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Technology Stocks : Applied Materials No-Politics Thread (AMAT) -- Ignore unavailable to you. Want to Upgrade?


To: Bookdon who wrote (15205)6/8/2005 8:34:43 AM
From: Proud_Infidel  Respond to of 25522
 
Applied Materials Extends Leadership Position in Epitaxy
Wednesday June 8, 7:32 am ET

SANTA CLARA, Calif.--(BUSINESS WIRE)--June 8, 2005--Applied Materials, Inc. gained significant market share for its epitaxial deposition systems in calendar 2004, increasing its leadership position by 4.5% to 53% of the overall epi market, according to Gartner Dataquest's April 2005 report.(1) The Applied Centura® Epi system continues to be the industry standard in epi with over 400 systems shipped to customers worldwide. These systems cover a broad spectrum of applications, from silicon wafer manufacturing to leading-edge selective epi-based strain engineering solutions for high-performance transistor designs.

"In addition to our leadership in epi wafer manufacturing, Applied Materials' advanced strain engineering development work with chip manufacturers has demonstrated the capability of our epi systems to significantly increase transistor speeds without the need to shrink the scale of the device," noted Dr. Randhir Thakur, group vice president and general manager of Applied Materials' Front End Products Group. "These device improvements have opened up new markets for our systems as customers implement additional transistor-level epi steps for the 65nm-generation and beyond, where innovative epi technology can offer a key performance advantage."

The Applied Centura RP Epi reduced pressure system delivers a robust, reliable, selective epitaxial process for recessed and elevated source/drain structures and other emerging applications. Beginning at 65nm, transistor power dissipation and electrical leakage make it extremely difficult to increase drive current -- a key indicator of chip speed. By selectively growing an epitaxial layer of SiGe to induce a compressive stress within the source/drain region, the Centura RP Epi system can enhance drive current because electrons flow through strained silicon with less resistance.

At the IEDM 2004(2) Conference, Applied Materials reported that the Applied Centura RP Epi system's selective epi SiGe technology enabled transistor drive current improvements of over 65% in 65nm transistor designs. Applied Materials' technologists are working closely with chipmakers and other development partners around the world to optimize and extend this performance-boosting technology to make it available for a wide range of advanced chip designs. Shipments of the Applied Centura RP Epi system for these advanced applications have been accelerating as chipmakers implement the benefits of selective epi to improve device performance and yield.

Forward-Looking Statements. This press release contains forward looking statements, including those related to Applied Materials' technological leadership, product capabilities, strategic position and opportunities. These statements are subject to known and unknown risks and uncertainties that could cause actual results to differ materially from those expressed or implied by such statements, including but not limited to: the sustainability of demand in the semiconductor and semiconductor equipment industries, which is subject to many factors, including global economic conditions, business spending, consumer confidence, demand for electronic products and semiconductors, and geopolitical uncertainties; the timing, rate, amount and sustainability of capital spending for new technology, such as 300mm and sub-100 nanometer applications; the company's ability to successfully develop, deliver and support a broad range of products and services and expand its markets; and other risks described in Applied Materials' Forms 10-K, 10-Q and 8-K. All forward-looking statements are based on management's estimates, projections and assumptions as of the date hereof and the company undertakes no obligation to update any forward-looking statement.

Applied Materials, Inc. (Nasdaq:AMAT - News), headquartered in Santa Clara, California, is the largest supplier of equipment and services to the global semiconductor industry. Applied Materials' web site is www.appliedmaterials.com.

(1) "Wafer Fab Equipment Market Share Reshuffled in Boom of 2004," Dean Freeman, Mark Stromberg, Klaus Rinnen, Bob Johnson, Takashi Ogawa; Gartner Dataquest Report April 1, 2005

(2) 2004 IEEE International Electron Devices Meeting, San Francisco, CA

--------------------------------------------------------------------------------
Source: Applied Materials, Inc.



To: Bookdon who wrote (15205)6/8/2005 11:09:54 PM
From: Ira Player  Read Replies (1) | Respond to of 25522
 
From personal experience, I can tell you that when entering new markets, AMAT management often "doesn't know what it doesn't know".

In my opinion, they often do the equivalent of bringing a football playbook to a basketball game. The plays may be excellent and used int he past with excellent results, but the result in the new game will not be as intended.

Creating a datapath to convert the hierarchical representations in the datafile to an approximation of the analog result coming from the sensors in "real time" is a difficult task. Only guessing, but I'd bet they underestimated the level of complexity.

They made many such errors in the mask writer arena.

Ira



To: Bookdon who wrote (15205)6/9/2005 12:26:58 AM
From: etchmeister  Read Replies (4) | Respond to of 25522
 
Japan to take on KLA-Tencor in mask inspection

Mark LaPedus

Page 1 of 2

EE Times
(04/01/2005 12:48 PM EST)

SAN JOSE, Calif. — For years, chip and IC-equipment hopefuls in Europe, Japan and the U.S. have tried but failed to develop a viable photomask defect inspection tool to break KLA-Tencor Corp.'s stranglehold in the marketplace.

Even mighty Applied Materials Inc. (Santa Clara, Calif.) has stumbled in photomask defect inspection, which is fast becoming the most expensive technology for leading-edge mask production, surpassing electron-beam reticle-writers in the arena, according to analysts. The technology has become more expensive as it moves towards what some call "smart inspection" for detecting a new class of killer defects.

But now, KLA-Tencor (San Jose) — the dominate player with 80-to-90 percent market share — faces its biggest threat from Japan, which is tired of relying exclusively on the U.S.-based company's tools. At next month's Photomask Japan 2005 conference, a group led by Japanese chip-equipment startup Advanced Mask Inspection Inc. (AMI) is expected to present the results of its initial alpha tool for photomask defect inspection applications.

With funding from the Japanese government, AMI — a joint venture between NEC Corp. and Toshiba Corp. — has been developing what it calls a novel 198.5-nm wavelength mask inspection system for the 65-nm node and perhaps beyond.

AMI is still in the R&D stage, but its tool "has a possibility to compete at the 65-nm node and beyond," said D. H. Chung, a researcher at Semiconductor Leading Edge Technologies Inc. (Selete), a Japanese chip-making consortium that has a hand in developing the next-generation mask defect inspection tool.

At the Photomask Japan 2005 event, which runs from April 13-15, AMI, Toppan, Toshiba, and Selete are expected to give a paper entitled, "Mask defect specifications and performances of novel 198.5-nm wavelength mask inspection system for the 65-nm node."

Scrambling for a tool

Japan is scrambling to field a fully-functional inspection tool for good reason: the nation's mask makers do not want to rely solely on KLA-Tencor for these tools, according to analysts.

And for years, photomask makers have blamed the rising costs of masks on the sluggish write times for the lowly electron-beam reticle-writing tool. While the e-beam remains a costly bottleneck, photomask inspection has become a major issue for all mask makers.

Photomask inspection has surpassed the e-beam as the most expensive tool in leading-edge mask shops in terms of overall cost-of-ownership, said Marshall Turner, chairman and chief executive of DuPont Photomasks Inc. (Round Rock, Texas).

The surprising cost-of-ownership transition occurred at the 90-nm node, which presents some new headaches for mask makers. "At this point, inspection is the challenge and people tend to charge for it," Turner said. The executive from the photomask provider did not identify the inspection vendor by name, but observers believe he was referring to KLA-Tencor.

With a near monopoly in the market, KLA-Tencor charges a premium for its tools for what is said to be the best technology in the business. The e-beam, which has traditionally been the most expensive tool in the mask shop, runs $10-to-$20 million per unit.

In comparison, KLA-Tencor's photomask inspection tools cost more than $10 million each. Some, however, believe that a fully-loaded mask defect inspection tool from the company could go as high as $30-to-$35 million — per unit.

Officials from KLA-Tencor declined to be interviewed for this article. But Japan's efforts are expected to upset KLA-Tencor, which in the past said that it's unfair for the U.S. company to compete against foreign consortia (see Dec. 12, 2004 story).

Soaring costs

Needless to say, mask and tool costs are soaring. The cost of a first-generation "mask set" is projected to jump from $1.5 million for the 90-nm node, to $3 million for the 65-nm node, and $6 million for the 45-nm node, according to some experts.

Overall tool costs for a mask shop are projected to jump from $28 million for the 180-nm node, to $39 million for the 130-nm node, to $58 million for the 90-nm node, Turner said. "At 65-nm, it will be in excess of that," he said. (The figures represent the total costs of the tools only and not the building.)

The escalating cost of photomask production is causing mask makers to "share the cost of ownership," he said. For example, DuPont Photomasks is involved with Advanced Technology Mask Center GbH & Co. KG (AMTC). AMTC is a joint photomask R&D venture between Infineon Technologies AG, Advanced Micro Devices Inc. and DuPont Photomasks in Dresden, Germany.

It was noted that diverse Japanese giant Toppan Printing Co. Ltd. has agreed to buy DuPont Photomasks in a deal valued at approximately $650 million (see Oct. 8, 2004 story).