The phenomenon of chirality induced spin selectivity (CISS) has triggered important exercise in recent times, though many facets of it stay to be understood. For instance, most investigations are targeted on spin polarizations collinear to the cost present, and therefore longitudinal magnetoconductance (MC) is often studied in two-terminal transport experiments. Little or no is thought in regards to the transverse spin parts and transverse MC – their existence, in addition to any dependence of this element on chirality. Additional, measurement of the CISS impact through two-terminal MC experiments stays a controversial matter. Detection of this impact within the linear response regime is debated, with contradicting reviews within the literature. Lastly, potential affect of the well-known electrical magnetochiral impact on CISS stays unclear. To make clear these points, on this work we’ve got investigated the bias dependence of the CISS impact utilizing planar carbon nanotube networks functionalized with chiral molecules. We discover that (a) transverse MC exists and reveals tell-tale indicators of the CISS impact, (b) transverse CISS MC vanishes within the linear response regime establishing the validity of Onsager’s relation in two-terminal CISS programs, and eventually (c) CISS sign stays current even within the absence of electrical magneto chiral results, suggesting existence of another bodily origin of CISS MC.