International standards are often understood as the product of technical consensus. However, the actual workings of industry differ. The International Organization for Standardization (ISO) is closer to an institution that organizes orders already formed in the market rather than one that creates standards. Standards are not made in conference rooms but are formed through repeated use in the field.
The fastener industry most clearly demonstrates this structure. The specification of a single bolt is not merely a component but a core element that determines assembly methods, productivity, and the level of automation. When a particular fastening method is adopted, designs change, designs transform production lines, and ultimately the entire supply chain is reorganized. When these changes accumulate, they become the standard.
The problem is that most current fastening standards have been formed around the automotive and traditional manufacturing industries. Hexagonal, cross-shaped, and some special specifications have been entrenched in the industry for a long time. However, in the new industrial environment, it is difficult to say these are necessarily optimal.
The representative area is the robot industry. For robots, lightweight design, precision repeatability, maintenance efficiency, and compatibility with automated assembly are core competitive factors. Fastening methods must also meet these requirements. Nevertheless, many robot products still rely on existing specifications. This is the result of industrial inertia rather than a technical judgment.
In this context, the fact that new fastening structures such as Boltsone bolts have begun to be actually applied in some advanced robotics fields carries very important meaning. This is not a simple component change but an early signal of industry standard formation. Standards always begin with small applications and are formed through repetition and diffusion.
The robot industry is now in a typical early-stage phase. Design criteria are not unified, structures vary by company, and the pace of technological change is rapid. In other words, no dominant fastening standard yet exists. It is precisely during this period that which technology takes root first determines the future industrial structure.
Past cases clearly demonstrate this. The cross specification was first adopted in automotive automation processes and spread throughout the industry, and Torx also became a de facto standard through early application in specific industries. They did not succeed because they were standards from the beginning; they became standards because they were used first.
Viewed in this context, the current situation in which Boltsone bolts have begun to be applied in advanced robotics fields is not a simple technology adoption but a very important opportunity to preempt technology standards. Early adoption in the industry's nascent stage becomes the design standard, the design standard spreads through the supply chain, and ultimately leads to the standard.
This is also the essence of the first-mover strategy. It is not about entering the market first but about defining the industry's criteria. In particular, because foundational components such as fastening technology are maintained for long periods once adopted, the effect of early preemption is very large.
However, structural limitations exist in an industry's early stage. New technologies lack verification, companies try to avoid risks, and dependence on existing specifications is strong. As a result, a stagnation period arises in which the technology exists but the market is not formed. Many innovative technologies disappear at this stage.
Therefore, what is needed now is not to explain the technology itself, but to create a structure in which the technology can be repeatedly used in the market. And in this process, the government's role is decisive.
First, initial demand must be created. Incorporating new fastening technologies into public robot projects and smart manufacturing initiatives will form early references and build the foundation for private-sector diffusion.
Second, a standardization base must be established. New fastening methods must be defined within the domestic standards framework and connected to international standards discussions. Otherwise, even if the technology exists, standard leadership cannot be secured.
Third, testing and certification systems must be supported. Because reliability and safety are core to fastening technology, securing credible data is essential. This is difficult for companies to resolve on their own.
Fourth, a cross-industry diffusion strategy is needed. Policy connections must be made so that fastening technology originating in the robot industry can spread to automobiles, semiconductor equipment, and defense. Standards gain power only when used simultaneously across multiple industries, not a single industry.
Ultimately, standards competition is not technology competition but industry leadership competition. Who uses it first, who applies it to repeated production, and who dominates the supply chain are key. ISO only approves the outcome.
Now is clearly a turning point. With new fastening technologies beginning to be actually applied in advanced robotics, this is not simply an opportunity but a decisive moment to preempt industry standards. If this opportunity is missed, it is highly likely it will not return.
Therefore, government leadership is not a choice but a necessity. Without the role of creating initial markets, institutionalizing standards, and connecting industrial diffusion, no technology can easily take root as a standard.
Standards are not made but formed. And that formation always begins in the market. At this very moment, that starting point is already being created.
