FIBER LASER (RK-153FL-PRO) - MANUAL

Preface In the manual, a large number of practical illustrations are used to annotate the texts, which are easy to understand. The manual introduces the laser cutting machine in detail, including its installation and debugging, installation, setting and operation of software, daily maintenance and safety precautions, etc. It’s believed that this user manual will help you better understand the operation and maintenance of the machine.

Errors and deficiencies in the book are inevitable. Thank you for your valuable comments and suggestions!

Contents PREFACE ..................................................................................................................2 CONTENTS ...............................................................................................................3 1 OVERVIEW ...........................................................................................................13 1.1 Introduction .............................................................................................................13

2 PRODUCT OVERVIEW ........................................................................................16 2.1 Overview...................................................................................................................16 2.2 Product Features and Appearance ......................................................................17 2.3 Main Purpose and Application ..............................................................................19 2.4 Operating Environment (Take with 3000W Laser Source as an Example) ....20 2.5 Impact on the Environment and Energy ..............................................................22 2.6 Product Structure and Working Principle ............................................................22 2.6.1 Overall Structure, Working Principle and Characteristics ..........................24 2.6.2 The Structure, Function and Working Principle of the Main Components

.....................................................................................................................................

24

2.6.3 Electromechanical Connection and Fault Alarm System of Each Unit.....32 2.6.4 Functional Structure, Working Principle and Working Characteristics of

Auxiliary Devices.......................................................................................................33 3 SAFETY INSTRUCTIONS AND PRECAUTIONS ...............................................35

3.1 Overview...................................................................................................................35 3.2 Safety Standard ......................................................................................................35 3.3 Safety Warning Signs and Instructions ...............................................................35 3.4 Safety Management Warnings..............................................................................35 3.5 Laser Safety Notice ................................................................................................36 3.5.1 Eye and Skin Protection ..................................................................................36 3.5.2 Fire Protection ..................................................................................................36 3.6 Electrical Safety ......................................................................................................36 3.7 Material Safety Notice ...........................................................................................38 3.8 Machine Protection ................................................................................................38 3.9 User Common Sense..............................................................................................38

4 INSTALLATION AND DEBUGGING ...................................................................40 4.1 Delivery Inspection .................................................................................................40 4.1.1 Precautions for Unpacking .............................................................................40 4.1.2 Check List..........................................................................................................40 4.2 Installation Method and Precautions...................................................................40 4.2.1 Lifting and Handling of Machine Tools .........................................................40 4.2.2 Installation and Debugging of Chiller ............................................................42 4.2.3 Auxiliary Gas Connection ................................................................................44 4.2.4 Installation of Dust Removal Device .............................................................45 4.2.5 Electrical Connections .....................................................................................46 4.3 Debugging Methods and Instructions .................................................................47

4.3.1 Laser Source and Optical Path Adjustment .................................................47 4.3.2 Function and Adjustment of Nozzle ..............................................................51 4.3.3 Adjustment of Beam Focus ............................................................................54 4.3.4 Set the Distance between Nozzle and Workpiece.......................................56 4.3.5 Selection of Laser Cutting Speed ..................................................................56 4.3.6 Selection of Laser Cutting Gas and Pressure ..............................................58 4.3.7 Effect of Laser Cutting Power on Cutting Quality .......................................59 4.4 Acceptance Test, Methods and Judgments after Installation and

Commissioning .............................................................................................................60 5 MAINTENANCE AND TROUBLESHOOTING ....................................................61 5.1 Maintenance ............................................................................................................61 5.2 Fault Analysis and Troubleshooting.....................................................................61 5.2.1 Fault Analysis of Follow System ....................................................................61 5.2.2 Other Faults and Troubleshooting .................................................................69

Protection, Safety Signs and Instructions before and during Use ...................70 6 TRANSPORTATION, SHIPPING AND STORAGE .............................................73 6.1 Package ....................................................................................................................73 6.2 Shipping Methods and Precautions .....................................................................73 6.3 Storage Conditions, Period and Precautions ......................................................74

7 QUICK START GUIDE FOR CYPCUT ................................................................75 7.1 Features ...................................................................................................................75 7.2 Software Acquisition and Installation ..................................................................77 5.3

7.3 Start to Use CypCut ................................................................................................78 7.3.1 Desktop Shortcut .............................................................................................78 7.3.2 User Interface ...................................................................................................79 7.3.3 Toolbar ...............................................................................................................81 7.3.4 File Menu...........................................................................................................83 7.4 Operation Process for CypCut ..............................................................................85 7.4.1 Import Graphics ................................................................................................85 7.4.2 Preprocessing ...................................................................................................86 7.4.3 Technical Design ..............................................................................................86 7.4.4 Lead Planning ...................................................................................................88 7.4.5 Inspection before Processing .........................................................................88

Actual Processing ..................................................................................................89 8 GRAPHIC OPERATION ......................................................................................92 8.1 Graphical Display ....................................................................................................92 8.2 Selection of Graphics .............................................................................................93 8.3 Geometric Transformation ....................................................................................95 8.3.1 Size Modification ..............................................................................................95 8.3.2 Interactive Geometric Transformation ..........................................................97 8.3.3 Quick Translation and Copy............................................................................98 8.4 Input of Coordinates and Parameters..................................................................99 8.5 Automatic Adsorption...........................................................................................100 8.6 Graphic Drawing ...................................................................................................101 7.4.6

8.6.1 Standard Graphics Drawing..........................................................................101 8.6.2 Text Input ........................................................................................................102 8.6.3 Draw Standard Part .......................................................................................102 8.7 Measurement ........................................................................................................103 8.8 Graphical Optimization ........................................................................................103

8.8.1 Smooth ............................................................................................................104 8.8.2 Split .................................................................................................................104 8.8.3 Remove Tiny Objects .....................................................................................105 8.8.4 Remove Duplicated Curves...........................................................................105 8.8.5 Combine Near .................................................................................................105

8.8.6 Cut Up .............................................................................................................106 8.8.7 Cutter (Split Drawings) ................................................................................106 8.9 View .......................................................................................................................107 8.9.1 Node Editing ..................................................................................................107 9 TECHNICAL DESIGN ........................................................................................108 9.1 Lead Lines .............................................................................................................108 9.1.1 Distinguish Inner and Outer Mold ................................................................108 9.1.2 Automatic Lead Lines ....................................................................................109 9.1.3 Manual Lead Lines.........................................................................................111 9.1.4 Check the Lead Lines ....................................................................................112 9.1.5 Lead Seal, Gap and Over ...............................................................................112 9.2 Cutting Compensation .........................................................................................113

9.3 Micro Joint .............................................................................................................114 9.4 Cooling Point .........................................................................................................115

9.5 Ring Cut.................................................................................................................117 9.6 Fillet and Relief ....................................................................................................117 9.7 Group .....................................................................................................................118 9.7.1 Sorting of Group .............................................................................................119 9.7.2 Processing of Group ......................................................................................120

9.8 Fly Cut ...................................................................................................................120 9.9 Coedge ..................................................................................................................122 9.9.1 Coedge Automatic Adsorption ......................................................................124 9.9.2 Compensated Coedge ...................................................................................124

9.10 Bridge ..................................................................................................................125 9.11 Array ....................................................................................................................126 9.11.1 Rectangular Array ........................................................................................126 9.11.2 Manual Array.................................................................................................127 9.11.3 Circular Array ................................................................................................128 9.11.4 Full Fill Nest ..................................................................................................128 9.12 Batch Modify .......................................................................................................129 9.13 Layer Parameters ...............................................................................................130 9.13.1 Descriptions of Parameters ........................................................................132 9.13.2 Dynamic Power and Frequency Adjustment ............................................135 9.13.3 Layer Setting.................................................................................................137

9.13.4 Lead Slowly ................................................................................................... 138

9.14 Nest .....................................................................................................................140 9.14.1 Nest Operation .............................................................................................140 9.14.2 Nesting Report Preview ..............................................................................143 9.14.3 Auto-switch to Next Sheet for Nesting .....................................................144 9.15 Sorting and Path Planning.................................................................................145 9.15.1 Order Preview ...............................................................................................146 9.15.2 Manual Sorting .............................................................................................146 9.15.3 Partition Sorting ...........................................................................................147

10 WORK CONTROL ............................................................................................149 10.1 Coordinate System .............................................................................................149 10.1.1 Mechanical Coordinate System .................................................................150 10.1.2 Program Coordinate System ......................................................................150 10.1.3 Searching Zero Point after Exception .......................................................152

10.2 Alarm ...................................................................................................................152 10.3 Manual Testing ...................................................................................................155 10.4 Soft Limit Protection ..........................................................................................156

10.5 Frame ..................................................................................................................156 10.6 Processing and Dry Cut .....................................................................................157 10.7 Stop, Pause and Resume ..................................................................................160 10.8 Breakpoint Memory ............................................................................................161 10.9 Processing from Any Location ..........................................................................162

10.10 Global Parameters............................................................................................163

11 NC AUXILIARY FUNCTION ............................................................................167 11.1 Analog Processing ..............................................................................................167 11.2 Edge Seek ............................................................................................................167 11.2.1 BCS100 Edge Seek (Enabled in Platform Configuration).......................168 11.2.2 Infrared Edge Seek (Enabled in Platform Configuration) .......................171 11.2.3 One-click Cut (Enabled in Platform Configuration) ................................174 11.3 PLC Process ........................................................................................................175 11.4 Go Origin ..............................................................................................................175 11.4.1 Return to Origin ............................................................................................175 11.4.2 Gantry Synchronism.....................................................................................176 11.5 Optical Adjustment .............................................................................................177 11.6 Diagnosis .............................................................................................................177

11.7 BCS100................................................................................................................178 11.8 QCW.....................................................................................................................178 11.9 Deviation Measurement ....................................................................................179 11.10 Clean Nozzle (Enabled in Platform Configuration) ......................................179

12 APPENDIX .......................................................................................................181 12.1 Co-Edge Case .....................................................................................................181 12.2 Operation Instructions for Gantry Synchronization .......................................187 12.2.1 Platform Configuration ................................................................................187 12.2.2 Gantry Initialization and Synchronization .................................................189

12.2.3 Precautions ...................................................................................................191

12.3 BCS100 Edge Seek ............................................................................................191 12.3.1 Platform Configuration ................................................................................192 12.3.2 Single-point Edge Finding...........................................................................192 12.3.3 Three-point Edge Finding ...........................................................................193 12.3.4 Edge Seeking Precautions ..........................................................................194 12.4 Operating Instructions for Photoelectric Edge Seeking ................................195 12.4.1 Brief Introduction .........................................................................................195 12.4.2 Wiring and Configuration ............................................................................196 12.4.3 Three Point Edge Seeking Process ...........................................................197 12.4.4 Precautions for Photoelectric Edge Seeking............................................199 12.5 Area Output .........................................................................................................200 12.6 Motion Parameter Adjustment .........................................................................201 12.6.1 Introduction to Motion Control Parameters .............................................201 12.6.2 Adjust Processing Acceleration .................................................................202 12.6.3 Adjust Move Acceleration ...........................................................................202 12.6.4 Adjust Low-pass Filter Frequency ............................................................203 12.6.5 Set Arc Accuracy and Corner Accuracy ....................................................204

13 SHORTCUT KEY .............................................................................................205 14 BURN-IN ..........................................................................................................207 APPENDIX 1 DETAILS OF CONSUMABLE PARTS...........................................209

1 Overview 1.1 Introduction Thanks for purchasing the fiber laser cutting machine from RADEK. Please read this instruction manual carefully before installation and use if you use it for the first time. Please read the contents marked "DANGER", "WARNING" and "CAUTION" in it carefully to ensure the safety of you and the people around, and the correct use of the equipment.

DANGE It may immediately lead to serious personal injury or even life-threatening if the correct operation is not followed.

WARNING It may lead to serious personal injury or even life-threatening if the correct operation is not followed.

CAUTION It may lead to personal injury or damage to equipment if proper operation is not followed.

2 Product Overview 2.1 Overview Laser cutting is most commonly used in the laser processing industry. The laser cutting machine produced by RADEK is equipped with medium-power, high-performance laser source with international advanced technology, CypCut high-end CNC system, original AC servo motor, German original gear rack, high-precision linear guide and other high-efficiency transmission mechanisms.

Integrating laser cutting, precision machinery, numerical control technology, the machine is stable and reliable, with good dynamic performance and strong load capacity. It also features high speed, high precision, high efficiency, excellent cost performance and so on.

Users must read this manual in detail before using the laser cutting machine. Please contact us in time if you have any difficulties.

When unpacking, please check the user manual in the accessory box. Please contact us in time if the documents are incomplete.

2.2 Product Features and Appearance

Figure 2.2-1. Machine appearance Note: Unless otherwise specified, all pictures in this manual are for reference only, and the actual product shall prevail.

A.

It is equipped with gantry, integrally welded machine bed and aluminum beam, featuring high rigidity, stability and shock resistance.

B.

It features high precision and fast speed equipped with precision linear guide rail and imported rack and pinion as transmission components. The maximum running speed (without load) is 100m/min, positioning accuracy ±0.05mm/m, and repeated positioning accuracy ±0.02mm.

C.

CypCut CNC system is powerful to meet the processing of various sheets. Its AC servo motor

has small inertia and good dynamic performance.

D.

The servo motor is transmitted to the transmission shaft through the reducer (the backlash is less than 3arcmin), effectively ensuring the transmission accuracy.

E.

The laser source is separated from the host, thus ensuring the stability of the optical path.

F.

The industrial computer can be installed with CAD/CAM, convenient for drawing and programming, thus saving raw materials to the greatest extent.

G.

Cutting waste falls into the cart from the funnel, convenient for the operator to clean up regularly.

H.

X-axis, Y-axis racks and guide rails are protected by side plates and protective bellows to prevent dust pollution, thus prolonging the service life of the machine. X-axis and Y-axis racks and pinions are equipped with centralized lubrication device, in addition, there are oil nipples on the X-axis and Y-axis linear guide seats.

I.

The Z-axis controls its motor to drive the cutting head to move up and down through a capacitive sensor, so that the distance between the laser focal length (nozzle) and the cutting sheet remains unchanged during cutting, ensuring the cutting quality. The cutting head is equipped with a drawer-type focusing lens holder, which is very convenient to clean the lens.

The position of the focus can be adjusted up and down to ensure the cutting quality according to the material and thickness of the cutting sheet.

J.

X-axis, Y-axis and Z-axis movements are all controlled by limit switches, and the limit positions of each axis are protected by elastic cushions, which effectively guarantees safety.

K.

The closed optical path ensures the service life of the lens.

L.

It is equipped with an automatic focusing system, resulting in sensitive and accurate response.

M.

The gas circuit components are all imported abroad. Three different cutting gases can be installed at the same time. The entire gas circuit system adopts a high-pressure design since the nitrogen pressure can reach 2.5Mpa when cutting stainless steel sheet. This design ensures the stability of the system and the quality of the cutting surface.

N.

The console is comfortable to operate, elegant in appearance. Operating the machine tool is as fun as withdrawing money from an ATM.

2.3 Main Purpose and Application Laser cutting is most commonly used in the laser processing industry. The laser cutting machine produced by RADEK is equipped with medium-power laser source, CypCut CNC system, high-precision gear rack, linear guide and other transmission mechanisms. The equipment integrates laser cutting, precision machinery and CNC technology, featuring high precision, high efficiency and excellent cost performance. It is mainly used for cutting and forming ordinary carbon steel plates, stainless steel plates, galvanized plates, aluminum alloy plates, copper plates and other materials.

Note: the cutting range varies depending on the power of the selected laser source.

2.4 Operating Environment (Take 3000W Laser Source as an Example) A.

Power supply: three-phase five-wire system, 380V 50Hz

B.

The total load of the host power: ≤13KVA (this parameter varies according to laser source power)

C.

Laser source and water chiller: ≤19KVA (this parameter varies according to laser source power)

D.

Power quality: three-phase unbalance <2.5%, line voltage fluctuation <5%.

E.

Ground protection: There are two methods: 1. Drive ground stakes on the side of the machine tool and connect ground wires; 2. Connect the machine tool to the ground wire of the power supply. Ground resistance <4Ω.

F.

The site environment should be well ventilated, dust-free, corrosion-free and pollution-free.

G.

There should be no large vibrations around the foundation, and an anti-vibration ditch must be excavated.

H.

The laser source should be installed at an ambient temperature of 20℃.

I.

Chiller is used to provide cooling circulating water to laser source and cutting head lens. The flow rate of cooling water should be kept above 12L/min and it requires high quality pure water or distilled water.

J.

To prevent the fire, the processing site should be equipped with appropriate fire extinguishers and reserve certain fire extinguishing channels.

K.

The left side and rear side of the machine tool should be more than 1.2M from the workshop wall; the distance between the rear side of the laser source and the workshop wall should be more than 1.5M; the chiller and air compressor should be within 3M from the laser source.

L.

The control unit, servo unit, display and control panel are the core components of the machine tool, which have certain requirements on the environment, and the machine tool should be prevented from being interfered by electromagnetic waves, such as arc welding and electric spark machine tool.

2.5 Impact on the Environment and Energy Please turn on the smoke removal device before cutting, since the laser cutting machine will generate exhaust gas.

The laser source is a Class 4 laser product. Its emitted beam, or reflected or diffused light from the lens may cause damage to the human body (especially the eyes). Personnel present should pay attention to protection and prevent fires.

The laser cutting machine is a high-energy-consuming device, and its total power demand is about: three-phase 380V 50Hz, 32KVA (Suitable for 3000W continuous laser source and water chiller. The power will not be the same if users choose different laser source).

2.6 Product Structure and Working Principle The CNC laser cutting machine has main components including machine tool host, control system, laser source, water chiller, exhaust fan, etc. The above parts have separated user manuals or operating instructions except the exhaust fan and the cold dryer. Here, the main structure and composition of host unit and electrical control system will be explained in detail. For the rest, please refer to their instruction manuals.

The laser cutting machine is mainly composed of four parts: host unit, electrical control system, chiller, and exhaust system.

Host unit: It is the most important part of the laser cutting machine, which decides the cutting function and cutting accuracy. It consists of machine bed, laser source, beam, Z-axis, platform,

auxiliary parts (protective cover, pneumatic system and water chiller, lubrication system), operation table and other parts. See Section 2.6.2 for more details.

Electrical control system: It is an important part to ensure the running track of various graphics. Generally, the electrical control system is composed of the numerical control system and a low-voltage electrical system.

This machine tool is equipped with CypCut high-end CNC system. The system is based on the WINDOWS operating platform, which is stable and reliable. CypCut has 32-bit microprocessor and Ethernet communication interface, featuring fast interpolation calculation speed and easy operation, good dynamic performance, strong load capacity and so on.

The control part of the low-voltage electrical system is located in the electric control cabinet.

It is the interface part of the electrical control of the whole machine. Components of the electrical system are all produced by well-known manufacturers at home and abroad to ensure that the whole machine is stable, reliable and responsive during operation. The AC servo motor is used to drive the X-axis gantry and Y-axis slide plate, with good acceleration performance, fast response speed, and the maximum positioning speed of 120m/min; the Z-axis of the machine tool is the feed axis, which is driven by AC servo motor; the cutting head on the Z-axis has good dynamic response, which can be controlled by both servo and NC. See section 2.6.2 for more details about other auxiliary peripheral equipment including large and small chillers and exhaust system.

2.6.1 Overall Structure, Working Principle and Characteristics

The host is the most important part of the entire laser cutting machine, which depends the cutting function and cutting accuracy. The host part consists of the bed (Y axis), beam (X axis) , Zaxis, gas circuit and water circuit etc.

2.6.2 The Structure, Function and Working Principle of the Main Components

2.6.2.1 Machine Bed The bed is welded with high-strength steel. The main production process is as follows: Annealing to eliminate internal stress→rough machining→vibration aging→semi-finishing→ vibration aging→finishing. Through this process, the stress will be eliminated more thoroughly, which reduces the deformation of the machine tool and ensures its long-term accuracy.

The AC servo motor drive is controlled by the CNC system, coaxially driving the beam to reciprocate along the Y direction, realizing fast movement and feeding motion; the rack, pinion and the linear guide rail are equipped with the closed dust-proof device, which is light in weight and reliable in operation; the rack and pinion and the linear guide rail are all imported precision products, which effectively guarantee the accuracy of the transmission; both ends of the stroke are controlled by soft limit switches, together with elastic cushion on each side to effectively ensure the safety of machine tool movement.

2.6.2.2 Beam

The beam is cast with high-strength aluminum alloy as a whole. After solution treatment and artificial aging, it is machined to ensure the overall rigidity and strength. The main production process is as follows: Rough machining→vibration aging→semi-finishing→vibration aging→finishing. The beam is installed on the supporting guide rail of the bed and high-quality linear guide rails are installed on the beam (There are linear guide rails and flat guide rails). The servo motor drives the gear to rotate through the reducer, so that the Z-axis slide plate can reciprocate in the X direction. During the movement, there is a soft limit switch to control the stroke, at the same time, there are limit switch and elastic buffers at both ends to ensure the safety of the system operation; The top and both sides of the beam are closed by the outer cover, and a retractable organ-type protective cover is installed between the beam and the horizontal slide plate to ensure that the rack and linear guide rail run in a fully enclosed environment without being affected by the external environment.

2.6.2.3 Z-axis Device

The Z-axis device realizes the lifting movement of the cutting head: the CNC system controls the servo motor and the motor drives the module, thereby driving the Z-axis slide plate to reciprocate up and down. The Z-axis travel is 220mm. The module controls the stroke through proximity switches, in addition, there are elastic buffer pads at both ends of the ball screw, thereby ensuring the safety of movement. The ball screw and linear guide are of good quality, thus

ensuring the transmission accuracy.

The Z axis can be used as a CNC axis for its independent interpolation movement, and it can also be linked with the X and Y axis, and can be switched to Follow control through the electronic control part of the cutting head to meet the needs of different situations. Since the Z-axis following is controlled by the numerical control system, its precision is high and the stability is good, thus ensuring the quality of cutting. The cutting head is sealed and has elastic cushion to ensure its service life.

After the capacitive sensor (installed on the cutting head) in the Z-axis device detects the distance from the nozzle to the surface of the sheet, the signal is fed back to the control system, and then the system controls the Z-axis motor to drive the cutting head to move up and down, thereby controlling the unchanged distance between the nozzle and the sheet surface to effectively guarantee the cutting quality. The cutting head is equipped with a device which adjusts the position of the focus according to the material and thickness of the plate, thus obtaining a good cutting section.

The nozzle is one of the consumables, and the user can reserve nozzles with different apertures for replacement.

2.6.2.4 Electrical Control

The electrical control system of laser cutting machine is mainly composed of CNC system, servo system and low-voltage electrical system. This machine is equipped with CypCut high-grade numerical control system. CypCut is a PC numerical control system based on WINDOWS, which has fast interpolation calculation speed and is convenient for operation. The servo system includes AC servo motor and driver, which is stable and reliable, with good dynamic performance and strong load capacity.

Figure 2.6.2.4-1 CNC operation interface 1.

Easy to operate It has six function soft keys and eight operation soft keys. The system also contains

operation keys with different functions in different operation modes, thus reducing the number of buttons.

In each mode, the operating functions are displayed through the menu, making it intuitive.

The machine has a HELP system, so that the user can operate under the prompt if he/she is not familiar with the manual.

2.

With dedicated laser power control function According to the speed/power function relationship curve set by the operator, the laser

power can be precisely adjusted to ensure that the machine tool can still obtain the optimal power under different speeds during acceleration and deceleration.

3.

Strong processing function The machine has a variety of processing and auxiliary function instructions which can be

used to edit various complex graphics.

4.

High machining accuracy The machine features good following ability and high precision for its good

electromechanical driving dynamic performance.

5.

Graphic display For the edited part program, the machine has the functions of analog graphic display and

dynamic graphic tracking display, which makes the processing intuitive and easy to monitor

and control.

Figure 2.6.2.4-2 Graphic display 6.

Multiple alarm functions The numerical control system has self-inspection alarm and automatic protection

functions, and also has alarm display and automatic protection for external conditions.

Figure 2.6.2.4-3 Graphic display 7.

According to the installation location, the electrical control part can be divided into:

CNC system, machine tool operation panel, low-voltage electrical system, motor and machine tool electrical appliances.

8.

CypCut CNC system CypCut CNC system is a high-end system, which is professional for CNC laser processing.

The system adopts an integrated structure with compact central control and display operation unit installed on the console.

It is a PC numerical control system based on WINDOWS, featuring hard disk 500G, part

program memory 400KB, Ethernet communication interface, which can control three feed axis and one spindle. The display operation unit provides a good human-machine interface, 17-inch TFT LCD color liquid crystal display, displaying various operating information, with a keyboard and function keys for information input and machine operation.

9.

Operation panel of the height adjustment system The operation panel of the height adjustment system is installed behind the electric control

cabinet.

10.

Low voltage electrical system The low-voltage electrical system is located in the electrical control cabinet and is the interface

part of the electrical control of the whole machine. The power supplies, relays, circuit breakers, contactors, servo drive systems, etc. required for the electrical control system are all installed in the electrical control cabinet.

The main power switch is located in the upper left corner of the electrical control cabinet.

11.

Motors and machine tool electrical appliances AC servo motors are used to drive the machine tool axes, which are installed on the

corresponding motion axes, namely the X-axis beam, Y-axis slide plate, and Z-axis cutting head.

The electrical appliances include: stroke origin switches of each motion axis, pneumatic solenoid valves, pressure switches, etc.

2.6.3 Electromechanical Connection and Fault Alarm System of Each Unit

Figure 2.6.3-1 Contacts between units As shown in the figure above, each part of the machine tool is closely connected and complements each other: the regulated power supply provides high-quality power for the chiller, laser source and host; the chiller provides cooling for the laser source and the host, and other parts serve the host (the air compressor and cold dryer are not standard, which should be provided by the customer).

The electrical circuit is provided with over-current protection by the miniature circuit breaker.

There are mechanical limits, electrical software limits and hard limits in each axis direction.

Electrical hardware limit can cut off the axis and stop the operation and alarm. Mechanical limit ensures the equipment safety and the personal safety. The system itself also has motor overload and over-temperature protection. Please refer to Section 5, 6, and CypCut user manual for the list of alarm prompts.

2.6.4 Functional Structure, Working Principle and Working Characteristics of Auxiliary

Devices 2.6.4.1 Gas System

The gas path of the laser cutting machine has two parts, one part is supplied to the cutting head, including clean and dry compressed air, high-purity oxygen and high-purity nitrogen. The other part is auxiliary gas, and all of them are clean and dry compressed air, which is used to fix and clamp plates and used for support cylinders at smoke outlet after work platform exchange.

For compressed air, the gas from the compressor enters the air control cabinet through the gas storage tank and the cold dryer, and then passes through a set of precision air treatment to become clean and dry, which is divided into two paths, one as cutting gas, another used in the cylinder. Its pressure is adjusted by the corresponding pressure regulating valve.

Compressed air, oxygen and nitrogen are all cutting gases, please choose as needed. Please choose the corresponding gas when cutting different materials. Oxygen is mainly used to cut ordinary carbon steel; nitrogen is mainly used to cut stainless steel and alloy steel. Compressed air can be selected when the requirements for the cutting surface of thin plates are not very high. In addition, it is recommended to install a pressure sensor in the cutting gas system to ensure that

the machine tool can stop working in time when the gas pressure is insufficient, avoiding the scrapping of cut parts. The air pressure threshold can be adjusted by the upper screw of the pressure sensor, and the compressed air and oxygen used for cutting can also be adjusted by proportional valve.

2.6.4.2 Water System

The water system of the laser cutting machine also includes two parts: one part comes out of the chiller, enters the laser source, cools it through the radiator, and returns to the chiller; the other part cools the cutting head.

2.6.4.3 Oil Lubrication System

The oil lubrication system of the laser cutting machine consists of an automatic oil pump and a pipeline. The oil pump interval is 4 hours, 10 seconds each time (adjustable). The pump will alarm when the oil level is too low, at this time, add standard lubricating oil to it.

3 Safety Instructions and Precautions 3.1 Overview The operator must read this chapter carefully to understand and abide by the safety measures and requirements before operating the machine and performing routine maintenance.

3.2 Safety Standard Laser processing equipment and operations shall comply with the two national standards

GB7247-2012 Laser Product Radiation Safety, Equipment Classification, Requirements and User Guide and GB10320-2011 Electrical Safety of Laser Equipment and Facilities.

3.3 Safety Warning Signs and Instructions See Maintenance Manual for details.

3.4 Safety Management Warnings Appoint safety administrators and determine their scope of duties. Conduct safety operations and safety protection education for laser processing operators.

Designate the laser safety management area, and set up warning signs at the entrances and exits, including: the power of the laser cutting machine, the type of laser, the prohibition of outsiders from entering, attention to eye protection, and the name of the safety manager.

Operators must undergo special training, and can only work with the consent of the safety administrator.

3.5 Laser Safety Notice The main hazards of laser are to the eyes and skin, and any part of the human body that is irradiated by the laser will cause burns. Therefore, please avoid placing any part of the body in the optical path of the laser equipment to avoid injury caused by misuse.

3.5.1 Eye and Skin Protection

In laser processing, CO2, YAG laser source, and fiber laser source are usually used. Different types of lasers cause different damage to the human body. Fiber laser may damage the retina of the eye; it is more harmful because the wavelength of fiber laser has a high transmittance to the eye. Laser exposures have the potential to cause cataracts in the eyes and skin burns. Therefore, corresponding protective measures should be taken when adjusting the laser.

3.5.2 Fire Protection

Oxygen is often used during laser cutting, coupled with the splashing of sparks, it is likely to cause fire. So, there should be no flammable and explosive materials in the work area, and corresponding preventive facilities should be provided.

3.6 Electrical Safety Do not touch any switches with wet hands to avoid electric shock. Lightning signs on the machine body indicate that there are high-voltage electrical appliances or electrical components.

The operator should be extra careful when approaching these parts or opening and maintaining them to avoid electric shock. Such as: the protective cover of the servo motor, the junction box

behind the column, the transformer cabinet of the machine tool, the door of the electrical cabinet, etc.

Read the machine manual carefully and be familiar with the operation methods of various functions and corresponding keys.

Do not open the door of the electrical cabinet if not necessary. And it is forbidden to change the set machine parameters, potentiometers and timers without authorization. If it needs to be changed, it must be operated by professionals trained and approved by the equipment manufacturer, and the parameter values before the change should be recorded, so that the original state can be restored when necessary.

Do not touch live components in the electrical cabinet when the power is on, such as: numerical control devices, servo devices, transformers, fans, etc.

Warning

After power off, you must wait for more than 5 minutes before touching the terminals.

Because there is high voltage between the power line terminals for a period of time after the power is cut off. To avoid electric shock, please do not touch them immediately.

3.7 Material Safety Notice Optical instruments such as focusing lenses are all manufactured by chemical vapor deposition.

When the temperature is above the burning point, highly toxic Se vapor will be generated. In addition, the compound film with radioactive substance thorium is coated on the lens in order to improve the transmittance. Therefore, the lens should be sent to a professional manufacturer (or original manufacturer) for treatment when it is damaged, so as not to cause harm to the environment.

3.8 Machine Protection Appoint safety administrators and determine their scope of duties. Conduct safety operations and safety protection education for laser processing operators.

Designate the laser safety management area, and set up warning signs at the entrances and exits, including: the power of the laser cutting machine, the type of laser, the prohibition of outsiders from entering, attention to eye protection, and the name of the safety manager.

The switch key should be pulled out and kept by the person in charge to avoid mis-operation when the machine is not in use.

The smoke gas and laser working gas generated during the processing should be discharged to the outside through the waste gas pipe, and all gas cylinders should be placed neatly and firmly.

3.9 User Common Sense Operators of the laser cutting machine must undergo special training to reach a certain level,

and can only work with the consent of the safety administrator.

The operator or the person who is close to the laser during running should wear appropriate laser protective glasses. In the area where the protective glasses are worn, there must be good indoor lighting to ensure the smooth operation.

To protect the operator, it is necessary to have a processing room or a protective enclosure.

The room should have a device to protect the laser from spreading and protect the safety of the operator. In addition, the laser shutter should be closed when the room is opened.

The intake pressure of the auxiliary cutting gas should not exceed 2.5MP, and the pressure of the normal gas cylinder should be above 10MP. The operator should pay attention to the pressure indication of the intake air pressure gauge when turning on the auxiliary switch, and reduce the pressure to below 3MP. The company has the right to refuse free warranty service if the pipeline is ruptured or the machine tool parts are damaged due to improper operation or excessively high air pressure. In this case, our company does not assume any responsibility for personal injury or death.

4 Installation and Debugging 4.1 Delivery Inspection 4.1.1 Precautions for Unpacking

If it is packed in a wooden box, please open it according to the instructions outside, so as not to cause damage to the equipment inside. Machine tools and other equipment packaged with protective film should not be scratched with sharp objects, so as not to cause scratches on the surface of the equipment and damage to the electrical pipeline. Damage caused by the customer is not covered by the warranty.

4.1.2 Check List

After opening the package, please confirm whether it is the product you purchased.

Check the product for damage in transportation.

Check the list to confirm whether all parts are complete and free from damage.

Please contact our company in time if there is inconsistent product model, lack of accessories or damage during transportation.

4.2 Installation Method and Precautions 4.2.1 Lifting and Handling of Machine Tools

A.

The machine tool is equipped with holes for lifting whose positions are as shown in the figure below:

Figure 4.2.1-1 Location of lifting holes B.

The machine tool can be directly moved by a forklift whose position is as shown in the figure below:

Figure 4.2.1-2 Forklift position

Note： When using a forklift, the fork-in side is located on the machine side without the tank chain, and the side with the tank chain is not allowed to fork in, so as not to damage the chain, internal

cables and optical fibers.

4.2.2 Installation and Debugging of Chiller

---Flow: minimum 3.5L/min, maximum 13L/min.

---Cooling capacity: 8.4kW ---Inlet and outlet water pressure difference: at least 3kgf/cm2 or more.

---Temperature control accuracy: within ±1 ℃ ---Cooling water: high-quality pure water, distilled water or deionized water.

---Valves and pipes: all are stainless steel or high-pressure hoses. Galvanized materials cannot be used. And stainless-steel clamps are used for pipe joints.

---External water pipe of laser source: pressure-resistant rubber pipe with an inner diameter of 6mm and an outer diameter of more than 8mm, plastic (PVC) pipe, stainless steel pipe, and copper pipe are also available. If the pipe length of the chiller exceeds 10 meters, the diameter of the pipe must be increased to ensure the pressure difference required by the laser source. For different laser source, the connection specifications and sizes of the tubes are also different.

--- Cooling water pipe in outer optical path: PU pipe pressure resistance is not less than 6kgf/cm2. Pay attention to the sealing of pipe joints.

---Filter: The diameter of the filter hole is 100um and it is better to use transparent plastic. The filter element added between the chiller and the laser source must be the standard one required

by the manufacturer.

A.

Installation conditions The chiller should be placed stably and at a certain distance from the wall. During installation, leave sufficient space for air in and out to prevent poor heat dissipation.

B.

Machine inspection Check whether the joints of the water pipe system are loose, and check whether the filter element in the filter device of the chiller is tightened.

C.

Installation method Install the water pipe to the corresponding connection port of the unit, and pay attention to the direction of the water inlet and outlet; connect the inlet and outlet water pipes according to the marks on the chiller shell, and connect them with the laser source. Do not misplace the directions of the water pipe. Before installing, make sure that there is no garbage and foreign matter in the external pipe of the chiller.

D.

Water quality standard Open the water inlet valve and add water to the water tank. The water level should be at the appropriate height marked on the chiller to prevent overflowing. The chiller is not allowed to use general tap water, but high-quality pure water, distilled water or deionized water.

Otherwise, it will cause fouling on the refrigerator of the chiller and the radiator of the laser source, resulting in damage of the components. And do not add any corrosive liquids.

E.

Machine debugging Check whether the wiring is correct (different models have different wiring methods). Check that the water pipes are properly connected. Turn on the machine to check whether there is any water leakage, and wait for the water to rise to a suitable temperature.

F.

Precautions: 1)

When the water temperature reaches the controlled value, the chiller will automatically

perform constant water temperature control, and the water pump in the unit will continue to operate.

2)

The laser source can only be turned on after the water temperature and the pressure

difference between the inlet and outlet water reach the values required.

3)

When the operating environment is lower than 0°C, the cooling water may freeze and

damage the laser source. Customers can add 30% absolute alcohol to the water, and its freezing point will be within -10°C.

4.2.3 Auxiliary Gas Connection

Prepare cutting gas N2, O2 and compressed air. First check the nameplate on the gas cylinder for cutting: whether it meets the requirements of the machine tool, such as N2 or O2 purity and pressure. Secondly, correctly connect the gas in the cylinder with the machine tool, and gradually unscrew the connection valve of the gas cylinder. An oil-water separator should be added between the oil-free air compressor and the cold dryer. The standard accessories include a nitrogen

pressure reducing valve and an oxygen pressure reducing valve, which can be connected to the gas source respectively and then connected to the machine.

4.2.4 Installation of Dust Removal Device

The connection port of the dust removal fan is as shown in the figure below:

4.2.5 Electrical Connections

A.

Check whether circuit breakers in the main power, each branch power supply and emergency stop are sensitive.

B.

Check whether the power wiring of the laser source is correct. The 380VAC power supply in the workshop should be connected to the port (inlet) of the main power circuit breaker QF0 respectively.

C.

Make sure that the main power circuit breakers and sub-power circuit breakers (such as the host, laser source, air compressor, etc.) meet the marked capacity.

D.

The wire diameter of power wire, ground wire and neutral wire shall not be smaller than that required by the machine.

E.

Check whether the ground wire of the power cord is connected properly.

F.

Check whether all strong electric wire terminals (especially the input and output points of the power transformer) are reliable and firm, and whether all plugs and plugboards are connected firmly.

Warning

The ground wire of the power cord must be reliably grounded.

Otherwise, the signal in the electrical cabinet will be interfered or even causes leakage.

4.3 Debugging Methods and Instructions The commissioning of the machine tool needs to be carried out by professionals, and must be strictly implemented in accordance with the relevant regulations. Before commissioning, please understand the performance of the machine tool and read the relevant random technical information. Correct debugging is the basis to ensure its normal operation. Please contact us in time if you have any questions.

Note: This chapter introduces the debugging method after the machine tool is powered on normally. Please refer to section 4.2.5 for the power-on adjustment of the machine tool.

4.3.1 Laser Source and Optical Path Adjustment

A.

Installation precautions:

1)

Please read the manual carefully before using the product.

2)

Use the original power cord, and ensure that the laser shell is connected to the ground.

Before powering on, use the multimeter to check whether the laser shell is effectively connected to the earth (PE yellow-green line);

3)

Each control line and voltage of the laser source must meet the technical requirements of the product, otherwise it will cause irreversible damage. Before the laser source is powered on, please check whether the voltage signals meet the product requirements;

4)

Please pay attention to the protection of the optical fiber and its output head during the installation of the optical fiber in the laser source, and do not bend or apply force. This part is

vulnerable, please pay attention to protection; 5)

During the disassembly of the laser source, please pay attention to the dustproof protection of the lens in its fiber output head. If there is dust, please clean it according to the lens cleaning operation specification. (a. Anhydrous ethanol, with a purity of 99.9% or more; b.

Dust-free cotton swabs. Do not use ordinary cotton swabs, as they are easy to drop cotton wool and cause secondary pollution to the lens);

6)

Start-up sequence: water cooler (Ensure it works normally and the water temperature is suitable, about 25 ℃) - power on the laser source - start the control software - the gas circuit works normally - the control system works normally - the laser source is ready to emit light safety protection - the cutting system works normally.

7)

Shutdown sequence: turn off the control system - turn off the laser control signal - cut off the power supply of the laser source - the water cooler stops working.

8)

Other precautions a)

During the working of the laser source, please pay attention to the normal operation of the water circuit, gas circuit and electric circuit. Otherwise, please turn off the power to detect and check the cause;

b)

If there is any failure during the operation, please record the time, failure phenomenon, and system working status, and then check the cause of the failure. If you have any questions, please contact us.

B.

Adjustment of the co-axiality between the nozzle hole and the laser beam

The steps are as follows: 1)

Apply ink paste (usually red is better) on the outlet end of the nozzle, and stick the self-adhesive tape there, as the picture shows.

Figure 4.3.1-1. Step 1 2)

Use 10~20 watts of power to punch holes manually.

3)

Remove the self-adhesive paper. Pay attention to maintaining its orientation, so that it can be compared with the nozzle.

4)

Under normal circumstances, there will be a black spot on the self-adhesive paper, which is burned by the laser. But the black spot will not be visible (the laser beam hit the wall of the nozzle) if the center of the nozzle deviates too much from the center of the laser beam.

Figure 4.3.1-2. Nozzle deviation is too much Please pay attention to whether the conditions are consistent and whether the focusing lens is loose if the sizes of the center points are inconsistent.

Figure 4.3.1-3. Focusing lens is loose Pay attention to the direction where the black dot deviates from the center of the nozzle, and adjust the position of the nozzle.

Figure 4.3.1-4 Adjust the nozzle to be coaxial with laser beam 5)

Nozzle aperture Aperture size has a critical impact on cutting quality and piercing quality.

If the nozzle hole diameter is too large, the melt splashed around during cutting may pass

through the nozzle hole, thereby splashing the lens. The larger the aperture, the higher the probability, the worse the protection of the focusing lens, and the shorter the lens life.

4.3.2 Function and Adjustment of Nozzle

4.3.2.1 Nozzle The nozzle is a consumable product: the design, the flow of the jet air and the manufacturing accuracy directly affect the cutting quality. Its main functions are: Prevent debris such as cutting melt from bouncing up into the cutting head and damaging the focusing lens.

The nozzle can change the state of the cutting gas ejection, and can control the area and size of the gas diffusion, thus affecting the cutting quality. The picture below shows the gas ejection situation when the nozzle is installed and not installed.

Figure 4.3.2.1-1. The cutting gas situation with or without nozzle

4.3.2.2 Influence of Nozzle on Cutting Quality and Selection of Nozzle Aperture The relationship between nozzle and cutting quality: When the center of the nozzle and the laser are not coaxial, the impact on the cutting quality: It affects the cutting section. When the cutting gas is ejected, the gas volume is uneven, so that the cutting section is more likely to have melted stains on one side and not on the other side. It has little influence on cutting thin sheet below 3mm. But its impact will be serious when cutting sheet above 3mm, and sometimes the sheet cannot be cut.

It affects the cutting quality of sharp corners. When cutting workpieces with sharp corners or small angles, local over-melting is prone to occur. In this case, it may not be able to cut thick sheet.

It affects the perforation. It is unstable during the perforation and the time is not easy to control. The penetration of the thick plate will cause over-melting and the penetration condition is

not easy to grasp. But it has little effect on the perforation of thin sheet.

To sum up, the concentricity between the center of the nozzle and the laser is one of the most important factors that affect cutting quality. Especially when the workpiece to be cut is thicker, its influence will be greater. Therefore, the concentricity between them must be adjusted to obtain a better cutting section.

Note: When the nozzle is deformed or there are melted stains on it, its impact on the cutting quality is the same as that described above. Therefore, the nozzle should be placed carefully, and it should not be damaged to avoid deformation. The melted stains on the nozzle should be cleaned up in time. It has high precision requirements during manufacture and correct installation. If the cutting conditions are changed due to the poor quality of the nozzle, it should be replaced in time.

Choice of nozzle aperture The cutting conditions of nozzles with different apertures are shown in the table below.

Nozzle aperture

Gas flow rate

Melt removal capacity

Small

Fast

Strong

Big

Slow

Weak

Table 4.3.2.2-1. Relationship between aperture and auxiliary gas flow rate The larger the nozzle hole diameter, the worse the lens protection. Melt may splash upward during cutting, shortening the life of the lens.

4.3.3 Adjustment of Beam Focus

4.3.3.1 Introduction It is very important to adjust the focus position correctly. During cutting, the relative position of the beam focus and the surface of the cutting sheet has a great influence on the cutting quality.

Generally, the best focus cutting position can be directly obtained by changing the focus and performing the trial cutting, and it can be adjusted by rotating the nut on the laser head.

4.3.3.2 Relationship between Focus Position and Cutting Section The table below lists the positions of the laser cutting focus, its impact on the piercing and cutting section, and the selection of the focus position when cutting different sheets.

Name and location of focus

Cutting materials and section characteristics

SPC, SPH, SS41 and other workpieces.

Zero focal length: The laser focus is on the surface of the cutting workpiece.

The focus is on the surface of the workpiece. The upper surface is smooth and the lower surface is not smooth.

Carbon steel, aluminum and other workpieces.

The focal point is in the center, so the range of the smooth

Positive focal length: The laser focus is on

surface is larger, the cutting width is wider than that of zero

the upper surface of the cutting workpiece.

focal length, the gas flow rate is larger during cutting, and the piercing time is longer than that of zero focal length.

Stainless steel sheet.

Negative focal length: The laser focus is on the lower surface of the cutting workpiece.

When cutting stainless steel, high-pressure nitrogen is used to blow off the slag and protect the section, and the cutting width increases as the thickness of the workpiece increases.

Table 4.3.3.2-1. Relationship between focal point and cutting materials

4.3.4 Set the Distance between Nozzle and Workpiece

Figure 4.3.4-1. Distance between nozzle and workpiece After adjusting the sensor adjustment box, the Follow distance between the nozzle and the workpiece is mainly determined by the technic parameters. Please refer to the technic parameter table for details.

4.3.5 Selection of Laser Cutting Speed

Cutting speed is determined according to the material and thickness of the cutting sheet. It has a great impact on the cutting quality. With an appropriate cutting speed, you can not only improve the cutting efficiency, but also get good cutting quality. The influence of different cutting speeds on cutting quality is discussed below: Its impact on the cutting quality if the speed is too fast: It may cause the cutting to fail and sparks to fly.

Some areas can be cut off, but some cannot.

The entire cutting section is rough, but there is no melting stain.

As shown in the figure, the cutting speed is too fast, so that the sheet cannot be cut in time.

The cut section shows oblique stripes, and the lower half of the sheet is melted.

Figure 4.3.5-1. Cutting effect Influence of too slow speed on cutting quality: It may cause the cutting sheet to be over-melted with rough cutting section.

The cutting gap will widen accordingly, causing the melt at smaller rounded corners or sharp corners, and the ideal cutting effect cannot be obtained.

The cutting efficiency is low.

Speed selection: The speed can be judged from the cutting sparks: Generally, the cutting sparks diffuse from top to bottom. The speed is too fast if the sparks are inclined; the speed is too slow if the sparks do not spread and the number is small. Appropriate cutting speed is as shown in the figure below: the cutting surface has smooth lines, and there is no melting stain on the lower half.

Figure 4.3.5-2. Relationship between cutting speed and sparks 4.3.6 Selection of Laser Cutting Gas and Pressure

During laser cutting, different cutting gases should be selected according to the material of the cutting sheet. Cutting gas and its pressure has a great influence on the quality of laser cutting. The main functions of the cutting gas are: combustion-supporting and heat dissipation, timely blowing off the molten stains generated during cutting, preventing the cutting molten stains from rebounding upwards into the nozzle, protecting the focusing lens, etc.

1.

The influence of cutting gas and pressure on cutting quality: The cutting gas helps to dissipate heat and support combustion, and blow off the molten stains,

so as to obtain a better cutting section.

A.

When the pressure of the cutting gas is insufficient, it will have the following effects on the cutting quality: melting stains will occur during cutting, and the cutting speed cannot meet the production efficiency.

B.

When the pressure of the cutting gas is too high, its impact on the cutting quality: the cutting surface is rough, and the cutting gap is wide; at the same time, it will cause partial melting of the cutting surface, and a good cutting section cannot be obtained.

2.

The influence of cutting gas pressure on piercing:

A.

When the gas pressure is too low, the laser is not easy to pierce the cutting sheet, so that the piercing time increases, resulting in low productivity.

B.

When the gas pressure is too high, it will cause the piercing point to melt and form a larger melting point, which will affect the cutting quality.

When piercing, generally higher gas pressure is used for thin sheet, while lower gas pressure

for thick one.

When cutting ordinary carbon steel, the thicker the sheet, the lower the pressure of the cutting gas. When cutting stainless steel with nitrogen, the cutting gas pressure increases relatively with the thickness of the sheet, and the cutting gas pressure is always high.

In short, the choice of cutting gas and pressure must be adjusted according to the actual situation. In specific applications, corresponding cutting parameters should be selected.

4.3.7 Effect of Laser Cutting Power on Cutting Quality

During cutting, laser power also has a certain impact on the cutting quality. It needs to be determined according to the material and thickness of the cutting sheet. If the power is too large or too small, a good cutting section cannot be obtained.

1.

If the laser power is too small, cutting will not be possible.

2.

When the laser power is too high, the entire cutting surface will be melted, and the cutting gap will be too large, so good cutting quality cannot be obtained.

3.

When the laser power is insufficient, cutting melt stains will occur, and scars will appear on the cutting section.

Therefore, if the laser power is set appropriately, and with the appropriate cutting gas and pressure, good cutting quality can be obtained without melting spots.

4.4 Acceptance Test, Methods and Judgments after Installation and

Commissioning Check and accept according to the "Equipment Acceptance Form".

5 Maintenance and Troubleshooting 5.1 Maintenance 5.2 Fault Analysis and Troubleshooting 5.2.1 Fault Analysis of Follow System



Alarm and abnormal problem analysis 1) The upper/lower limit is valid This alarm will be generated when the system detects that the upper limit or lower limit

photoelectric switch or contact sensor on the Z-axis is valid. At this time, the following situations should be paid attention to: Whether the limit signal line is connected normally.

Whether the "limit signal " parameter is set correctly, the limit signal can be set as normally open or normally closed.

Whether the upper/lower limit does sense the object and outputs a valid level signal.

Whether the sensor is damaged, or there is oil or dust.

2) Exceeding the Z-axis stroke This alarm will be generated when the Z-axis coordinate of the system is greater than the set stroke. If a false alarm occurs, please note whether the system is reset correctly, whether the

travel parameters are set correctly, and whether the encoder feedback is normal.

3) The upper limit is always effective This alarm will be generated when the machine returns to the origin, touches the negative limit, and then goes back, but cannot exit the area of the negative limit.

4) Servo alarm The system will generate a servo alarm when the ALM signal of the No. 14 interface of the servo interface detects that there is a servo alarm signal input. The following reasons may cause the servo alarm on the height controller: The servo motor alarms, in this case, check the servo motor drive to see if there is an alarm, if so, power on again.

5) The encoder changes abnormally This alarm will be generated when the system is in a static state and it is detected that the feedback value of the encoder has changed. Reasons for this alarm include: The external force causes the shaft to vibrate.

The line is in poor contact, and the zero-speed clamp signal is invalid.

The encoder line is disturbed, in this case, confirm whether the machine is connected to the ground correctly.

6) The encoder does not respond This alarm will be generated when the system sends out the analog value and detects no

change in the encoder signal. Reasons for this alarm include: The line is not in good contact, the analog signal is not sent to the servo, or the zero-speed clamping signal is always in effect, or the feedback signal of the encoder is not correctly sent to the height controller.

7) The position deviation is too large This alarm will be generated when the system detects that the difference between the feedback position and the target position is too large. This alarm generally indicates that the servo system cannot normally follow the position loop command of the height controller. Reasons for this alarm include: The direction of the encoder is reversed. The position loop of the system does not form negative feedback. In this case, the parameters need to be modified.

Wiring, interference, etc. lead to abnormal encoder feedback.

The Z-axis is mechanically stuck. The torque of the system increases instantaneously, but the Z-axis is not in place in time.

8) Capacitance becomes 0 The capacitance value will become 0 when the system cannot measure the capacitance correctly. Reasons are as follows: The cutting head touches the surface of the sheet.

The cutting head is flooded with water.

The local capacitance of the cutting head is too large and exceeds the detection range.

The amplifier is damaged.

Poor contact in amplifier/cutting head wiring.

Inside the cutting head, the positive pole (nozzle) and negative pole (machine shell) of the induction capacitor are short-circuited.

9) The local capacitance becomes smaller This alarm is caused when the system detects that the local capacitance becomes smaller than a certain range. The reasons include: The alarm may also be caused by changing accessories, or changing connections, or random changes in the characteristics of analog components. At this point, re-calibration needs to be done.

The laser scatters onto the nozzle, causing the temperature of the nozzle to rise sharply, resulting in temperature drift.

Blowing air causes the gap between the positive electrode (nozzle) and negative electrode (cutting head housing) to change.

Poor contact of the connecting wires of the amplifier and nozzles.

It may also cause this alarm if the calibration distance is set too small (less than 10mm in 3D and less than 15mm in 2D).

10) The capacitance becomes larger

When the system is enabled to Follow, the Follow action will go up all the time because the capacitance becomes larger, and this alarm will be generated. Reasons for this alarm include: The alarm may also be caused by changing accessories, or changing connections, or random changes in the characteristics of analog components. At this point re-calibration needs to be done.

The laser scatters onto the nozzle, causing the temperature of the nozzle to rise sharply, resulting in temperature drift.

Blowing air causes the gap between the positive electrode (nozzle) and negative electrode (cutting head housing) to change.

Poor contact of the connecting wires of the amplifier and nozzles.

11) The capacitance becomes abnormally large This alarm is caused when the system detects that the capacitance exceeds the maximum value during calibration, or the set hit board capacitance. Reasons for this alarm include: The cutting head touches the surface of the sheet.

A small amount of water has entered the cutting head.

The laser scatters onto the nozzle, causing the temperature of the nozzle to rise sharply, resulting in temperature drift.

Blowing air causes the gap between the positive electrode (nozzle) and negative electrode (cutting head housing) to change.

12) The Follow error is too large

This alarm will be generated when it detects that the distance from the sheet becomes abnormally large instantaneously when the system is in the Follow state. Reasons for this alarm include: Cutting beyond the scope of the sheet, and there is no object under the cutting head to follow.

The board vibrates considerably.

13) The usage time has expired The set time is up. 

FAQ Analysis 1) There are obvious jitters and mechanical shocks when following.

The amplifier housing or the controller FG foot is in poor contact with the machine housing.

The machine housing is the negative pole of the tested capacitance. When the amplifier

housing and the machine housing have poor electrical conductivity, the AC impedance between the positive and negative poles of the capacitance will be larger. This will cause changes in the measurement circuit load, resulting in significant measurement errors. If it is not possible to achieve a good mechanical connection, an additional wire should be added between the amplifier and the machine metal housings to reduce the AC impedance. However, the AC impedance using this singlepoint connection method is larger than that of a good mechanical connection. The specific index should be less than 10 ohms of DC impedance.

The levels of follow motion are set too high.

It will cause shaking during movement if the levels of follow motion are set too high. It is recommended to use 10~18 levels.

Poor calibration of the cutting head Jitter will occur during motion when the stability and smoothness of the capacitance and position data stored in BCS100 are poor. At this time, please redo the capacitance calibration until the stability and smoothness are good or excellent.

The "following gain coefficient" can be appropriately reduced since there is a lot of interference present in the field.

2) There are collisions with the surface during following motion.

The calibration range is set too small or the Z-axis speed is set too large A small calibration range means a small deceleration distance during following. The speed may not reach 0 when the Z-axis moves to the target if Z-axis speed is set too high, causing overshooting.

The larger the Z-axis speed when reaching the target, the larger the overshoot. It is recommended to set the calibration range to 15mm when the Z-axis speed is greater than 100mm/s. 20-25mm when greater than 250mm/s.

The servo rigidity is set too small Setting the servo rigidity too low can cause servo response to lag behind the controller's signal, resulting in collisions with the surface.

Capacitance calibration

When there is a significant deviation between the capacitance stored in BCS100 and the actual capacitance being measured, it may cause collision with the plate during movement. The reason may be that the nozzle temperature rises abnormally high or the connection is not firm. At this time, first find the cause of the problem and solve it, then recalibrate the capacitance.

Locking nut of the ceramic body is not tightened It may cause the capacitance to be unstable if the nut is not tightened.

3) The follow height is inconsistent with the actual set height.

Calibration issue The above phenomena may occur if the capacitance calibration of the cutting head is not redone after replacing the nozzle.

Laser scattering onto the nozzle, abnormal blowing, etc. may cause the nozzle temperature to rise abnormally (above 100℃), which changes the local capacitance of the cutting head.

During intelligent calibration, the plate is not touched and the actual follow height is higher than the set value.

4) The lifting height is abnormal When cutting, the lifting height is getting lower and lower. At this time, pay attention to whether the machine is slipping or the mechanical connection is not normal.

5) When upgrading, it prompts "verification error, ARM upgrade failed" The file to-be-upgraded may be infected by a virus.

6) When the cutting head is calibrated, it lifts up without touching the board surface The hit-board capacitance setting is incorrect. Be sure to set the hit-board capacitance to 0 when calibrating metal materials.

5.2.2 Other Faults and Troubleshooting

Faults

Analysis

Solutions

1. Insufficient air pressure

1. Check the pressure of the gas path;

2. Gas channel selection error

2. Check whether the gas path in the

3. The solenoid valve is damaged,

technic parameters is correct

or there is no control voltage

3. Check the solenoid valve and related

output

circuits

No auxiliary gas output during processing

There is an abnormal sound when

1. There is no lubricating oil for

the motion parts on the axis

1. Add lubricating oil

2. There is interference between

2. Check the running path of motion

the motion parts and the fixed

parts

the axis is parts running 1. Check

whether

the

connection

1. The CNC signal is not sent

between the CNC console and the laser

2. The protective lens is dirty or

machine is correct

No laser or

damaged

2. Check the protective lens

insufficient

3. The nozzle is damaged or

3. Replace the nozzle

laser power

blocked

4. Adjust the laser path

4. The optical path is not correct

5. Alarm from laser source

5. Shut

down and restart the laser

source/If the temperature of the laser source and water chiller is too low,

restart the laser after it reaches the requirement.

The cutting

1. Check the program according to the 1. Program input error

graphic

drawing 2. Influence

does

of

positioning

not

2. Check the accuracy of the machine

accuracy match

the

tool 3. The servo motor is damaged

size of the 4. The servo driver is damaged drawing

3. Check the servo motor and servo

drive, please replace if damaged 1. Loose connection of amplifier

or other cables.

1. Fasten.

Cutting

2. Loose nozzle or magnetic ring.

2. Fasten.

head alarm

3. System issue.

3. Recalibrate the cutting head.

4. Damaged nozzle or presence of

4. Replace or clean the nozzle.

iron slag.

1. Power on the motor and the alarmwill

be released 2. Check the alarm information on the

1. The motor is not powered on Motor alarm

servo driver (refer to attached table 1).

2. Motor alarm Power off and restart the motor, andthe alarm can be released. If the alarm is repeated, please contact us.

Table 5.2.2-1 Fault analysis and troubleshooting

5.3 Protection, Safety Signs and Instructions before and during Use

It means "attention". Failure to follow proper procedures could result in personal injury or

damage to equipment.

It indicates the laser beam. Do not pass through the laser beam, otherwise it will cause burns to the human body or even endanger life.

It indicates the high voltage power. Do not get close to high voltage, otherwise it will cause electric shock to the human body and even endanger life.

Precautions: A.

Anyone, at any time, must not direct their eyes to the direction in which the laser light (including the red indicator light) shoots out.

B.

People and non-working objects are prohibited from being within the laser irradiation range when the mechanical shutter is open.

C.

The operator should wear protective glasses, and is strictly prohibited from leaving during the operation of the machine.

D.

Press the emergency stop switch immediately if any abnormality occurs during the use of the machine tool.

E.

During use, the cooling water temperature and working gas pressure should be checked frequently.

F.

Please operate the equipment with the operating certificate and abide by the safe operation rules. Non-workers of the machine tool are strictly prohibited from operating it.

G.

Laser source equipped on this machine tool is a Class 4 laser product. The fiber laser is invisible light, and the diffuse reflection of the emitted beam may cause damage to the human body (especially the eyes). Personnel present should pay attention to protection and prevent fires.

H.

Exhaust gas generated during laser cutting will harm operators. Please ensure that the dust collection device of the machine tool is working normally.

I.

Always keep the equipment clean and tidy; add oil according to the regulations to ensure reasonable lubrication; abide by the shift system, manage tools and accessories well, and do not lose them; stop the machine for inspection immediately if you find a fault, and notify the maintenance in time if you cannot handle it.

J.

To prevent electric shock injury, non-professional maintenance personnel are strictly prohibited from inspecting and overhauling the electrical control part of the machine tool.

6 Transportation, Shipping and Storage 6.1 Package For laser cutting machines, their laser sources are packed in wooden boxes and small parts are packed in cardboard boxes. Other parts are wrapped with polyethylene foam and protective film to protect from external damage.

6.2 Shipping Methods and Precautions A.

The transportation of the machine tool should avoid rain, humidity, tilt, rodent damage, potholes and other hazards, and ensure good ventilation. The transportation temperature should be within the range of -10°C to +40°C, and the relative humidity should be not greater than 80%.

During transportation and storage for no more than 24 hours, the ambient temperature should not to exceed 70°C and it is forbidden to store in the open air for a long time. If temporary storage is required, in addition to meeting the above requirements, the storage location and packaging status should be checked at any time to ensure that the machine tool is not damaged.

B.

Do not climb, stand or place heavy objects on the product packaging box.

C.

Don't move or drag the product using connected cables.

D.

It is strictly forbidden to collide or scratch the panel and display screen.

E.

The product packaging box should avoid moisture, exposure to the sun and rain.

F.

When hoisting the machine tool, care should be taken to lift, and collisions are strictly

prohibited. When hoisting, the steel rope must not scratch the machine tool. If it cannot be avoided, it must be isolated with soft objects.

6.3 Storage Conditions, Period and Precautions The transportation of the machine tool should avoid rain, humidity, tilt, rodent damage, potholes and other hazards, and ensure good ventilation. The transportation temperature should be within the range of -10°C to +40°C, and the relative humidity should be not greater than 80%. During transportation and storage for no more than 24 hours, the ambient temperature should not to exceed 70°C and it is forbidden to store in the open air for a long time. If temporary storage is required, in addition to meeting the above requirements, the storage location and packaging status should be checked at any time to ensure that the machine tool is not damaged.

7 Quick Start Guide for CypCut 7.1 Features

1.

It supports AI, DXF, PLT, Gerber, LXD and other graphic data formats, and accepts the international standard G code generated by Mater Cam, Type3, Wentai and other software.

2.

It can conduct automatic optimization when opening/importing DXF and other external files, including: to remove repetitive lines, merger connected lines, remove tiny graphics as well as automatically distinguish inside and outside dies and conduct sorting. The above functions can be defined, as well as be carried out manually.

3.

It supports common editing and typesetting functions, including: zooming in and zooming out, translation, mirror, rotation, alignment, copying, combination and so on.

4.

It can be used to set the lead, kerf compensation, micro connection, bridge connection, lead inside or outside, lead seal without gap and so on in the easiest way.

5.

It can distinguish the inner mold and outer mold, in accordance with which it can determine the direction of kerf compensation, and check the lead.

6.

It supports curve splitting and connection, curve smoothness, text-to-curve, component integration and exploding.

7.

It has time-saving automatic nesting feature that can automatically co-edge and generate

excess material.

8.

It can easily fill plate through a variety of array patterns.

9.

Its flexible automatic sorting and manual sorting functions can be used to fix the processing order of internal graphs in group.

10. Unique processing sequence browsing function, providing a more interactive view of the processing order than simulation

11. Its flight cutting path can be set by a key, allowing processing more with less.

12. It supports two-stage piercing and progressive piercing, grouping pre-piercing. It also supports the settings of separate laser power, frequency, laser form, type of gas, air pressure, peak current, time delay and Follow height for piercing process and cutting process.

13. It can edit frequency and power curve in real-time, and set parameters of slow starting.

14. Material library feature saves all process parameters for future use on similar materials

15. Its processing breakpoint memory can be used to trace the breakpoint forwards and backwards and to process part of the graphics.

16. It is able to be positioned to any point in the process of stop or temporary stop; and to start

processing from any position.

17. The same set of software supports round pipe cutting and plane cutting, and the way of programming is exactly the same; it also supports intersecting line cutting.

18. It supports given height cutting and outside-plate Follow.

19. It supports automatic edge seeking and precise positioning.

20. Its powerful expansion capacity supports as much as 30 PLC process edit and more than 50 programmable processes.

21. It has programmable input and output outlet, programmable alarm input.

22. It supports the remote control of the system through wireless teach-box and Ethernet.

7.2 Software Acquisition and Installation

Before installing, please check whether your system meets the following requirements.

1.

The operating system should be above Win7.

2.

I3 and above CPU

3.

The memory should be 4Gb at least.

4.

The VGA monitor should be more than 15 inches with a resolution of more than

1280*1024 .And it would be better to use 32-bit true color display.

5.

There should be two USB interfaces at least.

6.

If your operating system is Vista-based (including Windows Vista, Windows 7, Windows 8, Windows 2008 Server), please run the system as an administrator as much as possible in order to avoid the possible errors.

After completing the inspection, you can start to install the software. Just run the installer

directly. To install the program in Vista-based operating system, you should have administrator permission.

Please close 360 security guards and anti-virus software in the system in order toprevent the program files from being modified during installation and ensure the normal installation of all drives. Note: 360 security guards cannot guarantee that there are no viruses in the computer. If the computer has been infected, while 360 security guards are running, it may point out that CypCut is a virus, which causes operation failure.

7.3 Start to Use CypCut 7.3.1 Desktop Shortcut

After installation,

will appear on the desktop. Double click to run the CypCut laser

cutting control system.

Please check whether the dongle has been inserted into the USB interface with normal operation before running CypCut if you are using the motion control card BMC1204 or BMC1205. If

the dongle detection fails, the system will enter DEMO mode, in this case you can use all other functions normally except the process control.

There is no need for a separate dongle if you are using the BMC16** series or later motion control card (such as BMC1604, BMC1605, BMC1805).

7.3.2 User Interface

The black section in the center of the interface is the drawing board; while the white frame with shadows represents the machine breadth, and it displays with grids. The staff gauges at the top and the left of the drawing area and the grids will change with the zooming of the views, to provide references for drawing.

Above the interface from top to bottom are Title Bar, Menu Bar and Toolbar. The toolbar is arranged with very obvious large icons in grouping and most of the common functions can be found here. The menu bar includes the menu “File” and five toolbar menus, namely “Home”, “Draw”, “Nest”, “CNC” and “View”, and toolbar display can be switched through selecting these five menus.

There is a toolbar called “Quick Access Bar” at the left of the title bar, which can be used for fast creating, opening and saving a file; besides, undo and redo commands can also be finished quickly here.

At the left of the interface is “Drawing Toolbar”, which is called directly “Left Toolbar” in the following instructions. It provides the basic drawing functions, and the first five buttons are used to switch the graphics mode, which includes selecting, node editing, order editing, dragging and zooming. The following other buttons respectively correspond to the related graph and a new graph can be inserted in the drawing board by clicking these buttons. At the bottom there are three shortcut keys, which are Align Center, Explode selected graphic, and Rounded.

At the right of the drawing area is “Process Toolbar”, which is called directly “Right Toolbar” in the following introductions. It includes a “Layer” button and seventeen color square buttons. Click “Layer” button to open its dialog box, and most of the parameters can be set. Each of the color square buttons corresponds to a layer. When a graph is selected, it can be moved to the specified layer by clicking these buttons, when no graphs are selected, it means to set the default layer for the next drawing by clicking these buttons. The first white square indicates a special layer, “unexported Layer”. When this layer is displayed, the graph on it will be shown in white and it

cannot be processed. The last two layers are layers of first processing and last processing.

There are three scrolling-displayed ribbon text windows below the interface. The left one is “Draw Window”. The related prompting messages of all the draw instructions or input message will be shown here. The middle one is “System Window”, and other system messages will be displayed here except drawing. Each message has time mark and will be shown in different colors according to their importance, which includes prompting, warning, error and so on. The right one is “Alarm Window”, in which all the alarm message will be displayed in red background and white text.

There is the Status Bar at the bottom of the interface, which shows different prompting messages according to different operations. There are some basic messages of drawn processing graphics at the left, and some commonly used messages at the right of the status bar, including the location of the mouse, processing status and the location of the laser head. The latter one is the fine-tuning distance parameter, which can move the graphs quickly by using direction keys. The final show is the type of control card.

The rectangular area at the right of the interface is called “Console”, and most common operations related to control will be done here. From top to bottom are choices of coordinate system, manual control, work control, processing options and processing count.

7.3.3 Toolbar

The toolbar of CypCut adopts a style called Ribbon. It puts the common functions by column and area, and also applies many large-size buttons for easy operation. The photo below will help

you to understand this new toolbar:

The whole toolbar is divided into four “pages”, which can be selected by four menus “Home”, “Draw”, “CNC” , "Nest" and “View”. The related page will appear when selecting one menu.

Furthermore, the page “Being Processed” will appear during processing and it cannot be switched to other pages before stopping.

The toolbar of each page will be arranged again in multiple “Columns” according to the functions, such as “Base operation” and “Geometric transformation” and so on. Generally, the first buttons of the columns are all in large size, and there is a small button“

” at the lower right

corners of some columns, which is called “Extending Button”, and a related dialog box can be opened by clicking this button.

Note: there are small triangles below some large-size buttons, which are called “Drop-down Buttons”, a related “Drop-down Menu” will appear after pressing the button, and the menu can offer richer operation options. When the mouse is moved to the top of the button, two obviously different rectangles will appear, the corresponding function of the button can be directly executed by pressing the upper part of the button, while a menu can be opened by pressing the lower part of the button.

You may have been very familiar with this arrangement if you have used Office 2007, Windows 7 or other procedures which use the Ribbon style before. It does not matter even if you use it for the first time, and we are sure that you will like this style soon.

7.3.4 File Menu

There is a special menu called “File” at the upper left corner of the toolbar, and it contains some menu items related to the files. The menu can be opened by clicking the button “

” as

shown below:

Please note that at the right of the menu the recently used files are listed. While the files saved

by CypCut are marked with the icon“

”, and in this way it is convenient for you to find the

designed documents of last time.

The "Save as" in the menu can be used to save the file in LXD or DXF format.

The “Import” in the menu can be used to import another document to the drawing board without clearing the existing graphics. Please directly use “Open” if you just would like to open an external file.

CypCut V712.6 and later version can be used to open files in NRP and NRP2 formats exported

by CypNest.

The "Report" in the menu can be used to export processing report, nest report and machine operation report.

The menu “User Parameters” is used to set some parameters related to the using habits; and the menu “Backup Params” is used to backup all parameters as a compressed file; and the menu "BCS100 monitor" is used to monitor and display the interface of BCS100 height controller in the software; while the menu “Diagnosis” is used for program diagnosis and monitoring.

You can see the detailed version information of CypCut software by clicking “About” at the lower right corner.

7.4 Operation Process for CypCut

7.4.1 Import Graphics

After clicking the button of opening files “

” in the quick launch bar at the upper left

corner of the interface, its dialog box will be popped, then choose the graphic to open. There is a quick preview window at the right of the dialogue box, which can help to find quickly the file you need.

If you hope to draw a part using CypCut software, please click the create button“

”and then

draw pictures with the buttons of the drawing toolbar at the left. See the details in related chapters.

7.4.2 Preprocessing

When importing the graphics, CypCut will automatically remove trivial and duplication, combine near as well as automatically smooth, sort and de-group. Generally, you can set technical parameters without other handlings. If the automatic processing cannot meet your requirements, open the menu “File”-“User Parameters” for setting.

Generally， the graphics to be processed are closed curves. Therefore, if the files opened include unclosed curves, the software will prompt and the unclosed curves will be displayed in red.

However, this function may be closed. Thus, if you would like to look over the unclosed curves in the drawing board, click the buttons “

” and “

”under menu “View” in the toolbar to highlight

them. You can also click the big button “Select” at the leftmost side of the toolbar, and then click “Select Unclosed Curve” to choose all of them.

In some cases, you need split the graphics manually, please click the button“

” under

“Optimize” in the commonly used menu and then click the mouse in the position where you need to split. To merge the graphics, please select them and then click the button " Combine near".

7.4.3 Technical Design

In this step you may use most of the functions in “Technical Design” in the commonly used

menu, including lead lines, compensation and so on. Big size button “

” can be used to set

lead lines, and the button “

” is used to set lead seal over, lead seal gap or lead seal

parameters. The button“

”is used for cutting compensation; the button

“

” can insert micro joint of not cutting into the graphics; the button“

reverse a single graph; and the button " the button“

” can

" is for setting a cooling point in the graph. Click

” and then click the position where you hope to set as the start of the

graphics, in this way you can change its start; if click outside the graphics, and then click on it again, you can draw a lead manually.

Press Ctrl+A to select all the graphics, then click the button “Lead” and set the parameters of the lead lines, and then click OK. In this way the software can search suitable positions to add the lead automatically according to your settings. You can conduct the "Lead Lines Check" by clicking the small triangle below the button “Lead” and selecting “Check lead lines”. When select “Distinguish inner and outer mold”, lead can be automatically optimized according to inner and outer mold.

Set detailed cutting technical parameters by clicking the button “

” in the toolbar at the

right. The dialog box “Layer Parameter Settings” contains almost all the parameters related to the

cutting effect.

7.4.4 Lead Planning

In this step the graphics will be sorted as required. You can conduct automatic sorting by clicking the button “

” under the “Home” or “Nest” menu, while you can select the ways of

sorting and whether it is allowed to change the direction of the graphics and automatically distinguish inner and outer mold during the automatic sorting by clicking the small triangle under the button.

If the automatic sorting cannot meet the requirements, click the button“

” in the toolbar at

the left to enter the manual sorting mode, and click the graphics with mouse one by one, and in this way you can set the working order . You can specify the order between these two graphics through pressing the mouse and drawing a line from one graph to another.

You can fix the order of sorted graphics by selecting them and then clicking “

” button

under “Home” or “Nest” menu. The following automatic sorting and manual sorting will not influence the graphics inside the “Group”, and the “Group” will always work as a whole.

You can conduct automatic sorting for the graphics within the group by selecting a “Group” and then clicking the right key with selecting “Group Sort”.

7.4.5 Inspection before Processing

Before actual cutting, check the working route. You can align graphics by clicking align button; view the processing order quickly by dragging the interactive preview progress bar under “Draw”

menu as shown below; and view the processing order of the graphics by clicking the interactive preview button.

You can simulate process by clicking the button “

” on the console, and adjust the

speed of the simulation processing through the function “simulation speed” on the page“

”.

7.4.6 Actual Processing

Please note that this step must be done on the actual machine with the support of dongle and the control card.

Before formal processing, match the graphics on the screen with the machine. You can find the positional relationship between the upcoming processing graphics and the machine breadth on the screen by clicking the left button“

” above the “Console”.

This corresponding relationship is calculated in accordance with the dock point markers on the screen and the position matches of the machine laser head. Some common coordinatemarkers on the screen are shown in the photo below. Click “Preview”, the “Dock Point” will be moved to the “Laser Head Position” and visually parallel move occurs in the graphics on the whole.

Please check whether the position of the machine origin is correct if the “Laser Head Position” shown by the red cross cursor does not match the actual laser head position of the machine, and it can be corrected through “Numerical Control”—“Go Origin”. After previewing, if you find that the graphics are outside the machine breadth wholly or partially, it means that it may exceed the range of travel during processing.

You can change the relative relationship between the graphics and the dock points by clicking the button “

” under “Home” menu. For example, if the laser head is at the lower left

corner of the upcoming processing workpiece, you can set the lower left corner as the dock point and so forth.

If there is no error on the screen after checking, click the button “

” on the

“Console”, and the software will control the machine to go around the outer frame of the upcoming processing graphics so that you can check whether the working positions are correct. You can also click the button“

”, and the machine will run completely without laser along the

graphics which will be processed so that you can check more carefully whether there may be any

impropriety in the processing.

Finally, please click the button “ button“

” to start the formal processing, and click the

”to suspend the processing. During the suspension, you can control the laser

head to go up and down manually, and switch the laser, gas and so on manually, besides, you can

also trace back along the working route through the buttons “ continue to work by clicking the button “ Click the button “

”. You can

”.

” to stop the processing and the laser head can automatically

return to the point according to your setting. As long as you do not change graphics or start new processing, when click the button “

”, the system will locate to the position stopped

last time; when click the button “

”, the system will continue the processing from the

position of last stopping.

8 Graphic Operation 8.1 Graphical Display “View" in the first column under “Home” menu has multiple buttons which can help to control the display effect, as shown below:

After clicking the buttons in the figure above, the display will take effect immediately and then you can find the changes in the display effect in the drawing board. Please pay attention to the display changes of the buttons themselves, if the ground color is light yellow, it shows that the corresponding effect has started; otherwise, it indicates that the display effect does not start yet.

For example, in the on- state “

”, the arrow will show the graphical processing path in the

drawing board; while in the off state “

”, the arrow will disappear.

You can clearly see the location of micro joints (white rectangular marks) on the graph by turning on "Show micro joint marks", as shown below:

When a graph is selected, click the button “

”, and the graph will be shown in the

center of the screen. If no graphs are chosen, click the button directly, and the whole graphs will be displayed in the center.

After clicking the button “

” in the lower right corner of the column, a dialog box will be opened,

and you can conduct more detailed control for the drawing board, including turning on and off the auto attach key-points, turning on and off the ruler and controlling the pick precision of mouse.

The views can be zoomed by scrolling the mouse wheel in the drawing board. By clicking F3, all the graphs will be shown in the center of the screen. By clicking F4, the machine breadth range will be displayed in the center. The above operations can be enabled by right-clicking the mouse with selecting “Zoom” in the drawing board.

8.2 Selection of Graphics CypCut offers a variety of graphical selection methods. The basic operation is “Click Selection”, and the graphs will be selected just by clicking the mouse on the graph. Another one is “Box Selection”; by this way, a translucent box can be formed by dragging the mouse in the screen to select the graphs. There are two kinds of box selection. When dragging the mouse from left to right, it shows a blue translucent rectangle with solid line and only the graphs covered completely

in the rectangle box can be selected; when dragging the mouse from right to left, a cyan translucent rectangle with dotted line will appear and as long as any part of the graph is in the box, the graph will be selected.

The schematic diagram of these two options is shown below. The left one is the option from left to right and BC will be selected; while the right one is from right to left, and ABCD all will be selected. Flexible use of these two methods can help you to choose the graphs in a more convenient way.

No matter it is “Click Selection” or “Box Selection”, if you press “Shift” while selecting, you can add or cancel selected graphics without clearing the original selection.

Click the "Select" button, and a drop-down menu will appear, which allows for advanced selection, including: 1.

Basic operations: Select All (Ctrl+A), Invert Selection, Copy (Ctrl+C), Paste (Ctrl+V), Cut (Ctrl+X), Cancel Selection (click on the blank area), Copy with Base Point (select a point, when pasting, the position relationship between the graphic and the cursor is the same as the relationship between the base point and the original graphic).

2.

Graphic operations: Select unclosed graphic, select similar graphic, select all outer or inner mold, select all graphics smaller than the specified size (need to enter the size in the

drawing information bar).

3.

Layer operations: Select layer (used to select all graphics within a layer), lock background.

4.

After selecting "Disable quick drag and copy", users will no longer be able to drag, copy, or rotate graphics, thus avoiding the misplacement of graphics that have already been arranged due to accidental operations.

Among them, “Select similar curve” allows you to select all the graphics which looks close to

each other on the drawing board. For example, you may select all the circles with a diameter of 5mmm by selecting a circle with a diameter of 5mm and then clicking “Select similar curve”.

8.3 Geometric Transformation The column “Geometric Transformation” under “Home” menu provides abundant geometric transformation functions. Select wanted transformation graphics before applying. Most of the commonly used geometric transformations can be completed only by clicking the drop-down triangle under “Transform”, for examples: Mirror, Rotate, Align and Scale.

8.3.1 Size Modification

CypCut provides 7 fast size transformations, which can be completed by the drop-down menu below the button “Scale”. Click the small triangle under "Scale" button, you can open a drop-down menu, which provides selected graph operations of size transformation, as shown below.

For example, "100mm" will scale the graphics proportionately to a width of 100mm, and "2" will proportionally enlarge the graphics to 2 times its size.

If you want to input precise dimensions, simply click the "Size" button, and the following dialogue box will appear. Input the new dimensions and click "OK" to complete the size transformation.

When the status of lock on the interface is

, the length and width are locked as the

proportion of the original graphics. If you want to separately input length and width, cancel the lock status by clicking the button

, and then the button will become

.

“Zoom Center” can determine the location relations between the new graphics and original graphics after being zoomed. For example, when you select “Upper Left”, it means that the new graphics and original graphics are aligned in accordance with the upper left corner after the transformation, and other parts are zoomed by taking the upper left as a basis.

Note: The lead and slotted compensation set for graphics cannot be transformed at the same

time, and the numerical value of lead and slotted compensation will not change after the size is changed.

8.3.2 Interactive Geometric Transformation

CypCut provides 3 kinds of interactive geometric transformation, including interactive zooming, rotation and mirror, by which you can achieve more detailed geometric transformation. Before doing these operations, firstly select the graphics, click the corresponding menu or button, and then conduct operations in accordance with the tips at the bottom of the screen.

For example, if you want to rotate a rectangle 45° by taking its lower left corner as a basis, operations are as follows: 1.

Firstly, select the rectangle;

2.

Click the small triangle below the “Transform”, open the drop-down menu, and select “Rotate”, and then there will be a prompt “Please Specify Base Point” in the lower part of the screen;

3.

Move the mouse to the lower left corner, and then the mouse will be automatically absorbed to the lower left corner. As shown below:

4.

Click the mouse, and then there will be a prompt “Specify Start Point of Rotation or Input Rotation Angle” at the bottom of the screen;

5.

Input 45 and then click Enter.

If you do not know the angle but want to rotate the rectangle to the position aligning with another graphic, then the first four steps are the same as above, please conduct the following operations from step 5:

6.

Move the mouse to the lower right corner of the rectangle, click to form a horizontal line and take it as the start line of rotation.

7.

The screen shall prompt “Please Specify End Point of Rotation”. Then the graphics will rotate with the mouse, and you can complete the operations by clicking the mouse at the expected end point of rotation. As shown below:

The operations of interactive zooming and mirror are similar with this, so there is no further explanation.

8.3.3 Quick Translation and Copy

CypCut software allows you to use the arrow keys to quickly pan the graphics. To use this

function, click the "Move Distance" button in the lower right corner of the software interface to change from

state to

state. Only in the lighted state can

the box on the right be edited.

After "Move Distance" button is turned on, select the graph and press any direction key, the graph will translate a distance in the corresponding direction. The distance parameter is input in the number box on the right side of the "Move Distance " button.

This function can help you temporarily move a graphic quickly, and then focus on the design of other graphics, and then quickly move back to the original place. Since the fine-tuning distance can be precisely controlled, there is no worry about the deviation of the graphic position. Press thearrow key while pressing Ctrl, the selected graphics will be copied. For example, pressing "Ctrl+Right" will copy the selected graphic at 100mm from the right.

8.4 Input of Coordinates and Parameters In some cases, drawing with precise coordinates is needed. CypCut allows you to input the coordinates directly and its input format is as follows: <X coordinate><comma,><Y coordinate>.

For example, to input the coordinates (100, 100), input “100, 100”. And the inputted coordinates and parameters will be shown in blue.

Most of the drawing operations allow both mouse operation and inputting coordinates directly.

Below is an illustration for drawing a rounded rectangle with a length of 300mm, a width of 200mm and a fillet of 50mm.

1. Click the icon “

” on the left toolbar, and then “Please Specify Start Point” will be prompted.

2. Input the coordinates “0, 0” and press Enter, and then “Please Specify Cross Point” will be shown on the screen.

3. Input the coordinates “300, 200” and press Enter, and then “Please Specify Corner Radius or [Fillet (F)]” will be shown on the screen.

4. Input 50 and press Enter. All the operations are completed, as shown below

8.5 Automatic Adsorption CypCut provides automatic adsorption during drawing, including automatic adsorption to the grids, adsorption to the critic points of the graphics, adsorption to the borders of the graphics and so on.

To close automatic adsorption, click the menu “

”, select “User Parameters”, then

select the tab “Drawing Board” in the opened dialog box, and finally cancel the option“ above dialog box.

”. The precision of automatic adsorption can also be set in the

8.6 Graphic Drawing CypCut provides graphics drawing functions, in the left toolbar, from top to bottom: isolated point, straight line, polyline, circle, arc, rectangle, polygon, text, standard parts, also appearing in the drawing module of the upper menu bar. Among them, the last 2 are removed, and the first 7 functions are standard graphics drawing, which are similar to CAD functions.

8.6.1 Standard Graphics Drawing

The operations of isolated point, straight line, polyline, circle, and rectangle are simple and clear, and will not be repeated here. There are 2 functions in the drop-down menu of "Circle" in the "Drawing" column: "Replace circular positioning holes with isolated points" and "Replace with circles". The former can turn smaller circles into isolated points, and the latter can convert graphics similar to circles into circles, which is convenient for subsequent fly cutting.

Click the triangle below the polygon function for rounded rectangle, polygon and star. For rounded rectangle, draw a rectangle first, and then determine the rounded corner radius by moving the cursor, or directly enter the rounded corner radius in the drawing information bar. Both polygon and star need to specify the number of sides (3 to 100). The polygon is a regular polygon which can be rotated. The number of sides of the star is the number of its vertices. For example, the six sides are the six-pointed star. In addition, in the drawing module, in the drop-down menu of "Rectangle", there is an additional "Raceway Shape" function, which is the same as the drawing method of a rectangle. You can add semicircles to the left and right sides of the rectangle to generate a runway shape.

8.6.2 Text Input

CypCut supports text input and text conversion to curve. After clicking the button “

” on the

drawing toolbar at the left, insert text in the desired position by clicking the mouse and the newly inserted text will be selected automatically.

After selecting the text at any moment, a new page “Text” will appear in the toolbar, in which you can modify the content, the style and the size of the text. As shown below:

Please note that once the text is converted to the curves, the above option cannot be used any longer. To design a text with specific font and special effect, please convert it to curves after you design it well.

8.6.3 Draw Standard Part

CypCut provides drawing of standard parts. Click the "

" button on the drawing toolbar on

the left to draw commonly used parts. After selecting the part type, set related parameters on the next page. As shown below:

8.7 Measurement CypCut provides tools for measuring the distance between two points.

Click the "Measurement" button in the "Tools" column, then select a point on the drawing, drag to display a guide line, and then select another point, and the drawing information column will display the positional relationship between the two points.

8.8 Graphical Optimization When importing the external graphics, CypCut can optimize it automatically. To optimize them manually, use the "Optimize" functions in the toolbar. As shown below:

Select the graphics to be processed and then operate according to the prompts.

8.8.1 Smooth

Select the polylines to be optimized, then click "

" button, a prompt “Smooth the

selected curve according to a given precision” will be shown on the dialog box. Please input the expected curve smoothing precision and then click OK. The contrast between the original curve and the smoothed curve is as shown below. In order to facilitate the observed effect, the curve smoothing precision value entered here is greater. Please use the actual value according to required processing precision.

8.8.2 Split

Split is to divide the closed graphic into two graphics and the user can edit these two graphics separately. Please click the button “

”, and then click the mouse in the position where you

need to split. The process of curve split can be carried out continuously as far as click ESC to

cancel the command or it is switched to other commands.

8.8.3 Remove Tiny Objects

Sometimes the imported graphics may include the curves that are visually imperceptible, which causes the display size to become very small, or move to an abnormal position when processing.

These graphics can be deleted through the function “Remove trivial”. Click the button “Remove trivial”, set the size range of the graphics, and then confirm the operation. The graphics smaller than this size will be deleted and other curves will be retained.

8.8.4 Remove Duplicated Curves

This function is used to delete the visually overlapping lines and only leave one. You can search and clear all the graphics by clicking “Remove Duplication”.

8.8.5 Combine Near

The graphics drawn with AutoCAD often includes the graphs which connect visually while do not connect actually. Through connecting near, they can be combined. Please select the graphics to be merged, then click “

”, input merging accuracy, and confirm the operation.

Note: The end points of the graphics in visual may be not the ones in geometric, and the

excess backtrack lines may exist in the end points. These graphics need to be split and deleted firstly through “Split”, and then can be combined.

8.8.6 Cut Up

To prevent material warping and poor machining, you can utilize the "Chop" function to generate white-colored chop lines within the "internal contour" graphics, which is distinct from the regular cutting graphics.

8.8.7 Cutter (Split Drawings)

To adapt to the machine tool, the entire drawing can be divided into several parts for cutting.

Divided drawings need to be saved separately, shown in red borders.

8.9 View

The view module can adjust the zoom, display position and order of the graphics, and can also edit the graphics. The function entry is located above the left toolbar, and from top to bottom are selection, node editing, manual sorting, panning view and zooming.

8.9.1 Node Editing

CypCut provides a node editing mode for fine-tuning graphics. Select "Edit Node

" and then

select the graph to see the distribution of nodes. Drag a node (yellow and blue rectangle points as shown in the figure below) to adjust the graph. Click the "Select editing mode.

" button again to exit the node

Yellow represents nodes and start points, blue represents nodes, both are draggable.

9 Technical Design This chapter describes the functions of technical parameters provided by CypCut. Because most of the technical parameters have direct relations with the materials to be cut, the used laser source and air pressure, you need to set the parameters according to the actual technical requirements. All the parameters mentioned here including the ones in the graphics should only be used as examples rather than being considered as guidance parameters.

Warning! Please set the parameters carefully because the inappropriate or incorrect parameters may result in poor cutting effect or even damage to the machine.

9.1 Lead Lines 9.1.1 Distinguish Inner and Outer Mold

When opening the external files such as DXF and so on, CypCut can distinguish inner and outer mold automatically. If the graphics are modified during editing and result in the changes in the relationship between inner and outer mold, you can click the button “Auto Sort” to distinguish them again. There are two ways: Select “Distinguish inner and outer mold when sorting” located at the drop-down menu of “Auto Sort” with default selection.

Click drop-down triangle button of "Lead" and select "Distinguish inner and outer mold".

CypCut distinguishes inner and outer mold in accordance with the surrounded relations, and it always takes the outermost layer as outer mold, while the next one as inner mold, then outer mold and so forth. Besides, an unclosed graphics cannot form a layer. To start outer mold from a certain layer, choose all the graphics from this layer and inside it, group them, and then distinguish inner mold and outer mold through “Group Sort”.

When adding lead lines, the external layer is yang cut, so it will be led in from the outside; the internal layer is inner mold and will be led in from the inside. When set inner and outer mold manually, please select the graphics to be set, and then click the buttons “

”

under “Home” menu.

9.1.2 Automatic Lead Lines

Please select the graphics to be set with lead lines, click the icon “ menu, then set the lead lines parameters in the popped window. As shown below:

” under “Home”

The lead types include Arc, Line and Line + Arc, while the parameters consist of lead type, lead angle, lead length and lead radius. You can also choose whether to add small holes at the starting point of Lead lines.

When you select arc leading, the end of the circular arc needs to keep in tangent with the graphics to be cut (no matter how big the set angle is). As shown below. In fact, the set angle is an included angle between the connecting line of the start point and the end point of the lead line and the graphics to be cut. The lead out line is similar to it.

Please note that when automatically selecting the lead-in position, the system will determine it based on the predefined priority vertices or priority long edge of the graphics. As a result, the previous lead-in position, type, and other parameters of the graphics will be overwritten. If you have specific requirements for the lead-in position, you can set a uniform position based on the total length of the graphics or keep the lead-in position unchanged while only adjusting the type option.

9.1.3 Manual Lead Lines

To modify the lead line manually, click the button “

” on the toolbar. If click on the

graphics, you can change the position of the lead lines. However, the angle and the length can't be modified.

Firstly, please click (point A, yellow point) outside the graphics, then click (point B, red point) on the graphics, in this way you can draw a lead line from point A to point B.

9.1.4 Check the Lead Lines

Click the small triangle below the button "Lead", and then select “Check Lead” to check the validity of the set lead lines. This function can shorten the lead lines with too much length, and thus prevent them from intersecting with other graphics. Click "Distinction inner and outer mold", you can determine the specific lead position according to the set inner and outer mold.

9.1.5 Lead Seal, Gap and Over

There are three buttons, as

in “Technical Design” under “Home” menu. Please

select the graphics to be set, and then click the corresponding buttons. The size set of “Gap” or “Over” can only be valid when resetting gaps or over cut later, and the size which has been set before will remain unchanged.

9.2 Cutting Compensation Please select the graphics to be compensated, and then click the button “

” on

the toolbar for cutting compensation.

The cutting width will be obtained in accordance with the actual cutting results. The compensated track will be shown in white on the drawing board and the system will run along the compensated track during processing. The compensated original drawing will not be processed but will be displayed on the drawing board.

The direction of cutting compensation can be selected manually. It can also be judged automatically according to outer mold or inner mold. Outer mold needs outward compensation, while inner mold needs inward compensation.

During cutting compensation, you can translate the corner in the form of round angle or right angle. As shown below:

In the figure the green is the original, the white is the compensated track, and the light yellow is the vertical lines drawn from the corner. The cutting edges can coincide with the original after both sides of the vertical lines are compensated, while the corner needs transition. Usually, round

angle transition can ensure that the cutting edges can still coincide with the original and ensure smooth transition.

You can edit the common compensation value in the general configuration.

To clear compensation, please select the needed graphics, then click the button “Clear” and choose “Clear Compensation”, or directly select the "Cancel Compensation" button under Kerf Compensation.

9.3 Micro Joint “Micro Joint” is used to insert a micro joint which will not be cut into the track. This function can prevent part warping. When cutting here, the laser will be closed; however, whether closing the gas and the following is determined by the parameters of short-distance moving during cutting.

Micro joint is shown as a gap on the drawing board. As shown below:

Click the button “

” on the toolbar, add a micro joint by clicking at the position in

the graphics needed. You can insert multiple micro joints by clicking continuously until pressing ESC to cancel the command or switching it to other commands. You can insert micro joints by clicking on either the graphics or the compensated trajectory.

Please directly enter the length of the micro joint in the drawing window at the bottom of the interface, and the new parameters will be valid for the following operations after setting.

Except adding the micro joints manually, CypCut also can insert micro joints automatically. Click the “

” button by clicking the small triangle button in the right corner of "Micro Joint",

set the parameters in the popped dialog box, and then confirm it. You can select “adding by quantity”, for example, add ten micro joints to each graphic; or “adding by distance”, for example, insert a micro joint every 100mm.

The graphics may be divided into several parts by “Micro joint”. To modify the separated part alone, click the "Explode Micro Joint" button under the "Micro Joint" drop-down menu. Unclosed graphics after “Micro Joint” operation will be regarded as a separate entity for modification.

"Explode" the micro joint and then you can add the lead line.

To clear the micro joints, select the needed graphics, then click the “Clear” button and choose “Clear Micro Joint”.

CypCut V731 introduced "fly cutting" for micro joint segments. It involves turning off the laser when moving to the micro joint's starting point, moving without laser until reaching the end, and then turning on the laser. There are no acceleration or deceleration processes, and the Z-axis remains unchanged. This method greatly improves efficiency in cutting micro joint section.

9.4 Cooling Point Click the "

" button in the “Home” menu. Set a cooling point by clicking on the

corresponding position in the graphics. When cutting is implemented to the cooling point, laser will be off and blow will be delayed according to cooling point settings in the global parameter. Later,

laser will be on and operate normal cutting. Cooling point is displayed as a white solid point in the drawing board, as shown below:

Multiple cooling points can also be inserted by continuous clicking as well as Micro Joint.

Cooling points can still be added after operating micro joint, compensation and so on.

CypCut offers an automatic cooling point feature in addition to manual ones. To use it, click the "Cooling Points" button and select "Automatic Cooling Points" from the dropdown menu. Set the parameters in the dialog box and confirm. Automatic cooling points can be added at lead points and sharp corners. If added at the end of a lead line, they become part of the line and move or delete accordingly. Also, they are not affected by the "Clear Cooling Points" function.

To delete a cooling point, Shift-click on it. To remove all cooling points, click the small triangle next to the "Cooling Points" button and select "Clear Cooling Points".

Cooling points are often used in corner processing to briefly pause and blow air to cool down the corner, preventing it from burning.

9.5 Ring Cut

After selecting the graphic, click the "

" button on the toolbar to achieve better

sharp corner cutting effect.

9.6 Fillet and Relief

Click the "

" button on the toolbar to convert sharp corners into rounded corners.

Click the "

" button on the toolbar to generate relief angles, which are helpful for the

next bending process.

9.7 Group In CypCut, "Group" refers to combining multiple shapes or groups into a single group. The grouped elements maintain their fixed order, position, and layering within the group. This allows them to be treated as a cohesive entity, unaffected by sorting or dragging operations.

Select the graphics to be grouped, and then click the button “

” to combine them to a

group. To cancel the group, please click the “Group” button, which has changed to “

”. To

explode all the groups on the drawing board, please click the small triangle below “Group”, and then select “Explode Graphics”.

"Ungroup" does not separate individual curves but only breaks apart grouped elements, while "Explode" breaks a shape into individual line segments.

"Joint Path" connects part contours to minimize piercing. To separate them again, use the "Explode Joint Path" option.

If there is a graphic which contains all the other graphics in the group, it is called the outer contour. The “Group” with outer contour will be regarded as a “Part”.

It is recommended to group the graphics which meet the logical conditions of the “part” although CypCut software can group any graphics and operate them as a whole. From now on we may use these two terms “group” and “part” indiscriminately.

Please note that CypCut software will always group the graphics with “Coedges” to ensure the integrity. Furthermore, the result of bridging one “Group” with other graphics or “Groups” must be a “Group” to ensure the integrity.

9.7.1 Sorting of Group

The part will be regarded as a whole when being sorted, and it will be involved in sorting with the outer contour or the first graphic as the basis. The graphic order within the part will not change during sorting.

To sort the graphics in the group without exploding it, select the group, right-click, and then choose “Sort in Group”.

The operation of “Sort in Group” will not change the graphical order of its sub-group. The order of “Sort in Group” only has the relations with the geometrical properties of the graphics, while no relation with the layer to which it belongs. During the sorting, it will distinguish inner and outer mold automatically according to the geometrical containing relations.

9.7.2 Processing of Group

Groups (parts) are processed as a whole during machining, allowing for continuous processing without inserting other graphics. Even if a group (part) contains graphics from multiple layers, they are processed continuously. This rule also applies to pre-piercing in group.

Please sort before processing, because no matter what the graphical order in the part is, the outer contour of the part will always be processed finally.

9.8 Fly Cut When the graphics to-be-cut are regular (such as rectangular, full circle, polygon) with a certain regular arrangement, you can connect the cutting line segment with same direction by scanning to conduct flight cutting, which will greatly improve the cutting speed.

It's recommended to sort graphics before scanning, which can optimize the path of scanning and save move time.

Click the "

" button under “Home” menu (Note: this button functions as

"Circle Fly Cut" when all the graphics in the rule array are circles) or select the "Linear Fly Cut" option from the dropdown menu to set its parameters.

The "Start Position" sets the starting point for scanning cutting. The "Max Smooth Joint" determines that when the turning distance is smaller than the set value, smooth connection can be used. The "Max Spacing" specifies the maximum allowable distance between graphics for flying cutting. If the spacing exceeds this value, flying cutting cannot be set.

For an array consisting entirely of circles, you can click the "Fly Cut" button for the Circular Fly Cut feature. Alternatively, select the "Circular Fly Cut" option from the dropdown menu of the "Fly Cut" button to access the parameter settings.

The "Max Spacing" determines the maximum distance between circles. If the spacing exceeds this value, flying cutting cannot be set.

The "Sort Orders" option enables sorting of circular arcs before flying cutting. When "Fly Cut

by Part" is also selected, the sorting rules are applied for flying cutting within each part.

If you only select "Sort Orders," the shapes will be sorted as a whole before the flying cut is performed.

You can set the overcut distance in the global parameters for better part detachment during the flying cut.

9.9 Coedge It can greatly save processing length and improve efficiency by merging the workpieces with the same edges. In CypCut, when the boundary distance between two graphics is less than 0.1mm, they can use the same edge. Automatic adsorption will drag these two graphics together for

coedge.

Select two or more graphics to be coedged, and then click the button “

” on the toolbar to

perform coedging. If they cannot meet the conditions of coedge, the window “Draw” at the lower left corner of the interface will prompt a message.

At present, CypCut can only coedge the four sides of the graphics, and it cannot coedge the straight lines of the recesses in the graphics.

The graphics involved in coedge will form a “Group” after coedge. If they include other graphics such as small holes, please combine the graphics and all the interior graphics together to form a group firstly, then coedge them; otherwise, the relationship between the interior graphics and the coedged group will become meaningless, and it will be difficult to determine the

processing order and the relations of the internal and external contours.

9.9.1 Coedge Automatic Adsorption

When you drag a shape close to another shape that can be coedged, CypCut will automatically snap them together and provide prompts. This feature allows for easy positioning when dragging two shapes or a group of shapes together.

Once two graphics are dragged together and have the same edges, you can coedge just by selecting them and clicking the button “Coedge”. To disconnect and continue to edit the coedged “Part”, or set their order, please select “Part”, and then click “Degroup” under “Home” menu. You can combine them again using the button “Group” after editing.

9.9.2 Compensated Coedge

To retain kerf compensation after coedging, apply compensation to the shapes before performing coedging. In any case, “Coedge” will keep the processing track unchanged. If the

coedged graphics contain compensation, the compensated track will be retained after “Coedge” and the original will disappear. As shown below.

In fact, in the figure above, the original A cannot be coedged with the graphic B, and only the compensated track P can be coedged with B. Even if you move B to the position near to A, you still cannot coedge them because A is not the track to be processed.

9.10 Bridge To keep multiple parts of a workpiece connected after cutting and minimize piercing, use the "Bridge" function. By utilizing the "Bridge" feature repeatedly, you can achieve a continuous cutting path for all the shapes.

To bridge two graphics, please click the button “

”, and then draw a line on the screen.

And all the graphics intersected with it will be bridged together two by two. As shown below:

Bridge needs to specify two parameters. The first parameter specifies the maximum distance between two adjacent curves, and you can bridge them when the distance between two graphics is less than the specified parameter. The second parameter specifies the width of bridge.

Please note that the graphics will become a whole after bridging. Maybe any part will not be cut before completing the “One-stroke” cutting, so please pay more attention to the heat affecting.

9.11 Array "Array" command can be used to copy an object quickly and accurately. CypCut provides four ways of array.

9.11.1 Rectangular Array

Click "

" button or "Rectangular Array" under “Array” drop-down menu. Parameter

interface appears as shown below.

Set the number of rows, columns, offset and direction to quickly copy the selected graphics, as shown below:

9.11.2 Manual Array

Click "Manual Array", set up the spacing of line and column, and you can designate the area by dragging the mouse to select the graphics for quick array copy. As shown below:

9.11.3 Circular Array

Circular array allows for quick rotation of shape around a central point.

9.11.4 Full Fill Nest

Full fill nest is mainly used for entire board cutting of single graphic, click "Full Fill", the software will quickly perform Full Fill Nest according to given part, parameters and plate. See plate

setting in "Nest" section. The full fill effect is as shown below:

9.12 Batch Modify Use the "Batch Modify" feature to streamline the modification of similar shapes. In the example given, select the shapes, enter the batch editing interface, set the lead lines, and apply them to both shapes simultaneously.

9.13 Layer Parameters CypCut provides 16 layers and every layer can set separately technical parameters such as move speed, laser power, pressure, cut height and so on. The last two layers represent the initial and final processing layers, respectively.

Open the dialog box “Layer Parameter Settings” by clicking the button “

” under “Home”

menu. This dialog box includes almost all the technical parameters required for processing. The

first page is “Global Parameter”, used to control the parameters outside the layers, including motion parameters, default parameters of laser and gas, follow parameters and so on. Other pages in the dialog box display all the current layers. By clicking on each layer, you can individuallyset the process used for that layer.

Note: Different options may be displayed in the dialog “Layer Parameter Setting” due to different laser sources, gas pipeline configurations and height controllers. The above figure is for reference only. Please refer to the actual display in your software for accurate information.

9.13.1 Descriptions of Parameters

The brief descriptions of some parameters in the layers are as follows.

A. Basic Parameters

Cut speed

Set the target speed of actual cutting. There are acceleration and deceleration at the first and last sections as well as the corners of cutting track, so the actual cutting speed is often less than this speed.

Lift height

Set the lift height of laser head after cutting a segment of curve.

Z-axis will lift to a certain height after suspending the cutting, which is also lift height.

B. Cutting Mode

Standard

Cut according to set standard parameters.

Fixed-height cut

Cut with laser head at a fixed height.

Extra-plate follow

When you select this mode, the knife point can be docked off the board. During actual cutting, portion of the laser head outside the plate will stay in the "Reference height", and follow cutting after detecting in the board, which is commonly used for cutting off metal plate.

The setting pattern of "Reference height" : Save the parameters by the path of "CNC"--"BCS100"--"save reference height when follow outside plate", when the laser head move to the appropriate height.

C. Cutting Parameters

Cutting height

Set the height from the laser head to the board during cutting.

Cutting gas

Set the type of auxiliary gas used in cutting.

Cutting pressure

Set the pressure of auxiliary gas during cutting, and use it with proportional valves or multiple valves.

Peak current

Set the peak current of laser source, i.e., diode power. Peak power determines the maximum cutting power that machines can reach. As for a cutting machine with a power of 3000W, if its diode current is set to be 80%, the diode power it can reach during cutting is 3000W *80% = 2400W.

Duty ratio

Pulse frequency

Set the duty ratio of PWM modulation signal.

Set the carrier frequency of PWM modulation signal during cutting, i.e., the laser number within one second. The larger the value is, the more continuous the laser is.

Cut focus

The distance between the focal point and the tip of the nozzle.

Duration

Delay for material penetration in order to achieve more thorough cutting of the board.

Laser off delay

Delay for ensuring complete cutting before laser off.

Piercing speed

Set the speed from piercing height slow down to the cutting height during progressive piercing.

Extra puffing

Set time for puffing with laser off after piercing, to make the plate cool.

D. Other Parameters

Uncut

The layer process is not processed.

Unfollow

Height controller is not carried to follow motion when this layer is during cutting.

Keep puffing

Short move un-lift

Keep puffing during cutting.

After selecting this option, if the move distance between two graphics is less than the value of "Un-lift move distance less than" set in global parameter, then Z axis is not in elevation and directly moves to the beginning point of the next graphics to start processing, after the above graphic completes processing.

Pre-piercing

Before actual cutting, piercing in advance at the beginning point of graphics (or lead starting point). CypCut provides auto group prepiercing. You can select this option in the global parameter. Note: This option is not available with "Cut with film".

Cut with film

You can use it to perform one time cut with film along the cutting path, and then perform normal processing according to layer parameters.

Afterselecting this parameter, "film layer" setting page will appear.

Path cool

After a single graphic normal processing, process one time with laser off and puff on along the original track, to accelerate parts rapid cooling andreduce the impact of thermal expansion and contraction effect on the accuracy of the workpiece. After selecting this parameter, "Cool layer" setting page will appear.

E. Slow Start

Start length

Set the length of slow start, to prevent cutting thick plate without completing at the beginning.

Start speed

Set the speed of slow start

F. Power curve

Adjust

Customize the power/frequency curve. During processing, the

power/frequency in

system will adjust the laser power (duty ratio of PWM signal) and

real time

frequency in real time according to the curve, which is of great help to optimize the cutting quality of corners. Note: If you choose to adjust the frequency in real time, you must also choose to adjust the power in real time.

9.13.2 Dynamic Power and Frequency Adjustment

After selecting “

”, the duty ratio and frequency will vary with

the changes in speed during cutting, and the specific changes are determined by power and frequency curve. You can click “

”button to edit power and frequency curve.

As shown above, the X-coordinate of power / frequency curve represents cutting speed, while the Y-coordinate represents cutting power / frequency, with a unit in percentage. You can add power points corresponding to the respective speeds and select the curve smoothing pattern. You can also click “

” to copy the power curve as frequency curve. This table

shows the required power/frequency reduction when cornering speed drops to a percentage of the

target speed. Note: Adjusting frequency in real-time makes sense only after selecting “Dynamic Power Adjustment”.

For example, if the laser power is 500W, cutting speed is set to be 100mm/s, peak current to be 90% and cutting power to be 80%, when the actual cutting speed drops down to 29mm/s, the power of laser source is as follows: Laser power X Peak current (percentage) X Cutting power (percentage) X Speed following power (percentage) =500W X 90% X 80% X 79.00%= 284.4W However, the power cannot be less than a pre-set minimum value. Generally, it is set to be 10%, i.e., 500W * 10% = 50W. If “

” is not selected, the power will remain unchanged in the

cutting process. Referring the above example as a reference, the power in the cutting process is as follows: 500W X 90% X 80% = 360W

9.13.3 Layer Setting

You can lock or display a particular layer according to prompt by clicking drop-down triangle button of "Layer" under “Home” menu. If there are multiple layers when import DXF files, please click the "DXF Layer Mapping" to see the number of layers and the corresponding graphics. As shown below:

9.13.4 Lead Slowly

When processing thick stainless steel, perforation generates a plasma cloud that absorbs laser energy and reduces cutting ability. To address this, a special lead-in technique is used. After perforation, the cutting head blows away the plasma cloud at a higher position, while horizontal processing compensates for airflow loss by reducing speed. This ensures the material is cut through.

When cutting thick plates, lead parameters can be set separately in the layer parameters, including cutting speed, lead height and stable distance.

Lead line cutting procedure:

1. Execute a piercing action at the starting point of the lead line.

2. After piercing is completed, raise the tool to the height of the lead line.

3. Gradually lower the Z-axis to the cutting height while using the XY-axis to perform slow-speed cutting at the lead line's stable distance position.

4. Start cutting the desired path after cutting stable distance at the cutting height.

9.14 Nest Nest function is used for reasonably arranging given parts on the plate. CypCut not only supports nest with one key, but also provides a number of optimization parameters for fine adjustments, such as: Gap, Plate Margin, Rotate Angle, Auto coedge, Create remnant and so on.

Click "

" button in “Home” page or “Nest” page to achieve this function.

9.14.1 Nest Operation

After clicking Nest, the software shows a sidebar on the left with part library, plate library, and nested plates.

The part library shows part thumbnails for nesting. You can add parts by right-clicking on a selected shape and choosing "Add to Part Library," or by right-clicking in the left sidebar and selecting "Import Part." The part library supports up to 50 types of parts. Additionally, right-clicking in the left sidebar allows importing standard parts, deleting all parts, and saving un-nested parts.

The plate library shows types and quantities of plates. You can add plates by right-clicking on a selected shape and choosing "Add to Plate Library," or by using standard plates. Also, rightclicking in the left sidebar allows deleting all plates or saving them to a file.

Nested Plates shows the automatic nesting results. It indicates in the thumbnail if a material

has been processed or if the nesting results have been modified. The current algorithm supports a maximum of 20 plates for nesting.

For automatic nesting, parameters need to be set. "Parts Gap" determines the minimum gap between parts. "Plate Margin" specifies the border around the parts on the plate. "Nest Strategy" determines the algorithm used for calculating the nesting results. Currently, only the array strategy is supported.

In detailed settings, you can adjust rotation angle, layout direction, common edge, and remnant settings.

9.14.2 Nesting Report Preview

Right-click on the nested plate in the left sidebar, select "Report Information" to set layout and pricing details. Then, right-click again and choose "Generate Report" to open the process interface.

Set basic processing information for price estimation, and view the report. Refer to the image below:

9.14.3

Auto-switch to Next Sheet for Nesting After opening NRP or NRP2 (processing tasks generated by CypNest nesting software), all the nesting results will be listed on the left side, along with the number of completed and required processing cycles. The completed count increases by one after each processing cycle. Once the required number of cycles is reached, it automatically switches to the next drawing.

Supported version: CypCut V712.6 and above.

9.15 Sorting and Path Planning Most of the path sorting functions can be found in the "Sort" section of the toolbar. As shown below:

As for the rules of group sort, please see the chapter “Group”. It is recommended to select “Grid Sorting” if there is no special requirement.

9.15.1 Order Preview

You can preview the processing order by dragging the progress bar “Graphical Order Preview” or clicking the button “

”. The figure below demonstrates a screen when previewing the parts.

The order preview is fully interactive and it can be more easily controlled than simulation processing. You can zoom in and preview the desired location in detail. All the move paths will be shown by clicking the button “

” under drop-down triangle button of "View" on the common

toolbar to look over the whole processing order.

9.15.2 Manual Sorting

To fine-tune the results of the automatic sort, you can use the manual sorting. Firstly, select the graphics to be adjusted, and then click the buttons in the icon “ of the four buttons from left to right are as follows:

”. The functions

Note: no matter how you move the graphics, their order can only change in the layers to which they belong. The overall order between the layers can be adjusted in the dialog box “Layer Parameter Settings”. See the chapter 9.13 “Layer Parameters”.

Click "

" to view the previous/next shape in the current sorting order.

Except fine-tuning, the manual sort can be performed more intuitively through “ManualSorting Mode”. Enter the “Manual Sorting Mode” after you click the button “

” on the left toolbar of the

main interface. The move path and the digital display of the graphical order will be opened automatically. Click on the shapes one by one to set the processing sequence. If you click in the wrong place, simply click again or right-click to cancel. To adjust the order between two shapes, click and drag the mouse from one shape to another in a straight line. See the figure below.

9.15.3 Partition Sorting

After completing sorting the order of one part, to fix it, you can select the graphics needed to fix the order and then click “Group”. After that, the order between them will maintain unchanged.

Besides, the subsequent manual sorting and automatic sorting will not influence the interior of the

group. After grouping, all shapes within the group will be processed consecutively, without interruption from shapes outside the group.

To perform automatic sort for part of the graphics without influencing other parts, you can also complete it through grouping. Select the graphics to be sorted, right click “Group”, and then select “Sort in Group”.

10 Work Control CypCut is a software that combines design and machining control. You can prepare all the shapes and parameters separately from the machine. Once the design is complete, you can save the file and open it on the machine for cutting.

10.1 Coordinate System The “Model Coordinate System” used in the graphical design has no relation with the machine, and its zero point is marked by “

” on the screen. However, the coordinate system used in the

processing is related to the operating status of the machine. The correspondence of these two coordinate systems is shown as below.

The positional relation between the graphics and the machine tool breadth will be displayed on the screen after you click the button “Preview” on the console.

10.1.1 Mechanical Coordinate System

The mechanical coordinate system is uniquely determined by the machine structure and the machine parameters. At any time, all the coordinate systems set through “Go Origin” are consistent with each other. You can reset the mechanical coordinate system by clicking “Go Origin” in the “CNC” page after completing the initial installation or when the mechanical coordinate system deviates abnormally.

No matter which kind of mechanical structure is used, the definitions of CypCut for the coordinate systems are always consistent with each other. All the moves are that of the laser head relative to the workpiece. If the laser head is rightward, it is X positive direction; however, if the laser head is backward, it will be Y positive direction. That is to say, the lower left corner of the workpiece (steel plate) is the minimum coordinate, while the upper right corner is the maximum coordinate.

10.1.2 Program Coordinate System

Because the coordinate system of machine tool is fixed, workpiece coordinate system is needed for convenient use. The direction of each coordinate axis of all the program coordinate systems in CypCut is fully consistent with the machine coordinate system. Only the zero point of the coordinate system is different, which is called Program Zero Point. The program coordinate system is divided into the floating coordinate system and the workpiece coordinate system.

The button at the top of the console can be used to select the program coordinate system, including "Floating Coordinate System", 9 “Workpiece Coordinate Systems” and 1 “External UCS”.

Usually, the floating coordinate system is used for informal processing, and it can be considered that “Where the laser head moves, it will start to work from there”. The zero point of its coordinate system is automatically set as the current position of the laser head when users click “Walk”, “Dry Cut” or “Work”.

When selecting the workpiece coordinates 1~9, its zero point will be set manually through “Set the Current Point as the Zero Point”. Once set, it will be saved until you reset it next time. Thus, the workpiece coordinate system is suitable for bulk production, and its location is generally decided by the fixture. It can be maintained that every processing will be performed in the same position of the machine by using the workpiece coordinate systems 1~9.

Click status bar "

"at the bottom. You can choose to "Show

Mechanical or Program Position". You can also set zero here of the two coordinates. If you select "coordinate positioning", laser head will be positioned to a specified coordinate position.

10.1.3 Searching Zero Point after Exception

Case one

You can click directly “

” to go to the zero point if the processing is interrupted only

due to the exception of external equipment such as the laser source and auxiliary gas device without any coordinate system offset.

Case two If the mechanical coordinate deviates due to suddenly power failure or servo alarm, it is recommended to perform “Go Origin” and reset the mechanical coordinate system, then click

“

” to find the zero point.

Case three If processing is forcibly interrupted, but the start button was mistakenly pressed, you can find the previous zero point of the last processing by selecting 'Memory Zero Point' from the dropdown menu under the mark coordinates in the control panel, and then clicking 'Go Marker'. Supported in CypCut V731 and above versions.

10.2 Alarm CypCut will monitor all the parts during the running of the machine. If an alarm is detected, it will display immediately the alarm in red title bar and take measures such as stopping the motion.

Before the software alarms are removed, many operations will be forbidden, and please check the machine and operation again after the alarms are canceled. One example of the alarm is as shown

below.

Except the title bar, the “Alarm Window” at the lower left corner of the interface can also display the alarm information. After the alarms are removed, the red display will disappear, however, the information in the “Alarm Window” will be retained. You can look over all the history by double clicking “System Window”.

In addition to alarms, CypCut displays other operational abnormalities in the "System" window with different colors based on their severity, including warnings, reminders, and messages. These won't stop the machine but it's important to promptly check the software for any displayed messages and take necessary actions early on.

Alarms can be automatically or manually cleared. Check the option to manually clear all alarms under "Process-Global Parameters" in the bottom right corner.

Here are some limitations associated with certain alarms: 1.

After an emergency stop, the servo enable is cut off to prevent unintended power supply.

2.

The alarm of height controller prohibits XY movement (Note: The status of the Z-axis is unclear, and there is a risk of collision during XY movement).

3.

After an emergency stop, the Z-axis is also disabled from moving (entering a complete stop state).

4.

Z-axis lower limit alarm prevents jogging or rapid movement (similar to point 2, to prevent collision).

5.

After the height controller alarm, it can be configured to require manually clicking the 'Allow Axis Movement' button to resume movement

Instructions for use (Version support: CypCut V731 and above): 1.

Check the "BCS alarm must be acknowledged" and " Force enable manual reset" options in the "Alarms" tab of the platform configuration tool, and save the settings.

2.

If a height controller alarm occurs, you will see "

Axis Movement" and "

Reset" buttons at the bottom right corner of the interface. Click the " button to control the machine movement.

Alarm

Axis Movement"

10.3 Manual Testing The functions of the manual control on the console are shown in the following figure:

The button with the icon“ Press the button “

”will become“

”after the corresponding equipment is opened.

”to turn on the laser, and release to turn off. The other buttons

toggle on when pressed and do nothing when released. Taking button “

” as an

example, blowing will start after pressing the button, and stop after pressing the button again.

According to different laser sources,

the"

button and this state is read from the laser source. "

" may become “

” after pressing the

" activates the laser source to

emit red light.

Note: all the button actions need the support of the corresponding parts on the machine. If the machine is not equipped with these parts, or the platform parameter configuration is incorrect, some buttons may become invalid.

The current position of the machine tool can be recorded by clicking “

”, and the

machine can return to the previously recorded position by clicking “

” if required later.

Six positions can be recorded in total and they will be selected through “

”.

10.4 Soft Limit Protection To protect the machine, CypCut is installed internally with the soft limit protection, which can be turned on and off through the option “

” on the console. It is enabled

by default.

After the soft limit protection is enabled, if the software detects that the motion may exceed the travel range, it will prompt “Motion is Out of Range”, and will not issue any motion commands to avoid the possible hits. At this moment, please check the positions of the graphics and the machine to ensure that there is no mistake before operation.

Apart from this, the software will also monitor the machine coordinates in real time during motion. Once they are beyond the soft limits, the software will alarm and then stop all the motions.

Note: the soft limit protection depends on the machine coordinate system. If the coordinate system is not correct, the protection will also be incorrect. Thus, after the operations such as abnormal close of the system and modification of the machine parameters, users need to build the correct machine coordinate system through the operation “Go Origin”.

10.5 Frame The laser head will dry cut a rectangle along the frame of the graphic to-be-processed by clicking the button “

” on the console, so that you can determine the approximate size

and position for processing the sheet. The speed of walk can be set in the “Layer Parameter Setting” – “Global Parameters” – “Walk Around Parameters”.

Note: If you operate “Edge Seek” before framing, the software will record the Edge Seek results.

The laser head will move along the inclined rectangle during framing. That is to say, move along the actual frame which is corrected by the “Edge Seek”. See the Chapter“Edge Seek” for the details.

10.6 Processing and Dry Cut

You can start processing by clicking the button “

” on the console. During

processing, the monitoring screen is displayed as below. It includes the information such as the coordinates, the speed, work time, follow height and so on.

When displaying the screen above, it cannot be switched to other pages of the toolbar, in order to prevent from modifying the graphics during processing. However, the menu “File” can stillbe used.

To modify the parameters during processing, please pause firstly, and then click the button “Layer” on the right toolbar of the interface. In CypCut V731, you can modify Layer parameters during processing, and they will apply to the next trajectory.

You can perform dry cut by clicking the button “

” on the console. The difference

between dry cut and the actual processing lies in that dry cut can select whether to follow without

laser or gas. However, all the running tracks, including the move, speed, process of acceleration and deceleration of “Pre-piercing”, are exactly same to the actual processing. You can also perform the same operations of pause, continue, forward and backward. Besides, the breakpoint memory after stopping is identical to that of the actual processing. Furthermore, you can modify the parameters after pausing, and then continue dry cut. Thus, dry cut can be used for the comprehensive inspection and simulation of the whole processing without cutting.

To open “Follow” during the dry cut, please select “

” in“Layer Parameter

Settings” – “Global Parameters” – “Follow Parameters”. By default, it will not open “Follow” during the dry cut.

By default, it will return to the zero point automatically after completing the processing. To return to other positions after processing, please select the needed position on the console. The supported positions include zero point, start point, end point, origin point and record point.

Cancelling “

” is equal to returning to the “End Point”, that is to say, the

laser head will not move after the processing. If you use the “Floating Coordinate System”, it's recommended to return to the zero point after processing. To return to record point after the

processing, please select “Recording &1” and confirm it.

Every time when the processing is finished, the process count on the console will add 1, and when it reaches the preset times, a dialog box will be popped so that you can control the production.

You can open “Auto Pause” interface to control piece management and auto pause by clicking the button “ corresponding parameters.

”. For loop work, please click the button “

” to set

10.7 Stop, Pause and Resume

To stop the processing, please click the button “ button “

” on the toolbar during processing or the

” on the console. After stopping, the machine will return to the zero point. If

you do not hope to go back to the zero point, please cancel the selection of option “

” on the console.

To pause the processing, please click the button “ the button “

” on the toolbar during processing or

” on the console. After pausing, you can click the "Technic" button on the

right toolbar to modify the parameters, and you can also operate the functions of the manual control part on the console, including laser pointing, switching gas, switching follow, etc.

To continue to work, please click the button “ button “

” on the toolbar during processing or the

” on the console. Click "Non-piercing Rapid Continue" to skip piercing and

continue machining.

During the pause, click the button “

” or the button “

” so that the

machine can move backward or forward along the processing track. The distance and the speed of every motion can be set through the button "

" on the console.

10.8 Breakpoint Memory If the processing stops or suspends due to accidents, the software will memorize the breakpoint. As long as the graphics or the parameters are not modified, if you click “

”,

the software will automatically locate to the position where it stopped last time; If you click “

”, the software will continue to process from the position where it stopped last time.

If you change the corresponding parameters after stopping, the "*" will appear behind “Start” on the console. When" used.

"appears, functions of “

” and “

” can't be

10.9 Processing from Any Location CypCut supports the function to start processing from any specified position. Users can rightclick the location desired, and then select “Processing from Here”. As shown below.

For safety reasons, the software will pop-up a dialog box to reconfirm after selecting “Processing from Here (F)”. After confirmation, the laser head will move to the location you specified and then start processing from there, and the tracks in front of the specified location will not be processed.

If you want to first position it to the specified location but do not start processing, please select “Positioning Here”, so that the cutting head will move to the specified location and then go into the suspended state.

Right-click the place for many times and select “Positioning Here”, until the operation is confirmed. You can also conduct positioning in a more precise manner through “ “

”.

” and

10.10 Global Parameters Some movement control parameters are provided in the tab “Global Parameters” of the dialog box “Layer Parameter Adjustment”. The adjustment of these parameters will influence the smoothness of mechanical running as well as processing effect and efficiency.

Some parameters of tab “Global Parameters” are listed below.

Motion control parameters

Move speed

Speed during moving (not cutting speed).

Move acceleration

Maximum acceleration of each axis during moving, used in conjunction with move speed.

Move

low-pass

The acceleration jerk during moving, in conjunction with move

frequency

acceleration.

Frame speed

Speed of framing.

Processing

During trajectory machining, the maximum acceleration of each axis

acceleration

is used in conjunction with the processing speed.

Processing low-pass

Acceleration jerk in machining is used in conjunction with

frequency

processing acceleration.

Default parameters

Pulse frequency

Carrier frequency of PWM modulation in laser pulsing

Peak power of laser

The peak power of laser pulsing.

pulsing

Default pressure

Air pressure used in manual mode

Gas delay

During piercing, the delay time used by the "gas delay" in the PLC (programmable logic controller) step

Initial gas delay

Based on gas delay, additional delay time for initial air blowing after the start of processing

Air exchange delay

Delay time for complete evacuation of the old gas and full introduction of the new gas during gas replacement.

Cooling point delay

Blow cooling time at the cooling point.

Distance of rollback

Automatic rollback distance on the machining path after resume

after pause

Follow control parameters Directly

follow

maximum height

Each type of cutting head has a maximum followable height limit. When it is necessary to follow above this height due to piercing or other requirements, the Z-axis movement is divided into two steps: first, it follows to a position close to the surface of the plate, and then it lifts up. This parameter is used to set the maximum followable height.

Frog style lift

The Z-axis is not fully lifted, and the X, Y-axis start to traverse in order to reduce the travel time during non-cutting movements.

Enabling follow mode

During non-cutting movements, the Z-axis remains stationary by

during

non-cutting default. However, users can enable follow mode for the Z-

movements axis if desired.

Disable follow mode

Enable follow mode during regular machining, with the option to

during processing disable it if not needed.

Enable

positioning

Applicable for non-metal cutting. When selected, following is

without following disabled, and it functions solely for positioning purposes.

Maximum

allowable

If the option "no lift on short distance" is selected in the layer

non-lifting

move

parameters, the height controller will not perform raising

distance for short

duringrapid movements when the moving distance is shorter

distances

than this value. Instead, it will remain in a follow mode.

Unit selection

Choose the units of parameters based on usage habits.

Advanced parameters NURBS

spline

Enabling adaptive NURBS spline interpolation improves machining

interpolation speed and graphic smoothness.

Perforating removing the film

and

All alarms need to be

Alarms require manual reset for clearance

manually cleared

Machine protection

Hide parameters that can affect the machine's lifespan.

Accuracy

Accuracy of node selection for kerf compensation curve.

of

kerf

compensation

Overcut distance in fly cutting

Distance to ensure smooth cutting of the graphic in fly cutting.

11 NC Auxiliary Function 11.1 Analog Processing After all the sorting of patterns is completed, you can simulate the processing of entire document through simulation. The simulation process allows not only the visualization of the sequence between graphics but also the visualization of the machining process within each graphic.

Click "

" button to start simulation, and the toolbar will automatically change to the

"CNC" page. You can adjust the analog processing speed in the first column of “CNC" page, as shown below.

11.2 Edge Seek CypCut software supports “BCS100 edge seek”, “Infrared edge seek” and “Manually edge seeking”. Click the "Edge seek" drop-down triangle button to choose the optimal method for determining the placement position of the sheet material. Seek results will be displayed in the top right of the drawing area, as shown below.

11.2.1 BCS100 Edge Seek (Enabled in Platform Configuration)

Click “

” button under the "CNC" page or click "BCS100 edge seek" to enter the edge

interface.

Width refers to length of plate in the X axis direction. Length refers to length of plate in the Y axis direction. The coordinates of the last two points in the three-point edge seek are automatically calculated based on the sheet material size. Please ensure that this parameter matches the actual size of the sheet material being detected. It is recommended to set it slightly smaller than the actual size to avoid the risk of crashing.

Plate Margin: The edge detection typically identifies points outside the sheet, which are then adjusted inside using the edge correction value. Setting a positive margin distance further offsets the points inside, while a negative value offsets them outside. This prevents jitter during cutting near the sheet edges. If you have already set a margin distance during nesting, you can set this value to 0.

6-Point Find Edge: For thin sheets, it is recommended to use 6 single-point edge detection to avoid interference caused by tooth during edge detection.

To ensure consistent starting points for each edge detection, use the "Start from preset start point" function. Use the controls on the right console to position the cutting head to the starting point and save it. Make sure the cutting head is inside the sheet when setting the starting position.

Start edge detection from the current position of the cutting head. Make sure the cutting head is inside the sheet before initiating edge detection.

If you choose "Automatic Edge Detection before Machining", the software will perform capacitive edge detection based on the graphic docking point before moving or machining begins.

Note: Before performing edge detection, please return to the reference point to correct the machine coordinate system. Also, make sure the cutting head can follow properly before initiating edge detection. The tilt angle of the steel plate should not exceed 10 degrees.

The edge detection interface is shown in the following diagram. You can perform a manual edge detection test after setting the parameters in this interface.

Click on the "Detailed Settings" in the bottom left corner to adjust the relevant default parameters. Please use caution when modifying these values, and it is recommended to use the default settings.

FindEdge speed has an impact on the edge finding accuracy, the recommended value is 100mm/s; FindEdge height is the height that the cutting head follows during the edge finding process, and the recommended value is 4mm; Correction is used to correct the edge-seeking result, and a positive number indicates that the laser head will be offset to the inside of the board; Rack difference is the interval between adjacent racks.

11.2.2 Infrared Edge Seek (Enabled in Platform Configuration)

At present, “Infrared Edge Seeking” function requires matching with Omron E3Z-L61 model switch.

Before the first edge seek, the offset value of the photoelectric switch and laser center should

be determined and set in advanced parameters. Before the actual edge seek, please make sure to move the cutting head to the nearby stopping point (among upper left, lower left, upper right, lower right) as the starting position of edge seek.

“Infrared Edge Seeking” needs to set some parameters. Coarse Locate Speed is the speed of coarse positioning during edge seek, and the recommended value is 100mm/s. Precise Locate Speed is the speed of precise positioning during edge seek, which will affect the accuracy of edge seek, and the recommended value is 10mm/s without exceeding 30mm/s. The smaller the precise positioning speed is, the longer the time of edge seek is and the higher positioning accuracy is. Plate size and correction value is similar to "BCS100 edge seek".

The deviation between the photoelectric switch and the laser head can be corrected, and the rack interference can be filtered by setting advanced parameters.

You can set the following parameters: “Offset Value" is the deviation between photoelectric switch and the laser head position. After setting the "Offset Value", the software will automatically set this parameter without manually modifying. "Brace Bar Thickness" can filter out the interference of rack on Infrared Edge seeking. It is recommended to set the value consistent with the actual rack space.

"Set edge height" applies to the case of the photoelectric switch fixed in the cutting head. Users can adjust the position of the photoelectric switch thorough jogging height controller. You can read this height through "Set as the current height". When the edge seek is opened each time, height controller will move to this height. In addition, it can also move to this height by "positioning". "Fixed height edge seek" applies to the case of the photoelectric switch without being installed in the cutting head.

Note: Plate tilt angle should not exceed 40 degrees.

11.2.3 One-click Cut (Enabled in Platform Configuration)

Enabling it shows the "One-click Cut" option in the edge finding dropdown menu, used for quickly cutting off excess material along the X or Y axis.

Safe Entry Distance: When the motion exceeds the safe entry distance, the Z-axis transitions from fixed-height cutting to follow cutting.

One-click Cut in X Direction (Left-Right): After clicking this button, the X-axis first performs edge finding to the left to locate the board, then cuts into the board up to the cutting starting point. After that, it performs edge finding to the right and cuts into the board again up to the cutting starting point.

Note: When performing the cutting, use the process parameters specified for the green layer.

11.3 PLC Process

Click the "

" button under the "CNC" page, you can customize the PLC process and

execute them.

Note: Improper modification may lead to serious consequences! Please contact us if necessary.

11.4 Go Origin 11.4.1 Return to Origin

You can click the "

" under the "CNC" page or select "All axis" under its drop-down

menu to make laser head return to mechanical origin and reset the machine coordinate system.

See " Coordinate System" for details. You can also select "X only" or "Y only" under drop-down menu to make a single axis separately return to origin. If you select "Z axis first" or "Auto-focus included" when returning to origin, the corresponding actions will be performed accordingly.

11.4.2 Gantry Synchronism

During using a dual-drive gantry machine, the beam may become crooked after a period of operation due to various reasons, such as the unparallel installation of two Y axes, friction and load, which will affect machining accuracy. Gantry synchronism function can judge and automatically adjust the vertical position of the beam by recording and monitoring Z signal of Y1 and Y2 axis when go origin.

Click the drop-down triangle of "Go origin" on the "CNC" Page and select "Gantry initialization", as shown below:

Select “Execute gantry synchronism when return to origin" after completing "Gantry initialization", and enter the password. Related compensation information will be displayed in the prompt window.

Note: Make sure re-execute "Gantry initialization" after adjusting machine.

11.5 Optical Adjustment

During processing, if you need to locate the cutting head to a specific point, click "

"

button on the "CNC" Page and input the coordinate, as shown below.

You can also set the laser interferometer on the adjustment interface of optical path to test error between the movement position given by the software and the actual mechanical, thereby performing mechanical error compensation, also known as pitch compensation.

11.6 Diagnosis

Click the "

Diagnosis " button in the File menu and select Control Card Monitoring to check

the status of each part during cutting and identify any issues.

Motion axis shows each axis signal and the corresponding encoder feedback value; Pulse test is used to send fixed pulse to single axis, in order to test the accuracy of pulse equivalent. Limit

signal is used for displaying whether the cutting head hits limit. PWM is used to show the situation of laser switch. The valid situation of 8 inputs and 16 outputs are also shown.

"Encoder Detection" verifies the alignment of encoder feedback and motor rotation direction.

Functions such as micro-jogging, scanning cutting, edge finding, and one-click cutting rely on consistent encoder feedback and motor rotation.

11.7 BCS100 This function must be used compatible with our height controller BCS100. By clicking "

", you can operate many actions in the software, such as Return to Origin, Follow, Absolute Positioning and One Key Calibration. And you can also operate via BCS100 monitoring interface without needing to manually interact with the physical device, which is convenient and quick.

11.8 QCW There are two modes of laser source: CW and QCW. CW is continuous laser, and QCW is pulse

laser. By clicking "

" button, you can set optical parameters.

11.9 Deviation Measurement

When click "

", the cutting head will move along the graphics to be processed. After

that, a blue dotted line will appear to show the trajectory of the servo motor feedback. You can adjust process parameters required for the actual cutting according to this trajectory.

11.10 Clean Nozzle (Enabled in Platform Configuration) Select "Cleaning Nozzle" from the left side list in the platform configuration tool and check the box

. Then, the CNC module will add a "Clean Nozzle" option. Click it to

access the Clean Nozzle interface.

Operating instructions: Jog the Z-axis to a suitable position and click "Brush Top Z." During the nozzle cleaning process, you can choose whether to enable gas and select the gas parameters.

Choose a movement pattern for the nozzle cleaning: straight line, circle, or wavy line. Adjust the parameters below, and save it in the bottom left corner. Click "Start" to begin the nozzle cleaning process.

12 Appendix 12.1 Co-Edge Case Now we demonstrate edge-shared nesting by taking the actual sample of a customer as an example. The manual drawing of the customer using CAD is as shown below.

In the drawing, unclosed graphic is shown in red. All the graphics in the drawing are straight line requiring co-edge.

It can be seen from the figure that the original drawing consists of 10 narrow parts below 6 large parts and narrow workpieces (9x2=18) at right, exactly occupying the space of a steel plate.

We now first draw 3 parts in the original drawing, and generally the 3 parts are all from the DXF drawings of customers. As shown below:

Step 1: First select all graphics of each part, and respectively implement “Group”. After grouping, the outer contours of parts will be shown in bold.

Select Part 1, and then make an array with 3 rows and 2 columns. As shown below.

Select the 6 arrayed parts, and complete co-edge for the above 6 parts by clicking “Co-edge”.

After dragging Part 2 to the position close to the top right position of the above figure, the parts will be automatically adsorbed to the boundary of Part 1 and become top aligned.

Select Part 2, make an array with 2 rows and 9 columns.

As shown below, you can select all 18 Part 2 by pulling out a pale blue box from the upper left

corner of Part 2 to the lower right corner, while Part 1 will not be selected.

You can complete the co-edge of 18 Part 2 by clicking “Co-edge”. Please note that the processing order of Part 2 must be from right to left, or steel plates will jitter or even deviate due to the lack of support.

Select co-edge Part 2, right click to select the right-to-left sorting from the pop-up menu. As shown below:

Some users may ask why the co-edge needs to be conducted after dragging Part 2 to the boundary of Part 1. They think that it is difficult to conduct selection.

In fact, the order can be exchanged. Here we first co-edge Part 3 and then drag it to the position below Part 1.

Select Part 3, make an array with 10 rows and 1 column, and then get the following figure.

After selecting 10 Part 3 and clicking “Co-edge”, they are co-edged and become a whole. As shown below. Please note that the thickness of the lines is different. Each Part 3 has a bold outline border before co-edge. The whole has a bold outline border after co-edge, and the co-edged line segments in it are all shown in thin lines.

When the mouse is suspending above Part 3, corresponding prompt will be displayed, showing that it is a combination.

Similarly, we need to conduct a sorting for Part 3 from bottom to top, so as to prevent the steel plates from jittering and deviating due to the lack of support.

When selecting the overall Part 3 after co-edge and dragging it to the lower left of Part 1, the parts will be automatically adsorbed to the boundary of Part 1 and become left aligned. As shown below:

Next, select all the graphics to co-edge Part 1, Part 2 and Part 3.

If you do not want to co-edge Part 2 and Part 3 with Part 1, this step can be omitted. Of course, Part 2 and Part 3 should be slightly dragged from the boundary of Part 1.

To prevent automatic snapping when dragging the graphics away from the shared boundary, you can temporarily disable it by pressing the spacebar. It will automatically reactivate the next

time you drag.

12.2 Operation Instructions for Gantry Synchronization

12.2.1 Platform Configuration

To enable gantry synchronization, go to the platform configuration tool

1.

Platform Configuration Tool -> Machine -> Check "Dual Drive" option.

.

2.

Platform Configuration Tool -> Go Origin -> Enable "Z-Phase Signal" .

3.

Platform Configuration Tool -> Alarm -> Enter the value for "Gantry Deviation Tolerance".

If the gantry beam is severely impacted or distorted, resulting in a deviation exceeding the specified value, it is important to inspect the mechanical components. Adjust the value accordingly based on the actual condition of the machine tool.

12.2.2 Gantry Initialization and Synchronization

To ensure the proper functioning of the gantry synchronization, please confirm the following before initializing the gantry:

1.

The machine tool's gantry beam has been properly aligned and corrected.

2.

The machine tool is capable of moving correctly and in the right direction.

3.

The configuration of the home position signal is correct and valid, allowing the smooth home position process.

4.

Ensure that the Z-phase signal interface of the 15-core cable is correctly soldered (Pin 5 corresponds to Z+ and Pin 13 corresponds to Z-).

5.

Verify that the encoder feedback pulse count is set correctly. You can manually send pulses in the diagnostic window to observe the encoder feedback for testing purposes.

Enter the software, click on the "CNC" tab, and then select "Initialize dual-drive gantry" from

the dropdown menu under "Go Origin", as shown below:

After entering the password and confirming, the machine tool will return to the home position.

Then, the gantry axis will move in the positive direction to locate the two Z-phase signals. Once the action is completed, the system message window at bottom will display the position of the Z-phase signals and the Z-phase signal difference between the two axes (Y2-Y1 offset).

After completing the gantry initialization, check the option "Initialize gantry when return origin" and enter the password to confirm.

When executing the " Go Origin" or "Y-axis (Go Origin)" process with this option selected, the Z-phase signal values of the Y1 and Y2 axes will be detected. The deviation will be calculated and

compensated for. The Z-phase signal and the compensation value (Y2 compensate) will also be displayed in the system message window.

12.2.3 Precautions

1.

The Z-phase signal must be enabled in order to use this function.

2.

It is essential to perform a reinitialization after adjusting the machine tool mechanics.

3.

The gantry synchronization may become inaccurate when the beam experiences a significant collision resulting in a visibly substantial change in verticality. In such cases, it is necessary to adjust the gantry axis mechanics and perform a reinitialization.

12.3 BCS100 Edge Seek

Starting from version CypCut 6.3.712, the BCS100 seek feature has been enhanced. It now includes advanced parameters to mitigate the impact of the rack on edge-finding accuracy, resulting in improved precision. The enhanced BCS100 seek feature requires the use of the Height Controller V3.0.3299 or later versions. The older version, Height Controller V2.0, does not support this function.

12.3.1 Platform Configuration

Open the platform configuration tool, click "Edge Seek" on the left side of the interface to enter the parameter setting interface, and check "Enable BCS100 Seek".

12.3.2 Single-point Edge Finding

Leftward edge finding process without using the leapfrog function:

1.

The cutting head follows the steel plate and starts leftward edge finding.

2.

The cutting head moves up by a lift height.

3.

The cutting head moves rightward to the boundary point.

4.

The cutting head lifts up to the docking point.

5.

The edge finding process ends.

12.3.3 Three-point Edge Finding

Take the docking point at the bottom right as an example:

1.

Enter the size of the sheet. The values should be consistent with the actual sheet size or slightly smaller.

2.

Move the cutting head to the lower right corner area inside the sheet.

3.

The software will determine the edge finding positions A, B, and C based on the current position of the cutting head, sheet dimensions, and other parameters. Position A corresponds to the current location of the cutting head.

4.

Perform the first edge finding in the negative Y direction and locate point X1.

5.

Move to point B.

6.

Perform the second edge finding in the negative Y direction and locate point X2.

7.

Move to point C.

8.

Perform the third edge finding in the positive X direction and locate point Y1.

9.

Complete the edge finding process. Calculate the rotation angle θ and determine the bottom right vertex O of the sheet. Move to vertex O. The edge finding results will be displayed in yellow font on the top right corner of the page.

12.3.4 Edge Seeking Precautions

1.

Go origin and correct the machine coordinate system before edge detection.

2.

Ensure that the actual number of pulses sent by the diagnostic interface matches the feedback from the encoder. If they don't match, modify the servo-related parameters.

3.

Set the values for the length and width of the steel plate to match the actual values.

4.

The tilt angle of the steel plate should not exceed 10 degrees.

5.

Before edge detection, the docking point for machining needs to be set to the top-left, bottom-left, top-right, or bottom-right. Otherwise, edge detection cannot be performed. The position of the docking point determines the direction of edge detection.

6.

Before edge detection, move the cutting head inside the plate as the starting position for edge detection.

7.

Before edge detection, ensure that the cutting head can follow the movement accurately.

12.4 Operating Instructions for Photoelectric Edge Seeking Versions after CypCut 6.3.642.6 have perfected the function of photoelectric edge seeking.

This function is available if equipped with the Omron E3Z-L61 photoelectric switch.

12.4.1 Brief Introduction

1.

Effective working range: 90±30mm.

2.

Mounting thread: M3.

3.

Action modes: L indicates that the orange indicator light is on when the photoelectric switch has a signal output, while D indicates that the orange indicator light is off when the photoelectric switch has a signal output.

4.

Sensitivity adjustment knob: Rotate this knob to change the sensitivity of the photoelectric switch.

12.4.2 Wiring and Configuration

Open the platform configuration tool, click "Edge Seek" on the left side of the interface to enter the parameter setting interface, and check "Enable Optical".

Connect the brown wire (24V+ power supply) of the photoelectric switch to any thyristor output terminal on the terminal board (corresponding to the switch power supply output terminal in the platform configuration). Connect the blue wire (24V- power supply) to the COM terminal on the terminal board. Connect the black wire to any input terminal on the terminal board (corresponding to the photoelectric signal input terminal in the platform configuration).

The "Switch Logic" in the platform configuration must be consistent with the mode

corresponding to the action switch of the photoelectric switch. It is recommended to use the L mode (indicator light on for active state).

If you have high and low working platforms, please check the option "Separate seeking heigh for pallet ".

12.4.3 Three Point Edge Seeking Process

1.

For the initial use of three-point edge seeking, it is necessary to determine the deviation value between the photoelectric switch and the laser head.

2.

Move the cutting head (the red light generated by the laser source, not from the photoelectric switch) to the lower right corner area inside the board to determine the initial position.

3.

Select "Lower Right" from the dropdown menu under the "Three-Point Edge Seeking" option.

4.

According to the initial position, the length of the steel plate, and the width of the steel

plate, two points A and B are determined, among which a)

The coordinates of point A are (X initial - 0.2*steel plate length, Y initial + 0.2*steel plate length)

b)

The coordinates of point B are (X initial - 0.6*steel plate width, Y initial + 0.2*steel plate length)

5.

Move to point A.

6.

Perform the first edge seeking in the negative Y direction, resulting in point X1.

7.

Move to point B.

8.

Perform the second edge seeking in the negative Y direction, resulting in point X2.

9.

Move to point A.

10. Perform the third edge seeking in the positive X direction, resulting in point Y1.

11. Complete the edge seeking process. Calculate the rotation angle θ and determine the bottom-right vertex O of the steel plate. Move to vertex O. The edge seeking results will be displayed in yellow font in the upper-right corner.

12.4.4 Precautions for Photoelectric Edge Seeking

1.

Ensure that the actual number of pulses sent by the diagnostic interface matches the feedback from the encoder. If they are not consistent, modify the servo-related parameters.

2.

When adjusting the sensitivity of the photoelectric switch, try to keep the green indicator light on during the board exit and entry process.

3.

Set the steel plate length and width values to match the actual values.

4.

The tilt angle of the steel plate should not exceed 40 degrees.

5.

While the edge detection direction can be freely set in the photoelectric edge detection test interface, when using this function, the docking point must be set to one of the top-left, bottom-left, top-right, or bottom-right positions to determine the direction of edge detection.

6.

Before the initial edge detection, the deviation between the photoelectric switch and the laser center should be measured.

7.

Before the actual edge detection, move the cutting head (the red light of the laser, not from the photoelectric switch) inside the plate as the starting position for edge detection.

12.5 Area Output In the platform configuration tool's left sidebar, click on "Universal Output" to set up partitioned outputs. Check "Area Output" to configure the number of rows and columns for the partitions. Drag the partition lines to adjust their positions. Each area can be assigned a universal output or no output, allowing for output variations in different areas.

12.6 Motion Parameter Adjustment 12.6.1 Introduction to Motion Control Parameters

CypCut software lets users adjust four motion control parameters: speed, acceleration, filter frequency, and corner/arc precision. Other motion settings are optimized internally. As shown below:

Items

Details

Move speed

It is the maximum move speed. You can directly fill in the maximum move speed calculated by the ServoTools software.

Move acceleration

It is the maximum move acceleration. You can directly fill in the maximum move acceleration calculated by the ServoTools software.

Processing

It is the maximum acceleration during cutting, which directly determines the

acceleration

acceleration and deceleration time of turning motion during cutting. It needs to be adjusted by observing the torque curve of the servo.

Low-pass filter

It suppresses machine tool vibrations. A smaller value enhances the vibration

frequency

suppression effect but increases acceleration and deceleration time.

Arc control

It represents the upper limit of arc machining accuracy. A lower value results

accuracy

in a more pronounced limit on arc speed.

Corner control accuracy

It represents the precision of fitting corners with NURBS curves. A lower value makes the corners closer to sharp angles but results in a more significant decrease in speed.

12.6.2 Adjust Processing Acceleration

Set the speed for high-speed jog as high as possible, such as 500mm/s. Ensure that the distance traveled is sufficient for reaching the set speed during acceleration.

Use servo debugging software to monitor the torque curve during the motion. If the maximum torque is below 80%, consider increasing the machining acceleration. If it exceeds 80%, consider reducing the machining acceleration.

Adjust the acceleration until the maximum torque approaches 80%. Typically, the processing acceleration for a lead screw does not exceed 0.5G, while for gear racks, it generally does not exceed 2G.

12.6.3 Adjust Move Acceleration

You can input the maximum acceleration calculated by ServoTools software or increase the move acceleration based on the machining acceleration, such as setting it to 1.5 to 2 times the machining acceleration. The servo should not exceed 150% of its maximum torque during moving, and the mechanical structure should withstand this acceleration without significant deformation or vibration. Typically, the move acceleration for a lead screw is usually below 0.5G, while for gear

racks, it is generally below 2G. 12.6.4 Adjust Low-pass Filter Frequency

When setting the low-pass filter frequency, it is recommended to cut a sample. Start by reducing the laser power and perform marking on a steel plate to observe the accuracy of the marking path. The cutting sample should include various sizes of small circles, regular hexagons, regular dodecagons, stars, rectangles, and so on. Please refer to the image below:

To achieve high low-pass filter frequency without compromising accuracy, when cutting rectangles, polygons, and star patterns, there should be no waves at the front and back of the corners. You can refer to the provided table for recommended values or adjust within a range of two levels after determining the machining acceleration. Make sure the machining acceleration and low-pass filter frequency are matched. Avoid setting one parameter too high and the other too low.

Level

1

2

3

4

5

6

7

8

9

10

0.1

0.2

0.3

0.4

0.5

0.6

0.8

1

1.5

2

3

3.5

4

5

5.5

6

6

6

7

8

Processing acceleration (G)

Low-pass filter frequency (HZ)

12.6.5 Set Arc Accuracy and Corner Accuracy

It is generally not recommended to modify the parameters of arc precision and corner precision.

Only make slight adjustments within the default parameter range in special cases.

To improve arc precision, decrease the arc precision parameter. This may reduce cutting speed.

Smaller values result in more noticeable speed limitations. For better corner precision, decrease the corner precision parameter. This will slow down cornering, with a more noticeable effect as the parameter value decreases. Increasing the parameter value will make corners closer to a rounded shape.

13 Shortcut Key Below is a table of commonly used shortcuts in CypCut. Some shortcuts are context-specific and have been explained in relevant sections, so they are not listed here.

Shortcut key

Effect

Service conditions

Ctrl + A

Select all the graphics

None

Ctrl + C

Copy graphics to clipboard

Select graphics to be operated

Ctrl + Shift +

Specify “Base Point” and copy command

Select graphics to be operated

C

Ctrl + O

Open the file

None

Ctrl + P

Show/hide the graphic direction and

None

move track

Ctrl + V

Paste graphic in the clipboard to the

There are copied graphics in the

drawing board clipboard Ctrl + W

Adapt to window

None

Ctrl + X

Cut the graphics to Windows clipboard

Select graphics to be operated

Ctrl + Y

Redo the cancelled orders

There are cancelled commands

Ctrl + Z

Cancel the orders just finished

There are finished commands

F2

Opens the "Layer Parameter Settings"

None

dialog box

F3

Check all of the graphics

None

F4

Check the whole machine range

None

F7

Show/hide the processing path

None

F8

Show/hide the motion path

None

DEL (Delete)

Delete the selected graphics

Select graphics to be operated

SPACE

Repeat the last command

Last command can be repeated

14 Burn-in To ensure proper operation, an aging test is conducted on new machines before they leave the factory. The process involves File - Diagnostic Tool -Burn-in Test.

The supported aging tests are as follows:

1.

X and Y axes move at low, medium, and high speeds in the whole working area with a duration ranging from 2 to 48 hours, to test their motion stability.

2.

Long-duration up and down movement of the Z-axis to test the stability of single-axis motion, along with multiple "Go Origin" tests to ensure the reliability of the upper limit switch.

3.

Z-axis movement without the cutting head: Disable capacitance alarm during the move from point A to point B.

4.

Z-axis movement with the cutting head: Implement a protection mechanism to prevent the cutting head from hitting the work surface during the move from point A to point B.

5.

During the XY move for aging test, the Z-axis moves concurrently.

Appendix 1 Details of Consumable Parts

Consumables

Items

Details

Nozzle

Under normal use, its service life ranges from 15 days to 6 months depending on the cutting sheet and thickness.

Ceramic ring

Under normal use, its service life ranges from 6 months to 12 months depending on the cutting sheet and thickness.

Protective lens

Under normal use, its service life ranges from 15 days to 6 months depending on the cutting sheet and thickness.

Amplifier cable

Focusing lens