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  • Smith, Vann; Warny, Sophie; Grice, Kliti; Schaefer, Bettina; Whalen, Michael T.; Vellekoop, Johan; Chenot, Elise; Gulick, Sean P. S.; Arenillas, Ignacio; Arz, Jose A.; Bauersachs, Thorsten; Bralower, Timothy J.; Demory, François; Gattacceca, Jérôme; Jones, Heather L.; Lofi, Johanna; Lowery, Christopher M.; Morgan, Joanna V.; Nuñez Otaño, Noelia B.; O'Keefe, Jennifer M. K.; O'Malley, Katherine; Rodríguez-Tovar, Francisco J.; Schwark, Lorenz; IODP-ICDP Expedition 364 Scientists (EGU Publications, 2020-10-19)
    Here, we present a new record of the Paleocene–Eocene Thermal Maximum (PETM) from the peak ring of the Chicxulub impact crater that has been identified based on nannofossil biostratigraphy, an acme of the dinoflagellate ...
  • Steinmeye, D. R. (Bendix Corporation, Aerospace Systems Division, 1972)
    Conventional negative temperature coefficient thermistors can be made to give a linear emf readout over a limited range if used in the right kind of circuit. A computer program is described which, given the thermistor data ...
  • Phinney, William C.; Simonds, Charles H.; McKay, David S.; Warner, Jeffrey L. (Pergamon Press, 1976)
    Matrix textures of 41 lunar breccias ranging from very friable soil clods through coherent microbreccias and tough vitric breccias to tough, fine-grained crystalline breccias were examined petrographically by means of the ...
  • Howell, F. L.; Hiebert, Robert W. (Bendix Aerospace Systems Division, 1971)
    Presented herein is the Non Metallic Materials List for the LMS. Exhibit A defines Non Metallic Materials for BxA and Exhibit B defines Non Metallic Materials for UTD portions of the LMS design. The data herein represents ...
  • Toelle, Dan. (Bendix Aerospace Systems Division, 1972)
    This ATM summarizes the analytical and test results of the Lunar Mass Spectrometer thermal control system. The first section introduces the hardware and develops the mathematical thermal model of the experiment. The second ...
  • Hiebert, Robert W. (Bendix Aerospace Systems Division, 1971)
    This Addendum updates the subject ATM per request on NASA letter EH 2/l0-8/L503/l3-480.
  • Hiebert, Robert W. (Bendix Aerospace Systems Division, 1972)
    Presented herein are the Failure Mode Effects and Criticality Analysis and the Single Point Failure Summary for the Lunar Mass Spectrometer. The "A" Revision was required to include the Lock Out Switching Circuit(see page ...
  • Hiebert, Robert W. (Bendix Aerospace Systems Division, 1972)
    Presented herein are the parts application analysis results as performed on the Lunar Mass Spectrometer. Parts application analysis worksheets are presented in Appendix A for BxA and in Appendix B for UTD. The A Revision ...
  • Hendrickson, J. E. (Bendix Aerospace Systems Division, 1972)
    The time/cycle sensitive parts for ALSEP Array E LMS experiment are shown below. These parts are the only ones which may be cycled to a degree in which the performance changes over a two year period.
  • Tente, A. S. (Bendix Aerospace Systems Division, 1971)
    The compiled reports contained herein represent the total data accumulated in the testing of the LMS components in a simulated lunar environment.
  • Smyth, J. R. (Pergamon Press, 1975)
    Lunar rock 76535 appears to be one of the most slowly cooled bits of silicate material yet studied. The crystal structures of its three major phases, anorthite, olivine, and bronzite have been refined from three-dimensional ...
  • Unknown author (Bendix Corporation Aerospace Systems Division?, 1966-1972)
    Gives the ATM number, issue date, author, and title for the ALSEP technical memoranda (ATM) from Bendix.
  • Blanford, G. E.; Fruland, Ruth M.; Morrison, Donald A. (Pergamon Press, 1975)
    Track density profile measurements in sample 64455 and sample 68815 have been used to derive a long-term solar-flare differential energy spectrum for iron-group (20 ~ Z ~ 26) nuclei from --0.1 to --600 MeV/a.m.u.
  • Curry, Shannon M.; Banfield, Don J. (Lunar and Planetary Institute, 2022)
    Emerging small spacecraft capabilities and innovative new mission concepts offer opportunities for compelling science discoveries at Mars at unprecedented low costs. Here, "low-cost" equates to mission costs that fall well ...
  • Marrus, Leslie D. (Bendix Aerospace Systems Division, 1971)
    The attached LRRR (300) Task Sequence/Timeline for the Hadley Rille Landing Site provides a basic description of the astronaut operations required to completely deploy the Apollo 15 configuration of the LRRR (300).
  • Marrus, Leslie D. (Bendix Aerospace Systems Division, 1971)
    The attached LRRR (300) Task Sequence/Timeline for the Hadley Rille Landing Site provides a basic description of the astronaut operations required to completely deploy the Apollo 15 configuration of the LRRR (300).
  • Goran, M.; Min, G. B.; Wadleigh, K. H. (Bendix Aerospace Systems Division, 1971)
    This ATM presents the results of the structural dynamics analysis performed on the Lunar Ranging Retro Reflector 300 Corner Array.
  • Granholm, E. A. (Bendix Aerospace Systems Division, 1970)
    The results of thermal design/analyses performed on the 300 corner Laser Ranging Retro-Reflector (LRRR 300) to determine array operating temperature levels, net array/lunar environment heat exchange, and corner optical ...
  • Redick, Ronald L. (Bendix Aerospace Systems Division, 1970)
    This ATM reports the results of the Crew Systems and Operations Acceptance Test for the LRRR Astronaut Trainer.
  • Cornille, H. (Bendix Aerospace Systems Division, 1970)
    Potential damage to the LRRR could be caused by excessive heat, dust or kapton contamination of the retro-reflector faces, or physical movement of the LRRR which produces misalignment.

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