Aaron, Jules. Date: December 12, 1983. Interviewer: David H. DeVorkin. Auspices: SAOHP. Length: 1 hr.; 13 pp. Use restrictions: Permission required for access.
Reviews Aaron's (b. October 3, 1921) career at AFCRL as a research physicist (1946-55), Chief of Radio Astronomy Branch (1955-72), and at AFGL as Chief of the Trans-ionospheric Propagation Branch and Senior Scientist at the Space Physics Lab (1972-81). Topics discussed include significant aspects of his role in the use of V-2s by Marcus O'Day for upper atmosphere research; his contact with O'Day and Menzel and the establishment of Sac Peak; the research mission of AFCRL; AFCRL's early interest in solar studies; and a comparison of present day research activities at AFGL and NRL.
TAPE 1, SIDE 1
1 Marcus O'Day and his interest in V-2's; testing the Luxembourg effect
1-2 Joining the Navigation Laboratory after WWII
2 Attempt to change emphasis of Navigation Lab from operations support work to research
2-3 O'Day, Menzel the beginning of Sac Peak
3-4 Advantages and disadvantages of location of Sac Peak
4-5 Donald Menzel - Masters work under; trip to Sac Peak with; personality and interests
5-6 Experimentation with V-2's - Heinz Fisher and John Castelli
6 Research character of AFCRL - emphasis on support of Air Force missions
6-7 Changes in personnel policy of AFCRL
7 Scientific interests at AFCRL - internally motivated vs. directed tresearch
8 Problem of turnover of military administrative personnel
8 AFCRL early interest in solar studies
9 UAL
9 Contact with NBS and University of Colorado
9 Withdrawal of Air Force support for moon and planetary studies
10 Educational background - theses on low-frequency fluctuations in earth's magnetic field
11 Comparison of research capabilities at AFGL and NRL in ionospheric propagation
TAPE 1, SIDE 2
11-12 Research at NRL - applied vs. pure research
12 Outside contracting - NRL compared to AFGL; AFGL; at Sac Peak
13 John Evans and Sac Peak
13 Summary
Ball Brothers (Reuben H. Gablehouse and Fred Dolder). Date: January 13, 1982. Interviewer: David H. DeVorkin. Auspices: SAOHP. Length: 2.5 hrs.; 46 pp. Use restrictions: Permission required to quote, cite or reproduce.
Principally covers Ball Brothers' contracts for and development of the early OSOs from the late 1950s to the late 1960s. In this period Dolder served as Program Manager for OSO. Significant topics include evolution of the original proposal; the relationship of John Lindsay of Goddard (the contracting agency for OSO) with Ball Brothers; design changes relating to pointing controls, telemetry and structural configuration; loss of the AOSO contract; and Ball Brothers' work on Skylab.
TAPE 1, SIDE 1
1 Introduction; explanation of which existing division was the Ball Brothers Research Corporation
2 Aerobee pointing control
2 The bent ogive and reasons for its adoption
2-3 Some corporate history; Solar Azimuth Pointing Platform (SAPP)
3-4 Purpose of SAPP
4 John Lindsay's visit and OSO
4-5 Gablehouse's arrival to work on OSO
5 OSO proposals
5-6 Problems of space environment
6-7 Description of "figure 1" - pointing control
7 Model of "figure 1" - Mrs. Lindsay
7-8 Communications equipment design
8 The OSO Proposal; more on Lindsay
9 OSO instrumentation
9-11 Explanation of informal contract behavior; changes in contract
11 Changing OSO's life span; similarities with biaxial pointing control
11-12 Instruments in the ring
12 Changes in design
13-14 Designer Myron "Red" Poyer; gas bottle placement and changes
14 Problems with weight and inertia
14-15 Launch date slippage; John Lindsay's involvement
15-16 Budgeting and contract negotiations
16 Development of OSO's "arms"
16 Fitting OSO into its launch vehicle
17 PI contacts
17 Instrument manufacture
TAPE 1, SIDE 2
17-18 OSO sequencing in construction and contracting
18-20 Changes in design after OSO-1 - telemetry: digital vs. analog; ground station: transmission problems
20 OSO structural changes: description of azimuth casting
20-21 Starfish and OSO
21 Gravity gradient effect and spin problems
22 Tape recorder description, changes from OSO-1 to OSO
22-23 Problems with the second OSO launch
23 Rocket explosion; deaths; account of accident
23-24 Dolder's career; Advanced OSO
24-25 Views on the advanced OSO contract; OSO contracting
25-26 Changes at GSFC; Thole; OSO contract competition
26 Changes in OSO at GSFC under Thole
26-27 AOSO proposal; republic contract deficiencies for AOSO
27-28 HAO coronagraph for Apollo
28 Cancellation of AOSO; origin of HAO sun pointer
29 Thole's present position: MX antenna
29 Skylab & OSO funding; Skylab mission
29-30 George Mueller and Skylab; Orbital Workshop concept development
30 Men in Skylab; astronaut training
31-32 Picture book of Skylab; ATM
32 ATM pictures; H-Alpha, UV photos: ATM wooden mock-up
TAPE 2, SIDE 1
33 Air Force Gamma Ray instrument and satellite P-78
33-34 NRL instruments on P-78; P-78 purpose; microstrip antenna (P-78)
34-35 Other Ball Brothers instruments
35 Marion Fulk; lubricating bearing
35 Testing vacuum chambers and bearings; documentation of engineering performance
36 Dry lubricant; Marion Fulk; lubricating schemes
37 Kohlsman - OAO's startracker; OAO bearings controversy: changing from dry to wet lubricant for OAO
37-38 Lubrication in AF meteorological satellite
38 ATM
38-39 Announcements of opportunity and Ball Brothers role; GRO (Gamma Ray Observatory)
39 Space Telescope contract
39 Galileo contract; Gerry Gilland; hiring astronomers
40 On scientists: why they have no staff scientists
40 OSO-1 people to talk to
41 OSO-1 launch test; OSO-3 testing
41-42 Perception of early days
42-43 Harvard College instrument (OSO-2) failure (Goldberg instrument)
43 Procedure for using scientific instruments in orbit
43-44 Skylab; scanning gratings for spectrophotometer
44 Design structure and prototypes for skylab spectral equipment; who did what
45 NRL UV camera; design of UV camera
45-46 NRL cameras in orbit
46 Ball Brothers & NRL cameras; Ek Lemberg, designer
Ball Brothers (Otto Brothers, Bartoe, Fred Dolder, Reuben Gablehouse, R.A. Gaiser, R.C. Mercure). Date: July 26, 1983. Interviewer: David H. DeVorkin. Auspices: SAOHP. Length: 2.5 hrs.; 121 pp. Use restrictions: Not established.
Provides a broad-ranging discussion of Ball Brothers space research activities since its inception in 1956, and of the contributions of Bartoe, Dolder, Gablehouse, Gaiser and Mercure. Topics reviewed include the origins and establishment of Ball Brothers Research Corporation; early involvement in space research; the contract for pointing controls with AFCRL in 1957; the evolution of pointing control accuracy; the evolution of expertise at BBRC in optics and servo-mechanisms; and BBRC contract work on the OSO series, including the evolution of the original proposal with Goddard and the loss of the contract for AOSO to Republic.
TAPE 1, SIDE 1
1 Gaiser - educational and work background
2-3 Libby Owens Ford and coming to Ball in 1955
3-5 Work on weighting device/control cell
5-8 Recruitment of University of Colorado people to work on control cell problem
8-10 Recruitment of Stacey and others
11 Beginning of Ball Brothers Research Corp (BBRC) 1956
11-12 Control cell in relation to other BBRC products
13-15 Space research work at BBRC - initial projects and proposals
15 Micrometeorite proposal
15-17 Keeping BBRC afloat
17-19 Contract for pointing controls with AFCRL, 1957
20-24 Proposals from NASA build pointing control orbiting vehicle in 1958
24-25 Russ Nidey and problem of "laying out"
25-27 Bartoe - educational and work background at Upper Air Lab/Research Service Labs
27-30 Air Force contract to produce a pointed coronagraph in 1948
30-32 Work for Stacey in 1956 - control cell and proposal for aspect detection system for GE
32 University of Colorado pointing control tooling patterns
TAPE 1, SIDE 2
32-35 Lunar landing optics project (1958)
35-36 Operation of V/H meter
36-38 Redesigning the pointing control developed by the University of Colorado
38 Bent-ogive
39-40 Balloon platforms - SAPP
40-41 Development of technology in BBRC projects - optics, servo-mechanisms
41-42 Optical Platform Alignment Linkage - OPAL
42-45 Origin of OSO proposal
44-45 Telemetry for OSO
46 AFSAT
46-47 Contract with Lockheed
47-48 Contact with other aerospace corporations, 1958-9
48-49 Grumman and OAO
49-52 OSO and triaxial platform
53-56 OSO contract - Republic and BBRC
56-57 OSO-8 contract - Hughes and BBRC
57-59 OSO-7 compared to earlier OSOs
59-60 OSO-8 contract award
60-61 John Foley
TAPE 2, SIDE 1
62-63 Cost
63-64 Hughes "stealing" of "Vac coat" process
64-65 Mercure - educational and work background
65-67 First spectroheliograph - involvement with University of Colorado group
67-68 Mechanical design of spectroheliograph
68-69 Single grating stigmatic spectrograph
70-72 Stacey and BBRC
72-73 First employees of BBRC
73-75 Mercure's early responsibilities at BBRC
75-77 Godfried Rosendahl and reflecting spectroheliograph
77-78 Instrument design work
78 Photoelectric recording
79-81 High energy physics instruments
82-84 Diversification into instrument work
86-88 Original OSO proposal, 1959
88-91 Evolution of original OSO proposal
91-92 Ritch control system
93-95 Equipment obtained by BBRC from other corporations
TAPE 2, SIDE 2
95-96 Quality of BBRC personnel
96-97 Organizational structure and project management
97-100 Matrix management and NASA
101-102 Matrix management at BBRC
102-103 Cost accounting system at BBRC - work breakdown structure
103-109 Bid/no bid Criteria
109-111 Importance of having a "champion" at headquarters
111-112 Evolution of accuracy of pointing controls
112-114 Design changes that increased accuracy
114-115 Torque motors
115-116 OSO-7 stability
116-121 Pointing contracts after OSO-7
Baum, William Alvin. Date: January 12, 1983. Interviewer: David H. DeVorkin. Auspices: SAOHP. Length: 1.5 hrs.; 26 pp. Use restrictions: Public.
Surveys Baum's (b. January 18, 1924) career as a physicist at NRL (1946-49) and astronomer at Mt. Wilson and Palomar Observatories (1950-65). After sketching Baum's early life, the discussion concentrates on Baum's role in the development of spectroscopy research at NRL, specifically his work on the UV spectrum of the sun - including the first successful UV spectra of the sun. Aspects of his experience in experimentation with V-2s and Aerobees, and his thesis research at CALTECH (PhD, 1950, physics) are also explored.
TAPE 1, SIDE 1
1 Family background; college (Rochester)
1 Getting into CALTECH
2 Battling selective service; R.A. Millikan war-time at CALTECH; to the Navy
2 CALTECH rocket project; volunteering for the Navy
2-3 Other grad students with Navy; NRL contact; Mt. Wilson
3-26 NRL work
3 Basic training; in the Navy at CALTECH; NRL assignment
3-4 Fire control at NRL; computers; Optics Division, NRL
4 Move optics division; using rockets
4-5 Going after the UV spectrum; spectroscopic experience
5 Feelings about prospective UV work; atmosphere of work
6 Going to White Sands proving ground; Baird Atomic connection
6 Spectroscopic film survival and spectroscope placement; going to Baird; Tousey and lithium fluoride beads
6-7 Alternatives to lithium fluoride bead entrance bead manufacture
7 Baird Atomic costs; NRL mockups
7-8 Making the film cassette; relationship with Baird
8 Description of Baird Atomic
8-9 Pictures of June '46 launching; developing spectrographic film
9 Rapidity of whole rocket process
9-10 At White Sands Proving Ground with the spectroscope; loading the instrument onto V-2
10-11 Impression of V-2s; weight requirements
11 Balancing the V-2; description of V-2
11-12 Meetings with Von Braun; German estimate of percent of successful launchings
12 Origin of spectroscope
12-13 Problems of warhead survivability; German advice
13 First V-2 launch
13 Looking for the impact crater
TAPE 1, SIDE 2
14 Limitation of memory
14-15 First V-2 launch recollections; launch duties
15 White Sands Proving Ground visitors; competition Hopfield's instrument
15-16 First crater; putting instrument in the tail
16 Photoelectric spectra effort; NRL structure
16-17 Shuttling between CALTECH and NRL; October '46 flight
17 First successful spectra; Tousey's letter to Baum about it
17-18 Baum's graduate school ideas for solar spectra
18 Tousey seeking aid in design; R.W. Wood and J. Strong; Lyman
18-19 Lyman's ideas; Stockbarger & lithium fluoride; lithium fluoride suppliers meet w/Lyman
19 Meeting with Lyman
19-20 CALTECH; spectroscope reconfiguration; Baum's refractive instrument
20 Running out of V-2s; WAC vs. Aerobee
20-21 JPL; PhD spectrograph design; thesis advisor
21-22 Thesis administration; materials; Penn Optical
22 Thesis disruptions; NRL sponsorship of thesis
22 Baum's NRL status; Aerobee failure
22-23 Silver chloride batteries ADN Sun Follower
23 Coffee can batteries; preparations for launch
23-24 Battery activation; battery failure
24 Destruction of thesis on the pad; why no second attempt
24-25 New thesis; testing instrument
25 Test run of Sun Follower; UV transmission of lower atmosphere
26 In the service at NRL; Greenstein Contact; perception of rockets
26 Short return to NRL; off to Mt. Wilson
Behring, William. Date: April 7, 1982. Interviewer: David H. DeVorkin. Auspices: SAOHP. Length: 3 hrs.; 49 pp. Use restrictions: Not established.
After outlining Behring's (b. January 17, 1924) early interests and education, the interview analyzes in detail his work at the Upper Air Laboratory, University of Colorado, beginning in 1948, on rocket instrument design, especially on pointing controls and on spectrographs. Behring discusses the initial contract for pointing controls with AFCRL, as well as the evolution of pointing control design at UAL. The principal focus of the interview, however, is on Behring's work on the development of a solar monochromatic camera and a solar spectrograph, under the supervision of William Rense, for obtaining the Lyman alpha line of hydrogen. Design problems, the role of Rense, and competition with NRL and Tousey are discussed.
TAPE 1, SIDE 1
1-5 Family background
5-8 Early home life
8-9 Early reading interests
9-11 Early mechanical and scientific interests
12-15 Parents attitude toward education - sisters college education
15-19 High school education and work experience
19-20 Interest in astronomy
20-25 High school courses
TAPE 1, SIDE 2
26 Interest in college
27-29 Decision to attend University of Colorado
29-42 University of Colorado, 1941-1947
29-31 Major in engineering physics
31-33 Interest in electricity and in astronomy
33-39 Military service
39-40 Finishing undergraduate work
40-41 Contact with University of Colorado rocket group
41-42 Decision to go to graduate school
42-45 Purdue University, 1947
43-45 Course work; interest in spectroscopy
45 Work for the pointing control project at the University of Colorado, 1948
45-46 Primary researchers involved
46 Designing a coronagraph
47 Pretenpohl and Walz and Air Force contract for pointing control
47-48 Motivation for rocketsonde work
48-49 Rense
Bergstrahl, Jay Thor. Date: July 13, 1983. Interviewer: Joseph Tatarewicz. Auspices: SAOHP. Length: 2.5 hrs.; 41 pp. Use restrictions: Not established.
Reviews Bergstrahl's (b. August 23, 1943) early life and career as a graduate student at the University of Texas; as a National Research Council fellow (1972-74); and at JPL, as senior scientist, planetary science (1974-79), and member of the technical staff (1979- ). Topics discussed include NASA's planetary astronomy program and activities at the University of Texas McDonald Observatory and JPL Table Mountain Observatory.
TAPE 1, SIDE 1
1-4 Family background
1 Father a physicist with NRL rocketsonde 1946-50, respect for the first full earth curvature photos from V-2
2 Project Farside - 4-stage sounding rocket launched from balloon
2 1957 - Ford Aeroneutronics
2 Early 1960's NRL Nucleonics: 1st H-Bomb, Project Ivy
2 1961 - Aerospace Corporation, classified research
3 Sputnik; high school astronomy, astronomy club
4-5 Carleton College - physics major then astronomy
5 Bob Matthew, the only astronomy teacher at Carleton; positional astronomer, no astrophysics friends at Carleton - Pete Schultz (UTX then LST); Harry Hechathorn (UTX then JSC)
6-14 University of Texas, Austin, undergraduate education
6 How close, Sept. 1965
7 Description of UTX faculty - F. Edmunds; G. DeVancouleurs; H. Smith; B. Tull; T. Deeming; N. Wolfe; a. Young
8 First year graduate curriculum - Astronomical physics taught by Edwards textbooks
9 No planetary at all
9 Planetary astronomy courses available after first year
10 DeVaucouleurs as a teacher
11 Mars mapping project with DeVaucouleurs using historical observations
12 Interest in planetary astronomy
13 Active discouragement of planetary research at Carleton, passive during first year at University of Texas
TAPE 1, SIDE 2
14 DeVaucouleurs as a teacher
15-17 1966-1967 summer jobs at Ford Aeroneutronics
16 Literature searches looking for possible future directions for space science to pursue
17 Discovering planetary astronomy science via Icarus
18-23 Master's thesis at University of Texas on "nondetection" of CO2 on Mercury
18 Louise (Gray) Young, thesis advisor with laboratory expertise in CO2 on Mercury
19 JPL astronomers at Texas; R. Schorn
19-21 Development of 107-inch
21 Joining AAS and presenting first paper on the nondetection of CO2 on Mercury
22-23 Joining DPS; a pre-inaugural meeting at Austin of the Division for Planetary Sciences (DPS); reasons for its formation
23-27 NASA-Texas Planetary Astronomy Project
24 Management structure
24 Transmitting NASA's planetary needs down the line into actual astronomical work
25 Specific projects
25 Running the 107-inch and 82-inch telescopes 24 hours a day, observing Mars at night, Venus by day
25 Dear Colleague' letters
26 Shift from inner to outer planets, from planets to Comets as examples
26 US participation on Giotto
27 Differences between NASA and NSF programmatic interests
TAPE 2, SIDE 1
27 Question of how to change programmatic emphasis
28-31 PhD thesis at University of Texas
28 Choosing a topic; outgrowth of Ford Aeroneutronics literature search; H. Smith
29 Talking with Trafton; meeting more JPL people
29 Development of synthetic spectra computer program
30 Connection to Goddard Institute for Space Studies
30 Government laboratories and the direction of research
31-41 JPL
31 NRC Resident Research Associate at JPL
32 Structure and activities of JPL astronomy group in 1972
32 24-inch Coudè telescope
33 Bob Norton - advisor; Schorn on Venus; Young on Venus; Margolis on lab spectra of methane, ammonia, re: Jupiter; Newburn getting more interested in comets; Bergstrahl hired as outer-planet person; Glenn Orton far infrared
34 Organization of the optical astronomy group
35 How Table Mountain Observatory is run
36-37 Preston Committee on Space Telescope - 1975-76
38 Nancy Roman made it clear that ST would be used for planetary work - NASA HQ policy; O'Dell set the slewing and tracking rates for Halley's Comet
39-41 How Bergstrahl's experience in science management has affected his opinions of how planetary astronomy is best done
Bergstrahl, Jay Thor. Date: August 1, 1983. Interviewer: David H. DeVorkin. Auspices: SAOHP. Length: 3.5 hrs.; 63 pp. Use restrictions: Open.
Concentrates on Bergstrahl's work at NRL (1946-56), principally as an experiment integrator for rocket flights, with additional coverage of his later work at Ford Aeroneutronics and Aerospace Corporation. Besides discussing the procedures and problems of integrating experiments, Bergstrahl relates his work at NRL on early attempts at high altitude photography, on rocket impact point prediction systems, and on cosmic ray balloon research. The discussion of his years (1956-62) at Ford Aeroneutronics examines his work on lunar and planetary studies, including work on the Ranger Hard Lander.
TAPE 1, SIDE 1
1-5 Family background, early schooling and interests
4 Undergraduate work at Carleton College - physics major
5-7 Graduate work at University of Minnesota
5 Decision to go to Minnesota
5 Course work
6 Effect of WWI on dissertation research - Manhattan project and additional teaching
7-12 Commission in the Navy
7 Completion of Master's degree
8 Attending radar school at Bowdoin College and MIT
8 Duties with Navy Liaison group
9 Conclusion of WWII and assignment to Patent Office
9-10 Recruitment by NRL
10-11 Discussion of NRL projects during recruitment
12 Decision to join NRL
12-43 NRL
12 Interest in upper atmosphere research
12-13 Cosmic ray group atmosphere research initial duties; heat analysis of re-entering V-2s and experiment integrator
TAPE 1, SIDE 2
13-14 Deciding where experiments would go on flight
14 Construction of warheads
14-15 Recovery of warheads
15 June 1946 flight; loss of spectrograph
15-16 Decision to place spectrograph in tail section rather than nose cone
16 Work on photo cell telemetry
16-17 Other methods of data recovery; ejection of container
18 Use of the term "warhead"
18-19 Responsibilities at White Sands - instrument integration and check-out
19 Pre-launch check-out procedures
20-21 Responses to pre-launch problems - case of acid tank accident
21-22 Investigator's attitude toward instrument failures
22-23 Atmosphere at White Sands - relationship with GE and Army
23-25 Photography work on V-2
25 March 1947 flight
26 Meteorological interest in results of photography
27 Subsequent photographic flight
TAPE 2, SIDE 1
27-28 Work with Milton Rosen on Viking; safety system for impacts
28-29 Development of rocket impact point prediction system
29-30 Use of Navy binocular system and analogue computer to predict impact
30-31 Clyde Tombaugh
31 Articles on V-2 work
32 V-2 launching cycle
32-33 Krause's departure from NRL in 1947
33-34 Richard Tousey
34-36 Cosmic ray balloon work
36 Attitude of University of Minnesota cosmic ray group toward rocket vs. balloon research
36-37 Access to rockets
37 Integration of instrumentation in Aerobees
37-38 Checkout procedure
38-39 Results of attempt to measure cosmic ray diurnal effects
39 Understanding of what cosmic rays were
40 Nuclear weapons research
40-41 Nuclear reactor at NRL
41-42 Decision to switch from rocketsonde division to nuclear physics division
TAPE 2, SIDE 2
42-43 Decision to leave NRL in 1956 to work at Ford Aeroneutronics
43-55 Ford Aeroneutronics
43 Proposed nuclear reactor
44 Missile programs
44-45 Ranger Hard Lander
46 Dinsmore Alter (see page 52)
46-47 Lunar research with M. Johnson, R. Havens, I. H. Bifford
47-48 R. Havens
48 Competition among aerospace companies
48 Lunar and planetary expertise, 1958-60
48-49 Study of lunar craters - vulcanism versus impact theory
49-50 Receiving the Ranger contract
51 Members in research group
51 Getting work for his group - need for outside contracts including classified work
51-52 Scout launch vehicle
52-53 Dinsmore Alter; attitude toward space programs
53-54 Decision to work for Aerospace Corporation (1963)
54-55 Problems with proposal system and grantsmanship
55-60 Aerospace Corporation
55-56 Positions held and responsibilities
56-57 Work on ten year planning document
TAPE 3, SIDE 1
57 Navstar
58-59 Starfish and nuclear environmental studies
59-60 Planetary radar studies
60 Environmental work on post-OSO Air Force satellites
60-61 Assessment of career
61 Photographs and archival records
62-63 Jay Bergstrahl
* Bleach, Richard. Date: May 11, 1984. Interviewers: David DeVorkin and Joseph Tatarewicz. Auspices: SAOHP. Length: 2.25 hrs.; 74 pp. Use restrictions: Permission required to quote, cite or reproduce.
After describing his upbringing and undergraduate education in physics at Renesselaer, Bleach (b. June 7, 1944) reviews his subsequent enrollment in the PhD program in physics at the University of Maryland. He then discusses his work at Goddard while in the PhD program, including initially developing solid state detectors for cosmic ray experiments; moving to an X-ray astronomy group headed by Dr. Elihu Boldt; developing and testing proportional counters in balloons, rockets, and satellites; use of mechanical and modulation collimators in the counters; and interaction with other research groups. Bleach next describes his thesis on Cygnus X-1 and work at NRL after completing his PhD program, including initially building and conducting experiments with detectors for the gamma ray group under HEAO, and subsequent move to the laboratory diagnostics area in which he still is involved.
TAPE 1, SIDE 1
1-3 Early Life
1-2 Family background and education
3 Interest in physics and astronomy
4-10 Rensselaer Polytechnic Institute
4 Choosing a college
5 Interest in engineering
6-7 Courses at Rensselaer
8-9 Special interests; reading Sky and Telescope magazine
10 Decision to go on to graduate school (PhD)
11-38 University of Maryland /Goddard
11 Choosing University of Maryland
12 Teaching assistantship at University of Maryland
13 Summer job at Goddard, for Frank McDonald, working with solid state detectors
14-15 Courses and departments at the University of Maryland
16 Join the Goddard X-ray astronomy group; graduate research leading to a thesis
17 Activities at Goddard; analyzing data
18 Characteristics of the X-ray group
19 Specific experiments and interest of the X-ray group
20 The isotropic background problem
21 Elihu Boldt's theories for gas in the universe
22-24 Contact between the various astronomies (infrared, radio, X-ray, UV, etc)
25 The idea of an Institute of Astronomy
TAPE 1, SIDE 2
26-27 Sharing of observation time through computer automation
28-30 Building proportional counters for rockets at Goddard
31-32 Thesis: "A Study....of the Cygnus Region of the Sky"
33-35 Multi-wire large area proportional counters, mechanically collimated
36-37 Modulation collimators versus slaat [!] collimators
38 Availability of assistantships at Goddard
39-74 NRL
40 Job options with a PhD
41-42 Gamma ray as astronomy from balloon experiments under Jim Kurfess
43 Cost of rocket flights at Goddard
44-46 Frank McDonald; the atmosphere at Goddard
47-50 Observation of Cygnus X-1 by the Goddard group by Uhuru
TAPE 2, SIDE 1
50-52 Publishing the Cygnus X-1 paper; different versions of how Cygnus X-1 was discovered
53-54 Giacconi; decision to go to the NRL gamma ray group
55 Problems with the HEAO experiment
56 Developing multi-wire proportional counters
57 Talbot Chubb at NRL
58-60 Building scintillation counters for balloon experiments
61-62 Relationship between balloon, satellite and rocketsonde research and experiments
63 NASA high energy groups
64-65 HEAO cutback; removal of the satellite gamma ray experiment from HEAO
66 Decision to switch to laboratory work at NRL; doing X-ray diagnostics of laser fusion plasmas
67-69 AS & E; determining characteristic lunar surface composition by X-ray
70-71 Laboratory diagnostics
72-74 Future topics of discussion
Brunk, William. Dates: July 21 and August 9, 1983. Interviewer: Joseph Tatarewicz. Auspices: SAOHP. Length: 5 hrs.; 84 pp. Use restrictions: Not established.
Traces Brunk's (b. November 24, 1928) career in engineering at the Lewis Flight Propulsion Laboratory, NACA (1954-8), Lewis Research Laboratory, NASA (1958-65), and NASA HQ (1965- ), beginning with an overview of his family background and education, and his work in supersonic aerodynamics for NACA. The interview primarily examines Brunk's role in and perceptions of the development of planetary ground-based astronomy during his tenure at NASA HQ as Program Chief of Planetary Astronomy. Topics discussed include CALTECH's 60-inch telescope; problems and techniques in ground-based observation; the Planetary Patrol program at Lowell Observatory; relations between NSF and NASA in the support of ground-based astronomy; and general perceptions of NASA's role in ground-based astronomy.
July 21, 1983.
TAPE 1, SIDE 1
1-2 Brunk's biography. Education and upbringing. Rejection from
Naval Academy and acceptance at Case Institute of Technology.
3-8 Chronology of courses taken by Brunk at Case. Graduate work as
research assistant in astronomy. Make-up of Case astronomy staff.
8-10 Brunk's decision to work for NACA Lewis rather than get his
Ph.D (1954) and how he still keeps contacts at Case.
11 Decision to complete Doctorate at NACA's expense (1956- 1957).
TAPE 1, SIDE 2
12 NACA/Lewis interest grows in space exploration.
13 NACA's change to NASA and their realization of what little
background they had with space, usually their work was with propulsion.
14-16 Differences between scientists and engineers. Brunk's responsibility to educate NASA lab in space exploration.
NACA's policy/process of tedious review of all publications and lectures. Brunk's enjoyment of the education process at NACA with Lewis and Goddard.
17-18 Return to Case in '58 to further astronomy education. Beginning work with NASA for Cleveland space exhibit. Exhibit
to include educational series for high school students.
19 Education materials used in exhibit.
20 Limitation on possibilities to get a degree in planetary
astronomy due to lack of literature and school offering it.
21 Problems with high school lectures because of lack of materials.
22 Exhibit put at World Fair, New York in 1964 and Brunk's responsibility to train technicians for exhibit and his interaction with the public.
23-24 NASA's support of Kuiper's Lunar and Planetary Lab and Brunk's
unhappiness at Lewis due to lack of support in astronomy. Nancy Roman's invitation to come to NASA.
TAPE 2, SIDE 1
24-26 Confusion with '61 and '62 recall. Brunk's involvement with
astronomy subcommittee. First acquainted with Nancy Roman. Factors that pushed Brunk to work for NASA.
27 Positions of Urner Liddel and Oran Nicks, and Moore when Brunk
was asked to join.
28 Hired as staff scientist for planetary astronomy program at
NASA.
29 Social activity in NASA. Concerns in NASA's early literature
on planetary exploration, and Homer Newell and Oran Nicks work to update NASA's program.
30 Brunk's decision to leave Lewis, and Urner Liddel's presentation of their planetary astronomy program, August 1964.
31 Various grants for telescopes being built around the world.
32-33 Reasons whey Brunk became a staff scientist. Breakdown of the
astronomy program. Arguments as to wheterh a large telescope will to a better planetary job. Questioning of legitimacy of NASA getting into extensive ground-based astronomy.
34-35 Pursuing the construction of astronomical facilities and should
NSF or OMB be backing the project and using various university programs for facilities.
36 Building the 107-inch telescope at Arizona, Kuiper's telescope.
TAPE 2, SIDE 2
36 IRTF Facility, it is the only one that NASA owns.
37-38 JPL pressure for a large planetary telescope for telescope time
they were not qualified to get at other places. JPL's contact with Cal Tech to build them a telescope.
39 "Critical Need for Telescopes" memo from Newell to Seamans to
justify Cal Tech telescope.
40-41 Brunk's association with John Salisbury regarding Cloudcraft
and the Air Force Cambridge takeover. Setting up standards for classifying observations to get funding.
42-43 Brunk's attempt to get materials that he was not involved in
when he came to NASA and the difficulty due to lack of organization in the files.
August 9, 1983
TAPE 1, SIDE 1
44-45 Learning telescope construction and contract monitoring (1964). Sub committee speciality.
45 Requirements for Planetary observing time and difficulties in
obtaining it. Mars observing mission (Voyager).
46-47 Justifications for building a telescope at Cal Tech,
and problems with funding, and NASA requirements for
funding. Facility versus Instrument.
47 Astronomers and geologists' differing needs.
48-49 Lunar geology program, and getting people interested in lunar
studies and Brunks responsibility to pull people together for ground-based planetary astronomy (1964). Funding instruments and personnel. Study of Mars terrain.
50 NASA's proposal to design a spacecraft that could land on the
Mars surface and difficulties with various proposals.
51 Solving the effect of solar lines to study a planets atmosphere
and conference held that solved problem. Discovered new technique of using pressure sensitive CO2 lines.
52-53 Support from NASA for work on outer planets, theoretical work,
spectroscopy, celestial mechanics, and imaging.
54-55 Setting priorities and funding ways to get better instruments
to meet planetary study goals. Grants and advisory groups to
get people more interested in lunar and planetary exploration.
56 Kuiper's arguments for a new telescope. Contract for Las
Cruces telescope.
TAPE 1, SIDE 2
57-58 Mission versus research, confronting Congress and Scientific
community for support for astrometry
59-61 Problems with setting photometric levels for
spacecraft, and designing detectors. Mariner 9 program.
61 Mainstreaming astronomers for planetary astronomy.
62-63 Belton's working group. John Hall setting up a patrol. Reasons for building a new telescope, and stations where
telescopes were set up and processing film from the sites.
64-66 Mission research from the Mars study. Edson's involvement in
planetary research.
67 Nancy Roman's contribution for construction of telescope in
Texas. Percentage of time used at various telescope locations, and contracts for their use.
68 Compromising mission requirements and mission needs.
69-70 NASA's decision not to build any dedicated facilities. Whitford Report, NASA, DOD, and NSF interest in astronomy.
Bringing Frank Drake in to run astronomy program at JPL to make it the number one program and scientific community's reaction.
TAPE 2, SIDE 1
70-72 Ideas on getting scientific community interested in an
astronomy program
72 Financial support and justifying who should build a telescope
73 Policy issues at NASA (1965)
74 Follow-up reports to the Whitford Report. Planetary astronomy versus spacecraft exploration. Establishment of telescope in Mauna Kea, Hawaii
75 NSF concerns with NASA using ground-based planetary astronomy facilities and abandoning them
76-77 Brunks involvement with NSF coordination (1964) and collaboration with Nancy Roman
78 Divisions and funding for different divisions of NASA and use of various facilities (IRTF and OAO)
79 Determining what instruments were wanted on Space Telescope
80-81 Formal relations set up between NASA and NSF on advising the Space Telescope project and meetings
82 NSF's unwritten policy of not supporting planetary work, and splitting their budget. NSF appointing an astronomy program Director, Harold Lane.
TAPE 2, SIDE 2
83-84 Relationship differences between Fleishcher and
Mulde rs.
Code, Arthur Dodd. Dates: September 30 and October 1, 1982. Interviewer: David H. DeVorkin. Auspices: SAOHP. Length: 4 hrs.; 57 pp. Use restrictions: Not established.
Traces Code's (b. August 13, 1923) career in astronomy and astrophysics through his student days at the University of Chicago (PhD, 1950, astronomy and astrophysics); and his teaching and administrative positions at the University of Virginia (1950), the University of Wisconsin and Washburn Observatory (1951-6; 1958- ), and briefly with the California Institute of Technology at Palomar and Mt. Wilson Observatories (1956-8). The interview centers on his work in space astronomy, with emphasis on his use of an X-15 airplane for UV stellar spectroscopy, and his role in the development of the OAO series and Copernicus. Also discussed is his work with instrumentation, especially photoelectric photometry, and his theoretical interest in cosmology.
September 30, 1982
TAPE 1, SIDE 1
1 Paternal information, father's jobs
2 Home decision to be an astrophysicist
3 Important uncle
4 Childhood; secondary education; parents views on career; radio interest
5 Navy and radio; going to college; reading about astronomy
6 University of Chicago undergraduate education
7 Undergraduate education and financial support undergraduate astronomy at Ryerson Building
8 Undergraduate continued proximity to and knowledge of reactor; astronomy major
9 Marriage; Naval Service at Radio School
10 University of Chicago Meteorology Program
TAPE 1, SIDE 2
11 Education during war in physics and matter; courses with Gamow
12 URCA process; Gamow's wide interest; Fred Haddock
13 Returning to Chicago; Kuiper; introduction to Struve; lack of undergraduate degree
14 Jesse Greenstein's solar program
15 Yerkes interest in work above atmosphere; Greenstein's V-2 experience; graduate studies at Yerkes
16 Interest in image orthicons
17 Photometry work; Yerkes management after Struve
18 Thesis with Chandra; interest in measurements; job offers; desire to go to Wisconsin
19 Going to Wisconsin; work at Charlottesville, UVA; plans for Wisconsin, early work there
20 Spiral structure of galaxies; Morgan's spiral structure work
21 Odort and spiral structure
TAPE 2, SIDE 1
22 Explaining 21cm line; instrumentation work in mid-50's automatic plate holder; Electronic in astronomy
23 Interest in image tubes; detector work; going CALTECH
24 Sputnik and astronomy; going back to Wisconsin
25 Interest in space; and Space Science board
26 Going back to Wisconsin; why space astronomy; JPL space astronomy
27 Baum's experiment to insure cosmic sky background; early proposals for research by astronomers; Wisconsin
28 Space Astronomy Laboratory; leaving CALTECH; Don Osterbrock and Wisconsin; why space astronomy
29 Early satellite plans
30 Decision to go for the UV; stabilizing a satellite with "yo-yos"
31 Orienting a spinning satellite; testing instruments on balloons
32 Airplanes as telescope mounts; X-15 UV measurements to check Friedman's halos; X-15 instrumentation
TAPE 2, SIDE 2
32 First proposal to NASA; NASA administration: platform for astronomy; X-15 and other proposals; using the X-15
34 Relation to Stratoscope; the scientific problems early plans for astronomical satellites
35 Multiple versus single instrument satellites Whipple's UV TV system and Code's UV telescope; OAO design
36 Other potential OAO experiments; OAO-A development and experiment
37 OAO 1 problems in orbit; OAO 1 death
38 Wisconsin staff graduate student involvement in space research
39 Grand Bang versus Big Bang theory Planck time
40 Symmetry breaking; advantage of Grand Bang
41-42 Inflationary stage; consequences of this view; more implications of cosmological inflation; problems with inflationary view
October 1, 1982
TAPE 3, SIDE 1
43 X-15 program and X-15 instrumentation Astronautics Corporation
44 X-15 results, X-15 guidance, and use of results; pilots
45 X-15 flights; aborted McKay mission; X-15 modification
46 X-15 data retrieval; absolute calibrations of photometers
47 Inventing a calibration process using synchrotron radiation; calibration for rockets
48 Perception of NASA; contract problems; role in designing OAO interfaces
49 Contractors for OAO
50 Dealing with contractors X-15 model at Wisconsin
51 X-15 stabilization platforms, (where are they?); X-15 pointing controls
52 Copernicus and OAO pointing controls
53 Copernicus work load
TAPE 3, SIDE 2
53 OAO-A1 failure and its impact; getting on OAO-A1 again
54 The lure of instrumentation
55 Origins of Kitt Peak (KPNO) Space Division
56 Early plans for Large Space Telescope
57 Role in AURA and LST; next interview topics
* Conner, Jerry. Date: April 24, 1984. Interviewer: David DeVorkin, Allan Needell. Auspices: SAOHP. Length: 2 hrs., 22 pp. Use restriction: Open.
Conner relates his early interests; family background; interest in science; influential teachers; high school. Discusses Rice University; his interest in chemistry, physics and nuclear physics; graduate work at Rice; thesis; position at Los Alamos experimental physics division. Describes the Cockroft-Walton group; accelerator; switch from Cockroft-Walton group to a space physics group; Tom Bonner. Describes Sputnik era; Flying Deacon Arrow detectors; participation in Starfish; first Vela launch.
TAPE 1, SIDE 1
1 Early interest
1-2 Family background
2 Interest in science
3 Influential teachers
3-4 High school in Port Arthur, Texas
4-5 Rice University
6 Original interest in chemistry; major in physics
6-8 Navy
8 Back to Rice University
8-9 Interest in nuclear physics
9 Astronomy at Rice
9-10 Graduate work at Rice
10 Thesis
10-11 Tom Bonner
11-12 First position (at Los Alamos) in the experimental physics division
12-14 Specific tasks of the Cockroft-Walton group
14 The Cockroft-Walton accelerator; a description of the group
15 The Sputnik era
TAPE 1, SIDE 2
15-16 Switch from Cockroft-Walton group to a space physics group
16 Pressure to publish
17 Vela program discussions
17-18 Flying Deacon Arrow detectors
18 Interest in the detection of solar and non-solar X-rays
19-20 Participation in Starfish
20 Publishing X-ray data; other individuals with whom it might be valuable to talk
20-21 Important milestones; the first Vela launch
21-22 People at Sandia worth talking to
22 Change of atmosphere in going from Cockroft-Walton group to new space physics group
*Drake, Frank Donald. Date: December 9, 1983. Interviewer: Joseph Tatarewicz. Auspices: SAOHP. Length: 2 hrs.; 52 pp. Use restriction: Not established.
Surveys Drake's (b. May 28, 1930) career in radio astronomy including his education at Cornell University and Harvard University (PhD, 1958, astronomy), with emphasis on his positions at the National Radio Astronomy Observatory (1958-62) and at JPL as Chief of the Lunar and Planetary Science Section (1963-4). The interview focuses on Drake's work in planetary radio astronomy, including discussion of the astronomical community's perception of planetary astronomy; discovery that planets did not radiate as black bodies; ground based astronomy at JPL and CALTECH; and the relationship between JPL and CALTECH.
TAPE 1, SIDE 1
Education, Cornell, Harvard, Navy
1 Electronics Officer in the Navy
2 Early interest in astronomy; Cornell professors
3-4 Building an infrared detector
5 Specification within astronomy
6 Radio astronomy at Harvard (graduate work); summer assistantship, Heeschen
7 Radio astronomy; Bok Greenstein
8 Integration of radio astronomy into a formal curriculum
9 Practical observations at Harvard
10-15 Building an infrared photometer for Miczaika; inventing "chopping"
16 Sinton; working half time with Miczaika
17-18 Discovering a bright nebula next to Gamma Cygni
19 Agassiz Station observing time
TAPE 1, SIDE 2
21-22 General attitude toward planetary astronomy
23 Early years at Greenbank, NRAO; Mayer, Sloanaker
23-30 Greenbank day
24 Measuring Venus' and Jupiter's spectrums
25 Criticism of planetary astronomy
26 Letter from Bolten at CALTECH
27 AVI's management abilities
28 Tuve, Berkner, Struve
29 Combining optical and radio facilities
30 Paper at JPL symposium on planetary radio astronomy
31-52 Jet Propulsion Laboratory
31 Megrheblian; head of Lunar and Planetary Sciences
32 JPL staff; duties
33 Budget problems; JPL/CALTECH relationship
34-36 Story illustrating JPL/CALTECH relationship
37 Story about observing time at Mt. Wilson
38 JPL/CALTECH joint publishing
39-41 Table Mountain facility
42 Noel Hinners at NASA
TAPE 2, SIDE 1
43 Hinners at NASA (continued)
44 Nancy Roman at NASA
45 Staff at JPL
46-49 Frank Gray
50 Kliore's paper on radio occultation
51 Drake's presentation to Nicks and Liddell of Kliore's paper
52 Professorship at Cornell
Fastie, William G. Date: February 4, 1983. Interviewer: David H. DeVorkin. Auspices: SAOHP. Length: 3 hrs.; 50 pp. Use restriction: Open.
Discusses Fastie's (b. December 6, 1916) career as a physicist, beginning with a position as research assistant at the Johns Hopkins University Physics Department (1941-45), as a research physicist at Leeds and Northrop (1945-51) and later as a research contract director and research scientist at Johns Hopkins (1951-68). After covering his family background and education, the discussion details Fastie's contact with Pfund and Wood, including his classified work with Pfund during WWII; and his interest in instrumentation as reflected in his work with Echelle gratings and spectrographs.
TAPE 1, SIDE 1
1-13 Early life and education
1-2 Family origins
2-3 Father's and mother's education and work
3 Siblings
3-5 Early home life and early schooling
5-6 Early interests
6-7 High school; interest in chemistry, mathematics courses
7-8 Intentions for college; family finances
8-9 Introductory college courses at Johns Hopkins Night School
9 Course work; meeting John Sanderson
9-10 Recollection of Hulburt's funeral and contacts with Hulburt
10 Interest in optics
10-11 Decision to enroll at Hopkins
11 Jobs while attending night school
11-12 Optics and mathematics courses
12 Course counseling
13-38 Graduate work at Johns Hopkins in physics
TAPE 1, SIDE 2
13 Goodnow plan
13-14 Contacts developed in the night school; Sanderson and Bearden
14-15 Course work; transition from incomplete undergraduate education to graduate school
15 Concentration in physical optics
15-16 Teaching assistantship
16 Parents' attitude towards a career in physics
16-17 Other students from the Goodnow plan
17 Support from Pfund
17-18 Pfund's background
18 Laboratory assistant for Pfund
18-19 Course work; Dieke's spectroscopy course
19 Background of R.W. Wood
19-20 Physical optics from Wood
20-22 Wood's and Pfund's relationship; security issues
21 Classified work with Pfund during WWII; infrared gas analysis
23 Pfund 's infrared gas analyzer as a portable instrument
24 Changing the instrument design
25-26 Military users of the instrument
TAPE 2, SIDE 1
27 R.W. Wood and Echelle gratings
27-28 R.W. Wood and mosaic diffraction gratings
28 Interest in astronomy
28-29 Wood and Echelle gratings
29 George Harrison
29-30 Rowland engines and Rowland ghosts
30 Astronomers' response to Echelle gratings
30-31 Tousey's gratings
31-32 Extending the infrared limit of a photomultiplier tube
32-33 Measuring air temperature with weather sonde
33-34 Infrared protective coatings and interference filters
34-35 Decision to go to Leeds and Northrop; discontinue graduate work
35-37 Contact with APL; J. A. Bearden's work
37 Work choices without a degree
38 Relationship between Hopkins and APL
38-48 Leeds and Northrop
39 Marriage
TAPE 2, SIDE 2
39 Interest in instrumentation
40-41 Research atmosphere and Fastie's approach to research
41-42 Infrared pyrometer design; importance to Leeds and Northrop business
43-44 Promotion to director of physics research lab; interest in lab work over management work
44 Ultraviolet steel analyzer
45 Need for a more efficient spectrograph
45-46 Off-axis parabola system vs. Sphere
46-47 Development of new spectrograph
47-48 Leeds and Northrop's attitude toward steel analyzer
48 Decision to return to Johns Hopkins
48-49 John Hopkins
49 Responsibilities; title
50 Working on the new spectrograph - funding, patent problems
Fraser, Lorence. Date: March 9, 1983. Interviewer: David H. DeVorkin. Auspices: SAOHP. Length: 3 hrs.; 61 pp. Use restriction: Permission required to quote, cite or reproduce.
Describes Fraser's work as an engineer and instrumentation specialist at the Department of Terrestrial Magnetism during WWII, and then more significantly, at APL following WWII. His work at DTM was on proximity fuse research. He transferred from DTM to APL during the war and concentrated on radar research and control systems for guided missiles. After the war, he participated in the use of V-2s for upper atmosphere research with James Van Allen's High Altitude Group, developing instrumentation for telemetry and cosmic ray research.
TAPE 1, SIDE 1
1 Childhood; interest in electricity family background
2 Child; first encounter with wireless
3 Radio experience
4 Undergraduate career; secondary education
5 Undergraduate major at case
6 First job; interest in photography; engineering reading, photography
7 Work as metallurgist at first job; reasons for leaving
8 Victoreen instrument company and introduction to electronics
9 X-ray dosimeter; working conditions at Victoreen; responsibilities at Victoreen
10 Contact with astronomers
11 1940 and WWII; Merle Tuve recollections
12 Victoreen and the war; depression work Department of Terrestrial Magnetism (DTM)
13 Job interview with Tuve recollections
14 DTM work; views of the self-taught man work on proximity fuse; DTM ethos
15 DTM people; APS meetings
TAPE 1, SIDE 2
15 Naval contact at DTM; views of Ph. D.s
16 Blending of practical & theoretical at DTM; proximity fuse work
17 Mindlin and the proximity fuse
18 How the fuse works; testing the proximity fuse
19 Testing the proximity fuse design; testing of the proximity fuse
20 Location of APL testing proximity fuse designs at Parris Island location of APL
21 Testing proximity fuses
22 New Mexico testing Dr. E. Cook
23 Allen Hynek, Hynek adventure
24 Van Allen and Navy proximity fuse battery
25 DTM to APL; DTM and the war
26 APL's location
27 Radar work; Wilmotle
28 Attitudes: hardware vs. management
TAPE 2, SIDE 1
29 Rockets at APL
30 APL - Wilburn Goss & ramjets Inyokern NBS experience
31 NBS - missiles
32 APL - organization Missile - gyrostabilization
33 Missile development - servos
34 APL and end of war
35 Possible folding of APL; life at Kodak with fuses
36 Return to APL
37 Return to APL and rocket high altitude work; origin of upper air work
38 Henry Porter
39 Porter's decision to work with Van Allen; interest in rocketry; rocket experience
40 Van Allen group Geiger counters
41 Role in experiment design first flight plans; role in launching a V-2
42 White Sands; APL at White Sands; Integrating instruments
43 Instrumentation on first flight
TAPE 2, SIDE 2
44 Telemetering data; relations with Van Allen; role as engineer; publishing with Van Allen
45 Publishing in science; interest in cosmic rays; interest in work
46 Interest and understanding (actually love for) the hardware
47 Origin of Bumblebee term; documentation
48 Inter-group competition
49 Perceptions of military and the rockets; relation with military & NRL telemetry
50 Van Allen's working style with his team
51 Looking at pictures
53 Recovery teams; J.J. Hopfield
54 Hopfield continued
55 Spectrograph Sun-seeker
56 More on Hopfield and Sun-seeker; contact with NRL; work schedule
57 White Sands; trips out; Holliday's cameras; high altitude research at APL
58 Why rocket work ended at APL; ending of rockets at APL
59 Contact with Jesse Greenstein; topics for next interview
TAPE 3, SIDE 1
59 Public relations
61 Dealings with press; feeling about rocket work
Friedman, Herbert. Date: June 7, 1983. Interviewer: Martin Harwit. Auspices: SAOHP. Length: 1.5 hrs.; 20 pp. Use restriction: Public.
Covers selected aspects of Friedman's (b. June 21, 1916) work at NRL. He served as Head of the Electron Optics Branch from 1943 to 1958 and then from 1958 on as Superintendent of the Space Science Division. This interview traces the development of upper air research at NRL through IGY, and then outlines subsequent attempts at international cooperation in geophysical research. The latter discussion serves as the basis to explore the role of 'big' science, and its relationship to individual and 'little' science.
TAPE 1, SIDE 1
1-9 Work at NRL in the Atmosphere Division; participation in IGY
1 Acquisition of V-2; involvement with solar and stellar studies in ultraviolet and X-rays region
2 Interest in IGY; Hulbert, Taylor, Breit, Tuve; development of technique for pulse sounding of the ionosphere; Parsons, Tousey
3 First answers to the question of how the sun controls the ionosphere; nature of flare spectrum
4 IGY: Vanguard satellites; the long-range geophysical behavior of the sun; Van Allen
5 Politics of establishing Vanguard at NRL; Chapman, Berkner; the proposal
6 Philosophy behind IGY; coordinating global studies
7 Effect of IGY; scientific and educational
8 Creation of NASA; discovery of Van Allen Belts; Sputnik
9 Friedman's work studying X-rays from the sun; proposal for an eclipse study of the sun; Bennett at ONR
9-17 Projects following IGY
10 Satellites to study the magnetosphere
TAPE 1, SIDE 2
11 Spontaneity and long term planning in research
12 Research at a large organization like NASA; NASA's Spartan program
13 Conceiving a program on a national basis; specific interdisciplinary aspects; Tommy Gold
14 Coordination between scientists; measurement of the total angular momentum of the atmosphere
15 Necessity to combine seismology and satellite research; solar probe, NRAO
16 Commonality in the instrumentation between disciplines; example of satellite oceanography
17-20 Role of the individual in science
17 International and individual efforts in science; the role of organization (at NASA)
18 Importance of individual, creative efforts
19 Future possibilities in science; the structure of large programs
20 Importance of a balance between individual and large-scale scientific efforts
Friedman, Herbert. Date: September 2, 1983. Interviewer: David H. DeVorkin. Auspices: SAOHP. Length: 4.3 hrs.; 70 pp. Use restriction: Permission required to quote, cite or reproduce.
Analyzes in detail Friedman's (b. June 21, 1916) X-ray research at NRL in the 1940s and 1950s, as well as his atomic bomb research. After a brief discussion of family background, and his interest in X-rays as a graduate student at Johns Hopkins (PhD, 1940, physics), Friedman relates his early years at NRL (1941-2), leading up to the establishment of the Electron Optics Branch, which he headed from 1943 to 1958. For this period he elaborates on the organizational, instrumentational and scientific aspects of his research on solar and galactic X-rays.
TAPE 1, SIDE 1
1 Clipping file at NRL
1-2 Friedman's correspondence and working files
2 Friedman's lab notebooks
2-3 Switch from an art major to physics at Brooklyn College
3 Father's occupation as art dealer; siblings
3-4 Contact with artists as a youth
4-5 Meeting Kurrelmeyer and switching to physics major
5 Physics courses at Brooklyn College
5-6 Parents' attitude toward physics
6 Initial attempts to find work after college
6-7 Decision to go to Johns Hopkins; Kurrelmeyer's influence
7-13 Graduate work at Johns Hopkins
7-8 James Frank
8-9 R.W. Wood
9-10 Thesis work with Joyce Bearden
10-11 Thesis work: fine structure of X-ray absorption edges
11-12 Designing a weak X-ray detector
11-13 Using detector to determine structure of absorption edge for various elements, and emission lines
13-15 Attempt to find a job and anti-Semitism
13-14 Bell Labs
TAPE 1, SIDE 2
14-15 Rustless Iron and Steel
15 MIT
15 Fund's influence in finding a job at NRL
15-70 Career at NRL
15 NRL beginning in 1941
16 Feelings about working for the military
16-17 Work atmosphere in metallurgy department
17-18 Radiography work with Herman Kaiser
18-20 Orienting and cutting quartz for oscillator plates needed for the war effort
20-21 Award of first Navy Distinguished Civilian Service Medal for solution of quartz problem
21 Solution of military problems; pigments, silver plating
21-22 Absence of classification of research
22-23 Background to the establishment of the Electron Optics Branch; role of Hulburt
23-24 Head of electron optics branch
24-25 Building a staff
25-26 Patent dispute over X-ray analysis of platings
TAPE 2, SIDE 1
26 Developing fuel gauges for airplanes
26-27 Development of halogen-type counters
28-29 Initial awareness of V-2s in 1945; discussions at NRL, andconcurrent involvement in atomic bomb program
29 Rocketsonde Section: initial organization and discussion of research objectives
29-30 Competition between Rocketsonde group and Optics group
30-31 Designing a spectrograph; use of lithium fluoride beads
31-32 Recording data: photography and recovery versus photoelectric an telemetry
33-36 Involvement in atomic bomb program after WWII; developing monitoring systems for Russian tests
33-35 Project Rainbarrel
36 First Russian bomb test
36-37 Transition from atomic bomb research to rocketsonde research
37-38 1949 rocket flight
TAPE 2, SIDE 2
38-39 Building a research team
38-39 Sam Lichtman and telemetry
39 T. Byram
39-40 Design of counters for 1949 flight
40-41 Scientific objectives of 1949 flight
41-42 Burnight; alleged detection of solar X-rays
42-43 Tousey X-ray detector
43 Comparison of own detector to detectors of other researchers
43-44 Own contribution (as opposed to other team members) to 1949 X-ray experiment eness [!] of military potential of research
TAPE 3, SIDE 1
52-54 Detecting galactic X-ray; 1957 experiment
54-55 Detaching galactic X-rays; later experimental design of counters
55-57 Giacconi's X-ray group, detection of galactic X-rays
57-58 Determination of Crab and Scorpius X-ray sources; relation to Giacconi group's discovery
58-59 SOLRAD
59-60 Awareness of military potential of research
60-61 Developing a model of the ionosphere
61-62 Switching from a combination of research work (hydrogen bomb, alloys, space science) to space only
62-63 1949 paper on solar X-rays; reception of rocket work by physicists and astronomers
63 Role of military in rocket research
63-64 Interest of other researchers in rocket work (e.g. Menzel, Goldberg, Spitzer): Spitzer's early interest in a space telescope
TAPE 3, SIDE 2
64-65 Von Braun and Stuhlinger
65-66 Planning a large X-ray detector with Stuhlinger
66 Proposed X-ray mirror in a balloon
66-67 Reconnaissance work for nuclear testing
67-68 Potential for 1
68-70 Problems with flights
Frier, Phyllis. Date: March 1, 1984. Interviewer: David DeVorkin. Length: .75 hrs.; 17 pp. Auspices: SAOHP. Use restriction: Permission required to quote, cite or reproduce.
Frier relates her family background, schooling and teachers. Describes employment with Naval Ordnance; graduate school; first knowledge of rocket work; interest in cosmic ray work; discovery of heavy particles; studying solar particles; IGY; Explorer; effect of the cosmic ray plateau. Discusses Bernard Peters; Frank Oppenheimer; Jack Winkler; Ed New; John Naugle; Frank MacDonald and Van Allen.
TAPE 1, SIDE 1
1-3 Early influences; family background and schooling; getting into science
1 Parents and high school
2 Teachers; TA position; employment with Naval Ordnance
3 Marriage; graduate school; first knowledge of rocket work
4-6 First jobs
4 Interest in cosmic ray work
5 Work for Ed Lofgren on the Leitz microscope (1947)
6 Two flights in 1948
7-9 Discovery of heavy particles
7 Knowledge of dD/dX; Bernard Peters
8 How Frier felt discovering them; why no one else saw them first
9 Work with alpha's Bethe; finding new things in science
10-11 Frank Oppenheimer's resignation; staff and advisors
12-15 Studying solar particles
12 Solar helium and solar protons; joint paper with Bill Weber explaining energetic solar particles in terms of an exponential rigidity spectrum
13 Solar flares; working with Jack Winckler and Ed New
14 Frier's contributions to science; John Naugle at NASA; Frank MacDonald
15 Taking data and relating it to bigger problems; change of interests
16-17 Knowledge of Van Allen and rocket work
16 IGY and Explorer
17 Effect of the cosmic ray plateau
Frosch, Robert. Dates: July 10; July 23; August 19; September 15; and October 6, 1981. Interviewer: David H. DeVorkin. Auspices: SAOHP. Length: 15.5 hrs.; 255 pp. Use restriction: Not established.
Reviews Frosch's (b. May 22, 1928) education at Columbia University (PhD, 1952, theoretical physics) and, in detail, his varied career as a physicist and a science manager, beginning with his work as a research scientist at Hudson Laboratory (1951-3) and then as Asst. Director and Director of the Theoretical Division (1953-63). In 1963 he became Director of Nuclear Test Detection, Advance Research Project Agency, Office of the Secretary of Defense; in 1966 he was appointed Assistant Secretary of the Navy, Research and Development; from 1973 he served as Assistant Executive Director in the U.N. Environmental Programme; from 1975 he served as Associate Director of Woods Hole Oceanographic Institute; and from 1977 to 1980 he served as Administrator of NASA.
TAPE 1, SIDE 1
1-6 Early life and family
1 Mother and father
2-3 Father's medical practice
2 Family interest
2 Religious background and philosophy
3 Family career interest
3 Trips to the American Museum of Natural History and Planetarium
3-4 Early schooling in New York Public Schools - P.S. 28
4 Libraries
4-5 Choice of high school
5 Structure of DeWitt Clinton H.S. - honor school
5-6 Competition in school
6 Life during the Depression and mother's illness
6-21 College Years at Columbia University
6 High school graduation, 1944 January
7 One semester hiatus taking advanced courses before college
7-8 Reading in physics and astronomy
8 Robert von Nardoff - faculty advisor
8-9 Liberal arts requirements
9-10 First knowledge of A-bomb
10 The basement of the physics building
10-11 Reaction to bomb
11 Choice of Columbia for graduate school in physics
TAPE 1, SIDE 2
12 Theoretical physics department
12-13 Course work
13 Lack of ability in hands-on experimentation
14 Search for a thesis topic
14-15 Appointment with I.I. Rabi
15 Theoretical work with Henry Foley
15 Beginning study in matrix mechanics
15-16 Rabi's intuition
16 Rabi's meson argument
16-17 Hyperfine structure in quantum
17 Mode of attach on hyperfine structure
17 Charles Townes' microwave experiments required Frosh's theory
17-19 PhD orals in Spring 1951
18 Methodology, continued
18 Interim job as dissertation was being revised
19 First knowledge of Hudson Labs
19-20 Marriage in June 1949
19-20 Wife's aid to Frosch's research
20-21 Staff at Hudson Labs
21 Job interview
TAPE 2, SIDE 1
21-23 The origin of Hudson Labs
21 Submarine warfare
21 Association with Columbia
22 Choice of location
22 Development of lab and its mission in under-water acoustics
23 Control from ONR
23 The Diving Duck
23-29 First projects
23-24 Memoir 27
24 Modelling the ocean floor
24-25 Development of computation team
25-26 Sable Island problem
26 Time pressure on research
26-27 Contact with Bell Labs, the Navy and Woods Hole
27 General feeling about work
28-29 Early theoretical expectations
29 Use of antenna arrays and array theory
29 General community of workers and their publications
29-43 Assistant Director of Hudson, 1953
30 Contact with experimentation
30-31 San Juan field station
31-32 The problems of management and budget
32-33 PERT
TAPE 2, SIDE 2
33 Critical path problems in readying for a cruise
33-34 Review of Hudson top personnel
34 Possibility of becoming director
34-35 Self-view as not administrative type
35 Managerial atmosphere at Hudson; anecdote on Pegram's development of Manhattan Project
35-37 Programming for cruises
38-40 Digression to discuss family influences
38 Music lessons
38-39 Interest in the flute
39-40 Feeling that piano "put the machine in the middle" and separated the player from the music: analogy with philosophy of doing science
40-44 Thoughts about management and administration
41 Intended role at ARPA
42 The staff theorem
42-43 Problem of over-centralization
43 Project management
43 Perceptions of management
44-74 Directorship of Hudson Labs
44 Policy and structure
TAPE 3, SIDE 1
44-47 Study of low frequency coherency in the ocean
45 Coherency as a design parameter
45-46 Experimentation on a large scale
46 Sound source for test
47 Results of experimentation
48-51 Project Medea, 1955
48 Funding as block-program
49 Underwater sound in the Norwegian Sea
49 Use of five ships
50-51 Communications constraints
51 Training for Project Artemis
51-60 Project Artemis, 1955-1960s
51 Plan for active sonar system was a precursor
52-53 NAS and ONR task groups on undersea warfare
53 Plan for larger detection ranges
53-54 "An Ocean an Hour" and he "Navy Acre"
54 Magnetostrictive scroll sound sources
55 Hudson Labs-designed hydrophones
TAPE 3, SIDE 2
56 Required equipment
56-57 Angus Island
57-58 Fresh water problems
58 Problems with data processing
59 Optical processing
59-60 Fate of Artemis and Hudson Labs
61 Reaction to Project Artemis
62-63 Ivan Tolstoy's theoretical work, and life
63-66 Relations with Columbia University
63-64 Interest in direct university contact
64 University overhead
64-65 Comparison with JPL/CALTECH relationship
65 relations with Physics Department
65-66 Plans to leave Hudson for ARPA
66 University oversight responsibilities
66-69 Communications responsibilities
68 Side-looking sonar
68 Navigation problems
TAPE 4, SIDE 1
69-70 Decision to join ARPA
69 Director of nuclear test detection
69-70 Limited Test Ban Treaty
70 National policy
70 Successor at Hudson
71-74 Decision to close Hudson several years later
71-72 Basic and applied research
72 Pure oceanography
72 Hudson of less us to the Navy
73-74 Influence of Columbia politics
74-135 ARPA
74 Funding source and reporting structure
74-75 No block funding - contact with Congress
75-76 Structure
75 PL-313 positions for scientists
75 Problems with special projects in Thailand
75-80 Office of Nuclear Test Detection
76 Responsibility to generate reconnaissance ability for nuclear explosions
76 No contact with space portion of Vela Hillman Dickson was responsible for Vela operations
76-77 Vela
77 Argus
77-78 Vela observations of gamma ray sources
78 Ue of Vela in arrays
78 Detection of celestial gamma ray burst
78-79 Scientists were the sources of the detectors
79 ARPA associates
79-88 LASA (Large Area Seismic Array)
80 Contact with Frank Press
80 State of technology
81 Press role in instrumentation; revolution in seismology
TAPE 4, SIDE 2
82 Seismology group at ARPA
83 Technical problems
83 Computer operation
84 Reaction of classic seismologists
84 Technical expertise within ARPA
84-85 ARPA's support of cosmology
85 Shielding from lightning
86 ARPA run as a "small business"
87 Short lines of communication
87-88 Commentary on organization of NASA
88 Success of LASA
88-96 Deputy Director of ARPA
88-89 On-site inspection
89 Visual reconnaissance and Landsat
90 Proposal for on-site inspection research
90 Operations within ARPA and circular memoranda
91 Testimony before the Joint Chiefs of Staff
91-92 University consultants - JASON
92 Link with IDA
93 Members of JASON
94 Counter insurgency program
94 Economic development program
94-95 Computer program
95 Time sharing
95-96 ARPA's mission
TAPE 5, SIDE 1
96-97 Digression to discuss origin of Hudson Labs
97-112 Discussion of documents found in file
97-98 "Ballad of the Certification Review"
97 Shuttle decisions
98-99 Discussion of problems with NASA Shuttle flight certification and qualification
99 Differences between manned and unmanned space flight engineering
100-102 Shuttle tiles
100 Balancing risks
100-101 Quantitative risk assessment
102 Possible alternatives to the tiles
102-103 Interpretation of the Ballad
103-104 Problems of Shuttle flight simulation at Mach 25
104 Outside experts: "A tree full of owls"
104 Rumor mills
105-106 Reaction of Shuttle manages to outside review
106-107 Engine testing procedures
106 Computerized engine control
106 Stevenson's committee
107 The Ballad continued
107-109 The tiles and the "CLOT" test
TAPE 5, SIDE 2
110 Strain-isolation pad
110-111 Matching hull to tile
111-112 Distribution of the ballad
112-114 Contacts with media regarding tiles and engines
113 Competent media
114-119 Congressional review committees
114-115 Possible effects of press accounts
115-116 Boland's committee
116 Proxmire Committee
117 Politics
118 Budget process in Congress
119-121 Relations with OMB and contact with President Carter
120 Gamma ray observatory and VOIR
121-123 Competing NASA missions
121-122 The Centaur
122 Orbit calculations for Galileo
122-123 Space Telescope vs Galileo
TAPE 6, SIDE 1
123-126 Solar Electric Propulsion System (SEPS)
123 Competing projects
123-124 Decision Process and meeting with President in Spring, 1980
124-125 Decision Process on Shuttle; discussions with President
125 Need for closer White House contact
126-127 White House meeting on VOIR and GRO
126 Choice of VOIR
127-129 Initiation of SEPS (Spring 1979)
127 President's interest in black holes
127 GRO and Halley priorities
127-128 Halley/Temple II plans
129-132 Opinion from scientific community regarding budget
129 Use of expendable launch vehicles as alternative to Shuttle
129-130 Budgetary process and political criteria for projects
130 The role of science
130-131 Shuttle as a benefit to the scientific budget
131 Political-technical tradeoff
132-135 Space Policy, 1977-1978
132 Harrison Schmitt's interest
132-133 Long range plans
133 OMB reaction
133-134 Frank Press' interest in policy paper
134 Dave Williamson's role
TAPE 6, SIDE 2
136 Reasons for leaving ARPA
136 Interview with Paul Nitze, Secretary of the Navy
137 Predecessor at Navy post, Secretary of Navy
137-69 Assistant Secretary of the Navy
137 History of Assistant Secretary of Navy
137 Staff for Assistant Secretary of Navy
138 Staff education
138 Organizational strategy
138-139 Navy R and D financial reporting
139 ONR relationships
139 Navy in space
140 NRL - NASA-ARPA relationship
141 Remote sensing
141-142 Reconnaissance program and R and D
142 Reconnaissance satellite source information and availability
143 Reconnaissance satellites - NRL
143 SOLRAD: inter-service rivalry in space
144 NRL and inter-service rivalry in space
145 SOLRAD
145-146 Budgets and data collection
146 Navy satellites communication
146-147 Navy bureaucracies
147 Navy HF communication system
147-148 Navy satellites
148 Military satellite use in Vietnam
148 Transit and Omega: navigation satellites
149 Releasing transit receiver for commercial satellite
150 Using classified knowledge
TAPE 7, SIDE 1
150 Navy classification procedure
150-151 The classified scientific community
151 Classification in underwater sound research
151-152 Science in ONR
152-153 Uses of internal scientific experts
153 Mansfield Amendment
153-154 Legitimating research with the Mansfield Amendment
154-155 Deciding which projects were relevant
155 Mansfield relevancy and the laser
155-156 Why laser research
156 Why potatoes turn brown and why find out why
156-157 Managing technology
157 Signal-noise ratio in technology management
157 Integrating research progress
157-158 Optimizing systems, not parts or systems
158 Law of Sea in Navy
158-159 Law of Sea - space law
159 Why Space Law Treaty worthless
159-160 Fishery sonar
160 Pure versus basis research
161 Pure vs basic closing
161 Navy Radiological Lab in San Francisco
162 Politics of lab closings
162 Budget defenses
162-163 Budget
163 Writing techniques
164 Procurement talk
164-165 R and D procurement problems
TAPE 7, SIDE 2
165 Discussion of R and D procurement techniques
165 The importance of R and D for good business
166 General Motors: isolation of R and D
166-167 Brief stint standing in as Secretary of the Navy
166 Navy judicial system
167 Judge Advocate General office
167-170 Decision to leave Navy
167 Service through two administrations
168 Interest in United Nations
168-169 Member of US exchange delegation on oceanography
169 Bob White suggested UN environment job
169-177 United Nations Environment Programme, 1972
170 Structure of programme
170 Stationed in Nairobi
171 Responsibilities - program planning
172 "The World's Conscience" re: global environment
172 Relevant issue: economic development
172-173 Structure of the UN - Parliamentary thinking
173 Colleagues
174 Dissatisfaction with program
175 Decision to leave UN
175-176 Interest in Woods Hole
176-177 Accomplishment
176 The Mediterranean issue
177-178 Problems of nuclear waste
178-191 Woods Hole: Associate Director for Applied Oceanography
178 Marine policy; ocean engineering studies
179 Interdisciplinary efforts in oceanography
179 Radioactive waste proposal
179-180 Contact with JPL
180-183 Manned versus unmanned submersibles and other issues
181 The importance of the presence of man in exploration
182 Acceptance of remote sensing
182 Need for general synoptic data
182-183 NASA inability to involve scientific users in the development of remote sensing
183-187 NASA interface problems between users and provides
184 "In the development business, the customer is always wrong"
184 Reception of NASA equipment at Woods Hole
185 Grantsmanship
186 Peer review and the Mansfield Amendment
186 Accountability
186-187 Reflection on major problems in future of NASA
188-189 Search for new Woods Hole Director
188 Role of internal politics
189 Search for external candidate
189 Conversations with Frank Press
TAPE 1, SIDE 1
190 Frank Press
190 Meetings with Press on going to Washington
191 Early Washington consulting for OSTR
191-255 NASA Administrator
191 Appointment to NASA
192 First meeting with Carter
192-193 Carter, DoD and Shuttle
193 Carter approves Frosch, what to do about Shuttle
193-194 Shuttle planning and projected use
194 OMB and Shuttle budget
194-195 Initial consulting period at NASA: Shuttle project
195 Appointment mechanics
196 More on meeting with Carter
196 More about period as consultant before confirmation
197-203 Reasons for Frosh's reorganization
197 Administration suggestion
198 Applications as technology, not marketing
198-199 Closing center - Huntsville
199 Fears of militarizing NASA
199-200 Organizing the Reorganization
200 Reorganization options
200-201 Aviation centers
201 Center closing (options) and OMB
201-202 Wallops Center
202 Wallops and sounding rockets
202 Dryden Center
203 Government manpower
TAPE 1, SIDE 2
204 NASA HQ reorganization
204 NASA equal opportunity; more HQ changes
205 Creating role of Chief Scientists
205-206 Restructuring advisory committees
206 Goddard Institution of Space Science
206-207 NASA - university relations
207-210 Reorganization
208 Reorganization and the centers
209 Reorganization, Lovelace, and centers
209 Decision making structure
209-210 Freeing the administration
210 Communications with Center
210-211 Io's volcanoes; Center visits
211 Award ceremonies at the Centers
211-212 Centers visits
212 Value of Center visits
213 Dealing with NASA people
213-214 Huntsville, Space Telescope
214 Space Telescope Staff
215-218 Confirmation hearing
215-216 Mission to Mars
216 Confirmation hearing
217 Planning, NASA long-range goals
TAPE 2, SIDE 1
217-218 Confirmation hearings
218 Relations in NASA
218-219 Agency's mission or lack thereof
219 Organizational philosophy
219 Agency goals in existence
219 Space Telescope
220 Goals
220-221 Existing missions and accomplishments
221 Carter administration goals in space
221-222 Space policy problem
222 OMB and space policy; agenda from Carter administration
222-223 Space policy effects; none
223 Lyndon B. Johnson and space
224 Learning about Shuttle
224-225 1979 budget, Shuttle, JOP, ST
225 Dealing with OMB
225-226 More OMB
226 Negotiation with OMB
227 Shuttle Telescope, Shuttle
227-228 Shuttle and presidential navigation knowledge
228 Number of orbiters; why five?
228 Political budget realities confront Shuttle
229 Air Force views of NASA
230 Vandenburg; Titan versus Shuttle
231 USAF use of Shuttle; agreement
232 More shuttle USAF demand scenarios
232 IU problems
233 Enterprise flight test
TAPE 2, SIDE 2
233-234 IUS problems
234-235 Option for fifth Orbiter
235 Expendable launch vehicles
235-236 Manned vs. unmanned flights; Shuttle
236 Shuttle test flights
236-237 NASA image; Apollo fire
238 Selling exploration
238 Work in space the smaller, less expensive programs
254-255 Politics and big projects (JOP)
Rev. 10/15/95