Når vi ser frem til fremtiden, gennemgår teknologien af titanium barrer dybtgående udvikling i retning af intelligens, grønhed og ekstreme muligheder. Intelligens afspejles i konstruktionen af et digitalt tvillingsystem i fuld proces og intelligent beslutningstagning-.
By integrating IoT sensing, multi physics numerical simulation, and big data analysis, virtual production and optimization of the entire process from melting, solidification to heat treatment can be achieved, and predictive control of internal structure and defects of ingots can be carried out, moving from "experience driven" to "data and model driven". The core of greenization is to develop efficient and high-value residual titanium recovery and recycling technologies. Through advanced processes such as EBCHM, high-value titanium shavings and waste generated during the processing are 100% recycled, producing high-end ingots with performance no different from raw materials. This is crucial for reducing costs and achieving sustainable development of the industry chain. Extreme manufacturing responds to major national demands, aiming to manufacture ingots and components with larger dimensions (single weight>50 tons), højere ydeevne (såsom ultra-høj sejhed, ultra-høj temperatur) og mere komplekse former (næsten nettoform). Dette er ikke kun en konkurrence af udstyrsevner, men også en dyb udfordring til grundlæggende discipliner som materialevidenskab, metallurgi, fysik og kemi. Fremtiden for Kinas titaniumindustri ligger i, om den kan opnå systematisk og original innovation ad disse tre veje og dermed opnå et historisk spring fra "skalalederskab" til "teknologisk lederskab".
