Herein, we showcase tetrabutylammonium borohydride as competent fuel for the anodic counter electrode process for various reductive electroorganic transformations. We demonstrate that this reagent in combination with an inert carbon-based anode may successfully replace sacrificial metal anodes to furnish the desired products. While the approach resulted in lower product yields for electroreductive cross-electrophile coupling of alkyl halides compared to the use of a sacrificial Mg anode, electrochemical Birch-type reduction displayed a high degree of substrate dependence as to which anodic counter reaction that was optimal. Notably, no optimization was carried out in these cases and improved yields may thus be expected upon tuning of conditions. For electroreductive hydrodeoxygenation of benzylic alcohols, hydrodesulfurization and desulfurative borylation of aryl alkylthioethers, the desired products were formed in comparable yields using either counter reaction strategy. As such, the results of this study demonstrate the promising nature of anodic borohydride oxidation as a generally applicable counter reaction strategy for electroreductive transformations. Due to the user-friendly setup and high efficiency, this inverse of proton reductionthe benchmark counter reaction for electrooxidative transformationsshows great potential for serving as the future go-to counter reaction in an electroreductive manifold.