[Home]   [Full version]  

Applied Materials Launches Breakthrough Single-Wafer High-Current Quantum X Implanter

Jun 29 ,Technology


Applied Materials, Inc. today introduced its breakthrough Applied Quantum(TM) X ion implanter, a single-wafer high-current system that enables transistor scaling to the 65nm node and beyond. The Quantum X system's high tilt (up to 60 degrees) and true zero degree implant capability, together with its precise energy control and low defect levels, provide semiconductor manufacturers with the process technology needed to achieve optimum transistor performance for next-generation devices. The Quantum X system also redefines implant productivity; its fast beam tuning and single-wafer processor deliver 30% higher productivity than existing high current implanters.

"The Quantum X system's breakthrough technology is its Stepscan(TM) single wafer implant processor that provides the process control to perform the most difficult and critical implants required for 65nm and 45nm logic and advanced DRAM manufacturing," said Craig Lowrie, vice president and general manager of Applied Materials' Implant division. "Leveraging our production-proven Quantum III beamline, the Quantum X's simple beam optics and short beamline enable faster beam tuning than any single-wafer system available today."
"For continued transistor scaling to 65nm and beyond, major innovations in ultra shallow junction process and manufacturing technology are critical," said Dr. Randhir Thakur, vice president and general manager of Applied Materials' Front End Products group. "By combining the Quantum X implanter with our established Applied Vantage(TM) RadiancePlus(TM) RTP spike anneal system, leading-edge customers now have the single-wafer process control necessary to enable unsurpassed junction uniformity and repeatability for optimal transistor performance in manufacturing."
Multiple Quantum X systems are already installed at a customer's site; additional orders have been received by logic and DRAM customers in the U.S., Europe and Asia.
The Applied Quantum X and Applied Vantage RadiancePlus RTP systems will be on display at SEMICON West on July 12-14 in San Francisco at Applied Materials' booth #1026. For more information on the Applied Quantum X implant system, please visit http://www.appliedmaterials.com/products/Quantum.

The original press release can be found here.

Related stories:

Visualizing atomic-scale acoustic wavesin nanostructures
Acoustic waves play many everyday roles - from communication between people to ultrasound imaging. Now the highest frequency acoustic waves in materials, with nearly atomic-scale wavelengths, promise to be useful probes of nanostructures such as LED lights. However, detecting them isn't so easy.
Could better spin injection lead to a quantum information device?
One of the more promising types of materials for use in spintronics today is the class of metal alloys known as Heusler alloys. These alloys are named after a German engineer, and might be useful in technology in which electron quantum spin states are used to enhance electronic devices. Additionally, Heusler alloys may have an effect in quantum memory processing and telecommunications.
Unknown molecule opens the door to quantum computing
The odd behavior of a molecule in an experimental silicon computer chip has led to a discovery that opens the door to quantum computing in semiconductors.
Developing better nano-electronics by understanding nonadiabatic effects
“Basically,” Michele Lazzeri tells PhysOrg.com, “the Born-Oppenheimer adiabatic approximation tells us how atoms are vibrating.” This adiabatic effect is used to describe phonons, which are modes of vibration that have been quantized. “It’s basic textbook stuff in solid state physics,” Lazzeri continues, “but sometimes the Born-Oppenheimer adiabatic approximation fails.”
Industrial dye holds the key to advancing spintronics
Commonly used industrial dyes hold the key to advancing the new science of 'spintronics', say researchers working on a new a £2.5 million study.
Surprising graphene: Honing in on graphene electronics with infrared synchrotron radiation
Graphene is the two-dimensional crystalline form of carbon: a single layer of carbon atoms arranged in hexagons, like a sheet of chicken wire with an atom at each nexus. As free-standing objects, such two-dimensional crystals were believed impossible to create -- even to exist -- until physicists at the University of Manchester actually made graphene in 2004.
Europe gets together to harness quantum physics
The long cherished goal of applying the strange properties of quantum mechanics to the macroscopic world we inhabit has been brought closer by a series of recent developments. The exciting progress was made in the important field of quantum optics and discussed recently at a high level conference organised by the European Science Foundation in collaboration with the Fonds zur Förderung der wissenschaftlichen Forschung in Österreich (FWF) and the Leopold-Franzens-Universität Innsbruck (LFUI).
Terahertz laser source at room temperature
“There is a growing interest in utilizing terahertz radiation, or T-rays, for a variety of applications,” Mikhail Belkin, a scientist at Harvard University, tells PhysOrg.com. “The terahertz region is a part of the electromagnetic spectrum that lies between the radio waves and infrared/visible light.”

News discussion:

Technology news

[Home]   [Full version]