[comp.research.japan] Kahaner Report: Japanese Survey of Outlook for Electronics Technology

rick@cs.arizona.edu (Rick Schlichting) (02/26/91)

  [Dr. David Kahaner is a numerical analyst visiting Japan for two-years
   under the auspices of the Office of Naval Research-Asia (ONR/Asia).  
   The following is the professional opinion of David Kahaner and in no 
   way has the blessing of the US Government or any agency of it.  All 
   information is dated and of limited life time.  This disclaimer should 
   be noted on ANY attribution.]

  [Copies of previous reports written by Kahaner can be obtained from
   host cs.arizona.edu using anonymous FTP.]

To: Distribution
From: David K. Kahaner ONR Asia [kahaner@xroads.cc.u-tokyo.ac.jp]
Re: Japanese Survey of Outlook for Electronics Technology
22 Feb 1991

ABSTRACT. Summary information from a  survey (by Tokyo Denshi Kogyo) 
of the outlook for nine areas of electronics technology is presented.  

In July 1990, Tokyo Denshi Kogyo, a large Japanese electronics parts 
company conducted a survey dealing with the future of various electronics 
areas. The results were published in their journal [Vol 32 No 7, Jul 90 
pp36-49] They chose nine different topics.  
        Electronic parts and materials
        Measurement technology
        Computer and networking software
        Production (factory) systems
        Office automation
        Home systems
        Traffic and transportation systems
        Medical electronics
        Energy

Between 100 and 200 people responded to each question. The survey also 
tabulated the expertise of the respondents for each topic which seemed 
fairly high.  Here we present a summary of their results in an 
abbreviated outline form.  

ELECTRONIC PARTS AND MATERIALS.
Semiconductor devices converged and limits of semiconductor technology 
   almost in view.
Rapid progress recently in optoelectronics technology.
Surprising developments possible in post-silicon technology.

Image Sensors. High definition visible-light realization (3K x 3K pixels, 
300MHz) widespread by 2001. Similarly for thermal image sensors.

Logic & Memory Devices. Silicon will play main role. High-speed, 
100,000gates, 1pico-sec/gate in 2002, 1Gbit memory 20ns access in 2004. 
Still problems with GaAs costs. GaAs SRAM 1Mbit 100pico-sec widespread in 
2005.  Josephson has problems with cooling and packaging, not expected in 
widespread use until 2010. Quantum-effect devices barely serious yet, but 
maybe a q-e device enabling lap-top supercomputer available by 2013.  
Optical logic devices require fundamental examination, not simply 
extension of silicon to improve switching speed.  Biomolecular devices 
have many basic questions, realization about 2010.  

Large-capacity memory. Optical disks will become more popular. By 2003 
expect to see wide use of optical-erasable disk with 10Gbyte capacity, 
10millisec access time and 100Mbyte/sec transfer rate. By 2015 molecular 
memory in wide use, perhaps via photochemical hole burning.  

I/O devices. LCD mainstream displays. By 2002 wide usage of full color 2K 
x 2K A3-size with response time below 1-millisec. Inkjet printers are 
back in style and inkline printers in a few years. Some futuristic I/O 
device which is light, full color, high resolution, ultrathin widespread 
by 2010.  

Optical transmission. By 2000 semiconductor laser with 100Gbit/sec speed.  
Optical switching using semiconductor matrix switching or q-e will 
appear. Wavelength-splitting switch with 100 channels in 10-15 years.  
Optical fibers in wide use by 2005 that can transmit 1Km at 100Gbit/sec 
without any relay. Quantum communications fertile for basic research, 
perhaps useful in 20 years.  

Secondary batteries. Li with energy density of 1K watt-hours early next 
century.  

Micromachines. Many problems (friction, material/energy resources, 
packaging, CAD). A dream of the 21st century.  

Design and synthesis of materials. Widespread use of computer simulations 
by 2010, but requires faster supercomputers, say 10**10 [sic] faster than 
currently available.  


MEASUREMENT TECHNOLOGY
A/D conversion and optoelectronics have clear goals and can be 
extrapolated from current status. SQUID CT developing for medical 
applications and will merge with hightemp superconductivity. High 
expectations for STM in measuring and analyzing ultrafine patterns.  
Gravitational wave, astronomical, olfactory measurements won't progress 
too rapidly due to lack of large-scale industries.  

Order-of-magnitude improvement in high-speed time measurement and short 
pulses by 2005. Optical network analyzer widely available by 2005.  
Stability of 1:10**18 by 2000 in atomic frequency standard. A/D converter 
with 20G samples/sec by 1995-6. Horizontal resolution of 10pico-m and 
vertical resolution of 1pico-m via STM by 2003.  

COMPUTERS AND NETWORKING SOFTWARE
Trends: (1) move toward ultralarge capacity, ultrahigh density and speed, 
(2) advanced man/machine interface, (3) more intelligence.

Data I/O. Character and voice recognition moving forward (latter is 
slower--real progress only by 1998). Input of color and output of 
Japanese into natural voice by 1995.  

Computers. 100GFlops by 2000. Highly distributed processing by 2000, but 
fault tolerant systems a few years later because of software. Neuro-
computers widespread by 2005 with problems of security not being solved 
until 2010. Communication software not widespread until 2010 because of 
business and international pressures. Multimedia user interfaces in 
demand. Automated software development still thrashing.  Expert systems 
that are as good as experts in wide use by 2008. Don't expect natural 
language processing to be widespread until 2010. Intelligent interactive 
search systems that can easily find information without expert user 
knowledge by 2004. 100/Gbit/sec optical communications by 2000.  
Difficulties (nontechnical) for exchange/sharing of electronic documents 
between different types of computers. By 2000 portable telephone smaller 
than 50cc. Problems are associated with small high capacity batteries.  

PRODUCTION SYSTEMS
Japan industrial structure changing into multiple levels. In particular a 
shift into tertiary sector centered around service expected to continue.  
Economic/social conditions moving from quantitative expansion to 
qualitative improvements. Market needs will force manufacturing 
industries to change from large quantities of a few products to variable 
quantities of different products. Manpower/labor shortage already 
appearing.  Noticeable trend among science/engineering to stay away from 
manufacturing. Urgent need to streamline facilities using mechatronics 
(computers), and to shift from streamlining individual facilities to 
entire manufacturing systems. Focus of business must be shifted from 
"things" to "information".  

Specs/quantities of products will become individualized. So production 
systems (PS) should be able to provide products based on unique ideas. PS 
must freely multiply/shrink and maybe change its function.  Also quick 
delivery after order receipt needed. Distributed databases that are 
immediately updatable needed. PS with high fault-tolerance and automated 
functions (monitoring, malfunction diagnosis, restoration) needed to 
carry out unmanned operations. PS need to be flexible to minimize 
remodeling expenses, remodeling time, and chances of systems becoming 
obsolete as a result of product/model/schedule changes. Intelligent human 
interface support systems needed.  

Most important tasks: product design systems (CAE/CAD/CAM), production 
process design systems (computer assembly to manage CAD/CAM). High demand 
for advanced supervisory systems. Automated restoration systems rated 
lower. Immediate goals are in mechanical systems for diagnostic support.  
Automating visual observations and other sensing tests rated higher by 
manufacturers than by users and are expected by 1995-98.  

Design operations need to be standardized. Development of a comprehensive 
CAD/CAM/CAE system by 2000-2005.  

Production engineer know-how to be transformed into databases. Widespread 
use by 2000. Production management systems developed early but will be 
affected by development of databases and expert systems.  

Automated assembly system to copy an engine by 1995-98.

Intelligent robots face problems in building robots and interfacing with 
peripherals. Developments in AI such as 3D recognition, neural/fuzzy 
systems expected by 1995-2000.  

OFFICE SYSTEMS
Movement from individual to multiple office equipment, using unified 
information source and eventually to consolidated system using using 
global multimedia data. Important task is development of natural man-
machine interface. Component technologies needed are data I/O, data 
storage/search, computing (crunching), communications.  

Business use of distributed databases is most important topic. Widespread 
use by 2000. This also implies high-speed/low cost communication and low 
database use fees. Many comments emphasizing importance of standardized 
database format and protection problems. Widespread use of multimedia 
databases by 2001.  

HOME SYSTEMS
PCs, fax, multifunction phones already infiltrated homes. Many services 
connecting home systems and social systems will be developed. Primary 
technologies needed are AI to organize systems, transmission, display and 
sensing technology. Advanced cogeneration and air conditioning in demand. 
Reliable application software that is easy to use need to be developed.  

Systems ready for applications: home shopping, security by protection 
agencies, but not widely accepted due to cost, safety, software. Home 
robots and home energy management still require significant technical 
advances.  

TRAFFIC/TRANSPORTATION
Improved safety of traffic/transportation most important need. 

Rail: Seat reservation, individual guide and conducting services by 2003 
using IC cards. Advanced security and automated control systems will make 
trains run faster/more frequent. (The Japanese are planning a new high 
speed rail link between Tokyo and Osaka. French trains may reach greater 
speed, but the plan here is to run 100 10-car trains a day each carrying 
about 1,000 people.) 

Air: High-speed data ring between aircraft, control center, other 
aircraft to monitor/guide will be in wide use by 2005. Backup functions 
and emergency systems must work under abnormal conditions.

Auto: Graphic image processing sensors, car detection sensors will be 
improved. Intelligent judgements about traffic congestion to predict 
traffic flow will be in wide use by 2002. More navigation systems in 
cars. Dynamic navigation systems widespread by 2004.  

MEDICAL ELECTRONICS
Fantastic progress already. Expect work on remote diagnosis via graphic 
images in at-home care systems. Mental health problems will become more 
important. Health consulting system and health management system for 
unexpected disorders (at home) widespread by 2000-2005. Widespread use of 
mental health care system by 2015 (importance was rated as low). Speech 
impediment assistance system by 2000 but not in wide use until 2015. 
Prospects for a nerve damage compensation system were pessimistic.

ENERGY (ELECTRIC POWER)
Stable power supply, consolidated energy system (large scale concentrated 
facilities and medium/small scale distributed facilities) in widespread 
use by 2004. 

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