Medical Industry

Medical artificial joints, surgical knives and other medical equipment, strict requirements for product surface polishing. But Kingstone robot application experts have rich experience, we can develop fully automatic grinding, polishing and finishing solutions for customers. Such as human joint bone stem (titanium alloy artificial joint).

Medical equip polishing

Medical equip polishing

Artificial joint polishing

Artificial joint polishing

Prosthesis grinding

Prosthesis grinding

Bone plate grinding

Bone plate grinding

Surgical forceps polishing

Surgical forceps polishing

Automation solutions

Automation solutions

CONTACT REQUEST

You can contact us through a message using the form that you will find below.

Kingstone Robotics Offers Advanced Automation Solutions

Medical Industry

 

Kingstone Robotics delivers specialized robotic polishing, grinding, and deburring solutions tailored for the stringent demands of the medical industry. Our systems are engineered to meet the highest standards of cleanliness, surface quality, and dimensional precision required in surgical tools, orthopedic implants, and prosthetic devices. Through adaptive robotic control and real-time feedback systems, we help manufacturers scale production while maintaining flawless repeatability across every critical component.

Our Integrated Automation Solutions Include:

  • Robot Grinding Unit
  • Robot Grinding Polishing Unit
  • Robot Buffing Unit
  • Robot Deburring Unit
  • Robot Complex Unit
  • CNC Polishing Machine
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Polishing, Grinding, and Deburring in Medical Manufacturing

 

Precision surface treatment plays a vital role in the medical industry. Whether for implants inserted into the human body, surgical tools used in sterile operating environments, or prosthetics that interact with skin and muscle, surface quality directly affects product performance, safety, and regulatory compliance. Robotic automation is now a cornerstone in the production of these components, replacing manual variability with clean, repeatable precision.

What is Polishing?

Polishing is a fine surface finishing process that removes microscopic imperfections and produces smooth, often mirror-like surfaces. In medical manufacturing, it is crucial for reducing the risk of bacterial adhesion, minimizing friction in joint replacements, and achieving the aesthetic quality required for external prosthetics. Stainless steel, titanium alloys, and cobalt-chrome components are typically polished to Ra < 0.2 µm.

What is Grinding?

Grinding is a subtractive machining process that uses abrasive tools to achieve tight dimensional tolerances. It is essential for shaping prosthetic components, orthopedic bone plates, and joint replacements with high mechanical fit and surface geometry. Automated grinding ensures repeatability in parts that must integrate seamlessly into the human body.

What is Deburring?

Deburring removes small metal fragments and sharp edges left after machining or casting. These imperfections can cause tissue damage, improper fitment, or contamination in medical applications. Robotic deburring ensures that every edge is safe, clean, and conforming to standards such as ISO 13485 and ASTM F86.

Automation in Surface Finishing is Applied to Medical Components Including:

  • Artificial joints (hip, knee, shoulder)
  • Orthopedic bone plates and screws
  • Prosthetic limbs and sockets
  • Surgical scissors, forceps, clamps, and scalpels
  • Diagnostic and lab handling tools
  • Implant-grade titanium or cobalt-chrome parts

 

Kingstone Robotics Project Cases

1. Medical Equipment Polishing

1. Medical Equipment Polishing

2. Artificial Joint Polishing

2. Artificial Joint Polishing

3. Prosthesis Grinding

3. Prosthesis Grinding

The Role of Automation in Surface Finishing

Medical Industry

Polishing Automation

Used in surgical implants and forceps to achieve uniform mirror finishes that meet clinical hygiene standards and reduce bacterial colonization.

Medical Industry

Grinding Automation

Essential for orthopedic plates, prosthetic interfaces, and implant features where precise geometry is critical to surgical fit and biomechanical function.

Medical Industry

Deburring Automation

Applied to surgical tool edges, bone screws, and titanium implants to eliminate micro-burrs that may compromise sterility or cause tissue abrasion.

Benefits of Automation in Automotive Surface Finishing

Why Automate?

Manual surface finishing processes are labor-intensive, time-consuming, and prone to inconsistencies. Automation addresses these challenges by providing:

1. Regulatory-Grade Surface Consistency

Robotic systems deliver repeatable finishes that meet MDR, FDA, and ISO 13485 standards for surface roughness, cleanliness, and biocompatibility. Through real-time force control and in-process verification, we ensure every part meets compliance—even under high-volume output.

Whether you’re manufacturing:

  • A hip stem requiring Ra < 0.2 µm
  • A bone plate with narrow tolerances
  • Or a surgical scissor with edge finish critical to patient safety

Automation guarantees clinical-grade quality across every batch.

2. Increased Throughput Without Compromising Cleanliness

In medical device production, quality must never be sacrificed for speed. Kingstone’s robotic systems combine multiple finishing processes (grinding, polishing, deburring) into a single automated cell. With cleanroom-compatible enclosures and HEPA filtration, they maintain surgical-grade cleanliness even at industrial scale.

Use cases include:

  • High-throughput surgical instrument production
  • Batch processing of orthopedic implants
  • Inline integration with sterile packaging or laser marking

3. Improved Worker Safety and Reduced Cross-Contamination Risk

Manual polishing and grinding create risks of particulate contamination, heat exposure, repetitive motion injuries, and sharp tool handling. Robotics removes humans from the high-risk zone, reduces contamination potential, and ensures ergonomic, consistent workflows.

Especially relevant for:

  • Edge preparation of bone screws
  • Micro-polishing of sharp-tipped forceps
  • Heat-prone grinding of prosthesis contours

4. Lower Defect and Scrap Rates in High-Cost Components

Medical parts are often high-value, low-tolerance items—errors are costly. Automation minimizes scrap through accurate force sensing, auto-correction, and post-process inspection modules. You save not just time, but high-value material.

Applicable for:

  • Titanium knee replacements

  • Cobalt-chrome hip stems

  • Custom 3D-printed prosthetics

5. Full Integration into Digital Quality Systems

Kingstone’s robotic finishing systems integrate seamlessly into MES, SPC, and traceability platforms, providing finishing reports, surface roughness data, and tool wear analytics. That’s critical for audits, certifications, and lean medical production.

Supports:

  • Automated documentation for ISO audits
  • Real-time alerts on finish deviations
  • Paperless compliance in medtech factories

6. Precision Finishing for Complex Geometries and Micro-Features

Medical components often feature intricate contours, internal recesses, and miniature features where finishing precision is critical—especially in implants or microsurgical tools. Robotic systems with multi-axis kinematics and micron-level path control can access and finish complex shapes that are difficult, inconsistent, or impossible to handle manually.

Ideal for:

• Porous-surfaced implants requiring selective polishing
• Laparoscopic tools with slender shafts and sharp curves
• Dental instruments with micro-serrations or recessed grip zones

1. Medical Equipment Polishing

1. Medical Equipment Polishing

Robotic Configuration:

  • High-precision 6-axis robotic arms equipped with adaptive force control to handle complex geometries of medical devices.
  • Custom-designed end-effectors with interchangeable abrasive tools suitable for various materials like stainless steel and titanium.
  • Integrated vision systems for precise alignment and consistent material removal.

Process Integration:

  • Automated polishing of medical equipment surfaces to achieve desired smoothness and finish.
  • Sequential polishing operations to enhance aesthetic appeal and corrosion resistance.
  • Real-time monitoring of surface roughness and dimensional accuracy to ensure compliance with design specifications.

Key Benefits:

  • Enhanced consistency in product quality by maintaining tight tolerances in surface finish.
  • Improved surface finish leading to better corrosion resistance and longevity.
  • Reduced manual labor and associated variability, leading to higher production efficiency.

Applications:

  • Surgical instruments, diagnostic devices, and other medical equipment requiring high-quality surface finishes.

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2. Artificial Joint Polishing

2. Artificial Joint Polishing

Robotic Configuration:

  • Robotic systems with multi-axis flexibility to accommodate various joint implant geometries.
  • Precision polishing tools designed for materials like cobalt-chromium and titanium alloys.
  • Advanced control systems to ensure uniform material removal and surface finish.

Process Integration:

  • Automated polishing of joint surfaces to achieve required smoothness for optimal articulation.

  • Integration with inspection systems to verify surface quality and dimensional accuracy.
  • Capability to handle different implant sizes and shapes with minimal changeover time.

Key Benefits:

  • Improved joint performance and patient comfort due to enhanced surface finish.
  • Increased production throughput and consistency.
  • Reduction in manual polishing labor and associated costs.

Applications:

  • Hip, knee, and shoulder joint implants requiring precise surface finishing.

Get The Quote

3. Prosthesis Grinding

3. Prosthesis Grinding

Robotic Configuration:

  • Robotic arms equipped with grinding tools suitable for shaping prosthetic components.
  • Force-controlled systems to manage material removal rates and prevent damage.
  • Custom fixtures to securely hold various prosthesis designs during processing.

Process Integration:

  • Automated grinding of prosthetic parts to achieve desired contours and dimensions.
  • Integration with CAD/CAM systems for precise control over shaping processes.
  • Incorporation of dust extraction systems to maintain a clean working environment.

Key Benefits:

  • Enhanced accuracy and repeatability in prosthesis manufacturing.
  • Reduced production time and labor costs.
  • Improved fit and comfort for end-users.

Applications:

  • Limb prosthetics and other custom prosthetic devices requiring precise shaping.

Get The Quote

4. Bone Plate Grinding

4. Bone Plate Grinding

Robotic Configuration:

  • Robotic systems with high-torque grinding capabilities for processing bone plates.
  • Precision control systems to maintain consistent material removal and surface finish.
  • Adaptable fixtures to accommodate various bone plate sizes and designs.

Process Integration:

  • Automated grinding of bone plates to achieve required thickness and surface quality.
  • Integration with quality control systems for real-time inspection.
  • Capability to handle different materials, including stainless steel and titanium.

Key Benefits:

  • Improved consistency and quality in bone plate manufacturing.
  • Increased production efficiency and reduced manual labor.
  • Enhanced compatibility with surgical procedures due to precise dimensions.

Applications:

  • Orthopedic bone plates used in fracture fixation and reconstructive surgeries.

Get The Quote

5. Surgical Forceps Polishing

5. Surgical Forceps Polishing

Robotic Configuration:

  • Robotic arms equipped with fine polishing tools for delicate surgical instruments.
  • Force-sensitive control systems to prevent over-polishing or damage.
  • Customizable fixtures to securely hold various forceps designs.

Process Integration:

  • Automated polishing of surgical forceps to achieve smooth, corrosion-resistant surfaces.
  • Integration with cleaning and sterilization processes.
  • Real-time monitoring of polishing parameters to ensure consistent quality.

Key Benefits:

  • Enhanced durability and longevity of surgical instruments.
  • Improved safety and performance during surgical procedures.
  • Reduced manual labor and associated variability in polishing quality.

Applications:

  • Various types of surgical forceps and clamps used in medical procedures.

Get The Quote

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CONTACT REQUEST

You can contact us through a message using the form that you will find below.

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