Rapid 3D Printing Prototyping Service

We offer rapid 3D printing prototyping services for high-temperature alloys, metals, plastics, and ceramics, delivering prototypes in as fast as 24 hours to meet client needs for quick turnaround and high-quality results.

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3D Printing Prototyping Service Range

We provide rapid 3D printing prototyping services for high-temperature alloys, metals, plastics, and ceramics, ensuring quick turnaround times, with delivery as fast as 24 hours to support efficient and precise prototyping for various applications.

Superalloy 3D Printing

Advanced 3D printing of superalloys for high-performance, heat-resistant parts used in aerospace, energy, and industrial applications.

Metal 3D Printing

Precision metal 3D printing for complex, durable components in aerospace, automotive, and medical industries, ensuring high-quality results.

Plastic 3D Printing

Rapid prototyping of functional plastic parts, offering flexibility, durability, and fast production for consumer, automotive, and industrial sectors.

Ceramic 3D Printing

High-precision ceramic 3D printing for complex shapes offers superior thermal resistance and fine details for specialized applications.

Ceramic 3D Printing

High-precision ceramic 3D printing for complex shapes offers superior thermal resistance and fine details for specialized applications.

Superalloy 3D Printing

Advanced 3D printing of superalloys for high-performance, heat-resistant parts used in aerospace, energy, and industrial applications.

Metal 3D Printing

Precision metal 3D printing for complex, durable components in aerospace, automotive, and medical industries, ensuring high-quality results.

Plastic 3D Printing

Rapid prototyping of functional plastic parts, offering flexibility, durability, and fast production for consumer, automotive, and industrial sectors.

Ceramic 3D Printing

High-precision ceramic 3D printing for complex shapes offers superior thermal resistance and fine details for specialized applications.

Superalloy 3D Printing

Advanced 3D printing of superalloys for high-performance, heat-resistant parts used in aerospace, energy, and industrial applications.

Typical 3D Printing Materials

Common aluminum alloys used in CNC machining include 6061, 7075, 2024, and 5052, offering a range of properties like high strength, corrosion resistance, and machinability. These alloys are used in aerospace, automotive, marine, and structural applications.

Super Alloys	Tensile Strength (MPa)	Yield Strength (MPa)	Fatigue Strength (MPa)	Elongation (%)	Hardness (HRC)	Density (g/cm³)	Applications
Inconel 625	1030	690	370	35	30-40	8.44	Aerospace, Chemical Processing, Gas Turbines
Inconel 718	1030	930	550	15	35-45	8.19	Jet Engines, Aerospace, Turbomachinery
Inconel 718C	1080	980	600	14	38-45	8.20	Aerospace, Gas Turbines, Rocket Engines
Inconel 718LC	1080	980	610	13	38-45	8.20	Aerospace, Gas Turbines, Military
Inconel 800	620	240	160	40	20-30	7.94	Heat Exchangers, Chemical Processing, Furnaces
Inconel 800HT	650	310	170	42	22-32	7.98	Power Plants, Industrial Furnaces, Heat Exchangers
Inconel X-750	1035	825	450	15	35-45	8.22	Gas Turbines, Aerospace, Power Generation
Hastelloy C-276	860	550	370	40	30-40	8.89	Chemical Processing, Aerospace, Marine
Hastelloy C-22	900	550	370	40	30-40	8.89	Chemical Processing, Corrosion-Resistant Parts, Aerospace
Hastelloy C-2000	1050	700	400	30	35-45	8.91	Chemical Processing, Marine, Heat Exchangers
Hastelloy X	1000	480	300	40	30-40	8.87	Aerospace, Gas Turbines, Chemical Processing
Hastelloy B-2	485	190	125	50	25-35	8.89	Hydrogen Fluoride Processing, Chemical Processing, Heat Exchangers
Hastelloy B-3	480	190	130	55	25-35	8.91	Chemical Processing, Acids Handling, Marine
Monel 400	690	310	140	45	20-30	8.80	Marine, Chemical Processing, Piping
Monel K500	1050	860	550	25	40-50	8.89	Marine, Aerospace, Chemical Processing
Monel 450	760	480	250	40	20-30	8.77	Marine, Oil & Gas, Chemical Processing
Monel R-405	720	350	160	40	20-30	8.78	Marine, Chemical Processing, Pressure Vessels
Ti-6Al-4V (TC4)	930	880	450	10-15	34-38	4.43	Aerospace, Medical Implants, Automotive
Ti-6Al-4V ELI (Grade 23)	900	880	450	15-20	35-40	4.43	Medical Implants, Aerospace, High-Performance Parts
Ti-10V-2Fe-3Al	1100	1000	550	12-18	38-45	4.45	Aerospace, High-Performance Components, Jet Engines
Ti-13V-11Cr-3Al (TC11)	1100	950	600	15	38-45	4.45	Aerospace, Military, High-Temperature Parts
Ti-6Al-2Sn-4Zr-2Mo	1000	950	550	18	35-40	4.49	Aerospace, Marine, Chemical Processing
Ti-6.5Al-1Mo-1V-2Zr (TA15)	1000-1100	900-1000	500-600	10-15	30-40	4.47	Aerospace lighter components, Chemical Processing device, Gas Turbines
Nimonic 80A	1200	900	500	15	35-45	8.87	Gas Turbines, Aerospace, High-Temperature Applications
Steel Alloys	Tensile Strength (MPa)	Yield Strength (MPa)	Fatigue Strength (MPa)	Elongation (%)	Hardness (HRC)	Density (g/cm³)	Applications
AISI 1018 (Carbon Steel)	440	370	190	15-20	80-90	7.87	Structural parts, automotive, general use
AISI 1045 (Carbon Steel)	600-800	350-450	220-300	12-15	85-95	7.85	Shafting, gears, automotive components
AISI 1060 (Carbon Steel)	650-850	400-600	250-350	10-12	90-100	7.87	Cutting tools, heavy-duty machinery
316L (Stainless Steel)	620	290	150-250	40-50	95-100	7.98	Aerospace, chemical processing, medical devices
17-4 PH (Stainless Steel)	1300	1100	600-800	10-15	40-45	7.75	Aerospace, tooling, industrial machinery
15-5 PH (Stainless Steel)	1250	1100	500-700	15-20	40-45	7.77	Aerospace, chemical processing, military
304L (Stainless Steel)	520	205	120-200	60-70	80-90	7.93	Food processing, chemical processing, cryogenics
D2 (AISI) (Tool Steel)	1700	1400	600-800	5-10	60-62	7.80	Cutting tools, molds, dies
H13 (AISI) (Tool Steel)	1050	850	400-600	12-15	50-55	7.85	Hot work tooling, die casting, extrusion molds
A2 (AISI) (Tool Steel)	1200	1000	400-600	10-15	58-60	7.85	Precision tooling, dies, punches
O1 (AISI) (Tool Steel)	1100-1300	800-1000	300-500	8-12	55-60	7.83	Tooling, dies, cutting tools
Aluminum Alloys	Tensile Strength (MPa)	Yield Strength (MPa)	Fatigue Strength (MPa)	Elongation (%)	Hardness (HRC)	Density (g/cm³)	Applications
Aluminum 6061	240-290	215-250	100-160	12-20	45-60	2.70	Aerospace, Automotive, Structural Components
Aluminum 7075	500-570	430-510	190-300	8-12	50-60	2.81	Aerospace, Military, High-Performance Parts
Aluminum 2024	470-520	370-420	150-200	8-15	40-50	2.78	Aerospace, Military, Structural Components
Aluminum 5083	400-460	280-330	130-180	14-20	50-60	2.66	Marine, Chemical Processing, Shipbuilding
Aluminum 2319	370-460	290-350	160-220	15-18	40-50	2.85	Aerospace, Military, Welding Applications
Aluminum 4045	350-400	290-330	120-170	13-18	45-55	2.70	Automotive, Aerospace, Heat Exchangers
Aluminum 1100	120-160	35-70	50-100	25-35	20-30	2.70	Food Processing, Chemical Processing, Cryogenics
Aluminum 3003	120-180	90-150	50-80	18-25	25-35	2.73	Food Processing, Chemical Processing, Building Materials
Aluminum AlSi10Mg	350-400	300-350	150-200	5-8	50-60	2.65	Automotive, Aerospace, High-Performance Parts
Aluminum AlSi12	280-350	220-280	100-150	7-10	45-55	2.68	Engine Components, Aerospace, Structural Parts
Precision Ceramics	Tensile Strength (MPa)	Yield Strength (MPa)	Fatigue Strength (MPa)	Elongation (%)	Hardness (HRC)	Density (g/cm³)	Applications
Aluminum Oxide (Al2O3)	300-350	200-250	80-120	0.5-2	85-90	3.95	Wear parts, biomedical implants, refractory materials
Zirconium Oxide (ZrO2)	700-1000	500-700	250-350	2-5	120-130	5.90	Dental implants, thermal barrier coatings, aerospace parts
Silicon Carbide (SiC)	400-650	300-500	200-300	1-2	75-80	3.21	Aerospace, semiconductor parts, nuclear components
Silicon Nitride (Si3N4)	700-900	600-800	300-400	1-2	70-75	3.20	Engine components, bearings, high-temperature parts
Hydroxyapatite (HA)	20-30	15-25	10-20	1-5	40-50	3.10	Bone implants, dental applications, tissue engineering
Barium Titanate (BaTiO3)	30-60	20-40	10-20	2-3	80-90	5.60	Sensors, actuators, capacitors
Lead Zirconate Titanate (PZT)	50-100	40-80	20-40	2-5	85-95	7.60	Piezoelectric devices, sensors, actuators
Silicon Dioxide (SiO2)	50-100	30-50	20-40	1-2	65-75	2.65	Optical components, lenses, refractories
Cordierite (Mg2Al4Si5O18)	150-250	100-150	50-80	2-5	60-70	2.52	High-temperature refractories, electrical insulators, catalytic converters
Boron Carbide (B4C)	2000-2500	1500-2000	1000-1500	0-1	80-90	2.52	Armor materials, wear-resistant coatings, nuclear shielding
Lithium Aluminosilicate Glass-Ceramics	200-350	150-250	100-150	3-5	60-70	2.50	Heat-resistant glass, optical devices, complex geometries
Resin and Nylon	Tensile Strength (MPa)	Yield Strength (MPa)	Fatigue Strength (MPa)	Elongation (%)	Hardness (Shore D)	Density (g/cm³)	Applications
GR (Rigid Resin)	53.1	71.5	45	11.4	80	1.1	Functional prototypes, engineering parts, tooling
HTL (High Temperature Resin)	71.5	80.0	55	7.8	81	1.2	Automotive, aerospace, high-temp applications
ST1400 (Tough Resin)	45.0	56.0	40	43.0	78	1.3	Durable prototypes, impact-resistant parts, tooling
BIO (Biocompatible Resin)	56.0	60.4	45	6.2	84	1.1	Medical implants, dental applications, bioengineering
RG (Weather-Resistant Engineering Resin)	60.4	71.5	52	11.7	77	1.2	Outdoor equipment, automotive, functional parts
HT-200 (High-Temperature Resin)	87.8	82.9	78	14.0	78.6	1.4	Aerospace, engine components, high-temp industrial parts
Sacrificial Resin	38.0	50.0	30	26.0	60	1.0	Moldmaking, complex geometries, casting supports
Formula1μ (Specialized Resin)	99.0	67.0	85	3.3	88	1.2	High-precision parts, automotive, aerospace
Loctite 3D 3955 (Engineering Resin)	67.0	70.0	40	2.0	82	1.3	Prototyping, tooling, production parts

Post Process for Superalloy 3D Printed Parts

Post-processing of superalloy 3D printed parts includes heat treatment, hot isostatic pressing (HIP), CNC machining, surface polishing, superalloy welding, and coating. These processes enhance material properties, remove residual stresses, improve surface finish, and ensure part integrity and performance.

Post Process	Functions
Hot Isostatic Pressing (HIP)	Eliminates porosity, increases density, and enhances fatigue and creep resistance.
Heat Treatment	Optimizes strength, hardness, and thermal stability.
Superalloy Welding	Enables precise repairs and strong joints.
TBC Coating	Provides thermal protection, extending service life.
CNC Machining	Achieve tight tolerances and complex geometries.
EDM	Achieve tight tolerances and complex geometries.
Deep Hole Drilling	Supports intricate designs.
Material Testing	Validates performance for critical applications like aerospace and power generation.
More Post Process >>	Ahieve higher physical, chemical and mechanical properties as well as surface properties

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Custom 3D Printing Parts Case Study

A custom 3D printing case study showcases the creation of complex, high-performance parts using advanced materials like superalloys and composites. The process involves design optimization, rapid prototyping, and post-processing to meet specific industry requirements, ensuring quality, precision, and durability.

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Suggestions for 3D Printing Parts

CNC prototype design guidelines emphasize material selection, uniform wall thickness, achievable tolerances, and accessible features. Key principles include avoiding sharp corners, minimizing material removal, and ensuring proper hole design and symmetry to optimize machining efficiency, cost, and part quality.

Items	Suggestions
Tolerances	±0.1 mm to ±0.3 mm (depending on material and process)
Min Wall Thickness	0.4 mm (varies by material and part geometry)
Maximum Part Size	400 x 400 x 400 mm (depends on the printer and material)
Minimum Part Size	10 mm x 10 mm x 10 mm
Lead Time	1-5 business days (depending on complexity and material)
Layer Height	0.1 mm to 0.4 mm (higher precision, smaller layer height)
Material Range	Metals, plastics, ceramics, composites, and superalloys
Print Resolution	50 microns to 200 microns (depends on the technology)
Post-Processing	Includes cleaning, heat treatment, machining, and coating
Surface Finish	Ra 1-5 µm (varies with material and post-processing)
Print Speed	10-30 mm/hr (depends on part size and complexity)
Part Complexity	High (can produce intricate geometries and complex designs)
Strength & Durability	Varies by material; metal parts are highly durable