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To: Curlton Latts who wrote (16449)4/9/1998 10:50:00 PM
From: BillyG  Respond to of 25960
 
Hitachi .2 micron chips..................
techweb.cmp.com

Posted: 9:00 p.m. EST, 4/9/98

Hitachi prepares 0.20-micron process for production

By David Lammers

TOKYO - Hitachi Ltd. will start volume
production this fall of cell-based ICs using a
0.20-micron (drawn) process technology.

While IBM Microelectronics, LSI Logic Corp. and
others have announced 0.20- to 0.18-micron
products, Hitachi is the first Japanese vendor to do
so. NEC Corp. expects to make an announcement
this spring.


Hitachi announced a 0.25-micron (drawn)
cell-based product series last February. Limited
volume production begins in June.

"We will make 0.25-micron CBICs for some
customers [at that process point]," a spokesman
said. "But most . . . will go from 0.35 to 0.18
micron."

What Hitachi calls its 0.35-micron generation uses
0.4-micron (drawn) design rules with a channel
length (Leff) of 0.35. At 0.25 micron, both the
drawn and Leff measurements are 0.25. The 0.20
generation has an Leff of 0.18. After that, Hitachi
may jump to 0.15 or 0.13 by 1999 or early 2000,
depending on tool availability.


At 0.20 micron, the "HG75C" series offers
power-consumption advantages, 400-MHz peak
operation and a gate-delay time of 75 ps. With a
1.8-V power supply, typical of battery-driven
systems, power dissipation is rated at 0.04
microwatt/gate/MHz, compared with 0.07
microwatt/gate/MHz at 0.25 micron and 0.26 at
0.4 micron. Power consumption is one-fifth that of
the 0.35-micron generation, the spokesman said.


By late '98, a faster SH-3 RISC core will be
ready, with DRAM and flash modules to follow.
The cell library is compatible with VLSI
Technology Inc.'s, though each company uses its
own process technology, a spokesman said. The
companies offer cores optimized for logic
synthesis.

Hitachi will start taking orders in June, with volume
production set for October. Quad flat packs will
be standard at first but Hitachi is developing 112-
to 264-pin chip-scale packaging.