Mahowald proved the height 1 telescope conjecture at the prime 2 as an application of his seminal work on boâresolutions. In this paper, we study the height 2 telescope conjecture at the prime 2 through the lens of tmfâresolutions. To this end, we compute the structure of the tmfâresolution for a specific type 2 complex Z. We find that, analogous to the height 1 case, the E1âpage of the tmfâresolution possesses a decomposition into a v2âperiodic summand, and an EilenbergâMacLane summand which consists of bounded v2âtorsion. However, unlike the height 1 case, the E2âpage of the tmfâresolution exhibits unbounded v2âtorsion. We compare this to the work of MahowaldâRavenelâShick, and discuss how the validity of the telescope conjecture is connected to the fate of this unbounded v2âtorsion: either the unbounded v2âtorsion kills itself off in the spectral sequence, and the telescope conjecture is true, or it persists to form v2âparabolas and the telescope conjecture is false. We also study how to use the tmfâresolution to effectively give lowâdimensional computations of the homotopy groups of Z. These computations allow us to prove a conjecture of the second author and Egger: the E(2)âlocal AdamsâNovikov spectral sequence for ZÂ collapses.