The field of artificial intelligence and automated reasoning is witnessing significant developments, with a focus on enhancing the capabilities of symbolic provers and integrating them with large language models (LLMs). Recent research has explored the extraction of proof strategies from LLMs to improve the success rate of symbolic provers, as well as the development of novel frameworks for aligning code to mathematical statements and for conjecturing in formal mathematical reasoning. Furthermore, advancements in tensor logic and CoLF logic programming have opened up new directions for infinitary proof exploration and computation-as-proof-construction. Noteworthy papers include the Extended Triangular Method, which formalizes and extends the internal mechanisms of contradiction separation, and TopoAlign, which unlocks widely available code repositories as training resources for Math LLMs. Additionally, the Ax-Prover framework has demonstrated competitive performance in autonomous theorem proving, while the O-Forge framework has shown promise in asymptotic analysis. Overall, these developments are advancing the field of automated reasoning and theorem proving, with potential applications in various areas of mathematics and computer science. Notable papers: Extended Triangular Method enhances the capabilities of automated deduction, TopoAlign improves the performance of Math LLMs.