A: Traditional Electrode Induction Gas Atomization (EIGA) produces high-quality powder, but the process is both energy-intensive and inefficient for MIM-grade or binder jetting applications. Over 50% of the yield typically falls outside the 10–53 µm range, requiring either secondary classification or resulting in material waste. This inefficiency leads to inflated costs, especially for clients requiring high volumes of consistently sized powder. Kyhe Tech’s DH-S technology solves this problem at the source. Our process begins with carefully selected titanium alloy feedstock, including coarse EIGA reject powder, machining chips, and sponge titanium, which are refined into a tightly controlled particle size distribution. The powders we produce exhibit excellent sphericity, low oxygen content, and optimized flow properties that are ideal for MIM and low-temperature additive manufacturing. Moreover, because we are upcycling rather than atomizing, the marginal cost per kilogram of powder decreases as volume increases—making us cost-effective at both pilot and production scales. In terms of performance, our powders meet or exceed industry benchmarks for sintered density, surface finish, and mechanical strength. For customers requiring large-scale powder supply without the premium price tag of EIGA, Kyhe Tech offers a balanced solution that does not compromise on quality or consistency.

A: Kyhe Tech's titanium alloy powders are engineered for compatibility with a broad range of applications, particularly those requiring fine particle sizes, high purity, and tight morphological control. Our powders are especially well-suited for metal injection molding (MIM), binder jetting, and other low-temperature sintering-based additive manufacturing methods, which are increasingly used in consumer electronics, automotive components, aerospace connectors, and defense-grade structural parts. In the consumer electronics industry, our powders are utilized to create lightweight, high-strength parts with fine surface finishes, such as housings, brackets, and wearable frames. In outdoor applications—like marine fasteners, sporting goods, and drone chassis—our alloys demonstrate excellent corrosion resistance and fatigue strength. Additionally, because our process retains trace alloying elements from the original scrap material, it is possible to engineer powder blends tailored to specialized performance criteria. Kyhe Tech is also exploring the integration of our powder into advanced energy systems, such as solid-state hydrogen storage materials, where titanium’s affinity for hydrogen makes it a promising storage matrix. In all cases, our powders offer a low-cost yet high-quality material foundation, opening the door for customers to scale innovation across industries.

A: Yes. Environmental sustainability is a foundational principle at Kyhe Tech. Our DH-S (Dehydrogenation-Selective) process is built on the philosophy of circular manufacturing, in which industrial titanium waste—typically discarded or downcycled—is instead refined into high-performance metal powder. This approach conserves raw resources, reduces carbon emissions, and drastically lowers energy consumption compared to conventional gas atomization techniques. EIGA and PREP processes typically require high-temperature melting in inert atmospheres, leading to substantial electricity use and inert gas waste. In contrast, our DH-S method leverages lower-temperature processing steps, such as mechanical fragmentation, chemical dehydrogenation, and precision sieving. These require significantly less energy and produce virtually no greenhouse gases. Furthermore, because our inputs come from recycled materials—like machining chips and off-spec powders—we eliminate the need for upstream titanium sponge or ingot production, which are among the most resource- and emission-intensive steps in the metal supply chain. Through life cycle assessment (LCA) metrics, Kyhe Tech’s process demonstrates up to a 60% reduction in embodied carbon per kilogram of titanium powder produced. This makes our product an ideal choice for companies seeking sustainable, low-carbon materials to support ESG (Environmental, Social, and Governance) goals.

A: Kyhe Tech employs a stringent, multi-stage quality control system to ensure every batch of titanium alloy powder meets the demands of industrial customers across sectors. Our QA/QC framework begins at raw material selection, where all incoming feedstock is screened for elemental composition and physical integrity. During production, we implement continuous monitoring of key parameters such as hydrogen removal efficiency, sieving precision, and morphological uniformity. Post-processing, each powder batch undergoes a battery of tests, including: ·  Particle Size Distribution (PSD) using laser diffraction (Malvern Mastersizer) ·  ·  Surface Morphology and Sphericity through SEM imaging ·  ·  Chemical Purity via LECO analysis for oxygen, nitrogen, and carbon content ·  ·  Flowability and Tap Density following ASTM B212 and B527 standards ·  ·  Bulk Density and Apparent Density for MIM and 3D printing compatibility ·  We maintain batch-level traceability and offer third-party validation reports upon request. Our internal protocols align with international standards such as ISO 22068 for metal powders and GB/T 20975 for chemical analysis. This enables us to support high-precision applications where powder consistency is critical, from aerospace components to high-end electronics casings.

A: Absolutely. One of Kyhe Tech’s key strengths is our ability to deliver customized powder solutions tailored to the specific requirements of each customer. Our team collaborates closely with R&D engineers, procurement specialists, and production managers to understand the end-use conditions and reverse-engineer powders that meet performance and cost targets. We offer customization on several fronts: ·  Particle Size Ranges (e.g., 10–25 µm for micro-MIM, 15–45 µm for binder jetting) ·  ·  Alloy Compositions (e.g., Ti-6Al-4V, Ti-Fe-Nb, and corrosion-resistant grades) ·  ·  Surface Treatments (e.g., passivation, drying, anti-oxidation coating) ·  ·  Flow and Packing Density Tuning based on equipment parameters ·  Industries we currently serve include consumer electronics (Apple and Samsung-tier partners), outdoor sports and fastener manufacturers, hydrogen storage developers, and aerospace supply chain integrators. Whether the goal is improving sintering behavior, reducing surface roughness, or achieving thermal stability, Kyhe Tech works hand-in-hand with clients to co-develop next-generation titanium powder solutions.

A: Kyhe Tech operates a fully integrated production line with an annual output capacity of 80 metric tons, designed to support both pilot-scale projects and long-term commercial contracts. Our production line includes hydrogenation-dehydrogenation furnaces, inert atmosphere blending units, precision sieving systems, and vacuum packaging stations. This enables us to maintain in-house control over every step of the powder lifecycle, from scrap intake to finished product shipment. For standard batches starting at 200 kg, typical lead times are 2 to 3 weeks, depending on particle size requirements and alloy type. For bulk orders of 1,000 kg or more, we offer tiered pricing, flexible shipping schedules, and dedicated production slots to minimize delays and reduce cost per kilogram. All powders are shipped with full batch documentation and material traceability. We also offer sample production (10–50 kg) for early-stage testing and product qualification. In select cases, we provide technical support for downstream MIM and 3D printing integration, ensuring a seamless transition from powder delivery to part production.