Modeling and simulation is standard practice in nearly every scientific field. Idaho National Laboratory’s Multiphysics Object Oriented Simulation Environment (MOOSE) has transformed approaches to predictive simulation, making it quick, adaptable and more accessible. MOOSE is a computer software that can be loaded onto most UNIX-compliant operating systems including, but not limited to, Mac OS X, Ubuntu, OpenSuSE, Fedora, CentOS and Redhat.
Mapping of the human genome has advanced our understanding of life, health and potential cures...
A speedy way to mimic the aging of materials inside nuclear reactors has matched all aspects of...
Tristructural-isotopic (TRISO) fuel particles are...
The availability of fresh, clean water remains a significant challenge as the world’s population grows. Osmosis is an effective, proven way to accomplish this, but concentrated solutions have presented difficulty. Idaho National Laboratory’s Switchable Polarity Solvents Forward Osmosis (SPS FO) leverages the switching qualities of specialized thermolytic salts to purify water from extremely concentrated solutions.
A new facility at Idaho National Laboratory is helping nuclear power plant operators like Duke Energy embark on an upgrade projects for their control rooms. The new Human System Simulation Laboratory (HSSL) is a full-scale virtual nuclear control room that can test the safety and reliability of proposed technology replacements before they are implemented in commercial nuclear control rooms.
A collaboration by researchers with the Joint BioEnergy Institute (JBEI) and the Idaho National Laboratory (INL) has shown that blending different feedstocks and milling the mixture into flour or pellets has significant potential for helping to make biofuels a cost-competitive transportation fuel technology.
Named for the Greek word for wisdom, Sophia is a software sentry developed at Idaho National Laboratory that can passively monitor communication pathways in a static computer network and flag new types of conversations so operators can decide if a threat is present. It is the first such cybersecurity technology for SCADA control system network administrators that is being evaluated for deployment to industry.
Intended to help cut red tape for business and startups wanting to do business with the U.S. Dept. of Energy’s research laboratories, the new Agreements for Commercializing Technology (ACT) program was recently launched as a third alternative to the two preceding options: signing a Cooperative Research and Development Agreement (CRADA) or a Work For Others (WFO) Agreement.
NASA's Mars Science Laboratory mission has the potential to be the most productive Mars surface mission in history. That's due in part to its nuclear heat and power source. When the rover Curiosity heads to space, it will carry the Multi-Mission Radioisotope Thermoelectric Generator, the latest "space battery" that can reliably power a deep space mission for many years.
In terms of emissions, just one pound of sulfur hexafluoride, a nontoxic gas used in electric insulation, is equivalent to about 11 tons of carbon dioxide. Energy Department experts are hunting down this and other fugitive carbon emissions and have already prevented the release of 600,000 metric tons of carbon equivalent.
Using the properties of foods like Jell-O, researchers have developed an effective, patented chemical-foam-clay decontamination process called Rad-Release Chemical Decontamination Technology. The two-part process attaches to vertical surfaces and can be tailored to specific radiological and metal contaminants.
A battery test invention from Idaho National Laboratory called the Impedance Measurement Box (IMB) provides two key but previously ignored metrics regarding battery performance: pulse resistance and power capability.
Taking inspiration from a bank’s drive-up pneumatic canister transport system, engineers at Idaho National Laboratory have installed a new specimen shuttle system that dramatically improves the duration range of experiments.
Efficiency is a problem with today's solar panels; they only collect about 20% of available light. Now, a Univ. of Missouri engineer has developed a flexible solar sheet that captures more than 90% of available light, and he plans to make prototypes available to consumers within the next five years.
Argonne National Laboratory (Argonne, Ill.) has recently commercialized its lithium-rich composite cathode technology for lithium-ion batteries with licenses to GM, Envia, Toda Kogyo, LG Chem, and BASF.
Government lab executives comment on pressing topics.
Scientists at Idaho National Lab’s Center for Space Nuclear Research have designed long-lived rocket-powered hoppers that could travel the Martian surface autonomously. Weighing about as much as a penguin, the hoppers don't have to carry fuel with them; they can suck up the carbon-dioxide-rich Martian atmosphere and use stored heat from a radioisotope power source to convert it to a propellant.
A new Supercritical/Solid Catalyst (SSC) Biodiesel Production Process from Idaho National Laboratory, produces high-quality (ASTM) biodiesel (B100) fuel from brown and black greases and other waste fats, oils, and greases; and does not require the input of acid or base catalysts.
Idaho National Laboratory's MicroSight—a solution to a centuries-old problem—at first defies logic: users can focus on both a target and its aiming reference simultaneously. The MicroSight does this by implementing phased zone plate technology.
Precision Nanoparticles was the result of serendipitous experimentation by a team of researchers at Idaho National Laboratory (Idaho Fall, Idaho) and Idaho State Univ. where the team was attempting a traditional nanoparticle production method in which a supercritical fluid is used as a solvent to dissolve the source material.
The Water Sample Concentrator (WSC) developed by Idaho National Laboratory (Idaho Falls, Idaho) and the U.S. Environmental Protection Agency (Cincinnati, Ohio) fills a critical need for water quality sampling methods that non-specialists can use to monitor water resources.
Responding to the need for safer drinking water the world over, chemical engineers Troy Tranter, Terry Todd, and Scott Herbst, and scientist Nicholas Mann, at Idaho National Laboratory have created a long-lasting, high-capacity nanocomposite polymer particle engineered to remove harmful arsenic concentrations from water. Nano-Composite Arsenic Sorbent (N-CAS) is seven times more effective at removing arsenic from water than currently available technologies and is well-suited for industrial use.
Researchers at the Idaho National Laboratory (Idaho Falls, Idaho) have developed a new LNG-based technology dubbed The Compact High Efficiency Natural Gas Liquefier. This technology does not require as large a production facility, therefore is less expensive to build and operate and produces a lower cost product than existing commercial approaches, including large-scale, centralized processing plants.
Researchers from Idaho National Laboratory, Idaho Falls, Idaho, developed The Visual First Responder Wireless Video (VFR), a portable, lightweight, wireless video camera/transmitter and receiver system that allows emergency responders to send high quality video from terrorism, accident or disaster sites to a remote command post, up to five miles away.
Researchers at the Idaho National Engineering and Environmental Laboratory (INEEL), Idaho Falls, have found a way to measure the amounts of contamination inside waste areas without harm to the surface or to equipment. The INEEL Geologic and Environmental Probe System (GEOPS) allows direct characterization and monitoring within or below hazardous waste sites.
John Flinn of Idaho National Engineering and Environmental Laboratory, Idaho Falls, has developed STAINLESS STEEL PLUS (SSP), a fine-grained stainless steel powder that provides breakthroughs in its thermal, mechanical, and corrosion properties at a significant price-performance advantage versus competing products.
In a technological leap, the Micro Laser Ultrasonic Bond Detection System replaces manual pulling and shearing techniques of microelectronic bond testing with the use of lasers. Better bond integrity could lead to longer-life pacemakers, sturdier cell phones and oil rigs, and fewer space station repairs.