Cad iad na difríochtaí idir iarann ​​gaile taistil agus gnáth -iarann?

The structural design of a travel steam iron follows the principle of space constraints in mobile scenarios. Its compact shell usually integrates a rotatable power cord or a folding handle, which is different from the fixed ergonomic grip of a conventional iron. The heat conduction module adopts a thin-walled structure of a high-thermal-conductivity alloy, which reduces its own weight while maintaining the ability to instantly rise in temperature. This is in contrast to the design concept of household products that rely on mass inertia to maintain temperature stability.

In terms of steam generation mechanism, travel steam irons mostly use pulse jet technology to match small-capacity water tanks, which is different from the traditional mode of continuous steam output. The bottom plate opening layout tends to be centrally arranged, sacrificing large-area coverage efficiency in exchange for local high-pressure steam penetration. This compromise stems from the balance between portability and functionality. The protection system has built-in dual-voltage adaptive circuits and dry-burning automatic power-off devices. Travel steam irons are more environmentally adaptable than household products that rely on a single voltage.

In terms of material selection, travel steam irons tend to use aviation aluminum and high-temperature-resistant polymers in combination, while conventional irons generally use cast iron weights and stainless steel panels. Thermal efficiency is limited by volume and needs to be compensated by increasing the surface radiation coefficient, resulting in a higher external temperature rise but a greater temperature gradient in the core working area. Storage compatibility requirements have led to the emergence of anti-scratch coating technology, which is completely different from the path of anti-oxidation treatment for household products that focus on long-term placement stability.