铝及铝合金样品密度小，氢含量小，常规称样受限于体积，只能取微量样品，力可的RHEN602可以多至称取6g样品，并可区分表面氢、基体氢和总氢。

利用GDS850辉光放电光谱仪分析镀锌钢板表面镀层的厚度和重量及每种镀层元素随深度的分布，深度分辨率可达0.1nm

The DH603 allows the analyst to determine the amount of hydrogen present in its molten form and after solidification and cooling by incorporating an optional vacuum pin tube sample piercer for diffusible hydrogen determination and a hot extraction furnace for residual hydrogen determination.

Alpha-phase titanium alloys are less ductile and have less strength than the beta-phase alloys, but have higher corrosion resistance and deformability. Carbon is considered to be an impurity, commonly introduced during the manufacturing process, of commercially pure (CP) titanium grades.

The determination of the amount of oxygen, nitrogen, and hydrogen in iron, steel, nickel-, and cobalt-base alloys represents some of the most important quality metrics for these materials. The ONH836 utilizes a high-power electrode furnace to quickly and efficiently release the target gases from within the sample, which allows for a very rapid simultaneous determination of oxygen, nitrogen, and hydrogen.

Ferroalloys are alloys of iron that contain a high level of one or more other primary elements. The principle ferroalloys consist of silicon, manganese, and chromium that are used as vehicles to introduce the alloying element into the molten metal when making steel or cast iron. For example, silicon is used to deoxidize steel and as an alloying element in cast iron. Manganese is used as an alloying element and mitigates the harmful effects of sulfur in cast iron and steel. Chromium increases corrosion resistance in stainless steels. Since carbon is the most important alloying constituent in steel and cast iron production, and sulfur is a harmful contaminant that negatively affects the mechanical properties of steel and cast iron, the determination of carbon and sulfur levels in the ferroalloy feed stock is a critical quality control parameter.