Cu2Se looks like Black cubic crystals, with relative density 6.749 and melting point 1113°C. It is obtained by heating a stoichiometric mixture of copper and selenium in a vacuum quartz sealing tube, or by reduction of copper salts and ammonia solution of selenite with hydrazine hydrate. Used as semiconductor.
Copper selenide is a thermoelectric material that can be used for many industrial applications, including infrared detection and imaging.
Mainly used for preparing group compound semiconductors, copper selenide targets, and copper indium gallium selenium thin film solar cells.
Cu₂Se is a copper chalcogenide widely studied as a functional semiconductor material. A Cu₂Se sputtering target enables controlled thin‑film deposition for applications in infrared (IR) detection/imaging, semiconductor layers, and thin‑film photovoltaic research, including selenide-based absorber stacks.
Copper selenide materials are closely associated with selenide compound semiconductor systems such as CIGS (Cu(In,Ga)Se₂). Cu₂Se target sputtering can be used in process development where copper and selenium chemistry is required for forming or tuning selenide phases in thin‑film solar cell structures.
Cu₂Se is frequently discussed in thermoelectric material research. Using a sputtering target helps achieve uniform, scalable coatings for R&D on thermoelectric thin films and related devices where composition control and repeatability are essential.
As a sputtering target material, Cu₂Se supports repeatable PVD processing (e.g., magnetron sputtering) and can be supplied in custom sizes to match laboratory or production sputtering systems, enabling easier scale‑up from experiments to larger-area coating.
Compared with some wet-chemistry approaches, sputtering from a Cu₂Se target offers a cleaner, more controllable route to thin films with better thickness uniformity and process reproducibility, which is valuable for semiconductor and device-fabrication workflows.
A copper selenide (Cu₂Se) sputtering target is used to deposit Cu₂Se thin films for semiconductor and functional coating applications, commonly including IR/photodetector research, thermoelectric thin films, and selenide-based photovoltaic process development (e.g., CIGS-related stacks).
The best method depends on target electrical properties and your system configuration. Many users evaluate RF magnetron sputtering for compound semiconductor targets to improve process stability, while DC or pulsed-DC may also be used when conditions allow. Share your tool type and desired film properties so the target and process can be matched appropriately.
Yes. Cu₂Se sputtering targets can typically be supplied as round discs, rectangular plates, or custom geometries. For a quotation, provide dimensions (diameter/length/width, thickness), tolerances, and whether you need a bonded target assembly.
In most cases, yes. Suppliers can provide a Certificate of Analysis (COA) and lot/batch traceability. If your application requires specific impurity limits or additional test items, specify them at inquiry time.
Store the target sealed, dry, and clean to reduce oxidation or surface contamination. Handle with gloves, avoid fingerprints on the sputtering surface, and keep away from moisture and reactive chemicals. If the target is opened in a humid environment, reseal promptly after use.
To quote accurately, provide: target size and shape, quantity, purity requirements (if specified), bonding/backing plate needs, end-use process (sputtering tool type, RF/DC preference), and shipping destination. If the target is for CIGS or other device stacks, mention the stack concept so composition/processing compatibility can be considered.
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