first and possibly most famous such substance — graphene — has been the subject of countless projects at the Korean conglomerate ever since it was first isolated in 2004. Following the 2016 Galaxy Note 7 fiasco, Samsung is believed to have doubled down on graphene R&D with the goal of eventually integrating the 2D material into its batteries, making them more stable, i.e. less prone to spontaneous combustions.

Making graphene batteries is no small feat, however, and it’s been a while since Samsung last made significant inroads on that front. Scalability remains a key issue, particularly in regards to mass-production costs. Graphene wafers, on the other hand, are expected to play a major role in the development and volume production of next-generation server memory modules, as well as DRAM and NAND memory chips.

A glove that translates sign language into speech in real time has been developed by scientists — potentially allowing deaf people to communicate directly with anyone, without the need for a translator.


A glove that translates sign language into speech in real time has been developed by scientists — potentially allowing deaf people to communicate directly with anyone, without the need for a translator.

The wearable device contains sensors that run along the four fingers and thumb to identify each word, phrase or letter as it is made in American Sign Language.

Those signals are then sent wirelessly to a smartphone, which translates them into spoken words at a rate of one word per second.

EVPassport is an upcoming app that promises $39/mo unlimited charging on major EV charge networks. The included networks are Electrify America, EVgo, Chargepoint, Hubject and Greenlots, along with some smaller regional networks on the US West Coast. The app plans to launch in “a few weeks” but is taking wait list signups now.

The app will start with support for iPhone and DC fast charging in the US at first, with initial support for 2,500 DC chargers. It will expand to Android later this year, along with European support (including IONITY). If all goes well, it plans to add Level 2 AC charging support next year.

However, the situation has been improving as Chinese tech giants including e-commerce company Alibaba, search engine Baidu, on-demand delivery company Meituan Dianping, ride-hailing operator Didi Chuxing and smartphone maker Xiaomi now offer more affordable health care plans via mutual aid platforms, which operate as a collective claim-sharing mechanism.


China’s online mutual aid platforms are disrupting old school insurance companies by leveraging big data and internet finance technologies to offer low cost medical coverage.

Smart phone apps provide nearly instantaneous navigation on Earth; the Deep Space Atomic Clock could do the same for future robotic and human explorers.

As the time when NASA will begin sending humans back to the Moon draws closer, crewed trips to Mars are an enticing next step. But future space explorers will need new tools when traveling to such distant destinations. The Deep Space Atomic Clock mission is testing a new navigation technology that could be used by both human and robotic explorers making their way around the Red Planet and other deep space destinations.

In less than a year of operations, the mission has passed its primary goal to become one of the most stable clocks to ever fly in space; it is now at least 10 times more stable than atomic clocks flown on GPS satellites. In order to keep testing the system, NASA has extended the mission through August 2021. The team will use the additional mission time to continue to improve the clock’s stability, with a goal of becoming 50 times more stable than GPS atomic clocks.

NDSU researchers recently developed a new method of creating quantum dots made of silicon. Quantum dots, or nanocrystals, are tiny nanometer-scale pieces of semiconductor that emit light when their electrons are exposed to UV light. The most common application of quantum dots is in QLED displays. Through their use, digital displays have become brighter and much thinner, resulting in improvements to television and, potentially, cell-phone technology.

Because silicon is abundant and nontoxic, silicon have unique technological appeal. Silicon quantum dots are currently being used for applications such as windows that remain transparent while serving as active photovoltaic collectors of energy, and they hold promise in medicine where quantum dots are coated with organic molecules to create nontoxic fluorescent biomarkers.

While traditional methods for creating silicon quantum dots require such as silicon tetrahydride (silane) gas or , the NDSU team’s research uses a liquid form of silicon to make the tiny particles at room temperature using relatively benign components.