National Institute of Standards and Technology

NAT'L INST, OF sTiNO i TECH R.I C,

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NIST

PUBLICATIONS

NIST

Research Reports

U.S. Department of Commerce

National Institute of Standards and Teclinology

NIST Special Publication 797
NATONAL msnrUTE OF STANDARDS &

TECHNOLOGY

Researdi Mormatkm Center

Gakhersburg, MD 2(m9

On the cover: NIST chemist Marlon L. Walker (left) and physicist William L. McLaughlin developed a rugged, optical

system to monitor radiation dosage for

quality control of a variety of industrial processes. The system is one of the advances in instrumentation and measurement technology for which NIST received seven R&D 100 awards. See article on page 10.
National Institute of Standards and Technology

Research Reports

U.S. DEPARTMENT OF COMMERCE

Robert A. Mosbacher, Secretary Robert M. White, Under Secretary

for Technology

National Institute of Standards and Technology John W. Lyons, Director

National Institute of Standards and Technology

Gaithersburg, MD 20899

301/975-2000

Boulder, CO 80303

303/497-3000

October 1990

NIST Special Publication 797

Prepared by the Public Affairs Division A903 Administration Building

National Institute of Standards and Technology

Gaithersburg, MD 20899

301/975-2762

Any mention of commercial products

is for information only; it does not imply recommendation or endorsement

by the National Institute of Standards and Technology nor does it imply that the products mentioned are necessarily

the best available for the purpose.

Research Update

Four Companies Win Baldrige Award 5

NIST, Industry Work Together for Automated Quality 9

Seven R&D 100 Awards Go to NIST 10

Teaching Machines Their ABCs 13

Technologies of the Future Identified 16

To Measure a Molecule 22

Key Industries Invest To Boost Quality 25

No Evidence for Fifth Force Found 27

Tech Transfer Awards Announced 28

New Publications 30

Conference Calendar 32
Research Update

Examiners Needed for 1991

National Quality Award

The Malcolm Baldrige National Quality

Award Office is seeking applications

from individuals wino can qualify as ex- aminers. Tiie award is offered annually to American companies that demonstrate

the highest levels of total quality management. Examiners are responsible for re- viewing and evaluating applications submitted for the award. Information on the award program and applications to serve as an examiner are available from the Baldrige Quality Award Qffice, A537

Administration BIdg., NIST, Gaithersburg,

Md. 20899. Application requests also can be made by fax, 301/948-3716;

telephone, 301/975-2036; or electronic message on the Quality Award BBS,

301/948-5635 with parameters

300/1 200/2400-8-N-1. Examiner applications are due November 21, 1990. The

Malcolm Baldrige National Quality

Award, established by law in 1987, was

launched in 1988.

NIST Seeks Proposals for

Measurement Grants

NIST is seeking project proposals for its FY 1992 Precision Measurement Grants. The grants are for $30,000 for 1 year and

may be renewed for up to 2 additional years. Prospective candidates must submit summaries of their proposed projects

and biographical information to NIST by

Feb. 1, 1991, to be considered for the current grants, which will run from

October 1991 through September 1992. The Precision Measurement Grants are awarded each year to scientists in aca- demic institutions for work in determining

values for fundamental constants, investi- gating related physical phenomena, or

developing new, fundamental measure- ment methods. For information, contact

Barry N. Taylor, Chairman, NIST Preci- sion Measurement Grants Committee,

B160 Physics BIdg., NIST, Gaithersburg

Md. 20899, 301/975-4220.

NIST, APL Study Automated

Electronics Assembly

NIST and the Applied Physics Laboratory

(APL) of the Johns Hopkins University

have established a 1-year cooperative

research program. The goal is to achieve

productivity and quality improvements in computer-integrated manufacturing sys- tems used for electronics assembly.

Surface-mount printed-circuit boards

would be a typical product. The project

will include the specification of process

and quality-control techniques and strate- gies, computer hardware and software,

data requirements, and interface and

support standards, such as STEP

(STandard for the Exchange of Product

model data) and the Defense Depart- ment's CALS (Computer-aided Acquisition and Logistic Support) standards. New concepts for process control sensors will be tested. The project draws on NIST skill in process control sensors, automation, and standards technology,

and APL expertise in applications and

electronics manufacture.

New Plumbing Program

Announced for Testing Labs

NIST has established a laboratory accreditation program for labs that test plumbing products and devices. Labs

can seek accreditation to test plumbing

fixtures under ANSI Z124 standard series

for plumbing plastics and to test fixture fit- tings and fixtures under ASME/ANSI 112

standards 18.1 and 19.2. The new pro- gram is part of the National Voluntary

Laboratory Accreditation Program

(NVLAP) for commercial products, which was established at the request of the

International Coalition for Procurement

Standards to provide buyers with a list of accredited labs that can test products to conform to contract specifications. The

program also meets the needs of public

authorities for energy and water conservation programs nationwide. Labs seeking accreditation for one or more of the

test methods must meet all NVLAP cri- teria and renew their status annually to maintain accreditation. For information, contact Lawrence S. Galowin, NVLAP,

A124 BIdg. 411, NIST, Gaithersburg, Md.

20899, 301/975-4022, fax: 301/975-3839.

Aristech Chemical To Consult

with NIST on Polymers

Aristech Chemical Corporation,

Monroeville, Pa., has established a Research Associate Program at NIST to consult with Institute scientists on nonproprietary polymer blends of polycarbonate and poly (methyl methacrylate) (PMMA) materials. Scientists from

Aristech's Research Laboratory will use

the NIST time-resolved light-scattering

instrument and small-angle neutron scattering techniques at NIST's research

reactor to measure the kinetics and ther- modynamics of polymer blend phase

behavior. Blends of PMMA with polycarbonates or other polymers are used

widely in manufacturing transparent win- dow panels or molded into large-scale

plumbing fixtures such as bathtub enclo- sures and shower stalls. The NIST Research Associate Pro- gram provides an opportunity for en- gineers and scientists from industry, universities, technical societies, and other

2
organizations to conduct cooperative re- search at NIST on projects of mutual in- terest, With salaries paid by the sponsor.

Materials Can Help Evaluate

Industrial Atmosphere

Regulatory agencies and others studying

the toxic metal concentration of industrial environments now have a new tool from

NIST to help them achieve the most accurate measurements possible. It is a series of cellulose filters—similar to the ones used to sample atmospheric speci- mens—each containing certified concentrations of nine metals known to be toxic

at certain levels. The filters that make up

this Standard Reference Material (SRM)

can be dissolved easily in acid and di- luted with distilled water to the desired

volume and concentration level. In solution form, the SRM can be used in atomic

absorption, optical emission (plasma),

spectrometry, spectrophotometry, or any

other analytical techniques that require

aqueous standard solutions for calibrat- ing instruments. Metals represented on each of the fil- ters are barium carbonate, cadmium,

chromium, iron, magnesium, nickel, lead,

selenium, and zinc. Each SRM consists

of six filters containing the metals and

five "blank" filters that allow chemists to assess the ambient levels of the metals

being measured. SRM 3087, Metals on

Filter Media, sells for $155 and is availa- ble from the Standard Reference Materials Program, Rm. 215 BIdg. 202, NIST,

Gaithersburg, Md. 20899, 301/975-6776.

Security Bulletin Board Expanded

I

The NIST Computer Security Bulletin Board has been expanded, making it easier to access the information stored in

the system. Since October 1989 this electronic bulletin board has provided infor- mation dealing with computer security,

including bibliographies of relevant publications and listings of security-related

seminars and conferences. In addition, the system contains information issued

by NIST and others concerning computer security incidents, such as computer virus attacks. NIST also will use the

bulletin board to disseminate information about future incidents. A standard ASCII terminal or a per- sonal computer with serial communications capability is needed to access the

bulletin board. The terminal should be

set up for these communications parameters: 2400, 1200, or 300 modem baud

rate; 8 data bits with no parity (or 7 with even parity); and 1 stop bit. Dial 301/948-571 7 to connect with the board. The system is available 24 hours a day. For further information, call NCSL Security BBS assistance at 301/975-3359 or use the message subsystem of the bulletin board.

PHIGS Conformance Test

Available

The Programmer's Hierarchical Interactive Graphics System (PHIGS) provides a

standard library of routines for use in pro- gramming three-dimensional graphics.

PHIGS is a Federal Information Processing Standard (FIPS 153) that adopts a vol- untary industry standard (ANSI X3.144-

1988). NIST has developed a test system

to help users and vendors determine

whether the complex data structures used to generate the graphics displays

conform to FIPS 153. A future version will include interactive tests to determine if the visual output is correct.

The test suite consists of a set of FORTRAN programs that can be easily

adapted for most computer system operating environments. The PHIGS validation test costs $1 ,000 for the first operating environment, $1 ,500 for two different environments, and $2,000 for three. Four

or more will cost $2,500. A user guide is included in the package, which describes test suite installation and operation and gives guidance on interpreting the test results. To order the test suite, contact John Cugini, A266 Technology

BIdg., NIST, Gaithersburg, Md. 20899,

301/975-3248.

New Video Can Help Save Energy

and Dollars

Energy-efficient buildings make dollars and sense. But tight operating and construction budgets often force tough

decisions to be made on energyconservation projects. A new video

training program developed by NIST

gives building professionals the basic

tools needed to evaluate the cost

effectiveness of these decisions. The 1-hour video is the first in a

series NIST is producing for the U.S. Department of Energy (DOE). NIST

economists and a DOE engineer explain

basic concepts of life-cycle cost analysis

and demonstrate problem-solving tech- niques and computer programs that can

be used to calculate a building's energy

consumption and the life-cycle costs of alternative designs and systems. By the end of the video, the viewer should be

able to solve simple, but realistic, problems. A workbook accompanies the

video. The videotape, titled "Least-Cost Energy Decisions: An Introduction to Life- Cycle Cost Analysis," is available from

Video Transfer Inc., 5709-B Arundel

Ave., Rockville, Md. 20852, 301/881-

0270. VHS format is $19. Contact Video

Transfer Inc. for prices on other formats.

3
1999 Deadline Set for Uniform

Gas Pump Pricing

Weights and measures officials adopted

Jan. 1 , 1 999, as tine deadline by which

all retail motor fuel dispensers used in multitier pricing must compute at all prices at which the product is offered for sale through the device. The deadline was set at the 75th Diamond Anniversary

of the National Conference on Weights

and Measures (NCWM), July 8-13, 1990. The decision will affect gasoline service

station pumps and other motor fuel dis- pensers that use different prices for the

fuel depending on whether it is paid for

in cash or by credit card. The 1999 date was supported by the major oil companies and industry associations repre- senting independent service station owners. NCWM, an organization of state, county, and city weights and measures

enforcement officials, receives technical support from NIST, a non-regulatory

agency, through the Institute's Office of Weights and Measures.

Study To Help Understand Bone

Demineralization

One of the major problems potentially limiting the long-term habitability of outer space is the "demineralization" of human

bone that occurs in a microgravity en- vironment. To help understand this loss

of calcium and breakdown of bone

tissue, scientists need enriched calcium

isotopes that can act as "markers" to study the calcium metabolism process in the body. Three researchers from East- ern Analytical Inc. are teaming with NIST

scientists to develop and evaluate processes aimed at producing large

quantities of a marker isotope—calcium48—inexpensively. Because calcium-48

is not abundant in nature, the isotope must be produced in the laboratory to acquire the needed amounts. Researchers

hope that by using laser light to excite calcium-48 at its resonance frequency,

they will be able to extract the isotope

from samples. The research will be used

by the National Aeronautics and Space

Administration in its ongoing investigation of space effects on bone tissue.

Radioscopic Image Quality

Indicator Designed

A long-established way to test the quality

of a weld is to x ray it and analyze the

film for flaws and imperfections. More re- cently, this process has been computerized and digitized so that film can be re- placed by an electronic system that projects the image on a video screen.

This permits real-time examination of the weld and improves productivity by allow- ing the object to be rotated during in- spection. But the procedure has been in- hibited by lack of an indicator that evaluates image quality as the specimen

and its associated image quality indicator (101) are rotated. NIST scientists have

developed a design for an indicator that has spherical symmetry and provides the same image quality information inde- pendent of rotation. For a copy of paper

no. 24-90, which describes the design, contact Jo Emery, Div. 104, NIST,

Boulder, Colo. 80303, 303/497-3237.

NIST Method Allows Quicker,

Cheaper Analyses

Preparing samples of contaminated

soils, sediments, and sludges for analysis of environmentally hazardous trace elements can be time consuming. Typically such preparations take 8 to 24

hours to complete. Now NIST and the Environmental Protection Agency (EPA)

have produced a method that uses a

heating device similar to a kitchen micro wave oven to cut the sample preparation

time. By using microwave energy to heat a sample in acid within a closed vessel, the processing time can be shaved to 10 minutes. Because so much time is saved, the NIST/EPA method substantially lowers the cost of each analysis. Re

cent tests also indicate that the new tech nique will allow trace elements to be

detected at lower levels. The method was accepted by EPA after a successful demonstration involving 15 laboratories and will be added to EPA's procedures

for its Resource Conservation and Re- covery Program and its Superfund

Program.

Inexpensive Frequency

Calibration Service Available

The NIST Automated Computer Time

Service (ACTS), a dial-up service begun

in 1988, can also act as an inexpensive

frequency calibration service. NIST re- searchers have found that a frequency

calibration accuracy of better than one

part in a billion is readily available from a

single long telephone call or from a sequence of short calls averaged over a few days. The cost of hardware and soft- ware for ACTS is only about $100 versus up to several thousand dollars for most

other frequency dissemination services

with this level of accuracy. Access ACTS

by dialing 303/497-4774. Software can

be obtained for $36 from the Standard

Reference Materials Program, Rm. 204

Bldg. 202, NIST, Gaithersburg, Md.

20899, 301/975-6776. Ask for Automated

Computer Time Service, RM 8101. Paper

no. 44-90 describes the sen/ice and is available from Jo Emery, Div. 104, NIST,

Boulder, Colo. 80303, 303/497-3237.

4
Four Companies

Win Baldrige

Quality Award

Commerce Secretary Robert A. Mosbacher announced the four

winners of the 1990 Malcolm Baldrige National Quality Award

for excellence in quality management on October 10. The

winners are the Cadillac Motor Car Division (Detroit, Mich.)

and IBM Rochester (Rochester, Minn.) in the manufacturing

category; Federal Express Corp. (Memphis, Tenn.) in service; and

Wallace Co., Inc. (Houston,

Texas) in small business.

The award, named for the late Commerce Secretary Malcolm

Baldrige, was established by

legislation in August 1987. It pro- motes national awareness about

the importance of improving total quality management and recognizes quality achievements of U.S. companies. Firms applying

for the award must undergo a

rigorous evaluation by an inde- pendent board of examiners

composed of private and public sector experts in quality. The

examination includes on-site

visits for those passing the initial scoring.

Announcing the 1990 award

winners, Mosbacher noted,

"When President Bush said in this year's State of the Union address,

'Made in the U.S.A. is recognized

around the world as the symbol of

quality,' he made clear the impor- tance of quality to our economy.

Quality is the key to increasing our exports around the world and

to a strong economy that assures

job growth.

"The winners of this award

have made quality improvement

a way of life. Quality is their bot- tom line, and that kind of can-do

attitude makes for world-class products and services."

Cadillac Motor Car Company

The Cadillac Motor Car Division,

headquartered in Detroit, Mich.,

is the flagship division of the General Motors North American

Automotive Operations. In 1990,

sales of nine models are pro- jected to total over 305,000 units and generate $7 billion. The company employs about 10,000 workers at its headquarters, at four Michigan-based manufacturing

plants, and at 10 sales and service zone offices in the United

States. In the domestic market,

which accounts for nearly

99 percent of Cadillac sales, cars

are sold through a network of

1 ,600 franchised dealerships,

which are full partners in the divi- sion's quality improvement efforts. During the 1980s, foreign and

domestic competitors gained

market share at Cadillac's ex- pense. But over the last several

years, Cadillac has improved its cars markedly in quality, reliability, durability, and performance.

Cadillac's turnaround began in 1985 when top management

started implementing simul- taneous engineering (SE), the first of several major changes designed to ensure that the divi- sion's products and services

would be first to meet or exceed

the expectations of potential buyers. SE contrasts sharply with the

traditional serial approach to auto- mobile development and manufacturing in which individual de- partments functioned largely in

isolation from the others.

5
Product design and development now begin with integrated

knowledge of all essential ele- ments, including performance tar- gets, product features, systems

and parts, processes, and main- tenance requirements. Tfius, SE

anticipates how changes in one

functional area will affect the

others, making it easier to prevent

problems and bottlenecks, to determine in advance how to monitor and control production processes, and to identify opportunities for quality improvement.

The effectiveness of SE, however, hinges critically on carefully

orchestrated teamwork. More

than 700 employees and supplier

representatives now participate on SE teams that are responsible

for defining, engineering, marketing, and continuously improving

all Cadillac products. Their coordi- nated efforts on three recent major styling changes, involving, on average, more than 650 part

changes, trimmed between 50

and 85 weeks from what typically

had been a 175-week process.

In step with service and product quality, customer satisfaction has risen, as measured through

extensive surveys and analyses

of complaints handled by its 24-hour Customer Relations

Center, for instance. On three key measures—satisfaction with cars, service, and total ownership experience—1985 customers rated Cadillac at about 70 percent. In 1989, Cadillac's scores in all three categories were 86 percent

or better.

IBM Rochester

IBM Rochester, located in Rochester, Minn., provides employment to more than 8,100

people and is responsible for product development and U.S. manufacturing of both intermediate computer systems and

hard disk storage devices for in- termediate and personal computers. In addition, its processes are used in plants located in Japan,

Mexico, the United Kingdom, and

Italy. Rochester is the primary lo- cation of Application Business

Systems, one of seven business

units in IBM U.S. The concept of quality at IBM

Rochester is linked directly to the customer. Detailed features are

crafted from the analysis of the needs and expectations of existing and potential owners of the computer hardware and software. At every step, customers are

directly involved in every aspect

of the product from design to delivery—through advisory councils, global information systems,

trials of prototypes, and numer- ous other feedback mechanisms.

And quality has owners: managers and non-managers

alike. Trained in quality concepts

and methods, supported by advanced technology, and assisted

by decision-making tools, employees have clearly defined quality improvement goals. Often

working in teams that erase boundaries between departments,

they are given the authority to

6
determine how best to accomplish those goals.

The IBM Rochester quality cul- ture has been transformed from

reliance on technology-driven

processes delivering products to market-driven processes directly

involving suppliers, business part- ners, and customers, delivering

solutions. A 30-percent improvement in productivity occurred

between 1986 and 1989. Productdevelopment time for new midrange computer systems has

been reduced by more than half, while the manufacturing cycle

has been trimmed 60 percent

since 1983. Customers have

benefited from a threefold in- crease in product reliability; an

increase in the product warranty

period, from 3 months to 12; and

a cost of ownership that is among

the lowest in the industry. IBM's share of the world market for inter- mediate computers increased one full percentage point in both

1988 and 1989, and revenue

grov\rth in 1989 was more than

double the rate for the industry.

IBM Rochester recently

strengthened its strategic quality

initiatives by formulating improvement plans based on six critical success factors: improved product and service requirements definition, an enhanced product

strategy, a six-sigma defect elimi- nation strategy, further cycle time

reductions, improved education,

and increased employee involve- ment and ownership. Each senior manager "owns" one of the six factors and assumes responsibility for plans and implementation. Progress toward achieving

improvement goals is closely

monitored. Support processes

are a part of this network. Federal Express Corporation

The Federal Express Corporation,

the Baldrige Award's first winner

in the service category, employs

approximately 90,000 people at more than 1 ,650 facilities world- wide. Headquartered in Memphis, Tenn., the company started the air express delivery sen^/ice business in 1973. It now enjoys

about 40 percent of the market

and handles over 1 .5 million shipments daily.

"The winners of

this award have made

quality improvement

a way of life. . . ."

Since its founding in 1973, Federal Express has followed a management philosophy that emphasizes people, service, and

profit, in that order. By constantly

adhering to this philosophy, the company has achieved high

levels of customer satisfaction and experienced rapid sales growXh. Through a quality im- provement program that focuses on 12 Service Quality Indicators

(SQls), all tied to customer expectations and articulated at all levels

of its international business, the Memphis-based firm continues to set higher standards for service and customer satisfaction. Measuring themselves against a 100- percent service standard,

managers and employees strive

to improve all aspects of the v\/ay Federal Express does business. Federal Express's "PeopleService-Profit" philosophy guides

management policies and actions. The company has a well- developed and thoroughly deployed management evaluation system called SFA (survey/feedback/action), which involves a sur- vey of employees, analysis of each work group's results by the work group's manager, and a dis- cussion between the manager

and the work group to develop

written action plans for the manager to improve and become

more effective. Data from the SFA

process are aggregated at all levels of the organization for use

in policymaking.

Performance data are gathered with the company's

advanced computer and tracking

systems, including the SuperTracker, a hand-held computer

used for scanning a shipment's

bar code every time a package

changes hands between pick-up

and delivery. Rapid analysis of data from the firm's far-flung

operations yields daily SQI re- ports that are transmitted to workers at all Federal Express sites. Since 1987, overall customer

satisfaction with Federal Ex- press's domestic service has

averaged better than 95 percent,

and its international service has

rated a satisfaction score of about 94 percent. In an inde- pendently conducted survey of air-express industry customers.

7
53 percent gave Federal Express

a perfect score, as compared

with 39 percent for the next-best

competitor.

Wallace Co., Inc. The Wallace Co., Inc., based in Houston, Texas, is the small busi- ness winner of the Baldrige Quality Award. Founded in 1942 and

still family owned and operated,

the company distributes pipe,

valves, and fittings as well as value-added specialty products,

such as actuated valves and plastic-lined pipe. It employs 280

people through its headquarters

and 9 branch offices in Texas,

Louisiana, and Alabama.

Firms applying for tlie

award must undergo

a rigorous evaluation

by an independent

board of examiners

composed of private

and public sector

experts in quality.

Wallace Co., Inc., has

pursued a long-term strategy of Continuous Quality Improvement.

In only a few years, Wallace has

distinguished itself from its competitors by setting new standards

for service. Now entering the final stage of the three-phase quality

program it initiated in 1985,

Wallace has effectively merged

business and quality goals, built new partnerships with customers

and suppliers, and instilled as- sociates with a commitment to one overriding aim: total cus- tomer satisfaction.

in tandem with its move to Continuous Quality improvement,

Wallace shifted its marketing

focus from engineering and construction activities to maintenance

and repair operations, now the source of 70 percent of its sales.

In 1989 sales totaled $79 million. Not only does Wallace comprehensively monitor its activityit has identified and now measures 72 discrete processes that contribute to on-time delivery and

accurate invoicing—but it invites the scrutiny of customers. Customers receive computergenerated reports that document

how well the company has been

servicing its accounts. Customer

feedback is ensured through four types of surveys, "partnering"

meetings, frequent contacts by

sales representatives, and a Total Customer Response Network.

Wallace holds suppliers to its same high standards, requiring

firms to provide statistical evi- dence of the quality of their shipments and to guarantee their products for a minimum of 12 months.

Since 1987, Wallace's market

share has increased from

10.4 percent to 18 percent. Its record of on-time deliveries has

jumped from 75 percent in 1987

to 92 percent in 1990. The distributor has committed to guarantee all customers an ontime delivery rate of 98 percent as of July 1991 . Its customer base has grown, while existing

clients have increased their busi- ness. As a result, sales volume

has grown 69 percent and, be- cause of greater efficiency, operating profits through 1989 have in- creased 7.4 times. 1991 Applications

Available Soon

Application guidelines for the 1991 Malcolm Baldrige National

Quality Award will be available in early December. A maximum of two awards may be given annually in each of three categories:

large manufacturers, large service comipanies, and small businesses.

The winners in 1988 were

Motorola, Inc., the Commercial

Nuclear Fuel Division of Westinghouse Electric Corp., and Globe

Metallurgical, Inc. In 1989, the award recipients were Milliken &

Company and Xerox Business

Products and Systems.

The booklet containing the applications includes a description

of the award, an application form, detailed instructions for completing the form, and specifics about

the scoring criteria and examination. Free copies will be available from the Malcolm Baldrige

National Quality Award Office,

A537 Administration BIdg., NIST,

Gaithersburg, Md. 20899,

301/975-2036, fax: 301/948-3716.

The Malcolm Baldrige National

Quality Award is managed by

NIST with the active involvement

of the private sector.

8
NIST, Industry Work

Tc^ether for

Automated Quality

rixindustrial firms have joined forces with the National Institute of

Standards and Technology in a cooperative research program

to develop an automated inspection system for manufactured

^^^^ parts. The effort is part of NIST's "Quality in Automation" project

^(IP^' to help U.S. industry in developing quality assurance techniques vital to global competitiveness. CADKEY Inc., Automation Software,

Sheffield Measurement, Renishaw

Inc., CMX Systems Inc., and

ICAMP Inc. are contributing re- sources to the automated inspection project. NIST researchers

plan to incorporate software and

hardware products loaned by

these firms into one of the first

fully integrated part design and

inspection systems to use the ANSI Dimensional Measuring In- terface Specification (DMIS)

standard. The entire software sys- tem will run on a single low-cost personal computer.

Steven D. Phillips, director of NIST's automated inspection

project, says that the research

should yield significant industrial

results. He says, "The DMIS

standard, which is the focal point

of our integration efforts, allows two important industries—that of computer-aided design and of coordinate measuring machines

to communicate with each other. These marl<ets alone are esti- mated to have a combined 1990

sales volume of half a billion dollars. The result of this integration,

in increased productivity and in quality assurance, can play a dra- matic role in improving manufactured parts, an especially important issue in today's world market. Thousands of machine shops in the United States can benefit from this technology."

NIST engineers working in the prototype effort use CADKEY's

software for three-dimensional,

computer-aided design of parts. Automation Software programs

allow engineers to create inspection paths and procedures on

graphical images displayed on

the personal computer. The in- spection instructions are automatically converted into the DMIS for- mat, which provides a common

language between computers

and inspection equipment.

Sheffield Measurement

software translates the DMIS

instructions into a computer

language used by a coordinate

measuring machine, another

Sheffield product. The machine measures and inspects the manufactured parts using a probing

system from Renishaw Inc. and

laser interferometers from CMX

Systems Inc. The data are translated back into DMIS code, and,

using ICAMP's QUALSTAR analysis software, engineers can compare the manufactured product as-built, with the original

computer-aided design model.

NIST shares research results with the cooperating firms and

provides suggestions for improvements, compatibility, and expansion of the products contributed

to the cooperative effort. NIST's "Quality in Automation"

project is funded by the U.S. Navy's Manufacturing Technology

program. Project findings are published annually in open literature.

by John G. Blair NIST Public Affairs Specialist

9
Seven R&D 100

Awards Go to NIST

he National Institute of Standards and Technology received

seven R&D 100 Awards for advances in instrumentation and

measurement technology September 26 at ceremonies in

Chicago. R&D 100 Awards are presented annually by

Research & Development magazine to highlight the 100

"significant new technical products" of the preceding year. NIST has

now received 71 of these awards

since first entering the competition in 1973. Information Retrieval System

Computer scientist Donna

Harman and mathematician

Gerald Candeia, of the NIST

National Computer Systems

Laboratory, have developed a

fast, easy-to-use system for re- trieving information from dataGerald Candeia (left) and Donna Harman demonstrate

their information retrieval system.

bases containing large amounts

of text such as reference books,

bibliographies, and directories. The system uses a simple sen- tence or phrase, such as "human

factors in information retrieval sys- tems," to query the database and

return a list of records within 1 or 2 seconds. Other systems can

take up to a minute. Even more important than being fast, the system can be

used with little or no training.

More than 90 percent of the keyword retrieval systems now on the market are based on a deductive

logical system known as boolean

algebra and can require extensive training. Also, unlike many

other systems, this one arranges

the retrieved records so the ones

at the top are more likely to be rel- evant to the search, an important

factor in a long list of records. Scanning Scattering

Microscope

Physicist Joseph Fine, of the NIST

Center for Atomic, Molecular, and

Optical Physics, and Denes

Marton, a visiting scientist from

the Technical University of

Budapest at the time of the invention, have devised an optical tech- nique for imaging the surface

microstructure of materials. The

scanning scattering microscope

(SSM) combines the sensitivity of the integrated scattered light measurement concept with a mi- crofocused scanned-light beam

to produce three-dimensional-like micrographs of surface features

at the nanometer level. Industrial applications could

include measuring and imaging

the surface roughness of polished semiconductor wafers and

detecting defects; measuring and

imaging the surface topography

of vapor- and sputter-deposited

thin films; and monitoring the ef- fect of surface abrasion proc- esses on highly polished metals. The SSM has a relatively long

working distance of many centi- meters from surfaces. As a noncontacting probe, it can be used

with other instruments to monitor

and control the fabrication of sur- faces during processing.

10
stochastic Analyzer for Pulsating Phenomena

Physicist Richard J. Van Brunt, of the NIST Center for Electronics and Electrical Engineering, and

visiting Indian scientist Sanjay V. Kulkarni have created an instru- ment that nnakes real-time measurements of the rapid pulses that can occur when insulating materials in electrical systems are subjected to stress. These partial dis- charge pulses, seemingly random

(stochastic) in nature, can induce

material degradation that leads to eventual failure of the insulation,

causing electrical breakdown in the system.

Gauging and understanding

these pulses is more critical than ever for the $266 billion U.S. electrical power industry. Electrical breakdown in insulating materials could mean the loss of electricity

in large geographic areas. The NIST device, called a

stochastic analyzer for pulsating

phenomena (SAPP), provides a

"signature" of the pulse memory

effects that can be used to study

the underlying physics and to develop better diagnostics for in- sulation performance. It also al- lows scientists to determine, from

these signatures, the degree of order in what might seem a series

of unrelated, random events. The device is an improvement

over earlier instruments that pro- vided only limited information about the pulses and failed to in- dicate the stochastic nature of the pulse phenomenon.

Denes Marton (left) and Joseph Fine with their scanning scattering microscope.

In addition, the SAPP can be

used to investigate any pulsating

phenomena such as the human

heartbeat or pulsating fluids.

Crystal Growth

Researchers Subhas K. Sikdar

and Paul W. Todd, of the NIST

Center for Chemical Technology,

(assisted by Cheryl Walker) have

created a novel method for growing single crystals of proteins and

other substances by the process

of osmotic dewatering.

This advancement is signifi- cant because rapid advances in molecular manipulation—includ- ing drug design and protein

engineering—are awaiting im- proved, reliable methods for protein crystal growth. The

osmotic dewatering system pro- vides a versatile way of growing

defect-free single crystals in a

controlled environment.

The stochastic analyzer for pulsating phenomena

operated by Sanjay V. Kulkarni (seated) and Richard J. Van Brunt.

11
Paul W. Todd (left) and Subhas K. Sikdar with their osmotic dewatering apparatus for growing crystals.

Osmotic dewatering occurs

wlnen two aqueous (water-based)

salt solutions are separated by a semipermeable membrane

through which only water can

pass. The osmotic pressure differ- ence causes slow transport of water from the dilute solution containing a protein to a concentrated salt solution. The process removes water, and only water, from the mother liquid in which

crystals are grown. Using this method, the NIST

researchers have grown crystals

of lysozyme, a protein, to about

1 millimeter in size and of high

quality for x-ray crystallography.

Dosimetry System

Chemist Marlon L. Walker and

physicist William L. McLaughlin,

of the NIST Center for Radiation

Research, have developed a real- time measurement system to monitor radiation dosage for quality control of a number of widely used industrial processes

including polymer curing, steriliza- tion of medical instruments, or semiconductor hardening tests. A radiochromic sensor, which

changes color with absorbed

x-ray and gamma-ray radiation,

is placed on the item to be ir- radiated. A laser is directed on

the sensor, and the transmitted

light is returned by a retroreflector

to a detector adjacent to the

laser. Any changes in the retro- reflected signals are evaluated by

a data analyzing system.

The NIST measurement sys- tem is insensitive to microwave,

infrared, and electromagnetic

impulses. It is ideal for industrial and field work because the sys- tem does not require ionization chambers and delicate laboratory instruments. On the assembly line or in the field, personnel and

equipment can make continuous

measurements remote from a haz- ardous radiation source. Two Jointly Shared Awards

NIST also shared two R&D 100

Awards with other organizations.

One joint award honored a

class of high-efficiency silicon photodiodes developed for use in the ultraviolet and soft x-ray (xuv)

spectral range. The devices may

be used as high-sensitivity

radiometric standards, compact

xuv photometers for space and

defense applications, detector

array elements for xuv imaging

applications, and inexpensive re- mote sensors for monitoring in- dustrial processes (x-ray lithography, for example). The quantum

efficiency of the xuv photodiode

is very high, about 300 times the quantum efficiency of the best laboratory-made photoemissive

diode. NIST physicists L. Randall

Canfield and Jonathan Kerner shared the award with Raj Korde

of UKDT Sensors Inc. The other joint award cited the "Coolahoop" project, a venture of NIST and Los Alamos National Laboratory. Coolahoop is a cryo- genic refrigerator that, unlike similar devices, has no moving parts. While mechanical cryocoolers on

the market require periodic main- tenance due to wear on moving

parts, Coolahoop has no apparent feature that would limit its

lifetime. Potential applications in- clude uses as a cooling medium

for high-temperature superconducting devices and for satellite- based infrared detectors, such

as those used for climate monitoring and Earth-resource surveying.

Coolahoop may also be used

for the remote production of small quantities of liquid nitrogen

for use in medicine and in the

livestock breeding industry.

Researchers Ray Radebaugh

of NIST and Gregory W. Swift and Richard A. Martin of Los Alamos are the joint award

winners.

12
Teaching Machines

Their ABCs

Afirst-of-its-kind database containing over 1,000,000 handprinted characters has been developed by the National

Institute of Standards and Technology to help measure the

performance of systems designed to recognize handprinted

numbers and letters. Banks, insurance companies, and other

form-processing organizations represent an enormous market for systems

that can automatically read and

process handwritten characters on forms. Machines are available

to identify characters that have

been printed by other machines,

such as numbers on a bank

check, and then enter the information into a data processing sys- tem. A few devices can recognize

handprinted letters and numbers,

but only if the writer carefully

forms each character. A machine

that can accurately read unconstrained handwritten script is

still only a tantalizing prospect,

largely because of the wide varia- tions in writing style. Finding a standardized way to measure performance of character recognition systems is an im- portant link in developing the technology. According to a re- cent issue of Neural Technology

Update, ".. . it is very hard to objectively and rigorously compare these character recognition

products . . . because there is not yet any standard set of characters or numbers by which to test recognition software."

"This database is a big step in that direction," says supervisory

mathematician Charles Wilson,

who managed the program. "It

will be a key in evaluating a sys- tem under development or comparing systems to see which per- forms best. Both uses are needed

to advance the technology,"

explains Wilson. To efficiently process handwriting, a machine must be able

to locate text on a page, separate

text into characters, and identify

specific characters. The

database can be useful in all three areas, says Wilson. He and his team worked

with the U.S. Bureau of the Census to collect samples of handwriting. "There is a theory that handwriting, like speech, has

local variations in different parts

of the country. This database will

To collect samples of handwriting, NIST asl(ed 2,000 employees from

the U.S. Department of the Census to

fill out sample forms like this one.

13

0123458789 0 1 2 3 4 5 6 7 89

22^ 101 2753 42440

732 2344 91407 957562

4409 96183 373988

4n6 198788 72

079565 06 150

Ifyocqkijmbxgdnverwitnhatp

V 13 r> A Mr»TT>»/U/VIII>/-\T TIJC'ITr>E<V\/T'»/-<

1 KPCANDJRMWYHFQLIBSUOEXVTZG

Please print the following text in the box below: We, the People of the United States, in order to form » more perfe Ihuiquility, provide lor the common Defense, promote the general W

ounelvM and our posterity, do ordain and establish this CONSTITUl

iJUa^ 4he People at -fAe (inlh.cl t

aLn-)Ore per-'fed- Union e^fich
help determine whether the theory is valid," says Wilson.

The database consists of 2,100 pages containing 294,000

numbers and 728,700 alphabetic

characters. Each page contains

33 boxes for numbers and letters and one for printing the preamble

to the U.S. Constitution.

In addition the NiST researchers are working with the U.S. Inter- nal Revenue Service to develop more sophisticated tests as well as a model recognition system.

Says Wilson, "The best way to un- derstand how these systems work

and to develop generic, standard

tests is to build one."

So far, Wilson and his team

have developed software to ac- count for some of the factors that a recognition system would en- counter in the real world. These

include poor quality photocopies,

missing data, letters where numbers should be, and letters and

numbers written outside of the

More Standard Reference Databases

Reliable, well-documented data are invalua- ble to scientists and engineers for research as

well as development of new products such as

character recognition machines. With the proliferation of personal computers, standard refer- ence data can be more accessible and play a more critical role. Other NIST databases include: NIST/CARB Biological Macromolecular

Crystallization Database. This new computerized database for biochemists in industrial laboratories and universities brings together for the first time all of the published information on the successful crystallization of proteins and nucleic

acids. Pharmaceutical manufacturers use protein structures in rational drug design, and chemical

companies use protein structures as well to un- derstand and alter the action of enzymes. Information on the three-dimensional atomic structure of a protein is an invaluable aid in understanding

the protein's function. The database. Standard Reference Database

21 , is designed for personal computers (PCs)

and contains crystal data and the crystallization

conditions for more than 1 ,000 crystal forms of over 600 biological macromolecules. For each

crystal entry there is a complete description of crystallization conditions and related crystallographic data. The database also provides re- searchers with evaluated critical data on the physical characteristics of known crystals,

including unit cell parameters, space group,

crystal density, and diffraction limit. Available for $300, the database can be

stored on a hard disk of an AT- or XT-Class PC

where it occupies 2.8 megabytes.

Thermophysical Properties of Hydrocarbon

Mixtures (Supertrapp). This database. Standard

Reference Database 4, is used to calculate density, viscosity, and other important engineering

properties of hydrocarbon mixtures—petroleum,

natural gas, and organic materials. Supertrapp is designed to provide rapid access to vital information on the storage and

transportation of fluids, and for the design of new

chemical processes. The interactive program al- lows users to calculate quickly various thermodynamic and transport properties for pure fluids or for mixtures of up to 20 components that can

be selected from a database of 1 16 components.

Isothermal flash calculations can be per- formed to give an estimate of what fractions of a

bulk mixture, at a specified temperature and pressure, are in the vapor and liquid phases and the compositions and properties of those phases.

The properties that are calculated include density, enthalpy, entropy, heat capacity, sound

velocity, viscosity, and thermal conductivity.

The Supertrapp program is available for $490.

It can be stored on a hard disk of any AT-, XT-, or PS/2-Class PC where it occupies 256 kilobytes of storage space.

14
box on the form. The team has

developed algorithms based on

neural network technology that can be used on a parallel computer to recognize characters. A

neural network approach uses

the same principles as a human

brain would for functions such as

seeing, learning language, or manipulating objects.

According to Wilson this method allows characters to be

recognized in 4 milliseconds per image, with greater than

99-percent accuracy on machine

print and 80-percent accuracy

on unconstrained handprinted

characters. NIST Special Database 1—

Binary Images of Printed Digits,

Alphas and Text is available on

an ISO 9660 format CD-ROM disk

for $895. For ordering information, contact the Standard Refer- ence Data Program, A323 Physics BIdg., NIST, Gaithersburg,

Md. 20899, 301/975-2208.

by Jan Kosko

NIST Public Affairs Specialist

NIST/EPA/MSDC Mass Spectral Database.

More than 4,500 new analytical mass spectra

have been added to this database, which now

contains complete spectra for approximately

54,000 chemical compounds—^the only such colStephen E. Stein, technical director of the Mass

Spectrometry Data Center, displays masses of peaks

in the NIST/EPA/MSDC Mass Spectral Database.

lection of its kind. The database, used by analytical chemists and environmental scientists to identify unknown substances, comprises evaluated

electron ionization mass spectra on organic and

inorganic substances and related data on the molecular structures of compounds. Instrument manufacturers incorporate the spectral collection

into the data systems of thousands of mass

spectrometers where the data are used as comparison standards.

The database is available on standard dis- kettes for PCs or in a magnetic-tape format. PC

Version 3.0 of the database is available for $1,050 and is designed to be stored on a hard

disk of any AT- or PS/2-Class PC. NIST Thermodynamic Properties of Refrigerants and Refrigerant Mixtures

(REFPROP). This PC software package. Standard Reference Database 23, gives researchers

who use chlorofluorocarbons (CFCs) a tool for evaluating the performance of refrigerants and refrigerant mixtures. Users can assess several environmentally

acceptable refrigerants and mixtures as possible

replacements for currently used materials. The

tables also can be used to help determine the effi- ciency and capacity of a wide range of equipment that will operate with alternative refrigerants. Users can produce tables of thermodynamic

properties for 15 partially and fully halogenated

CFC refrigerants and 20 of their mixtures. Users

of REFPROP also can calculate other mixtures of the 15 refrigerants by using their own data. The REFPROP database is available for $225

and is designed to be stored on a hard disk of any AT- or XT-Class PC where it occupies 250

kilobytes.

Ordering information for these and other databases is available in the NIST Standard Refer- ence Data Products 1990 Catalog (NIST SP 782).

To obtain a copy, send a self-addressed mailing

label to the Standard Reference Data Program,

A323 Physics BIdg., NIST, Gaithersburg, Md.

20899, 301/975-2208.

15
Technologies of the

Future Identified

he Commerce Department has identified 12 "emerging technologies" that will create markets for an estimated $1 trillion in sales

by the year 2000 and listed actions that might be taken by both

industry and government to spur their commercial development

in this country. The outlook is contained in a report, Emerging

Technologies: A Survey of Teciinical and Economic Opportunities,

compiled by Commerce's Technology Administration. "The intent

is to continue our dialogue with in- dustry, not prescribe a remedy,"

Commerce Secretary Robert A. Mosbacher said of the report's findings. "It's up to industry to take a lead on which technologies to pursue. Government's role

will be to remove impediments."

In consultation with private in- dustry, the Technology Administration concluded that the 12 "emerging technologies" are among those most applicable to commercial opportunities and lie

in four areas: Advanced materials such

as ceramics, polymer composites, metal alloys, and super- conductors.

Electronics and information systems, including advanced

semiconductor devices, digital im- aging technology, high-density

data storage, high-performance

computing, and optoelectronics.

Manufacturing systems, including artificial intelligence, flexible computer-integrated manufacturing, and sensor technology.

Life sciences applications, in- cluding biotechnology and medical devices and diagnostics. For the report, an emerging

technology was defined as one in which research has progressed

far enough to indicate a high

probability of technical success

for new products and applications that might have substantial markets within approximately

10 years. "These technologies offer tre- mendous market potential," said Mosbacher. "But the United

States will benefit only if Ameri- can business shakes out some

cobwebs and takes some decisive actions. At the same time,

government should remove obstacles to competition."

To improve U.S. competitiveness, the report makes a number

of recommendations, among

them:

Lowering the cost of research

and development (R&D) capital

by a permanent tax credit. Improving engineering training

and education, particularly in manufacturing engineering.

Integrating R&D, design, and

manufacturing through such con- cepts as concurrent design, total quality control, and just-in-time

production.

16
Improving quality of products

and services using, for example

the quality control principles embodied in the Malcolm Baldrige

National Quality Award.

Encouraging U.S. companies

to focus on world markets instead

of solely domestic ones, including more aggressive pursuit of tech- nologies developed overseas that are crucial to American exploitation of emerging technologies.

Increasing private-sector

cooperation in technology

development by encouraging

joint production ventures and

lowering antitrust barriers. Reforming the product liability system.

Opposing restrictive trade

practices by other countries. The report expands and

brings up to date a similar Commerce study issued in 1987. It in- cludes an assessment of the positions of the United States, Japan,

and the European Community in developing and commercializing

the technologies, as well as the

driving forces that have created

the new competitive realities. While the world market for the emerging technologies is pre- dicted to be $1 trillion by the end

of the century, the U.S. market

would represent roughly one-third

of that total, or approximately

$356 billion. Detailed descriptions of the 12 emerging technologies, taken

from the report, can be found on pages 18 through 21 . The

descriptions include information

in eight areas. "Major Technology

Elements" lists specific tech- nology areas that describe the emerging technology. "What It Is"

is a brief non-technical description of the emerging technology

and its importance. "Underlying

Sciences" gives the specific

scientific or engineering competencies of critical importance

for the development and marketing of products based on the emerging technology.

Under "Engineering Barriers" are technical impediments that must be eliminated or circumvented before products based on

the emerging technology can be

marketed. Specific improvements

in processes, procedures, devices, or products that could result from the introduction of the emerging technology are listed as "What Is New or Better." "Im- pact on What Products or Processes" gives the products

and/or manufacturing areas that

will benefit directly from the emerging technology.

The major markets that could

profit from the emerging tech- nology are listed in "Likely

Markets or Industries." Estimates

of the total U.S. and world market

sizes expected to result directly

from the emerging technology are given under "Annual Sales by Year 2000." Copies of the report, Emerging Technologies: A Survey of

Tectinical and Economic Opportunities, are available from the

National Technical Information

Service, Springfield, Va. 22161

for $17. Order by PB #90-216557.

17
Advanced Materials

Major Technology Elements: Structural and

functional ceramics, ceramic and metal matrix composites, intermetallic and lightweight alloys,

advanced polymers, surface-modified materials,

diamond thin films, membranes, biomaterials. What It Is: Advanced metals and alloys, ceramic

and polymeric materials, and composites of these constituents used to produce devices and

structures having improved performance characteristics and special functional attributes. Underlying Science: Solid-state physics and

chemistry, interface and surface science, mechanics, fluid dynamics.

Engineering Barriers: Rapid and reliable processing methods are needed. Complex failure mechanisms need to be understood and related

to processing and service-produced microstructures. What Is New or Better: Improved functional and

structural properties like high-temperature

strength, creep resistance, and corrosion re- sistance for ceramics and intermetallic alloys;

composites offer high strength and stiffness combined with low weight, corrosion resistance, high

dimensional stability; technology for controlling

composition and processing that allows "de- signed in" properties.

Impact on What Products or Processes: Devices and structures used at very high temperatures or special service applications, aircraft, aerospace, transportation, electronics, construction, wear resistant items. Likely Markets and Industries: Aerospace, construction, engines, electronics, manufacturing,

energy. Annual Sales by Year 2000: US: $150 billion; World: $400 billion.

Advanced Semiconductor Devices

Major Technology Elements: Silicon, com- pound semiconductors (gallium arsenide), ultra- large-scale integration, memory chips, x-ray lithography.

What It Is: Improved materials, fabrication tech- niques, and advanced components and devices

for use in electronic equipment of all kinds. Underlying Science: Solid-state physics and

chemistry; surface and separation science; electrical and electronics engineering; electrical properties of materials; optical, x-ray, ion-beam fabri- cation methods.

Engineering Barriers: Difficulties in manufacturing at high volume, yield, and quality but low

cost. Must control contaminants and prepare

high-purity gases and liquids.

What Is New or Better: Improved speed,

higher operating frequencies, reduced size, higher density, multiple functions, lower cost, heat dissipation.

Impact on What Products or Processes: Inte- grated circuits, smart power transistors, semiconductor materials, micromachines, solar cells, memory chips, microprocessors.

Likely Markets and Industries: Electronics, tele- vision manufacturing, communications, computers, recording devices, medical and manufacturing equipment, toys and tools, aerospace—any

area that requires significant use of electronics. Annual Sales by Year 2000: US: $75 billion; World: $200 billion.

Artificial Intelligence

Major Technology Elements: Intelligent machines, intelligent processing of materials and

chemicals, expert systems.

What It Is: Electronic and electromechanical

systems incorporating knowledge-based control systems.

Underlying Science: Data structures, data man- agement systems, software engineering, servo

engineering, biological and cognitive sciences

and engineering, numerical analysis, statistical physics.

Engineering Barriers: Size of databases, computational speed, lack of formal tools for knowledge representation.

What Is New or Better: Improved performance

over current systems, which are, at most,

capable of a limited number of responses to events fully anticipated in advance; improved

graphical representation of results. Impact on What Products or Processes: Manufacturing of machine tools, robots, construction

equipment; materials and chemical processing;

computer-aided design; signal and image processing; analysis of medical tests or symptoms.

Likely Markets and Industries: Manufacturing,

mining, security, health care, construction, materials processing, communication and financial services. Annual Sales by Year 2000: U.S.: $5 billion; World: $12 billion.

18
Biotechnology

Major Technology Elements: Bioprocessing,

drug design, genetic engineering, bioelectronics. What It Is: Production of high value-added bio- logical products on a commercial scale; modification of the genetic machinery of living cells to pro- duce useful biochemicals.

Underlying Science: Genetic engineering,

molecular biology, chemical engineering, bio- chemistry, biophysics.

Engineering Barriers: Difficulty in controlling

processes in large-scale bioreactors and making

economical large-scale separations; lack of measurement tools, data, and knowledge to control cellular processes and to elucidate protein

structure/function relationships for intelligent product and process design.

What Is New or Better: Biosensors for on-line, real-time control; new and efficient separation

and purification methods; new or better tech- niques to produce natural and/or new biochemicals; more efficient bioprocesses.

Impact on What Products or Processes: Pro- duction of high value-added chemical products

and new engineered chemicals.

Likely Markets and Industries: Pharmaceutical

and related products; foods, flavors, and fra- grances; agrichemicals; commodities and fuels; pollution abatement.

Annual Sales by Year 2000: U.S.: $15-40 billion; World: $40 billion.

Digital Imaging Technology

Major Technology Elements: High-definition

systems, high-definition television, large displays,

data compression, image processing.

What It Is: Use of digital technology to store, dis- play, process, analyze, and transmit images.

Underlying Science: Electronics, artificial intel- ligence, communications engineering, surface

science, solid-state physics, chemistry.

Engineering Barriers: Large, high-resolution

(flat) displays, storage requirements for digital in- formation, effective utilization of bandwidth, computer speed and memory, ability to recognize

characteristic features in complex images.

What Is New or Better: Advances in digital cameras, high-volume information storage and

retrieval, high-speed computing (including parallel processing), higher resolution video display.

Impact on What Products or Processes: In- dustrial processes in which the human eye or other detectors are used for inspection and monitoring, photography, printing, television, computer manufacture, process control systems, tele- communications.

Likely Markets and Industries: Electronics, computers, process control and inspection, medical

diagnostics, consumer electronics, telecommunications, broadcast television, satellite broadcast, data storage, defense industries, nondestructive inspection and evaluation. Annual Sales by Year 2000: US: $3 3-4 3 billion; World: $5 billion. EH Flexible CIIVI

Major Technology Elements: Computerintegrated manufacturing (CIM); computer-aided

design, engineering, manufacturing, and logistics

support; flexible manufacturing systems; product

data exchange specification; control architectures; adaptive-process control. What It Is: A new approach to manufacturing

and construction requiring not only technology

but management and engineering adjustments; use of computers, robots, and intelligent machines in the total manufacturing and construction enterprise; integration of both the materials handling and processing systems as well as the planning, logistics, and business systems.

Underlying Science: Control theory; operations

research; electrical, mechanical, manufacturing,

and industrial engineering; business and man- agement science.

Engineering Barriers: Need for data structures

to describe product and process, concurrent

engineering to integrate design and manufacture, more reliable machines, automated process planning, "smarter" robots, more accurate and

inexpensive sensors. What Is New or Better: Reduced cost and time

to manufacture, improved quality; competition by

scope and variety of product line; reduced in- ventory, manufacturing to order rather than to plan.

Impact on What Products or Processes: Manufacturing discrete and batch parts, economical

small lot manufacture, continuous and adaptive processes, chemicals, pharmaceuticals, steel, paper, textiles, residential and commercial construction, public works.

Likely Markets and Industries: High-tech manufacturing, automotive, construction, home appli19
ance, computers, office machines, maclnine

tools, aerospace.

Annual Sales by Year 2000: U.S.: $10-20 billion; World: $20-40 billion.

High-Density Data Storage

Major Technology Elements: High-density magnetic storage (including perpendicular recording), magneto-optical storage.

What It Is: Erasable (read/write) data storage

offering several orders of magnitude improvement in information storage density.

Underlying Science: Optical physics, surface

science, magnetics, solid-state physics, mechanical engineering, fluid dynamics (aerodynamics).

Engineering Barriers: Magnetic disk and tape:

interaction between read-write head and magnetic media surface; crosstalk; size of information

cells (domains); flatness (of disks); error detection. Magneto-optical disk: mass of read head

that slows access time; relaxation effects; spacing of tracks; tracking; size of information cells. What Is New or Better: Magnetic disks with thin- layer technology: steady increases in information density (doubles about every 3 years); reduced access time (mean time to get to data from ran- dom location on disk or tape). Magneto-optical

disks: very high information densities; reduced

danger of contact with storage media and lower

cleanliness requirement offer potential of high reliability and provide removable media.

Impact on What Products or Processes: Data

storage devices, home and studio audio and

video, computers, communications, television, consumer cameras, office information storage

systems.

Likely Markets and Industries: Computers, of- fice equipment, recording systems, cameras. Annual Sales by Year 2000: US: $15-100 billion; World: $30 billion.

High-Performance Computing

Major Technology Elements: Modular/transportable software, numerical simulation, neural networks. What It Is: Design and development of architec- tures for rapid and efficient processing, development of ways to program large systems to per- form complex tasks. Underlying Science: Software engineering, mi- croelectronics, optoelectronics, data structures

and algorithms, numeric and symbolic methods,

computational science and technology.

Engineering Barriers: Reliability, accuracy, and

automated development deficient; difficulty in specifying and designing software; costly and

time consuming development; difficulty in testing

for failures that might occur during use. What Is New or Better: Can address large problems of numerical and scientific computing such

as weather forecasting, hydrodynamics, aerodynamics, weapons research, prototyping of products and facilities, high-energy physics.

Impact on What Products or Processes: Computer and communication systems of all sizes; networking; word processing; information re- trieval and distribution; database management;

manufacturing processes; engineering design;

science, research, and development in all fields. Likely Markets and Industries: Manufacturing,

business, service industries, research organizations, product, process, plant prototyping.

Annual Sales by Year 2000: US: $50-100 billion; World: $100 billion.

IVIedical Devices and Diagnostics

Major Technology Elements: Cellular-level sensors, medical imaging, in-vitro and in-vivo analysis, targeted pharmaceuticals, fiber optic probes.

What It Is: Health-care diagnosis and treatment equipment and supplies based on new sensors, biotechnology processes, and imaging devices.

Underlying Science: Immunology, microbiology,

biology, electronics engineering.

Engineering Barriers: Need to design instru- ments with little or no invasion of the human

body; cellular level devices and diagnostics

require miniaturization. What Is New or Better: Capability to detect and

understand defects at cellular level; opportunity

to harness biomolecules as sensitive probes;

minimized trauma during treatment and diag- noses; improved diagnostic and therapeutic

systems.

Impact on What Products or Processes: Diagnostics and treatment equipment; health-care products, including diagnostic instrumentation

such as magnetic resonance imaging and computer-aided tomography scanning; clinical analyzers; radiation treatment. Likely Markets and Industries: Health care, instrumentation, pharmaceutical, medicine.

Annual Sales by Year 2000: U.S.: $8 billion; World: $16 billion.

20
Optoelectronics

Major Technology Elements: Integrated optical

circuitry, optical fibers, optical computing, solid- state lasers, optical sensors. What It Is: The use of light (visible, infrared,

ultraviolet radiation) as the means to transmit, process, and store information. Underlying Science: Optical physics and engineering, solid-state physics, surface science,

electronic engineering.

Engineering Barriers: Device speed; integration

of components with electronic devices; laser per- formance; materials limitations. What Is New or Better: Improved information handling capacity and signal quality, reduced

sensitivity to interference, increased processing

speed and data storage capacity.

Impact on What Products or Processes: Longdistance and local fiber optic systems; electrical, mechanical, and thermal sensors; computers;

chemical and mechanical manufacturing

processes.

Likely Markets and Industries: Telephone, tele- vision, teleconferencing, on-demand audio and

video programming, telecommunications, electric power, computers, manufacturing, medical diagnostics and therapy.

Annual Sales by Year 2000: US: $4.6 billion; World: $10.8 billion. (Optical fiber communication

components only—optical sensors alone add

$1 billion worldwide.)

Sensor Technology

Major Technology Elements: Active/passive

sensors, feedback and process control, nondestructive evaluation, industrial and atmospheric

environmental monitoring and control. What It Is: Devices that provide a signal (generally optical, electrical, or acoustical) that accurately reflects process parameters in real time. Underlying Science: Electronics, nondestructive

evaluation, control theory, mechanical and in- dustrial engineering.

Engineering Barriers: Lack of one or more of the following characteristics: range, stability, precision, resistance to harsh environment, selectivity, sensitivity, poor integration of sensors and sig- nal processing.

What Is New or Better: More accurate measure- ment of parameters in real-time under a wider

range of conditions due to better materials, fabrication techniques, and more complex electronics and data processing.

Impact on What Products or Processes: Continuous process industries like materials, food

and beverage, pharmaceutical, chemical, bio- chemical, smelting and refining, waste management, construction, manufacturing.

Likely Markets and Industries: Chemical smelting and refining, pharmaceutical, food and bever- age, electric power, materials. Annual Sales by Year 2000: U.S.: $5 billion; World: $12 billion.

Superconductors

Major Technology Elements: High-temperature

ceramic conductors, advanced low-temperature

conductors.

What It Is: Superconducting materials having

critical transition temperatures (Tc) above 77 K

(boiling point of liquid nitrogen); low-temperature

superconductors with improved performance

characteristics and materials properties.

Underlying Science: Solid-state physics,

ceramic processing science, electronic engineering, surface science.

Engineering Barriers: Low-current densities and

strengths in bulk forms; composition and en- vironmental stability; integrated circuit fabrication technology; economical refrigeration techniques.

What Is New or Better: Reduced cost by elimi- nating liquid helium as coolant; low-temperature

superconductors yielding sophisticated inte- grated devices, even first microprocessors;

powerful magnets for research and medical diagnostics; magnetically levitated trains. Impact on What Products or Processes: Electronics; electrical transmission, switching, motors,

and controls; electric power generators; medical

diagnostic equipment; rail and ship transportation; computers; particle accelerators. Likely Markets and Industries: Electronics and

data processing, electric power equipment, medical diagnostics, transportation equipment, highenergy physics.

Annual Sales by Year 2000: U S.: $3-5 billion; World: $8-12 billion.

21
To Measure a

Molecule

n the past, we saw them only in the nnind's eye, as little balls and

springs we used to visualize chemical reactions and physical laws.

Now atoms and molecules are taking on real substance as we invade their realm. We peer at them through powerful microscopes and

build devices with dimensions just a few atoms across. We explore

and build on a scale in which atoms and molecules exert their individual

identities, the way a snnall enough

pinch of the finest dust acts like a

collection of boulders. But scientists easily lose their way while exploring this un- charted world. They lack the tools

to measure or track positions accurately. To help thenn get their bearings, National Institute of Standards and Technology physicist Clayton Teague conceived of a machine to survey positions in the atomic-scale world. Teague

and his colleagues aim for a

"molecular measuring machine"

or M cubed for short, with the power to measure the spacing of individual atoms separated by as much as 5 centimeters. If it works, it will provide measure- ments that are of increasing im- portance to people in the electronics and optics industries. "The hard part will be discerning things so far apart," says Teague. "The separating distance

spans a billion times the diameter

of the objects measured." Measuring that much relative distance is a feat equivalent to measuring the

distance between two short needles in a haystack the size of the Earth. The machine will build on the technology that gave us our first glimpse of atoms in the early

1980s with the scanning tunneling microscope (STM). But the

Measuring that much

relative distance

is a feat equivalent

to measuring the

distance between two

short needles in a haystack the size

of the Earth.

tunneling microscope gave a sort

of tunnel vision view, limited to a

field only a few hundred or thou- sand atoms across. The M cubed

will use the same sharp-eyed

probe the STM uses to find atoms

but will then expand on the STM's

range. With excruciatingly fine- tuned carriages and carefully

aimed lasers, it will measure the

vast distances between individual atoms separated by billions of atoms. The U.S. semiconductor in- dustry has a growing need for exactly this sort of measurement.

For semiconductor makers to create more powerful computer

chips, they need to squeeze more intricate electronic circuitry

patterns onto these chips. The in- dividual "devices" that channel

current and store information on

these chips get tinier and tinier. Manufacturers go through

many painstaking steps to etch

delicate networks of devices onto

silicon chip surfaces. They re- peatedly shine light through

stencil-like "photomasks" to ex- pose light-sensitive chemicals on

the chips in just the right patterns

and then etch out the exposed, or sometimes the unexposed areas. Chipmakers need to position

these masks with ultra-high preci- sion to avoid misaligning the circuit patterns, producing worthless devices.

22
To make the next generations

of powerful nnemory and proc- essing cfiips, manufacturers will need to align masks mucin better

tfian our present measuring and

positioning ability allows. Even

with current dimensional toler- ances, often only about 1 in 5 or 10 of the new and more complicated chips work properly. Many

factors contribute to such low

yields, but if M-cubed brings its hoped-for capability, it will provide the nation's electronic

industries with an essential measurement reference for characterizing mask geometry and

feature critical dimensions.

league shows how the outer workings of the machine will fill

his whole lab, surrounding the machine's heart like a series of

shells. The heart of the M cubed

fits into a copper sphere the size

of a basketball.

The laser beams

work as virtual tape

measures, graduated

in increments about

1 atomic diameter

apart.

This copper sphere houses

the sample and the scanning tun- neling microscope probe, which

finds specific atoms. The probe

has a very sharp tip (it ends in a

single atom), which scans the sample like a record-player

needle. It doesn't actually touch

the surface but hovers only about

10 atom-diameters above it.

M cubed team members work with rigging contractors to install the vacuum system into an en- vironmental enclosure, which will shield the device and its sample from outside disturbances.

At this distance, the electrons belonging to the STM probe overlap with electrons from the sample's atoms. As the scientists apply an electric field to the tip, a

few of these overlapping elec- trons travel or "tunnel" from the

tip to the sample. The rate of this tunneling depends greatly upon

the distance between the tip and

sample. An atom-sized bump

shortens this distance enough to make the tunneling rate soar and

plummet, allowing the instrument

to trace the contours of atoms

over a surface of metal or silicon. Thanks to the STM, finding

atoms is relatively easy. To measure the distance between

two objects, the instrument must be able to fix the position of

atoms relative to some stable ref- erence point. The machine will position the probe over the sample with carriages that move

in precise increments. In the current design, the carriages glide on sapphire-coated "pads" over

surfaces of very smooth metal. Teague doesn't expect to move

these carriages with atomic-scale

precision, but he and the team

members have taken extreme

care in their attempts to make the motion repeat with such precision, using calculations to correct

for any inaccuracies.

To read the horizontal dis- tance from his probe to some

reference point, he will bounce

lasers between them. The laser beams work as virtual tape measures, says Teague, graduated

in increments about 1 atomic

diameter apart—if all goes well.

23
But in the real world, the dis- tance between a probe and a test specimen can vary wildly. The

softest voice, remote vibrations, or distant footsteps can jostle the probe around by distances many

times larger than the atoms being

measured.

To create the M cubed with its promised ability, Teague is fight- ing a war against vibrations with vacuum chambers, isolators, and

temperature regulators that will enshroud the instrument in the lay- ers filling the whole room. Two vi- brational and acoustical isolation shells shield the machine and

sample from any disturbance.

Also, a temperature-controlled

chamber keeps the temperature

constant to within one-thousandth

of a degree. Knowing the exact temperature is critical because

positions depend on the temperature. Carrying a carefully

measured sample into a warmer

room will expand the material, in- creasing the distances between

points and invalidating measure- ments made in the cooler room. Only by knowing the exact temperature upon measurements

can scientists adjust these values as the temperature changes.

If it succeeds, the M cubed

will hold one of the keys to an

ever shrinking world of useful gadgets. Today, the microscopic

devices that channel current and

store information on computer

chips approach the "critical di- mension" beyond which a material stops behaving like a uniform mass and starts acting like handfuls of discrete atoms. And yet, many in the electronics industry

predict that we can soon expect

1 ,000 times the memory storage

packed in PC-sized computers.

Can it be done?

Physicist Richard Feynman

answered a definite yes to that question back in 1959 in a paper

entitled "There's plenty of room at the bottom." In this paper he described the idea of storing infor- mation on devices like computer

chips (invented many years later) and shows that there is far more

room in small spaces than we

have begun to exploit 30 years

later. It is within the laws of physics, and probably the ability of man, he said, to fit all of the pages of all the books ever writ- ten into a space the size of a dust

speck. But before we can start to

utilize all this space, we need to learn to work—and measure

within the scale of atoms and

molecules.

by Faye Flam

Washington, D.C.-area science writer

TEMPERATURE

CONTROL SHELL

ACTIVE

ISOLATION SHELL

VACUUM

SHELL

CORE STRUCTURE

ACOUSTIC

SHELL

24

12 --

(IN)

1 2

This diagram is a cross section of the molecular measuring machine's mechanical structure.

24
Key Industries Invest

To Boost Quality

emiconductor and optical fiber firms in the United States have

drannatically increased investments in quality practices over the

past decade. Many are now tunneling as much as a third of

their operating budgets into total-organization approaches that

aim to assure quality of both products and related services.

This is a key conclusion of a report prepared by Quick, Finan & Associates

(QFA) for the National Institute of standards and Technology.

The study, covering the 1980-

89 period, surveyed managers of prominent companies in the semiconductor and optical fiber in- dustries. The study was commissioned to help NIST shape its own research programs, which

assist and leverage measurement

and quality aspects of industrial research and development.

"This study likely marks the

first attempt to obtain detailed

quantitative information on in- dustrial investment outlays for

quality," says Gregory Tassey, a

senior economist at NIST who

coordinated the study.

Semiconductors, integral

parts of most electronic systems,

and optical fibers, glass strands

that are revolutionizing the tele- communications industry, were

chosen for the QFA study be- cause they offer excellent ex- amples of U.S. high-technology

industries today. Both industries were found to be investing in quality—though at different rates—in

the face of international competition. Also, because the two in- dustries have few organizational

similarities, the study was able to address the influence of industry

structure on the level and kind of quality investments.

"This study likely marks

the first attempt to

obtain detailed

quantitative information

on industrial investment

outlays for quality."

in the case of semiconductors, U.S. companies are facing

fierce foreign competition, and

their survival is intimately tied to how well they implement quality programs. Thus, the QFA report says, the semiconductor industry

has embraced closely the total

quality philosophy of its Japanese

competitors, which seeks continu- ous improvement not only in product value, but also in service

levels, delivery, and production

capability. This approach to quality pervades virtually all aspects

of a firm's operations, from re- search and development, to manufacturing, to customer and

vendor interactions. Domestic customers of U.S. semiconductor firms, expecting

the same level of quality they get

from Japanese suppliers, have

pushed U.S. manufacturers to re- think their quality philosophy. "Be- cause of competition and pres- sure from major customers, the

U.S. semiconductor industry has

moved at least as far as any other domestic industry in quality im- provements," Tassey says. "In some respects it now serves as a model of quality assurance practices for U.S. industry as a whole." The U.S. optical fiber in- dustry, still dominant in global

markets, has been somewhat

slower to implement a comprehensive quality program. This in- dustry has set some quality im- provement in motion in recent

years, but the QFA study found

25
that fiber manufacturers define

quality more in the traditional sense: ensuring that a product

conforms to specifications and is well fit for its intended use. This

relatively slower pace of change

may be due to the fact that competition is an important but not yet

overwhelming factor in determining corporate quality strategy, as

is the case for semiconductors.

Still, the industry spends as much

as one-fifth of its operating

budget on quality, much higher

than its foreign competition.

One goal of the QFA study was to determine what percentage of quality resources is allo- cated for measurement needs in each industry. Because tech- nology is increasingly complex,

measurement is more important

than ever to manufacturers. Bad

measurement can mean wasted

time and defective products.

Technology-intensive industries

typically apply generic measOne goal of the QFA

study was to determine

what percentage of

quality resources

is allocated for

measurement needs

in each industry.

urement technology at some or most phases of the research and

development, manufacturing, and

marketing chain. The two in- dustries were chosen for this study on the expectation that measurement technology invest- ments would be an important

component of total quality-related

investment outlays.

The study found that the semiconductor industry, which spends

between 20 and 35 percent of its

total operating budget on quality, allotted 15 to 40 percent of this investment in quality to measurement. Optical fiber companies,

estimated to spend 17.5 percent

of their total budget on quality- related programs, used

27.5 percent of their quality funds

for measurement. "These sizable sums are not surprising," Tassey

says, "due to the increased awareness of measurement im- portance." As for NIST measure- ment programs, all semiconductor industry respondents to the study and most of those from the

optical fiber industry indicated

that they use NIST services. The QFA study also found that both industries were in various

stages of implementing a quality

manufacturing concept called concurrent engineering, which

merges efforts to speed and im- prove not only a product's design

but also its ease of manufacturability. Tassey explains: "There was a time not too long ago when

design departments and production departments were separate

entities in companies. A product

design was literally handed over

the wall to the manufacturing department, which was left to its own devices to come up with a

cost-effective method for manufacturing the product. Now, companies are increasingly merging

these two departments allowing

designers to create a product

that not only does the job but also

is easy to manufacture. It's a much more efficient way to do

business."

Bad measurement

can mean wasted

time and defective

products.

Tassey says lessons learned from the QFA study can be applied to the larger picture of how

U.S. high-technology industries are implementing strategies for

quality. He emphasizes, however,

that other studies need to be

done to definitively evaluate the

quality programs of industries such as chemicals and electronics. But experience from the QFA

study indicates that information on quality programs won't come

easily. In the case of semiconductors and optical fibers, the study

found that specific quality strate- gies are so new to both industries

that responses to queries on quality were not readily available through internal accounting.

Copies of the 244-page QFA

report, U.S. Investment Strategies

for Quality Assurance, are avail- able free of charge. To obtain a

copy, send a self-addressed mail- ing label to Quality Report, c/o

Gregory Tassey, Program Office,

A1002 Administration BIdg.,

NIST, Gaithersburg, Md. 20899.

The report also will be available from the National Technical Infor- mation Service.

by John Henkel

NIST Public Affairs Specialist

26
No Evidence for

Fifth Force Found

he most sensitive gravity experiment of its kind ever conducted

has failed to find evidence for a suggested "fifth force" in nature,

according to researchers at the Joint Institute for Laboratory

Astrophysics (JILA) in Boulder, Colo. The results, which appear

in the October 15 issue of Physical Review Letters, rule out the

existence of any such force at the magnitudes previously suggested.

The experiment was carried out by a team of scientists working with James E. Faller of JILA, a

cooperative venture between the

University of Colorado at Boulder

and the National Institute of Standards and Technology.

"Gravity, which glues the uni- verse together, is thought to be

understood on the scale of planetary distances," Faller said. "However, the possibility of a fifth force, as first suggested in 1986,

raised the intriguing and fun- damental question of the exis- tence of a small and heretofore undetected short-range component to gravity that would act over distances of up to a few

miles." The experiment measured

gravity at various heights on a

1 , 000-foot meteorological tower

located 15 miles east of Boulder

in Erie, Colo. These measure- ments were then compared with the values that were predicted

from surface gravity measure- ments and Newton's inverse- square law.

"We found superb agreement

between the measured values

and the Newtonian predicted

values," Faller said. "Newton has

been vindicated on the plains of Colorado."

Gravity decreases the further away something is from the center of the Earth, and also from lo- cation to location depending on

whether there is a mineral deposit

or other variation in density. In order to determine gravity accurately in the vicinity of the Erie tower, the scientists combined

30,000 existing surface gravity

measurements, covering a region

roughly the size of Colorado, with 265 team-made measurements

within a 5-mile radius of the tower. Gravity measurements were made at eight different heights on

the tower on about 10 occasions

over a 2-month period. Tower

measurements had to be made

between 10 p.m. and 6 a.m. to avoid interference by wind and

the thermal heating of the tower by the sun, Faller said. Great care and attention to a myriad of details were required to

obtain the achieved measure- ment accuracy. The experiment

took slightly less than a year to conduct and cost $1,000 for rental of the tower, Faller said. All other equipment was borrowed.

The four known forces of nature are gravity, electromagnetism, the strong force that binds atomic nuclei, and the weak force that causes radio- active decay.

Faller's co-authors were Clive Speake (now at the University of Birmingham, England), Tim

Niebauer (now at the Max Planck

Institute for Quantum Optics,

Munich), Martin McHugh and

Paul Keyser of JILA, Jamie Cruz

and Chris Harrison of the Geodynamics Corp. of Santa Barbara,

Calif., Jaako Makinen of the Fin- nish Geodetic Institute in Helsinki,

and Raul Beruff of the Cheyenne,

Wyo., office of the U.S. Defense

Mapping Agency.

by Peter Caughey

University of Colorado science

writer and

Collier Snnitli NIST Public Affairs Specialist

27
Tech Transfer Awards

Announced

he Commerce Department's Technology Administration (TA)

has announced the award of nine grants totaling $910,845 to

state governments to support programs that transfer federal

government technology to private industry. "One of the most

exciting developments of the last few years in the area of

technology transfer has been the appearance of an impressive array of

imaginative, aggressive pro- grams sponsored by state and

local governments," said Under

Secretary Robert M. White, who

heads the Technology Administration. "We're pleased to be able to make this contribution to that im- portant effort." The State Technology Extension Program was established

under the 1988 Technology Competitiveness Act and is administered by the National Institute of Standards and Technology, a

part of the Technology Administration. The grants are available for projects which either demonstrate

cooperative programs with federal laboratories that can

increase the use of governmentdeveloped technology by in- dustry, or help businesses take advantage of services and infor- mation available from NIST or the NIST Regional Centers for the Transfer of Manufacturing Technology. This is the first year that funding has been available for such grants.

"We see these grants as an

experiment in technology transfer," says NIST Director John

Lyons. "Each was selected for some new, innovative approach

to our goal, making the fruits of federal research and development more accessible to U.S.

industry."

NIST officials said the winning projects, which must

provide matching funds, were

selected based on technical merit and innovation from among 43

proposals.

Brief descriptions of the winning projects are given below.

Arkansas ($125,000). The

Arkansas Science and Technology Authority will sponsor a

statewide initiative linking existing

business assistance providers

with newly formed technical as- sistance providers. These teams

will work with Arkansas busi- nesses to solicit, evaluate, and

fund specific federal technology

transfer projects. For more information, contact

the Arkansas Science and Technology Authority at 501/371-3554.

Georgia ($65,719). The Industrial Extension Service at the Georgia

Institute of Technology plans to demonstrate a variety of methods

for technology transfer in its differ- ent operating regions of the state. The transfer methods to be demonstrated include: conferences,

videos, mass mailings of literature on federally developed tech- nology, and feasibility audits. For more information, contact

the Industrial Extension Service,

Georgia Institute of Technology at 404/894-6100.

Maryland ($49,797). The University of Maryland Technology Ex- tension Sen^/ice will create and

promote the Maryland Technology Commercialization Coalition. This coalition will include federal laboratory technology

transfer agents, consultants from

the University of Maryland's Technology Extension Sen^/ice, a repre- sentative from the university's

Technology Liaison (patent

licensing) Office, invited industry

principals, Maryland Department

of Economic and Employment

Development liaison, and a

28
separate technical and business

team with the mission of investi- gating suggested new technologies for viability in the commercial

marketplace.

For more information, contact

the Technology Extension Service, University of Maryland at 301/405-3883.

Massachusetts ($129,068). The

Massachusetts Center for Applied Technology, a project of the Massachusetts Centers of Excel- lence Corporation (a quasi-public

agency), will join with the Technologies for Effective Cooperation

Network and two programs of the state-funded Industrial Services

Program to help businesses in Massachusetts take advantage of the services and information offered by the NIST Northeast

Manufacturing Technology Center (NEMTC).

For more information, contact

the Center for Applied Technology at 61 7/727-7430.

Michigan ($165,089). The ap- proach of the Michigan Department of Commerce to technology

transfer is to develop specific

plans for key industries in the

state's economy. This includes:

identifying potential companies

that are good candidates for tech- nology transfer; matching them

with potential federal providers of the technologies; and providing

assistance in the development of an "Action Plan" of specific steps

and requirements to bring the appropriate technology to use or commercial application.

The demonstration project will focus on up to four key industries

(plastics, tooling, capital equipment producers, aluminum casting) to maximize the potential re- turn on investment. For more information, contact

the Michigan Modernization Service, Michigan Department of Commerce at 517/373-741 1

.

Minnesota ($60,000). Minnesota

Project Innovation Inc., in cooperation with the Department

of Trade and Economic Development, the Greater Minnesota Corporation, and other public and

private organizations, plans to recruit between 200 and 300 Minnesota high-technology firms, educate them on the status of relevant federal technologies,

and acquaint them with the federal laboratory process through a

series of technical workshops.

For more information, contact

the Minnesota Project Innovation

Inc. at 612/338-3280.

New York ($75,000). The New

York State Science and Technology Foundation project is to assist businesses in gaining access

to the services and information offered by NEMTC at Rensselaer

Polytechnic Institute. The strategy is to ensure maximum cooperation and coordination between the New York Industrial Technology Extension

Service (ITES) and the NEMTC,

ultimately integrating ITES with the center for the training of tech- nology extension agents.

For more information, contact

the New York State Science and

Technology Foundation at 518/474-4349.

Pennsylvania ($150,000). The

Pennsylvania Office of Technology Development plans to strengthen the competitive per- formance of a critical segment of Pennsylvania's manufacturing

base: the 2,100 metalworking and

precision machining firms that constitute more than 10 percent

of Pennsylvania's industrial economy. The grant-supported

program will establish links be- tween the Pennsylvania Industrial Resource Network and the two NIST regional Manufacturing

Technology Centers that border

Pennsylvania (the Northeast

Manufacturing Technology Center at Rensselaer Polytechnic Institute and the Great Lakes Manufacturing Technology Center at Cuyahoga Community College in Ohio). For more information, contact the Pennsylvania Office

of Technology Development at 717/787-4147.

Tennessee ($91,172). The Ten- nessee Department of Economic

and Community Development will contract with the University of Tennessee's Center for Industrial Services to establish a Tennes- see Technology Extension Pro- gram that will network the capabilities of various organizations in the state to provide manufacturing technology transfer to busi- nesses in the state. For more information, contact

the Tennessee Department of Economic and Community

Development at 615/741-1888.

by Michael Baum

NIST Public Affairs Specialist

29
NewPublications

Government's Role in StandardsRelated Activities: Analysis

of Comments

Leight, W.G., Natl. Inst. Stand. & Tech.

(U.S.), NISTIR 4367, 36 pages (July

1990). Order by stock no. PB #90-

215534FAH from NTIS, $15 prepaid

(plus $3 handling).

Athorough analysis of the recordand comments from the April 3-5, 1990, hearing on the federal role

in international standardization indicates

that the private sector opposes signifi- cant changes to the current standards

development system. In this publication,

NIST reports that the private sector rec- ognizes a need for a strong government

role in conformity assessment to ensure

foreign acceptance of products tested in the United States. Proposed improvements relate to the private sector institut- ing its own oversight mechanisms,

increased informational and educational programs, intensified government efforts

for greater participation by agency experts, wider use of international standards, and financial support by the private sector for small and medium-sized company participation in international stand- ards activities. Proposals for conformity

assessment include a call for the govern- ment to intensify its efforts to ensure for- eign acceptance of products tested and

certified within the United States.

U.S. Department of Energy Risk

Assessment Methodology

Roback, E., NIST coordinator, Natl.

Inst. Stand. & Tech. (U.S.), NISTIR 4325,

194 pages (May 1990). Order by stock

no. PB #90-244484FAH from NTIS,

$23 prepaid.

Animportant part of developing a computer security program is weighing the costs of controls against the risk of loss. Controls more ex- pensive than the information they protect

are not cost effective. To achieve a

balance, NIST is investigating ways to identify risks and select appropriate costeffective computer security measures.

This includes making available information on methods developed by other federal agencies. This publication describes

the risk assessment method used by the

U.S. Department of Energy (DOE). Their approach specifies six steps, including

defining the system, software, and data;

identifying threats; selecting counter- measures; and obtaining management

review, participation, and accountability.

Worksheets and tables needed for each

step are included.

GATT Standards Code Activities

of the National Institute of

Standards and Technology 1989

Overman, J.R., Natl. Inst. Stand. &

Tech. (U.S.), NISTIR 4314, 49 pages

(April 1990). Order by sending a self- addressed mailing label to Standards

Code and Information Program, A629

Administration BIdg., NIST, Gaithersburg,

Md. 20899.

This annual report describes the

role of the NIST Standards Code

and Information Program (SCI) in support of the GATT Agreement on Technical Barriers to Trade (GATT Standards

Code). Also given are statistics on 10

years of the codes's implementation in the United States. SCI staff operate the

U.S. GATT inquiry point for information on standards and certification activities that might affect U.S. trade. SCI also coordinates comments on foreign regulations, arranges for translations of foreign

texts, and maintains the GATT "hotline" (301/975-4041 ) for the latest information on notifications of proposed foreign regulations issued by the GATT Secretariat in Geneva.

High-Technology Office

Evaluation Survey—A Pilot Study

Rubin, A., Natl. Inst. Stand. & Tech.

(U.S.), NISTIR 4354, 68 pages (June

1990). Order by stock no. PB #90-

244427FAH, $17 prepaid.

What is the most important

feature in an office? How important are design and furnish- ings? These are questions NIST

researchers recently asked office space

designers and facility managers from 22

major corporations and government

agencies. The survey was conducted to provide insights about how offices and

workstations are planned and designed.

Included were the effects of technology on design, space allocations, and sys- tems furnishings. Respondents rated

functionality, privacy, storage, and aesthetics as the top features needed for a

high-quality workplace. In comparing

today's offices with those of 5 years ago,

they said that design and furnishings are more important now and that more space

for support activities is needed.

Center for Electronics and

Electrical Engineering Technical

Progress Bulletin

Natl. Inst. Stand. & Tech. (U.S.), NISTIR

4323, 46 pages (June 1990). Order by

sending a self-addressed mailing label

to Center for Electronics and Electrical Engineering, B358 Metrology BIdg.,

NIST, Gaithersburg, Md. 20899.

NIST measurement programs in semiconductor technology, sig- nals and systems, electrical power, and electromagnetic interference are described in this bulletin. NIST's Center for Electronics and Electrical Engineering provides national reference

standards, measurement methods,

supporting theory and data, and traceability to national standards. The publication includes abstracts of papers and

30
published works arranged by topic (with

phone numbers of contacts). Semiconductor subjects covered include silicon materials, dimensional metrology, photodetectors, and device physics and modeling. Also included are sections on

waveform, antenna, cryoelectronic, electro-optic, optical fiber, and power sys- tems metrology.

State Weights and Measures

Laboratories: State Standards

Program Description and

Directory

Harris, G.L, Natl. Inst. Stand. & Tech.

(U.S.), NIST Spec. Pub. 791, 68 pages

(June 1990). Order by stock no. 003-003-

03024-4 from GPO, $3.75 prepaid.

This directory is designed to help

manufacturers and others in commerce and industry locate and obtain needed measurement services. The

publication is a guide to state and other labs certified by NIST that are capable of performing reliable measurements with

staff trained in proper procedures. To be

certified in a particular area, each state must have a trained metrologist and an adequate facility, and must demonstrate on a continuing basis that it is capable of providing valid measurements. NIST certi- fication indicates the laboratory is capable of providing a measurement

service, but each state is responsible for verifying its measurement traceability.

The directory contains the following infor- mation for each lab: the certification period, if certified by NIST; lab staff members, addresses, and telephone or fax numbers; services available; and

fees, if any, for services.

Guidelines for Pressure Vessel

Safety Assessment

Yakawa, S., Natl. Inst. Stand. & Tech.

(U.S.), NIST Spec. Pub. 780, 75 pages

(April 1990). Order by stock no. 003-003-

03003-1 from GPO, $4.25 prepaid.

Deterioration of certain kinds of pressure and storage vessels in the United States could result in the loss of dozens of lives and millions of

dollars. A NIST study, sponsored by the Occupational Safety and Health Administration, gives an overview of stationary, unfired carbon steel and low-alloy steel pressure vessels for liquids and gases, and low-pressure storage tanks used at temperatures between -75 and 315 °C. These vessels are used in the process, pulp and paper, petroleum refining, and

petroleum chemical industries, and for water treatment systems for boilers and

steam generators. Included are causes

of failure and nondestructive inspection

standards, practices, and methods.

Trade Implications of Processes

and Production Methods (PPMs)

Cooke, P.W., Natl. Inst. Stand. & Tech.

(U.S.), NISTIR 90-4265, 23 pages

(March 1990). Order by sending a self- addressed mailing label to Patrick W.

Cooke, A629 Administration Bldg., NIST,

Gaithersburg, Md. 20899.

This report provides background in- formation on processes and pro- duction methods that prescribe

how to produce a product rather than describe the performance or other characteristics of an end-item. When specified

in technical standards and regulations,

PPMs may become a trade barrier. The

GATT Standards Code is based on the concept that standards should not act as

technical barriers to trade, but the European Community (EC) and some

other signatories to the Standards Code

have interpreted the article on PPMs so

narrowly that it has been nearly impossible to resolve a PPM case. NIST recom- mendations include resolving PPM

issues between the United States and

the EC in GATT based on technical considerations and equivalency, conducting

a test program of GATT notifications for proposed PPM regulations, and making

exporters more aware of PPM issues and

urging them to report difficulties.

Characterization of Clocks

and Oscillators

Sullivan, D.B., Allan, D.W., Howe, D.A., and Walls, F.L., editors, Natl. Inst. Stand. & Tech. (U.S.), NIST Tech. Note 1337,

352 pages (March 1990). Order by stock

no. 003-003-03019-8 from GPO, $17

prepaid.

This collection of published papers

is designed as a reference for those involved in characterizing

and specifying high-performance clocks

and oscillators. It includes tutorial papers, papers on standards and definitions, and papers derailing specific

measurement and analysis techniques

(with corrections and notes indicating current recommended IEEE notation).

Topics covered include properties of sig- nal sources, phase noise measurements,

standard terminology, stability measurement, and biases and variances.

iiiliillMIl^

Ordering Information

To order publications from NTIS, send

the request with payment to: National Technical Information Service, Springfield, Va. 22161 . Publications can be

ordered from GPO by mailing the order

with payment to the Superintendent of Documents, U.S. Government Printing

Office, Washington, D.C. 20402.

31
Conference Calendar

Experiment Design for Scientists

and Engineers

NIST, Gaithersburg, Md.

This 5-day workshop will help scientists and engineers in research and development or manufacturing improve quality

and productivity. Familiarity with the con- cepts of elementary statistics will be useful but not required. The workshop will deemphasize mathematical development

and replace it with an experimentalistbased evolution of concepts and tech- niques with reinforcement via practical

applications. The workshop covers

specific designs that have proven best

for three very important classes of problems: ( 1

) how to ferret out systematically the most important factors from a large

number of potential factors, (2) how to converge to an optimal operating condition starting from a best guess, and

(3) how to identify settings of controllable factors that reduce variability caused by

unavoidable sources of variation (Taguchi's quality engineering approach). Sponsored by NIST. Contact:

Eric Lagergren, A337 Administration

BIdg., NIST, Gaithersburg, Md. 20899,

301/975-3245.

Workshop on Fundamentals

of Carbon/Carbon

NIST, Gaithersburg, Md.

The objective of this workshop is to en- courage fundamental research, inter- disciplinary cooperation, and technology

transfer to increase the understanding of mechanisms and processes relevant to new concepts for high-temperature

carbon/carbon composites. Scientific issues to be covered at the workshop in- clude mechanisms and materials for high-temperature oxidation inhibition,

protective coatings, and fundamental

modeling of microstructure and mechanical properties. Approximately 12 invited speakers will review the current state of the art. Poster papers are encouraged.

Sponsored by the Air Force Office of Scientific Research and NIST. Contact: David C. Cranmer, A329 Materials BIdg.,

NIST, Gaithersburg, Md. 20899,

301/975-5753.

International Workshop on

Reliability of Offshore Operations

NISI, Gaithersburg, Md.

Participants will discuss current practice, progress, and future directions in the

fields of risk management and safety/

reliability analysis of offshore oil and gas

operations. Recent experience and case

studies will be emphasized. Representatives of the petroleum industry, consulting firms, government agencies, and aca- demic and research institutions will attend. Sponsored by the Minerals Management Service, U.S. Department of the

Interior; Canada Oil and Gas Lands Administration; Petroleum Division, Department of Energy, United Kingdom; the American Society of Civil Engineers; and

NIST. Contact: Emil Simiu, B158 Building

Research BIdg., NIST, Gaithersburg, Md.

20899, 301/975-6076.

Applications of Cold Neutron

Spectroscopy in Chemistry,

Biology, and Physics

NIST, Gaithersburg, Md.

This workshop will acquaint the research

community with new capabilities in highresolution neutron spectroscopy soon to

be available at the NIST Cold Neutron Re- search Facility. Several instruments at NIST's research reactor will be brought

into operation from 1991 to 1993, permitting the observation of chemical, physical, and biological processes with energies across a very wide energy range, from 10^ to 10""* cm'\ This will extend the lower limit of accessible energy transfers by several orders of magnitude. Plenary

and invited speakers will describe the in- struments and give examples of the

scientific results that can be expected

from them. Workshop participants will be

encouraged to comment on user poli- cies, the disposition of instruments, and

unrecognized scientific applications.

Sponsored by NIST. Contact: Carol O'Connor, E151 Reactor BIdg., NIST,

Gaithersburg, Md. 20899, 301/975-6240.

Third International Symposium

on ESR Dosimetry and Applications

NIST, Gaithersburg, Md.

This symposium will focus on current applications of electron spin resonance

(ESR) spectroscopy in the general areas

of ionizing radiation dosimetry, archaeological dating, and instrumentation, in- cluding imaging and measurements for solid-state, biological, and medical appli- cations. The topics of discussion include

solid-state effects, reference dosimetry,

transfer dosimetry, dating, and geology.

Also, presentations of new, innovative developments in the ESR field are en- couraged. Sponsored by NIST, the China

University of Science and Technology,

and the International Atomic Energy

Agency. Contact: Marc F. Desrosiers,

C214 Radiation Physics BIdg., NIST,

Gaithersburg, Md. 20899, 301/975-5639.

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