ADVERTISEMENT
 
 

New Dual Pch MOSFETs from Toshiba Combine Two Transistors in One Package

New Series Offers Industry's Lowest On-Resistance
Related Research You May Be Interested In
Designing Ultra Low Noise Amplifiers for Infrastructure Receiver Applications
The construction of low noise amplifiers (LNAs) is a complex process that requires the utilization of both pHEMT technology, and cascode topology. By harnessing these two facets of LNA creation; one ...Read More
The construction of low noise amplifiers (LNAs) is a complex process that requires the utilization of both pHEMT technology, and cascode topology. By harnessing these two facets of LNA creation; one can substantially improve linearity and combat the Miller effect.

Understand the steps necessary to the creation of exceptional LNAs, and learn how the engineers at Skyworks Solutions employ their knowledge of noise figure performance, linearity, and stability to assemble their SKY67100 and SKY67101 LNA models.

By: Skyworks | Published: 11/9/2010View all white papers by Skyworks
Comparing Spectral Purity in Microwave Signal Generators
An ideal signal has no phase noise, harmonics nor spurious frequency components associated with it.
Unfortunately the ideal signal does not exist in the real world, and these factors degrade the ...Read More
An ideal signal has no phase noise, harmonics nor spurious frequency components associated with it.
Unfortunately the ideal signal does not exist in the real world, and these factors degrade the spectral
purity of all real world signals to some degree. High‐performance microwave signal generators are
designed to maximize spectral purity, with very low levels of phase noise, harmonics and spurs, while
maintaining general purpose flexibility. The levels of spectral purity performance are one of the key
differences between high‐performance, mid‐range and low‐end or entry‐level signal generators. This
paper discusses the factors that make up spectral purity specifications to help you make more informed
comparisons of microwave signal generator performance for test and measurement applications.

By: Giga-tronics | Published: 9/30/2010

Companies Mentioned in this Press Release:

Business Categories Mentioned in this Press Release:

 

IRVINE, Calif., July 19, 2011 /PRNewswire/ -- Toshiba America Electronic Components, Inc., (TAEC)* has announced the addition of the SSM6P47NU and SSM6P49NU to its lineup of small signal MOSFETs. Ideal for charging circuits for mobile devices, these dual Pch MOSFETs feature the lowest on-resistance in the industry when compared to equivalent packages.

From mobile phones and game consoles to digital cameras, power consumption and physical size are key considerations in the design of mobile devices. Toshiba's SSM6P47NU and SSM6P49NU address these issues by combining two independent transistors into one package.

A 1.8V drive, combined with a 4A drain current and extremely low on-resistance allow the SSM6P47NU and SSM6P49NU to run at a high rate of efficiency, which enables batteries to be fully charged in less time. Available in a UDFN6 package (2.0 x 2.0mm), these dual MOSFETs are a suitable size for charging circuits and are capable of acting as a switch to control which loads are connected or disconnected from the circuit.

Features of the SSM6P47NU and SSM6P49NU include:


SSM6P47NU

V(DSS) = -20V

V(GSS) = +/-8V

I(D) = 4A

R(DS)(max)@(V(GS)=-1.5V) = 242m omega

R(DS)(max)@(V(GS)=-1.8V) = 170m omega

R(DS)(max)@(V(GS)=-2.5V) = 125m omega

R(DS)(max)@(V(GS)=-4.5V) = 95m omega

C(iss)(typ) = 290 pF


SSM6P49NU

V(DSS) = -20V

V(GSS) = +/-12V

I(D) = 4A

R(DS)(max)@(V(GS)=-1.8V) = 157m omega

R(DS)(max)@(V(GS)=-2.5V) = 76m omega

R(DS)(max)@(V(GS)=-4.5V) = 56m omega

C(iss)(typ) = 480 pF





Availability

The Toshiba SSM6P47NU and SSM6P49NU dual Pch MOSFETs are available now.

Toshiba's Discrete Products

Toshiba is a leading supplier in a number of discrete product categories, including power transistors, rectifiers and thyristors, LMOS logic, CMOS logic, photocouplers, Toslinks™, LEDs, small signal diodes and transistors.  The company's discrete devices are designed to meet the growing demand for high-performance and lower voltages in today's wireless telecommunications and consumer electronics applications, while emphasizing its strength in the automotive and industrial markets.

*About Toshiba Corp. and TAEC

Through proven commitment, lasting relationships and advanced, reliable electronic components, Toshiba enables its customers to create market-leading designs. Toshiba is the heartbeat within product breakthroughs from OEMs, ODMs, CMs, distributors and fabless chip companies worldwide.  A committed electronic components leader, Toshiba designs and manufactures high-quality flash memory-based storage solutions, discrete devices, displays, advanced materials, medical tubes, custom SoCs/ASICs, digital multimedia and imaging products, microcontrollers and wireless components that make possible today's leading cell phones, MP3 players, cameras, medical devices, automotive electronics and more.

Toshiba America Electronic Components, Inc.  is an independent operating company owned by Toshiba America, Inc., a subsidiary of Toshiba Corporation, Japan's largest semiconductor manufacturer and the world's third largest semiconductor manufacturer (Gartner, 2010 WW Semiconductor Revenue, Jan. 2011). Toshiba was founded in 1875, and today operates a global network of more than 740 companies, with 204,000 employees worldwide and annual sales surpassing $77 billion.

For additional company and product information, please visit http://www.toshiba.com/taec/.

Information in this press release, including product pricing and specifications, content of services and contact information, is current and believed to be accurate on the date of the announcement, but is subject to change without prior notice. Technical and application information contained here is subject to the most recent applicable Toshiba product specifications. In developing designs, please ensure that Toshiba products are used within specified operating ranges as set forth in the most recent Toshiba product specifications and the information set forth in Toshiba's "Handling Guide for Semiconductor Devices," or "Toshiba Semiconductor Reliability Handbook." This information is available at www.chips.toshiba.com, or from your TAEC representative.

Editor's Note:  Images available for download from: http://www.toshiba.com/taec/news/press_releases/2011/lgss_11_615.jsp

MEDIA CONTACT:
Dena Jacobson
Lages & Associates
Tel.: (949) 453-8080
dena@lages.com

SOURCE Toshiba America Electronic Components, Inc.

Copyright © 2012 PR Newswire Association LLC. All Rights Reserved.

Related Research You May Be Interested In
Best Practices for Item Identification
The implementation of an efficient product identification system is an essential component of a profitable firm. That being said, it is often a struggle for firms to conceive of an identification system ...Read More
The implementation of an efficient product identification system is an essential component of a profitable firm. That being said, it is often a struggle for firms to conceive of an identification system that allows them to quickly locate their products. This difficulty can be attributed to a myriad of factors including; conflicting software design, and an inability to organize document control.

One way to overcome these difficulties is to examine the process of product identification from a product lifecycle management (PLM) perspective. The main goal of using this point of view is to “build a complete story relative to your products.” This story will combine one key element of the product with several reference elements into a comprehensive identification system. Users will then be able search by a variety of elements when attempting to locate an item.

Learn more about how to improve your firm’s productivity through the streamlining of your product identification system.

By: Active Sensing, Inc. | Published: 4/21/2010
LTE Network Design using SignalPro
This white paper will describe how the many useful LTE tools and studies that are available in SignalPro can be
used by the RF engineer to design a well performing LTE network.

ADVERTISEMENT