TABLE OF CONTENTS Part A Session Papers |
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I.1 | Classical Problem in Gravitation (Chairman: E. Lifshitz) | |
I.1.1 | On Coordinates and Coordinate Transformation in Einstein's Theory of Gravitation | |
Chou Peiyan | 1 | |
I.1.2 | Applications of the Riemann-Hilbert Problem to General Relativity | |
F.J. Ernst | 21 | |
I.1.3 | Ernst Equation Bäcklund Transformations Revisited: New Approaches and Results | |
B.K. Harrison | 29 | |
I.1.4 | The Gravitational Radiation Damping and the Change of Coordinates | |
Hu Ning | 41 | |
I.1.5 | A Non-local Variable for General Relativity | |
C.N. Kozameh and E.T. Newman | 51 | |
I.1.6 | Global Solutions of Yang-Mills and Associated Field Equations | |
Y. Choquet-Bruhat | 57 | |
I.2 | Alternative Approaches to Gravitational Theory (Chairman: P. Bergmann) | |
I.2.1 | Topologically Massive Three-dimensional Vector and Gravity Gauge Theories | |
R. Jackiw | 69 | |
I.2.2 | On Spacetimes Without Maximal Surfaces | |
D.R. Brill | 79 | |
I.2.3 | A Formulation of Nonlinear Gauge Theory and Its Applications | |
Lu Qikeng, Guo Hanying and Wu Ke | 89 | |
I.2.4 | Vacuum Solutions with Double Duality Properties of the Poincaré Gauge Field Theory. II | |
P. Baekler, F.W. Hehl and H.J. Lenzen | 107 | |
I.2.5 | Possible Role of Torsion in Gravitational Theories | |
H.T. Nieh | 129 | |
I.2.6 | On the Motion of a String in a Curved Space-Time | |
Gu Chaohao | 139 | |
I.2.7 | Prolongation Structure, Bäcklund Transformation and Principal Homogeneous Hilbert Problem in General Relativity | |
Guo Hanying, Wu Ke and Wang Shikun | 143 | |
I.2.8 | General Relativistic Hydrodynamic Wave Propagation | |
A.H. Taub | 165 | |
I.2.9 | Relativistic Generalization of the Newtonian Force | |
A. Qadir and J. Quamar | 189 | |
I.2.10 | Lagrangeans, Bäcklend Transformations and a Stationary Solution of the Relativistic Two-body Problem | |
C. Hoenselaers | 221 | |
I.2.11 | Subquark Pregeometry and the Possible Origin of Our Universe | |
H. Terazawa | 239 | |
I.3 | Supergravity (Chairman: Hu Ning) | |
I.3.1 | Spanteneously Broken Supergravity and the Scale of Weak Interactions | |
S. Ferrara | 251 | |
I.3.2 | Supergravity, the Seven-sphere, and Spontaneous Symmetry Breaking | |
M.J. Duff | 269 | |
I.3.3 | N=8 Supergravity | |
B. de Wit | 295 | |
I.4 | Quantum Gravity and
Quantum Field Theory in Curved Space (Chairman: B. de Wit) |
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I.4.1 | Path Integration Quantization | |
C. DeWitt-Morette | 309 | |
I.4.2 | Finite Temoerature Effects of Quantum Gravity | |
C. Mukku and W.A. Sayed | 321 | |
I.4.3 | Gravitational Perturbations of the Hydrogen Atom | |
L. Parker | 343 | |
I.4.4 | The Quantum Effect in General Relativity | |
Duan Yishi and Yu Chongyuan | 353 | |
I.4.5 | On the Perturbations of Kerr-Newman Metric | |
V. Bellezza and V. Ferrari | 359 | |
I.4.6 | Infinitely Conserved Currents and Hidden Symmetry Algebra Related to the Belinskil-Zakharov's Formulation of Gravity | |
Wu Yongshi, Ge Molin and Hou Boyu | 367 | |
I.5 | Cosmology (Chairman: J. Ehlers) | |
I.5.1 | Large-scale Inhomogeneities in the Universe - Some Recent Developments | |
Fang Lizhi | 383 | |
I.5.2 | Cluster and Void in the Expanding Universe | |
H. Sato | 405 | |
I.5.3 | Finite Temperature Quantum Processes in the Early Universe | |
B.L. Hu | 415 | |
I.5.4 | The Anisotropic Space-Time: A Possible Arena of Subnuclear Phenomena | |
G. Preparata | 431 | |
I.6 | Early Universe (Chairman: Lu Hefu) | |
I.6.1 | Gauge Freedom in Perfect Fluid Spatially Homogeneous Spacetimes | |
R.T. Jantzen | 447 | |
I.6.2 | Some Recent Developments in the Masive Neutrino Cosmology | |
Lu Tan and Fang Lizhi | 461 | |
I.6.3 | Black Hole and Wormhole Creation by Phase Transition and Monopole Problem | |
K. Sato and M. Izawa | 481 | |
I.6.4 | Self-consistent Generalized Hawking Thermal States for FRW Universes | |
G. Horwitz | 495 | |
I.6.5 | Cosmology, Inflation and Supersymmetry | |
A. Albrecht, S. Dimopoulos, W. Fischler, E.W. Kolb, S. Saby and P.J. Steinhardt | 511 | |
I.6.6 | Early Universe and GUT | |
M. Yoshimura | 527 | |
I.6.7 | On the Structure of Semidegenerate Massive Neutrino Halos | |
R. Ruffini and L. Stella | 545 | |
I.6.8 | On Cosmic Censorship: Do Compact Cauchy Horizons Imply Symmetry? | |
J. Isenberg and V. Moncrief | 561 | |
I.7 | Physics of Compact Bodies (Chairma: A. Papapetrou) | |
I.7.1 | Space-like Infinity | |
M. Alexander and P.G. Bergmann | 575 | |
I.7.2 | Radiation Damping in General Relativity | |
T. Damour | 583 | |
I.7.3 | Quasi-normal Modes of a Black Hole | |
B. Mashhoon | 599 | |
I.7.4 | Some Recent Developments in Problems of Quasar Like Objects | |
S. Tsuruta | 609 | |
I.7.5 | Interpretation of Spectroscopic Variations in SS 433 | |
G.H. Newsom and G.W. Collins, II | 625 | |
I.7.6 | Nutation-like Effects in the Relativistic Radial Velocities of SS 433 | |
A. Mammano and F. Ciatti | 637 | |
I.7.7 | Coordinate Conditions for Numerical Relativity | |
T. Piran | 643 | |
I.8 | Gravitational Ware Experiments (Chairman: W. Fairbank) | |
I.8.1 | Quantum Theory of the Gravitational Wave Antenna | |
J. Weber | 653 | |
I.8.2 | The Gravitational Wave Experiment of the Rome Group | |
E. Amaldi, P. Bonifazi, E. Coccia, S. Frasca, I. Modena, G.V. Pallottino, G. Pizzella and F. Ricci | 655 | |
I.8.3 | A Progress Report on the Stanford Low Temperature Gravitational Wave Detector | |
M. Bassan, W.M. Fairbank, E. Mapoles, M.S. McAshan, P.F. Michelson, B. Moskowitz, K. Ralls and R.C. Taber | 667 | |
I.8.4 | Gravitational Waves: An Introduction and a Progress Report | |
W.O. Hamilton | 679 | |
I.8.5 | Laser Interferometry and Gravitational Waves | |
H. Billing | 705 | |
I.8.6 | Gravitational Wave Experiments in China | |
Feng Songlin, Hu Renan, Liu Yicheng, Liu Zaihai, Qin Rongxian, Song Yuxia, Tan Dajun, Tian Jingfa, Wang Guozong, Yan Yonglian, Zhang Pinghua, Chen Jiayan, Guan Tongren, Hu Enke, Tang Mengxi and Yu Po | 707 | |
I.8.7 | Progress in the Development of a Niobium Gravitational Radiation Antenna | |
D.G. Blair, J. Bryant, M.J. Buckingham, B. Candy, C. Edwards, J. Ferrerinho, R.N. James, F. van Kann, A.G. Mann, L.D. Mann, T. Suzuki, P.J. Veitch, W. Back and I. Castledon | 719 | |
I.8.8 | Developments in Laser Interferometer Gravitational Wave Detectors | |
R.W.P. Drever, S. Hoggan, J. Hough, BJ. Meers, A.J. Munley, G.P. Newton, H. Ward, D.Z. Anderson, Y. Gursel, M. Hereld, R.E. Spero and S.E. Whitcomb | 739 | |
I.9 | Gavitational Experiments (Chairman: S. Hayakawa) | |
I.9.1 | Tests of the Gravitational Inverse Square Law on a Laboratory Distance Scale | |
R.D. Newman | 755 | |
I.9.2 | Cryogenic Equivalence Principle Experiment: Discussion and Present Status | |
P.W. Worden Jr. | 771 | |
I.9.3 | Solar System Tests of Relativity | |
R.D. Reasenberg | 781 | |
I.9.4 | A Proposed Measurement of the Deflection of Starlight by the Sun Using Hipparcos | |
J.T. Anderson | 797 | |
I.9.5 | The Atomic Hydrogen Maser. Is It the Best Clock for Gravity and Relativity Measurements? | |
R.F.C. Vessot | 803 | |
I.9.6 | Cosmological Consequences of the Langmuir Condensation and Zakharov Collapse | |
A.V. Byalko | 823 | |
Part B Workshop Papers | ||
II.1 | Classical Problem in Gravitation (Chairman: D. Brill) | |
II.1.1 | Junction Conditions and the Propagation of Isometries in General Relativity | |
L. Herrera and J. Jiménez | 889 | |
II.1.2 | Some Invariance
Theorems of the Geometry in Einstein Non-Symmetrical Field Theory and the Classification
of Pseudo-Tensor Field ![]() |
|
Liu Shulin | 893 | |
II.1.3 | Post-Post-Newton Contribution to the Gravitational Deflection of Light in Arbitrary Region | |
Xu Chongming, Xu Jianjiun, Huang Zhenghua and Yang Lantian | 899 | |
II.1.4 | The Problem of Motion | |
Wu Ke and Guo Hanying | 903 | |
II.2 | Alternative Approaches to Gravitational Theory (Chairman: F. Hehl) | |
II.2.1 | Approximate Solution for the R+R2 Theories of Gravitation with Torsion | |
Zhang Yuanzhong | 911 | |
II.2.2 | Riemannian Structure on Gauge Group and Metric Compatible Yang-Mills Theory | |
Liu Yufen | 915 | |
II.2.3 | Rosen's Bi-metric Theory of Gravity as a Harmonic Map | |
W.R. Stoeger | 921 | |
II.2.4 | Group Covariance and Metrical Theory | |
L. Halpern | 927 | |
II.2.5 | A Conformally Invariant Theory of Gravitation and Electromagnetism | |
G.Papini | 933 | |
II.2.6 | Dynamical Properties of Spinor Gauge Theory | |
Liu Yaoyang and Zhu Dongpei | 937 | |
II.2.7 | Newtonian Limit of an R+R2 Theory of Gravity with Torsion | |
J.Anandan | 941 | |
II.2.8 | Theories of Gravity Alternative to General Relativity | |
I. Ciufolini | 947 | |
II.3 | Gravitational
Radiation and Perturbation Problems (Chairmen: T. Damour and G. Tauber) |
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II.3.1 | A Remark on the Problem of Gravitational Radiation | |
A.Papapetrou | 951 | |
II.3.2 | Gravitational Radiation from Two Compact Bodies: The Radiative | |
Losses at the Post Linear Approximation of General Relativity | ||
N. Deruelle | 955 | |
II.3.3 | On the Types of Einstein Equations and Globally Admissible Coordinate Systems | |
V.Unt | 959 | |
II.3.4 | Gravitational Radiation from Perturbed Astrophysical Sources: | |
Progress Towards an Optimally Economical and Flexible Theory | ||
U.H. Gerlach | 963 | |
II.3.5 | Improved Equations for Gravitational Perturbations of the Kerr Geometry | |
M. Sasaki and T. Nakamura | 969 | |
II.3.6 | Pseudoanalyticity and Minimal Surface in Electromagnetic | |
Perturbation of the Kerr Geometry | ||
W.K. Chan and F.G.Shin | 973 | |
II.3.7 | The Conservation Law of Energy-Momentum in General Relativity | |
Duan Yishi and Wang Youtang | 981 | |
II.4 | Exact Solutions of Einstein's Equations (Chairman: C. Hoenselaers) | |
II.4.1 | Gravitational Fields with Symmetries: Bundle Connections and Gauge Transformations | |
F.J. Chinea | 989 | |
II.4.2 | Einstein Equations, Self-Dual Yang-Mills Field and Non-Linear s Models | |
N.Sanchez | 993 | |
II.4.3 | On Transformations Which Leave Invariant the Einstein Equations | |
Pham Mau Quan | 997 | |
II.4.4 | Field of an Arbitrarily Accelerating Charged Point Mass | |
Wang Yongjou and Lin Xiang | 1001 | |
II.4.5 | The Stationary Gravitational Field of an Infinite Rod | |
Ding Haogang | 1005 | |
II.4.6 | Imaginary Coordinate, Decrease of the Horizon Area of Schwarzschild Black Holes and Naked Singularities | |
Wang Yongcheng | 1009 | |
II.4.7 | The Complexification of a Non-Rotating Sphere: An Extension of the Newman-Janis Algorithm | |
L. Herrera and J. Jiménez | 1017 | |
II.4.8 | Electrovac Generalization of Neugebauer's N=2 Solution and a New | |
Nine-Parameter Electrovac Solution of the Coupled | ||
Einstein-Maxwell Field Equations | ||
Guo Dongsheng | 1023 | |
II.4.9 | On the Harmony of the Ernst Equation | |
C. Reina | 1029 | |
II.4.10 | Geometrical Meaning of Bäcklund Transformation for Ernst Equation | |
Hou Boyu, Hou Boyuan and Wang Pei | 1033 | |
II.4.11 | The N-Fold Charged Kerr Family Solution | |
Wang Shikun, Guo Hanying and Wu Ke | 1039 | |
II.4.12 | On the Kramer-Neugebauer Spinning Masses Solutions | |
M. Yamazaki | 1045 | |
II.4.13 | Structure of the Two Kerr-Solution | |
M. Kihara, K. Oohara, H. Sato and A. Tomimatsu | 1049 | |
II.4.14 | N Rank Zero HKX Transformations | |
W. Dietz | 1053 | |
II.4.15 | Exact Global Radiative Solutions to the Bondi Initial Value Problem | |
R.A. Isaacson, J.S. Welling and J. Winicour | 1059 | |
II.4.16 | A New Approach to the Algebraic Structure in Stationary Axially Symmetric Gravity | |
Wu Yongshi and Ge Molin | 1067 | |
II.4.17 | The Geometry of Sine-Laplace, Sinh-Laplace Equations | |
Hu Hesheng | 1073 | |
II.5 | Numerical Relativity (Chairman: T. Nakamura) | |
II.5.1 | Temporal Gage in General Relativity | |
Y. Choquet-Bruhat and T. Ruggeri | 1079 | |
II.5.2 | [(2+1)+1]-Dimensional Representation of the Einstein Equations | |
K.Maeda | 1083 | |
II.6 | Supersymmetry and Supergravity (Chairman: P. Townsend) | |
II.6.1 | Quaternions and N=2 Supersymmetry | |
P. Townsend | 1087 | |
II.6.2 | On the Stability of Kaluza-Klein Vacuum | |
An Ing and Chen Shi | 1091 | |
II.6.3 | Discussion About the Irreducible Representations of Superalgebras OSP (m/2n) | |
Han Qizhi and Sun Hongzhou | 1095 | |
II.6.4 | Superspace and the Super Killing Equation, Super Algebra | |
Zhang Lining | 1103 | |
II.6.5 | Torsion Constraints in Supergravity | |
S.Bedding | 1107 | |
II.6.6 | Is Supergravity Well-Posed? | |
J. Isenberg, D. Bao and P.B. Yasskin | 1111 | |
II.6.7 | Can Leptons and Quarks Achieve Superunification at Composite Level? | |
Zhang Dehai | 1121 | |
II.6.8 | An Approach to the Supergravity Theories | |
Shao Changgui | 1129 | |
II.6.9 | Hermitian Gravity and Supergravity | |
V. De Sabbata and M. Gasperini | 1135 | |
II.6.10 | Supergravity as a Generalized Einstein-Cartan Connection | |
B.Morel | 1147 | |
II.7 | Quantum Gravity (Chairman: C. DeWitt) | |
II.7.1(a) | Is Our Universe an Open System? | |
D.N. Page | 1153 | |
II.7.1(b) | Is Gravity Quantized? | |
D.N. Page | 1157 | |
II.7.2 | Manifestly Covariant Canonical Formalism of Quantum Gravity | |
N. Nakanishi | 1161 | |
II.7.3 | A Gauge Invariant Resummation of Quantum Gravity | |
A. Strominger | 1165 | |
II.7.4 | Kaluza-Klein Vacua | |
P.G.O. Freund | 1171 | |
II.7.5 | Micro canonical Quantum Gravity | |
A.E. Strominger | 1175 | |
II.8(A) | Quantum Field Theory in Curved Space-Time (A) (Chairman: L. Parker) | |
II.8(A).1 | Quantum Effects near Horizons in a Stationary Riemann Space-Time | |
Zhao Zheng and Guei Yuanxing | 1177 | |
II.8(A).2 | Quantum Mechanical Tests of General Relativity | |
J.Anandan | 1185 | |
II.8(A).3 | Approximate Stress Tensors near a Black Hole | |
D.N. Page | 1189 | |
II.8(A).4 | The Hawking Radiation of Charged Dirac Particles in Kerr-Newman Spacetime | |
XuDianyan | 1193 | |
II.8(A).5 | Blackbody Radiation from Light Cone in Flat Space Time | |
U.H. Gerlach | 1201 | |
11 .8(A).6 | On Defining Particles in Robertson-Walker Spacetimes | |
T. Dray | 1205 | |
II.8(A).7 | Feynman's Path-Integral Method and Hawking Evaporation | |
Liu Liao | 1209 | |
1I.8(A).8 | On the Reversible Processes in the Thermodynamics of Black Hole | |
Chen Lianfan and Zhou Minyao | 1217 | |
II.8(A).9 | A Geometrical Foundation of a Unified Field Theory | |
G.E.Tauber | 1221 | |
II.8(B) | Quantum Field Theory in Curved Space-Time (B) (Chairman: H.T. Nieh) | |
II.8(B).1 | Generalised Field Theory and General Relativity | |
A.H. Klotz | 1237 | |
II.8(B).2 | The Geometrical Origin of Temperature of Quantum Fields in Equilibrium on Spacetimes with Horizons | |
Zhou Minyao, Chen Liangfan and Guo Hanying | 1243 | |
II.8(B).3 | Quantization Ambiguity and the Aharanov-Bohm Effect | |
G. Kunstatter | 1247 | |
II.8(B).4 | An Almost Trivial Gauge Theory in the Limit of Infinite Gauge Coupling Constant | |
S. Kaptanoglu | 1253 | |
II.9 | Collapse Objects (Chairman: S. Tsuruta) | |
II.9.1(a) | Pulsar Statistics and Two Types of Pulsars | |
Huang Jiehao, Huang Keliang and Peng Qiuhe | 1265 | |
II.9.1(b) | Thermal X-Ray Emission from Isolated, Older Pulsars: | |
A New Heating Mechanism | ||
Huang Jiehao, Peng Qiuhe,Huang Keliang and R.E. Lingenfelter | 1269 | |
II.9.2 | Transport Properties of Dense Matter | |
N. Itoh, S. Mitake, H. Iyetomi and S. Ichimaru | 1273 | |
II.9.3(a) | Abnormal Neutron Stars with Abnormal Protons | |
Qu Qinyue, Wang Zhenru, Lu Tan and Chu Yi | 1277 | |
II.9.3(b) | Quark-Abnormal Neutron Stars | |
Qu Qinyue, Wang Zhenru and Zhao Jiabing | 1279 | |
II.9.4 | The Distribution of the Projected Density of Stars near the | |
Reissner-Nordstrom Black Hole in a Globular Cluster | ||
Shen Yougen and Zhang Qinyuan | 1283 | |
II.9.5 | Behavior of Entropy of Self-Gravitating Radiation in Collapse | |
Zhang Zhenjiu | 1289 | |
II.9.6 | Clusters of Black Holes as Models for Active Galactic Nuclei | |
W.R. Stoeger and A.G. Pacholczyk | 1295 | |
II.10 | Inhomogeneities in the Universe (Chairmen: Zou Zhenlong and Gao Jiangong) | |
II.10.1 | Density Fluctuation Models and Low-Order Harmonics in the | |
Background Radiation Anisotropy | ||
R. Fabbri, I. Guidi and V. Natale | 1301 | |
II.10.2 | The Cosmic Density Wave and Its Observable Vestige | |
Liu Yongzhen | 1305 | |
II.10.3 | The Periodicity in the Distribution of Quasar Redshifts - An Analysis for Quasars Around Selected Directions | |
Deng Zugan | 1309 | |
II.10.4 | Systematic Differences in the Determination of q0 and Its Implication | |
Hu Fuxing and Fang Lizhi | 1315 | |
II.10.5 | The Exponential Law for Superluminal Expansion of Quasar 3C273 | |
Cao Shenglin and Liu Yongzhen | 1319 | |
II.10.6 | Gravitational Lens Effects of Degenerate Neutrino Celestial Objects | |
Xu Chongmin, Wu Xuejun and Xiang Shouping | 1325 | |
II.10.7 | Diffraction Effect of Plane Electromagnetic Wave by a Spherical | |
Gravitational Field of Normal Star | ||
Wang Renchuan, You Junhan and Xiang Shouping | 1329 | |
II.10.8 | The Cosmic Density Wave and the Lemaitre Model | |
Yang Lantian, Cao Shengling, Xu Chongming and Yang Pibo | 1337 | |
II.11 | GUT and Cosmology (Chairman: K. Sato) | |
II.11.1 | The First-Order Phase Transition and the Origin of Clusters of Galaxies | |
H. Kodama, M. Sasaki and K. Sato | 1341 | |
II.11.2 | Gravitational Effects on Vacuum Decay at Finite Temperature | |
Su Rukeng and Bi Pinzhen | 1343 | |
II.11.3 | Cosmological Consequences of Conformal Noninvariance | |
L.H. Ford | 1349 | |
II.11.4 | On the Role of Fermion Condensates for Phase Transitions in the Early Universe | |
C.G. Kallman and C. Montonen | 1353 | |
II.11.5 | Particle Creation and the Cosmological Constant | |
L. Parker | 1359 | |
II.11.6 | The Metric of Space-Time with Two Bubbles' Collision | |
Wu Zhongchao | 1363 | |
II.12 | Theories of the Early Universe (Chairman: B.L. Hu) | |
II.12.1 | A Singularity Avoided Oscillating Bouncing Cosmological Model | |
Xu Dianyan and Liu Liao | 1369 | |
II.12.2 | Quantum Effects in the Gowdy T3 Cosmological Model | |
B.K. Berger | 1377 | |
II.12.3 | Horizon in Dirac Cosmology and Neutrino Mass | |
Su Rukeng and Zhang Shiwei | 1381 | |
II.12.4 | The Cosmic Neutrino Clustering and the Isotropy of Background Radiation | |
Lu Tan and Zhu Peichen | 1387 | |
II.12.5 | The Expansion of Void Inhomogeneous Cosmological Model | |
Zhu Shichang | 1391 | |
II.13 | Gravitational Wave Experiments (Chairman: Qin Rongxian) | |
II.13.1 | Laser Interferometer Experiments at Caltech | |
S.E. Whitcomb, D.Z. Anderson, R.W.P. Drever, Y. Gursel, M. Hereld and R.Spero | 1399 | |
II.13.2 | The Weak Plane Gravitational Wave and the Motion of a Test Paiticle in the Proper Reference Frame | |
Liu Hongya | 1407 | |
II.13.3 | The Effect of Gravitational Wave on Electromagnetic Field and the Possibility About Electromagnetic Detection of Gravitational Wave | |
Tao Fuzhen and He Zhiqiang | 1413 | |
II.13.4 | Practical Cryogenic Environment for Gravitational Radiation Detector with Parametric Transducer | |
T. Suzuki | 1419 | |
II.13.5 | Approach to Tunable Cuadrupole Antenna | |
Tang Mengxi and Chen Jiayan | 1423 | |
II.13.6 | Tentative Research on How to Generate and Detect High Frequency Gravitational Waves | |
Lin Jinchuan | 1429 | |
II.14 | Gravitational Wave Antenna (Chairman: G. Pizzella) | |
II.14.1 | The Gravitational Radiation Project at Maryland | |
W.S. Davis, F. Desrosier, W. Folkner, D. Gretz, K. Krack, M.V. Moody, H.J. Paik, J.P. Richard, J. Weber, G. Wilmot, J. Clarke and J. Maitinis | 1433 | |
II.14.2 | The Mechanical Background Noise of Weber-type Gravitational Wave Antenna | |
Chen Jiayan, Hu Enke, Guan Tongren and Yu Po | ||
II.14.3 | Primary Research on Tuning Fork Antenna for Low Frequency Radiation | |
Feng Songling, Liu Zaihai, Qin Rongxian, Song Yuxian and Yan Yonglian | 1443 | |
II.14.4 | Continuous Gravitational Wave Experiment in Japan | |
M.K. Fujimoto | 1447 | |
II.14.5 | Results of Measurement on a Harmonic Oscillator Using a Back-Action-Evading Scheme | |
F. Fuligni and V. Iafolla | 1451 | |
II.14.6 | Flight Suspension for the Relativity Gyro | |
R.A. Van Patten | 1455 | |
II.15 | Transducers for Gravitational Wave Antennas (Chairman: D. Blair) | |
II.15.1 | Present Status of the 9.5 GHz Parametric Transducer at the University of Tokyo | |
K. Tsubono | 1463 | |
II.15.2 | How to Make a Back-Action Evading (BAE) Measurement | |
W.C .Oelfke | 1469 | |
II.15.3 | Development of Transducers for Gravitational Wave Antennas at the University of Rome | |
M.G. Castellano, C. Cosmelli and P. Rapagnani | 1473 | |
II.15.4 | Parametric Upconverter Transducer with a Mechanical Resonator for Low Frequency Continuous Gravitational Wave Detection | |
Yan Yonglian and Qin Rongxian | 1477 | |
II.15.5 | Transducer for a Three-Mode Cryogenic Gravitational Radiation Detector | |
W. Folkner, M.V. Moody and J.P. Richard | 1481 | |
II.16(A) | Gravitational Experiments (A) (Chairman: Zhang Pinghua) | |
II.16(A).1 | Progress in Precision Rotations for Matter Creation Experiment and Inertial Clock | |
R.C. Ritter and G.R. Jones | 1485 | |
II.16(A).2 | Molecular Interferometry: A Possible Gravitational Field Measuring Technique | |
G.I.Opat | 1491 | |
II.16(A).3 | Experiments with a Cryogenic Torsion Balance | |
R.D. Newman | 1497 | |
II.16(A).4 | A Null Experiment of Gravitational Inverse Square Law | |
Liu Hongya, Zhang Pinghua and Qin Rongxian | 1501 | |
II.16(A).5 | A New Gravitational Effect of a Rotating Mass | |
B. Mashhoon | 1505 | |
II.16(B) | Gravitational Experiments (B) (Chairman: Hu Enke) | |
II.16(B).1 | Some Observational Results About Gravitational Abnormal Phenomena When Three Celestial Bodies Were Coaxial | |
Chen Jiayan, Guan Tongren, Hu Enke and Chen Xiangxiang | 1509 | |
List of Participants | i |