Index to the proceedings of the Precise Time And Time Interval (PTTI) systems and applications (formerly applications and planning) meeting
The entry for each paper is preceded by a hyphenated numerical code indicating its subject, Proceedings volume number, and page number therein, i.e, 06-02-129 represents subject category "6", Proceedings volume number "2" and page number "129". The following index covers the PTTI Proceedings from the 2nd (1970) through the 41st (2009).
| 06-02-129 | Requirements and Performance for Today's Atomic Standards; G. M. R. Winkler |
| 06-03-225 | Atomic Standards Test and Evaluation; E. Hafner |
| 06-03-367 | Hydrogen Masers and Other Standards; H. E. Peters |
| 06-04-029 | Performance of the New Efratom Optically Pumped Rubidium Frequency Standards and Their Possible Application in Space Relativity Experiments; C. 0. Alley, R. Williams, S. Gurbax, and J. Mullendore |
| 06-04-046 | Precision Frequency Sources; A. 0. McCoubrey and R. H. Kern |
| 06-04-055 | NASA Hydrogen Maser Accuracy and Stability in Relation to World Standards; H. E. Peters and D. B. Percival (corrected for errata) |
| 06-04-168 | Operational Stability of Rubidium and Cesium Frequency Standards; J. E. Lavery |
| 06-05-239 | Statistical Properties of High Performance Cesium Standards; D. B. Percival |
| 06-05-265 | Flexible Bulb - Large Storage Box Hydrogen Maser; V. Reinhardt |
| 06-05-283 | Characteristics of Advanced Hydrogen Maser Frequency Standards; H. E. Peters |
| 06-06-059 | A Review of Precision Oscillators; H. Hellwig |
| 06-07-125 | Radiation Effects in Crystal and Atomic Frequency Standards; T. M. Flanagan and R. E. Leadon |
| 06-07-143 | A Portable Rubidium Clock for Precision Time Transport; H. Hellwig and A. E. Wainwright |
| 06-07-165 | Performance and Operation of the NRC Primary Cesium Clock, CsV; A. G. Mungall, H. Daams, D. Morris, and C. C. Costain |
| 06-07-195 | The Millman Effect in Cesium Beam Atomic Frequency Standards; A. G. Mungall |
| 06-07-215 | A New Method for Generating Overtone Frequencies in a Quartz Oscillating Circuit; H. Bahadur and R. Parshad |
| 06-07-231 | Demonstration of the Frequency Offset Errors Introduced by an Incorrect Setting of the Zeeman/Magnetic Field Adjustment on the Cesium Beam Frequency Standard; D. C. Kaufmann |
| 06-07-243 | A Study of Hydrogen Maser Resonators and Storage Bulbs for Use in Ground and Satellite Masers; E. M. Mattison, R. F. C. Vessot, and M. W. Levine |
| 06-07-265 | Frequency Stability Requirements for Two-Way Range Rate Tracking; V. Reinhardt |
| 06-07-671 | Spaceborne Rubidium Frequency Standard for Navstar GPS; D. E. Ringer, J. Gandy, and E. Jechart |
| 06-08-003 | The Hydrogen Maser Program for Navstar Gps; R. L. Easton |
| 06-08-183 | The Atomic Hydrogen Maser; N. F. Ramsey |
| 06-08-197 | Field Operable Hydrogen Maser Design; V. S. Reinhardt, H. E. Peters, and L. A. Birnbaum |
| 06-08-213 | Hydrogen Maser Frequency Standards for the Deep Space Network; P. R. Dachel, R. F. Meyer, S. M. Petty, and R. L. Sydnor |
| 06-08-229 | Hydrogen Maser Design at the Laboratoire de l'Horloge Atomique; P. Petit, J. Viennet, R. Barillet, M. Desaintfuscien, and C. Audoin |
| 06-08-249 | A Hydrogen Maser Design for Ground Applications; M. W. Levine, R. F. C. Vessot, E. M. Mattison, E. Blomberg, T. E. Hoffman, G. Nystrom, D. F. Graveline, R. L. Nicoll, C. Dovidio, and W. Brymer |
| 06-08-277 | Space-borne Hydrogen Maser Design; R. F. C. Vessot, M. W. Levine, E. M. Mattison, T. E. Hoffman, E. A. Imbier, M. Tetu, and G. Nystrom |
| 06-08-335 | Variable Volume Maser Techniques; V. S. Reinhardt |
| 06-08-351 | Problems in Hydrogen Maser Design and Suggested Improvements; S. B. Crampton, H. T. M. Wang, and J. L. Barrett |
| 06-08-355 | New Te111-mode Hydrogen Maser; E. M. Mattison, M. W. Levine, and R. F. C. Vessot |
| 06-08-369 | Design and Results From a Prototype Passive Hydrogen Maser Frequency Standard; F. L. Walls |
| 06-08-399 | A Comparison of Various Hydrogen-Maser Frequency Standards; A. E. E. Rogers, A. R. Whitney, and L. B. Hanson |
| 06-08-429 | Special Purpose Atomic (Molecular) Standard; D. J. Wineland, D. A. Howe, and H. Hellwig |
| 06-08-637 | NTS-2 Cesium Beam Frequency Standard for GPS; J. White, F. Danzy, S. Falvey, A. Frank, and J. Marshall |
| 06-08-681 | Performance of a Dual Beam High Performance Cesium Beam Tube; G. A. Seavey |
| 06-08-695 | Application of High Performance Cesium Beam Frequency Standards to VLBI; W. J. Klepczynski |
| 06-09-009 | Atomic Frequency Standards: Survey and Forecast; J. Vanier |
| 06-09-059 | Criteria for the Selection of Atomic Clocks in Systems Application (abstract); G. M. R. Winkler |
| 06-09-343 | Some Recent Progress in Frequency Standards and Techniques; D. W. Allan, R. M. Garvey, H. Hellwig, D. A. Howe, S. Jarvis, A. Risley, S. R. Stein, H. Van de Stadt, F. L. Walls, and D. J. Wineland |
| 06-09-353 | Analysis of Degraded Hydrogen Dissociator Envelopes by AES+; V. H. Ritz, V. M. Bermudeg, and V. J. Folen |
| 06-09-371 | An Investigation of Polymer Coatings Used in Hydrogen Maser Storage Bulbs; N. H. Turner |
| 06-09-381 | An Investigation of the Shielding Properties of Molypermalloy Shields Designed for Use with a Hydrogen Maser; S. Wolf and J. Cox |
| 06-09-403 | A Spaceborne Hydrogen Maser Design; A. E. Popa, H. T. M. Wang, W. B. Bridges, J. E. Etter, D. Schnelker, F. E. Goodwin, C. Lew, and M. Dials |
| 06-09-415 | Operational Characteristics of a Prototype Spaceborne Hydrogen Maser; H. T. M. Wang, A. E. Popa, W. B. Bridges, and D. Schnelker |
| 06-09-437 | Development of an Atomic Rubidium Vapor Frequency Standard At NPL of India Using Indigenous Sources; V. R. Singh, G. M. Saxena, and B. S. Mathur |
| 06-09-549 | Comparison of Theoretical and Observed Maser Stability Limitation Due to Thermal Noise and the Prospect of Improvement by Low Temperature Operation; R. F. C. Vessot, M. W. Levine, and E. M. Mattison |
| 06-09-571 | A New Method to Eliminate Cavity Phase in Cesium Beam Standards; D. J. Wineland, S. Jarvis, Jr., H. Hellwig, and R. M. Garvey |
| 06-10-131 | Shielding of Longitudinal Magnetic Fields with Thin, Closely, Spaced, Concentric Cylindrical Shells with Applications to Atomic Clocks; S. A. Wolf, D. U. Gubser, and J. E. Cox |
| 06-10-147 | Elimination of the Light Shift in Rubidium Gas Cell Frequency Standards Using Pulsed Optical Pumping; T. C. English, E. Jechart, and T. M. Kwon |
| 06-10-169 | Performance of Preproduction Model Cesium Beam Frequency Standards for Spacecraft Applications; M. W. Levine |
| 06-10-195 | Discussion Forum: Atomic Frequency Standards--Cesium, Rubidium, and Hydrogen; C. C. Costain, T. C. English, and H. Peters |
| 06-11-081 | Limitations on Long-Term Stability and Accuracy in Atomic Clocks; D. J. Wineland |
| 06-11-113 | The Performance of Primary Cs Beam Clocks Using Quadrupole and Hexapole Deflection Systems Consequences for Time Keeping; G. Becker |
| 06-11-197 | Hydrogen Maser Implementation in the Deep Space Network at the Jet Propulsion Laboratory; P. F. Kuhnle |
| 06-11-619 | Prospects for Advances in Microwave Atomic Frequency Standards; F. L. Walls |
| 06-12-211 | Frequency and Time Generation and Control; M. B. Bloch |
| 06-12-275 | Innovation and Reliability of Atomic Standards for PTTI Applications; R. Kern |
| 06-12-291 | Contractor Point of View for System Development and Test Program; F. K. Koide, D. E. Ringer, and C. E. Earl |
| 06-12-463 | Recent Progress in the NASA-Goddard Space Flight Center Atomic Hydrogen Standards Program; V. S. Reinhardt |
| 06-12-495 | Passive Maser Development At NRL; J. White, A. Frank, and V. Folen |
| 06-12-581 | Vacuum Pumping System for Spaceborn Passive Hydrogen Masers; S. A. Wolf, D. U. Gubser and L. D. Jones |
| 06-12-615 | The Operational Performance of Hydrogen Masers in the Deep Space Network; S. C. Ward |
| 06-12-719 | Development of a Sub-miniature Rubidium Oscillator for Seektalk Application; H. Fruehauf, W. Weidemann, and E. Jechart |
| 06-12-785 | Precision Timekeeping Using a Small Passive Hydrogen Maser; F. L. Walls and D. A. Howe |
| 06-12-807 | Progress Report on Hydrogen Maser Development At Laval University; J. Vanier, G. Racine, R. Kunski, and M. Picard |
| 06-13-167 | A History and Analysis of Hydrogen Maser Reliability; J. B. Curtright |
| 06-13-451 | Long Term Frequency Stability Analysis of the GPS Navstar 6 Cesium Clock; T. B. McCaskill, S. Stebbins, C. Carson, and J. Buisson |
| 06-13-547 | Cryogenic Masers; A. J. Berlinsky and W. N. Hardy |
| 06-13-563 | A Trapped Mercury 199 Ion Frequency Standard; L. S. Cutler, R. P. Giffard, and M. D. McGuire |
| 06-13-579 | Prospects for Stored Ion Frequency Standards; D. J. Wineland |
| 06-13-593 | Recent Developments and Proposed Schemes for Trapped Ion Frequency Standards; L. Maleki |
| 06-13-609 | A Rubidium Clock for GPS; W. J. Riley |
| 06-13-631 | Investigations of Laser Pumped Gas Cell Atomic Frequency Standard; C. H. Volk, J. C. Comparo, and R. P. Frueholz |
| 06-13-645 | Magnetic State Selection in Atomic Frequency and Time Standards; H. E. Peters |
| 06-13-667 | Frequency Stability of Maser Oscillators Operated with Enhanced Cavity Q; M. Tetu, P. Tremblay, P. Lesage, P. Petit, and C. Audoin |
| 06-13-729 | The Role of the Deep Space Network's Frequency and Timing System in the Detection of Gravitational Waves; J. C. Mankins |
| 06-13-767 | Lamp Reliability Studies for Improved Satellite Rubidium Frequency Standard; R. P. Frueholz, M. Wun-fogle, H. U. Eckert, C. H. Volk and P. F. Jones |
| 06-13-791 | Magnetic Shielding and Vacuum Test for Passive Hydrogen Masers; D. U. Gubser, S. A. Wolf, A. B. Jacoby, and L. D. Jones |
| 06-13-803 | Composite-Type Rb-87 Optical-Pumping Light Source for the Rubidium Frequency Standard; N. Oura, N. Kuramochi, S. Naritsuka, and T. Hayashi |
| 06-14-087 | Influence of Modulation Frequency in Rubidium Cell Frequency Standards; C. Audoin, J. Viennet, N. Cyr, and J. Vanier |
| 06-14-113 | Laser Induced Asymmetry and Inhomogeneous Broadening of the Microwave Lineshape of a Gas Cell Atomic Frequency Standard; J. C. Camparo, R. P. Frueholz, and C. H. Volk |
| 06-14-133 | Study of Multiple Optical Transitions in Rb-87 Using Laser Diodes; C. L. J. Newton and H. G. Robinson |
| 06-14-141 | A Rubidium Clock for Seek-Talk; W. J. Riley |
| 06-14-205 | High-Accuracy Global Time and Frequency Transfer with a Space-borne Hydrogen Maser Clock; R. Decher, D. W. Allan, C. O. Alley, C. Baugher, B. J. Duncan, R. F. C. Vessot, and G. M. R. Winkler |
| 06-14-307 | Narrow Rb-87 and Cs-133 Hyperfine Transitions in Evacuated Wall-Coated Cells; H. G. Robinson and C. E. Johnson |
| 06-14-315 | Cesium Standard for Satellite Application; M. Bloch, M. Meirs, I. Pascaru, and B. Weinstein |
| 06-14-359 | Evaluation of Modern Hydrogen Masers; A. Kirk, P. Kuhnle, and R. Sydnor |
| 06-14-393 | First Experiences with the H-Maser EFOS 1; W. Schluter, K. Nottarp, D. Feil, and G. Busca |
| 06-14-409 | A Commercial Hydrogen Maser, Progress Report; M. Dials and L. Wert |
| 06-14-421 | The NASA/GSFC Hydrogen Maser Program: A Review of Recent Data; M. Chiu, A. G. Bates, L. J. Rueger, V. S. Reinhardt, P. Dachel, R. Kunski, R. Kruger, and S. C. Wardrip |
| 06-14-547 | Radiation Hardness of Efratom M-100 Rubidium Frequency Standard; T. C. English, H. Vorwerk, and N. J. Rudie |
| 06-14-621 | New Auto-Tuning Technique for the Hydrogen Maser; R. L. Sydnor and L. Maleki |
| 06-15-171 | On-Orbit Frequency Stability Analysis of the GPS Navstar's 3 and 4 Rubidium Clocks and Navstar's 5 and 6 Cesium Clocks; T. B. McCaskill, J. A. Buisson, and S. B. Stebbins |
| 06-15-269 | Test Results for Prototype GPS Rubidium Clocks; T. J. Lynch and W. J. Riley |
| 06-15-283 | International Time Transfer and Portable Clock Evaluation Using GPS Timing Receivers: Preliminary Results; S. C. Wardrip, J. Buisson, O. J. Oaks, M. Lister, E. Detoma, P. Dachel, T. Stalder, H. Warren, G. Winkler, G. Luther, S. Leschiutta, P. G. Galliano, F. Cordara, V. Pettiti, R. Azzarone, and F. Fedele |
| 06-15-653 | Recent Results on the Performance of EFOS, NP, and NX Hydrogen Masers; V. Reinhardt, J. Ingold, T. Stalder, M. Saifi, P. Dachel, and S. C. Wardrip |
| 06-15-677 | Physics Element Design Aspects for a Tactical Rubidium Frequency Standard; B. Grover and T. M. Kwon |
| 06-15-723 | The Superconducting Cavity Stabilized Ruby Maser Oscillator; G. J. Dick and D. M. Strayer |
| 06-16-001 | Prospects for Atomic Frequency Standards; C. Audoin |
| 06-16-049 | Frequency and Time Standards Based on Stored Ions; J. J. Bollinger, D. J. Wineland, W. M. Itano, J. C. Bergquist, and J. D. Prestage |
| 06-16-059 | On the Accuracy of Cs Beam Primary Frequency Standards; J. S. Boulanger, R. J. Douglas, J. Vanier, A. G. Mungall, Y. S. Li, and C. Jacques |
| 06-16-081 | Methods to Recover the Narrow Dicke Sub-Doppler Feature in Evacuated Wall-Coated Cells without Restrictions on Cell Size; H. G. Robinson |
| 06-16-091 | Diode Laser 87Rb Optical Pumping in an Evacuated Wall-Coated Cell; W. K. Lee, H. G. Robinson, and C. E. Johnson |
| 06-16-103 | On-Orbit Frequency Stability Analysis of the GPS Navstar-1 Quartz Clock and the Navstars-6 and -8 Rubidium Clocks; T. B. McCaskill, J. A. Buisson, M. M. Largay, and W. G. Reid |
| 06-16-127 | Rubidium and Cesium Frequency Standards - Status and Performance on the GPS Program; H. Bethke, D. Ringer, and M. Van Melle |
| 06-16-143 | A Miniature Tactical Rb Frequency Standard; T. M. Kwon, R. Dagle, W. Debley, H. Dellamano, T. Hahn, J. Horste, L. K. Lam, R. Magnuson, and T. McClelland |
| 06-16-157 | The Rubidium-Crystal Oscillator Hybrid Development Program; J. Vig and V. Rosati |
| 06-16-191 | The System Design of a Rubidium Maser Frequency Standard; X. Cheng-Xi |
| 06-16-295 | Development of Hydrogen Masers for K-3 VLBI System; T. Morikawa, Y. Ohta, and H. Kiuchi |
| 06-16-313 | Atomic Hydrogen Maser Active Oscillator Cavity and Bulb Design Optimization; H. E. Peters and P. J. Washburn |
| 06-16-339 | Hydrogen Maser Oscillation at 10 K; S. B. Crampton, K. M. Jones, G. Nunes, and S. P. Souza |
| 06-16-351 | A Low Noise Synthesizer for Autotuning and Performance Testing of Hydrogen Masers; J. M. Cloeren and J. S. Ingold |
| 06-16-357 | Atomic Hydrogen Maser Measurements with Wall Surfaces of Carbon Tetrafluoride; R. F. C. Vessot, E. M. Mattison, E. A. Imbier, and Z. C. Zhai |
| 06-16-375 | Performance Data of U.S. Naval Observatory VLG-11 Hydrogen Masers Since September 1983; R. F. C. Vessot, E. M. Mattison, E. A. Imbier, Z. C. Zhai, W. J. Klepczynski, P. J. Wheeler, A. J. Kubik, and G. M. R. Winkler |
| 06-17-001 | The First Atomic Clock Program: NBS, 1947-1954; P. Foreman |
| 06-17-073 | A Review of Atomic Frequency Standards; S. R. Stein and L. L. Lewis |
| 06-17-105 | Hydrogen Maser Research and Development at Sigma Tau Standards and Tests of Sigma Tau Masers at the U.S. Naval Research Laboratory; G. A. Gifford, J. D. White, and H. E. Peters |
| 06-17-129 | Fast Autotuning of a Hydrogen Maser by Cavity Q Modulation; G. J. Dick and T. K. Tucker |
| 06-17-145 | Further Test Results for Prototype GPS Rubidium Clocks; S. Goldberg, T. J. Lynch, and W. J. Riley |
| 06-17-157 | Exploration of the Potential Performance of Diode Laser Pumped Gas Cell Atomic Frequency Standards; J. C. Camparo and R. P. Frueholz |
| 06-17-173 | Characterization of an All-Cryogenic Oscillator as a Stable Frequency Source; D. M. Strayer, G. J. Dick, and J. E. Mercereau |
| 06-17-189 | Cesium Beam Primary Frequency Standards at NRC; R. J. Douglas and J. S. Boulanger |
| 06-17-375 | Test Results of a Portable Battery Pack's Effect on the Output of a Cesium Beam Frequency Standard; B. Elson |
| 06-17-413 | Results of Two Years of Hydrogen Maser Clock Operation at the U.S. Naval Observatory and Ongoing Research at the Harvard-Smithsonian Center for Astrophysics; R. F. C. Vessot, E. M. Mattison, W. J. Klepczynski, I. F. Silvera, H. P. Godfried, and R. L. Walsworth, Jr. |
| 06-18-037 | GPS Clock Technology and Navy PTTI Programs at the U.S. Naval Research Laboratory; R. L. Beard, J. Murray, and J. D. White |
| 06-18-055 | Precision Time and Frequency Sources and Systems Research and Development at the Johns Hopkins University Applied Physics Laboratory; A. G. Bates, M. T. Boies, M. C. Chiu, R. Kunski, and J. J. Suter |
| 06-18-071 | Frequency Standards Work and Timekeeping at the National Research Council of Canada; J. S. Boulanger, C. C. Costain, R. J. Douglas, C. Jacques, D. Morris, P. Tremblay, and J. Vanier |
| 06-18-089 | A Review of the Frequency and Timing Activities at the Jet Propulsion Laboratory; L. Maleki and P. F. Kuhnle |
| 06-18-113 | National Physics Laboratory, U.K. Time and Frequency Report, 1986; P. B. Coates, J. E. Gibbs, D. J. E. Knight, D. S. Sutcliffe, and B. R. Swabey |
| 06-18-155 | Activities on Time and Frequency at Shanghai Observatory; Z. Zaocheng, Z. Qixiang, H. Jinlin, and K. Wunwei |
| 06-18-165 | Research Activities on Time and Frequency at the Radio Research Laboratory; N. Imai, S. Kobayashi, K. Yoshimura, and K. Nakagiri |
| 06-18-227 | Rubidium and Cesium Frequency Standards Status and Performance on the GPS Program; M. Van Melle |
| 06-18-321 | A New Technique for the On-Orbit Characterization of Cesium Beam Tube Performance; S. K. Karuza, J. P. Hurrell, and W. A. Johnson |
| 06-18-503 | Beam Optics of the RRL Cesium Beam Primary Frequency Standard; K. Nakagiri, H. Okazawa, and S. Urabe |
| 06-18-559 | Frequency Stability in a Wall-Coated Evacuated Cell: Preliminary Results; C. Rahman and H. G. Robinson |
| 06-18-565 | A Partial Analysis of Drift in the Rubidium Gas Cell Atomic Frequency Standard; J. C. Camparo |
| 06-18-601 | The Superconducting Cavity Maser Oscillator--toward Higher Stability; D. M. Strayer and G. J. Dick |
| 06-18-611 | A Subcompact Q-Enhanced Active Hydrogen Maser; R. R. Hayes and H. T. M. Wang |
| 06-18-621 | A Signal Processing Scheme for Reducing the Cavity Pulling Factor in Passive Hydrogen Masers; K. M. Uglow |
| 06-18-631 | Integral Cavity Hydrogen Maser; R. Kunski |
| 06-19-107 | Single State Selection System for Hydrogen Masers; E. M. Mattison and R. F. C. Vessot |
| 06-19-113 | Triply-Redundant Precision Time and Frequency Standard; D. Silvermetz, M. Bloch, and M. Meirs |
| 06-19-133 | Local Oscillator Induced Instabilities in Trapped Ion Frequency Standards; G. J. Dick |
| 06-19-175 | The Effects of Ambient Conditions on Cesium Clock Rates; L. A. Breakiron |
| 06-19-195 | Analysis of the Seasonal Effects on a Cesium Clock to Improve the Long-Term Stability of a Time Scale; E. Bava, F. Cordara, V. Pettiti, and P. Tavella |
| 06-19-235 | Atomic Transit Time and Delayed Ionization Effects on Cesium Beam Frequency Standards; B. Jaduszliwer |
| 06-19-245 | The Optically Pumped Cs Frequency Standard at the NRLM; S. Ohshima, Y. Nakadan, and Y. Koga |
| 06-19-255 | Alkali Reactions with Wall Coating Materials Used in Atomic Resonance Cells; J. C. Camparo, R. Frueholz, and B. Jaduszliwer |
| 06-19-267 | Stability Test Results for GPS Rubidium Clocks; F. Danzy and W. J. Riley (see Errata Volume) |
| 06-19-275 | Design and Performance of a Compact Passive Hydrogen Maser; L. L. Lewis, T. E. Smith, and S. R. Stein |
| 06-19-285 | The JPL Trapped Ion Frequency Standard Development; J. D. Prestage, G. L. Dick, and L. Maleki |
| 06-19-345 | Portable Hydrogen Maser Clock Time Transfer at the Subnanosecond Level; L. J. Rueger, M. C. Chiu, S. D. Deines, R. A. Nelson, J. T. Broomfield, and C. O. Alley (see Errata Volume) |
| 06-19-375 | A Study in Long-Term Stability of Atomic Clocks; D. W. Allan (see Errata Volume) |
| 06-20-041 | A First Account of Long-Term Stability Results Obtained on Various Cesium Standards by the Power Sensitivity Minimization Technique; A. De Marchi |
| 06-20-087 | Orbit Period Frequency Variations in the GPS Satellite Clocks; E. R. Swift and B. R. Hermann |
| 06-20-111 | Design Considerations and Performance of a GPS Spaceborne Hydrogen Maser Frequency Standard; E. S. Richter, B. A. Bettencourt, H. T. Wang, and R. R. Hayes |
| 06-20-123 | Reduction of Cavity Pulling in a Passive Hydrogen Maser; V. M. Golding, V. J. Folen, A. F. Frank, J. D. White, and R. L. Beard |
| 06-20-287 | Velocity Distribution Measurement of an Optically Pumped Cesium Frequency Standard at the NRLM; Y. Nakadan, S. Ohshima, T. Ikegami, and Y. Koga |
| 06-20-305 | New Ion Trap for Frequency Standard Applications; J. D. Prestage, G. L. Dick, and L. Maleki |
| 06-20-313 | Time and Temperature Stability of Silver-Coated Ceramics for Hydrogen Maser Resonant Cavities; E. M. Mattison and R. F. C. Vessot |
| 06-20-325 | Operating and Environmental Characteristics of Sigma Tau Hydrogen Masers Used in the Very Long Baseline Array; T. K. Tucker |
| 06-20-337 | Atomic Hydrogen Masers with Self Auto-Tune System and Magnetic Field Cancellation Servo; H. E. Peters, H. B. Owings, and P. A. Koppang |
| 06-20-345 | Operational Parameters for the Superconducting Cavity Maser; G. J. Dick, R. T. Wang, and D. M. Strayer |
| 06-21-145 | GPS Synchronized Disciplined Rubidium Frequency Standard; D. E. Fossler |
| 06-21-149 | A GPS Disciplined Rubidium Clock; W. Dewey |
| 06-21-191 | A New Hydrogen Maser Time and Frequency Standard at Sheshan VLBI Station of Shanghai Observatory; Z. C. Zhai, H. X. Huang, C. F. Lin, G. X. Jiang, W. H. Luo, and J. F. Lu |
| 06-21-223 | Atomic Velocity Distribution Out of Hydrogen Maser Dissociators; B. Jaduszliwer and Y. C. Chan |
| 06-21-239 | On-Orbit Frequency Stability Analysis of GPS Navstar Cesium and Rubidium Clocks; T. B. McCaskill, J. A. Buisson, and T. J. Hogan |
| 06-21-313 | New Hydrogen Masers at the National Research Council of Canada; D. Morris and J. Vanier |
| 06-21-359 | The Cryogenic Hydrogen Maser Projected Performance and Recent Progress Toward Spaceborne Applications; R. L. Walsworth, I. F. Silvera, R. F. C. Vessot, E. Mattison, and M. L. Dingus |
| 06-21-385 | Determining Optimum C-field Settings That Minimize Output Frequency Variations in Cesium Atomic Frequency Standards; S. K. Karuza, W. A. Johnson, J. P. Hurrell, and F. J. Voit |
| 06-21-401 | Modeling Fast Modulation Effects in Cesium Atomic Clocks; P. Hurrell, W. A. Johnson, S. K Karuza, and F. J. Voit |
| 06-21-409 | Environmental Tests of Cesium Beam Frequency Standards at the Frequency Standards Laboratory of the Jet Propulsion Laboratory; R. L. Sydnor, T. K. Tucker, G. A. Greenhall, W. A. Diener, and L. Maleki |
| 06-21-431 | Reliability Studies of Lamp Cells for Use in Rubidium Vapor Frequency Standards; T. McClelland |
| 06-21-433 | Analysis of Fundamental and Systematic Effects Limiting Hydrogen Maser Frequency Stability; E. M. Mattison and R. F. C. Vessot |
| 06-22-001 | The Past, Present and Future of Atomic Time; N. F. Ramsey |
| 06-22-009 | The Classical Microwave Frequency Standards; G. Busca, P. Thomann, L.-G. Bernier, P. Willemin, and H. Schweda |
| 06-22-019 | The Status of Cesium Beam Frequency Standards; L. S. Cutler |
| 06-22-029 | State of the Art and Future Directions for the Atomic Hydrogen Maser; R. F. C. Vessot |
| 06-22-053 | Trapped-Ion Frequency Standards; D. J. Wineland, J. C. Berquist, J. J. Bollinger, W. M. Itano, D. J. Heinzen, C. H. Manney, F. L. Moore, M. G. Raizen, and C. S. Weimer |
| 06-22-171 | Ultra-stable Hg+ Trapped Ion Frequency Standard; J. D. Prestage, G. J. Dick, and L. Maleki |
| 06-22-187 | Design and Industrial Production of Frequency Standards in the USSR; N. A. Demidov and A. A. Uljanov |
| 06-22-209 | Long-Term Microwave Power Drift of a Cesium Frequency Standard and Its Effect on Output Frequency; W. A. Johnson, S. K. Karuza, and F. J. Voit |
| 06-22-221 | Rubidium Atomic Frequency Standards for GPS Block IIR; W. J. Riley |
| 06-22-269 | Zero-Crossing Detector with Sub-microsecond Jitter and Crosstalk; G. J. Dick, D. F. Kuhnle, and R. L. Sydnor |
| 06-22-283 | Hydrogen Masers with Cavity Frequency Switching Servos; H. E. Peters, H. B. Owings, and P. A. Koppang |
| 06-22-293 | Frequency Shifts in a Rubidium Frequency Standard Due to Coupling to Another Standard; B. Jaduszliwer, R. A. Cook, and R. P. Frueholz |
| 06-22-301 | Effect of Thermal Cycling on Stress in Metallic Films on Ceramic Substrates; E. M. Mattison and R. F. C. Vessot |
| 06-22-317 | GPS Block 2R Time Standard Assembly (TSA) Architecture; T. Baker |
| 06-22-325 | Interim Results from the Characterization Testing of the Engineering Development (EDM) Rubidium Clocks for Satellite Applications; E. Powers and F. Danzy |
| 06-22-331 | On the Length of the Drift Region in the Ramsey Cavity; P. Thomann |
| 06-22-339 | Time and Frequency Measuring Metrological Equipment in the USSR; A. A. Uljanov |
| 06-22-349 | Special Hydrogen Maser Workshop Held on Wednesday, December 5, 1990 Report; D. Morris |
| 06-22-419 | Physical Origin of the Frequency Shifts in Cesium Beam Frequency Standards: Related Environmental Sensitivity; C. Audoin, N. Dimarcq, V. Giordano, and J. Viennet |
| 06-22-441 | The Physics of the Environmental Sensitivity of Rubidium Gas Cell Atomic Frequency Standards; W. J. Riley |
| 06-22-453 | Physics of Systematic Frequency Variations in Hydrogen Masers; E. M. Mattison |
| 06-22-487 | Local Oscillator Induced Degradation of Medium-Term Stability in Passive Atomic Frequency Standards; G. J. Dick, J. D. Prestage, C. A. Greenhall, and L. Maleki |
| 06-22-509 | Performance of Soviet and U. S. Hydrogen Masers; A. A. Uljanov, N. A. Demidov, E. M. Mattison, R. F. C. Vessot, D. W. Allan, and G. M. R. Winkler |
| 06-22-599 | On the Line Q Degradation of Hydrogen Masers; L. G. Bernier, G. Busca, and H. Schweda |
| 06-23-161 | A Hydrogen Maser with Cavity Auto-Tuner for Timekeeping; C. F. Lin, J. W. He, and Z. C. Zhai |
| 06-23-169 | A Kind of Small Hydrogen Maser for Time-keeping; Z. C. Zhai, C. F. Lin, J. W. He, H. X. Huang, and J. F. Liu |
| 06-23-229 | Measuring Frequency Changes Due to Microwave Power Variations As a Function of C-field Setting in a Rubidium Frequency Standard; E. B. Sarosy, W. A. Johnson, S. K. Karuza, and F. J. Voit |
| 06-23-237 | Development of an Optically-Pumped Cesium Standard at the Aerospace Corporation; Y. C. Chan |
| 06-23-277 | Compact Microwave Cavity for Hydrogen Atomic Clock; Z. Dejun, Z. Yan, F. Yigen, and Z. Yanjun |
| 06-23-287 | A Correlational Analysis of the Effects of Changing Environmental Conditions on the NR Atomic Hydrogen Maser; R. A. Dragonette and J. J. Suter |
| 06-23-307 | Frequency Stability of GPS Navstar Block I and Block II On-Orbit Clocks; T. B. McCaskill, W. G. Reid, J. A. Buisson, and H. E. Warren |
| 06-23-385 | In Orbit Demonstration of a H-Maser Clock System; G. Busca, L. G. Bernier, S. Starker, and S. Feltham |
| 06-24-159 | A Laser-Cooled Cesium Fountain Frequency Standard and a Measurement of the Frequency Shift Due to Ultra-cold Collisions; K. Gibble, S. Kasapi, and S. Chu |
| 06-24-163 | Disciplined Rubidium Oscillator with GPS Selective Availability; W. P. Dewey |
| 06-24-185 | Possible Applications of Atomic Frequency Standards with an Internal High Resolution Digital Synthesizer; E. Detoma and A. Stern |
| 06-24-199 | CAFS - A Cesium Atomic Frequency Standard for GPS Block IIR; J. A. Wisnia |
| 06-24-209 | Status of Local Oscillators for Operating Ultra-high Resolution Frequency Discriminators As Frequency Standards; R. F. C. Vessot, E. M. Mattison, M. W. Levine, and R. L. Walsworth |
| 06-24-221 | Development of a Cryogenic Hydrogen Maser at the NPL; R. Mossavati |
| 06-25-329 | Cesium and Rubidium Frequency Standards Status and Performance on the GPS Program; M. J. Van Melle |
| 06-25-345 | Hydrogen Masers and Cesium Fountains At NRC; J. S. Boulanger, D. Morris, R. J. Douglas, and M.-C. Gagne |
| 06-25-467 | Hydrogen Maser Clocks in Space for Solid-Earth Research and Time Transfer Applications: Experiment Overview and Evaluation of Russian Miniature Sapphire Loaded Cavity; G. Busca, L. G. Bernier, P. Silvestrin, S. Feltham, B. A. Gaygerov, and V. M. Tatarenkov |
| 06-26-201 | Investigation into the Effects of VHF and UHF Band Radiation on Hewlett-Packard Cesium Beam Frequency Standards; A. Dickens |
| 06-26-405 | SVN 9 End-of-Life Testing; 1Lt. G. E. Hattan |
| 06-27-125 | Observations on the Reliability of Rubidium Frequency Standards on Block Il/IIA GPS Satellites; 1Lt. G. L. Dieter and Capt. G. E. Hatten |
| 06-27-167 | Cesium and Rubidium Frequency Standards Status and Performance on the GPS Program; M. J. Van Melle |
| 06-27-181 | High Precision Time Transfer to Test a Hydrogen Maser on Mir; E. M. Mattison and R. F. C. Vessot |
| 06-27-209 | Tutorial: Clock and Clock Systems Performance Measures; D. W. Allan |
| 06-27-235 | The Impact of the HP 5071A on International Atomic Time (Appendix A); D. W. Allan, A. Lepek, L. Cutler, Giffard, and J. Kusters |
| 06-27-257 | Steering of Frequency Standards by the Use of Stochastic Linear Quadratic Gaussian Control Theory; P. Koppang and R. Leland |
| 06-28-011 | Impact of Atomic Clocks on Navigation, Communication, and Science; G. Busca |
| 06-28-025 | Impact of International Decisions on TAI Generation; C. Thomas |
| 06-28-051 | Time and Frequency Keeping and Its Distribution System at CRL; M. Imae, M. Hosokawa, Y. Hanado, K. Imamura, A. Otsuka, and T. Morikawa |
| 06-28-065 | Frequency Standards, Timekeeping, and Traceable Services at the National Research Council of Canada; R. J. Douglas, J.-S. Boulanger, S. Cundy, M.-C. Gagne, W. Cazemier, B. Hoger, R. Pelletier, J. Bernard, A. A. Madej, L. Marmet, K. Siemsen, and B. G. Whitford |
| 06-28-075 | Time and Frequency Activities at NIST; J. Levine and D. B. Sullivan |
| 06-28-083 | European PTTI Report; F. Cordara, A. De Marchi, M. Serafino, and S. Leschiutta |
| 06-28-237 | PTB's Primary Clock CS1: First Results After Its Construction; A. Bauch, H. Brand, T. Heindorff, B. Fischer, and R. Schroeder |
| 06-28-245 | The JPL Hg+ Extended Linear Ion Trap Frequency Standard: Status, Stability, and Accuracy Prospects; R. L. Tjoelker, J. D. Prestage, and L. Maleki |
| 06-28-255 | NIST-7, The U.S. Primary Frequency Standard: New Evaluation Techniques; R. E. Drullinger, J. H. Shirley, and W. D. Lee |
| 06-28-265 | A Derivation of the Dick Effect from Control-Loop Models for Periodically Interrogated Passive Frequency Standards; C. A. Greenhall |
| 06-28-273 | Temperature Control for Hydrogen Maser Frequency Standards; Y. Fu, Z. Xhou, and X. Liu |
| 06-28-281 | First Commercial Prototype of an Optically Pumped Cesium-Beam Frequency; M. L. Baldy |
| 06-28-289 | Ultrasensitive High Resolution Laser Spectroscopy and Its Application to Optical Frequency Standards; J. Ye, L.-S. Ma, and J. L. Hall |
| 06-28-429 | The End of an Era: SVN 10 End-of-Life Frequency Standard Testing; 1Lt. G. L. Dieter and M. J. Van Melle |
| 06-28-455 | GLONASS Onboard Time/Frequency Standards: Ten Years of Operation; A. B. Bassevich, P. P. Bogdanov, A. G. Gevorkyan, and A. E. Tyulyakov |
| 06-28-463 | Design of a Hydrogen Maser for Space; E. M. Mattison and R. F. C. Vessot |
| 06-28-477 | PHARAO: A Space Clock with Cold Cesium Atoms; P. Laurent, E. Simon, G. Santarelli, A. Clairon, Ch. Salmon, P. Lemonde, N. Dimarcq, C. Audoin, F. Gonzalez, and F. J. Changeart |
| 06-29-049 | Maintenance of HP 5071A Primary Frequency Standards at USNO; H. Chadsey and A. Kubik |
| 06-29-061 | The SHM Hydrogen Atomic Clock for Space Applications: Development and Test of the PEM Physics Package; L. G. Bernier, A. Jornod, H. Schweda, R. Gentsch, and G. Busca |
| 06-29-085 | The CCTF Working Group on the Expression of Uncertainties in Primary Frequency Standards; R. J. Douglas and C. Thomas |
| 06-29-181 | SVN 20 End-Of-Life Frequency Standard Test Results; Lt. R. E. Bower, G. L. Dieter, and M. J. Van Melle |
| 06-29-201 | Atomic Frequency Standards for the GPS IIF Satellites; W. Emmer and E. Watts |
| 06-29-213 | Early In-Orbit Performance of GPS Block IIR Rubidium Clocks; W. J. Riley |
| 06-29-329 | A Study Examining the Possibility of Obtaining Traceability to UK National Standards of Time and Frequency Using GPS-Disciplined Oscillators; J. A. Davis and J. M. Furlong |
| 06-30-135 | Performance of GPS On-Orbit NAVSTAR Frequency Standards and Monitor Station Time References; O. Oaks, T. McCaskill, M. Largay, W. Reid, and J. Buisson |
| 06-30-145 | GPS Block IIR Rubidium Atomic Frequency Standard Life Test; R. Beard, J. White, J. Brad, S. Stebbins, J. Smathers, T. Myers, F. Danzy, A. Frank, W. Reid, and J. Buisson |
| 06-30-161 | Short-Term Characterizations of GPS-Disciplined Oscillators and Field for Frequency of Italian Calibration Centers; V. Pettiti and F. Cordara |
| 06-30-173 | Analysis of On-Orbit Behavior of GPS Block II-R Time Keeping System; T. Dass, J. Petzinger, J. Rajan, and H. Rawicz |
| 06-30-187 | Real-Time GPS Monitoring of Atomic Frequency Standards in the Canadian Active Control System (CACS); F. Lahaye, M. Caissy, J. Popelar, and R. Douglas |
| 06-30-219 | IEM Kvarz and Quartzlock's GPS-Disciplined Rubidium Frequency and Time Standard; C. Green |
| 06-31-065 | Long-Term Stability of a Rubidium Atomic Clock in Geosynchronous Orbit; J. Coffer and J. Camparo |
| 06-31-075 | Performance of Global Positioning System Block II/IIA/IIR On-Orbit NAVSTAR Clocks; T. McCaskill, O. Oaks, M. Largay, W. Reid, H. Warren, and J. Buisson |
| 06-31-101 | Redundant Atomic Frequency Standard Timekeeping System with Seamless AFS Switchover; V. Reinhardt and C. Sheckells |
| 06-31-211 | Time and Frequency Activities at the CSIRO National Measurement Laboratory, Sydney, Australia; P. Fisk, R. Warrington, M. Lawn, and M. Wouters |
| 06-31-219 | Time and Frequency Activities at IEN; F. Cordara, G. Brida, A. Godone, F. Levi, L. Lorini, M. Mascarello, S. Micalizio, V. Pettiti, P. Tavella, and G. Vizio |
| 06-31-231 | Update on Time and Frequency Activities at NIST; T. Parker and D. Sullivan |
| 06-31-241 | Overview of Research Activities on Time and Frequency at the Communications Research Laboratory; M. Hosokawa, M. Imae, T. Morikawa, N. Kurihara, and K. Okamoto |
| 06-31-247 | Time and Frequency Activities at the National Physical Laboratory; J. Davis |
| 06-31-257 | Recent and Pending Improvements at the U.S. Naval Observatory; D. Matsakis |
| 06-31-297 | Use of Primary Frequency Standards for Estimating the Duration of the Scale Unit of TAI; G. Petit |
| 06-31-449 | Comparison of Atomic Frequency Standards at NIST and PTB Using Carrier-Phase GPS; L. Nelson, J. Levine, T. Parker, K. Larson, P. Hetzel, and J. Becker |
| 06-31-579 | Progress in the Development of IEM KVARZ Passive Hydrogen Masers; N. Demidov, A. Pastukhov, and A. Uljanov |
| 06-31-589 | Vertical Cavity Lasers for Atomic Time Standards; H. Zappe |
| 06-31-597 | Improved Timekeeping Using Advanced Trapped-Ion Clocks; R. Tjoelker, J. Prestage, and L. Maleki |
| 06-31-605 | On the Use of Lambda Transitions in Atomic Frequency Standards; F. Levi, A. Godone, S. Micalizio, and J. Vanier |
| 06-31-615 | A Cost-Effective Time and Frequency Reference; V. Candelier, G. Marotel, D. Thorax, and C. Trialoup |
| 06-31-627 | Rubidium Atomic Clock for Galileo; A. Jeanmaire, P. Rochat, and F. Emma |
| 06-31-649 | An Automated Alarm Program for HP5071A Frequency Standards; H. Chadsey |
| 06-31-657 | Airborne Comparison of an Ultra-Stable Quartz Oscillator With a H-Maser As Another Possible Validation of General Relativity; A. Grishaev |
| 06-32-269 | Performance and Characterization of U.S. Naval Observatory Clocks; L. Breakiron and D. Matsakis |
| 06-32-311 | Theoretical and Experimental Study of Light Shift in a CPT-Based RB Vapor Cell Frequency Standard; M. Zhu and L. Cutler |
| 06-32-325 | Preliminary Results from the USNO Atomic Fountain Development Project; T. Swanson, E. Burt, and C. Ekstrom |
| 06-32-331 | Stabilized Reference Frequency Distribution for Radio Science with the Cassini Spacecraft and the Deep Space Network; M. Calhoun, R. Wang, A. Kirk, W. Diener, G. Dick, and R. Tjoelker |
| 06-32-355 | Development of a Primary Reference Clock; C. Green |
| 06-32-389 | Development and Evaluation of GPS Space Clocks for GPS III and Beyond; A. Wu and W. Feess |
| 06-32-445 | Primary Reference Clocks Using Indoor Antennas; D. Mitchell |
| 06-32-455 | Time and Frequency Activities at the CSIR National Metrology Laboratory; E. Marais |
| 06-32-463 | Detection of the Gravitational Redshift of the Cesium Frequency Standard at CRL; M. Hosokawa, N. Kotake, K. Imamura, and N. Kurihara |
| 06-33-007 | Space Clocks - Why They're Different; J. White and R. Beard |
| 06-33-019 | Optically Pumped Cesium-beam Frequency Standard for GPS III; R. Lutwak, D. Emmons, R. Garvey, and P. Vlitas |
| 06-33-033 | A Compact, Continuous Beam Cold Atom Clock for Satellite Applications; W. Buell and H. Wang |
| 06-33-045 | Mercury Trapped-ion Frequency Standard for the Global Positioning System; R. Tjoelker, E. Burt, S. Chung, R. Glaser, R. Hamell, L. Lim, L. Maleki, J. Prestage, N. Raouf, T. Radey, C. Sepulveda, G. Sprague, B.Tucker, and B. Young |
| 06-33-293 | Report on the Time and Frequency Activities of the Time Service Department of the U.S. Naval Observatory; D. Matsakis |
| 06-33-309 | Primary Frequency Standards at NIST; R. Drullinger |
| 06-33-321 | Update on Time and Frequncy Activities at PTB; P. Hetzel and A. Bauch |
| 06-33-469 | Performance of Global Positioning System Block II/IIA/IIR On-Orbit Navstar Clocks; J. Oaks, T. McCaskill, M. Largay, and J. Buisson |
| 06-33-525 | Influence of Laser Noise on the Optically Pumped, Atomic- beam Clock; J. Camparo |
| 06-33-535 | A New Synchronized Miniature Rubidium Oscillator With an Auto-adaptive Disciplining Filter; P. Rochat and B. Leuenberger |
| 06-34-003 | PTTI Distinguished Service Award to Mr. Harry E. Peters; P. Koppang |
| 06-34-077 | Global Positioning System Constellation Clock Performance; J. Oaks, M. Largay, W. Reid, and J. Buisson |
| 06-34-089 | Enhancements to the GPS Block IIR Timekeeping System; J. Petzinger, R. Reith, and T. Dass |
| 06-34-117 | End-of-life Indicators for NIMA's High-performance Cesium Frequency Standards; C. Brock, B. Tolman, and R. Taylor |
| 06-34-127 | The Experimental Precise Timing Station (E-PTS) for the Galileo System Test Bed (Phase V1): Architectural Design and Experimental Goals; E. Detoma, S. Facioni, M. Gotta, G. Graglia, F. Cordara, L. Lorini, V. Pettiti, P. Tavella, and J. Hahn |
| 06-34-139 | CPT Maser Clock Evaluation for Galileo; F. Levi, A. Godone, S. Micalizio, C. Calosso, E. Detoma, P. Morsaniga, and R. Zanello |
| 06-34-151 | The Global Navigation Satellite System GLONASS: Development and Usage in the 21st Century; G. Polischuk, V. Kozlov, V. Ilitchov, A. Kozlov, V. Bartenev, V. Kossenko, N. Anphimov, S. Revnivykh, S. Pisarev, A. Tyulyakov, B. Shebshaevitch, A. Basevitch, and Y. Vorokhovsky |
| 06-34-161 | The Development of a Passive Hydrogen Maser Clock for the Galileo Navigation System; L. Mattioni, M. Belloni, P. Berthoud, I. Pavlenko, H. Schweda, Q. Wang, P. Rochat, F. Droz, P. Mosset, and H. Ruedin |
| 06-34-175 | GPS Clocks in Space: Current Performance and Plans for the Future; T. Dass, G. Freed, J. Petzinger, J. Rajan, T.Lynch, and J. Vaccaro |
| 06-34-215 | Panel Discussion: The Future of clock Technology for Space; J. White, R. Beard, M. Bloch, J. Bolger, M. Garvey, P. Rochat, and S. Leschiutta |
| 06-34-333 | Design Concept for the Microwave Interrogation Structure in PARCS; G. Dick, W. Klipstein, T. Heavner, and S. Jefferts |
| 06-34-341 | The Crystal Oscillator Characterization Facility at the Aerospace Corporation; S. Karuza, M. Rolenz, A. Moulthrop, A. Young, and V. Hunt |
| 06-34-425 | Time and Frequency Activities at the National Physical Laboratory; J. Davis, P. Whibberley, R. Hlavac, P. Stacey, D. Henderson, K. Szymaniec, W. Chalupczak, and J. Laverty |
| 06-34-437 | Time and Frequency Activities at the U.S. Naval Observatory; D. Matsakis |
| 06-34-457 | Recent Time and Frequency Activities at PTB; D. Piester, P. Hetzel, and A. Bauch |
| 06-34-539 | The Chip-scale Atomic Clock -- Coherent Population Trapping vs. Conventional Interrogation; R. Lutwak, D. Emmons, W. Riley, and R. Garvey |
| 06-35-005 | Presentation of the Distinguished PTTI Service Award to S. Clark Wardrip; J. White |
| 06-35-023 | Time and Frequency Activities at the U.S. Naval Observatory; D. Matsakis |
| 06-35-039 | The National Time and Frequency Service of the Russian Federation; V. Krutikov, V. Kostromin, and N. Koshelyaevsky |
| 06-35-059 | An Update on PTB's Activities in Time and Frequency; D. Piester, A. Bauch, J. Becker, and T. Polewka |
| 06-35-117 | GPS IIR Rubidium Clocks: In-Orbit Performance Aspects; M. Epstein, G. Freed, and J. Rajan |
| 06-35-173 | Global Positioning System Constellation Clock Performance; J. Oaks, K. Senior, M. Largay, W. Reid, H. Warren, and J. Buisson |
| 06-35-307 | New Realization of Terrestrial Time; G. Petit |
| 06-35-333 | Advanced Clocks for PTTI; J. White |
| 06-35-333 | The State of the Art in Amateur Timekeeping; T. Van Baak |
| 06-35-427 | One-liter Ion Clock: New Capability for Spaceflight Applications; J. Prestage, S. Chung, T. Le, M. Beach, L. Maleki, and R. Tjoelker |
| 06-35-435 | Investigations of Vapor-Cell Clock Equilibration Following Initial Activation: A Progress Report; S. Herbulock, C. Klimcak, A. Presser, J. Milne, and J. Camparo |
| 06-35-445 | End Resonances for Atomic Clocks; A. Post, Y. Jau, N. Kuzma, A. Braun, S. Lipp, J. Abeles, M. Romalis, E. Miron, and W. Happer |
| 06-35-457 | Using Laser Diode Instabilities for Chip-Scale Stable Frequency References; T. Simpson, F. Doft, and W. Golding |
| 06-35-467 | The Chip-Scale Atomic Clock - Recent Development Progress; R. Lutwak, D. Emmons, T. English, W. Riley, A. Duwel, M. Varghese, D. Serkland, and G. Peake |
| 06-35-479 | Opto-electronic Oscillator Stabilized by a Hyperfine Atomic Transition; D. Strekalov, D. Aveline, A. Matsko, R. Thompson, N. Yu, and L. Maleki |
| 06-35-489 | Development of New Rb Clocks in Observatoire de Neuchatel; C. Affolderbach and G. Mileti |
| 06-36-173 | Ultra-Low-Noise Cavity-Stabilized Microwave Reference Oscillator Using an Air-Dielectric Resonator; C. Nelson, D. Howe, and A. Sen Gupta |
| 06-36-179 | Time and Frequency Activities at the Physikalisch-Technische Bundesanstalt; D. Piester, A. Bauch, J. Becker, and T. Polewka |
| 06-36-195 | Overview of Research Activities on Time and Frequency at the National Institute of Information and Communications Technology; M. Hosokawa, Y. Takahashi, S. Hama, H. Toriyama, and T. Morikawa |
| 06-36-339 | The Chip-Scale Atomic Clock - Low-Power Physics Package; R. Lutwak, J. Deng, W. Riley, M. Varghese, J. Leblanc, G. Tepolt, M. Mescher, D. Serkland, K. Geib, and G. Peake |
| 06-36-355 | Components for Batch-Fabricated Chip-Scale Atomic Clocks; M. Kwakernaak, S. Lipp, S. McBride, P. Zanzucchi, W. Chan, V. Khalfin, H. An, R. Whaley, B. Willner, A. Ulmer, J. Li, T. Davis, A. Braun, J. Abeles, A. Post, Y. Jau, N. Kuzma, and W. Happer |
| 06-36-383 | Microfabricated Atomic Clocks at NIST; S. Knappe, P. Schwindt, V. Gerginov, V. Shah, L. Hollberg, J. Kitching, L. Liew, and J. Moreland |
| 06-36-393 | Frequency Equilibration and the Light-Shift Effect for Block IIR Rubidium Clocks; J. Camparo |
| 06-36-411 | The Long-Term Stability of the U.S. Naval Observatory's Masers; D. Matsakis, P. Koppang, and R. Garvey |
| 06-36-423 | Development of a Spaceborne Hydrogen Maser Atomic Clock for Quasi-Zenith Satellites; H. Ito, T. Morikawa, H. Ishida, S. Hama, K. Kimura, S. Yokota, S. Mattori, Y. Numata, M. Kitayama, and K. Takahei |
| 06-36-431 | Comparative Analysis of GPS Clock Performance Using Both Code-Phase and Carrier-Derived Pseudorange Observations; J. Oaks, M. Largay, W. Reid, and J. Buisson |
| 06-37-012 | NRL Analysis of GPS On-Orbit Clocks; J. Oaks, K. Senior, M. Largay, R. Beard, and J. Buisson |
| 06-37-019 | GPS Block IIR Clocks in Space: Current Performance and Plans for the Future; J. Phelan, T. Dass, G. Freed, J. Rajan, J. D'Agostino, and M. Epstein |
| 06-37-026 | The Onboard Galileo Rubidium and Passive Maser, Status, and Performance; R. Rochat, F. Droz, P. Mosset, G. Barmaverain, Q. Wang, D. Boving, L. Mattoni, M. Belloni, M. Gioia, U. Schmidt, T. Pike, and F. Emma |
| 06-37-093 | Comparison with an Uncertainty of 2x10-16 between Two Primary Frequency Standards; C. Mandache, C. Vian, P. Rosenbusch, H. Marion, P. Laurent, G. Santarelli, S. Bize, A. Clairon, A. Luiten, and M. Tobar |
| 06-37-099 | Distributed Cavity Phase and the Associated Power Dependence; R. Li and K. Gibble |
| 06-37-105 | On the Power Dependence of Extraneous Microwave Fields in Atomic Standards; S. Jefferts, J. Shirley, N. Ashby, T. Heavner, E. Donley, and F. Levi |
| 06-37-111 | Limitations to the Short Term Frequency Stability in a Compact Cold Atom Clock; S. Tremine, S. Guerandel, D. Holleville, J. Delporte, N. Dimarcq, and A. Clairon |
| 06-37-117 | Testing Lorentz Invariance Using Zeeman Transitions in Atomic Fountains; P. Wolf, F. Clapelet, S. Bize, and A. Clairon |
| 06-37-217 | Time and Frequency Activities at the U.S. Naval Observatory; D. Matsakis |
| 06-37-225 | Update of Research Activities on Time and Frequency at the National Institute of Information and Communications Technology (NICT); S. Hama, M. Hosokawa; Y. Takahashi, H. Toriyama, and T. Morikawa |
| 06-37-231 | Time and Frequency Activities at the National Measurement Institute, Australia; R. Warrington, P. Fisk, M. Wouters, M. Lawn, J. Thorn, S. Quigg, A. Gajaweera, and S. Park |
| 06-37-261 | Long Term Study of the H-Maser Clocks at the Royal Observatory of Belgium; F. Roosbeek and P. Defraigne |
| 06-37-266 | Progress in Building NRC's Cesium Fountain Clock; L. Marmet, P. Dube, and C. Gigault |
| 06-37-270 | Laser-Cooled Continuous Cs-Beam Master Oscillator; H. Wang, W. Buell, and G. Iyanu |
| 06-37-276 | The New PTB Caesium Fountain Clock CSF2; R. Wynands, A. Bauch, D. Griebsch, R. Schroeder, and S. Weyers |
| 06-37-279 | Light Shift Measurements in a Cesium Fountain Without the Use of Mechanical Shutters; D. Enzer, W. Klipstein, and R. Tjoelker |
| 06-37-285 | Measurements of Cesium Polarizability in Atomic Clock via Light Frequency Shift; J. Chen |
| 06-37-288 | Demonstration and Observation of a Frequency Standard Based on an Expanding Cold Atoms Cloud of Cesium; S. Miller, D. Magalhaes, A. Bebeachibuli, M. Santos, and V. Bagnato |
| 06-37-292 | Laser Cooling and Launching Performance in a (1,1,1)-Geometry Atomic Fountain; E. Donley, T. Heavner, J. O'Brien, S. Jefferts, and F. Levi |
| 06-37-297 | Nonmagnetic UHV Optical Viewports; S. Crane and C. Ekstrom |
| 06-37-301 | Miniaturized Atomic Fountain Optical Table; S. Crane, S. Peil, and C. Ekstrom |
| 06-37-304 | Design and Preliminary Characterization of the USNO Rubidium Fountain; S. Peil, S. Crane, T. Swanson, and C. Ekstrom |
| 06-37-308 | A New Microwave Synthesis Chain for the Primary Frequency Standard NIST-F1; T. Heavner, S. Jefferts, E. Donley, T. Parker, and F. Levi |
| 06-37-404 | Clock Management Data Analysis for Satellite Communications; R. Gross and R. Melkers |
| 06-37-463 | Dynamic Frequency Response of the Auto-Tuned Hydrogen Maser to Systematic Perturbations; H. Peters |
| 06-37-466 | Characterization and Reduction of Number Dependent Sensitivity in Multi-Pole Linear Ion Trap Standards; E. Burt and R. Tjoelker |
| 06-37-472 | Liter Sized Ion Clock with 10-15 Stability; J. Prestage, S. Chung, T. Le, L. Lim, and L. Maleki |
| 06-37-477 | Ion-Acoustic Plasma Waves in rf-Discharge Lamps: Light-Shift Stabilization for Atomic Clocks; J. Camparo and C. Klimcak |
| 06-37-488 | Impedance Control for Critically Coupled Cavities; B. Riddle and C. Nelson |
| 06-37-594 | A Rubidium Frequency Standard Based on Unreal Time Control Approach; H. Zhou, W. Zhou, B. Qu, and Z. Xuan |
| 06-37-598 | Theoretical Studying About the Measurement of the C-Field Intensity in the Optical Pumped Cesium Frequency Standard; J. Zhang, F. Wang, and D. Yang |
| 06-37-602 | Characterizing Absorption Spectrum of Natural Rubidium by Using a Directly Modulated VCSEL; I. Ben-Aroya and G. Eisenstein |
| 06-37-608 | Optical Lattice Laser; J. Chen and X. Chen |
| 06-37-611 | Development of a 171Yb+ Microwave Frequency Standard at the National Measurement Institute, Australia; R. Warrington, P. Fisk, M. Wouters, M. Lawn, J. Longdell, and S. Park |
| 06-37-616 | Single Ca+ Ion Trapping Toward Precise Frequency Measurement of the 4 2S1/2-3 2D5/2 Transition; K. Matsubara, Y. Li, M. Kajita, K. Hayasaka, M. Hosokawa, and S. Urabe |
| 06-37-639 | Robust Control of Frequency Standards in the Presence of Systematic Disturbances; J. Skinner, P. Koppang, and D. Johns |
| 06-37-677 | Characterizing the Performance of GPS Disciplined Oscillators with Respect to UTC(NIST); M. Lombardi, A. Novick, and V. Zhang |
| 06-37-752 | The MAC - A Miniature Atomic Clock; R. Lutwak, P. Vlitas, M. Varghes, M. Mescher, D. Serkland, and G. Peake |
| 06-37-758 | Component-Level Demonstration of a Microfabricated Atomic Frequency Reference; V. Gerginov, S. Knappe, P. Schwindt, V. Shah, L. Liew, J. Moreland, H. Robinson, L. Hollberg, J. Kitching, A. Brannon, J. Breitbarth, and Z. Popvic |
| 06-37-767 | A Novel Absorption Resonance for Atomic Clocks; D. Phillips, I. Novikova, S. Zibrov, C. Smallwood, A. Taichenachev, V. Yudin, R. Walsworth, and A. Zibrov |
| 06-37-774 | Recent Results on a Pulsed CPT Clock; T. Zanon, S. Tremine, S. Guerandel, F. Dahes, E. de Clercq, A. Clairon, and N. Dimarcq |
| 06-37-840 | NGA GPS Monitor Station High-Performance Cesium Frequency Standard Stability: From NGA Kalman Filter Clock Estimates; D Manning |
| 06-37-919 | A High Performance Frequency Standard and Distribution System for Cassini Ka-Band Experiment; R. Wang, M. Calhoun, A. Kirk, W. Diener, G. Dick, and R. Tjoelker |
| 06-37-940 | A Solid-State Atomic Frequency Standard; C. White and A. Hajimiri |
| 06-37-947 | Minimizing the Required Trap Depth in Optical Lattice Clocks; P. Lemonde and P. Wolf |
| 06-38-017 | Update of Research Activities in Time and Frequency at the National Institute of Information and Communications Technology (NICT); K. Matsubara, S. Hama, K. Imamura, Y. Koyama, H. Toriyama, and M. Hosokawa, National Institute of Information and Communications Technology, Japan |
| 06-38-069 | Historical Review of Atomic Frequency Standards Used in Space Systems: 10 Year Update; L. Mallette, The Boeing Company; P. Rochat, Temex Time, Switzerland; and J. White, U.S. Naval Research Laboratory |
| 06-38-081 | Verification and Optimization of the Physics Parameters of the Onboard Galileo Passive Hydrogen Maser; Q. Wang, P. Mosset, F. Droz, P. Rochat, Temex Time, Switzerland; and G. Busca, Kytime, Switzerland |
| 06-38-095 | Miniaturized Mercury Ion Clock for Ultra-stable Deep Space Applications; J. Prestage, S. Chung, L. Lim, and T. Le, California Institute of Technology |
| 06-38-105 | A Multi-Channel Stability Analyzer for Frequency Standards in the Deep Space Network; C. Greenhall, A. Kirk, and R. Tjoelker, California Institute of Technology |
| 06-38-123 | Quadrapole Transition Spectrum Measurement of Single Ca+ Ions Toward Optical Frequency Standards; K. Matsubara, Y. Li, K. Fukuda, H. Ito, S. Nagano, M. Kajita, K. Hayasaka, S. Urabe, and M. Hosokawa, National Institute of Information and Communications Technology, Japan |
| 06-38-137 | AF/NGA GPS Monitor Station High-Performance Cesium Frequency Standard Stability 2005/2006: From NGA Kalman Filter Clock Estimates; D. Manning, National Geospatial-Intelligence Agency |
| 06-38-241 | Long-Term Stability of NIST Chip-Scale Atomic Clock Physics Packages; S. Knappe, National Institute of Standards and Technology; V. Shah, University of Colorado; V. Gerginov, University of Notre Dame; A. Brannon, University of Colorado; L. Hollberg, and J. Kitching, National Institute of Standards and Technology |
| 06-38-259 | A CPT-Based 87Rb Atomic Clock Employing a Small Spherical Glass Vapor Cell; I. Ben-Aroya, M. Kahanov, and G. Eisenstein, Technion, Israel |
| 06-38-271 | Sub-10-16 Frequency Stability in the JPL Multi-Pole Linear Ion Trap Standard; E. Burt, D. Enzer, R. Wang, W. Diener, and R. Tjoelker, California Institute of Technology |
| 06-39-045 | Atomic and Quartz Clock Hardware for Communication and Navigation Satellites; L. Mallette |
| 06-39-059 | Long-Term Clock Behavior of GPS IIR Satellites; M. Epstein, T. Dass, J. Rajan, and P. Gilmour |
| 06-39-095 | GIOVE-A Apparent Clock Assessment and Results; J. Hahn, F. Gonzalez, P. Waller, D. Navarro-Reyes, R. Piriz, A. Mozo, V. Fernandez, M. Cueto, P. Tavella, and I. Sesia |
| 06-39-119 | A Summary of the GPS Constellation Clock Performance; J. Oaks, J. Buisson, and M. Largay |
| 06-39-223 | Towards Demonstration of a MOT-Based Continuous Cold Cs-Beam Atomic Clock; H. Wang, J. Camparo, and G. Iyanu |
| 06-39-233 | RF-Interrogated End-State Chip-Scale Atomic Clock; A. Braun, T. Davis, M. Kwakernaak, J. Michalchuk, A. Ulmer, W. Chan, L. Abeles, Z. Shellenbarger, Y. Jau, F. Gong, W. Happer, T. McClelland, H. Fruehauf, R. Drap, W. Weidemmann, and M. Variakojis |
| 06-39-249 | Compact Microwave Mercury Ion Clock for Space Applications; J. Prestage, M. Tu, S. Chung, and P. MacNeal |
| 06-39-257 | Single Ca+ Ion Trapping and Quadrupole Transition Measurement towards an Optical Frequency Standard; K. Matsubara, Y. Li, H. Ito, S. Nagano, K. Hayasaka, and M. Hosokawa |
| 06-39-269 | The Chip-Scale Atomic Clock - Prototype Evaluation; R. Lutwak, A. Rashed, M. Varghese, G. Tepolt, J. LeBlanc, M. Mescher, D. Serkland, K. Geib, G. Peake, and S. Roemisch |
| 06-39-291 | A Simplified Laser and Optics System for Laser-Cooled Rb Fountain Frequency Standards; P. Kunz, T. Heavner, and S. Jefferts |
| 06-39-297 | Development of a Conventional Laser-Pumped Rb Atomic Clocl: Status Report; C. Back and J. Camparo |
| 06-39-303 | Effects of Polarization Fluctuations in CPT-Based Atomic Clocks; M. Huang, J. Coffer, and J. Camparo |
| 06-39-309 | Prospects for Ultra-stable Timekeeping with Sealed Vacuum Operation in Multi-pole Linear Ion Trap Standards; E. Burt and R. Tjoelker |
| 06-39-317 | Influence of the Atmosphere on a Rubidium Clocks Frequency Aging; J. Camparo and C. Klimcak |
| 06-40-017 | The Master Clock Building at USNO Infrastucture; W. Walls |
| 06-40-051 | History and Performance of FEI Space-Class Oscillators; M. Bloch, O. Mancini, and T. McClelland |
| 06-40-029 | Ultrastable Oscillators for Space Application; P. Cash, D. Emmons, and J. Welgemoed |
| 06-40-057 | Enhancing the Art of Space Operations -- Progress in JHU/APL Ultra-Stable Oscillator Capabilities; G. Weaver, M. Reinhart, and R. Wallis |
| 06-40-069 | In-Orbit Performance Assessment of GIOVE Clocks; P. Waller, F. Gonzalez, J. Hahn, S. Binda, R. Piriz, I. Hidalgo, G. Tobias, Sesia, P. Tavella, and G. Cerretto |
| 06-40-147 | Towards an Integrated Optic Phase-Locked Oscillator; M. Watts, J. Kim, F. Kaertner, A. Lentine, and W. Zortman |
| 06-40-157 | Progress on a Portable Rubidium Fountain FrequencyStandard; P. Kunz, T. Heavner, and S. Jefferts |
| 06-40-335 | AF/NGA GPS Monitor Station High-Performance Cesium Frequency Standard Stability 2007/2008: From NGA Kalman Filter Clock Estimates; D. Manning and C. Petersen |
| 06-40-361 | Estimation and Prediction of the GIOVE Clocks; I. Hidalgo, R. Piriz, A. Mozo, G. Tobias,, P. Tavella, I. Sesia, G. Cerretto, P. Waller, F. Gonzalez, and J. Hahn |
| 06-40-527 | Locking a Rubidium Oscillator to a Remote Time Scale Using Real-Time Common-View GPS Measurement; M. Lombardi and A. Dahlen |
| 06-41-473 | Investigations into the Rb Clock's 2nd Harmonic Signal: A Status Report; G. Fathi and J. Camparo |
| 06-41-493 | Space Passive Hydrogen Maser--Performances, Lifetime Data, and GIOVE-B-related Telemetries; M. Belloni, M. Gioia, S. Beretta, F. Droz, P. Mosset, Q. Wang, P. Rochat, A. Resti, P. Waller, and A. Ostillio |
| 06-41-509 | Micro Ion Frequency Standard; P. Schwindt, R. Olsson, K. Wojciechowski, D. Serkland, T. Statom, H. Partner, G. Biedermann, L. Fang, A. Casias, and R. Manginell |
| 06-41-519 | A Space Rubidium Pulsed Optical Pumped Clock--Current Status, Results, and Future Activities; M. Belloni, A. Battisti, A. Cosentino, A. Sapia, A. Borella, S. Micalizio, A. Godone, F. Levi, C. Calosso, L. Zuliani, F. Longo, and M. Donati |
| 06-41-531 | Progress on a Portable Rubidium Fountain Frequency Standard; P. Kunz, T. Heavner, and S. Jefferts |
| 06-42-305 | 10 to the Minus 10th-Level Simple Single-Oven OCXO; M. Ito, H. Mitome, and T. Oita |
| 06-42-315 | A Portable Rubidium Fountain; P. Kunz, T. Heavner, and S. Jefferts |
| 06-42-321 | Cesium Atomic Fountain Clocks at NMI; A. Takamizawa, S. Yanagimachi, Y. Shirakawa, K. Watabe, K. Hagimoto, and T. Ikegami |
| 06-42-329 | Studies on an Improved Compact Physics Package for Rubidium Standards; T. Bandi, C. Affolderbach, C. Calosso, and G. Mileti |

