Engineers jointly explore technical pain points, decode implicit requirements, and quantify indicators (such as power fluctuation tolerance, extreme environment adaptability), transforming requirements from "vague descriptions" into "technically executable items"

Engineers from both sides conduct dual calibration of "parameter logic × empirical insights", which not only matches theoretical feasibility but also incorporates industry application pain points , establishing a technical path of "design for implementation"

Carry out two-way verification of technical logic (our experimental data + customer-side scenario backtracking), to pre-empt mass production risks that are "theoretically feasible but practically ineffective" (such as the impact of medium corrosion on resistance wires)

Enter the stage of technical joint review of prototype iterations, where customer engineers participate in prototype testing feedback, and we simultaneously analyze the impact of manufacturing tolerances on performance, enabling the precise implementation of design concepts

Annealing treatment is carried out in sections with temperature control to eliminate stress and improve product performance.Based on professional consensus on testing standards (rather than general standards), conduct targeted verification of "customer scenario-specific indicators" , making data interpretation more in line with actual needs

Bypassing "business translation", engage in direct dialogue in technical language (such as material selection basis, mechanical logic of structural design), eliminate communication discrepancies, and accelerate the delivery cycle

Achieve full-chain continuation of R&D technical standards (collaboration between our process engineers and customer on-site technical representatives), ensuring technical consistency between mass-produced products and prototypes from equipment parameters to quality inspection thresholds.