Composite Manufacturing and Machining Services

With an increasingly crowded field UAS manufacturing there is only one company that has been manufacturing UAS since the beginning, Cingularity Aerospace TM

Cingularity Aerospace repeatedly delivers the “best value” solution in Unmanned Manufacturing. Our proven low cost production capability for manufacturing UAS systems is the result of more UAS airframe production than any other small company operating today. By employing a process driven approach to the development of safety critical components, design allowables, payload flexibility and unit production cost, our team has the experience to deliver the results your program demands in less time than you've budgeted. Cingularity TEC brings the experience and skills typically found at large primes but with the agility and low overhead operations of a small company. Our engineers, managers, and executives have worked on almost every UAV program of significance in the last 15 years.

Advance Structures

The majority of today's complex composite structures require post cure machining of features and hole locations. We have developed a unique system for molding in simple and complex features into the product at the time of lay-up. Some products feature over 200 integrated features that require no secondary operations. These net cured composites can feature molded-in holes, slots, hardware, SLS components, antennas, and electronics. The elimination of secondary operations improves manufacturing consistency and reduces unit costs.

Defence Structures

Our wealth of experience with composites and polymers makes us perfect for supplying lightweight components for defence, increasing efficiency and protection. You get a complete manufacturing service, from tooling through to final assembly and paint finishing. Whether it is a vehicle hood, submarine mast or lightweight armour protection panels, we can provide a manufacturing solution.

With us, you get the best design and manufacturing support available plus rapid prototyping and series manufacture. With our climate-controlled clean rooms, autoclaves and injection mold machines, we have a manufacturing process to suit your needs.

We supply first class CNC machined aluminum and composite parts. With our range of CNC milling machines comprising the latest 3 & 5 axis technologies, and with our largest 3-axis machine up to 3m x 2m x 1m operating 24/7, we provide fast and comprehensive machining solutions to our defence customers.

Our facilities operate around the clock with quality control supervision and performance monitoring to ensure dependable and fast delivery of prototypes and series production while maintaining the highest quality.

3D printing

Additive manufacturing (AM), or 3D printing, is becoming more common in the aerospace tooling realm. Production tooling can be made quickly and on-demand, which helps the tooling industry keep pace with accelerating composite part design cycles and demand for faster overall part processing speeds.

Advance Processes

A significant section of todays truly complex composite structures relies on traditional composite geometry mated with high precision features which would commonly be more suited to plastic mold injection operations. We have developed techniques which specifically address theses challenges and are capable of generating high fidelity, void free, precision composite interfaces.

Our unique processing of UAV composite structures utilizes an out of autoclave technique which is capable of delivering selective pressures between 50 and 200 psi.

Process DFM

Our unique processing of UAV composite structures utilizes an out of autoclave technique which is capable of delivering selective pressures between 50 and 200 psi.

Infusion VARTM

Vacuum Assisted Resin Transfer Molding (VARTM) or Vacuum Injected Molding (VIM) is a closed mold, out of autoclave (OOA) . Composite manufacturing process. VARTM is a variation of Resin Transfer Molding (RTM) with its distinguishing characteristic being the replacement of the top portion of a mold tool with a vacuum bag and the use of a vacuum to assist in resin flow.[ The process involves the use of a vacuum to facilitate resin flow into a fiber layup contained within a mold tool covered by a vacuum bag. After the impregnation occurs the composite part is allowed to cure at room temperature with an optional post cure sometimes carried out.

This process offers the benefit of not requiring an expensive autoclave while also being capable of producing large, complex aerospace-grade parts.

Machining Capabilities

Composite Machining. Your partner in composite. contact us for a tailored solution. We strive to assist our customers with their needs in the composite manufacturing industry.

Infrastructure - Tool Room Machine Facilities

Cingularity offers a full-service manufacturing process for parts and components. In addition to this, there are various general tool room services on offer, including grinding, polishing, heat treatments, spot-welding and welding, soldering, drilling and reaming. All of which are part of the many manufacturing solutions and processes that we provide.

We utilize hand folding or dedicated hard tool forms to form components using the photo etching process. We also offer a service for component stamping. This is completed by using bespoke press tools or progression tooling, depending on the volume of components required.

We offer a wide variety of photo etching processes to suit your needs, and can easily produce components to your specifications, thanks to the flexibility of the processes we use. For more information on the rest of the services we offer

Composite Tooling

Invar tools, such as these massive wingskin tools shown here, exemplify the most durable of metal tools — a category sometimes called hard tooling. Although relatively heavy and expensive, metal molds are able to withstand many thousands of production cycles. Made of high-performance steel-and-nickel alloys, Invar and other metal molds are durable tool materials but also expensive and, because few composites manufacturers have the equipment necessary to machine and polish such materials, they often require the services of a toolmaking specialist.

Composite parts are formed in molds, also known as tools. Tools can be made from virtually any material. For parts that will be produced in low quantities and can be cured at ambient or low temperature, or for prototype parts, where tight control of dimensional accuracy isn’t of prime importance, materials such as fiberglass, high-density foams, machinable epoxy boards or even clay or wood/plaster models often are suitable. Additively manufactured or 3D-printed tools, using polymers, are also becoming more common for both prototype and production parts. Tooling costs and complexity, however, increase as the requirements for part performance and/or finished surface aesthetics become more exacting and the number of parts to be produced increase. High-rate production tools, for example, are generally made of robust metals that can stand up to repeated cycles and maintain good surface finish and dimensional accuracy. The molds in which high-performance composite parts are formed can be made from carbon fiber/epoxy, monolithic graphite, castable graphite, ceramics or metals (typically aluminum, steel and alloys of the same). In all cases, each material offers unique capabilities and drawbacks.

Sometimes called hard tooling, metal tools, although relatively heavy and expensive, are able to withstand many thousands of production cycles. The most durable, but also most costly, are made of high-performance steel-and-nickel alloys, such as Invar. Because few composites manufacturers have the equipment necessary to machine and polish metal tools — particularly Invar — they often require the services of a toolmaking specialist.

Trapped Molding

The trapped silicone method uses a specially blended silicone elastomer which at a select temperature expands to a known value. This process provides consolidation pressures in excess of what is achievable from an autoclave. The high internal molding pressures generated are sometimes combined with bladders which are inflated at different times during the cure cycle to specifically consolidate certain sections of the laminate. This process can be used in most structures and is uniquely suited to produce internal ribs and bulkheads.

3D modeling and Design Services

Specialization in UAV Design:
- Focus on designing and modeling small and medium-sized UAVs, including fixed-wing, rotary-wing (drones), and hybrid configurations.
- Expertise in optimizing UAV designs for performance, endurance, payload capacity, and aerodynamic efficiency.
Custom UAV Design Solutions:
- Tailored design solutions to meet the unique requirements and specifications of clients, including payload integration, mission-specific capabilities, and regulatory compliance.
- Collaboration with clients to conceptualize, design, and iterate UAV designs according to their mission objectives and operational needs.
Lightweight and Structural Optimization:
- Utilization of SolidWorks Simulation tools to perform structural analysis and optimization for lightweight yet robust UAV structures.
- Design optimization techniques to maximize strength-to-weight ratio, reduce material usage, and enhance durability.
Propulsion and Powertrain Integration:
- Integration of propulsion systems, including electric motors, combustion engines, or hybrid powertrains, into UAV designs.
- Optimization of powertrain components such as propellers, motors, and batteries for efficiency, thrust, and flight endurance.
Flight Control and Stability:
- Implementation of flight control systems, autopilot modules, and stability augmentation systems to ensure precise and stable flight performance.
- Simulation and testing of flight dynamics to analyze stability, control responsiveness, and maneuverability under different operating conditions.
Payload Integration and Customization:
- Design and integration of various payloads and sensors, such as cameras, LiDAR, multispectral imaging, and communication systems, for specific mission requirements.
- Customization of UAV platforms to accommodate different payload configurations while maintaining balance and aerodynamic stability.
Modular and Scalable Designs:
- Development of modular UAV designs that allow for easy customization, upgrades, and scalability to accommodate changing mission needs.
- Scalability considerations to ensure that UAV designs can be adapted for different payload capacities, operational ranges, and mission profiles.
Regulatory Compliance and Certification Support:
- Knowledge of aviation regulations and standards to ensure compliance with safety, airworthiness, and operational requirements.
- Assistance in obtaining certifications and approvals from relevant aviation authorities for UAV designs intended for commercial or industrial use.
Prototype Development and Testing:
- Support for rapid prototyping and physical testing of UAV prototypes to validate design concepts, aerodynamic performance, and structural integrity.
- Iterative design refinement based on test results and feedback to optimize UAV designs for real-world deployment.
Documentation and Manufacturing Support:
- Generation of comprehensive engineering drawings, assembly instructions, and documentation packages to facilitate manufacturing and assembly.
- Collaboration with manufacturing partners to ensure seamless transition from design to production while maintaining quality and cost efficiency.

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Composite Tooling Services

Composite Tool Design and Engineering:
Custom design and engineering of composite tooling solutions tailored to aerospace industry requirements.
Utilization of advanced CAD (Computer-Aided Design) software, such as CATIA or SolidWorks, to develop precise tooling designs.
Material Selection and Optimization:
Expertise in selecting appropriate composite materials, such as carbon fiber, fiberglass, or Kevlar, based on performance requirements, weight considerations, and manufacturing processes.
Optimization of material layup and orientation to achieve desired mechanical properties, stiffness, and durability.
Mold and Mandrel Fabrication:
Fabrication of composite molds, mandrels, and tooling fixtures using advanced manufacturing techniques such as CNC machining, 3D printing, or resin infusion.
Precision machining and finishing to ensure dimensional accuracy, surface quality, and tight tolerances.
Prototyping and Tool Validation:
Prototyping of composite tooling to validate design concepts and manufacturing processes before full-scale production.
Testing and evaluation of tooling prototypes for fit, form, functionality, and performance under simulated operating conditions.
Composite Layup Tooling:
Design and fabrication of layup molds, patterns, and templates for composite part fabrication.
Development of tooling solutions for various composite manufacturing processes, including hand layup, automated tape laying (ATL), and automated fiber placement (AFP).
Assembly and Integration Tooling:
Design and production of assembly fixtures, jigs, and tooling aids to facilitate the assembly and integration of composite components and structures.
Customization of tooling solutions for specific assembly sequences, part alignment, and ergonomic considerations.
Thermoforming and Compression Molding Tooling:
Development of tooling for thermoforming and compression molding processes used in manufacturing composite parts with complex geometries.
Optimization of tooling designs for uniform pressure distribution, material flow, and part consolidation.
Injection Molding Tooling:
Design and fabrication of injection molds for producing composite components using resin transfer molding (RTM), injection molding, or reaction injection molding (RIM) processes.
Integration of features such as gating systems, venting, and cooling channels to optimize mold performance and part quality.
Tooling Maintenance and Repair:
Maintenance, refurbishment, and repair services for existing composite tooling to ensure prolonged service life and optimal performance.
Inspection, cleaning, and refurbishment of tool surfaces, cavities, and components to maintain dimensional accuracy and surface finish.
Consulting and Support Services:
Technical consulting, design assistance, and process optimization services to support aerospace companies in developing cost-effective and efficient composite tooling solutions.
Training programs and knowledge transfer initiatives to empower aerospace personnel with the skills and expertise required for composite tooling design, fabrication, and maintenance.

3-Axis CNC Machining:

Precision machining for aerospace components
Capable of machining relatively simple geometries
Cost-effective solutions for parts not requiring complex machining
Proficient in machining aerospace-grade materials like aluminum
Surface finishing operations to meet industry standards
Tight tolerance control and dimensional accuracy

5-Axis CNC Machining:

Capable of machining complex aerospace components
Multi-angle machining for efficient material removal
Minimized setups and fixturing for shorter lead times
Achieving high precision on complex surfaces and features
Optimized toolpaths for consistent cutting conditions
Machining composite materials with precision and reliability
Faster machining times and reduced cycle times

CAM Programming for CNC machining
Multi-Axis Machining expertise
High-Speed Machining (HSM) strategies
Toolpath Optimization for efficiency
Simulation and Verification of machining processes
Aerospace Material Machining capabilities
Fixture Design and Setup for secure workholding
Post-Processing and Finishing operations
Quality Assurance and Inspection using metrology equipment
Process Optimization and Continuous Improvement initiatives

Clients

Cingularity TEC India Pvt Ltd, Aerospace division, founded in 2014 is an industrial and military grade engineering and manufacturing company. A producer of small and large commercial drones, Cingularity provides revolutionary and effective aerial systems. Cingularity adapts its secure, proprietary aircraft structure components design and manufacturing including avionics for drone airborne mission, combining natural and accurate flight dynamics based on manned aviation flight paths and guidance systems. Cingularity offers new capabilities to the immerging drone industry with task-specific drones and systems enabling even the most challenging heavy lift, long endurance, and delivery missions, globally.We work for and partner with our clients HAL, DRDO Labs, IIsc, NAL, L&T, 3M, Samsung India and many more prestigious organizations.

Plant and Machinery

HAAS 5 Axis Machining Center

The VF-5/50TR is a versatile 5-axis machining center based on the popular VF-5/50 VMC platform. It provides full simultaneous five-axis motion, or can position a workpiece to almost any angle for machining. For added flexibility, the trunnion is mounted directly to the machine’s standard T-slot table, and can easily be removed when jobs require only 3-axis machining.

Capable of full 5-axis contouring
50-taper spindle with 2-speed gearbox
Ideal for tougher materials and larger-diameter cutting tools
Includes high-speed machining software

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Axis Travel:
- X-Axis: 50" (1270 mm)
- Y-Axis: 26" (660 mm)
- Z-Axis: 25" (635 mm)
Spindle Nose to Table:
- Minimum: 4" (102 mm)
- Maximum: 29" (737 mm)
Table Size:
- Length: 52" (1321 mm)
- Width: 23" (584 mm)
Table Load Capacity: 4000 lbs (1814 kg)
Spindle Speed:
- Maximum: 12,000 rpm
- Spindle Taper: CAT 40

Tool Capacity:
- Standard: 30+1 (side-mount)
- Optional: 40+1 (side-mount)
Rapid Traverse Rates:
- X-Axis: 1400 in/min (35.6 m/min)
- Y-Axis: 1400 in/min (35.6 m/min)
- Z-Axis: 1400 in/min (35.6 m/min)
Cutting Feed Rates: Up to 833 in/min (21.1 m/min)
Maximum Tool Diameter (Full): 3.5" (89 mm)
Maximum Tool Weight: 12 lbs (5.4 kg)
Power Requirement: 195-260 VAC / 50-60 Hz / 3-phase
Machine Dimensions (approx.):
- Length: 156" (3962 mm)
- Width: 114" (2896 mm)
- Height: 123" (3124 mm)
Machine Weight (approx.): 20,000 lbs (9072 kg)
Control: Haas CNC Control with Intuitive Programming System (IPS)

4 Axis Machining Center

Jyoti VMC 850 Vertical Machining Center:

Axis Travel:
- X-Axis: 850 mm
- Y-Axis: 550 mm
- Z-Axis: 550 mm
Table Size:
- Length: 1000 mm
- Width: 550 mm
Table Load Capacity: 600 kg
Spindle Speed:
- Maximum: 8000 rpm
- Spindle Taper: BT 40
Tool Capacity:
- Standard: 20 tools
Rapid Traverse Rates:
- X-Axis: 24 m/min
- Y-Axis: 24 m/min
- Z-Axis: 24 m/min
Cutting Feed Rates: Up to 10 m/min
Maximum Tool Diameter (Full): 80 mm
Maximum Tool Length: 300 mm
Maximum Tool Weight: 7 kg
Power Requirement: 12.5 kVA
Machine Dimensions (approx.):
- Length: 2400 mm
- Width: 2000 mm
- Height: 2500 mm

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Indexing Turret

Electromechanical bi-directional operation.
Three piece face gear coupling allows tool disc to be indexed without lifting.
Parallel Index Cam mechanism ensures fast and smooth indexing.
Absolute position encoder for turret position.
Suitable for front or rear mounting.
8, 10 or 12 positions option.

HAAS VF 2
3 Axis VMC

The HAAS VF-2 is a popular vertical machining center known for its reliability, versatility, and performance. Here are some key specifications for the HAAS VF-2:

Axis Travel:
- X-Axis: 30" (762 mm)
- Y-Axis: 16" (406 mm)
- Z-Axis: 20" (508 mm)
Table Size:
- Length: 36" (914 mm)
- Width: 14" (356 mm)
Maximum Table Load: 1500 lbs (680 kg)
Spindle Speed:
- Maximum: 8100 rpm
- Spindle Taper: CAT 40
Spindle Power: 20 hp (14.9 kW)
Tool Capacity:
- Standard: 20+1 side-mount tool changer
- Optional: 24+1 or 40+1 side-mount tool changer

Rapid Traverse Rates:
- X-Axis: 1000 in/min (25.4 m/min)
- Y-Axis: 1000 in/min (25.4 m/min)
- Z-Axis: 710 in/min (18 m/min)
Cutting Feed Rates: Up to 500 in/min (12.7 m/min)
Maximum Tool Diameter (full): 3.5" (89 mm)
Maximum Tool Weight: 12 lbs (5.4 kg)
Tool-to-Tool (avg.): 4.2 sec
Chip-to-Chip (avg.): 4.5 sec
Power Requirement: 195-260 VAC / 50-60 Hz / 3-phase
Machine Dimensions (approx.):
- Length: 88" (2235 mm)
- Width: 98" (2489 mm)
- Height: 110" (2794 mm)
Machine Weight (approx.): 8,000 lbs (3629 kg)
Control: Haas CNC Control with Intuitive Programming System (IPS)

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CAPACITY

Swing over bedmm510

Chuck dia. Maxmm210

Max. Turning Diametermm320

Max.Turning Lengthmm690

Admit Between Centresmm830

SPINDLE

Spindle nosetypeA2-6

Hole through SpindleMm61

Spindle Speedrpm3500

Spindle Motor Power (Cont./15 Min)Kw9/11

FEED

Inclination of Carriagedeg300 to Horizontal Plane

Cross Travel X - Axismm185

Longitudinal Travel Z - Axism/min750

Rapid traverse (X/Z) - Axesm/min30 / 36

TURRET

No. of StationsNos8

Tool Shank Sizemm25 x 25

Maximum Boring Bar Diametermm40

Turret IndexingTypeBi Directional

Turret Indexing TimeSecLess than 1

TAILSTOCK

Quill dia.mm75

Quill strokemm100

Quill tapertypeMT-4

CNC SYSTEM

ControllerTypeFanuc / Siemens

MACHINE SIZE

Front x Side x Heightmm2705 x 1650 x 1920

LMW CNC Turning Center

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CNC Wire Cut EDM Machine

FEATURES

Maximum Speed – 100mm /Min*
Machining Accuracy – 0.01mm*
Motorized Z-axis (For DK-7732VC & DK-7740VC)
Best Surface Finish – Ra 1.25* Ø A.C. – Not Required up to 40° C
Windows 10 operating platform
Large built in data base of cutting parameters
Magnetic filter for coolant filtering
Single wire guide for different wire diameters
Two axis D.R.O.(STD) for quick job setting
4-Axes synthesizer to cut different profiles at top and bottom
Auto centre find, auto edge find, auto shut-off at wire breakage and auto stop at the end of the job

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EDM Sparking Die Sinking machine

FEATURES :
• Universal Axis Corrector
• X & Y With Needle Roller Bearings Along With Ball Screws.
• Z Axis With Precisily Ground Quill & Rail Pair With Harden & Ground Lead Screw.
• Very Compact Models.
• Conventional & ZNC Controllers With 20, 35 AMP.
• Very High MRR.
• Less Than 0.1% Wear.
• Surface Finish 0.7 pRa.
• Indigenously Designed and Developed Controller.
• 3 Axis DRO Standard Feature.

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3 Axis CNC Router Machine

SPINDLES

18000-rpm Spindle

Window Air Blast

Control Touch Screen

Media Display M-Code; M130
Early Power-Failure Detection Module
Ethernet Interface
WiFi Connection
Safe Run
HaasDrop
Rigid Tapping
Standard Program Memory, 1 GB

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Oscillating Tangential Knife fabric cutting machine

Technical Specifications:

Max. stroke power knife: 200 N with 1300 strokes / min
Maximal stroke rate: 2000 stroke / min
Oscillating mode: Grooving operation / 1300 strokes / 2000 strokes
Stroke: 3,0 mm
Shaft diameter tool: 6,0 mm
Tool interface: Weldon shaft
Dimensions: 98 x 52 x 160 mm
Clamping diameter: 43 mm
Weight: 1,08 kg (without knife, connection cable)
Housing: Aluminum 7075 anodized
Voltage: 30 V
Control electronics: 5 V

Typicals Materials:

Sealing materials
Corrugated cardboard / Solid boards
Leather and cork
Fabrics and foils
Hard foamboards
Carpet
Depron

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Composite Curing Oven

A composite curing oven is used to cure, anneal, dry, and harden synthetic and composite materials. The curing process for these composite materials frequently includes bagging and putting them under a vacuum while being cured. Each composite curing application is unique and experienced team designs and manufactures high-performance ovens to meet each customer's specific process requirements.

These out of autoclave (OOA) composite curing ovens are available electrically heated, gas-fired, or indirect gas-fired. As a standard, they are designed with a combination airflow arrangement which ensures even & uniform heat distribution throughout the work chamber and provides quicker heating rates and recovery times. They are typically guaranteed and certified for ±5° at 350° F temperature uniformity, but other tolerances and certification at other temperatures are available. Upon request, a Computational Fluid Dynamics (CFD) analysis can be used to optimize airflow, heat transfer, and overall oven performance.

OUT OF AUTOCLAVE COMPOSITE CURING OVENS

Out of Autoclave has become more popular as a cost-effective alternative to high-pressure autoclave composite curing. OOA processing removes the need to pressurize the entire chamber by using vacuum bag only (VBO) technology with tight vacuum tolerances. OOA industrial ovens allow you to cure various materials of complex contours, shapes, and sizes all while providing fast heat-up rates and cycle times, superior temperature uniformity, and an optimal cure.

Benefits

Quicker Heating Rates and Recovery Times: Using a high pressure recirculation blower to deliver heat through a combination airflow arrangement to ensure uniform heat distribution throughout the work chamber.
Excellent Temperature Uniformity & Heating Rates: Typically guaranteed and certified for ±5° at 350° F temperature uniformity prior to shipment. Other tolerances are also available.
Lower Installation & Start-Up Costs: All units are fully factory assembled, tested, adjusted, and certified PRIOR to shipment through an extensive quality inspection.

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SMT REFLOW MACHINE

PLC controlled with touch screen operation
Profile storage for 999 PCBs in USB drive
Management data , Password protected
RS 485 Interface for Upgradation
Full Titanium Finger conveyor with adjustable width from 70 mm to 300mm
4, 5, & 6 Degrees adjustable conveyor angle
Standard- Foam fluxer
Option- Spray fluxer
2 Stage pre-heating of hot air convection pre-heater ( Three stage pre heating optional)
Specially coated solder pot suitable for Lead-free or Titanium solder- pot option
O-Wave option for SMD soldering ( Optional Dual wave )
Cooling fan at the exit
PID control for pre-heaters and solder pot
Roll out solder pot for ease of maintenance
Exchange solder pot can be provided as option
Highly reliable AC motors with in-built speed control for stable wave height, SMD O-Wave and conveyor speed
18 kW power consumption
Automatic Finger cleaning system

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Pick & place Robot

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B series placement machine main features: Small volume, easy operate, run stable and price affordable. They can mount 0402, 0603, 0805, 1206, 1210, 3528, 5050, SOP and QFN etc chips precise. These machines can help to avoid the unstable performance because of manual mounting and reduce the rent cost, improve the product capacity at the same time.

Technical Specification

Mounting numbers

4PCS

Mounting precision

0.025mm

Mounding angle

0 ~ 360°

Theoretical speed

7000pcs/h

Normal mounting

6000pcs/h

Visual mounting

5000pcs/h

Suction nozzle type

Juki series nozzle

Applicable element

RC (0402, 0603, 0805, 1206 etc)

LED Lamp beads(0603, 0805, 3014, 5050 etc)

Chip ( SOT, SOP„ QFN, BGA etc )

PCB minimal size

10x 10 mm

PCB maximum size

350x450 mm

PCB thickness

≤2mm

PCB warping allowable value

<1mm

Type

YAMAHA CL materials feeder

Feeder

8mm 12mm 16mm 24mm 32mm

Numbers

38 level

Tubular materials feeder

YAMAHA YU Feeder

IC tray

Postposition 1 pc tray

X/Y axis moving range

655 x 575 mm

Z axis rotation angle

0 ~ 360°

Visual system

Researching and development independently

A visual camera

CCD High-definition camera

numbers of visual

PCB Camerax1, Precision Identification Camerax1, high speed Identification camerax4

Recognition capability

MAX.20*20mm

Compatible file format

CSV, TXT format

Program method

Support online and offline ways

CO2 Laser Cutting Machine

Laser Power: 130W.
Cutting Area: 4×8 Feet over the non-metallic surfaces.
Power Supply-240 V,50/60 Hz
Precision Accuracy- +/- 0.05 mm
Working Speed-30 m/min
Graphics Supported Format- AL, DXF, BMP, JPG, PLT, DST etc.
Engraving Speed-0-600mm/s
Resolution ±0.05mm/1000DPI
Application: fabric, cloth, acrylic, plywood, marble, plastic, rubber.

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Tool Room Machines

Conventional grinding machine
Conventional Lethe machine
Bandsaw round and block cutting machine
M1TR type tool room milling machine
Press
Pedestal drilling machine
TIG Welding machines

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Business Inquiries : +91 9886171088

Customer Service : +919035364937