Before using this machine and equipment, fully understand the contents of this
manual to ensure proper operation. Should any questions arise, please ask the
nearest Technical Center or Technology Center.
IMPORTANT NOTICE
1. Be sure to observe the safety precautions described in this manual and the contents of the
safety plates on the machine and equipment. Failure may cause serious personal injury or
material damage. Please replace any missing safety plates as soon as possible.
2. No modifications are to be performed that will affect operation safety. If such modifications are
required, please contact the nearest Technical Center or Technology Center.
3. For the purpose of explaining the operation of the machine and equipment, some illustrations
may not include safety features such as covers, doors, etc. Before operation, make sure all
such items are in place.
4. This manual was considered complete and accurate at the time of publication, however, due to
our desire to constantly improve the quality and specification of all our products, it is subject to
change or modification. If you have any questions, please contact the nearest Technical Center
or Technology Center.
5. Always keep this manual near the machinery for immediate use.
6. If a new manual is required, please order from the nearest Technical Center or Technology
Center with the manual No. or the machine name, serial No. and manual name.
Issued by Manual Publication Section, Yamazaki Mazak Corporation, Japan
01. 2006
Notes:
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SAFETY PRECAUTIONS
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Preface
Safety precautions relating to the CNC unit (in the remainder of this manual, referred to simply as
the NC unit) that is provided in this m achine are explained below. Not onl y the persons who
create programs, but also those who operate the machine must thoroughly understand the
contents of this manual to ensure safe operation of the machine.
Read all these safety precautions, even if your NC model does not have the corresponding
functions or optional units and a part of the precautions do not apply.
Rule
1. This section contains t he pr ec aut ions t o b e obs erved as to the working methods and states
usually expected. Of course, however, unexpec ted operations and/or un expected working
states may take place at the user site.
During daily operation of the machine, therefore, the user must pay extra careful attention to
its own working safety as well as to observe the precautions described below.
2. Although this manual c ontains as great an amount of information as it can, since it is not
rare for the user to perfor m the operations that ov erstep the manufacturer -assumed ones,
not all of “what the user ca nnot perform” or “what the user must not perform” c an be fully
covered in this manual with all such operations taken into consideration beforehand.
It is to be understood, therefore, that functions not clearly written as “executable” are
“inexecutable” functions.
SAFETY PRECAUTIONS
3. The meanings of our safety precautions to DANGER, W ARNING, and CAUTION are as
follows:
: Failure to follow these instructions could result in loss of life.
DANGER
: Failure to observe these ins tructions cou ld result i n serious har m to a h uman
life or body.
WARNING
: Failure to observe these instr uctions could result in m inor injuries or serio us
machine damage.
CAUTION
HGENPA0040E
S-1
Basics
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SAFETY PRECAUTIONS
! After turning power on, keep hands away from the keys, buttons, or switches of the
operating panel until an initial display has been made.
WARNING
! Before pr oceeding to the next operati ons, fully check that c orrect data has been enter ed
and/or set. If the operator performs operations without being aware of data errors,
unexpected operation of the machine will result.
! Bef ore machining workpieces , perform operational tes ts and make sure that the m achine
operates correctly. No workpieces must be machined without confirmation of normal
operation. Closely check the accuracy of programs by executing override, single-block, and
other functions or b y operating the machine at no load. Also, full y utilize tool path check,
solid check, and other functions, if provided.
! Make sure that the appropriate feed rate and rotational speed are designated for the
particular machining requirements. Always understand that since the maximum usable feed
rate and rotational speed ar e det er mined by the specifications of the to ol to be used, those
of the workpiece to be m achined, and various ot her factors, actual c apabilities differ from
the machine specif ications listed in this manual. If an inappropriate fee d rate or rotationa l
speed is designated, the workpiece or the tool may abruptly move out from the machine.
! Before executing correction functions, fully check that the direction and amount of
correction are correct. Unexpected operation of the machine will result if a correction
function is executed without its thorough understanding.
! Parameters are set to the optimum s tandard machining c onditions prior to shipping of the
machine from the fac tor y. In princ iple, these settings s houl d not be m odif ied. If it b ecom es
absolutely necessary to modify the settings, perform modifications only after thoroughly
understanding the func tions of the correspondin g parameters. Modifications usu ally aff ect
any program. Unexpected operat ion of the machine will result if the settings are modified
without a thorough understanding.
Remarks on the cutting conditions recommended by the NC
! Before using the following cutting conditions:
- Cutting conditions that are the result of the MAZATROL Automatic Cutting Conditions
WARNING
Determination Function
- Cutting conditions sugg es ted b y the Machini ng Na vig atio n Fu nctio n
- Cutting conditions for tools t hat are suggested to be used b y the Machining Navigation
Function
Confirm that every necessary precaution in regards to safe machine setup has been taken –
especially for workpiec e fixtur ing/clamping and tool setup.
! Confirm that the machine door is securely closed before starting machining.
Failure to confirm safe machine setup may result in serious injury or death.
S-2
Programming
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WARNING
SAFETY PRECAUTIONS
! Fully check that the settings of the coordinate systems are correct. Even if the designated
program data is correct, errors in the system settings may cause the machine to operate in
unexpected places and the workpiece to abruptly move out from the machine in the event
of contact with the tool.
! During surface velocity hold control, as the current workpiece coordinates of the surface
velocity hold control axes approach zeroes, the spindle speed increases significantly. For
the lathe, the workpiece may even come off if the chucking force decreases. Safety speed
limits must therefore be observed when designating spindle speeds.
! Even after inch/metric system selection, the units of the programs, tool information, or
parameters that have been registered until that time are not converted. Fully check these
data units before operating the machine. If the machine is operated without checks being
performed, even existing correct programs may cause the machine to operate differently
from the way it did before.
! If a program is executed that includes the absolute data commands and relative data
commands taken in the reverse of their original meaning, totally unexpected operation of
the machine will result. Recheck the command scheme before executing programs.
! If an incorrect plane selection command is issued for a machine action such as arc
interpolation or fixed-cycle machining, the tool may collide with the workpiece or part of the
machine since the motions of the control axes assumed and those of actual ones will be
interchanged. (This precaution applies only to NC units provided with EIA functions.)
! The mirror image, if made valid, changes subsequent machine actions significantly. Use
the mirror image function only after thoroughly understanding the above. (This precaution
applies only to NC units provided with EIA functions.)
! If machine coordinate system commands or reference position returning commands are
issued with a correction function remaining made valid, correction may become invalid
temporarily. If this is not thoroughly understood, the machine may appear as if it would
operate against the expectations of the operator. Execute the above commands only after
making the corresponding correction function invalid. (This precaution applies only to NC
units provided with EIA functions.)
! The barrier function performs interference checks based on designated tool data. Enter the
tool information that matches the tools to be actually used. Otherwise, the barrier function
will not work correctly.
! The system of G-code and M-code commands differs, especially for turning, between the
machines of INTEGREX e-Series and the other turning machines.
Issuance of the wrong G-code or M-code command results in totally non-intended machine
operation. Thoroughly understand the system of G-code and M-code commands before
using this system.
Sample programMachines of INTEGREX e-SeriesTurning machines
S1000M3
S1000M203
The milling spindle rotates at 1000 min–1. The turning spindle rotates at 1000 min–1.
The turning spindle rotates at 1000 min–1. The milling spindle rotates at 1000 min–1.
S-3
SAFETY PRECAUTIONS
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! For the machines of INT EGREX e-Series, programmed coor dinates can be rot ated using
an index unit of the MAZAT ROL program and a G68 command (coordinate rotate c ommand) of the EIA program. Ho wever, for exam ple, when the B-ax is is rotated thro ugh 180
degrees around the Y-axis to im plem ent mac hining with the tur ning spi ndle N o. 2, the pl us
side of the X-axis in the programmed coordinate system faces downward and if the
program is created ignoring this fact, the resulting movement of the tool to unexpected
positions may incite collisions.
To create the progr am with the plus s id e of the X -ax is oriented in an up ward d irec tion, us e
the mirror function of the WPC shift unit or the mirror imaging function of G-code command
(G50.1, G51.1).
! After modifying the tool data specified in the program, be sure to perform the tool path
check function, the solid check f unction, and other func tions, and confir m that the progr am
operates properly. T he m odification of tool dat a ma y cause even a f ield-prove n m achining
program to change in operational status.
If the user operates the machine without be ing aware of an y changes in program status,
interference with the workpiece could arise from unexpected operation.
For example, if the cutting edge of the tool during the start of automatic operation is present
inside the clearance- inc lu din g b lank (unmachined work piec e) s pecified in the common unit
of the MAZATROL program, care is required since the tool will directly move from that
position to the approac h point because of no obstructions be ing judged to be pres ent on
this path.
For this reason, before starting automatic operation, make sure that the cutting edge of the
tool during the start of automatic operation is present outside the clearance-including
workpiece specified in the common unit of the MAZATROL program.
CAUTION
! If axis-by-axis in dependent posit ioning is se lected and sim ultaneously ra pid feed sel ected
for each axis, movem ents to the ending point wi ll not usually bec ome linear. Befor e using
these functions, therefore, make sure that no obstructions are present on the path.
S-4
Operations
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WARNING
SAFETY PRECAUTIONS
! Single-block, feed hold, and override functions can be made invalid using system variables
#3003 and #3004. Execution of this means the important modification that makes the
corresponding operations invalid. Before using these variables, therefore, give thorough
notification to re lated persons. Also, the operator must check the setti ngs of the system
variables before starting the above operations.
! If manual intervention during automatic operation, machine locking, the mirror image
function, or other functions ar e execut ed, the wor kpiec e coord inate s ystems will usua ll y be
shifted. When making machine restart after manual intervention, machine locking, the
mirror image func tion, or other functions, c onsider the result ing amounts of s hift and take
the appropriate measures. If operation is restarted without any appropriate measures being
taken, collision with the tool or workpiece may occur.
! Use the dry run function to check the mac hine for normal operation at no load. Since t he
feed rate at this tim e becomes a dry run r ate different from the program-designated f eed
rate, the axes may move at a feed rate higher than the programmed value.
! After operation has been stopped tem porarily and insertion, deletion, updating, or other
commands executed for the active program, unexpected operation of the machine may
result if that program is restarted. No such commands should, in principle, be issued for the
active program.
CAUTION
! During manual operation, fully check the directions and speeds of axial movement.
! For a machine that requires manual homing, perform manual homing operations after
turning power on. Since the software-controlled stroke limits will remain ineffective until
manual homing is completed, the machine will not stop even if it oversteps the limit ar ea.
As a result, serious machine damage will result.
! Do not designate an incorr ect pulse multip lier when perf orming manual pulse h andle feed
operations. If the multiplier is set to 1000 times and the handle operated inadvertently, axial
movement will become faster than that expected.
S-5
OPERATIONAL WARRANTY FOR THE NC UNIT
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OPERATIONAL WARRANTY FOR THE NC UNIT
The warranty of the manufacturer does not co ver a n y tr oub le aris i ng if the NC un it is us ed f or its
non-intended purpose. Take notice of this when operating the unit.
Examples of the trouble arising if the NC unit is used for its non-intended pur pose are listed
below.
1. Trouble associated with and caused by the use of any commercially available software
products (including user-created ones)
2. Trouble associated with and caused by the use of any Windows operating systems
3. Trouble associated with and caused by the use of any comm ercially available computer
equipment
Operating Environment
1. Ambient temperature
During machine operation: 0° to 50°C (0° to 122°F)
2. Relative humidity
During machine operation: 10 to 75% (without bedewing)
Note: As humidity increases, insulation deteriorates causing electrical component parts to
This manual describes the meaning and setting of various parameters, and the meaning and
elimination procedure of various alarms used for the MAZATROL MATRIX System. This
document also gives the list of M-codes.
For detailed description of the MAZATROL MATRIX System, refer to the Operating Manual of
the machine.
Read this manual and the Operating Manual of the machine carefully in order to make the best
use of the possibilities of the MAZATROL MATRIX System.
INTRODUCTION1
1-1
1INTRODUCTION
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- NOTE -
1-2
E
2 PARAMETER
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2-1 Outline
1. Scope of this chapter
This chapter describes the parameters you can change as required. How to read the list is
described in the beginning. Always refer to this list to change parameters.
2. Precautions on thi s ch apter
This chapter also gives parameters relating to optional functions. Accordingly, the list
includes parameters which cannot be changed. Check the type of machine purchased by
you and its specifications before you read the list.
Note 1: The contents of this list are subjected to change without notice, for NC unit or machine
improvement.
Note 2: Any questions about the contents of this list should be communicated to Mazak
Technical Center or Technology Center.
2-1-1 Types of parameters
Parameters, which refer to constants specific to the NC machines and equipment and the data
necessary for cutting operations, possess a very important meaning.
PARAMETER2
Parameters can be broadly divided into the following three types according to their meaning.
- User parameters
The data required for processes such as point machining, line machining, plane machining,
turning, and EIA/ISO programmed machining, is registered. The USER PARAMETER display
is used to register the user parameters.
- Machine parameters
Constants related to the servomotors and spindle motors, machine status data etc. are
registered. The MACHINE PARAMETER display is used to register the machine parameters.
- Data I/O parameters
The data required for connection to external units such as a CMT unit and a tape unit, is
registered. The DATA I/O PARAMETER display which can be selected on the DATA I/O
display is used to register the data I/O parameters.
2-1
2PARAMETER
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2-1-2 Precautions
1. Details of the parameters may differ according to the machine used, the presence/absence
of an option(s), the production time of the NC machines and equipment, etc. Therefore, do
not use the parameters of other machines.
2. The parameter list is supplied in the form of data sheets within the NC electronic cabinet at
shipment of the machines. Be careful not to lose the list.
3. Before making changes to details of a parameter, make sure that the parameter is the one
to be changed.
4. If details of the parameter to be changed cannot be clearly understood, contact Mazak
Technical Center or Technology Center.
5. When changing details of a parameter, maintain records of the old and new data.
6. If the particular machine is not used for a long time, then the battery to protect the parameter
memory will run down. (Battery alarm)
In that case, errors will occur in the parameters and thus machine malfunctions may result.
To prevent this, first check the existing details of the parameters closely against the
separate parameter list and then make the necessary changes to the parameters.
7. In addition to the parameters listed in this document, those related to PLC (Programmable
Logic Controller) are also available; refer to the OPERATING MANUAL of the machine for
details of the PLC-related parameters and the PLC Parameter List in the ELECTRIC
WIRING DIAGRAM.
2-2
2-2 Parameter List
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2-2-1 User parameter
1. POINT (D)
PARAMETER2
Address
(bit)
D1Height of the second R-point during point machining
D2Nominal diameter of spot-machining tool
D3Number of revolutions during dwell at hole bottom in spot-machining cycle
D4Maximum allowable spot-chamfering hole diameter element
D5Prehole through speed during inversed spot-facing
D6Drill-machining cycle setting element
D7Drill-machining cycle setting element
D8Maximum diameter of holes machinable on one drill
D9Maximum diameter of holes machinable on two drills
D10Maximum diameter of holes machinable on three drills
D11Through-hole/tap-prehole machining overshoot
Outline
D12Stop-hole machining hole-bottom clearance
D13Spot-machining hole diameter (fixed value)
D14Depth-of-cut setting element for drilling (ALMINUM)
D15Depth-of-cut setting element for drilling (except AL)
D16
D17Interference clearance of chamfering cutter
D18Return feed rate for reaming or boring (cycle 3)
D19Number of revolutions during dwell at hole bottom for end milling
D20Radial depth-of-cut setting element for end milling
D21Reference bottom-finishing allowance for end milling
D22Tapping-cycle dwell time
D23Prehole clearance for end milling
Number of revolutions during dwell at hole bottom for chamfering cutter or spot-machining tool in chamfering
cycle
D24Number of revolutions during dwell at hole bottom for boring
2-3
2PARAMETER
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Address
(bit)
D25Boring-bar tip relief
D26Returning distance from hole bottom for boring or back-boring
D27—
D28Bottom-finishing amount of boring
D29Chip removal time
D30Number of incomplete threads in tapping cycle
D31Tapper elongation amount for tapping
D32Number of spindle revolutions until spindle CCW rotation begins in tapping cycle
D33Back-boring tool tip relief
D34—
D35Prehole-drilling diameter setting element for reamer (drilling)
Outline
D36Prehole-drilling diameter setting element for reamer (boring)
D37Prehole-drilling diameter setting element for reamer (end milling)
D38Reamer-prehole diameter setting element for boring or end milling
D39Reamer-prehole diameter setting element for end milling
D40Number of revolutions during dwell at spot-faced hole bottom for inversed spot-facing
D41R-point height during point-machining
D42Height of the third R-point during point machining
D43Number of incomplete threads in tapping cycle for piped screw
D44—
D45Gradual decrements in drilling depth
D46Minimum gradual drilling depth
D47Reamer-prehole machining overshoot
D48Feed override for the section to be chamfered in the planetary tapping cycle
D49Amount of return at hole bottom during the planetary tapping cycle
D50Auto-set feed rate for pre-hole machining in the planetary tapping cycle
D51Auto-set feed rate for planetary tapping cycle
2-4
PARAMETER2
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Address
(bit)
D52Reduction ratio for the G00-based relief rate during a very-deep-hole drilling cycle
D53
D54Deceleration rate at cutting start for very-deep-hole drilling cycle/decremental very-deep-hole machining cycle
D55Drilling return distance for very-deep-hole drilling cycle/decremental very-deep-hole machining cycle
D56
D57Return speed for very-deep-hole drilling cycle/decremental very-deep-hole machining cycle
D58
D59
D60Automatic setting ratio of axial cutting feed rate during chamfering
D61 - D72—
D73 - D77Learning of cutting conditions (DEP-Z range)
Number of times of pecking up to the return of the tool to a position near the starting point of the very-deephole drilling cycle of a drilling or turning-drilling unit
Number of revolutions during dwell at chip ejection position and hole bottom for very-deep-hole drilling
cycle/decremental very-deep-hole machining cycle
Feed rate reduction distance ratio at cutting start of a very-deep-hole drilling cycle/decremental very-deephole machining cycle
Circumferential speed reduction ratio at cutting end of a very-deep-hole drilling cycle/decremental very-deephole machining cycle
Outline
D78 - D82Learning of cutting conditions (WID-R range)
D83 - D90—
D910M04 is output/not output after the tool has dwelled at the hole bottom during a tapping cycle.
1The tool dwells/does not dwell after M04 has been output at the hole bottom during a tapping cycle.
2The tool dwells/does not dwell after it has been returned to the R-point during a tapping cycle.
3If a drill is used in the pre-machining of the centering drill cycle, the R-point height is set to D1 or not.
4The finishing tool path is shortened/not shortened during a true-circle processing cycle (end milling).
5The tool path is shortened/not shortened during a true-circle processing cycle (chamfering).
If a pre-machining tool sequence is included in the same unit, the R-point height of the drill is set/not set to D1
6
or D42.
The R-point height of the chamfering cutter during the cycle 2 is set to D42 or not.
7
The R-point height of the spot-machining tool during the chamfering cycle (cycle 2) is set to D42 or not.
D920During a true-circle processing (end milling) cycle, E17 is used for axial feed or not.
1The R1-point height of the back spot facing is set to D1 or not.
If a chamfering cutter is included in the premachining tool sequence of the same unit, the R-point height of the
2
reamer is set to D1 or not.
If a chamfering cutter is included in the pre-machining tool sequence of the same unit, the R-point height of
3
the tapping is set to D1 or not.
4—
5—
2-5
2PARAMETER
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Address
(bit)
6During planetary tapping, chips are ejected/not ejected automatically prior to the threading process.
7—
D93Unidirectional positioning for point-machining
D94Unidirectional positioning for point-machining
D95Auto-setting method for tapping
D96 - D144—
Outline
2. LINE/FACE/3D (E)
Address
(bit)
E1Closed-pattern cutting start point and escape point setting element
E2Cutting start point and escape point setting element (the first clearance)
Outline
E3—
E4Reference allowance of finishing in radial direction
E5Element used to set the cutting start point and escape point (the second clearance)
E6Reference allowance of finishing in axial direction
E7Allowance of cutting start point in axial direction (the second clearance)
E8Radial interference clearance of chamfering cutter
E9Allowance of axial-cutting start position (the first clearance)
E10Depth-of-cut-R automatic setting element (Face milling, End milling-top, End milling-step)
E11Axial interference clearance of chamfering cutter
E12Radial interference clearance of face milling unit and angular face milling unit
E13Tool path setting element for end milling-top unit
E14Depth-of-cut-R automatic setting element (Pocket milling, Pocket milling-mountain, Pocket milling-valley)
E15Tool path setting element for face milling-top unit (reciprocating short)
E16Peripheral-cutting feed rate override for end milling-mountain unit
E17Axial-cutting feed rate override
E18Override in case of the overall width cutting for pocket-machining
E19Returning feed rate override in case of bidirectional cutting for rough-machining of the end milling-slot unit.
2-6
PARAMETER2
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Address
(bit)
E20Axial cutting feed override during Z-axial cutting in the pecking mode of face machining
E21Wall-cutting overlap in closed figure
E22Override value of automatic corner over-riding
E23Effective removal allowance (upper limit) of automatic corner overriding
E24Effective removal allowance (lower limit) of automatic corner overriding
E25Effective angle (upper limit) of automatic corner overriding
E26Calculation coefficient for the finishing feed of line milling
E27Radial direction feed rate calculation reference diameter for finish cutting in line machining unit
E28Finishing feed rate calculation reference feed rate in line machining unit
E29Selection of whether the cutting conditions in the shape sequence during VFC mode are to be modified
E30
An element that determines the starting point and escape point of radial cutting when CLOSED is specified
for the wall attributes at the starting point and ending point of open-pattern line machining
Outline
E31
E32
E33
E34
E35
E36
E37
E38
E39 - E54—
E553-D, Axial cutting-feed overriding
E563-D, Inversion check of curved-surface pattern
E573-D, Severity check of cutting pitch
Element that determines the amount of OPEN attribute wall protrusion in pocket-machining shape units
Element that automatically determines an approaching radius in a Z-direction helical approach scheme
Approaching gradient during a helical approach scheme
Element that automatically determines an approaching distance in a Z-direction tapered approach scheme
Approaching gradient during the tapered approach scheme
Element that automatically determines an escape distance in the Z-direction tapered escape scheme
The amount of return of pecking in the Z-axial pecking mode of face machining
The returning feed rate of pecking in the Z-axial pecking mode of face machining
1X-axis movement to minus side during polar coordinate interpolation, enabled/disabled
2—
3C-axis indexing when EIA subprogram is called from MAZATROL program
4Modal or non-modal state of Q command in deep hole drilling cycle
5Conversion of tool set data for milling tool based on head swivel angle when G53.5 is commanded
6Behavior of automatic operation of an EIA program when Z-offset is not set
7Setting at CONTI. of the END unit during tool path check, valid/invalid
F1660
Alteration of tool set value (tool length) on the TOOL DATA display in the automatic operation mode,
enabled/disabled
1Type of wear offset indicated in the milling tool list on the TOOL DATA display
2ID No./Tool name selection on the TOOL DATA display
3—
4—
2-18
PARAMETER2
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Address
(bit)
5—
6—
7—
F167—
F168—
4. SOFT LIMIT (I)
Address
(bit)
I1Shift amount of unidirectional positioning (G60)
I2Upper (plus direction) user soft-limit
I3Lower (minus direction) user soft-limit
I4—
Outline
Outline
I5Function for making the G0 speed variable, Variable override: Minimum value
I6—
I7Function for making the G0 speed variable, Variable control area
I8—
I9Function for making the G0 speed variable, Variable control area lower limit
I10Function for making the G0 speed variable, Variable control area upper limit
I11Rotary center of a workpiece
I12Clamping value for the amount of handle interruption
I130Execution of G28 (reference-point return)
1Manual zero-point return operation
2—
3—
4—
5—
6Removal of control axes, valid/invalid
7—
2-19
2PARAMETER
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Address
(bit)
I140Mirror image with respect to the machine zero point, valid/invalid
1—
2User software limits (I2, I3) valid/invalid
Tool-tip relief after spindle orientation during execution of G75, G76, G86 or point-machining (boring or back-
3
boring), valid/invalid
Direction of tool-tip relief after spindle orientation during execution of G75, G76, G86 or point-machining
4
(boring or back-boring)
5—
6—
7—
I15 - I24—
Outline
5. SYSTEM (SU)
Address
(bit)
Outline
SU1Reference axis of abscissa for plane selection
SU2Axis 1 parallel to the axis of abscissa for plane selection
SU3Axis 2 parallel to the axis of abscissa for plane selection
SU4Reference axis of ordinate for plane selection
SU5Axis 1 parallel to the axis of ordinate for plane selection
SU6Axis 2 parallel to the axis of ordinate for plane selection
SU7Reference height axis for plane selection
SU8Axis 1 parallel to the height axis for plane selection
SU9Axis 2 parallel to the height axis for plane selection
SU10Selection of tool change position specification code
SU11Movement of axes during approach
SU12Rotating position specified in the index unit after tool change
SU13Axis name of the transfer axis
SU14Tool nose mark display color on the TOOL PATH CHECK display/TRACE display
SU15Name of thrust axis for W-axis
2-20
PARAMETER2
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Address
(bit)
SU16Movement to C-axis index swivel position when Z-offset scheme is used
SU17 - SU48—
SU49Delay timer for the parts catcher
SU50Tool turning clearance (radial value) in X-axis
SU51Tool turning clearance in Z-axis
SU52Lower-turret retraction function - Tool number of the retraction tool 1
SU53Lower-turret retraction function - Tool number of the retraction tool 2
SU54 - SU96—
SU97 -
SU100
SU101
SU102
Lower-turret retraction function - Fixed point of the retraction position
Return distance (radial value) in X-axis at wall during rough cutting in bar machining or in corner machining of
EIA/ISO program
Return distance in Z-axis at wall during rough cutting in bar machining or in corner machining of EIA/ISO
program
Outline
SU103Cutting depth in the composite-type fixed cycle
SU104Pecking return distance in groove cutting unit and grooving
SU105
SU106Minimum cut depth clamping value in thread cutting unit and composite-type thread cutting cycle
SU107 -
SU152
SU153 0M-code selection for tapping cycle
Cut depth (diametral value) for final cut in thread cutting unit
Cut depth (diametral value) for final cut in composite-type thread cutting cycle G276, G76
—
1—
2—
3—
4—
5—
6—
SU154 SU168
7—
—
2-21
2PARAMETER
Return to Library
6. TURNING (TC)
Address
(bit)
TC1
TC2Acceleration rate in up-going taper for rough cutting in bar machining unit
TC3Acceleration rate in up-going wall slope (90°) for rough cutting in bar machining unit
TC4Selection of escape pattern from wall (90°) in rough cutting cycle
TC5Deceleration rate in down-going taper for rough cutting in bar machining unit
TC6Deceleration rate in down-going wall slope (90°) for rough cutting in bar machining unit
TC7Acceleration rate on outside stock contour for rough cutting in copy machining unit
TC8Acceleration pitch error ratio in thread cutting unit
TC9Rough cutting residue ratio in cutting off cycle in groove cutting unit
TC10
TC11Deceleration rate at cutting start in turning-drilling unit
Cut depth reduction rate for rough cutting in bar machining unit, corner machining unit, and copy machining
unit
Cut depth allowable incremental rate for rough cutting in groove cutting unit, edge machining unit and copy
machining unit
Outline
TC12Deceleration rate at cutting end in turning-drilling unit
TC13Deceleration rate at rough cutting start in bar machining unit and copy machining unit
TC14Maximum permissible rate of increase of the initial cutting depth during roughing
TC15Deceleration clearance at start of rough cutting in bar machining unit and copy machining unit
TC16Tolerance for escape in high speed rough cutting cycle of bar machining unit
TC17Pitch error correction during threading acceleration
CMT24
CMT25Type of processing to be executed if the tool quantity data within the NC memory mismatches that of the CMT
CMT26 -
CMT32
—
—
Outline
2. TAPE parameter (TAP)
Address
(bit)
TAP1Type of terminator
TAP2Terminator code 1
TAP3Terminator code 2
TAP4Output of CR during ISO code punching
TAP5DC code parity
Outline
TAP6Feed section DC code output
TAP7—
TAP8—
TAP9“[” code for paper tape reader/puncher for EIA
TAP10“]” code for paper tape reader/puncher for EIA
TAP11“#” code for paper tape reader/puncher for EIA
TAP12“∗” code for paper tape reader/puncher for EIA
TAP13“=” code for paper tape reader/puncher for EIA
TAP14“:” code for paper tape reader/puncher for EIA
TAP15“(” code for paper tape reader/puncher for EIA
TAP16“)” code for paper tape reader/puncher for EIA
TAP17 -
TAP24
—
TAP25Paper tape puncher parity-V check
TAP26Bit parameter related to paper tape reader/puncher
2-55
2PARAMETER
Return to Library
Address
(bit)
TAP27Bit parameter related to program end code (M) for paper tape reader
TAP28—
TAP29Number of characters in feed section for paper tape puncher
TAP30Number of characters in the space between O-number and program for paper tape puncher
TAP31Number of characters in the space between programs for paper tape puncher
TAP32—
Outline
3. DNC parameter (DNC)
Address
(bit)
DNC1Type of terminator
DNC2Terminator code 1
Outline
DNC3Terminator code 2
DNC4—
DNC5DC code parity
DNC6 -
DNC8
DNC9Number of NC transmission retries during DNC file transfer
DNC10Number of NC reception retries during DNC file transfer
DNC11Number of NC transmission/reception retries during DNC command message transfer
DNC12@ waiting time during DNC transmission
DNC13“∗”, TEXT waiting time during DNC transmission
DNC14EOT waiting time during DNC transmission
DNC15NC stop time after reception of !
DNC16NC reset time after digital-out
—
DNC17NC stop time from reception
DNC18DNC command reply message waiting time
DNC19DNC machine number
DNC20NC transmission stop time of DNC (from reception to transmission)
DNC21NC transmission stop time of DNC (from transmission to transmission)
2-56
PARAMETER2
Return to Library
Address
(bit)
DNC22 -
DNC24
DNC25 0
DNC26 0After program reception, a search is made/not made for the work number of that program.
—
Type of processing to be executed if the tool quantity data within the NC memory mismatches that which has
been transferred from the DNC memory
1—
2Handling of tool data and tool files in the M PLUS format, valid/invalid
3—
4—
5—
6—
7—
1Details of an alarm occurring in DNC are displayed or not.
Outline
Loading of programs having the same work number as that of the registered program in NC becomes
2
impossible or not.
3The function of the PROGRAM LOCK/ ENABLE switch is released or not.
4—
5Three digit G-format and G10 format codes input/output for MAZAK data transfer protocol
6Binary to ASCII format input/output of MAZAK data transfer protocol
All programs having work numbers smaller than No. 9000 are erased/not erased at the start of program
7
reception.
DNC27—
DNC28—
DNC29Number of retry times with detection of a physical error
DNC30Tool data/tool file message format
DNC31—
DNC32—
2-57
2PARAMETER
Return to Library
4. Other (IOP/DPR/IDD)
Address
(bit)
IOP1 - IOP4—
IOP5Loading a program(s) of the same work number, alarm without overwriting/overwriting
IOP6—
IOP7Data entry for communication with the magazine-side display unit
IOP8—
IOP9Number of pitch error axes during text output
IOP10 -
IOP16
DPR1Baud rate
DPR2Stop bit
DPR3—
DPR4Data bit
—
Outline
DPR5 -
DPR7
DPR8ISO code CR output and the output file size
DPR9Method of handshaking
DPR10DC code parity
DPR11Feed section DC code output
DPR12Waiting time
DPR13Output format
DPR14Selection of an output destination port
DPR15Number of characters or the number of lines in feed section
DPR16—
IDD1 -
IDD16
—
—
2-58
2-3 Detailed Description
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2-3-1 Structure of the parameter list
Each parameter list is written in the following format:
PARAMETER2
Classification
AddressMeaningDescription
[1]
Display title
[2]
[4]
[3]
Program type
Conditions
Unit
Setting range
[5]
[6]
[7]
[8]
[9]
[1] Classification of parameters (USER, MACHINE or DATA I/O)
[2] Characters displayed at the upper part of the screen
[3] Parameter address displayed on the screen
- Bit input type parameters have the bit No. shown in the parentheses below address.
Example:
Setting value for parameter
(bit 0) is indicated here
Address
P1
P1
P1
(bit 0)
[4] Meaning of the parameter
[5] Applicable program
M....................Effective only for MAZATROL programs
E ....................Effective for EIA/ISO programs
M, E ...............Effective for MAZATROL programs and EIA/ISO programs
Bit 0
Bit 1
Bit 2
Bit 3
Bit 4
Bit 5
Bit 6
Bit 7
2-59
2PARAMETER
Return to Library
[6] Conditions under which a changed parameter becomes valid
[7] Units of data displayed
[8] Allowable range of data
[9] Details or meaning of the parameter
Example 1: “Immediate” designates that new parameter value becomes effective upon
parameter change.
Example 2: “At power on” designates that new parameter value will become effective
after procedure below.
1.
Change parameter setting value.
(By procedure similar to changing of ordinary data)
!
Press power off button on the operation panel.
2.
!
3. Press power on button on the operation panel.
Example 3: In the parameter list, “At I/O startup” means that the system operates at the
parameter data entered before the start of I/O. If the parameter data is
modified during I/O operation, the new data will not become valid until the I/O
operation has been completed.
2-60
2-3-2 User parameter POINT (D)
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PARAMETER2
Classification
AddressMeaningDescription
Height of the second R-point during point
machining
D1
Program typeM
ConditionsImmediate
Unit0.1 mm/0.01 inch
Setting range–999 to 999
Nominal diameter of spot-machining tool
D2
USER
Display title
Height of the second R-point
The height of the R-point during point machining is basically D41,
however, it is changed to D1 under the following conditions.
Tool sequenceConditions
- Bit 6 of parameter D91 is set to 1 (D1 valid).
Drill
Reamer
However, when a drill is included in the pre-machining tool sequence in
case of a drilling tool sequence, the height is changed to D42.
(!D42)
The nominal diameter of a spot-machining tool that is automatically set
during automatic tool development.
Example:
SNo. TOOL NOM-φ No. HOLE-φ HOLE-DEP
1 CTR-DR
- There is a spot drill in the pre-machining tool
sequence of the same unit.
- Bit 2 of parameter D92 is set to 1 (D1 valid).
- There is a chamfering cutter in the premachining tool sequence of the same unit.
20.
10.
↑
D2
POINT
D1
Initial point
Second R-point
MPL001
"
D3
Program typeM
ConditionsImmediate
Unit1 mm/0.1 inch
Setting range0 to 99
Number of revolutions during dwell at hole
bottom in spot-machining cycle
Program typeM
ConditionsImmediate
Unit1 revolution
Setting range0 to 9
Z-axis feed dwell time at the hole bottom in a spot-machining cycle. Set
this time in spindle revolutions.
When the spot-machining tool reaches
the hole bottom, the Z-axis will firstly stop
moving until the spindle makes D3
revolutions, and then return to the
original position at the rapid feed rate.
3
MPL002
2-61
2PARAMETER
A
Return to Library
Classification
AddressMeaningDescription
Maximum allowable spot-chamfering hole
diameter element
USER
Display title
Element used to set the maximum spot-chamfering hole diameter (d)
during automatic tool development
D2
d
D4
Program typeM
ConditionsImmediate
Unit0.1 mm/0.01 inch
Setting range0 to 99
Prehole through speed during inversed
spot-facing
0
The feed rate of a tool as it is being passed through the prehole during an
inversed spot-facing cycle
Note: 0.5 mm/rev if this parameter setting is 0.
POINT
Spot-chamfering occurs if
d ≤ D2 – D4.
If d > D2 – D4, the chamfering
cutter is developed automatically.
D5
t the feedrate of
MPL003
D5
D6
D7
Program typeM
ConditionsImmediate
Unit100 mm/min / 10 inch/min
Setting range0 to 99
Drill-machining cycle setting element
Program typeM
ConditionsImmediate
Unit—
Setting range0 to 9
MPL004
Element used to automatically set drill-machining cycles during automatic
tool development
Machining cycleConditions
Drilling cycle
High-speed deep-hole
drilling cycle
Deep-hole drilling cycle
D6
D7
<
<
DEPTH
DIA
DEPTH
DIA
DEPTH
DIA
D6
≤
D7
≤
2-62
PARAMETER2
Return to Library
Classification
AddressMeaningDescription
Maximum diameter of holes machinable on
one drill
D8
Program typeM
ConditionsImmediate
Unit1 mm/0.1 inch
Setting range0 to 99
Maximum diameter of holes machinable on
two drills
USER
Display title
Element used to automatically set the number of drills which are
automatically developed according to the hole diameter of the drill unit
Number of drills
developed
1DIA≤ D8
2D8 < DIA≤ D9
3D9 < DIA≤D10
AlarmD10 <DIA
POINT
Conditions
D9
D10
D11
Program typeM
ConditionsImmediate
Unit1 mm/0.1 inch
Setting range0 to 99
Maximum diameter of holes machinable on
three drills
Program typeM
ConditionsImmediate
Unit1 mm/0.1 inch
Setting range0 to 99
Through-hole/tap-prehole machining
overshoot
Program typeM
ConditionsImmediate
Unit0.1 mm/0.01 inch
Setting range0 to 99
Element used to automatically set the hole-drilling, endmilling, and boring
depths during automatic tool development of inversed spot-facing,
tapping, back-boring, through-hole drilling, through-hole counter-boring,
and spot-faced tapping units
Element used to automatically set the hole-drilling depth during automatic
tool development of stop-hole counter-boring and stop-hole boring units
D12
Example:
SNo. TOOL NOM-φ No. HOLE-φ HOLE-DEP
Program typeM
ConditionsImmediate
Unit0.1 mm/0.01 inch
Setting range0 to 99
Spot-machining hole diameter
(fixed value)
1 DRILL 10. 10.
Note:
This parameter is invalid when the residual hole diameter is not 0.
Hole diameter is automatically set during automatic tool development
when spot-chamfering is not to be performed.
POINT
D12
(DEPTH – tool tip compensation – D12)
D13
D13
DEPTH
MPL006
19.
↑
MPL007
D14
D15
Program typeM
ConditionsImmediate
Unit1 mm/0.1 inch
Setting range0 to 99
Depth-of-cut setting element for drilling
(ALMINUM)
Program typeM
ConditionsImmediate
Unit0.1
Setting range0 to 10
Depth-of-cut setting element for drilling
(except AL)
Example:
SNo. TOOL NOM-φ No. HOLE-φ HOLE-DEP
10.
1 CTR-DR 20.
Element used to automatically set the depth-of-cut per drilling operation
during automatic tool development
HOLE-φ × D14 : when the material of the stock workpiece is AL
(aluminum) in article MAT. 6
HOLE-φ × D15 : when the material of the stock workpiece is other than
AL in article MAT. 6
D13
"
Program typeM
ConditionsImmediate
Unit0.1
Setting range0 to 10
2-64
PARAMETER2
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Classification
AddressMeaningDescription
Number of revolutions during dwell at hole
bottom for chamfering cutter or spotmachining tool in chamfering cycle
USER
Display title
Z-axis feed dwell time at the hole bottom in the chamfering cycle of
chamfering cutter or spot-machining tool. Set this time in spindle
revolutions.
D16
Program typeM
ConditionsImmediate
Unit1 revolution
Setting range0 to 9
Interference clearance of chamfering cutter
(Stops at hole bottom.)
The clearance in order to prevent tool interference with a wall of the
workpiece or with the hole bottom during a chamfering cycle
POINT
When the chamfering cutter reaches the
hole bottom, the Z-axis will firstly stop
moving until the spindle makes D16
revolutions, and then return to the
original position at the rapid feed rate.
Note:
This parameter is invalid for chamfering
with true-circle processing.
D17
D17
Interferes.
MPL008
D18
D19
Program typeM
ConditionsImmediate
Unit0.1 mm/0.01 inch
Setting range0 to 99
Return feed rate for reaming or boring
(cycle 3)
Program typeM
ConditionsImmediate
Unit100 mm/min / 10 inch/min
Setting range0 to 9
Number of revolutions during dwell at hole
bottom for end milling
D17
Interferes.
The feed rate at which the tool is returned from the hole bottom during
reaming or boring.
D18
Notes:
1. Valid only when the setting of DEPTH for the reamer (tool sequence)
is G01.
2. Valid only when the setting of PRE-DIA for the boring tool (tool
sequence) is CYCLE 3.
3. If this parameter is 0, the tool is returned at the same feed rate as that
of cutting.
Z-axis feed dwell time at the hole bottom in an end milling cycle. Set this
time in spindle revolutions.
When the end mill reaches the hole
bottom, the Z-axis will firstly stop
moving until the spindle makes D19
revolutions, and then return to the
original position at the rapid feed rate.
MPL009
MPL010
Program typeM
ConditionsImmediate
Unit1 revolution
Setting range0 to 999
(Stops at hole bottom.)
2-65
Note:
This parameter is invalid for true-circle
processing.
MPL011
2PARAMETER
Return to Library
Classification
AddressMeaningDescription
Radial depth-of-cut setting element for end
milling
D20
Program typeM
ConditionsImmediate
Unit1%
Setting range0 to 100
Reference bottom-finishing allowance for
end milling
D21
Program typeM
ConditionsImmediate
Unit0.1 mm/0.01 inch
Setting range0 to 99
USER
Display title
Element used to automatically set the radial depth-of-cut per end milling
operation
Depth-of-cut = nominal diameter × D20
Depth-of-cut is automatically set according to the value of this parameter
when nominal diameter of the end mill is input.
Example:
SNo. TOOL
1 END MILL 20. 40. 10. 30. " 0.
The reference value for calculation of a bottom-finishing allowance which
corresponds to the roughness level of the end milling (tool sequence). The
finishing allowance in the case of roughness level 4 becomes the value of
this parameter, and the values for all other roughness levels are set using
the expressions listed in the table below.
Dwell time at the hole bottom or at the R-point. This value is valid when 1
is set for bit 0, 1 or 2 of parameter D91.
This parameter is valid only when the setting for roughness (RGH) of
tapping (tool sequence) is FIX.
The excess amount of prehole diameter over nominal diameter that is
used to specify whether the Z-axis is to be moved at a rapid feed rate or at
a cutting feed rate during true-circle processing with the end mill
D23D23
Cutting feedRapid feed
MPL012
2-66
PARAMETER2
Return to Library
Classification
AddressMeaningDescription
Number of revolutions during dwell at hole
bottom for boring
USER
Display title
Z-axis feed dwell time at the hole bottom in a boring cycle. Set this time in
spindle revolutions.
D24
Program typeM
ConditionsImmediate
Unit1 revolution
Setting range0 to 9
Boring-bar tip relief
(Stops at hole bottom.)
The amount of relief provided for the tip of a boring bar to be kept clear of
the hole wall after spindle orientation
POINT
When the boring bar reaches the hole
bottom, the Z-axis will firstly stop moving
until the spindle makes D24 revolutions,
and then the spindle orientation will be
performed.
Note:
This parameter is invalid if the roughness
(RGH) of the boring (tool sequence) is 0.
D25
MPL013
D25
D26
Program typeM
ConditionsImmediate
Unit0.1 mm/0.01 inch
Setting range0 to 99
Returning distance from hole bottom for
boring or back-boring
Program typeM
ConditionsImmediate
Unit0.1 mm/0.01 inch
Setting range0 to 99
—
During boring
Notes:
1. Valid only when the setting for the prehole diameter of the boring (toolsequence) is CYCLE 1.
2. For the relief direction of the tool tip, see the description of bit 3 and bit
4 of I14.
The distance which the boring or back-boring tool is returned at the same
feed rate as for cutting after the tool has reached the hole bottom
[1]Has reached the
hole bottom.
Note:
Not valid if the setting for the roughness (RGH) of the boring (tool sequence)
is 1.
Invalid
[2]Returned at the
same feedrate.
During returning
D26
[3]Returned at a
rapid feedrate.
MPL014
MPL015
D27
Program type—
Conditions—
Unit—
Setting range—
2-67
2PARAMETER
Return to Library
Classification
AddressMeaningDescription
Bottom-finishing amount of boring
USER
Display title
The distance which the boring bar is fed in at 70% of the original feed rate
to finish the hole bottom
POINT
D28
Program typeM
ConditionsImmediate
Unit0.1 mm/0.01 inch
Setting range0 to 99
Chip removal time
The feed rate is reduced to 70% of the original value before the hole
bottom is reached.
Note:
Not valid if the setting for the roughness (RGH) of the boring (tool sequence)
is 1.
The time required for a chip removal tool to complete a chip removal
operation after the tool has been positioned to the hole
D29
D28
MPL016
D30
Program typeM
ConditionsImmediate
Unit1 sec.
Setting range0 to 99
Number of incomplete threads in tapping
cycle
Program typeM
ConditionsImmediate
Unit1 thread
Setting range0 to 9
To set number of incomplete threads in tapping cycle for metric screws
and unified screws. In tapping, internal thread is tapped extra for the depth
of (D30 × pitch) in the direction of Z.
This is also used as an element for auto matically determining hole-drilling
depth (HOLE-DEP) in the automatic tool development of the tapping unit.
[Related parameter]
D43: Number of incomplete threads in tapping cycle for piped screws
19.
↑
MPL07
2-68
PARAMETER2
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Classification
AddressMeaningDescription
Tapper elongation amount for tapping
D31
Program typeM
ConditionsImmediate
Unit1 revolution
Setting range0 to 9
Number of spindle revolutions until spindle
CCW rotation begins in tapping cycle
USER
Display title
Excess amount of tool return due to elongation of the tapper during
tapping cycle
Set this value in spindle revolutions.
× Pitch
D31
The number of inertial turns in tapping cycle that the spindle has rotated
clockwise during the time from output of a spindle CCW rotation command
to the start of spindle CCW rotation
POINT
D32
R-point
MPL019
D33
D34
Program typeM
ConditionsImmediate
Unit1 revolution
Setting range0 to 99
Back-boring tool tip relief
Program typeM
ConditionsImmediate
Unit0.1 mm/0.01 inch
Setting range0 to 99
—
The amount of relief provided for a back-boring tool tip to be kept clear of
the prehole walls as it is being passed through the prehole in the oriented
state of the spindle
D33
[1] During back-boring[2] During passage
Note:
For the relief direction of the tool tip, see the description of bit 3 and bit 4 of
I14.
Invalid
MPL019
Program type—
Conditions—
Unit—
Setting range—
2-69
2PARAMETER
Return to Library
Classification
AddressMeaningDescription
Prehole-drilling diameter setting element for
reamer (drilling)
USER
Display title
Element used to automatically set the prehole-drilling diameter d uring
automatic tool development of the reamer unit (When the pre-machining
process is drilling.)
DIA
D35
Program typeM
ConditionsImmediate
Unit0.01 mm/0.001 inch
Setting range0 to 999
Prehole-drilling diameter setting element for
reamer (boring)
Example:
SNo. TOOL NOM-φ No. HOLE 1 DRILL 10.
Element used to automatically set the prehole-drilling diameter d uring
automatic tool development of the reamer unit (When the pre-machining
process is boring.)
DIA
D36
POINT
DIA –
φ
10.
DIA –
D35
MPL020
(
–
D35
)
DIA
←
D36
D37
Program typeM
ConditionsImmediate
Unit0.01 mm/0.001 inch
Setting range0 to 999
Prehole-drilling diameter setting element for
reamer (end milling)
Program typeM
ConditionsImmediate
Unit0.01 mm/0.001 inch
Setting range0 to 999
MPL020
Example:
SNo. TOOL NOM-φ No. HOLE 1 DRILL 10.
Element used to automatically set the prehole-drilling diameter d uring
automatic tool development of the reamer unit (When the pre-machining
process is end milling.)
DIA
Example:
SNo. TOOL NOM-φ No. HOLE 1 DRILL 10.
10.
10.
φ
←
DIA –
φ
←
(
(
DIA
D37
DIA
–
–
D36
D37
)
MPL020
)
2-70
PARAMETER2
Return to Library
Classification
AddressMeaningDescription
Reamer-prehole diameter setting element
for boring or end milling
USER
Display title
1) In automatic tool development of the reamer unit, if the pre-machining
process is boring:
DIA
D38
Program typeM
ConditionsImmediate
Unit0.01 mm/0.001 inch
Setting range0 to 999
Reamer-prehole diameter setting element
for end milling
Example:
SNo. TOOL NOM-φ No. HOLE 1 BOR BAR 10.
2) In automatic tool development of the reamer unit, if the pre-machining
process is end milling:
DIA
D39
POINT
Boring-hole diameter
= DIA –
10.
First end milling hole diamete r
= DIA –
Second end milling hole diameter
= DIA –
φ
←
D38
(DIA –
D39
D38
D38
MPL021
)
MPL022
D40
D41
Program typeM
ConditionsImmediate
Unit0.01 mm/0.001 inch
Setting range0 to 999
Number of revolutions during dwell at spotfaced hole bottom for inversed spot-facing
Program typeM
ConditionsImmediate
Unit1 revolution
Setting range0 to 9
R-point height during point-machining
Program typeM
ConditionsImmediate
Unit1 mm/0.1 inch
Setting range0 to 99
Example:
SNo. TOOL NOM-φ No. HOLE 1 END MILL 15.
2 END MILL 10.
Z-axis feed dwell time at the spot-faced hole bottom in an inversed spot
facing cycle. Set this time in spindle revolutions.
(Feeding stops at
hole bottom.)
R-point height of each tool in the point-machining unit
Example:
D41
Note:
For the inversed spot-facing unit or the back-boring unit, this parameter
can also be used for setting the clearance amount at the hole bottom.
(
!D1, D42)
φ
20.
(DIA –
←
21.
(DIA –
←
When the inversed spot-facing tool
reaches the hole bottom, firstly the
Z-axis will stop moving until the
spindle makes D40 revolutions, and
then the rotational direction of the
spindle will reverse.
Initial point
R-point
Machining surface
D39
D38
)
)
MPL024
MPL023
2-71
2PARAMETER
Return to Library
Classification
AddressMeaningDescription
Height of the third R-point during point
machining
USER
Display title
Height of the third R-point
The height of the R-point during point machining is basically D41, however
it is changed to D42 under the following conditions.
POINT
D42
D42
Tool sequenceConditions
- Bit 6 of parameter D91 is set to 1 (D42 valid).
Program typeM
ConditionsImmediate
Unit0.1 mm/0.01 inch
Setting range–999 to 999
Drill
Chamfering
cutter
Spot
To set number of incomplete threads in tapping cycle for piped screws
(PT, PF, PS). In tapping, internal thread is tapped extra for the depth of
(D43 × pitch) in the direction of Z.
This is also used as an element for auto matically determining hole-drilling
depth (HOLE-DEP) in the automatic tool development of the tapping unit.
- There is a drill in the pre-machining tool
sequence of the same unit.
- Bit 7 of parameter D91 is set to 1 (D42 valid).
- CYCLE 2 is selected for the machining cycle.
- Bit 7 of parameter D91 is set to 1 (D42 valid).
- CYCLE 2 in the chamfering cycle is selected
for the machining cycle.
Initial point
Third R-poin t
MPL001
D43
Number of incomplete threads in tapping
cycle for piped screw
Feed override for the section to be chamfered in the planetary tapping
cycle
Chamfering feed =
Pre-hole machining feed in tapping tool sequence × D48/100
For end milling or boring
D48
21.
←
(DEPTH +
MPL025
)
D47
D49
D50
Program typeM
ConditionsImmediate
Unit%
Setting range0 to 999
Amount of return at hole bottom during the
planetary tapping cycle
Program typeM
ConditionsImmediate
Unit0.1 thread
Setting range
Auto-set feed rate for pre-hole machining
in the planetary tapping cycle
0 to 999
Chamfering section
The amount of return at hole bottom during the planetary tapping cycle
Specify data by the number of threads.
Amount of return = Tapping pitch ×
The feed rate for pre-hole machining will be auto-set to
planetary tapping cycle is selected.
SNo. TOOL NOM-
1 TAP M10.10.23.7PLANET 0.15FIX P1.5 501.5
No.HOLE-φ HOLE-DEP PRE-DIA PRE-DEP RGH DEPTH C-SP FR M M
φ
D49/10
mount of return
D50 when the
↑
D50
Program typeM
ConditionsImmediate
Unit
Setting range0 to 999
0.01 mm/rev
0.001 inch/rev
2-74
PARAMETER2
Return to Library
Classification
AddressMeaningDescription
Auto-set feed rate for planetary tapping
cycle
USER
Display title
The feed rate will be auto-set to
selected.
SNo. TOOL NOM-
1 TAP M10.10.23.7PLANET 0.15FIX P1.5 50 0.04
No.HOLE-φ HOLE-DEP PRE-DIA PRE-DEP RGH DEPTH C-SP FR M M
φ
POINT
D51 when the planetary tapping cycle is
D51
Program typeM
ConditionsImmediate
Unit
Setting range0 to 999
Reduction ratio for the G00-based relief
rate during a very-deep-hole drilling cycle
0.01 mm/rev
0.001 inch/rev
Set the reduction ratio for the G00-based relief rate during the very-deephole drilling in a drilling or turning-drilling unit.
D52
↑
D51
Cutting feed
Rapid feed (G00)
D53
Program typeM
ConditionsImmediate
Unit%
Setting range0 to 100
Number of times of pecking up to the return
of the tool to a position near the starting
point of the very-deep-hole drilling cycle of
a drilling or turning-drilling unit
Set the number of times of pecking to be executed before returning the
tool to a position near the starting point of the very-deep-hole drilling cycle
of a drilling or turning-drilling unit.
Example: If D53 = 3:
Cutting feed
Rapid feed
Starting
point
After pecking has been
repeated three times, the
tool returns to a position
near the starting point.
Ending point
Program typeM
ConditionsImmediate
UnitTimes
Setting range0 to 9999
2-75
2PARAMETER
θ
Return to Library
Classification
AddressMeaningDescription
Deceleration rate at cutting start for verydeep-hole drilling cycle/decremental verydeep-hole machining cycle
USER
Display title
F’= F ×
D54
100
End point
F : Specified feed rate
F' : Feed rate at cutting start
POINT
Programmed
start point
Drill
D54
l
Feed rate at F' over distance l from the
programmed start point
Number of revolutions during dwell at chip
ejection position and hole bottom for verydeep-hole drilling cycle/decremental verydeep-hole machining cycle
D55
D55
P
2
D
4D3
: Start point
1
P
: End point
2
D
(n = 1 to 4) = Cut depth
n
Set the number of revolutions of the milling spindle du ring dwell time at the
chip ejection position and the hole bottem for the very-deep-hole drilling
cycle or the decremental very-deep-hole machining cycle.
D55
G1
G0
P
1
D
2
D
1
NM211-00252P
Program typeM
ConditionsImmediate
UnitRevoluiton s
Setting range0 to 255
2-76
PARAMETER2
Return to Library
Classification
AddressMeaningDescription
Return speed for very-deep-hole drilling
cycle/decremental very-deep-hole
machining cycle
USER
Display title
Set the return speed for the very-deep-hole drilling cycle or the
decremental very-deep-hole machining cycle.
POINT
D57
Program typeM
ConditionsImmediate
Unit
Setting range0 to 9999
0.001 mm/rev
0.0001 inch/rev
Set the feed rate reduction distance from the reference point at cutting
start of a very-deep-hole drilling cycle (blind hole, through hole) during the
point machining. Specify the ratio with re spect to the drill diameter.
If the nominal diameter of the drill is D, the feed rate reduction distance L
at cutting start is calculated using the following calculation expression:
L = D ×
D58/100
The feed rate is reduced by the ratio specified in D54 (feed rate reduction
ratio at cutting start) by the distance L from the reference point (R).
D58
Feed rate reduction distance ratio at cutting
start of a very-deep-hole drilling cycle (blind
hole, through hole)
Program typeM
ConditionsAfter movement stop
Unit%
Setting range0 to 300
R
L = D × Feed rate reduction distance ratio
Clearance
2-77
2PARAMETER
Return to Library
Classification
AddressMeaningDescription
Circumferential speed reduction ratio at
cutting end of a very-deep-hole drilling
cycle (through hole)
D59
USER
Display title
Set the circumferential speed reduction ratio at cutting end of a verydeep-hole drilling cycle (through hole) during the point machining.
If the circumferential speed during drilling is S, the circumferential speed
S’ at cutting end is calculated using the following calculation expression:
S’ = S ×
The circumferential speed is reduced to S’ by “speed reduction distance
immediately before the hole bottom” (hb specified in the program).
D59/100
Distance to the
hole bottom
POINT
hb
D60
D61
to
D72
Program typeM
ConditionsAfter movement stop
Unit%
Setting range0 to 100
Automatic setting ratio of axial cutting feed
rate during chamfering
Program typeM
ConditionsAfter movement stop
Unit
Setting range0 to 100
%
—
Set the ratio between automatic setting value for the feed rate in the axial
cutting and that in the radial cutting during chamfering in the point
machining.
Invalid
Program type—
Conditions—
Unit—
Setting range—
2-78
PARAMETER2
Return to Library
Classification
AddressMeaningDescription
Learning of cutting conditions
DEP-Z range)
D73
(
to
D77
Program typeM
ConditionsImmediate
Unit0.1% (0.1 mm/0.01 inch)
Setting range0 to 1000
Learning of cutting conditions
(
D78
WID-R range)
to
D82
Program typeM
ConditionsImmediate
Unit0.1% (0.1 mm/0.01 inch)
Setting range0 to 1000
USER
Display title
Specify
DEP-Z range for the end mill and the face mill from the learning
data of cutting conditions.
When learning data on the condition that
has been stored in the memory, learning is not effectuated again.
For a
DEP-Z range of the end mill, set a value of “DEPTH/NOM-φ” (at a
unit of 0.1%).
0
to D73.................. DEP-Z range (for end mill) 1
D73 to D74............. DEP-Z range (for end mill) 2
D74 to D75............. DEP-Z range (for end mill) 3
DEP-Z range of the face mill, set a value of “DEPTH” (at a unit of
For a
0.1 mm or 0.01 inch).
0 to
D76.................. DEP-Z range (for face mill) 1
D76 to D77............. DEP-Z range (for face mill) 2
Specify
WID-R range for the boring bar, back boring bar and end mill from
the learning data of cutting conditions.
When learning data on the condition that
has been stored in the memory, learning is not effectuated again.
For a
WID-R range of the boring bar and back boring bar, set a value of
“
DEPTH” (at a unit of 0.1 mm/0.01 inch).
0
to D78...................WID-R range (for boring bar and back boring bar) 1
D78 to D79..............WID-R range (for boring bar and back boring bar) 2
For a
WID-R range of the end mill, set a value of “DEPTH/NOM-φ” (at a
unit of 0.1%).
0
to D80...................WID-R range (for end mill) 1
D80 to D81..............WID-R range (for end mill) 2
D81 to D82..............WID-R range (for end mill) 3
Invalid
POINT
DEP-Z is in the following range
WID-R is in the following range
D83
to
D90
—
Program type—
Conditions—
Unit—
Setting range—
2-79
2PARAMETER
Return to Library
Classification
AddressMeaningDescription
D91
Program typeM
ConditionsImmediate
UnitBit
Setting rangeBinary, eight digits
USER
—
Display title
7 6 5 4 3 2 1
0
(1: Execution, 0: No execution)
M04 is output after the tool has dwelled at the
hole bottom during a tapping cycle.
The tool dwells after M04 has been output at the
hole bottom during a tapping cycle.
The tool dwells after it has been returned to the
R-point during a tapping cycle.
If a drill is used in the pre-machining of the
centering drill cycle, the R-point height is set to
D1.
The finishing tool path is shortened during a truecircle processing cycle (end milling).
The tool path is shortened during a true-circle
processing cycle (chamfering).
If a pre-machining tool sequence is included in
the same unit, the R-point height of the drill is set
D1 or D42.
to
The R-point height of the chamfering cutter during
the cycle 2 is set to
The R-point height of the spot-machining tool
during the chamfering cycle (cycle 2) is set to
D42.
POINT
D42.
D92
D93
—
Program typeM
ConditionsImmediate
UnitBit
Setting rangeBinary, eight digits
—
Program typeM
ConditionsImmediate
UnitBit
Setting rangeBinary, eight digits
7 6 5 4 3 2 1 0
Unidirectional positioning for point-machining
7 6 5 4 3 2 1 0
(1: Execution, 0: No execution)
During a true-circle processing (end milling) cycle,
E17 is used for axial feed.
The R1-point height of the back spot facing is set
to
D1.
If a chamfering cutter is included in the premachining tool sequence of the same unit, the Rpoint height of the reamer is set to
If a chamfering cutter is included in the premachining tool sequence of the same unit, the Rpoint height of the tapping is set to
During planetary tapping, chips are ejected
automatically prior to the threading process.
(1: Execution, 0: No execution)
CTR-DR (Spot-machining tool)
DRILL (Drill)
REAMER (Reamer)
TAP (Tap)
BCK FACE (Inversed spot-facing tool)
BOR BAR (Boring tool)
B-B BAR (Back-boring tool)
CHAMFER (Chamfering cutter)
D1.
D1.
2-80
PARAMETER2
Return to Library
Classification
AddressMeaningDescription
D94
Program typeM
ConditionsImmediate
UnitBit
Setting rangeBinary, eight digits
USER
—
Display title
Unidirectional positioning for point-machining
7 6 5 4 3 2 1 0
Selection of the auto-setting method to be used for the MAZATROL
program data items of the tapping unit (
the diameter item of pipe taps on the
(1: Execution, 0: No execution)
END MILL (End mill)
Planetary tapping
Tornado cycle
POINT
TAPPING and CBOR-TAP) and
TOOL DATA display.
7 6 5 4 3 2 1 0
For pipe-tapping items
0: Conventional method
1: The text file concerned is referred to for the
auto-setting of pipe-tapping data items in a
MAZATROL program as well as on the
TOOL DATA display.
Auto-setting method for tapping
D95
For unified thread items
0: Conventional method
1: The text file concerned is referred to for the
auto-setting of the pre-hole diameter (
DIA
) within a tapping unit (for unified thread).
PRE-
D96
to
D144
Program typeM
ConditionsImmediate
UnitBit
Setting rangeBinary, eight digits
—
Program type—
Conditions—
Unit—
Setting range—
Invalid
For metric thread items
0: Conventional method
1: The text file concerned is referred to for the
auto-setting of the pre-hole diameter (
DIA
) within a tapping unit (for metric thread).
PRE-
2-81
2PARAMETER
p
p
p
p
Return to Library
2-3-3 User parameter LINE/FACE/3D (E)
Classification
AddressMeaningDescription
Closed-pattern cutting start point and
escape point setting element
USER
Display title
Element used to set cutting start point and escape point for closed-pattern
line- or face-machining
Example:
Defined closed pattern
E1
LINE/FACE/3D
SRV-R
E2
Cutting
start
oint
E2
Escape
E1
[Applicable units]
-
LINE OUT, LINE IN, CHMF OUT and CHMF IN
- Wall finishing of STEP, POCKET, PCKT MT and PCKT VLY
Program typeM
ConditionsImmediate
Unit0.1 mm/0.01 inch
Setting range0 to 999
Element used to set the cutting start point and escape point for line- or
face-machining (the first clearance)
Example:
NOM-
φ/2 ≥ SRV-R
oint
E2
Defined closed
pattern
E1
MPL026
E2
Cutting start point and escape point setting
element (the first clearance)
Program typeM
ConditionsImmediate
Unit0.1 mm/0.01 inch
Setting range0 to 999
Cutting
start
oint
NOM-φ/2 < SRV-R
Cutting
start
oint
[Applicable units]
- All line-machining units
- Face-machining units other than
Notes:
1.
See the diagram of parameter E1 also.
2. Positioning of E2 at the escape point can be selected using E95, but
only for line-machining units.
E2
E2
SRV-R
SRV-R
FCE MILL, TOP EMIL, and SLOT
Escape point
E2
Escape point
MPL027
2-82
PARAMETER2
Return to Library
Classification
USER
Display title
LINE/FACE/3D
AddressMeaningDescription
Invalid
—
E3
Program type—
Conditions—
Unit—
Setting range—
The reference value of each finishing allowance R (
automatically set when the roughness levels of the line- or face-machining
units have been set
Reference allowance of finishing in radial
direction
E4
Program typeM
ConditionsImmediate
Unit0.1 mm/0.01 inch
Setting range0 to 999
Element used to set the cutting start point
and escape point (the second clearance)
E5
The finishing allowance R in the case of roughness level 4 becomes the
value of this parameter, and the values for all other roughness levels are
calculated using the expressions listed in the table below.
Element used to set the cutting start point and escape point (the second
clearance)
E2 is used generally as a clearance on the X-Y plane, however, E5 is used
when the condition meets both of 1) and 2) mentioned below.
1) There is pre-machining in the same unit.
2) The parameter (
E91 to E95) that makes E5 effective is set to ON (1).
[Applicable units]
LINE OUT, LINE IN, STEP, POCKET, POCKT MT, PCKT VLY
FIN-R) which is
FIN-R
E6
Program typeM
ConditionsImmediate
Unit0.1 mm/0.01 inch
Setting range0 to 999
Reference allowance of finishing in axial
direction
Program typeM
ConditionsImmediate
Unit0.1 mm/0.01 inch
Setting range0 to 999
[Related parameters]
E91 bit 3, E92 bit 3, E93 bit 3, E94 bit 3, E95 bit 7
* Parameter that effectuates
The reference value of each finishing allowance Z (
E5 in the applicable unit.
FIN-Z) which is
automatically set when the roughness levels of the line- or face-machining
units have been set
The finishing allowance Z in the case of roughness level 4 becomes the
value of this parameter, and the values for all other roughness levels are
calculated using the expressions listed in the table below.
Allowance of cutting start point in axial
direction (the second clearance)
E7
Program typeM
ConditionsImmediate
Unit0.1 mm/0.01 inch
Setting range0 to 99
Radial interference clearance of chamfering
cutter
USER
Display title
Allowance of cutting start point in axial direction
For the line- or face-machining,
access to the machining point from the initial point, however,
when the condition meets both of 1) and 2) mentioned below.
1) There is pre-machining in the same unit.
2) The parameter (
[Applicable units]
All line-/face-machining units except the face milling and angular face unit.
[Related parameters]
E91 bit 2, E92 bit 2, E93 bit 2, E94 bit 2, E95 bit 6, E96 bit 1, E97 bit 2
* Parameter that effectuates
The amount of clearance that prevents interference of the chamfering
cutter with the walls during face-machining
E91 to E97) that makes E7 effective is set to ON (1).
LINE/FACE/3D
E9 is used as an axial clearance for rapid
E7 in the applicable unit.
E8
Interferes.
E7 is used
E8
E9
E10
Program typeM
ConditionsImmediate
Unit0.1 mm/0.01 inch
Setting range0 to 999
Allowance of axial-cutting start position
(the first clearance)
Program typeM
ConditionsImmediate
Unit0.1 mm/0.01 inch
Setting range0 to 999
Depth-of-cut-R automatic setting element
(Face milling, End milling-top, End millingstep)
Program typeM
ConditionsImmediate
Unit10%
Setting range0 to 9
Interference distanc e
Element used to set the position in which the cutting feed in axial direction
is to be started after the line- or face-machining tool has been moved from
the initial point toward the workpiece at a rapid feed rate
Example:
Initial point
E9
SRV-Z
Element used to automatically set the radial depth-of-cut (
tool sequence in
The amount of clearance that prevents interference of the chamfering
cutter with the bottom during chamfering
LINE/FACE/3D
E11
Program typeM
ConditionsImmediate
Unit0.1 mm/0.01 inch
Setting range5 to 40
Radial interference clearance o f face milling
unit and angular face milling unit
Interference depth
The amount of clearance that prevents interference between the tool and
the figure during face milling
Example:
Escape point
Interferes.
Defined figure
E12
E11
MPL030
E13
E14
Program typeM
ConditionsImmediate
Unit0.1 mm/0.01 inch
Setting range0 to 999
Tool path setting element for end milling-top
unit
Program typeM
ConditionsImmediate
Unit10%
Setting range1 to 9
Depth-of-cut-R automatic setting element
(Pocket milling, Pocket milling-mountain,
Pocket milling-valley)
Program typeM
ConditionsImmediate
Unit10%
Setting range0 to 9
Cutting
start point
Element used to set the tool path internal to the figure fo r end milling-top
unit
Example:
Tool diameter ×
Element used to automatically set the radial depth-of-cut (
tool sequence in
=
WID-R
Example:
SNo. TOOL NOM-φ No. APRCH-X APRCH-Y TYPE ZFD DEP-Z WID-R
R1 END MILL 20. ? ? CW G01 10.
E13
10
Defined figure
POCKET, PCKT MT or PCKT VLY unit
×
NOM-
E14
φ
10
E12E12
Tool diameter ×
WID-R) of the
NOM-
MPL031
E13
10
MPL032
12.
↑
×
E14
φ
10
2-85
2PARAMETER
Return to Library
Classification
AddressMeaningDescription
Tool path setting element for face millingtop unit
(reciprocating short)
USER
Display title
Element used to set the tool path external to the defined figure for
reciprocating-short machining with face milling unit
Example:
Tool diameter ×
E15
10
LINE/FACE/3D
E15
Program typeM
ConditionsImmediate
Unit10%
Setting range1 to 9
Peripheral-cutting feed rate override for end
milling-mountain unit
Override value of the idle-cutting feed rate at which tool of end millingmountain unit is to be moved around the outer form of the workpiece
Note:
Valid only when bit 0 of E91 is 1 and its bit 7 is 0.
Example:
Defined figure
Defined figure
E16
Tool diameter ×
E15
10
MPL033
E17
E18
Program typeM
ConditionsImmediate
Unit—
Setting range1 to 20
Axial-cutting feed rate override
Program typeM
ConditionsImmediate
Unit10%
Setting range0 to 9
Override in case of the overall width cutting
for pocket-machining
FR ×
E16
Override value of the feed rate at which the tool of a line- or facemachining unit (excluding face milling unit) is to b e moved to the
machining surface in an axial direction
Notes:
1. Valid only when ZFD of tool sequence is G01.
2. Feed overriding is invalid when this parameter is 0.
Example:
E17
FR ×
10
Override value of feed rate when the pocket-machining radial depth-of-cut
becomes equal to the tool diameter
Example:
E9
SRV-Z
Machining
surface
FR ×
FR
MPL034
MPL035
E18
10
Program typeM
ConditionsImmediate
Unit10%
Setting range0 to 9
MPL036
Note:
Overriding for overall width cutting is not valid when this parameter is 0.
[Applicable units]
Rough-machining of
POCKET, PCKT MT, PCKT VLY and STEP
2-86
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