Engineered to meet the exact thin-film deposition and cleanroom requirements of Finland's microelectronics clusters and research institutions.
Finland has evolved into a formidable European powerhouse for advanced materials research, microelectronics development, and optoelectronic systems. Driven by prominent institutions like the VTT Technical Research Centre, and technology hubs across Espoo, Tampere, and Oulu, the region demands an uncompromising supply chain for advanced physical vapor deposition (PVD) materials.
Powder metallurgy-processed sputtering targets represent the vanguard of material science. Unlike traditional casting, targets processed via Hot Isostatic Pressing (HIP) and Vacuum Hot Pressing exhibit superior chemical homogeneity, zero internal voids, and isotropic microstructures. These properties are critical for thin-film applications where uniformity, electrical conductivity, and thermal stability directly dictate production yields in Finnish semiconductor fabs.
Established in the prestigious Shanghai Industrial Comprehensive Development Zone, Shanghai Creative Advanced Materials Co., Ltd. is a high-tech company integrating the research, development, production, and global delivery of semiconductor-grade ceramic targets, powder metallurgy sputtering targets, and advanced structural ceramic components.
Over nearly two decades, we have partnered with key European and Nordic manufacturers, universities, and industrial consortia, providing highly customized solutions with strict quality pedigree from raw material extraction to final target binding.
Uncompromised quality processes designed to reduce downtime and optimize thin-film deposition consistency.
Complete batch traceability from precursor powders to finished bonded targets. Every shipment includes comprehensive GDMS testing certificates indicating exact purity matrix.
Streamlined global airfreight logistics delivering directly to Helsinki Airport, ensuring your research and production schedules are kept safe from critical supply chain delays.
Custom target sizing, backing plates, configuration geometry, and bonding services (Indium bonding) optimized specifically for your sputtering system toolsets.
Dedicated European support team. Providing direct technical consultations, material selection optimization, and prompt technical feedback for quality validation.
Uncompromised performance under high thermal stress and corrosive environments.
One of the hardest synthesized materials. Employed heavily in armor plates, aerospace protection, and nuclear power neutron absorption structures, and semiconductor wafer grinding agents.
Technical Specs →Unparalleled chemical, thermal, and mechanical resistance. Ideal for precision components in semiconductor fabrication chambers, high-power electronics, and solar power optics.
Technical Specs →High electrical resistivity and exceptional chemical inertness. Sourced extensively for high-vacuum isolator components, wear shields, and high-frequency insulation circuits.
Technical Specs →Advanced thermal conductivity matched with excellent electrical insulation. Ideal for aerospace nozzles, high-temperature furnace crucibles, and ultra-high vacuum environments.
Technical Specs →Our comprehensive manufacturing system is tailored to secure chemical stability and target integrity.
Strict control over purity, grain size distribution, and precursor phase stability.
Optimizing slurry uniformity, atomization parameters, and bulk powder flow properties.
Utilizing high-tonnage isostatic and uniaxial presses to form green bodies with uniform density.
Advanced Hot Isostatic Sintering, reaction bonding, or pressureless systems for absolute densification.
High-precision multi-axis CNC surface grinding, slicing, and finishing to tight geometric tolerances.
CMM dimensions audit, ultrasonic non-destructive testing for internal voids, and phase analysis.
Semiconductor-grade cleanroom chemical treatment, clean-pack, double-vacuum packaging.
Shock-resistant, humidity-controlled export packing to secure the material in air cargo transit.
As the semiconductor and thin-film sectors push deeper into nanoscale structures (sub-7nm nodes), the constraints on sputtering targets have grown exponentially. Key engineering performance parameters like grain size refinement and crystallographic orientation distribution determine the particle generation rate and film uniformity during magnetron sputtering.
During sputtering, target defects like micro-voids, slag inclusions, and localized phase segregation can cause micro-arcing. Arcing ejects microscopic molten droplets onto the substrate, rendering the device defective. Sputtering targets manufactured via SCA's advanced powder metallurgy processes are treated with proprietary vacuum hot-pressing techniques. This yields a relative density > 99.9%, resolving micro-void issues at the source and securing highly stable sputtering rates for automated wafer lines.
The sputtering yield (atoms ejected per incident ion) varies depending on the crystallographic planes of the target. A randomly oriented target or one with strong gradients yields uneven thickness. By controlling the powder consolidation temperature, compression pressure, and subsequent mechanical thermoprocesses, SCA guarantees an isotropic grain orientation distribution. The result is a highly predictable deposition rate across the entire wafer surface, minimizing wafer-to-wafer film thickness deviations.
Key semantic and manufacturing questions regarding target procurement for Nordic operations.
Cast targets often suffer from macro-segregation, coarse and uneven grain sizes, and internal cooling shrink voids. Powder metallurgy targets, formed via solid-state sintering under pressure, offer a fully isotropic microstructure, highly refined grain structures, and zero voids. This drastically improves target mechanical strength, sputtering stability, and film thickness uniformity.
Yes. We customize target shapes, bevel configurations, backing plate dimensions (Copper, Molybdenum, and elastomer/Indium bonding services), and internal cooling channel compatibility to match major tools such as Evatec, Leybold, Semicore, and custom-designed cluster tools used at VTT or university laboratories.
Every single production batch undergoes thorough validation testing. We utilize Glow Discharge Mass Spectrometry (GDMS) to analyze trace metallic impurities down to parts-per-billion (ppb) levels and Inert Gas Fusion analysis for gas elements (O, N, H). A comprehensive Certificate of Analysis (CoA) is dispatched with every shipment.
Standard materials in our stock can be processed, bonded, packed, and delivered to major Finnish destinations (Helsinki, Espoo, Tampere, Oulu) within 2 to 3 weeks. Custom configurations involving specialized alloy powders and backing plate designs typically require 4 to 6 weeks.
Absolutely. We follow strict environmental compliance. All raw materials sourced, processed, and shipped to European destinations conform fully with REACH regulations and RoHS directives. Compliance documentation is provided upon request.
Updates on localization technologies, ceramic sintering, and semiconductor target materials.
Localized sintering technologies are driving critical upgrades in high-strength zirconia materials, enabling advanced industrial tooling and next-gen electronic substrates.
Read Full BlogResearch details how vacuum hot isostatic pressing techniques improve the density of compound ceramic formulations for physical vapor deposition.
Read Full BlogNew industrial trials showcase the cost-effectiveness and high geometry precision achieved via pressureless sintering of complex boron carbide profiles.
Read Full BlogSupporting complex industrial coatings, microelectronics, and precision machining across Finland.
Connect with our global technical sales engineers to discuss custom purity targets, geometric tolerances, backing plate designs, and specific delivery schedules to Finland.
