Articles tagged with Silicon
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Researchers at KAUST have developed a new solar cell material combination that surpasses the performance of traditional silicon-based panels. By optimizing perovskite materials and device architecture, they achieved efficiencies beyond commercial silicon solar cells.
Researchers successfully demonstrated electroluminescence from a silicon-germanium device, marking a key step towards the development of a silicon-based laser. The achievement could have significant implications for the large-scale use of terahertz radiation in fields such as medical imaging and wireless communication.
The study used thin films of PETN, grown on different surfaces, to determine how surface cleanliness affects film properties. The research team also developed a specialized setup to visualize shock waves using schlieren imaging, which revealed that gaps around the size of a human hair could stop detonations from continuing.
Computing has a significant environmental impact due to hardware manufacturing and infrastructure. Researchers at Harvard are working to design more sustainable computing systems by reducing emissions from chip manufacturing and improving device efficiency. They also aim to incorporate environmental factors into computational design.
Materials scientists have created a method to incorporate diverse perovskite materials into silicon-based semiconductor platforms using microfluidic pumping technology. This innovation enables the creation of complex optoelectronic devices on a single chip, offering potential applications in fields like lab-on-a-chip technology.
Researchers developed a data transfer system that pairs high-frequency silicon chips with a polymer cable as thin as a strand of hair, transmitting information up to 10 times faster than a USB. The system offers improved energy efficiency and bandwidth for applications such as server farms, aerospace, and automotive industries.
Researchers from Graphene Flagship partners developed a wafer-scale fabrication method for graphene-based photonic devices, enabling automation and paving the way to large-scale production. The technique allows for integration into silicon wafers, offering ultra-broadband communications and ultra-high mobility of carriers.
Researchers from Graphene Flagship report a new method to integrate graphene and 2D materials into semiconductor manufacturing lines, overcoming challenges such as transferring materials between growth substrates. The technique uses standard dielectric material BCB and conventional wafer bonding equipment, enabling high-quality integra...
Scientists at OIST have developed a new nanostructure that improves the silicon anode in lithium-ion batteries, increasing its charge capacity and lifespan. The vaulted structure formed by depositing silicon atoms on metallic nanoparticles increases the strength and structural integrity of the anode.
Researchers from Japan Advanced Institute of Science and Technology create self-repairing polymer to stabilize silicon anode capacity, paving way for more durable Li-ion batteries. The coating prevents SEI formation and enhances stability, allowing for improved performance over 300 cycles.
Agricultural expert Angelia Seyfferth investigates how contaminants in soil affect rice plants, finding that adding rice husk residue can lower arsenic and cadmium levels. This discovery has potential to mitigate food contamination and protect global staple food populations.
Scientists have designed a zero-index material based on a purely dielectric photonic crystal slab that supports low-order mode-based design, reducing radiation loss. This design enables applications such as arbitrarily shaped waveguides, phase-mismatch-free nonlinear propagation, and extended super radiance with low propagation loss.
Researchers at Nagoya University have discovered a novel approach to tile functional nanosheets in a single layer using a one-drop method. This process could lead to the development of next-generation oxide electronics, enabling transparent and flexible devices.
The molecules generated at the University of Bonn have a trapezoidal arrangement of bonding partners around the silicon atom, which is energetically unfavorable. Despite this, they are found to be extremely stable and can be stored for weeks without degradation.
Researchers at Helmholtz-Zentrum Berlin have developed a perovskite/silicon tandem solar cell achieving a record 29.15% efficiency, surpassing previous records. The new value has been certified and is at the top of the entire Emerging PV category in the NREL chart.
A new system developed by Arizona State University researchers measures solar panel performance in outdoor settings, enabling real-time measurements and detailed diagnostics. The goal is to increase efficiency and lifespans of photovoltaic systems, supporting the development of universally effective solar cells and systems.
Researchers develop rapid-spray plasma processing technology to produce stable and efficient perovskite solar cells at record-breaking speeds. The new method enables mass production of perovskite modules with high power conversion efficiency and low costs, potentially transforming the solar industry.
Researchers discover carbyne's optical band gap is much smaller than previously thought, offering advantages for electricity conduction and future applications.
Researchers at Osaka University have created a label-free method for identifying respiratory viruses based on changes in electrical current through silicon nanopores. This new system uses machine learning to achieve highly accurate virus classification, with potential applications for COVID-19 and influenza diagnosis.
Researchers discovered that inserting potassium atoms into amorphous silica creates a negative charge by forming a SiO5 structure, which accumulates electrons. This design guidance improves the reliability and longevity of vibrational energy harvesters.
Scientists have developed a platform using DNA self-assembly to create 3D nanoscale architectures that can conduct electricity without resistance. These structures can be used in signal amplifiers, ultrasensitive magnetic field sensors, and other quantum devices.
Researchers from Osaka University have successfully polished a single-crystal diamond wafer to near-atomic smoothness using plasma-assisted polishing, which could enable the material's use in high-performance power devices and heat sinks. The technique avoids damaging the crystal structure and preserves its chemical properties.
A randomized clinical trial demonstrated the reliability of using circulating tumor cell count to guide frontline therapy choice for patients with estrogen receptor-positive (ER+) HER2-negative (HER2) metastatic breast cancer. The CTC count significantly improved progression-free survival for patients with high CTC counts, while hormon...
Researchers from University of Bristol's QET Labs developed a tiny device that measures quantum features of light at record high speeds. This achievement promises novel routes to outperform current state-of-the-art in computing, communication, and measurement.
Large-area flexible organic photodiodes have surpassed conventional silicon photodiode technology in detecting low levels of light across large areas. The devices offer advantages over silicon, particularly in biomedical imaging and biometric monitoring, with performance comparable to rigid silicon photodiodes.
Scientists at KAUST create a straightforward method for depositing silicon oxide onto silicon wafers using plasma processing in carbon dioxide gas. This technique resolves the problem of 'dangling bonds' and generates stable oxide films suitable for solar cells.
Researchers have found that the Earth's mantle has a different composition to its upper layer, contradicting long-held assumptions. Lab experiments and seismic wave analysis suggest that silicon is present in the lower mantle, not the core.
Researchers at UNSW Sydney demonstrated the lowest recorded charge noise for a semiconductor qubit, reducing it by 10 times compared to previous results. The team's achievement shows promise for large-scale error-corrected quantum computers and moves closer to commercializing silicon quantum computers.
A new study shows that layering advanced materials atop traditional silicon can produce multilayered solar panels with improved efficiency. The researchers used a precisely controlled fabrication process to create the new panels, which have the potential to convert more sunlight into usable electricity.
Scientists at Helmholtz Zentrum München and TUM developed the world's smallest ultrasound detector, leveraging silicon photonics technology to achieve super-resolution imaging. This innovation enables high-sensitivity detection in smaller sizes than previously possible, opening up new avenues for sensing and imaging applications.
Scientists use European XFEL to observe anomalous dynamics in superheated water, revealing uneven heating and unexpected behavior. The study's results are crucial for planning experiments with heat-sensitive samples.
Researchers at Helmholtz-Zentrum Dresden-Rossendorf have designed a silicon-based light source to generate single photons, a crucial component for quantum cryptography and communication. The prototype can produce 100,000 single photons per second and is stable even after several days of continuous operation.
UD Prof. Koffi Pierre Yao receives a $1 million grant to create a next-generation battery that will power devices longer, making them more affordable and accessible. The new anode material can store up to 10 times the energy of current batteries.
Researchers at Skoltech have developed a simple and efficient method to convert silicon wafers into nanoparticles in an aqueous solution, providing a new source of sustainable materials. The process enables controlling particle sizes and has implications for optics, photonics, medicine, and other fields.
Researchers created silicon-based batteries with improved stability and capacity, allowing for faster charging times and increased efficiency. The breakthrough could enable the use of lighter batteries in spacesuits and satellites, reducing mission costs and increasing energy storage capabilities.
Researchers at the University of Rochester have created the smallest electro-optical modulator yet, a key component of photonics-based chips. The breakthrough uses lithium niobate to control how light moves through its circuits, paving the way for larger-scale photonic integrated circuits with improved performance.
Researchers at Stanford University have created nanostructures that can slow down and redirect light, allowing for new technologies such as quantum computing, virtual reality, and biosensing. These 'high-Q' resonators have demonstrated quality factors up to 2,500, enabling applications like detecting COVID-19 antigens and antibodies.
Researchers have observed a significant increase in the photothermoelectric effect in silicon nanoribbons, benefiting from optimization processes and multiphysics modeling. This breakthrough has potential applications for improving photoelectric conversion efficiency by harnessing hot carrier energy.
A new imaging paradigm using broadband electric force microscopy has been developed to non-destructively image and localize dopant structures in silicon chips. The technique provides a wealth of previously inaccessible detail about the electrical environment around these structures.
NASA's new pixel-based silicon detector technology has the potential to detect highly energetic photons in space with less power consumption. The AstroPix project is using complementary metal oxide semiconductor (CMOS) manufacturing process to create more efficient detectors.
Researchers have designed a graded index waveguide that allows the width of a frequency comb to be more than doubled, compensating for material dispersion in silicon. This breakthrough enables the creation of chip-based frequency combs for high-precision spectroscopy and compact spectrometers.
Rice chemist James Tour and his team use adhesive tape to create a silicon oxide film that replaces troublesome anodes in lithium metal batteries. The new coating triples the battery lifetimes of other zero-excess lithium metal batteries, delivering better performance and longer lifespan.
Researchers at the University of Wisconsin-Madison created a highly efficient and long-lasting solar flow battery, achieving a record efficiency of 20%. The device combines silicon solar cells with advanced materials integrated with optimally designed chemical components.
Perovskite solar cells have a love-hate relationship with sunlight, generating energy but also impairs stability and performance over time. Research reveals that charged particles in perovskites flow to areas with low band gap, causing clusters to form and limiting efficiency.
Researchers developed a new silicon chip with no moving parts that improves lidar system resolution and scanning speed, enabling applications in self-driving cars and smartphones. The breakthrough could lead to cheaper, smaller, and more complex lidar systems.
Researchers at USTC successfully control spin qubit lifetime by tuning the external magnetic field direction, improving it by over two orders of magnitude. The breakthrough opens up new directions for optimizing readout and multi-qubit extension of silicon-based spin qubits.
A new way to engineer optoelectronic devices has been discovered by researchers at George Washington University. Using a method called strainoptronics, the team created a novel photodetector that can operate with high efficiency at telecom wavelengths, advancing future communications and computer systems.
A team of researchers from UC Santa Barbara, Caltech, and EPFL has developed a new technology that simplifies and condenses complex optical systems onto a single silicon photonic chip. This breakthrough allows for easy integration with traditional silicon chip production, significantly reducing cost and improving performance.
Researchers developed a compact optical system using silicon photonics, significantly lowering production costs and enabling easy integration with traditional chip production. The technology addresses growing demands for multicolor laser lights in data centers, promising new opportunities in applications like optical clocks.
A novel wearable patch has been developed to deliver chemotherapeutic drugs directly to melanoma sites, providing a more sustainable and long-lasting treatment experience. The patch uses biocompatible silicon nanoneedles that dissolve in tissue fluids, reducing toxicity and side effects associated with conventional treatments.
Scientists at NIST and MIT developed a practical technique to control magnons, enabling efficient operation at room temperature. The new approach uses silicon substrates and has potential for industry-scale production, paving the way for highly efficient computer technology.
Researchers demonstrate that introducing dislocations through ion implantation can increase the thermal stability of photoluminescence in silicon. By optimizing implantation conditions, they achieved measurable levels of luminescence at room temperature.
Using simulated silicon neurons, researchers found that energy constraints can lead to a dynamic, at-a-distance communication protocol more robust and energy-efficient than traditional computer processors. This protocol enables computing on a secondary network of spikes, allowing for efficient communication and processing.
Researchers developed a new approach to build power-efficient and programmable integrated switching units on a silicon photonics chip. The technology enables bulk fabrication of generic optical circuits that can be programmed for specific applications.
Australian scientists have developed a new generation of experimental solar energy cells that pass strict International Electrotechnical Commission testing standards for heat and humidity. The research, published in Science, uses perovskite crystals to convert sunlight into electricity, outperforming silicon-based cells.
A new metamaterial has been developed by ITMO University researchers that can change its optical properties without mechanical input. The material combines silicon and phase-change materials to achieve a transparent surface in the near-infrared region.
Scientists in Australia and Germany have developed a hybrid structure combining traditional chip design with photonic architecture to overcome engineering barriers. This allows for efficient manipulation of light at the nanoscale, achieving data processing at 100 times smaller than the wavelength of light carrying the information.
Scientists from JARA and Heraeus discovered that tiny material variations can significantly impact memristive device behavior. By controlling these differences, they created a method to design artificial synapses with varying excitability, which could lead to more efficient and reliable storage devices.
Researchers at NIST create step-by-step method to produce atomic-scale devices, enabling precise control over quantum tunneling and entanglement. The technique has a nearly 100% success rate and lays the foundation for creating stable single-atom transistors with potential applications in quantum computing.
Researchers at Iowa State University have developed a new type of solar cell that can withstand high temperatures while maintaining efficiency. The breakthrough uses a hybrid organic-inorganic perovskite material that is stable at temperatures above 200°F and has a photoconversion efficiency of 11.8%.