The impact of the project goes beyond the valorization of lignin. It exemplifies a novel approach for a rational design to overcome a complexity of the biomass feedstock for production of final products. The simplicity of the protocol relying on selective transformations and system tuning rather than on tedious purifications will hopefully have a wide impact on transition towards bio-based economy. Important to mention here that the developed method produces molecules amenable for further transformations and diversifications. Thus, these molecules can be considered as "platform", meaning a possibility for their facile conversion into various derivatives. The developed method goes beyond generation of particular substitutes for BPA, but allows for the generation of libraries of the bisphenol compounds. This in combination with computational, toxicological and material science approaches will hopefully lead to rational design of bio-based materials with low toxicity for each specific application.
The developed methodology will significantly advance the transition towards biobased materials away from petroleum-based products. This will impact social-economic aspects associated with the use of petroleum: greenhouse gasses emissions, crude oil spills, ect.
Moreover, due to a known endocrine disruptor activity of BPA, materials containing BPA face bans around the world. Substituting BPA with a non toxic bio-based analog will bring additional societal benefits such as improvement of general public health, reduced pollution of the environment, etc.