Ceramic Mold Casting Services

Frigate’s Ceramic Mold Casting Services provides high precision and excellent surface finish. We use advanced ceramic shell techniques to ensure optimal strength and thermal resistance.

Our Clients

Advantages of Ceramic Mold Casting Services

Complex Core Formation

Ceramic mold casting can integrate complex internal cores, producing hollow and intricate structures without additional assembly.

High Reproducibility

Once the mold is made, ceramic mold casting ensures consistent quality and repeatability in production, even for large volumes of parts.

Thermal Resistance

Ceramic molds withstand extreme temperatures, making them ideal for casting materials like superalloys in aerospace and high-performance applications.

Complex Geometries

This method enables the creation of intricate designs and thin-walled structures, offering design flexibility for advanced industrial applications.

Custom Ceramic Mold Casting Services

Custom ceramic mold casting services high precision and accuracy for complex geometries. It is ideal for producing intricate parts with tight tolerances. The process supports various materials, including superalloys, ensuring suitability for demanding aerospace and automotive applications. With exceptional thermal resistance, ceramic molds perform well under extreme temperatures. The smooth surface finish reduces post-processing requirements, improving efficiency. This method also offers design flexibility, enabling the creation of complex internal structures and thin-walled components.

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Our Ceramic Mold Casting Process

Pattern Creation

A precise pattern of the component is made from a material like wax, which mimics the final product's shape. This pattern is created using methods such as 3D printing or machining.

Shell Building

The pattern is coated with a fine ceramic material to form a shell. This process involves multiple layers of ceramic slurry and sand, followed by drying between each layer to build strength.

Drying and Firing

After the ceramic shell has been built, it is dried and fired in a kiln. This removes any moisture and hardens the shell to withstand the high temperatures of molten metal.

Pattern Removal

The shell is then heated to a temperature where the wax pattern inside melts and is drained away, leaving a hollow ceramic shell. This process is often called "lost wax" casting.

Metal Pouring

Once the shell is ready, molten metal or alloy is poured into the cavity left by the removed pattern. The material fills the shell, taking the shape of the original pattern.

Cooling and Shell Removal

The metal cools and solidifies inside the ceramic shell. Once cooled, the ceramic shell is broken away, revealing the cast component, which is then cleaned, inspected, and finished as required.

Post Processing Services in Cold Chamber Casting

Cold chamber casting produces high-strength, complex metal parts, but post-processing is essential to enhance quality, durability, and functionality. Various techniques refine surface finish, improve mechanical properties, and ensure corrosion resistance.

Shell Removal

0.1 - 1.0 mm thickness (shell), 10 - 20 bar pressure

Aerospace (turbine blades), Automotive (engine components), Industrial (valves, pumps)

Surface Finishing

Ra < 0.5 µm, 2000 - 3000 rpm for polishing

Aerospace (turbine components, structural parts), Medical (implants), Automotive (brake discs)

Heat Treatment

300 - 1200°C, 1 - 3 hours for solutionizing, 10 - 100 bar for quenching

Aerospace (high-strength alloys), Automotive (high-performance engine parts), Oil & Gas (drill bits)

Machining

CNC machining: ±0.01 mm
EDM: 0.05 - 0.1 mm precision, up to 5-axis milling

Aerospace (precision engine parts), Automotive (gears, shafts), Medical (surgical instruments)

Coating

50 - 250 µm thickness, 300 - 1000 V (plasma spray), 10 - 20 µm (PVD)

Aerospace (high-temp resistant parts), Electronics (heat sinks), Automotive (cylinder heads)

Polishing

Aerospace (critical components), Medical (bio-compatible implants), Jewelry (luxury items)

X-Ray Inspection

Resolution up to 1 μm, 30 - 60 keV for imaging, 50 - 100 kV for CT

Aerospace (critical castings), Automotive (safety parts), Medical (implant verification)

Rework and Repair

Welding: 0.1 - 1.0 mm bead size
Laser repair: 50 - 100 W, Brazing: 600 - 700°C

Aerospace (repair of cracked turbine blades), Automotive (defective castings), Industrial (tool repairs)

Cleaning

Ultrasonic frequency: 20 - 400 kHz, 50 - 100 bar pressure (water jet)

Aerospace (cleaning of complex parts), Medical (implant sterilization), Automotive (engine parts)

Polishing & Deburring

Tumbling media size: 10 - 30 mm, 1500 - 3000 rpm
Deburring: 0.1 - 0.5 mm tolerance

Automotive (chassis parts, trim components), Aerospace (fuel systems), Industrial (tooling, fittings)

Methoding in Ceramic Mold Casting

Core Design

Sand cores, shell cores, fused silica, alumina cores

Aerospace (turbine blades), Automotive (engine blocks), Energy (turbine nozzles)

Mold Material

Silica, zircon, alumina, fused silica

Aerospace (engine parts), Oil & Gas (valve components), Automotive (brake parts)

Shell Thickness

3 - 15 mm

Aerospace (high-precision components), Automotive (engine pistons), Energy (valve bodies)

Mold Preheating Temperature

300 - 800°C

Aerospace (turbine blades), Automotive (engine parts), Industrial (pump bodies)

Shell Hardening

Slow cooling, rapid cooling

Aerospace (high-precision castings), Automotive (engine components), Medical (surgical tools)

Mold Assembly

Multi-part molds, single-part molds, shell assembly

Aerospace (engine components), Automotive (structural parts), Industrial (machinery components)

Pouring Method

Gravity casting, vacuum casting, pressure casting

Aerospace (turbine blades), Automotive (precision gears), Energy (turbine components)

Core Venting

Pin venting, film venting, vacuum venting

Aerospace (casting integrity), Automotive (engine components), Oil & Gas (pressure vessels)

Patterning Technique

Lost wax, lost foam, direct shell, 3D printed patterns

Aerospace (turbine parts), Automotive (complex components), Medical (custom implants)

Shell Material Composition

Silica, zircon, alumina, fused silica, calcium aluminate

Aerospace (engine components), Automotive (brake parts), Industrial (custom tooling parts)

Mold Drying Process

24 - 72 hours

Aerospace (high-performance parts), Automotive (engine blocks), Industrial (tooling molds)

Casting Weight Range

0.1 kg - 500 kg

Aerospace (high-value components), Automotive (brake pads), Energy (valve bodies)

Ceramic Mold Casting Materials

Ceramic mold casting services offers precise replication of complex shapes and features. The process is used for high-performance components requiring exceptional strength and accuracy.

Stainless Steel

Stainless Steel offers high corrosion resistance and strength at elevated temperatures. It is ideal for casting components such as valves, pumps, and turbine parts, where durability and resistance to oxidation are critical.

Nickel Alloys

These alloys provide excellent high-temperature strength and oxidation resistance. They are commonly used in aerospace, gas turbines, and heat exchangers, where components endure extreme thermal conditions.

Cobalt Alloys

Cobalt-based alloys like Stellite offer outstanding wear resistance and high hardness. They are typically used for components exposed to extreme wear, such as cutting tools and wear-resistant surfaces.

Titanium Alloys

Known for their high strength-to-weight ratio and excellent corrosion resistance, titanium alloys are used in aerospace, medical implants, and marine applications, where lightweight and high-performance materials are needed.

Aluminum Alloys

Aluminum-based alloys, such as 2024 or 7075, are lightweight and provide good strength and corrosion resistance. They are commonly used in aerospace and automotive components, where reducing weight without compromising strength is essential.

Copper Alloys

Copper alloys like bronze and brass offer superior thermal and electrical conductivity. They are typically used in electrical connectors, heat exchangers, and marine components.

Superalloys (Rene, Waspaloy)

These high-performance alloys are designed to maintain strength and stability at extreme temperatures. Superalloys are widely used in aerospace turbine blades, requiring high thermal fatigue and creep resistance.

Efficient Solutions for Managing Longer Production Cycles

Ceramic mold casting services involves multiple steps, including mold drying, firing, and shell building, which can extend the overall production time. Each step is crucial for ensuring the mold’s strength and precision. Frigate optimizes these stages by employing advanced techniques and strict process control, reducing delays while maintaining the integrity of the final part. Efficient planning and careful monitoring ensure that production timelines are adhered to, even when complex geometries are required.

Compliance for Ceramic Mold Casting Services

We ensure all ceramic casting processes comply with stringent industry standards and certifications, ensuring precision and reliability. Adhering to specific regulatory frameworks allows the company to provide high-quality, durable, and safe ceramic components for the aerospace, automotive, and medical industries. The team ensures strict oversight, meets safety and environmental requirements and operates with the latest technology to achieve exceptional results.

Compliance for Ceramic Casting Services

ASTM C532

Standard Specification for Ceramic Materials for Thermal Insulation.

ISO 9001:2015

Quality Management Systems certification ensuring consistent quality in production.

ISO 14001:2015

Environmental Management Systems to ensure sustainable practices.

MIL-STD-810H

Environmental testing standard for military applications.

RoHS Directive 2011/65/EU

Certification ensuring compliance with restrictions on hazardous substances in electronic devices.

OSHA 29 CFR 1910

Occupational Safety and Health Administration standards for workplace safety.

ISO 13485:2016

Certification for quality management systems in the medical device industry.

Max Mold Size

3000 x 1500 x 1000 mm (Length x Width x Height)

Aerospace (turbine blades), Automotive (large engine parts), Industrial (heavy machinery components)

Max Casting Weight

200 - 500 kg per mold

Aerospace (engine components), Automotive (structural parts), Oil & Gas (pressure vessels)

Injection Pressure

10 - 100 MPa

Aerospace (precision castings), Automotive (engine blocks), Energy (turbine blades)

Cycle Time

5 - 30 minutes per casting

Aerospace (high-precision components), Automotive (engine parts), Industrial (pump bodies)

Pouring Temperature

1400 - 1600°C

Aerospace (turbine parts), Automotive (brake components), Energy (heat exchangers)

Dimensional Accuracy

±0.2 - 1.0 mm

Aerospace (high-performance parts), Automotive (precision gears), Medical (implants)

Mold Material Thickness

3 - 15 mm

Aerospace (complex geometry components), Automotive (brake rotors), Medical (surgical instruments)

Wall Thickness Tolerance

0.2 - 3.0 mm

Aerospace (turbine components), Automotive (engine parts), Industrial (custom parts)

Max Production Volume

500 - 10,000 parts per month

Automotive (mass production engine parts), Aerospace (brackets), Industrial (tooling parts)

Casting Yield

90 - 98%

Aerospace (high-value components), Automotive (lightweight parts), Energy (precision castings)

Tonnage/Capacity in Ceramic Mold Casting

Tonnage and capacity are critical factors in ceramic mold casting, impacting the size, precision, and production efficiency of components. From mold size to casting weight, and injection pressure, these parameters define the capabilities of casting operations.

Dimensions in Ceramic Mold Casting

Dimensions play a crucial role in ceramic mold casting, affecting the size, shape, and precision of cast components. These parameters determine the feasibility of producing complex and high-performance parts across various industries.

Max Mold Dimensions

3000 x 1500 x 1000 mm (Length x Width x Height)

Aerospace (turbine blades), Automotive (engine blocks), Industrial (heavy machinery components)

Min Wall Thickness

0.2 - 3.0 mm

Aerospace (structural components), Automotive (engine components), Medical (implants)

Max Wall Thickness

20 - 50 mm

Aerospace (high-strength components), Automotive (brake pads), Industrial (casting molds)

Dimensional Tolerance

±0.2 - 1.0 mm

Aerospace (turbine blades), Automotive (precision gears), Energy (turbine components)

Casting Length

100 - 2500 mm

Aerospace (fan blades), Automotive (transmission shafts), Industrial (piping components)

Casting Width

50 - 1500 mm

Aerospace (critical components), Automotive (steering systems), Industrial (heat exchangers)

Casting Height

10 - 1000 mm

Aerospace (engine housings), Automotive (chassis), Medical (surgical tools)

Core Hole Diameter

1 - 200 mm

Aerospace (turbine blade cooling holes), Automotive (engine parts), Industrial (valves)

Casting Shape Complexity

High complexity with internal and external features

Aerospace (complex aerospace parts), Automotive (detailed automotive components), Medical (implants)

Max Weight per Casting

200 - 500 kg

Aerospace (turbine blades), Automotive (engine parts), Energy (valve bodies)

Tolerance for Ceramic Mold Casting Services

Dimensional Tolerance

±0.05 mm to ±0.5 mm

Precision in the overall size and shape of the casting, essential for fit and function.

Wall Thickness Uniformity

±0.1 mm to ±0.3 mm

Variation in wall thickness to ensure structural integrity and consistency.

Surface Finish (Roughness)

Ra 0.8 µm to Ra 3.2 µm

Surface roughness specified by the average height of surface irregularities (Ra).

Flatness

±0.1 mm to ±0.3 mm

Tolerance in the flatness of the part, critical for alignment in assemblies.

Perpendicularity

±0.1 mm to ±0.2 mm

Deviation from a perfect 90° angle between surfaces, important for geometric precision.

Roundness (Circularity)

±0.05 mm to ±0.2 mm

Deviation from true circular shape, essential for function in rotating or mating parts.

Weight

±0.5% to ±2%

Tolerance for weight variation, depending on part size, material, and application.

Porosity

<1%

Maximum allowable porosity, critical for maintaining mechanical strength and durability.

Out-of-Roundness

±0.2 mm to ±0.5 mm

Deviation from the intended roundness, affecting the fit of rotating components.

Thickness Gradient

±0.1 mm to ±0.2 mm

Variability in thickness throughout the part to maintain uniform strength distribution.

Shrinkage

±0.2% to ±0.5%

Shrinkage tolerance during cooling, important for ensuring final dimensions match specifications.

Dimensional Accuracy (ID/OD)

±0.1 mm to ±0.3 mm

Tolerance for internal and external diameters, critical for tight-fitting components.

Angle Deviation

±0.1° to ±0.5°

Deviation in angular dimensions, particularly for complex geometries in technical applications.

Tensile Strength

±5% to ±10%

Allowable variance in the tensile strength of the ceramic material, ensuring required performance.

Hardness (Vickers)

±10 HV

Hardness variation to ensure appropriate wear resistance for specific applications.

Thermal Conductivity

±5% to ±10%

Deviation in thermal conductivity, critical for thermal management in specific industries.

Cavity Depth

±0.1 mm to ±0.5 mm

Precision control of cavity depths in complex casting geometries.

Moisture Content

<0.1%

Max allowable moisture content in the ceramic, important for firing and sintering processes.

Quality Testing Standards for Ceramic Mold Casting Services

Thermal Conductivity

ASTM E1952, Laser Flash Analysis

Measuring the rate at which heat passes through the ceramic material, essential for thermal management applications.

Thermal Expansion

ASTM C372, Dilatometer Testing

Testing the material's expansion or contraction with changes in temperature.

Fracture Toughness

ASTM C1421, Single Edge Notch Test

Evaluation of a ceramic material's ability to resist crack propagation under stress.

Compressive Strength

ASTM C617, Uniaxial Compression Test

Measuring the ceramic's ability to withstand compressive forces without failure.

Creep Resistance

ASTM C133, High-Temperature Test

Testing for deformation under a constant load over an extended period at high temperatures.

Bending Modulus

ASTM C1161, 4-Point Bend Test

Measurement of the material’s stiffness under bending stress.

Fatigue Resistance

ASTM E466, Cyclic Loading Test

Testing the ceramic’s ability to withstand repeated loading cycles without failure.

Impact Resistance

Charpy Impact Test, Drop Weight Test

Measuring the material's ability to absorb energy from an impact without breaking.

Electromagnetic Properties

ASTM D257, Dielectric Test

Measurement of the ceramic's electrical conductivity, permittivity, and resistivity.

Acoustic Emission Testing

Acoustic Emission Sensors

Detecting high-frequency stress waves to monitor crack formation or growth.

Vibration Damping

ASTM D4728, Vibration Test

Measuring the ability of ceramic material to absorb and dampen vibrational energy.

Wear Resistance

ASTM G99, Pin-on-Disk Test

Evaluating the ceramic's resistance to wear under continuous friction.

Sintering Behavior

DTA (Differential Thermal Analysis), TGA

Evaluating changes in the material’s microstructure during the sintering process.

Shrinkage Rate

ASTM C413, Linear Shrinkage Test

Measuring dimensional changes during drying, firing, and cooling to ensure proper final size.

Bonding Strength

ASTM C1479, Bond Test

Evaluating the strength of bonds between ceramic layers or between ceramic and other materials.

Porosity Distribution

Mercury Intrusion Porosimetry, SEM

Quantifying the size and distribution of pores in the ceramic to assess quality and integrity.

Gas Permeability

ASTM E128-08, Permeability Test

Measuring the flow of gases through the ceramic to evaluate its density and pore structure.

Sintered Density

Archimedes' Method, X-ray Imaging

Determining the density after sintering to confirm that the part has reached the desired structural properties.

Tensile Modulus

ASTM D638, Tensile Test

Measuring the material’s resistance to deformation under tensile stress.

Optical Transparency

Transmission Light Test, Spectroscopy

Measuring the material’s transparency or light transmission for optical applications.

Moisture Absorption

ASTM C373, Absorption Test

Testing the amount of moisture absorbed by the ceramic material under controlled conditions.

Inspection Techniques in Ceramic Mold Casting

Visual Inspection

Surface quality, cracks, porosity, dimensional accuracy

Value/Range - 0.1 - 5 mm

Aerospace (turbine blades), Automotive (engine blocks), Medical (implants)

Ultrasonic Testing (UT)

Material thickness, internal defects

Value/Range - 2 - 500 mm

Aerospace (aircraft engine components), Automotive (suspension parts), Industrial (pressure vessels)

X-ray Inspection

Internal voids, porosity, inclusions

Value/Range - 0.1 - 10 mm

Aerospace (turbine blades), Automotive (precision gears), Energy (turbine components)

Magnetic Particle Inspection (MPI)

Surface and near-surface cracks

Value/Range - 0.1 - 5 mm

Aerospace (engine casings), Automotive (brake components), Oil & Gas (drill bits)

Dye Penetrant Testing (DPT)

Surface cracks, leaks

Value/Range - 0.1 - 2 mm

Aerospace (turbine blades), Automotive (casting integrity), Medical (surgical tools)

Eddy Current Testing (ECT)

Conductivity, surface cracks, material integrity

Value/Range - 0.2 - 10 mm

Aerospace (engine parts), Automotive (brake pads), Industrial (valve bodies)

Computed Tomography (CT)

Internal structure, porosity, dimensional accuracy

Value/Range - 0.1 - 50 mm

Aerospace (complex geometries), Automotive (precision parts), Medical (implants)

Radiographic Testing

Internal structure, voids, inclusions

Value/Range - 2 - 500 mm

Aerospace (high-precision components), Automotive (engine parts), Industrial (machinery components)

Hardness Testing

Material hardness, structural integrity

Value/Range - 50 - 60 HRC

Aerospace (engine components), Automotive (brake pads), Industrial (tooling parts)

Surface Roughness Testing

Surface finish, texture, and smoothness

Value/Range - 0.1 - 5 µm

Aerospace (turbine blades), Automotive (engine components), Medical (surgical instruments)

Tensile Testing

Material strength, elongation, yield strength

Value/Range - 200 - 1500 MPa

Aerospace (structural components), Automotive (engine parts), Industrial (machine components)

Industry Applications of Ceramic Mold Casting

Aerospace

Production of high-temperature resistant, lightweight, and complex geometrical components

Turbine blades, heat shields, nozzle components, jet engine housings

Automotive

High-strength, precise components for enhanced performance, safety, and durability

Cylinder heads, turbocharger parts, exhaust manifolds, engine pistons

Medical

Manufacturing of precise, biocompatible, and customizable components for medical procedures

Heart valves, orthopedic implants, surgical instruments, dental crowns

Energy

Fabrication of parts that can withstand extreme temperatures and pressures in energy production

Gas turbine components, reactor vessels, steam nozzles, valve seats

Oil & Gas

Production of highly durable, corrosion-resistant parts for the harsh environments of extraction

Drill rigs, subsea components, downhole tools, pipeline valves

Defense

Manufacture of lightweight, high-durability components for military systems

Armor plating, radar housing, gun parts, missile components

Industrial

Custom moldings for heavy-duty applications requiring strength and high precision

Pump casings, valve bodies, manufacturing jigs, industrial seals

Electronics

Fabrication of intricate parts for heat management, electrical insulation, and structural integrity

Circuit boards, connectors, battery cases, sensor housings

Marine

Design of components that offer high resistance to corrosion and the marine environment

Propellers, marine engine components, ship hull fittings, valve parts

Telecommunications

High-precision parts for communication infrastructure requiring durability and efficiency

Microwave components, antenna housing, base station parts

Creation of high-purity, intricate parts for semiconductor fabrication and processing

Semiconductor molds, wafer supports, process chambers

Production of precision molds and parts that meet hygienic standards and durability in food systems

Food processing machinery, pump components, conveyor parts

Mining

Heavy-duty, high-strength castings for the mining industry to withstand wear and pressure

Crusher parts, mining drill components, excavator parts

Construction

Manufacturing of durable, high-strength components for infrastructure and machinery

Concrete molds, bridge components, construction machinery parts

Advancing Medical Component Manufacturing with Ceramic Mold Casting

Precision and reliability are critical in medical component manufacturing, especially for complex parts like surgical instruments, implants, and device housings. Traditional casting methods often face difficulties in achieving tight tolerances and intricate designs. Ceramic mold casting addresses these issues by offering exceptional dimensional accuracy, smooth surface finishes, and the ability to create detailed internal geometries. This process ensures that medical components meet strict quality standards, reducing the need for extensive post-processing and delivering high-performance, reliable parts tailored to the demands of the medical field.

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Industries We Serve

What You Gain with Us

We make your profitability and operations easier with practical approach.

Scalable Options for High-Volume Production Runs

Although ceramic mold casting is ideal for producing complex, low-volume parts, scaling up for large production runs can be challenging due to the labor-intensive nature of the process. Frigate addresses this by strategically evaluating the most efficient use of ceramic molds based on part complexity and production volume. Alternative methods, such as die casting or sand casting, may be considered for high-volume needs, ensuring the most cost-effective and timely solution is chosen while maintaining high-quality standards.

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What Our Customers Say about Frigate

I would strongly recommend Frigate to anyone who wants to do Rapid Prototyping, and 3D Printing and take their ideas to manufacturing. One firm doing all kinds of Product Development!

Thank you so much for your great support so far. Overall, the sheet metal work of the Plotbot Pro was done in an awesome way.Special Mention: The powder coat looks cooler!

The next disruption is happening in Prototyping & Manufacturing on-demand and Frigate is leading the way!I personally believe the Frigate's way of IIOT enabled cloud platform with Al.

I am absolutely happy to work with supplier like Frigate who were quite proactive & result oriented . Frigate has high willingness team who has strong know how & their passion towards the products & process were absolutely thrilling.

Working with Frigate has been great. Their proactive, results-driven approach and expertise shine through in every project. It's been a pleasure collaborating with them.

Having Doubts? Our FAQ

Check all our Frequently Asked Question

How does the ceramic mold casting process ensure the integrity of high-temperature alloys during casting?

Ceramic molds are designed to withstand extreme temperatures, preventing thermal shock or deformation during the casting of high-temperature alloys and ensuring the structural integrity of parts under severe operating conditions.

What is the effect of ceramic shell thickness on mold strength and precision?

The ceramic shell's thickness directly influences mold strength and dimensional accuracy. A thicker shell increases strength, but excessive thickness can lead to challenges in achieving fine detail and precision.

How does ceramic mold casting handle rapid cooling, and how does it impact material properties?

Ceramic mold casting controls the cooling rate to prevent thermal stresses, ensuring uniform cooling, which optimizes material properties like tensile strength and fatigue resistance, especially in critical components such as turbine blades.

Can ceramic mold casting cast complex alloys with high viscosity, such as titanium or zirconium?

Yes, ceramic mold casting can handle high-viscosity alloys like titanium and zirconium by utilizing advanced shell materials and heating techniques that ensure proper flow into complex molds and prevent solidification before complete filling.

How do ceramic molds compare to metal molds regarding surface finish and post-processing requirements?

Ceramic molds provide a superior surface finish with minimal porosity, reducing the need for extensive post-processing. This allows for tighter tolerances and reduces the need for secondary machining compared to metal molds.

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LOCATIONS

Global Sales Office

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

Registered Office

23, 6th West Street, Balaji Nagar, Kattur, Pappakuruchi, Tiruchirappalli-620019, Tamil Nadu, India.

Operations Office

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

Ceramic Mold Casting Services

Our Clients

Advantages of Ceramic Mold Casting Services

Complex Core Formation

High Reproducibility

Thermal Resistance

Complex Geometries

Custom Ceramic Mold Casting Services

Get Your Quote Now

Our Ceramic Mold Casting Process

Post Processing Services in Cold Chamber Casting

Methoding in Ceramic Mold Casting

Ceramic Mold Casting Materials

Efficient Solutions for Managing Longer Production Cycles

Compliance for Ceramic Mold Casting Services

Compliance for Ceramic Casting Services

Tonnage/Capacity in Ceramic Mold Casting

Dimensions in Ceramic Mold Casting

Tolerance for Ceramic Mold Casting Services

Quality Testing Standards for Ceramic Mold Casting Services

Inspection Techniques in Ceramic Mold Casting

Industry Applications of Ceramic Mold Casting

Advancing Medical Component Manufacturing with Ceramic Mold Casting

Industries We Serve

What You Gain with Us

↓ 7-8%

↓ 2-3%

3X

↑ 25%

↓ 50%

↑ 30%

Scalable Options for High-Volume Production Runs

Check Out Our Blogs

What Our Customers Say about Frigate

21%

Having Doubts? Our FAQ

We'd love to Manufacture for you!

LOCATIONS

Global Sales Office

Registered Office

Operations Office

GENERAL ENQUIRIES

Capabilities

Company

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