Version: 2.8

FANUC Data Access

This chapter outlines all possible native addresses to access memory and data. These addresses must be configured within the device configuration.

Format

A native FANUC address has following format:

{memory base}.{memory type}.{data type}:{address}(.{bit}?)(°{axis}?)`

Note

{bit} and {axis} depend on the memory to read. Check the sections below.

For array reading writing in PCODE and CUSTOM-MV memory, special array addresses are used:

{memory base}.{memory type}.{data type}:{address}[{arraySize}]`

The arraySize argument must be between 1 and 4096.

Memory Base

The CNC control provides different bases for memory:

Memory Base	Description
Global	Global memory base.
Nc1...Nc10	Nc channel memory base. Not that there could exist shared memory between nc channels (path). In this case two different addresses will point to the exact same memory.
Pmc1...Pmc3	Pmc channel memory base.
Dcs	Dual check safety memory base.

Memory Type

Each memory base can have one or several memory types:

Memory Base	Memory Type	Description
Global	PCode	Global P-code memory
	Param	Global parameter memory (axis parameter only)
	System	Global CNC Information
Nc1...Nc10	PCode	Channel specific P-code memory
	CustomMV	Customer macro variables
	Param	Channel specific parameter memory
	Diagnosis	Channel specific diagnostic memory
	Dynamic	Dynamic memory (process and program states)
	Program	Extended program states (see Dynamic for common states)
	Modal	Modal memory (commanding state)
	Offset	Offset memory (G54, G55, ...)
	ToolData	Tool Data from tool table (Radius, Length, Magazine, ...)
	ToolOffset	Tool Offset Memory (T1, T2, ...)
	ToolLife	Tool Life Data
	Axis	Axis state memory (current, load, ...)
	Spindle	Spindle memory (current, load, ...)
	Timer	Timer memory (power on, operation, cycle, cutting, ...)
	System	System Information of the Nc-System
Pmc1...Pmc3, Dsc	Pmc_A	Messages
	Pmc_C	Counters
	Pmc_D	Data tables
	Pmc_E	Extra relay
	Pmc_F	Input signal to PMC from CNC
	Pmc_G	Output signal from PMC to CNC
	Pmc_K	Keep relay
	Pmc_M	Input signal from another PMC path
	Pmc_N	Output signal to another PMC path
	Pmc_R	Internal relay
	Pmc_T	Timer
	Pmc_X	Input signal from PMC to machine
	Pmc_Y	Output signal to PMC from machine
	Pmc_Z	System relay
	System	System information of the PMC

Data Types

Address Data Type	Description	Data Type
Bool	Bit information. 0 = not set; 1 = set	System.Boolean
Uint8	Byte information (unsigned 8bit integer)	System.Byte
Uint16	Word information (unsigned 16bit integer)	System.UInt16
Uint32	DWord information (unsigned 32bit integer)	System.Uint32
Int32	Signed integer (32bit)	System.Int32
Float64	Floating point number (64bit)	System.Double
String	String information	System.String
Auto	Auto detecting data type (available only for Parameters and Diagnosis)	Auto Detected

Examples

Nc5.Offset.Float64:1°1 addresses the offset memory of the 5^th Nc-channel.

Dcs.Pmc_R.Uint32:0 addresses the R-memory of the dual check safety channel.

Global System Configuration

The global system configuration can only be read or monitored. Writing is not possible.

Address	Description	Data Type
`Global.System.String:0`	Control Name	System.String
`Global.System.Int32:1`	Connection status of the control 0 = Disconnected 1 = Connected	System.Int32
`Global.System.Int32:2`	Sign of life (toggle bit if connection is established)	System.Int32
`Global.System.Int32:3`	Global number of axis	System.Int32

NcChannel System Configuration

The Nc system configuration can only be read or monitored. Writing is not possible.

Address	Description	Data Type
`Nc{n}.System.Int32:0`	Number of axis available in the addressed nc channel	System.Int32
`Nc{n}.System.String:1`	Names of all axis in a semi-colon separated string (e.g. `X;Y;Z;C`).	System.String
`Nc{n}.System.Int32:100`	Number of tools available for Tool Offset	System.Int32
`Nc{n}.System.Int32:1000`	Max number of tool groups (available only when ToolLifeManagement capability)	System.Int32
`Nc{n}.System.Int32:1001`	Max number of tools (available only when ToolLifeManagement capability)	System.Int32
`Nc{n}.System.Int32:1002`	Max life time of tool (available only when ToolLifeManagement capability)	System.Int32
`Nc{n}.System.Int32:1003`	Max number of cutting cycles (available only when ToolLifeManagement capability)	System.Int32

Dynamic Memory

The dynamic memory can only be read or monitored. Writing is not possible.

Program Information

Address	Description	Data Type
`Nc{n}.Dynamic.Float64:0`	Main program number	System.Double
`Nc{n}.Dynamic.Float64:1`	Current program number	System.Double
`Nc{n}.Dynamic.Float64:2`	Current sequence number	System.Double
`Nc{n}.Dynamic.Float64:3`	Current spindle speed	System.Double
`Nc{n}.Dynamic.Float64:4`	Current Axis feed	System.Double

The following data access points require the capability of program management:

NOTE

The main program name and block number (program line) is supported by:

Fanuc0i (Model D, F)

Fanuc30i

Fanuc31i

Fanuc32i

Fanuc35i

PowerMotion i

Address	Description	Data Type
`Nc{n}.Program.String:0`	Main program name (for 0i_F and 30i-A/B, the program names can be character string).	System.String
`Nc{n}.Program.Int32:1`	Current block number (Program Line Nr.)	System.Int32
`Nc{n}.Program.String:2`	Current executing block as text	System.String
`Nc{n}.Program.Int32:3`	Current sequence number.	System.Int32
`Nc{n}.Program.String:10`	Program header of current selected program. The header contains program name/number and the comment.	System.String

NOTE

Use Nc{n}.Program.Int32:3 to prevent a well known FANUC issue about sequence number mismatch, when returning from a Macro-B program into Macro-Executer. See issues [Open FANUC Issues].

Operation Information

Address	Description	Data Type
`Nc{n}.Dynamic.Float64:5`	Running state 0 = RESET 1 = STOP 2 = HOLD (program interrupted) 3 = START (program running) 4 = MSTR (during retraction and re-positioning of tool retraction and recovery, and operation of JOG MDI)	System.Double
`Nc{n}.Dynamic.Float64:6`	Alarm state 0 = NO ALARM 1 = ALARM 2 = BATTERY LOW 3 = FAN (NC or Servo Amplifier) 4 = PS Warning 5 = FSSB Warning 6 = LEAKAGE Warning 7 = ENCODER Warning 8 = PMC Alarm	System.Double
`Nc{n}.Dynamic.Float64:7`	Emergency state 0 = none 1 = Emergency 2 = Reset 3 = Wait (FS35i only)	System.Double
`Nc{n}.Dynamic.Float64:8`	Operation mode 0 = MDI (Manual Data Input) 1 = MEM (or automatic mode) 2 = reserved 3 = EDIT (or programming mode) 4 = HANDLE 5 = JOG (or hand mode) 6 = TEACH IN JOG 7 = TEACH IN HANDLE 8 = INC FEED 9 = REFERENCE (referencing the axis) 10 = REMOTE	System.Double
`Nc{n}.Dynamic.Float64:9`	Program restart mode (this might require a Fanuc option) 0 = program not edited 1 = program edited	System.Double

Axis Positions

There are four axis position types in FANUC

Machine Positions: machine position coming from the servo motors and axis scales
Absolute Positions: workpiece related positions towards a workpiece zero point
Relative Positions: nullable axis positions used to move relative.
Distance to Go: distance towards the target position (only valid if the nc program is running)

To counter check the values, go to FANUC POS screen:

Address	Description	Data Type
`Nc{n}.Dynamic.Float64:100`	Machine positions	`System.Double[]`
`Nc{n}.Dynamic.Float64:200`	Absolute positions	`System.Double[]`
`Nc{n}.Dynamic.Float64:300`	Relative positions	`System.Double[]`
`Nc{n}.Dynamic.Float64:400`	Distance to go	`System.Double[]`

Each one of these memories can be also read by axis number:

Address	Description	Data Type
`Nc{n}.Dynamic.Float64:100°{x}`	Machine position of x-th axis	System.Double
`Nc{n}.Dynamic.Float64:200°{x}`	Absolute position of x-th axis	System.Double
`Nc{n}.Dynamic.Float64:300°{x}`	Relative position of x-th axis	System.Double
`Nc{n}.Dynamic.Float64:400°{x}`	Distance to go of x-th axis	System.Double

Example: Nc1.Dynamic.Float64:100°3 reads the machine position of the third axis from the Nc channel 1.

Modal values are commanded by the nc program. They are located on the process screen on FANUC.

The driver supports following readings:

G-commands of current and next ISO block
Modal-parameters (A-Z) of current and next ISO block
Globally active Modal parameters (as text of double array)

The addresses of the modal commands are in following format:

Nc{x}.Modal.{datatype}:{address}

Address	Description	Data Type
`Nc{n}.Modal.String:0°{x}`	Active G-code of the current block. `{x}` specifies the G-code group. This depends on the FANUC control type (e.g. 30i ranges from 1 to 36).	System.String
`Nc{n}.Modal.String:1°{x}`	G-code of the next (preceding) block.	System.String
`Nc{n}.Modal.String:10`	Reading all active G-codes of the current block. The string is “;” separated.	System.String
`Nc{n}.Modal.String:11`	Reading all active G-codes of the next block. The string is “;” separated.	System.String

G-Codes are grouped. This means only one G-code can be active within a specific group:

Group-Nr `{x}`	FANUC 15	FANUC 3xi, 0i-D/E/F M-Series	FANUC 3xi, 0i-D/E/F – T-Series (System A)	FANUC 3xi, 0i-D/E/F – T-Series (System B)	FANUC 3xi, 0i-D/E/F – T-Series (System C)
0	G00, G01, G02, G02.y, G03 G03.y, G06.1, G06.2, G33, G60	G00, G01, G02, G02.y, G03, G03.y, G06.2, G32.2, G33, G34, G35, G36, G75, G77, G78, G79	G00, G01, G02, G02.y, G03, G03.y, G06.y, G32, G34, G35, G36, G90, G92, G94	G00, G01, G02, G02.y, G03, G03.y, G06.y, G33, G34, G35, G36, G77, G78, G79	G00, G01, G02, G02.y, G03, G03.y, G06.y, G33, G34, G35, G36, G77, G78, G79
1	G17, G18, G19	G17, G71.1, G18, G19	G96, G97	G96, G97	G96, G97
2	G90, G91	G90, G91	-	G90, G91	G90, G91
3	G22, G23	G22, G23	G68, G69	G68, G69	G68, G69
4	G93, G94, G95	G93, G93.1, G93.2, G94, G95	G93, G93.3, G98, G99	G93, G93.3, G98, G99	G93, G93.3, G98, G99
5	G20, G21	G20 (G70), G21 (G71)	G20, G21	G20, G21	G20, G21
6	G40, G41, G41.2, G41.3, G42, G42.2	G40, G41, G41.y, G42, G42.y	G40, G41, G41.y, G42, G42.y	G40, G41, G41.y, G42, G42.y	G40, G41, G41.y, G42, G42.y
7	G43, G43.1, G44, G49	G43, G43.y, G44, G44.1	G25, G26	G25, G26	G25, G26
8	G73. G74, G76, G80, G81, G82, G83, G84, G84.2, G84.3. G85, G86, G87, G88, G89	G73. G74, G76, G80, G81, G81.2, G82, G83, G84, G84.2, G84.3. G85, G86, G87, G88, G89	G22, G23	G22, G23	G22, G23
9	G98, G99	G98, G99	G80, G81, G82, G83, G83.1, G83.5, G84, G84.1, G84.2, G85, G86, G87, G87.5, G87.6, G88, G89	G80, G81, G82, G83, G83.1, G83.5, G84, G84.1, G84.2, G85, G86, G87, G87.5, G87.6, G88, G89	G80, G81, G82, G83, G83.1, G83.5, G84, G84.1, G84.2, G85, G86, G87, G87.5, G87.6, G88, G89
10	G50, G51	G50, G51	-	G98, G99	G98, G99
11	G66, G66.1, G67	G66, G66.1, G67	G66, G66.1, G67	G66, G66.1, G67	G66, G66.1, G67
12	G96, G97	G96, G97	-	-	-
13	G54, G54.1, G54.2, G55, G56, G57, G58, G59	G54, G54.1, G54.2, G55, G56, G57, G58, G59	G54, G54.1, G54.2, G55, G56, G57, G58, G59	G54, G54.1, G54.2, G55, G56, G57, G58, G59	G54, G54.1, G54.2, G55, G56, G57, G58, G59
14	G61, G62, G63, G64	G61, G62, G63, G64	G61, G62, G63, G64	G61, G62, G63, G64	G61, G62, G63, G64
15	G68, G69	G68, G68.2, G68.3, G68.4, G69	G17, G17.1, G18, G19	G17, G17.1, G18, G19	G17, G17.1, G18, G19
16	G15, G16	G15, G16	G68.y, G69.1	G68.y, G69.1	G68.y, G69.1
17	G50.1, G50.2	G40.1 (G150), G41.1 (G151), G42.1 (G152)	-	G50, G51	G50, G51
18	G40.1, G41.1, G42.1	G25, G26	G40.1, G41.1, G42.1	G40.1, G41.1, G42.1	G40.1, G41.1, G42.1
19	-	G160, G161	G50.2 (G250), G51.2 (G251)	G50.2 (G250), G51.2 (G251)	G50.2 (G250), G51.2 (G251)
20	-	G12.1 (G112), G13.1 (G113)	G12.1 (G112), G13.1 (G113)	G12.1 (G112), G13.1 (G113)	G12.1 (G112), G13.1 (G113)
21	-	G50.1, G51.1	G50.1, G51.1	G50.1, G51.1	G50.1, G51.1
22	-	G54.2	G43, G43.y (G44.7), G44, G44.1, G49 (G49.1)	G43, G43.y (G44.7), G44, G44.1, G49 (G49.1)	G43, G43.y (G44.7), G44, G44.1, G49 (G49.1)
23	-	G80.5, G81.5	G15, G16	G15, G16	G15, G16
24	G25, G26	-	G05.5. G05.6	G05.5. G05.6	G05.5. G05.6
25	G12.1, G13.1	-	G54.4	G54.4	G54.4
26	-	G44.9, G49.9	G80.5, G81.5	G80.5, G81.5	G80.5, G81.5
27	G80.5, G81.5	-	G80.4, G81.4	G80.4, G81.4	G80.4, G81.4
28	-	-	G08.8, G08.9	G08.8, G08.9	G08.8, G08.9
29	-	G54.3	G05.7, G05.8	G05.7, G05.8	G05.7, G05.8
30	-	G50.2, G51.2	G10.3, G10.4, G10.5	G10.3, G10.4, G10.5	G10.3, G10.4, G10.5
31	-	G05.5, G05.6	-	-	-
32	-	G54.4	-	-	-
33	-	G80.4, G81.4	-	-	-
34	-	G12. G13	-	-	-
35	-	G08.8, G08.9	-	-	-
36	-	G05.7, G05.8	-	-	-

The modal parameters are all variables of an ISO program except G-commands.

Positions, like X, Y and Z values
Feed, parameter F
Tool id, parameter T
...

These parameters can be read as single value (like “programmed feed”, or as double array returning all parameter at once, or as text like X102.00 F910 M3.

Address	Description	Data Type
`Nc{n}.Modal.Float64:2°{x}`	Other commanded modal variables of the current block. `{x}` specifies the command id (letter). See table below.	System.Double
`Nc{n}.Modal.Float64:3°{x}`	Other commanded modal variables of the next block.	System.Double
`Nc{n}.Modal.Float64:4°{x}`	Global modal variables. `{x}` specifies the command id (letter). See table below.	System.Double
`Nc{n}.Modal.Float64:12`	Reading all commanded modal variables of the current block and returns an array.	`System.Double[]`
`Nc{n}.Modal.Float64:13`	Reading all commanded modal variables of the next block and returns an array.	`System.Double[]`
`Nc{n}.Modal.Float64:14`	Reading all globally active modal variables and returns an array.	`System.Double[]`
`Nc{n}.Modal.String:22`	Reading all commanded modal variables of the current block. The data is returned as a formatted string.	System.String
`Nc{n}.Modal.String:23`	Reading all commanded modal variables of the next block. The data is returned as a formatted string.	System.String
`Nc{n}.Modal.String:24`	Reading all globally active modal variables. The data is returned as a formatted string.	System.String

Example: Nc1.Modal.String:22 returns X-12.281 Z90 F0.6

The following table show the mapping of {x} to the command id (letter):

x	Command	x	Command	x	Command	x	Command
0	A	8	I	16	Q	24	Y
1	B	9	J	17	R	25	Z
2	C	10	K	18	S	26	M (2^nd)
3	D	11	L	19	T	27	M (3^rd)
4	E	12	M (1^st)	20	U	28	M (4^th)
5	F	13	N	21	V	29	M (5^th)
6	G	14	O	22	W
7	H	15	P	23	X

Tool Offset Memory

Tool offset memory is used to correct a single tool (or tool edge).

To counter check the values, go to the SET-screen on FANUC and click on [OFFSET]:

The tool offset memory is readable and writeable.

IMPORTANT

Note that the axis numbers are not the id’s from the real axis, but the geometric axis id. The correlation between real axis id and geometric axis id is set in FANUC parameters (see FANUC Manual).

Address	Description	Data Type
`Nc{n}.ToolOffset.Float64:{x}°1`	X-axis geometry offset	System.Double
`Nc{n}.ToolOffset.Float64:{x}°2`	Y-axis geometry offset	System.Double
`Nc{n}.ToolOffset.Float64:{x}°3`	Z-axis geometry offset or tool length offset (tool length geometry)	System.Double
`Nc{n}.ToolOffset.Float64:{x}°4`	Nose radius geometry offset (Cutter radius geometry)	System.Double
`Nc{n}.ToolOffset.Float64:{x}°5`	Direction of imaginary tool nose	System.Double
`Nc{n}.ToolOffset.Float64:{x}°6`	X-axis wear offset	System.Double
`Nc{n}.ToolOffset.Float64:{x}°7`	Y-axis wear offset	System.Double
`Nc{n}.ToolOffset.Float64:{x}°8`	Z-axis wear offset or tool wear offset (tool length wear)	System.Double
`Nc{n}.ToolOffset.Float64:{x}°9`	Cutter radius wear	System.Double

{x} specifies the tool number (typically 1...32, but there exist options to range up to 2000).

Reading memory using addresses without °{x} returns the whole structure as a double-array:

Address	Description	Data Type
`Nc{n}.ToolOffset.Float64:{x}`	Tool offset data	`System.Double[]`

Workpiece Offset Memory

The workpiece offset memory is used to offset (correct) the absolute positions in relation to the zero point on the workpiece.

FANUC has different memories that can be switched in nc program:

G54-G59: standard workpiece offsets
G54.x : extended workpiece offsets

To counter check the values, go to the SET-screen on FANUC and click on [WORK]:

The work offset memory is readable and writable. To access the memory, axis number must be given: {x}.

Single Value

Axis values are automatically converted to metric or inches respectively.

Address	Description	Data Type
`Nc{n}.Offset.Float64:0°{x}`	Reads or writes the external work zero offset value	System.Double
`Nc{n}.Offset.Float64:1°{x}`	Reads or writes the work zero offset value of G54	System.Double
`Nc{n}.Offset.Float64:2°{x}`	Reads or writes the work zero offset value of G55	System.Double
`Nc{n}.Offset.Float64:3°{x}`	Reads or writes the work zero offset value of G56	System.Double
`Nc{n}.Offset.Float64:4°{x}`	Reads or writes the work zero offset value of G57	System.Double
`Nc{n}.Offset.Float64:5°{x}`	Reads or writes the work zero offset value of G58	System.Double
`Nc{n}.Offset.Float64:6°{x}`	Reads or writes the work zero offset value of G59	System.Double

Depending on FANUC control options, following extended work zero offsets can be accessed:

Series 15/15i and 0i-D:

Address	Description	Data Type
`Nc{n}.Offset.Float64:{y}°{x}`	Reads or writes the work zero offset value of `G54.1 P{y-6}` with `{y}` ranging from 7 to 54	System.Double

M Series 16/18/21, 16i/18i/21i, 0i-A/B/C and
M/T Series 0i-F and 30i:

Address	Description	Data Type
`Nc{n}.Offset.Float64:{y}°{x}`	Reads or writes the work zero offset value of `G54.1 P{y-6}` with `{y}` ranging from 7 to 306	System.Double

Arrays

For arrays, only reading is supported.

Address	Description	Data Type
`Nc{n}.Offset.Float64:0`	Reads the external work zero offset value	`System.Double[]`
`Nc{n}.Offset.Float64:1`	Reads the work zero offset value of G54	`System.Double[]`
`Nc{n}.Offset.Float64:2`	Reads the work zero offset value of G55	`System.Double[]`
`Nc{n}.Offset.Float64:3`	Reads the work zero offset value of G56	`System.Double[]`
`Nc{n}.Offset.Float64:4`	Reads the work zero offset value of G57	`System.Double[]`
`Nc{n}.Offset.Float64:5`	Reads the work zero offset value of G58	`System.Double[]`
`Nc{n}.Offset.Float64:6`	Reads the work zero offset value of G59	`System.Double[]`

Depending on your control, following extended work zero offsets can be read:

Series 15/15i and 0i-D:

Address	Description	Data Type
`Nc{n}.Offset.Float64:{y}°`	Reads or writes the work zero offset value of `G54.1 P{y-6}` with `{y}` ranging from 7 to 54	`System.Double[]`

M Series 16/18/21, 16i/18i/21i, 0i-A/B/C and
M/T Series 0i-F and 30i:

Address	Description	Data Type
`Nc{n}.Offset.Float64:{y}°`	Reads or writes the work zero offset value of `G54.1 P{y-6}` with `{y}` ranging from 7 to 306	`System.Double[]`

Axis Status and Diagnostics

The axis status and diagnostic memory can only be read or monitored. Writing is not possible.

Address	Description	Data Type
`Nc{n}.Axis.Float64:0`	Reads the servo meter of all axis	`System.Double[]`
`Nc{n}.Axis.Float64:1`	Reads the servo current of all axis	`System.Double[]`
`Nc{n}.Axis.Float64:2`	Reads the servo loop gain of all axis	`System.Double[]`

Each one of these memories can be also read by axis number:

Address	Description	Data Type
`Nc{n}.Axis.Float64:0°{x}`	Reads the servo meter of the x-th axis	System.Double
`Nc{n}.Axis.Float64:1°{x}`	Reads the servo current of the x-th axis	System.Double
`Nc{n}.Axis.Float64:2°{x}`	Reads the servo loop gain of the x-th axis	System.Double

info

Other axis data is accessible using the FANUC Trace.

Spindle Status

Spindle status must be read aside from the axis status.

Address	Description	Data Type
`Nc{n}.Spindle.Float64:0`	Reads the load meter of all spindles	`System.Double[]`
`Nc{n}.Spindle.Float64:1`	Reads the speeds of all spindles	`System.Double[]`

Each one of these memories can be also read by spindle number:

Address	Description	Data Type
`Nc{n}.Spindle.Float64:0°{x}`	Reads the load meter of the x-th spindle	System.Double
`Nc{n}.Spindle.Float64:1°{x}`	Reads the speed of the x-th spindle	System.Double

info

Other spindle data is accessible using the FANUC Trace.

Timer

FANUC provides different timers:

Address	Description	Data Type
`Nc{n}.Timer.Float64:0`	Reads the power on timer `[min]`	System.Double
`Nc{n}.Timer.Float64:1`	Reads the operation timer `[min]`	System.Double
`Nc{n}.Timer.Float64:2`	Reads the cutting timer `[min]`	System.Double
`Nc{n}.Timer.Float64:3`	Reads the cycle timer `[min]`	System.Double
`Nc{n}.Timer.String:10`	Reads the system date and time	System.String

FANUC also provides two timers on the NC side: a millisecond timer #3001 and an hour timer #3002.

Use the CustomMV address to access these timers:

Nc{n}.CustomMV.Float64:3001 for millisecond timer (read/write)
Nc{n}.CustomMV.Float64:3002 for hour timer (read/write)

Customer Macro Variables

The addresses of customer macro variables are in the following format:

Nc{n}.CustomMV.Float64:{address}

The {address} must be in the range of the CNC settings.

Address	Description	Data Type
`Nc{n}.CustomMV.Float64:{1...33}`	Reads or writes local variables belonging to the macro program being executed. ONLY READING!	System.Double
`Nc{n}.CustomMV.Float64:{100...999}`	Reads or writes common variables. The range depends on the CNC settings and options	System.Double
`Nc{n}.CustomMV.Float64:{1000...}`	Reads or writes system variables. ONLY READING!	System.Double
`Nc{n}.CustomMV.Float64:{98000...98499}`	Reads or writes common variables. The range depends on the CNC settings and options	System.Double

Example:

Nc1.CustomMV.Float64:20 reads the local variable #20 on the first NC path.
Nc2.CustomMV.Float64:900 reads the common variable #900 on the second NC path.

Arrays

The customer macro variables can also be read or written as an array. The array size can be freely chosen between 1 to 4096.

Nc{n}.CustomMV.Float64:{address}[{arraySize}]

Example:

Nc1.CustomMV.Float64:500[32] reads 32 common variables starting from #500 on the first NC path.

Variable Ranges

Depending on the FANUC control type and their options, different variable ranges are valid:

CNC Type	Option	Ranges
Series 15 M/T	0	100,..,149 500,..,549
	1	100,..,199 500,..,599
	2	100,..,199 500,..,699
	3	100,..,199 500,..,999
Series 15 TT	0	100,..,149 500,..,524
	1	100,..,149 500,..,549
	2	100,..,149 500,..,599
	3	100,..,149 500,..,749
Series 15i	3	100,..,199 500,..,999
	4	100,..,199 200,..,999
Series 16/18/21, 16i/18i/21i, 0i-A/B/C	0	100,..,149 500,..,531
	1	100,..,199 500,..,999
	2	100,..,199 500,..,599
Series 16i/18i-W	0	100,..,149 500,..,531
	1	100,..,314 500,..,699
	2	100,..,149 500,..,699
	3	100,..,314 500,..,531
	4	100,..,149 500,..,999
	5	100,..,314 500,..,999
Power Mate i	0	100,..,149 500,..,531
	1	100,..,199 500,..,999
	2	100,..,199 500,..,699
Series 30i/31i/32i, 0i-D/F, PMi-A	0	100,..,149 500,..,549
	1	100,..,199 500,..,999
	2	100,..,149 200,..,499 500,..,549
	3	100,..,499 500,..,999
	4	100,..,199 500,..,999 98000,..,98499
	5	100,..,499 500,..,999 98000,..,98499

IMPORTANT

Reading arrays only works inside one range.

P-Code Variables

The addresses of the P-code variables are in the following format:

Nc{n}.PCode.Float64:{address}

The {address} must be in the range of the CNC settings.

Address	Description	Data Type
`Nc{n}.PCode.Float64:{10000...89999}`	Reads or writes a P-code address	System.Double
`Nc{n}.PCode.Float64:{< 10000}`	Reads or writes a System P-code address of “conversation” macro	System.Double

Example:

Nc1.PCode.Float64:10000 reads the P-code variable #10000 on the first NC path.

Arrays

The P-code variables can also be read or written as an array. The array size can be freely chosen between 1 to 4096.

Nc{n}.PCode.Float64:{address}[{arraySize}]

Example:

Nc1.PCode.Float64:10100[32] reads 32 common variables starting from #10100 on the first NC path.

PMC Variables

The addresses of the PMC variables are in the following format:

{PmcType}.{MemoryType}.{DataType}:{address}.{bit?}

Following pmc types are supported:

PMC Type	Description
`Pmc1`	Main PMC (first PMC channel)
`Pmc2`	Second PMC channel
`Pmc3`	Third PMC channel
`Dcs`	Dual check safety channel

Following memory types are supported:

Memory Type	Description
`Pmc_A`	Messages
`Pmc_C`	Counters
`Pmc_D`	Data tables
`Pmc_E`	Extra relay
`Pmc_F`	Input signal to PMC from CNC
`Pmc_G`	Output signal from PMC to CNC
`Pmc_K`	Keep relay
`Pmc_M`	Input signal from another PMC path
`Pmc_N`	Output signal to another PMC path
`Pmc_R`	Internal relay
`Pmc_T`	Timer
`Pmc_X`	Input signal from PMC to machine
`Pmc_Y`	Output signal to PMC from machine
`Pmc_Z`	System relay

IMPORTANT

The pmc type Dcs supports only memory types Pmc_R and Pmc_D.

The base data type of all pmc memory is Uint8. All other data types are derived accordingly:

Data Type	Description	Example
Bool	Reading or writing a bit information. Bit information require the `{bit}` number (0 to 7) after the memory address.	`Pmc1.Pmc_D.Bool:100.1`
Uint8	Reading or writing a byte information	`Pmc2.Pmc_A.Uint8:9`
Uint16	Reading or writing a word information	`Dcs.Pmc_R.Uint16:192`
Uint32	Reading or writing a dword information	`Pmc1.Pmc_X.Uint32:100`

PMC Information

The addresses of the PMC information variables are in the following format:

Pmc1.System.String:{address}

Following addresses are supported:

Address	Description
Pmc1.System.String:0	Machine tool builder name
Pmc1.System.String:1	Machine tool name
Pmc1.System.String:2	NC & PMC type name
Pmc1.System.String:3	PMC program number
Pmc1.System.String:4	Edition number
Pmc1.System.String:5	Program drawing number
Pmc1.System.String:6	Creation date of the program
Pmc1.System.String:7	Author of the program
Pmc1.System.String:8	Company or person who wrote the ROM
Pmc1.System.String:9	Remarks

Parameter

The addresses of the parameter variables are in the following format:

Nc{n}.Param.{datatype}:{address}{.bit?}{°axis?}

Global{n}.Param.{datatype}:{address}{.bit?}{°axis?}

The {bit} or {axis} part must be added depending on the parameter from FANUC. The {bit} can only be added for Bool data type.

Data Type	Description	Example
Bool	Reading or writing a bit information. Bit information require the `{bit}` number `0` to `7` after the memory address.	`Nc1.Param.Bool:100.1` or `Nc5.Param.Bool:3201.1°5`
Uint8	Reading or writing a byte information.	`Nc1.Param.Uint8:9`
Uint16	Reading or writing a word information.	`Nc6.Param.Uint16:192`
Uint32	Reading or writing a dword information.	`Nc2.Param.Int32:5241`
Int32	Reading or writing an integer information.	`Nc2.Param.Int32:5241`
Float64	Reading or writing a float value information.	`Nc3.Param.Float64:9281°1`
Auto	Reading or writing a value information. The data type is automatically detected from the parameter info on the CNC.	`Nc3.Param.Auto:981°1`

Note

Use global addresses to access axis parameter from multiple NC path, e.g. Global.Param.Uint8:981°1. To know how many axis are globally available, use Global.System.Int32:3. This feature is only supported for 0i-D/F, 30i-A/B, 31i-A/B and Power Motion-i controls.

Note

For Axis parameters, it's possible to read all axis at once. The data is returned as an array. The data type of the DataNode must be an array type, like System.Double[]. In this case {axis} is left out, e.g. Global.Param.Uint8:981. Important: This can be used only to read axis parameters. Writing axis parameter requires exact addresses including {axis}.

Example: Reading the channel (path) assignment of each axis. This must be read globally to receive information from all channels (paths). The parameter is byte based and it returns a byte-array because Global.Param.Uint8:981 contains no {axis} address.

{
  "Id": "5ab17bbc-3759-4eb0-bcc2-02600046d62c",
  "Name": "AxisInChannel",
  "Address": "Global.Param.Uint8:981",
  "DataType": "System.Byte[]",
  "Unit": "",
  "Access": {
    "Read": true,
    "Receive": true
  },
  "Properties": []
}

Diagnosis

The addresses of the diagnosis variables are in the following format:

Nc{n}.Diagnosis.{datatype}:{address}{.bit?}{°axis?}

The {bit} or {axis} part must be added depending on the diagnosis item you want to read. Note that {bit} can only be added for Bool data type.

Data Type	Description	Example
Bool	Reading a bit information. Bit information require the `{bit}` number `0` to `7` after the memory address.	`Nc1.Diagnosis.Bool:100.1` or `Nc5.Diagnosis.Bool:3201.1°5`
Uint8	Reading a byte information.	`Nc1.Diagnosis.Uint8:9`
Uint16	Reading a word information.	`Nc6.Diagnosis.Uint16:192`
Uint32	Reading a dword information.	`Nc2.Diagnosis.Int32:5241`
Int32	Reading an integer information.	`Nc2.Diagnosis.Int32:5241`
Float64	Reading a float value information.	`Nc3.Diagnosis.Float64:9281°1`
Auto	Reading a value information. The data type is automatically detected from the diagnosis info on the CNC.	`Nc3.Diagnosis.Auto:981°1`

Tool Management Data

The following addresses can be used to read tool data out of the FANUC tool table.

Nc{n}.ToolData.Float64:{ToolId}°{FieldNr}

This table shows the different fields to be read from to tool table:

Address	Name	FANUC FieldName
`Nc{n}.ToolData.Float64:{ToolId}°1`	tool number(T)	T_code
`Nc{n}.ToolData.Float64:{ToolId}°2`	tool life counter	life_count
`Nc{n}.ToolData.Float64:{ToolId}°3`	maximum of tool life	max_life
`Nc{n}.ToolData.Float64:{ToolId}°4`	rest of tool life	rest_life
`Nc{n}.ToolData.Float64:{ToolId}°5`	state of tool life	life_stat
`Nc{n}.ToolData.Float64:{ToolId}°6`	customizing bit	cust_bits
`Nc{n}.ToolData.Float64:{ToolId}°7`	tool info.	tool_info
`Nc{n}.ToolData.Float64:{ToolId}°8`	tool length compensation number (H)	H_code
`Nc{n}.ToolData.Float64:{ToolId}°9`	cutter compensation number (D)	D_code
`Nc{n}.ToolData.Float64:{ToolId}°10`	spindle speed (S)	spindle_speed
`Nc{n}.ToolData.Float64:{ToolId}°11`	feed rate(F)	feedrate
`Nc{n}.ToolData.Float64:{ToolId}°12`	magazine number	magazine
`Nc{n}.ToolData.Float64:{ToolId}°13`	pot number	pot
`Nc{n}.ToolData.Float64:{ToolId}°14`	tool geometric compensation number(G)	G_code
`Nc{n}.ToolData.Float64:{ToolId}°15`	tool wear compensation number(W)	W_code
`Nc{n}.ToolData.Float64:{ToolId}°16`	tool geometric number	gno
`Nc{n}.ToolData.Float64:{ToolId}°17`	edge group number(only 0i-F, 30i/31i/32i)	grp
`Nc{n}.ToolData.Float64:{ToolId}°18`	edge number(only 0i-F, 30i/31i/32i)	edge
`Nc{n}.ToolData.Float64:{ToolId}°19`	origin magazine number(only 0i-F, 30i/31i/32i)	org_magazine
`Nc{n}.ToolData.Float64:{ToolId}°20`	origin pot number(only 0i-F, 30i/31i/32i)	org_pot

Tool Life Management Memory

The tool life management is a special management memory of tool wear, life and sister tools.

IMPORTANT

The Tool Life Management (TLM) option of FANUC must be also enabled on the FANUC controls. Check the FANUC manuals for description of the TLM.

Addressing Tool Life Memory

The tool life management (TLM) is realized as a double array. Therefore, the address room (32bit address) is split into two sections: the high-word represents the tool group address, the low-word represents the tool address.

The address must by given in HEX format.

Example: the address 0x00100009 is split into 0x0010 and 0x0009 (hex) or 16 and 9 in decimal.

Status Information (Address 0x00000000)

Address	Description	Data Type
`Nc{n}.ToolLife.Int32:0x00000000`	Reads the current status of the TLM	`System.Int32[]`
`Nc{n}.ToolLife.Int32:0x00000000°1`	Reads the number of tool group currently selected	System.Int32
`Nc{n}.ToolLife.Int32:0x00000000°2`	Reads the number of tool group currently in use	System.Int32
`Nc{n}.ToolLife.Int32:0x00000000°3`	Reads the number of tool group to be used next	System.Int32
`Nc{n}.ToolLife.Int32:0x00000000°4`	Reads the number of tool optional group currently selected	System.Int32
`Nc{n}.ToolLife.Int32:0x00000000°5`	Reads the number of tool optional group currently in use	System.Int32
`Nc{n}.ToolLife.Int32:0x00000000°6`	Reads the number of tool optional group to be used next	System.Int32

Tool Group Information

The high-word of the address specifies the Group Id, written as {group}. The low-word is always zero.

The address 0x000A0000 points to the information of 10^th group.

Address	Description	Data Type
`Nc{n}.ToolLife.Int32:0x{group}{0000}`	Reads the current status of the group `{group}`	`System.Int32[]`
`Nc{n}.ToolLife.Int32:0x{group}{0000}°1`	Reads the number of used tools	System.Int32
`Nc{n}.ToolLife.Int32:0x{group}{0000}°2`	Reads the number of free tools	System.Int32
`Nc{n}.ToolLife.Int32:0x{group}{0000}°3`	Reads the selected tool in order	System.Int32
`Nc{n}.ToolLife.Int32:0x{group}{0000}°4`	Reads the tool life counter type	System.Int32
`Nc{n}.ToolLife.Int32:0x{group}{0000}°5`	Reads or writes the tool life counter	System.Int32
`Nc{n}.ToolLife.Int32:0x{group}{0000}°6`	Reads the rest of tool life counter*	System.Int32
`Nc{n}.ToolLife.Int32:0x{group}{0000}°7`	Reads the rest signal state*	System.Int32
`Nc{n}.ToolLife.Int32:0x{group}{0000}°8`	Reads the optional tool group\	System.Int32
`Nc{n}.ToolLife.Int32:0x{group}{0000}°9`	Reads the tool life (in total)	System.Int32

Note

Note: These items are only available for tool life management B function is set. Parameter 6805.4 (Tool life management B)

Tool Life Information

The high-word of the address specifies the Group Id, written as {group}. The low-word is addresses the tool within that group.

The address 0x00100002 points to the 2^nd tool information of 16^th group

Address	Description	Data Type
`Nc{n}.ToolLife.Int32:0x{group}{tool}`	Reads the current status of the tool `{tool}`	`System.Int32[]`
`Nc{n}.ToolLife.Int32:0x{group}{tool}°1`	Reads the tool identification number	`System.Int32`
`Nc{n}.ToolLife.Int32:0x{group}{tool}°1`	Reads the status of the tool 0 = not registered 1 = Tool is registered 2 = Tool is expired 3 = Tool is skipped	`System.Int32`
`Nc{n}.ToolLife.Int32:0x{group}{tool}°3`	Reads the tool length compensation number (Zero in T-series)	`System.Int32`
`Nc{n}.ToolLife.Int32:0x{group}{tool}°4`	Reads the cutter radius compensation number (Zero in T-series)	`System.Int32`

Trace Addresses

The following addresses are only accessible with SDK using the TFanucDataTracer class.

Axis Trace

Address	Description	Data Type
`Nc{n}.Axis.Float64:100°{x}`	Reads position feedback (POSF) of axis `{x}`	`System.Double[]`
`Nc{n}.Axis.Float64:101°{x}`	Reads position error (ERR) of axis `{x}`	`System.Double[]`
`Nc{n}.Axis.Float64:102°{x}`	Reads velocity command (VCMD) of axis `{x}`	`System.Double[]`
`Nc{n}.Axis.Float64:103°{x}`	Reads torque command (TCMD) of axis `{x}`	`System.Double[]`
`Nc{n}.Axis.Float64:104°{x}`	Reads speed feedback signal (SPEED) of axis `{x}`	`System.Double[]`
`Nc{n}.Axis.Float64:105°{x}`	Reads estimated disturbance torque (DTRQ) of axis `{x}`	`System.Double[]`
`Nc{n}.Axis.Float64:107°{x}`	Reads OVC simulation data (OVCLV) of axis `{x}`	`System.Double[]`
`Nc{n}.Axis.Float64:108°{x}`	Reads effective current (IEFF) of axis `{x}`	`System.Double[]`
`Nc{n}.Axis.Float64:123°{x}`	Reads reactive current (ID) of axis `{x}`	`System.Double[]`
`Nc{n}.Axis.Float64:124°{x}`	Reads active current (IQ) of axis `{x}`	`System.Double[]`
`Nc{n}.Axis.Float64:125°{x}`	Reads motor winding temperature (MTTMP) of axis `{x}`	`System.Double[]`
`Nc{n}.Axis.Float64:126°{x}`	Reads pulse coder temperature (PCTMP) of axis `{x}`	`System.Double[]`
`Nc{n}.Axis.Float64:131°{x}`	Reads vibration frequency (FREQ) of axis `{x}`	`System.Double[]`
`Nc{n}.Axis.Float64:132°{x}`	Reads vibration torque command (FRTCM) of axis `{x}`	`System.Double[]`

Spindle Trace

Address	Description	Data Type
`Nc{n}.Axis.Float64:101°{x}`	Reads motor speed (SPEED) of spindle `{x}`	`System.Double[]`
`Nc{n}.Axis.Float64:102°{x}`	Reads torque command (TCMD) of spindle `{x}`	`System.Double[]`
`Nc{n}.Axis.Float64:103°{x}`	Reads motor speed command (VCMD) of spindle `{x}`	`System.Double[]`
`Nc{n}.Axis.Float64:106°{x}`	Reads spindle load torque (DTRQ) of spindle `{x}`	`System.Double[]`
`Nc{n}.Axis.Float64:108°{x}`	Reads motor winding temperature (MTTMP) of spindle `{x}`	`System.Double[]`
`Nc{n}.Axis.Float64:110°{x}`	Reads frequency of disturbance torque(FREQ) of spindle `{x}`	`System.Double[]`
`Nc{n}.Axis.Float64:111°{x}`	Reads gain data(GAIN) of spindle `{x}`	`System.Double[]`
`Nc{n}.Axis.Float64:112°{x}`	Reads torque command 2(TCMD2) of spindle `{x}`	`System.Double[]`
`Nc{n}.Axis.Float64:117°{x}`	Reads velocity error (VERR) of spindle `{x}`	`System.Double[]`
`Nc{n}.Axis.Float64:118°{x}`	Reads spindle speed (SPSPD) of spindle `{x}`	`System.Double[]`

Often used Variables

Feedrate

The feed rates are exchanged between PMC and NC modules. Therefore the variables are located in the PMC-G memory.

Address	Description	Data Type
`Pmc{n}.Pmc_G.Uint8:12`	Reads the current federate override 1	System.Int32
`Pmc{n}.Pmc_G.Uint8:13`	Reads the current federate override 2 (Option)	System.Int32

Note that the value is encoded:

The programmed feed of the nc path is stored in the modal parameters.

Address	Description	Data Type
`Nc{n}.Modal.Float64:2°5`	Reads the programmed feed (parameter F)	System.Double
`Nc{n}.Dynamic.Float64:4`	Reads the current axis feed	System.Double

Workpiece Counter

Address	Description	Data Type
`Nc{n}.Param.Uint32:6711`	Number of machined parts	System.Uint32
`Nc{n}.Param.Uint32:6712`	Total number of machined parts	System.Uint32

Depending on the application, NC programs may run endlessly. In these cases the workpiece counter is not increased automatically.

Following Macro System-Variables can be used:

Variable	Description
`#3901`	Number of machined parts (machined)
`#3902`	Number of parts required

Modify your NC-Programs in the following way to increase the part counter:

%
O0010 (ENDLESS)
N10
…
#3901 = #3901 + 1 (INCREASE THE COUNTER)
GOTO10
M30
%

Operation Hours

Address	Description	Data Type
`Nc{n}.Param.Uint32:6750`	Integrated value of power on period in minutes	System.UInt32
`Nc{n}.Param.Uint32:6751`	Operation time in milliseconds (integrated value of time during automatic operation)*	System.UInt32
`Nc{n}.Param.Uint32:6752`	Operation time in minutes (integrated value of time during automatic operation)*	System.UInt32
`Nc{n}.Param.Uint32:6753`	Integrated value of cutting time in milliseconds **	System.UInt32
`Nc{n}.Param.Uint32:6754`	Integrated value of cutting time in minutes**	System.UInt32
`Nc{n}.Param.Uint32:6757`	Cutting time of current run in milliseconds **	System.UInt32
`Nc{n}.Param.Uint32:6758`	Cutting time of current run in minutes**	System.UInt32

*Total time of operation in [min] = #6752 + #6752 / 60000

** Total cutting time [min] = #6754 + #6754 / 60000

Customized Cycle Time

If the process is realized in an endless nc program, the system cycle time cannot be used.

Following example shows, how to use the millisecond time of the nc #3001 as a customized cycle time. Note, that you use some kind of read-ahead-stop M50 to prevent FANUC interpreter to pre read lines ahead.

%
O0200(MAT 837121)
N10
M50
#3001=0(RESET TIMER)
…
M50
#501=#3001/1000(CYCLE TIME SEC)
GOTO10
M30
%

Format​

Memory Base​

Memory Type​

Data Types​

Examples​

Global System Configuration​

NcChannel System Configuration​

Dynamic Memory​

Program Information​

Operation Information​

Axis Positions​

Modal Variables​

Modal G-Codes​

Modal Parameters​

Tool Offset Memory​

Workpiece Offset Memory​

Single Value​

Arrays​

Axis Status and Diagnostics​

Spindle Status​

Timer​

Customer Macro Variables​

Arrays​

Variable Ranges​

P-Code Variables​

Arrays​

PMC Variables​

PMC Information​

Parameter​

Diagnosis​

Tool Management Data​

Tool Life Management Memory​

Addressing Tool Life Memory​

Status Information (Address 0x00000000)​

Tool Group Information​

Tool Life Information​

Trace Addresses​

Axis Trace​

Spindle Trace​

Often used Variables​

Feedrate​

Workpiece Counter​

Operation Hours​

Customized Cycle Time​

Format

Memory Base

Memory Type

Data Types

Examples

Global System Configuration

NcChannel System Configuration

Dynamic Memory

Program Information

Operation Information

Axis Positions

Modal Variables

Modal G-Codes

Modal Parameters

Tool Offset Memory

Workpiece Offset Memory

Single Value

Arrays

Axis Status and Diagnostics

Spindle Status

Timer

Customer Macro Variables

Arrays

Variable Ranges

P-Code Variables

Arrays

PMC Variables

PMC Information

Parameter

Diagnosis

Tool Management Data

Tool Life Management Memory

Addressing Tool Life Memory

Status Information (Address 0x00000000)

Tool Group Information

Tool Life Information

Trace Addresses

Axis Trace

Spindle Trace

Often used Variables

Feedrate

Workpiece Counter

Operation Hours

Customized Cycle Time