Nonetheless, there are a couple of works that have successfully demonstrated SAXS/SANS modeling and an understanding of the D-A conjugated polymer solution. For example, the Pozzo group studied SANS of D-A polymers such as DPPDTT in a variety of solvents ranging from good to poor and polar to non-polar. Using a combined model consisting of parallelepipeds for nanoribbon aggregates and semiflexible cylinders for dispersed chains, they were able to show that while poor solvents induce aggregation, the polarity of the solvents was an important factor in enhancing nanoribbon aggregation as opposed to more amorphous aggregates in non-polar solvents. Liu and Boué et al. similarly used a parallelepiped and cylinder model to analyze SANS of DPPDTT finding the D-A polymer conformation to transition from rod-like chains in good solvents to ribbon-like aggregates and networks in poor solvents. While these works have successfully modeled and analyzed D-A polymer scattering, they have not observed the high 𝑞 structure factor peak that has been reported in several other studies and observed consistently in our work.