MOJAVE: Monitoring of Jets in Active Galactic Nuclei with VLBA Experiments. VI. Kinematics Analysis of a Complete Sample of Blazar Jets
M. L. Lister (Purdue U.), M. H. Cohen (Caltech), D. C. Homan (Denison, U.), M. Kadler (Bamberg, Erlangen, CRESST/NASA GSFC, USRA), K. I. Kellermann, (NRAO), Y. Y. Kovalev (MPIfR, ASC Lebedev), E. Ros (U. Valencia, MPIfR), T., Savolainen (MPIfR), J. A. Zensus (MPIfR)

TL;DR
This study analyzes the kinematics of a complete sample of 127 blazar jets over 13 years using VLBA data, revealing characteristic speeds, jet behaviors, and intrinsic Lorentz factors in active galactic nuclei.
Contribution
It provides a comprehensive, long-term kinematic analysis of blazar jets with improved data quality and coverage, offering new insights into jet speeds and dynamics.
Findings
Maximum apparent jet speed ~50c
Characteristic jet flow speed ~10c
Presence of stationary features in some jets
Abstract
We discuss the jet kinematics of a complete flux-density-limited sample of 135 radio-loud active galactic nuclei (AGN) resulting from a 13 year program to investigate the structure and evolution of parsec-scale jet phenomena. Our analysis is based on new 2 cm Very Long Baseline Array (VLBA) images obtained between 2002 and 2007, but includes our previously published observations made at the same wavelength, and is supplemented by VLBA archive data. In all, we have used 2424 images spanning the years 1994-2007 to study and determine the motions of 526 separate jet features in 127 jets. The data quality and temporal coverage (a median of 15 epochs per source) of this complete AGN jet sample represents a significant advance over previous kinematics surveys. In all but five AGNs, the jets appear one-sided, most likely the result of differential Doppler boosting. In general the observed…
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