ODM Glass Sandblasting Machine Pricelist & Products

ODM pricing is driven primarily by four critical specifications: (1) Automation Kinematics: Simple PLC multi-nozzle reciprocating setups cost significantly less than 6-axis articulated FANUC/KUKA robotic blast cells. (2) Feed System Architecture: Direct-pressure blast pots operate at substantially higher velocities and require ASME/CE-stamped pressure vessels, increasing cost by 25–40% compared to suction-induction systems. (3) Media Classification Scopes: Basic single-cyclone systems extract dust, whereas advanced closed-loop aerodynamic cascades screen both oversized contaminants and spent fines to maintain strict particle circularity. (4) Substrate Cleanliness Standards: Systems integrating wet slurry circulation, DI water rinses, and HEPA air knife drying stages command higher capital expenditures.

Thin and tempered glass breakages occur primarily from thermal shock and concentrated tensile wave reflections caused by stationary over-blasting. KOSHIN machines eliminate this through continuous synchronized gun oscillation, low-angle blast orientation (typically 45° to 70° rather than perpendicular 90°), and precise digital pressure throttling down to 0.5 bar. Additionally, our wet shot peening platforms suspend micro-media inside an aqueous slurry, dissipating kinetic friction heat instantly and dampening mechanical surface shocks.

Yes. Through KOSHIN's comprehensive Experiment Services and Lab Testing program, prospective clients provide substrate samples and target roughness ($Ra$, $Rz$) or optical gloss (GU) values. Our Singapore and China testing centers run parameter matrices testing abrasive media types (virgin white corundum, glass beads, zirconium ceramic spheres) and blast kinematics. We generate comprehensive surface profilometer traces, microscopic imagery, and saturation curves to validate the manufacturing recipe before machine design is locked.

Standard automated conveyorized glass blasting machines typically ship within 6 to 8 weeks following technical design freeze. Highly customized turnkey lines—such as dual-robot blast cells or automated wet peening systems with multi-axis CNC tables and integrated drying tunnels—typically require 10 to 14 weeks. This includes in-house component fabrication, wiring, controls integration, and extensive 48-hour continuous run-off FAT trials.

Wear timelines vary based on abrasive media hardness. When blasting with aluminum oxide (corundum), standard boron carbide nozzles provide 400 to 700 operational hours before nozzle throat expansion exceeds 10%, while premium composite nozzles last over 1,000 hours. When using spherical glass beads or plastic media, wear rates drop drastically, allowing nozzles to operate reliably for 1,500 to 2,500 hours. Blast cabin interior walls are protected by replaceable 6mm natural rubber or cast polyurethane sheets, typically lasting 2 to 4 years under regular production conditions.

All dry blasting machines utilize negative-pressure isolation housings coupled with automated pulse-jet cartridge dust collectors. The filtration cartridges feature PTFE membranes capable of capturing 99.9% of particles down to 0.5 microns, ensuring exhaust emissions stay well below 1.0 mg/m³ in accordance with OSHA and European emissions guidelines. For facilities processing sensitive optical glass without dust venting infrastructure, KOSHIN wet blasting systems operate completely dust-free, collecting all waste via self-contained slurry settling reservoirs.