Pioneer anomaly: a drift in the proper time of the spacecraft
Vikram H. Zaveri

TL;DR
This paper proposes a relativistic theory linking proper time drift to gravitational frequency shifts to explain Pioneer anomaly, achieving accurate acceleration values and consistent planetary observations, while also addressing galaxy rotation curves.
Contribution
It introduces a novel proper time framework based on frequency shifts, extending general relativity to account for spacecraft anomalies and galaxy rotation without conflicting with existing tests.
Findings
Accurately predicts Pioneer anomalous acceleration.
Maintains consistency with gravitational redshift and light bending.
Provides a potential explanation for galaxy rotation curves.
Abstract
A relativistic theory is proposed to explain the anomalous accelerations of Pioneer 10/11, Galileo and Ulysses spacecrafts. The theory points out at the limitations of the weak field approximation and proposes a drift in the proper time of the spacecraft outside the framework of general relativity. The theory yields a very accurate and precise value for the anomalous acceleration. In this theory the proper time of a body is associated with the gravitational frequency shift of the constituent fundamental particles of the body. The frequency shift changes the energy level of the body which gets reflected in its relativistic mass and therefore in its motion. This change in energy level causes the time like geodesics to deviate from that of the standard theoretical models. We introduce proper time in the line element of a metric theory according to a fixed set of rules laid down by general…
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Taxonomy
TopicsCosmology and Gravitation Theories · Pulsars and Gravitational Waves Research · Solar and Space Plasma Dynamics
