CNC Turning for Telecommunications Equipment

Frigate delivers CNC turned components engineered for high-frequency signal integrity, thermal management, and compact telecom architectures. Our process minimizes failure risks across material, geometry, and assembly for reliable, scalable performance. 

Our Clients

Sub-Micron Tolerance Solutions for High-Frequency Systems

Advanced turning solutions engineered to control tolerance, RF-critical surfaces, and thread geometry for flawless performance in dense, high-frequency telecommunications assemblies. 

Precision Tolerance Control

Twin-spindle lathes with live tooling correction maintain ±3 µm accuracy, eliminating tolerance stackup across mating parts for seamless fit in RF filters, enclosures, and connector assemblies.

RF-Optimized Surface Finish

Programmable surface texturing minimizes micro-pitting and stabilizes reflection coefficients below −35 dB, ensuring signal integrity in high-frequency multiplexing and mmWave applications.

Thread Helix Stabilization

Synchronized encoder control with 3D flank correction ensures uniform thread geometry, reducing phase noise and maintaining sub-ps jitter in high-precision RF connectors.

Our CNC Turning Process

Closed-loop turning processes with live tooling correction ensure sub-5 µm tolerance control across complex geometries, supporting connector alignment, thermal fitment, and modular enclosure integration. 

Telecom CNC Turning Services | Waveguide Rings & Cable Ferrules – Frigate
Telecom CNC Turning Services | Waveguide Rings & Cable Ferrules – Frigate
Telecom CNC Turning Services | Waveguide Rings & Cable Ferrules – Frigate
Telecom CNC Turning Services | Waveguide Rings & Cable Ferrules – Frigate
Telecom CNC Turning Services | Waveguide Rings & Cable Ferrules – Frigate
Telecom CNC Turning Services | Waveguide Rings & Cable Ferrules – Frigate
Design Creation

Our team designs the part in CAD software with focus on radial symmetry and tool clearance. 

Converting Design to CNC Code

CAM software generates toolpaths based on spindle speeds, feed rates, and material hardness. 

Setting Up the Machine

Operators load the raw bar stock and calibrate live tooling attachments, ensuring optimal alignment. 

Running the Machine

The part spins while stationary or live tools shape it via precision radial and axial cuts. Also, Our machines track spindle load and thermal drift in real time. 

Finishing Touches

We perform part-off, facing, and secondary polishing before moving to the inspection stage. 

Quality Check

Every part undergoes inspection using CMMs and profile projectors to verify dimensional and geometrical tolerances. 

Words from Clients

See how global OEMs and sourcing heads describe their experience with our scalable execution.

Surface Finish for CNC Turned Parts

Engineered surface finishes minimize micro-capacitance and reduce RF attenuation at frequencies above 6 GHz. Controlled texture modulation ensures consistent impedance and return loss performance across all mating surfaces. 

Anodizing

Give your aluminum parts a tough, corrosion-resistant shield with anodizing, reaching surface hardness up to HV 500, while enhancing electrical insulation and durability.

Mechanical Finishing

Smooth out imperfections and refine surfaces to Ra 0.2 µm or better with mechanical finishing techniques like grinding, polishing, and bead blasting. 

Heat Treatment

Boost material strength and hardness by heat treating parts at temperatures up to 1100°C, ensuring they meet the mechanical demands of your application.

Electroplating

Add protective or functional metal coatings with electroplating, delivering consistent layers as precise as ±2 µm for improved corrosion resistance and conductivity.

Our Machined Products 

We support your production needs with CNC-machined parts, subassemblies, and performance-critical components. 

Tailored Metallurgy for Electromagnetic and Thermal Demands

Materials are selected based on their electromagnetic transparency, thermal diffusivity, and dimensional stability under frequency and load-induced stress. Machinability is optimized without sacrificing dielectric isolation, galvanic compatibility, or high-frequency signal fidelity. 

A2 Tool Steel

A2 Tool Steel is a high-carbon, high-chromium steel known for its toughness and wear resistance. It’s ideal for producing durable, high-strength parts that can withstand heavy use. 

Aluminum

Aluminum is a lightweight, corrosion-resistant metal with good machinability. Because of its strength-to-weight ratio, it’s commonly used in aerospace, automotive, and various industrial applications. 

Brass

Brass is a copper-zinc alloy known for its machinability and corrosion resistance. It’s used for components requiring precise detailing and good mechanical properties. 

Bronze

Bronze is a copper-tin alloy with excellent wear resistance and strength. It’s often used for bushings, bearings, and other friction-prone components. 

Cast Iron

Cast Iron is known for its high wear resistance and machinability. It’s used in heavy-duty applications such as machinery parts and engine components. 

Copper

Copper offers excellent thermal and electrical conductivity. It’s used in applications requiring heat dissipation or electrical conductivity, such as electronic components. 

Steel

Steel is a versatile material known for its strength and durability. It’s used in various applications, from construction to automotive parts. 

Titanium

Titanium is a lightweight, high-strength metal with excellent corrosion resistance. It’s used in aerospace, medical implants, and high-performance engineering applications. 

Stainless Steel

Stainless Steel offers high corrosion resistance and strength. It’s widely used in applications ranging from kitchen equipment to industrial machinery. 

Zinc

Zinc is a ductile and corrosion-resistant metal known for its excellent machinability, especially in its alloy forms. It's often used for components requiring intricate details, good surface finish, and precise dimensions, commonly found in automotive, hardware, and electrical applications.

Serialized Production with Embedded Metrology

Traceability is embedded at the machining level to meet stringent telecom compliance and field-service requirements. Each part is uniquely identified and mapped to its dimensional, metallurgical, and statistical process data. 

CNC Turning

Process-Controlled Machining for Signal-Critical Hardware

Frigate ensures that CNC-turned components used in telecommunications systems meet tight mechanical and environmental criteria for signal stability and housing integrity. Each part is manufactured with strict dimensional verification, traceability, and cleanroom-ready handling protocols. 

ISO 9001:2015

We meticulously follow this international quality management standard, ensuring consistent precision and repeatability across all CNC turning operations for telecom parts. 

ASTM Material Specifications

We turn materials to relevant ASTM standards, guaranteeing precise chemical composition, high conductivity, and environmental stability for critical telecom applications. 

Geometric Dimensioning and Tolerancing (GD&T) per ASME Y14.5

We precisely adhere to GD&T callouts, ensuring exact dimensional accuracy, critical for reliable connector mating and optimal signal transmission. 

Surface Finish Requirements (e.g., Ra, Rz)

We achieve specified surface finishes during turning, crucial for optimizing electrical contact, minimizing insertion loss, and enhancing long-term reliability of connectors. 

Concentricity and Runout Tolerances

We maintain extremely tight concentricity and runout tolerances for turned shafts and pins, critical for stable connections and precise alignment in optical components. 

Impedance Control Features

Our turning processes create features designed for precise impedance matching, essential for high-frequency signal integrity in telecommunications equipment. 

Corrosion Resistance Coatings/Finishes

We accommodate features for specific coatings or finishes during turning, enhancing corrosion resistance for components exposed to diverse environmental conditions. 

Frigate’s Global Presence

Frigate takes pride in facilitating “Make in India for the globe“.  As our global network of Frigaters provides virtually limitless capacity, and through our IoT enabled platform your parts go directly into production. By digitally and technologically enabling “the silent pillars of the economy” MSME and SME manufacturing industries, we are able to tap the huge potential for manufacturing to bring the best results for our clients.

Frigate’s Global Presence

100,000+

Parts Manufactured

250+

Frigaters

2000+

Machines

450+

Materials

25+

Manufacturing Process

Telecom CNC Turning Services | Waveguide Rings & Cable Ferrules – Frigate

Quality Testing Standards

Roundness Testing
CMM, Roundness Tester (e.g., Talyrond)

To measure the roundness of cylindrical features, ensuring they meet tolerance requirements. 

Flatness of Internal Surfaces Testing
Optical Flat or CMM

To check internal surfaces for flatness, critical for sealing and assembly purposes. 

Burr Detection Testing
Visual Inspection, Edge Detection Tool

To identify burrs or sharp edges that may affect assembly or safety. 

Profile Tolerance Testing
CMM, Laser Scanning, or Profile Projector

To ensure that complex profiles (e.g., contours, curves) conform to design specifications. 

Surface Profile Testing
Profilometer or Scanning Electron Microscope (SEM)

To check the topography and texture of the surface, ensuring it meets the required specifications for function or aesthetics. 

Material Hardness Depth Testing
Microhardness Test or Depth Hardness Measurement

To verify that the surface hardness depth meets the required specifications for wear resistance. 

Residual Stress Testing
X-ray Diffraction, Strain Gauges

To measure internal stresses that could lead to deformation or failure during or after machining. 

Microstructure Response Testing
Metallographic Analysis (e.g., Optical or Electron Microscopy)

To verify grain structure, inclusions, and material consistency, ensuring the part meets performance requirements. 

CNC Turned Parts

Precision machining for extreme stress and thermal stability, enabled by advanced motion control.

Other Industries We Serve 

We deliver machining support across sectors that require consistency, material reliability, and tight dimensional control. 

Our Manufacturing metrics

Frigate brings stability, control, and predictable performance to your sourcing operations through a structured multi-vendor system. 

Telecom CNC Turning Services | Waveguide Rings & Cable Ferrules – Frigate
Telecom CNC Turning Services | Waveguide Rings & Cable Ferrules – Frigate

2.8X

Sourcing Cycle Speed

Frigate’s pre-qualified network shortens decision time between RFQ and PO placement.  

Telecom CNC Turning Services | Waveguide Rings & Cable Ferrules – Frigate

94%

On-Time Delivery Rate

Structured planning windows and logistics-linked schedules improve project-level delivery reliability. 

Telecom CNC Turning Services | Waveguide Rings & Cable Ferrules – Frigate

4X

Multi-Part Consolidation

We enable part family batching across suppliers to reduce fragmentation.  

Telecom CNC Turning Services | Waveguide Rings & Cable Ferrules – Frigate

22% 

Quality Rejection Rate

Multi-level quality checks and fixed inspection plans lower non-conformities. 

Telecom CNC Turning Services | Waveguide Rings & Cable Ferrules – Frigate

30%

Procurement Costs

Optimized supplier negotiations and bulk order strategies reduce your overall sourcing expenses. 

Telecom CNC Turning Services | Waveguide Rings & Cable Ferrules – Frigate

20%

Manual Processing Time

Automation of sourcing and supplier management significantly reduces time spent on manual tasks. 

Get Clarity with our Manufacturing Insights

Having Doubts? Our FAQ

Check all our Frequently Asked Questions in CNC Turning

How does Frigate ensure ultra-tight concentricity in multi-feature telecom components?

Frigate utilizes synchronized twin-spindle CNC lathes with live tooling to control concentricity within ±3 microns across complex geometries. This precision prevents impedance mismatch in RF connectors and critical enclosure interfaces. Real-time monitoring adjusts cutting parameters to maintain alignment during batch runs. This level of control supports consistent network performance in high-frequency telecom hardware. 

What techniques does Frigate use to minimize surface roughness for optimal RF signal integrity?

Frigate employs programmable surface texturing during finishing cycles to reduce micro-pitting and irregularities on mating surfaces. Achieving surface roughness values below Ra 0.4 microns significantly lowers return loss in mmWave and 5G modules. Our CNC machines use controlled feed rates and high-precision tooling to maintain consistent finishes across production runs. This reduces signal attenuation and enhances electromagnetic shielding effectiveness. 

How does Frigate’s CNC turning process reduce phase noise caused by thread imperfections?

Frigate implements synchronized encoder control with 3D flank correction to machine internal threads precisely. This process maintains uniform thread lead and flank angles, which stabilizes mechanical resonance and phase jitter in PLL-based RF modules. The accuracy achieved keeps phase noise within sub-picosecond ranges even under thermal cycling. Such control is crucial for maintaining timing integrity in advanced telecom systems.

How does Frigate integrate traceability into CNC turned telecom parts?

During machining, Frigate applies laser marking with unique identifiers directly onto each part, linking it to full dimensional and metallurgical inspection data. This serialized data is stored in a digital SPC system, enabling real-time monitoring of process variations and batch history. CMM-verified conformance reports accompany every lot for audit readiness. This comprehensive traceability ensures regulatory compliance and faster field issue resolution. 

In what ways does Frigate optimize thermal dissipation features via CNC turning for telecom applications?

Frigate machines internal fin arrays and radial grooves based on CFD-validated thermal designs to improve heat transfer efficiency. CNC turning ensures tight geometric tolerances on these features to maximize surface contact and airflow in compact enclosures. Controlled machining parameters prevent surface stress that could degrade thermal performance over time. These enhancements extend component life and maintain system uptime under demanding thermal loads. 

We'd love to Manufacture for you!

Submit the form below and our representative will be in touch shortly.

LOCATIONS

Global Sales Office

818, Preakness lane, Coppell, Texas, USA – 75019

Registered Office

10-A, First Floor, V.V Complex, Prakash Nagar, Thiruverumbur, Trichy-620013, Tamil Nadu, India.

Operations Office

9/1, Poonthottam Nagar, Ramanandha Nagar, Saravanampatti, Coimbatore-641035, Tamil Nadu, India. ㅤ

Other Locations

GENERAL ENQUIRIES

Get Quote
Support All File Formats Including - STEP | STP | SLDPRT | STL | DXF | IPT | X_T | X_B | 3DXML | CATPART | PRT | SAT | 3MF | JT files

Loading....