Hot Forming Press Systems
Accudyne designs and builds high-performance hot forming press systems specifically engineered for processing titanium and advanced high-strength alloys. Our equipment provides the precise thermal uniformity and controlled force required to form complex components while minimizing internal material stresses.
Accudyne Engineering specializes in custom hot forming presses used for titanium and high-strength alloys in aerospace and defense manufacturing. These systems feature precision heated platens capable of temperatures exceeding 1,600°F, advanced thermal management systems, and custom tonnage configurations to support part consistency and structural integrity throughout the forming process.
Multi-Zone Thermal Uniformity
Precision-drilled platens with independent heating zones help maintain consistent heat across the full forming surface.
Minimized Springback
Forming at temperature helps reduce internal material stress and supports better near-net-shape accuracy.
High-Temp Tooling Integration
Heavy-duty systems are built to accommodate specialized heat-resistant dies required for aerospace-grade alloys.
Process Data Acquisition
Real-time monitoring of temperature ramps, soak times, and pressing force through advanced PLC controls.
Engineered for High-Temperature Forming
Achieving strong results with titanium and specialty alloys requires a balance of extreme heat and consistent pressure. Accudyne systems are engineered to manage the thermal expansion, springback, and material behavior challenges that come with high-temperature metalworking.
Built to Critical Manufacturing Standards
Every hot forming press is a custom engineered asset built around your alloy requirements, part dimensions, and production goals.
- Tonnage: Custom force capacities tailored to the forming requirements of specific alloy gauges and part geometries.
- Platen Size: Bed dimensions optimized for large aerospace panels or compact specialized components.
- Heating Methods: Integrated electric or thermal fluid heating options for temperatures up to 1,700°F and above.
- Stroke & Daylight: Optimized vertical clearances for die access, part handling, and efficient material loading.
- Atmosphere Control: Optional vacuum or inert gas integration to help prevent oxidation during the forming cycle.
Process Control Upgrades – Accudyne Hydraulic Presses
Supporting Aerospace and Defense Innovation
Our hot forming technology supports manufacturers producing components that must meet high standards for safety, performance, dimensional stability, and weight reduction.
Titanium Structural Components
Airframe ribs, bulkheads, and high-precision skin panels formed for demanding aerospace applications.
High-Strength Alloy Forming
Processing of Inconel and other specialty metals for engine systems, exhaust components, and heat-resistant assemblies.
Defense Manufacturing
Ballistic protection systems and mission-critical vehicle components requiring controlled forming
Space Systems
Lightweight, heat-resistant components for satellite structures, launch vehicles, and related aerospace platforms.
Engineering FAQ
What is the difference between Hot Forming and SPF?
While both processes use heat, hot forming typically achieves shape through direct pressure at elevated temperatures, while Superplastic Forming uses gas pressure to expand material into complex dies at controlled strain rates.
Can Accudyne integrate automated die loading?
Yes. We can engineer automated shuttle tables and die-loading systems to improve cycle times and operator safety in high-heat forming environments.
What heating method is most efficient for titanium forming?
That depends on your part size, alloy, and cycle requirements. We offer electric, hot oil, and hot water systems, each with different advantages for thermal ramp control and uniformity.
Ready to Discuss Your Hot Forming Requirements?
If you have established temperature and force requirements, or a technical drawing ready for review, our engineers are prepared to help evaluate the right hot forming solution for your application.