Star-forming Dwarf Galaxies in Filamentary Structures around the Virgo Cluster: Probing Chemical Pre-processing in Filament Environments
Jiwon Chung, Suk Kim, Soo-Chang Rey, Youngdae Lee

TL;DR
This study investigates the chemical and star formation properties of star-forming dwarf galaxies in filamentary structures around the Virgo cluster, revealing environmental effects on galaxy evolution prior to cluster infall.
Contribution
It provides new insights into how filament environments influence chemical pre-processing and galaxy transformation, highlighting differences among filaments and the role of local interactions.
Findings
SFDGs in Virgo filaments have lower metallicity than those in the cluster.
Virgo III filament SFDGs show higher metallicity and lower star formation, similar to cluster galaxies.
Approximately half of Virgo III SFDGs are transitional, indicating ongoing morphological transformation.
Abstract
It has been proposed that the filament environment is closely connected to the pre-processing of galaxies, where their properties may have been changed by environmental effects in the filament before they fell into the galaxy cluster. We present the chemical properties of star-forming dwarf galaxies (SFDGs) in five filamentary structures (Virgo III, Leo Minor, Leo II A, Leo II B, and Canes Venatici) around the Virgo cluster using the Sloan Digital Sky Survey optical spectroscopic data and Galaxy Evolution Explorer ultraviolet photometric data. We investigate the relationship between stellar mass, gas-phase metallicity, and specific star formation rate (sSFR) of SFDGs in the Virgo filaments in comparison to those in the Virgo cluster and field. We find that, at a given stellar mass, SFDGs in the Virgo filaments show lower metallicity and higher sSFR than those in the Virgo cluster on…
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