Category Archives: Materials and Equipment

February 7, 2007 — /PRNewswire/ — PHOENIX — Applied Mechanical Corporation of Austin, TX announced today the acquisition of Phoenix-based Cleanroom Sciences in an all cash transaction. Applied Mechanical will now offer Test, Certification, and Maintenance services for cleanrooms and mini-environments. This strategic move further establishes Applied Mechanical’s position as the leading outsource provider of on-site engineering, management, technical, and logistical support for advanced technology manufacturing.

“CRS is known as the value leader for Cleanroom Certification Services in advanced technology industries and is a perfect complement to the suite of technical services A-M currently provides to these same markets,” said Kelly McAndrew, President and CEO of Applied Mechanical. “The high level of professionalism and technical competence with which Gary Rolf and his CRS team conduct their business make this an easy fit operationally. Both organizations have strong cultures based on trust, honesty and team work, and both have a reputation for uncompromising commitment to their customers, their employees, and their communities.”

Applied Mechanical’s CFO, Johannes Brinkmann said, “The acquisition is part of our strategy to achieve consistently strong, stable growth by delivering the scope and quality of services that our customers expect. The considerable investments we made in our G&A and operational infrastructures over the past five years have enabled a new avenue of growth for Applied Mechanical.”

Cleanroom Sciences will take its place as Applied Mechanical’s fifth business unit along with: Construction Management Service, Semiconductor Equipment Services, Quality Assurance/ Quality Control Services, and Capital Equipment Relocation Services.

Applied Mechanical owner and Chairman Tim Self said, “The shareholders and board are very pleased with management’s execution of this strategic objective.”

About Applied Mechanical
Applied Mechanical (http://www.appliedmech.com/ ) is based in Austin, TX and Dublin, Ireland. With nearly 300 employees, they are the largest privately owned provider of out source technical, engineering and project management services to the semiconductor industry. The company’s five business units address the entire spectrum of service needs of semiconductor manufacturers. These include: cleanroom services, QA/QC testing of the chemical and gas delivery systems, construction and project management, OEM- level tool installation and service, and tool de-installation and relocation.

About Cleanroom Sciences
Cleanroom Sciences (http://www.crsaz.com/ ) is a Phoenix based company founded by cleanroom certification pioneer Gary Rolf. They are one of only a handful of companies to offer the complete range of services for cleanrooms and other controlled environments. CRS has helped author many of the standards that govern the cleanroom industry today and they have been a major contributor to the development of procedures, test media, training, and reporting formats that are now the de facto standards in the industry. In addition to services provided by their own NEBB accredited employees, they conduct certification classes for other individuals and service companies in support of IEST, NEBB, ASHREA and other industry organizations.

Source: Applied Mechanical Corporation

CONTACT: Steven Rorabacher, Director of Marketing of Applied Mechanical
Corporation, +1-505-922-6014 or [email protected]

Web site: http://www.appliedmech.com/
http://www.crsaz.com/


Raymor’s new 77,000 sq ft. production facility (Photo: Raymor Industries)

Feb. 8, 2007 — Raymor Industries, Inc., a developer and producer of single-walled carbon nanotubes, nanomaterials and advanced materials, has completed the move of all of its current business activities and is now in production at its new 77,000 sq. ft. facility in Boisbriand, Quebec, a suburb of Montreal.

The existing manufacturing units have begun producing for clients at the new facility. The major expansion activities for Raymor’s metallic powders and coating divisions will be completed over the course of the current quarter. The move to the new facility was initiated in order to save costs and to facilitate the expansion of its single-walled carbon nanotubes (C-SWNT) and advanced materials production lines. The company states that the new facility costs 30% less to operate on a square foot basis as compared to the previous location, and is more strategically located to service Raymor’s existing and projected client base.

The existing units now in production at the new facility include the following:
– One high capacity unit for the production of high quality, reasonably priced C-SWNT for composite and other applications in the aerospace, defense, sports and recreation, and energy fields;
– One plasma atomization unit for the production of highly spherical, very flowable and very pure titanium and titanium alloy powders for biomedical and aerospace applications;
– One HVOF (High Velocity Oxy-Fuel) spray unit, used primarily for the coating of carbide-based materials in aerospace, power generation and other industrial applications;
– One APS (Atmospheric Plasma Spraying) spray unit, for the coating of metals and ceramics onto critical components in various sectors, including aerospace and other specialized industries;
– One VPS (Vacuum Plasma Spraying) spray unit for the coating of critical gas turbine components, severe service ball valves, and other equipment requiring very high quality metal and ceramic coatings.

In a prepared statement, Stéphane Robert, President and CEO of Raymor Industries, commented, “With the completion of installations in our new facility and the purchase of new equipment which considerably increased our production capacity, coupled with new qualified personnel coming on board with the company, we are now in a much better position to capture significant market share in the aerospace, defense, biomedical and industrial sectors in all of our operating divisions. Clients have already begun to visit the new building, and have walked away very impressed with our facility and very enthusiastic about our capability to expand, particularly in our Nanotechnology division. With only certain key qualifications remaining, we have all the elements in place to sign long-term agreements with our customers.”

Feb. 2, 2007 — Oxford Instruments, a UK supplier of MBE, plasma and ion beam processing equipment, announced the delivery of a twin V100 molecular beam epitaxy (MBE) system to a customer in Asia.

With an installed base of over 60 systems, the V100 is ideally suited to high-volume production, being fully automated for handling multi-wafer platens with 4 x 4″, 5 x 3″ or 12 x 2″ capacity. It is widely used in the manufacture of pHEMT, MESFET and HBT structures as well as the fabrication of high quality laser diodes.

“The successful delivery of such a complex system further demonstrates the in-depth capability of Oxford Instruments since acquiring the VG Semicon MBE business in October 2003”, states Tony Cornish, Business Manager for MBE and Ion Beam products.

Molecular beam epitaxy enables the growth of semiconductor materials such as Gallium Arsenide (GaAs) for chips in applications such as mobile phones and other communications devices, Indium Arsenide (InAs) for infrared detectors and optoelectronics, and a wide range of other and more complex compound materials which enable modern electronic devices.

January 29, 2007 – AMI Semiconductor is in full production mode with Advanced Interconnect Technologies’ (AIT) stacked-die quad flat package no leads (QFN) modules, which AMI will incorporate into several consumer electronics applications, the companies said today.

The QFN-MCM product uses a pyramid formation of stacked, wire-bonded die in a system-in-package (SiP), explained company spokesperson Chris Stai to SST sister publication Advanced Packaging, and exhibits a smaller footprint (3 x 3mm) than ICs with side-by-side die, and better thermal management due to a shortened interconnect from the 7-mil-thick die to leadframe. He added that the pyramid structure makes assembly “straightforward,” and that die are tested with wafer probes prior to stacking to ensure known good die (KGD) are used. AMI did not release information on specific applications using the QFNs.

AIT plans to focus a large percentage of its 2007 R&D efforts on various stacked die and how to incorporate 3-D packaging with familiar infrastructures and materials, noted Stai. He said that a “deep relationship” with AMI and several parameters influenced development of the QFN with stacked die, and referenced analyst predictions of a BGA-substrate shortage as an indicator that influenced AIT to use more conventional leadframe substrates.

To learn more about current supply for advanced substrates, read AP‘s Substrate possibilities and limitations.

By Hiawatha Bray
The Boston Globe

Jan. 26, 2007 — The Cambridge City Council is considering a law to regulate the use of super-small nanoparticles in research and manufacturing. If the council decides to act, it will make Cambridge the second city in the United States, after Berkeley, Calif., to regulate nanotechnology.

“We hope that nanotech is going to be a big part of new industry in Cambridge,” said council member Henrietta Davis. But Davis said the city should make sure that nano-based businesses ply their trade safely. “It’s not my intention to stifle it,” she said. “It’s more to be proactive.”

The efforts in Cambridge and Berkeley underscore growing concern about health and environmental risks from nanoparticles, which are used in an increasing number of manufactured goods.

Certain materials, such as carbon, acquire unusual and useful properties when fabricated into particles of 100 nanometers or smaller. Carbon nanotubes, for example, can be used to make extremely strong but flexible materials, and are turning up in bicycle frames and bullet-resistant T-shirts.

But these materials also behave differently when they are reduced to tiny particles, and there has been little research into their effects on living organisms, if inhaled or ingested, or their effect on the environment.

“Nanomaterials are not well understood,” said Sam Lipson , director of environmental health at the Cambridge Public Health Department. “There is an enormous area of uncertainty and unanswered questions.”

Agencies of the federal government are just beginning to study the matter. They must also decide whether new regulations are needed, or whether nanoparticles are covered by existing safety regulations.

The Environmental Protection Agency last year said it would regulate nanosilver — super-small silver particles used as a disinfecting agent in shoe liners and washing machine tubs. There’s no explicit EPA regulation covering nanosilver particles, but the agency concluded that existing pesticide regulations could be applied to the material.

Meanwhile the National Institute for Occupational Safety and Health is studying whether exposure to nanoparticles poses a risk to factory workers.

“We’re looking at questions of exposure in real workplace settings,” said institute spokesman Fred Blosser.

Igor Linkov , managing scientist at Intertox Inc., a technology consulting firm in Brookline, said there is some evidence that nanoparticles could pose health risks. He cited a study that found that rats developed scar tissue when liquid mixed with carbon nanoparticles was sprayed into their lungs. But Linkov said far more research is needed before jumping to conclusions about the safety of nanoparticles.

“We know that some nanomaterials, at some point during their life cycle, may pose risks,” said Linkov. “We really cannot quantify how high the risk is.”

On Jan. 8, the Cambridge City Council voted to ask Lipson to study the nanotechnology regulation enacted in Berkeley last year, and recommend a similar statute for Cambridge. Under the Berkeley law, companies and research labs that make nanoparticles, or use them in manufacturing or research, must disclose that fact to the city government. In addition, the users must provide information on any known health or safety risks posed by the nanomaterial, and must report on how the materials will be handled, stored, and disposed of. The City Council ordered Lipson to study the Berkeley law and determine whether it makes sense to draw up a similar statute.

“They’re not getting too far ahead of themselves” in Berkeley, said Lipson. “They haven’t put out a series of restraints on research and development of these materials.”

Lipson also noted that, three decades ago, Cambridge was the first US city to regulate recombinant DNA research, used by scientists to create custom-tailored life forms. Despite the regulation, Cambridge is a leading biotech research center, he said.

Davis said prospects for a nanotech ordinance are good. “If it comes from the Public Health Department, I think it’s pretty likely to be passed,” she said. “The standard having been set by Berkeley, we will probably do something very similar to them.”

But Greg Schmergel, chief executive of Nantero Inc., a Woburn company that designs nanotube-based microchips, said the Berkeley law is poorly drafted and unnecessary. “Nanoparticles are covered under the same regulations that larger particles are covered under,” he said.

Adding a new layer of regulation will only burden businesses with extra costs and legal hassles, according to Schmergel. For example, he said, the Berkeley law doesn’t include a definition of nanoparticles. That could lead to long and costly battles over how to interpret the law.

The move by Cambridge to adopt a similar law also troubles Schmergel, who wondered if businesses will have to comply with dozens or hundreds of local nanotech laws. “Should every town, based on no information at all, start making their own regulations?” he said.

Hiawatha Bray can be reached at [email protected].

To see more of The Boston Globe, or to subscribe to the newspaper, go to http://www.boston.com/globe.
Copyright (c)2007, The Boston Globe

Distributed by McClatchy-Tribune Business News.

(January 29, 2007) YORKTOWN HEIGHTS, NY &#151 IBM announced it is in the development stage with 45-nm transistor technology that uses high-k gate dielectric and a proprietary metal composite for the transistor gate electrode. Constructing the transistor with conventional methods such as high-temperature annealing &#151 instead of removing and recreating the gate post-build &#151 is a familiar process that gives engineers more control and reduces the possibility of error, said Ghavam Shahidi, director of silicon technology at IBM.

(January 23, 2007) RESEARCH TRIANGLE PARK, NC &#151 Nextreme Thermal Solutions named Phil Deane, Ph.D., senior technology fellow, appointed to address thermal management and thermoelectric packaging issues, and to define product and packaging strategies for customers with the company’s thermoelectric coolers. Thin-film thermoelectric technology represents an advancement in in-package cooling, said Deane.

January 22, 2007 — /PRNewswire/ — ENGLEWOOD, Colo. — Baxa Corporation has published the 2007 dates for training at its STAR (Skills Training, Academics and Resources) Center. The STAR Center, a premier facility designed for cleanroom and pharmacy practice demonstration, is located at the company’s world headquarters south of Denver, Colorado. Baxa Corporation built the STAR Center to provide professional education on pharmacy practice, cleanroom principles and compliance to regulatory requirements.

The initial class in the STAR Center, Compliance Tools and Aseptic Certification for USP < 797 >, debuted in September 2006, with sessions repeated in October and November. 2007 Program Dates for the USP 797 course will be: 23 – 25 January; 20 – 22 March; 22 – 24 May; 24 – 26 July; 18 – 20 September and 23 – 25 October. Class participation is limited to 18 to ensure that professionals have hands-on experience and a small student-to-trainer ratio.

The ACPE-certified training will be filled on a first come, first served basis. Current programming targets pharmacy and IV managers, and provides value to all personnel who compound sterile products or who are implementing cleanroom principles and practices that comply with USP 797 and industry best practice. Topics include cleanroom physical design and layout, engineering controls and airflow science, media fill testing and principles associated with work flow, staff training, cleaning, monitoring, validation and documentation.

Baxa Corporation sponsors the STAR Center to further best practices in hospital pharmacy. The STAR Center brings together professional and industry partners to provide participants with a range of experience in equipment, technology and design. Tuition charged for STAR Center training covers the cost of providing participant meals and training materials, ACPE accreditation and professional speakers’ fees. Future class offerings will be determined through professional interest and facility requirements. Contact Baxa Corporation at www.baxa.com/starcenter for more information.

About Baxa Corporation
Baxa, a customer-focused medical device company, provides innovative, solution-based technologies for fluid handling and delivery. Its systems and devices promote the safe and efficient preparation, handling, packaging, and administration of fluid medications. Privately held, Baxa Corporation has subsidiaries and sales offices in Canada and the United Kingdom; direct representation in Belgium, Denmark, Finland, France, Germany, Luxembourg and The Netherlands; and distribution partners worldwide. Further information is available at www.baxa.com.

About the STAR Center
The STAR Center is a state-of-the-art cleanroom, pharmacy and training facility located at the Baxa world headquarters in Englewood, Colorado. The center was purpose-built to support training in aseptic technique, pharmacy workflow and practice, cleanroom design and maintenance and USP < 797 > compliance among other topics. Classes will be taught by industry-recognized subject matter experts. Further information is available at www.baxa.com/starcenter.

Contact:
Marian Robinson, Vice President, Marketing
Baxa Corporation: 800.567.2292 ext. 2157 or 303.617.2157
Email: [email protected]

Maggie Chamberlin Holben, APR
Absolutely Public Relations: 303.984.9801 or 303.669.3558
Email: [email protected]

Source: Baxa Corporation
Web site: http://www.baxa.com/
http://www.baxa.com/starcenter

January 19, 2007 – New demand for new semiconductor manufacturing equipment continued to slow in December, but sales surged during what was the final fiscal month for most North American companies, according to the latest data from SEMI.

North American-based manufacturers of semiconductor equipment posted $1.52 billion in orders in December (a three-month average basis), 6.6% higher than in November and 33.0% higher than December 2005. The three-month average for worldwide billings came in at $1.45 billion, a 2.4% sequential decline but 18.3% higher than a year ago.

The book-to-bill ratio rose back above parity for the first time since August to 1.05, meaning that $105 worth of orders were received for every $100 of product billed for the month. The final tally of equipment orders and sales for November showed that both were about $8 million lower than expected, pushing the B:B slightly down from 0.97 to 0.96.

With preliminary data in from December, a full-year comparison of FY06 data shows 34.3% growth in billings from 2005 to $19.12 billion, and 57.9% growth in bookings to $19.57 billion, for a B:B of roughly 1.02.

North American equipment bookings, billings — December 2006

Month…….Billings…….%M-M………%Y-Y……….Bookings……..%M-M……..% Y-Y………B:B
………… (3-mo. avg.)……………………………………(3-mo. avg.)……………………………………..

Dec’05………1223.6…….3.7%……..-7.1%……….1142.7……..4.5%…….-7.5%……..0.93
Jan’06………1259.4…….2.9%………0.1%……….1225.9……..7.3%…….24.3%……..0.97
Feb’06………1283.3…….1.9%……..-3.6%……….1293.2……..5.5%…….26.3%……..1.01
Mar’06………1338.7…….4.3%………5.2%……….1385.3……..7.1%…….40.2%……..1.03
Apr’06………1448.5…….8.2%……..16.9%……….1602.4…….15.7%…….60.4%……..1.11
May’06………1452.6…….0.3%……..19.8%……….1619.0……..1.0%…….59.5%……..1.11
June’06……..1557.4…….7.2%……..35.2%……….1782.3…….10.1%…….71.7%……..1.14
July’06……..1637.9…….5.2%……..51.9%……….1734.6…….-2.7%…….72.2%……..1.06
Aug’06………1742.8…….6.4%……..65.1%……….1729.7…….-0.3%…….69.6%……..0.99
Sep’06………1672.8……-4.0%……..53.7%……….1639.2…….-5.2%…….66.6%……..0.98
Oct’06………1562.9……-6.6%……..36.4%……….1468.6……-10.4%…….34.3%……..0.94
Nov’06 (f)…..1486.1……-4.9%……..26.0%……….1426.5…….-2.8%…….30.5%……..0.96
Dec’06 (p)…..1450.1……-2.4%……..18.3%……….1520.0……..6.6%…….33.0%……..1.05
TOTAL 2006….19116.1…… — ………34.3%………19569.4…….. — …….57.9%……..1.02

WaferNEWS source: SEMI

(January 19, 2007) SAN JOSE, CA &#151 After a brief period below parity, the North American semiconductor equipment book-to-bill ratio reached 1.05 in December 2006, according to a SEMI report. The positive ratio suggests near-term growth for semiconductor-equipment manufacturing.