International audienceWe present the study of gas phases around cosmic-web filaments detected in the TNG300-1 hydro-dynamical simulation at redshift z = 0. We separate the gas into five different phases according to temperature and density. We show that filaments are essentially dominated by gas in the warm-hot intergalactic medium (WHIM), which accounts for more than 80% of the baryon budget at r ∼ 1 Mpc. Apart from WHIM gas, cores of filaments (r ≤ 1 Mpc) also host large contributions from other hotter and denser gas phases, whose fractions depend on the filament population. By building temperature and pressure profiles, we find that gas in filaments is isothermal up to r ∼ 1.5 Mpc, with average temperatures of Tcore = 4−13 × 105 K, depen...
Context. About half of the baryons in the local Universe are invisible and – according to simulation...
Matter in the Universe is assembled under the action of gravity to form a gigantic network of nodes,...
Despite containing about a half of the total matter in the Universe, at most wavelengths the filamen...
We present the study of gas phases around cosmic-web filaments detected in the TNG300-1 hydro-dynami...
We analyse the IllustrisTNG simulations to study the mass, volume fraction, and phase distribution o...
We analyse the IllustrisTNG simulations to study the mass, volume fraction, and phase distribution o...
International audienceAt high redshift, the cosmic web is widely expected to have a significant impa...
none12si©2019 The Author(s)Published by Oxford University Press on behalf of the Royal Astronomical ...
Using a new parallel algorithm implemented within the VisIt framework, we analysed large cosmologica...
open2siIn this paper, we exploit a large suite of ENZO cosmological magneto-hydrodynamical simula- t...
Context. Numerical simulations predict that a considerable fraction of the missing baryons...
We present a comprehensive study of the distribution of matter around different populations of large...
We study physical properties of matter in 23,950 filaments ranging from 30 to 100 Mpc length identif...
We present a comprehensive study of the distribution of matter around different populations of large...
Context. About half of the baryons in the local Universe are invisible and – according to simulation...
Context. About half of the baryons in the local Universe are invisible and – according to simulation...
Matter in the Universe is assembled under the action of gravity to form a gigantic network of nodes,...
Despite containing about a half of the total matter in the Universe, at most wavelengths the filamen...
We present the study of gas phases around cosmic-web filaments detected in the TNG300-1 hydro-dynami...
We analyse the IllustrisTNG simulations to study the mass, volume fraction, and phase distribution o...
We analyse the IllustrisTNG simulations to study the mass, volume fraction, and phase distribution o...
International audienceAt high redshift, the cosmic web is widely expected to have a significant impa...
none12si©2019 The Author(s)Published by Oxford University Press on behalf of the Royal Astronomical ...
Using a new parallel algorithm implemented within the VisIt framework, we analysed large cosmologica...
open2siIn this paper, we exploit a large suite of ENZO cosmological magneto-hydrodynamical simula- t...
Context. Numerical simulations predict that a considerable fraction of the missing baryons...
We present a comprehensive study of the distribution of matter around different populations of large...
We study physical properties of matter in 23,950 filaments ranging from 30 to 100 Mpc length identif...
We present a comprehensive study of the distribution of matter around different populations of large...
Context. About half of the baryons in the local Universe are invisible and – according to simulation...
Context. About half of the baryons in the local Universe are invisible and – according to simulation...
Matter in the Universe is assembled under the action of gravity to form a gigantic network of nodes,...
Despite containing about a half of the total matter in the Universe, at most wavelengths the filamen...