Discontinued (Discontinued) DP8013 Commercially Pure Titanium Spherical Powder (CP Ti) 15-53 μm

Commercially Pure Titanium Spherical Powder (CP Ti) 15-53 μm Description

This Commercially Pure Titanium (CP Ti) Spherical Powder is meticulously manufactured to deliver reliable performance across a range of demanding applications. With a particle size distribution of 15–53 μm and purity levels of ≥99% (or tailored to specific requirements), it offers excellent mechanical strength, corrosion resistance, and biocompatibility. The spherical morphology optimizes flow characteristics, making it an ideal choice for additive manufacturing, powder metallurgy, and thermal spray processes. Adhering to stringent quality standards, each batch is carefully controlled and tested to ensure consistent particle size distribution, minimal porosity, and exceptional chemical consistency. Its purity and high-quality microstructure help reduce contamination and defects during production, resulting in superior finished components. Count on this CP Ti powder for precision, reduced wastage, and the dependable material properties needed for advanced medical, aerospace, and industrial applications.

Commercially Pure Titanium Spherical Powder (CP Ti) 15-53 μm Applications

Commercially Pure (CP) Titanium spherical powder in the 15-53 µm range is prized for its high strength-to-weight ratio, corrosion resistance, and biocompatibility. This versatile powder is used in various advanced manufacturing methods, enabling intricate designs and superior mechanical properties. Its unique attributes make it ideal for applications that demand reliability, lightweight performance, and excellent resistance to extreme environments.

1. Additive Manufacturing Applications

·         3D Printing: The fine spherical shape and consistent particle size distribution enable precise layer deposition, resulting in detailed, lightweight parts for aerospace, biomedical, and automotive applications.

·         Selective Laser Melting: The powder’s excellent flowability and low oxygen content ensure uniform melting, which contributes to strong, dense, and corrosion-resistant end products.

2. Powder Metallurgy Applications

·         Metal Injection Molding: The powder’s high purity and spherical morphology allow for complex shapes with high dimensional accuracy, suitable for medical devices and structural components.

·         Hot Isostatic Pressing: Under high pressure and temperature, this CP Ti powder can be consolidated to create dense, near-net-shape components with enhanced mechanical properties.

3. Thermal Spray Applications

·         Plasma Spray Coatings: The powder’s superior corrosion resistance and biocompatibility make it valuable for protective layers on implants and critical industrial parts.

·         HVOF Coatings: High-velocity application of CP Ti powder produces durable, wear-resistant surfaces, reducing maintenance costs in demanding environments such as chemical processing and power generation.

Commercially Pure Titanium Spherical Powder (CP Ti) 15-53 μm Packaging

Commercially Pure Titanium Spherical Powder (15-53 µm) is packaged using high-density polyethylene bags and vacuum-sealed within robust, airtight containers to minimize environmental exposure. Nitrogen purging helps combat oxidation, while anti-static layers offer additional protection. Each container is labeled for batch traceability and placed in sturdy, shock-resistant crates for safe transport. Customized packaging options, such as specialized container sizes and additional protective layers, are available to meet unique customer requirements.

Packaging: Vacuum sealed, Plastic Bottles, or Customized.

Commercially Pure Titanium Spherical Powder (CP Ti) 15-53 μm FAQs

Q1: What are the key material properties of Commercially Pure Titanium Spherical Powder (CP Ti) 15-53 μm?
A1: Commercially Pure Titanium Spherical Powder (CP Ti) 15-53 μm typically exhibits excellent corrosion resistance, low density, and biocompatibility. Its fine particle size range helps enhance layer uniformity in additive manufacturing processes, contributing to improved microstructure and part performance. The material's high tensile strength, combined with good ductility, makes it suitable for various engineering and biomedical applications. Additionally, its spheroidized shape facilitates better flowability and powder packing.
Q2: How can this Ti powder be processed or fabricated?
A2: CP Ti powder with a 15-53 μm size distribution is often employed in powder bed fusion techniques such as selective laser melting or electron beam melting. These processes selectively fuse thin layers of powder to form parts with outstanding mechanical properties. Additionally, the powder can be used in cold spray, hot isostatic pressing, and metal injection molding, ensuring a versatile range of manufacturing routes for diverse industrial applications.
Q3: Which quality standards and certifications apply to Commercially Pure Titanium Spherical Powder (CP Ti) 15-53 μm?
A3: CP Ti powder typically conforms to ASTM B348, ASTM F67, or other relevant standards that dictate maximum impurity levels and mechanical property requirements. Manufacturers may hold ISO 9001 certification for quality management, ensuring consistent product quality and traceability. Lot-specific documentation, including chemical composition and particle size distribution analyses, is often provided to validate compliance with medical or aerospace requirements. Strict process controls further guarantee powder purity and reproducibility.

Related Information

1. Raw Materials - Molybdenum Ore

Molybdenum is a valuable metal used in various industrial applications. It is extracted from ore through mining and processing operations. Stanford Advanced Materials sources high-grade materials from reliable suppliers, ensuring quality and consistency in our powder products.

2. Powder Production Methods

Several methods are used to produce Molybdenum powder, including atomization. Each method results in different particle characteristics such as size distribution, shape, and surface properties. The production method is selected based on the intended application requirements.