In this paper, using the recently introduced f(T) gravity framework, we have analyzed the viscous fluid cosmological model in the FLRW cosmological model by assuming a specific form of the bulk viscosity coefficient as follows: ς=ς0+ς1H+ς2(\dot H/H) and a non-linear f(T) model, particularly f(T) = T − α√−T, where α is the model parameter. The bulk viscosity coefficients are estimated by using the Hubble 31 data set. Using the phase space technique, we examine the asymptotic behavior of our cosmological bulk viscous model.We found one stable critical point. Phase space analysis and geometrical interpretations are given. We discover that according to our model, the Universe evolved from a matter-dominated decelerated phase (a past attractor) to a stable de-Sitter accelerated epoch (a
future attractor). The evolution of the EoS parameter shows the acceleration phase of the cosmic expansion, whereas the negative behavior of viscosity-induced pressure indicates the accelerated expansion of the universe. Additionally, the cosmic matter-energy density exhibits positive behavior. We look into how statefinder parameters behave for our model. We discover that the trajectory of our model starts at the essence and ends at the CDM region. We use the Om diagnostic test, which reveals that our model
displays quintessence behavior. The energy condition criteria are analyzed, and we discover that SEC has been violated, whereas WEC, NEC, and DEC satisfy the positivity criteria. Our f(T) cosmological model, with the influence of bulk viscosity, successfully describes the expansion history of the universe and provides a good fit to recent observational data.