Articles tagged with Laboratory Equipment
A new chip-based sensor can detect very low levels of a cancer protein biomarker in urine, paving the way for non-invasive and inexpensive disease diagnosis and monitoring. The sensor's high sensitivity enables detection of minute biomarker concentrations, making it a promising tool for personalized medicine.
A team led by Professor Sylvain Martel developed a robotic platform using the fringe field of an MRI scanner to guide medical instruments through deeper and more complex vascular structures. The approach has been successfully demonstrated in-vivo, opening up new horizons for minimally invasive procedures.
Researchers found that kinaesthetic imagery ability enhances golf putting performance, and mental practice can improve a golfer's putting ability even if they already have a good feel for the game. The study suggests that this technique may reduce a golfer's handicap and is crucial in determining earnings on the PGA Tour.
Researchers identified 120 publications on occupant-centric control (OCC), but only 42 studies included field implementation. OCC's reliance on data raises technological and privacy issues, including secure data storage and whole-building approaches.
UCLouvain's research developed Multipath TCP to support expanding global internet traffic, improving Wi-Fi and mobile network switching. The protocol is used by 800 million iPhones and has won international awards, enhancing connectivity in rural areas and offering a win-win for subscribers and telecom operators.
Researchers at KAUST have developed a wearable, flexible magnetic skin that can remotely control switches and keyboards without wired connections. The innovative technology has potential applications in human-computer interfaces for people with paralysis, gaming, sleep pattern analysis, and noninvasive biomedical device localization.
Scientists at EPFL have developed a cheaper way to scale up atomic layer deposition, reducing costs and increasing precision. The new liquid-phase method uses standard lab equipment and achieves coatings that are not possible with gas-phase ALD.
Researchers at the University of Illinois are developing a smartphone-based diagnostic system that can detect pathogens in less than 30 minutes using a single drop of blood. The system, which will be handheld and cost less than $10, has the potential to provide fast and affordable results for patients in developing countries.
Researchers developed an affordable, open-source monitoring system called GMpi using Raspberry Pi computers. The system allows flexible and secure remote monitoring of plant growth facilities, ensuring reproducibility and peace of mind.
Scientists have developed a new method to image surface structures in combination with their magnetic properties at the atomic level. By using a scanning tunneling microscope with a nickel-containing molecule as an active sensor, they were able to detect magnetic moments with unprecedented spatial resolution.
Researchers developed an electronic sensor that can process both touchless and tactile stimuli, enabling seamless interaction in virtual reality scenarios. The sensor's flexibility allows it to register a clear shift from touchless to tactile interaction, allowing for selective control of physical and virtual objects.
The Dark Energy Spectroscopic Instrument (DESI) has begun testing its capabilities, capturing light from distant galaxies and preparing to map 35 million galaxies across 1/3 of the sky. DESI aims to study 10 million stars in our galaxy, the Milky Way, tackling one of physics' most profound problems: the nature of dark energy.
Researchers developed a paper-based sensor that can detect iron levels in fortified food products with high accuracy and reliability. The sensor uses a cellphone app to analyze the color change, providing a simple and affordable solution for monitoring nutrient content.
Scientists create a soft, flexible artificial skin made of silicone and electrodes that can replicate the human sense of touch. The skin provides real-time pressure and vibration feedback to enhance rehabilitation and virtual reality applications.
A team of researchers has developed an implantable, self-powered spinal fusion sensor to monitor the health of the spine after surgery. The sensor will provide continuous and long-term monitoring, eliminating the need for costly imaging appointments and exposing patients to radiation.
Researchers developed a new tracking method for urban rats using pheromones, revealing sex-specific scent preferences. This finding could aid in urban wildlife management and development of novel control tools, such as bait deployment or immuno-contraceptives.
Researchers at ETH Zurich have developed a handheld device that can detect methanol in alcoholic beverages and diagnose poisoning by analyzing exhaled breath. The device uses a small metal oxide sensor to distinguish between methanol and ethanol, with detection limits down to the legal limit.
A new simulation software aims to enhance process knowledge and speed up biopharmaceutical manufacturing. Christian Witz's software shortens simulation times from months to hours, enabling more efficient troubleshooting and insights into processes.
Researchers developed a portable PLOT-cryo device to screen cargo for hazardous materials. The instrument can detect low concentrations of chemicals and requires minimal sniffing time, making it suitable for busy port inspections.
A new AI software developed by University of Oxford scientists can recognize individual chimpanzee faces in the wild, allowing researchers to track behavior over long periods. This technology has potential for conservation efforts and animal behavior research, offering a sustainable solution to monitor species.
A Purdue University team is developing sensors to track concrete strength development in real time, allowing for more precise data on when traffic can use new concrete pavement. This technology has the potential to save millions of dollars each year and reduce traffic by providing engineers with accurate information on concrete maturity.
A stretchable wireless sensor can monitor the healing of cerebral aneurysms by detecting changes in blood flow. The sensor, fabricated using aerosol jet 3D printing, can be seamlessly integrated onto existing medical stents and measures an incoming blood flow to determine how well the aneurysm is healing.
Researchers at Tufts University developed transistors made from linen thread, enabling the creation of fully flexible devices with superior flexibility and material diversity. The device can be woven into fabric or worn on the skin, allowing for seamless integration with biological tissues.
Researchers developed wearable skin sensors that can detect sweat rate and electrolytes, providing real-time updates on health problems such as dehydration or fatigue. The sensors were found to be reliable and reproducible, enabling continuous data collection from different parts of the body.
A new machine learning tool, KymoButler, automates the analysis of kymographs to track particle movements inside living cells. This improves research efficiency and reduces bias.
Scientists at Samara Polytech have synthesized the first metal-organic frameworks (MOFs) with unique properties, including magnetic susceptibility, luminescence, and electrical conductivity. The resulting nanostructured materials demonstrate record sorption characteristics for various volatile substances.
The PermaSense project has recorded a unique 10-year record of high-resolution data on the Hörnli ridge of the Matterhorn, offering a better understanding of processes that can lead to rock destabilization. The data set includes measurements of temperature, seismic activity, and deformation of the mountain ridge.
Researchers at UBC Okanagan have developed a new sensor that can detect the precise moment when ice begins to form on a surface, using microwave resonators. The device has high sensitivity, low power consumption, and is easy to fabricate, making it ideal for improving airline safety and efficiency.
The Department of Energy's Oak Ridge National Laboratory has developed dynamic vision sensors that can interpret live information in real-time, revolutionizing robotics and autonomous vehicle sensing. Additionally, researchers are using additive manufacturing techniques to unlock new potential in tungsten for fusion energy, while also ...
Researchers identify hybrid organic-inorganic perovskite as prime compound candidate for room temperature semiconductor radiation detectors, offering cost efficiency and rapid synthesis. Improved detectors will enable better detection, identification, and prevention of radioactive threats, enhancing global nuclear security.
Researchers are working on developing wireless sensors to communicate with prosthetic devices, aiming to improve the performance of prosthetics for individuals with upper limb amputations. The new technology has exciting implications for those facing limb loss, and will be tested on amputees next year.
TU Wien's blockchain research lab has developed a software tool called Coinshuffle to collect and merge transactions, creating anonymous Bitcoin transactions. The lab also solved scalability issues in Lightning Networks, enabling private transactions without compromising security.
Roxbury will use carbon nanotubes to examine living cells and study their interactions, with applications in detecting diseases such as non-alcoholic fatty liver disease and cancers. The research aims to develop non-invasive sensing methods.
A new optical sensor developed at Berkeley Lab can provide reliable information on building damage immediately after an earthquake. The Discrete Diode Position Sensor (DDPS) measures interstory drift and will speed up efforts to safely assess, repair, and reoccupy buildings post-quake.
A chemist at the University of Texas at Arlington has developed a device that collects and analyzes liquid samples as they travel through space. The open-tubular chromatograph can detect and separate ions using very little power, making it ideal for future Mars missions.
The US Department of Energy is investing $32 million in the Midwest Integrated Center for Computational Materials (MICCoM) to develop open-source software for designing new materials. The center aims to predict and interpret properties of functional materials for energy conversion and quantum information sciences.
The City University of New York (CUNY) has been awarded a Center for Advanced Technology designation by Empire State Development, with nearly $8.8 million in funding over ten years. The new center will focus on developing next-generation sensor systems and applications, driving economic development and job creation in New York State.
Researchers discovered that dung beetles use a wind compass to navigate when the sun is high, complementing their sun compass. This flexible navigation system enables precise direction-finding at all times.
A UTA research team is working with the Army Research Laboratory to develop nanophotonic devices that can capture and release light in the longwave infrared spectral region. These devices have potential applications in thermal imaging, medical diagnostics, chemical analyses, and environmental monitoring.
The new software can simulate a year's worth of grid interactions in under five minutes, making it easier for utility companies to install rooftop solar panels. This is faster than previous models that took days or even weeks to run a single scenario.
Researchers review existing works on using IoT and crowdsourced data for atmospheric research, highlighting its potential to improve weather forecasting and monitoring environmental processes. The innovative approach can provide valuable insights into atmospheric conditions, such as temperature, pressure, and air pollution.
Researchers at Imperial College London have developed affordable and biodegradable sensors that can detect spoilage gases in meat and fish products, reducing food waste and plastic pollution. The sensors, called PEGS, can be read on smartphones and are cheaper to produce than existing sensors.
HyQReal, the latest version of hydraulic-powered quadruped robots, successfully pulled a 3300kg small passenger airplane at Genova Airport. The robot features increased ruggedness, reliability, and energy efficiency compared to previous versions.
Researchers developed a 3D-printed pipette-tip test that leverages the enzyme-linked immunosorbent assay (ELISA) method. The new technology significantly reduces testing costs and time, allowing for faster diagnosis and potentially making medical testing available in rural or remote areas.
The Stanford Student Robotics club developed an affordable, open-source quadruped robot called Stanford Doggo, which can perform acrobatic tricks and navigate challenging terrain. The robot's cost is estimated under $3,000 and all components can be bought online.
Advanced Research Systems has licensed a technology to automatically refill liquid helium used in laboratory equipment, reducing downtime and increasing overall efficiency. The technology, developed by Oak Ridge National Laboratory, allows for weeks of uninterrupted operation and less helium loss compared to manual filling.
Researchers at Linköping University developed a sensor that combines pyroelectric and thermoelectric effects with nano-optical phenomena, enabling rapid and stable detection of temperature variations from warm objects or sunlight. The sensor is also pressure-sensitive and can distinguish between different materials.
A new software library CGRtools has been developed to improve chemical reaction processing by predicting reaction characteristics, finding optimal conditions, and detecting errors. The library is rich in functionality, supporting molecules and reactions as objects and offering transparent class inheritance.
Researchers developed a sensor that can detect spoiled milk by reacting to gas produced by bacterial growth, changing color in the process. The breakthrough aims to improve food safety and shelf life by providing a more accurate expiration date system.
Researchers have developed a new instrument to create nanodroplets capable of delivering biological samples free from contaminants. This breakthrough allows for the first-time imaging of smaller proteins and structures, advancing the quest to understand dynamic biomolecules.
Researchers developed protein catalyzed capture technology to improve receptor stability and manufacturability for wearable sensor applications. The technology enables real-time monitoring of Soldier health and performance, as well as sensing environmental threats.
A new study reveals that female sand tiger sharks exhibit site fidelity to shipwrecks off the North Carolina coast, using them as rest stops or potential mates. The finding suggests that the wrecks are crucial habitats for this endangered shark species, which experienced significant population drops in the last century.
Researchers developed ELISAtools to limit variability in research-use-only assay kits, enabling more consistent results over time. The software provides a stable platform for comparing data from different kits, reducing variability by up to 90%.
The ML-DSP tool can provide conclusive answers to complex questions about species, DNA, and viruses. It has been shown to outperform other classification software tools in terms of accuracy and speed.
Researchers at the University of Wisconsin-Madison have developed a compact spectrometer that can integrate with smartphone cameras, enabling real-time chemical identification. The device boasts high resolution and low fabrication costs, paving the way for enhanced sensors in various fields.
A new urine test using nanoparticles that detect early enzyme activity of immune cells attacking cancer has received a major funding boost from the National Institutes of Health. The test can identify immunotherapy effectiveness very early, helping doctors adjust treatment and combat resistance.
Researchers developed an ultra-thin optical chip that detects biomolecules in a sample and determines their location using metasurfaces. The technology uses image analysis to count biomolecules one by one and identify trends, demonstrating its potential for personalized medicine.
Researchers at Oak Ridge National Laboratory are exploring the potential of artificial intelligence to analyze data from published medical studies associated with bullying. They also developed a low-cost sensor to monitor electrical loads from household appliances, which could support grid operations and improve power grid efficiency. ...
Scientists at Linköping University have developed an ultra-sensitive heat sensor based on a polymer mixture that uses ions as charge carriers, resulting in a signal 100 times stronger than traditional materials. The new material has potential applications in wound healing, electronic skin, and smart buildings.
Researchers at Helmholtz-Zentrum Dresden-Rossendorf have developed a new procedure to optimize water usage in mineral beneficiation technology. By using process simulation, the team was able to significantly reduce water consumption, from 4,000 litres per tonne of ore to below 1,000 litres per tonne. This innovation has the potential t...