ForceBeyond provides high-integrity custom metal casting services through an integrated network of qualified foundry and machining facilities. Utilizing advanced foundry technologies—including Vacuum Investment Casting, Automated Green Sand Molding, Resin No-Bake Casting, and High-Pressure Die Casting—we transform complex engineering prints into dense, high-strength, near-net-shape components.
Through qualified manufacturing programs and documented quality controls, our global supply network supports mission-critical cast parts for the aerospace, medical, automotive, energy, and heavy equipment sectors. By integrating primary casting with secondary Hot Isostatic Pressing (HIP), thermal heat treatment, and precision machining, ForceBeyond helps minimize internal porosity, maintain tight dimensional tolerances, and provide complete material traceability.
ForceBeyond matches your part geometry, alloy composition, and production volume to the optimal casting process to minimize unit cost and eliminate material waste:
| Casting Process | Ideal Volume & Part Size | Surface Finish & Tolerances | Key Process Advantages & Primary Alloys |
|---|---|---|---|
| Investment Casting (Lost-Wax) | Low to High Volume (Micro to 100 lbs) | 125 RMS Surface Finish Linear Tolerance: ±0.005 in/in | Exceptional geometric freedom, thin-wall capabilities (≤1.5mm), and minimal secondary machining. Ideal for Superalloys, Stainless Steel, and Titanium. |
| Automated Sand Casting | Mid to High Volume (1 lb to Multi-Ton) | 250–500 RMS Surface Finish Linear Tolerance: ±0.030 in/in | High-speed, cost-effective production for large structural components using Green Sand or Chemically Bonded Resin. Ideal for Ductile Iron and Carbon Steel. |
| High-Pressure Die Casting | High Volume (>5,000 pcs) (Small to 50 lbs) | 63–125 RMS Surface Finish Linear Tolerance: ±0.002 in/in | Rapid cycle times, thin walls, and high dimensional repeatability for lightweight Aluminum and Zinc alloys. |
The best casting method depends on annual production volume, part weight, wall thickness, alloy, tooling budget, surface finish, and dimensional requirements. ForceBeyond reviews your drawings and operating conditions to recommend the most cost-effective process for both prototype and production programs.
ForceBeyond pours a broad spectrum of ferrous, non-ferrous, and high-temperature superalloys, engineered to withstand severe mechanical wear, thermal fatigue, and corrosive environments:
ForceBeyond organizes its casting capabilities by process and material so engineers and sourcing teams can move directly from a general requirement to the most relevant specialized service:
For broader grade selection and engineering references, visit our Materials & Technical Specifications hub.
In traditional supply chains, managing separate vendors for raw castings, heat treating, CNC machining, and surface plating introduces severe lead-time delays and vendor disputes over out-of-spec parts.
ForceBeyond applies a Tier-1.5 manufacturing model to coordinate casting, secondary operations, inspection, and logistics through a managed global supply network:
[ Near-Net Casting ] → [ HIP / Heat Treatment ] → [ 5-Axis CNC Machining ] → [ Surface Coating ] → [ Assembly & Kitting ]
To support quality requirements for safety-critical and performance-sensitive components, ForceBeyond coordinates quality assurance, metrology, and testing and inspection protocols throughout casting and post-processing:
ForceBeyond supports custom cast components across the industries represented in our site architecture, with process, alloy, inspection, and secondary-operation requirements tailored to each application:
Investment casting (lost-wax) provides vastly superior dimensional accuracy (±0.005 in/in) and a smoother surface finish (125 RMS), making it ideal for intricate geometries, thin walls, and hard-to-machine superalloys where minimizing secondary machining is critical. Sand casting is better suited for larger, heavier parts where lower tooling costs and high volume outweigh tight as-cast tolerances.
During solidification, microscopic shrinkage pores can form inside thicker sections of a casting. Hot Isostatic Pressing subjects the component to elevated temperature and multidirectional argon gas pressure, helping close internal pores through plastic deformation and diffusion bonding. When properly specified, HIP can improve density, fatigue performance, ductility, and overall reliability, particularly in critical investment-cast and superalloy components.
Yes. Under our Tier-1.5 Model, we design the initial casting with the exact optimal material allowance needed for secondary CNC machining. We then transfer the raw casting directly into our 5-axis CNC machining centers to finish critical sealing faces, bearing journals, and threaded holes—helping ensure dimensional conformity while reducing vendor hand-off risk.
Contact our engineering team today to analyze your drawings, select the optimal casting process, and optimize design for manufacturability.
