Astrodynamical Space Test of Relativity using Optical Devices I (ASTROD I) - A class-M fundamental physics mission proposal for Cosmic Vision 2015-2025: 2010 Update
arXiv:1104.0060 · doi:10.1007/s10686-011-9281-y
Abstract
This paper on ASTROD I is based on our 2010 proposal submitted for the ESA call for class-M mission proposals, and is a sequel and an update to our previous paper [Experimental Astronomy 23 (2009) 491-527; designated as Paper I] which was based on our last proposal submitted for the 2007 ESA call. In this paper, we present our orbit selection with one Venus swing-by together with orbit simulation. In Paper I, our orbit choice is with two Venus swing-bys. The present choice takes shorter time (about 250 days) to reach the opposite side of the Sun. We also present a preliminary design of the optical bench, and elaborate on the solar physics goals with the radiation monitor payload. We discuss telescope size, trade-offs of drag-free sensitivities, thermal issues and present an outlook. ASTROD I is a planned interplanetary space mission with multiple goals. The primary aims are: to test General Relativity with an improvement in sensitivity of over 3 orders of magnitude, improving our understanding of gravity and aiding the development of a new quantum gravity theory; to measure key solar system parameters with increased accuracy, advancing solar physics and our knowledge of the solar system; and to measure the time rate of change of the gravitational constant with an order of magnitude improvement and the anomalous Pioneer acceleration, thereby probing dark matter and dark energy gravitationally. It is envisaged as the first in a series of ASTROD missions. ASTROD I will consist of one spacecraft carrying a telescope, four lasers, two event timers and a clock. Two-way, two-wavelength laser pulse ranging will be used between the spacecraft in a solar orbit and deep space laser stations on Earth, to achieve the ASTROD I goals.
15 pages, 11 figures, 1 table, based on our 2010 proposal submitted for the ESA call for class-M mission proposals, a sequel and an update to previous paper [Experimental Astronomy 23 (2009) 491-527] which was based on our last proposal submitted for the 2007 ESA call, submitted to Experimental Astronomy
References in corpus (10)
- INPOP08, a 4-D planetary ephemeris: From asteroid and time-scale computations to ESA Mars Express and Venus Express contributions
- APOLLO: the Apache Point Observatory Lunar Laser-ranging Operation: Instrument Description and First Detections
- Detailed Calculation of Test-Mass Charging in the LISA Mission
- ASTROD and ASTROD I -- Overview and Progress
- Launch of the Space experiment PAMELA
- Empirical Foundations of Relativistic Gravity
- Astrodynamical Space Test of Relativity using Optical Devices I (ASTROD I) - A class-M fundamental physics mission proposal for Cosmic Vision 2015-2025
- Gravitational waves, dark energy and inflation
- Improved Simulation of the Mass Charging for ASTROD I
- Testing Relativistic Gravity and Detecting Gravitational Waves in Space
Cited by in corpus (33)
- The Confrontation between General Relativity and Experiment
- The Confrontation between General Relativity and Experiment
- ASTROD-GW: Overview and Progress
- Scientific Potential of DECIGO Pathfinder and Testing GR with Space-Borne Gravitational Wave Interferometers
- Gravitational waves: Classification, Methods of detection, Sensitivities, and Sources
- Gravitational wave detection in space
- Quantum Gravity: A Brief History of Ideas and Some Prospects
- Intrinsic Solar System decoupling of a scalar-tensor theory with a universal coupling between the scalar field and the matter Lagrangian
- Astrodynamical Space Test of Relativity using Optical Devices I (ASTROD I) - A class-M fundamental physics mission proposal for Cosmic Vision 2015-2025
- Tests of General Relativity and Alternative theories of gravity using Gravitational Wave observations
- Orbit Simulation for the Determination of Relativistic and Solar-System Parameters for the ASTROD Space Mission
- Numerical simulation of time delay interferometry for a LISA-like mission with the simplification of having only one interferometer
- Direction of light propagation to order G^2 in static, spherically symmetric spacetimes: a new derivation
- Numerical simulation of time delay interferometry for eLISA/NGO
- Solar-system tests of the relativistic gravity
- Light propagation in the gravitational field of N arbitrarily moving bodies in 1PN approximation for high-precision astrometry
- New method for determining the light travel time in static, spherically symmetric spacetimes. Calculation of the terms of order
- Light propagation in the gravitational field of N arbitrarily moving bodies in the 1.5PN approximation for high-precision astrometry
- Light propagation in the gravitational field of one arbitrarily moving pointlike body in the 2PN approximation
- Astrodynamical Space Test of Relativity using Optical Devices I (ASTROD I) - Mission Overview
- Deployment and simulation of the ASTROD-GW formation
- Composite profile of the Fe K spectral line emitted from a binary system of supermassive black holes
- Light propagation in 2PN approximation in the field of one moving monopole: I. Initial value problem
- Effects of standard and modified gravity on interplanetary ranges
- LETSGO: A spacecraft-based mission to accurately measure the solar angular momentum with frame-dragging
- Time delays across saddles as a test of modified gravity
- Total light deflection in the gravitational field of an axisymmetric body at rest with full mass and spin multipole structure
- Gravitomagnetism and the Earth-Mercury range
- The Standard-Model Extension and Gravitational Tests
- Relativistic positioning and Sagnac-like measurements for fundamental physics in space
- Solar-system tests of the inflation model with a Weyl term
- Optical Clock and Drag-Free Requirements for a Shapiro Time-Delay Mission
- Equivalence Principles, Lense-Thirring Effects, and Solar-System Tests of Cosmological Models