#ultrafast rectifiers minimizes power

[vrnn2jame]

https://www.futureelectronics.com/p/semiconductors--discretes--diodes--ultrafast-rectifiers/murs160-e3-52t-vishay-9370859

High reverse voltage surge capability, ultrafast rectifiers minimizes power

MURS160 Series 600 V 1 A Surface Mount Super-Fast Rectifier - DO-214AA

[clhdy2da]

https://www.futureelectronics.com/p/semiconductors--discretes--diodes--ultrafast-rectifiers/murs160-e3-52t-vishay-3156554

Ultrafast Plastic Rectifier, Reverse recovery, Reverse Voltage,

MURS160 Series 600 V 1 A 50 ns SMT Ultrafast Plastic Rectifier - DO-214AA

[rnldd2ove]

https://www.futureelectronics.com/p/semiconductors--discretes--diodes--ultrafast-rectifiers/murs160-e3-5bt-vishay-8143063

Ultrafast rectifiers minimize power, high frequency switched mode power supplies

1 A 600 V 75 ns Surface Mount Plastic Ultrafast Rectifier - DO-214AA

[mrrkwkins]

https://www.futureelectronics.com/p/semiconductors--discretes--diodes--ultrafast-rectifiers/murs160-e3-52t-vishay-3156554

High thermal cycling performance, Reverse recovery time, reverse voltage

MURS160 Series 600 V 1 A Surface Mount Super-Fast Rectifier - DO-214AA

[ntniel2so]

https://www.futureelectronics.com/p/semiconductors--discretes--diodes--ultrafast-rectifiers/dflu1400-7-diodes-incorporated-2993236

Single Ultra Fast Rectifier, high reverse voltage, Fast Recovery Rectifier

DFLU1400 Series 400 V 1 A Surface Mount Super-Fast Rectifier - PowerDI-123

[businessindustry]

Industrial Rectifiers Market Trends and Industry Research, Regional by 2024 to 2032

The Reports and Insights, a leading market research company, has recently releases report titled “Industrial Rectifiers Market: Global Industry Trends, Share, Size, Growth, Opportunity and Forecast 2024-2032.” The study provides a detailed analysis of the industry, including the global Industrial Rectifiers Market share, size, trends, and growth forecasts. The report also includes competitor and regional analysis and highlights the latest advancements in the market.

Report Highlights:

How big is the Industrial Rectifiers Market?

The global industrial rectifiers market size reached US$ 694.5 million in 2023. Looking forward, Reports and Insights expects the market to reach US$ 1,105.5 million in 2032, exhibiting a growth rate (CAGR) of 5.3% during 2024-2032.

What are Industrial Rectifiers?

Industrial rectifiers are devices that convert alternating current (AC) into direct current (DC) for a range of industrial uses. They are vital for processes that require a stable and controlled DC power supply, such as in electroplating, battery charging, and driving DC motors. Featuring components like diodes or thyristors, these rectifiers efficiently handle the conversion, ensuring dependable performance with minimal energy loss. By providing a consistent DC output, industrial rectifiers enable accurate control and operation of equipment and processes in various industrial and manufacturing settings.

Request for a sample copy with detail analysis: https://www.reportsandinsights.com/sample-request/1921

What are the growth prospects and trends in the Industrial Rectifiers industry?

The industrial rectifiers market growth is driven by various factors and trends. The industrial rectifiers market is growing steadily, driven by the increasing need for reliable and efficient power conversion across various industrial sectors. Industries such as manufacturing, automotive, and energy require stable direct current (DC) power for processes like electroplating, battery charging, and operating DC motors, fueling demand for high-performance rectifiers. Market growth is supported by advancements in rectifier technology, a focus on energy efficiency, and expanding industrial activities globally. Hence, all these factors contribute to industrial rectifiers market growth.

What is included in market segmentation?

The report has segmented the market into the following categories:

By Type:

Silicon Rectifiers

Selenium Rectifiers

Schottky Rectifiers

Fast Recovery Rectifiers

Ultrafast Rectifiers

Other Rectifiers

By Application:

Power Supplies

Motor Drives

Welding Equipment

Battery Charging Units

Electrochemical Processes

Others

By End-Use Industry:

Automotive

Manufacturing

Energy & Power

Telecommunications

Aerospace & Defense

Consumer Electronics

Others

Market Segmentation By Region:

North America:

United States

Canada

Europe:

Germany

United Kingdom

France

Italy

Spain

Russia

Poland

BENELUX

NORDIC

Rest of Europe

Asia Pacific:

China

Japan

India

South Korea

ASEAN

Australia & New Zealand

Rest of Asia Pacific

Latin America:

Brazil

Mexico

Argentina

Rest of Latin America

Middle East & Africa:

Saudi Arabia

South Africa

United Arab Emirates

Israel

Rest of MEA

Who are the key players operating in the industry?

The report covers the major market players including:

ABB Ltd.

General Electric Company

Siemens AG

Schneider Electric SE

Mitsubishi Electric Corporation

Eaton Corporation PLC

Rockwell Automation, Inc.

Delta Electronics, Inc.

Infineon Technologies AG

Fuji Electric Co., Ltd.

Toshiba Corporation

Emerson Electric Co.

View Full Report: https://www.reportsandinsights.com/report/Industrial Rectifiers-market

If you require any specific information that is not covered currently within the scope of the report, we will provide the same as a part of the customization.

About Us:

Reports and Insights consistently mееt international benchmarks in the market research industry and maintain a kееn focus on providing only the highest quality of reports and analysis outlooks across markets, industries, domains, sectors, and verticals. We have bееn catering to varying market nееds and do not compromise on quality and research efforts in our objective to deliver only the very best to our clients globally.

Our offerings include comprehensive market intelligence in the form of research reports, production cost reports, feasibility studies, and consulting services. Our team, which includes experienced researchers and analysts from various industries, is dedicated to providing high-quality data and insights to our clientele, ranging from small and medium businesses to Fortune 1000 corporations.

Contact Us:

Reports and Insights Business Research Pvt. Ltd. 1820 Avenue M, Brooklyn, NY, 11230, United States Contact No: +1-(347)-748-1518 Email: sales@reportsandinsights.com Website: https://www.reportsandinsights.com/ Follow us on LinkedIn: https://www.linkedin.com/company/report-and-insights/ Follow us on twitter: https://twitter.com/ReportsandInsi1

[thmms2nry]

https://www.futureelectronics.com/p/semiconductors--discretes--diodes--ultrafast-rectifiers/murs160-13-f-diodes-incorporated-3565975

Ultrafast rectifiers minimizes power, secondary output rectifications, inverters

MURS160 Series 600 V 1 A Surface Mount Super-Fast Rectifier - DO-214AA

[dvid2rray]

Surface Mount Ultrafast Power Rectifiers Ideally suited for high voltage, high frequency rectification, or as freewheeling and protection diodes in surface mount applications where compact size and weight are critical to the system.

[jms22rtnn-blog]

Ultrafast rectifiers can directly reduce switching loss and improve overall power efficiency due to a good combination between reverse recovery time and forward voltage. Some features and benefits include high reverse voltage surge capability, high thermal cycling performance, low thermal resistance and very low on-state loss.

[pul2ccord]

https://www.futureelectronics.com/c/semiconductors/discretes--diodes--ultrafast-rectifiers/products

Ultrafast rectifiers can directly reduce switching loss and improve overall power efficiency due to a good combination between reverse recovery time and forward voltage. Some features and benefits include high reverse voltage surge capability, high thermal cycling performance, low thermal resistance, and very low on-state loss.

[scifigeneration]

Converting Wi-Fi signals to electricity with new 2D materials

Imagine a world where smartphones, laptops, wearables, and other electronics are powered without batteries. Researchers from MIT and elsewhere have taken a step in that direction, with the first fully flexible device that can convert energy from Wi-Fi signals into electricity that could power electronics.

Devices that convert AC electromagnetic waves into DC electricity are known as "rectennas." The researchers demonstrate a new kind of rectenna, described in a study appearing in Nature, that uses a flexible radio-frequency (RF) antenna that captures electromagnetic waves -- including those carrying Wi-Fi -- as AC waveforms.

The antenna is then connected to a novel device made out of a two-dimensional semiconductor just a few atoms thick. The AC signal travels into the semiconductor, which converts it into a DC voltage that could be used to power electronic circuits or recharge batteries.

In this way, the battery-free device passively captures and transforms ubiquitous Wi-Fi signals into useful DC power. Moreover, the device is flexible and can be fabricated in a roll-to-roll process to cover very large areas.

"What if we could develop electronic systems that we wrap around a bridge or cover an entire highway, or the walls of our office and bring electronic intelligence to everything around us? How do you provide energy for those electronics?" says paper co-author Tomás Palacios, a professor in the Department of Electrical Engineering and Computer Science and director of the MIT/MTL Center for Graphene Devices and 2D Systems in the Microsystems Technology Laboratories. "We have come up with a new way to power the electronics systems of the future -- by harvesting Wi-Fi energy in a way that's easily integrated in large areas -- to bring intelligence to every object around us."

Promising early applications for the proposed rectenna include powering flexible and wearable electronics, medical devices, and sensors for the "internet of things." Flexible smartphones, for instance, are a hot new market for major tech firms. In experiments, the researchers' device can produce about 40 microwatts of power when exposed to the typical power levels of Wi-Fi signals (around 150 microwatts). That's more than enough power to light up a simple mobile display or silicon chips.

Another possible application is powering the data communications of implantable medical devices, says co-author Jesús Grajal, a researcher at the Technical University of Madrid. For example, researchers are beginning to develop pills that can be swallowed by patients and stream health data back to a computer for diagnostics.

"Ideally you don't want to use batteries to power these systems, because if they leak lithium, the patient could die," Grajal says. "It is much better to harvest energy from the environment to power up these small labs inside the body and communicate data to external computers."

All rectennas rely on a component known as a "rectifier," which converts the AC input signal into DC power. Traditional rectennas use either silicon or gallium arsenide for the rectifier. These materials can cover the Wi-Fi band, but they are rigid. And, although using these materials to fabricate small devices is relatively inexpensive, using them to cover vast areas, such as the surfaces of buildings and walls, would be cost-prohibitive. Researchers have been trying to fix these problems for a long time. But the few flexible rectennas reported so far operate at low frequencies and can't capture and convert signals in gigahertz frequencies, where most of the relevant cell phone and Wi-Fi signals are.

To build their rectifier, the researchers used a novel 2-D material called molybdenum disulfide (MoS2), which at three atoms thick is one of the thinnest semiconductors in the world. In doing so, the team leveraged a singular behavior of MoS2: When exposed to certain chemicals, the material's atoms rearrange in a way that acts like a switch, forcing a phase transition from a semiconductor to a metallic material. This structure is known as a Schottky diode, which is the junction of a semiconductor with a metal.

"By engineering MoS2 into a 2-D semiconducting-metallic phase junction, we built an atomically thin, ultrafast Schottky diode that simultaneously minimizes the series resistance and parasitic capacitance," says first author and EECS postdoc Xu Zhang, who will soon join Carnegie Mellon University as an assistant professor.

Parasitic capacitance is an unavoidable situation in electronics where certain materials store a little electrical charge, which slows down the circuit. Lower capacitance, therefore, means increased rectifier speeds and higher operating frequencies. The parasitic capacitance of the researchers' Schottky diode is an order of magnitude smaller than today's state-of-the-art flexible rectifiers, so it is much faster at signal conversion and allows it to capture and convert up to 10 gigahertz of wireless signals.

"Such a design has allowed a fully flexible device that is fast enough to cover most of the radio-frequency bands used by our daily electronics, including Wi-Fi, Bluetooth, cellular LTE, and many others," Zhang says.

The reported work provides blueprints for other flexible Wi-Fi-to-electricity devices with substantial output and efficiency. The maximum output efficiency for the current device stands at 40 percent, depending on the input power of the Wi-Fi input. At the typical Wi-Fi power level, the power efficiency of the MoS2 rectifier is about 30 percent. For reference, today's best silicon and gallium arsenide rectennas made from rigid, more expensive silicon or gallium arsenide achieve around 50 to 60 percent.

There are 15 other paper co-authors from MIT, Technical University of Madrid, the Army Research Laboratory, Charles III University of Madrid, Boston University, and the University of Southern California.

The team is now planning to build more complex systems and improve efficiency. The work was made possible, in part, by a collaboration with the Technical University of Madrid through the MIT International Science and Technology Initiatives (MISTI). It was also partially supported by the Institute for Soldier Nanotechnologies, the Army Research Laboratory, the National Science Foundation's Center for Integrated Quantum Materials, and the Air Force Office of Scientific Research.

[polashislam]

[dorcasrempel]

Converting Wi-Fi signals to electricity with new 2-D materials

Imagine a world where smartphones, laptops, wearables, and other electronics are powered without batteries. Researchers from MIT and elsewhere have taken a step in that direction, with the first fully flexible device that can convert energy from Wi-Fi signals into electricity that could power electronics.

Devices that convert AC electromagnetic waves into DC electricity are known as “rectennas.” The researchers demonstrate a new kind of rectenna, described in a study appearing in Nature today, that uses a flexible radio-frequency (RF) antenna that captures electromagnetic waves — including those carrying Wi-Fi — as AC waveforms.

The antenna is then connected to a novel device made out of a two-dimensional semiconductor just a few atoms thick. The AC signal travels into the semiconductor, which converts it into a DC voltage that could be used to power electronic circuits or recharge batteries.

In this way, the battery-free device passively captures and transforms ubiquitous Wi-Fi signals into useful DC power. Moreover, the device is flexible and can be fabricated in a roll-to-roll process to cover very large areas.

“What if we could develop electronic systems that we wrap around a bridge or cover an entire highway, or the walls of our office and bring electronic intelligence to everything around us? How do you provide energy for those electronics?” says paper co-author Tomás Palacios, a professor in the Department of Electrical Engineering and Computer Science and director of the MIT/MTL Center for Graphene Devices and 2D Systems in the Microsystems Technology Laboratories. “We have come up with a new way to power the electronics systems of the future — by harvesting Wi-Fi energy in a way that’s easily integrated in large areas — to bring intelligence to every object around us.”

Promising early applications for the proposed rectenna include powering flexible and wearable electronics, medical devices, and sensors for the “internet of things.” Flexible smartphones, for instance, are a hot new market for major tech firms. In experiments, the researchers’ device can produce about 40 microwatts of power when exposed to the typical power levels of Wi-Fi signals (around 150 microwatts). That’s more than enough power to light up an LED or drive silicon chips.

Another possible application is powering the data communications of implantable medical devices, says co-author Jesús Grajal, a researcher at the Technical University of Madrid. For example, researchers are beginning to develop pills that can be swallowed by patients and stream health data back to a computer for diagnostics.

“Ideally you don’t want to use batteries to power these systems, because if they leak lithium, the patient could die,” Grajal says. “It is much better to harvest energy from the environment to power up these small labs inside the body and communicate data to external computers.”

All rectennas rely on a component known as a “rectifier,” which converts the AC input signal into DC power. Traditional rectennas use either silicon or gallium arsenide for the rectifier. These materials can cover the Wi-Fi band, but they are rigid. And, although using these materials to fabricate small devices is relatively inexpensive, using them to cover vast areas, such as the surfaces of buildings and walls, would be cost-prohibitive. Researchers have been trying to fix these problems for a long time. But the few flexible rectennas reported so far operate at low frequencies and can’t capture and convert signals in gigahertz frequencies, where most of the relevant cell phone and Wi-Fi signals are.

To build their rectifier, the researchers used a novel 2-D material called molybdenum disulfide (MoS2), which at three atoms thick is one of the thinnest semiconductors in the world. In doing so, the team leveraged a singular behavior of MoS2: When exposed to certain chemicals, the material’s atoms rearrange in a way that acts like a switch, forcing a phase transition from a semiconductor to a metallic material. The resulting structure is known as a Schottky diode, which is the junction of a semiconductor with a metal.

“By engineering MoS2 into a 2-D semiconducting-metallic phase junction, we built an atomically thin, ultrafast Schottky diode that simultaneously minimizes the series resistance and parasitic capacitance,” says first author and EECS postdoc Xu Zhang, who will soon join Carnegie Mellon University as an assistant professor.

Parasitic capacitance is an unavoidable situation in electronics where certain materials store a little electrical charge, which slows down the circuit. Lower capacitance, therefore, means increased rectifier speeds and higher operating frequencies. The parasitic capacitance of the researchers’ Schottky diode is an order of magnitude smaller than today’s state-of-the-art flexible rectifiers, so it is much faster at signal conversion and allows it to capture and convert up to 10 gigahertz of wireless signals.

“Such a design has allowed a fully flexible device that is fast enough to cover most of the radio-frequency bands used by our daily electronics, including Wi-Fi, Bluetooth, cellular LTE, and many others,” Zhang says.

The reported work provides blueprints for other flexible Wi-Fi-to-electricity devices with substantial output and efficiency. The maximum output efficiency for the current device stands at 40 percent, depending on the input power of the Wi-Fi input. At the typical Wi-Fi power level, the power efficiency of the MoS2 rectifier is about 30 percent. For reference, today’s rectennas made from rigid, more expensive silicon or gallium arsenide achieve around 50 to 60 percent.

There are 15 other paper co-authors from MIT, Technical University of Madrid, the Army Research Laboratory, Charles III University of Madrid, Boston University, and the University of Southern California.

The team is now planning to build more complex systems and improve efficiency. The work was made possible, in part, by a collaboration with the Technical University of Madrid through the MIT International Science and Technology Initiatives (MISTI). It was also partially supported by the Institute for Soldier Nanotechnologies, the Army Research Laboratory, the National Science Foundation’s Center for Integrated Quantum Materials, and the Air Force Office of Scientific Research.

Converting Wi-Fi signals to electricity with new 2-D materials syndicated from https://osmowaterfilters.blogspot.com/