The traditional Von Neumann architecture‐based computers are considered to be inadequate in the coming artificial intelligence era due to increasing computation complexity and rising power consumption. Neuromorphic computing may be the key role to emulate the human brain functions and eliminate the Von Neumann bottleneck. As a basic unit in the nervous system, a synapse is responsible for transmitting information between neurons. Resistive random access memory (RRAM) is able to imitate the synaptic functions because of its tunable resistive switching behavior. Here, an artificial synapse based on solution processed polyvinylpyrrolidone (PVPy)–Au nanoparticle (NP) hybrid is fabricated, various synaptic functions including paired‐pulse facilitation (PPF), posttetanic potentiation (PTP), transformation from short‐term plasticity (STP) to long‐term plasticity (LTP) and learning‐forgetting‐relearning process are emulated, making the polymer–metal NPs hybrid system valuable candidates for the design of novel artificial neural architectures.

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DATS as a potential inhibitor revealed antiinflammatory effect in both cell and animal models by downregulating AKT1/TGF-β-activated kinase-mediated NFκB and MAPK signaling pathways.

An artificial synapse emulated through a light mediated organic–inorganic hybrid transistor is reported by combining electronic and photoactive modes of operation. These photoactive synapses with metaplasticity effects pave the way for multifunctional neuromorphic computing systems.

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