1

Online

If the controller and software are connected, it is on.

If there is no communication between the controller and the software, it will be turned off or displayed in gray color (Figure 9)

2

X Axis, Y Axis, Z Axis …

When each axis is active, it will be displayed with a light indicating its activation. If an axis is inactive, it will be turned off and displayed in gray color (as shown in Figure 9). 

Note that the display of the axes may vary in different interfaces. The interface may display all available axes or a different number depending on the interface’s capabilities.

3

Alarm

If there is an error or issue with the connection between the controller and the motors and drives, the indicator will turn on, otherwise, it will remain turned off

4

Emergency

In the event of an error in the emergency settings section, the indicator can be adjusted to turn on. 

Note that the number of emergency device inputs can be defined.

5

Absolut & Relative

Absolute: Displays the coordinates of the axes in reference to the home point. Relative: Shows the coordinates of the axes relative to the reference point.

Note that the display of the coordinates may vary in different interfaces. The interface may display all available axes or a different number depending on the interface’s capabilities.

6

Tool Path (Movement path indicator Tool)

Once a file has been loaded, the movement path will be displayed in this section. Both in simulation mode and during actual operation, you can observe the device’s movements and the sequence of program execution. In the upper left corner, you can see the file’s upload location and the Work Size or Work Length, which displays the sizes in different axes. In the lower right corner, you can view the file from different perspectives and zoom in or out. By holding the right mouse button, you can change the viewing angle of the design.

7

G-Code display

Once you have loaded the desired file using the Open button, the Code-G and program lines will be displayed in this section. During program execution, each executed GCode will be highlighted with a different color.

8

Open

It is used to load G-Code, dxf, and Autocad files.

CTRL + SHIFT + ALT + O

9

Run

Tab is program execution. Different interfaces may have more than one tab.

10

Text box

In normal mode, this section displays the name of the interface. When a CNC operation is being performed, this section displays the approximate time elapsed and the remaining time of the operation.

When an alarm or emergency occurs, this section changes to red. By double-clicking with the left mouse button, the Form Debug window will open. Here, you can view the performance report of the controller and software, including the Radonix software version, interface type, and alarms. By pressing a shortcut key twice, a general performance report of the device will be displayed in Notepad.

CTRL + SHIFT + ALT +PrtSc

11

Setting

All device parameter settings can be configured in this window. (For more information, refer to section 4.2.2).

12

Min

In order to minimize the software window, press the minimize button.

13

Exit

To exit the software.

14

Velocity

This feature is available in some interfaces and displays the movement speed in ToolPath. If needed, it can be added to interfaces that do not have this feature by default. (For more information, refer to section 4.2.7).

15

Home

This feature is available in some interfaces and displays the movement speed in ToolPath. If needed, it can be added to interfaces that do not have this feature by default. (For more information, refer to section 4.2.7).

Alt + Home

16

Go Zero

By pressing this button, the device will quickly move to the zero point (Home) of the device. The difference between this case and case 15 is that in this case, the device moves quickly to the zero point without the need to slowly approach it to detect the sensors

17

Go Ref

In order to move the axes to the zero point of the workpiece or reference point.

18

Stop

In order to stop the process of device operation.

19

X0,Y0,Z0,…

To determine the reference point, simply click on one of the buttons. The reference point value will be displayed in the box next to the button.

Note: The display of available axes may vary depending on the interface and the number of axes.

Alt+X => X0

Alt+Y =>Y0

Alt+Z =>Z0

20

Velocity text box of axes X(mm/s), Y(mm/s), Z(mm/s),…

In these text boxes, the movement speed of the axes can be entered, and these values are applied in Continuous mode or  if the Jog key is held on the desired axis. In Continuous mode, the value entered in the text box for each axis is represented as a percentage of manual movement speed (in relation to it). The Jog term is multiplied, and by pressing the Jog key, each axis moves at the speed resulting from the product of the Jog term and the value entered in the Velocity text box. For example, if the number entered in the Velocity text box for the Z axis (Figure 11) is 10mm/s, and the Scroll percentage is 100%, the product of these two numbers is 10mm/s. By pressing the Z+ or Z- key, the Z axis moves in the positive or negative direction at a speed of 10mm/s, respectively

21

Step text box of axes X(mm), Y(mm), Z(mm),… which are located next to the axes

In these text boxes, the movement value of the axes is entered, and these values are applied in Incremental mode or  when the corresponding Jog key for each axis is pressed. In Incremental mode, the value entered in the text box of each axis is multiplied by the Scroll percentage related to manual movement (also known as Jog), and when the Jog key of each axis is pressed, it moves by the product of the above value.

For example, if the value entered in the Step text box for the Z axis (Figure 11) is 50mm and the Scroll percentage is 100%, the product of these two values is 50mm. Thus, each time the Z+ and -Z axis buttons are pressed, it moves 50mm in the positive and negative direction, respectively.

22

Two-axis movement Simultaneous

The button for simultaneous movement of two axes is used to move two axes at the same time. It works in the same way as pressing two Jog buttons at the same time, but each axis will move based on its own set parameters and speed. The function is similar to the one described in item 25 of the same table.

23

Continous and incremental

This button is a toggle switch, which means that each time you press it, the mode alternates between Continuous and Incremental. In Continuous mode or  if you hold the Jog key, the selected axis moves at the set speed. (For more information, see item 20 in the same table) In Incremental mode or  by pressing the Jog key each time, the selected axis moves to the specified distance. (For more information, see item 21 in this table).

24

Scroll

In fact, the percentage of this scroll is calculated by multiplying the values in the text boxes in manual or jog mode (refer to numbers 20 and 21 in the table for more information).

25

X+, X-, Y+, Y-…

To manually move the axes, the Jog axes can be used in two modes: Continuous and Incremental.

In Continuous mode, the desired axis moves at the set speed if the Jog key is held. (Refer to number 20 in the same table for more information.)

In Incremental mode, the desired axis moves by the set distance each time the Jog key is pressed. (Refer to number 21 in the same table for more information.)

26

Spindle

It is to turn the spindle on or off.

27

Scroll

It is used to determine the spindle rotation speed.

28

Play

It is for the purpose of running the program.

29

Pause

To halt the execution of a program, it’s important to note that pressing the Pause button will stop the program on the same G-Code line. The program can be resumed from that line by pressing the Play button again.

30

Stop

To stop and reset the program.

31

Scroll

In order to control the execution speed of the program.

32

(Text box) Tool

To call a specific tool, the tool number must be entered. When changing tools, if the spindle is holding a tool, it will be placed in its designated location and the tool specified by the number entered in the text box will be taken when the Enter button is pressed.

33

Set Tool

It is to set the tool height.

1

ConveyorSensorPin

This is the input of a canoview sensor. When this input is activated, the canoview will turn off.

2

Axis name ,HomeFastPin

This is used for a sensor that is located before the Home sensor and moves the machine at a high speed during the Home operation. After activating this input, the machine moves at the speed that was set for the Home operation.

3

Axis name, HomePin

When this input is activated, the home point of the machine is determined.

4

InterruptEndSensorPin number, InterruptEndSensorPin

InterruptEndSensorPin is used for the following two cases:

The entire process is executed if a single M code or function command is given.

The entire process is executed if two M codes or function commands are given.

Note that if InterruptStartSensorPin and InterruptEndSensorPin are not defined for the inputs, the Interrupt process will be executed without the need for the input sensors to be triggered or True. As the Interrupt process is fully related to the input, output, and function links, the complete process performance is described here, and it is sufficient to refer to the corresponding table and define the links based on the pin or function name when defining the process.

In addition, in the diagram drawn for better clarity, the sequence of operations and the activation of inputs, outputs, and functions are shown. The links are displayed with abbreviation symbols

(Input Link — I), (Output Link — O), and (Function Link — F)

• In the case where the entire process is executed if a single M code or function command is given: 

When the Interrupt command (Function Link) is executed, it first waits for the InterruptStartSensorPin input (Input Link) to be triggered, and when the InterruptStartSensorPin input (Input Link) is triggered or True, the command to turn on the InterruptPin output (Output Link) is issued. It then waits for the InterruptEndSensorPin input (Input Link), and if the InterruptEndSensorPin input (Input Link) is triggered or True, the InterruptPin output (Output Link) is turned off, and the process ends. 

(please refer to appendix 6 – Figure (1))

• In the event that the entire process is executed with two M codes or two functions under command:

When the InterruptStart command (function link) is executed, it first waits for the InterruptStartSensorPin input link and when the InterruptStartSensorPin input link is triggered or, in other words, becomes True, the command to turn on the InterruptPin output link and InterruptStartPin output link is issued and the first stage of the process is completed. 

(please refer to appendix 6 – Figure (2))

When the InterruptEnd command (function link) is executed, first the InterruptPin (output link) and InterruptStartPin (output link) are turned off, and InterruptEndPin (output link) is turned on. Then, it waits for the input of InterruptEndSensorPin (input link), and if InterruptEndSensorPin (input link) is triggered, or in other words, becomes True, InterruptEndPin (output link) is turned off and the final step of the process is completed.

(please refer to appendix 6 – Figure (3))

7

R-CornerJackSensorPin

The input is the jack sensor of the table. When this input is activated, it determines whether the jack is on or off.

8

SimpleCommandSensorPin Number,

Since the SimpleCommand process is fully related to input, output, and function links, the complete process functionality is explained in this section. To fully clarify the process, the used link is mentioned when defining the process, and it is enough to refer to the related table and define the links based on the pin or function name. In the diagram, for better clarity, the sequence of operations and the activation of inputs, outputs, and functions are shown. The links are displayed with abbreviations.

(Input Link — I), (Output Link — O), and (Function Link — F)

When the SimpleCommand (function link) command is executed, first the SimpleCommandPin (output link) is turned on, and then it waits for the SimpleCommandSensorPin (input link) to be activated, or in other words, to become True. Once this happens, the SimpleCommandPin is turned off and the process ends.

(please refer to appendix 6 – Figure (7))

9

SpindleCoverSensorPin

The input is the spindle cover jack sensor. When this input is activated, the on/off status of the spindle cover is determined.

10

SurfaceDetectorPin

The input is the surface detection sensor. When this input is activated, the workpiece level is determined. This input is related to the Z axis of the rotary machine.

The SurfaceDetector sensor is usually placed on the workpiece so that after the tool contacts the sensor, the workpiece level is determined.

11

SurfaceScanSensorPin

The input is the surface scan sensor. This input is related to the SurfaceScan function. For more information, please refer to table 4.

12

SurfaceScanJackSensorPin

The input is the scan jack sensor. This input detects the activation of the jack.

This input is related to the SurfaceScan function. For more information, please refer to table 4.

13

T-CC-S1Pin

T-HSD-S1Pin

T-TEKNO-S2Pin

T-ToolSensorPin

The input is the tool presence sensor in the spindle collet. When this input is activated, the presence or absence of the tool in the spindle collet is determined.

14

T-CC-S2Pin

T-HSD-S2Pin

T-TEKNO-S1Pin

T-ToolHolderSensorPin

This input is the spindle clamp sensor which detects the open or closed state of the spindle clamp. When this input is activated, it determines whether the spindle clamp is open or closed.

15

T-CC-S3Pin

T-HSD-S3Pin

T-TEKNO-S3Pin

T-InverterStopPin

T-SpindleRotationSensorPin

he input is a sensor for detecting the rotation of the spindle. When this input is activated, the status of the spindle rotation is determined. In other words, when the spindle is rotating, this input turns on and off once for each revolution of the spindle.

16

Numberm, T-Jack3SensorPin

The input T-Jack3SensorPin is used during tool change. When this input is activated, the status of the T-Jack3Pin output is displayed (on or off). Using this input increases the safety of the machine and reduces the possibility of errors. If T-Jack3SensorPin is not used, a parameter called Jack3Delay is activated in the Settings window under the ToolChanger branch, where the delay time when turning on or off the T-Jack3Pin output can be entered. This input is related to the T-Jack3Pin output. Please refer to Table 3 for more information.

17

Number, T-JackSensorPin

The input is a jack sensor used during tool changing. When this input is activated, the status of the T-JackPin output is displayed as on or off. Using this input increases the safety of the device and reduces the likelihood of errors.

If this input is not used, a parameter called JackDelay is activated in the ToolChanger section under the Settings window. It is possible to enter the delay time for turning on or off the T-JackPin output.

This input is related to the T-JackPin output. Please refer to Table 3 for more information.

18

T-SpindleHomePin

The input is used to determine the Home position of the spindle tool. In some spindle machines that have tool changing capability, the tool must be placed in a specific position or the Home position before continuing the tool change process. This input is used to ensure that the tool is first placed in the correct position before continuing the tool change process. Typically, the T-SpindleHomePin sensor is connected to the spindle structure.

This input is related to the T-SpindleLockPin output. Please refer to table 3 for more information.

19

T-ToolHeightSensorPin

When this input is executed, the height of the tool is determined. This input is related to the output called T-ToolHeightPin. Please refer to table 3 for more information on this output.

This input is related to the T-SetToolHeight function. Please refer to table 4 for more information on this function.

Name of 

the Element

Descriptions

1

AlarmPin

If the ClearAlarm function is executed, this output will be turned on for 0.5 seconds.

2

Axis name, AlarmStatusPin

In case of an alarm occurring in the designated axis, the output is turned on.

3

Axis name, AlarmStatusPin

If the direction of movement for the designated axis is positive, this output turns on, and if the movement is in the negative direction, the output turns off.

4

Number, Axis name, AlarmStatusPin

X4 is a hardware designed by the company Radonics, which has the capability of switching a single axis to four axes and includes 4 input channels. By connecting the digital outputs of a controller to the X4 inputs, it enables the control of up to 4 motors completely separately on a single axis. For example, on the Z-axis, it is possible to connect up to 4 motors and turn them on or off separately.

(please refer to appendix 6 – Figure (8))

Note that these four outputs can also be used in combination. In other words, any combination of them can be turned on or off simultaneously. To do this, simply turn on the output connected to the desired X4 input.

Note that this output is related to the AxisSwitch function. Please refer to table 4, row 2 for more information.

5

BinaryOutPortPin, Number

By executing the command, the output is turned on in binary format. For example, it can be used to control the spindle speed in binary format. Suppose an inverter has four inputs for speed control, and it is sufficient to define four outputs with the links BinaryOutPortPin, 0, BinaryOutPortPin, 1, BinaryOutPortPin, 2, and BinaryOutPortPin, 3, and connect them to the inputs of the inverter in order.

6

BrakePin

After the controller goes online and the motors are powered, executing the BrakePin command will turn on the output connected to the brake relay, releasing the brake 1 second after the motors are powered on.

7

ControlStatusPin, Number

Various states of the controller and software can be viewed

8

ConveyorPin

By executing the command to turn on or off the conveyor motor, this output will turn on or off.

When the conveyor sensor (ConveyorSensorPin) in the inputs is activated, this output will be automatically turned off.

There is also a function related to turning on the Conveyor, please refer to row 10 in table 4 for more information.

9

CoolantPin

By executing the command to turn on or off the cooling system of the machine, this output will turn on or off.

Usually, this output can be controlled through the M code (M8).

For the operation of this pin, there is a function called Coolant. For more information, please refer to row 11 in table 4.

10

Axis name, EnabledStatusPin

When the designated axis is enabled, this output is turned on.

11

Axis name, ErrorStatusPin

When the specified axis has an alarm or limit, this output turns on.

12

InterruptEndPin

Number, InterruptEndPin

InterruptEndPin is only used in a situation where the entire process is executed in case of two M codes or two functions. Note that if InterruptStartSensorPin and InterruptEndSensorPin are not defined for inputs, the Interrupt process is executed without the need for the input sensor to be triggered or an expression to be True.

Considering that the Interrupt process is completely related to the input, output, and function links, the complete operation of the process is explained in this section, and in order to be fully clear, the used pin is mentioned when defining the process, and it is enough to define the links according to the pin name or function and refer to the corresponding table.

In addition, the order of operations and the activation of inputs, outputs, and functions are shown in a diagram for greater clarity. The links are displayed with abbreviations: 

(Input Link — I), (Output Link — O), (Function Link — F).

In a case where the entire process is executed in response to two M codes or two functions:

When the InterruptStart command (function link) is executed, it first waits for the InterruptStartSensorPin input link to be triggered or in other words become True, and when that happens, it issues the command to turn on the InterruptPin (output link) and InterruptStartPin (output link), and the first stage of the process is completed.

(please refer to appendix 6 – Figure (9))

When the InterruptEnd (function link) command is executed, first the InterruptPin (output link) and InterruptStartPin (output link) are turned off, and then the InterruptEndPin (output link) is turned on and waits for the InterruptEndSensorPin (input link) to be triggered or in other words become true. When the InterruptEndSensorPin (input link) is triggered, the InterruptEndPin (output link) is turned off and the final stage of the process ends.

(please refer to appendix 6 – Figure (10))

13

InterruptPin

Number, InterruptPin

InterruptPin is used for the following two cases:

When the entire process is executed in case of a single M code or a single function.

When the entire process is executed in case of two M codes or two functions.

Note that if InterruptStartSensorPin and InterruptEndSensorPin are not defined for the inputs, the Interrupt process will be executed without the need for the input sensor to be triggered or True.

As the Interrupt process in the input, output, and function links are fully related to each other, the entire process is explained in detail in this section. To make it clear, the link used is mentioned when defining the process, and it is sufficient to refer to the corresponding table and define the links according to the pin name or function.

Also, in the diagram that is drawn for better clarity, the order of operations and the activation of inputs, outputs, and functions are shown. The links are displayed with abbreviation symbols. 

(I: input link), (O: output link), (F: function link)

In the case where the entire process is executed upon a command of an M-code or a function, when the Interrupt command (function link) is executed, it first waits for the input of InterruptStartSensorPin (input link), and when the input of InterruptStartSensorPin (input link) is triggered or True, the command to turn on InterruptPin (output link) is issued, and then it waits for the input of InterruptEndSensorPin (input link), and if InterruptEndSensorPin (input link) is triggered or True, InterruptPin (output link) is turned off and the process ends.

(please refer to appendix 6 – Figure (11))

In the case where the entire process is executed upon a command of two M-codes or two functions, when the InterruptStart command (function link) is executed, it first waits for the input of InterruptStartSensorPin (input link), and when the input of InterruptStartSensorPin (input link) is triggered or True, the commands to turn on InterruptPin (output link) and InterruptStartPin (output link) are issued, and the first stage of the process ends.

(please refer to appendix 6 – Figure (12))

When the InterruptEnd command (function link) is executed, first the InterruptPin (output link) and InterruptStartPin (output link) are turned off, and the InterruptEndPin (output link) is turned on, then it waits for the input of InterruptEndSensorPin (input link), and if InterruptEndSensorPin (input link) is triggered or True, InterruptEndPin (output link) is turned off and the final stage of the process ends.

(please refer to appendix 6 – Figure (13))

14

InterruptStratPin

Number, InterruptStratPin

InterruptStartPin is only used in the case where the entire process is executed upon a command of two M-codes or two functions.

Note that if InterruptStartSensorPin and InterruptEndSensorPin are not defined as inputs, the Interrupt process will be executed without the need for the input sensor to be triggered or True.

Since the Interrupt process in the input, output, and function links are all interrelated, the complete operation of the process is explained in this section. To make it completely clear, the links used are mentioned when defining the process, and it is sufficient to refer to the corresponding table and define the links based on the pin or function name.

In the diagram, drawn for more clarity, the sequence of operations and the activation of inputs, outputs, and functions are shown.

Links are represented by abbreviations 

(input link — I), (output link — O), (function link — F)

In the case where the entire process is executed by the command of two M codes or two functions:

When the InterruptStart command (function link) is executed, it first waits for the InterruptStartSensorPin input (input link) to be triggered, or in other words, to become True. Once the InterruptStartSensorPin input is triggered, the command to turn on the InterruptPin output (output link) and InterruptStartPin output (output link) is issued and the first stage of the process is completed.

(please refer to appendix 6 – Figure (14))

In the next stage, when the InterruptEnd command (function link) is executed, the InterruptPin output (output link) and InterruptStartPin output (output link) are first turned off, and the InterruptEndPin output (output link) is turned on. Then, it waits for the InterruptEndSensorPin input (input link) to be triggered, and if the InterruptEndSensorPin input is triggered or, in other words, becomes True, the InterruptEndPin output (output link) is turned off, and the final stage of the process is completed.

(please refer to appendix 6 – Figure (15))

15

Number, JogModePin

To display the Jog mode, if the entered argument is proportional to the Jog mode, the output will be turned on. For example, if the argument is zero and the Jog mode is Continuous, the output will be turned on.

16

Axis name, JogStatusPin

If the specified axis is in Jog mode or being jogged, the output will be turned on.

17

LaserPointerPin

In a device equipped with a pointer laser, this output is used. When this output is turned on, the pointer laser is turned on as well.

18

Axis name, LimitNStatusPin

When the specified axis is at the negative limit, this output is turned on.

19

Axis name, LimitPStatusPin

When the specified axis is at the positive limit, this output is turned on.

20

Axis name, LimitStatusPin

When the limit is taken from the specified axis, this output becomes clear.

21

LubricationPumpPin

This output is activated when the oiling command is executed.

22

R-CornerJackPin

This output is activated when the spindle orientation command is executed.

23

ReadyPin

When the controller goes online, this output is turned on.

24

Axis name, ReadyStatusPin

When the specified axis is in Ready state and there is no active Alarm condition, this output is turned on.

25

Axis name, RunStatusPin

When the specified axis is in Run state, this output is turned on.

26

SelectPin, Number

It is possible to define any number of outputs as needed. When one output is turned on, the other defined outputs are turned off. In fact, only one of the outputs can be turned on in that unit at a time.

This output is associated with a function called “Select”, which allows the user to define Toggle keys as desired (up to a maximum of 32) and by pressing this key, the corresponding output defined by the SelectPin is turned on, and if another output has been defined by the SelectPin, it will be automatically turned off. For example, by defining three Toggle keys with links Select,1, Select,2, and Select,3 and connecting them to three outputs with links SelectPin,1, SelectPin,2, and SelectPin,3, when the Select,1 key is pressed, output 1 is turned on, and outputs 2 and 3 are turned off automatically.

27

SimpleCommandPin, Number

Due to the complete relationship between the SimpleCommand process in the input, output, and function links, the operation of the entire process is fully explained in this section. To be clear, the link used is mentioned when defining the process, and it is sufficient to refer to the corresponding table and define the links based on the name of the pin or function. In the diagram, which shows the order of operations and the activation of inputs, outputs, and functions more clearly, the links are displayed with abbreviations.

((Input link — I), (Output link — O), (Function link — F))

When the SimpleCommand command (Function link) is executed, first the SimpleCommandPin (Output link) is turned on, and then it waits for the SimpleCommandSensorPin input (Input link) to be triggered, and if the SimpleCommandSensorPin input is triggered, or in other words, becomes True, the SimpleCommandPin (Output link) is turned off, and the process is completed.

(please refer to appendix 6 – Figure (16))

28

SimpleDelayPin

As the SimpleDelayPin command is fully related to the SimpleDelay function, the operation of the entire process is explained in this section. To be clear, the link used is mentioned when defining the process, and it is sufficient to refer to the corresponding table and define the links based on the name of the pin or function.

When the SimpleDelay command (Function link) is executed, based on the argument entered in the SimpleDelay function, the SimpleDelayPin output (Output link) is turned on or off, and then a delay is created for the amount of time set in the SimpleDelay parameter in the General branch in the Setting window.

29

SpindleCCWPin

The Spindle direction of movement is determined using it. This output is similar to the output called SpindleCWPin, with the difference that its direction of movement is opposite to the direction of rotation of SpindleCWPin. In fact, their functions are opposite to each other.

30

SpindleCWPin

The Spindle direction of movement is determined using it. This output is similar to the output called SpindleCCWPin, with the difference that its direction of movement is opposite to the direction of rotation of SpindleCCWPin. In fact, their functions are opposite to each other.

31

SpindleCoolerPin

The output is turned on or off with the turning on or off of the Spindle fan

32

SpindleCoverPin

The output is turned on or off with the opening or closing of the Spindle cover.

33

SurfaceScanJackPin

When the Surface Scan command is issued, the SurfaceScanJackPin output is turned on, and when the surface scanning process is finished, the SurfaceScanJackPin output is turned off. This output is associated with an input called SurfaceScanJackSensorPin. For more information, please refer to Table 2.

34

T-Jack3Pin

Machines use a jack as part of the tool changing process, such that when the tool change command is issued and the machine is in the desired position, the jack becomes active and moves the tool holder forward, thereby changing the tool. This is used, for example, to change rotary tools installed on the Z and Y axes.

This output is associated with an input called T-Jack3SensorPin. For more information, please refer to Table 2.

35

T-JackPin

When the tool change command is issued, the T-JackPin output is turned on, and when the tool change process is complete, the T-JackPin output is turned off. For example, the tools may be held in a collet, and a jack may be needed to move the collet forward to access the spindle. Depending on the mechanical structure of the machine, the jack can be used to move the tool holders, tool covers, or the entire tool changing system forward and backward by turning the jack on or off.

This output is associated with an input called T-JackSensorPin. For more information, please refer to Table 2.

36

T-NormalToolChangingPin

When the tool change command is issued, the T-NormalToolChangingPin output is turned on, and when the tool change process is complete, the T-NormalToolChangingPin output is turned off. This output is similar to the output called T-ToolChangingPin, but is used for some tool changes that use clamps.

37

T-SpindleLockPin

The Spindle Lock output is used in some tool-changing spindles where the type of collet used is important for positioning and rotating the tool. In this case, the spindles must first position the tool in a special position or the tool home point. To do this, a sensor called T-SpindleHomePin is defined, which positions the tool in a special position, and then, if the T-SpindleLockPin output is defined and the tool is in the desired position, the output is turned on. This is done to lock the tool in that special position, so that it does not move from that position.

Usually, the T-SpindleHomePin sensor is connected to the spindle structure. This output is associated with an input called T-SpindleHomePin. For more information, please refer to Table 2.

38

T-ToolChangingPin

When the tool change command is executed, this output is turned on, and when the tool change process is complete, it is turned off. This output is similar to the T-NormalToolChangingPin output, but can be used for both normal and Head Changer tools.

39

T-ToolCleanerPin

This output is used to activate an electric valve connected to the tool cleaner. During a tool change, before the machine removes the selected tool, this output is turned on to clean the tool, and then the machine proceeds to remove the tool.

40

T-ToolHeightPin

This output is turned on when the T-SetToolHeight process starts and turned off when the T-SetToolHeight process is complete. For example, a tool height sensor can be connected to a jack, and this output can be used to move the sensor in or out of a compartment by turning the jack on or off, in order to prevent the sensor from getting dirty or damaged.

This output is associated with an input called T-ToolHeightSensorPin. For more information, please refer to Table 2. This output is related to a function called T-SetToolHeight. For more information, please refer to Table 4.

41

T-ToolHolderPin

When the command to hold or release a tool inside the spindle is executed, this output turns on or off. This output is similar to the output called T-ToolLockPin, with the difference that T-ToolHolderPin releases the tool when turned on, while T-ToolLockPin holds the tool in place and prevents it from being released when turned on. In fact, their functions are opposite to each other.

This output is related to the T-ToolHolder function. Please refer to Table 4 for more information.

42

T-ToolLockPin

When the command to hold or release the tool inside the spindle is executed, this output is turned on or off. This output is similar to the output called T-ToolHolderPin, but the T-ToolLockPin keeps the tool inside the spindle when it is turned on, while the T-ToolHolderPin releases the tool when it is turned on. In fact, their functions are opposite to each other.

43

T-ToolPin, Tool number

T-ToolPin, Tool number, Tool number

If the tool number matches the value entered as an argument, the defined output with T-ToolPin link will be turned on.

44

VaccumPin

By executing the command to turn on or off the Vaccum, this output is turned on or off.

45

Zone

When the axes are within the desired range, the output is turned on or off. And it is possible to define any number of outputs.

Name of 

the Element

Descriptions

1

AJog, Axis name

Absolute Jog is an abbreviation for manually moving to a specific coordinate, also known as jogging. In this function, we only specify the desired axis for manual movement. The AJog link is related to the parameter link, and all you need to do is enter the coordinates in the Value field, and by executing this function, the desired axis will be moved to the specified coordinates.

2

AxisSwitch,

Axis name,

Number

A hardware called X4 is embedded, which includes four input channels. By connecting the outputs to the inputs of X4, up to four motors in a single axis can be controlled separately. For example, on the Z-axis, up to four motors can be connected and turned on or off separately. With the motors turned on, the corresponding output pulse for the Z-axis is transmitted to those motors.

(please refer to appendix 6 – Figure (17))

Please note that these four outputs are also used in combination. In fact, each one can be turned on or off simultaneously, and it is sufficient to turn on or off the output connected to the desired X4 input. By executing this function, the outputs connected to the X4 hardware inputs can be turned on or off. Please note that this function is related to the AxisSwitchPin output link (Table 3).

3

BlockNumber

By executing this function, the program is moved to the line number specified in the G-Code. To enter the line number, a Value field can be used.

4

Brake

By executing this function, the motor brake is manually turned on or off.

5

CJog, Axis name

To define Jog or Continuous manual motion mode.

6

Capture

Reserve

7

ClearAlarm

By executing this function, the motor alarm can be cleared. Note that to use this function, the motor in question must have hardware capability to clear the alarm.

8

ClearPoints

By executing this function, all points saved by the SavePoint function can be cleared. The SavePoint function is described in row 68 of the same table. Please refer to it for more information,

9

ClearToolPath

By executing this function, you can delete the file that has been displayed in ToolPath,

10

Conveyor, Axis name

By executing this function, you can turn the conveyor on or off. If the conveyor sensor (ConveyorSensorPin) defined in the input links is available, the conveyor output can be automatically turned off.

11

Coolant, Number

This function turns on or off the output related to the cooling system of the machine. In a router machine, the air power switch is connected to it, and with the CoolantPin output, the power switch can be turned on or off. Additionally, the output can be controlled through the M code (M8).

12

Displace, Number 

By executing this function, without running the program, the axes are moved to a specific point on the machine according to the entered argument.

13

DisplaceReference, Axis Name

By defining this function, the RealTimeReferenceDisplace parameter is added in the General section of the Setting window, and if the user enables or, in other words, sets it to True, they can use this function during program execution, and if it is False, they must first stop program execution and then use the DisplaceReference function.

During program execution, by running this function, the Reference point of the workpiece can be moved. In other words, it is used to correct errors that the user needs to correct during program execution. For example, during program execution, the user realizes that the design has an error at a specific point and can correct the error by changing the Reference at that moment.

14

EditGCode

By running this function, a window will open that allows you to edit G-code.

15

Emergency, Text

The text that the user wants to be displayed in case of an Emergency can be added.

16

Exit

This function is used to close the program. Before exiting the program, it checks the Dictionary section to see if any text has been written for “Exit”. If there is any text, it displays that message before exiting the program. If no text is written, and if the program is not running or the machine is not homing or moving manually, it will exit the program without any message.

17

ExportSetting

By executing this function, the program settings can be exported.

18

Feed, Number

By executing this function, the program execution speed can be changed. The Scroll function uses the Feed function to change the program execution speed, and the user can set the speed value using the Value parameter. Additionally, by providing an argument, the number of steps to increase or decrease the program execution speed can be specified. In other words, by running this function, the program speed is increased or decreased by multiplying the value of the argument with the number of steps determined.

19

FindCode

By running this function, you can search for a specific code inside the G-Code program. Essentially, this function opens a page where you can type in the desired code to search for. For example, if the user searches for the code “M30,” it will display in which line of the G-Code program the code “M30” exists.

20

Flip, Axis Name

By executing this function, the symmetry of the design is created.

21

Floor, Number

By executing this function, you can set a coordinate on the Z-axis that the tip of the tool should not move lower than. Essentially, the Z-axis is moved to the specified point for setting the Floor coordinate, and then with this function, that point is saved. This setting will also be applied to the G-Code by opening the desired G-Code.

If the Reference or G-Code is lower than the Floor level, the values will be cut by the amount specified for the Floor setting.

Note that any changes to the Floor setting will require reopening the file for the command to be applied to the G-Code.

22

Frame, Number

This function draws a rectangle around the design, and the axes move according to the coordinates of the rectangle. It is used to check if the cutting design is included in the workpiece. 

The user needs to open the G-Code before applying this function.

By executing this function, the parameter FrameOverReference is added to the General branch, and any value entered in the FrameOverReference parameter moves from the Reference point to the rectangle. For example, if the FrameOverReference parameter is 10 millimeters, it moves 10 millimeters above the Reference point on the path.

23

GenerateG-Code

By executing this function, G-Code is generated from the points saved in SavePoint.

The SavePoint function is explained in row 68 of this table, please refer to that section for more information.

24

HandwheelA, Axis Name

HandwheelA is an abbreviation for Handwheel Axis, which is used to determine the axes on which the handwheel is active. It is possible to create a toggle key for each axis, and by pressing each key, the handwheel of that axis is selected.

25

HandwheelX, Number

By executing this function, the Planck’s constant can be determined. Normally, the Planck’s constant is set to 1, 10, 100, or 1000, but it can be set to any value.

26

Hold, Text

By executing this function, all axis movements (Jog and Run) are halted. In fact, the axes are released from any movement until the cause of Hold (which can be an input sensor or a key defined with the Hold function) is resolved. After the removal of the cause, the axes are re-enabled again.

27

HoldJog, Text

By executing this function, manual movement or Jogging of the axes is disabled. In fact, the axes are released from any Jog movement until the cause of HoldJog (which can be an input sensor or a key defined with the HoldJog function) is resolved. After the removal of the cause, the axes are re-enabled again.

28

HoldPreRun, Text

By executing this function, the axis movements during program execution are halted. In fact, the axes are released from any movement during program execution until the cause of HoldPreRun (which can be an input sensor or a key defined with the HoldPreRun function) is resolved. After the removal of the cause, the axes are re-enabled again.

In this case, if the program is running and the cause of the HoldPreRun command is activated, the program will continue to run until the end of execution and allows the work to be completed, but it does not allow the program to execute the next Run command until the cause of HoldPreRun is resolved.

In this case, if the program is running and the cause of the HoldPreRun command is activated, and the Stop button is pressed, it does not allow the program to execute the Run command.

29

HoldRun, Text

By executing this function, the axis movements during program execution are halted. In fact, the axes are released from any movement during program execution until the cause of HoldRun (which can be an input sensor or a key defined with the HoldRun function) is resolved. After the removal of the cause, the axes are re-enabled again.

30

Home

Home, Number

Home, Axis name

31

InPort, Number

By executing this function, the inputs can be turned on or off.

32

Interrupt

Interrupt, Number

Considering that the Interrupt process in input, output, and function links are fully related, the operation of the entire process is fully explained in this section, and for clarity, the used link is mentioned when defining the process, and the user needs to refer to the corresponding table based on the pin name or function and define the links. Additionally, in the diagram drawn for better clarity, the order of input, output, and function operations and activations are shown.

Links are displayed with abbreviations.

((Input Link — I), (Output Link — O), (Function Link — F))

When the entire process is executed in response to an M code or a function command:

When the Interrupt command (function link) is executed, the program waits for the InterruptStartSensorPin input link to be triggered or become True. Once this happens, it issues a command to turn on the InterruptPin output link. It then waits for the InterruptEndSensorPin input link to be triggered or become True. If this happens, it turns off the InterruptPin output link, and the process ends.

(please refer to appendix 6 – Figure (18))

33

InterruptEnd

InterruptEnd, Number

InterruptEnd is only used in the case where the entire process is executed upon the command of two M codes or two functions.

Note that if InterruptStartSensorPin and InterruptEndSensorPin are not defined for inputs, the Interrupt process will be executed without the need for input sensors to be triggered or become True.

Since the Interrupt process is fully related to the input, output, and function links, the complete operation of the process is explained in this section, and in order to be completely clear, the links used are mentioned when defining the process, and the user can refer to the relevant table based on the name of the pin or function and define the links. Also, in the diagram drawn for clarity, the order of operations and the activation of inputs, outputs, and functions are shown.

The links are displayed with abbreviated symbols.

((Input Link I), (Output Link O), (Function Link F))

When the entire process is executed in case of two M codes or two functions command:

When the InterruptStart (function link) command is executed, it waits for the InterruptStartSensorPin input link to be triggered or in other words become True. Then, the command to turn on the InterruptPin and InterruptStartPin output links is issued, and the first stage of the process is completed.

(please refer to appendix 6 – Figure (19))

When the InterruptEnd (F) command is executed in the case that the entire process is executed by two M codes or two functions, it first waits for the InterruptEndSensorPin (I) input and when the InterruptEndSensorPin input is triggered or in other words set to True, it turns off the InterruptPin and InterruptStartPin (O) outputs and turns on the InterruptEndPin output. Then it waits for the InterruptEndSensorPin input again and when it is triggered or set to True, it turns off the InterruptEndPin output, and the final stage of the process ends.

(please refer to appendix 6 – Figure (20))

34

InterruptManual

By executing this function, you can enable or disable the Interrupt process. If InterruptManual is True, the Interrupt process will be completely disabled, and if it is False, it will be enabled.

35

InterruptStart

InterruptStart, Number

InterruptStart is only used in cases where the entire Interrupt process is executed by two M codes or two functions commands.

Please note that if InterruptStartSensorPin and InterruptEndSensorPin are not defined as inputs, the Interrupt process will be executed without requiring the input sensor to be triggered or True.

Since the Interrupt process is fully interconnected in input, output, and function links, the entire process operation is fully explained in this section. To make it clear, the used link is mentioned when defining the process, and the user can define the links according to the pin name or function. Also, in the diagram that has been drawn for more clarity, the order of operations and the activation of inputs, outputs, and functions have been illustrated.

Links are displayed with abbreviations.

((Input Link — I), (Output Link — O), (Function Link — F))

In the case where the entire process is executed in the event of two M codes or two functions being commanded:

When the InterruptStart command (function link) is executed, it waits for the InterruptStartSensorPin input link, and when the InterruptStartSensorPin input link is triggered or becomes True, the command to turn on the InterruptPin (output link) and InterruptStartPin (output link) is issued, and the first stage of the process is completed.

(please refer to appendix 6 – Figure (21))

When the InterruptEnd command (function link) is executed in the case where the entire process is executed based on two M codes or two functions, first the InterruptPin (output link) and InterruptStartPin (output link) are turned off, and the InterruptEndPin (output link) is turned on. Then, it waits for the InterruptEndSensorPin (input link) and if the InterruptEndSensorPin is triggered or becomes true, it turns off the InterruptEndPin (output link) and the final step of the process is completed.

(please refer to appendix 6 – Figure (22))

36

Jog, Axis name

To execute this function, a manual movement command, also known as Jog, is given.

37

JogFeed, Number

By executing this function, the speed of manual or jog movement is changed.

38

JogMod, Number

By running this function, you can set the state of Jog or manual movement command.

39

LaserPointer, Number

By executing this function, the laser pointer can be turned on or off. There is also a folder called “LaserPointer” in the “References” branch, which is used to apply an offset in the X and Y directions for the laser pointer.

40

LimitJog, Axis name

By executing this function, it is possible to limit the manual movement of the axes.

41

Lubricate

This function performs a one-time oiling process.

42

Minimize

This function minimizes or makes the software window smaller.

43

MoveToEnd, Axis name

By executing this function, the axis specified as the argument is moved to the end point of the axis.

44

MoveToZero, Axis name

By running this function, the axis specified as an argument will be moved to the zero point.

45

NextFile, Number

In the GCode folder, there is a parameter called MultiFileEnable which, when enabled, adds a feature to the software that allows opening multiple files simultaneously. In this case, a list of selected files is available to the user, and the user can move between them. This function is used to move between files and control the execution of each selected file. The name of the function is not provided in the given text.

46

OpenFile

OpenFile, File address

Executing this function opens the file selection window.

47

OpenMachine, Interface name

This function allows direct access to the interface specified in the argument without the need to exit the current interface and enter another interface. It is used for devices that have various uses and require different interfaces.

48

OpenRecentFile

By running this function, the last file opened by the user will be reopened. This function can be used even if a portion of the program has been executed and the user has exited the software. The program will reopen from the exact point where the user exited and can continue the program execution.

In the General branch, there is a parameter called OpenRecentFile which, if enabled, will automatically execute this function when the program is opened.

49

OpenReport

Upon running this function, the following window opens, providing the user with information about the project.

(please refer to appendix 6 – Figure (23))

50

OpenSetting

By executing this function, the Setting window opens.

51

OpenSimpleCAM

Reserve

52

OpenTab, Number

By running this function, the desired tab can be opened. The number of the tab can be found in the registry section of the Radonix software in the system.

53

OutPort, Number, Number, …

OutPort, Number

By executing this function, the outputs can be turned on or off. It can be controlled manually using the Momenty key or the Toggle key. If the Momenty key is used, the operation is performed as soon as the function is executed and is stopped when the key is released. If the Toggle key is used, the operation is performed once by pressing the key and to stop the execution, the key must be pressed again.

54

R-CornerJack, Number

By executing this function, you can turn on or off the spindle.

55

ReferenceABCentre

ReferenceABCentre, Axis name

By running this function, the average of two points A and B selected by the SavePoint function is calculated and the resulting number is considered as a reference.

The SavePoint function is explained in row 69 of the same table, please refer to it for more information.

56

RemoteFunctionRun

Reserve

57

RemoteFunctionSelect

Reserve

58

ReplaceLocation

By executing this function, the ToolPath is moved to a selected point. For example, if a program is running and the user pauses it to move the axes to a new position, this function can be used to move the ToolPath to the new position. Then, by pressing the Run button, the program continues from the new point.

59

Rerun

Rerun, Axis name

By executing this function, the program will be repeated without creating any stop. Additionally, this function can be applied to an M-code and that M-code can be added to the G-code program, in which case the program will be repeated.

60

Reset

Reset, Axis name

By executing this function, the tool is moved to the beginning of GCode and ToolPath is reset. Additionally, this function can be applied to an M code and added to the GCode program.

61

RestoreInterface

By executing this function, the program’s Backup is used. For example, if the program’s settings have been mistakenly changed by the user, this function can be used to revert to the program’s Backup.

Ctrl+Alt+Shift+R is actually the shortcut for this function.

By pressing Ctrl+Alt+Shift+F12, the interface settings can be reset. In other words, unused parameters are removed, the interface structure is updated, and the program’s Backup is used for the settings.

62

Rotate

By executing this function, a window will open and by entering the angle in the Angle (Degree) box and pressing the Ok button, the design can be rotated around the Z-axis.

(please refer to appendix 6 – Figure (24))

63

Run, Number

By running this function, the program is executed.

64

RunApplication, File address

RunApplication, File address, B

By executing this function, the desired application is opened. In fact, the function takes the address of an application file and opens the application from that address.

65

RunTimer, Timer name

This function is used to call the desired timer. By executing the function, the timer starts to function according to the settings made in the Timer section of the Seeting window.

In the Timer section of the Seeting window, users can create any number of timers they need.

66

SJog, Axis name

SJog, Axis name, Axis name

SJog, Number

By executing the SJog function, it is possible to move the desired axis in the specified direction incrementally.

67

SaveFile

By executing this function, the GCode file is opened and saved. For example, the user may have resized the file, changed the file’s angle, or made other changes that require the modified file to be saved, and this function can be used for that purpose.

68

SavePoint

69

SaveSecureFile

This function is used in cases where the user wants to use a specific file and for some reasons doesn’t want that file to be executable on a system other than their own. For example, by executing this function, it asks the user for the device serial number and encodes the file with that serial number. The encoded file can only be executed on the device with the same serial number. The extension of the encoded file is RCSF.

(please refer to appendix 6 – Figure (25))

70

Scale

By running this function, a window is opened and you can scale or resize the X, Y, and Z axes. By default, the scale of the axes is 100 percent. A negative value on any axis reverses that axis.

(please refer to appendix 6 – Figure (26))

71

Select, Number

By executing this function, multiple outputs are defined in a way that each output, when activated, will deactivate the others automatically. This function is related to a link named “SelectPin” which allows the user to define up to 32 Toggle keys, and by activating each key, the corresponding output defined by SelectPin will be turned on, while if another output has been defined by SelectPin, it will be turned off automatically. For example, we define three Toggle keys with links Select,1, Select,2, and Select,3, and then we define three outputs with links SelectPin,1, SelectPin,2, and SelectPin,3. By activating the key Select,1, the output 1 will turn on and outputs 2 and 3 will turn off automatically in order. This function is only applicable to the Toggle key.

72

SelectFeed, Number

Based on the given text, this function is used to detect the type of input selector connected to the input, whether it is binary or decimal, because different input selectors can have different types. If SelectBinaryFeed is set to True in the General tab, the connected selector is considered as binary, and if it’s set to False, the connected selector is considered as decimal. The function adds a parameter called SelectBinaryFeed to the General tab.

73

SelectReference, Refereance number

74

SetG54

By executing this function, the current coordinates with their axis will be considered as G54 reference.

75

SetG55

By executing this function, the current coordinates with their axis will be considered as G55 reference.

76

SetG56

By executing this function, the current coordinates with their axis will be considered as G56 reference.

77

SetG57

By executing this function, the current coordinates with their axis will be considered as G57 reference.

78

SetG58

By executing this function, the current coordinates with their axis will be considered as G58 reference.

79

SetG59

By executing this function, the current coordinates with their axis will be considered as G59 reference.

80

SetOutPort, Number

By executing this function, it is possible to turn on or off outputs. This function is usually not used on a toggle key.

81

SetPark

Executing this function sets the current coordinates of the axes as the Park coordinates.

82

SetReference

SetReference, Axis name

SetReference, Axis name, Axis name …

By executing this function, the current coordinates with the axes in it are considered as the reference coordinates. If the machine has a Pointer and the Pointer is active, the user first specifies the point that they want the machine to be referenced to using the Pointer, and then the Pointer automatically calculates the offset and calculates the actual reference coordinates, considering them as the reference coordinates. For more information, please refer to rows 6 and 40 of this table.

83

ShapeScanner

By executing this function, the machine starts to scan the workpiece to display an approximate shape of the workpiece.

84

SimpleCommand, Number

In SimpleCommand process, since the input links, output links, and function are closely related to each other, the complete process is explained in this section, and in order to be completely clear, the used link is mentioned during the process definition. Users can refer to the corresponding table and define the links based on the pin name or function. Also, in the diagram, which is drawn for more clarity, the order of operations and the activation of inputs, outputs, and functions are shown.

The links are represented by the following abbreviations:

((Input Link — I), (Output Link — O), (Function Link — F))

When the SimpleCommand command (function link) is executed, it first turns on the SimpleCommandPin (output link) and then waits for the SimpleCommandSensorPin (input link) input and if the SimpleCommandSensorPin (input link) is triggered or in other words becomes True, it turns off the SimpleCommandPin (output link) and the process ends.

(please refer to appendix 6 – Figure (27))

85

SimpleDelay, Number

When the SimpleDelay command (function link) is executed, depending on the entered argument, it turns on or off the SimpleDelayPin output link and then waits for the amount of time set in the SimpleDelay parameter in the Setting window under the General branch.

86

Simulation, Number

This function restarts the program and allows switching the program mode to simulation mode or exiting simulation mode and returning to normal mode. In simulation mode, the program can be executed without the need for a controller or hardware.

87

Spindle, Number

This function can be used to turn on or off a spindle.

88

SpindleCooler, Number

By running this function, the spindle cooling output can be turned on or off.

89

SpindleCover, Number

By running this function, the spindle cover output can be turned on or off.

90

SpindleSpeed, Number

By executing this function, the spindle speed can be changed. In fact, the Scroll function that changes the spindle speed uses this function, and by using the Value link, the speed value of the program can be determined. This function can also be defined for a button or an input, and depending on the argument entered, the Step factor can be specified.

In the Router branch in the Setting window, there are several parameters that are related to this function (explained in detail in the Router branch description), including SpindleMaxSpeed, SpindleMinSpeed, SpindleSpeedStep, and so on.

91

Stop

By executing this function, the operation of the device is paused during program execution, jog movement, and homing operation.

92

StopHome, Axis name

StopHome, Axis name, Axis name

By executing this function, the operation of the axis or axes specified as an argument is paused during Homing operation.

93

StopJog, Axis name

StopJog, Axis name, Axis name …

By executing this function, the movement of the axis or axes specified as arguments is paused during manual jogging.

94

StopRun

This function pauses the machine operation during program execution.

95

StopRunReset

By executing this function, the machine is paused during program execution and is also returned to the first line of the program (G-Code). In case of running the program again, it will start the program from the beginning.

96

StopTimer, Timer name

By running this function, the timer is disabled. In the Timer branch of the Setting window, the user can create as many timers as needed.

97

SurfaceDetector, Axis name

This function sets the workpiece level. There is also an input link named SurfaceDetectorPin in the table of input links, which is used to define the input or sensor named SurfaceDetector, and by executing the SurfaceDetector function, the workpiece level is determined.

98

SurfaceScan

By running this function, the workpiece surface is scanned, and if there are any protrusions or depressions on the workpiece surface, the function applies changes to the G-Code to level the surface.

99

T-SelectTool

T-ToolNo

This function is used to display the current tool number of the machine, and also allows the tool to be changed by changing the tool number.

100

T-SetToolHeight

By executing this function, the tool height of the machine can be set.

This function is linked to an output called T-ToolHeightPin. Please refer to table 3 for more information.

This function is also linked to an input called T-ToolHeightSensorPin and an input called T-SetToolHeight. Please refer to table 2 for more information.

101

T-ToolHolder, Number

This function is used to open and close the tool holder inside the spindle. By defining the T-ToolHolder function and turning it on, the T-ToolHolderPin output, which is connected to the electrical valve inside the spindle, is turned on and holds or releases the tool inside the spindle according to the specified argument. This function is related to the T-ToolHolderPin output. Please refer to table 3 for more information. Note that if the spindle is on or the machine is running during the program, this function is disabled for safety reasons.

102

ToggleOutPort, Number

ToggleOutPort, Number, Number, …

This function turns on the output pin or pins specified as arguments if they are off, and turns them off if they are on.

103

TransformXY

By executing this function, a window opens that allows scaling and rotating a design around the Z axis. The scaling factor for each axis can be set using the X, Y, and Z fields, and the design can be rotated around the Z axis by entering an angle in degrees in the Angle field. In the default state, the scale of each axis is set to 100%. Negative values can be used for the scale to create symmetry.

(please refer to appendix 6 – Figure (28))

104

Vaccum, Number

By executing this function, you can turn on or off a vacuum output.

105

Zoom, Number

By executing this function, the Zoom operation is applied to the file displayed in ToolPath.

Name of 

the Element

Descriptions

1

AnalogFeed

By running AnalogFeed, it is possible to change the execution speed of the program or feed in an analog manner.

2

AnalogJog, Axis name

By running AnalogJog, the manual or jog motion command is given in an analog manner via the execution of the JoyStick command, and the speed of the manual motion can also be controlled. The AnalogJog command is effective in JoySticks because some of the JoyStick buttons are analog. Also, by changing the pressure applied to the button, the analog level in the JoyStick button is decreased or increased, and with the change in the analog level, the Jog speed is also changed.

3

AnalogJogFeed

It is used as a coefficient for AnalogJog and by changing the analog level, the manual or jog motion speed can be more accurately adjusted.

4

AnalogJogPedal

It is used as a coefficient (the coefficient in AnalogJogPedal is exponential) for AnalogJog, and by changing the analog level, the manual or jog motion speed can be more accurately adjusted. The AnalogJogPedal command is effective in JoySticks because some of the JoyStick buttons are analog. Also, by changing the pressure applied to the button, the analog level in the JoyStick button is decreased or increased, and with the change in the analog level, the Jog speed is also changed.

5

AnalogSpindleSpeed

By running AnalogSpindleSpeed, the spindle performance speed is changed in an analog manner.

Pin name

Descriptions

1

Analog, Number

This parameter is used to create a voltage from 0 to 10 volts on analog outputs and is also used to create a pulse with a density of 0 to 100 percent on PWM outputs. In fact, it is used to manually change the analog.

2

BinaryOutPort

This parameter is used for binary control of spindle speed. For example, an inverter connected to the spindle can be controlled, and depending on the inputs provided by the inverter, the speed can be adjusted.

Note that this parameter is related to the BinaryOutPortPin output and to use this parameter, the corresponding output should also be defined according to Table 3.

3

BlockNumber

This parameter can be used to view the G-Code line number and enter the desired line number.

In Value, the line number value can be viewed and entered. To do this, first the G-Code line number is entered in Value, and by pressing Enter, it is transferred to the entered line number in the G-Code.

In Label, the line number value can be viewed.

In Button, by executing this parameter, a window opens where the line number can be entered, and by pressing the Ok button, it is transferred to the desired line number entered in the G-Code.

(please refer to appendix 6 – Figure (29))

4

ConveyorDisplacement, Axis name

Using this parameter, the amount of conveyor movement can be determined in millimeters. By entering the amount of conveyor movement in millimeters and executing the conveyor command, the conveyor will move by the specified amount and then automatically turn off.

Note that this parameter is related to the ConveyorSensorPin input. For more information, please refer to Table 2.

Note that this parameter is related to the ConveyorPin output and to use it, the corresponding output must be defined according to Table 3.

Note that this parameter is related to the Conveyor function and to use it, the corresponding output must be defined according to Table 4.

Note that this parameter is related to the ConveyorVelocity parameter. For more information, please refer to Row 5 in the same table.

• In Value, the amount of conveyor movement can be viewed and entered.
• In Label, the amount of conveyor movement can be viewed.

5

ConveyorVelocity, Axis name

This parameter is used to set the speed of conveyor movement.

Note that this parameter is related to the input ConveyorSensorPin. For more information, please refer to Table 2.

Note that this parameter is related to the output ConveyorPin. For more information, please refer to Table 3.

Note that this parameter is related to the function Conveyor. For more information, please refer to Table 4.

Note that this parameter is related to the ConveyorDisplacement parameter. For more information, please refer to row 4 in this table.

• In Value, the amount of conveyor movement can be viewed and entered.
• In Label, the amount of conveyor movement can be viewed.

6

This parameter is used to create partial changes in the Reference. For example, during program execution, if the user realizes that a design is skewed at a point and has an error, they can immediately compensate for it by changing the Reference using this parameter.

Note that this parameter is related to the DisplaceReference function. For more information, please refer to Table 4.

Please note that if this parameter is used, the RealTimeReferenceDisplace parameter is added to the General branch in the Settings window and the ReferenceDisplace parameter is added to the General and Axis sub-branches. If the RealTimeReferenceDisplace parameter is enabled or, in other words, set to True, the DisplaceReference parameter can be used during program execution. If it is False, program execution must be stopped first and then the DisplaceReference parameter can be used. Also, the Reference value is shifted by the amount stored in the ReferenceDisplace parameter.

• In Value, the numerical value of the Reference point in the specified axis can be viewed and entered.
• In Lable, the numerical value of the Reference point in the specified axis can be viewed.
• In Button, by executing this parameter, the Reference point in the specified axis is displaced by the value entered in the ReferenceDisplace parameter under the axes (X, Y, Z, A, B, C) in the General branch of the Setting window.

7

Feed

This parameter allows the user to change the speed during program execution by applying a factor to the execution speed. Note that this parameter is related to the Feed function, for more information please refer to table 3.

• In VerticalScroll, the program execution speed factor can be determined and the Feed function is used. For more information, please refer to Table 3.
• In Value, the factor of the program execution speed can be viewed and set.
• In Lable, the factor of the program execution speed can be viewed.
• In Button, by running the Feed function and using the argument entered, the program execution speed factor can be specified. For more information, please refer to Table 3.

8

FitDimension, Axis name

This parameter is used to change the dimensions of the opened file. For example, if the design of the opened file is 150 millimeters along the X-axis and the user wants the design to be 200 millimeters along the X-axis, they use this parameter and by entering the number 200 in the Value field, the design is enlarged to 200 millimeters along the X-axis. In fact, this function is similar to the Scale function, but with the difference that it is enough to enter the final value in each axis and the design changes to that size. Also, depending on the axis chosen as the argument, changes can be made in different axes.

The user can scale the design up or down.

By entering a negative value, in addition to changing the dimensions of that axis, symmetry can be created.

If no value is entered, the file will be opened without any changes. 

• In Value, you can view and enter the desired dimensions. Also, if no value is entered, the file will be opened without any changes.
• In Label, you can see the desired dimensions.

9

Floor

This parameter is used to set a coordinate on the Z-axis such that the tip of the tool will not be allowed to move below that coordinate. Essentially, movement on the Z-axis is limited up to the coordinate specified in the Value field, and this coordinate is also applied to the relevant G-Code. If the Reference point or any point in the G-Code is below the level set in the Floor parameter, all those points will be brought up to the Floor level. Note that any changes to the Floor parameter require reopening the G-Code file for the value to be applied.

Please note that this parameter is related to the Floor function, and for more information, please refer to table number 3.

• In Value, the desired coordinates can be viewed and entered.
• In Label, the desired coordinates can be viewed.
• In Button, by running the Floor function and using the entered argument, it can be used. For more information, please refer to Table 3.

10

SetG54, Axis name

This parameter is used to set a numerical value as a reference for G54. Additionally, the numerical value stored in the G54 reference can be viewed.

• In Value, the numerical value saved as the reference in G54 can be viewed and entered.
• In Label, the numerical value saved as the reference in G54 can be viewed.

11

SetG55, Axis name

This parameter is used to set a numerical value as a reference in G55. It is also possible to view the numerical value that is stored as the reference in G55.

• In Value, you can view and enter the numerical value to be used as the reference for G55.
• In Label, you can view the numerical value that has been stored as the reference for G55.

12

SetG56, Axis name

This parameter is used to set a numerical value as a reference in G56. It is also possible to view the numerical value that is stored as the reference in G56.

• In Value, you can view and enter the numerical value to be used as the reference for G56.
• In Label, you can view the numerical value that has been stored as the reference for G56.

13

SetG57, Axis name

This parameter is used to set a numerical value as a reference in G57. It is also possible to view the numerical value that is stored as the reference in G57.

• In Value, you can view and enter the numerical value to be used as the reference for G57.
• In Label, you can view the numerical value that has been stored as the reference for G57.

14

SetG58, Axis name

This parameter is used to set a numerical value as a reference in G58. It is also possible to view the numerical value that is stored as the reference in G58.

• In Value, you can view and enter the numerical value to be used as the reference for G58.
• In Label, you can view the numerical value that has been stored as the reference for G58.

15

SetG59, Axis name

This parameter is used to set a numerical value as a reference in G59. It is also possible to view the numerical value that is stored as the reference in G59.

• In Value, you can view and enter the numerical value to be used as the reference for G59.
• In Label, you can view the numerical value that has been stored as the reference for G59.

16

HandwheelA, Axis name

HandwheelA is short for Handwheel Axis, and is used to determine the axis in which the handwheel is active. Note that this parameter can be used in inputs.

• In Toggle, by executing it, the handwheel of the desired axis can be activated.

17

HandwheelStep, Axis name

This parameter is for setting the step value of the handwheel for each axis, and with each rotation of the handwheel, the axis will move by the product of the handwheel coefficient and the step value.

• In Value, you can view and enter the value of each Step.
• In Label, you can view the value of each Step.

18

HandwheelX, Number

This parameter is for setting the handwheel ratio.

Typically, the handwheel ratio is 1, 10, 100, or 1000, but it can be set to any value.

Note that this parameter can be used in inputs.

• In Toggle, by executing it, you can select the desired handwheel factor.

19

JogFeed, Number

This parameter is used to set the speed factor for manual jog movements, also known as JogFeed. Note that this parameter is related to the JogFeed function, for more information please refer to table 3.

In VerticalScroll, the speed of manual movement or Jog can be changed.

In Value, the value of the speed of manual movement or Jog can be entered.

In Lable, the value of the speed of manual movement or Jog can be viewed.

In Button, by executing the JogFeed function and using the entered argument, it can be used. For more information, please refer to Table 3.

In Toggle, by executing the JogFeed function and using the entered argument, it can be used. For more information, please refer to Table 3.

20

JogLocation, Axis name

This parameter is used to set the destination coordinates for manual movement or Jogging. For example, if the value of JogLocation is entered as 100 millimeters, by executing the AJog function with the specified argument, the axis will be moved to that coordinate.

Note that this parameter is related to the AJog function. For more information, please refer to table 3.

• In Value, the coordinate value for manual or Jog movement can be viewed and entered. 
• In Label, the coordinate value for manual or Jog movement can be viewed.

21

JogMode, Number

This parameter is used to determine the status of Jog command or manual movement. Note that this parameter is related to JogMode function. For more information, please refer to table number 3.

In Value, the Jog command status can be set.

If the number 0 is entered, Jog is continuous.

If the number 1 is entered, Jog is incremental

In Lable, the Jog command status can be viewed.

In Toggle, by running the JogMode function and using the entered argument, the Jog command status can be set. For more information, please refer to table 3.

22

JogStep, Axis name

This parameter is used to set the step value for Incremental Jog motion.

In Value, the value of the steps for manual jogging can be viewed and entered.

In Lable, the value of the steps for manual jogging can be viewed.

23

JogVelocity

This parameter is used to set the speed of motion during manual movement or Jog in both Incremental and Continuous modes.

In Value, you can view and enter the speed of movement during manual movement or Jog. 

In Label, you can view the speed of movement during manual movement or Jog.

24

NextFile, Number

The GCode branch includes a parameter called MultiFileEnable, which when activated, adds the ability to open multiple files simultaneously to the software. In this case, a list of selected files is made available to the user, which can be rearranged in this list. In fact, this parameter is used to move and control the execution of each of the selected files.

In Button, by executing it and using the input argument, selected files can be viewed.

25

Park, Axis name

This parameter is used to specify the Park coordinates and also allows the user to view the coordinates set for Park according to the specified axis as an argument.

In Value, you can view and set the Park coordinates.

In Label, you can view the Park coordinates.

26

Reference, Axis name

This parameter is used to activate the Reference coordinates, and also the coordinates set for the Reference can be viewed based on the specified axis as an argument.

In Value, the active Reference coordinates can be viewed and set.

In Label, the active Reference coordinates can be viewed.

27

SafeZ

This parameter is used to set the SafeZ coordinate, and you can also view the SafeZ coordinate. In fact, when moving the Z-axis to different positions, this parameter is used to avoid traveling the full course on the Z-axis. In this case, a lower coordinate can be defined for SafeZ, which will be moved to that coordinate during movement, resulting in less time spent traveling between positions.

In Value, you can view and set the SafeZ coordinates.

In Label, you can view the SafeZ coordinates.

28

SelectFeed, Number

This parameter is used to connect binary and decimal keys for setting the speed factor. If this parameter is used, a parameter called SelectBinaryFeed is added to the General branch. If SelectBinaryFeed is active or True, the defined key is considered binary and if SelectBinaryFeed is inactive or False, the defined key is considered decimal.

In Toggle, by executing the SelectFeed parameter and using the entered argument, the feed rate coefficient can be determined.

29

SelectReference

SelectReference, Reference Number

This parameter is used to activate the Reference and it’s also possible to view the active Reference.

Note that this parameter is similar to the SelectReference function.

In Value, the active Reference can be viewed and set. 

In Lable, the active Reference can be viewed. 

In Button, by executing this parameter and using the entered argument, the active Reference can be set. 

In Toggle, by executing this parameter and using the entered argument, the active Reference can be set.

30

ShowGroup / 

ShowGroup, Group number

This parameter is used to determine the group number and the used group number can also be viewed. In other words, there is a capability on the edit page of the interface to group elements. For example, three keys can be placed in group 1 and four other keys in group 2. Now, using this parameter, the contents of the called group can be viewed and used, in fact, it is a kind of Tab.

In Value, the used group number can be viewed and set.

In Label, the used group number can be viewed.

In Button, by executing this parameter and using the entered argument, the desired group number can be activated.

In Toggle, by executing this parameter and using the entered argument, the desired group number can be activated.

 31

SimpleCommand, Number

In SimpleCommand, since the input links, output links, and function are all closely related, the entire process is fully explained in this section. To ensure clarity, the links used are mentioned when defining the process, and the user can refer to the relevant table based on the pin name or function to define the links. Additionally, a diagram is provided that depicts the order of operations and the activation of inputs, outputs, and functions for greater clarity.

The links are represented by the following shorthand symbols:

((Input Link — I), (Output Link — O), (Function Link — F))

When the SimpleCommand (parameter link) command is executed, first the SimpleCommandPin (output link) is turned on, and then it waits for the input of SimpleCommandSensorPin (input link) and if the SimpleCommandSensorPin (input link) is triggered or, in other words, becomes True, it turns off the SimpleCommandPin (output link) and the process ends.

(please refer to appendix 6 – Figure (30))

In Lable, you can see the on/off state of the SimpleCommand.

In Button, by executing this parameter with the specified argument, the SimpleCommand process is executed.

In Toggle, by executing this parameter, the SimpleCommand process is executed.

32

SimpleCommandManual

This parameter is used to enable or disable the SimpleCommand process. If SimpleCommandManual is set to True, the SimpleCommand process is completely disabled, and if it’s set to False, the SimpleCommand process is enabled.

In Lable, you can see if SimpleCommand is enabled or disabled.

In Toggle, by executing this parameter, you can enable or disable SimpleCommandManual.

33

Smoothness

This parameter is used to set the motion smoothness and also to view the set motion smoothness.

There is a parameter in ToolPath in the Settings window that is related to motion smoothness.

Motion smoothness can be defined from 0 to 250 milliseconds. 250 has the highest smoothness value.

Note that if the machine acceleration is above 1000, it is better to reduce the motion smoothness, and if the machine acceleration is low, the smoothness can be increased up to 250 milliseconds.

High acceleration and smoothness can have an undesirable effect on the coordination between axes.

For a router machine, a value of about 50 milliseconds is recommended.

In Value, you can both view and set the value of Smoothness.

In Lable, you can view the value of Smoothness.

34

SpindleAutoOff

This parameter is used to turn off the Spindle in G-Codes that do not have the M code for turning off the Spindle.

In Toggle, this parameter can be used to turn off the spindle.

In Lable, you can see the status of the spindle being off.

In Button, by executing this parameter, you can turn off the spindle.

35

SpindleAutoOn

This parameter is used to turn on the Spindle in G-Codes where there is no M-code to turn it on.

In Toggle, by executing this parameter, you can turn on the spindle.

In Lable, you can see if the spindle is on or not.

In Button, by executing this parameter, you can turn on the spindle.

36

SpindleSpeed, Number

This parameter is used to change the spindle speed and can also display the spindle speed. In the Router branch of the Setting window, there are several parameters related to this parameter (which are fully explained in the section on the Router branch). These include SpindleMaxSpeed, SpindleMinSpeed, SpindleSpeedStep, and more. Note that this parameter is related to the SpindleSpeed function. For more information, please refer to Table 3.

In Value, the spindle speed can be viewed and set. 

In Lable, the spindle speed can be viewed. 

In VerticalScroll, the spindle speed can be changed and the SpindleSpeed function (function link) can be used with the argument entered. For more information, please refer to Table 3. 

In Button, the spindle speed can be changed and the SpindleSpeed function (function link) can be used with the argument entered. For more information, please refer to Table 3.

37

T-SelectTool

T-ToolNo

T-SelectTool, Tool number

T-ToolNo, Tool number

This parameter is used to select the tool in machines that have a tool changing capability (Toolchange).

Both T-SelectTool and T-ToolNo parameters are similar.

In Value, you can view and set the tool number.

In Lable, you can view the tool number.

In Toggle, by executing this parameter, you can select the desired tool number.

In Button, by executing this parameter, you can select the desired tool number.

38

T-ToolHeight

This parameter is used to set and display the tool height value in devices that have the ability to change tools (Toolchange).

In Value, you can view and set the tool height.

In Lable, you can view the tool height.

39

ToolPathReport, Number

After loading a file and displaying it in ToolPath, in the top left corner of ToolPath, the address of the loaded file is displayed, and the Work Size or the workpiece size in different axes, and the Work Length or the total length of the work can be viewed. To display these items in Value or Lable, this parameter is used.

In Lable, you can view a report of the file

40

Velocity   

Velocity, Axis name

Velocity, Axis name, Axis name …

This parameter is used to display the program execution speed.

In Lable, the program execution speed can be viewed.

Name of Element

Descriptions

1

ControlStatus, Number

Different statuses of the controller and software can be viewed.

2

EnabledStatus, Axis name

When the selected axis is active or enabled, the signal element turns on.

3

JogStatus, Axis name

When the selected axis is in Jog or manual movement, the signal element is turned on.

4

RunStatus, Axis name

When the selected axis is in the Run mode, the signal element is turned on.

5

ReadyStatus, Axis name

When the selected axis is in the Ready state and has no alarms, the signal element will turn on.

6

AlarmStatus, Axis name

If an alarm occurs in the designated axis, the signal element turns on.

7

LimitNStatus, Axis name

When the selected axis has reached the negative limit, the signal element turns on.

8

LimitPStatus, Axis name

When the selected axis is taken from the positive limit, the signal element turns on.

9

LimitStatus, Axis name

When the specified axis is taken to its limit, the signal element turns on.

10

ErrorStatus, Axis name

When the specified axis has an Alarm or Limit, the signal element turns on.

  GCode

Following the steps in the above image, a new M-code can be added. In other words, according to step 1, first, right-click on the GCode branch and then, according to step 2, by clicking on “Add M-Code”, a window called “Enter new M-Code” is opened. Then, according to step 3, the desired M-code name can be added to the window. For example, by typing M8 and pressing the OK button (according to step 4), M8 is added to the GCode branches.

  GCode\AlarmMCodes

During an alarm, this variable is checked and if one or more M codes are stored in this variable, they will be executed.

• Note that to save an M code, simply type the desired M code and then press the “Set” button.
• Keep in mind that the M code must be defined under the GCode branch.
• To enter multiple M codes, simply separate them with commas. For example, enter “M8,M5” and then press the “Set” button.

  GCode\Axes

This subtree is used to specify the axes from the ToolPath that the user wants to be considered in the GCode. For example, if the ToolPath includes the XYZ axes, by writing XY in this variable, only the X and Y axes will be considered in the GCode.

• By default, the software matches the axes that are read from the GCode exactly with the axes that exist in the ToolPath.

  GCode\ConvertFormat

When converting a DXF file to GCode, the number of decimal places displayed in the GCode can be determined. For example, by entering 0.0000 in the relevant box, four decimal places are considered for all numbers in the DXF file. If the number of decimal places is greater, only four decimal places are considered, and if the number of decimal places is less or there are no decimals, zeros are added up to four decimal places.

• Note that the number of zeros before the decimal point determines the number of decimal places. For example, by entering 0.00 in the relevant box, two decimal places are considered for all numbers in the DXF file. If the number of decimal places is greater, only two decimal places are considered, and if the number of decimal places is less or there are no decimals, zeros are added up to two decimal places.
• Note that if # is used to determine the number of decimal places, and the actual number of decimal places is greater, the decimal places are reduced by the number of # signs. Otherwise, if the number of decimal places is less or there are no decimals, the same number is displayed. For example, by entering ###.0 in the relevant box, if the numbers in the DXF file have more decimal places, only three decimal places are considered, and if the number of decimal places is less or there are no decimals, the same number is displayed in the GCode without any change.

  GCode\DownMCodes

When opening the GCode, if Tangent is active, this M code is used to move the Z-axis downwards.

• Note that to define an M code, simply type the M code and then press the Set button.
• Note that the M code must be defined under the GCode branch.
• If a jack is used to move the Z-axis, this command is used.
• To enter multiple M codes, simply separate them with a comma. For example, M78, M77 and then press the Set button.

GCode\EmergencyMCodes

If an M code or multiple M codes are defined in this section, they will be executed in case of an Emergency.

To define an M code, simply type the code and press the Set button.

Note that the M code must be defined under the GCode branch.

To enter multiple M codes, simply separate them with commas. For example, enter “M8,M5” and then press the Set button.

GCode\HoldMCodes

This appears to be a duplicate of the previous message you asked me to translate. Here is the translation again:

If an M code or codes are defined in this section, they will be executed during Hold functions.

Note that to define an M code, you just need to write the code and press the Set button.

Also note that the M code must be defined in the GCode subcategory.

To enter multiple M codes, simply separate them with a comma. For example, enter “M78, M77” and then press Set.

GCode\HomingMCodes

If M codes are defined in this section, they will be executed during the execution of Home functions.

Note that to define an M code, simply write the desired code and then press the Set button.

Note that the M code must be defined under the GCode branch.

To enter multiple M codes, simply separate them with a comma. For example, M8, M7, and then press the Set button.

GCode\InitializeMCodes

If an M code or multiple M codes are defined in this section, they will be executed at the beginning of the program.

Note that to define an M code, you simply need to write the M code and then press the Set button.

Keep in mind that the M code must be defined under the GCode branch.

To enter multiple M codes, simply separate them with commas. For example, M8, M7, and then press the Set button.

GCode\MultiFileEnabled

The variable “MultiFileEnabled” is defined as True or False. If it is True, multiple files can be opened simultaneously. In other words, after selecting the desired files, they are opened in order and the next file is automatically opened after each file is finished, and it is only necessary to press the Run button to execute each file.

GCode\MultiReference

The variable MultiReference is defined as True or False.

If it is False and no reference is specified in the GCode, the reference set in the software page will be used as the criterion and the GCode will be executed based on that reference.

If it is False and a reference is specified in the GCode, the reference specified in the GCode will be used as the criterion and the entire GCode will be executed based on that reference.

If it is True, the reference can be changed within the GCode. For example, it can be specified that a part of the GCode should be executed using reference G54 and another part using reference G59. In this case, the machine will be initially positioned at reference G54 and the GCode will be executed, and when it reaches the GCode line that specifies reference G59, the machine will be moved to reference G59 and the remaining GCode will be executed based on that reference. (Note that G54 and G59 are mentioned as an example.)

GCode\Priority

The Priority variable is used when the ShortCut variable is in the True, General branch or is determined using the RunFromHere command to specify that the program is executed from a specific line.

Please note that the ShortCut variable is used as a program shortcut, meaning that if the False, ShortCut variable is used, the machine will first move to the reference point or zero position and the program will be executed from the beginning. If the ShortCut variable is True, the machine is moved to the first cutting and executable line, and the program is executed from there, taking into account the last state the machine must have for the program to run, such as the last tool used, spindle speed, or any M code specified for program execution. The order of execution for M, T, P, and S codes can be determined in the Priority section. For example, if T is written first in the Priority section, tool change is performed first, and if S is written, spindle speed is determined. In fact, the order of execution for M, T, P, and S codes is determined in this section.

If the RunFromHere command is executed to specify that the program is executed from a specific line, the last state the machine must have for the program to run is taken into account. This includes the last tool used, spindle speed, or any M code specified for program execution at the specified line. The order of execution for M, T, P, and S codes can be determined in the Priority section. For example, if T is written first in the Priority section, tool change is performed first, and if S is written, spindle speed is determined. In fact, the order of execution for M, T, P, and S codes is determined in this section.

GCode\ResetMCodes

If M codes are defined in this section, they will be executed when the Reset functions are run. 

Please note that in order to define an M code, you simply need to write the desired M code and then press the Set button.

Also, please note that the M code must be defined under the GCode branch. To enter multiple M codes, simply place a comma between the desired M codes, such as M10, M11, and then press the Set button.

GCode\RunMCodes

If M codes are defined in this section, they will be executed during the execution of the Run functions.

Note that to define an M code, simply write the desired M code and then press the Set button.

Note that the M code must be defined under the GCode branch.

To enter multiple M codes, simply separate them with a comma. For example, M10, M11 and then press the Set button.

GCode\SaveExtension

In this section, you can specify the file extension for the GCode format.

Note that there are several useful extensions in the list provided in this section. Alternatively, you can enter or change the GCode extension as needed by right-clicking on one of the items in the list, typing the desired extension, and then pressing the Set button.

GCode\ShowLineNumber

The ShowLineNumber variable is defined as True or False.

If this variable is False, line numbers will not be displayed in the GCode display section (Figure 9, section 7).

If this variable is True, line numbers will be displayed in the GCode display section (Figure 9, section 7).

GCode\StopMCodes

If M codes are defined in this section, they will be executed during the execution of the Stop functions.

Note that to define an M code, simply write the desired M code and then press the Set button.

Note that the M code must be defined under the GCode branch.

To enter multiple M codes, simply separate them with a comma. For example, M10, M11 and then press the Set button.

GCode\ToolChangerMCodes

If M codes are defined in this section, they will be executed during the tool change operation.

Note that to define an M code, simply write the desired M code and then press the Set button.

Note that the M code must be defined under the GCode branch.

To enter multiple M codes, simply separate them with a comma. For example, M10, M11 and then press the Set button.

GCode\UpMCodes

When opening GCode, if the tangent is active, this M code is used to move the Z-axis upward.

Note that to define an M code, simply write the desired M code and then press the Set button.

Note that the M code must be defined under the GCode branch.

If a jack is used to move the Z-axis, this command is used.

To enter multiple M codes, simply separate them with a comma. For example, M78, M77 and then press the Set button.

GCode\Extension

According to the steps in the figure above, a new extension can be added. That is, according to step 1, right-click on the Extension branch, and then according to step 2, by pressing the Add Extension button, a window called “Enter new Extension” opens, and according to step 3, the desired Extension name can be added to the window. For example, by typing “tab” and pressing OK (step 4), “tab” is added to the sub-branches of Extension.

  GCode\Extension\[ext]

[ext] can be any of the CNC formats (Standard G-Code), Default (Unknown files), fan (Fanuk G-Code), fgc (FGC G-Code), gc (FelexiCAM G-Code), fnc (F G-Code), Nc (NC Code), plc (GMS G-Code), tap (SolidCAM G-Code), or any other format defined by the user.

If a format is not specified in the GCode, it can be opened using this format. In other words, using the Default (Unknown files) format, all GCode formats can be opened.

  GCode\Extension\dxf (Autocad)\[color]

  GCode\M[n]

GCode\S

   General

  General\DefaultReference

During software startup, it is determined which reference will be the default. For example, if DefaultReference = 54, G54 reference will be used.

The last reference saved through the SetReference function is stored in the DefaultReference variable.

  General\FeedStep

This variable represents the step size for changes in the Scroll feed. By changing the FeedStep value, the amount of change per step can be determined, which is how much the Feed speed is increased or decreased for each unit of movement in the Scroll. For example, if FeedStep = 10, the Feed speed is increased or decreased by 10% for each unit of movement in the Scroll.

  General\FirstGoHome

The FirstGoHome variable is defined as True or False.

If this variable is False, FirstGoHome is generally disabled and ignored.

If this variable is True, the machine is automatically moved to the Home coordinates after software startup.

  General\JogFeedStep

This variable represents the step size for changes in the Scroll jog feed. By changing the JogFeedStep value, the amount of change per step can be determined, which is how much the JogFeed speed is increased or decreased for each unit of movement in the Scroll. For example, if JogFeedStep = 10, the JogFeed speed is increased or decreased by 10% for each unit of movement in the Scroll.

  General\KeepLocation

KeepLocation variable is defined as True or False.

If this variable is False, KeepLocation is generally disabled and ignored.

If this variable is True, the last coordinates are saved if anything happens that causes the user to exit the Radonix software. When the software is used again, it will be able to execute the program from those coordinates. For example, if there is a power outage, the last position is saved and the program can be resumed from that position after the power is restored and the software is reopened.

  General\MaxFeed

This variable is used to determine the maximum value of Scroll and Feed. By changing the value of MaxFeed, the maximum amount of Scroll and Feed can be determined. For example, if MaxFeed=100, the Scroll and Feed can be changed up to a maximum of 100%

  General\MaxJogFeed

This variable is used to determine the maximum value of Scroll and JogFeed. By changing the value of MaxJogFeed, the maximum amount of Scroll and JogFeed can be determined. For example, if MaxJogFeed=100, the JogFeed can be changed up to a maximum of 100% in the Scroll.

  General\OpenRecentFile

The variable OpenRecentFile is defined as True or False. If this variable is False, OpenRecentFile is generally disabled and ignored. If this variable is True, the last used file is automatically opened after starting the software.

  General\ParkEnabled

The variable ParkEnabled is defined as True or False. If this variable is False, ParkEnabled is generally disabled and ignored. If this variable is True, the machine is automatically moved to the Park coordinates after completing the program.

Note that the Park coordinates are fully explained in the General[axis]\Park address in this table, please refer to it for more information.

  General\ShortCut

The variable ShortCut is defined as True or False. The ShortCut variable is used for program shortcuts. If this variable is False, the machine is moved to the reference point or zero point before the program starts and all codes are executed from the beginning. If this variable is True, the machine is moved to the first cutting and executable line, and the program starts. In this case, codes such as P, T, S, and M that must be used to execute the program may exist before the program starts and are checked, and the last state that the machine must have for executing the program is taken into account. For example, if the T code is placed first in the Priority section, the tool is first replaced, and if it is the S code, the spindle speed is determined, and so on, the order of execution of the P, T, S, and M codes is determined.

Note that if the ShortCut variable is True in the GCode section, the Priority variable is used.

  General\SimpleDelay

the SimpleDelay variable is completely related to the SimpleDelay function (Table 4) and the SimpleDelayPin output (Table 3), the complete process operation is explained in this section. To make it clear and understandable during the process definition, the link used is mentioned, and it is sufficient to refer to the relevant table according to the name of the pin or function and define the links. When the SimpleDelay command (link to the function) is executed, depending on the argument entered in the SimpleDelay function, the SimpleDelayPin output is turned on or off, and then a delay is created for the time set by this variable.

Note that the SimpleDelay function has an argument, and when defining the SimpleDelay function, refer to Table 4.

  General\[axis]

Please note that based on the installed interface, [axis] can be any of the X, Y, Z, A, B, C axes. All settings are the same for all axes, with the difference that the desired settings are created on the selected axis.

  General\[axis]\JogLocation

Given that the JogLocation variable is completely related to the JogLocation parameter (Table 6) and the AJog function (Table 4), the complete functionality of the process is explained in this section. To make it clear and complete, the link used is mentioned when defining the process, and it is sufficient to refer to the relevant table and links based on the name of the parameter or function.

The JogLocation variable is the destination coordinates when moving manually or, in other words, Jogging. For example, if the JogLocation value is entered as 100, the [axis] axis will be moved to coordinate 100 by running the AJog function.

Note that this variable is similar to the JogLocation parameter (Table 6) with the difference that the JogLocation parameter (Table 6) has an argument for specifying the axes.

Also note that, based on the installed interface, [axis] can be any of the X, Y, Z, A, B, or C axes.

  General\[axis]\JogMaxVelocity

This variable is used to determine the maximum speed of Jog movement in the [axis] axis, and by changing the value of JogMaxVelocity, the maximum speed of Jog movement in the [axis] axis can be determined. For example, if JogMaxVelocity=100, the maximum Jog movement speed in the [axis] axis can be increased up to 100 millimeters per second.

Note that according to the installed interface, [axis] can be any of the X, Y, Z, A, B, or C axes.

  General\[axis]\JogStep

This variable is used to determine the step size in the [axis] axis during manual or Jog movement in an incremental manner.

Note that this variable is similar to the JogStep parameter (Table 6), with the difference being that the JogStep parameter has an argument for determining the axes.

Also note that according to the installed interface, [axis] can be any of the X, Y, Z, A, B, or C axes.

  General\[axis]\JogVelocity

This variable is used to set the movement speed during manual or Jog movement on the [axis] axis for both Incremental and continuous modes.

Note that this variable is similar to the JogVelocity parameter (Table 6) with the difference that JogVelocity parameter (Table 6) has arguments to determine the axes.

Note that according to the installed interface, [axis] can be any of the X, Y, Z, A, B, or C axes.

  General\[axis]\Park

variable is used to determine the Park coordinates. For example, if the value of Park is set to 100 and the variable ParkEnabled is active or True, after the program execution is completed, the [axis] axis will be automatically moved to coordinate 100.

Note that this variable is similar to the Park parameter in Table 6, with the difference being that the Park parameter in Table 6 has arguments to determine the axes.

Also note that according to the installed interface, [axis] can be any of the X, Y, Z, A, B, or C axes.

  General\[axis]\StopDisplacement

After executing the Stop function during program execution, the [axis] axis will be displaced by the amount stored in the StopDisplacement parameter. For example, if the value of StopDisplacement is set to 10 millimeters, after executing the Stop function and the program is stopped, the [axis] axis will be automatically displaced by 10 millimeters in the positive direction.

Note that according to the installed interface, [axis] can be any of the X, Y, Z, A, B, or C axes.

  JoyStick

Left Trigger { LeftTriggerA, LeftTrigger+D }

Right Trigger { RightTriggerA, RightTrigger+D }

Left Bumper { LeftBumperD }

Right Bumper { RightBumperD }

Back Button { BackButtonD }

Start Button { StartButtonD }

X Button { XButtonD }

Y Button { YButtonD }

Left Stick { LeftStickButtonD, LeftStickXA, LeftStickX-D, LeftStickX+D, LeftStickYA, LeftStickY-D, LeftStickY+D }

B Button { BButtonD }

A Button { AButtonD }

Directional Pad { DPadLeftD, DPadRightD, DPadUpD, DPadDownD }

Right Stick { RightStickButtonD, RightStickXA, RightStickX-D, RightStickX+D, RightStickYA, RightStickY-D, RightStickY+D }

Note that (A: Analog, D: Digital).

  JoyStick/Enabled

The variable “Enabled” is defined as True or False.

If it is False, the Joystick is generally disabled and ignored.

If it is True, the Joystick is enabled.

  JoyStick/ExponentialTrigger

The variable “ExponentialTrigger” is defined as True or False.

• If it is False, changes are linear. For example, when increasing speed, the speed increases linearly from 10 to 20 and then to 30.
• If it is True, changes are exponential. For example, when increasing speed, the speed increases exponentially from 10 to 25 and then to 80.

  JoyStick/AButton/Enabled

The variable “Enabled” is defined as True or False.

• If it is False, the AButton is generally disabled and ignored.
• If it is True, the AButton is enabled according to the defined link.

  JoyStick/AButton/Link

  JoyStick/BackButton/Enabled

The variable “Enabled” is defined as a Boolean (True or False).

• If this variable is False, the BackButton is disabled and ignored.
• If this variable is True, the BackButton is enabled according to the specified link.

  JoyStick/BackButton/Link

  JoyStick/DPadLeft/Enabled

The variable “Enabled” is defined as True or False.

• If this variable is False, DPadLeft is completely disabled and ignored.
• If this variable is True, DPadLeft is enabled based on the defined link

  JoyStick/DPadLeft/Link

  JoyStick/DPadRight/Enabled

The variable Enabled is defined as True or False.

• If this variable is False, DPadRight is generally disabled and ignored.
• If this variable is True, DPadRight is enabled according to the specified link.

  JoyStick/DPadRight/Link

  JoyStick/DPadUp/Enabled

The variable “Enabled” is defined as a Boolean (True/False) value. 

• If this variable is False, DPadUp is disabled and ignored.
• If this variable is True, DPadUp is enabled according to the specified link.

JoyStick/DPadUp/Link

JoyStick/LeftBumper/Enabled

The variable “Enabled” is defined as True or False.

• If this variable is False, the LeftBumper is generally disabled and ignored.
• If this variable is True, the LeftBumper is enabled based on the specified link.

JoyStick/LeftBumper/Link

JoyStick/LeftStickButton/Enabled

The variable Enabled is defined as True and False.

• If this variable is False, LeftStickButton is generally disabled and ignored.
• If this variable is True, LeftStickButton is activated according to the specified link.

JoyStick/LeftStickButton/Link

JoyStick/LeftStickX/Enabled

The variable “Enabled” is defined as True or False.

• If this variable is False, “LeftStickX” is generally disabled and ignored.
• If this variable is True, “LeftStickX” is enabled according to the specified link.

JoyStick/LeftStickX/Link

JoyStick/LeftStickX-/Enabled

The variable Enabled is defined as True and False.

• If this variable is False, LeftStickX- is generally disabled and ignored.
• If this variable is True, LeftStickX- is enabled according to the specified link.

JoyStick/LeftStickX-/Link

JoyStick/LeftStickX+/Enabled

The variable Enabled is defined as True or False.

• If this variable is False, LeftStickX+ is generally disabled and ignored.
• If this variable is True, LeftStickX+ is activated according to the specified link.

JoyStick/LeftStickX+/Link

JoyStick/LeftStickY/Enabled

The variable “Enabled” is defined as a Boolean variable, with a value of either True or False.

• If the variable is False, the LeftStickY is generally disabled and ignored.
• If the variable is True, LeftStickY is enabled and active according to the designated link.

JoyStick/LeftStickY/Link

JoyStick/LeftStickY-/Enabled

The variable Enabled is defined as True or False.

• If this variable is False, LeftStickY- is disabled and ignored.
• If this variable is True, LeftStickY- is activated based on the specified link.

JoyStick/LeftStickY-/Link

JoyStick/LeftStickY+/Enabled

The variable Enabled is defined as True or False. If this variable is False, LeftStickY+ is completely disabled and ignored. If this variable is True, LeftStickY+ is activated according to the specified link.

JoyStick/LeftStickY+/Link

JoyStick/LeftTrigger/Enabled

The variable Enabled is defined as True and False.

• If this variable is False, LeftTrriger is disabled entirely and ignored.
• If this variable is True, LeftTrriger is activated based on the assigned link.

JoyStick/LeftTrigger/Link

JoyStick/LeftTrigger+/Enabled

The variable “Enabled” has been defined as true and false.

• If this variable is false, LeftTrigger+ is generally disabled and ignored.
• If this variable is true, LeftTrigger+ is activated according to the specified link.

JoyStick/LeftTrigger+/Link

JoyStick/RightBumper/Enabled

The variable “Enabled” is defined as True or False.

• If this variable is False, the “RightBumper” is completely disabled and ignored.
• If this variable is True, the “RightBumper” is activated according to the specified link.

JoyStick/RightBumper/Link

JoyStick/RightStickButton/Enabled

Variable Enabled is defined as True or False.

• If this variable is False, RightStickButton is generally disabled and ignored.
• If this variable is True, RightStickButton is enabled based on the assigned link.

JoyStick/RightStickButton/Link

JoyStick/RightStickX/Enabled

Variable Enabled is defined as True or False.

• If this variable is False, RightStickX is generally disabled and ignored.
• If this variable is True, RightStickX is enabled based on the assigned link.

JoyStick/RightStickX/Link

JoyStick/RightStickX-/Enabled

Variable Enabled is defined as True or False.

• If this variable is False, RightStickX- is generally disabled and ignored.
• If this variable is True, RightStickX- is enabled based on the assigned link.

JoyStick/RightStickX-/Link

JoyStick/RightStickX+/Enabled

Variable Enabled is defined as True or False.

• If this variable is False, RightStickX+ is generally disabled and ignored.
• If this variable is True, RightStickX+ is enabled based on the assigned link.

JoyStick/RightStickX+/Link

JoyStick/RightStickY/Enabled

Variable Enabled is defined as True or False.

• If this variable is False, RightStickY is generally disabled and ignored.
• If this variable is True, RightStickY is enabled based on the assigned link.

JoyStick/RightStickY/Link

JoyStick/RightStickY-/Enabled

Variable Enabled is defined as True or False.

• If this variable is False, RightStickY- is generally disabled and ignored.
• If this variable is True, RightStickY- is enabled based on the assigned link.

JoyStick/RightStickY-/Link

JoyStick/RightStickY+/Enabled

Variable Enabled is defined as True or False.

• If this variable is False, RightStickY+ is generally disabled and ignored.
• If this variable is True, RightStickY+ is enabled based on the assigned link.

JoyStick/RightStickY+/Link

JoyStick/RightTrigger/Enabled

Variable Enabled is defined as True or False.

• If this variable is False, RightTrigger is generally disabled and ignored.
• If this variable is True, RightTrigger is enabled based on the assigned link.

JoyStick/RightTrigger/Link

JoyStick/RightTrigger+/Enabled

Variable Enabled is defined as True or False.

• If this variable is False, RightTrigger+ is generally disabled and ignored.
• If this variable is True, RightTrigger+ is enabled based on the assigned link.

JoyStick/RightTrigger+/Link

JoyStick/StartButton/Enabled

Variable Enabled is defined as True or False.

• If this variable is False, StartButton is generally disabled and ignored.
• If this variable is True, StartButton is enabled based on the assigned link.

JoyStick/StartButton/Link

JoyStick/XButton/Enabled

Variable Enabled is defined as True or False.

• If this variable is False, XButton is generally disabled and ignored.
• If this variable is True, XButton is enabled based on the assigned link.

JoyStick/XButton/Link

JoyStick/YButton/Enabled

Variable Enabled is defined as True or False.

• If this variable is False, YButton is generally disabled and ignored.
• If this variable is True, YButton is enabled based on the assigned link.

JoyStick/YButton/Link

Keyboard

As shown in the steps illustrated in the above figure, a new Shortcut can be added. First, as per step 1, click the Keyboard branch with the left mouse button, then, as per step 2, by pressing Add Key, the Enter Key window opens, and then, as per step 3, by pressing the desired key or keys, the Shortcut is added. For example, by pressing Ctrl, Alt, and G, and then pressing the OK button (as per step 4), the new Shortcut is added to the Keyboard branch.

Note that by default, several Shortcuts are defined, and by referring to the table related to the function links (Table 4), you can become familiar with the functionality of each defined Shortcut. Additionally, according to the user’s needs, a new Shortcut can be defined by selecting the desired link (Table 4)

Keyboard/Enabled

The Enabled variable is defined as True or False. If this variable is False, the keyboard is disabled and ignored. If it is True, the keyboard is enabled.

Keyboard/KeypadBackColor

This variable is used to change the background color of the Keypad window.

Keyboard/KeypadEnabled

The KeypadEnabled variable is defined as True or False. If this variable is False, the Keypad is disabled and ignored. If it is True, the Keypad is enabled, and you can enter or modify a number in the Value element using this window.

1. Used to enter the desired number.
2. Used to close the opened window.
3. Used to add one unit to the number in section 1.
4. Used to subtract one unit from the number in section 1.
5. Used to clear the number in section 1.
6. The desired number can be entered using the available digits. Additionally, if decimal numbers are needed, the key can be used.
7. Used to confirm and enter the number.

Keyboard/KeypadExtended

The variable KeypadExtended is defined as True or False. If this variable is False, KeypadExtended is generally disabled and ignored. If this variable is True and the KeypadEnabled variable is also True, KeypadExtended is enabled, and you can enter the desired number and perform the four basic arithmetic operations (addition, subtraction, multiplication, and division) using this window.

1. Used to enter the desired number.
2. Used to add one unit to the number in section 1.
3. Used to subtract one unit from the number in section 1.
4. Used to clear the number in section 1. 
5. The desired number can be entered using the available digits, and if decimal numbers are needed, the button  can be used.
6. Used to perform the four basic arithmetic operations (addition, subtraction, multiplication, and division).
7. Used to confirm and enter the number.
8. Used to close the opened window.

Keyboard/[ALT]Apps (The link defined in the Link section is displayed.) / Enabled

The variable “Enabled” is defined as True or False.

If this variable is False, the corresponding shortcut will be disabled and ignored.

If it is True and the selected link is valid, the corresponding shortcut (which involves pressing Alt and Apps keys simultaneously) will be activated based on the selected link.

According to the fact that all links in the shortcuts are fully explained in the table related to the functions (Table 4), for more information, refer to Table 4.

Keyboard/[ALT]Apps (The link defined in the Link section is displayed.) / Link

Keyboard/[ALT]D0(The link defined in the Link section is displayed.) / Enabled

The variable “Enabled” is defined as True and False. If this variable is False, the desired shortcut is generally disabled and ignored. If this variable is True, the desired shortcut, which is pressing both the D0 and Apps buttons simultaneously, will be enabled based on the selected link.

• Considering that all the links in the shortcuts are fully described in the table related to the functions (Table 4), please refer to Table 4 for more information.

Keyboard/[ALT]D0(The link defined in the Link section is displayed.) / Link

Keyboard/[ALT]D1(The link defined in the Link section is displayed.) / Enabled

The variable “Enabled” is defined as True and False.

If this variable is False, the desired shortcut is generally disabled and ignored.

If this variable is True, the desired shortcut, which is pressing both the Alt and D1 buttons simultaneously, will be enabled based on the selected link.

• Considering that all the links in the shortcuts are fully described in the table related to the functions (Table 4), please refer to Table 4 for more information.

Keyboard/[ALT]D1(The link defined in the Link section is displayed.) / Link

Keyboard/[ALT]Down(The link defined in the Link section is displayed.) / Enabled

The variable “Enabled” is defined as True and False. 

If this variable is False, the desired shortcut is generally disabled and ignored.

If this variable is True, the desired shortcut, which is pressing both the Alt and Down buttons simultaneously, will be enabled based on the selected link.

• Considering that all the links in the shortcuts are fully described in the table related to the functions (Table 4), please refer to Table 4 for more information.

Keyboard/[ALT]Down(The link defined in the Link section is displayed.) / Link

Keyboard/[ALT]End(The link defined in the Link section is displayed.) / Enabled

The variable “Enabled” is defined as True and False. 

If this variable is False, the desired shortcut is generally disabled and ignored.

If this variable is True, the desired shortcut, which is pressing both the Alt and End buttons simultaneously, will be enabled based on the selected link.

Considering that all the links in the shortcuts are fully described in the table related to the functions (Table 4), please refer to Table 4 for more information.

Keyboard/[ALT]End(The link defined in the Link section is displayed.) / Link

Keyboard/[ALT]Home(The link defined in the Link section is displayed.) / Enabled

The variable “Enabled” is defined as True and False. 

If this variable is False, the desired shortcut is generally disabled and ignored.

If this variable is True, the desired shortcut, which is pressing both the Alt and Home buttons simultaneously, will be enabled based on the selected link.

Considering that all the links in the shortcuts are fully described in the table related to the functions (Table 4), please refer to Table 4 for more information

Keyboard/[ALT]Home(The link defined in the Link section is displayed.) / Link

Keyboard/[ALT]Left(The link defined in the Link section is displayed.) / Enabled

The variable “Enabled” is defined as True and False. 

If this variable is False, the desired shortcut is generally disabled and ignored.

If this variable is True, the desired shortcut, which is pressing both the Alt and Left buttons simultaneously, will be enabled based on the selected link.

Considering that all the links in the shortcuts are fully described in the table related to the functions (Table 4), please refer to Table 4 for more information

Keyboard/[ALT]Left(The link defined in the Link section is displayed.) / Link

Keyboard/[ALT]N(The link defined in the Link section is displayed.) / Enabled

The variable “Enabled” is defined as True and False. 

If this variable is False, the desired shortcut is generally disabled and ignored.

If this variable is True, the desired shortcut, which is pressing both the Alt and N buttons simultaneously, will be enabled based on the selected link.

Considering that all the links in the shortcuts are fully described in the table related to the functions (Table 4), please refer to Table 4 for more information

Keyboard/[ALT]N(The link defined in the Link section is displayed.) / Link

Keyboard/[ALT]Next(The link defined in the Link section is displayed.) / Enabled

The variable “Enabled” is defined as True and False. 

If this variable is False, the desired shortcut is generally disabled and ignored.

If this variable is True, the desired shortcut, which is pressing both the Alt and Next (Page down) buttons simultaneously, will be enabled based on the selected link.

Considering that all the links in the shortcuts are fully described in the table related to the functions (Table 4), please refer to Table 4 for more information

Keyboard/[ALT]Next(The link defined in the Link section is displayed.) / Link

Keyboard/[ALT]OemMinus(The link defined in the Link section is displayed.) / Enabled

The variable “Enabled” is defined as True and False. 

If this variable is False, the desired shortcut is generally disabled and ignored.

If this variable is True, the desired shortcut, which is pressing both the Alt and OemMinus (-)  buttons simultaneously, will be enabled based on the selected link.

Considering that all the links in the shortcuts are fully described in the table related to the functions (Table 4), please refer to Table 4 for more information

Keyboard/[ALT]OemMinus(The link defined in the Link section is displayed.) / Link

Keyboard/[ALT]Oemplus(The link defined in the Link section is displayed.) / Enabled

The variable “Enabled” is defined as True and False. 

If this variable is False, the desired shortcut is generally disabled and ignored.

If this variable is True, the desired shortcut, which is pressing both the Alt and Oemplus (+) buttons simultaneously, will be enabled based on the selected link.

Considering that all the links in the shortcuts are fully described in the table related to the functions (Table 4), please refer to Table 4 for more information

Keyboard/[ALT]Oemplus(The link defined in the Link section is displayed.) / Link

Keyboard/[ALT]Pageup(The link defined in the Link section is displayed.) / Enabled

The variable “Enabled” is defined as True and False. 

If this variable is False, the desired shortcut is generally disabled and ignored.

If this variable is True, the desired shortcut, which is pressing both the Alt and Page down buttons simultaneously, will be enabled based on the selected link.

Considering that all the links in the shortcuts are fully described in the table related to the functions (Table 4), please refer to Table 4 for more information

Keyboard/[ALT]Pageup(The link defined in the Link section is displayed.) / Link

Keyboard/[ALT]Return(The link defined in the Link section is displayed.) / Enabled

The variable “Enabled” is defined as True and False. 

If this variable is False, the desired shortcut is generally disabled and ignored.

If this variable is True, the desired shortcut, which is pressing both the Alt and Return (Enter) buttons simultaneously, will be enabled based on the selected link.

Considering that all the links in the shortcuts are fully described in the table related to the functions (Table 4), please refer to Table 4 for more information

Keyboard/[ALT]Return(The link defined in the Link section is displayed.) / Link

Keyboard/[ALT]Right(The link defined in the Link section is displayed.) / Enabled

The variable “Enabled” is defined as True and False. 

If this variable is False, the desired shortcut is generally disabled and ignored.

If this variable is True, the desired shortcut, which is pressing both the Alt and Right buttons simultaneously, will be enabled based on the selected link.

Considering that all the links in the shortcuts are fully described in the table related to the functions (Table 4), please refer to Table 4 for more information

Keyboard/[ALT]Right(The link defined in the Link section is displayed.) / Link

Keyboard/[ALT]Space(The link defined in the Link section is displayed.) / Enabled

The variable “Enabled” is defined as True and False. 

If this variable is False, the desired shortcut is generally disabled and ignored.

If this variable is True, the desired shortcut, which is pressing both the Alt and Space buttons simultaneously, will be enabled based on the selected link.

Considering that all the links in the shortcuts are fully described in the table related to the functions (Table 4), please refer to Table 4 for more information

Keyboard/[ALT]Space(The link defined in the Link section is displayed.) / Link

Keyboard/[ALT]T(The link defined in the Link section is displayed.) / Enabled

The variable “Enabled” is defined as True and False. 

If this variable is False, the desired shortcut is generally disabled and ignored.

If this variable is True, the desired shortcut, which is pressing both the Alt and T buttons simultaneously, will be enabled based on the selected link.

Considering that all the links in the shortcuts are fully described in the table related to the functions (Table 4), please refer to Table 4 for more information

Keyboard/[ALT]T(The link defined in the Link section is displayed.) / Link

Keyboard/[ALT]Up(The link defined in the Link section is displayed.) / Enabled

The variable “Enabled” is defined as True and False. 

If this variable is False, the desired shortcut is generally disabled and ignored.

If this variable is True, the desired shortcut, which is pressing both the Alt and Up buttons simultaneously, will be enabled based on the selected link.

Considering that all the links in the shortcuts are fully described in the table related to the functions (Table 4), please refer to Table 4 for more information

Keyboard/[ALT]Up(The link defined in the Link section is displayed.) / Link

Keyboard/[ALT]X(The link defined in the Link section is displayed.) / Enabled

The variable “Enabled” is defined as True and False. 

If this variable is False, the desired shortcut is generally disabled and ignored.

If this variable is True, the desired shortcut, which is pressing both the Alt and X buttons simultaneously, will be enabled based on the selected link.

Considering that all the links in the shortcuts are fully described in the table related to the functions (Table 4), please refer to Table 4 for more information

Keyboard/[ALT]X(The link defined in the Link section is displayed.) / Link