Neuromorphic computing (NC) structure has proven its suitability for energy-efficient computation. Amongst a number of methods, spin-orbit torque (SOT) primarily based area wall (DW) gadgets are one of the vital energy-efficient contenders for NC. To appreciate spin-based NC structure, the computing parts comparable to artificial neurons and synapses should be developed. Nevertheless, there are only a few experimental investigations on DW neurons and synapses. The current research demonstrates the energy-efficient operations of neurons and synapses through the use of novel studying and writing methods. We’ve got used a W/CoFeB-based energy-efficient SOT mechanism to drive the DWs at low present densities. We’ve got used the idea of meander gadgets for reaching synaptic capabilities. By doing this, we’ve got achieved 9 completely different resistive states in experiments. We’ve got experimentally demonstrated the useful spike and step neurons. Moreover, we’ve got engineered the anomalous Corridor bars by incorporating a number of pairs, compared to standard Corridor crosses, to extend the sensitivity in addition to signal-to-noise ratio (SNR). We carried out micromagnetic simulations and transport measurements to exhibit the above-mentioned functionalities.