Zhejiang Kingstone Robot & Technology Co., Ltd.
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Automatic Force Control Robot Deburring Machine For Cast Iron Differential Parts

Automatic Force Control Robot Deburring Machine For Cast Iron Differential Parts
Place of Origin:CHINA
Brand Name:KINGSTONE
Certification:CE
Model Number:KS-30000
Minimum Order Quantity:1
Price:65000-98000 USD
Delivery Time:90 WORKING DAYS
Payment Terms:L/C,D/A,D/P,T/T
Supply Ability:200-300 SETS PER YEAR
Product Details
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Force Control Robot Deburring Machine

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Robot Deburring Machine For Differential Parts

Automation: Fully Automated
Accuracy: Accurate Polishing Results
Polishing Method: Robotic Arm
Temp: -10--40
Durability: Long-lasting Performance
Frequency: 50Hz/60Hz
Polishing Pressure: Adjustable
Function: Polishing
Applications: Automotive, Aerospace, Electronics
Polishing Speed: 0-1200 RPM
Low Maintenance: Requires Minimal Maintenance
Process: Robotic Polishing And Brushing
Power Supply: 220V/50Hz
Material: Stainless Steel
Product Type: Small Home Appliances
Product Description
Detailed Specifications & Features
Automatic Robotic Deburring Machine For Cast Iron Parts
Cast iron differential housings are among the most demanding deburring workpieces in automotive drivetrain manufacturing. The material is hard, the geometry is irregular, and burr locations span multiple faces, internal transitions, and deep-cavity edges. Manual deburring operators struggle to maintain consistent results, creating permanent bottlenecks at drivetrain production volumes.
Our robotic deburring cell eliminates these bottlenecks by processing cast iron differential housings with consistent force, repeatable tool paths, and full traceability, shift after shift.
The Challenge of Deburring Cast Iron Differential Housings
Differential housings present a unique combination of deburring challenges: hard material, complex shapes, tight downstream tolerances, and high production volumes. This combination makes them one of the last holdouts of manual finishing in modern drivetrain foundries.
Key Challenges Recognized by Transmission Casting Suppliers
  • High Material Hardness: Gray iron (GG25-GG35) and ductile iron (GGG50-GGG70) with HB 180-270 hardness cause rapid wear of manual tools, requiring frequent replacement and leading to inconsistent edge quality.
  • Irregular 3D Geometry: No two identical faces exist on differential housings, requiring different tool approach angles for each surface and resulting in inevitable variation with manual operations.
  • Critical Seating and Sealing Surfaces: Bearing housing bores, axle shaft seal lands, and ring gear bolt-hole patterns must be completely burr-free to prevent fixture location errors in CNC machining centers.
  • Internal Cavity Access: Sand casting leaves internal flash and sand inclusion edges in cavities that standard tools cannot reach cleanly, potentially causing lubrication oil contamination and premature gear wear.
  • Volume and Consistency Demands: High production volumes from casting lines create bottlenecks that manual finishing teams cannot overcome without large work-in-process buffers.
Why Choose Our Robotic Deburring Machine
Force-Controlled Deburring on Hard Cast Iron
Constant-force spindle control maintains consistent contact pressure across all casting surfaces, regardless of batch-to-batch dimensional variation. This force control absorbs casting flash height variation, preventing tool overload on heavy flash and skip-over on light flash.
  • Material compatibility: GG25, GG35, GGG50, GGG60, GGG70
  • Burr height after processing: ≤[TBC] mm
  • Surface condition post-deburring: ready for CNC fixture location without secondary hand-finishing
Full Geometry Coverage – All Critical Zones in One Cycle
Six-axis robot wrist articulation reaches every surface zone of the differential housing in a single program cycle.
Robotic deburring machine processing cast iron differential housing
Tooling Strategy for Cast Iron
Cast iron deburring requires purpose-selected tooling specifically designed for hard iron applications:
  • Primary tool: Tungsten carbide rotary burr with extended life on hard iron and consistent chip load
  • Secondary tool: CBN-tipped deburring blade for precision seating face edges
  • Chamfering tool: Carbide chamfer mill for bolt-hole countersinks
  • Auto tool changer (standard on E2/E3): All three tools available in one cycle with no manual swap required
Multi-Model Flexibility
Our deburring cell adapts to evolving drivetrain programs and new housing geometries without stopping production:
  • Offline programming from 3D CAD (STEP/IGES): New housing models ready before changeover
  • Pneumatic quick-change fixture: Model changeover in [TBC] minutes
  • Program library: [TBC] housing configurations stored
  • Compatible with housing types across all drivetrain segments
Frequently Asked Questions
Q1: Can the robot handle the high hardness of ductile iron (GGG60-GGG70) without excessive tool wear?
Yes – tooling selection is critical. We use tungsten carbide rotary burrs with geometry optimized for cast iron chip load, combined with controlled spindle speed and feed rate tuned to the specific iron grade. Tool life monitoring is integrated into the control system, alerting operators before tool degradation affects edge quality. Tool life per-piece is confirmed during free sample testing.
Q2: The housing geometry is highly irregular – how does the robot follow it accurately?
The 6-axis wrist allows approach angles that cannot be replicated by CNC or gantry systems. Tool paths are generated from 3D CAD models (STEP/IGES), validated in simulation, then fine-tuned during sample testing. Force-torque feedback compensates for casting variation batch to batch, with the robot adjusting contact pressure in real time rather than following rigid fixed paths.
Q3: Can the machine reach internal cavity flash and sand-residue edges?
Internal access depends on cavity geometry. We evaluate cavity access during sample testing using slim-profile extended-reach tools. Reachable zones are added to the production program, while inaccessible zones are flagged for targeted manual touch-up – documented clearly to prevent surprises after installation.
Q4: How does the cell prevent cast iron dust from damaging the robot and drives?
The robot and drives are housed inside a fully enclosed safety cabin rated IP[TBC]. Positive pressure purging prevents iron dust ingress to the robot arm. Chip containment trays and optional magnetic separators collect cast iron swarf before it reaches any drive or bearing surface, with maintenance access points positioned outside chip containment zones.
Q5: Can one cell handle multiple differential housing models from different vehicle platforms?
Yes – on LR-GRIND-D2 and D3 models. Each housing model has its own stored program and dedicated fixture pallet. Changeover requires swapping the fixture pallet (pneumatic quick-release, [TBC] minutes) and recalling the program on the HMI. New models are programmed offline from CAD without production downtime.
Q6: How does this integrate with our existing casting line or shot-blast line?
The LR-GRIND-D3 includes standard conveyor in-feed/out-feed interfaces and robot-to-robot handoff capability. Typical integration sequence: shot blast exit conveyor → deburring cell loading → deburring → exit conveyor to CNC loading. Line integration drawings are provided at the quotation stage based on your foundry layout.
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