Search or ask a question

Is transistor on Xbox?

Heterostructure-emitter bipolar transistor

Field-effect transistor

Offset (computer science)

Answers from top 6 papers

PDF

Open Access

More filters

Papers (6)	Insight
Open access•Journal Article•DOI A single active nanoelectromechanical tuning fork front-end radio-frequency receiver. Sebastian T. Bartsch, Alexandru Rusu, Adrian M. Ionescu - Show less +2 more 08 Jun 2012-Nanotechnology 20 Citations	The combination of both a transistor and a mechanical element into a hybrid unit enables on-chip functionality and performance previously unachievable in silicon.
Journal Article•DOI High-Performance Thin-Film Transistors in Disordered and Poor-Quality Semiconductors John M. Shannon, F. Balon - Show less +1 more 17 Apr 2007-IEEE Transactions on Electron Devices 23 Citations	Compared with the field-effect transistor, a source-gated transistor more nearly meets these requirements.
Proceedings Article•DOI A complementary BiCMOS technology with high speed npn and pnp SiGe:C HBTs Bernd Heinemann, R. Barth, D. Bolze, J. Drews, P. Formanek, O. Fursenko, M. Glante, K. Glowatzki, A. Gregor, U. Haak, W. Hoppner, D. Knoll, R. Kurps, Steffen Marschmeyer, S. Orlowski, Holger Rucker, Peter Schley, D. Schmidt, R. Scholz, Wolfgang Winkler, Yuji Yamamoto - Show less +20 more 08 Dec 2003 47 Citations	The high speed performance of the pnp transistors surpasses the best reported values of this transistor type substantially.
Journal Article•DOI Device performance of transistors with high-/spl kappa/ dielectrics using cross-wafer-scaled interface-layer thickness Barry O'Sullivan, Vidya Kaushik, Lars-Ake Ragnarsson, B. Onsia, N. Van Hoornick, E. Rohr, S. DeGendt, M.M. Heyns - Show less +7 more 26 Jun 2006-IEEE Electron Device Letters 15 Citations	The transistor results are promising with good mobility values and drive current.
Journal Article•DOI An Offset Readout Current Sensing Scheme for One-Resistor RRAM-Based Cross-Point Array You-Da Chen, Albert Chin - Show less +1 more 01 Feb 2019-IEEE Electron Device Letters 16 Citations	This is the largest array among simple 1R RRAM, without using a selector device or extra transistor.
Journal Article•DOI Analysis of new high-voltage bipolar Silicon-On-Insulator transistor with fully depleted collector T. Arnborg, Andrej Litwin - Show less +1 more 01 Jan 1995-IEEE Transactions on Electron Devices 19 Citations	The transistor is expected to have a strong impact on the feasibility to realize mixed analog and digital signal circuits with high and low voltage functions on the same chip.

My columns

Related Questions

Can a transistor convert AC to DC?19 answers

How many transistors does the Xbox Series X have?7 answers

How to make a computer out of transistors?6 answers

When were transistor computers invented?6 answers

Who is the inventor of the transistor?7 answers

Who really invented the transistor?8 answers

See what other people are reading

How to control an OLED display module with arduino?

What are the most effective design elements for creating an engaging point of purchase display?

What are the most effective design elements for creating an engaging point of purchase display?

What are the potential consequences of weld imperfections in steel constructionsteelterms of safety and functionality?

Are there any literature comparing Australia and UK case study methodology for biodiversity offset?

Literature comparing Australia and the UK in terms of biodiversity offset methodologies is limited. However, studies have highlighted key aspects in both regions. In Australia, biodiversity offset credits are transacted within a complex regulatory environment, emphasizing efficient market design and online trading platforms for effective transactions. Conversely, the UK explores private funding for biodiversity conservation through offset markets, where farmers generate biodiversity credits by altering land management, subsequently sold to housing developers to counterbalance new housing impacts on biodiversity indicators. While equity challenges in biodiversity offsets have been scrutinized in scientific literature, the focus has been more on biodiversity outcomes rather than direct comparisons between Australia and the UK.What are the sensors used to measure dissolved oxygen?

Various sensors are utilized to measure dissolved oxygen (DO) levels. These include potentiometric solid-state semiconductor sensors like SnO2-gate field-effect transistors (FETs), fluorescence quenching-based sensors employing fluorescence lifetime detection, time-domain lifetime measurement sensors with oxygen sensing films, phosphorescence quenching-based intelligent sensors on optofluidic platforms for continuous DO measurement, and microelectrode array (MEA) sensors with gold electrodes for electrochemical testing in solutions like potassium ferricyanide. Each sensor type offers unique advantages such as high sensitivity, stability, accuracy, and the ability to provide continuous, real-time measurements, catering to diverse applications in industrial, biomedical, and environmental fields.What is mechanisms of theX-ray detection?

The mechanisms of X-ray detection involve various components and processes. X-ray detectors typically consist of vibrating disks, conveying devices, guide rails, detection devices, and sorting mechanisms to facilitate efficient detection of materials. These detectors utilize the Shockley-Ramo theorem to operate, incorporating ionization energy for electron-hole pair creation and responsivity formulation. In medical imaging, flat panel X-ray imagers (FPXIs) play a crucial role, utilizing direct conversion technology where X-ray photons are converted to charges in a photoconductor, then read by sensors like TFT-AMA or CMOS arrays. Additionally, a guiding mechanism with lead screws and sliders enables precise adjustment for optimal X-ray source reception, ensuring clear image quality and easy maintenance. These combined mechanisms enhance detection efficiency and accuracy in X-ray applications.What are net zero energy buildings and net zero carbon buildings?

Net Zero Energy Buildings (NZEBs) and Net Zero Carbon Buildings (NZCBs) represent two pivotal concepts in the sustainable architecture and construction sectors, aimed at reducing the environmental impact of buildings, which are significant consumers and emitters in the global energy landscape. NZEBs are designed with the goal of achieving zero net energy consumption. This means they produce as much energy as they consume over the course of a year, primarily through the use of renewable energy sources. The design and operation of NZEBs focus on minimizing energy demand through energy-efficient technologies and meeting the reduced demand with renewable energy generation. Technologies facilitating the development of NZEBs include smart building automation systems, energy-efficient lighting, HVAC systems, vacuum insulation panels, Building Integrated Photovoltaic (BIPV) systems, and advanced sensors. These buildings aim for a significant reduction in energy consumption, with successful implementations achieving mean Energy Use Intensity (EUI) values that demonstrate their efficiency. On the other hand, NZCBs extend the ambition of NZEBs by targeting zero operational and embodied carbon emissions throughout their lifecycle. This includes not only the energy used during the building's operation but also the carbon emissions associated with the construction materials and processes. NZCBs are a response to the urgent need for decarbonization in the construction sector to meet global climate targets, such as those outlined in the Paris Agreement. Achieving NZCB status involves strategies for reducing embodied carbon, operational carbon, increasing renewable energy supply, and implementing carbon offset and storage solutions. Despite the commercial viability and the higher initial capital costs, NZCBs represent a comprehensive approach to fully eliminate a building's carbon footprint. Both NZEBs and NZCBs face challenges, including high initial costs and various barriers to widespread adoption. However, they are crucial in the transition towards more sustainable, energy-efficient, and carbon-neutral buildings, reflecting a growing recognition of the need to mitigate the environmental impacts of the building sector.How does 2D ice contribute to green energy?

2D ice plays a significant role in contributing to green energy by enabling innovative technologies for sustainable practices. It can be utilized in various ways such as in ice-assisted electron-beam lithography (iEBL) for nanofabrication, as a template for assembling colloidal nanoparticles into large 2D nanosheets, and in a multi-level ice and snow energy utilization system for power generation. These applications demonstrate how 2D ice can be leveraged to enhance energy efficiency, reduce environmental impact, and promote the utilization of renewable resources. By incorporating 2D ice into different green energy technologies, it contributes to the development of sustainable solutions for energy generation and utilization, aligning with the global efforts towards a more eco-friendly future.How fluxgates magnetometers work?

Fluxgate magnetometers operate based on the principle of detecting external magnetic fields by utilizing excitation coils and a sensing coil. They can function in open-loop or closed-loop modes, depending on the application and field strength. Recent advancements include digital processing to enhance flexibility and performance, with signal processing done through mathematical algorithms. Improvements in fluxgate design involve stacking coils and insulating films on substrates to enhance performance and reduce stress from thermal expansion. Additionally, calibration of fluxgate instruments is crucial for accurate measurements, with recent studies showing that changes in sensor temperature affect sensitivity, offset, and noise levels. Overall, fluxgate magnetometers offer high sensitivity, low power consumption, and the ability to measure weak magnetic fields accurately for various applications.How does a state regulate a voluntary carbon offset markets?

States regulate voluntary carbon offset markets by implementing legal and regulatory frameworks to ensure credibility, verification, and quality standards of offset projects. This involves controlling shares, sectors, sources, and standards of offsets to meet demands for commercial viability, environmental sustainability, and political legitimacy. The state's role is crucial in integrating monetary and fiscal policy tools to manage greenhouse gas emissions effectively. Currently, only states and intergovernmental agreements have the political power to provide the necessary regulation for carbon markets to function properly. By strengthening government oversight and implementing strategies to enhance regulation, states can ensure that voluntary carbon offset markets contribute significantly to mitigating climate change and promoting sustainable development.