Arecibo Pulsar Beam Geometry at Lower Frequencies Radio Pulsar Beam Geometry Down to the 100-MHz Band: 76 Additional Sources Within the Arecibo Sky
Joanna Rankin, Haley Wahl, Arun Venkataraman, Timothy Olszanski

TL;DR
This study analyzes the emission beam structure of 76 pulsars using multi-frequency observations, extending previous work to lower frequencies and developing geometric models to understand pulsar emission geometries.
Contribution
It provides detailed beam geometry analyses for 76 pulsars at low frequencies, extending previous studies and developing quantitative models of pulsar emission regions.
Findings
Successful geometric modeling for most pulsars
Identification of new subpulse modulation patterns
Enhanced understanding of low-frequency pulsar emission
Abstract
This paper provides analyses of the emission beam structure of 76 ``B''-named pulsars within the Arecibo sky. Most of these objects are included in both the Gould & Lyne and LOFAR High Band surveys and thus complement our other works treating various parts of these populations. These comprise a further group of mostly well studied pulsars within the Arecibo sky that we here treat similarly to those in Olszanski et.al. and extend our overall efforts to study all of the pulsars in both surveys. The analyses are based on observations made with the Arecibo Telescope at 327 MHz and 1.4 GHz. Many have been observed at frequencies down to 100 MHz using either LOFAR or the Pushchino Radio Astronomy Observatory as well as a few with the Long Wavelength Array at lower frequencies. This work uses the Arecibo observations as a foundation for interpreting the low frequency profiles and emission-beam…
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Taxonomy
TopicsRadio Astronomy Observations and Technology · Pulsars and Gravitational Waves Research · GNSS positioning and interference
