UAH Archives, Special Collections, and Digital Initiatives

Browse Items (8239 total)

  • Satuservarms.pdf.pdf

    This report presents the manufacturing requirements for fabricating Saturn V service arms and contains design and operating details of the service arms and associated equipment. Part 1 defines the areas of responsibility necessary for the manufacture of Saturn V service arms and associated equipment. Capability requirements, manufacturing processes, special techniques, schedules, and other areas are detailed in Part 1. The manufacturer selected to fabricate the arms and related equipment must meet the requirements (stated in Part 1. Part 2 contains design and operation details of the service arms, Command Module Access Arm, and related equipment used on or in support of the Launcher-Umbilical Tower for the Saturn V Vehicle at Complex 39. The design and construction of all basic arms is similar. Eight service arms are being designed. The arms are being designed to support all umbilical lines necessary to service the various stages of all Saturn V Vehicles. The arms are also being designed to allow personnel access to the vehicle. Some of the arms must be retracted before vehicle lift-off and others will retract following lift-off. This requirement necessitated the design of umbilical disconnect and arm retract devices which would ensure clearance between the arms and vehicle during lift-off. The Command Module Access Arm is a separate design concept. The arm is used only for astronaut access to the Command Module. Part 2 presents the preliminary design directed toward meeting the requirements stated above.
  • SaturnVsemiannual_051608155631.pdf

    This Saturn V Semi-Annual Progress Report describes progress and major achievements from July 1, 1967 in the Saturn V Program.
  • SaturnVinterfacemanagement_022808125555.pdf

    The purpose of the Saturn V Interface Management System is to establish and maintain interface design compatibility between interfacing items under the design responsibility of different agencies. It provides the management tools for effective change control over the design of designated systems and equipment that have critical interface design requirements.
  • saturnsii_062907104459.pdf

    The S-II is the second stage of NASA's Apollo moon-landing rocket - the giant Saturn V. The most powerful hydrogen-fueled booster under production, the S-II is destined for Apollo manned lunar missions and will help power three Americans to the moon. The S-II is being developed and manufactured at Seal Beach, Calif., by North American's Space and Information Systems Division, Downey, Calif., under the technical direction of NASA's Marshall Space Flight Center, Huntsville, Ala.
  • saturnsa-1flighanditsinstrumenta_031607091738.pdf

    Presentation focusing on empahsising the importance of space programs such as Saturn.
  • Saturns2fac_012308130900.pdf

    Organizational chart for the Saturn II facilities.
  • saturnlaunchvehicle_031607091024.pdf

    Speech to be presented by C. L. Bradshaw, Deputy Director, Computation Division at Supervisor's Club, Knoxville Utilities Board. Speech praising the progress of space-based technologies and advancements.
  • SaturnIBSA217_052008142122.pdf

    This document contains a definition of a reference Saturn IB launch vehicle designated SA-217. The Saturn IB SA-217 is a projected reference vehicle, based on Saturn IB SA-212, incorporating the latest proposed product improvements. The two-stage payload capability of this vehicle to a 100-nautical-mile circular orbit is 44,965 pounds. The Saturn IB SA-217 launch vehicle is to be used as the baseline vehicle for advanced studies requiring the use of the standard or modified Saturn IB launch vehicle. This vehicle definition does not necessarily represent approved changes to any specific vehicle. This document supersedes the Saturn IB SA-213 reference Launch Vehicle, described in memorandum R-P&VE-DIR-65-92.
  • Saturnbaseheatingreview_022608110235.pdf

    The Saturn I booster which is powered by a cluster of eight rocket engines has been successfully flown on four successive flights. The early success of this large launch vehicle is a strong indication of the soundness of its base heating program. This paper summarizes the thinking that went into the design of our base configuration. Flight test results indicate that pressures, temperatures and heating rates were generally as expected. New techniques have been investigated for generating design data. It has been found experimentally that pressure and thermal fields establish themselves in one to three milliseconds and that data from the "short duration" technique compare favorably with "long duration" type tests. As a result, the new "short duration" technique has become the standard for generating design data for the Saturn vehicle.
  • saturnapollogui_051208110334.pdf

    A brief sketch of the development of the equations for a weighted least squares estimator is given, the equations for both collective and recursive estimators being included. Four possible problem sources that may be encountered in the application of the estimator are identified. Various "success" parameters are defined in an attempt to predict the success with which, the method has been applied. The application of the estimation technique to the problem of computing various error parameters associated with the ST-124M guidance platform is described with the numerical results obtained using a manufactured data case are presented. These results are used to form conclusions about the effectiveness of the "success" parameters and preferred approaches to the problem of system evaluation using techniques of estimation theory.