This collection consists of the records of the Waco Aircraft Company. The material includes office files of the company, marketing and sales information, and design data. Also included are original engineering drawings and report files.
Scope and Contents note:
In 1920 Clayton J. Bruckner, Elwood "Sam" Junkin and George "Buck" Weaver formed Weaver Aircraft Co. In April of 1923, they renamed the company Advanced Aircraft Co. and, in May of 1929, Waco Aircraft Co. By the 1930s the company was a leader in the design of wood and fabric aircraft. At their most widespread use, Waco aircraft were operated by public, private, military and corporate owners in thirty-five countries. During World War II, Waco devoted itself entirely to war production, manufacturing large numbers of troop- and cargo-carrying gliders. Following the war Waco attempted to market a wholly new design, but the post- war slump in the private aviation market and the high development costs of the aircraft forced Waco to withdraw from aircraft manufacture in June 1947. During its twenty-seven year existence Waco produced sixty-two different aircraft models and led all its competitors in the number of aircraft registered.
The Waco collection is divided into two parts. Part One comprises 24,855 drawings. The locations and descriptive information of these drawings are listed on an electronic database entitled the Waco Aircraft Engineering Drawings Data Base. The drawings vary greatly in size from small drawings of 4x5" to large sheets of over 150" in length. The majority of the drawings included in Part One are numbered, but many of the drawings are unnumbered. These drawings span most of the Company's existence and depict many of its powered and glider aircraft. There are several smaller sets of drawings which include layout drawings, tool drawings and stress analyses. Production charts and data charts are also among these drawings.
Part Two includes the business records of the Waco Aircraft Company. These documents can be generally divided between the engineering and sales departments. Most of the drawings within Part Two are from sub-contractors and U.S. Government agencies.
Waco aircraft company designations are confusing. Many variations exist regarding the practice of assigning model designations. Despite these exceptions, some basic rules serve as a guideline. Prior to 1930, Waco models were designated by a single number, 1 through 10. The last aircraft designated in this manner, the Waco 10, became the Waco Model O under the new scheme of designation.
Waco early models were additionally referred to by their horsepower. This may have been a practice of distributors and salesmen.
Since 1930, The Waco Aircraft Company used a combination of three letters with which to name its models. An example would be the Model ASO. The letters are best read from right to left. The letter on the right represents the fuselage, i.e. Model O. The middle letter represents a modification to the basic model, i.e. CSO for straight wing or CTO for tapered wing. The letter on the left represents the engine, i.e. CSO for Wright J-6, 225 horse power engine. Additionally, Waco models were often followed by a number indicating the year in which the aircraft was built. A YPF-6, for example, was manufactured in 1936.
Waco World War II gliders, designed for the U.S.A.A.F, were designated by an alpha-numeric combination. The four unpowered gliders produced shared the same letter prefixes of CG, which stood for cargo glider. The numeric suffix distinguishes the aircraft. They were the Models CG-3A, CG-4A, CG-13A and CG-15A. An X preceding the designation denotes experimental, i.e. XCG-4A. An addition of two letters denotes the manufacturer, i.e. CG-4A- TI for Timm Aircraft Co. Many of the Waco designed gliders were constructed by various companies. Powered versions of the gliders were referred to by the prefix PG for powered gliders.
Series 1: Numbered Engineering Reports
Series 2: Model Engineering Reports
Series 3: Engineering Documents
Series 4: Government Contracts
Series 5: Contractor Reports
Series 6: Correspondence
Series 7: Publications
Series 8: Sales
Series 9: Blueprints & Drawings
Series 10: Drawings Lists
Series 11: Model Indexes
Series 12: Contractor Drawings
In 1920 Clayton J. Bruckner, Elmwood "Sam" Junkin, and Buck Weaver formed an aircraft company known as the Weaver Aircraft Company in Troy, OH. By the 1930s the company, known as Waco Aircraft Co. since 1929, was a leader in the design of wood and fabric aircraft, with Waco aircraft being operated by public, private, and corporate owners in thirty-five countries. During World War II Waco devoted itself entirely to war production, manufacturing large numbers of troop- and cargo-carrying gliders. Following the war Waco attempted to market a wholly new design but the postwar slump in the private aviation market and the high development costs of the aircraft forced Waco to withdraw from aircraft manufacture in June 1947. During its twenty-eight year existence Waco produced sixty-two different aircraft models and led all its competitors in number of aircraft registered.
Related Archival Materials note:
Other collections within the Archives Division of the National Air and Space Museum which are relevant to Waco are as follows:
The Hattie Meyers Junkin Papers(1906-1982), Accession #XXXX-0171. Junkin was married first to George Weaver and later to Elwood Junkin, both founders of the Waco Aircraft Company.
The A. Francis Arcier(1890-1969) Collection, Accession #XXX-0072. Arcier was one of the leading engineers with the Waco Aircraft Company.
The National Air and Space Museum Archival Video Discs. Included in this collection are three blocks of Waco Aircraft photographs; prints listed by model type under the Company name in the Aircraft Finding Aid, prints listed under "Glider Aircraft" in the U.S. Air Force Collection finding aid and prints listed under the Company name in the "General Subjects" of the U.S. Air Force Collection Finding Aid.
The NASM Archives Technical Files. The documents filed under "Waco" include mostly photographs and newspaper articles. Information about some of the individual Waco employees, including Hattie Junkin and George Weaver, can be found filed under the individual's name in the biographical section of the Technical Files.
Collection documents the development of the Holter Monitor, a portable device for continuously monitoring heart activity for an extended period, through engineering logbooks, drawings, operator manuals, correspondence, photographs, sales brochures and catalogs, biographical information about the engineering staff who worked on the monitor, patents and trademarks, and marketing and sales materials.
Scope and Contents:
The collection includes engineering logbooks, drawings, operator manuals, correspondence, photographs, sales brochures and catalogs, biographical information about the engineering staff who worked on the monitor, patents and trademarks, and marketing and sales materials documenting the development of the Holter Monitor, a portable device for continuously monitoring heart activity.
The records document the successful collaboration of an independent inventor and a manufacturing firm to identify problems, develop solutions and bring to market diagnostic technologies. Bruce Del Mar's role as an innovator and collaborator with Holter is especially important, because Del Mar's work spurred the development of an entire diagnostic industry. In addition, the records also chronicle how "Holter technology" was affected by progressive technological innovations in the industry, as vacuum tubes were replaced by transistors, as microprocessors gave way to microchips and circuit boards, and as analog recordings were replaced by digital formats.
Documenting manufacturing developments (highs and lows) and marketing considerations is an important element in better understanding the invention process. Del Mar Avionics was the first to design and manufacture instrumentation for long-term monitoring of the human heart for the medical profession. Today, Holter Monitors continue to be an important diagnostic tool for monitoring the health of the heart.
Series 1, Historical Background, 1951-2010 and undated, consists of biographical materials for Bruce Del Mar, founder of Del Mar Avionics, company histories, copies of the Del Mar Avionics newsletter Pacemaker, employee information, newspaper clippings and ephemera, and photographs of some employees. The employee information contains a 1979 handbook, explaining company policies and the benefits of employment with Del Mar Avionics and a 1951 memo detailing overtime working hours for women, presumably from Douglas Aircraft, where Bruce Del Mar was employed.
Series 2, Del Mar Avionics Engineering, 1958-1976, is divided into three subseries, Subseries 1, Correspondence, 1965-1976; Subseries 2, Reports, 1964-1969; and Subseries 3, Drawings, 1958-1968. The documentation consists primarily of correspondence from the engineering department, 1965 to 1976, related to the development, design, budgeting, testing, and marketing of the Holter Monitor. The majority of the documentation is correspondence and is written by engineering staff members, but also included are quotation requests, trip reports, and technical reports. Correspondence between Holter and Del Mar about the development of the Holter Minotor is in Series 6. The drawings, 1958-1968, include six drawings (22" x 34" or smaller) for Avionics Research Products projects (panel assembly, chassis assembly, and battery chargers for model 602), and Electromation Company (degausser single coil).
Series 3, Patents and Trademarks, 1965-2002 and undated, consists of copies of patents by Norman J. Holter, W.E. Mills, and W.E. Thornton, Cliff Sanctuary. and Isaac Raymond Cherry related to the development of the Holter Monitor. Also included are lists of United States patents issued to Del Mar Avionics employees, as well as lists of registered trademarks and activities for Del Mar Avionics and copies of trademarks issued to the company.
Series 4, Product Literature, 1968-2010 and undated, consists of product literature for Del Mar Avionics products and some of its competitors. The product literature for Del Mar Avionics is arranged chronologically by model number, and the competitor literature is arranged alphabetically. All of the product literature is related to medical instrumentation with the exception of the Hydra Set, a precision load positioner which is the only product Del Mar Avionics sells today.
Series 5, Sales, 1967-1985, consists of price lists, price catalogs (both domestic and international) and sales objectives for medical instrumentation sold by Del Mar Avionics.
Series 6, Holter Monitor Materials, 1958-2005 and undated, is divided into three subseries, Subseries 1, Background Materials, 1958-2005 and undated; Subseries 2, Model 445, 1974-1978; and Subseries 3, Model 660, 1967-1978 and undated, and consists of materials documenting the relationship between Norman J. Holter, an inventor, and Del Mar Avionics.
Holter and Wilford R. Glassock were issued United States Patent 3,215,136 on November 2, 1965 for the Electrocardiographic Means. Dr. Eliot Corday introduced Holter to Bruce Del Mar, founder of the Del Mar Avionics Corporation in Irvine, California. Del Mar engineers developed the "electrocardiocorder" for clinical use, producing a commercially viable monitor which came to be known as the Holter Monitor Test. Further refinements led to the creation of a "minimonitor" in 1968 which was described by Holter as being the "size of a cigarette package." Commercial production of the Holter minimonitor, AVSEP, Jr., began in 1969. The Holter Research Foundation ultimately sold exclusive rights to their patents to Del Mar Engineering Laboratories.
The materials include biographical materials about Norman J. Holter, journal articles about the Holter Monitor, correspondence, engineering notebooks, a licensing agreement, product literature, reports, price lists, catalogs, operating manuals and specific information about the Dynamic Del Mar Avionics ElectroCardioCorder (Model 445), 1977, and the ElectroCardioScanner (Model 660), 1971. Both models were developed by Del Mar's medical device manufacturing staff. The licensing agreement and correspondence detail in chronological order the relationship between Norman Holter and Del Mar Avionics, specifically president Bruce Del Mar, in the rapid commercial marketing and development of Holter's electrocardiorecorder. Although Holter assigned exclusive rights to his patent to Del Mar Avionics, he was involved in the design and development process, albeit from a distance. The engineering staff at Del Mar kept Holter informed, and it is clear that Holter regularly visited the company.
The engineering notebooks relate to the models 445 and 660. The notebooks were maintained by engineering staff members D. Anderson, N. Mohammedi, Ray Cherry and Fike. The notebooks are handwritten, although in some instances memos and other information have been inserted. For example, N. Mohammedi's notebook documenting Model 445 contains black-and-white prints, magnetic tape samples, and recorder tape (EKG graph paper) samples with data from the monitor. The notebooks are bound and paginated, and individual pages are stamped sequentially.
Series 7, Slides, circa 1990s, consists of color slides used for presentations by Del Mar Avionics staff to discuss and promote the marketing of the Holter Monitor.
The collection is arranged into seven series.
Series 1, Historical Background, 1951-2010 and undated
Series 2, Del Mar Avionics Engineering, 1958-1976
Subseries 1, Correspondence, 1965-1976
Subseries 2, Reports, 1964-1969
Subseries 3, Drawings, 1958-1968
Series 3, Patents and Trademarks, 1965-2002 and undated
Series 4, Product Literature, 1968-2010 and undated
Subseries 1, Del Mar Avionics, 1968-2010 and undated
Subseries 2, Competitors, 1974 and undated
Series 5, Sales, 1967-1985
Series 6, Holter Monitor Materials, 1958-2005
Subseries 1, Background Materials, 1958-2005
Subseries 2, Model 445, 1974-1978
Subseries 3, Model 660, 1967-1978 and undated
Series 7, Slides, circa 1990s
Biographical / Historical:
Norman Jefferis "Jeff" Holter (1914-1983) was born in Helena, Montana, to a prominent Montana pioneering family. After attending public schools in Helena, he earned master's degrees in chemistry from the University of Southern California (1938) and physics from the University of California, Los Angeles (1940). During these years Holter also organized Applied Micro Sciences, a scientific photography business, and began working with Dr. Joseph A. Gengerelli of UCLA on nerve stimulation in frogs and brain stimulation in rats. Holter's interest in studying electrical activity in humans in their daily activities without touching them, spawned his lifelong pursuit to develop the Holter Monitor.
During World War Two, Holter served as a senior physicist for the U.S. Navy's Bureau of Ships, conducting research into the behavior of ocean waves in preparation for wartime amphibious operations. After the war, in 1946, Holter headed a staff of oceanographic engineers at Bikini Atoll during Operation Crossroads, the first postwar atomic bomb tests, measuring wave actions and underwater disturbances caused by the explosions.
Because of demands of his family's business affairs, Holter returned to Helena in 1947 to continue his research activities. In 1947 he formed the Holter Research Foundation, with a laboratory originally located in the rear of the Holter Hardware Company building. From 1956 to 1971 the laboratory facilities were located in the Great Northern Railroad depot building in Helena. The foundation was initially funded by Holter and other members of his family, but in 1952 Holter began to receive grants from the National Institutes of Health (NIH).
Holter continued his collaboration with Dr. Gengerelli of UCLA in attempting to transmit information, primarily brain waves, by radio. Holter turned his attention from the brain to the heart because the heart's greater voltage made the electronics easier, and because heart disease was far more prevalent than cerebral disease. Holter's introduction to Dr. Paul Dudley White (1886-1973), a renowned physician and cardiologist, helped convince him to focus his research on recording electrical activity from the heart. Holter's goal was to radio broadcast and record the more obvious electrophysiological phenomena occurring in humans while carrying on their normal activities, rather than having to lie quietly on a couch.
The first broadcast of a radioelectrocardiogram (RECG) took place circa 1947 and required eighty to eighty-five pounds of equipment, which Holter worn on his back while riding a stationary bicycle. This was not practical and in no way could be worn by a patient. The initial transmitter and receiver required that the subject remain in the general area of the laboratory, so a portable and lighter RECG receiver-recorder had to be developed.
Next, Holter created a briefcase-like device that could be carried by a patient. By using very thin magnetic recording tape, twenty-four hours of RECG could be captured on a reel five inches in diameter. The initial method of examining the voluminous records from the tape recordings developed by Holter was called Audio-Visual Superimposed ECG Presentation (AVSEP). AVSEP made it possible to examine twenty-four hours of RECGs in twenty minutes, with signals being presented visually on an oscilloscope and audibly through a speaker.
With the development of transistors, radioelectrocardiography was made obsolete, and it became possible for the amplifier, tape recorder, temperature-control circuits, motor speed control circuits, and batteries to be placed in a single unit small enough for a coat pocket or purse. In 1952, Holter succeeded in creating a small unit that weighed 1 kilogram. Wilford R. Glassock, a senior engineer working with Holter, traveled to Cedars of Lebanon Hospital (now Cedars-Sinai Hospital of Los Angeles) in 1962 to demonstrate the Holter monitor system and discuss making it more practical. At Cedars, Dr. Eliot Corday observed the practicality of the system and not only embraced the technology, but collaborated with Holter's team and was an early promoter of the technology to both industry and physicians. Holter and Glassock were issued US Patent 3,215,136 on November 2, 1965 for the Electrocardiographic Means.
As articles describing the foundation's invention of these devices began to appear in the professional literature, there was considerable demand from doctors and hospitals for the equipment. Dr. Corday introduced Holter to Bruce Del Mar, founder of the Del Mar Avionics Corporation in Irvine, California. Del Mar engineers developed the "electrocardiocorder" for clinical use, producing a commercially viable monitor which came to be known as the Holter Monitor Test. Further refinements led to the creation of a "minimonitor" in 1968, which was described by Holter as being the "size of a cigarette package." Commercial production of the Holter minimonitor, AVSEP, Jr., began in 1969. The Holter Research Foundation ultimately sold exclusive rights to their patents to Del Mar Engineering Laboratories.
Later known as Del Mar Avionics, a team of engineers diverted their attention from successful manufacturing of military weapons training devices to focus on improving the speed and accuracy of computerized ECG analysis and they became the acknowledged leader in Holter monitoring technology for over 40 years. In 1969, because of the increased amount of required paper work and red tape, Holter canceled the grant funding his foundation had been receiving from NIH. He was also in constant conflict with the Internal Revenue Service over the foundation's non-profit status, rights to patents, and commercial production of equipment. The foundation continued to maintain a laboratory and conduct varied scientific work, but on a much smaller scale. The Holter Research Foundation, Inc. was dissolved in 1985, two years after Holter's death.
Del Mar Avionics was founded on January 9, 1952, as Del Mar Engineering Laboratories in Los Angeles, California by Bruce Del Mar, who led the development of aircraft cabin pressurization systems. Del Mar was born in Pasadena, California in 1913. An engineer, inventor, entrepreneur and businessman, Del Mar graduated from the University of California, Berkeley (1937) with a Bachelor of Science degree. Del Mar worked for Douglas Aircraft (1933-1951) as a research engineer on many projects before founding Del Mar Engineering Laboratories. In 1938, Del Mar married Mary Van Ness. The couple had two daughters, Patrica Jean Parsons and Marna Belle Schnabel.
In 1958, Del Mar formed a wholly-owned subsidiary, Electromation Inc., which manufactured tape recording and communication equipment. He later established, Aeroplastics Corporation to manufacture plastic products and Avionics Research Products Corporation to develop and produce biomedical instrumentation. By the mid-1960s, the company had become a leading U.S. Defense Department prime contractor in the development and production of aerial tow target systems for weapons training and instrumented ground targets for scoring air-to-ground automatic weapons delivery. It also produced helicopter target drones and helicopter flight trainers for the U.S. Army.
In 1961, the company entered the growing medical instrumentation market with the development of the first long-term ambulatory monitoring systems.
In 1965, the company introduced the Hydra Set Load Positioner that controls the precise vertical positioning of loads up to 300 tons (272,000 kg) in increments as small as 0.001 inch (0.025mm). This unique product, mounted between the load and the crane (or hoist), permits precise mating and de-mating of critical components, thus eliminating unforeseen damage to valuable loads. Hydra Set Load Positioners are in use worldwide in the aerospace, military/commercial aviation, nuclear and fossil fuel power generating industries and in various industrial applications. In 1975, the company, then re-named Del Mar Avionics, moved to its current location in Irvine, California.
Materials in the Archives Center
Project Bionics Artificial Organ Documentation Collection [videotapes], 2002 (AC0841) documents the invention and development of artifical internal organs through oral history interviews with scientists and others involved.
The James A. E. Halkett and Sigmund A. Wesolowski, M.D., Papers, 1948-1951 (AC0200) documents Halkett and Wesolowski's experiments on an early mechanical heart. Halkett and Wesolow(ski) materials show the process of technological innovation through laboratory protocols.
The George Edward Burch Papers, 1984-1986 (AC0316) documents Burch's pioneering work in clinical cardiology and research through technical notes, diagrams, and correspondence regarding laboratory work on the "2-pump heart model," 1984-1986.
Wilson Greatbatch Innovative Lives Presentation, 1996 (AC0601) documents the invention of the implantable cardiac pacemaker in 1958.
The Ronald J. Leonard Papers, circa 1980-1997 (AC1109) documents Leonard's development of pumps and oxygenators used in cardio-pulmonary bypass surgery.
Materials in the Division of Medicine and Science, National Museum of American History
The Division of Medicine and Science holds two monitors: the Dynamic and the Del Mar Avionics ElectroCardioCorder (Model 445), 1977 and the ElectroCardioScanner (Model 660), 1971. Both were developed by Del Mar's Medical Device Manufacturing staff. See accession #: 2011.0196.
Materials at the Montana Historical Society Research Center, Archives
Holter Family papers, 1861-1968
Includes documentation about the Holter Research Foundation, Inc.
Holter Research Foundation, Inc. records, 1914-1985
The Holter Research Foundation, Inc. was a private, non-profit, scientific research foundation started in Helena, Montana, in 1947 by Norman J. "Jeff" Holter. Records (1914-1985) include correspondence, financial records, laboratory records, subject files, photographs, etc. Also included are subgroups for N.J. Holter; his work in the U.S. Navy on bombs and waves; his work as assistant chancellor at University of California, San Diego; and the Society of Nuclear Medicine.
The collection was donated by Del Mar Avionics through Bruce Del Mar, President on September 12, 2011.
The collection is open for research.
Collection items available for reproduction, but the Archives Center makes no guarantees concerning intellectual property rights. Archives Center cost-recovery and use fees may apply when requesting reproductions.
Smithsonian Institution. Center for Folklife and Cultural Heritage Search this
The Working Americans program explored and celebrated work-related traditions, looking at Americans not as people from a certain area of the country or from a particular culture, but in terms of how they made their living and what they needed to know to do their jobs. Each occupation has its own traditions and its own body of skills. In the Working Americans section, Festival-goers could meet and talk with members of many unions and organizations while they demonstrated the particular know-how essential to their varied tasks and while they shared, in the workshop areas, the particular tales and jokes that grow out of the nature of the work they do.
The Folklife of Transportation Workers Project celebrated the lore, lifestyles, and occupational skills of the American workers who operate, maintain, and regulate the nation's transport system. The airline pilot's complex take-off procedure, the flight attendant's responsibility for safety in the cabin, the railroader's ability to calculate and make complicated box-car switches could be found here; as well as bus and taxi drivers' tales of ways to handle over-demanding passengers, truck driving songs, and seafarers' yarns. Transportation workers keep the nation's economic lifeblood moving. They also harbor a rich lore, replete with heroes, tall tales, and songs, that was demonstrated within this program.
June 16-27, Workers Who Extract and Shape. Presentations included glass bottle blowing, glass engraving and horseshoe making.
July 1-11, Workers Who Build. This program celebrated the skills and folklore of the building and construction trades. Participants demonstrated building crafts such as carpentry, tile and terrazzo skills, and even the casting of plaster masks of visitors' faces.
July 14-25, Workers Who Clothe Us. Participants celebrated the skills and folklore of workers in the garment trades, with demonstrations of clothes design, bonnaz (machine embroidery), leather work, and industrial loom work.
July 28-August 8, Workers in Communications, Arts & Recreation. This theme celebrated the skills and folklore of the print and broadcast media, telephone communications, and performing arts. Members of the Graphic Arts International Union demonstrated newspaper printing, four-color printing, and book binding. Members of the United Paperworkers International Union demonstrated papermaking, and members of various performing arts groups gave workshops.
August 11-22, Workers in Professional & Technical Skills, Transportation. Presentations celebrated the skills and folklore of professionals who work in health and medical fields, the tobacco industry, and the print and copying industry. Demonstrations included hospital workers demonstrating operating room techniques, cigar rolling, pharmacists making compounds, and body repairmen working on cars. The Transportation area presented the occupational culture of the men and women who work in the various modes of transportation, including the railroads, metropolitan and long-distance buses, taxicabs, trucks, ships, and stations of the Coast Guard. In the Transportation area, the skills of railroad men, airline pilots, truck drivers and seamen were featured.
August 25-September 6, Workers Who Feed Us, Transportation. Participants celebrates the skills and folklore of people involved with various aspects of production, preparation, and distribution of food. Hotel and restaurant workers demonstrated decorative ice carving, specialty table settings, wine stewarding, and cold food decoration. The Transportation area presented the occupational culture of those who work in the various modes of transportation, including skills demonstrations by airline, railroad and metropolitan transit workers, as well as by Coast Guardsmen who showed ornamental rope work and knot tying.
Shirley Askew served as Program Coordinator, with Robert McCarl as Folklorist, Robert Porter as Field Research & Presentation Specialist, and Susan Donahue as Assistant Program Coordinator. Peter Seitel was Project Coordinator for the Transportation program, assisted by Jack Santino.
Sponsors included the AFL-CIO and its Affiliates, U.S. Department of Labor, and U.S. Department of Transportation.
John Drake, Elaine Eff, Jan Faul, Archie Green, Alice Lacy, Worth Long, Luis Kemnitzer
Benny Ambush, Karen Byrne, Debbie Dixon, Steve Hagberg, Marta Schley, Barbara Schwartz
Workers Who Extract and Shape Products
Members of the following unions:
United Cement, Lime & Gypsum Workers International Union
Thomas F. Miechur, President
Glass Bottle Blowers Association of the United States and Canada
Harry A. Tulley, President
American Flint Glass Workers Union
George M. Parker, President
International Union of Journeymen Horseshoers of the United States and Canada
Duke Bonde, Jr., President
International Association of Machinists and Aerospace Workers
Floyd E. Smith, President
Molders and Allied Workers Union
Anton J. Trizna, President
American Federation of Musicians
Hal C. Davis, President
The Music Performance Trust Funds
Kenneth E. Raine, Trustee
Workers Who Build
Members of the following unions:
International Union of Bricklayers and Allied Craftsmen
Thomas F. Murphy, President
United Brick and Clay Workers of America
Roy L. Brown, President
United Brotherhood of Carpenters and Joiners of America
William Sidell, President
International Brotherhood of Electrical Workers
Charles H. Pillard, President
International Union of Operating Engineers
J.C. Turner, President
International Association of Bridge and Structural Iron Workers
John H. Lyons, President
Laborers' International Union of North America
Angelo Fosco, President
International Union of Wood, Wire and Metal Lathers
Kenneth M. Edwards, President
Operative Plasterers and Cement Masons International Association of the United States and Canada
Joseph T. Power, President
United Association of Journeymen and Apprentices of the Plumbing and Pipe Fitting Industry of the United States and Canada
Martin J. Ward, President
Sheet Metal Workers International Union
Edward J. Carlough, President
Workers Who Clothe Us
Members of the following unions:
Amalgamated Clothing and Textile Workers Union
Murray H. Finley, President
International Ladies' Garment Workers Union
Sol C. Chaikin, President
International Leather Goods, Plastics and Novelty Workers Union
Ben Feldman, President
Amalgamated Meat Cutters and Butcher Workmen of North America, Furriers Division
Joseph Belsky, President
Workers in Communications, Arts and Recreation
Members of the following unions:
Actors' Equity Association
Theodore Bikel, President
Communications Workers of America
Glenn E. Watts, President
Graphic Arts International Union
Kenneth J. Brown, President
American Federation of Television and Radio Artists
Kenneth Harvey, President
National Association of Broadcast Employees and Technicians
Edward M. Lynch, President
International Association of Fire Fighters
William H. McClennan, President
American Guild of Musical Artists
Cornell MacNeil, President
American Guild of Variety Artists
Penny Singleton, Executive-President
Hebrew Actors' Union
Herman Yablokoff, President
Workers in Professional and Technical Skills and Services
Members of the following unions and organizations:
Amalgamated Clothing and Textile Workers Union
Murray H. Finley, President
The American Occupational Therapy Association, Inc.
Jerry A. Johnson, Ph.D., President
James J. Garibaldi, Executive Director
Ronald Stone, OTR; President
Virginia Occupational Therapy Association
Silbyl Levine, OTR; President
District of Columbia Occupational Therapy Association
International Association of Machinists, AFL-CIO, Local 1650
Eddie Glaszczak, Platte City, Missouri
Bill Hoffman, Liberty, Missouri
Brotherhood of Locomotive Engineers
Transport Workers Union, Maintenance, Local 514
William Peoples, III
Maintenance of Way
Brotherhood of Railway Carmen, Locals 1395, 43, 468, 364, 175
BMC C.D. Haywood
QM1 G.H. Hornbeck
BMC D.B. McMichael
ASM T.A. Hallmark
BM1 L.L. Proud
QM2 J.W. White
MK2 B.G. Borato
MK1 S.J. Halloran
Allied Pilots Association
Capt. N. Schweitzer
Capt. (Hap) Hazard
Transportation Workers Union Flight Attendants, Local 552
Dee Dee Dougherty
Mary Jo Kerr
United Transportation Union
Access by appointment only. Where a listening copy or viewing copy has been created, this is indicated in the respective inventory; additional materials may be accessible with sufficient advance notice and, in some cases, payment of a processing fee. Older papers are housed at a remote location and may require a minimum of three weeks' advance notice and payment of a retrieval fee. Certain formats such as multi-track audio recordings and EIAJ-1 videoreels (1/2 inch) may not be accessible. Contact the Ralph Rinzler Folklife Archives and Collections at 202-633-7322 or firstname.lastname@example.org for additional information.
Copyright and other restrictions may apply. Generally, materials created during a Festival are covered by a release signed by each participant permitting their use for personal and educational purposes; materials created as part of the fieldwork leading to a Festival may be more restricted. We permit and encourage such personal and educational use of those materials provided digitally here, without special permissions. Use of any materials for publication, commercial use, or distribution requires a license from the Archives. Licensing fees may apply in addition to any processing fees.
Smithsonian Folklife Festival records: 1976 Festival of American Folklife, Ralph Rinzler Folklife Archives and Collections, Smithsonian Institution.
82.13 cu. ft. (80 record storage boxes) (2 document boxes) (1 16x20 box) (1 blueprint storage box)
Atacama Desert (Chile)
Scorpius X-1 (Star)
These records document Riccardo Giacconi's professional career, and consist of papers illustrating his scientific work and administrative records relating to the institutions
at which he worked.
There is extensive documentation of Giacconi's professional activities, including meetings attended, papers presented (and published), his services as officer or board
member of professional societies; grants, proposals, and contracts, mainly with NASA; correspondence with colleagues; slides and photographs of many facilities with which
Giacconi was associated (some unlabeled); news clippings and press releases; appointment books and journals; and files documenting his association with Montedison S.p.A.
Series 1 provides biographical information about Giacconi. Series 2 through 12 offer a roughly chronological overview of the institutions and major scientific projects
with which Giacconi has been associated during his professional career. The institutions are American Science and Engineering (Series 2), Harvard-Smithsonian Center for Astrophysics
(Series 4), Harvard University (Series 5), Space Telescope Science Institute (Series 11) and European Southern Observatory (Series 12).
Although all the institutional series mentioned contain both scientific and administrative records, there is a noticeable decline in scientific content when Giacconi moves
from the Center for Astrophysics to the Space Telescope Science Institute. Interspersed amongst institutional series are series covering major scientific projects that spanned
more than one institution, including the High Energy Astronomy Observatory (HEAO) series of satellites (Series 6-9), particularly HEAO-B also known as Einstein, Uhuru (Series
3), and the Advanced X-Ray Astronomical Facility (AXAF), later known as the Chandra X-Ray Observatory (Series 10).
Series 13 through 17 illustrate Giacconi's tenure on various committees having to do, primarily, with space science. Series 18 and 19 detail his involvement with professional
scientific societies. Series 20 documents Giacconi's involvement in professional scientific meetings. Series 21 illustrates his involvement with Italian company Montedison
and its efforts to found a scientific research institute. Series 22 contains Giacconi's general correspondence, much of it from his time at STSI. Series 23 consists of publications
that did not match with any specific institute or project. Many of these publications are directed toward a lay audience. Series 24 contains generic materials relating to
x-ray astronomy including newspaper clippings and articles. Series 25 consists of Giacconi's appointment books. Series 26 contains materials that relate to Giacconi's personal
life, including receipts, pamphlets, announcements, and videotapes. Series 27 consists of awards that Giacconi received for his scientific accomplishments. The Nobel Prize
is not included in this collection. The total volume of the collection is approximately 95 cubic feet.
Riccardo Giacconi (1931-2018), an astrophysicist, was born in Genoa, Italy. He attended the University of Milan, receiving the PhD in 1954. From 1954 to 1956, he served
as an Assistant Professor of Physics at the University, then became Research Associate (Fulbright Fellow) at Indiana University. From 1958 to 1959, he was a Research Associate
in the Cosmic Ray Laboratory at Princeton University. In 1959 he took the post of Senior Scientist, vice president in charge of the Space Research and Systems Division, at
American Science and Engineering (ASE), a private research corporation in Cambridge, Massachusetts. He stayed at ASE, serving as Executive Vice President and a member of the
Board of Directors, until 1973, when he left to become Associate Director of the High Energy Astrophysics Division of the Harvard-Smithsonian Center for Astrophysics (CFA)
and Professor of Astronomy at Harvard University. He remained at the CFA until 1981 when he was appointed first Director of the Space Telescope Science Institute (STSI) and
Professor of Physics and Astronomy at The Johns Hopkins University. In 1991 he was also appointed Professor of Physics at the University of Milan.
Much of Giacconi's pioneering work in x-ray astronomy took place during his tenure at ASE, and he was a major force in the development of the company. In 1962 Giacconi's
group succeeded in detecting the first extrasolar x-ray source. In 1963 the same group obtained the first solar x-ray picture by use of an x-ray telescope, which had been
conceived, advocated, designed, and fabricated by them. In that same year Giacconi proposed an x-ray astronomy satellite, Explorer. The proposal led to a program of construction
in 1966-1970, followed by a successful launch in 1970. The satellite became known as Uhuru, and represented a major qualitative step in x-ray astronomy's observational capability.
Following this early work on solar x-ray studies, a major program, initiated in 1968, culminated in the flight of the SO-54 x-ray telescope on the Apollo Telescope Mount's
Skylab mission. In 1970 a program for construction of a 1.2 meter x-ray telescope for study of extrasolar sources was initiated. The program was modified in 1973, and finally
led to the Einstein Observatory mission, successfully launched in 1978. Giacconi had responsibility for the scientific direction and administrative management of all these
Giacconi went to the CFA as Director of the High Energy Astrophysics Division in 1973. He oversaw the conception, fabrication, and design of the Einstein Observatory, preparation
of the software and hardware for data reduction for Einstein, and the establishment and implementation of the Guest Observer Program.
In 1981 Giacconi became Director of the new Space Telescope Science Institute, managed by the Association of Universities for Research in Astronomy for the National Aeronautics
and Space Administration (NASA).When fully operational, the STSI was to be the center of operations and research for the Hubble Space Telescope, which was launched in 1990.
From 1987 to 1988, Giacconi served as a consultant to Montedison S.p.A., an Italian chemical conglomerate, with the title of Chairman of the Board, Instituto Donegani, the
research arm of the parent corporation. This activity, which was an attempt to elevate Instituto Donegani to a world class center for chemistry, was soon abandoned.
In 1993, Giacconi left STSI to head the European Southern Observatory (ESO). ESO is an intergovernmental European organization for astronomical research. ESO coordinates
the activities of the La Silla and Paranal observatories in the Atacama Desert in Chile. One of the major scientific achievements of ESO under Giacconi's leadership was the
installation of the Very Large Telescope (VLT) at the Paranal Observatory.
Giacconi left ESO in 1999 and is currently the President of Associated Universities, Inc., which manages the National Radio Astronomy Observatory under a grant from the
National Science Foundation.
Giacconi is the author of over 300 articles on x-ray astronomy. He has been awarded numerous prizes for his scientific research, including the 2002 Nobel Prize in Physics
for the discovery of cosmic x-ray sources.