Current confirmed forged-part weight range. Material flow, section changes and preform design are still reviewed against the actual geometry.
Custom Forging Services in China
Custom Forging Services for Strength-Critical OEM Components
TIANHUI provides custom forging services in China for strength-critical OEM components. Strength alone does not define the route: load direction, material, heat treatment, preform, machining allowance and final inspection all affect whether a forged component will perform as intended. We review the load-bearing function and finished geometry before the die and process sequence are fixed.
Forging Capability
Forging Range & Production Capability
TIANHUI combines forging with heat treatment, machining and project-specific inspection for strength-critical OEM components. The capability data below summarizes part range, press capacity, tolerance, materials and finished-part supply scope.
Reference maximum part envelope based on current capability data. Final feasibility depends on shape, projected area, material and forging route.
Multiple equipment sizes are available, with the forging route selected according to part size, material flow and forming load.
Typical forging tolerance reference. Machining allowance is planned separately for critical bores, splines, faces and datum-controlled features.
Material grade, heat-treatment condition and mechanical-property requirements should be defined with the drawing and end-use requirement.
Typical reference for tooling and sample development, subject to die complexity, material, heat treatment and downstream machining scope.
Heat treatment and hardness targets are coordinated according to material grade, drawing requirements and the required mechanical performance.
Supply can extend through heat treatment, CNC machining, grinding, local hardening, NDT, FAI and final inspection where specified.
Capability note:The weight, size, press and tolerance figures above are reference capabilities. Final forging feasibility depends on alloy, material flow, die design, heat treatment and machining allowance.
Process Fit
Choose Forging When Load Path and Mechanical Performance Drive the Part
The process is most valuable when service loading, material behavior and final mechanical properties matter enough to shape the blank before machining.
Strength-Critical Duty
Forging is considered for components that carry meaningful mechanical loads, impact or repeated service stress.
Material Flow by Design
Preform and forming strategy are reviewed so stock distribution and material flow support the intended geometry and loading direction.
Heat-Treated Performance
Material grade and heat treatment are planned together with distortion risk, hardness and mechanical-property requirements.
Machined Forged Components
Bores, splines, threads, faces and other critical interfaces can be CNC machined after forging to reach final drawing requirements.
Tooling, Heat Treatment & Approval
Approval Does Not End at the Forged Blank
A visually acceptable forging is not enough for a strength-critical part. Trial forging, heat treatment, machining, mechanical checks and NDT must follow the agreed finished-part requirement.
Engineering Review
Review parting, draft, grain-flow intent, machining stock, material standard and critical load areas.
Die & Preform
Tooling and preform strategy are developed around material flow and the final forged shape.
Trial Forging
Samples are checked for fill, laps, scale, deformation and sufficient machining stock.
Heat Treat / Machine
Required heat treatment and machining are completed before final property and dimensional checks.
FAI / NDT Approval
First-article, mechanical or NDT requirements are completed according to the agreed project plan.
Quotation scope:Tooling, heat treatment, rough or finish machining, NDT, mechanical testing and certificates should be separated or clearly included in the quotation.
Materials
Material Options for Forging
The material should be selected around strength, toughness, corrosion, temperature, wear and final service conditions.
Carbon Steels
Commonly selected for general mechanical and structural forged components.
Alloy Steels
Used where higher strength, toughness, wear resistance or specific heat-treated properties are required.
Stainless Steels
Suitable for applications requiring corrosion resistance together with mechanical performance.
Aluminum Alloys
Used for lightweight forged components where strength-to-weight ratio matters.
Copper Alloys
Selected for specific electrical, thermal, corrosion or mechanical requirements.
Specified Grades
Material standards and heat-treatment requirements can be reviewed from the drawing and project specification.
Forging Production Route
From Billet Preparation to Finished Forged Components
The production route controls material condition, forming sequence, heat treatment, machining allowance and final verification around the finished component.
Billet Preparation
Confirm material grade, billet size and cut weight according to the approved forging and preform strategy.
Heating & Preform
Control heating where required and prepare the stock so material is distributed for the final forging operation.
Forging & Trimming
Form the component under the selected press route, then trim flash and complete initial forging checks.
Heat Treatment
Apply the specified heat-treatment condition to achieve the required hardness and mechanical properties.
CNC & Local Finishing
Machine bores, splines, faces, threads and other critical interfaces, with grinding or local hardening where specified.
NDT & Final Inspection
Verify dimensions, hardness, mechanical properties, NDT requirements and agreed project documentation before release.
Shop Floor & Process
Forging on the Shop Floor
Representative production images showing billet heating, forming, trimming and forged blanks before heat treatment, machining and final inspection.
Project Examples
Forging Projects Where Machining and Heat Treatment Matter
These examples show why forged-part sourcing often extends beyond the forging operation itself.
Forged & Machined Cam
Forging, rough machining, quenching and tempering, precision machining and induction hardening.
- ISO 2768-mK reference
- Selected dimensions to IT7
- Ra 1.6 machined surface requirement
- 8H involute spline
- Induction hardened HRC 56–60
Stainless Steel Forged Eccentric Camshaft
A forging + machining route for a core control-mechanism component with tight spline and angular relationships.
- Selected dimensions to IT7
- Ra 1.6 surface requirement
- 7f involute spline
- ±0.15° angular relationship
- 100% non-destructive testing
Featured Products
View All Products →Selected Forged Components
Examples below show strength-critical components where forging, heat treatment and finish machining are reviewed as one connected manufacturing route.
FORGED PART
Hot-Forged High-Pressure Equipment Cam
Hot-Forged High-Pressure Equipment Cam. A cam item whose profile defines its interaction with the mating follower or linkage.
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FORGED PART
Forged Stainless Steel Eccentric Camshaft
Forged Stainless Steel Eccentric Camshaft. A camshaft with an eccentric feature for the specified mechanism.
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FORGED PART
Forged Copper Flanged Cylinder
Forged Copper Flanged Cylinder. A cylinder item incorporating a flange connection.
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FORGED PART
Forged Stainless Steel Building Assembly Component
Forged Stainless Steel Building Assembly Component. The material specified for this part is Stainless Steel.
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FORGED PART
Precision Machined Hot-Forged Aluminum Component
Precision Machined Hot-Forged Aluminum Component. The material specified for this part is Aluminum.
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FORGED PART
Precision Machined Forged Carbon Steel Component
Precision Machined Forged Carbon Steel Component. The material specified for this part is Carbon Steel.
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FORGED PART
Custom Fishing Reel Cover
Custom Fishing Reel Cover. A cover item for a fishing reel assembly.
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FORGED PART
Custom Hot-Forged Fishing Reel Cover
Custom Hot-Forged Fishing Reel Cover. A cover item for a fishing reel assembly.
View Product →Industries & Applications
Where Forging Fits Strength-Critical Applications
Forging is commonly selected where load, fatigue resistance, impact performance and reliable material flow matter more than near-net cast complexity.
Agricultural Machinery Parts
Yokes, forks, shafts, joints and drivetrain-related components for tractors and implements where strength and repeat durability are critical.
Automotive Components
Strength-critical drivetrain, steering and structural components where forged material flow and controlled heat treatment support service performance.
CNC Machined Components
Rod ends, clevises, pins, mounts and other loaded components used in hydraulic cylinders and fluid-power assemblies.
Forged Components
High-load pins, links and structural components for construction and earthmoving equipment where toughness and fatigue performance are important.
Related Capabilities
Choose the Right Manufacturing Route
Different geometry, volume, material or tolerance requirements may favor a casting or machining process instead.
Process Integration & Secondary Operations
Integrate Forging, Heat Treatment, Machining and Finishing as One Route
Secondary operations are planned around the finished-part requirement so quality, dimensional stability, lead time and total manufacturing cost are optimized across the complete route.
Heat Treatment
Quench and temper or other specified heat-treatment routes can be incorporated where the material standard and mechanical properties require them.
CNC Machining
Forged blanks can be supplied rough-machined or finish-machined with controlled datums, bores, threads, splines and assembly interfaces.
Local Hardening & Grinding
Induction hardening, grinding or other local finishing operations can be reviewed when wear surfaces, fits or functional hardness zones are specified.
NDT, Mechanical Testing & Records
Specified NDT, hardness or mechanical-property verification and agreed material or inspection records can be incorporated into the release plan.
Quality Control
Forging Quality Is Defined by Material, Heat Treatment and Defect Acceptance
For strength-critical components, dimensional inspection alone is not enough. Material traceability, forging condition, heat treatment, mechanical properties, NDT and final machining must be controlled as one route.
Grade & Process Specification
Confirm material grade, loading condition, heat-treatment requirement, critical geometry and the records required for release.
Forging & Heat-Treatment Control
Process checkpoints are arranged around the forging route, material flow, heat treatment and any distortion risk that can affect downstream machining.
Mechanical Properties & NDT
Hardness, tensile, metallography or specified NDT can be incorporated according to the drawing, defect class and customer acceptance standard.
Machining & Final Release
Critical bores, splines, datums, surfaces and required documentation are verified after the specified process sequence is complete.
Grade verification is linked to the required heat-treatment condition and mechanical-property specification.
Mechanical or microstructure checks can be included where the drawing, material standard or control plan requires them.
The NDT method, inspection extent and acceptance criteria are defined according to material, loading and defect requirements.
Finished machining, spline relationships, bores, functional surfaces and datum relationships can be verified after the required process steps.
For critical forgings, define the material certificate, heat-treatment record, mechanical-property results, NDT method and acceptance standard, dimensional-report scope and FAI / PPAP requirements before quotation. “NDT available” is not a complete quality requirement.
Process Selection
When Forging Adds Value Over Casting or Machining From Solid
Forging adds value when load, fatigue, impact performance and material integrity matter enough to justify tooling, heat treatment and downstream machining. The finished application should drive the comparison.
Strength, fatigue, impact behavior, material flow and dependable mechanical performance are central to the component's service life.
The geometry is more intricate, cavities or fine details dominate, and the service load does not require a forged grain-flow advantage.
Compare Investment Casting →The part is a large housing or body where geometry and cost matter more than forged mechanical performance.
Compare Sand Casting →Prototype or low-volume demand is limited, the geometry is machining-friendly, and forging tooling or preform development cannot yet be justified.
Compare CNC Machining →
FAQ
Forging Material, Heat Treatment & Machining FAQs
Practical questions about process selection, material flow, heat treatment, machining allowance, inspection and the information needed to quote custom forged components.
Forging should be reviewed when strength, fatigue, impact behavior, material integrity or directional material flow are important to service performance. Casting may be better for more intricate cavities and housings, while machining from solid can suit prototypes or low-volume parts where tooling is difficult to justify.
The way material deforms during forging can influence how the finished component carries load. Preform and forging-direction decisions should therefore be reviewed together with the part geometry, loading direction, machining stock and heat-treatment requirements.
Yes. A forging project can include heat treatment, CNC machining, grinding or other specified finishing, inspection and final packaging. The sequence should be planned around dimensional stability, hardness and the finished functional surfaces.
Allowance depends on the forging geometry, die and flash conditions, material, heat treatment, distortion risk, datum strategy and finished tolerance. The goal is to leave enough stock for stable machining without adding unnecessary material and cycle time.
Define the material standard, mechanical-property or hardness requirements, any required NDT, critical dimensional characteristics and the FAI, PPAP or other documentation needed for approval. Inspection scope should reflect the actual service risk of the part.
Provide the drawing or 3D model, material grade and standard, expected quantity, loading or mechanical requirements, heat-treatment condition, machining features, surface requirements, inspection requirements and required delivery condition.
Manufacturing Review
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Send Us Your Forging Drawing
TIANHUI MACHINE provides custom forging services for components requiring strength, toughness and dependable mechanical performance. Our manufacturing capabilities support forged stainless steel, carbon steel, alloy steel, aluminum and brass components. Send your drawing or sample to our China factory for process evaluation and an OEM quotation.
Send your drawing or 3D model together with the material grade, loading requirements, quantity, heat-treatment condition, critical machining areas and inspection requirements. We will review the forging route, preform, machining allowance and downstream operations before quotation.