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  • Cleanroom Wipers

  • Cleanroom Gloves

    Cleanroom Gloves
  • Cleanroom Adhesive Mats

    Cleanroom Adhesive Mats
  • Cleanroom Apparel

    Cleanroom Apparel

Cleanroom Glove Packaging. Not all gloves are packed equal

Is your glove packaged in a dispenser box? Is it labeled ‘examination glove’ ?

If so, it is not suitable for a critical environment. Why? Boxed exam gloves are designed to protect the operator. Cleanroom Gloves are engineered to both protect the operator and your critical product.

cleanroom glove packaging

 

Controlled environment gloves are flat packaged in a critical environment with the cuffs all to one end in two stacks of 50 each, double poly-bagged 100 per pack, 10 packs per case in a carton liner to ensure product integrity. Boxed gloves are not.

Over 98% of thin-wall, powder-free gloves are used in medical / lab / industrial applications. Operators of controlled environments often unknowingly procure a glove not designed to their application. Powder-free lab / industrial / medical grade boxed gloves are not suitable for a controlled environment because:

  • Boxed gloves are powder-free, not particulate-free. Uncoated chipboard dispenser boxes shed particles, and contaminate the powder-free gloves.
  • Dispenser boxes force operators to contaminate glove when donning. Operators’ bare hand should only make cuff contact.
  • Additives and fillers are often used in boxed gloves which reduce ESD compatibility (surface resistivity), and negatively impact glove cleanliness.
  • No post-processing to reduce surface contamination left from the dipping process

Engineered to protect your Product, Process & Operator

Valutek’s gloves are packed in double poly bags, vacuum sealed, flat packed in carton boxes and with a carton liner. All gloves are critical environment compatible, lot traceable with retention samples held in quality control for 36 months from date of manufacturing.

Vacuum seal benefit: better storage, no particulate release, no ESD issue

cleanroom glove packaging

 

IBM: What Makes This Tiny Chip a Breakthrough

IBM showed off a prototype chip today that is being hailed as a technological breakthrough for the tiny transistors — electrical switches that help power a computer — that have been made so thin they’re 1/10,000th the width of a human hair.

The breakthrough — the result of research at IBM and the State University of New York Polytechnic Institute in Albany — could allow as many as 20 billion transistors to be placed on a chip the size of a fingernail and is half the size of the current 14 nanometer standard, company officials said. A nanometer is one-billionth of a meter.

While the technology is a prototype chip, it could have a tremendous impact “on the anticipated demands of future cloud computing and Big Data systems, cognitive computing, mobile products and other emerging technologies,” according to the company.

Moore’s Law: What’s in Store For the Next 50 Years of Computing Power

The breakthrough chip is the result of a $3 billion investment IBM made last year in partnership with the state of New York, Samsung and other technology suppliers for the purpose of chip research and design, officials said.

Click Here to Read the Full Article.

 

operators-at-suny

How to Save the Troubled Graphene Transistor

Unlike conventional semiconductors, graphene cannot be switched off, a problem that threatens to scupper its use in future generations of transistors. Now physicists think they’ve found a solution.

The writing is on the wall for the silicon chip. Transistors have been shrinking for the last half a century but they cannot get smaller forever. Most industry pundits think that the downscaling of silicon chip technology cannot extend much beyond 2026. The big question, of course, is what will replace it.

One possibility is graphene, which various teams around the world have used to make hugely fast transistors. Last year, one team clocked a graphene transistor at a cool 427 GHz. So you could be forgiven for thinking that graphene is the perfect silicon replacement.

Not so fast. There is a significant problem with graphene that makes it difficult to use in transistors– it has no band gap.

That means there is no energy range in graphene in which electron states cannot exist. Or in other words, it’s impossible to switch off graphene. And for a transistor, that spells serious trouble…

Click Here to Read the Full Article.

Jet Propulsion Laboratory Missions to Study Climate Change & Weather on Earth

NASA’s Jet Propulsion Laboratory is known for its exploration of space, but the La Cañada Flintridge facility is starting to focus its gaze back to Earth. Three new missions scheduled to launch in 2014 will examine soil moisture, wind, and carbon dioxide in the atmosphere. The data obtained from the orbiters sent on these missions can be used by farmers, meteorologists and others in understanding how the planet works, scientists said. “Last year was the year of Mars,” said JPL Director Charles Elachi on Tuesday. “This is the year of Earth science.” Elachi and NASA Administrator Charles Bolden donned white coveralls and head coverings Tuesday during a tour of a chamber in JPL’s spacecraft assembly facility, also known as the “clean room,” where instruments for the missions are currently being assembled and tested. The Carbon Observatory-2 satellite was absent from the test facility, but talk of the upcoming mission led to discussions about how the agency will address the changing global climate…

Click Here to Read the Full Article.

SUNY’s College of Nanoscale Science and Engineering (CNSE) Transforms Kodak Cleanroom

SUNY’s College of Nanoscale Science and Engineering (CNSE) will revitalize a vacant Kodak cleanroom building in Rochester, N.Y., by transforming it into a first-of-its-kind CNSE Photovoltaic Manufacturing and Technology Development Facility for crystalline silicon photovoltaics. Renovation is underway to transform the 57,000 ft2 building, which was formerly occupied by Kodak’s MEMS inkjet facility before it closed last October. The initiative will enable more than 100 high-tech jobs and includes the fitting up of a 20,000-square ft2 cleanroom. A late fall opening is anticipated. The first initiative as part of the project will relocate a critical component of the U.S. Department of Energy’s (DOE) SunShot initiative from California’s Silicon Valley to Upstate New York…

Click Here to Read the Full Article.

Satellite Built by UAH Students ’99 Percent’ Ready for October Launch on NASA Rocket

The spacecraft conceived and built in Huntsville is virtually ready for launch and blast-off is less than three months away.

No, the Space Launch System is not suddenly on an accelerated program. Instead, it’s a group of students at the University of Alabama in Huntsville who have been working for more than three years on a tiny satellite that is scheduled to be sent into space in October.

Members of the Space Hardware Club at UAH were in San Luis Obispo, Calif., last week on the campus of California Polytechnic State University. The Cal Poly visit was to put the ChargerSat1 through readiness tests as a final hurdle toward the scheduled Oct. 30 launch.

The satellite got a “good thumbs-up,” according to team member Mark Becnel.

“We’re well past 99 percent (ready),” he said.

The project began in 2010 when the club applied for a spot on a future NASA launch…

Click Here to Read the Full Article.

Stretchable Conductor Grows Its Own Wires

Networks of spherical nanoparticles embedded in elastic materials may make the best stretchy conductors yet, engineering researchers at the University of Michigan have discovered.

Flexible electronics have a wide variety of possibilities, from bendable displays and batteries to medical implants that move with the body.

“Essentially the new nanoparticle materials behave as elastic metals,” said Nicholas Kotov, the Joseph B. and Florence V. Cejka Professor of Engineering. “It’s just the start of a new family of materials that can be made from a large variety of nanoparticles for a wide range of applications.”

Finding good conductors that still work when pulled to twice their length is a tall order—researchers have tried wires in tortuous zigzag or spring-like patterns, liquid metals, nanowire networks and more…

Click Here to Read the Full Article.

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