Index to the proceedings of the Precise Time And Time Interval (PTTI) systems and applications (formerly applications and planning) meeting
ATOMIC AND MOLECULAR FREQUENCY STANDARDS
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 |