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Aachen, June
25, 2001. As a result of its continuous effort to provide the most
elaborated technology to its customers, AIXTRON has reached another
breakthrough. With the release of the multiple 4" InP MOCVD
technology, now another milestone in terms of throughput and wafer
size (5x4", 8x4") has been achieved. "As the III-V
industry is preparing the 40 Gbit/s generation of high speed electronic
circuits which will be based on InP, it is very important that a
reliable MOCVD tool with 4" capacity is available," said
Dr. Juergensen, President of AIXTRON AG. "Very soon 4"
will be dominating the market as it has happened earlier on with
GaAs. In addition to that, we also expect InP based opto electronics
to move quickly from 3 to 4inch. AIXTRON has 20 years experience
in InP epi technology."
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all major players in the field of III-V electronics (all also AIXTRON
customers) are increasingly exploring the InP technology. Among these
are AIXTRON customers such as Ommic, VPEC, SEC. As Dan Wilt of Lucent
Technologies Microelectronics stated: "It's a convergence of
light-emitter technology and very-high-performance electronics for
which InP is the preferred alternative, a convergence from the standpoint
of performance and also materials technology."
"Every
component can be manufactured out of InP material: all modulators,
all waveguides, all interconnects," said Igor Trofimov of Qusion,
Inc.
"InP is
the next generation semiconductor after GaAs," stated Dr. John
C.C. Fan, Kopin's president and chief executive officer. "Compared
to GaAs HBTs, InP HBTs demonstrate superior speed, operating voltage,
power efficiency and thermal properties." KOPIN is currently
growing carbon-doped InP HBTs in the AIXTRON organometallic chemical
vapor deposition (OMCVD) systems, the preferred technique for large-scale
manufacturing. This major breakthrough enables a new generation
of high-performance, reliable, cost-effective InP HBT circuits for
a wide variety of exciting applications, including 40-gigabit per
second (Gb/s) fiber optic circuits (OC 768) and efficient power
amplifiers for third-generation wireless phones." "Our
proprietary, and patent-pending process overcomes previous difficulties
to incorporate sufficient quantities of carbon into InP HBTs, especially
by OMCVD. Although beryllium-doped InP HBTs have been grown by molecular
beam epitaxy (MBE), carbon-doped HBTs are preferable because carbon
is a more stable dopant."
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