A 1 1 1 0 3 1M 3 302

NISTIR 89-3921

IIP®

PUBLICATIONS

METROLOGY

ELECTROMAGNETIC TECHNOLOGY:

A BIBLIOGRAPHY OF NIST PUBLICATIONS

Edited by

Mary E. DeWeese

National Institute of Standards and Technology

U.S. Department of Commerce

Boulder, Colorado 80303-3328

August 1989

-QC

100

- U 5 6

89-3921

1989

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NATIONAL INSTITUTE OF STANDARDS &

TECHNOLOGY

Research Information Center

Gaithersburg, MD 20899
NISTIR 89-3921

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METROLOGY FOR

ELECTROMAGNETIC TECHNOLOGY:

ABIBLIOGRAPHYOF NIST PUBLICATIONS

Edited by

Mary E. DeWeese

Electromagnetic Technology Division

Center for Electronics and Electrical Engineering

National Engineering Laboratory

National Institute of Standards and Technology

Boulder, Colorado 80303-3328

August 1989

(Supersedes NBSIR 88-3097)

U.S. DEPARTMENT OF COMMERCE, Robert A. Mosbacher, Secretary

NATIONAL INSTITUTE OF STANDARDS AND TECHNOLOGY, Raymond G. Kammer, Acting Director

CONTENTS

Page

INTRODUCTION 1 A Note on Abbreviations 2

Purchase Procedures and Document Availability 2

Acknowledgments 2

OPTICAL ELECTRONIC METROLOGY 3

CRYOELECTRONIC METROLOGY 18

SUPERCONDUCTOR AND MAGNETIC MEASUREMENT 32

AUTHOR INDEX 49

in

METROLOGY FOR ELECTROMAGNETIC TECHNOLOGY:

A BIBLIOGRAPHY OF NIST PUBLICATIONS

Mary E. DeWeese, Editor

This bibliography lists the publications of the personnel of the Electromagnetic

Technology Division of NIST during the period from January 1970 through

publication of this report. A few earlier references that are directly related to the

present work of the Division are also included.

Key words: cryoelectronics; electromagnetic metrology; lasers; optical fibers;

superconducting materials

INTRODUCTION

R. A. Kamper

The Electromagnetic Technology Division was formed during the reorganization of the National

Bureau of Standards (now the National Institute of Standards and Technology) in April 1978 by

combining parts of the former Electromagnetics and Cryogenics Divisions. It develops

measurement methods and standards and provides metrological support for laser systems, optical

communication equipment, cryoelectronics, superconductors, and other unusual elecTical

engineering materials. For the individual staff members of the division, the reorganization brought

a realignment of long-term goals but little immediate discontinuity in their work. It therefore

makes good sense that this bibliography should cover a period beginning some time before the

reorganization, so as to include at least the more recent origins of the present work of the division.

The editors have attempted to include all work published by the present staff members of the

division, while they were employees of NISTv in the period from January 1970 through publication

of this report. There are a few exceptions, where work that is totally unrelated to the present

program has been excluded or where work by authors now in other parts of NIST has been included

because of its special significance. A few papers on various topics published before 1970 have also

been included because of their direct relationship to the present program.

Several other sources may be useful to the reader who is interested in activities at NIST

connected with electromagnetic metrology. A companion bibliography to this one lists the

publications of the Electromagnetic Fields Division: NISTIR 89-3920. Its topics include metrology

for antennas, satellite communications equipment, microwave metrology, electromagnetic waveform

metrology, electromagnetic interference, and hazard. An excellent summary of the whole field of

electromagnetic metrology as it stood in 1967 was published as a special issue of the Proceedings

of IEEE (vol. 55; June 1967). Advances in the following decade were described in two other special

issues of the same journal (vol. 66, April 1978; and vol. 74, January 1986).

1
A Note on Abbreviations

NOTE: On August 23, 1988, the National Bureau of Standards (NBS) became the National

Institute of Standards and Technology (NIST); therefore, documents with either prefix are considered NIST publications.

Most readers are familiar with the commonly used abbreviations for the names of the

professional journals that appear in this bibliography. Some publication series are peculiar to NIST

and may call for explanation. They are:

NISTIR - NIST Interagency/Internal Report NBSIR - NBS Interagency/Internal Report

NIST TN - NIST Technical Note NBS TN - NBS Technical Note

NIST SP - NIST Special Publication NBS SP - NBS Special Publication

NIST HB - NIST Handbook NBS HB - NBS Handbook

NIST JRES - NIST Journal of Research NBS JRES - NBS Journal of Research

NIST MN - NIST Monograph NBS MN - NBS Monograph

Purchase Procedures and Document Availability

NIST (NBS) Technical Notes, Special Publications, Handbooks, Journals of Research, and

Monographs may be purchased from the Superintendent of Documents, U.S. Government Printing

Office, Washington, DC 20402. Orders must be accompanied by postal money order, express

money order, or check made out to the Superintendent of Documents.

NIST (NBS) Interagency/Internal Reports (NISTTRs, NBSIRs) may be purchased from the

National Technical Information Service, Springfield, VA 22161. Orders must be accompanied by

postal money order, express money order, or check made out to NTTS.

Reprints of papers published in non-NIST media may be available in limited quantities from

the authors.

Acknowledgments

A large part of the labor of preparing a bibliography is spent on collecting and arranging the

material. We thank Sheila Aaker, Frances Brown, Kit Kline, and Jessie Page for their assistance

with these chores. The main sources of material were the NIST Boulder Editorial Review Board

database, the National Technical Information Service, and information supplied by individual

authors.

2
OPTICAL ELECTRONIC METROLOGY

Faraday Effect Sensors: The State of the Art; Day, G.W.; Rose, A.H.

Proc., SPIE 985: 138-150; 89.

NIST Optical Power Measurements;

Scott, T.R.

Proc., 89 Measurement Science Conf., Jan 26-27, 1989, p 3C-19 to 3C-29; 89. A Comparison of Far-Field Methods for Determining Mode Field Diameter of Single-Mode Fibers Using Both Gaussian

and Petermann Definitions;

Drapela, T.J.; Franzen, D.L.; Cherin, A.H.; Smith, RJ.

IEEE J. Lightwave Tech. 7(8): 1153-1157; Aug 89.

Optical Waveguide Attenuation Measured by Photothermal Displacement;

Hickemell, R.K.; Aust, JA.; Larson, D.R.

Conf. Digest, 6th Inti. Topical Meeting on Photoacoustic and Photothermal Phenomena, p

310-311; Jul 89.

Numerical Aperture of Multimode Fibers by Several Methods: Resolving Differences;

Franzen, D.; Young, M.; Cherin, A.; Head, E.; Hackert, M.; Raine, K.; Baines, J. IEEE J. Lightwave Tech. 7(6): 896-910; Jun 89. A Standard Reference Fiber for Calibration of Optical Time Domain Reflectometers;

Danielson, B.L.; Whittenberg, C.; Drapela, T. Tech. Digest, 35th Inti. Instrumentation Symp., Paper 4.6; May 89.

Laser Induced Damage in Optical Materials--87;

Bennett, H.E.; Guenther, A.H.; Milam, D.; Newnam, B.E.

NIST SP 756, 650 p; Apr 17, 89.

Spatial Filtering Microscope for Linewidth Measurements;

Young, M.

Appl. Opt. 28(8): 1467-1473; Apr 15, 89.

Profile Inhomogeneity in Multimode Graded-Index Fibers;

Oates, C.W., Young, M.

IEEE J. Lightwave Tech. 7(3): 530-532; Mar 89.

Optical Fiber Sensors for Electromagnetic Quantities;

Day, G.W.; Lee, K.S.; Rose, A.H.; Vesser, L.R.; Papatheofanis, B.; Whitesel, H.K.

Proc., DoD Fiber Optics Conf. & ISA Annual Conf. p 205-207; 88.

Measurement Standards for Single-Mode Fibers;

Franzen, D.L.

88 Conf. on Precision Electromagnetic Measurements, p 121-122; 88.

Potential Errors in the Use of Optical Fiber Power Meters;

Li, X.; Gallawa, R.L.

Proc., SPIE 841: 231-233; 88. An Electrically Calibrated Silicon Bolometer for Low Level Optical Power and Energy Measurements;

Phelan, R.J.; Craig, R.M.

Proc., SPIE 888: 38-42; 88.

Review of NBS Laser Power and Energy Measurements;

Scott, T.R.

Proc., SPIE 888: 48-54; 88.

Fast-Pulse Generators and Detectors for Characterizing Laser Receivers at 1.06 /xm;

Simpson, PA.

Proc., SPIE 888: 43-47; 88.

3
Stability of Birefringent Linear Retarders (Waveplates);

Hale, P.D.; Day, G.W.

Appl. Opt. 27: 5146-5151; Dec 15, 88.

Progress in the Development of Miniature Optical Fiber Current Sensors;

Tang, Dingding; Day, G.W.

Proc.; IEEE Lasers and Electro-Optics Society Annual Meeting, p306-307; Nov 88.

Effect of Multiple Internal Reflections on the Stability of Electrooptic and Magnetooptic Sensors;

Lee, K.S.; Day, G.W.

Appl. Opt. 27: 4609-4611; Nov 15, 88.

System for Measuring Optical Waveguide Intensity Profiles;

Larson, L.E.; Larson, D.R.; Phelan, R.J., Jr. NBSIR 88-3092, 68 p, Oct 3, 88.

Fresnel Lenses Display Inherent Vignetting;

Young, M.

Appl. Opt. 27(17): 3593-3594; Sep 1, 88.

Laser Induced Damage in Optical Materials: 1986;

Bennett, H.E.; Guenther, A.H.; Milam, D.; Newnam, B.E.

NBS SP 752, 724 p; Sep 88.

Technical Digest, Symposium on Optical Fiber Measurements, 1988;

Day, G.W.; Franzen, D.L., eds.

NBS SP 748, 202 p; Sep 88.

Interlaboratory Comparison of Far-Field Methods for Determining Mode Field Diameter Using Both Gaussian and

Petermann Definitions;

Drapela, T.J.

in NBS SP 748, p

179-182; Sep 88.

Electrically Calibrated Photothermal Deflection Measurement for Separating Channel Waveguide Loss Mechanisms;

Hickemell, R.K.; Larson, D.R.; Phelan, R.J., Jr. in NBS SP 748, p 65-68; Sep 88.

Optical Fiber Sensors for the Measurement of Electromagnetic Quantities;

Rose, A.H.; Day, G.W.; Lee, K.S.; Tang, D.; Vesser, L.R.; Papatheofanis, B.; Whitesel, H.K.

Sensors Expo Proc., 1988, p

209A-1-3; Sep 88.

Metrology for Electromagnetic Technology: A Bibliography of NBS Publications;

DeWeese, M.E.

NBSIR 88-3097, 64 p; Aug 88.

Laser Induced Damage in Optical Materials: 1985;

Bennett, H.E.; Guenther, A.H.; Milam, D.; Newnam, B.E.

NBS SP 746, 576 p; Jul 88.

Group Index and Time Delay Measurements of a Standard Reference Fiber;

Danielson, B.L.; Whittenberg, C.D.

NBSIR 88-3091, 20 p; Jul 88.

Fast Optical Detector Deposited on Dielectric Channel Waveguides;

Larson, D.R.; Phelan, R.J. Opt. Eng. 27(6): 503-506; Jun 88.

Interferometric Dispersion Measurements on Small Guided-Wave Structures; Danielson, B.; Whittenberg, C.

88 CLEO Tech. Digest, pages unnumbered, Apr 88.

Cool It!; Lehman, J. Science Teacher, p 29-32; Mar 88.

4
Optical Fiber Metrology at the National Bureau of Standards;

Franzen, D.L.

Proc., DOD/ANSI/EIA Fiber Optics Standardization Symp., p

222-223; 87.

Picosecond Pulse Response from Hydrogenated Amorphous Silicon (a-Si:H) Optical Detectors on Channel Waveguides;

Larson, D.R.; Phelan, RJ., Jr. Proc., SPIE Integrated Optical Circuit Engineering V, 835: 59-63; 87. NBS Standards for Optical Power Meter Calibration;

Scott, T.R.

Proc., DOD/ANSI/EIA Fiber Optics Standardization Symp., p 224-238; 87.

Calibration and Standardization Issues for the Optical Time-Domain Reflectometer;

Danielson, B.L. NBSIR 87-3078, 16 p; Dec 87.

Guided-Wave Reflectometry with Micrometer Resolution;

Danielson, B.L.; Whittenberg, C.D.

Appl. Opt., 26(14): 2836-2842; Jul 15, 87.

Microscope Objectives, Cover Slip, and Spherical Aberration;

Oates, C.W.; Young, M.

Appl. Opt. 26(11): 2043; Jun 1, 87.

Metrology for Electromagnetic Technology: A Bibliography of NBS Publications;

Kline, K.E.; DeWeese-Bishop, M.E.

NBSIR 87-3074, 62 p; Jun 87.

Image Processing Software for Optical Engineering;

Weppner, M.B.; Young, M.

NBSIR 87-3065; Apr 87.

Limits to the Precision of Electro-optic and Magneto-optic Sensors;

Day, G.W.; Hale, P.D.; Deeter, M.; Milner, T.E.; Conrad, D.; Etzel, S.M.

Electric Power Research Institute (EPRI) EL-5431, vol 1; Mar 87.

Attenuation Measurements on Deformed Optical Fibers;

Engelsrath, A.; Danielson, B.L.; Franzen, D.L.

NBSIR 86-3052, 28 p; 86.

Hybrid Computer-Optical Processing with Inexpensive Liquid Crystal Television;

Young, Matt; Weppner, Matthew

Proc., 1986 International Optical Computing Conf.; SPIE 700: 146-153; 86.

Compact Fiber Sensors for the Measurement of Low Level Electric Currents;

Day, G.W.

Proc., 4th Inti. Conf. on Optical Fiber Sensors; Tokyo, Japan; p 81-84; Oct 86.

Laser Induced Damage in Optical Materials: 1984;

Sponsors: National Bureau of Standards, American Society for Testing and Materials, Office of Naval Research,

Department of Energy, Defense Advanced Research Project Agency, Air Office of Scientific Research

Proc., of Sixteenth Annual Symp. on Optical Materials for High Power Lasers; Oct 15-17, 1984; Boulder, CO;

NBS-SP 727; Oct 86.

Direct Measurement of the Spatial Modes of a Laser Pulse-Theory;

Johnson, E.G.

Appl. Opt. 25(17): 2967-2975; Sep 86.

Technical Digest, Symposium on Optical Fiber Measurements, 1986;

Day, G.W.; Franzen, D.L.

NBS SP-720, 149 p; Sep 86.

5
Measurement Procedures for Optical Fiber and Related Components;

Danielson, B.L.; Day, G.W.; Franzen, D.L.; Gallawa, R.L.; Kim, E.; Phelan, R.J.; Young, Matt

Rome AFB, NY: RADC-TR-86-81; Aug 86.

Metrology for Electromagnetic Technology: A Bibliography of NBS Publications;

Kline, K.E.; DeWeese, M.E., eds. NBSIR 86-3048, 52 p; Jun 86.

Scratch-and-Dig Standard Revisited;

Young, Matt

Appl. Opt. 25(12): 1922-1928; Jun 86.

Single Mode Fiber Dispersion Measurements using Optical Sampling with a Modelocked Laser Diode;

Kanada, T.; Franzen, D.L.

Opt. Lett. 11: 330-332; May 86.

Fiber Bandwidth Measurement Using Pulse Spectrum Analysis;

Shao, Y.; Gallawa, R.L.

Appl. Opt. 25(7): 1069-1070; Apr 86.

Low-Cost LCD Video Display for Optical Processing;

Young, Matt

Appl. Opt. 25(7): 1024-1026; Apr 86.

Optical Power Meters: A Round Robin Test of Uncertainty;

Gallawa, R.L.; Shao, Y.

Appl. Opt. 25(7): 1066-1068; Apr 86.

Standard Measurement Procedures for Characterizing Single-Mode Fiber;

Franzen, D.L.

Conf. Digest, Test & Measurement World Expo.; San Jose, CA; Apr 86.

Transfer Standards for Energy and Power of Low-Level 1.064 nm Laser Pulses and cw; Rasmussen, A.L.; Sanders, A.A.

SPIE Opt. Eng. 25(2): 277-285; Feb 86. A Comparison of Three Bandwidth Measurements Techniques for Optical Fibers;

Shao, Y.; Gallawa, R.L.

IEEE Trans. Instrum. Meas. IM-35(2): 187-194; Jan 86.

Optical Waveform Measurement by Optical Sampling/Crosscorrelation with a Mode Locked Laser Diode;

Kanada, T.; Franzen, D.L.

Opt. Lett. 11(1): 4-6; Jan 86.

Uncertainty Charts for RF and Microwave Measurements;

Kamper, RA.

Proc., IEEE 74(1): 27-32; Jan 86. A Calorimeter for Measuring 1-15 kJ Laser Pulses;

Simpson, P.; Johnson, E.G.

Proc., SPIE, Aug 21-23, 1984; San Diego, CA; 499: 121-124; 85.

Annealing of Bend-Induced Birefringence in Fiber Current Sensors;

Day, G.W.; Etzel, S.M.

IOOC-ECOC Tech. Digest, Vol. 1; Proc., European Conf. on Optical Communication; Oct 1-4, 1985; Venice,

Italy; p 871-874; 85. A Sensitive, High Frequency, Electromagnetic Field Probe Using a Semiconductor Laser in a Small Loop Antenna;

Phelan, R.J.; Larson, D.; Simpson, P. Proc, SPIE, Aug 19-23, 1985; San Diego, CA; 566: 300-306; 85.

6
Interlaboratory Measurement Comparison Among Fiber Manufacturers to Determine the Effective Cutoff Wavelength

and Mode-Field Diameter of Single-Mode Fiber;

Franzen, D.L.

Tech. Digest, Optical Fiber Communication Conf., Feb 11-13, 1985, San Diego, CA; p 36; 85.

Introduction to Fiber Optics: Short-Haul and Long-Haul Measurements and Applications, III; Gallawa R.L.

Proc., SPIE, Aug 21-23, 1985, San Diego, CA, 599: vi; 85.

Laser Power and Energy Measurements and the NBS Laser Measurement Assurance Program (MAP);

Case, W.E.; Sanders, AA.

Instrumentation/Measurement Technology Conf., Mar 20-22, 1985, Tampa, FL; p 281-185; 85.

Optical Fiber Sensors for the Measurement of Pulsed Electric Currents;

Day, G.W.; McFadden, J.D.O.; Vesser, L.R.; Chandler, G.I.; Cemosek, R.W.

Proc., NATO/AGARD (Advisory Group for Aerospace Research & Development), Guided Optical Structures in the Military Environment, Sep 23-27, 1985, Istanbul, Turkey; AGARD-CPP-383: p

8-1 to 8-9; 85.

Pulse Spectrum Analysis Method of Measuring Fiber Bandwidth;

Shao, Y.; Alvarez, R.; Weimer, C.; Gallawa, R.L.

Proc, SPIE, 559: 207-210; 85.

Scratch Standards Should Not be Used to Predict Damage Threshold;

Young, M.

in NBS SP 669; p 151-156; 85.

Some Issues in Optical Fiber Bandwidth Measurement;

Yang, S.; Gallawa, R.L.

Proc, IEEE Instrumentation/Measurement Conf, Mar 20-22, 1985, Tampa, FL, p 228; 85.

The Scratch Standard is Not a Performance Standard;

Young, M.

Digest, Workshop on Optical Fabrication and Testing, Jun 12-13, 1985, Cherry Hill, NJ, p ThAA4-l&2; 85.

Tunable Scratch Standards;

Young, M.; Johnson, E.G, Jr.; Goldgraben, R.

Proc, SPIE, Jan 21-22, 1985, Los Angeles, CA, 525: 70-77; 85.

Use of Mode Transfer Matrices in LA.N. Loss Evaluation;

Maisonneuve, J.M.; Churoux, P.; Gallawa, R.L.

Proc, SPIE, Aug 21-23, 1985, San Diego, CA, 559: 182-185; 85.

Detectors for Picosecond Optical Power Measurements;

Phelan, R.J.; Larson, D.; Franzen, D.L.; Frederick, N.V.

Proc, SPIE, Aug 21-23, 1984, San Diego, CA, 499: 34-37; Spring 85.

Documentation of the NBS APD and PIN Calibration Systems for Measuring

Peak Power and Energy of Low-Level 1.064 nm Laser Pulses;

Rasmussen, A.; Sanders, A.

NBSIR 85-3032, 67 p; Dec 85.

Low-Level Germanium Detector Transfer Standard at 1.064 /im;

Rasmussen, A.; Sanders, A.

NBSIR 85-3041, 10 p; Dec 85.

The Scratch Standard is Only a Cosmetic Standard;

Young, M.

Laser Focus/Electro-Optics, 138-140; Nov 85.

7
Determining the Mode-Field Diameter of Single-Mode Optical Fiber:

An Interlaboratory Comparison;

Franzen, D.L.; Srivastava, R.

IEEE J. Lightwave Tech. LT-3(5): 1073-1077; Oct 85.

Direct Measurement of the Electric Field of a Laser Pulse-Theory;

Johnson, E.G.

NBS TN 1084, 52 p; Aug 85.

Optical Time-Domain Reflectometer Specifications and Performance Testing;

Danielson, B.L. Appl. Opt. 24(15): 2313-2322; Aug 1, 85.

Metrology for Electromagnetic Technology: A Bibliography of NBS Publications

Kline, K.E.; DeWeese, M.E.

NBSIR 85-3029, 72 p; Jul 85.

Pattern Recognition Using Incoherent OTF Synthesis and Edge Enhancement;

Katzir, Y.; Young, M.; Glaser, I. Appl. Opt. 24(6): 863-867; Mar 15, 85.

Determining the Effective Cutoff Wavelength of Single-Mode Fibers: An Interlaboratory Comparison;

Franzen, D.L.

IEEE J. Lightwave Tech. LT-3(1): 128-133; Feb 85.

Intramodal Part of the Transfer Function for an Optical Fiber;

Rodhe, P. IEEE J. Lightwave Tech. LT-3(1): 154-158; Feb 85.

The Bandwidth of a Multimode Fiber Chain;

Rodhe, P. IEEE J. Lightwave Tech. LT-3(1): 145-154; Feb 85.

Redefining the Scratch Standards;

Young, M.; Johnson, E.G., Jr. NBS TN-1080, 20 p; Feb 85.

Conference Report: Fiber Optics Emphasis on Single Mode;

Franzen, D.L.; Day, G.W.

1984 Optical Fiber Measurements Symp., NBS JRes 90(1): 49; Jan-Feb 85.

Fast Detectors and Modulators;

Phelan, R.J. Chap, in Semiconductors and Semimetals, Academic Press, 21(D): 249-259; 84. A Calorimeter for Measuring High-Energy Optical Pulses;

Simpson, PA.; Etzel, S.M.; Johnson, E.G., Jr. NBSIR 84-3008, 162 p; Oct 84.

Technical Digest, Symposium on Optical Fiber Measurements;

Day, G.W.; Franzen, D.L.

NBS SP-683; Oct 84. A Calorimeter for Measuring 1-15 kJ Laser Pulses;

Simpson, P.A.; Johnson, E.G.

Proc., SPIE, Aug 21-22, 1984, San Diego, CA; 499: 34-37; Aug 84.

Attenuation of Multimode Fused Silica Optical Fibers Cooled to Liquid Helium Temperatures;

Engelsrath, A.; Larson, D.R.; Phelan, R.J.; Franzen, D.L.

Proc., SPIE, Aug 21-22, 1984, San Diego, CA, 499: 124-130; Aug 84.

Detectors for Picosecond Optical Power Measurements;

Phelan, R.J., Jr.; Larson, D.R.; Frederick, N.V.; Franzen, D.L.

Proc., SPIE, Aug 21-22, 1984, San Diego, CA, 499: 34-37; Aug 84.

8
Equivalent Step-Index Parameters in Single-Mode Fibers: Measurement and Applications;

Srivastava, R.

Proc., SPIE, Aug 21-22, 1984, San Diego, CA, 500: 27-36; Aug 84.

The Use of Power Transfer Matrices in Predicting System Loss: Theory and Experiment;

Maisorneuve, J.M.; Gallawa, R.L.

Proc., SPIE, Aug 21-22, 1984, San Diego, CA, 500: 88-93; Aug 84.

Using Optical Processing to Find the Beam Profile of a Laser Pulse (Theory);

Johnson, E.G., Jr. Proc., SPIE, Aug 21-22, 1984, San Diego, CA, 499: 75-88; Aug 84.

Metrology for Electromagnetic Technology: A Bibliography of NBS Publications;

Kamper, RA.

NBSIR 84-3014, 65 p; Jul 84.

Measurement of Multimode Optical Fiber Attenuation: An NBS Special Test Service;

Gallawa, R.L.; Chamberlain, G.E.; Day, G.W.; Franzen, D.L.; Young, M.

NBSIR 83-1691; Feb 84.

Some Trends in Optical Electronic Metrology;

Sanders, AA.

Proc., 1984 Measurement Science Conf., Los Angeles, CA; Jan 84. A Computer Controlled System for Calibrating Detectors of TEA Laser Pulses;

Simpson, PA.

Proc., 22nd Automatic rf Testing Group Conf., Nov 3-4, 1983, Albuquerque, NM, ARFTG Fall Digest, p

25-36;

83.

Birefringence Measurements in Single Mode Optical Fiber;

Day, G.W.

Proc., SPIE, Aug 21-24, 1983, San Diego, CA; 425: 72-79; 83.

Fiber Optics: Short-Haul and Long-Haul Measurements and Applications;

Gallawa, R.L., ed.

Proc., SPIE, Aug 24-25, 1982, Vol. 355; 83.

Submicrometer Interdigital Silicon Detectors for the Measurement of Picosecond Optical Pulses;

Phelan, RJ.; Larson, D.; Frederick, N.V.; Franzen, D.L.

Proc., SPIE 425: 207-211; 83.

Objective Measurements and Characteristics of Scratch Standards;

Young, M.

Proc., SPIE, Aug 1982, 3526: 86-92; Spring 83.

Estimating Index Profiles of 1.3 nm Single Mode Fibers by Near-Field Measurements at Blue Wavelengths;

Kim, E.M.; Franzen, D.L.; Young, M.; Rodhe, P.M.

IEEE J. Lightwave Tech. LT-1(4): 562-566; Dec 83.

Simulating the Scratch Standards for Optical Surfaces—Theory;

Johnson, E.

Appl. Opt. 22(24): 4056-4068; Dec 83.

Optical Fiber Characterization Attenuation, Frequency Domain Bandwidth, and Radiation Patterns; Chamberlain, G.E.; Day, G.W.; Franzen, D.L.; Gallawa, R.L.; Kim, E.M.;

Young, M.

NBS SP 637, Vol. II; Oct 83.

Linewidth Measurement by High-Pass Filtering—A New Look;

Young, M.

Appl. Opt. 22(13): 2022-2025; Jul 83.

9
Laser Measurements;

Sanders, A.A.

Proc., 1983 Measurement Science Conf., Jan 20-21, 1983, Palo Alto, CA;

Jun 83.

Measurement of Multimode Optical Fiber Attenuation: An NBS Special Test Service;

Gallawa, R.L.; Chamberlain, G.E.; Day, G.W.; Franzen, D.L.; Young, M.

NBS TN 1060; Jun 83.

Optical Time-Domain Reflectometer Performance and Calibration Studies;

Danielson, B.L. NBS TN 1064; Jun 83.

Two-Dimensional Near-Field Contouring of Optical Fiber Cores;

Kim, E.M.; Franzen, D.L.

Proc., SPIE; Jun 83.

EIA Fiber Performance Measurement Standards;

Gallawa, R.; Franzen, D.L.

Photonics Spectra, p55-68; Apr 83.

Questions Students Ask;

Young, M.

Physics Teacher, p 194-195; Mar 83. An Inter-Laboratory Measurement Comparison of Core Diameter on Graded-Index Optical Fibers;

Kim, E.M.; Franzen, D.L.

NBS SP 641; Oct 82. A System for Measuring Energy and Peak Power of Low-Level 1.064 Mm Laser Pulses;

Sanders, A.A.; Rasmussen, A.L.

NBS TN 1058; Oct 82.

Measurement of the Core Diameter of Graded-Index Optical Fibers: An Interlaboratory Comparison;

Kim, E.M.; Franzen, D.L.

Appl. Opt. 21(19): 3443-3450; Oct 82.

Technical Digest - Symposium on Optical Fiber Measurements, 1982;

Franzen, D.L.; Day, G.W.; Gallawa, R.L., eds. NBS SP 641; Oct 82.

Beam-Profile Measurement of Pulses Using a Spatial Filter to Sample the Hermite Modes for a String of Pulses;

Johnson, E.G.

NBS TN 1057; Sep 82.

Documentation of the NBS C, K, and Q Laser Calibration Systems;

Case, W.E.

NBSIR 82-1676; Sep 82.

Optical Fiber Characterization;

Day, G.W.; Danielson, B.L.; Franzen, D.L.; Kim, E.; Young, M., eds. NBS SP 637, Vol. 1; Jul 82.

Calibration Reticle for Optical Fiber Near-Field Core Diameter Measurements;

Kim, E.M.; Franzen, D.L.

Digest, Conf. on Precision Electromagnetic Measurements; May 82.

Characterization of a Concentric-Core Fiber;

Danielson, B.L.; Franzen, D.L.; Gallawa, R.L.; Kim, E.M.; Young, M.

NBSIR 82-1661; Apr 82.

10
On the Definition of Fiber Numerical Aperture;

Gallawa, R.L.

Electro-Optical Systems Design, p 47; Apr 82.

Quantum Noise Limits the Pinspeck Camera to Simple Objects;

Young, M.

J. Opt. Soc. Amer. 72(3): 402-403; Mar 82.

Optical Waveguide Communications Glossary,

Gallawa, R.L., et al. NBS HB 140; Jan 82.

Book Review: Principles of Optical Fiber Measurements by D. Marcuse;

Young, M.

Laser Focus, p

118-119; Jan 82.

Long Optical Fiber Fabry Perot Interferometers;

Franzen, D.L.; Kim, E.

Appl. Opt. 20(23): 3991-3992; 81. A Measurement Method for Determining the Optical and Electro-Optical Properties of a Thin Film;

Larson, D.

NBSIR 81-1652; Dec 81. An Optical Waveguide Communications Glossary, Revised;

Hanson, A.G.; Bloom, L.R.; Day, G.W.; Young, M.; Gray, E.M.; Gallawa, R.L.

NBS HB 140; Dec 81.

Backscattter Signature Simulations;

Danielson, B.L. NBS TN 1050; Dec 81.

Book Review: Optical Fibre Communication (invited review);

Gallawa, R.

IEEE Spectrum, p 1; Nov 81.

The Use of LEDs as YAG Laser Simulators;

Young, M.

Proc., Conf. Electro-Optics and Lasers; Nov 81.

Optical Fiber Index Profiles by Refracted-Ray Scanning;

Young, M.

Appl. Opt. 20(19): 3415-3421; Oct 81.

Measurement of Optical Fiber Bandwidth in the Frequency Domain;

Day, G.W.

NBS TN 1046; Sep 81.

Standard Measurement Conditions and Test Results on Multimode Fibers;

Franzen, D.L.

Laser Focus, p 103-105; Aug 81.

The Use of LEDs to Simulate Weak YAG-laser Beams;

Young, M.

NBS TN 1031; revised Aug 81.

Interlaboratory Measurement Comparison to Determine the Attenuation and Bandwidth of Graded-Index Fibers;

Franzen, D.L.; Day, G.W.; Danielson, B.L.; Chamberlain, G.E.; Kim, E. Appl. Opt. 20(14): 2412-2419; 15 Jul 81.

The Characterization of Optical Fiber Waveguides: A Bibliography with Abstracts, 1970-1980;

Day, G.W.

NBS TN 1043; Jun 81.

11
Refracted-Ray Scanning (Refracted Near-Field Scanning) for Measuring Index Profiles of Optical Fibers;

Young, M.

NBS TN 1038; May 81.

Present NBS Capability in Optical Fiber Measurements;

Day, G.W.; Franzen, D.L.

Proc., First Int. DoD/Industry Fiber Optics Standards Conf., Washington, DC; Apr 81.

Results of an Interlaboratory Measurement Comparison Among Fiber Manufacturers to Determine Attenuation,

Bandwidth, and Numerical Aperture of Graded Index Optical Fibers;

Franzen, D.L.; Day, G.W.; Danielson, B.L.; Kim, E. Conf. Digest, Third Inti. Conf. Integrated Optics & Optical Fiber Comm., San Francisco, CA; Apr 81.

Results of an Inter-Laboratory Measurement Comparison to Determine the Radiation Angle (NA) of Graded Index

Optical Fibers;

Franzen, D.L.; Kim, E. Appl. Opt. 20(7): 1218-1220; Apr 81.

Sub-Nanosecond Electrical Modulation of Light with Hydrogenated Amorphous Silicon;

Phelan, R.J.; Larson, D.R.; Werner, P.E. Appl. Phys. Lett. 38(8); Apr 15, 81.

Backscatter Measurements in Optical Fibers;

Danielson, B.L. NBS TN 1034; Feb 81.

Measurement of Far-Field and Near-Field Radiation Patterns from Optical Fibers;

Kim, E.; Franzen, D.L.

NBS TN 1032; Feb 81.

Progress in Fiber Measurements;

Day, G.W.; Franzen, D.L.

Laser Focus, p 52-56; Feb 81. A System for Characterizing Detectors for the Measurement of Power of C02 TEA Laser Pulses;

Simpson, P.A.

Proc., 11th Annual Electro-Optical Laser Conf., Oct 23-25, 1979, p

3999-4007; 80.

The Role of Backscatter Signatures in Optical Fiber Characterization;

Danielson, B.L. Tech. Digest 1st Int. DoD Ind. Fiber Optics Congress, Apr 20, 1980, Washington, DC; 80.

Linearity and Resolution of Refracted Near-Field Scanning Techniques;

Young, M.

in Tech. Digest, Symposium on Optical Fiber Measurements, NBS SP 597; Oct 80.

Technical Digest, Symposium on Optical Fiber Measurements, 1980;

Day, G.W.; Franzen, D.L., eds.

NBS SP 597; Oct 80. A System for Measuring the Characteristics of High Peak Power Detectors of Pulsed C02 Laser Radiation;

Simpson, P.A. NBS TN 1023; Sep 80.

Calibration Technique for Refracted Near-Field Scanning of Optical Fibers;

Young, M.

Appl. Opt. 19: 2479-2480; Aug 80.

Measuring Features of the Fluence at the Far Field of a C02 Pulsed Laser~An Issue Study With Suggestions on How To

Do It; Johnson, E.G., Jr. NBSIR 80-1628; Apr 80.

12
An Assessment of the Backscatter Technique as a Means for Estimating Loss in Optical Waveguides;

Danielson, B.L. NBS TN 1018; Feb 80.

Measurement of Optical Fiber Bandwidth in the Time Domain;

Franzen, D.L.; Day, G.W.

NBS TN 1019; Feb 80.

Book review: Linear Systems, Fourier Transforms and Optics by J.D. Gaskill;

Young, M.

J. Opt. Soc. Amer. 69: 637-638; 79. LED Source for Determining Optical Detector Time Response at 1.06 Micrometers;

Franzen, D.L.; Day, G.W.

Rev. Sci. Instr. 50: 1029; 79.

Measurement of Low Level Laser Pulses at 1.064 /xm;

Rasmussen, A.L.; Sanders, AA.

Measurements of Optical Radiation, SPIE 196: 96-103; 79.

Measurement of Propagation Constants Related to Material Properties in High Bandwidth Optical Fibers;

Franzen, D.L.; Day, G.W.

IEEE J. Quantum Electron. QE-15(12); Dec 79.

Continuous-Wave (Mode-Locked) Dye Laser with Unfolded Cavity;

Young, M.

Appl. Opt. 18: 3212; Oct 79.

Limitations Imposed by Material Dispersion on the Measurement of Optical Fiber Bandwidth with Laser Diode Sources;

Franzen, D.L.; Day, G.W.

J. Opt. Soc. Amer. 69(10); Oct 79.

Optical Waveguide Communications Glossary;

Hanson, A.G.; Bloom, L.R.; Day, G.W.; Gallawa, R.L.; Gray, E.M.; Young, M.

NTIA SP 79-4; Sep 79.

Time Domain Pulse Measurements and Computed Frequency Response of Optical Communications Components;

Andrews, J.R.; Young, M.

NBSIR 79-1620; Sep 79.

National Standards of a Powerful Sort; Sanders, AA.

Opt. Spectra 13: 45; Aug 79.

Quality Assurance Program for the NBS, C, K, and Q Laser Calibration Systems;

Case, W.E.

NBSIR 79-1619; Aug 79.

Design of a Reflection Apparatus for Laser Beam Profile Measurements;

Johnson, E.G., Jr. NBS TN 1015; Jul 79.

Fiber Measurements: Quality and Cost;

Day, G.W.

Proc., Int. Communications Conf., Boston; Jun 79.

Attenuation Measurements on Optical Fiber Waveguides: An Interlaboratory Comparison Among Manufacturers;

Day, G.W.; Chamberlain, G.E.

NBSIR 79-1608; May 79.

Conference on Optical Scattering Standards;

Young, M.

Proc., SPIE 181: 133-134; Apr 79.

13
Laser Beam Profile Measurements Using Spatial Sampling, Fourier Optics, and Holography;

Johnson, Eric G., Jr. NBS TN 1009; Jan 79. A Simple First Positive System Nitrogen Laser for Use in Optical Fiber Measurements;

Franzen, D.L.; Danielson, B.L.; Day, G.W

IEEE J. Quantum Electron. QE-14: 548; 78.

Measurement Problems in Multimode Optical Waveguides;

Day, G.W.

Proc., Int. Communications Conf., Jun 1978, Toronto, Canada; Vol. 1; 78.

Optical Fiber Phase Discriminator;

Danielson, B.L. Appl. Opt. 17: 3665-3668; Nov 78.

Improvements in a Calorimeter for High-Power CW Lasers; Chamberlain, G.E.; Simpson, P.A.; Smith, R.L.

IEEE Trans. Instrum. Meas. IM-27: 81-86; Mar 78.

Laser Far-Field Beam-Profile Measurements by the Focal Plane Technique;

Day, G.W.; Stubenrauch, C.F.

NBS TN 1001; Mar 78.

Fiber Optics Metrology at NBS;

Danielson, B.; Day, G.; Franzen, D.

Proc., Union Radio Scientifique Internationale Comm. Symp., Oct 3-7, 1977, Lannion, France (International

Union of Radio Science, France), p430-431; Dec 77.

Evaluating the Inequivalence and a Computational Simplification for the NBS Laser Energy Standards;

Johnson, Eric G., Jr. Appl. Opt. 16: 2315-2321; Aug 77.

Measurement Procedures for the Optical Beam Splitter Attenuation Device BA-1;

Danielson, B.L. NBSIR 77-858; May 77.

Proposed Standards for Ladar Signatures;

Danielson, B.L. NBSIR 77-856; Apr 77. An NBS Laser Measurement Assurance Program (MAP);

Sanders, A.A.; Cook, A.R.

Proc., Electro-Optical Systems Design Conf. 1976 and Int. Laser Exposition, Sep 14-16, 1976, New York, NY, p

277-280; 76.

Laser Action in Sputtered Metal Vapors;

McNeil, J.R.; Johnson, W.L.; Collins, G.J.; Persson, K.B.; Franzen, D.L.

9th Int. Conf. on Quantum Electronics, Jun 14-16, 1976, Amsterdam, The Netherlands, p 162-163; 76.

Performance and Characteristics of Polyvinylidene Fluoride Pyroelectric Detectors; Day, G.W.; Hamilton, C.A.; Gruzensky, P.M.; Phelan, R.J., Jr. Proc., IEEE Symposium on Application of Ferroelectrics, Jun 9-11, 1975, Albuquerque, NM, Ferroelectrics 10: 99-102; 76.

Absolute Reference Calorimeter for Measuring High Power Laser Pulses;

Franzen, D.L.; Schmidt, L.B. Appl. Opt. 15: 3115-3122; Dec 76.

Spectral Reference Detector for the Visible to 12 Micrometer Region; Convenient, Spectrally Flat; Day, G.W.; Hamilton, C.A.; Pyatt, K.W.

Appl. Opt. 15: 1865-1868; Jul 76.

14
An Electrically Calibrated Pyroelectric Radiometer System;

Hamilton, CA.; Day, G.W.; Phelan, R.J., Jr. NBS TN 678; Mar 76.

Ultraviolet Laser Action from Cu II in the 2500A Region;

McNeil, J.R.; Collins, G.J.; Persson, K.B.; Franzen, D.L.

Appl. Phys. Lett. 28: 207-209; Feb 76.

Laser Attenuators for the Production of Low Power Beams in the Visible and 1.06 Micron Regions;

Danielson, B.L.; Beers, Y.

NBS TN 677; Jan 76.

Radiometry without Standard Sources/Electrically Calibrated Pyroelectrics;

Phelan, Robert J., Jr.; Hamilton, Clark A.; Day, Gordon W.

Proc., Society of Photo-Optical Instrumentation Engineers; Aug 17-22, 1975; San Diego, CA; Paper in Modern

Utilization of Infrared Technology Civilian and Military, SPIE 62: 159-165; 75.

Pyroelectric Radiometers Get Off the Drawing Board;

Hamilton, CA.; Phelan, R.J., Jr.; Day, G.W.

Opt. Spectra 9: 37-38; Oct 75.

Improving Beam Measurement;

Smith, R.L.; Sanders, AA.

Laser Focus, 70-71; Apr 75.

Precision Beam Splitters for C02 Lasers; Franzen, D.L.

Appl. Opt. 14: 647-652; Mar 75. A Pyroelectric Power Meter for the Measurement of Low Level Laser Radiation;

Hamilton, CA.; Day, G.W.

NBS TN 665; Feb 75.

The Polarization of PVF and PVF2 Pyroelectrics;

Phelan, R.J., Jr; Peterson, R.L.; Hamilton, CA.; Day, G.W.

Ferroelectrics 7: 375-377; 74.

Current Status of NBS Low-Power Laser Energy Measurement;

West, E.D.; Case, W.E.

Proc., Conf. on Precision Electromagnetic Measurements; Jul 1-5, 1974; London, England; IEEE Trans. Instrum. Meas. IM-23 : 422-425; Dec 74.

Analysis of Response of Pyroelectric Optical Detectors;

Peterson, R.L.; Day, G.W.; Gruzensky, P.M.; Phelan, R.J.

J. Appl. Phys. 45: 3296-3303; Aug 74.

Effects of Poling Conditions on Responsivity and Uniformity of Polarization of PVF2 Pyroelectric Detectors;

Day, G.W.; Hamilton, CA.; Peterson, R.L.; Phelan, R.J., Jr; Mullen, L.O.

Appl. Phys. Lett. 24: 456-458; May 74.

Absolute, Pyroelectric Radiometers and Two Dimensional Arrays;

Phelan, R.J., Jr.; Peterson, R.L.; Klein, G.P.; Hamilton, CA.; Day, G.W.

Proc., American Electro-Optical Systems Design Conf.; New York, NY; p 117-123; 73.

Comparison of the Laser Power and Total Irradiance Scales Maintained by the National Bureau of Standards;

Geist, J.; Schmidt, L.B.; Case, W.E.

Appl. Opt. 12: 2773-2776; Nov 73.

Electrically Calibrated Pyroelectric Optical-Radiation Detector;

Phelan, R.J., Jr.; Cook, A.R.

Appl. Opt. 10: 2494-2500; Oct 73.

Continuous Laser-Sustained Plasmas;

Franzen, D.L.

J. Appl. Phys. 44: 1727-1732; Apr 73.

15
Limitations of the Use of Vacuum Photodiodes in Instruments for the Measurement of Laser Power and Energy;

Smith, R.L.; Phelan, R.J., Jr. Appl. Opt. 12: 795-798; Apr 73.

Accurate Frequencies of Molecular Transitions Used in Laser Stabilization: The 3.39-Micrometer Transition in CH4 and

the 9.33- and 10.18-Micrometer Transitions in C02 ; Evenson, K.M.; Wells, J.S.; Petersen, F.R.; Danielson, B.L.; Day, G.W.

Appl. Phys. Lett. 22: 192-195; Feb 73. A Calorimeter for High Power CW Lasers; Smith, R.L.; Case, W.E.; Rasmussen, A.L.; Russell, T.W.; West, E.D.

Proc., Precision Electromagnetic Measurements Conf., Jun 26-29, 1972; Boulder, CO; p 138-139; 72.

High D*, Fast, Lead Zirconate Titanate Pyroelectric Detectors;

Mahler, R.J.; Phelan, R.J., Jr.; Cook, A.R.

Infrared Phys. 12: 57-59; 72. A Calorimeter for High-Power CW Lasers; Smith, R.L.; Russell, T.W.; Case, W.E.; Rasmussen, A.L.

IEEE Trans. Instrum. Meas. IM-21: 434-438; Nov 72.

Speed of Light from Direct Frequency and Wavelength Measurements of the Methane-Stabilized Laser; Evenson, K.M.; Wells, J.S.; Petersen, F.R.; Danielson, B.L.; Day, G.W.

Phys. Rev. Lett. 29: 1346-1349; Nov 72. CW Gas Breakdown in Argon Using 10.6 Micrometer Laser Radiation;

Franzen, D.L.

Appl. Phys. Lett. 21: 62-64; Jul 72.

Role of Infrared Frequency Synthesis in Metrology;

Wells, J.S.; Evenson, K.M.; Day, G.W.; Halford, D.

Proc., IEEE Lett. 60: 621-623; May 72.

Gain Saturation Measurements in C02, TEA Amplifiers;

Franzen, D.L.; Jennings, DA.

J. Appl. Phys. 43: 729-730; Feb 72.

Double Plate Calorimeter for Measuring the Reflectivity of the Plates and the Energy in a Beam of Radiation;

Rasmussen, A.L.

PATENT-3 622 245; patented 23 Nov 71.

High D* Pyroelectric Polyvinylfluoride Detectors;

Phelan, R.J., Jr.; Mahler, R.J.; Cook, A.R.

Appl. Phys. Lett. 19: 337-338; Nov 71.

Measurement of Laser Energy of Linear Components of Polarization at 1.060 Micron;

Rasmussen, A.L.

Rev. Sci. Instrum. 42: 1590-1593; Nov 71.

Linear and Nonlinear Optical Properties of Trigonal Selenium;

Day, G.W.

Appl. Phys. Lett. 18: 347-349; Apr 71.

Extension of Absolute Frequency Measurements to the cw He-Ne Laser at 88 THz (3.39 /im);

Evenson, K.M.; Day, G.W.; Wells, J.S.; Mullen, L.O.

Appl. Phys. Lett. 20: 133-134; Feb 71.

Some Optical Properties of Cesium Cupric Chloride;

Day, G.W.; Gruzensky, P.M.

Appl. Opt. 9: 2494-2795; 70.

Laser Power and Energy Measurements;

Jennings, D.A.; West, E.D.; Evenson, K.M.; Rasmussen, A.L.; Simmons, W.R.

NBS TN 382; Oct 69.

16
InSb-GaAsP Infrared to Visible Light Converter;

Phelan, Robert J., Jr. Proc., IEEE 55: 1505-1502; Aug 67.

InSb MOS Infrared Detector;

Phelan, RJ., Jr.; Dimmock, J.O.

Appl. Phys. Lett. 10: 55-7; Jan 67.

Incoherent Source Optical Pumping of Visible and Infrared Semiconductor Lasers; Phelan, RJ., Jr. Proc., IEEE 54: 1119-20; Aug 66.

Laser Emission by Optical Pumping of Semiconductors;

Phelan, RJ., Jr. Proc., Quantum Electronics Conf., 435-441; Jul 65.

17
CRYOELECTRONIC METROLOGY

Airy Pattern, Weak-Link Modeling of Critical Currents in High-Tc Superconductors;

Peterson, R.L.; Ekin, J.W.

Physica C 1577: 325-333; 89.

Modeling of Critical Currents in Granular High-Tc Superconductors;

Peterson, R.L.; Ekin, J.W.

Proc., Magnetic Interactions of High Tc Superconductors 17: 190-195; 89.

Magnetization of Imperfect Superconducting Grains;

Peterson, R.L.

Phys. Rev. B 40(4); Aug 1, 89. A 10 V Josephson Voltage Standard;

Hamilton, CA.; Lloyd, F.L.; Chieh, K.; Goeke, K. IEEE Trans. Instrum. Meas. 38(2): 314-316; Apr 89.

Noise in DC SQUIDs with Nb/Al-Oxide/Nb Josephson Junctions;

Cromar, M.W.; Beall, J.A.; Go, D.; Masarie, K.A.; Ono, R.H.

IEEE Trans. Magn. 25(2): 1005-1007; Mar 89. MM Wave Quasioptical SIS Mixers;

Hu, Q.; Mears, CA.; Richards, P.L.; Lloyd, F.L. IEEE Trans. Magn. 25(2): 1380-1383; Mar 89.

Chaos and Catastrophe near the Plasma Frequency in the RF-Biased Josephson Junction;

Kautz, R.L.; Monaco, R.

IEEE Trans. Magn. 25(2): 1399-1403; Mar 89.

Switching Noise in YBa2Cu3Ox Macrobadges;

Ono, R.H.; Beall, J.A.; Cromar, M.W.; Mankiewich, P.M.; Howard, R.E.; Skocpol, W.

IEEE Trans. Magn. 25(2): 976-979; Mar 89.

Superconducting Kinetic Inductance Bolometer;

Sauvageau, J.E.; McDonald, D.G.

IEEE Trans. Magn. 25(2): 1331-1334; Mar 89.

Measurement of Integrated Tuning Elements for SIS Mixers with a Fourier Transform Spectrometer;

Hu, Q.; Mears, C.A.; Richards, P.L.; Lloyd, F.L.

Inti. J. Infrared & Millimeter Waves 9(4): 303-320; 88.

SIS Quasiparticle Mixers with Bow-Tie Antennas;

Xizhi, L.; Richards, P.L.; Lloyd, F.L.

Inti. J. Infrared & Millimeter Waves 9(2): 101-133; 88.

Thermally Induced Escape: The Principle of Minimum Available Noise Energy;

Kautz, R.L.

Phys. Rev. A 38(4): 2066-2080; Aug 15, 88.

Josephson Junction Model of Critical Current in Granular Y1 Ba2Cu30

7 6

\ Peterson, R.L.; Ekin, J.W.

Phys. Rev. 37(16): 9848-9851; Jun 1, 88.

Josephson ac Voltmeter;

Peterson, R.L.; Oldham, N.M.

J. Appl. Phys. 63(10): 4804-4810; May 5, 88.

Superconducting Analog Track-and-Hold Circuit;

Go, D.; Hamilton, CA.; Lloyd, F.L.; Dilorio, M.S.; Withers, R.S.

IEEE Trans. Electron Devices 35(4): 498-501; Apr 88.

18
Precision of Series-Array Josephson Voltage Standards;

Kautz, R.L.; Lloyd, F.L. Appl. Phys. Lett. 51(24): 2043-2045; Dec 14, 87.

Activation Energy for Thermally Induced Escape from a Basin of Attraction;

Kautz, R.L.

Phys. Lett. A 125(6,7): 315-319; Nov 23, 87. A Josephson Array Voltage Standard at 10 Volts;

Lloyd, F.L.; Hamilton, CA.; Beall, JA.; Go, D.; Ono, R.H.; Harris, R.E.

Electron Device Letters EDL-8(10): 449-450; Oct 10, 87.

Equivalent Flux Noise in a YBa2CuOx rf SQUID;

Zimmerman, J.E.; Beall, JA.; Cromar, M.W.; Ono, R.H.

Proc, XVIII Inti. Conf. Low Temp. Phys., p

2125-2126; Aug 87.

Operation of a YBa2Cu3Ox rf-SQUID at 81 K;

Zimmerman, J.E.; Beall, JA.; Cromar, M.W.; Ono, R.H.

Appl. Phys. Lett. 57(8): 617-618; Aug 24, 87.

Sinusoidal Response of dc SQUIDs for rf Power Measurements;

Peterson, R.L.

NBS JRES 92(4): 253-259; Jul-Aug 87.

Global Stability of Phase Lock Near Chaotic Crisis in the rf-Biased Josephson Junction;

Kautz, R.L.

J. Appl. Phys. 62(1): 198-211; Jul 1, 87.

Numerical Study of Currents and Fields in a Semiconducting Optical Detector;

Peterson, R.L.

IEEE J. Quant. Electron. QE-23(7): 1185-1192; Jul 87.

Phase Lock of a Long Josephson Junction to an External Microwave Source;

Cirillo, M.; Lloyd, F.L.

J. Appl. Phys. 61(7): 2581-2585; Apr 1, 87.

Performance of Arrays of SIS Junctions in Heterodyne Mixers;

Crete, D.G.; McGrath, W.R.; Richards, P.L.; Lloyd, F.L. IEEE Trans. Microwave Theory Tech. MTT-35(4): 435-440; Apr 87.

Series-Array Josephson Voltage Standards;

Kautz, R.L.; Hamilton, CA.; Lloyd, F.L. IEEE Trans. Magn. MAG-23(2): 883-890; Mar 87.

Current-Voltage Characteristics of Nanoampere Josephson Junctions;

Ono, R.H.; Cromar, M.W.; Kautz, R.L.; Soulen, R.J.; Colwell, J.H.; Fogle, W.E.

IEEE Trans. Magn. 23(2): 1670-1673; Mar 87.

Novel Superconducting Thermometer for Bolometric Applications;

McDonald, D.G.

Appl. Phys. Lett. 50(12): 775-777; Mar 23, 87. A Proposed Military Standard for Commercial Eddy Current Probes Based on Performance Characterization;

Capobianco, T.E.; Fickett, F.R.

Proc., 35th DoD Conf. NDT, Oct 28-30, 1986, p 135-141; 86.

Wide-Band Low Noise mm-Wave SIS Mixers with a Single Tuning Element;

Raisanen, A.V.; Crete, D.G.; Richards, P.L.; Lloyd, Frances L.

Inti. J. Infrared Millimeter Waves 7(12): 1835-52; 86.

Modelling a Voltage-Locked Josephson Junction Array Amplifier: Gain, Input, Impedance, and Bandwidth;

McDonald, D.G.

J. Appl. Phys. 60(9): 3247-3257; Nov 86.

19
Very Low Noise, Tightly Coupled, dc SQUID Amplifiers;

Muhlfelder, B.; Beall, JA.; Cromar, M.W.; Ono, R.

Appl. Phys. Lett. 49(17): 1118-1120; Oct 86.

High Accuracy in Physics;

McDonald, D.G.

Science, p 829; Aug 86. Low Noise SIS Mixer with Gain for 80-115 GHz;

Lloyd, F.L.; Raisanen, A.V.; Crete, D.G.; Richards, P.L. ESA Workshop on a Space Base Submillimeter Astronomy Mission; Jun 4-7, 1986; Segovia, Spain; European

Space Agency, Paris, France; Inti. J. Infrared and mm Waves; p 255-258; Aug 86.

Flux Limit of Cosmic-Ray Magnetic Monopole from a Multiply Discriminating Superconductive Detector;

Cromar, M.; Clark, A.F.; Fickett, F. Phys. Rev. Lett. 56(24): 2561-2563; Jun 86.

The NBS Josephson Array Voltage Standard;

Hamilton, CA.; Kautz, R.L.; Lloyd, F.L. 1986 CPEM Conf. Digest, Jun 23-27, 1986; Gaithersburg, MD; p

108-109; Jun 86.

Onset of Chaos in the rf-Biased Josephson Junction;

Kautz, R.L.; McFarlane, J.C. Phys. Rev. A 33(1): 498-509; Jan 86. A Josephson Series Array Voltage Standard at One Volt;

Hamilton, CA.; Lloyd, F.L.; Kautz, R.L.

NCSL 1985 Workshop and Symp.; Jul 15-18, 1985; Boulder, CO; p71-77; 85. A Practical Josephson Voltage Standard at 1 V;

Hamilton, CA.; Kautz, R.L.; Steiner, R.L.; Lloyd, F.L. IEEE Electron Device Lett. EDL-6(12): 623-625; Dec 85.

Broad-Band RF Match to a Millimeter-Wave SIS Quasi-Particle Mixer;

Raisanen, A.V.; McGrath, W.R.; Richards, P.L.; Lloyd, F.L. IEEE Trans. Microwave Theory Tech. MTT-33(12): 1495-1500; Dec 85.

Amplification by a Voltage Locked Array of Josephson Junctions;

McDonald, D.G.; Frederick, N.V.

Appl. Phys. Lett. 47(5): 530-532; 1 Sep 85.

Chaos and Thermal Noise in the rf-Biased Josephson Junction;

Kautz, R.L.

J. Appl. Phys. 58(1): 424-440; 1 Jul 85.

Near-Zero Bias Arrays of Josephson Tunnel Junctions Providing Standard Voltages Up to IV;

Niemeyer, J.; Hinken, J.H.; Kautz, R.L.

IEEE Trans. Instrum. Meas. IM-34(2): 185-187; Jun 85.

Design of Cryocoolers for Microwatt Superconducting Devices;

Zimmerman, J.E.

Proc., Third Cryocooler Conf. on Refrigeration for Cryogenic Sensors & Electronic Systems; Sep 17-18, 1984;

Boulder, CO; NBS SP 698, p

2-9; May 85.

Accurate Noise Measurements of Superconducting Quasiparticle Array Mixers;

McGrath, W.R.; Raisanen, A.V.; Richards, P.L.; Harris, R.E.; Lloyd, F.L.

Proc., Applied Superconductivity Conf.; Sep 10-13, 1984; San Diego, CA; IEEE Trans. Magn. MAG-21(2):

212-215; Mar 85.

Fabrication of a Miniaturized DCL Gate;

Ono, R.; Beall, J.; Harris, R.E.

Proc., Applied Superconductivity Conf., Sep 10-13, 1984; San Diego, CA; IEEE Trans. Magn. MAG-21(2):

846-849; Mar 85.

20
Superconducting A/D Converter Using Latching Comparators;

Hamilton, CA.; Lloyd, F.L.; Kautz, R.L.

Proc., Applied Superconductivity Conf.; Sep 10-13, 1984; San Diego, CA; IEEE Trans. Magn. MAG-21(2):

197-199; Mar 85.

Well Coupled, Low Noise, dc SQUIDs;

Muhlfelder, B.; Beall, JA.; Cromar, M.; Ono, R.; Johnson, W.

Proc., Applied Superconductivity Conf.; Sep 10-13, 1984; San Diego, CA; IEEE Trans. Magn. MAG-21(2):

427-429; Mar 85.

Survey of Chaos in the rf-Biased Josephson Junction;

Kautz, R.L.; Monaco, R.

J. Appl. Phys. 57(3): 875-889; Feb 85.

High Speed Superconducting A/D Converter;

Hamilton, CA.; Lloyd, F.L.; Kautz, R.L.

Proc., 1984 Government Microcircuit Applications Conf.; Nov 6-8, 1984; Las Vegas, NV; p 140-143; 84.

Recent Developments in Self-Contained Cryocoolers for SQUIDs and Other Low-Power Cryoelectronic Devices;

Zimmerman, J.E.

Proc., International Cryogenic Engineering Conf.; Aug 1-4, 1984; Helsinki, Finland; Butterworth, p

13-19; 84.

Amplification by the Phase-Locking Mechanism in a 4-Junction SQUID;

McDonald, D.G.

Appl. Phys. Lett. 45(11): 1243-1245; Dec 1, 84.

Microwave-Induced Constant-Voltage Steps at One Volt From a Series Array of Josephson Junctions;

Niemeyer, J.; Hinken, H.; Kautz, R.L.

Appl. Phys. Lett. 45(4): 478-480; Aug 84.

Power Gain of a SQUID Amplifier;

McDonald, D.G.

Appl. Phys. Lett. 44(5): 556-558; Mar 84.

Cryogenics;

Zimmerman, J.E. Chapt. 3 in Biomagnetism: An Interdisciplinary Approach, Samuel J. Williamson, et al., eds., NATO Advanced

Study Institute Publication, Vol. 66, p 43-67, New York: Plenum Press; 83.

Magnetic Quantities, Units, Materials, and Measurements;

Zimmerman, J.E. Chapt. 2 in Biomagnetism: An Interdisciplinary Approach, Samuel J. Williamson, et al., eds., NATO Advanced

Stuffy Institute Publication, Vol. 66, p 17-42, New York: Plenum Press; 83. A Cryocooler for Applications Requiring Low Magnetic and Mechanical Interference;

Zimmerman, J.E.; Daney, D.E.; Sullivan, D.B.

NASA Pub. 2287, p 95-106; Dec 83. An Approach to Optimization of Low-Power Stirling Cryocoolers;

Sullivan, D.B.

Proc., 2nd Biennial Conf. Refrigeration for Cryogenic Sensors; Dec. 7-8, 1982; Greenbelt, MD; NASA Conf. Publ.

2287, p 95-106; Dec 83.

Chaos in Josephson Circuits;

Kautz, R.L.

Proc., Applied Superconductivity Conf., IEEE Trans. Magn. MAG-19(3): 465-473; May 83.

Double Transformer Coupling to a Very Low Noise SQUID;

Cromar, M.; Muhlfelder, B.

Proc., Applied Superconductivity Conf., IEEE Trans. Magn. MAG-19(3): 303- 307; May 83.

8-Bit Superconducting A/D Converter;

Hamilton, CA.; Lloyd, F.L.

Proc., Applied Superconductivity Conf., IEEE Trans. Magn. MAG-19(3)1259- 1261; May 83.

21
Microwave Mixing and Direct Detection Using SIS and SIS’ Quasiparticle Tunnel Junctions;

Harris, R.E.; et al. Proc., Applied Superconductivity Conf., IEEE Trans. Magn. MAG-19(3): 490- 493; May 83.

100 GHz Binary Counter Using SQUID Flip Flops;

Hamilton, C.A.

Proc., Applied Superconductivity Conf., IEEE Trans. Magn. MAG-19(3): 1291- 1291; May 83.

Operation of a Superconducting Analog-to-Digital Converter at Short Conversion Times;

Kautz, R.L.

Proc., Applied Superconductivity Conf., IEEE Trans. Magn. MAG-19(3): 1186-1189; May 83.

Summary of the Proceedings of the 2nd Biennial Conf. Refrigeration for Cryogenic Sensors;

Zimmerman, J.E. Cryogenics 23(5): 281-282; May 83.

Superconducting Current Injection Transistor;

VanZeghbroeck, B.J. Appl. Phys. Lett. 42(8): 736-738; Apr 83.

Voltage and Current Expressions for a Two-Junction Superconducting Interferometer;

Peterson, R.L.; McDonald, D.G.

J. Appl. Phys. 54(2): 992-996; Feb 83.

100 GHz Binary Counter Based on DC SQUIDs;

Hamilton, C A.

IEEE Electron Device Lett. EDL-3(11): 335-338; Nov 82.

Electronically Adjustable Delay for Josephson Technology;

Harris, R.E.; Wolf, P.; Moore, D.F.

IEEE Electron Device Lett. EDL-3(9); Sep 82.

High-Speed, Low-Crosstalk Chip Holder for Josephson Integrated Circuits;

Hamilton, C.A.

IEEE Trans. Instrum. Meas. IM-31(2): 29; Jun 82.

Book review: Principles of Superconductive Devices and Circuits, by T. Van Duzer and C.W. Turner;

McDonald, D.G.; Clark, A.F.

Phys. Today, p 80; Feb 82.

Analog Measurement Applications for High Speed Josephson Switches;

Hamilton, C.A.; Lloyd, F.L.; Kautz, R.L.

IEEE Trans. Magn. MAG-17(1): 577-82; Jan 82. A Study of Design Principles for Refrigerators for Low-Power Cryoelectronic Devices;

Zimmerman, J.E.; Sullivan, D.B.

NBS TN 1049; Jan 82. A Josephson Voltage Standard Using a Series Array of 100 Junctions;

Kautz, R.L.; Costabile, G.

IEEE Trans. Magn. MAG-17, 780; 81.

Magnetic Auditory Evoked Fields: Interhemispheric Asymmetry;

Reite, M.; Zimmerman, J.T.; Zimmerman, J.E. Electroencenphalogr. Clin. Neurophys. 51: 388-392; 81.

Superconducting Electronics;

McDonald, D.G.

Phys. Today 34: 36-47; 81.

Mathematical Modelling of the Impedance of a Josephson Junction Noise Thermometer;

Peterson, R.L.

J. Appl. Phys. 52(12): 7321-7326; Dec 81.

22
Design Limitations for Superconducting A/D Converters;

Hamilton, CA.; Lloyd, F.L. IEEE Trans. Magn. MAG-17(6): 3414-3419; Nov 81.

Chaotic States of rf-Biased Josephson Junctions;

Kautz, R.L.

J. Appl. Phys. 52(10): 6241-6246; Oct 81.

Low Noise Tunnel Junction dc SQUIDs;

Cromar, M.W.; Carelli, P. Appl. Phys. Lett. 38(9): 723-725; May 81.

Modelling the Impedance of a Josephson Junction Noise Thermometer;

Peterson, R.L.; Van Vechten, D.

Phys. Review B 24(6): 3588-3591; Sep 81.

Measurement of Thermal Properties of Cryocooler Materials;

Zimmerman, J.E.; Sullivan, D.B.; Kautz, R.L.; Hobbs, R.D.

Proc., Conf. Refrigeration for Cryogenic Sensors and Electronic Systems; NBS SP 607, p

173-177; May 81.

Operation of a Practical SQUID Gradiometer in a Low-Power Stirling Cryocooler;

Sullivan, D.B.; Zimmerman, J.E.; Ives, J.T. Proc., Conf. Refrigeration for Cryogenic Sensors and Electronic Systems; NBS SP 607, p

186-194; May 81.

Refrigeration for Cryogenic Sensors and Electronic Systems;

Zimmerman, J.E.; Sullivan, D.B.; McCarthy, S.M., eds. NBS SP 607; May 81.

The ac Josephson Effect in Hysteric Junctions: Range and Stability of Phase Lock;

Kautz, R.L.

J. Appl. Phys. 52(5): 3528-3541; May 81.

Analog Measurement Applications for High Speed Josephson Switches;

Hamilton, C.A.; Lloyd, F.L.; Kautz, R.L.

IEEE Trans. Magn. MAG 17(1): 577-582; Jan 81.

Behavior of the dc Impedance of an rf-Biased Resistive SQUID;

Van Vechten, D.; Soulen, R.J., Jr.; Peterson, R.L.

Proc., 2nd Inti. Conf. on Superconducting Quantum Interference Devices (SQUIDs), H.D. Wahlbohm;

H. Lubbig, eds.; New York, Berlin: Walter de Gruyter & Co., p 569-584; 80.

Cryogenics for SQUIDs;

Zimmerman, J.E.

Proc., 2nd Inti. Conf. on Superconducting Quantum Interference Devices (SQUIDs), H.D. Wahlbohm;

H. Lubbig, eds.; New York, Berlin: Walter de Gruyter & Co., p

423-443 ; 80.

Recent Progress in Cryoelectronics;

Sullivan, D.B.; Hamilton, CA.; Kautz, R.L.

IEEE Trans. Instrum. Meas. IM-29: 319; 80.

.Space Applications of Superconductivity: Digital Electronics;

Harris, R.E.

Cryogenics 20: 115; 80.

Transient Pool Boiling of Liquid Helium Using a Temperature Controlled Heater Surface;

Giarratano, P.J.; Frederick, N.V.

Advances in Cryogenic Engineering, K.D. Timmerhaus; HA. Synder, eds.; New York: Plenum Press, 25: 455-466;

80.

Turn-On Delays in Single Josephson Junction Devices;

Peterson, R.L.

Proc., 2nd Inti. Conf. on Superconducting Quantum Interference Devices (SQUIDs), H.D. Wahlbohm;

H. Lubbig, eds., New York; Berlin: Walter de Gruyter & Co., 685-702; 80.

23
Picosecond Applications of Josephson Junctions;

McDonald, D.G.; Peterson, R.L.; Hamilton, CA.; Harris, R.E.; Kautz, R.L.

IEEE Trans. Electron Devices ED-27(10): 1945-1965; Oct 80.

Induced Electronic Currents in the Alaska Oil Pipeline Measured by Gradient Fluxgate and SQUID Magnetometers;

Campbell, W.H.; Zimmerman, J.E. IEEE Trans. Geosci. Remote Sensing GE-18(3): 244-250; Jul 80.

Cryocoolers for Geophysical SQUID Magnetometers;

Zimmerman, J.E.

Proc., SQUID Geophysics Workshop, Los Alamos, NM; Jun 80.

Space Applications of Superconductivity: Instrumentation for Gravitational and Related Studies;

Peterson, R.L.

Cryogenics, p 299-306; Jun 80. A Superconducting 6-bit Analog-to-Digital Converter with Operation to 2 x 10

9 Samples/Second;

Hamilton, CA.; Lloyd, F.L. IEEE Electron Device Lett. EDL-1(5): 92-94; May 80.

Conversion Gain in mm-Wave Quasiparticle Heterodyne Mixers;

Shen, T.M.; Richards, P.L.; Harris, R.E.; Lloyd, F.L. Appl. Phys. Lett. 36: 777-779; May 80.

Space Applications of Superconductivity: Microwave and Infrared Detectors; Hamilton, C.A.

Cryogenics, p 235-243; May 80. On a Proposed Josephson-Effect Voltage Standard at Zero Current Bias;

Kautz, R.L.

Appl. Phys. Lett. 36(5): 386-388; Mar 80.

Simple-Heating-Induced Josephson Effects in Quasiparticle-Injected Superconducting Weak Links;

Kaplan, S.B.

J. Appl. Phys. 51(3): 1682-1685; Mar 80.

Superconductor Insulator-Superconductor Quasiparticle Junctions as Microwave Photon Detectors;

Richards, P.L.; Shen, T.M.; Harris, R.E.; Lloyd, F.L. Appl. Phys. Lett. 36: 480-482; Mar 80.

Space Applications of Superconductivity: Low Frequency Superconducting Sensors;

Zimmerman, J.E. Cryogenics, p 3-10; Jan 80.

Acoustic Matching of Superconducting Films to Substrates;

Kaplan, S.B.

J. Low Temp. Phys. 37: 343-365; 79. A Milliwatt Stirling Cryocooler for Temperatures below 4 K;

Zimmerman, J.E.; Sullivan, D.B.

Cryogenics 19: 170; 79.

Miniaturization of Normal-State and Superconducting Strip-Lines;

Kautz, R.L.

NBS JRES 84: 247; 79.

Quasiparticle Heterodyne Mixing in SIS Tunnel Junctions;

Richards, P.L.; Shen, T.M.; Harris, R.E.; Lloyd, F.L. Appl. Phys. Lett. 34: 345; 79.

Superconducting Devices;

Zimmerman, J.E.; Sullivan, D.B.

Yearbook of Science and Technology, McGraw-Hill; 79.

24
Analysis of Threshold Curves for Superconducting Interferometers;

Peterson, R.L.; Hamilton, CA.

J. Appl. Phys. 50(12): 8135-8142; Dec 79. A Superconducting Sampler for Josephson Logic Circuits;

Hamilton, CA.; Lloyd, F.L.; Peterson, R.L.; Andrews, J.R. Appl. Phys. Lett. 35: 718; Nov 79.

Multiple-Quantum Interference Superconducting Analog-to-Digital Converter;

Harris, R.E.; Hamilton, CA.; Lloyd, F.L. Appl. Phys. Lett. 35: 720; Nov 79.

Space Applications of Superconductivity;

Sullivan, D.B.; Vorreiter, J.W.

Cryogenics 19: 627-631; Nov 79.

Very Low-Power Stirling Cryocoolers Using Plastic and Composite Materials;

Sullivan, D.B.; Zimmerman, J.E.

Inti. J. Refrig. 2: 211-213; Nov 79.

Differential Capacitance Sensor as Position Detectors for Magnetic Suspension Densimeter;

Frederick, N.V.

Rev. Sci. Instrum. 50(9): 1154; Sep 79.

Analog to Digital Conversion with a SQUID: Conditions for a Countable Pulse Train;

Peterson, R.L.

J. Appl. Phys. 50: 4231; Jun 79.

Cryogenic Refrigeration System;

Zimmerman, J.E. PATENT-4 143 520; patented 13 Mar 79.

Quasiparticle Heterodyne Mixing in SIS Tunnel Junctions;

Harris, R.E.; Lloyd, F.L.; Richards, P.L.; Shen, T.M.

Appl. Phys. Lett. 34(5): 345-347; Mar 79.

Sampling Circuit and Method Therefor;

Hamilton, CA.

PAT-APPL-6-020 359; Filed 14 Mar 79.

Attenuation in Superconducting Striplines;

Kautz, R.L.

IEEE Trans. Magn. MAG-15: 566-569; Jan 79.

High-Speed Superconducting Electronics;

Hamilton, C.A.; Harris, R.E.; Sullivan, D.B.

GOMAC Digest, Vol. 7; 78. Human Magnetic Auditory Evoked Responses;

Reite, M.; Edrich, J.; Zimmerman, J.T.; Zimmerman, J.E. Electroencephalogr. Clin. Neurophys. 45: 114-117; 78.

Magnetic Phenomena of the Central Nervous System;

Reite, M.; Zimmerman, J. Ann. Rev. Biophys. Bioeng. 7: 167-188; 78.

Multiple Magnetic Flux Entry into SQUIDS: A General Way of Examining the Cos(phi) Conductance;

Peterson, R.L.; Gayley, R.I. Phys. Rev. B 18: 1198-1206; Aug 78.

Automatic 300-4 K Temperature Cycling Apparatus;

Hamilton, CA.

Rev. Sci. Instrum. Notes 49: 674-677; May 78.

25
The Role of Superconductivity in the Space Program: An Assessment of Present Capabilities and Future Potential;

Sullivan, D.B.

NBSIR 78-885; May 78.

Applications of Closed-Cycle Cryocoolers to Small Superconducting Devices;

Zimmerman, J.E.; Flynn, T.M.

Proc., Conf. held by the Office of Naval Research and the National Bureau of Standards, Oct 3-4, 1977; Boulder,

CO; NBS SP 508; Apr 78. RF Instrumentation Based on Superconducting Quantum Interference;

Sullivan, D.B.; Adair, R.T.; Frederick, N.V.

Proc., IEEE 66: 454-463; Apr 78.

Photolithographic Fabrication of Lead Alloy Josephson Junctions;

Havemann, R.H.; Hamilton, CA.; Harris, Richard E.

J. Vac. Sri. Technol. 15: 392-395; Mar/Apr 78.

Picosecond Pulses on Superconducting Striplines;

Kautz, R.L.

J. Appl. Phys. 49: 308-314; Jan 78.

Possible Cryocoolers for SQUID Magnetometers;

Zimmerman, J.E.; Radebaugh, R.; Siegwarth, J.D.

Proc., 1st IC SQUID Conf., Oct 5-8, 1976; Berlin, Germany, Paper R-1044 in Superconducting Quantum

Interference Devices and Their Applications, p 287-296; 77.

Results, Potentials and Limitations of Josephson Mixer-Receivers at Millimeter and Long Submillimeter Wavelengths;

Edrich, J.; Sullivan, D.B.; McDonald, D.G.

IEEE Trans. Microwave Theory Tech. MTT-25: 476; 77. RF Power Measurements Using Quantum Interference in Superconductors;

Sullivan, D.B.; Frederick, N.V.; Adair, R.T.

Proc., IC SQUID (1st), Oct 5-8, 1976; Berlin, Germany; Paper R-1045 in Superconducting Quantum Interference

Devices and Their Applications, p

355-363; 77.

Superconducting Devices for Metrology and Standards;

Kamper, RA.

Chap. 5 in Superconductor Applications: Squids and Machines; New York: Plenum Press, p

189-247; 77.

Design of a Josephson-Junction Picosecond Pulser;

McDonald, D.G.; Peterson, R.L.; Bender, B.K.

J. Appl. Phys. 48: 5366-5369; Dec 77.

Numerical Evaluation of the Response of a Josephson Tunnel Junction in an Arbitrary Circuit;

Harris, R.E.

J. Appl. Phys. 48: 5188-5190; Dec 77.

Picosecond Pulse Generator Utilizing a Josephson Junction;

McDonald, D.G.; Peterson, R.L.

PAT-APPL-862 311; Filed 20 Dec 77. A Sampling Circuit and Method Therefor;

Hamilton, CA.

PAT-APPL-853 354; Filed 21 Nov 77.

High-Frequency Limitations of the Double-Junction SQUID Amplifier;

Zimmerman, J.E.; Sullivan, D.B.

Appl. Phys. Lett. 31: 360-362; Sep 77. RF Attenuation Measurement System Using a SQUID;

Adair, R.T.; Frederick, N.V.; Sullivan, D.B.

NBSIR 77-863; Sep 77.

26
A Low-Noise Josephson Mixer for the 1 mm Wavelength Range;

Edrich, J.; Sullivan, D.B.; McDonald, D.G.

IEEE Trans. Microwave Theory Tech. MTT-25: 476-479; Jun 77. SQUID Instruments and Shielding for Low-Level Magnetic Measurements;

Zimmerman, J.E.

J. Appl. Phys. 48: 702-710; Feb 77.

Advances in the Use of SQUIDS for RF Attenuation Measurement;

Frederick, N.V.; Sullivan, D.B.; Adair, RT.

IEEE Trans. Magn. MAG-13: 361-364; Jan 77.

Analog Computer Studies of Frequency Multiplication and Mixing with the Josephson Junction;

Risley, A.S.; Johnson, E.G., Jr.; Hamilton, CA.

Proc., 1976 Applied Superconductivity Conf.; Stanford, CA; IEEE Trans. Magn. MAG-13: 381-384; Jan 77.

Can Superconductivity Contribute to the Determination of the Absolute Ampere?;

Sullivan, D.B.; Frederick, N.V.

IEEE Trans. Magn. MAG-13: 396-399; Jan 77.

Picosecond Pulses from Josephson Junctions: Phenomenological and Microscopic Analyses;

Peterson, R.L.; McDonald, D.G.

IEEE Trans. Magn. MAG-13: 887-890; Jan 77.

Refrigeration for Small Superconducting Devices;

Zimmerman, J.E.; Radebaugh, R.; Siegwarth, J.D. DKV Annual Meeting and Joint Meeting with the International Institute of Refrigeration; 13 Oct 1976; Munich,

Germany; Rpt. No. CONF-7610104-1; 76.

The Human Magnetoencephalogram: Some EEG and Related Correlations;

Reite, M.; Zimmerman, J.E.; Edrich, J.; Zimmerman, J.T. Electroencephalogr. Clin. Neurophys. 40: 59-66; 76.

Strong-Coupling Correction to the Jump in the Quasiparticle Current of a Superconducting Tunnel Junction;

Harris, R.E.; Dynes, R.C.; Ginsberg, D.M. 4 Phys. Rev. B 14: 993-995; Aug 76.

Strong-Coupling Correction to the Low-Frequency Electrical Conductivity of Superconductors and Josephson Junctions;

Harris, R.E.; Ginsberg, D.M.; Dynes, R.C.

Phys. Rev. B 14: 990-992; Aug 76.

Intrinsic Response Time of a Josephson Tunnel Junction;

Harris, R.E.

Phys. Rev. B 13: 3818-3821; May 76. RF Applications of the Josephson Effect;

Kamper, RA.

Microwave J. 19: 39-41; Apr 76.

Modeling Josephson Junctions;

McDonald, D.G.; Johnson, E.G.; Harris, R.E.

Phys. Rev. B 13: 1028-1031; Feb 76.

Accurate Rotational Constants, Frequencies, and Wavelengths from 12C

16 02 Lasers Stabilized by Saturated Absorption;

Petersen, F.R., McDonald, D.G.; Cupp, J.D.; Danielson, B.L.

Proc., Laser Spectroscopy Conf.; Jun 25-29, 1973; Vail, CO, p

555-569; 75.

Josephson Weak-Link Devices;

Silver, A.H.; Zimmerman, J.E. Applied Superconductivity, V.L. Newhouse, ed., Academic Press, p 1-80; 75.

Tests of Cryogenic SQUID for Geomagnetic Field Measurements;

Zimmerman, J.E.; Campbell, W.H.

Geophysics 40: 269; 75.

27
Cryogenic Direct Current Comparators and their Applications;

Dziuba, R.F.; Sullivan, D.B.

IEEE Trans. Magn. MAG-11: 716-719; Mar 75.

Phase Slip, Dissipation, Bernoulli Effect, Parametric Capacitance, and Other Curious Features of the Josephson Effect;

Zimmerman, J.E. IEEE Trans. Magn. MAG-11: 852-855; Mar 75.

Review of Superconducting Electronics;

Kamper, R.A.

IEEE Trans. Magn. MAG-11: 141-146; Mar 75.

Magnetic Properties of Internally Oxidized Copper;

Fickett, F.R.; Sullivan, D.B.

19th Annual Conf. Magnetism and Magnetic Materials; 1973; Boston, MA; AIP Conf. Proc., 18; 74.

Review of Electromagnetic Measurements Using the Josephson Effect;

Kamper, R.A.

Proc., ISA Inti. Instrumentation-Automation Conf.; Oct 28-31, 1974; New York, NY, p 1-8; 74. %

RF Attenuation Measurements Using Quantum Interference in Superconductors;

Adair, R.T.; Hoer, C.A.; Kamper, R.A.; Simmonds, M.B.

CPEM Digest, IEE, London, England, p 4-5; 74.

The Relationship of Josephson Junctions to a Unified Standard of Length and Time;

McDonald, D.G.; Risley, A.S.; Cupp, J.D.

Proc., 13th Inti. Conf. Low Temperature Physics; Aug 21-25, 1972; Boulder, CO; in Low Temperature Physics LT

13; p

542-549; 74. A Low-Temperature Direct-Current Comparator Bridge;

Sullivan, D.B.; Dziuba, R.F.

IEEE Trans. Instrum. Meas. IM-23: 256-260; Dec 74. RF Attenuation Measurements Using Quantum Interference in Superconductors;

Adair, R.T.; Simmonds, M.B.; Kamper, R.A.; Eloer, C.A.

IEEE Trans. Instrum. Meas. IM-23: 375-381; Dec 74.

Advances in the Measurement of rf Power and Attenuation Using SQUIDS;

Kamper, R.A.; Simmonds, M.B.; Adair, R.T.; Hoer, C.A.

NBS TN 661; Sep 74.

Josephson Junctions as Radiation Detectors from Millihertz to Terahertz;

McDonald, D.G.

IEEE J. Quantum Electron. QE-10: 776-777; Sep 74.

An Application of Superconducting Quantum Interference Magnetometers to Geophysical Prospecting;

Frederick, N.V.; Stanley, W.D.; Zimmerman, J.E.; Dinger, R.J. IEEE Trans. Geosci. Electron. GE-12: 102-103; Jul 74.

Magnetic Studies of Oxidized Impurities in Pure Copper Using a SQUID System;

Fickett, F.R.; Sullivan, D.B.

J. Phys. F 4: 900-904; Jun 74.

Josephson Junctions at 45 Times the Energy-Gap Frequency;

McDonald, D.G.; Petersen, F.R.; Cupp, J.D.; Danielson, B.L.; Johnson, E.G., Jr. Appl. Phys. Lett. 24: 335-337; Apr 74. Low Temperature Direct Current Comparators;

Sullivan, D.B.; Dziuba, R.F.

Rev. Sci. Instrum. 45: 517-519; Apr 74.

Superconducting Devices and Materials. Quarterly Literature Survey;

Olien, N.A.; Goree, W.S.; Kamper, R.A.; Nisenoff, M.; Wolf, S.A.

NBS Cryogenic Data Center, Boulder, CO, No. 74-1; Jan-Mar 74.

28
Field-Usable Sharpless Wafers for Josephson Effect Devices at Millimeter Waves;

Edrich, J.; Cupp, J.D.; McDonald, D.G.

Revue de Physique Appliquee 9: 195-197; Jan 74.

Spectral Analysis of a Phase Locked Laser at 891 GHz: An Application of Josephson Junctions in the Far Infrared;

Wells, J.S.; McDonald, D.G.; Risley, A.S.; Jarvis, S.; Cupp, J.D. Revue de Physique Appliquee (Supplement to J. de Physique), France, 9: 285-292; Jan 74.

Measurement of rf Power and Attenuation Using Superconducting Quantum Interference Devices;

Kamper, RA.; Simmonds, M.B.; Hoer, C.A.; Adair, R.T.

NBS TN 643; Aug 73.

Rotational Constants for

L2C

16 02 From Beats Between Lamb-Dip-Stabilized Lasers; Petersen, F.R.; McDonald, D.G.; Cupp, J.D.; Danielson, B.L.

Phys. Rev. Lett. 31: 573-576; Aug 73.

Analog-Computer Studies of Mixing and Parametric Effects in Josephson Junctions;

Hamilton, CA.

J. Appl. Phys. 44: 2371-2377; May 73.

Portable Helium Dewars for Use with Superconducting Magnetometers;

Zimmerman, J.E.; Siegwarth, J.D. Cryogenics 13: 158-159; Mar 73.

Superconducting Devices and Materials;

Goree, W.S.; Nisenoff, M.; Wolf, S.A.; Kamper, R.A.; Olien, N.A.

Quarterly Literature Survey, No. 73-1, NBS Cryogenic Data Center; Boulder, CO; Jan-Mar 73. A New Technique for RF Measurements Using Superconductors;

Kamper, RA.; Simmonds, M.B.; Adair, R.T.; Hoer, C.A.

Proc., IEEE 61: 121-122; Jan 73.

Flexible Laminates for Thermally Grounded Terminal Strips and Shielded Electrical Leads at Low Temperatures;

Radebaugh, R.; Frederick, N.V.; Siegwarth, J.D. Cryogenics 13: 41-43; Jan 73.

Possible Parametric Capacitance in Josephson Junctions;

Zimmerman, J.E. Phys. Lett. 42A: 375-376; Jan 73. A Review of the Properties and Applications of Superconducting Point Contacts;

Zimmerman, J.E.

Proc., Applied Superconductivity Conf.; May 1-3, 1972; Annapolis, MD; p

544-561; 72.

Precise Electrical Measurements at Low Temperature;

Sullivan, D.B.

Proc., Applied Superconductivity Conf.; May 1-3, 1972; Annapolis, MD; p

631-639; 72.

Quantum Mechanical Measurement of rf Attenuation;

Kamper, R.A.; Simmonds, M.B.; Adair, R.T.; Hoer, C.A.

Proc., Applied Superconductivity Conf.; May 1-3, 1972; Annapolis, MD; p

696-700; 72.

Computation of Spectral Data for a Josephson Junction Circuit;

Johnson, E.G., Jr.; McDonald, D.G.

NBS TN 627; Nov 72.

Developments in Cryoelectronics;

Kamper, R.A.; Sullivan, D.B.

NBS TN 630; Nov 72.

Superconducting Quantum Interference Devices: An Operational Guide for rf-Biased Systems;

Sullivan, D.B.

NBS TN 629; Nov 72.

29
Analog Computer Studies of Subharmonic Steps in Superconducting Weak Links;

Hamilton, C.A.; Johnson, E.G., Jr. Phys. Lett. A 41; 393-394; Oct 72.

Broadband Superconducting Quantum Magnetometer;

Kamper, R.A.; Simmonds, M.B.

Appl. Phys. Lett. 20; 270-272; Apr 72.

Four-Hundredth-Order Harmonic Mixing of Microwave and Infrared Laser Radiation Using a Joscphson Junction and a Maser;

McDonald, D.G.; Risley, A.S.; Cupp, J.D.; Evenson, K.M.; Ashley, J.R. Appl. Phys. Lett. 20: 296-299; Apr 72.

Low Temperature Voltage Divider and Null Detector;

Sullivan, D.B.

Rev. Sci. Instrum. 43: 499-505; Mar 72.

Superconducting Devices and Materials. A Literature Survey;

Goree, W.S.; Kamper, R.A.; Olien, N.A.

Quarterly Reports, NBS Cryogenic Data Center; Boulder, CO; 4 issues; Mar 72.

Joscphson Effect Devices and Low-Frequency Field Sensing;

Zimmerman, J.E. Cryogenics 12: 19-31; Feb 72. A Mechanical Superconducting Switch for Low Temperature Instrumentation;

Siegwarth, J.D.; Sullivan, D.B.

Rev. Sci. Instrum. 43: 153-154; Jan 72.

Superconducting Materials;

Kamper, R.A.

Electron. Design Materials, 71-79; 71.

Survey of Noise Thermometry;

Kamper, R.A.

Proc., 5th Symp. Temperature, Its Measurement and Control in Science and Industry; Jun 21-24, 1971;

Washington, DC; 71.

Mechanical Analogs of Time Dependent Joscphson Phenomena;

Sullivan, D.B.; Zimmerman, J.E. American J. Phys. 39: 1504-1517; Dec 71.

Sensitivity Enhancement of Superconducting Quantum Interference Devices through the Use of Fractional-Turn Loops;

Zimmerman, J.E.

J. Appl. Phys. 24: 4483-4487; Oct 71.

Observation of Noise Temperature in the Millikelvin Range;

Kamper, R.A.; Siegwarth, J.D.; Radebaugh, R.; Zimmerman, J.E. Proc., IEEE 59: 1368-1369; Sep 71.

Miniature Ultrasensitive Superconducting Magnetic Gradiometcr and Its Use in Cardiography and Other Applications;

Zimmerman, J.E.; Frederick, N.V.

Appl. Phys. Lett. 19: 16-19; Jul 71.

Resistance of a Silicon Bronze at Low Temperatures;

Sullivan, D.B.

Rev. Sci. Instrum. 42: 612-613; May 71.

Harmonic Mixing of Microwave and Far-Infrared Laser Radiation Using a Josephson Junction;

McDonald, D.G.; Risley, A.S.; Cupp, J.D.; Evenson, K.M.

Appl. Phys. Lett. 18: 162-164; Feb 71.

High-Frequency Limit of the Josephson Effect;

McDonald, D.G.; Evenson, K.M.; Wells, J.S.; Cupp, J.D.

J. Appl. Phys. 42: 179-181; Jan 71.

30
Noise Thermometry with the Josephson Effect;

Kamper, R.A.; Zimmerman, J.E.

J. Appl. Phys. 42: 132-136; Jan 71.

Recent Developments in Superconducting Devices;

Zimmerman, J.E.

J. Appl. Phys. 42: 30-37; Jan 71.

Cryoelectronics;

Kamper, RA.

Proc., Helium Society Symp.; Mar 23-24, 1970; Washington, DC; p

68-82; 70.

Generation of Harmonics and Subharmonics of the Josephson Oscillation;

Sullivan, D.B.; Peterson, R.L.; Kose, V.E.; Zimmerman, J.E.

J. Appl. Phys. 41: 4865-4873; Nov 70.

Magnetocardiograms Taken Inside a Shielded Room With a Superconducting Point-Contact Magnetometer;

Cohen, D.; Edelsack, E.A.; Zimmerman, J.E. Appl. Phys. Lett. 16: 278-280; Apr 70.

Some Applications of the Josephson Effect;

Kamper, RA.; Mullen, L.O.; Sullivan, D.B.

NASA-CR-1565; NBS TN 381; Mar 70.

Influence of External Noise on Microwave-Induced Josephson Steps;

Kose, V.E.; Sullivan, D.B.

J. Appl. Phys. 41: 169-174; Jan 70.

The Josephson Effect;

Kamper, R.A.

IEEE Trans. Electron Devices ED-16: 840-844; Oct 69.

Harmonic Generation and Submillimeter Wave Mixing With the Josephson Effect;

McDonald, D.G.; Kose, V.E.; Evenson, K.M.; Wells, J.S.; Cupp, J.D. Appl. Phys. Lett. 15: 121-122; Aug 15, 69.

Fabrication of Tunnel Junctions on Niobium Films;

Mullen, L.O.; Sullivan, D.B.

J. Appl. Phys. 40: 2115-2117; Apr 69.

Cryoelectronics;

Kamper, RA.

Cryogenics, 9: 20-25; Feb 69.

Contribution of Thermal Noise to the Line-Width of Josephson Radiation from Superconducting Point Contacts;

Silver, A.H.; Zimmerman, J.E.; Kamper, R.A.

Appl. Phys. Lett. 11: 209-211; Sep 15, 67.

Millidegree Noise Thermometry;

Kamper, RA.

Proc., Symp. Physics of Superconducting Devices (ONR report); Charlottesville, VA; Apr 67.

31
SUPERCONDUCTOR AND MAGNETIC MEASUREMENT

Critical-Current Measurements of Nb3Sn Superconductors: NBS Contribution to the VAMAS Round Robin;

Goodrich, L.F.; Bray, S.L. Cryogenics 29: 699-709; Jul 89.

Evidence for the Superconducting Proximity Effect in Junctions between the Surfaces of YBa2Cu3Ox Thin Films;

Moreland, J.; Ono, R.H.; Beall, JA.; Madden, M.; Nelson, A.J. Appl. Phys. Lett. 54(15): 1477-1479; Apr 10, 89.

Flux Creep and Activation Energies at the Grain Boundaries of Y-Ba-Cu-O Superconductors;

Nikolo, M.; Goldfarb, R.B.

Phys. Rev. B 39(10): 6615-6618; Apr 1, 89.

Current Capacity Degradation in Superconducting Cable Strands;

Goodrich, L.F.; Bray, S.L. IEEE Trans. Magn. 25(2): 1949-1952; Mar 89.

Magnetic Evaluation of Cu-Mn Material for Fine-Filament Nb-Ti Superconductors;

Goldfarb, R.B.; Ried, D.L.; Kreilick, T.S.; Gregory, E. IEEE Trans. Magn. 25(2): 1953-1955; Mar 89. Nb3Sn Critical Current Measurements on Tubular Fiberglass-Epoxy Mandrels;

Goodrich, L.F.; Bray, S.L.; Stauffer, T.C.

IEEE Trans. Magn. 25(2): 2375-2378; Mar 89. Ag Screen Contacts to Sintered YBa^UjC^ Powder for Rapid Superconductor Characterization;

Moreland, J.; Goodrich, L.F. IEEE Trans. Magn. 25(2): 2056-2059; Mar 89.

Resistance Measurements of High Tc Superconductors Using a Novel Bathysphere Cryostat;

Moreland, J.; Li, Y.; Folsom, R.M.; Capobianco, T.E.

IEEE Trans. Magn. 25(2): 2560-2562; Mar 2, 89. VAMAS Intercomparison of Critical Current Measurement in Nb3Sn Wires;

Tachikawa, K.; Itoh, K.; Wada, H.; Gould, D.; Jones, H.; Walters, C.R.; Goodrich, L.F.; Ekin, J.W.; Bray, S.L. IEEE Trans. Magn. 25(2): 2368-2374; Mar 89.

Battery-Powered Current Supply for Superconductor Measurements;

Bray, S.L.; Goodrich, L.F.; Dube, W.P.

Rev. Sci. Instrum. 60(2): 261-264; Feb 89.

Effect of Room Temperature Stress on the Critical Current of NbTi;

Bray, S.L.; Ekin, J.W.

J. Appl. Phys. 65(2): 684-687; Jan 15, 89.

Coil Parameter Influence on Eddy Current Probe Sensitivity;

Capobianco, T.E.; Vecchia, D.F.

Proc., Rev. Prog, in Quantitative Nondestructive Eval. 7A: 487-492; 88.

Transverse Stress Effect on Multifilamentary Nb3Sn Superconductor;

Ekin, J.W.

Adv. Cryo. Eng.-Mater., vol 34, p 547-552, 88.

Effect of Oxygen Annealing on Low-Resistivity Contacts for High-Tc Superconductors;

Ekin, J.W.; Panson, A.J.; Blankenship, B.A.

Proc., Materials Research Society, vol 99, High Temperature Superconductors, p

283-286; 88.

Current Ripple Effect on Superconductive dc Critical Current Measurements;

Goodrich, L.F.; Bray, S.L.; Clark, A.F.

Adv. Cryo. Eng.-Mater., vol 34, p

1019-1026; 88.

32
Current-Ripple Effect on Superconductive dc Critical Current Measurements;

Goodrich, L.F.; Bray, S.L. Cryogenics 28: 737-743; 88.

Oxygen Isotope Effect in the Superconducting Bi-Sr-Ca-O System;

Katayama-Yoshida, H.; Hirooka, T.; Oyamada, A.; Okabe, Y.; Takahashi, T.; Sasaki, T.; Ochiai, A.; Suzuki, T.; Mascarenhas, AJ.; Pankove, J.I.; Ciszek, T.; Deb, S.K.; Goldfarb, R.; Li, Y.

Physica C 156: 481-484; 88.

Recent Tunneling Measurements of 90 K Superconductors at NBS;

Moreland, J.; Beall, JA.; Ono, R.H.; Clark, A.F.

Proc., MRS Spring Meeting, Symp. K, High-Tc Superconductivity, p

351-353; 88.

Single Crystal HoBa2Cu30x Break Junctions;

Moreland, J.; Clark, A.F.; Damento, MA.; Gschneider, KA.

Proc., Inti. Conf. High Temperature Semiconductors - Materials & Mechanisms of Superconductivity, Physica C, p

1383-1384; 88.

Anomalous Behavior of Tunneling Contacts in Superconducting Perovskite Structures; Moreland, J.; Goodrich, L.F.; Ekin, J.W.; Capobianco, T.E.; Clark, A.F.

Adv. Cryo. Eng.-Mater., vol 34, p 625-632; 88.

Cryogenic Bathysphere for Rapid-Variable-Temperature Characterization of High-Tc Superconductors;

Moreland, J.; Li, Y.K.; Folsom, R.; Capobianco, T.E.

Rev. Sci. Instrum. 59(12): 2535-2538; Dec 88.

18th International Conference on Low Temperature Physics (LT-18);

Moreland, J.; Hirabayashi, H.

Cryogenics 28: 543-544; Aug 88.

High Tc Superconductor/Noble-Metal Contacts with Surface Resistivities in the 10' 10

fl cm2 Range;

Ekin, J.W.; Larson, T.; Bergren, N.; Nelson, A.J.; Swartzlander, A.B.; Kazmerski, L.L.; Panson, A.; Blankenship, B. Appl. Phys. Lett. 52(21): 1819-1821; May 23, 88.

Break Junctions I; Moreland, J.; Goodrich, L.F.; Ekin, J.W.; Capobianco, T.E.; Clark, A.F.

NBSIR 88-3090; May 88.

Transverse Magnetoresistance of Oxygen-Free Copper;

Fickett, F.R.

IEEE Trans. Magn. MAG-24(2): 1156-1158; Mar 88.

Development of Standards for Superconductors, Interim Report, Jan. 1986-Dec. 1987;

Goodrich, L.F. NBSIR 88-3088, 88 p; Feb 88.

Magnetic Susceptibility of Sintered and Powdered Y-Ba-Cu-O;

Chen, D.-X.; Goldfarb, R.B.; Nogues, J.; Rao, K.V.

J. Appl. Phys. 63(3): 980-983; Feb 1, 88.

Method for Making Low Resistivity Contact to High-Tc Ceramic Superconductors at Ambient Temperatures;

Ekin, J.W.; Panson, AJ.; Blankenship, B. Appl. Phys. Lett., 52(4) :33 1-333; 25 Jan 88.

Field Mapping and Performance Characterization of Commercial Eddy Current Probes;

Capobianco, T.E.

Proc., Rev. Prog. Quant. NDE, vol 6A, p 687-694; 87.

Pickup Coil Spacing Effects on Eddy Current Reflection Probe Sensitivity;

Capobianco, T.E.; Yu, K.

Proc., Rev. Prog. Quant. NDE 13th Ann. Conf., vol 6A, p 721-725; 87.

33
Transport Critical-Current Characteristics of Y1 Ba2Cu3Ox

; Ekin, J.W.; Panson, A.J.; Braginski, A.I.; Janocko, M.A.; Hong, M.; Kwo, J.; Liou, S.H.; Capone, D.W., II; Flandermeyer, B.; Clark, A.F.

Proc., Mater. Res. Soc. Symp. on High Temp. Superconductors, Anaheim, CA, Apr 23-24, 1987, EA-11: 223-226;

87.

Transport Critical Currents in Bulk Sintered Y1 Ba2Cu3Ox and Possibilities for its Enhancement;

Ekin, J.W.

Advanced Ceramic Materials, 2(3B): 586-591; 87. AC Susceptibility Measurements Near the Critical Temperature of a Y-Ba-Cu-O Superconductor;

Goldfarb, R.B.; Clark, A.F.

Proc., Materials Research Society Mtg., Apr 23-24, 1987; p

261-263; 87.

Electron Tunneling Measurements in LaSrCuO and YBaCuO;

Moreland, J.; Ekin, J.W.; Goodrich, L.F.; Capobianco, T.E.; Clark, A.F.

Proc., Mater. Res. Soc. Symp. on High Temp. Superconductors, Anaheim, CA, Apr 23-24, 1987, EA-11: 273-275;

87.

Effect of Transverse Compressive Stress on the Critical Current and Upper Critical Field of Nb3Sn;

Ekin, J.W.

J. Appl. Phys, 62(12): 4829-4834; Dec 15, 87.

Evidence for Weak Link Anisotropy Limitations on the Transport Critical Current in Bulk Polycrystalline Y1 Ba2 Cu3 Ox

; Ekin, J.W.; Capone, D.W., II; Flandermeyer, B.; deLima, O.F.; Braginski, A.I.; Panson, A.J.; Janocko, M.A.; Hong,

M.; Kwo, J.; Liou, S.H.

J. Appl. Phys. 62(12): 4821-4828; Dec 15, 87.

Superconductivity: Challenge for the Future;

Kamper, R.A.; Clark, A.F.

NBS JRES 92(6): 391-392; Nov-Dec 87.

Effect of Irregularity in Filament Cross-sectional Area (Sausaging) on Electric-Field vs. Current Characteristics of NbTi

Superconductors;

Ekin, J.W.

Cryogenics, 27: 603-607; Nov 87. New Standard Text Method for Eddy Current Probes;

Dulcie, L.L.; Capobianco, T.E.

Proc., 36th Conf. NDT, p 154-160; Oct 87.

Conductors for Advanced Energy Systems;

Fickett, F.R.; Capobianco, T.E.

INCRA Annual Report #321B, i-46; Oct 87.

Evidence for Two Superconducting Components in Oxygen-Annealed Single Phase Y-Ba-Cu-O;

Goldfarb, R.B.; Clark, A.F.; Panson, A.J.; Braginski, A.I. Cryogenics 27: 475-480; Sep 87.

Josephson Effect above 77 K in a YBaCuO Break Junction;

Moreland, J.; Goodrich, L.F.; Ekin, J.W.; Capobianco, T.E.; Clark, A.F.

Appl. Phys. Lett. 51(7): 540-541; Aug 17, 87. A Review of Eddy Current Research at the National Bureau of Standards in Boulder;

Capobianco, T.E.

Colorado, Proc., DOD Conf. on NDE, p

164-173; Aug 87.

Electron Tunneling Measurements of High Tc Compounds Using Break Junctions;

Moreland, J.; Goodrich, L.F.; Ekin, J.W.; Capobianco, T.E.; Clark, A.F.

Proc., LT 18 Conf., Kyoto, Japan, Aug 20-26, 1987, p

999-1000; and Jap. J. Appl. Phys. 26(26-3): 999-1000; Aug

87.

Break Junction Tunneling Measurements of the High Tc Superconductor YjBa^^Og-A;

Moreland, J.; Ekin, J.W.; Goodrich, L.F.; Capobianco, T.E.; Clark, A.F.; Kwo, J.; Hong, M.

Phys. Rev. B, Rapid Communications 35(16): 8856-8857; Jun 1, 87.

34
Tunneling Spectroscopy of a La-Sr-Cu-O Break Junction: Evidence for Strong-Coupling Superconductivity;

Moreland, J.; Clark, A.F.; Goodrich, L.F.; Ku, H.C.; Shelton, R.N.

Phys. Rev. B, Rapid Communications 35(16): 8711-8713; Jun 1, 87.

Electron Tunneling Measurement of the Energy Gap in a La-Sr-Cu-O Superconductor;

Moreland, J.; Clark, A.F.; Ku, H.C.; Shelton, R.N.

Cryogenics, 27: 227-228; May 87.

Method for Measuring Complex Permeability at Radio Frequencies;

Goldfarb, R.B.; Bussey, H.E.

Rev. Sci. Instrum. 58(4): 624-627; Apr 87.

Development of Standards for Superconductors, Interim Report, Jan.-Dee. 1985;

Goodrich, L.F.; Bray, S.L.; Pittman, E.S.; Clark, A.F.; Dube, W.P.

NBSIR 87-3066; Apr 87.

Relationships between Critical Current and Stress in NbTi;

Ekin, J.W.

IEEE Trans. Magn. MAG-23(2): 1634-1637; Mar 87.

Studies of NbTi Strands Extracted from Coreless Rutherford Cables;

Goodrich, L.F.; Pittman, E.S.; Ekin, J.W.

IEEE Trans. Magn. MAG-23(2): 1642-1645; Mar 87.

Mapping Eddy Current Probe Fields;

Capobianco, T.E.; Fickett, F.R.; Moulder, J.C. Proc., Review of Progress in Quantitative Nodestructive Evaluation 5A, chap 3, sec A, p

705-711; 86.

Flaw Detection with a Magnetic Field Gradiometer;

Capobianco, T.E.; Moulder, J.; Fickett, F.R.

Proc., NTIAC 15th Symp. on Nondestructive Evaluation; Apr 22-22, 1985; San Antonio, TX; 15-20; 86.

Losses in a Nb-Ti Superconductor as Functions of AC Field Amplitude and DC Transport Current;

Dragomirecky, M.; Minervini, J.V.; Ekin, J.W.; Goldfarb, R.B.; Clark, A.F.

Proc., 11th International Cryogenic Engineering Conference; Berlin, W. Germany; Apr 22-25, 1986; p

746-750; 86.

Relationships Between Mechanical and Magnetoelectric Properties of Oxygen-free Copper at 4K;

Fickett, F.R.; Capobianco, T.E.

Advances in Cryogenic Engineering - Materials, Vol. 32, p

421-427; 86. AC Losses in Nb-Ti Measured by Magnetization and Complex Susceptibility;

Goldfarb, R.B.; Clark, A.F.

Advances in Cryogenic Engineering - Materials, Vol. 32, p

779-786; 86.

Ferromagnetic Resonance at 9.55 and 23.9 GHz in the Weak Ferromagnet Ni3Al;

Goldfarb, R.B.; Heinrich, B.; Cochran, J.F.; Myrtle, K.; Lonzarich, G.

J. Magnetism and Magnetic Materials 54-57: 1011-1012; 86. New Magnetic Phase Diagram of the Amorphous Pd-Fe-Si Ferroglass Alloy System;

Goldfarb, R.B.; Rao, K.V.; Chen, H.S.

J. Magnetism and Magnetic Materials 54-57: 111-112; 86.

The Effect of Aspect Ratio on Critical Current in Multifilamentary Superconductors;

Goodrich, L.F.; Dube, W.P.; Pittman, E.S. Advances in Cryogenic Engineering - Materials, Vol. 32, p 833-840; 86.

Electron Tunneling into Superconducting Filaments: Depth Profiling the Energy Gap of NbTi Filaments in High-Field

Magnet Wires;

Moreland, John; Ekin, J.W.; Goodrich L.F. Advances in Cryogenic Engineering - Materials, Vol. 32, p 1101-1108; 86.

Electro-mechanical Properties of Superconductors for High Energy Physics Applications;

Ekin, J.W.; Goodrich, L.F.; Moreland, J.; Pittman, E.S.; Clark, A.F.

NBSIR 86-3061; Dec 86.

35
Squeezable Junctions for Electron Tunneling and Surface Electric Field Experiments;

Moreland, J. The Physics Teacher, p 405-411; Oct 86.

Hysteresis Losses in Fine-Filament Internal-Tin Superconductors;

Goldfarb, R.B.; Ekin, J.W.

Cryogenics 26: 478-481; Aug/Sep 86.

Internal Fields in Magnetic Materials and Superconductors;

Goldfarb, R.B.

Cryogenics 26: 621-622; Aug/Sep 86.

Quench Circuit for Electronic Instruments Used with Superconducting Magnets;

Benson, R.; Goldfarb, R.B.; Pittman, E. Cryogenics 26: 482-483; Aug/Sep 86.

Electromechanical Properties of Superconductors for DoE Fusion Applications;

Ekin, J.W.; Moreland, John; Baruch, J.C. NBSIR 86-3044, 106 p; Jun 86.

Flux Limit of Cosmic-Ray Magnetic Monopole from a Multiply Discriminating Superconductive Detector;

Cromar, M.; Clark, A.F.; Fickett, F.R.

Phys. Rev. Lett. 56(24): 2561-2563; Jun 86.

Transient Losses in Superconductors;

Goldfarb, R.B.

NBSIR 86-3053, 57 p; Jun 86.

Cryogenic Operation of Piezoelectric Bending Elements;

Duffield, C.; Moreland, John; Fickett, F.R.

Rev. Sri. Instrum. 57(8): 990-992; May 86. A Quench Detector Design for Superconductor Testing;

Dube, W.P.; Goodrich, L.F. Rev. Sri. Instrum. 57: 680-682; Apr 86.

Research on Practical Superconductors at NBS;

Fickett, F.R.

ATB Metallurgy, 25(4): 265-271; 85.

Differences Between Spin Glasses and Ferroglasses: Pd-Fe-Si;

Goldfarb, R.B.; Rao, K.V.; Chen, H.S.

Solid State Commun. 54(9): 799-801; 85.

High-Field Flux Pinning and the Strain Scaling Law;

Ekin, J.W.

Proc., Inti. Symp. on Flux Pinning and Electromagnetic Properties in Superconductors; Nov 11-15, 1985; Fukuoka,

Japan; p 267-271; 85.

Investigation of a Practical Superconductor with a Copper Matrix;

Fickett, F.R.

Ann. Rpt. and Final Summary of Project 255, Inti. Copper Research Assoc., Inc., 708 Third Avenue, New York,

NY 10017; p

i-B13; Sep 84.

Magnetic Field Mapping with a SQUID Device;

Fickett, F.R.; Capobianco, T.

Proc., Review of Progress in "Quantitative NDE" Conf.; Jul 8-13, 1984; San Diego, CA; 4A: 401-410, New York,

NY: Plenum Press; 85.

Precision Measurement of Eddy Current Coil Parameters;

Capobianco, T.; Fickett, F.R.

Proc., Review of Progress in Quantitative NDE Conf.; Jul 9-13, 1984; Univ. of Calif., San Diego, CA; New York,

NY: Plenum Press, p 491-498; 85.

36
Electron Tunneling Experiments Using Nb-Sn Break Junctions;

Moreland, J.; Ekin, J.W.

J. Appl. Phys. 58(10): 3888-3894; 15 Nov 85.

Electron Tunneling Experiments into Superconducting Filaments Using Mechanically Adjustable Barriers;

Moreland, J.; Ekin, J.W.

Appl. Phys. Lett. 47(2): 175-177; Jul 85.

Hysteretic Losses in NbTi Superconductors;

Goldfarb, R.; Clark, A.F.

J. Appl. Phys. 57(1): 3809-3811; 15 Apr 85.

Tenth International Cryogenic Engineering Conference - A Report;

Clark, A.F.; Heinz, W.; Rizzoto, C.; Fast, R.W.; Klipping, G.

10th Inti. Cryogenic Eng. Conf.; 31 Jul-3 Aug, 1985; Otaniemi, Finland; Cryogenics 25: 222-223; Apr 85.

Standards for Measurement of the Critical Fields of Superconductors;

Fickett, F.R.

NBS JRES 90(2): 95-113; Mar-Apr 85.

Effect of Uniaxial Strain on the Critical Current and Critical Field of Chevrel Phase PbMo3S8 Superconductors;

Ekin, J.W.

Proc., Applied Superconductivity Conf.; Sep 10-13, 1984; San Diego, CA; IEEE Trans. Magn. MAG-21(2):

474-477; Mar 85.

Further Investigations of the Solid-Liquid Reaction & High-Field Critical Current Density in Liquid-Infiltrated Nb-Sn

Conductors;

Hong, M.; Maher, D.M.; Ellington, M.B.; Heilman, F.; Geballe, T.H.;

Ekin, J.W.; Holthuis, J.T. Proc., Applied Superconductivity Conf.; Sep 10-13, 1984; San Diego, CA; IEEE Trans. Magn. MAG-21(2): 771-

774; Mar 85.

Magnetic Hysteresis and Complex Susceptibility as Measures of AC Losses in a Multifilamentary NbTi Superconductor;

Goldfarb, R.; Clark, A.F.

Proc., Applied Superconductivity Conf.; Sep 10-13, 1984; San Diego, CA; IEEE Trans. Magn. MAG-21(2):

332-335; Mar 85.

The NBS Magnetic Monopole Detector;

Cromar, M.; Fickett, F.R.; Clark, A.F.

Proc., Applied Superconductivity Conf.; Sep 10-13, 1984; San Diego, CA; IEEE Trans. Magn. MAG-21(2):

418-420; Mar 85.

Units for Magnetic Properties;

Goldfarb, R.; Fickett, F.R.

NBS SP 696, 1 p; Mar 85.

Editorial;

Clark, A.F.; Heinz, W.; Nagano, H.; Gardner, J.B. Cryogenics 25: 59; Feb 85.

Development of Standards for Superconductors;

Goodrich, L.F.; Minervini, J.V.; Clark, A.F.; Fickett, F.R.; Ekin, J.W.; Pittman, E.S. Interim Report Jan 1982-Dec 1983; NBSIR 85-3027; Jan 85.

Characterization of a Standard Reference Superconductor for Critical Current and a Summary of Other Standard

Research at NBS;

Clark, A.F.; Goodrich, L.F.

Proc., Inti. Cryogenic Engineering Conf.-lO; Jul 31-Aug 3, 1984; Helsinki, Butterworth, p

433-437; 84.

Critical Parameters and Strain Effects in Liquid-Infiltrated Nb-Ta/Sn Multifilamentary Superconductor;

Ekin, J.W.; Hong, M.

J. Appl. Phys. Lett. 45: 297; 84.

37
Design of the NBS Magnetic Monopole Detectors;

Clark, A.F.; Cromar, M.W.; Fickett, F.R.

Proc., Inti. Cryogenic Engineering Conf.-lO; Jul 31-Aug 3, 1984; Helsinki, Butterworth, p

365-368; 84.

Monopole Detection Studies at NBS;

Fickett, F.R.; Cromar, M.; Clark, A.F.

In Monopole ’83, J.L. Stone, ed.; New York: Plenum Press, p477-480; 84.

Magnetic Measurements, Calibrations, and Standards: Report on a Survey;

Fickett, F.R.

NBSIR 84-3018, 20 p; Oct 84.

Critical Current Measurements on a NbTi Superconducting Wire Standard Reference Material;

Goodrich, L.F.; Vecchia, D.F.; Pittman, E.S.; Clark, A.F.

NBS SP 260-291, 53 p; Sep 84.

Electromechanical and Metallurgical Properties of Liquid-Infiltration Nb-Ta/Sn Multifilamentary Superconductor;

Ekin, J.W.; Hong, M.

Appl. Phys. Lett. 45(3): 297-299; Aug 84.

Critical Current Measurements on a NbTi Superconducting Wire Standard Reference Material;

Goodrich, L.F.; Vecchia, D.F.; Pittman, E.S.; Clark, A.F.

Advances in Cryogenic Engineering-Materials, Vol. 30, A.F. Clark and R.P. Reed, eds.; Proc., 5th Inti. Cryogenic

Materials Conf.; Aug 15-17, 1983; Colorado Springs, CO; New York, NY: Plenum Press, p 952-960; Jul 84.

Development of Nb3Sn Cabled Conductor by External Diffusion Process and Effect of Strain on the Critical Current;

Pasztor, G.; Ekin, J.W.

Advances in Cryogenic Engineering-Materials, Vol. 30, A.F. Clark and R.P. Reed, eds.; Proc., 5th Inti. Cryogenic

Materials Conf.; Aug 15-17, 1983; Colorado Springs, CO; New York, NY: Plenum Press, p

787-795; Jul 84.

Magnetic Susceptibility and Strain-Induced Martensite Formation at 4 K in Type 304 Stainless Steel; Goldfarb, R.B.; Reed, R.P.; Ekin, J.W.; Arvidson, J.M.

Advances in Cryogenic Engineering-Materials, Vol. 30, A.F. Clark and R.P. Reed, eds.; Proc., 5th Inti. Cryogenic

Materials Conf.; Aug 15-17, 1983; Colorado Springs, CO; New York, NY: Plenum Press, p475-482; Jul 84.

Research Opportunities in Superconductivity;

Clark, A.F.; Tinkham, M.; Beasley, M.R.; Larbalestier, D.C.; Finnemore, D.K.

Cryogenics 24(7): 378-388; Jul 84.

Strain Effects in Superconducting Compounds—An Overview and Synthesis;

Ekin, J.W.

Advances in Cryogenic Engineering-Materials, Vol. 30, A. F. Clark and R.P. Reed, eds.; Proc., 5th Inti. Cryogenic Materials Conf.; Aug 15-17, 1983; Colorado Springs, CO; New York, NY: Plenum Press, p

823-836; Jul

84.

The Effect of Mill Temper on the Mechanical and Magnetoresistive Properties of Oxygen-free Copper in Liquid Helium;

Fickett, F.R.

Advances in Cryogenic Engineering-Materials, Vol. 30, A.F. Clark and R.P. Reed, eds.; Proc., 5th Inti. Cryogenic

Materials Conf.; Aug 15-17, 1983; Colorado Springs, CO; New York, NY: Plenum Press, p

453-460; Jul 84.

Training Studies of Epoxy-Impregnated Superconductor Windings, Part III: Epoxies, Conductor Insulations, and Copper

Ratio;

Ekin, J.W.; Pittman, E.S.; Goldfarb, R.B.; Superczynski, M.J.; Waltman, D.J. Advances in Cryogenic Engineering-Materials, Vol. 30, A.F. Clark and R.P. Reed, eds.; Proc., 5th Inti. Cryogenic

Materials Conf.; Aug 15-17, 1983; Colorado Springs, CO; New York, NY: Plenum Press, p

977-984; Jul 84.

Calibration of ac Susceptometer for Cylindrical Specimens;

Goldfarb, R.B.; Minervini, J.V. Rev. Sci. Instrum. 55(5): 761-764; May 84.

Copper-TFE Friction at Cryogenic Temperatures;

Bell, R.; Jones, K.; Fickett, F.R.

Cryogenics 24: 31-35; Jan 84.

38
Experience in Standardizing Superconductor Measurements;

Clark, A.F.; Goodrich, L.F.; Fickett, F.R.

J. Physique, Colloque Cl, supplement au 1(45): Cl-379-382; Jan 84.

Magnetic Field Effects on Tensile Behavior of Alloys 304 and 310 at 4 K;

Reed, R.P.; Arvidson, J.M.; Ekin, J.W.; Schoon, R.H.

Proc., Inti. Cryogenic Materials Conf.; May 11-14, 1982; Kobe, Japan; p

33-36; 83.

Conductors for Advanced Energy Systems Annual Report 1982;

Ficket. F.R.

INCRA Research Report, Paper #321A; Inti. Copper Research Assoc., 708 3rd Ave., NY 10017; p

1-97; Aug 83.

Electrical Properties;

Fickett, F.R.

Chapt. 5 in Materials at Low Temperatures, R. Reed; A.F. Clark, eds., American Society for Metals, Metals Park,

OH 44073; p 163-201; Jun 83.

Magnetic Properties;

Fickett, F.R.; Goldfarb, R.B.

Chap. 6 in Materials at Low Temperatures, R. Reed; A.F. Clark, eds., American Society of Metals, Metals Park,

OH 44073; p 203-235; Jun 83.

Superconductors;

Ekin, J.W.

Chapt. 13 in Materials at Low Temperatures, R. Reed; A.F. Clark, eds., American Society of Metals, Metals Park,

OH 44073, p 465-513; Jun 83.

Thermal Expansion;

Clark, A.F.

Chapt. 3 in Materials at Low Temperatures, R. Reed; A.F. Clark, eds., American Society for Metals, Metals Park,

OH 44073, p 75-132; Jun 83.

Effect of Stainless Steel Reinforcement on the Critical Current Versus Strain Characteristic of Multifilamentary Nb3 Sn

Superconductors;

Ekin, J.W.

J. Appl. Phys. 54(5): 2869-2871; May 83.

J-B-T-c Interaction in A15, Bl, and C15 Crystal Structure Superconductors;

Ekin, J.W.

Proc., Applied Superconductivity Conf., IEEE Trans. Magn. MAG-19: 900-902; May 83.

Multifilamentary Nb-Nb3 Composite by Liquid Infiltration Method: Superconducting, Metallurgical, and Mechanical

Properties;

Hong, M.; Hull, G.W., Jr.; Holthuis, J.T.; Hazzenzahl, W.V.; Ekin, J.W.

Proc., Applied Superconductivity Conf., IEEE Trans. Magn. MAG-19(3): 912- 916; May 83.

Oxygen-Free Copper at 4 K;

Fickett, F.R.

Proc., Applied Superconductivity Conf., IEEE Trans. Magn. MAG-19: 228-231; May 83.

Properties of NbN Films Crystallized from the Amorphous State; Gavaler, J.R.; Greggi, J.; Wilmer, R.; Ekin, J.W.

Proc., Applied Superconductivity Conf., IEEE Trans. Magn. MAG-19(3): 418- 421; May 83.

The Effect of Field Orientation on Current Transfer in Multifilamentary Superconductors;

Goodrich, L.F.

Proc., Applied Superconductivity Conf., IEEE Trans. Magn. MAG-19(3): 244- 247; May 83.

Four-Dimensional J-B-T-e Critical Surface for Superconductivity;

Ekin, J.W.

J. Appl. Phys. 54(1): 303-306; Jan 83.

Proceedings, International Cryogenic Materials Conference;

Clark, A.F.; Tachikawa, K., eds.

May 11-14, 1982; Kobe, Japan: Butterworth; Jan 83.

39
Effect of Strain on the Critical Current and Critical Field of B1 Structure NbN Superconductors;

Ekin, J.W.

Appl. Phys. Lett. 41(10): 996; Nov 82.

Effect of Strain on the Critical Current of Sputtered NbN Films;

Ekin, J.W.; Gavaler, J.R.; Greggi, J. Bull. Am. Phys. Soc. p 8-12; Mar 82 and Appl. Phys. Lett. 41(10): 996-998; Nov 82.

Spin-Freezing below the Ferromagnetic Transition Determined by the Imaginary Component of ac Magnetic

Susceptibility;

Goldfarb, R.B.; Fickett, F.R.; Rao, K.V.; Chen, H.S.

J. Appl. Phys. 53(11): 7687; Nov 82.

Development of Standards for Superconductors;

p1 a rk A F

NBSIR 82-1678; Jul 82.

Effect of Twist Pitch on Short-Sample V-I Characteristics of Multifilamentary Superconductors;

Goodrich, L.F.; Ekin, J.W.; Fickett, F.R.

Adv. Cryo. Eng. 28: 571-580; New York: Plenum Press; Jul 82. Low Temperature Material Perspective;

Fickett, F.R.

Adv. Cryo. Eng. 28: 1-16; Jul 82.

Training Studies of Epoxy-Impregnated Superconductor Windings;

Ekin, J.W.; Pittman, E.S.; Superczynski, M.J.; Waltman, D.J. Adv. Cryo. Eng. 28: 719-728, New York: Plenum Press; Jul 82.

Critical Current Measurement: A Compendium of Experimental Effects;

Goodrich, L.F.; Fickett, F.R.

Cryogenics, p 225-242; May 82.

Effect of Strain on the Critical Parameters of V2(Hf,Zr) Leaves Phase Composite Superconductors;

Ekin, J.W.

Appl. Phys. Lett. 40(9): 844-846; May 82.

Electrical Properties of Materials and Their Measurement at Low Temperatures;

Fickett, F.R.

NBS TN 1053; Mar 82.

Electric and Magnetic Properties of CuSn and CuNi Alloys at 4 K;

Fickett, F.R.

Cryogenics 22: 135; Mar 82.

Further Evidence for a Spin-Glass Phase Transition in Amorphous Fe-Mn-P-B-Al Alloys;

Goldfarb, R.B.; Rao, K.V.; Chen, H.S.; Patton, C.E.

J. Appl. Phys. 53: 2217; Mar 82.

Electrical and Magnetic Properties of Internally Oxidized Copper and Dilute Copper-Iron Alloys;

Fickett, F.R.

J. Phys. F: Met. Phys. 12: 1953-1969; Jan 82.

Effect of Strain on the Critical Current of Nb-Hf/Cu-Sn-Ga Multifilamentary Superconductors;

Ekin, J.W.; Sekine, H.; Tachikawa, K.

J. Appl. Phys. 52: 6252; 81.

Lap Joint Resistance and Intrinsic Critical Current Measurements on a NbTi Superconducting Wire;

Goodrich, L.F.; Ekin, J.W.

IEEE Trans. Magn. MAG-17: 69; 81.

Magnetic Susceptibility Studies of Amorphous Ni-Mn-P-B-Al Alloys;

Goldfarb, R.B.; Rao, K.V.; Fickett, F.R.; Chen, H.S.

J. Appl. Phys. 52: 1744; 81.

40
Mechanical Properties and Strain Effects in Superconductors;

Ekin, J.W.

Chap. 7 in Superconducting Materials Science, S. Foner and B. Schwartz, eds.; New York: Plenum Press, p

455-509; 81.

Miniature Multipin Electrical Feedthrough for Vacuum Use;

Goldfarb, R.B.

Cryogenics 21: 746; 81.

Strain Scaling Law for Flux Pining in NbTi, Nb3Sn, Nb-Hf/Cu-Sn-Ga, V3Ga, and Nb3Ge;

Ekin, J.W.

IEEE Trans. Magn. MAG-17: 658; 81.

Structural Materials for Large Superconducting Magnets;

Fickett, F.R.; McHenry, H.I. IEEE Trans. Magn. MAG-17: 2297; 81.

Superparamagnetism and Spin-Glass Freezing in Nickel-Manganese Alloys;

Goldfarb, R.B.; Patton, C.E.

Phys. Rev. B 24: 1360; 81. NBS Superconductor Standardization Program;

Fickett, F.R.; Goodrich, L.F.

Proc., 1980 Superconducting MHD Magnet Design Conf. (Francis Bitter National Magnet Laboratory, MIT); Oct

81.

Thermal Expansion of Multifilamentary Nb3Sn and V3Ga Superconductive Cables and Fiberglass-Epoxy and

Cotton-Phenolic Composite Materials;

Fujii, G.; Ranney, MA.; Clark, A.F.

Jap. J. Appl. Phys. 20, p L267-L270; Apr 81.

Thermal Expansion of Several Materials for Superconducting Magnets;

Clark, A.F.; Fujii, G.; Ranney, MA.

Proc., 7th Magnet Technology Conf., Karlsruhe, Germany, IEEE Trans. Magn. MAG-17: 2316; Apr 81.

Advances in Cryogenic Engineering - Materials, Vol. 26;

Clark, A.F.; Reed, R.P., eds.

Proc., 3rd Inti. Cryogenic Mater. Conf., Aug 1979; Madison, WI, New York:

Plenum Press; 80.

Definitions of Terms for Practical Superconductors, 4. Josephson Phenomena;

Fickett, F.R.; Kaplan, S.B.; Powell, R.L.; Radebaugh, R.; Clark, A.F.

Cryogenics 20: 319-325; 80.

Development of Standards for Superconductors;

Fickett, F.R.; Clark, A.F.

Proc., 8th Inti. Cryogenic Eng. Conf., Jun 1980; Genova; IPC Science and Technology Press, Guildford, England,

p 494-498; 80.

Filamentary A15 Superconductors;

Suenaga, M.; Clark, A.F., eds.

New York: Plenum Press; 80.

Processing Limits for Ultrafine Multifilament Nb3Sn;

Ho, J.C.; Oberly, C.E.; Garrett, H.J.; Walker, M.S.; Zeitlin, BA.; Ekin, J.W.

Proc., Inti. Cryo. Mater. Cong., 1979; Madison, WI, Adv. Cryogenic. Eng. 26: 358; 80.

Strain Scaling Law and the Prediction of Unixial and Bending Strain Effects;

Ekin, J.W.

Filamentary A15 Superconductors, M. Suenaga and A. F. Clark, eds., New York: Plenum Press; p 455-509; 80.

Strain Scaling Law for Flux Pinning in Practical Superconductors. Part I: Basic Relationship and Application to Nb3 Sn

Conductors;

Ekin, J.W.

Cryogenics 20: 611; 80.

41
Tensile, Fracture Toughness and Magnetization Testing in Cast 316-L Stainless Steel and Its Weldment;

Genens, L.; Kim, S.H.; Wang, S.T.; Reed, R.P.; Fickett, F.R.

Proc., 8th Inti. Cryo. Eng. Conf. (IPC Science and Technology Press, paper 3E) 20 p; 80.

Thermal Expansion of Cryogenic-Grade Glass-Epoxy Laminates; Materials Studies of Magnetic Fusion Energy

Applications at Low Temperatures - III; Ranney, MA.; Clark, A.F.

NBSIR 80-1627: 405 p; 80.

Training of Epoxy-Impregnated Superconductor Windings;

Ekin, J.W.; Schramm, R.E.; Superczynski, M.J.

Proc., 3rd Inti. Cryogenic Mater. Conf., Aug 1979; Madison, WI; Adv. Cryo. Eng. 26: 677; 80.

Development of Standards for Superconductors;

Fickett, F.R.; Goodrich, L.F.; Clark, A.F.

NBSIR 80-1642; Dec 80.

Effect of Thermal Contraction of Sample Holder Material on Critical Current Measurement;

Fujii, G.; Ekin, J.W.; Radebaugh, R.; Clark, A.F.

Advances in Cryogenic Engineering - Materials, Vol. 26, New York: Plenum Press; p589-598; 80. Also published

as Technical Report A-1074, Institute of Solid State Physics, Univ. of Tokyo; Aug 80.

Development of Standards for Practical Superconductors;

Clark, A.F.

Proc., Superconductivity Technical Exchange, PIC-E:E-SC 209/1, Naval Research Laboratory, Washington, DC; p

103-114; Apr 80. A Convenient Standard for Low-Field Susceptibility Calibration;

Rosenbaum, J.; Larson, E.; Hoblitt, R.; Fickett, F.R.

Rev. Sri. Instrum. 50: 1027; 79.

Effect of Strain on Critical Current of Nb3Ge;

Ekin, J.W.; Braginski, A.I. IEEE Trans. Magn. MAG-15: 509; 79.

Effect of Strain on Epoxy-Impregnated Superconducting Composites;

Ekin, J.W.; Schramm, R.E.; Clark, A.F.

Nonmetallic Materials and Composites at Low Temperatures; A. F. Clark; R. P. Reed; G. Hartwig, eds.; New

York: Plenum Press, p

301-308; 79.

Materials for Superconducting Magnet Systems;

Fickett, F.R.; Reed, R.P., eds. Traverse City, MI: Belfour-Stulen, Inc.; 79.

Nonmetallic Materials and Composites at Low Temperatures;

Clark, A.F.; Reed, R.P.; Hartwig, G., eds. Proc., ICMC Symposium, Jul 1978; Munich, Germany, New York: Plenum Press; 79.

Space Applications of Superconductivity: High Field Magnets;

Fickett, F.R.

Cryogenics 19: 691-701; 79.

Standards for Superconductors;

Fickett, F.R.; Clark, A.F.,

DoE Conf. 79-0854, Proc., Mechanical and Magnetic Energy Storage, U.S. Dept, of Energy, Washington, DC, p

3-8; 79.

Strain Dependence of the Critical Current and Critical Field in Multifilamentary Nb3Sn Composites;

Ekin, J.W.

IEEE Trans. Magn. MAG-15: 197; 79.

Structures, Insulators, and Conductors for Large Superconducting Magnets;

Fickett, F.R.; Reed, R.P.; Dalder, E.N.C.

J. Nucl. Mat. 85 and 86: 353-360; 79.

42
The Development of Standards for Practical Superconductors;

Clark, A.F.; Ekin, J.W.; Radebaugh, R.; Read, D.T.

IEEE Trans. Magn. MAG-15: 224-227; 79.

Development of Standards for Superconductors;

Fickett, F.R.; Clark, A.F.

NBSIR 80-1629; Dec 79.

Material Studies for Superconducting Machinery Coil Composites;

Ekin, J.W.; Kasen, M.B.; Read, D.T.; Schramm, R.E.; Tobler, R.L.; Clark, A.F.

NBSIR 80-1633; Nov 79. A Standards Program for AC Losses in Superconductors;

Radebaugh, R.; Fujii, G.; Read, D.T.; Clark, A.F.

Inti. Congress of Refrigeration, HR Al/2-10: 1-4; Sep 79.

Definitions of Terms for Practical Superconductors. 3. Fabrication, Stabilization, and Transient Losses; Read, D.T.; Ekin, J.W.; Powell, R.L.; Clark, A.F.

Cryogenics 19(6): 327-332; Jun 79.

Magnetic Properties of the ‘Nonmagnetic’ Stainless Steels; Fickett, F.R.

NBSIR 79-1609; Jun 79.

Materials for Superconducting Magnets for MHD Power Systems, a Usage Survey and a Proposed Research Program;

Reed, R.P.; McHenry, H.I.; Kasen, M.B.; Fickett, F.R.; Dalder, E.N.C.

MIT Program Report on MHD; Jun 79.

Materials Studies for Magnetic Fusion Energy Applications at Low Temperatures - II; Fickett, F.R., ed.

NBSIR 79-1609; Jun 79.

Review of the 1978 NBS/DoE Workshop on Materials at Low Temperatures;

Fickett, F.R.; Reed, R.P.

Proc., 1st Topical Meeting on Fusion Reactor Materials; Miami Beach, FL, p 352; Jan 79.

Advances in Cryogenic Engineering, Vol. 24; Timmerhaus, K.D.; Reed, R.P.; Clark, A.F., eds. Proc., 2nd Inti. Cryogenic Mater. Conf., Aug 1977; Boulder, CO; New York: Plenum Press; 78.

Current Transfer in Multifilamentary Superconductors. I. Theory;

Ekin, J.W.

J. Appl. Phys. 49(6): 3406-3411; 78.

Effects of Stress on Practical Superconductors;

Clark, A.F.

MT-6, Proc., Inti. Conf. on Magn. Tech.; Alpha, Bratislava, Czechoslovakia, p

612-618; 78.

Fatigue and Stress Effects in NbTi and Nb3Sn Multifilamentary Superconductors;

Ekin, J.W.

Proc., 2nd Inti. Cryogenic Mater. Conf., Aug 1977; Boulder, CO; Adv. Cryo. Eng. 24: 306; 78. Low Temperature Specific Heat of Two Stainless Steels; Ho, J.C.; King, G.B.; Fickett, F.R.

Cryogenics 18: 296; 78.

Properties of a Superconducting Coil Composite and Its Components;

Clark, A.F.; Arp, V.D.; Ekin, J.W.

MT-6, Proc., Inti. Conf. on Magn. Tech.; Alpha, Bratislava, Czechoslovakia, p 673-679; 78.

Special Purpose Materials: An Assessment of Needs and the Role of these Materials in the National Program;

Gold, R.E.; Fickett, F.R.; et al. Proc., 3rd Topical Meeting on the Technology of Controlled Nuclear Fusion, DoE Conf-780508; 78.

43
Magnet Materials for Fusion Energy;

Fickett, F.R.

Section of the Fusion Reactor Materials Program Plan, sect. IV, Special Purpose Materials; U.S. DoE Report

DoE/ET-0032/4; Jul 78.

Current Transfer in Multifilamentary Superconductors, II. Experimental Results;

Ekin, J.W.; Clark, A.F.; Ho, J.C.

J. Appl. Phys. 49(6): 3410-3411; Jun 78.

High Field Magnets;

Fickett, F.R.

Chap. 2 in the Role of Superconductivity in the Space Program: An Assessment of Present Capabilities and

Future Potential, NBSIR 78-885; May 78.

Materials Studies for Magnetic Fusion Energy Applications at Low Temperatures - 1; Fickett, F.R.; Reed, R.P. NBSIR 78-884; Apr 78.

Definitions of Terms for Practical Superconductors, 2. Critical Parameters;

Powell, R.L.; Clark, A.F.

Cryogenics 18(3): 137-141; Mar 78.

Investigation of a Practical Superconductor with a Copper Matrix;

Fickett, F.R.

INCRA Annual Report, Project No. 255; Jan 78. A Low Temperature Materials Research Program for Magnetic Fusion Energy;

Fickett, F.R.; Kasen, M.B.; McHenry, H.I.; Reed, R.P. Adv. Cryogenic Eng. 24: 52; 77. A Review of the NBS-ERDA Workshop on Materials at Low Temperatures;

Fickett, F.R.; Reed, R.P.

Proc., 7th Symposium on Engineering Problems of Fusion Research, IEEE Pub. No. 77CH1267-4-NPS: 1506-1509;

77. A Simple Method for Producing High Conductivity Copper for Low Temperature Applications;

Rosenblum, S.; Steyert, WA.; Fickett, F.R.

Cryogenics 17: 645; 77.

Mechanisms for Critical-Current Degradation in NbTi and Nb3Sn and NbTi Multifilamentary Wires;

Ekin, J.W.

Proc., 1976 Applied Superconductivity Conf., IEEE Trans. Magn. MAG-13: 127; 77.

Studies of Superconducting Wires from Niobium Precipitated in Copper-Tin-Niobium Alloys;

Fickett, F.R.; Sparks, L.L.; Kasen, M.B.

Manufacture of Superconducting Materials, R. W. Meyerhoff, ed., American Society for Metals, Metals Park, OH,

p 164; 77.

The Low Temperature Tensile Behavior of Copper-Stabilized Niobium-Titanium Superconducting Wire;

Reed, R.P.; Mikesell, R.P.; Clark, A.F.

Advances in Cryogenic Engineering, Vol. 22, New York: Plenum Press, p

463-471; 77.

Definition of Terms for Practical Superconductors, 1. Fundamental States and Flux Phenomena;

Powell, R.L.; Clark, A.F.

Cryogenics 17(12): 697-701; Dec 77.

Magnetic Fusion Energy Low Temperature Materials Program - A Survey;

Reed, R.P.; Fickett, F.R.; Kasen, M.B.; McHenry, H.I. Report to ERDA Division of Magnetic Fusion Energy; Mar 77.

Defining Critical Current;

Clark, A.F.; Ekin, J.W.

IEEE Trans. Magn. MAG-13(1): 38-40; Jan 77.

44
Advances in Cryogenic Engineering - Vol. 22; Timmerhaus, K.D.; Reed, R.P.; Clark, A.F., eds.

Proc., 1st Inti. Cryogenic Mater. Conf., Aug 1975; Kingston, Ontario; New York: Plenum Press; 76. A Research Program on the Properties of Structural Materials at 4 K;

Reed, R.P.; Clark, A.F.; van Reuth, E.C.

Adv. Cryo. Eng., New York: Plenum Press, 22: 1-8; 76.

Effect of Strain on the Critical Current of Nb3Sn and NbTi Multifilamentary Composite Wires;

Ekin, J.W.; Clark, A.F.

AIP Conf. Proc., No. 34, New York: Amer. Inst. Phys., p 81-83; 76.

Effect of Stress on the Critical Current of Nb3Sn Multifilamentary Composite Wire;

Ekin, J.W.

Appl. Phys. Lett. 29: 216; 76.

Effect of Stress on the Critical Current of NbTi Multifilamentary Composite Wire;

Ekin, J.W.; Fickett, F.R.; Clark, A.F.

Adv. Cryo. Eng.; New York: Plenum Press, 22: 449-452; 76.

Effect of Stress on the Critical Current of NbTi Multifilamentary Composite Wire;

Ekin, J.W.; Fickett, F.R.; Clark, A.F.

Proc., Inti. Cryogenic Mater. Conf., 1975; Kingston, Ontario; Adv. Cryo. Eng.; New York: Plenum Press 22: 449; 76.

Magnetic and Electrical Properties of Internally Oxidized FeCu Alloys;

Fickett, F.R.

Amer. Inst. Phys. Conf. Proc., 34: 25; 76. On Lysozyme as a Possible High-Temperature Superconductor;

Sorenson, C.M.; Fickett, F.R.; Mockler, R.C.; O’Sullivan, WJ.; Scott, J.F.

J. Phys. C: Solid State Phys. 9: L251; 76.

Properties of Nonsuperconducting Technical Solids at Low Temperatures - An Update;

Fickett, F.R.

Proc., 5th Inti. Conf. on Magn. Tech. (MT-5), Rome, Laboratori Nazionali del CNEN, Frascati, Italy, p 659; 76.

Structural Materials for Cryogenic Appications;

Fickett, F.R.

Proc., 6th Inti. Cryogenic Eng. Conf., May 11-14, 1976; Grenoble, France; IPC Science and Technology Press, p

20; 76.

Stress Effects in Superconductors;

Clark, A.F.

Cryogenics 16(10): 632-633; Oct 76.

Controlled Thermonuclear Reactors: A Prospective Large-Scale Use of Pure Copper;

Fickett, F.R.

INCRA Research Report; Aug 76.

Characterization of a Superconducting Coil Composite and Its Components;

Clark, A.F.; Weston, W.F.; Arp, V.D.; Hust, J.G.; Trapani, RJ.

NBSIR 76-837; Jul 76. Low Temperature Thermal Expansion of Barium Ferrite;

Clark, A.F.; Haynes, W.M.; Deason, VA.; Trapani, R.J. Cryogenics 16(3): 267-270; May 76. A Preliminary Investigation of the Behavior of High Purity Copper in High Magnetic Fields and a Final Summary of

Project 186;

Fickett, F.R.

INCRA Annual Report, Project No. 186C; Mar 76.

45
A Technique for Preparing Homogeneous Bulk Samples of Concentrated Alloys;

Ekin, J.W.; Deason, V.A.

Rev. Sri. Instr. 46: 327; 75.

Critical Currents in Granular Superconductors;

Ekin, J.W.

Phys. Rev. B 12: 2676; 75.

The Magnetic Coupling Force of the Superconducting dc Transformer;

Ekin, J.W.; Clem, J.R. Phys. Rev. B 12: 1753; 75.

Materials Research for Superconducting Machinery - IV;

Reed, R.P.; Clark, A.F.; van Reuth, E.C., eds. Semi-Annual Tech. Rept., Mar-Sep 1975; Advanced Research Projects Agency, Arlington, VA ADA019230; Oct

75.

Materials Research for Superconducting Machinery - III; Reed, R.P.; Clark, A.F.; van Reuth, E.C., eds. Semi-Annual Tech. Rept., Sep. 74-Mar 75; Advanced Research Projects Agency, Arlington, VA, ADA012365; Apr

75.

Magnetic Properties of Internally Oxidized Copper;

Fickett, F.R.; Sullivan, D.B.

AIP Conf. Proc, 18: 740; 74.

Magnetic Studies of Oxidized Impurities in Pure Copper Using a SQUID System;

Fickett, F.R.; Sullivan, D.B.

J. Phys. F 4: 900; 74.

Magnetothermal Conductivity;

Fickett, F.R.; Sparks, L.L. NBSIR 74-393; 74.

Magnetothermal Conductivity;

Sparks, L.L.; Fickett, F.R.

NBSIR 74-359; 74.

Oxygen Annealing of Copper: A Review;

Fickett, F.R.

Mat. Sri. and Eng. 14: 199; 74.

U. S. Programs on Large Scale Applications of Superconductivity;

Powell, R.L.; Fickett, F.R.; Birmingham, B.W.

Chap. 17 in Superconducting Machines and Devices-Large Systems Applications; Proc., NATO Advanced Study

Inst., Sep 5-14, 1973; Entreves, Italy; S. Foner and B.B. Schwartz, eds., New York: Plenum Press, p

651- 675; 74.

Materials Research for Superconducting Machinery - II; Clark, A.F.; Reed, R.P.; van Reuth, E.C., eds.

Semi-Annual Tech. Rept., Mar-Sep 74; Advanced Research Projects Agency, Arlington, VA, ADA004586; Oct 74. A Preliminary Investigation of the Behavior of High Purity Copper in High Magnetic Fields;

Fickett, F.R.

INCRA Annual Report, Project No. 186B; Aug 74.

Materials Research for Superconducting Machinery;

Clark, A.F.; Reed, R.P.; van Reuth, E.C., eds. Semi-Annual Tech. Rept., Sep 1973-Mar 1974; Advanced Research Projects Agency, Arlington, VA, AD780596;

Mar 74.

Characterization of a Superconducting Coil Composite;

Fowlkes, C.W.; Angerhofer, P.E.; Newton, R.N.; Clark, A.F.

NBSIR 73-349; Dec 73.

46
Superconducting Levitation of High Speed Vehicles;

Arp, V.D.; Clark, A.F.; Flynn, T.M.

Transport. Eng. J., ASCE 99: 873-885; Nov 73. A Compilation and Evaluation of Mechanical, Thermal and Electrical Properties of Selected Polymers;

Schramm, R.E.; Clark, A.F.; Reed, R.P. NBS MN 132; Sep 73. A Preliminary Investigation of the Behavior of High Purity Copper in High Magnetic Fields;

Fickett, F.R.

INCRA Annual Report, Project No. 186A; Aug 73.

Mechanical, Thermal, and Electrical Properties of Selected Polymers;

Reed, R.P.; Schramm, R.; Clark, A.F.

Cryogenics 13: 67-82; Feb 73.

Some Applications of Cryogenics to High Speed Ground Transportation;

Arp, V.D.; Clark, A.F.; Flynn, T.M.

NBS TN 635; Feb 73.

Characterization of High Purity Metals by the Eddy Current Decay Method;

Clark, A.F.; Deason, V.A.; Powell, R.L.

Cryogenics 12: 35; 72.

Magnetoresistivity of Copper and Aluminum at Cryogenic Temperatures;

Fickett, F.R.

Proc., 4th Inti. Conf. on Magnet Technology, Sep 72, AEC CONF-720908: p 498; 72.

Material Variability as Measured by Low Temperature Electrical Resistivity;

Clark, A.F.; Tryon, P.V.

Cryogenics 12: 451-461; Dec 72.

Properties of Nonsuperconducting Technical Solids at Low Temperatures;

Fickett, F.R.

Proc., 4th Inti. Conf. on Magnet Technology, AEC CONF-720903: 539; Sep 72.

Combination of a Power Transmission Line and an Active Track for a Magnetically Suspended, High Speed Train;

Clark, A.F.

J. Appl. Phys. 43(8): 3598; Aug 72. A Preliminary Investigation of the Behavior of High Purity Copper in High Magnetic Fields;

Fickett, F.R.

INCRA Annual Report, INCRA Project No. 186; Jun 72.

Standard Reference Materials: The Eddy Current Decay Method for Resistivity Characterization of High Purity Metals;

Clark, A.F.; Deason, VA.; Hust, J.G.; Powell, R.L.

NBS SP 260-39; May 72.

Defect Annealing (4 to 295 K) After Martensitic Phase Transformation in an Fe-29 Ni Alloy;

Reed, R.P.; Clark, A.F.; Schramm, R.E.

Scripta Met. 5: 485; 71.

Longitudinal Magnetoresistance Anomalies;

Fickett, F.R.; Clark, A.F.

J. Appl. Phys. 42: 217; 71.

Magnetoresistance of Very Pure Polycrystalline Aluminum;

Fickett, F.R.

Phys. Rev. B 3: 1941; 71.

Martensitic Transformation Detection in Cryogenic Steels (Magnetometer Development);

Fickett, F.R.

NBS TN 613; 71.

47
Characterization of High Purity Metals by the Eddy Current Decay Method;

Clark, A.F.; Deason, VA.; Powell, R.L.

Mater. Res. Stand. 11(8): 25-28; Aug 71.

Lorenz Ratio as a Tool for Predicting Thermal Conductivity of Metals and Alloys;

Hust, J.G.; Clark, A.F.

Mater. Res. Stand. 11(8): 22-24; Aug 71.

Low Temperature Electrical Resistivity of Some Engineering Alloys;

Clark, A.F.; Childs, G.E.; Wallace, G.H.

Adv. Cryo. Eng., New York: Plenum Press, 15: 85-90; 70. Low Temperature Specific Heat and Thermal Expansion of Alloys;

Clark, A.F.; Kropschot, R.H.

Inti. Inst, of Refrigeration, Commission I, Sep 70, Tokyo, Bulletin de l’lnstitut Internationale du Froid, Annexe

1970-2: 249; 70.

Resistivity of Polycrystalline Aluminum and Copper in High Magnetic Fields: The Effect of Temperature and Purity;

Fickett, F.R.

Appl. Phys. Lett. 17(12): 525-527; 70. Low Temperature Electrical Resistivity of Some Engineering Alloys;

Clark, A.F.; Childs, G.E.; Wallace, G.H.

Cryogenics 10: 295-305; Aug 70.

48
INDEX OF AUTHORS

Adair, R.T. 26-29 Edrich, J. 25-27,29 Alvarez, R. 7 Ekin, J.W. 18,32-46 Andrews, J.R. 13,25 Ellington, M.B. 37 Angerhofer, P.E. 46 Engelsrath, A. 5,8 Arp, V.D. 43,45,47 Etzel, S.M. 5,6,8 Arvidson, J.M 38,39 Evenson, KM. 16,30,31 Ashley, J.R. 30

Aust, JA. 3 Fast, R.W. 37

Fickett, F.R. 19,20,28,33-48

Baines, J. 3 Finnemore, D.K 38 Baruch, J.C. 36 Flandermeyer, B. 34

Beall, JA. 18-21,32,33 Flynn, T.M. 26,47

Beasley, M.R. 38 Fogle, W.E. 19 Beers, Y. 15 Folsom, R.M. 32,33

Bell, R. 38 Fowlkes, C.W. 46 Bender, B.K 26 Franzen, D.L. 3-16 Bennett, H.E. 3,4 Frederick, N.V. 8,9,20,23,25-30 Benson, R. 36 Fujii, G. 41-43 Bergren, N. 33 Birmingham, B.W. 46 Gallawa, R.L. 3,6,7,9-11,13 Blankenship, BA. 32,33 Gardner, J.B. 37 Bloom, L.R. 11,13 Garrett, H.J. 41

Braginski, A.I. 34,42 Gavaler, J.R. 39,40 Bray, S.L. 32,33,35 Gayley, R.I. 25

Bussey, H.E. 35 Geballe, T.H. 37

Geist, J. 15 Campbell, W.H. 24,27 Genens, L. 42 Capobianco, T.E. 19,32-36 Giarratano, P.J. 23 Capone, D.W. 34 Ginsberg, D.M. 27

Carelli, P. 23 Glaser, 1. 8 Case, W.E. 7,10,13,15,16 Go, D. 18,19 Cemosek, R.W. 7 Goeke, K 18 Chamberlain, G.E. 9-11,13,14 Gold, R.E. 43

Chandler, G.I. 7 Goldfarb, R.B. 32-36,38-41 Chen, D.-X. 33 Goldgraben, R. 7 Chen, H.S. 35,36,40 Goodrich, L.F. 32-42 Cherin, A.H. 3 Goree, W.S. 28-30 Chieh, K 18 Gould, D. 32

Childs, G.E. 48 Gray, E.M. 11,13 Churoux, P. 7 Greggi, J. 39,40

Cirillo, M. 19 Gregory, E. 32 Ciszek, T. 33 Gruzensky, P.M. 14-16

Clark, A.F. 20,22,32-48 Gschneider, KA. 33 Clem, J.R. 46 Guenther, A.H. 3,4 Cochran, J.F. 35 Cohen, D. 31 Hackert, M. 3

Collins, G.J. 14,15 Hale, P.D. 4,5 Colwell, J.H. 19 Halford, D. 16 Conrad, D. 5 Hamilton, CA. 14,15,18-27,29,30 Cook, A.R. 14-16 Hanson, A.G. 11,13 Costabile, G. 22 Harris, R.E. 19,20,22-27

Craig, R.M. 3 Hartwig, G. 42

Crete, D.G. 19,20 Havemann, R.H. 26 Cromar, M.W. 18-21,23,36-38 Haynes, W.M. 45 Cupp, J.D. 27-31 Hazzenzahl, W.V. 39 Head, E. 3 Dalder, E.N.C. 42,43 Heinrich, B. 35 Damento, MA. 33 Heinz, W. 37 Daney, D.E. 21 Heilman, F. 37

Danielson, B.L. 3-6,8,10-16,27-29 Hickemell, R.K 3,4 Day, G.W. 3-16 Hinken, J.H. 20,21 Deason, VA. 45-48 Hirabayashi, H. 33 Deb, S.K 33 Hirooka, T. 33

Deeter, M. 5 Ho, J.C. 41,43,44 DeLima, O.F. 34 Hobbs, R.D. 23 DeWeese, M.E. 4,6,8 Hoblitt, R. 42 DeWeese-Bishop, M.E. 5 Hoer, CA. 28,29

Dilorio, M.S. 18 Holthuis, J.T. 37,39 Dimmock, J.O. 17 Hong, M. 34,37-39 Dinger, R.J. 28 Howard, R.E. 18 Dragomirecky, M. 35 Hu, Q. 18 Drapela, TJ. 3,4 Hull, G.W., Jr. 39 Dube, W.P. 32,35,36 Hust, J.G. 45,47,48

Duffield, C. 36

Dulcie, L.L. 34 Itoh,

K 32 Dynes, R.C. 27 Ives, J.T. 23

Dziuba, R.F. 28 Janocko, MA. 34 Edelsack, EA. 31 Jarvis, S. 29

49
Jennings, DA. 16 Oldham, N.M. 18 Johnson, E.G., Jr. 5-10,12-14,27-30 Olien, NA. 28-30 Johnson, W. 21 Ono, R.H. 18-21,32,33 Johnson, W.L. 14 Oyamada, A. 33

Jones, H. 32

Jones, K. 38 Pankove, J.I. 33 Panson, A.J. 32-34 Kamper, R.A. 6,9,26-31,34 Papatheofanis, B. 3,4 Kanada, T. 6 Pasztor, G. 38 Kaplan, S B. 24,41 Patton, C.E. 40,41 Kasen, M.B. 43,44 Persson, K.B. 14,15 Katayama-Yoshida. H. 33 Petersen, F.R. 16,27-29

Katzir, Y. 8 Peterson, R.L. 15.18,19,22-27,31 Kautz, R.L. 18-26 Phelan, R.J., Jr. 3-9,12,14,15-17 Kazmerski, L.L. 33 Pittman, E.S. 35-38,40 Kim, E. 6,9-12 Powell, R.L. 41,43,44,46-48 Kim, S.H. 42 Pyatt, K.W. 14 King, G.B. 43

Klein, G.P. 15 Radebaugh, R. 26,27,29,30,4143

Kline, K.E. 5,6,8 Raine, K. 3 Klipping, G. 37 Raisanen, A.V. 19,20 Kocpol, W. 18 Ranney, MA. 41,42 Kose, V.E. 31 Rao, K.V. 33,35,36,40

Kreilick, T.S. 32 Rasmussen, A.L. 6,7,10,13,16 Kropschot, R.H. 48 Read, D.T. 43 Ku, H.C. 35 Reed, R.P. 38,39,41 47

Kwo, J. 34 Reite, M. 22.25,27 Richards, P.L. 18-20,24,25

Larbalestier, D.C. 38 Ried, D.L. 32 Larson, D.R. 3-9,11,12 Risley, A.S. 27-30

Larson, E. 42 Rizzoto, C. 37 Larson, L.E. 4 Rodhe, P.M. 8,9 Larson, T. 33 Rose, A ll. 3,4 Lee, K.S. 3,4 Rosenbaum, J. 42 Lehman, J. 4 Rosenblum, S. 44

Li, X. 3 Russell, T.W. 16

Li, Y.K. 32,33 Liou, S.H. 34 Sanders, AA. 6,7,9,10,13-15 Lloyd, F.L. 18-25 Sasaki, T. 33 Lonzarich, G. 35 Sauvageau, J.E. 18 Schmidt, L.B. 14,15 Madden, M. 32 Schoon, R.H. 39 Maher, D.M. 37 Schramm, R E. 42,43,47 Mahler, R.J. 16 Scott, J.F. 45 Maisonneuve, J.M. 7,9 Scott, T.R. 3,5 Mankiewich, P.M. 18 Sekine, H. 40

Masarie, KA. 18 Shao, Y. 6,7 Mascarenhas, A.J. 33 Shelton, R.N. 35 McCarthy, S.M. 23 Shen, T.M. 24,25 McDonald, D.G. 18-22,24,26-31 Siegwarth, J.D. 26,27,29,30 McFadden, J.D.O. 7 Silver, A.H. 27,31 McFarlane, J.C. 20 Simmonds, M B. 28-30 McGrath, W.R. 19,20 Simmons, W.R. 16 McHenry, H.I. 41,43,44 Simpson, PA. 3,6,8,9,12,14 McNeil, J.R. 14,15 Smith, R.J. 3 Mears, CA. 18 Smith, R.L. 14-16

Mikesell, R.P. 44 Sorenson, C.M. 45 Milam, D. 3,4 Soulen, R.J., Jr. 19,23 Milner, T.E. 5 Sparks, L.L. 44,46 Minervini, J.V. 35,37,38 Srivastava, R. 8,9 Mockler, R.C. 45 Stanley, W.D. 28 Monaco, R. 18,21 Stauffer, T.C. 32 Moore, D F. 22 Steiner, R.L. 20 Moreland, J. 32-37 Steyert, WA. 44 Moulder, J.C. 35 Stubenrauch, C.F. 14 Muhlfelder, B. 20,21 Suenaga, M. 41 Mullen, L.O. 15,16,31 Sullivan, D.B. 21-31,46

Myrtle, K. 35 Superczynski, M.J. 38,40,42 Suzuki, T. 33 Nagano, H. 37 Swartzlander, A.B. 33

Nelson, A.J. 32,33 Newnam, B.E. 3,4 Tachikawa, K. 32,39,40 Newton, R.N. 46 Takahashi, T 33 Niemeyer, J. 20,21 Tang, D. 4

Nikolo, M. 32 Timmerhaus, K.D. 43,45

Nisenoff, M. 28,29 Tinkham, M. 38 Nogues, J. 33 Tobler, R.L. 43

Trapani, R.J. 45

O’Sullivan, W.J. 45 Tryon, P.V. 47

Oates, C.W. 3,5 Oberly, C.E. 41 Van Reuth, E.C. 45,46 Ochiai, A. 33 Van Vechten, D. 23 Okabe, Y. 33 VanZeghbroeck, B.J. 22

50

4 us government printing ofeice 1989-Jacket 676-825/5195 Region 8
Vecchia, D.F. 32,38 Whitesel, H.K. 3,4 Vesser, L.R. 3,4,7 Whittenberg, C.D. 3-5 Vorreiter, J.W. 25 Wilmer, R. 39 Withers, R.S. 18 Wada, H. 32 Wolf; P. 22 Walker, M.S.; 41 WolC SA. 28,29 Wallace, G.H. 48

Walters, C.R. 32 Xizhi, L. 18 Waltman, DJ. 38,40 Wang, S.T. 42 Yang, S. 7 Weimer, C. 7 Young, M. 3-13

Wells, J.S. 16,29-31 Yu, K. 33 Weppner, M.B. 5 Werner, P.E. 12 Zeitlin, BA. 41 West, E.D. 15,16 Zimmerman, J.E. 19-31 Weston, W.F. 45 Zimmerman, J.T. 22,25,27

51
U.S. DEPT. OF COMM. 1. PUBLICATION OR 2. Performing Organ. Report No. 3. Publ i cation D ate BIBLIOGRAPHIC DATA

SHEET (See instructions)

REPORT NO.

NISTIR 89-3921 B89-0275 August 1989

4. TITLE AND SUBTITLE

Metrology for Electromagnetic Technology: A Bibliography of NIST Publications

5. AUTHOR(S)

DeWeese, Mary E.

6. PERFORMING ORGANIZATION (If joint or other than NBS, see in stru ctlon s) National Institute of Standards and Technology mnmKmmMmmMww

DEPARTMENT OF COMMERCE

WASHINGTON, D.C. 20234

7. Contract/Grant No.

8. Type of Report & Period Covered

9. SPONSORING ORGANIZATION NAME AND COMPLETE ADDRESS (Street. City. State . ZIP)

10. SUPPLEMENTARY NOTES

Supersedes NBSIR 88-3097

Document describes a computer program; SF-185, FIPS Software Summary, is attached.

11. ABSTRACT (A 200-word or less factual summary of most significant information. If document includes a si gn i fi cant

bi bl iography or literature survey, mention it here)

This bibliography lists the publications of the personnel of the Electromagnetic

Technology Division of NIST during the period from January 1970 through publication

of this report. A few earlier references that are directly related to the present

work of the Division are also included.

12. KEY WORDS (S/x to twelve entries; alph abeti cal order; capitali ze only proper names; and separate key words by semicolon s)

cryoelectronics ; electromagnetic metrology; lasers; optical fibers; superconducting

material

13. AVAILABILITY

Ixl Uni imited

[ j For Official Distribution. Do Not Release to NTIS

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