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From: donpat2/21/2012 12:05:42 PM
   of 137
 

APNT Applied Nanotech Holdings Investor Presentation Feb. 15, 2012

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From: donpat3/5/2012 1:01:58 PM
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Graphene research could enable better, cheaper detection of hazardous gases
(Nanowerk News) Fazel Yavari has developed a new sensor to detect extremely small quantities of hazardous gases. Made from a 3-D foam of the world's thinnest material—graphene—this sensor is durable, inexpensive to make, and opens the door to a new generation of gas detectors for use by bomb squads, defense and law enforcement officials, as well as applications in industrial settings.
Yavari, a doctoral student in the Department of Mechanical, Aerospace, and Nuclear Engineering at Rensselaer Polytechnic Institute, is one of three finalists for the 2012 $30,000 Lemelson-MIT Rensselaer Student Prize. A public ceremony announcing this year's winner will be held at 6:45 p.m. on Wednesday, March 7, in the auditorium of the Rensselaer Center for Biotechnology and Interdisciplinary Studies. For more information on the ceremony visit: eng.rpi.edu style="margin-top: 0px; margin-right: 0px; margin-bottom: 0px; margin-left: 0px; padding-top: 0px; padding-right: 0px; padding-bottom: 0px; padding-left: 0px; ">
Fazel Yavari
Yavari's project is titled "High Sensitivity Detection of Hazardous Gases Using a Graphene Foam Network," and his faculty adviser is Nikhil Koratkar, professor of mechanical, aerospace, and nuclear engineering at Rensselaer.
http://www.nanowerk.com/news/newsid=24463.php

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From: donpat3/6/2012 12:54:13 PM
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New Approach Aims to Slash Cost of Solar Cells

March 5, 2012

Enlarge image
Ampulse Corporation is installing a pilot production line in the Process Development Integration Laboratory (PDIL) at NREL. It represents a new, less wasteful way of making solar cells and should result in less expensive devices.
Credit: Dennis Schroeder


Solar-powered electricity prices could soon approach those of power from coal or natural gas thanks to collaborative research with solar start-up Ampulse Corporation at the U.S. Department of Energy's (DOE) National Renewable Energy Laboratory (NREL).

Silicon wafers account for almost half the cost of today's solar photovoltaic (PV) panels, so reducing or eliminating wafer costs is essential to bringing prices down.

Current crystalline silicon technology, while high in energy conversion efficiency, involves processes that are complex, wasteful, and energy intensive. First, half the refined silicon is lost as dust in the wafer-sawing process, driving module costs higher. A typical 2-meter boule of silicon loses as many as 6,000 potential wafers during sawing. Second, the wafers produced are much thicker than necessary. To efficiently convert sunlight into electricity, they need only one-tenth the typical thickness.

NREL, DOE's Oak Ridge National Laboratory (ORNL), and Ampulse have teamed on an approach to eliminate this waste and dramatically lower the cost of the finished solar panels. The aim is to create a less expensive alternative to wafer-based crystalline silicon solar cells.

By using a chemical vapor deposition process to grow the silicon on inexpensive foil, Ampulse is able to make the solar cells just thick enough to convert most of the solar energy into electricity. No more sawdust — and no more wasting refined silicon materials.

Straight from Pure Silicon to High-Quality Crystal Silicon Film
Enlarge image
Engineers and technicians from Ampulse, NREL, and Roth & Rau go over plans for installing parts in the pilot production line for making solar cells via a chemical deposition process.
Credit: Dennis Schroeder


NREL developed the technology to grow high-quality silicon.

ORNL developed the metal foil that has the correct crystal structure to support that growth.

And Ampulse is installing a pilot manufacturing line in NREL's Process Development Integration Laboratory (PDIL), where solar companies test their latest materials and processes.

With knowledge and expertise acquired from the PDIL pilot production line, Ampulse plans to design a full-scale production line to accommodate long rolls of metal foil.

The Ampulse process "goes straight from pure silicon-containing gas to high-quality crystal silicon film," said Brent Nelson, who runs the PDIL at NREL. "The advantage is you can make the wafer just as thin as you need it — 10 microns or less."

Most of today's solar cells are made out of wafer crystalline silicon, though thin-film cells made of more exotic materials like gallium, arsenic, indium, arsenide, cadmium, and tellurium are making a strong push into the market.

The advantage of silicon is its abundance, as it is derived from sand. Its disadvantage is that purifying it into wafers suitable for solar cells is expensive and energy intensive.

Manufacturers add carbon and heat to sand to produce metallurgical-grade silicon, which is useful in other industries, but not yet suitable for making solar cells. This metallurgical-grade silicon is then converted to pure trichlorosilane (SiCl3) or silane (SiH4) gas.

Typically, the purified gas is converted to create a silicon feedstock at 1,000 degrees Celsius (°C). This feedstock is melted at 1,414°C and recrystallized into crystal ingots that are finally sawed into wafers. Think of it as the Rube Goldberg approach to creating a solar cell.

Instead, the Ampulse process backs up two steps. Rather than create a feedstock, it works with the silane directly and grows just the needed silicon right onto a foil substrate.

Combining NREL's Deposition Technique with ORNL's Textured Foil
Enlarge image
Ampulse's pilot production line is nearly complete at NREL's PDIL. If the line can make highly efficient solar cells at low cost, the next step will be a full-sized production plant.
Credit: Dennis Schroeder


A team of NREL scientists including Howard Branz and Chaz Teplin had developed a way to use a process called hot-wire chemical vapor deposition to thicken silicon wafers with perfect crystal coatings. Using a hot tungsten filament much like the one found in an incandescent light bulb, the silane gas molecules are broken apart and deposited onto the wafer using the chemical vapor deposition technique at about 700°C — a much lower temperature than needed to make the wafer. The hot filament decomposes the gas, allowing silicon layers to deposit directly onto the substrate.

Armed with this new technique, Branz and Teplin searched for ways to grow the silicon on cheaper materials and still use it for solar cells.

They found the ideal synergy when visiting venture capitalists from Battelle Ventures asked them whether they could do anything useful with a breakthrough at ORNL called RABiTS (rolling assisted biaxially textured substrate). It was just the opportunity the two scientists had been seeking.

If metal foil is to work as a substrate, it must be able to act as a seed crystal so the silicon can grow on it with the correct structure. The RABiTS process forms crystals in the foil that are correctly oriented to receive the silicon atoms and lock them into just the right positions.

NREL and ORNL worked to combine their technologies using a small amount of funding from Battelle Ventures. Using the right intermediate "buffer layers" to coat the foil substrates, the researchers were able to replicate the desired foil crystal structure in the silicon layer grown over metal foil (epitaxial growth).

Establishing Ampulse Corporation
Enlarge image
A technician handles the many wires and hoses at Ampulse's pilot production line being installed in NREL's PDIL.
Credit: Dennis Schroeder


With a commitment to develop the new technology in cooperation with the two national labs, Battelle Ventures and Innovation Valley Partners joined forces to form Ampulse. Initially, Ampulse had very few employees and no offices — just a name, an idea, and a commitment to develop the technology via the unique instrumentation and scientific expertise at the two national labs.

The company then established a $500,000 cooperative research and development agreement (CRADA) with NREL and a similar agreement with ORNL.

Ampulse also received a total of $900,000 from DOE's Technology Commercialization and Deployment funds at NREL and ORNL. Because Ampulse was started as a company with very low overhead, nearly all its initial funding went toward research efforts at NREL and ORNL.

"Our initial technology success from those funds enabled Ampulse to raise two rounds of venture capital," Branz said.

The company now has 13 employees and six full-time consultants and is currently working with 22 sponsored researchers from two national labs. The first employee at Ampulse, Steve Hane, remains its CEO.

A Giant Step Toward the $1 per Watt Goal?"We have the potential to produce a 15%-efficient solar cell at less than 50 cents per watt with a fraction of the capital investment of other venture-funded PV companies," Hane said. "And that's due to our R&D collaborations with the national labs." Hane said the unique relationship between the national labs and venture capitalists should be a model for future technology transfers to the private sector.

Recently, with its SunShot Initiative, DOE challenged researchers to lower the cost of solar energy by two-thirds to $1 per watt installed. By eliminating costly silicon wafers — but still using silicon as the core material — the Ampulse approach has the potential to meet this target.

"The trick is to get as good material quality as you have in a wafer," Teplin said. "We're using our existing knowledge of how to grow silicon directly from a gas phase onto these metal foils."

Production Line Features Vacuum Chambers and Quartz LampsThe production line being installed at NREL's PDIL consists of a half dozen cube-like vacuum chambers where foils are overcoated with buffer and silicon layers to fabricate solar cells. It was built to Ampulse's specifications by Roth & Rau Microsystems of Germany.

The new production system will also exchange samples with other NREL research and analysis equipment in the PDIL. NREL's "wafer replacement tool" will be connected to the Ampulse system and will have a robot that can retrieve samples while maintaining vacuum, preventing exposure of the sample to air.

To fabricate solar cells, metal foils are loaded into the Ampulse system, where quartz lamps heat them to a temperature of 850°C. First, the foils are coated with the necessary buffer layers. Then, the samples are transferred to a specially designed chamber where the key silicon layers are grown. The silicon is then exposed to atomic hydrogen to improve its electronic properties. Finally, solar cell junction and electrical contacts are developed.

"With this new tool, we will be able integrate NREL and ORNL technologies seamlessly and quickly," Teplin said. "Further, with access to all of NREL's other PDIL capabilities, we really expect technological progress to accelerate."

Branz summed up: "The main thing is that we can grow high-quality silicon layers very fast and without putting much energy into the process. That means the solar cells can turn out much cheaper than the wafer-based cells."

"Our process goes directly from gas to the epitaxial silicon phase, bypassing the growth and sawing phase," Ampulse's Director of Planning and Logistics, Mike Colby, said. "We made it large because we needed to demonstrate the scalability of the system."

"To accelerate time to market, we need to maximize the cycle speed," Colby added. "The goal is to achieve the crystal silicon performance that until now focused on thicker wafers — and without having to use a 1,400°C furnace."

As skilled technicians tweaked the knobs of the potentially game-changing prototyping line, Colby said, "We've had good luck and a good relationship with NREL. The aim of NREL, and of the PDIL, is to work with the needs of business and help accelerate commercialization of new technologies. This definitely does that."

Learn more about solar energy research at NREL.

—Bill Scanlon

nrel.gov

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From: donpat3/11/2012 11:54:12 AM
   of 137
 
Highly Sensitive Mercaptans Instrument for Odorant Characterization in Gas Mains

Artificial Human Nose

TECHNICAL APPROACH
NYSEARCH in collaboration with PHMSA/ USDoT, is funding Applied Nanotech, Inc., ofAustin, TX, to develop an instrument able to measure the main components of mercaptans mixtures routinely encountered in natural gas, renewable natural gas, biogas, landfill gas, etc. The instrument will allow the detection and
measurement of such compounds at the parts per billion (ppb) level, thus serving as an artificial human nose.

nysearch.org

PROGRAM STATUS
The development of the methane sensor has been completed and laboratory testing has shown that all specifications have been met. The sensor is currently undergoing field testing at NYSEARCH member companies to determine its robustness, reliability and performance. At the successful completion of the field testing program, the commercialization effort will be initiated.

nysearch.org


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From: geico_caveman3/11/2012 5:02:37 PM
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messages.finance.yahoo.com

Did you see the bottom message? I believe it is accurate

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From: donpat3/12/2012 8:58:29 AM
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The 6 Secret Weapons of CommercializationA boot camp for nanotechnology and industry.

By Scott E. Rickert

Feb. 24, 2012

Let's face it -- new product development always demands "courage under fire." And if there were a medal of honor in the category, complex new technologies like nanotech would surely qualify for being "above and beyond the call of duty." Still, with the current emphasis on advanced manufacturing for the American economy, there's never been a better time for action. After 20+ years in this business, I've gained some battlefield wisdom. Whether you're a nanotechnology company or a mainstream manufacturer looking to incorporate nanotechnology into products, these secret weapons can help you avoid some battlefield casualties.

1.Send out more scouts. It's hard to know when a technology and a product will find the perfect match. So nanotechnologists -- send samples, do product tests, whatever it takes to start the ball rolling. My R&D labs are constantly coating prospects' products, developing test protocols, trying something new to work through a compatibility or performance question. And manufacturers? Talk to as many people and companies as you can -- you may discover possibilities that weren't even be on your radar.

2. Meet with your generals. As I said, a buyer-vendor relationship doesn't really work in nanotechnology yet. A partnership that brings the top decision makers together is your best bet. Be sure it includes all the disciplines: R&D, Manufacturing, Marketing, and even some C-Level personnel make the best task force.

My deal-breaker? Having someone with control of the purse strings at the table. I've found that people without budgetary control are often focused on a successful project or process. People with bottom line responsibility insist on a successful product -- because that's where money invested delivers payback... or not.

3. Keep the battle plans flexible. Maybe you're a manufacturer who's accustomed to being a "buyer" working with "vendors." That may hold you back in the still-developing nanotechnology market. I've seen the best success from true partnerships, but we also see plenty of joint development, tech sharing, market sharing, and even licensing. There are many ways to win a market if you can adapt your battle plans.

4. Embrace guerilla warfare. It's fine to look for the big wins. Somebody needs to be chasing the silver bullet -- that wind-powered car battery that dances on the head of a pin. But you can gain ground with small skirmishes, too. There's likely to be a market-ready nanotechnology -- or two or three -- that could add incremental value tomorrow. For example, a Nanofilm self-cleaning film for automotive glass was "discovered" as a snow-shedding coating for solar panels and a fingerprint guard for sandblasted architectural glass.

5.Who's ready for hand-to-hand combat? Look for partners thinking beyond a "magical material." Be sure everyone has gotten out of the lab and faced the challenges required by the real world. There's a big difference between making batches of a formula in the lab, running it in a test environment and needing tanker loads for full production.

6. Never retreat. To quote Thomas Edison, one of the winning-est generals on the invention battlefield, "The most certain way to succeed is always to try just one more time." I couldn't agree more. So tweak, reformulate, rethink. Try another path, another formula, another idea. Always keep going -- it's the only way to get ahead.

Scott E. Rickert is chief executive of Nanofilm, Ltd., located in Valley View, Ohio.

industryweek.com

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From: donpat3/12/2012 9:53:52 AM
1 Recommendation   of 137
 
Bajasunenergy


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Brochure

Baja Sun uses ArimaEco Technology

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[Snip]

"Aluminum plate at the bottom of CPV module providing Thermal dissipation"

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To: donpat who wrote (52)3/12/2012 9:58:44 AM
From: donpat
2 Recommendations   of 137
 
Applied Nanotech Holdings Expands its Presence in Solar Field


Austin, Texas – January 27, 2010 – Applied Nanotech Holdings, Inc. (OTC BB: APNT) announced that it has entered into an agreement with Arima Eco Energy Technologies Corporation of Taiwan (ArimaEco), a world leader in concentrated photovoltaic (CPV) module development, system integration, and installation with systems deployed in Asia and Europe.

CPV systems utilizing multi-junction solar cells offer the highest efficiency of commercially available solar technology. As part of the collaboration between the two companies, ANI will take advantage of the high thermal diffusivity and low CTE of CarbAl™ material to further improve the efficiency and lifetime of CPV systems by increasing the sun concentration, reducing solar cell temperatures, limiting temperature fluctuations, and reducing thermal stresses caused by different rates of thermal expansion.

As part of the agreement, ANI will also represent ArimaEco CPV systems in the State of Texas on an exclusive basis. Working with ArimaEco, ANI intends to implement its concept of “energy fields” by combining the existing land and infrastructure for capturing wind energy in Texas with high efficiency and low cost CPV solar energy systems. This will enable wind energy fields to transform to higher value renewable energy fields, combining both wind and solar power generation. CPV solar energy is extremely well suited to Texas, given the sunny climate, pre-existing wind farms, and transmission infrastructure.

ANI will introduce the ArimaEco CPV module at the Photovoltaic World Pavilion at the Renewable Energy World Conference and Expo in Austin TX, February 23-25 along with CarbAl™ material.

“We are optimistic about the collaboration with ANI and we are looking forward to further the implementation of CPV solar energy in Texas by integrating both companies’ capabilities and resources,” said Mr. Howard Chou, Sales and Marketing Manager of ArimaEco.

“I am confident that ArimaEco CPV systems will benefit from our nanotechnological tailored CarbAlTM material for improved thermal management,” said Dr. Zvi Yaniv, President and CEO of Applied Nanotech, Inc.

“It is part of our strategic direction to become closer to the end product user and be less reliant on others for revenue generation and commercialization of our technology,” said Doug Baker, CEO of Applied Nanotech Holdings, Inc. “I am pleased that we have entered into this relationship with ArimaEco. This strengthens our position in the renewable energy field and complements our funded projects related to the development of technical inks for the solar energy market.”

About Applied Nanotech Holdings, Inc.Applied Nanotech Holdings, Inc. is a premier research and commercialization organization focused on solving problems at the molecular level. Its team of PhD level scientists and engineers work with companies and other organizations to solve technical impasses and create innovations that will create a competitive advantage. The business model is to license patents and technology to partners that will manufacture and distribute products using the technology. Applied Nanotech has over 250 patents or patents pending. APNT also possesses investments related to electronic digitized sign technology. Applied Nanotech's website is www.appliednanotech.net.

Safe Harbor StatementThis press release contains forward-looking statements that involve risks and uncertainties concerning our business, products, and financial results. Actual results may differ materially from the results predicted. More information about potential risk factors that could affect our business, products, and financial results are included in our annual report on Form 10-K for the fiscal year ended December 31, 2008, and in reports subsequently filed by us with the Securities and Exchange Commission ("SEC"). All documents are available through the SEC's Electronic Data Gathering Analysis and Retrieval System (EDGAR) at www.sec.govor from our website listed above. We hereby disclaim any obligation to publicly update the information provided above, including forward-looking statements, to reflect subsequent events or circumstances.

Company Contact:
Doug Baker
Applied Nanotech Holdings, Inc.
248.391.0612
dbaker(at)appliednanotech.net

appliednanotech.net

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From: donpat3/28/2012 10:09:05 PM
   of 137
 
Two scientific articles on graphene-based sensors prove popular in the research community

March 28, 2012

When it comes to checking for trace levels of chemicals that could be the early warning signs of disease or chemical exposure, doctors and patients want to use as small of blood samples as possible. This drive for small samples is spurring the scientific community to examine graphene: durable, conductive, and easy-to-tailor two-dimensional carbon sheets. Two articles on graphene biosensors by scientists at Pacific Northwest National Laboratory and Princeton University have proven quite popular. The articles are being regularly accessed online and are amassing citations.

physorg.com

Graphene = even better than CNTs!

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From: donpat5/7/2012 10:33:50 AM
1 Recommendation   of 137
 
CRAZY GLUE!

Applied Nanotech Unveils Ultra-Strong Structural Adhesive CNTstix(TM)

5/7/2012 9:15:00 AM

AUSTIN, Texas, May 7, 2012 (GLOBE NEWSWIRE) -- Applied Nanotech Holdings, Inc.(OTCBB: APNT.OB - News), a global leader in nanotechnology, is pleased to announce that it has unveiled the new product CNTstixTM, an ultra-strong carbon-nanotube reinforced adhesive for structural applications.

With the global market for adhesives projected to reach $38 billion by the year 2017, Applied Nanotech's two-part carbon nanotube reinforced epoxy adhesive performs much better than similar products on the market. Tested by a leading independent laboratory in North America, the adhesion tear strength of CNTstixTM is more 60% higher than that of a popular adhesive manufactured by a leading industry competitor."Our CNTstix(TM) adhesive outperforms conventional adhesives because of our patented carbon nanotube technology, which is also being used by Yonex Corporation for sporting goods," said Dr. Dongsheng Mao, Vice President of Engineering and Director of the Nanocomposite Division at APNT subsidiary, Applied Nanotech, Inc. "Carbon nanotubes possess unique mechanical, electrical, and thermal properties. They are the strongest material known in the world to date."

Using its proprietary functionalization and dispersion technologies, Applied Nanotech is able to significantly improve the properties of adhesives using carbon nanotubes, in particular for bonding materials to each other. The improvements realized with CNTstix(TM) have innumerable industrial and commercial applications such as packaging, sporting goods, automotive, electronics, footwear, construction repair and remodeling, textiles, consumer goods, and shipbuilding, etc.

"The potential market for CNTstixTM is very large," said Dr. Zvi Yaniv, president and CEO of Applied Nanotech, Inc. "After we sent samples to numerous potential customers from different industries, such as composite assemblies for automotive applications and carbon fiber tubing assembly for racing bicycles, responses have been very positive due to the performance and characteristics of this new adhesive for their applications."

Building on its success in developing nanocomposites for Yonex Corporation (high performance golf club shafts and badminton racquets), Applied Nanotech has started to gain traction for its nanocomposite materials for additional commercial applications with very large market potential.

"In late 2011, we embarked on an aggressive direct sales program to increase our high-margin revenues. We are pleased to have CNTstix join our award-winning thermal management material CarbAl as the latest product to be sold direct to users," said Applied Nanotech Holdings, Inc. CEO Doug Baker "In addition, our growth plan will also result in other products coming on the market in 2012."

Applied Nanotech is currently capable of providing CNTstixTM in a variety of quantities, starting at one ounce. Its special burst pouch packaging ensures a 100 percent accurate proper mixing of the CNT reinforced epoxy and compatible hardener.

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