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Effort in Coated Conductors
Underway
BELTSVILLE, MD, September 18, 2000 – Neocera, Inc. a leader in the research
and development of pulsed laser deposition (PLD) technology, has another
first in the industry.
The Company recently delivered the first commercial high-throughput
production PLD system for high temperature superconductor (HTS) film
production to a company involved in developing HTS thin films for the
telecommunications industry.
HTS thin film technology is currently incorporated in several
telecommunications networks. Microwave filters using HTS thin film
technology can deliver unprecedented performance, with very high frequency
selectivity and low insertion losses. To meet the rapid increase in wireless
users, key HTS companies have increased their production volume of HTS
films. Some have chosen PLD as the preferred high throughput manufacturing
technique.
“In addition to its application in the telecommunications field, PLD systems
are also being utilized in the infrared detection field,” said Harsh
Harshavardhan, Director, Research & Development for Neocera. “We have
expanded our in-house PLD capabilities, to manufacture both HTS and non-HTS
oxide materials for a number of customers, including NASA.”
NEOCERA FIRST COMMERICAL PLD
Tape heaters for HTS coated conductors
HTS coated conductors (tapes) are being manufactured for high current
applications, such as power transmission lines, transformers and DC motors.
One of the critical components of this technology is the substrate (tape)
heater. As a market leader in PLD deposition accessories, Neocera provides
solutions to a variety of HTS coated conductor needs.
“Neocera believes that PLD is ideal for the manufacture of these
superconductor tapes and is developing the appropriate hardware and
processes,” said Harshavardhan.
For more than a decade, Neocera has focused strong science resources on
clearly define customer needs to develop reliable and innovative products.
In addition to PLD systems and accessories, the Company manufactures
magnetic imaging microscopes, microwave microscopes, cryogenic instruments
and complex thin film materials. |