Historical Nuclear Energy Films
By Dr. Nick Touran, Ph.D., P.E.
In the olden days, the Atomic Energy Commission and others commissioned dozens upon dozens of nuclear energy related videos. Many of these have been digitized, but not all. We’ve gone through various old catalogs and cross-linked the entries with digitized copies when possible, as well as with modern catalog hyperlinks e.g. in the National Archives, where the physical films are housed. The list of not-yet-digitized films is shown below the list of already-digitized ones.
We have also learned how to get not-yet-digitized ones that exist in the National Archives digitized. See our YouTube channel here and our Digital Reactor History Museum. You can read more about the process of digitization and see some results at our ZPPR video page and our announcement of the world re-premier of a Hallam film. If you’re interested in helping to get more of these scanned, check out our digitization GoFundMe and/or contact us!
We have digitized 53 films and counting
The summary data comes from various catalogs, such as:
On this page:
Videos that have been digitized
These films have been scanned and can be viewed online now.
Features many scientists from the University of Washington
- On Archive.org (Also available in lower res directly at NARA)
- On YouTube (Digitized by ANL in 240p, and VERY dark. May be worth re-doing.)
NARA version says no sound, but Periscope found sound
Video available in NARA
An animated documentary on atomic power from GE's "Excursions in Science" series. From the GE Film Catalog: "To most of us the recently unleashed giant of atomic energy represents an incredibly potent force for destruction - but it is becoming apparent that this super power can also be harnessed as a wonderworking servant, helping to bring about a new era of progress in the fields of industry, medicine, agriculture, and science. "Since the future of our world depends upon man's wisdom in the ... Show more Show less
An animated documentary on atomic power from GE's "Excursions in Science" series. From the GE Film Catalog: "To most of us the recently unleashed giant of atomic energy represents an incredibly potent force for destruction - but it is becoming apparent that this super power can also be harnessed as a wonderworking servant, helping to bring about a new era of progress in the fields of industry, medicine, agriculture, and science. "Since the future of our world depends upon man's wisdom in the control of this force, an understanding of the elements of atomic energy is of prime importance to every American. This picture, therefore, has been designed to present a comprehensive, easily understandable explanation of the principles of nuclear fission in an interesting and entertaining manner. "Filmed in striking, full-color animation, the picture introduces an amusing character called Dr. Atom who takes the audience through "Element Town" to explain the atomic structure of the 92 basic elements. The film goes on to illustrate the process by which the energy within the atom is released through nuclear fission and the means of controlling this energy to supply power to a peacetime world."Another version was updated in 1963 according to catalog
- On YouTube (Digitized by miSci, Schenectady, NY)
Note duplicate titles. This is not AVN 0649 from IAEA catalog either.
- On YouTube (Digitized by miSci, Schenectady, NY)
- Our announcement page
- On YouTube (Thanks to Last Energy!)
- Related short clip
The Experimental Boiling Water Reactor (EBWR), an experimental nuclear power plant of 5000-kw electrical capacity, was the first of the reactors in the USAEC's nuclear power development program to be completed. This Semitechnical documentary film describes highlights of construction of the EBWR buildings, particularly the containment shell for the power plant. The erection of the steel shell, special concrete work, and installation of equipment, including the reactor pressure vessel, are show... Show more Show less
The Experimental Boiling Water Reactor (EBWR), an experimental nuclear power plant of 5000-kw electrical capacity, was the first of the reactors in the USAEC's nuclear power development program to be completed. This Semitechnical documentary film describes highlights of construction of the EBWR buildings, particularly the containment shell for the power plant. The erection of the steel shell, special concrete work, and installation of equipment, including the reactor pressure vessel, are shown. The requirements for various structural components are described.Possibly mislabeled as Dresden Nuclear Power Station at NARA?
- On YouTube (Digitized by miSci, Schenectady, NY)
- On YouTube (Digitized by miSci, Schenectady, NY)
- Related Vallecitos dedication video from 1957
- Our announcement page
- On YouTube in 4K (English audio) (Thanks to Mikal Bøe for sponsoring, and to Shirly Rodriguez Rojas for translating and narrating in English )
- On YouTube (original Spanish audio)
Possibly mis-cataloged at NARA as 1964? and in IAEA catalog as 15 mins instead of 51?
- On YouTube (Re-hosted from US Army site)
- US Army Corps of Engineers Digital Library
Not yet found in catalogs. Note that this reactor had a meltdown. This was the prototype for the larger Hallam SGR.
- On YouTube (Low-res, some gaps)
This semitechnical documentary film presents an actual account of the construction and operation of the reactor. It begins with the installation of the reactor components, with pressure vessel and other units in the steam cycle already in place. This continues through the assembly of reactor components, 20-Mw operation, then the generation of 5000 kw of electricity. The standard operational procedures of the plant, including startup procedure, are included. Also shown are significant engineer... Show more Show less
This semitechnical documentary film presents an actual account of the construction and operation of the reactor. It begins with the installation of the reactor components, with pressure vessel and other units in the steam cycle already in place. This continues through the assembly of reactor components, 20-Mw operation, then the generation of 5000 kw of electricity. The standard operational procedures of the plant, including startup procedure, are included. Also shown are significant engineering tests through 3060-Mwd operation and subsequent inspection of turbine and reactor.There are two entries in NARA, see also 88386
There is a long version and a short version
- On YouTube (Thanks to IAEA Lise Meitner library)
See Also 88144
This film is a technical progress report of the fusion research programs sponsored by the U.S. Atomic Energy Commission at Princeton University, Oak Ridge National Laboratory, Los Alamos Scientific Laboratory, and the University of California Radiation Laboratory. An outline is given of the principal problems in controlled fusion, and the film then switches to the laboratories, where the research devices are shown and described in detail by means of animation. Devices described are the variou... Show more Show less
This film is a technical progress report of the fusion research programs sponsored by the U.S. Atomic Energy Commission at Princeton University, Oak Ridge National Laboratory, Los Alamos Scientific Laboratory, and the University of California Radiation Laboratory. An outline is given of the principal problems in controlled fusion, and the film then switches to the laboratories, where the research devices are shown and described in detail by means of animation. Devices described are the various pinch, mirror, rotating plasma, DCX, and Stellarator machines . (This film requires only a rudimentary knowledge of physics to be understood, but it should be most useful at college colloquia as a summary of present research in hot plasma physics.)- On YouTube (First third thanks to Adam Rizika, and the rest was digitized by the IAEA)
This film is a step-by-step record of construction of the world's first privately owned heavy-water research reactor, designed and built by ACF Industries, Inc., for the Massachusetts Institute of Technology. It is a 1000-kw heavy-water-moderated and -cooled CP-5 type reactor, producing fluxes in excess of 10^13 neutrons/cm^2/sec. It includes a special medical therapy room providing new approaches to nuclear medical research techniques. The film shows construction phases of the reactor, assoc... Show more Show less
This film is a step-by-step record of construction of the world's first privately owned heavy-water research reactor, designed and built by ACF Industries, Inc., for the Massachusetts Institute of Technology. It is a 1000-kw heavy-water-moderated and -cooled CP-5 type reactor, producing fluxes in excess of 10^13 neutrons/cm^2/sec. It includes a special medical therapy room providing new approaches to nuclear medical research techniques. The film shows construction phases of the reactor, associated nuclear equipment, containment shell, and radiation shieldingThis is the same MITR facility that still operates today, though it went through a major upgrade in 1975 to a light-water moderated/cooled design (https://www.nrc.gov/docs/ML1909/ML19091A088.pdf)
- On YouTube (Thanks to IAEA Lise Meitner library for digitizing)
There's also a French soundtrack
This semitechnical film presents potential industrial applications of nuclear explosives that require amounts of packaged energy heretofore unavailable and suggests that nuclear explosives can be used as safely as chemical explosives, and with greater effect and at less cost. Applications illustrated include harbor development, economical recovery of low-grade ore bodies, release of petroleum from oil shale, under- ground production of steam for generation of power, and development of large ... Show more Show less
This semitechnical film presents potential industrial applications of nuclear explosives that require amounts of packaged energy heretofore unavailable and suggests that nuclear explosives can be used as safely as chemical explosives, and with greater effect and at less cost. Applications illustrated include harbor development, economical recovery of low-grade ore bodies, release of petroleum from oil shale, under- ground production of steam for generation of power, and development of large underground reservoirs in arid areas.This semitechnical film presents, via live action and animation, a summary of the major types of research reactors — swimming pool, tank, water boiler, and graphite moderated — with descriptions of their uses in research, industry, chemistry, physics, metallurgy, biology, and medicine. Used as illustrations are the following reactors: CP-5 (Argonne), University of Michigan reactor (Ford reactor), Omega West (Los Alamos), (Armour), Brookhaven, Argonaut (Argonne), 10- watt solution type (Atomic... Show more Show less
This semitechnical film presents, via live action and animation, a summary of the major types of research reactors — swimming pool, tank, water boiler, and graphite moderated — with descriptions of their uses in research, industry, chemistry, physics, metallurgy, biology, and medicine. Used as illustrations are the following reactors: CP-5 (Argonne), University of Michigan reactor (Ford reactor), Omega West (Los Alamos), (Armour), Brookhaven, Argonaut (Argonne), 10- watt solution type (Atomics International), and the solid- homogeneous (Aerojet General Nucleonics).- On YouTube (Thanks to IAEA Lise Meitner library for digitizing)
Coverage of the transfer of the Convair Airborne Shielded Test Reactor and NB-36 crew compartments from Ft. Worth, Texas, to Oak Ridge, Tennessee National Laboratories for further airborne and ground radiation reflection tests using a tower rig. 1) Animation and live photography depicting early airborne tests of the ASTR using the NB-36 aircraft. 2) Crew compartment of the NB-36 being removed. 3) Reactor is removed from the Convair storage pool and placed on a flat bed trailer. 4) Truck convo... Show more Show less
Coverage of the transfer of the Convair Airborne Shielded Test Reactor and NB-36 crew compartments from Ft. Worth, Texas, to Oak Ridge, Tennessee National Laboratories for further airborne and ground radiation reflection tests using a tower rig. 1) Animation and live photography depicting early airborne tests of the ASTR using the NB-36 aircraft. 2) Crew compartment of the NB-36 being removed. 3) Reactor is removed from the Convair storage pool and placed on a flat bed trailer. 4) Truck convoy carrying the reactor, crew compartments, and associated test equipment leaving the Convair test site at Ft. Worth and arriving at the National Laboratories, Oak Ridge, Tennessee. 5) Preparations for, and mapping of, ground radiation reflection from the reactor at the tower site. 6) Radiation reflection testing of the crew compartment, and a 1/2 scale crew compartment suspended from the towers, in the same relationship to the reactor as they were in the NB-36 aircraft. Good (Basic: Orig color, A&B Rolls)The reactor that flew!
- On YouTube (Thanks to Gil Brueckner)
- Our announcement page
- On YouTube (Digitized by miSci, Schenectady, NY)
- Our announcement page
- On YouTube (Thanks to Last Energy!)
This is a semitechnical film for high-school and college-level audiences. It describes the Shippingport Atomic Power Station in Pennsylvania, built to advance power reactor technology and demonstrate the practicability of operating a central station atomic power plant in a utility network. Included is an explanation of the production and control of heat and radioactivity produced by nuclear fission; manufacture of fuel elements; major components such as pumps, heat exchangers, and the pressur... Show more Show less
This is a semitechnical film for high-school and college-level audiences. It describes the Shippingport Atomic Power Station in Pennsylvania, built to advance power reactor technology and demonstrate the practicability of operating a central station atomic power plant in a utility network. Included is an explanation of the production and control of heat and radioactivity produced by nuclear fission; manufacture of fuel elements; major components such as pumps, heat exchangers, and the pressure vessel; construction of the station; installation of components; and the erection and installation of the reactor core.Eisenhower uses a nuclear wand to start the Shippingport reactor in this one remotely.
This nontechnical film, for intermediate through college-level audiences, reports on U. S. participation in the Second International Conference on Peaceful Uses of Atomic Energy, held at Geneva in September 1958 under UN auspices and attended by 6000 scientists and technicians of 69 nations and 9 international agencies. It points to the technical papers program and the 722 papers contributed by the United States; provides a quick look at the Atoms For Peace Commercial Exposition held concurre... Show more Show less
This nontechnical film, for intermediate through college-level audiences, reports on U. S. participation in the Second International Conference on Peaceful Uses of Atomic Energy, held at Geneva in September 1958 under UN auspices and attended by 6000 scientists and technicians of 69 nations and 9 international agencies. It points to the technical papers program and the 722 papers contributed by the United States; provides a quick look at the Atoms For Peace Commercial Exposition held concurrently in Geneva; then devotes coverage to the U. S. Technical Exhibit made up of 64 sections, many with full-scale scientific devices in operation which covered four major areas: Physical Sciences, Reactor Sciences and Technology, Life Sciences, and Controlled Thermonuclear Research.This film discusses the 14-month repair and restoration of the NRX Reactor at Chalk River, Ontario, following a rapid super operational power level excursion (the first nuclear reactor runaway in history) and describes the 1959 safety system of the 40-Mw reactor. Film footage made during actual restoration is supplemented by studio explanation with a reactor model. Depicted are the unusual and hazardous problems complicating repairs: high levels of radioactive contamination in work areas; con... Show more Show less
This film discusses the 14-month repair and restoration of the NRX Reactor at Chalk River, Ontario, following a rapid super operational power level excursion (the first nuclear reactor runaway in history) and describes the 1959 safety system of the 40-Mw reactor. Film footage made during actual restoration is supplemented by studio explanation with a reactor model. Depicted are the unusual and hazardous problems complicating repairs: high levels of radioactive contamination in work areas; continuation of water cooling on high irradiated fuel rods to prevent auto-ignition; creation of disposal facilities in subzero weather for a gross quantity of cooling water mixed with highly active fission products; corrosion-inhibiting preservation of irradiated fuel rods; decontamination of large pieces of equipment and reactor components; and rebuilding a reactor that had not been designed initially for major repair. Illustrated are unique methods and tools for locating radioactive products lodged in piping and auxiliary equipment, snaring and removing broken pieces of radioactive fuel rods, suppressing large areas of residual building contamination, and removing and decontaminating equipment, shielding, and heavy water. In addition to persons interested in nuclear reactors, the film has particular value to reactor technology and operation for assessing safety system failure and associated problems and hazards of returning a reactor to operation.This is the one that Jimmy Carter worked on
Not listed in the archives catalogs we've found
Not listed in the archives catalogs we've found
This film describes an experiment at the National Reactor Testing Station, Idaho, in which aircraft reactor fuel elements, together with other materials, were melted in a simulated aircraft crash. The experiment consisted of two phases: the first (Phase A) used jet fuel as the combustible and the second (Phase B) used Thermite to produce high temperature to assure melting. In Phase A, melting did not occur, and no radioactivity was released. In Phase B, melting did occur, with the release of ... Show more Show less
This film describes an experiment at the National Reactor Testing Station, Idaho, in which aircraft reactor fuel elements, together with other materials, were melted in a simulated aircraft crash. The experiment consisted of two phases: the first (Phase A) used jet fuel as the combustible and the second (Phase B) used Thermite to produce high temperature to assure melting. In Phase A, melting did not occur, and no radioactivity was released. In Phase B, melting did occur, with the release of a small amount of activity (10,000 curies of fission products) in the National Reactor Testing Station out to a distance of V2 mile. The total experiment provided preliminary experimental data upon which to base further experiments and to make very preliminary estimates of the hazards of mobile reactors in an accident situation. (The film should be of interest to persons concerned with: the release of fission products from radioactive fuel elements when the element is completely melted; the results obtained by the destruction of fuel elements containing significant fission products; development of aircraft reactors; and generalized safety research. The film should be of particular interest to personnel associated with organic-moderated facilities in which fire hazard is a factor, radiological health and safety activities, the Radiological Assistance Program, etc- On YouTube (Thanks to IAEA Lise Meitner library for digitizing)
Summary: Film shows pan shots of landscape; construction and assembly of Reactor Pool; Primary Equipment pit; seepage pit; water system; filter plant; Maintenance Bldg; Critical Experiment Facility building; Weather Station; instrumentation Lab; Audio Tower; argon towers; Radiation Effects Laboratory; technicians practicing the handling of controls in a hot cell mockup; installation of partition in Hot Cell; Analytical Lab; and scenes of the first hot tests conducted 15 December 1958. Good (B... Show more Show less
Summary: Film shows pan shots of landscape; construction and assembly of Reactor Pool; Primary Equipment pit; seepage pit; water system; filter plant; Maintenance Bldg; Critical Experiment Facility building; Weather Station; instrumentation Lab; Audio Tower; argon towers; Radiation Effects Laboratory; technicians practicing the handling of controls in a hot cell mockup; installation of partition in Hot Cell; Analytical Lab; and scenes of the first hot tests conducted 15 December 1958. Good (Basic: Mas color)- On YouTube (Thanks to IAEA Lise Meitner library for digitizing)
This film describes the use of radiation to eradicate the screwworm fly in the southeastern United States, an insect pest that had caused large losses to livestock owners. The film describes how the screwworm fly deposits its eggs in a cut or insect bite on the skin of a warm-blooded animal. The eggs hatch to worms that feed on live flesh and then fall to the ground, where they burrow into the soil and change to pupae. Ten days later the fly emerges and mates, and the cycle continues. The fil... Show more Show less
This film describes the use of radiation to eradicate the screwworm fly in the southeastern United States, an insect pest that had caused large losses to livestock owners. The film describes how the screwworm fly deposits its eggs in a cut or insect bite on the skin of a warm-blooded animal. The eggs hatch to worms that feed on live flesh and then fall to the ground, where they burrow into the soil and change to pupae. Ten days later the fly emerges and mates, and the cycle continues. The film shows typical cases of screwworm infestation. Entomologists of the Agricultural Research Service suggested that since screwworm flies mate only once, if a method of sexually sterilizing flies could be found, eradication was possible. Since X ray was too ex- pensive, radioactive cobalt ( 60 Co) was selected to do the sterilization job. The plan was tested on the tiny island of Curasao off the coast of Venezuela, where sterilized male flies were released from aircraft in patterns over the island. In six months the pest was eliminated. Similar operations were followed in Florida and other southeastern states. A huge screwworm factory was built in Florida, where 50 million flies were reared and sterilized in a week, with pupae subjected to 8000 roentgens of gamma rays. Ten million sterilized male flies were airdropped on infested areas. Eventually the screwworm fly was brought under full control and largely eradicated. (Nontechnical: suitable for all audience levels.)This semitechnical film, which is a sequel to the 1958 film "Dresden Nuclear Power Station," covers the design and development of a large dual-cycle boiling-water reactor the 180,000-kw Dresden Nuclear Power Station built by General Electric Company (GE) for the Commonwealth Edison Company, Chicago, and the Nuclear Power Group, Inc., and the history of the project from its beginning in 1955 to its completion in 1959. The film shows major stages of development, including clearance of the site ... Show more Show less
This semitechnical film, which is a sequel to the 1958 film "Dresden Nuclear Power Station," covers the design and development of a large dual-cycle boiling-water reactor the 180,000-kw Dresden Nuclear Power Station built by General Electric Company (GE) for the Commonwealth Edison Company, Chicago, and the Nuclear Power Group, Inc., and the history of the project from its beginning in 1955 to its completion in 1959. The film shows major stages of development, including clearance of the site 47 miles southwest of Chicago; ground-breaking; construction of foundations, sphere, and other buildings; manufacture of the containment vessel and fuel; shipment and arrival of major components; installation of the reactor core, reactor vessel, and turbine-generator; testing of completed installations; and the station's "going critical." The film also includes scenes relating to development work for Dresden carried out at GE's Vallecitos Atomic Laboratory near Pleasanton, Calif.- On YouTube (Digitized by miSci, Schenectady, NY)
This film concerns the construction by Army Engineers of Camp Century, a nuclear-powered U. S. Army Arctic research laboratory buried below the Greenland ice cap. Although the film tells the entire story of the planning and construction of Camp Century, it contains a significant section devoted to the nuclear power plant for electricity and space heating. The film shows the selection of the isolated camp site, 150 miles from Thule; delivery of supplies and equipment by motorized bobsleds; dig... Show more Show less
This film concerns the construction by Army Engineers of Camp Century, a nuclear-powered U. S. Army Arctic research laboratory buried below the Greenland ice cap. Although the film tells the entire story of the planning and construction of Camp Century, it contains a significant section devoted to the nuclear power plant for electricity and space heating. The film shows the selection of the isolated camp site, 150 miles from Thule; delivery of supplies and equipment by motorized bobsleds; digging and construction of 23 tunnels in the ice (trenches covered with steel arches and snow); construction of foundations for prefabricated buildings; erection of prefabricated buildings; procurement of water supplies; installation of insulated piping and sewage lines; and how the men eat and sleep. Also shown are the digging of four deep trenches for the nuclear power plant, the construction of the frame for the reactor buildings, arrival of the power plant (400 tons of piping, machinery, and components) by sea, delivery of the heavy components (including a 21 -ton vapor container) by sled over the ice cap, unloading of the power plant, opening of labeled boxes of piping and wiring, reassembly of major components, and movement of the 15-ton condenser into the tunnel. The power plant is described, and the assembly of the shells to contain the nuclear section, the work to activate the power plant, the subcritical tests, the careful loading of the reactor core with fuel elements after inspection and cleaning, the gradual activation of the reactor, and the achievement of criticality are shown. Today, powered by its nuclear reactor, the Arctic research center is in full operation. (Nontechnical: suitable for high school and above.)Extremely awesome. Featuring Mukluck the dog.
The SNAP program Systems for Nuclear Auxiliary Power is an AEC program to develop long-lived auxiliary power from nuclear energy for use in satellites and space vehicles. Compact atomic reactors being developed by Atomics International for use in SNAP systems are shown in this semitechnical film. Safety characteristics of the SNAP reactor during fabrication, testing, transport, installation, launching, and use in space are described. Detailed sequences filmed at Atomics International on fabri... Show more Show less
The SNAP program Systems for Nuclear Auxiliary Power is an AEC program to develop long-lived auxiliary power from nuclear energy for use in satellites and space vehicles. Compact atomic reactors being developed by Atomics International for use in SNAP systems are shown in this semitechnical film. Safety characteristics of the SNAP reactor during fabrication, testing, transport, installation, launching, and use in space are described. Detailed sequences filmed at Atomics International on fabrication and testing show the simplicity and compactness of the reactors. Safety features are described in scenes that illustrate shipping, launch-site activities, and launch of the reactor into space. The burnup and dispersal of the reactor during reentry into the atmosphere are shown in a detailed animation sequence. Many beneficial uses of SNAP in the U. S. national space program are illustrated. notes:National Archives incorrectly has "reactor" without the plural in the title
- On YouTube (Thanks to IAEA Lise Meitner library for digitizing)
This semitechnical film describes the world's first radioisotope-powered weather station, which is operating unattended at a remote site in the Canadian Arctic. The "atomic" weather station is powered by a thermoelectric unit in which the heat from the decay of Strontium-90 (90 Sr) is directly converted into electricity. The film shows the major steps in the identification, testing, and preparation of the 90 Sr titanite compound; the loading of the radioisotope source in the weather-station g... Show more Show less
This semitechnical film describes the world's first radioisotope-powered weather station, which is operating unattended at a remote site in the Canadian Arctic. The "atomic" weather station is powered by a thermoelectric unit in which the heat from the decay of Strontium-90 (90 Sr) is directly converted into electricity. The film shows the major steps in the identification, testing, and preparation of the 90 Sr titanite compound; the loading of the radioisotope source in the weather-station generator; the principle of direct conversion of heat into electricity; the operation of the generator; the weather-station equipment for sensing, data processing, and control and transmission; the final testing; the 4000-mile journey north into the remote Canadian Arctic aboard an icebreaker; the weather-station installation; and the successful transmission of weather data. The film explains the principal methods of handling radioactive wastes from nuclear reactor operations; the techniques for recovering valuable radioisotopes, such as 90 Sr; and the development of 90 Sr thermoelectric sources for unique small-scale power applications. Brief information is also given on other applications of Sr-90 thermoelectric devices.This film describes the Commission's exhibit on the peaceful uses of atomic energy during the Latin-American tour, including Rio de Janeiro and Buenos Aires. After the opening-day ceremonies, there is a flash-back showing the construction of the exhibit structure and facilities (e.g., the concrete foundation, the shield for the nuclear-research training reactor, the erection of steel arches, and the nature and inflation of the air- supported double-domed structure made of vinyl-coated nylon).... Show more Show less
This film describes the Commission's exhibit on the peaceful uses of atomic energy during the Latin-American tour, including Rio de Janeiro and Buenos Aires. After the opening-day ceremonies, there is a flash-back showing the construction of the exhibit structure and facilities (e.g., the concrete foundation, the shield for the nuclear-research training reactor, the erection of steel arches, and the nature and inflation of the air- supported double-domed structure made of vinyl-coated nylon). The film shows the various exhibits and facilities, including the three-screen theater, the nuclear-power exhibit, the industrial-applications exhibit, the agricultural exhibit, the medical exhibit, the health and safety exhibit, the gamma tank, and the nuclear-research test reactor. (Nontechnical: suitable for all audience levels.)- On YouTube
- Our announcement page
- ORNL-2886 (Document describing the process)
Won 'Blue Ribbon Award' at the American Film Festival, New York, 1961 - best film in the popular science group
- Digitized at NARA? (Hmm but the video is just all blank! Maybe needs rescan?)
The operation principles and scientific applications of nuclear reactors used as research tools in various projects are briefly described Types of research that reactors and associated equipment make possible are shown at length The Gamma Ray Spectrometer the Neutron Chopper and a new reactor designed specifically for high and low radiation experiments in biology are also described. This film provides an in depth description of basic research in the nuclear sciences at ERDA's Argonne Nationa... Show more Show less
The operation principles and scientific applications of nuclear reactors used as research tools in various projects are briefly described Types of research that reactors and associated equipment make possible are shown at length The Gamma Ray Spectrometer the Neutron Chopper and a new reactor designed specifically for high and low radiation experiments in biology are also described. This film provides an in depth description of basic research in the nuclear sciences at ERDA's Argonne National LaboratoryA filmed story of the PM-1 nuclear power plant (a pressurized water system), a joint project of the USAEC and the U. S. Air Force, which supplies the power for the radar and space heating of a remote Air Defense Command radar station in Wyoming. The film breaks down the types and contents of 16 air transportable packages, a total weight of about 30,000 pounds: reactor, steam generator, waste tank, heat-transfer apparatus, control room, turbogenerator, etc. Details are given on major component... Show more Show less
A filmed story of the PM-1 nuclear power plant (a pressurized water system), a joint project of the USAEC and the U. S. Air Force, which supplies the power for the radar and space heating of a remote Air Defense Command radar station in Wyoming. The film breaks down the types and contents of 16 air transportable packages, a total weight of about 30,000 pounds: reactor, steam generator, waste tank, heat-transfer apparatus, control room, turbogenerator, etc. Details are given on major components and the design and operation of the system by information on: 741 nuclear fuel tubes in 7 fuel bundles, the "flow" of primary water, the secondary water, details on the makeup of the fuel element tubes, criticality testing, nature of the control rods, tests to determine heat transfer and flow characteristics. The film recounts the airlift of the packages, erection and assembly of the power plant, the work to achieve criticality, and the varied safety controls.- Our announcement page
- On YouTube in 4K (Thanks to Ross Koningstein for his help)
This film describes the development and use of compact nuclear power sources for space under the Atomic Energy Commission's Systems for Nuclear Auxiliary Power (SNAP) program. The film features the first use of atomic power in the nation's space effort and briefly covers the uses of SNAP devices on land and sea. By means of animation and models, the two basic concepts of the SNAP program are shown. In one approach the energy of decay from radioactive isotopes is used to generate electricity d... Show more Show less
This film describes the development and use of compact nuclear power sources for space under the Atomic Energy Commission's Systems for Nuclear Auxiliary Power (SNAP) program. The film features the first use of atomic power in the nation's space effort and briefly covers the uses of SNAP devices on land and sea. By means of animation and models, the two basic concepts of the SNAP program are shown. In one approach the energy of decay from radioactive isotopes is used to generate electricity directly, without moving parts. This method is being developed for the USAEC by the Martin Company, the aerospace division of the Martin Marietta Corporation. A SNAP isotopic-power generator was launched on board the Navy's Transit navigation satellite in June 1961, marking the first use of nuclear power in space. The other SNAP approach uses, the heat from a compact nuclear-fission reactor to generate electricity by a turbogenerator system or by direct conversion. The nuclear reactor systems being developed by Atomics International, a division of North American Aviation, Inc., will provide from 500 to 60,000 watts of electricity in space for one year. They can provide power for a satellite network for worldwide communications, weather observation, and navigation. The film briefly summarizes the importance of the use of space in the areas of communications; weather observation; research; navigation; astronomy and exploration; and the consequent need, as space technology advances, for more compact electrical power sources. A detailed explanation is given of the isotopic-power source aboard the Transit-4A navigational satellite, which produces almost 3 electrical watts enough to power two of the satellite's four navigational radio transmitter systems for five years or more. The isotopic-powered navigation equipment is transmitting precise signals that are being received all over the globe. The operational Transit satellite system will provide navigational information from which aircraft and ships around the world will be able to fix their positions within 0.1 mile. The film reviews the various nuclear-reactor-powered units, including SNAP-2, which will provide 3000 watts of electricity in space for one year; SNAP-10A, which will provide 500 watts for one year; and SNAP-8, which will generate up to 60,000 watts and will pioneer electric propulsion in the U. S. space program. SNAP power systems in three satellites in 24-hr orbit around the earth could provide a worldwide TV network with multilingual audio channels. Safety factors and safety testing of both types of SNAP units are shown. Since the fuel of the isotopic devices is radioactive itself, the capsule has been designed to keep it sealed on the launching pad, during launch, and in orbit. The SNAP nuclear -reactor systems are being so designed that, after a useful long life in space, they will shut down, cool off radioactively for a long period, and finally burn up on reentry. The small amount of remaining activity will be widely dispersed safely in, the vast area of the outer atmosphere. SNAP systems also have uses in remote areas on land and sea. An unmanned generator that transmits weather data to permanent Canadian and U.S. weather stations is now in operation in the Canadian Arctic (see film "Atomic Weatherman"). A more powerful version of this unit, with a potential life of 10 years, is supplying power for an unmanned auto- matic weather station in the Antarctic. Other SNAP devices will be used for sea buoys, navigation beacons, and portable electric-power stations. The film also briefly summarizes some of the planned space efforts of the future which will use nuclear auxiliary power.Not in National Archives
This film depicts the growing need for nuclear power and describes the features of heavy water reactors for use in power production. The development program conducted by the Atomic Energy Commission on this reactor concept is described in detail. Design studies performed on promising heavy water reactor concepts established the technical feasibility and economic promise of this concept. A number of research tasks in the fields of fuel design, engineering of low leakage components, studies of ... Show more Show less
This film depicts the growing need for nuclear power and describes the features of heavy water reactors for use in power production. The development program conducted by the Atomic Energy Commission on this reactor concept is described in detail. Design studies performed on promising heavy water reactor concepts established the technical feasibility and economic promise of this concept. A number of research tasks in the fields of fuel design, engineering of low leakage components, studies of heat transfer and the physics of natural uranium heavy water systems were investigated in detail by Dupont and other research contractors to the USAEC. The facilities at the Savannah River Laboratory and at commercial laboratories used in this program are shown. Primary emphasis in the development program was placed on design of an inexpensive natural uranium fuel element for the heavy water reactor. Processes of fuel fabrication of both uranium metal and uranium oxide are described. To verify the results of the fuel development and other engineering programs a test reactor called a Heavy Water Components Test Reactor (HWCTR) was constructed at the Savannah River Plant. The film describes the construction of this reactor and outlines in detail the technical features and capabilities of the HWCTR and its special loop systems in demonstrating the heavy water reactor concept.MF20 9740. I found online but can't find catalog entry anywhere.
This film shows the setting and location of the reactor built jointly by USAEC and the Consumers' Public Power District of Nebraska. An explanation of this type of reactor, using a liquid metal coolant, is given stressing its advantages. The working of the plant is shown in animation. Live footage shows construction of the reactor containment vessel, its transportation from Philadelphia to Hallam, moderator fabrication and installation, installation and operation of safety rods, use of an int... Show more Show less
This film shows the setting and location of the reactor built jointly by USAEC and the Consumers' Public Power District of Nebraska. An explanation of this type of reactor, using a liquid metal coolant, is given stressing its advantages. The working of the plant is shown in animation. Live footage shows construction of the reactor containment vessel, its transportation from Philadelphia to Hallam, moderator fabrication and installation, installation and operation of safety rods, use of an intermediate heat exchanger, installation of steam piping and the installation of the turbine and generator. Also shown is fuel handling, cleaning and storage cells, fuel fabrication, and testing.- On YouTube (Special thanks to NPPD)
- Our announcement page
This semitechnical film states the Army's logistical need for mobile power, and shows how that need is partially filled by the design, construction, testing and field operation of a new transportable power rector plant, the ML-1. An explanation of the design of this gas-cooled, water-moderated reactor is given. Development of the reactor at the USAEC's National Reactor Testing Station, Idaho, is shown. The design and testing of the turbomachinery takes place at the Army Engineer Research and ... Show more Show less
This semitechnical film states the Army's logistical need for mobile power, and shows how that need is partially filled by the design, construction, testing and field operation of a new transportable power rector plant, the ML-1. An explanation of the design of this gas-cooled, water-moderated reactor is given. Development of the reactor at the USAEC's National Reactor Testing Station, Idaho, is shown. The design and testing of the turbomachinery takes place at the Army Engineer Research and Development Laboratory at Ft. Belvoir, Virginia. The film also covers the training of the operating crews, assembly of the ML-1, checkout and test run, testing of the transportability of the system using mock-ups, simulated transportation of the ML-1 to the field and its start-up and criticality- On YouTube (Digitized with a red tinge)
This film presents the background, planning, and construction of the Elk River Reactor for Minnesota's Rural Cooperative Power Association. After the rural background and setting are established, the planning of the reactor is shown. Animation is used to explain the principle of the boiling water reactor with conventional superheated steam. A comparison is made with the hot air heating system used in the home, and the reactor's control rods are compared with a thermostat. The reactor control ... Show more Show less
This film presents the background, planning, and construction of the Elk River Reactor for Minnesota's Rural Cooperative Power Association. After the rural background and setting are established, the planning of the reactor is shown. Animation is used to explain the principle of the boiling water reactor with conventional superheated steam. A comparison is made with the hot air heating system used in the home, and the reactor's control rods are compared with a thermostat. The reactor control room is shown. A "Scram" is explained. Fuel operations are also explained, as well as the air monitoring system.- Our announcement page
- On YouTube (Thanks to Last Energy!)
The Piqua Nuclear Power Facility is the first municipally owned power plant using steam produced by a USAEC nuclear reactor. This film gives an animated explanation of Piqua's reactor an organic moderated reactor and compares it with the liquid metal sodium graphite type reactor at Hallam, Nebraska, and the pressurized water reactor at Shippingport, Pa. Live action footage of the Organic Moderated Reactor Experiment at the National Reactor Test Station in Idaho is shown, as well as of the des... Show more Show less
The Piqua Nuclear Power Facility is the first municipally owned power plant using steam produced by a USAEC nuclear reactor. This film gives an animated explanation of Piqua's reactor an organic moderated reactor and compares it with the liquid metal sodium graphite type reactor at Hallam, Nebraska, and the pressurized water reactor at Shippingport, Pa. Live action footage of the Organic Moderated Reactor Experiment at the National Reactor Test Station in Idaho is shown, as well as of the design and construction of the Piqua facility.This is the semitechnical film-story of the 1500-kilowatt nuclear power station built, under contract to USAEC, for operation by the Navy at McMurdo Station, Antarctic headquarters for the joint Navy National Science Foundation Antarctic Research Project. PM-3A, the first atomic power station in the bleak Antarctic, supplies electric power and space heating for the isolated station. Use of nuclear power reduces the massive amounts of fuel oil for generating electricity that must be brought 1... Show more Show less
This is the semitechnical film-story of the 1500-kilowatt nuclear power station built, under contract to USAEC, for operation by the Navy at McMurdo Station, Antarctic headquarters for the joint Navy National Science Foundation Antarctic Research Project. PM-3A, the first atomic power station in the bleak Antarctic, supplies electric power and space heating for the isolated station. Use of nuclear power reduces the massive amounts of fuel oil for generating electricity that must be brought 11,000 miles by American tankers. PM-3A was designed, fabricated, and tested in 14 months. Details are given on the plant's pressure vessel, coolant, nuclear fuel, control rods, switch gear, heat-transfer equipment, turbogenerator, and many other major components. We see shots of the erection and testing of the reactor in the States, site preparation by Seabees in the Antarctic, erection and testing of the reactor at McMurdo, safety aspects, and achievement of criticality.This film is a 1962 progress report on the USAEC's Project Rover, a program for the development of a nuclear rocket for spacecraft propulsion. An animated explanation of the principle of the nuclear rocket is given demonstrating the advantages of the nuclear rocket system. A survey of the work at the Los Alamos Scientific Laboratory follows, showing work done in the design, fabrication and testing of a Kiwi non-flying test reactor. This includes: core configuration studies in a "Honeycomb," t... Show more Show less
This film is a 1962 progress report on the USAEC's Project Rover, a program for the development of a nuclear rocket for spacecraft propulsion. An animated explanation of the principle of the nuclear rocket is given demonstrating the advantages of the nuclear rocket system. A survey of the work at the Los Alamos Scientific Laboratory follows, showing work done in the design, fabrication and testing of a Kiwi non-flying test reactor. This includes: core configuration studies in a "Honeycomb," the reactor design staff at work, the test facilities, the blending of graphite and uranium for fuel, and construction of the reactor components by contractors. Testing of the Kiwi at the Nuclear Rocket Development Station in Nevada is shownThis nontechnical, documentary film, for junior-high-school through college-level audiences, covers the historical background, and the design, construction, sea trials, and initial port calls of the N.S. Savannah, the world's first nuclear-powered merchant ship. The film begins with a brief review of America's maritime growth, starting with May 22, 1819, and the story of the S.S. Savannah, the first ship to cross the ocean under steam power. The design of the N.S. Savannah and its atomic reac... Show more Show less
This nontechnical, documentary film, for junior-high-school through college-level audiences, covers the historical background, and the design, construction, sea trials, and initial port calls of the N.S. Savannah, the world's first nuclear-powered merchant ship. The film begins with a brief review of America's maritime growth, starting with May 22, 1819, and the story of the S.S. Savannah, the first ship to cross the ocean under steam power. The design of the N.S. Savannah and its atomic reactor and propulsion system are explained with animation and live action photography. After keel laying, various phases of the ship's construction are covered, and the assembling and testing of the reactor are explained. The ceremonies involving the launching of the ship are shown, followed by impressive scenes showing the loading of the reactor with its nuclear fuel under surgically clean conditions. The special training of the crew is reviewed. The film then shows the sea trials of the ship, during which time the reactor is slowly brought up to full power. After sea trials, the trip of the N.S. Savannah to her first port of call, Savannah, Georgia, is covered, followed by her voyage through the Panama Canal and visits to Hawaii and West Coast ports. As the ship leaves for foreign ports, the film ends with a statement by President Lyndon B. Johnson on the significance of the Nuclear Ship Savannah as a pioneer in the use of nuclear power for world trade to benefit all mankind.- Our announcement page
- On YouTube! (Thanks to Ross Koningstein for help)
- Related NARA file 88200 (This is the shorter version)
Basically a condensed version of 88153
- On YouTube (Special thanks to NPPD)
- Our announcement page
This technical film is the story of the design, construction, and operation of the Indian Point power station of the Consolidated Edison Co. of New York, one of the first nuclear power stations in the U. S. serving a large metropolitan area. The film describes and explains some of the theoretical concepts and operating characteristics of the world's first station using thorium as the fertile material, and including critical core experiments, core design and models, and on- location operationa... Show more Show less
This technical film is the story of the design, construction, and operation of the Indian Point power station of the Consolidated Edison Co. of New York, one of the first nuclear power stations in the U. S. serving a large metropolitan area. The film describes and explains some of the theoretical concepts and operating characteristics of the world's first station using thorium as the fertile material, and including critical core experiments, core design and models, and on- location operational plant scenes.A Geneva 1964 film produced by B&W
- Our announcement page
- On YouTube (Thanks to Last Energy!)
A Geneva 1964 film produced by Westinghouse
A Geneva 1964 film produced by GE
This film shows precisely how the AEC's 250-Mwt Advanced Test Reactor design utilizes multiple flux traps to achieve exceptionally high neutron density in nine independent test loop positions. Animations de- scribe the clover leaf, enriched fuel annulus that circumscribes the nine flux trap test positions, and the moving control components which vary flux and power in each test position. ATR was designed by Ebasco Services, Inc., as prime contractor, with Babcock & Wilcox Co. as nuclear subco... Show more Show less
This film shows precisely how the AEC's 250-Mwt Advanced Test Reactor design utilizes multiple flux traps to achieve exceptionally high neutron density in nine independent test loop positions. Animations de- scribe the clover leaf, enriched fuel annulus that circumscribes the nine flux trap test positions, and the moving control components which vary flux and power in each test position. ATR was designed by Ebasco Services, Inc., as prime contractor, with Babcock & Wilcox Co. as nuclear subcontractors. Phillips Petroleum Co. pre- pared the conceptual design, and will operate the reactor.In catalog, but can't find reels anywhere
- On YouTube (Thanks to the IAEA Lise Meitner Library for digitizing)
- Entry in AfP 1964 Delegation Report
- On YouTube (Thanks to IAEA Lise Meitner library for digitizing)
This nontechnical film, for all audience levels, tells how the National Reactor Testing Station in Idaho is furthering the USAEC's quest for economic nuclear power. Most of the more than 40 experimental nuclear reactors built, being built, or planned there are described either historically or currently, including the Navy's prototypes for the submarine Nautilus and aircraft carrier Enterprise; the internationally known testing reactor complex (MTR, ETR, ATR); the Idaho Chemical Processing Pla... Show more Show less
This nontechnical film, for all audience levels, tells how the National Reactor Testing Station in Idaho is furthering the USAEC's quest for economic nuclear power. Most of the more than 40 experimental nuclear reactors built, being built, or planned there are described either historically or currently, including the Navy's prototypes for the submarine Nautilus and aircraft carrier Enterprise; the internationally known testing reactor complex (MTR, ETR, ATR); the Idaho Chemical Processing Plant, the Army's mobile low power nuclear plant (ML-1); and the importance of breeding nuclear fuel as authorized by the two Experimental Breeder Reactor complexes, EBR-I and EBR-II. Also discussed are the USAEC's leading reactor safety programs SPERT and STEP (Special Power Excursion Reactor Test and Safety Test Engineering Program). The film also explains the basic principles of power reactor construction and operation in an animated sequence that is also available as a separate film titled, "Basic Principles of Power Reactor Operation.This film with an introduction by Dr. Glenn T. Seaborg, Chairman of the U. S. Atomic Energy Commission useful for both popular-level and technical audiences describes the scheduled flight test in space of the 500-watt SNAP-10A nuclear space power system. SNAP-lOAwill be mated to the forward end of an Atlas-Agena booster system and launched from Vandenberg Air Force Base, California. Primary objective of the SNAPSHOT flight, a cooperative effort of the Atomic Energy Commission and the United S... Show more Show less
This film with an introduction by Dr. Glenn T. Seaborg, Chairman of the U. S. Atomic Energy Commission useful for both popular-level and technical audiences describes the scheduled flight test in space of the 500-watt SNAP-10A nuclear space power system. SNAP-lOAwill be mated to the forward end of an Atlas-Agena booster system and launched from Vandenberg Air Force Base, California. Primary objective of the SNAPSHOT flight, a cooperative effort of the Atomic Energy Commission and the United States Air Force, is to obtain technical information and demonstrate the utility of nuclear reactor power systems for application in America's space programs. Atomics International is the U. S. Atomic Energy Commission's prime contractor for SNAP-10A development. Orbital startup and operation in space of the reactor and the thermoelectric power converter is explained by animation. Highlighted in this film is the extensive development and testing program which has resulted in the flight-ready SNAP-10A power system. A series of qualification system tests, including a full-scale nuclear system ground test in a simulated space environment, is reviewed and summarized. This series of tests duplicated the environments the flight system will endure through factory assembly, shipping, launch, and orbit operation. The film explains the need for SNAP reactor power systems in current and future space projects.Nowadays ANL calls hydrogen the fuel of the future...
- On YouTube (Derived from IU version)
- Digitized in pieces at Indiana University (Needs audio/video to be combined)
- On YouTube (We assembled this from the IU scans)
- Available with split audio/video at IU
In order to travel in space, man must take his own environment with him. This requires power to supply oxygen, drinking water, air conditioning, lighting and to operate communication systems; in short: power to maintain equipment and sustain life itself. Simulating the earth's environment is by no means a new idea. Crews of nuclear submarines live in health and comfort for months at a time while submerged in a hostile environment. This is possible because nuclear energy provides a source of c... Show more Show less
In order to travel in space, man must take his own environment with him. This requires power to supply oxygen, drinking water, air conditioning, lighting and to operate communication systems; in short: power to maintain equipment and sustain life itself. Simulating the earth's environment is by no means a new idea. Crews of nuclear submarines live in health and comfort for months at a time while submerged in a hostile environment. This is possible because nuclear energy provides a source of continuous, uninterrupted power. Space voyagers, too, need this same kind of power, and this is where SNAP-8 comes in — using a mercury-vapor turbo-generator system to convert heat from a nuclear reactor into useful electricity. The film shows the principal components and, in animation, illustrates and explains the operation of the system. Actual fabrication of components and subsystems is also shown, as well as the extensive testing programs currently underway. Thus, SNAP-8 is not a drawing on a drafting table, but a technological reality. Animation sequences are used to depict potential missions of the SNAP-8 system, including power for: TV satellites to broadcast all over the earth, orbiting space stations to support earth observation and space research, maintenance of permanent lunar bases, and manned explorations beyond the moon.- On YouTube (Thanks to IAEA Lise Meitner library for digitizing)
In IAEA catalog.
- Our announcement page
- On YouTube! (Thanks to Brett Rampal for making this happen)
In IAEA catalog
- On YouTube! (Uploaded 4 days before I made this DB entry... eerie!)
- Other copy? (Worth asking NARA which one is easier/better)
States briefly the organization and role of USAEC and its national laboratories and responsibilities in develop ing the peaceful uses and national security uses of the atom. Then, point by point, we learn of each type of nuclear application and its effect on science and technology: the raw materials of atomic energy; the role of the three gaseous diffusion plants; the work to produce plutonium the development and underground testing of nuclear weapons under the terms of the limited nuclear te... Show more Show less
States briefly the organization and role of USAEC and its national laboratories and responsibilities in develop ing the peaceful uses and national security uses of the atom. Then, point by point, we learn of each type of nuclear application and its effect on science and technology: the raw materials of atomic energy; the role of the three gaseous diffusion plants; the work to produce plutonium the development and underground testing of nuclear weapons under the terms of the limited nuclear test ban treaty; the Plowshare program to develop peaceful uses of nuclear explosives; production of nuclear fuel for atomic reactors; building nuclear power plants; the use of nuclear power to propel surface ships and submarines; development work on the nuclear rocket for future space exploration; the production of radioisotopes and their applications for medical diagnosis and therapy, in agriculture, industry, food pasteurization and the development of an improved wood; radioisotopes to operate the equipment at isolated weather stations, for buoys and lighthouses, and in satellites circling the earth; the work with giant atom smashers to study the basic nature of matter, research into the fusion of atoms to achieve almost unlimited power; the sharing of technical information.Won 11th CINE Golden Eagle International Award, catalog entry in combined 1972
In IAEA catalog
This film covers Project Gnome the first nuclear detonation conducted under the USAEC's Plowshare Program for development of peaceful uses of nuclear explosives from its planning stage through the early months of the post-detonation period when scientists entered the man-created cavern. Project Gnome was an experiment under the technical direction of the Lawrence Radiation Laboratory involving the detonation on December 10, 1961, of a 3.1 kiloton nuclear explosive in a chamber about 1200 feet... Show more Show less
This film covers Project Gnome the first nuclear detonation conducted under the USAEC's Plowshare Program for development of peaceful uses of nuclear explosives from its planning stage through the early months of the post-detonation period when scientists entered the man-created cavern. Project Gnome was an experiment under the technical direction of the Lawrence Radiation Laboratory involving the detonation on December 10, 1961, of a 3.1 kiloton nuclear explosive in a chamber about 1200 feet below the earth's surface in the Salado Salt Basin, a thick subsurface salt bed about 25 miles southeast of Carlsbad, New Mexico. The force of the explosion created an underground cavern which today measures about 170 feet across and almost 90 feet high. Animation is used to explain the scope of Project Gnome and its integrated scientific and technical programs. Project Gnome, one of the most heavily instrumented nuclear detonations ever conducted, was designed to provide scientific and technical information on ive objectives: (1) To determine characteristics and physical effects of underground detonations in a salt medium; (2) to explore feasibility of converting energy produced into electricity; (3) to make neutron cross-measurements which would contribute to scientific knowledge; (4) to provide information on design of nuclear explosives for peaceful purposes; and, (5) to investigate the practicability of recovering useful radioisotopes. Topics covered: geological and safety considerations explored in selection of the Gnome site; drilling and construction of the shaft, underground access tunnel and shot chamber; the surface installations; special monitoring and other programs conducted to afford safety to the public; the seismic and radiological monitoring programs; principal equipment and instrumentation installation in support of the complex scientific experiments; the pre-shot news media tour; the surface movement above ground zero at the moment of detonation; the escape of vapor from the shaft; recovery of scientific data and equipment; and entry into the underground cavity in May 1962. Dr. Edward Teller, University of California nuclear physicist, discusses the objectives of the Plowshare Program and the preliminary results of Project Gnome in the opening and closing scenes.Lots of Edward Teller talking
Sounds kind of like those new timber buildings. In IAEA catalog.
- On YouTube! (Digitized by the IAEA Lise Meitner library)
- On YouTube (Thanks to Asa Briggs)
- Short clip on critical path
Shows man's historic and growing hunger for water and a dramatic solution to this great challenge --- the Agro Industrial Complex. With the nuclear reactor as the energy source and the desalting plant as the fresh water source, tomorrow's coastal deserts may be transformed into self-sustaining mammoth nuclear powered agro industrial centers consisting farms and industrial plants. Nuclear power reactors will pump millions of gallons of water from the sea and provide the heat to desalt it. At t... Show more Show less
Shows man's historic and growing hunger for water and a dramatic solution to this great challenge --- the Agro Industrial Complex. With the nuclear reactor as the energy source and the desalting plant as the fresh water source, tomorrow's coastal deserts may be transformed into self-sustaining mammoth nuclear powered agro industrial centers consisting farms and industrial plants. Nuclear power reactors will pump millions of gallons of water from the sea and provide the heat to desalt it. At the same time low cost nuclear energy will produce electricity to help extract and process the ocean's mineral wealth. Electricity from nuclear energy will power plants that produce fertilizers. Fertilizers and fresh, desalted water for irrigation will enrich lands where no crops have grown for centuries. Designed to convert waste lands into new lands of desert agriculture and to provide new industries and new jobs, the proposed Agro industrial complex will raise the standard of living for millions of people.First Place, US Industrial Film Festival, Chicago
Filmed primarily at the ERDA Y-12 Plant in Oak Ridge, the motion picture introduces new employees in nuclear production plants to the concept of nuclear fission and criticality , and explains the reasons for safety procedures that are observed in the handling of enriched uranium and other fissionable materials. The film will be understood by persons with or without a technical background. Its contents include: an animated sequence which explains the difference between U-238 and U-235, and th... Show more Show less
Filmed primarily at the ERDA Y-12 Plant in Oak Ridge, the motion picture introduces new employees in nuclear production plants to the concept of nuclear fission and criticality , and explains the reasons for safety procedures that are observed in the handling of enriched uranium and other fissionable materials. The film will be understood by persons with or without a technical background. Its contents include: an animated sequence which explains the difference between U-238 and U-235, and the concepts of nuclear fission and criticality; a brief summary of the uses of enriched uranium; animated sequences explaining how criticality may be prevented by proper handling procedures; scenes of persons working with U-235 in various forms (gas, powder, metal, liquid) in several work areas; emergency procedures; and a few scenes of U-233 and plutonium work areasMay be worth rescanning from 16mm at NARA for better picture quality.
- On YouTube (Low quality VHS transfer. Thanks to Ronald Knief.)
Gives the student a picture of the professional environment in which he would be working if he chose a career in nuclear science or engineering The three major employment areas covered are ERDA's laboratories commercial nuclear industries and colleges and universities. Each has a need for trained manpower in nuclear science and technology. The need for creative ideas is essential to the development of nuclear energy whether it be in basic or applied research. In a fast moving field such as nu... Show more Show less
Gives the student a picture of the professional environment in which he would be working if he chose a career in nuclear science or engineering The three major employment areas covered are ERDA's laboratories commercial nuclear industries and colleges and universities. Each has a need for trained manpower in nuclear science and technology. The need for creative ideas is essential to the development of nuclear energy whether it be in basic or applied research. In a fast moving field such as nuclear technology the professional person is expected to prepare reports for scientific and technical journals, attend national or international meetings, and maintain contact with other specialists in his field to stay abreast of the latest developments. For those more interested in the production and development side of the nuclear business there are numerous opportunities in the growing nuclear power industry. The advantages of and the opportunities for continuing education are again emphasized. One of three films in nuclear science and nuclear engineering produced with the assistance of the American Nuclear Society. The basic purpose of these three films is to motivate students in their formative years to consider careers in the field of nuclear science and engineering. Use with HORIZONS UNLIMITED and PREPARING FOR TOMORROW'S WORLD"- On YouTube (Thanks to IAEA Lise Meitner library for digitizing)
Cartoon on nuclear power. Measure of civilization is amount of power available to work for us. Power made from heat, mostly generated by burning coal or oil. In the future, from atomic fission. Atoms. The fission process. Radioactivity. Atomic core comprised of protons and neutrons. Binding energy holds it together. Electron shells. Atomic number. Atomic weight is sum of protons and neutrons. Varying the number of neutrons leads to isotopes of the same element. Most natural uranium is U-238, ... Show more Show less
Cartoon on nuclear power. Measure of civilization is amount of power available to work for us. Power made from heat, mostly generated by burning coal or oil. In the future, from atomic fission. Atoms. The fission process. Radioactivity. Atomic core comprised of protons and neutrons. Binding energy holds it together. Electron shells. Atomic number. Atomic weight is sum of protons and neutrons. Varying the number of neutrons leads to isotopes of the same element. Most natural uranium is U-238, but it has high binding force and is not suitable for fuel. U-235 easier to split. Fission causes release of radiation and heat. Fermi produced first controlled chain reaction in 1942. U-238 can be changed to U-239, Thorium to U-233 by adding neutron to a fertile material (U-238 or Thorium), resulting in a fissionable material. This takes place in all reactors, but process is accelerated in a breeder reactor, which produces more fuel than it uses. Produced in co-operation with Niagara Mohawk.Note duplicate titles. This is not AVN 0649 from IAEA catalog either.
- On YouTube (Digitized by miSci, Schenectady, NY)
A short documentary produced at the Ginna Station of Rochester Gas and Electric Corp. This nuclear plant was built by Westinghouse. Planning for refueling started Sept. 1970. Shutdown Feb. 26, 1971. Refueling plus disassembly and inspection of nuclear and electrical components. Core removed, replaced by water that acts as coolant and radiation shield. Fuel removed to storage area. Fuel bundles described. Inspection of fuel bundles. New fuel loaded. one-third of core replaced every 13 months.... Show more Show less
A short documentary produced at the Ginna Station of Rochester Gas and Electric Corp. This nuclear plant was built by Westinghouse. Planning for refueling started Sept. 1970. Shutdown Feb. 26, 1971. Refueling plus disassembly and inspection of nuclear and electrical components. Core removed, replaced by water that acts as coolant and radiation shield. Fuel removed to storage area. Fuel bundles described. Inspection of fuel bundles. New fuel loaded. one-third of core replaced every 13 months. Overhaul of main coolant pumps, repacking of all valves. Disassembly of 666,000 hp turbine. Disassembly and inspection of generator, main fuel pumps and condensate pumps. Startup May 1971.- On YouTube (Digitized by miSci, Schenectady, NY)
- On YouTube (Digitized by miSci, Schenectady, NY)
- On YouTube (Thanks to Ron Knief and Suzanne Wehrenberg)
- On YouTube (Thanks to Aalo Atomics)
- On YouTube (Thanks to Aalo Atomics)
- On YouTube (Thanks to Aalo Atomics)
- On YouTube (Thanks to Ron Knief)
- On YouTube (Thanks to Aalo Atomics)
- On YouTube (Thanks to Ron Knief and Suzanne Wehrenberg)
- On YouTube (Thanks to Ron Knief)
- Digitization Announcement and Summary
- On YouTube (Thanks to Aalo Atomics)
- On YouTube (Thanks to Ron Knief)
Great music
- On YouTube (Digitized by miSci, Schenectady, NY)
- On YouTube (Thanks to Aalo Atomics)
- On YouTube (Thanks to Ron Knief)
- On YouTube (Thanks to Ron Knief)
- Digitization Announcement and Summary
- On YouTube (Thanks to Ron Knief)
- Digitization Announcement and Summary
- On YouTube (Thanks to Aalo Atomics)
- On YouTube (Thanks to Aalo Atomics)
- On YouTube (Thanks to Aalo Atomics)
- On YouTube (Thanks to Aalo Atomics)
- On YouTube (Thanks to Aalo Atomics)
- On YouTube (Thanks to Aalo Atomics)
- On YouTube (Thanks to Aalo Atomics)
- Our transcription (Thanks to Aalo Atomics)
- On YouTube (Thanks to Aalo Atomics)
- On YouTube (Thanks to Aalo Atomics)
- On YouTube (Thanks to Aalo Atomics)
Videos not yet digitized in order of want
The ones with non-blank NARA IDs are readily available for scanning given funding.
Filmed in USSR. Sounds awesome
Listed in Archives FY2024 Q4 release list with no description but very likely shows the aircraft reactor prototype HTRE-3 in Idaho. HTRE is high temperature reactor experiment. FET is Flight Engine Test.
No idea where to find a copy
- Nuclear Icebreaker "Lenin" (In Russian)
In IAEA catalog.
One of the rarest basic research programs now gripping the minds of nuclear physicists the world over is controlled thermonuclear fusion After more than a quarter century of research and experiment scientists believe they are close to demonstrating the scientific feasibility of the fusion concept. This film depicts the theoretical challenge of such controlled fusion and describes many of the research machines that are being used to investigate plasmas of thermonuclear regimes It also touches... Show more Show less
One of the rarest basic research programs now gripping the minds of nuclear physicists the world over is controlled thermonuclear fusion After more than a quarter century of research and experiment scientists believe they are close to demonstrating the scientific feasibility of the fusion concept. This film depicts the theoretical challenge of such controlled fusion and describes many of the research machines that are being used to investigate plasmas of thermonuclear regimes It also touches upon what environmental and economic advantages may accrue from future fusion power reactors The film also includes descriptions of the four major American fusion devices Two X Two Astron Scyllac and ORMAK as well as discussions on the modeling of plasmas by such internal ring machines as the DC Octupole and the SpheratorThis film won many honors at film festivals
From French CEA. May be in French
Listed in Archives FY2024 Q4 release list with no description but very likely shows the Contained Test Facility as it relates to the aircraft reactor program in Idaho.
Silent film. No description, but likely shows Rickover's land-based prototype for the Nautilus!
Film depicts the materials and components irradiation experiments in the reactor operations area at Convair Fort Worth Texas. 1) ALS's nuclear aircraft research facility. 2) LS nuclear reactor operations area. 3) MS reactor handling pool. 4) MCU boral box. 5) Series of charts of boral box cutaway, showing: irradiation chamber, wiring outlets, fan, cooling coil, heating elements, and insulation. 6) Chart of boral sheets. 7) MS boral box man walks in, picks up sample tray. 8) MCU man with sampl... Show more Show less
Film depicts the materials and components irradiation experiments in the reactor operations area at Convair Fort Worth Texas. 1) ALS's nuclear aircraft research facility. 2) LS nuclear reactor operations area. 3) MS reactor handling pool. 4) MCU boral box. 5) Series of charts of boral box cutaway, showing: irradiation chamber, wiring outlets, fan, cooling coil, heating elements, and insulation. 6) Chart of boral sheets. 7) MS boral box man walks in, picks up sample tray. 8) MCU man with sample tray. 9) CU sample trays first, with "O" rings. 10) CU second sample tray with honeycomb. 11) CU third sample tray with electronic tubes. 12) MS man puts samples in boral box. 13) LS handling pool. 14) MS work bridged showing lead shield. 15) MS work bridged showing lead cave and refrigeration unit. 16) MS handling pool and work bridge. 17) LS reactor bridge. 18) MCU reactor control mechanism. 19) Reactor Bridge. 20) MS boral box moved by overhead crane. 21) MCU boral box lowered on guide tower. 22) MS top of guide tower -- shows positioning device. 23) MS boral box under water. 24) LS reactor bridge rolled into place. 25) MLS weather cover moves over reactor. 26) MS reactor control console and operator. 27) CU reactor control console. 28) ECU start button pushed. 29) MCU reactor operator starts power runup. 30) MCU ground test reactor going to power, shows core blowing (Cerenkov radiation) 31) MCU boral box comes out of pool after irradiation. 32) MCU boral box lowered to lead cave. 33) MCU boral box moves into lead cave on self-propelled dolly. 34) MS gold foil detector removed by operator. 35) CU gold foil holder. 36) MS operator pushes door removal device in place. 37) CU door to boral box unlocked. 38) CU door removed. 39) MS operator reaches through field to unlatch door removal device. 40) MCU door removal device swings out of the way. 41) MCU operator puts tool through shield. 42) CU sample rack pushed into place. 43) MCU operator puts tool through shield. 44) MCU tool pulls sample tray out of boral box. 45) MCU operator puts tool through shield. 46) MCU sample tray removed from door of box. 47) MS shielded fork lift carrying irradiated samples -- -- era follows vehicle. 48) MS fork lift enters irradiated materials laboratory. 49) MS laboratory technician tests electronic components. 50) MCU capacitors being tested. 51) Series of shots as laboratory technician tests electronic components, adjusts megaohm bridge, and records test results. 52) MS technician conducts tension test. 53) CU tensile specimen breaking. 54) MS technician conducts tension test. 55) Sequence of shots of tube filled with oil for viscosity test, chemist placing tube in viscometer and starting clock. 56) MS man at drafting table. Second man walks in, carrying data handbook on: Radiation Effects On Materials and Components. 57) MLS B-58 in flights airplane moves away from camera. (Excellent coverage) 58) LS B-58 in flight, clouds in bg. (Excellent coverage) PRODUCED BY THE MOTION PICTURE SECTION, CONVAIR-FORT WORTH, AND THE NUCLEAR AIRCRAFT RESEARCH FACILITY AT CONVAIR-FORT WORTH. Good (Basic: Mas Koda, Ng. trk.)There's also a French soundtrack
A documentary report on the testing of small scale models for Project Orion, which is the study of a method of propelling multi-ton vehicles into space by means of a series of nuclear detonations. 1) Shows preparation and testing of single explosion models suspended from a tower. 2) Details of reverse shock absorber built of polystyrene pads. 3) Shows operation of the multiple charge ejection system. 4) Fastex camera footage of one, two and three-shot tests in the suspension tower. 5) Fastex ... Show more Show less
A documentary report on the testing of small scale models for Project Orion, which is the study of a method of propelling multi-ton vehicles into space by means of a series of nuclear detonations. 1) Shows preparation and testing of single explosion models suspended from a tower. 2) Details of reverse shock absorber built of polystyrene pads. 3) Shows operation of the multiple charge ejection system. 4) Fastex camera footage of one, two and three-shot tests in the suspension tower. 5) Fastex and normal speed footage of a five-shot free flight test with a model weighing 250 pounds. 6) Fastex and normal speed footage of a six-shot test -- shows the successful parachute recovery system operation.This technical film describes the nature of thermonuclear research as illustrated by many of the current investigations of plasma production and confinement. The major obstacles to success are plasma oscillations and instabilities which result in plasma loss from the magnetic containers. The film gives a qualitative description of some of the instabilities, of energy loss through charge exchange and radiation due to contaminants; and also describes plasma measurements, which are now very soph... Show more Show less
This technical film describes the nature of thermonuclear research as illustrated by many of the current investigations of plasma production and confinement. The major obstacles to success are plasma oscillations and instabilities which result in plasma loss from the magnetic containers. The film gives a qualitative description of some of the instabilities, of energy loss through charge exchange and radiation due to contaminants; and also describes plasma measurements, which are now very sophisticated. Several research devices in the United States on which progress has been encouraging are described in the film.Geneva 1964 film
Designed for high school through college-level audiences, this film surveys the role of the USAEC in guiding and supporting the nation's atomic energy programs. It reviews many of those programs, including both the peaceful applications of nuclear energy and those involved in national defense. The film opens with a visit to the community of Buchanan, New York, site of Consolidated Edison's Indian Point atomic power station. The enlightened attitude of the community toward the atomic plant is... Show more Show less
Designed for high school through college-level audiences, this film surveys the role of the USAEC in guiding and supporting the nation's atomic energy programs. It reviews many of those programs, including both the peaceful applications of nuclear energy and those involved in national defense. The film opens with a visit to the community of Buchanan, New York, site of Consolidated Edison's Indian Point atomic power station. The enlightened attitude of the community toward the atomic plant is revealed as the camera visits the mayor of the town, teachers and school children, housewives, businessmen and plant personnel. Following a review of the atom's place in national defense, the film goes into the mining of uranium and processing into fissionable materials. It then explores the broad role of the USAEC, briefly discussing the make-up of the Commission and showing an actual Commission meeting in session, as the Commissioners, General Manager and Director of Regulation engage in an important discussion involving aerospace safety. The USAEC 's responsibility in all facets of atomic safety is covered as the film shows the testing of a nuclear power source for a space satellite and the design and testing of a power reactor. The processing and storage of radioactive waste is discussed. After reviewing some aspects of the peaceful uses of nuclear explosives, including Projects Sedan and Gnome, the film next turns to a survey of radioisotopes and their many applications. Isotope production at Oak Ridge is shown. Some of the uses of radioisotopes in medicine are demonstrated at the hospital at USAEC's Brookhaven National Laboratory. Some agricultural applications of radioisotopes are shown, including the irradiation of the screwworm fly and the use of radiation for food preservation. The radioisotope as a source of power is covered during a brief review of the SNAP (Systems for Nuclear Auxiliary Power) program. After a visit to Brookhaven National Laboratory to explore some aspects of high energy physics at the Alternating Gradient Synchrotron, the film concludes with some statements by Dr. Glenn T. Seaborg, Chairman of the USAEC, concerning the important future of the nation's atomic energy program and the role the atom will play in benefiting all mankind.There are three NAIDs for this one, 88180, 88181, and 88182. It's probably on more than one film reel due to length.
This film traces the history of power sources for propulsion from Watt's tea kettle to atomic rocket engines. The major steps are covered: Goddard's 1926 rocket engine, the German V-2's, U. S. Aerobees and Vikings, the Soviet 1957 Sputnik followed by the first astronauts and then reactor power for ships. The importance of Robert Goddard's liquid rocket and Enrico Fermi's atomic pile is stressed, with particular emphasis upon the inevitable fusion of these two great power sources into one mass... Show more Show less
This film traces the history of power sources for propulsion from Watt's tea kettle to atomic rocket engines. The major steps are covered: Goddard's 1926 rocket engine, the German V-2's, U. S. Aerobees and Vikings, the Soviet 1957 Sputnik followed by the first astronauts and then reactor power for ships. The importance of Robert Goddard's liquid rocket and Enrico Fermi's atomic pile is stressed, with particular emphasis upon the inevitable fusion of these two great power sources into one massive propulsion system. Animation sequences are used to illustrate principles of rocketry, Newton's Law of Motion and operation of nuclear rocket engines. Actual development of NERVA, Nuclear Engine for Rocket Vehicle Application, is shown, including its first test firing at the AEC-NASA Nuclear Rocket Development Station in Jackass Flats, Nevada. Finally, U. S. developments for deep space payload missions to the moon, a fly-by of Mercury, then Venus, Mars and beyond for new insights into the universe.Because radioactive materials are being shipped throughout the world in increasing quantities, research programs are being conducted to develop shipping containers for radioactive materials which are virtually accident- safe. In support of these programs, the United States Atomic Energy Commission has asked its contractors to submit designs for containers. Sandia Corporation of Albuquerque, New Mexico, has designed and tested a wooden outer shell for existing metal containers which will withs... Show more Show less
Because radioactive materials are being shipped throughout the world in increasing quantities, research programs are being conducted to develop shipping containers for radioactive materials which are virtually accident- safe. In support of these programs, the United States Atomic Energy Commission has asked its contractors to submit designs for containers. Sandia Corporation of Albuquerque, New Mexico, has designed and tested a wooden outer shell for existing metal containers which will withstand a 30-foot drop, a one-hour petroleum fire, and 24-hour water immersion without the seal of the inner metal container of radioactive material being broken. This technical film report shows the development and testing of the wooden containers as well as the buildup of the containers from rings of plywood. Photography of actual drop tests and fire tests is included to demonstrate the resistance of the container to both impact shock and fire exposure. Results of tests show that a container having six-inch thick shells of fir plywood will adequately protect the inner metal container of radioactive material.Tells the story of the development during World War II of the Hanford Engineer Works in Southeastern Washington. The construction of the billion dollar plant was based on the discovery in 1941 of the new element 94, plutonium, in California by Dr. Glenn T. Seaborg and the demonstration of the first successful nuclear chain reaction in Chicago by Dr. Enrico Fermi in 1942. Hanford's broad research efforts in the fields of metallurgy, radiation effects, biology, aquatic biology, atmospheric phys... Show more Show less
Tells the story of the development during World War II of the Hanford Engineer Works in Southeastern Washington. The construction of the billion dollar plant was based on the discovery in 1941 of the new element 94, plutonium, in California by Dr. Glenn T. Seaborg and the demonstration of the first successful nuclear chain reaction in Chicago by Dr. Enrico Fermi in 1942. Hanford's broad research efforts in the fields of metallurgy, radiation effects, biology, aquatic biology, atmospheric physics and other peaceful uses of atomic energy are summarizedIn IAEA catalog
The film describes in detail the most extensive and complete post-irradiation programme ever performed on an expended commercial power-reactor core. It explains the procedure used to select fuel assemblies and individual fuel rods so that, with inherent core symmetries taken into account, a three-dimensional map of measured burn up and isotopic content could be constructed and compared against predictions. Also shown is how volatile fission-produced gases are drawn from sealed fuel rods to be... Show more Show less
The film describes in detail the most extensive and complete post-irradiation programme ever performed on an expended commercial power-reactor core. It explains the procedure used to select fuel assemblies and individual fuel rods so that, with inherent core symmetries taken into account, a three-dimensional map of measured burn up and isotopic content could be constructed and compared against predictions. Also shown is how volatile fission-produced gases are drawn from sealed fuel rods to be measured, and how rods are selectioned to obtain cladding samples for metallography.In IAEA catalog
'Otto Hahn' is the first nuclear propelled ship in Germany, which went critical in 1968. As a research vessel, it is being used to accumulate and evaluate operational experience for the development of a new, improved generation of nuclear ships. The film describes the nuclear reactor system of the ship throughout the phases of designing, testing and assembling of components, and the operation of the various reactor systems. Especial emphasis is placed on the reactor core and the control rods,... Show more Show less
'Otto Hahn' is the first nuclear propelled ship in Germany, which went critical in 1968. As a research vessel, it is being used to accumulate and evaluate operational experience for the development of a new, improved generation of nuclear ships. The film describes the nuclear reactor system of the ship throughout the phases of designing, testing and assembling of components, and the operation of the various reactor systems. Especial emphasis is placed on the reactor core and the control rods, the primary and secondary shielding, the safety containment, and the fuel system.In IAEA catalog
Film is silent! But still sounds cool
With coal , gas and oil in limited supply , where will we turn to satisfy our future expanding energy needs? Some scientists believe it may be the thermonuclear process, called fusion, that powers the sun. This fusing of atoms releases large amounts of energy. Scientists at ERDA laboratories and elsewhere in the world are seeking to control the fusion process to generate electricity. Dr. Robert L. Hirsch, Director of ERDA's Division of Controlled Thermonuclear Research, explains that fusi... Show more Show less
With coal , gas and oil in limited supply , where will we turn to satisfy our future expanding energy needs? Some scientists believe it may be the thermonuclear process, called fusion, that powers the sun. This fusing of atoms releases large amounts of energy. Scientists at ERDA laboratories and elsewhere in the world are seeking to control the fusion process to generate electricity. Dr. Robert L. Hirsch, Director of ERDA's Division of Controlled Thermonuclear Research, explains that fusion fuel-a form of hydrogen found in ordinary seawater-is virtually in limitless supply. But there are enormous technical problems yet to overcome. Fusion fuels must be heated to 100-million degrees to form a special kind of gas, called a plasma, so hot that no solid material can contain it. Scientists, therefore, have turned to magnetic fields as the fusion- plasma container. But what bottle shape will be most effective? Dr. Harold Furth explains that at Princeton University doughnut-shaped magnetic bottles are being studied as a means of avoiding plasma leakage from ends in the effort to eventually develop a power-producing commercial fusion reactor. The film explains that fusion power stations would be safe, environmentally attractive, and could be located in heavily populated urban areas where power needs are the greatest. Dr. Hirsch notes other promising lines of research-for example: laser beams to trigger the fusion reaction without magnetic fields , or direct conversion of plasma energy into electrical energy. But there is much research yet to be done internationally before fusion power can be achieved on a commercial basis, hopefully before the turn of the century.This nontechnical film, suitable for all audience levels, summarizes the nature of the USAEC exhibit on atomic energy in agriculture at the first World Agricultural Fair, New Delhi, during the winter 1959-60. Various views show the crowds examining the research reactor, master-slave manipulator, the gamma pool, the technical information center, and exhibits featuring radioactive tracers in agricultural research, plant mutations by gamma irradiation, atomic energy work in medicine, screwworm f... Show more Show less
This nontechnical film, suitable for all audience levels, summarizes the nature of the USAEC exhibit on atomic energy in agriculture at the first World Agricultural Fair, New Delhi, during the winter 1959-60. Various views show the crowds examining the research reactor, master-slave manipulator, the gamma pool, the technical information center, and exhibits featuring radioactive tracers in agricultural research, plant mutations by gamma irradiation, atomic energy work in medicine, screwworm fly eradication, food sterilization by irradiation, etc.This semitechnical documentary film, a story of teamwork in research, is designed for an audience with an appreciable degree of scientific sophistication, primarily seniors and graduate students in the physical sciences and engineering. Highlights in the operations of the Ames Laboratory, a major installation of the USAEC, are shown by illustrating the steps in the development of the process for the production of yttrium metal. The film also gives insight into the facilities and the pioneerin... Show more Show less
This semitechnical documentary film, a story of teamwork in research, is designed for an audience with an appreciable degree of scientific sophistication, primarily seniors and graduate students in the physical sciences and engineering. Highlights in the operations of the Ames Laboratory, a major installation of the USAEC, are shown by illustrating the steps in the development of the process for the production of yttrium metal. The film also gives insight into the facilities and the pioneering tradition of Ames Laboratory in the investigation of the rare earths. The film is panoramic in style, showing how basic research, development, and production go along together. The following steps in metal processing are shown: separation of yttrium from rare earths, conversion to fluoride, reduction, and arc melting. Special emphasis is given to purity and to the need for careful analytical control. The film also shows how the graduate student fits into the laboratory's research program.Reached out to Ames to see if they want to fund digitization
This semitechnical film surveys the current widespread uses of radio- isotopes throughout American industry. Three major areas of use are described: nuclear gauging (thickness, density, and level), radiography, and tracing with various examples of each filmed at 26 sites nation-wide, including the rubber industry, thin strip metal production, plastics, paper mills, nylons, food canning, cement, submarine construction, oil industry, automobiles, etc. Covered briefly are luminescence, static el... Show more Show less
This semitechnical film surveys the current widespread uses of radio- isotopes throughout American industry. Three major areas of use are described: nuclear gauging (thickness, density, and level), radiography, and tracing with various examples of each filmed at 26 sites nation-wide, including the rubber industry, thin strip metal production, plastics, paper mills, nylons, food canning, cement, submarine construction, oil industry, automobiles, etc. Covered briefly are luminescence, static elimination, isotopic power, and uses of high-intensity radiation. Basic principles are explained by animation, followed by examples of in-plant uses. Benefits to the consumer and manufacturer are high-lighted. The excellent safety record is noted. The film, although of interest to a wide audience, is designed to acquaint industrial management with the versatility, economy, and ease with which radioisotope techniques can be adapted to plant requirementsThis popular-level film, narrated by news commentator John Daly, surveys the widespread use of radioisotopes by American industry to make better products from ships to nylon hose more efficiently and with an impressive record of safety. By means of animation and live action, the film explains what radioisotopes are and how they are used to (1) measure and control the thickness of sheet materials, (2) measure densities of materials, (3) control product quality, (4) increase flexibility and mob... Show more Show less
This popular-level film, narrated by news commentator John Daly, surveys the widespread use of radioisotopes by American industry to make better products from ships to nylon hose more efficiently and with an impressive record of safety. By means of animation and live action, the film explains what radioisotopes are and how they are used to (1) measure and control the thickness of sheet materials, (2) measure densities of materials, (3) control product quality, (4) increase flexibility and mobility of industrial radiography (taking X-ray type pictures to assure safe construction), and (5) act as tracers to follow physical movement and chemical reactions. Examples are given of thickness gauges of nylon cord-rubber ply for automobile tires, sheet plastic, and cord-rolled alloy sheets for computers and space-age instruments, as well as examples of gauges which measure densities without shutdown (such as gauges that measure sugar content in applesauce, fat content, and moisture content in soil) and which measure the level of liquids in cans. Industrial radiography with radioisotopes is illustrated with the work on submarines. Uses of radioisotope tracers are explained for engine-wear studies, product movement in oil pipelines, leak detection in pipelines, etc. status: Not digitizedThis semitechnical film offers an extensive tour of the facilities of the Puerto Rico Nuclear Center (operated for the USAEC by the University of Puerto Rico) and a study of the Center's curricula and research programs. The Center was conceived primarily to aid the Latin American nations in developing skills essential to nuclear energy activity, by providing graduate- and post graduate-level education and research opportunities. At the Center's Bio-Medical building, work is shown involving ra... Show more Show less
This semitechnical film offers an extensive tour of the facilities of the Puerto Rico Nuclear Center (operated for the USAEC by the University of Puerto Rico) and a study of the Center's curricula and research programs. The Center was conceived primarily to aid the Latin American nations in developing skills essential to nuclear energy activity, by providing graduate- and post graduate-level education and research opportunities. At the Center's Bio-Medical building, work is shown involving radioisotopes and their clinical applications, and other nuclear work related to biology, chemistry, and medicine is reviewed. Study and research in nuclear engineering and technology, health physics, agriculture and marine biology are shown at the Center's reactor and laboratories located on the campus of the University of Puerto Rico's College of Agriculture and Engineering, and aboard the Center's oceanographic ship.This film describes the design, development and operation of the alternating gradient synchrotron (AGS) at Brookhaven National Laboratory, shows the various major components of this 33 billion-electron-volt particle accelerator, and explains how the high energy protons produced in the machine are used in physical research. An actual experiment is seen, in which the particle beam is guided into a bubble chamber and the resultant interactions with the target nuclei are photographed. The methods... Show more Show less
This film describes the design, development and operation of the alternating gradient synchrotron (AGS) at Brookhaven National Laboratory, shows the various major components of this 33 billion-electron-volt particle accelerator, and explains how the high energy protons produced in the machine are used in physical research. An actual experiment is seen, in which the particle beam is guided into a bubble chamber and the resultant interactions with the target nuclei are photographed. The methods adopted in scanning and analyzing the photographs are also shown. By means of a brief lecture, a Brookhaven physicist explains that such gigantic and complex machines as the AGS are necessary in order to study the fundamental particles and the forces within the atomic nucleus that are the basic components of all existing matter.Reached out to BNL to see if they want to fund digitization
Although the film is about Argonne National Laboratory, it will be useful to both technical and nontechnical audiences who wish an interesting survey of the objectives, methods, and hardware of the broad range of nuclear research conducted by a typical national laboratory of the USAEC. With both artistry and clarity, the ANL narrator shows the CP-5 and the range of work accomplished with this powerful research reactor. In an ANL chemistry laboratory, investigation of atomic forces with "col... Show more Show less
Although the film is about Argonne National Laboratory, it will be useful to both technical and nontechnical audiences who wish an interesting survey of the objectives, methods, and hardware of the broad range of nuclear research conducted by a typical national laboratory of the USAEC. With both artistry and clarity, the ANL narrator shows the CP-5 and the range of work accomplished with this powerful research reactor. In an ANL chemistry laboratory, investigation of atomic forces with "color center" studies of the structure of crystals is shown. Information is given on methods of protecting atomic scientists from radiation: film badges and dosimeters; the checking of air, water, walls, dust; the remote-control devices involving periscopes and television in order to see and work despite massive shielding. Argonne's efforts in the power reactor field are summarized, using the Experimental Breeder Reactor II as an example, with detailed explanation of its components, purposes, methods, etc. Experiments to learn the effects of radiation on human beings are explained studies of the effects of radiation received continually over a lifetime (bone-tumor studies); studies of the mutation-producing effects of radiation (fruit fly studies, work with dogs, etc.); studies of neonatal rates; life-span studies; studies of leukemia; effects of radiation on cells, etc. The film shows in detail the giant Zero Gradient Synchrotron accelerator or "atom-smasher" used to tear apart subatomic particles to study the basic nature of matter. Argonne's relation to American universities is outlined, with views of the training of foreign studentsThis popular-level film, suitable for audiences from junior high school through college, discusses many aspects of radiation and offers a survey of their widespread beneficial applications in medicine, industry, agriculture, power, and research. A historical survey of the discovery of radiation is followed by an animated explanation of different types of radiation, including alpha, beta, and gamma. A brief explanation of radioisotopes and how they are produced is given, followed by scenes dep... Show more Show less
This popular-level film, suitable for audiences from junior high school through college, discusses many aspects of radiation and offers a survey of their widespread beneficial applications in medicine, industry, agriculture, power, and research. A historical survey of the discovery of radiation is followed by an animated explanation of different types of radiation, including alpha, beta, and gamma. A brief explanation of radioisotopes and how they are produced is given, followed by scenes depicting some of their uses, including the use of Calcium-47 to diagnose bone cancer. The detection and study of radiation by sensitive instruments is explained. The study of radiation in the laboratory is demonstrated with work in photosynthesis using radiochromatography. Several important industrial uses of radiation are shown. The use of irradiation for prolonged food preservation, particularly of such highly perishable food as fresh fish, is demonstrated. The production of a new material, a wood-plastic alloy, is also shown as one example of current research in the beneficial uses of radiation.This is a semitechnical film for high-school and college-level audiences. After showing the launching of a new satellite, which is being wholly powered by a nuclear generator, animation is used to explain the use of its isotopic generator to create power to run electronic equipment, recording equipment, and transmit data back to earth for analysis. The advantages of nuclear energy are shown over the use of chemical energy and solar energy. The principles of power generation by isotopic decay ... Show more Show less
This is a semitechnical film for high-school and college-level audiences. After showing the launching of a new satellite, which is being wholly powered by a nuclear generator, animation is used to explain the use of its isotopic generator to create power to run electronic equipment, recording equipment, and transmit data back to earth for analysis. The advantages of nuclear energy are shown over the use of chemical energy and solar energy. The principles of power generation by isotopic decay are explained, showing how thermocouples convert the decaying isotopes' heat directly to electricity. A comparison of the isotopes Plutonium-238 and Curium-242, both used in SNAP isotope power systems, is made. It discusses the design features of the SNAP-9A which are the result of 7 years of research. Safety tests of the isotope capsule, including explosion tests, fire tests, impact tests, and re-entry tests are shown.This nontechnical film, for all audience levels, briefly explains the principle of atomic power production, states the need for its continued development while showing that it is already in use in many locations across the country. The film explains why the energy of the atom is needed to supplement that of conventional fossil fuels. Animation is used to explain how nuclear fission creates heat and how that heat is converted to electrical power. A comparison is given between the energy releas... Show more Show less
This nontechnical film, for all audience levels, briefly explains the principle of atomic power production, states the need for its continued development while showing that it is already in use in many locations across the country. The film explains why the energy of the atom is needed to supplement that of conventional fossil fuels. Animation is used to explain how nuclear fission creates heat and how that heat is converted to electrical power. A comparison is given between the energy released from the uranium atom and coal, gas, and oil. The film concludes with a brief survey of representative atomic power plants in the United States, noting location and kilowatts of electrical powerThis technical film portrays the need for, and development of, high efficiency filters for the nuclear energy industry; the manufacture of such filters; their inspection at USAEC Quality Assurance Stations before installation at nuclear sites; the in-place testing of filters as an effective contamination control program; and current research and development in the area of high efficiency mechanical air cleaning. The R&D activity, filmed at Harvard Air Cleaning Laboratory, Oak Ridge National L... Show more Show less
This technical film portrays the need for, and development of, high efficiency filters for the nuclear energy industry; the manufacture of such filters; their inspection at USAEC Quality Assurance Stations before installation at nuclear sites; the in-place testing of filters as an effective contamination control program; and current research and development in the area of high efficiency mechanical air cleaning. The R&D activity, filmed at Harvard Air Cleaning Laboratory, Oak Ridge National Laboratory, and Edgewood Arsenal, covers iodine collection systems; fine aerosol reaction on filters; in-pile and out-of- pile fuel meltdown studies; the production and dispersion of solid aerosols in an exploding wire aerosol generator; foam tests to encapsulate radioactive materials; rare gas absorption studies; experiments with diffusion boards as a gas and particulate removal surface; cleaning of stainless steel wool filters with shock waves; and the dispersal of radioactive wastes by incinerationAs the nuclear power industry expands, the handling and ultimate disposal of high activity waste becomes of increasing importance. This technical film describes newly developed methods for solidifying high activity wastes, reducing their volume by a factor of 10, into solids that are almost chemically inert. The process includes pot and spray calcination, and the fluidized bed calciner with a capacity of 100 liters per hour of liquid waste. Techniques being developed to produce glasslike soli... Show more Show less
As the nuclear power industry expands, the handling and ultimate disposal of high activity waste becomes of increasing importance. This technical film describes newly developed methods for solidifying high activity wastes, reducing their volume by a factor of 10, into solids that are almost chemically inert. The process includes pot and spray calcination, and the fluidized bed calciner with a capacity of 100 liters per hour of liquid waste. Techniques being developed to produce glasslike solids from powdered wastes and directly from liquids are also shown. The use of salt mines for disposal of solid wastes is discussed.Useful to both educated-lay-level and technical audiences, including high school and college groups, this film summarizes the parallel development of a family of fully shielded thermoelectric power converters and chemical processing of the radioisotope Strontium-90 fuel. Laboratory procedures are depicted for thermoelectric couple assembly into a compact operating system capable of converting heat energy into electrical current without the need for moving parts. Compacting of Strontium-90 raw... Show more Show less
Useful to both educated-lay-level and technical audiences, including high school and college groups, this film summarizes the parallel development of a family of fully shielded thermoelectric power converters and chemical processing of the radioisotope Strontium-90 fuel. Laboratory procedures are depicted for thermoelectric couple assembly into a compact operating system capable of converting heat energy into electrical current without the need for moving parts. Compacting of Strontium-90 raw material into ceramic titanate pellets and encapsulation of the fuel pellets into high strength metal containers are illustrated. Fully shielded Strontium-90 fueled, thermoelectric generators have been placed into operational service at remote outposts from north of the Arctic Circle to the South Pole. Developed by the U. S. Atomic Energy Commission under the SNAP (Systems for Nuclear Auxiliary Power) program, they are now proving the feasibility of reliable, unattended electrical power production from heat generated by decay of radioisotopes. Installation of the SNAP -7 generator family to power unattended weather stations in Antarctica and the Gulf of Mexico, navigational aids to shipping in Chesapeake Bay and the Gulf of Mexico, deep sea acoustic research in the Atlantic Ocean is depicted by means of film footage obtained during actual installation and implantment at the operating sites. The film concludes with a description of current development work and predictions relating to the next generation of Strontium-90 thermoelectric power supplies for terrestrial uses.Describes SNAP-27, its mission and its role in the Apollo program. On an early Apollo flight, astronauts on the moon will install a small scientific laboratory to conduct lunar surface experiments. After they depart for earth, the laboratory—known as ALSEP, Apollo Lunar Surface Packages will remain, transmitting its research data to receiving stations on earth for several years. ALSEP is powered by electricity from atomic energy a highly reliable, radioisotope-fueled thermoelectric generator ... Show more Show less
Describes SNAP-27, its mission and its role in the Apollo program. On an early Apollo flight, astronauts on the moon will install a small scientific laboratory to conduct lunar surface experiments. After they depart for earth, the laboratory—known as ALSEP, Apollo Lunar Surface Packages will remain, transmitting its research data to receiving stations on earth for several years. ALSEP is powered by electricity from atomic energy a highly reliable, radioisotope-fueled thermoelectric generator called SNAP-27. The film explains how tiny grains of radioactive plutonium-238 in a sealed fuel capsule generate heat which, in turn, generates electricity directly by means of thermocouples. In simulated action on earth, we see astronauts unloading ALSEP and inserting the nuclear fuel capsule. The film discusses the type of lunar surface information in the radioisotope-powered ALSEP will send back to earth, and the temperature and stresses and vibration tests to which SNAP-27 has been subjected. Technology developed for SNAP-27 also will be of assistance to the aircraft and other industries.Depicts the great versatility and sophistication of nuclear methods now available for control of industrial processes and nondestructive testing. The rapid response-time of these techniques makes it possible to incorporate nuclear instrumentation into a loop that provides, for example, automatic control of paper production, and into many steps of the processing of iron ore. The techniques are used in determining; moisture content and impurities in materials, alloy composition , highway road d... Show more Show less
Depicts the great versatility and sophistication of nuclear methods now available for control of industrial processes and nondestructive testing. The rapid response-time of these techniques makes it possible to incorporate nuclear instrumentation into a loop that provides, for example, automatic control of paper production, and into many steps of the processing of iron ore. The techniques are used in determining; moisture content and impurities in materials, alloy composition , highway road density, defects in turbine blades, and the basic crystal structure of a metal.In IAEA catalog
Sometimes titled with "explosions". ANS has a copy of the film
Produced by Westinghouse. Not in NARA.
A SNAP isotopic power system has been placed in orbit aboard the Transit-4A navigational satellite. This simple, powerful device is the first application of nuclear power in space. The system, which powers two of Transit's four navigational radio transmitters, is designed to operate for five years or more. Against a background of the Transit Program, this semitechnical film follows the development and testing of the radioisotope fuel capsule and the thermoelectric generator that make up this ... Show more Show less
A SNAP isotopic power system has been placed in orbit aboard the Transit-4A navigational satellite. This simple, powerful device is the first application of nuclear power in space. The system, which powers two of Transit's four navigational radio transmitters, is designed to operate for five years or more. Against a background of the Transit Program, this semitechnical film follows the development and testing of the radioisotope fuel capsule and the thermoelectric generator that make up this SNAP system. The film shows the Thor-Able-Star gantry at Cape Kennedy as the SNAP unit is mounted on Transit, and, when the system is launched, the view is from the blockhouse and the launch pad.Potentially mis-cataloged? IAEA has it listed as a short version of 88198
The purpose of this film is to explain to junior and senior high-school students in biology, general science, or physics the meaning of high-energy radiation and to show how this radiation is used in biological research. To accomplish its objective, this film briefly reviews light from the sun (wave radiation), radio waves, X rays, etc. It also touches on the various sources of radiation (X-ray machines, nuclear reactors, cosmic rays, the sun, etc.). Radioisotopes are defined, and their life ... Show more Show less
The purpose of this film is to explain to junior and senior high-school students in biology, general science, or physics the meaning of high-energy radiation and to show how this radiation is used in biological research. To accomplish its objective, this film briefly reviews light from the sun (wave radiation), radio waves, X rays, etc. It also touches on the various sources of radiation (X-ray machines, nuclear reactors, cosmic rays, the sun, etc.). Radioisotopes are defined, and their life is traced from production through their use as tools in the study of radiation damage. The effect of radiation on living cells is demonstrated by comparisons of plants grown from irradiated and nonirradiated seeds and of mice that had been irradiated with those that had not been irradiated. The film also shows the effects of radiation on bone marrow, on the protective lining of the intestine, and on chromosomes (mutations). The use of radioisotopes to trace chemical processes in plants (the absorption of nutrients) is also covered. Autoradiographs are explained, and the function of a Geiger counter is outlined. The film was made under the technical direction of Dr. Harvey Patt, Division of Biological and Medical Research at USAEC's Argonne National Laboratory (ANL), and photographed at ANL.Produced with the technical assistance of the USAEC, Brookhaven National Laboratory and Michigan State University, the film illustrates the progress achieved by U. S. scientists in using radiation to create new strains of disease- and weather- resistant food crops with higher yields. We see both the research work at USAEC's Brookhaven National Laboratory and the field work with new varieties of commercial crops. The specific example shown is the development of the Sanilac bean by Michigan Sta... Show more Show less
Produced with the technical assistance of the USAEC, Brookhaven National Laboratory and Michigan State University, the film illustrates the progress achieved by U. S. scientists in using radiation to create new strains of disease- and weather- resistant food crops with higher yields. We see both the research work at USAEC's Brookhaven National Laboratory and the field work with new varieties of commercial crops. The specific example shown is the development of the Sanilac bean by Michigan State University plant geneticists. The Sanilac bean is disease-resistant and stands upright, permitting machine-harvesting. The film explains simply the theories of radiation-induced plant mutations, the methods, and the complexity of the long-term workTitle Index
- 24" Pipe Test from CRBRP
- A Breeder in the Desert
- A DAWN'S EARLY LIGHT
- A is for Atom (1956)
- AIR AND GAS CLEANING FOR NUCLEAR ENERGY
- ASTR TOWER EXPERIMENT
- ATOMIC VENTURE
- ATOMS FOR PEACE
- ATOMS FOR THE AMERICAS
- ATOMS ON THE FARM
- Accident Testing
- Advanced Test Reactor
- Aircraft Nuclear Propulsion Program: Manned Aircraft Progress Report
- Argonaut
- Armour Research Reactor
- Army Nuclear Power Program
- Army Package Power Reactor
- Atom and Eve
- Atomic Achievement
- Atomic Energy Can Be A Blessing
- Atomic Furnaces
- Atomic Power and the United States
- Atomic Power at Shippingport
- Atomic Revolution in Wood
- Atomic Safety and Licensing Board hearings on CRBRP (1982)
- Atomic Weatherman: Strontium-90 Isotopic Applications
- Atomkraftwerk Kahl
- Atoms at Work: The Latin American Exhibit
- Atoms for Peace: Geneva 1958
- Atoms for space
- Atomschiff Otto Hahn
- Automated Fuel Manufacture
- BONUS for Puerto Rico
- BORAX: Construction and Operation of a Boiling Water Reactor
- Basalt Waste Isolation Project
- Bikini Radiobiological Laboratory
- Breeder Reactors, featuring Superphénix
- C.T.F. Progress Report
- CRBRP: Breeder Equipment Delivered
- CRBRP: Fuel Handling
- CRBRP: Open House at the Construction Site
- Cask Test
- Civilian applications of nuclear explosives
- Clinch River Breeder Reactor Closure Head Testing
- Clinch River Breeder Story Update
- Construction of the Experimental Boiling Water Reactor (EBWR)
- Desalting the seas
- Developing Homogeneous Reactors
- Douglas Point - Nuclear Power Station
- Dresden Atomic Power Station
- EBR-1 CORE DISASSEMBLY AFTER MELTDOWN
- Endless Energy with Dr. Edward Teller
- Engineering Test Reactor
- Enrichment of Uranium
- Experimental Boiling Water Reactor (EBWR)
- Experimental Breeder Reactor I, Mark III
- FULL SPEED AHEAD
- Fast Reactor Development
- Fast Reactor Program
- First Miles
- Fuel Element Burning Experiment: Operation Weiner Roast
- Fusion Research
- GEORGIA NUCLEAR LABORATORY, PROGRESS REPORT NO. 1,(FIRST QUARTER 1959)
- Gauging Thickness with Radioisotopes
- Great Bear Lake Uranium Mine
- Guardian of the Atom
- HARVEST OF AN ATOMIC AGE
- HEAVY WATER FACILITIES AT SAVANNAH RIVER PLANT
- HTRE #3
- HTRE 3 & FET
- Hallam Nuclear Power Facility
- Hallam, Operating Experience
- Headstart on tomorrow
- High Activity Waste
- INDUSTRIAL APPLICATIONS OF RADIOISOTOPES
- In Search of a Critical Moment
- Industrial applications of nuclear explosives
- Inert Gas: Coping with Oxygen Deficient Environments in 400 Area
- Inside the Yankee Core
- Inspection and Refueling of Ginna Station
- KINETIC EXPERIMENT ON WATER BOILERS
- Large Scale Fire Suppression Test #1
- Large Scale Sodium Fire Suppression Test, 1983
- MAN AND RADIATION
- MAN AND THE ATOM
- MATERIALS AND COMPONENTS IRRADIATION
- MH-1A: Floating nuclear power plant, STURGIS: Construction report
- ML-1 MOBILE NUCLEAR POWER PLANT
- Managing Radioactive Waste at the Nevada Test Site
- Medical Research Reactor
- Metals Frontier
- Miracle in the Desert: The story of Hanford
- NUCLEAR REACTORS FOR RESEARCH
- Naval Research Laboratory Reactor
- No Greater Challenge
- Novel Methods of Fuel Fabrication
- Nuclear Energy Goes Rural
- Nuclear Surface Ships: Off the California Coast
- Nuclear innovations in process control
- Nuclear power for space - SNAP-9A
- Nuclear reactors for space
- OMRE Fuel Element Removal and Second Core Loading
- OPPORTUNITY UNLIMITED: FRIENDLY ATOMS IN INDUSTRY
- Oak Ridge Research Reactor
- Of Man and Matter
- Operating Experience, Dresden
- Operating Experience, Indian Point
- Operating Experience, Yankee
- Organic Moderated Reactor Experiment (OMRE)
- Our nearest star
- PAX ATOMIS: SNAP-7 TERRESTRIAL ISOTOPIC POWER SYSTEMS
- PEGASE
- PM-1 Nuclear Power Plant
- PM-3A NUCLEAR POWER PLANT ANTARCTICA
- POWER FOR PROPULSION
- PROJECT GNOME
- PROJECT ROVER
- Plutonium Metal Preparation
- Plutonium Recycle
- Plutonium fuel fabrication for MTR
- Power Reactors USA
- Power and Promise (Shippingport)
- Power from the Atom
- Power from the Atom (cartoon)
- Practice of Radiological Safety
- Project Orion, General Atomics Division: Film Report No. 1
- Project Salt Vault
- RADIATION IN BIOLOGY: AN INTRODUCTION
- REACTOR PREOBRAZOVATEL "ROMASHKA"
- Radioisotopes: Safe Servants of Industry
- Remote Repair and Modification of the HRE-2 Core Vessel
- Research Reactors U.S.A.
- Research into Controlled Fusion
- Restoration of the NRX Reactor
- Roundup
- SNAP III OPERATIONAL TESTS
- SNAP-8: System for Nuclear Auxiliary Power
- SNAPSHOT
- SRE Nuclear Facility Decommissioning
- Site Activities at CRBRP
- Six Foot Vessel Test (Seismic) CRBRP
- Sodium Reactor Experiment Construction
- Sodium Safety: Action and Reaction
- Sodium Spill on Protective Suit
- Splitting Atoms – An Electrifying Experience
- Story of Oak Ridge Operations
- Submarine Thermal Reactor
- Sun of Man
- THE ATOM AND THE MAN ON THE MOON
- THE PIQUA NUCLEAR POWER FACILITY
- THE SAFE HANDLING OF ENRICHED URANIUM
- TO DEVELOP PEACEFUL APPLICATIONS FOR NUCLEAR EXPLOSIVES
- TOMORROW'S POWER --- TODAY
- Target for Antares: Laser Fusion at Los Alamos
- The Alchemist's Dream
- The Argonne Low Power Reactor
- The Atom and Industry
- The Bitter and the Sweet
- The Dounreay Project
- The EBR-II Fuel Facility
- The HWCTR and the Heavy Water Power Reactor Program
- The Immune Response
- The International Atom
- The MIT Research Reactor
- The Magnetic Bottle
- The Many Faces of Argonne
- The New Power
- The New Ship
- The Next Step: Progress Report: The Clinch River Breeder Reactor Plant Project (1980)
- The Nuclear Ship Savannah
- The Story of Camp Century: City Under the Ice
- The Wooden Overcoat
- The fuel of the future
- Thermal reactor test site, USS Nautilus
- Thorium - U-233 Utilization
- To Bottle the Sun
- To Imitate the Sun
- UNDER WAY
- Under Sodium Viewing
- Vallecitos Boiling Water Reactor
- Your place in the nuclear age
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