Tag Archives: Clean Rooms

Safety first


December 1, 2007

Apparently, as far as the general media is concerned, anyone with a big mouth and a web site can qualify as an instant expert on biolaboratory safety. At least that appears to be the case in Boston, Massachusetts, where a new BSL-4 biological research facility now under construction faces vehement opposition from a loose collection of regional activist groups regularly quoted as representing the safety concerns of the local neighborhood citizenry. Even cursory research, however, will clearly illustrate that who, and what, these groups actually represent is highly questionable.

You see, according to these groups, it seems that the Federal Government (i.e., “the Bush administration”) is conspiring with Boston University to promote biological warfare. They are doing this, the activists claim, by building a biological weapons manufacturing facility in the heart of the city of Boston. Other expressed concerns center around the fact that this location will put predominantly black and hispanic people at risk, not take into consideration the high percentage of AIDS cases in the community, or address the associated growth in new white-collar jobs leading to the “gentrification” of the neighborhood.

That’s right; even though these activist groups repeatedly and publicly refer to the BU facility as a bioweapons lab, they are still treated as credible and responsible by the media, as well as by many university and government officials. The truth that BU’s BSL-4 biolab is in fact part of the Congressionally approved and funded “Project BioShield” program, established in 2004 to protect all Americans from possible attack from deadly biological agents by developing and making available effective drugs and vaccines, is often given secondary or even tertiary mention.

Now, the highly touted, “independent” National Research Council (NRC) committee of experts has weighed in on the matter. Yet this committee may be more independent of common sense than anything else given its choice to lecture the National Institutes of Health (NIH) draft environmental impact study for its insensitivity to “environmental justice issues and how the biocontainment facility could affect an inner-city population in particular.”

Look, I certainly agree that the residents of any neighboring community and the public at large have every right and responsibility to be concerned about the potential risks posed to them by a BSL-4 facility. And they have the right to have these risks clearly identified and explained to them, as well as how these risks will be dealt with through advanced technology barrier systems, rigid procedures and protocols, redundancies and fail-safe systems, control and monitoring systems, watchdog agencies and emergency response plans. From this information, they, and their elected representatives, will be able to make an informed decision on whether there is an acceptable level of risk. And, in my opinion, when it comes to Level 4 pathogens, no level of risk is acceptable, regardless of the location of the facility.

The problem is that when self-serving, propagandist activist groups become the center of debate, the real questions of risk and safety become secondary to other political and ideological concerns. And it is also my opinion that when it comes to providing our nation’s population with defense against biological attack, there is also no level of acceptable risk. Safety must always come first.

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John Haystead,
Editor-in-Chief

IEST journeys to the past to move forward into the future of contamination control

By Roberta Burrows, IEST Deputy Executive Director; and Linda Fischer, IEST Technical Editor

Editor Frank Kramer, in the second issue of a new journal, wrote that the purpose of the publication was “to make facts available, and to turn light on the existence of a strong, coordinated body of men and women dedicated to the advancement of Environmental Engineering. It is a way to establish the highly respected science on the top-level plane.”

Fifty years later, the successor to that publication, the Journal of the IEST, is still addressing the science of environmental engineering, as well as that of contamination control. Published by the Institute of Environmental Sciences and Technology (IEST), the Journal will celebrate 50 years of continuous publication with special events and features throughout 2008.

Kramer was editor of the Journal of Environmental Engineering, published by the Society of Environmental Engineers (SEE) based in Los Angeles, CA. The 20-page first issue in October 1958 opened with a paper on a facility for horizontal vibration testing with electromagnetic exciters that discussed the “development and use of a small flat plate floating on an oil film during combined vibration and differential temperature test investigations.”

Another paper discussed a new precision centrifuge to test TITAN guidance system components, specifically an accelerometer that can “measure accelerations as minute as 0.000005 G.” The third paper detailed gauges and pumping equipment that would work in space and high vacuum. There was a report from a random vibration seminar and another from a symposium on acoustic testing.

In a year-end review of 1958 SEE activities in the February 1959 issue, chairman L.D. Carver noted the large number of members who had renewed memberships: “this has been even more encouraging in view of accelerated activity in this area by a competing environmental organization.” Perhaps that group was the Institute of Environmental Engineers (IEE), which had been the science section of the Environmental Equipment Institute until separating in 1956. In April 1959, the SEE and the IEE merged to become the Institute of Environmental Sciences (IES).

The Journal of Environmental Engineering was selected to be the official publication of the IES; the first issue under the IES banner was in June 1959. In October 1959, the journal was renamed the Journal of Environmental Sciences. From then, the publication underwent a series of name changes to reflect changes in the organization. From 1990 through 1994, the name was Journal of the IES, and from 1995

By George Miller

A government report has resorted to Cold War language and imagery: High-Containment Biosafety Laboratories: Preliminary Observations on the Oversight of the Proliferation of BSL-3 and BSL-4 Laboratories in the United States. The term “proliferation” reeks of the arms race of a generation past, and has added oomph from its use in describing rapid growth and production in cell processes.

Beyond its title, the report invites Cold War comparisons in its out-of-our-hands explanation for why such facilities are difficult to count: “We found that the total number depended upon how you ask the question. Most often data were available on the number of facilities or sites that contained a BSL-3 or BSL-4 lab. The precise number of independent rooms within those facilities qualifying as BSL-3 or BSL-4 is not generally specified…. Experts also told us that counting the number of labs is problematic because the definition of the term ‘lab’ varies.”

The report, authored by Keith Rhodes, chief technologist in the U.S. Government Accountability Office, as testimony for hearings conducted in early October by the Congressional energy and commerce committee, is having its intended effect: “Do we really need 12 laboratories that operate at the very highest level of security? Is there a good reason for creating these labs, or have we simply begun an arms race against ourselves?” asked committee chair Rep. John Dingell (D-Mich.) in a statement after the hearing.

The hearings are a result of Congress approving large amounts of biotech research funding for terrorism and pandemic preparedness following the 9/11 and anthrax mailing attacks of 2001 and the SARS outbreak of 2003, and then in after-the-horse-escapes fashion realizing that some kind of oversight of the work is required.

In fact, oversight has existed for years. The National Institute of Allergy and Infectious Diseases (NIAID), a part of the National Institutes of Health (NIH), acknowledges its responsibility for the facilities that house the substantial amount of research that it funds. “Support for infrastructure…is essential if we are to fulfill our biodefense research agenda,” said Hugh Auchincloss, M.D., principal deputy director, in testimony. He cited recent advances—including leading-edge smallpox, anthrax, and Ebola virus vaccines—that required the use of such high-containment facilities.

Auchincloss said that NIAID works closely with each grant recipient to ensure that new labs are designed and constructed to the highest standards. NIAID staff architects and engineers work with contract construction quality management groups having additional expertise. “These teams make certain that the finished projects will meet the regulations of the Centers for Disease Control and Prevention (CDC) and the Department of Agriculture’s Animal and Plant Health Inspection Service for facilities that conduct research on select agents.”

Auchincloss added that NIH is committed to ensuring that the research conducted within the facilities is performed safely. “The most widely used guidance on the safe conduct of this research is the Biosafety in Microbiological and Biomedical Laboratories Manual (BMBL), which is now in its fifth edition and available online.”

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In 2002, NIAID determined that the BSL-3 or BSL-4 research space available was inadequate for its academic scientists conducting extramural research. Auchincloss said that the Institute estimated the new BSL-3 and BSL-4 facilities that would be required, and that Congress responded quickly with the necessary resources.

The National Institutes of Health is now implementing a construction program that will complete 14 new BSL-3 facilities and four new BSL-4 facilities within the next few years, said Auchincloss. “During this process, the NIH or its funded institutions have participated in literally hundreds of public forums on the nature and safety of the new facilities, and have submitted reports to Congress annually, along with periodic updates on our strategic plans. In addition, NIH leadership has discussed the infrastructure expansion with Congress on many occasions,” he said.

The public forums, reports, and discussions are all helping to raise issues that need to be addressed concerning germ containment and safety protocols in the post-Project Bioshield era.

Just ask the people who live adjacent to a BSL-4 facility being constructed at the Boston University Medical Campus. A neighborhood group has opposed the facility at most steps along the way [see “Transparency is Key to Neighborhood Acceptance of Biosafety Labs,” CleanRooms magazine, July 2007, p. 8] and is currently aligned with the Conservation Law Foundation in efforts to slow or halt facility construction.

The group maintains an issues-based web site that in early November carried a news article, “Mishandling of Germs on Rise at US Labs,” by Larry Margasak of the Associated Press, as its lead story. Margasak reviewed reports submitted to federal regulators and concluded that “American laboratories handling the world’s deadliest germs and toxins have experienced more than 100 accidents and missing shipments since 2003, and the number is increasing as more labs do the work.”

And if that weren’t enough to put the neighbors on high alert, a centerpiece of the GAO testimony provided detail of just how easily such mishandling can occur even by lab workers with the best intentions.

At Texas A&M University, according to the testimony, a lab worker was unknowingly infected with the Brucella bacterium after being enlisted to help operate an aerosolization chamber in a BSL-3 lab. The worker was the director of a BSL-2 lab and experienced in handling the infectious agent Mycobacterium tuberculosis. In testimony, Rhodes postulated that her M. tuberculosis experience might have provided a false sense of security:

“Typical routes of infection differ between M[.] tuberculosis and Brucella and normal procedure, including gowning and respiratory equipment, vary between the two agents. For example, the lab worker wore protective glasses, but they were not tight fitting. This was adequate when working with M[.] tuberculosis, but not with Brucella.”

The investigation concluded that the lab worker contracted Brucella through her eyes. More than six weeks passed before she fell ill, and only after symptoms persisted did she consult with an infectious disease specialist, leading her to recall the Brucella work. Although she got quite sick, she eventually resumed her normal activities while infected.

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“Such misdiagnosis is not uncommon with infectious diseases, as the initial symptoms often appear flu-like and brucellosis is not generally endemic in the population,” said Rhodes.


Figure 2. A CDC microbiologist inoculates a hen’s egg with avian influenza virus as part of a study to investigate newly emerging H5N1 viruses. The experiment was conducted inside a biological safety cabinet within a BSL-3 laboratory. Photo courtesy of CDC.
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He adds that there are risks in working alternately in BSL-2 and BSL-3 labs, with their different levels of procedures and practices. “The fear is that lab workers may develop a routine with BSL-2 procedures that might be difficult to consciously break when working with the more dangerous agents and activities requiring BSL-3 containment.”

Rhodes’s warning provides yet another red flag to the neighbors of the BU Medical Campus, many of whom still recall the 2004 incident at a BSL-2 facility there that resulted in the infection of three researchers with tularemia. The infections stemmed from a violation of safety procedures and most likely have done much to solidify neighbors’ resolve against the BSL-4 facility. As this issue went to press, both BU officials and neighbors were awaiting results of an environmental impact study by the National Research Council, commissioned by the State of Massachusetts, which is to include a worst-case scenario assessment. Results were due at the end of November.

Editor’s note: See CleanRooms’ January 2008 issue for a follow-up on the National Research Council’s findings and their anticipated impact on the management of biosafety facilities.

U.S. Department of Health and Human Services (HHS) Secretary Mike Leavitt recently announced a comprehensive initiative by the Food and Drug Administration (FDA) designed to proactively address the safety of the nation’s food supply.

Back in May, FDA was charged with developing the comprehensive plan to protect U.S. food supplies from both unintentional and deliberate contamination.

The Food Protection Plan proposes the use of science and a risk-based approach to ensure the safety of domestic and imported foods eaten by American consumers. “America’s food supply is among the safest in the world, and we enjoy unprecedented choice and convenience in filling the cupboard. Yet we face new challenges to meet both the changing demands of a global economy and consumers’ expectations,” Secretary Leavitt said. “This Food Protection Plan will implement a strategy of prevention, intervention, and response to build safety into every step of the food supply chain.”

According to FDA’s plan, the agency regulates some $417 billion worth of domestic food and $49 billion in imported food (2003 data) annually. The challenges of the current food industry—changing food production technology, human demographics (susceptible populations) and consumption (“convenience” food), business practices, new microbial threats, and communication issues—are all major hurdles that the plan is expected to address.

HHS Deputy Secretary Tevi Troy and FDA Commissioner Andrew von Eschenbach, M.D., presented the Food Protection Plan at a press conference in Washington, DC. “The Food Protection Plan calls for effective action before an outbreak occurs,” said Commissioner von Eschenbach.


Figure 1. HHS Deputy Secretary Tevi Troy, FDA Commissioner Andrew C. von Eschenbach, M.D., and FDA Assistant Commissioner for Food Protection David Acheson, M.D., announce FDA’s integrated strategy for protecting the food supply. Photo courtesy of FDA.
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The plan is premised on preventing harm before it can occur, intervening at key points in the food production system, and responding immediately when problems are identified. Within these three overarching areas of protection, the plan contains a number of action steps as well as a set of legislative proposals.


Figure 2. An investigator from FDA’s San Francisco District (left) is shown working with an investigator from the California Department of Health Services collecting soil samples as part of an investigation into an outbreak of E. coli O157:H7 in spinach. The contamination, which occurred during the fall of 2006 and sickened people in the United States and Canada, originated on farms in California. Photo by Black Star/Steve Yeater for FDA.
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The FDA says it will work with industry, state, local, and foreign governments to identify vulnerabilities and will look to industry to mitigate those vulnerabilities, using effective methods such as preventive controls.

The plan’s intervention element emphasizes focusing inspections and sampling based on risk at the manufacturer and processor level, for both domestic and imported products, that will help verify the preventive controls. This approach is complemented by targeted, risk-based inspections at the points where foreign food products enter the United States, including ports. According to the report, “Risk-based targeted inspections at the border will serve as a second layer of protection, rather than the principal one.”

The plan also calls for enhancing FDA’s information systems related to both domestic and imported foods to better respond to food safety threats and communicate during an emergency. The Food Protection Plan’s three core elements—prevention, intervention, and response—incorporate four principles for comprehensive food protection along the entire production chain:

  • Focus on risks over a product’s life cycle from production to consumption.
  • Target resources to achieve greatest risk reduction.
  • Use interventions that address both food safety (unintentional contamination) and food defense (deliberate contamination).
  • Use science and employ modern technology, including enhanced information technology systems.

Aspects of the plan that require additional legislative action include (but are not limited to) endowing FDA with the authority to require “practical defense measures” at vulnerable points in the supply chain to prevent deliberate contamination (e.g., requiring locks on tanker trucks that transport food); authorizing FDA to accredit qualified third parties to perform voluntary food inspections in order to provide more in-depth and potentially quicker review of imported goods; and implementing a new user fee requiring manufacturers and labs to pay the costs of re-inspections and follow-up services when the facilities fail to meet cGMPs or other FDA requirements.

The Food Protection Plan complements the Import Safety Action Plan recently delivered by Secretary Leavitt to President George W. Bush that recommends how the U.S. can improve the safety of all imported products. This year, $2 trillion worth of goods will be imported into the U.S., with predictions that amount will triple by 2015. Taken together, the two plans will improve efforts by the public and private sector to enhance the safety of a wide array of products used by American consumers.

For more information, visit http://www.fda.gov/oc/initiatives/advance/food/plan.html.

Continually scaling circuit features have led to tightened process requirements, including the purity levels of gas and liquid chemicals used in semiconductor manufacturing. How will the industry respond to the contamination control challenges posed by gas and chemical distribution?

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By Hank Hogan
For gas and liquid distribution systems in semiconductor cleanrooms, a high level of purity is a necessity, one that’s becoming more urgent all the time. Shrinking semiconductor features are the overarching factor.

Hugh Gotts, director of research and development for Air Liquide Electronics U.S. – Balazs Analytical Services (Fremont, CA; a subsidiary of gas supplier Air Liquide), notes that smaller features mean fewer and fewer atoms constitute a process film layer. “If you have a layer that’s made out of five or ten atoms on average, and if you have one layer of atoms as a contaminant, that would certainly be too much,” he says.

The smaller width, length, and height of such critical circuit elements as transistor gates in today’s state-of-the-art 45 nm node show up in the requirements spelled out in the International Technology Roadmap for Semiconductors. A look at the industry consensus document reveals what purity levels are needed now and what will be required in the future.

For example, ultra-pure water today must have fewer than 0.2 particles above critical size per milliliter. That’s unchanged over the next half decade, but the critical size scales with the node, since, as a rule of thumb, the size of a killer particle is half that of the node. This means the size of allowable particles will drop 30 percent over the next five or so years, a test for filtration technology. Similar situations apply to liquid chemicals such as the acid hydrogen fluoride or the base ammonium hydroxide.

As for gases, nitrogen is supposed to drop from 5 ppb trace contaminants now to less than 1 ppb in 2010. Other gases such as the corrosive etchant boron trichloride likewise face tightened trace contaminant requirements.

So how is the industry confronting these and other contamination control challenges in ultra-pure gas and chemical distribution?

Millions and millions cycled

Ultra Clean Technology (Menlo Park, CA) is one of the biggest providers of critical subsystems, including fluid and gas delivery systems to the semiconductor and flat panel industries, notes vice president of technology and CTO Sowmya Krishnan, PhD. The company constructs these systems at one of four sites around the globe, each having several thousand square feet of cleanroom capacity. Cleanliness levels range from Class 1 (ISO 3) to Class 1000 (ISO 6), with the goal being to produce systems that are virtually free of contamination and particulates.

Krishnan sees several technical trends affecting fluid distribution systems. She says achieving the required cleanliness and purity isn’t a chief concern. Instead, the challenge now lies elsewhere. “It’s moved to areas such as the reliability of the gas delivery system,” says Krishnan.


Figure 1. A Balazs technician uses a high-resolution inductively coupled plasma

November 28, 2007 — /PRNewswire/ — ALBUQUERQUE, NM — Surfect Holdings, Inc. announced today its wholly owned subsidiary, Surfect Technologies, Inc. (“Surfect”), received a Letter of Intent from a Texas-based solar company for up to 10 Solargy tools to be delivered throughout 2008 and 2009. The Letter of Intent is subject to customary conditions including the execution of a formal purchase order and customer acceptance of the equipment.

This is the first significant order for Surfect’s Solargy product, an innovative single-cell electroplating tool and process, which will improve manufacturing speeds and yields for solar cell manufacturers. Surfect’s leading-edge technology position in the solar industry will allow it to play a significant role in the large and quickly growing solar market space.

According to recent industry reports, the key to advancing silicon solar energy is enabling ways to leverage the current silicon shortages with more efficient metal interconnect, thinner silicon solar cells, and more advanced technology such as concentrating technology. Solar manufacturers are implementing measures to streamline production, improve module integration, and gain economies of scale, all while finding ways to utilize less silicon for the same power generated. Surfect’s tool and process technology offers solar companies improved automated wafer handling, faster throughput, and advanced thru-silicon backside metallization, which will improve manufacturing speeds and yields for solar cell manufacturers.

“This first customer Letter of Intent is a huge milestone for us,” says Steve Anderson, CEO of Surfect. “We are currently in various stages of dialogue with a number of the world’s leading solar companies regarding deployments of our process tool systems. We expect this to be the first of many new orders from the rapidly growing solar industry. Our development focus is to advance the solar manufacturing metallization technology and provide product differentiation while also providing cost reduction critical to our customers’ success.”

“We have what we believe is the most cost-effective electrolytic plating solution available today for both the semiconductor and Solar industries,” notes Mark Eichhorn, vice president, sales and marketing, for Surfect.

About Surfect Holdings, Inc.
Surfect provides advanced manufacturing equipment to the solar industry. The company’s innovative single-cell electroplating tool and process can improve manufacturing speeds and yields for solar cell manufacturers. Surfect’s proprietary technology allows solar manufactures to use less silicon, while reducing costs and automating throughput. This technology can also be used in the semiconductor industry for advanced plating and interconnects. Surfect has been issued three patents and has six patents pending. Additional information is available at www.surfect.com.

Source: Surfect Holdings, Inc.

November 28, 2007 — /PRnewswire/ — HUBBARD, OH — NanoLogix, Inc., a nano-biotechnology company, announces that the company has submitted international patent applications for BioNanoChannel(TM) and hydrogen bioreactor technology protection for China, India, Brazil, and the European Union. These filings are necessary prior to the anticipated global roll-out of the company’s BioNanoChannel(TM) rapid bacteria/microorganism detection technology and also contribute to the protection of NanoLogix’s ongoing Hydrogen Bioreactor development.

Chris Novak, NanoLogix director of IP, states, “The strength and improved focus of the new foreign cases arose from significant improvements to the originally filed provisional patent applications. We at NanoLogix are very excited about the potential for enhancing the patent protection for these new technologies.”

According to Bret Barnhizer, NanoLogix president and CEO, “This is a step forward for the company in its plans for technological and business development and sets the stage for one of our corporate goals of pursuing licensing opportunities for use of our products internationally. These applications aid us by ensuring that NanoLogix strengthens their control over the intellectual property rights to the technology.”

About NanoLogix, Inc.
NanoLogix is a leading innovator in the research, development, and commercialization of nano-biotechnologies, applications, and processes. The company has 31 granted patents and 36 patents pending for bioreactor-based hydrogen production, revolutionary rapid medical testing technologies, potential treatments for sepsis and cancer (via apoptosis), and bioremediation. Information on NanoLogix is available at www.nanologixinc.com.

Source: NanoLogix, Inc.

November 20, 2007 — AGAWAM, MA — Microtest, a leader in testing services and contract manufacturing for the medical device, pharmaceutical, biotechnology industries, is once again expanding its high-tech facilities and wide range of services at its Agawam, MA, headquarters.

Microtest today announced that it has doubled the size of its medical device/pharmaceutical stability storage capabilities, as well as significantly expanded its medical device packaging laboratory and its GMP pharma fill/finish contract manufacturing services.

The announcement follows the company’s completion last year of a $7.5 million capital improvement and expansion project that added new state-of-the art pharmaceutical testing laboratories and new aseptic fill/finish manufacturing facilities — along with new professional staff.

“We are continuing to enjoy strong growth throughout all areas of our business,” says Steve Richter, PhD, Microtest president and scientific director. “We’re continuing to invest our resources so that we may best serve our existing and future clients.”

“Package validation is needed to support our medical device clients. We’re also dedicating additional new space to our growing product stability testing laboratories as well as our GMP drug manufacturing services,” says Richter. “As a growing provider of fill/finish operations, we have all the systems and procedures in place to fully support all the requirements of the FDA, EMEA, and any drug-regulating body in the world.”

In October, Microtest was honored by the Massachusetts Economic Impact Award for its strong record of job creation and business expansion.

For more about contract manufacturing, download Microtest’s free white paper, “Selecting an Aseptic Fill/Finish Contract Manufacturer: Avoiding the Most Common Mistakes,” at www.microtestlabs.com/asepticpaper.

For more information on laboratory testing, download the free white paper, “Virus Testing for Biological Products: Partnering with a Contract Lab,” at www.microtestlabs.com/biopaper.

To contact Microtest, visit www.microtestlabs.com or call 1-800-631-1680.

About Microtest
Microtest is a leader in testing services and contract manufacturing for the medical device, pharmaceutical, and biotechnology industries. Based in Agawam, MA, the company’s expertise and flexible processes enhance product safety and security, accelerate time to market, and minimize supply chain disruption.

November 21, 2007 — /PRNewswire/ — SUNNYVALE, CA, and MERELBEKE, BELGIUM — Picarro, a leading manufacturer of high-performance trace gas analyzers, and Envitec nv/as, a leading solutions provider specializing in distribution, integration and maintenance of instruments for environmental monitoring and measurement, today announced they signed an agreement that appoints Envitec as the exclusive distributor of Picarro instruments for Belgium, the Netherlands, Luxembourg, France, and Tunisia.

Picarro’s ultra-trace gas analyzers are designed to maximize the advantages of cavity ring-down spectroscopy (CRDS), delivering ppt to ppb sensitivity at high speed and without interference to meet the requirements of the most demanding applications. The flexible Picarro platform enables a wide range of applications in environmental monitoring and process control applications.

Envitec has gained a solid reputation within the environmental market as an outstanding and highly flexible company, providing global solutions for its customers’ needs. They offer a wide range of solutions for the study, integration, maintenance, and commissioning of instruments for air quality analysis, stack emissions, and meteorological instruments.

About Picarro
Picarro’s instruments set new standards for sensitivity, speed, selectivity and ease-of-use in trace gas detection, and enable our customers to achieve dramatic improvements in measurement precision, reliability and cost of ownership. We serve the needs of customers across a diverse range of markets.

Visit www.picarro.com

About Envitec nv/sa
Involved in the instrumentation market since 1978, the Envitec-Envicontrol group has developed in a new direction in 1992 by specializing in the distribution, the integration and the maintenance of instruments for measuring physical parameters related to the environment. We offer a wide range of solutions for the study, integration, maintenance and commissioning of instruments for air quality analysis, stack emissions and meteorological instruments.

Source: Picarro; Envitec nv/sa

November 20, 2007 — STUTTGART, GERMANY, and RIETI, ITALY — M+W Zander Italia S.r.I. has received its first contract for a photovoltaic (PV) plant in Italy from its Customer SOLSONICA S.p.A., a new company ensued from EEMS S.p.A. (www.eems.it), a semiconductor company acting on a global scale. M+W Zander is design and build contractor for the facility systems of an existing semiconductor manufacturing facility, which is partially being retrofit into a PV cell manufacturing plant. The scope of work extends from the installation of gas and chemical distribution systems, done in cooperation with the JV partners Air Product Italia S.r.l. and Sapio Produzione Idrogeno e Ossigeno S.r.l. to the upgrade of the electrical system, the compressed air distribution, and the demineralized water distribution plant.

SOLSONICA S.p.A. plans to manufacture polycrystal silicon solar cells on a production area of 3,500 m2 and an additional 2,000 m2 of service area at the Rieti site, approx. 80 km from Rome. The manufacturing facilities of EEMS S.p.A. are also located in Rieti. Production start is planned by mid-2008, annual production during the first expansion stage is 30 MWp/year.

Subsequent production expansions are already included in the plans, which will increase the plant capacity up to 120 MWp/year. Tool move-in and start and commissioning are scheduled in January 2008.

“We are very happy for this breakthrough in Italy,” says M+W Zander Italia president Robert Gattereder. “Italy is a very important market for us.” In the Spring of 2007, the market research institute EuPD Research (www.eupd-research.com) presented a study on the photovoltaic market in Italy and forecasted an increase in peak capacity of 150 MWp.

About M+W Zander
With its subsidiary and holding companies, MWZ Beteiligungs GmbH offers worldwide integrated business solutions for company facilities, high-tech production plants, and industrial complexes. Operations focus on production of cleanroom technology and facility management for the electronic, solar, pharmaceutical, chemical, and energy industries and also research institutes. In the year 2006, the M+W Zander Group generated a turnover of approximately 1.76 billion euros with a 7,200-strong workforce worldwide. M+W Zander Italia S.r.l. is a company in the globally acting M+W Zander Group.

Visit www.mw-zander.com