IAI America IX-NSN6016H User Manual

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Horizontal Articulated Robot – IX Series
Tabletop Specification, for Arm Length 500/600/700/800 IX-NNN-50
Dust-proof/Splash-proof Specification IX-NNW-50 H/60 H/70 H/80 H
Clean room Specification IX-NNC-50
High-speed Specification, for Arm Length 500/600 IX-NSN5016H/IX-NSN6016H
H/60 H/70 H/80 H
H/60 H/70 H/80 H
Operation Manual Sixth Edition
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Please Read Before Use

Thank you for purchasing our product.
This Operation Manual explains the handling methods, structure and maintenance of this product, among others, providing the information you need to know to use the product safely.
Before using the product, be sure to read this manual and fully understand the contents explained herein to ensure safe use of the product. The CD or DVD that comes with the product contains operation manuals for IAI products. When using the product, refer to the necessary portions of the applicable operation manual by printing them out or displaying them on a PC.
After reading the Operation Manual, keep it in a convenient place so that whoever is handling this product can reference it quickly when necessary.
[Important]
This Operation Manual is original.
The product cannot be operated in any way unless expressly specified in this Operation Manual. IAI shall
assume no responsibility for the outcome of any operation not specified herein.
Information contained in this Operation Manual is subject to change without notice for the purpose of product improvement.
If you have any question or comment regarding the content of this manual, please contact the IAI sales office near you.
Using or copying all or part of this Operation Manual without permission is prohibited.
The company names, names of products and trademarks of each company shown in the sentences are
registered trademarks.
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CE Marking

If a compliance with the CE Marking is required, please follow Overseas Standards Compliance Manual (ME0287) that is provided separately.
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Table of Contents

Safety Guide ..........................................................................................................................1
Handling Precaution ..............................................................................................................8
1. Name of Each Part......................................................................................................... 11
1.1 Robot...............................................................................................................................11
1.2 Labels..............................................................................................................................15
1.3 Label Positions ................................................................................................................16
2. External Dimensions...................................................................................................... 17
3. Robot Operation Area.................................................................................................... 31
4. Wiring Diagram .............................................................................................................. 33
4.1 Layout Drawing ..............................................................................................................33
4.2 Machine Harness Wiring Table .......................................................................................38
4.3 Cable Wiring Table..........................................................................................................40
4.4 230 V Circuit Components ..............................................................................................42
5. Option ............................................................................................................................ 44
5.1 Absolute Reset Jig ..........................................................................................................44
5.2 Flange .............................................................................................................................44
5.3 Absolute Data Backup Battery ........................................................................................45
6. Checking after Unpacking.............................................................................................. 46
6.1 Items Included in the Carton ...........................................................................................46
6.2 Operation Manuals Relating to This Product................................................................... 47
6.3 How to Read Model Nameplate....................................................................................... 47
6.4 How to Read Model Number ........................................................................................... 48
7 Specifications.................................................................................................................49
7.1 IX-NNN50H/60H/70H/80H ..................................................................49
7.2 IX-NSN5016H/6016H ......................................................................................................57
7.3 IX-NNW50H/60H/70H/80H ....................................................................61
7.4 IX-NNC50H/60H/70H/80H ..................................................................... 69
8. Installation Environment and Storage Environment ....................................................... 77
8.1 Installation Environment ..................................................................................................77
8.1.1 IX-NNN50H/60H/70H/80H, IX-NNC50H/ 60H/70H/80H,
IX-NSN5016H/6016H..................................................................................................... 77
8.1.2 IX-NNW50H/60H/70H/80H,
.................................................................. 77
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8.2 Installation Platform.........................................................................................................79
8.3 Storage/Preservation Environment.................................................................................. 79
9. How to Install ................................................................................................................. 80
9.1 Installation Posture.......................................................................................................... 80
9.2 Installing the Robot..........................................................................................................81
9.3 Checking after Installation ...............................................................................................83
10. Connecting the Controller ..............................................................................................84
11. Precautions for Use .......................................................................................................87
11.1 Setting the Acceleration/Deceleration ............................................................................. 87
11.2 Push Force of the Vertical Axis .......................................................................................93
11.3 Tools................................................................................................................................95
11.4 Carrying Load..................................................................................................................96
11.5 User Wiring and Piping....................................................................................................98
11.5.1 IX-NNN50H/60H/70H/80H, IX-NSN5016H/6016H
IX-NNC50H/60H/70H/80H.................................................................... 98
11.5.2 IX-NNW50H/60H/70H/80H ................................................................. 101
11.6 Air Purge .......................................................................................................................104
11.6.1 IX-NNW50H/60H............................................................................................. 104
11.6.2 IX-NNW70H/80H............................................................................................. 106
11.7 Suction Rate of Clean Room Specification IX-NNC50H/60H/70H/
80H .........................................................................................................................107
12. Inspection/Maintenance ............................................................................................... 108
12.1 Inspection/Maintenance ................................................................................................108
12.1.1 Daily Inspection ........................................................................................................... 109
12.1.2 Six-Month Inspectio
12.1.3 Yearly Inspection ......................................................................................................... 110
12.2 Battery Replacement..................................................................................................... 110
12.2.1 Preparation .................................................................................................................. 110
12.2.2 Replacement Procedure IX-NNN50H/60H/70H/80H
12.2.3 Replacement Procedure IX-NNW50H/60H/70H/80H
12.3 Absolute Encoder Reset Method...................................................................................115
12.3.1 Preparation for Absolute Reset.................................................................................... 115
12.3.2 Starting the Absolute Reset Menu ............................................................................... 116
12.3.3 Absolute Reset Procedure for Arm 1 or 2 .................................................................... 117
12.3.4 Absolute Reset Procedure for the Rotational Axis + Vertical Axis ............................... 122
n ................................................................................................... 109
05CNN-XI H/60H/70H/80H
6105NSN-XI H/ 6016H ........................................................... 111
.......................... 113
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13. Warranty
..........................................................................................................
129
13.1 Warranty Period .......................................................................................................................
13.2 Scope of Warranty....................................................................................................................
13.3 Honoring the Warranty..............................................................................................................
13.4 Limited Liabil ............................................................................................................................
13.5 Conditions of Conformance with Applicable Standards/Regulations, Etc., and Applications...
13.6 Other Items Excluded from Warranty...........................................................................................
129 129
129 129
130 130
Change History ..................................................................................................................131
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Safety Guide

“Safety Guide” has been written to use the machine safely and so prevent personal injury or property damage beforehand. Make sure to read it before the operation of this product.
Safety Precautions for Our Products
The common safety precautions for the use of any of our robots in each operation.
No.
1 Model
Operation
Description
Selection
Description
 This product has not been planned and designed for the application where
high level of safety is required, so the guarantee of the protection of human life is impossible. Accordingly, do not use it in any of the following applications.
1) Medical equipment used to maintain, control or otherwise affect human life or physical health.
2) Mechanisms and machinery designed for the purpose of moving or transporting people (For vehicle, railway facility or air navigation facility)
3) Important safety parts of machinery (Safety device, etc.)
 Do not use the product outside the specifications. Failure to do so may
considerably shorten the life of the product.
 Do not use it in any of the following environments.
1) Location where there is any inflammable gas, inflammable object or explosive
2) Place with potential exposure to radiation
3) Location with the ambient temperature or relative humidity exceeding the specification range
4) Location where radiant heat is added from direct sunlight or other large heat source
5) Location where condensation occurs due to abrupt temperature changes
6) Location where there is any corrosive gas (sulfuric acid or hydrochloric acid)
7) Location exposed to significant amount of dust, salt or iron powder
8) Location subject to direct vibration or impact
 For an actuator used in vertical orientation, select a model which is
equipped with a brake. If selecting a model with no brake, the moving part may drop when the power is turned OFF and may cause an accident such as an injury or damage on the work piece.
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No.
Operation
Description
Description
2 Transportation  When carrying a heavy object, do the work with two or more persons or
utilize equipment such as crane.
 When the work is carried out with 2 or more persons, make it clear who is
to be the leader and who to be the follower(s) and communicate well with each other to ensure the safety of the workers.
 When in transportation, consider well about the positions to hold, weight
and weight balance and pay special attention to the carried object so it would not get hit or dropped.
 Transport it using an appropriate transportation measure.
The actuators available for transportation with a crane have eyebolts attached or there are tapped holes to attach bolts. Follow the instructions
in the operation manual for each model.  Do not step or sit on the package.  Do not put any heavy thing that can deform the package, on it.  When using a crane capable of 1t or more of weight, have an operator
who has qualifications for crane operation and sling work.  When using a crane or equivalent equipments, make sure not to hang a
load that weighs more than the equipment’s capability limit.  Use a hook that is suitable for the load. Consider the safety factor of the
hook in such factors as shear strength.  Do not get on the load that is hung on a crane.  Do not leave a load hung up with a crane.  Do not stand under the load that is hung up with a crane.
3 Storage and
Preservation
 The storage and preservation environment conforms to the installation
environment. However, especially give consideration to the prevention of
condensation.  Store the products with a consideration not to fall them over or drop due to
an act of God such as earthquake.
4 Installation
and Start
(1) Installation of Robot Main Body and Controller, etc.  Make sure to securely hold and fix the product (including the work part). A
fall, drop or abnormal motion of the product may cause a damage or injury.
Also, be equipped for a fall-over or drop due to an act of God such as
earthquake.  Do not get on or put anything on the product. Failure to do so may cause
an accidental fall, injury or damage to the product due to a drop of
anything, malfunction of the product, performance degradation, or
shortening of its life.  When using the product in any of the places specified below, provide a
sufficient shield.
1) Location where electric noise is generated
2) Location where high electrical or magnetic field is present
3) Location with the mains or power lines passing nearby
4) Location where the product may come in contact with water, oil or chemical droplets
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No.
Operation
Description
4 Installation
and Start
Description
(2) Cable Wiring  Use our company’s genuine cables for connecting between the actuator
and controller, and for the teaching tool.
 Do not scratch on the cable. Do not bend it forcibly. Do not pull it. Do not
coil it around. Do not insert it. Do not put any heavy thing on it. Failure to do so may cause a fire, electric shock or malfunction due to leakage or continuity error.
 Perform the wiring for the product, after turning OFF the power to the unit,
so that there is no wiring error.
 When the direct current power (+24V) is connected, take the great care of
the directions of positive and negative poles. If the connection direction is not correct, it might cause a fire, product breakdown or malfunction.
 Connect the cable connector securely so that there is no disconnection or
looseness. Failure to do so may cause a fire, electric shock or malfunction of the product.
 Never cut and/or reconnect the cables supplied with the product for the
purpose of extending or shortening the cable length. Failure to do so may
cause the product to malfunction or cause fire. (3) Grounding  The grounding operation should be performed to prevent an electric shock
or electrostatic charge, enhance the noise-resistance ability and control
the unnecessary electromagnetic radiation.  For the ground terminal on the AC power cable of the controller and the
grounding plate in the control panel, make sure to use a twisted pair cable
with wire thickness 0.5mm
2
(AWG20 or equivalent) or more for grounding work. For security grounding, it is necessary to select an appropriate wire thickness suitable for the load. Perform wiring that satisfies the specifications (electrical equipment technical standards).
 Perform Class D Grounding (former Class 3 Grounding with ground
resistance 100 or below).
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No.
4 Installation
Operation
Description
and Start
Description
(4) Safety Measures  When the work is carried out with 2 or more persons, make it clear who is
to be the leader and who to be the follower(s) and communicate well with each other to ensure the safety of the workers.
 When the product is under operation or in the ready mode, take the safety
measures (such as the installation of safety and protection fence) so that nobody can enter the area within the robot’s movable range. When the robot under operation is touched, it may result in death or serious injury.
 Make sure to install the emergency stop circuit so that the unit can be
stopped immediately in an emergency during the unit operation.
 Take the safety measure not to start up the unit only with the power turning
ON. Failure to do so may start up the machine suddenly and cause an injury or damage to the product.
 Take the safety measure not to start up the machine only with the
emergency stop cancellation or recovery after the power failure. Failure to do so may result in an electric shock or injury due to unexpected power input.
 When the installation or adjustment operation is to be performed, give
clear warnings such as “Under Operation; Do not turn ON the power!” etc. Sudden power input may cause an electric shock or injury.
 Take the measure so that the work part is not dropped in power failure or
emergency stop.
 Wear protection gloves, goggle or safety shoes, as necessary, to secure
safety.
 Do not insert a finger or object in the openings in the product. Failure to do
so may cause an injury, electric shock, damage to the product or fire.
 When releasing the brake on a vertically oriented actuator, exercise
precaution not to pinch your hand or damage the work parts with the actuator dropped by gravity.
5 Teaching  When the work is carried out with 2 or more persons, make it clear who is
to be the leader and who to be the follower(s) and communicate well with each other to ensure the safety of the workers.
 Perform the teaching operation from outside the safety protection fence, if
possible. In the case that the operation is to be performed unavoidably inside the safety protection fence, prepare the “Stipulations for the Operation” and make sure that all the workers acknowledge and understand them well.
 When the operation is to be performed inside the safety protection fence,
the worker should have an emergency stop switch at hand with him so that the unit can be stopped any time in an emergency.
 When the operation is to be performed inside the safety protection fence,
in addition to the workers, arrange a watchman so that the machine can be stopped any time in an emergency. Also, keep watch on the operation so that any third person can not operate the switches carelessly.
 Place a sign “Under Operation” at the position easy to see.  When releasing the brake on a vertically oriented actuator, exercise
precaution not to pinch your hand or damage the work parts with the actuator dropped by gravity.
* Safety protection Fence : In the case that there is no safety protection
fence, the movable range should be indicated.
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No.
Operation
Description
Description
6 Trial Operation  When the work is carried out with 2 or more persons, make it clear who is
to be the leader and who to be the follower(s) and communicate well with each other to ensure the safety of the workers.
 After the teaching or programming operation, perform the check operation
one step by one step and then shift to the automatic operation.
 When the check operation is to be performed inside the safety protection
fence, perform the check operation using the previously specified work procedure like the teaching operation.
 Make sure to perform the programmed operation check at the safety
speed. Failure to do so may result in an accident due to unexpected motion caused by a program error, etc.
 Do not touch the terminal block or any of the various setting switches in
the power ON mode. Failure to do so may result in an electric shock or malfunction.
7 Automatic
Operation
 Check before starting the automatic operation or rebooting after operation
stop that there is nobody in the safety protection fence.
 Before starting automatic operation, make sure that all peripheral
equipment is in an automatic-operation-ready state and there is no alarm indication.
 Make sure to operate automatic operation start from outside of the safety
protection fence.
 In the case that there is any abnormal heating, smoke, offensive smell, or
abnormal noise in the product, immediately stop the machine and turn OFF the power switch. Failure to do so may result in a fire or damage to the product.
 When a power failure occurs, turn OFF the power switch. Failure to do so
may cause an injury or damage to the product, due to a sudden motion of the product in the recovery operation from the power failure.
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No.
8 Maintenance
Operation
Description
and Inspection
Description
 When the work is carried out with 2 or more persons, make it clear who is
to be the leader and who to be the follower(s) and communicate well with each other to ensure the safety of the workers.
 Perform the work out of the safety protection fence, if possible. In the case
that the operation is to be performed unavoidably inside the safety protection fence, prepare the “Stipulations for the Operation” and make sure that all the workers acknowledge and understand them well.
 When the work is to be performed inside the safety protection fence,
basically turn OFF the power switch.
 When the operation is to be performed inside the safety protection fence,
the worker should have an emergency stop switch at hand with him so that the unit can be stopped any time in an emergency.
 When the operation is to be performed inside the safety protection fence,
in addition to the workers, arrange a watchman so that the machine can be stopped any time in an emergency. Also, keep watch on the operation so that any third person can not operate the switches carelessly.
 Place a sign “Under Operation” at the position easy to see.  For the grease for the guide or ball screw, use appropriate grease
according to the Operation Manual for each model.
 Do not perform the dielectric strength test. Failure to do so may result in a
damage to the product.
 When releasing the brake on a vertically oriented actuator, exercise
precaution not to pinch your hand or damage the work parts with the actuator dropped by gravity.
 The slider or rod may get misaligned OFF the stop position if the servo is
turned OFF. Be careful not to get injured or damaged due to an unnecessary operation.
 Pay attention not to lose the cover or untightened screws, and make sure
to put the product back to the original condition after maintenance and inspection works. Use in incomplete condition may cause damage to the product or an injury.
* Safety protection Fence : In the case that there is no safety protection
fence, the movable range should be indicated.
9 Modification
and Dismantle
 Do not modify, disassemble, assemble or use of maintenance parts not
specified based at your own discretion.
10 Disposal  When the product becomes no longer usable or necessary, dispose of it
properly as an industrial waste.
 When removing the actuator for disposal, pay attention to drop of
components when detaching screws.
 Do not put the product in a fire when disposing of it.
The product may burst or generate toxic gases.
11 Other  Do not come close to the product or the harnesses if you are a person
who requires a support of medical devices such as a pacemaker. Doing so may affect the performance of your medical device.
 See Overseas Specifications Compliance Manual to check whether
complies if necessary.
 For the handling of actuators and controllers, follow the dedicated
operation manual of each unit to ensure the safety.
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Alert Indication
The safety precautions are divided into “Danger”, “Warning”, “Caution” and “Notice” according to the warning level, as follows, and described in the operation Manual for each model.
Level Degree of Danger and Damage Symbol
Danger
Warning
Caution
Notice
This indicates an imminently hazardous situation which, if the product is not handled correctly, will result in death or serious injury.
This indicates a potentially hazardous situation which, if the product is not handled correctly, could result in death or serious injury.
This indicates a potentially hazardous situation which, if the product is not handled correctly, may result in minor injury or property damage.
This indicates lower possibility for the injury, but should be kept to use this product properly.
Danger
Warning
Caution
Notice
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Handling Precaution

1. Positioning Repeatability Does Not Change Even If the Positioning Band is Changed.
Positioning repeatability does not change even if the positioning band is changed. If the positioning band is narrower than the default value, the positioning repeatability does not change, but the time it takes for the positioning complete signal to be output takes longer. The execution of next operation instruction (e.g., MOVP, MOVL) is delayed and, as a result, the tact time of the entire cycle may be delayed.
Make sure to attach the Horizontal Articulated Robot properly by following
2. this operation manual.
Using the product with the Horizontal Articulated Robot not being certainly retained or affixed may cause abnormal noise, vibration, malfunction or shorten the product life.
3. Handling of the Carton
Each robot is packed with a controller prior to shipment. When transporting the carton containing the robot and controller, observe the following items and be careful not to drop the carton or apply impact due to forcible contact:
If the carton is heavy, one operator should not attempt to carry it alone.
Place the carton on a level surface if it is to be left there for a while.
Do not climb upon the carton.
Do not place on the carton any heavy object that may cause the carton to deform, or an article whose shape
allows a load to be concentrated at one point.
[Carton]
8
Robot
Controller, accessories and other items (except for the robot)
Arm fixing plate
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CautionWarning
The robot and controller are very heavy. When transporting the carton containing the robot and controller, handle it with extra care so as not to drop the carton or apply impact due to forcible contact, as it may cause injury or damage to the robot or controller.
Serious injury may result if the carton is dropped onto a person during transportation.
Never stand below the carton as it is hoisted.
Use a carrier device with sufficient loading capacity.
If a machine or method is used that requires specified skills, it must be operated/performed by a person
having the proper qualifications.
4. Handling of Individual Components
The robot and controller are supplied as a set. Your robot cannot be used with the controller supplied with another robot. When handling multiple robots, check that the serial number printed on each of the robot main bodies and the serial number of the corresponding controller are the same and take caution not to switch the controllers.
The robot will not stand on its own after being unloaded from the carton pallet. Hold it by hand, or place a cushioning material on the floor and place the robot on its side upon the cushion.
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5. Transportation
When transporting the robot, affix the arms using the supplied arm fixing plate. Additionally, wrap the cables around the base and secure them with gummed tape or other means.
Use a dolly, forklift, crane or other appropriate equipment for transportation. When transporting the robot, move it slowly by maintaining balance and safeguarding against vibration or impact.
When a crane is used, install the supplied eyebolts on the robot for the pass-through of ropes. Install the eyebolts following removal of the top cover.
Hoisting hook with lock
Cross-recessed countersunk head screw, M3 x 8
Fix with a tie wrap.
Hex bolt
M4 x 8: Arm Length 500/600 M5 x 10: Arm Length 700/800
Eyebolt
(supplied)
String, rope, etc.
45
45° or more
Cables (Wrap around the base.)
WarningDanger
If the arms and cables remain free, the arms may turn unexpectedly and pinch a hand, or a person may be tripped by the trailing cables.
Do not attempt to carry the robot by hand, as it may injure the back. Additionally, an injury may result if the robot is dropped onto the feet.
Serious injury may result if a person is caught under a fallen robot during transportation.
Never stand below the robot as it is hoisted.
Use a hoist and ropes that can comfortably support the weight of the robot.
If a machine or method is used that requires specified skills, it must be operated/performed by a person
having the proper qualifications.
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1. Name of Each Part
(
)

1.1 Robot

IX-NNN50H/60H/70H/80H

1. Name of Each Part

Spacer for user part installation
Brake- release switch
Mechanical stopper for axis 3 (vertical axis)
Ball screw spline shaft
(vertical axis)
Cover (arm 2)
User Connector
ALM (indicator)
BK SW
Axis 3
User piping 4, black
User piping 6, yellow
User piping 4, white
Axis 4 (rotational axis)
Panel
Axis 2
User piping
6 red
Top cover (arm 1)
Wiring duct
Mechanical
stopper for arm 2
Axis 1
Mechanical stopper for arm 1, arm 2
Mechanical stopper for axis 3 (vertical axis)
End cover (arm 1)
Arm 2
Arm 1
Cover (base)
Base
Reference
surface
M cable (outside robot) PG cable (outside robot) U cable (outside robot) Airtube (4: 2pcs. 6: 2pcs.) BK power cable
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IX-NSN5016H/6016H
(
)
Spacer for user
1. Name of Each Part
part installation
Brake- release switch
Mechanical stopper for axis 3 (vertical axis)
Ball screw spline shaft
Cover (arm 2)
BK SW
Axis 3
(vertical axis)
User Connector
ALM (indicator)
Axis 4 (rotational axis)
User piping 4, black
User piping 6 red
User piping 6, yellow
User piping 4, white
Panel
Axis 2
Top cover (arm 1)
Wiring duct
Mechanical
stopper for arm 2
Axis 1
Mechanical stopper for arm 1, arm 2
Mechanical stopper for axis 3 (vertical axis)
Arm 2
End cover (arm 1)
Arm 1
Cover (base)
Base
Reference
surface
M cable (outside robot) PG cable (outside robot) BK power cable U cable (outside robot) Airtube (4: 2pcs. 6: 2pcs.)
12
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IX-NNW50H/60H/70H/80H
(
)
(
)
User Connector
ALM (indicator)
Spacer for user part installation
BK SW
Brake- release switch
Axis 4 (rotational axis)
Axis 3
(vertical axis)
Cover
arm 2
User piping 4, black
User piping 6 red
User piping 6, yellow
User piping 4, white
Dust cover
Axis 2
Mechanical stopper for arm 1
Axis 1
1. Name of Each Part
Suction joint
Exhaust/intake port
Top cover (arm 1)
Wiring duct
Mechanical stopper for arm 1, arm 2
Bellows
Ball screw spline shaft
Arm 2
End cover (arm 1)
Arm 1
Base
Reference
surface
Cover (base)
Exhaust/intake port
M cable (outside robot) PG cable (outside robot) U cable (outside robot) BK power cable Airtube (4: 2pcs. 6: 2pcs.)
Air supply port for air purge External diameter 6 (internal diameter 4)
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IX-NNC50H/60H/70H/80H
(
)
(
)
Spacer for user part installation
1. Name of Each Part
Brake- release switch
Bellows
Axis 3
(vertical axis)
Cover
arm 2
User Connector
ALM (indicator)
BK SW
Axis 4 (rotational axis)
Panel
User piping 4, black
User piping 6 red
User piping 6, yellow
User piping 4, white
Axis 2
Mechanical stopper for arm 2
Axis 1
Suction joint
Top cover (arm 1)
Wiring duct
Mechanical stopper for arm 1, arm 2
Bellows
Ball screw spline shaft
End cover (arm 1)
14
Arm 2
Arm 1
Cover (base)
Base
Reference
surface
M cable (outside robot) PG cable (outside robot) U cable (outside robot) BK power cable (outside robot) Airtube (4: 2pcs. 6: 2pcs.)
Page 23

1.2 Labels

The following labels are attached on the robot and controller. Be sure to observe the instructions and cautions written on the labels to ensure the correct use of the robot/controller.
(1) Labels on the Robot
Prohibition of entry into
the operation area
Robot model nameplate
Warning on handling of
the vertical axis
CE-certified robot
(Provided only for CE-certified models)
Warning against
electric shock
1. Name of Each Part
(2) Labels on the Controller
Caution/warning on
handling of the controller
CE-certified controller model number
(Other than CE-certified models)
WarningDanger
Failure to observe the cautionary information provided on the labels may result in serious injury or damage
to the robot.
Designation of the connected robot
CE-certified controller model number
(CE-certified models)
Caution
15
Page 24

1.3 Label Positions

Label Positions on the Robot
1. Name of Each Part
Robot model nameplate
Prohibition of entry into the operation area
View A
CE-certified robot (Provided only for CE-certified models)
Warning on handling of the vertical axis
Warning against electric shock
Label Positions on the Controller
CE-certified controller model number
Other than CE-certified models
CE-certified models
Caution/warning on handling of the controller
Designation of the connected robot
16
Page 25
2. External Dimensions
IX-NNN50H
(Mechanical end)
Arm 2 stopper
Arm 1, arm2 stopper
4-11 24, counterbore depth 5

2. External Dimensions

Reference surface
Quick joint for 6 air tube
Quick joint for 4 air tube
User connector (D-sub connector for user wiring) (25-pin, socket, fastener size M2.6)
ALM (Note 3)
BK SW (Brake-release switch)
Spacer outer diameter 7 Height 10, M4, depth 5 (Note 2)
146
112
Red
Yellow
White
Black
Detail view of panel (1/2)
2-M4, depth 8 Same on opposite side (Note 1)
(Mechanical end)
Reference surface
44
Section A-A
Note 1: The holes denoted by "2-M4, depth 8" are through
holes connecting both sides of the arm. Take note that long mounting screws may contact the internal mechanism parts.
14 hollow
Detail view of arm end
Note 2: External force applied to the spacers must not exceed
30 N in the axial direction or 2 Nm in the rotating direction (for each spacer).
Note 3: The LED operates only when the user provides a
circuit that receives controller I/O output signal and supplies 24 VDC to the LED terminal in the user connector.
17
Page 26
IX-NNN60H
2. External Dimensions
146
Arm 2 stopper
4-11 24, counterbore depth 5
(Mechanical end)
Arm 1, arm2 stopper
2-M4, depth 8 Same on opposite side (Note 1)
Reference surface
Detail view of arm end (1/2)
112
44
14 hollow
(Mechanical end)
Quick joint for 6 air tube
Quick joint for 4 air tube
User connector (D-sub connector for user wiring) (25-pin, socket, fastener size M2.6)
ALM (Note 3)
BK SW (Brake-release switch)
Spacer outer diameter 7 Height 10, M4, depth 5 (Note 2)
Red
Yellow
Black
White
Detail view of panel (1/2)
Reference surface
Note 1: The holes denoted by "2-M4, depth 8" are through
holes connecting both sides of the arm. Take note that long mounting screws may contact the internal mechanism parts.
Note 2: External force applied to the spacers must not exceed
30 N in the axial direction or 2 Nm in the rotating direction (for each spacer).
Note 3: The LED operates only when the user provides a
circuit that receives controller I/O output signal and supplies 24 VDC to the LED terminal in the user connector.
18
Page 27
IX-NNN70H
2. External Dimensions
Arm 2 stopper
4-14 bore 30 counterbored, depth 5
(Mechanical end)
Arm 1, arm 2 stopper
(188)
(144)
Reference surface
18 hollow
Detail view of arm end (1/2)
Section A-A
(Mechanical end)
Quick joint for 6 air tube
Quick joint for 4 air tube
User connector (D-sub connector for user wiring) (25-pin, socket, fastener size M2.6)
ALM (Note 3)
BK SW (Brake-release switch)
Spacer outer diameter 7 Height 10, M4, depth 5 (Note 2)
3-M4, depth 8 Same on opposite side (Note 1)
Red
Yellow
Black
White
Detail view of panel (1/2)
Reference surface
Note 1: The prepared holes denoted by “3-M4, depth
8” are through holes connecting both sides of the arm.
Note 2: External force applied to the spacers must not
exceed 30 N in the axial direction or 2 Nm in the rotating direction (for each spacer).
Note 3: The LED operates only when the user
provides a circuit that receives controller I/O output signal and supplies 24 VDC to the LED terminal in the user connector.
19
Page 28
IX-NNN80H
2. External Dimensions
(188)
Arm 2 stopper
4-14 bore 30 counterbored, depth 5
(Mechanical end) (Mechanical end)
Arm 1, arm 2 stopper
2-M4, depth 8 Same on opposite side (Note 1)
(144)
Reference surface
18 hollow
Detail view of arm end (1/2)
Section A-A
Quick joint for 6 air tube
Quick joint for 4 air tube
User connector (D-sub connector for user wiring) (25-pin, socket, fastener size M2.6)
ALM (Note 3)
BK SW (Brake-release switch)
Spacer outer diameter 7 Height 10, M4, depth 5 (Note 2)
Red
Yellow
Black
White
Detail view of panel (1/2)
Reference surface
Note 1: The prepared holes denoted by “3-M4, depth
8” are through holes connecting both sides of the arm.
Note 2: External force applied to the spacers must not
exceed 30 N in the axial direction or 2 Nm in the rotating direction (for each spacer).
Note 3: The LED operates only when the user
provides a circuit that receives controller I/O output signal and supplies 24 VDC to the LED terminal in the user connector.
20
Page 29
IX-NSN5016H
146
Arm 2 stopper
4-11 24, counterbore depth 5
(Mechanical end)
Arm 1, arm2 stopper
3-M4, depth 8 Same on opposite side (Note 1)
2. External Dimensions
Reference surface
Quick joint for 6 air tube
Quick joint for 4 air tube
User connector (D-sub connector for user wiring) (25-pin, socket, fastener size M2.6)
ALM (Note 3)
BK SW (Brake-release switch)
Spacer outer diameter 7 Height 10, M4, depth 5 (Note 2)
112
Red
Yellow
Black
White
Detail view of panel (1/2)
(Mechanical end)
35
11 (hollow)
Detail view of arm end (1/2)
Reference surface
Section A-A
Note 1: The holes denoted by "3-M4, depth 8" are through
holes connecting both sides of the arm. Take note that long mounting screws may contact the internal mechanism parts.
Note 2: External force applied to the spacers must not
exceed 30 N in the axial direction or 2 Nm in the rotating direction (for each spacer).
Note 3: The LED operates only when the user provides a
circuit that receives controller I/O output signal and supplies 24 VDC to the LED terminal in the user
21
Page 30
IX-NSN6016H
2. External Dimensions
Arm 2 stopper
4-11 24, counterbore depth 5
(Mechanical end)
Arm 1, arm2 stopper
Reference surface
146
112
35
11 (hollow)
Detail view of arm end (1/2)
(Mechanical end)
Quick joint for 6 air tube
Quick joint for 4 air tube
User connector (D-sub connector for user wiring) (25-pin, socket, fastener size M2.6)
ALM (Note 3)
BK SW (Brake-release switch)
Spacer outer diameter 7 Height 10, M4, depth 5 (Note 2)
3-M4, depth 8 Same on opposite side (Note 1)
Red
Yellow
Black
White
Detail view of panel (1/2)
Reference surface
Note 1: The holes denoted by "3-M4, depth 8" are through
holes connecting both sides of the arm. Take note that long mounting screws may contact the internal mechanism parts.
Note 2: External force applied to the spacers must not exceed
30 N in the axial direction or 2 Nm in the rotating direction (for each spacer).
Note 3: The LED operates only when the user provides a
circuit that receives controller I/O output signal and supplies 24 VDC to the LED terminal in the user connector.
22
Page 31
IX-NNW50H
4-11 24, counterbore depth 5
Air supply port for air purge: Outer diameter 6 (inner diameter 4)
2. External Dimensions
(Mechanical end)
Note 1: External force applied to the
spacers must not exceed 30 N in the axial direction or 2 Nm in the rotating direction (for each spacer).
Note 2: The LED operates only when the
user provides a circuit that receives controller I/O output signal and supplies 24 VDC to the LED terminal in the user connector.
Note 3: Insert a tube of 12 in outer
diameter into the intake/exhaust port and extend the tube to a place not exposed to water.
Reference surface
Quick joint for 6 air tube
Quick joint for 4 air tube
ALM (Note 2)
Spacer outer diameter 7 Height 10, M4, depth 5 (Note 1)
BK SW (Brake-release switch)
Red
Black
Yellow
White
Detail view of panel
Intake/exhaust port (Note 3)
User connector (user wiring connector, 23 pins)
Section A-A
14 hollow
Detail view of arm end
23
Page 32
IX-NNW60H
2. External Dimensions
4-11 24, counterbore depth 5
(Mechanical end)
Note 1: External force applied to the spacers
must not exceed 30 N in the axial direction or 2 Nm in the rotating direction (for each spacer).
Note 2: The LED operates only when the user
provides a circuit that receives controller I/O output signal and supplies 24 VDC to the LED terminal in the user connector.
Note 3: Insert a tube of 12 in outer diameter
into the intake/exhaust port and extend the tube to a place not exposed to water.
BK SW (Brake-release switch)
Quick joint for 6 air tube
Quick joint for 4 air tube
ALM (Note 2)
Spacer outer diameter 7 Height 10, M4, depth 5 (Note 1)
Detail View of Panel
Reference surface
Red
Black
User connector (user wiring connector, 23 pins)
44
Yellow
White
Intake/exhaust port (Note 3)
Detail View of End
Section A-A
14 hollow
Air supply port for air purge: Outer diameter 6 (inner diameter 4)
24
Page 33
IX-NNW70H
A
r
Reference surface
ir supply port for air purge: (Note 4)
Arm 2 stopper
(Mechanical end)
3-M4, depth 8 (same on opposite side) Sealed by a setscrew. (Note 1)
Applicable tube: Outer diameter 6 (inner diameter 4)
4-14, bored 30, counterbored, depth 5
2. External Dimensions
Note 1: The prepared holes denoted by “3-M4,
depth 8” are through holes connecting both sides of the
Note 2: External force applied to the spacers
must not exceed 30 N in the axial direction or 2 Nm in the rotating direction (for each spacer).
Note 3: The LED operates only when the user
provides a circuit that receives controller I/O output signal and supplies 24 VDC to the LED terminal in the user connector.
Note 4: The attaching direction of the air
supply port can be reversed (by removing the PT3/8 plug and attaching the joint instead).
(Mechanical end)
Quick joint for 6 air tube
Quick joint for
User connecto Waterproof connector, 24 pins (24 pins include a shield terminal.)
4 air tube
ALM (Note 3)
BK SW (Brake-release switch)
Spacer outer diameter 7 Height 10, M4, depth 5 (Note 2)
Reference surface
Red
Black
Detail view of panel (1/2)
Yellow
White
PT3/8 Plug
18 hollow
Detail View of
Section A-A
Detail view of arm end (1/2)
25
Page 34
IX-NNW80H
A
r
2. External Dimensions
(Mechanical end)
ir supply port for air purge: (Note 4)
Arm 2 stopper
3-M4, depth 8 (same on opposite side) Sealed by a setscrew. (Note 1)
Applicable tube: Outer diameter 6 (inner diameter 4)
4-14, bored 30, counterbored, depth 5
(Mechanical end)
Note 1: The prepared holes denoted by “3-M4,
depth 8” are through holes connecting both sides of the
Note 2: External force applied to the spacers
must not exceed 30 N in the axial direction or 2 Nm in the rotating direction (for each spacer).
Note 3: The LED operates only when the user
provides a circuit that receives controller I/O output signal and supplies 24 VDC to the LED terminal in the user connector.
Note 4: The attaching direction of the air supply
port can be reversed (by removing the PT3/8 plug and attaching the joint instead).
26
Reference surface
Quick joint for 6 air tube
Quick joint for
User connecto Waterproof connector, 24 pins (24 pins include a shield terminal.)
4 air tube
ALM (Note 3)
BK SW (Brake-release switch)
Spacer outer diameter 7 Height 10, M4, depth 5 (Note 1)
PT3/8 Plug
Red
Black
Detail view of panel (1/2)
Yellow
White
Reference surface
18 hollow
Detail view of arm end (1/2)
Detail View of
Section A-A
Page 35
IX-NNC50H
A
A
2. External Dimensions
4-11 24, counterbore depth 5
(Mechanical end)
Section A-A
14 hollow
(Mechanical end)
BK SW (Brake-release switch)
Reference surface
Quick joint for 6 air tube
Quick joint for 4 air tube
User connector (D-sub connector for user wiring) (25-pin, socket, fastener size M2.6)
ALM (Note 3)
Spacer outer diameter 7 Height 10, M4, depth 5 (Note 2)
Red
Black
Yellow
White
Detail view of panel (1/2)
ir joint (same on opposite side) (Note 4)
pplicable tube: Outer diameter 12 (inner diameter 8)
Note 1: The holes denoted by "2-M4, depth 8" are through
holes connecting both sides of the arm.Take note that long mounting screws may contact the internal mechanism parts.
Note 2: External force applied to the spacers must not exceed
30 N in the axial direction or 2 Nm in the rotating direction (for each spacer).
Note 3: The LED operates only when the user provides a
circuit that receives controller I/O output signal and supplies 24 VDC to the LED terminal in the user connector.
Note 4: The attaching direction of the joint can be reversed (by
removing the PT3/8 plug and attaching the joint instead).
27
Page 36
IX-NNC60H
A
A
2. External Dimensions
4-11 24, counterbore depth 5
(Mechanical end)
Section A-A
14 hollow
(Mechanical end)
Quick joint for 6 air tube
Quick joint for 4 air tube
User connector (D-sub connector for user wiring) (25-pin, socket, fastener size M2.6)
ALM (Note 3)
BK SW (Brake-release switch)
Spacer outer diameter 7 Height 10, M4, depth 5 (Note 2)
Reference surface
Red
Yellow
Black
White
Detail view of panel (1/2)
ir joint (same
on opposite side)
pplicable tube: Outer diameter
12 (inner diameter 8)
Note 1: The holes denoted by "2-M4, depth 8" are through
holes connecting both sides of the arm. Take note that long mounting screws may contact the internal mechanism parts.
Note 2: External force applied to the spacers must not exceed
30 N in the axial direction or 2 Nm in the rotating direction (for each spacer).
Note 3: The LED operates only when the user provides a
circuit that receives controller I/O output signal and supplies 24 VDC to the LED terminal in the user connector.
28
Page 37
IX-NNC70H
A
A
ir joint (Note 4)
pplicable tube: Outer diameter
12 (inner diameter 8)
2. External Dimensions
Arm 2 stopper
4-14, bored 30 counterbored, depth 5
(Mechanical end)
Arm 1, arm2 stopper
3-M4, depth 8 (same on opposite side) Sealed by a setscrew (Note 1).
18 hollow
PT 3/8 Plug
(Mechanical end)
Reference surface
Quick joint for 6 air tube
Quick joint for
Section A-A
4 air tube
User connector (D-sub connector for user wiring) (25-pin, socket, fastener size M2.6)
ALM (Note 3)
BK SW (Brake-release switch)
Red
Black
Yellow
White
Note 1: The prepared holes denoted by “3-M4, depth 8” are
through holes connecting both sides of the arm.
Note 2: External force applied to the spacers must not
exceed 30 N in the axial direction or 2 Nm in the rotating direction (for each spacer).
Spacer outer diameter 7 Height 10, M4, depth 5 (Note 2)
Detail view of panel (1/2)
Note 3: The LED operates only when the user provides a
circuit that receives controller I/O output signal and supplies 24 VDC to the LED terminal in the user connector.
29
Page 38
IX-NNC80H
A
A
2. External Dimensions
ir joint
(Note 4)
pplicable tube: Outer diameter
12 (inner diameter 8)
Arm 2 stopper
4-14, bored 30 counterbored, depth 5
(Mechanical end)
Arm 1, arm2 stopper
3-M4, depth 8 (same on opposite side) Sealed by a setscrew (Note 1).
18 hollow
PT 3/8 Plug
(Mechanical end)
Reference surface
Quick joint for 6 air tube
Quick joint for
Section A-A
4 air tube
User connector (D-sub connector for user wiring) (25-pin, socket, fastener size M2.6)
ALM (Note 3)
BK SW (Brake-release switch)
Spacer outer diameter 7 Height 10, M4, depth 5 (Note 2)
Red
Black
Yellow
White
Detail view of panel (1/2)
Note 1: The prepared holes denoted by “3-M4, depth 8” are
through holes connecting both sides of the arm.
Note 2: External force applied to the spacers must not exceed
30 N in the axial direction or 2 Nm in the rotating
direction (for each spacer).
Note 3: The LED operates only when the user provides a
circuit that receives controller I/O output signal and
supplies 24 VDC to the LED terminal in the user
connector.
30
Page 39
3. Robot Operation Area
IX-NNN50H, IX-NSN5016H, IX-NNW50H, IX-NNC50H
(Operation prohibited area)
Movement range

3. Robot Operation Area

Range of stopper position
IX NNN60H, IX-NSN6016H, IX-NNW60H, IX-NNC60H
(Operation prohibited area)
Movement range
Range of stopper position
31
Page 40
3. Robot Operation Area
IX-NNN70H, IX-NNW70H, IX-NNC70H
(Operation prohibited area)
Movement range
Range of stopper position
IX-NNN80H, IX-NNW80H, IX-NNC80H
(Operation prohibited area)
Movement range
Range of stopper position
32
Page 41
)
)
(25p
,
)
(
)
(
)
4. Wiring Diagram

4.1 Layout Drawing

IX-NNN50H/60H/70H/80H IX-NNC50H/60H/70H/80H
Servo motor with
brake for axis 3
M2
Socket
(Z-axis)
PG3
172159-1 (Tyco
Electronics AMP
Servo motor for
axis 2 (arm 2)
PG2
Inside arm 2
U cable (inside robot)
Socket
172161-1 (Tyco
M cable (inside robot)
PG cable (inside robot)
Electronics AMP)
ALM
BK SW
User
Connector
φ
φ
φ
φ

4. Wiring Diagram

Alarm LED
Servo motor with brake
for axis 4 (R-axis)
FG (to D-sub housing)
socket in
D-sub connector for user wiring
M3
BK3
PG4
M4
BK4
UA
UB
Socket
172157-1 (Tyco
Electronics AMP
LED
Z/R-axes
Brake-release switch for axes 3/4
BK
Air joint, red ( 6)
Air joint, white ( 4)
Air joint, yellow ( 6)
Air joint, black ( 4)
Socket
DF3-3C-2C
(Hirose)
Socket
DF3-2S-2C
(Hirose)
DWG No. 1068651*
DWG No. 1069363*
Wiring/Piping Diagram: 500/600/700/800
Controller Inside base
Servo motor for
172159-1
axis 1 (arm 1)
(Tyco Electronics AMP)
Cable fix cap
(Capcon)
cable
Flexible
M1M2M3
DWG No. 1068655*
M cable (outside robot)
M1M2M3
Socket
DF11-14DS-2C
DWG No. 1069364*
Plug
172165-1
(Tyco Electronics AMP)
Plug
172166-1
(Tyco Electronics AMP)
Plug
172169-1
(Tyco Electronics AMP)
Plug
DF11-14DEP-2C
UB
U1U2U3
FG (To base)
DWG No. 1068657*
(Hirose)
φ
Air joint, red ( 6)
U13
terminals
User wiring
U14
φ
φ
φ
Air joint, yellow ( 6)
Air joint, black ( 4)
Air joint, white ( 4)
FG
U15
LED +24V
LED G24V
BK4
BK3
OUTPG1
M4
Connector
HIF3BA-10D-2.54 (Hirose)
OUTPG4
OUTPG2
OUTPG3
INPG1
INPG2
INPG3
INPG4
PG cable (outside robot)
Plug GIC2.5/4-STF-7.62 (Phoenix Contact)
M4
PG1
PG2
PG3
PG4
SW
BAT 1
BAT 2
BAT 3
DWG No. 1068656*
Dedicated batteries for IX: AB-3
Plug-in connector contact
JK-SP2140 (JST)
Contact cable D13A
(DDK)
Hirose
Socket
DF11-14DS-2C
Board
UA
24 VDC
BAT 4
Connector
XAP-02V-1 (JST)
U cable (outside robot)
BK power cable (outside robot)
+24 V
G24 V
terminals
Brake power
(Hirose)
Notes
(1) The actual layout of board connectors varies from this drawing.
The 24 V power supply for I/O circuits used on the secondary side (low-voltage side) cannot be shared.
(2) Since the brake power circuit is provided on the primary side (high-voltage side), a dedicated 24 V power supply is required for this circuit.
(3) To operate the alarm LED, the user must provide a circuit that uses the controller I/O output signal.
33
Page 42
U
M2
M4
FG
LED G24V
LED +24V
U25
U24
U23
U3
U2
U1
4. Wiring Diagram
Flexible
cable
User wiring terminals
U cable (outside robot)
Controller
M1M2M3M4PG1
PG2
PG3
PG4
φ
φ
PG cable (outside robot)
φ
φ
+24V
M cable (outside robot)
M
G24V
Air joint
Re ( 4), Yellow ( 6), Black ( 4), White ( 4)
Brake power terminals
B
LED
UA
M1
FG
INPG1
M3
OUTPG1
U cable (inside robot)
PG cable (inside robot)
M cable (inside robot)
BAT1
BAT2
BAT3
BAT4
INPG2
INPG3
INPG4
24 VDC
Board
BK4
BK3
SW
OUTPG2
OUTPG3
OUTPG4
1-axis motor
1-axis encoder
Air tubes
PG cable (inside robot)
M cable (inside robot)
Air tubes
U cable (inside robot)
2-axis motor
2-axis encoder
BK4
BK3
M4
PG4
M3
LED
PG3M2PG2
3-axis brake
3-axis motor
3-axis encoder
φ
φφφ
4-axis motor
4-axis brake
4-axis encoder
Alarm LED
Brake-release switch for axes 3/4 (Z/R-axes)
Air joint
D-sub connector for user wiring (25-oin, socket)
Re ( 4), Yellow ( 6), Black ( 4), White ( 4)
34
Page 43
A
IX-NNW50H/ 60H/70H/80H
Servo motor with
brake for axis 3 (Z-
Servo motor for
axis 2 (arm 2)
axis)
4)
φ
φ
φ
φ
Alarm LED
Air joint, white ( 4)
Servo motor with brake
for axis 4 (R-axis)
FG (to D-sub housing)
24 pins include a shield term inal.
Waterproof connector for user wiring (24 pins)
Air joint, yellow ( 6)
Air joint, red ( 6)
Air joint, black (
Brake-release switch for axes 3/4 (Z/R-axes)
4. Wiring Diagram
Inside arm 2
Socket
DF3-3C-2C
(Hirose)
(Tyco Electronics
AMP)
Socket
U cable (inside robot)
M cable (inside robot)
PG cable (inside robot)
DWG No. 1068651*
DWG No. 1069363*
Flexible
cable
Socket
(Tyco Electronics
AMP)
Plug
(Tyco Electronics AMP)
Socket
(Tyco Electronics
AMP)
Socket
DF3-2S-2C
(Hirose)
Socket
DF11-14DS-
2C (Hirose)
DWG No. 1069364*
(Tyco Electronics AMP)
Plug
Plug
(Tyco Electronics AMP)
ir supply port for air purge
Socket
(HIrose)
Plug
(Hirose)
Servo motor for
axis 1 (arm 1)
Inside base
Connector
HIF3BA-10D-2.54C
(Tyco Electronics AMP)
(Hirose)
Board
φ
φ
φ
Air joint, white ( 4)
Air joint, yellow ( 6)
Air joint, black ( 4)
Connector
FG (To base)
φ
Air joint, red ( 6)
Cable fix cap
(Capcon)
DWG No. 1068655*
M cable (outside robot)
Plug GIC2,5/4-STF-7,62 (Phoenix Contact)
PG cable (outside robot)
DWG No. 1068656*
BK power cable (outside robot)
Dedicated batteries for IX: AB-3
U cable (outside robot)
DWG No. 1068657*
The 24 V power supply for I/O circuits used on the secondary side (low-voltage side) cannot be shared.
Notes
(1) The actual layout of board connectors varies from this drawing.
(2) Since the brake power circuit is provided on the primary side (high-voltage side), a dedicated 24 V power supply is required for this circuit.
(3) To operate the alarm LED, the user must provide a circuit that uses the controller I/O output signal.
Wiring/Piping Diagram: 500/600/700/800
Controller
terminals
Plug-in connector contact
JK-SP2140 (JST)
Contact cable D13A (DDK)
Brake power
terminals
User wiring
(4) User wiring terminals U24 and U25 cannot be used.
35
Page 44
4. Wiring Diagram
Flexible
cable
User wiring terminals
Controller
PG cable (outside robot)
Air joint
Black (4), Yellow (6), Red (4), White (4)
Brake power
U cable (outside robot)
PG cable (inside robot)
M cable (inside robot)
U cable (inside robot)
M cable (outside robot)
1-axis motor
1-axis encoder
terminals
Board
Air supply port for air purge
Air tubes
U cable (inside robot)
M cable (inside robot)
Air tubes
PG cable (inside robot)
36
Waterproof connector for uaser wiring (24 pins)
24 pins include a shield terminal
2-axis motor
2-axis encoder
3-axis brake
3-axis motor
3-axis encoder
4-axis brake
4-axis encoder
4-axis motor
Alarm LED
Brake-release switch for axes
3/4 (Z/R-axes)
Air joint
Black (4), Yellow (6),
Red 4), White (4)
Page 45
r
IX-NSN5016H/ 6016H
Servo motor for axis 2
Alarm LED
6)
4)
φ
φ
(arm 2)
Servo motor with brake
for axis 3 (Z-axis)
Servo motor with brake
for axis 4 (R-axis)
φ
φ
4. Wiring Diagram
FG (to D-sub housing)
D-sub connector for user wiring (15-pin, socket)
Air joint, red ( 6)
Air joint, black (
Air joint, white ( 4)
Air joint, yellow (
Brake-release switch for axes 3/4 (Z/R-axes)
Inside arm 2
U cable (inside robot)
M cable (inside robot)
PG cable (inside robot)
cable
Flexible
Servo motor for
axis 1 (arm 1)
Inside base
Board
φ
φ
φ
φ
FG (To base)
Air joint, red ( 6)
Air joint, yellow ( 6)
Air joint, white ( 4)
Air joint, black ( 4)
Cable fix cap
(Capcon)
M cable (outside robot)
PG cable (outside robot)
Dedicated batteries for IX: AB-3
BK power cable (outside robot)
U cable (outside robot)
The 24 V power supply for I/O circuits used on the secondary side (low-voltage side) cannot be shared.
Wiring/Piping Diagram: 500/600
Controlle
terminals
Brake power
terminals
User wiring
Notes
(1) The actual layout of board connectors varies from this drawing.
(2) Since the brake power circuit is provided on the primary side (high-voltage side), a dedicated 24 V power supply is required for this circuit.
(3) To operate the alarm LED, the user must provide a circuit that uses the controller I/O output signal.
37
Page 46

4.2 Machine Harness Wiring Table

2
(1) PG cables (inside robot) DWG No. 1069363*
Base end Arm end
Tube
symbol
Connector
Signal
Pin No.
Connection
Pin No.
Signal
Connector
Tube
symbol
ID No.
Cable
4. Wiring Diagram
Mini Universal MATE-N-LOK plug housing 172169-1 (by Tyco Electronics AMP)
Same as above
Same as above
Shield
Shield
Shield
Shield
Shield
Shield
Mini Universal MATE-N-LOK panel installation socket housing 172162-1 (by Tyco Electronics AMP)
Same as above
Same as above
Red
White
Red
White
Red White Green
Red White
Red White
Red White Green
Red White
Red White
Red White
Green
0.3 mm shielded
cable
(2) M cables (inside robot) DWG No. 1068651*
Base end Arm end
Tube
symbol
Connector
Mini Universal MATE-N-LOK plug housing 172167-1 (by Tyco Electronics AMP)
Same as above
Same as above
Mini Universal MATE-N-LOK plug housing 172165-1 (by Tyco Electronics AMP)
Same as above
Signal
Pin No.
Connection
Pin No.
Signal
38
Connector
Mini Universal MATE-N-LOK panel installation socket housing 172159-1 (by Tyco Electronics AMP)
Same as above
Same as above
Mini Universal MATE-N-LOK panel installation socket housing 172157-1 (by Tyco Electronics AMP)
Same as above
Tube
symbol
ID No.
Cable
Flexible
cable
16 X
AWG18
Page 47
(3) UA and UB cables (outside robot) DWG No. 1069364*
2
Base end Arm end
Tube
symbol
UA
UB
Connector
Double-brazed relay plug DF11­14DEP-2C (by Hirose Electric)
Same as above
Signal
Pin No.
Connection
Pin No.
Signal
Connector
Double-brazed crimp socket
DF11-14DS-2C (by Hirose Electric)
Same as above
Tube
symbol
UA
UB
ID No. Cable
4. Wiring Diagram
Black
0.3 mm shielded
cable
White
Mini Universal MATE­N-LOK plug housing
SW
172166-1 (by Tyco Electronics AMP)
Unisolated terminal (Y type) F0.3-3
Single-brazed crimp socket DF3­2S-2C (by Hirose Electric)
Single-brazed crimp socket DF3­3S-2C (by Hirose Electric)
LED
BK
Green
Red
Black
White Black
RED
39
Page 48

4.3 Cable Wiring Table

)
(1) PG cables (outside robot) DWG No. 1068656*
Robot end Controller end
symbol
4. Wiring Diagram
(2) M cables (outside robot) DWG No. 1068655*
Tube
Tube
symbol
Connector
Signal
Pin No.
Connection
Pin No.
Female crimp connector HIF3BA-10D-
2.54C (by Hirose Electric)
Robot end Controller end
Pin
Connector
Mini Universal MATE-N-LOK panel installation socket housing 172159-1 (by Tyco Electronics AMP)
Signal
No.
Connection
Signal
Hood
Pin No.
Housing KEC-15P (by JST)
Contact JK-SP2140 (by JST)
Connector hood D13A (for 17HE­23150-C) (by DDK)
Signal
Reverse plug GIC2.5 4-STF-7.62 (by Phoenix Contact
Connector
Connector
Tube
symbol
Tube
symbol
M1
ID No.
Light gray
1 red
Light gray
1 black
Orange 1
red
Orange 1
black
White 1
red
White 1
black
Yellow 1
red
Yellow 1
black
ID No.
Cable
Cable
Same as above
Same as above
Same as above
Same as above
Same as above
Same as above
M2
M3
M4
40
Page 49
(3) UA and UB cables (outside robot) DWG No. 1068657*
Robot end Controller end
Tube
symbol
Connector
Double-brazed crimp socket DF11-14DS-2C (by Hirose Electric)
Same as above
Signal
Pin No.
Connection
Pin No.
Signal
Uninsulated terminal (Y type) F0.3-3
Same as above
Same as above
Same as above
Same as above Same as above
Same as above Same as above
Same as above
Same as above Same as above
Same as above
Same as above Same as above
Same as above
Same as above Same as above Same as above
Same as above
Same as above Same as above
Same as above
Same as above Same as above
Same as above
Same as above Same as above
Same as above
Connector
Tube
symbol
ID No.
Orange 1
red
Orange 1
black
Light gray
1 red
Light gray
1 black White 1
red
White 1
black
Yellow 1
red
Yellow 1
black
Pink 1 red
Pink 1
black
Orange 2
red
Orange 2
black
Light gray
2 red
Light gray
2 black White 2
red
White 2
black
Yellow 2
red
Yellow 2
black
Pink 2 red
Pink 2
black
Orange 3
red
Orange 3
black
Light gray
3 red
Light gray
3 black
White 3
red
White 3
black
Yellow 3
red
Green
Cable
4. Wiring Diagram
41
Page 50

4.4 230 V Circuit Components

IX-NNN50H/60H, IX-NNW50H/60H, IX-NNC50H/60H
No. Code name Model number Manufacturer Remarks
1 Axis 1 servo motor TS4609 N2027 E206
2 Axis 2 servo motor TS4609 N2077 E201
3
4
5
4. Wiring Diagram
6
IX-NNN70H/80H, IX-NNW70H/80H, IX-NNC70H/80H
No. Code name Model number Manufacturer Remarks
1 Axis 1 servo motor TS4614 N2027 E209 80, 750 W, key groove, CE certified 2 Axis 2 servo motor TS4609 N2077 E206 60, 400 W, key groove, CE certified
3
4
5
6
Axis 3 servo motor w/ brake Axis 4 servo motor w/ brake
M cable (inside robot)
M cable (outside robot)
Axis 3 servo motor w/ brake Axis 4 servo motor w/ brake
M cable (inside robot)
M cable (outside robot)
AC servo motor, 60, 400 W, key groove, CE certified AC servo motor, 60, 200 W, key
Tamagawa
TS4607 N7077 E201
TS4606 N7077 E201
IAI
IAI
TS4609 N7077 E206
TS4607 N7077 E201
IAI
IAI
Seiki
Tamagawa
Seiki
groove, CE certified AC servo motor, 60, 200 W, w/ brake, round shaft, CE certified AC servo motor, 60, 100 W, key groove, CE certified Wire: 300 V, 105C (rated), AWG18
(0.84e), flexible cable, UL VW-1, c-UL FT-1
Wire: 300 V, 80C (rated), AWG18
(0.89e), oil-resistant cable, UL VW-1, c-UL FT-1
60, 400 W, round shaft with brake, CE certified
60, 200 W, key groove, CE certified
Wire: 300 V, 105C (rated), AWG18
(0.84e), flexible cable, UL VW-1, c-UL FT-1
Wire: 300 V, 80C (rated), AWG18
(0.89e), oil-resistant cable, UL VW-1, c-UL FT-1
42
Page 51
IX-NSN5016H/6016H
No. Code name Model number Manufacturer Remarks
1 Axis 1 servo motor TS4614 N2027 E209
2 Axis 2 servo motor TS4609 N2077 E206
Axis 3 servo motor
3
w/ brake Axis 4 servo motor
4
w/ brake
M cable (inside
5
robot)
M cable (outside
6
robot)
TS4609 N7077 E206
TS4607 N7077 E201
IAI
IAI
Tamagawa
Seiki
AC servo motor, 80, 750 W, key groove, CE certified AC servo motor, 80, 600 W, key groove, CE certified AC servo motor, 60, 200 W, round shaft with brake, CE certified AC servo motor, 60, 100 W, key groove, CE certified
Wire: 300 V, 105C (rated), AWG18
(0.84e), flexible cable, UL VW-1, c-UL FT-1
Wire: 300 V, 80C (rated), AWG18
(0.89e), oil-resistant cable, UL VW-1, c-UL FT-1
4. Wiring Diagram
43
Page 52

5. Option

5.1 Absolute Reset Jig

This jig is used to perform an absolute reset in the event that absolute data in the encoder was lost.
5. Option
Model name
IX-NNN50H/60H/70H/80H IX-NNC50H/60H/70H/80H
IX-NNW50H/60H/70H/80H
IX-NSN5016H/6016H JG-4 For high-speed type 500/600
Model
number
JG-1 For arm length 500/600
JG-3 For arm length 700/800

5.2 Flange

This flange is used to install a load at the end of the Z-axis arm.
Model name
IX-NNN50H/60H/70H/80H IX-NNC50H/60H/70H/80H
IX-NNW50H/60H/70H/80H
Model
number
IX-FL-1 For arm length 500/600
IX-FL-3 For arm length 700/800
Remarks
Remarks
44
IX-NSN5016H/6016H IX-FL-2 For high-speed type 500/600
Page 53

5.3 Absolute Data Backup Battery

This battery is used to retain absolute data in the encoder. (Set the battery inside the cover of the SCARA robot.)
Model number Remarks
AB-3 For arm length 250 ~ 800
* Four batteries are needed for each robot (all
SCARA robot models). Since AB-3 batteries are packed individually, specify the required number in your order.
5. Option
45
Page 54
6. Checking after Unpacking
After unpacking the carton, check the condition of the product and items included in the carton.

6.1 Items Included in the Carton

IX-NNN50H/60H/70H/80H, IX-NSN5016H/6016H
1 Robot
2 Controller
seirosseccA
3 Eye-bolt
4 D-sub connector
5 Hood set (for D-sub connector)
6 Danger label
7 Positioning sticker
8 PIO flat cable
9 First step-by-step guide
10 Operation manual (CD/DVD)

6. Checking after Unpacking

11 Safety guide
skrameRrebmunledoMmetI.oN
Refer to "How to Read Model Nameplate" and "How to Read Model Number."
IX-NNW50H/ 60H/ 70H/ 80H
1 Robot
2 Controller
seirosseccA
3 Eye-bolt
4 Waterproof connector
Hood set (for waterproof
5
connector)
6 Danger label
7 Positioning sticker
8 PIO flat cable
9 First step-by-step guide
10 Operation manual (CD/DVD)
11 Safety guide
Refer to "How to Read Model Nameplate" and "How to Read Model Number."
skrameRrebmunledoMmetI.oN
46
Page 55
IX-NNW50H/60H/70H/80H
r
r
1 Robot
2 Controller
seirosseccA
3 Eye-bolt
4 D-sub connector
5 Hood set (for D-sub connector)
6 Danger label
7 Positioning sticker
8 PIO flat cable
9 First step-by-step guide
10 Operation manual (CD/DVD)
11 Safety guide
Refer to "How to Read Model Nameplate" and "How to Read Model Number."

6.2 Operation Manuals Relating to This Product

1 Operation Manual for XSEL-PX/QX Controller ME0152
2 Operation Manual for XSEL Controller P/Q/PX/QX – RC Gateway Function ME0188
3 Operation Manual for PC Software IA-101-X-MW/IA-101-X-USBMW ME0154
4 Operation Manual for Teaching Pendant SEL-T/TD/TG ME0183
5 Operation Manual for Teaching Pendant IA-T-X/XD ME0160
6 Operation Manual for DeviceNet ME0124
7 Operation Manual for CC-Link ME0123
8 Operation Manual for PROFIBUS ME0153
9 Operation Manual for X-SEL Ethernet ME0140
10 Operation Manual for Multi-point I/O Board ME0138
11 Operation Manual for Dedicated Terminal Block for Multi-point I/O Board ME0139
skrameRrebmunledoMmetI.oN
6. Checking after Unpacking
.oNlortnoCmetI.oN

6.3 How to Read Model Nameplate

Model numbe
Serial numbe
47
Page 56

6.4 How to Read Model Number

IX-NNN7020H-5L-T2-JY
<Series> SCARA robot
<Type> Standard type Arm length 500 mm/Z-axis 200 mm
NNN5020H
Arm length 500 mm/Z-axis 300 mm
NNN5030H
Arm length 600 mm/Z-axis 200 mm
NNN6020H
Arm length 600 mm/Z-axis 300 mm
6. Checking after Unpacking
NNN6030H
Arm length 700 mm/Z-axis 200 mm
NNN7020H
Arm length 700 mm/Z-axis 400 mm
NNN7040H
Arm length 800 mm/Z-axis 200 mm
NNN8020H
Arm length 800 mm/Z-axis 400 mm
NNN8040H
<Option> JY: Joint cable specification
<Applicable controller> T2: XSEL-PX/QX
<Cable length> 5L: 5 m 10L: 10 m
Clean room Specification Arm length 500 mm/Z-axis 200 mm
NNC5020H
Arm length 500 mm/Z-axis 300 mm
NNC5030H
Arm length 600 mm/Z-axis 200 mm
NNC6020H
Arm length 600 mm/Z-axis 300 mm
NNC6030H
Arm length 700 mm/Z-axis 200 mm
NNC7020H
Arm length 700 mm/Z-axis 400 mm
NNC7040H
Arm length 800 mm/Z-axis 200 mm
NNC8020H
Arm length 800 mm/Z-axis 400 mm
NNC8040H
48
Dust-proof/Splash-proof Specification Arm length 500 mm/Z-axis 200 mm
NNW5020H
Arm length 500 mm/Z-axis 300 mm
NNW5030H
Arm length 600 mm/Z-axis 200 mm
NNW6020H
Arm length 600 mm/Z-axis 300 mm
NNW6030H
Arm length 700 mm/Z-axis 200 mm
NNW7020H
Arm length 700 mm/Z-axis 400 mm
NNW7040H
Arm length 800 mm/Z-axis 200 mm
NNW8020H
Arm length 800 mm/Z-axis 400 mm
NNW8040H
High-speed type Arm length 500 mm/Z-axis 160 mm
NSN5016H
Arm length 6
NSN6016H
00 mm/Z-axis 160 mm
Page 57

7 Specifications

7.1 IX-NNN50H/60H/70H/80H
IX-NNN50H (Arm Length 500, Standard Specification)
Item Specifications
Type IX-NNN50H-L-T1
Degree of freedom Four degrees of freedom
Overall arm length 500
Arm 1 length 250
Arm 2 length Drive method
Motor capacity
Movement range
Maximum operating speed (Note 2)
Positioning repeatability precision (Note
3) Cycle time (Note 4)
Load capacity
Axis 3 (vertical axis) Push force control range Permissible load on axis 4
Permissible tool diameter (Note 6) mm
Home detection Absolute
User wiring
Alarm indicator (Note 7) One small, red LED indicator (rated voltage: 24 V)
User piping
Axis 1 (arm 1) AC servo motor + Speed reducer
Axis 2 (arm 2) AC servo motor + Speed reducer
Axis 3 (vertical axis) AC servo motor with brake + Belt + Ball-screw spline
Axis 4 (rotational axis)
Axis 1 (arm 1) 400
Axis 2 (arm 2) 200
Axis 3 (vertical axis) 200
Axis 4 (rotational axis)
Axis 1 (arm 1)
Axis 2 (arm 2)
Axis 3 (vertical axis) (Note 1) mm 200 (option: 300)
Axis 4 (rotational axis) degree Axis 1 + Axis 2 (maximum
composite speed) Axis 3 (vertical axis)
Axis 4 (rotational axis) degree/sec 1857
Axis 1 + Axis 2
Axis 3 (vertical axis)
Axis 4 (rotational axis) degree
Rated 2
Maximum
Upper limit (Note 8) 181.0 (18.5) Push torque limit 70%
Lower limit (Note 9)
Permissible moment of inertia (Note 5)
Permissible torque
mm
250
AC servo motor with brake + Reduction gear + Belt
+Spline
W
100
degree
mm/sec
mm
sec 0.39
kg
N (kgf)
kgm
N
m (kgfcm)
2
D-sub 25-pin connector with25-core AWG26 shielded
Two air tubes (outer diameter: 6, inner diameter: 4)
Two air tubes (outer diameter: 4, inner diameter: 2.5)
93 (9.5) Push torque limit 40%
(normal service pressure: 0.8 MPa)
(normal service pressure: 0.8 MPa)
120
145
360
6381
1473
0.010
0.010
0.005
10
0.06
3.7 (38.1)
100
cable (socket)
7. Specifications
49
Page 58
Item Specifications Operating environment
Robot weight kg 29.5
Brake power source for main unit
Controller
Note 1) To move the robot horizontally at high speed, perform teaching so that the vertical axis stays as close to the top
Note 2) Assuming PTP instruction operation. The maximum composite speed is not the maximum speed of CP operation. Note 3) Positioning precision when the robot is operated repeatedly to one specified position from the same starting
7. Specifications
Note 4) Measured when the robot is operated at the maximum speed, carrying a load of 2 kg.
Note: Continuous operation at the
Surrounding air temperature/humidity
Temperature: 0 to 40°C, humidity: 20 to 85%RH or
less (non-condensing)
sselro000,1medutitlA
BdesioN 73
W
DC24VI10% 20W
Power supply 230 V 50/60 Hz 8 A Allowable supply voltage fluctuation
%
±10
Overvoltage category (IEC60664-1) Category III
3eergednoitulloP)1-46606CEI(eergednoitulloP
position as possible. (Fig. 1) To operate the robot with its vertical axis at the bottom position, the speed and acceleration must be reduced as appropriate. (Fig. 2)
position at the same speed and acceleration/deceleration using the same arm (at a constant surrounding air temperature of 20
°C). Take note that this is not the absolute positioning precision.
Also note that the positioning repeatability may deviate from the specified value if the arm is changed, positioning is performed to one specified position from multiple positions, or any of the operating conditions such as operating speed and acceleration/deceleration setting is changed.
This cycle time assumes a reciprocating operation involving a vertical travel of 25 mm and horizontal travel of 300 mm. (Rough positioning)
300 mm
maximum speed is not feasible.
25 mm
Note 5) The permissible moment of inertia converted to a value at the rotational center of axis 4. The offset from the
rotational center of axis 4 to the tool’s center of gravity is assumed to be 50 mm or less. (Fig. 3) If the tool’s center of gravity is further away from the rotational center of axis 4, the speed and acceleration must be
reduced as appropriate. Note 6) If the tool exceeds the permissible diameter, it will contact the robot inside the robot’s range of movement. (Fig. 4) Note 7) To enable the alarm LED indicator, the user must provide a circuit that supplies 24 VDC to the LED terminal in the
user connector in response to the controller I/O output signal, etc. Note 8) Push force when driver card parameter No. 38, “Push torque limit during positioning” is set to 70%. Note 9) Push force when driver card parameter No. 38, “Push torque limit during positioning” is set to 20%.
Although this parameter can be set to a desired value from 15 to 70%, push force will not stabilize if the set value
is outside the range of 40 to 70%.
Top position
Tool
Fig. 1
Bottom position
Tool
Fig. 2
40
Center of rotational axis
Tool
Tool’s center of gravity
Fig. 3
φ
100
Fig. 4
Center of rotational axis
Tool
Reference design standards: Annex I to Machine Directives, EN292-1, EN292-2, EN1050, EN60204-1, EN775
50
Page 59
IX-NNN-60H (Arm Length 600, Standard Specification)
Item Specifications
Type IX-NNN60H-L-T1
Degree of freedom Four degrees of freedom
Overall arm length 600
Arm 1 length 350
Arm 2 length Drive method
Motor capacity
Movement range
Maximum operating speed (Note 2)
Positioning repeatability precision (Note
3) Cycle time (Note 4)
Load capacity
Axis 3 (vertical axis) Push force control range Permissible load on axis 4
Permissible tool diameter (Note 6) mm
Home detection Absolute
User wiring
Alarm indicator (Note 7) One small, red LED indicator (rated voltage: 24 V)
User piping
Axis 1 (arm 1) AC servo motor + Speed reducer
Axis 2 (arm 2) AC servo motor + Speed reducer
Axis 3 (vertical axis) AC servo motor with brake + Belt + Ball-screw spline
Axis 4 (rotational axis)
Axis 1 (arm 1) 400
Axis 2 (arm 2) 200
Axis 3 (vertical axis) 200
Axis 4 (rotational axis)
Axis 1 (arm 1)
Axis 2 (arm 2)
Axis 3 (vertical axis) (Note 1) mm 200 (option: 300)
Axis 4 (rotational axis) degree Axis 1 + Axis 2 (maximum
composite speed) Axis 3 (vertical axis)
Axis 4 (rotational axis) degree/sec 1857
Axis 1 + Axis 2
Axis 3 (vertical axis)
Axis 4 (rotational axis) degree
Rated 2
Maximum
Upper limit (Note 8) 181.0 (18.5) Push torque limit 70%
Lower limit (Note 9)
Permissible moment of inertia (Note 5)
Permissible torque
mm
250
AC servo motor with brake + Reduction gear + Belt
+Spline
W
100
degree
mm/sec
mm
sec 0.43
kg
N (kgf)
kg
m
m (kgfcm)
N
2
D-sub 25-pin connector with 25-core AWG26 shielded
Two air tubes (outer diameter: 6, inner diameter: 4)
Two air tubes (outer diameter: 4, inner diameter: 2.5)
93 (9.5) Push torque limit 40%
(normal service pressure: 0.8 MPa)
(normal service pressure: 0.8 MPa)
120
145
360
7232
1473
0.010
0.010
0.005
10
0.06
3.7 (38.1)
100
cable (socket)
7. Specifications
51
Page 60
Item Specifications Operating environment
Robot weight kg 30.5
Brake power source for main unit W
Controller
Note 1) To move the robot horizontally at high speed, perform teaching so that the vertical axis stays as close to the top
Note 2) Assuming PTP instruction operation. The maximum composite speed is not the maximum speed of CP operation. Note 3) Positioning precision when the robot is operated repeatedly to one specified position from the same starting
7. Specifications
Note 4) Measured when the robot is operated at the maximum speed, carrying a load of 2 kg.
Note: Continuous operation at the
Surrounding air temperature/humidity
Temperature: 0 to 40°C, humidity: 20 to 85%RH or
less (non-condensing)
sselro000,1medutitlA
BdesioN 73
DC24VI10% 20W
Power supply 230 V 50/60 Hz 5 A Allowable supply voltage fluctuation
%
±10
Overvoltage category (IEC60664-1) Category III
3eergednoitulloP)1-46606CEI(eergednoitulloP
position as possible. (Fig. 1) To operate the robot with its vertical axis at the bottom position, the speed and acceleration must be reduced as appropriate. (Fig. 2)
position at the same speed and acceleration/deceleration using the same arm (at a constant surrounding air temperature of 20
°C). Take note that this is not the absolute positioning precision.
Also note that the positioning repeatability may deviate from the specified value if the arm is changed, positioning is performed to one specified position from multiple positions, or any of the operating conditions such as operating speed and acceleration/deceleration setting is changed.
This cycle time assumes a reciprocating operation involving a vertical travel of 25 mm and horizontal travel of 300 mm. (Rough positioning)
300 mm
maximum speed is not feasible.
25 mm
Note 5) The permissible moment of inertia converted to a value at the rotational center of axis 4. The offset from the
rotational center of axis 4 to the tool’s center of gravity is assumed to be 40 mm or less. (Fig. 3) If the tool’s center of gravity is further away from the rotational center of axis 4, the speed and acceleration must be
reduced as appropriate. Note 6) If the tool exceeds the permissible diameter, it will contact the robot inside the robot’s range of movement. (Fig. 4) Note 7) To enable the alarm LED indicator, the user must provide a circuit that supplies 24 VDC to the LED terminal in the
user connector in response to the controller I/O output signal, etc. Note 8) Push force when driver card parameter No. 38, “Push torque limit during positioning” is set to 70%. Note 9) Push force when driver card parameter No. 38, “Push torque limit during positioning” is set to 20%.
Although this parameter can be set to a desired value from 15 to 70%, push force will not stabilize if the set value
is outside the range of 40 to 70%.
Top position
Tool
Fig. 1
Bottom position
Tool
Fig. 2
40
Center of rotational axis
Tool
Tool’s center of gravity
Fig. 3
φ
100
Fig. 4
Center of rotational axis
Tool
Reference design standards: Annex I to Machine Directives, EN292-1, EN292-2, EN1050, EN60204-1, EN775
52
Page 61
IX-NNN70H (Arm Length 700, Standard Specification)
Item Specifications
Type IX-NNN70H-L-T1
Degree of freedom Four degrees of freedom
Overall arm length 700
Arm 1 length 350
Arm 2 length Drive method
Motor capacity
Movement range
Maximum operating speed (Note 2)
Positioning repeatability precision (Note
3) Cycle time (Note 4)
Load capacity
Axis 3 (vertical axis) Push force control range Permissible load on axis 4
Permissible tool diameter (Note 6) mm
Home detection Absolute
User wiring
Alarm indicator (Note 7) One small, red LED indicator (rated voltage: 24 V)
User piping
Axis 1 (arm 1) AC servo motor + Speed reducer
Axis 2 (arm 2) AC servo motor + Speed reducer
Axis 3 (vertical axis) AC servo motor with brake + Belt + Ball-screw spline
Axis 4 (rotational axis)
Axis 1 (arm 1) 750
Axis 2 (arm 2) 400
Axis 3 (vertical axis) 400
Axis 4 (rotational axis)
Axis 1 (arm 1)
Axis 2 (arm 2)
Axis 3 (vertical axis) (Note 1) mm 200 (option: 400)
Axis 4 (rotational axis) degree Axis 1 + Axis 2 (maximum
composite speed) Axis 3 (vertical axis)
Axis 4 (rotational axis) degree/sec 1266
Axis 1 + Axis 2
Axis 3 (vertical axis)
Axis 4 (rotational axis) degree
Rated 5
Maximum
Upper limit (Note 8) 304 (31.0) Push torque limit 70%
Lower limit (Note 9)
Permissible moment of inertia (Note 5)
Permissible torque
mm
350
AC servo motor with brake + Reduction gear + Belt
+Spline
W
200
degree
mm/sec
mm
sec 0.42
kg
N (kgf)
kg
m
m (kgfcm)
N
2
D-sub 25-pin connector with25-core AWG26 shielded
Two air tubes (outer diameter: 6, inner diameter: 4)
Two air tubes (outer diameter: 4, inner diameter: 2.5)
146 (14.9) Push torque limit 40%
(normal service pressure: 0.8 MPa)
(normal service pressure: 0.8 MPa)
125
145
360
7010
1614
0.015
0.010
0.005
20
0.1
11.7 (119.3)
100
cable (socket)
7. Specifications
53
Page 62
Item Specifications Operating environment
Robot weight kg 58
Brake power source for main unit W
Controller
Note 1) To move the robot horizontally at high speed, perform teaching so that the vertical axis stays as close to the top
Note 2) Assuming PTP instruction operation. The maximum composite speed is not the maximum speed of CP operation. Note 3) Positioning precision when the robot is operated repeatedly to one specified position from the same starting
7. Specifications
Note 4) Measured when the robot is operated at the maximum speed, carrying a load of 2 kg.
Note: Continuous operation at the
Surrounding air temperature/humidity
Temperature: 0 to 40°C, humidity: 20 to 85%RH or
less (non-condensing)
sselro000,1medutitlA
BdesioN 74
DC24VI10% 20W
Power supply 230 V 50/60 Hz 15 A Allowable supply voltage fluctuation
%
±10
Overvoltage category (IEC60664-1) Category III
3eergednoitulloP)1-46606CEI(eergednoitulloP
position as possible. (Fig. 1) To operate the robot with its vertical axis at the bottom position, the speed and acceleration must be reduced as appropriate. (Fig. 2)
position at the same speed and acceleration/deceleration using the same arm (at a constant surrounding air temperature of 20
°C). Take note that this is not the absolute positioning precision.
Also note that the positioning repeatability may deviate from the specified value if the arm is changed, positioning is performed to one specified position from multiple positions, or any of the operating conditions such as operating speed and acceleration/deceleration setting is changed.
This cycle time assumes a reciprocating operation involving a vertical travel of 25 mm and horizontal travel of 300 mm. (Rough positioning)
300 mm
maximum speed is not feasible.
25 mm
Note 5) The permissible moment of inertia converted to a value at the rotational center of axis 4. The offset from the
rotational center of axis 4 to the tool’s center of gravity is assumed to be 40 mm or less. (Fig. 3) If the tool’s center of gravity is further away from the rotational center of axis 4, the speed and acceleration must be
reduced as appropriate. Note 6) If the tool exceeds the permissible diameter, it will contact the robot inside the robot’s range of movement. (Fig. 4) Note 7) To enable the alarm LED indicator, the user must provide a circuit that supplies 24 VDC to the LED terminal in the
user connector in response to the controller I/O output signal, etc. Note 8) Push force when driver card parameter No. 38, “Push torque limit during positioning” is set to 70%. Note 9) Push force when driver card parameter No. 38, “Push torque limit during positioning” is set to 20%.
Although this parameter can be set to a desired value from 15 to 70%, push force will not stabilize if the set value
is outside the range of 35 to 70%.
Top position
Tool
Fig. 1
Bottom position
Tool
Fig. 2
40
Center of rotational axis
Tool
Tool’s center of gravity
Fig. 3
φ
100
Fig. 4
Center of rotational axis
Tool
Reference design standards: Annex I to Machine Directives, EN292-1, EN292-2, EN1050, EN60204-1, EN775
54
Page 63
IX-NNN80H (Arm Length 800, Standard Specification)
Item Specifications
Type IX-NNN80H-L-T1
Degree of freedom Four degrees of freedom
Overall arm length 800
Arm 1 length 450
Arm 2 length Drive method
Motor capacity
Movement range
Maximum operating speed (Note 2)
Positioning repeatability precision (Note
3) Cycle time (Note 4)
Load capacity
Axis 3 (vertical axis) Push force control range Permissible load on axis 4
Permissible tool diameter (Note 6) mm
Home detection Absolute
User wiring
Alarm indicator (Note 7) One small, red LED indicator (rated voltage: 24 V)
User piping
Axis 1 (arm 1) AC servo motor + Speed reducer
Axis 2 (arm 2) AC servo motor + Speed reducer
Axis 3 (vertical axis) AC servo motor with brake + Belt + Ball-screw spline
Axis 4 (rotational axis)
Axis 1 (arm 1) 750
Axis 2 (arm 2) 400
Axis 3 (vertical axis) 400
Axis 4 (rotational axis)
Axis 1 (arm 1)
Axis 2 (arm 2)
Axis 3 (vertical axis) (Note 1) mm 200 (option: 400)
Axis 4 (rotational axis) degree Axis 1 + Axis 2 (maximum
composite speed) Axis 3 (vertical axis)
Axis 4 (rotational axis) degree/sec 1266
Axis 1 + Axis 2
Axis 3 (vertical axis)
Axis 4 (rotational axis) degree
Rated 5
Maximum
Upper limit (Note 8) 304 (31.0) Push torque limit 70%
Lower limit (Note 9)
Permissible moment of inertia (Note 5)
Permissible torque
mm
350
AC servo motor with brake + Reduction gear + Belt
+Spline
W
200
degree
mm/sec
mm
sec 0.43
kg
N (kgf)
kg
m
m (kgfcm)
N
2
D-sub 25-pin connector with 25-core AWG26 shielded
Two air tubes (outer diameter: 6, inner diameter: 4)
Two air tubes (outer diameter: 4, inner diameter: 2.5)
146 (14.9) Push torque limit 40%
(normal service pressure: 0.8 MPa)
(normal service pressure: 0.8 MPa)
125
145
360
7586
1614
0.015
0.010
0.005
20
0.1
11.7 (119.3)
100
cable (socket)
7. Specifications
55
Page 64
Item Specifications Operating environment
Robot weight kg 60
Brake power source for main unit W
Controller
Note 1) To move the robot horizontally at high speed, perform teaching so that the vertical axis stays as close to the top
Note 2) Assuming PTP instruction operation. The maximum composite speed is not the maximum speed of CP operation. Note 3) Positioning precision when the robot is operated repeatedly to one specified position from the same starting
7. Specifications
Note 4) Measured when the robot is operated at the maximum speed, carrying a load of 5 kg.
Note: Continuous operation at the
Surrounding air temperature/humidity
Temperature: 0 to 40°C, humidity: 20 to 85%RH or
less (non-condensing)
sselro000,1medutitlA
BdesioN 74
DC24VI10% 20W
Power supply 230 V 50/60 Hz 15 A Allowable supply voltage fluctuation
%
±10
Overvoltage category (IEC60664-1) Category III
3eergednoitulloP)1-46606CEI(eergednoitulloP
position as possible. (Fig. 1) To operate the robot with its vertical axis at the bottom position, the speed and acceleration must be reduced as appropriate. (Fig. 2)
position at the same speed and acceleration/deceleration using the same arm (at a constant surrounding air temperature of 20
°C). Take note that this is not the absolute positioning precision.
Also note that the positioning repeatability may deviate from the specified value if the arm is changed, positioning is performed to one specified position from multiple positions, or any of the operating conditions such as operating speed and acceleration/deceleration setting is changed.
This cycle time assumes a reciprocating operation involving a vertical travel of 25 mm and horizontal travel of 300 mm. (Rough positioning)
300 mm
maximum speed is not feasible.
25 mm
Note 5) The permissible moment of inertia converted to a value at the rotational center of axis 4. The offset from the
rotational center of axis 4 to the tool’s center of gravity is assumed to be 40 mm or less. (Fig. 3) If the tool’s center of gravity is further away from the rotational center of axis 4, the speed and acceleration must be
reduced as appropriate. Note 6) If the tool exceeds the permissible diameter, it will contact the robot inside the robot’s range of movement. (Fig. 4) Note 7) To enable the alarm LED indicator, the user must provide a circuit that supplies 24 VDC to the LED terminal in the
user connector in response to the controller I/O output signal, etc. Note 8) Push force when driver card parameter No. 38, “Push torque limit during positioning” is set to 70%. Note 9) Push force when driver card parameter No. 38, “Push torque limit during positioning” is set to 20%.
Although this parameter can be set to a desired value from 15 to 70%, push force will not stabilize if the set value
is outside the range of 35 to 70%.
Top position
Tool
Fig. 1
Bottom position
Tool
Fig. 2
40
Center of rotational axis
Tool
Tool’s center of gravity
Fig. 3
φ
100
Fig. 4
Center of rotational axis
Tool
Reference design standards: Annex I to Machine Directives, EN292-1, EN292-2, EN1050, EN60204-1, EN775
56
Page 65

7.2 IX-NSN5016H/6016H

IX-NSN5016H (Arm length 500, high-speed)
Item Specifications
Type IX-NSN-5016H-**L-T1
Degree of freedom Four degrees of freedom
Overall arm length 500
Arm 1 length 250
Arm 2 length Drive method
Motor capacity
Movement range
Maximum operating speed (Note 2)
Positioning repeatability precision (Note
3) Cycle time (Note 4)
Load capacity
Axis 3 (vertical axis) Push force control range Permissible load on axis 4
Permissible tool diameter (Note 8) mm
Home detection Absolute
User wiring
Alarm indicator (Note 9) One small, red LED indicator (rated voltage: 24 V)
User piping
Axis 1 (arm 1) AC servo motor + Speed reducer
Axis 2 (arm 2) AC servo motor + Speed reducer
Axis 3 (vertical axis) AC servo motor with brake + Belt + Ball-screw spline
Axis 4 (rotational axis)
Axis 1 (arm 1) 750
Axis 2 (arm 2) 600
Axis 3 (vertical axis) 200
Axis 4 (rotational axis)
Axis 1 (arm 1)
Axis 2 (arm 2)
Axis 3 (vertical axis) (Note 1) mm 160
Axis 4 (rotational axis) degree Axis 1 + Axis 2 (maximum
composite speed) Axis 3 (vertical axis)
Axis 4 (rotational axis) degree/sec 1857
Axis 1 + Axis 2
Axis 3 (vertical axis)
Axis 4 (rotational axis) degree
Rated 1
Maximum
Upper limit (Note 5) 196 (20.0) Push torque limit 65%
Lower limit (Note 6)
Permissible moment of inertia (Note 7)
Permissible torque
mm
250
AC servo motor with brake + Reduction gear + Belt
+Spline
W
100
degree
mm/sec
mm
sec Over 0.28, under 0.29 sec
kg
N (kgf)
kgm
m (kgfcm)
N
2
D-sub 25-pin connector with 25-core AWG26 shielded
Two air tubes (outer diameter: 6, inner diameter: 4)
Two air tubes (outer diameter: 4, inner diameter: 2.5)
116 (11.8) Push torque limit 40%
(normal service pressure: 0.8 MPa)
(normal service pressure: 0.8 MPa)
120
145
360
5007
1304
0.010
0.010
0.010
3
0.015
3.7 (38.1)
100
cable (socket)
7. Specifications
57
Page 66
Item Specifications
φ
Operating environment
Robot weight
Brake power source for main unit W
Controller
Note 1) To move the robot horizontally at high speed, perform teaching so that the vertical axis stays as close
Note 2) Assuming PTP instruction operation. The maximum composite speed is not the maximum speed of CP
Note 3) Positioning precision when the robot is operated repeatedly to one specified position from the same
7. Specifications
Note 4) Measured when the robot is operated at the maximum speed, carrying a load of 2 kg. Note 5) Push force when driver card parameter No. 38, “Push torque limit during positioning” is set to 70%. Note 6) Push force when driver card parameter No. 38, “Push torque limit during positioning” is set to 20%.
Note 7) The permissible moment of inertia converted to a value at the rotational center of axis 4. The offset
Note 8) If the tool exceeds the permissible diameter, it will contact the robot inside the robot’s range of
Note 9) To enable the alarm LED indicator, the user must provide a circuit that supplies 24 VDC to the LED
Surrounding air temperature/humidity
Temperature: 0 to 40°C, humidity: 20 to 85%RH or
less (non-condensing)
sselro000,1medutitlA
BdesioN 73
kg
32
DC24VI10% 20W
Power supply 230 V 50/60 Hz 14 A Allowable supply voltage fluctuation
%
±10
Overvoltage category (IEC60664-1) Category III
3eergednoitulloP)1-46606CEI(eergednoitulloP
to the top position as possible. (Fig. 1) To operate the robot with its vertical axis at the bottom position, the speed and acceleration must be reduced as appropriate. (Fig. 2)
operation.
starting position at the same speed and acceleration/deceleration using the same arm (at a constant surrounding air temperature of 20°C). Take note that this is not the absolute positioning precision. Also note that the positioning repeatability may deviate from the specified value if the arm is changed, positioning is performed to one specified position from multiple positions, or any of the operating conditions such as operating speed and acceleration/deceleration setting is changed.
Although this parameter can be set to a desired value from 15 to 70%, push force will not stabilize if the set value is outside the range of 40 to 65%.
from the rotational center of axis 4 to the tool’s center of gravity is assumed to be 40 mm or less. (Fig.
3) If the tool’s center of gravity is further away from the rotational center of axis 4, the speed and acceleration must be reduced as appropriate.
movement. (Fig. 4)
terminal in the user connector in response to the controller I/O output signal, etc.
Top position
(Fig. 1)
Tool
Bottom position
Tool
(Fig. 2)
(Fig. 3)
Tool
Tool’s center of gravity
(Fig. 4)
Tool
100
Reference design standards: Annex I to Machine Directives, EN292-1, EN292-2, EN1050, EN60204-1, EN775
58
Page 67
IX-NSN6016H (Arm length 600, high-speed)
Item Specifications
Type IX-NSN-6016H-**L-T1
Degree of freedom Four degrees of freedom
Overall arm length 600
Arm 1 length 350
Arm 2 length Drive method
Motor capacity
Movement range
Maximum operating speed (Note 2)
Positioning repeatability precision (Note
3) Cycle time (Note 4)
Load capacity
Axis 3 (vertical axis) Push force control range Permissible load on axis 4
Permissible tool diameter (Note 8) mm
Home detection Absolute
User wiring
Alarm indicator (Note 9) One small, red LED indicator (rated voltage: 24 V)
User piping
Axis 1 (arm 1) AC servo motor + Speed reducer
Axis 2 (arm 2) AC servo motor + Speed reducer
Axis 3 (vertical axis) AC servo motor with brake + Belt + Ball-screw spline
Axis 4 (rotational axis)
Axis 1 (arm 1) 750
Axis 2 (arm 2) 600
Axis 3 (vertical axis) 200
Axis 4 (rotational axis)
Axis 1 (arm 1)
Axis 2 (arm 2)
Axis 3 (vertical axis) (Note 1) mm 160
Axis 4 (rotational axis) degree Axis 1 + Axis 2 (maximum
composite speed) Axis 3 (vertical axis)
Axis 4 (rotational axis) degree/sec 1857
Axis 1 + Axis 2
Axis 3 (vertical axis)
Axis 4 (rotational axis) degree
Rated 1
Maximum
Upper limit (Note 5) 196 (20.0) Push torque limit 65%
Lower limit (Note 6)
Permissible moment of inertia (Note 7)
Permissible torque
mm
250
AC servo motor with brake + Reduction gear + Belt
+Spline
W
100
degree
mm/sec
mm
sec Over 0.28, under 0.29 sec
kg
N (kgf)
kg
m
m (kgfcm)
N
2
D-sub 25-pin connector with 25-core AWG26 shielded
Two air tubes (outer diameter: 6, inner diameter: 4)
Two air tubes (outer diameter: 4, inner diameter: 2.5)
116 (11.8) Push torque limit 40%
(normal service pressure: 0.8 MPa)
(normal service pressure: 0.8 MPa)
120
145
360
5583
1304
0.010
0.010
0.010
3
0.015
3.7 (38.1)
100
cable (socket)
7. Specifications
59
Page 68
Item Specifications
φ
Operating environment
Robot weight kg 33
Brake power source for main unit W
Controller
Note 1) To move the robot horizontally at high speed, perform teaching so that the vertical axis stays as close
Note 2) Assuming PTP instruction operation. The maximum composite speed is not the maximum speed of CP
Note 3) Positioning precision when the robot is operated repeatedly to one specified position from the same
7. Specifications
Note 4) Measured when the robot is operated at the maximum speed, carrying a load of 2 kg. Note 5) Push force when driver card parameter No. 38, “Push torque limit during positioning” is set to 70%. Note 6) Push force when driver card parameter No. 38, “Push torque limit during positioning” is set to 20%.
Note 7) The permissible moment of inertia converted to a value at the rotational center of axis 4. The offset
Note 8) If the tool exceeds the permissible diameter, it will contact the robot inside the robot’s range of
Note 9) To enable the alarm LED indicator, the user must provide a circuit that supplies 24 VDC to the LED
Surrounding air temperature/humidity
Temperature: 0 to 40°C, humidity: 20 to 85%RH or
less (non-condensing)
sselro000,1medutitlA
BdesioN 73
DC24VI10% 20W
Power supply 230 V 50/60 Hz 14 A Allowable supply voltage fluctuation
%
±10
Overvoltage category (IEC60664-1) Category III
3eergednoitulloP)1-46606CEI(eergednoitulloP
to the top position as possible. (Fig. 1) To operate the robot with its vertical axis at the bottom position, the speed and acceleration must be reduced as appropriate. (Fig. 2)
operation.
starting position at the same speed and acceleration/deceleration using the same arm (at a constant surrounding air temperature of 20°C). Take note that this is not the absolute positioning precision. Also note that the positioning repeatability may deviate from the specified value if the arm is changed, positioning is performed to one specified position from multiple positions, or any of the operating conditions such as operating speed and acceleration/deceleration setting is changed.
Although this parameter can be set to a desired value from 15 to 70%, push force will not stabilize if the set value is outside the range of 40 to 65%.
from the rotational center of axis 4 to the tool’s center of gravity is assumed to be 40 mm or less. (Fig.
3) If the tool’s center of gravity is further away from the rotational center of axis 4, the speed and acceleration must be reduced as appropriate.
movement. (Fig. 4)
terminal in the user connector in response to the controller I/O output signal, etc.
Top position
(Fig. 1)
Tool
Bottom position
Tool
(Fig. 2)
(Fig. 3)
Tool
Tool’s center of gravity
(Fig. 4)
Tool
100
Reference design standards: Annex I to Machine Directives, EN292-1, EN292-2, EN1050, EN60204-1, EN775
60
Page 69
7.3 IX-NNW50H/60H/70H/80H
IX-NNW50H (arm length 500, dust-proof/splash-proof specification)
Item Specifications Model number IX-NNW50H-**L-T1 Dust-proof/splash-proof performance (Note 12) Corresponding to IP65 Overall arm length 500 Arm 1 length 250 Arm 2 length Drive method
Motor capacity
Movement range
Maximum operating speed (Note 2)
Positioning repeatability precision (Note
3) Cycle time (Note 4) sec 0.43
axis) Push force control range
Permissible load on axis 4
Permissible tool diameter (Note 6) mm Home detection Absolute User wiring (Note 10) Waterproof connector, 24 pins (including a shield terminal) Pipe joint for air purge Alarm indicator (Note 7) One small, red LED indicator (rated voltage: 24 V)
User piping
Axis 1 (arm 1) AC servo motor + Speed reducer Axis 2 (arm 2) AC servo motor + Speed reducer Axis 3 (vertical axis) AC servo motor with brake + Belt + Ball-screw spline Axis 4 (rotational axis) AC servo motor + Belt + Reduction gear + Spline Axis 1 (arm 1) 400 Axis 2 (arm 2) 200 Axis 3 (vertical axis) 200 Axis 4 (rotational axis) Axis 1 (arm 1)
Axis 2 (arm 2) Axis 3 (vertical axis) (Note 1) mm 200 (option: 300) Axis 4 (rotational axis) degree Axis 1 + Axis 2 (maximum
composite speed) Axis 3 (vertical axis) Axis 4 (rotational axis) degree/sec 1857 Axis 1 + Axis 2
Axis 3 (vertical axis)
Axis 4 (rotational axis) degree
Rated 2 Load capacity Maximum Upper limit (Note 8) 181.0 (18.5) Push torque limit 70% Axis 3 (vertical
Lower limit (Note 9)
Permissible moment of inertia (Note 5)
Permissible torque
mm
W
degree
mm/sec
mm
kg
N (kgf)
kg
m
N
m (kgfcm)
250
50
120
145
360
6381
1473
0.010
0.010
0.005
10
93 (9.5) Push torque limit 40%
2
Applicable tube: Outer diameter 6
Two air tubes (outer diameter: 6, inner diameter: 4)
(normal service pressure: 0.8 MPa)
Two air tubes (outer diameter: 4, inner diameter: 2.5)
(normal service pressure: 0.8 MPa)
0.06
37. (38.1)
100
7. Specifications
61
Page 70
Item Specifications Operating environment
Robot weight
Brake power source for main unit W
Air purge pressure (Note 11)
Controller (Note 13)
Note 1) To move the robot horizontally at high speed, perform teaching so that the vertical axis stays as close to the top position as
Note 2) Assuming PTP instruction operation. The maximum composite speed is not the maximum speed of CP operation. Note 3) Positioning precision when the robot is operated repeatedly to one specified position from the same starting position at the same
Note 4) Measured when the robot is operated at the maximum speed, carrying a load of 2 kg.
7. Specifications
Note: Continuous operation at the
Surrounding air temperature/humidity
Temperature: 0 to 40°C, humidity: 20 to 85%RH or less
(non-condensing)
sselro000,1medutitlA
BdesioN 73
kg
32.5
DC24VI10% 20W
Pressure in a range of 0.05 to 0.6 MPa immediately before
the bellows inflates Power supply 230 V 50/60 Hz 8 A Allowable supply voltage fluctuation
%
±10
Overvoltage category (IEC IIIyrogetaC)1-46606
3eergednoitulloP)1-46606CEI(eergednoitulloP
possible. (Fig. 1) To operate the robot with its vertical axis at the bottom position, the speed and acceleration must be reduced as appropriate. (Fig. 2)
speed and acceleration/deceleration using the same arm (at a constant surrounding air temperature of 20°C). Take note that this is not the absolute positioning precision. Also note that the positioning repeatability may deviate from the specified value if the arm is changed, positioning is performed to one specified position from multiple positions, or any of the operating conditions such as operating speed and acceleration/deceleration setting is changed.
This cycle time assumes a reciprocating operation involving a vertical travel of 25 mm and horizontal travel of 300 mm. (Rough positioning)
300 mm
maximum speed is not feasible.
25 mm
Note 5) The permissible moment of inertia converted to a value at the rotational center of axis 4. The offset from the rotational center of
axis 4 to the tool’s center of gravity is assumed to be 50 mm or less. (Fig. 3) If the tool’s center of gravity is further away from the rotational center of axis 4, the speed and acceleration must be reduce d as
appropriate. Note 6) If the tool exceeds the permissible diameter, it will contact the robot inside the robot’s range of movement. (Fig. 4) Note 7) To enable the alarm LED indicator, the user must provide a circuit that supplies 24 VDC to the LED terminal in the user connector
in response to the controller I/O output signal, etc. Note 8) Push force when driver card parameter No. 38, “Push torque limit during positioning” is set to 70%. Note 9) Push force when driver card parameter No. 38, “Push torque limit during positioning” is set to 20%.
Although this parameter can be set to a desired value from 15 to 70%, push force will not stabilize if the set value is outside the
range of 40 to 70%. Note 10) Connector pins 1 to 23 can be used. Pin 24 is connected to a shield wire and cannot be used as a signal wire. Note 11) Increase the pressure to a level within a range of 0.05 to 0.6 MPa until immediately before the bellows inflates, and adjust the
flow rate using the speed controller. The fluid used should be clean, dry air free from compressor oil, etc., and the air filtration
rating should be 10 μm or less. Note 12) The dust-proof/splash-proof specification is based on a dust-proof/splash-proof structure corresponding to protection class IP65
against intrusion of water and powder dust as specified by the IEC standard. The structure is not explosion-proof. Note 13) The controller structure is not dust-proof or splash-proof.
Top position
Tool
(Fig. 1)
Bottom position
Tool
(Fig. 2)
40
Center of rotational axis
Tool’s center of gravity
(Fig. 3)
Tool
φ
100
(Fig. 4)
Center of rotational axis
Tool
Reference design standards: Annex I to Machine Directives, EN292-1, EN292-2, EN1050, EN60204-1, EN775
62
Page 71
IX-NNW60H (arm length 600, dust-proof/splash-proof specification)
Item Specifications Model number IX-NNW60H-**L-T1 Dust-proof/splash-proof performance Corresponding to IP65 Overall arm length 600 Arm 1 length 350 Arm 2 length Drive method
Motor capacity
Movement range
Maximum operating speed (Note 2)
Positioning repeatability precision (Note
3) Cycle time (Note 4) sec 0.47
axis) Push force control range
Permissible load on axis 4
Permissible tool diameter (Note 6) mm Home detection Absolute User wiring (Note 10) Waterproof connector, 24 pins (including a shield terminal) Pipe joint for air purge Alarm indicator (Note 7) One small, red LED indicator (rated voltage: 24 V)
User piping
Axis 1 (arm 1) AC servo motor + Speed reducer Axis 2 (arm 2) AC servo motor + Speed reducer Axis 3 (vertical axis) AC servo motor with brake + Belt + Ball-screw spline Axis 4 (rotational axis) AC servo motor + Belt + Reduction gear + Spline Axis 1 (arm 1) 400 Axis 2 (arm 2) 200 Axis 3 (vertical axis) 200 Axis 4 (rotational axis) Axis 1 (arm 1)
Axis 2 (arm 2) Axis 3 (vertical axis) (Note 1) mm 200 (option: 300) Axis 4 (rotational axis) degree Axis 1 + Axis 2 (maximum
composite speed) Axis 3 (vertical axis) Axis 4 (rotational axis) degree/sec 1200 Axis 1 + Axis 2
Axis 3 (vertical axis)
Axis 4 (rotational axis) degree
Rated 2 Load capacity Maximum Upper limit (Note 8) 181.0 (18.5) Push torque limit 70% Axis 3 (vertical
Lower limit (Note 9)
Permissible moment of inertia (Note 5)
Permissible torque
mm
W
degree
mm/sec
mm
kg
N (kgf)
m
kg
m (kgfcm)
N
250
100
120
145
360
7232
1393
0.010
0.010
0.005
10
93 (9.5) Push torque limit 40%
2
Applicable tube: Outer diameter 6
Two air tubes (outer diameter: 6, inner diameter: 4)
(normal service pressure: 0.8 MPa)
Two air tubes (outer diameter: 4, inner diameter: 2.5)
(normal service pressure: 0.8 MPa)
0.06
37. (38.1)
100
7. Specifications
63
Page 72
Item Specifications Operating environment
Robot weight kg 34.5
Brake power source for main unit
Air purge pressure (Note 11)
Controller (Note 13)
Note 1) To move the robot horizontally at high speed, perform teaching so that the vertical axis stays as close to the top position as
Note 2) Assuming PTP instruction operation. The maximum composite speed is not the maximum speed of CP operation. Note 3) Positioning precision when the robot is operated repeatedly to one specified position from the same starting position at the same
Note 4) Measured when the robot is operated at the maximum speed, carrying a load of 2 kg.
7. Specifications
Note: Continuous operation at the
Surrounding air temperature/humidity
Temperature: 0 to 40°C, humidity: 20 to 85%RH or less
(non-condensing)
sselro000,1medutitlA
BdesioN 73
W
DC24VI10% 20W
Pressure in a range of 0.05 to 0.6 MPa immediately before
the bellows inflates Power supply 230 V 50/60 Hz 8 A Allowable supply voltage fluctuation
%
±10
Overvoltage category (IEC IIIyrogetaC)1-46606
3eergednoitulloP)1-46606CEI(eergednoitulloP
possible. (Fig. 1) To operate the robot with its vertical axis at the bottom position, the speed and acceleration must be reduced as appropriate. (Fig. 2)
speed and acceleration/deceleration using the same arm (at a constant surrounding air temperature of 20°C). Take note that this is not the absolute positioning precision. Also note that the positioning repeatability may deviate from the specified value if the arm is changed, positioning is performed to one specified position from multiple positions, or any of the operating conditions such as operating speed and acceleration/deceleration setting is changed.
This cycle time assumes a reciprocating operation involving a vertical travel of 25 mm and horizontal travel of 300 mm. (Rough positioning)
300 mm
maximum speed is not feasible.
25 mm
Note 5) The permissible moment of inertia converted to a value at the rotational center of axis 4. The offset from the rotational center of
axis 4 to the tool’s center of gravity is assumed to be 50 mm or less. (Fig. 3) If the tool’s center of gravity is further away from the rotational center of axis 4, the speed and acceleration must be reduce d as
appropriate. Note 6) If the tool exceeds the permissible diameter, it will contact the robot inside the robot’s range of movement. (Fig. 4) Note 7) To enable the alarm LED indicator, the user must provide a circuit that supplies 24 VDC to the LED terminal in the user connector
in response to the controller I/O output signal, etc. Note 8) Push force when driver card parameter No. 38, “Push torque limit during positioning” is set to 70%. Note 9) Push force when driver card parameter No. 38, “Push torque limit during positioning” is set to 20%.
Although this parameter can be set to a desired value from 15 to 70%, push force will not stabilize if the set value is outside the
range of 40 to 70%. Note 10) Connector pins 1 to 23 can be used. Pin 24 is connected to a shield wire and cannot be used as a signal wire. Note 11) Increase the pressure to a level within a range of 0.05 to 0.6 MPa until immediately before the bellows inflates, and adjust the
flow rate using the speed controller. The fluid used should be clean, dry air free from compressor oil, etc., and the air filtration
rating should be 10 μm or less. Note 12) The dust-proof/splash-proof specification is based on a dust-proof/splash-proof structure corresponding to protection class IP65
against intrusion of water and powder dust as specified by the IEC standard. The structure is not explosion-proof. Note 13) The controller structure is not dust-proof or splash-proof.
Top position
Tool
(Fig. 1)
Bottom position
Tool
(Fig. 2)
40
Center of rotational axis
Tool’s center of gravity
(Fig. 3)
Tool
φ 100
(Fig. 4)
Center of rotational axis
Tool
Reference design standards: Annex I to Machine Directives, EN292-1, EN292-2, EN1050, EN60204-1, EN775
64
Page 73
IX-NNW70H (arm length 700, dust-proof/splash-proof specification)
Item Specifications Model number IX-NNW70H-**L-T1 Dust-proof/splash-proof performance (Note 12) Corresponding to IP65 Degree of freedom Four degrees of freedom Overall arm length 700 Arm 1 length 350 Arm 2 length Drive method
Motor capacity
Movement range
Maximum operating speed (Note 2)
Positioning repeatability precision (Note
3) Cycle time (Note 4) sec 0.45
axis) Push force control range
Permissible load on axis 4
Permissible tool diameter (Note 6) mm Home detection Absolute User wiring (Note 10) Waterproof connector, 24 pins (including a shield terminal) Pipe joint for air purge Alarm indicator (Note 7) One small, red LED indicator (rated voltage: 24 V)
User piping
Axis 1 (arm 1) AC servo motor + Speed reducer Axis 2 (arm 2) AC servo motor + Speed reducer Axis 3 (vertical axis) AC servo motor with brake + Belt + Ball-screw spline Axis 4 (rotational axis) AC servo motor + Belt + Reduction gear + Spline Axis 1 (arm 1) 750 Axis 2 (arm 2) 400 Axis 3 (vertical axis) 400 Axis 4 (rotational axis) Axis 1 (arm 1)
Axis 2 (arm 2) Axis 3 (vertical axis) (Note 1) mm 200 (option: 400) Axis 4 (rotational axis) degree Axis 1 + Axis 2 (maximum
composite speed) Axis 3 (vertical axis) Axis 4 (rotational axis) degree/sec 1266 Axis 1 + Axis 2
Axis 3 (vertical axis)
Axis 4 (rotational axis) degree
Rated 5 Load capacity Maximum Upper limit (Note 8) 304 (31.0) Push torque limit 70% Axis 3 (vertical
Lower limit (Note 9)
Permissible moment of inertia (Note 5)
Permissible torque
mm
W
degree
mm/sec
mm
kg
N (kgf)
m
kg
m (kgfcm)
N
350
200
125
145
360
7010
1614
0.015
0.010
0.005
20
146 (14.9) Push torque limit 40%
2
Applicable tube: Outer diameter 6
Two air tubes (outer diameter: 6, inner diameter: 4)
(normal service pressure: 0.8 MPa)
Two air tubes (outer diameter: 4, inner diameter: 2.5)
(normal service pressure: 0.8 MPa)
0.1
11.7 (119.3)
100
7. Specifications
65
Page 74
Item Specifications Operating
environment
Robot weight kg 60
Brake power source for main unit W
Air purge pressure (Note 11) 0.2 to 0.3 MPa Controller
(Note 13)
Note 1) To move the robot horizontally at high speed, perform teaching so that the vertical axis stays as close to the top position as
Note 2) Assuming PTP instruction operation. The maximum composite speed is not the maximum speed of CP operation. Note 3) Positioning precision when the robot is operated repeatedly to one specified position from the same starting position at the same
Note 4) Measured when the robot is operated at the maximum speed, carrying a load of 5 kg.
7. Specifications
Note: Continuous operation at the
Surrounding air temperature/humidity
Temperature: 0 to 40°C
sselro000,1medutitlA
BdesioN 74
DC24VI10% 20W
Power supply 230 V 50/60 Hz 15 A Allowable supply voltage
fluctuation
%
±10
Overvoltage category (IEC IIIyrogetaC)1-46606
3eergednoitulloP)1-46606CEI(eergednoitulloP
possible. (Fig. 1)
To operate the robot with its vertical axis at the bottom position, the speed and acceleration must be reduced as appropriate.
(Fig. 2)
speed and acceleration/deceleration using the same arm (at a constant surrounding air temperature of 20°C). Take note that this
is not the absolute positioning precision.
Also note that the positioning repeatability may deviate from the specified value if the arm is changed, positioning is performed to
one specified position from multiple positions, or any of the operating conditions such as operating speed and
acceleration/deceleration setting is changed.
This cycle time assumes a reciprocating operation involving a vertical travel of 25 mm and horizontal travel of 300 mm. (Rough
positioning)
300 mm
maximum speed is not feasible.
25 mm
Note 5) The permissible moment of inertia converted to a value at the rotational center of axis 4. The offset from the rotational center of
axis 4 to the tool’s center of gravity is assumed to be 50 mm or less. (Fig. 3)
If the tool’s center of gravity is further away from the rotational center of axis 4, the speed and acceleration must be reduce d as
appropriate. Note 6) If the tool exceeds the permissible diameter, it will contact the robot inside the robot’s range of movement. (Fig. 4) Note 7) To enable the alarm LED indicator, the user must provide a circuit that supplies 24 VDC to the LED terminal in the user connector
in response to the controller I/O output signal, etc. Note 8) Push force when driver card parameter No. 38, “Push torque limit during positioning” is set to 70%. Note 9) Push force when driver card parameter No. 38, “Push torque limit during positioning” is set to 20%.
Although this parameter can be set to a desired value from 15 to 70%, push force will not stabilize if the set value is outside the
range of 35 to 70%. Note 10) Connector pins 1 to 23 can be used. Pin 24 is connected to a shield wire and cannot be used as a signal wire. Note 11) The designed dust-proof/splash-proof performance can be demonstrated by applying 0.2 to 0.3 MPa of pressure from the a ir
supply port. The speed controller is already adjusted to the specified pressure. The fluid used should be clean, dry air free from
compressor oil, etc., and the air filtration rating should be 10 μm or less. Note 12) The dust-proof/splash-proof specification is based on a dust-proof/splash-proof structure corresponding to protection class IP65
against intrusion of water and powder dust as specified by the IEC standard. The structure is not explosion-proof. Note 13) The controller structure is not dust-proof or splash-proof.
Top position
Tool
(Fig. 1)
Bottom position
Tool
(Fig. 2)
40
Center of rotational axis
Tool’s center of gravity
(Fig. 3)
Tool
φ
100
(Fig. 4)
Center of rotational axis
Tool
Reference design standards: Annex I to Machine Directives, EN292-1, EN292-2, EN1050, EN60204-1, EN775
66
Page 75
IX-NNW80H (arm length 800, dust-proof/splash-proof specification)
Item Specifications Model number IX-NNW80H-**L-T1 Dust-proof/splash-proof performance (Note 12) Corresponding to IP65 Degree of freedom Four degrees of freedom Overall arm length 800 Arm 1 length 450 Arm 2 length Drive method
Motor capacity
Movement range
Maximum operating speed (Note 2)
Positioning repeatability precision (Note
3) Cycle time (Note 4) sec 0.45
axis) Push force control range
Permissible load on axis 4
Permissible tool diameter (Note 6) mm Home detection Absolute User wiring (Note 10) Waterproof connector, 24 pins (including a shield terminal) Pipe joint for air purge Alarm indicator (Note 7) One small, red LED indicator (rated voltage: 24 V)
User piping
Axis 1 (arm 1) AC servo motor + Speed reducer Axis 2 (arm 2) AC servo motor + Speed reducer Axis 3 (vertical axis) AC servo motor with brake + Belt + Ball-screw spline Axis 4 (rotational axis) AC servo motor + Belt + Reduction gear + Spline Axis 1 (arm 1) 750 Axis 2 (arm 2) 400 Axis 3 (vertical axis) 400 Axis 4 (rotational axis) Axis 1 (arm 1)
Axis 2 (arm 2) Axis 3 (vertical axis) (Note 1) mm 200 (option: 300) Axis 4 (rotational axis) degree Axis 1 + Axis 2 (maximum
composite speed) Axis 3 (vertical axis) Axis 4 (rotational axis) degree/sec 1266 Axis 1 + Axis 2
Axis 3 (vertical axis)
Axis 4 (rotational axis) degree
Rated 5 Load capacity Maximum Upper limit (Note 8) 304 (31.0) Push torque limit 70% Axis 3 (vertical
Lower limit (Note 9)
Permissible moment of inertia (Note 5)
Permissible torque
mm
W
degree
mm/sec
mm
kg
N (kgf)
m
kg
m (kgfcm)
N
350
200
125
145
360
7010
1614
0.015
0.010
0.005
20
146 (14.9) Push torque limit 40%
2
Applicable tube: Outer diameter 6
Two air tubes (outer diameter: 6, inner diameter: 4)
(normal service pressure: 0.8 MPa)
Two air tubes (outer diameter: 4, inner diameter: 2.5)
(normal service pressure: 0.8 MPa)
0.1
11.7 (119.3)
100
7. Specifications
67
Page 76
Item Specifications Operating
environment
Robot weight kg 62
Brake power source for main unit W
Air purge pressure (Note 11) 0.2 to 0.3 MPa Controller
(Note 13)
Note 1) To move the robot horizontally at high speed, perform teaching so that the vertical axis stays as close to the top position as
Note 2) Assuming PTP instruction operation. The maximum composite speed is not the maximum speed of CP operation. Note 3) Positioning precision when the robot is operated repeatedly to one specified position from the same starting position at the same
Note 4) Measured when the robot is operated at the maximum speed, carrying a load of 5 kg.
7. Specifications
Note: Continuous operation at the
Surrounding air temperature/humidity
Temperature: 0 to 40°C
sselro000,1medutitlA
BdesioN 74
DC24VI10% 20W
Power supply 230 V 50/60 Hz 15 A Allowable supply voltage
fluctuation
%
±10
Overvoltage category (IEC IIIyrogetaC)1-46606
3eergednoitulloP)1-46606CEI(eergednoitulloP
possible. (Fig. 1)
To operate the robot with its vertical axis at the bottom position, the speed and acceleration must be reduced as appropriate.
(Fig. 2)
speed and acceleration/deceleration using the same arm (at a constant surrounding air temperature of 20
°C). Take note that this
is not the absolute positioning precision.
Also note that the positioning repeatability may deviate from the specified value if the arm is changed, positioning is performed to
one specified position from multiple positions, or any of the operating conditions such as operating speed and
acceleration/deceleration setting is changed.
This cycle time assumes a reciprocating operation involving a vertical travel of 25 mm and horizontal travel of 300 mm. (Rough
positioning)
300 mm
maximum speed is not feasible.
25 mm
Note 5) The permissible moment of inertia converted to a value at the rotational center of axis 4. The offset from the rotational center of
axis 4 to the tool’s center of gravity is assumed to be 50 mm or less. (Fig. 3)
If the tool’s center of gravity is further away from the rotational center of axis 4, the speed and acceleration must be reduce d as
appropriate. Note 6) If the tool exceeds the permissible diameter, it will contact the robot inside the robot’s range of movement. (Fig. 4) Note 7) To enable the alarm LED indicator, the user must provide a circuit that supplies 24 VDC to the LED terminal in the user connector
in response to the controller I/O output signal, etc. Note 8) Push force when driver card parameter No. 38, “Push torque limit during positioning” is set to 70%. Note 9) Push force when driver card parameter No. 38, “Push torque limit during positioning” is set to 20%.
Although this parameter can be set to a desired value from 15 to 70%, push force will not stabilize if the set value is outside the
range of 35 to 70%. Note 10) Connector pins 1 to 23 can be used. Pin 24 is connected to a shield wire and cannot be used as a signal wire. Note 11) The designed dust-proof/splash-proof performance can be demonstrated by applying 0.2 to 0.3 MPa of pressure from the a ir
supply port. The speed controller is already adjusted to the specified pressure. The fluid used should be clean, dry air free from
compressor oil, etc., and the air filtration rating should be 10 μm or less. Note 12) The dust-proof/splash-proof specification is based on a dust-proof/splash-proof structure corresponding to protection class IP65
against intrusion of water and powder dust as specified by the IEC standard. The structure is not explosion-proof. Note 13) The controller structure is not dust-proof or splash-proof.
Top position
Tool
((Fig. 1)
Bottom position
Tool
(Fig. 2)
40
Center of rotational axis
Tool’s center of gravity
(Fig. 3)
Tool
φ
100
(Fig. 4)
Center of rotational axis
Tool
Reference design standards: Annex I to Machine Directives, EN292-1, EN292-2, EN1050, EN60204-1, EN775
68
Page 77
7.4 IX-NNC50H/60H/70H/80H
IX-NNC50H (arm length 500, clean specification)
Item Specifications
Type IX-NNC50H-L-T1
Degree of freedom Four degrees of freedom
Overall arm length 500
Arm 1 length 250
Arm 2 length Drive method
Motor capacity
Movement range
Maximum operating speed (Note 2)
Positioning repeatability precision (Note
3) Cycle time (Note 4)
Load capacity
Push-in thrust of axis 3 (vertical axis) Permissible load on axis 4
Permissible tool diameter (Note 6) mm
Home detection Absolute
User wiring
Alarm indicator (Note 9) One small, red LED indicator (rated voltage: 24 V)
Axis 1 (arm 1) AC servo motor + Speed reducer
Axis 2 (arm 2) AC servo motor + Speed reducer
Axis 3 (vertical axis) AC servo motor with brake + Belt + Ball-screw spline
Axis 4 (rotational axis)
Axis 1 (arm 1) 400
Axis 2 (arm 2) 200
Axis 3 (vertical axis) 200
Axis 4 (rotational axis)
Axis 1 (arm 1)
Axis 2 (arm 2)
Axis 3 (vertical axis) (Note 1) mm 200 (option: 300)
Axis 4 (rotational axis) degree Axis 1 + Axis 2 (maximum
composite speed) Axis 3 (vertical axis)
Axis 4 (rotational axis) degree/sec 1857
Axis 1 + Axis 2
Axis 3 (vertical axis)
Axis 4 (rotational axis) degree
Rated 2
Maximum
Dynamic (Note 8) 181.0 (18.5) Push torque limit 70%
Static (Note 9)
Permissible moment of inertia (Note 5)
Permissible torque
mm
250
AC servo motor with brake + Reduction gear + Belt
+Spline
W
100
degree
mm/sec
mm
sec 0.41
kg
N (kgf)
2
kgm
Nm (kgfcm)
D-sub 25-pin connector with 25-core AWG26 shielded
93 (9.5) Push torque limit 40%
120
145
360
6381
1473
0.010
0.010
0.005
10
0.06
3.7 (38.1)
100
cable (socket)
7. Specifications
Suction pipe joint
User piping
Applicable tube: Outer diameter 12 (inner diameter 8)
Two air tubes (outer diameter: 6, inner diameter: 4)
(normal service pressure: 0.8 MPa)
Two air tubes (outer diameter: 4, inner diameter: 2.5)
(normal service pressure: 0.8 MPa)
69
Page 78
Item Specifications Operating environment
Robot weight kg 31.5
Brake power source for main unit
Cleanness Suction rate (Note 10) Nl/min 60 Controller
Note 1) To move the robot horizontally at high speed, perform teaching so that the vertical axis stays as close to
Note 2) Assuming PTP instruction operation. The maximum composite speed is not the maximum speed of CP
Note 3) Positioning precision when the robot is operated repeatedly to one specified position from the same
7. Specifications
Note 4) Measured when the robot is operated at the maximum speed, carrying a load of 2 kg. Note 5) The permissible moment of inertia converted to a value at the rotational center of axis 4. The offset from
Note 6) If the tool exceeds the permissible diameter, it will contact the robot inside the robot’s range of movement.
Note 7) To enable the alarm LED indicator, the user must provide a circuit that supplies 24 VDC to the LED
Note 8) Push force when driver card parameter No. 38, “Push torque limit during positioning” is set to 70%. Note 9) Push force when driver card parameter No. 38, “Push torque limit during positioning” is set to 20%.
Note 10) Since the amount of dust raised varies according to the operation pattern, the suction rate must be
Surrounding air temperature/humidity
Temperature: 0 to 40
°C, humidity: 20 to 85%RH or less
(non-condensing)
sselro000,1medutitlA
BdesioN 73
W
DC24VI10% 20W
Class 10 (base: 0.1μm, when suctioning)
Power supply 230 V 50/60 Hz 8 A Allowable supply voltage fluctuation
%
±10
Overvoltage category (IEC60664-1) Category III
3eergednoitulloP)1-46606CEI(eergednoitulloP
the top position as possible. (Fig. 1) To operate the robot with its vertical axis at the bottom position, the speed and acceleration must be reduced as appropriate. (Fig. 2)
operation.
starting position at the same speed and acceleration/deceleration using the same arm (at a constant surrounding air temperature of 20°C). Take note that this is not the absolute positioning precision. Also note that the positioning repeatability may deviate from the specified value if the arm is changed, positioning is performed to one specified position from multiple positions, or any of the operating conditions such as operating speed and acceleration/deceleration setting is changed.
the rotational center of axis 4 to the tool’s center of gravity is assumed to be 50 mm or less. (Fig. 3) If the tool’s center of gravity is further away from the rotational center of axis 4, the speed and acceleration must be reduced as appropriate.
(Fig. 4)
terminal in the user connector in response to the controller I/O output signal, etc.
Although this parameter can be set to a desired value from 15 to 70%, push force will not stabilize if the set value is outside the range of 40 to 70%.
increased if the speed and acceleration/deceleration are high.
Top position
Tool
(Fig. 1)
Bottom position
Tool
(Fig. 2)
40
Center of rotational axis
Tool
Tool’s center of gravity
(Fig. 3)
φ
100
(Fig. 4)
Center of rotational axis
Tool
Reference design standards: Annex I to Machine Directives, EN292-1, EN292-2, EN1050, EN60204-1, EN775
70
Page 79
IX-NNC60H (arm length 600, clean specification)
Item Specifications
Type IX-NNC60H-L-T1
Degree of freedom Four degrees of freedom
Overall arm length 600
Arm 1 length 350
Arm 2 length Drive method
Motor capacity
Movement range
Maximum operating speed (Note 2)
Positioning repeatability precision (Note
3) Cycle time (Note 4)
Load capacity
Push-in thrust of axis 3 (vertical axis) Permissible load on axis 4
Permissible tool diameter (Note 6) mm
Home detection Absolute
User wiring
Alarm indicator (Note 9) One small, red LED indicator (rated voltage: 24 V)
Axis 1 (arm 1) AC servo motor + Speed reducer
Axis 2 (arm 2) AC servo motor + Speed reducer
Axis 3 (vertical axis) AC servo motor with brake + Belt + Ball-screw spline
Axis 4 (rotational axis)
Axis 1 (arm 1) 400
Axis 2 (arm 2) 200
Axis 3 (vertical axis) 200
Axis 4 (rotational axis)
Axis 1 (arm 1)
Axis 2 (arm 2)
Axis 3 (vertical axis) (Note 1) mm 200 (option: 300)
Axis 4 (rotational axis) degree Axis 1 + Axis 2 (maximum
composite speed) Axis 3 (vertical axis)
Axis 4 (rotational axis) degree/sec 1857
Axis 1 + Axis 2
Axis 3 (vertical axis)
Axis 4 (rotational axis) degree
Rated 2
Maximum
Dynamic (Note 8) 181.0 (18.5) Push torque limit 70%
Static (Note 9)
Permissible moment of inertia (Note 5)
Permissible torque
mm
250
AC servo motor with brake + Reduction gear + Belt
+Spline
W
100
degree
mm/sec
mm
sec 0.45
kg
N (kgf)
kg
m
N
m (kgfcm)
2
D-sub 25-pin connector with 25-core AWG26 shielded
93 (9.5) Push torque limit 40%
120
145
360
7232
1473
0.010
0.010
0.005
10
0.06
3.7 (38.1)
100
cable (socket)
7. Specifications
Suction pipe joint
User piping
Applicable tube: Outer diameter 12 (inner diameter 8)
Two air tubes (outer diameter: 6, inner diameter: 4)
(normal service pressure: 0.8 MPa)
Two air tubes (outer diameter: 4, inner diameter: 2.5)
(normal service pressure: 0.8 MPa)
71
Page 80
Item Specifications Operating environment
Robot weight kg 32.5
Brake power source for main unit W
Cleanness Suction rate (Note 10) Nl/min 60 Controller
Note 1) To move the robot horizontally at high speed, perform teaching so that the vertical axis stays as close to
Note 2) Assuming PTP instruction operation. The maximum composite speed is not the maximum speed of CP
Note 3) Positioning precision when the robot is operated repeatedly to one specified position from the same
7. Specifications
Note 4) Measured when the robot is operated at the maximum speed, carrying a load of 2 kg. Note 5) The permissible moment of inertia converted to a value at the rotational center of axis 4. The offset from
Note 6) If the tool exceeds the permissible diameter, it will contact the robot inside the robot’s range of movement.
Note 7) To enable the alarm LED indicator, the user must provide a circuit that supplies 24 VDC to the LED
Note 8) Push force when driver card parameter No. 38, “Push torque limit during positioning” is set to 70%. Note 9) Push force when driver card parameter No. 38, “Push torque limit during positioning” is set to 20%.
Note 10) Since the amount of dust raised varies according to the operation pattern, the suction rate must be
Surrounding air temperature/humidity
Temperature: 0 to 40
°C, humidity: 20 to 85%RH or less
(non-condensing)
sselro000,1medutitlA
BdesioN 73
DC24VI10% 20W
Class 10 (base: 0.1μm, when suctioning)
Power supply 230 V 50/60 Hz 8 A Allowable supply voltage fluctuation
%
±10
Overvoltage category (IEC60664-1) Category III
3eergednoitulloP)1-46606CEI(eergednoitulloP
the top position as possible. (Fig. 1) To operate the robot with its vertical axis at the bottom position, the speed and acceleration must be reduced as appropriate. (Fig. 2)
operation.
starting position at the same speed and acceleration/deceleration using the same arm (at a constant surrounding air temperature of 20°C). Take note that this is not the absolute positioning precision. Also note that the positioning repeatability may deviate from the specified value if the arm is changed, positioning is performed to one specified position from multiple positions, or any of the operating conditions such as operating speed and acceleration/deceleration setting is changed.
the rotational center of axis 4 to the tool’s center of gravity is assumed to be 50 mm or less. (Fig. 3) If the tool’s center of gravity is further away from the rotational center of axis 4, the speed and acceleration must be reduced as appropriate.
(Fig. 4)
terminal in the user connector in response to the controller I/O output signal, etc.
Although this parameter can be set to a desired value from 15 to 70%, push force will not stabilize if the set value is outside the range of 40 to 70%.
increased if the speed and acceleration/deceleration are high.
Top position
Tool
(Fig. 1)
Bottom position
Tool
(Fig. 2)
40
Center of rotational axis
Tool
Tool’s center of gravity
(Fig. 3)
φ
100
(Fig. 4)
Center of rotational axis
Tool
Reference design standards: Annex I to Machine Directives, EN292-1, EN292-2, EN1050, EN60204-1, EN775
72
Page 81
IX-NNC70H (arm length 700, clean)
Item Specifications
Type IX-NNC70H-L-T1
Cleanness (Note 10)
Degree of freedom Four degrees of freedom
Overall arm length 700
Arm 1 length 350
Arm 2 length Drive method
Motor capacity
Movement range
Maximum operating speed (Note 2)
Positioning repeatability precision (Note
3) Cycle time (Note 4)
Load capacity
Push-in thrust of axis 3 (vertical axis) Permissible load on axis 4
Permissible tool diameter (Note 6) mm
Home detection Absolute
User wiring
Alarm indicator (Note 7) One small, red LED indicator (rated voltage: 24 V)
User piping
Axis 1 (arm 1) AC servo motor + Speed reducer
Axis 2 (arm 2) AC servo motor + Speed reducer
Axis 3 (vertical axis) AC servo motor with brake + Belt + Ball-screw spline
Axis 4 (rotational axis)
Axis 1 (arm 1) 750
Axis 2 (arm 2) 400
Axis 3 (vertical axis) 400
Axis 4 (rotational axis)
Axis 1 (arm 1)
Axis 2 (arm 2)
Axis 3 (vertical axis) (Note 1) mm 200 (option: 400)
Axis 4 (rotational axis) degree Axis 1 + Axis 2 (maximum
composite speed) Axis 3 (vertical axis)
Axis 4 (rotational axis) degree/sec 1266
Axis 1 + Axis 2
Axis 3 (vertical axis)
Axis 4 (rotational axis) degree
Rated 5
Maximum
Dynamic (Note 8) 304 (31.0) Push torque limit 70%
Static (Note 9)
Permissible moment of inertia (Note 5)
Permissible torque
mm
AC servo motor with brake + Reduction gear + Belt
W
degree
mm/sec
mm
sec 0.45
kg
N (kgf)
kgm
N
m (kgfcm)
2
D-sub 25-pin connector with 25-core AWG26 shielded
Two air tubes (outer diameter: 6, inner diameter: 4)
Two air tubes (outer diameter: 4, inner diameter: 2.5)
146 (14.9) Push torque limit 40%
(normal service pressure: 0.8 MPa)
(normal service pressure: 0.8 MPa)
Class 10 (0.1 m)
350
+Spline
200
125
145
360
7010
1614
0.015
0.010
0.005
20
0.1
11.7 (119.3)
100
cable (socket)
7. Specifications
73
Page 82
Item Specifications Operating environment
Robot weight kg 60
Brake power source for main unit W
Controller
Note 1) To move the robot horizontally at high speed, perform teaching so that the vertical axis stays as close
Note 2) Assuming PTP instruction operation. The maximum composite speed is not the maximum speed of
Note 3) Positioning precision when the robot is operated repeatedly to one specified position from the same
7. Specifications
Note 4) Measured when the robot is operated at the maximum speed, carrying a load of 5 kg. Note 5) The permissible moment of inertia converted to a value at the rotational center of axis 4. The offset
Note 6) If the tool exceeds the permissible diameter, it will contact the robot inside the robot’s range of
Note 7) To enable the alarm LED indicator, the user must provide a circuit that supplies 24 VDC to the LED
Note 8) Push force when driver card parameter No. 38, “Push torque limit during positioning” is set to 70%. Note 9) Push force when driver card parameter No. 38, “Push torque limit during positioning” is set to 20%.
Note 10) When the suction rate is 80 NI/min (-100 mmAq).
Surrounding air temperature/humidity
Temperature: 0 to 40°C, humidity: 20 to 85%RH or
less (non-condensing)
sselro000,1medutitlA
BdesioN 74
DC24VI10% 20W
Power supply 230 V 50/60 Hz 15 A Allowable supply voltage fluctuation
%
±10
Overvoltage category (IEC60664-1) Category III
3eergednoitulloP)1-46606CEI(eergednoitulloP
to the top position as possible. (Fig. 1) To operate the robot with its vertical axis at the bottom position, the speed and acceleration must be reduced as appropriate. (Fig. 2)
CP operation.
starting position at the same speed and acceleration/deceleration using the same arm (at a constant surrounding air temperature of 20°C). Take note that this is not the absolute positioning precision. Also note that the positioning repeatability may deviate from the specified value if the arm is changed, positioning is performed to one specified position from multiple positions, or any of the operating conditions such as operating speed and acceleration/deceleration setting is changed.
from the rotational center of axis 4 to the tool’s center of gravity is assumed to be 50 mm or less. (Fig.
3) If the tool’s center of gravity is further away from the rotational center of axis 4, the speed and acceleration must be reduced as appropriate.
movement. (Fig. 4)
terminal in the user connector in response to the controller I/O output signal, etc.
Although this parameter can be set to a desired value from 15 to 70%, push force will not stabilize if the set value is outside the range of 35 to 70%.
Top position
Tool
(Fig. 1)
Bottom position
Tool
(Fig. 2)
40
Center of rotational axis
Tool
Tool’s center of gravity
(Fig. 3)
Center of rotational axis
Tool
φ 100
(Fig. 4)
Reference design standards: Annex I to Machine Directives, EN292-1, EN292-2, EN1050, EN60204-1, EN775
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IX-NNC80H (arm length 800, clean)
Item Specifications
Type IX-NNC80H-L-T1
Cleanness (Note 10)
Degree of freedom Four degrees of freedom
Overall arm length 800
Arm 1 length 450
Arm 2 length Drive method
Motor capacity
Movement range
Maximum operating speed (Note 2)
Positioning repeatability precision (Note
3) Cycle time (Note 4)
Load capacity
Push-in thrust of axis 3 (vertical axis) Permissible load on axis 4
Permissible tool diameter (Note 6) mm
Home detection Absolute
User wiring
Alarm indicator (Note 7) One small, red LED indicator (rated voltage: 24 V)
User piping
Axis 1 (arm 1) AC servo motor + Speed reducer
Axis 2 (arm 2) AC servo motor + Speed reducer
Axis 3 (vertical axis) AC servo motor with brake + Belt + Ball-screw spline
Axis 4 (rotational axis)
Axis 1 (arm 1) 750
Axis 2 (arm 2) 400
Axis 3 (vertical axis) 400
Axis 4 (rotational axis)
Axis 1 (arm 1)
Axis 2 (arm 2)
Axis 3 (vertical axis) (Note 1) mm 200 (option: 400)
Axis 4 (rotational axis) degree Axis 1 + Axis 2 (maximum
composite speed) Axis 3 (vertical axis)
Axis 4 (rotational axis) degree/sec 1266
Axis 1 + Axis 2
Axis 3 (vertical axis)
Axis 4 (rotational axis) degree
Rated 5
Maximum
Dynamic (Note 8) 304 (31.0) Push torque limit 70%
Static (Note 9)
Permissible moment of inertia (Note 5)
Permissible torque
mm
AC servo motor with brake + Reduction gear + Belt
W
degree
mm/sec
mm
sec 0.46
kg
N (kgf)
kgm
N
m (kgfcm)
2
D-sub 25-pin connector with 25-core AWG26 shielded
Two air tubes (outer diameter: 6, inner diameter: 4)
Two air tubes (outer diameter: 4, inner diameter: 2.5)
146 (14.9) Push torque limit 40%
(normal service pressure: 0.8 MPa)
(normal service pressure: 0.8 MPa)
Class 10 (0.1 m)
350
+Spline
200
125
145
360
7586
1614
0.015
0.010
0.005
20
0.1
11.7 (119.3)
100
cable (socket)
7. Specifications
75
Page 84
Item Specifications Operating environment
Robot weight
Brake power source for main unit
Controller
Note 1) To move the robot horizontally at high speed, perform teaching so that the vertical axis stays as close
Note 2) Assuming PTP instruction operation. The maximum composite speed is not the maximum speed of
Note 3) Positioning precision when the robot is operated repeatedly to one specified position from the same
7. Specifications
Note 4) Measured when the robot is operated at the maximum speed, carrying a load of 5 kg. Note 5) The permissible moment of inertia converted to a value at the rotational center of axis 4. The offset
Note 6) If the tool exceeds the permissible diameter, it will contact the robot inside the robot’s range of
Note 7) To enable the alarm LED indicator, the user must provide a circuit that supplies 24 VDC to the LED
Note 8) Push force when driver card parameter No. 38, “Push torque limit during positioning” is set to 70%. Note 9) Push force when driver card parameter No. 38, “Push torque limit during positioning” is set to 20%.
Note 10) When the suction rate is 80 NI/min (-100 mmAq).
Surrounding air temperature/humidity
Temperature: 0 to 40°C, humidity: 20 to 85%RH or
less (non-condensing)
sselro000,1medutitlA
BdesioN 74
kg
W
DC24VI10% 20W
60
Power supply 230 V 50/60 Hz 15 A Allowable supply voltage fluctuation
%
±10
Overvoltage category (IEC60664-1) Category III
3eergednoitulloP)1-46606CEI(eergednoitulloP
to the top position as possible. (Fig. 1) To operate the robot with its vertical axis at the bottom position, the speed and acceleration must be reduced as appropriate. (Fig. 2)
CP operation.
starting position at the same speed and acceleration/deceleration using the same arm (at a constant surrounding air temperature of 20°C). Take note that this is not the absolute positioning precision. Also note that the positioning repeatability may deviate from the specified value if the arm is changed, positioning is performed to one specified position from multiple positions, or any of the operating conditions such as operating speed and acceleration/deceleration setting is changed.
from the rotational center of axis 4 to the tool’s center of gravity is assumed to be 50 mm or less. (Fig.
3) If the tool’s center of gravity is further away from the rotational center of axis 4, the speed and acceleration must be reduced as appropriate.
movement. (Fig. 4)
terminal in the user connector in response to the controller I/O output signal, etc.
Although this parameter can be set to a desired value from 15 to 70%, push force will not stabilize if the set value is outside the range of 35 to 70%.
Top position
Tool
(Fig. 1)
Bottom position
Tool
(Fig. 2)
40
Center of rotational axis
Tool
Tool’s center of gravity
(Fig. 3)
Center of rotational axis
Tool
φ 100
(Fig. 4)
Reference design standards: Annex I to Machine Directives, EN292-1, EN292-2, EN1050, EN60204-1, EN775
76
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8. Installation Environment and Storage Environment

8.1 Installation Environment

Install the robot in an environment that satisfies the following conditions:
8.1.1 IX-NNN50H/60H/70H/80H,
IX-NNC50H/60H/70H/80H, IX-NSN5016H/6016H
Away from direct sunlight Not subject to radiated heat from a high-capacity energy source such as a heat-treating furnace Surrounding air temperature: 0C to 40C Humidity: 85% or less (non-condensing) Not exposed to corrosive or flammable gases Not subject to impact or vibration Not exposed to a significant amount of electromagnetic waves, ultraviolet rays or radiation Sufficient space is available to ensure safety in teaching and maintenance/inspection operations
Generally, the robot must be installed where the operator need not wear protective gear in order to work.
8.1.2 IX-NNW50H/60H/70H/80H,

8. Installation Environment and Storage Environment

The dust-proof/splash-proof specification has the dust-proof/splash-proof structure equivalent to IEC standard and protection class IP65 against water and powder dust. Install the robot in an environment that satisfies the following conditions: Note that the dust-proof/splash-proof specification is not explosion proof.
Away from direct sunlight Not subject to radiated heat from a high-capacity energy source such as a heat-treating furnace Surrounding air temperature: 0C to 40C Humidity: 85% or less (non-condensing) Not exposed to corrosive or flammable gases Not subject to impact or vibration Not exposed to a significant amount of electromagnetic waves, ultraviolet rays or radiation Sufficient space is available to ensure safety in teaching and maintenance/inspection operations
77
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Dust-proof/splash-proof items
There are no locations that may sink under liquid. There are no risks of generation of shavings that may destroy bellows and sealing in the atmosphere. There is no machining oil in the atmosphere. There is no machining oil containing sulfur and/or mists of machining oil, etc. in the atmosphere.
IP65 IP: International Protection rating 6: Protection against solid objects
No ingress of dust
5: Protection against liquids
Water projected from a nozzle against the enclosure from any direction shall have no harmful effect Project fresh water from all directions on exterior covering surface for 1 minute per 1 m minutes. The distance from the nozzle to machinery shall be 2.5 to 3 m, projection pressure 30 kPa, and flow rate 12.5 L/min.
2
, for at least for 3
WarningDanger
Do not use the robot in environment where more water/dust than the protection rating exist. Water/dust
may enter the robot, shortening the robot's service life, lowering operation accuracy, and leading to
malfunctions. Supply air of the specified pressure from the air supply port for air purge located on the base side. If air is not supplied, the dust-proof/splash-proof performance is lowered. Supplied air must be clean and dry air not including compressor oil, etc., the filtering rate of air filter be
10 μm or less, and barometric pressure dew point be -20C or less.
The robot controller is not dust or splash-proof. For the protection against drips other than water, contact IAI. The bellows may be discolored depending on the operating environment, but its dust-proof/splash-proof
performance is not affected.
8. Installation Environment and Storage Environment
78
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8.2 Installation Platform

The platform on which to install the robot receives a significant reactive force. Be certain the platform has sufficient rigidity to withstand the anticipated force. The surface on which the robot is fixed must have a thickness of 25 mm or more.
The levelness of the robot installation surface must be at least 0.05 mm.
Machine tapped holes of the size shown in the table below in the mounting surface of the platform.
Model number Tapping size Remarks
IX-NNN50H/60H IX-NSN5016H/6016H IX-NNW50H/60H IX-NNC50H/60H
IX-NNN70H/80H IX-NNW70H/80H IX-NNC70H/80H
M10
M12
The effective thread shall be 10 mm or more (for steel, or 20 mm or more for aluminum).
The effective thread shall be 12 mm or more (for steel, or 24 mm or more for aluminum).
The platform must have sufficient rigidity to withstand not only the weight of the robot but also the dynamic
moment of inertia that is generated when the robot is operated at maximum speed.
Secure the platform to the floor or other rigid structure in a manner that prevents any movement due to
operation of the robot.
The installation platform must allow the robot to be mounted on a level surface.

8.3 Storage/Preservation Environment

The storage/preservation environment conforms to the installation environment. If the robot is to be stored/preserved for a prolonged period of time, be sure the robot will not be exposed to dew condensation. Unless otherwise specified, desiccant is not placed in the carton when shipped. If the robot is to be stored/preserved in an environment subject to condensation, provide preventive measures from over the carton or directly to the robot after unpacking. The maximum storage/preservation temperature is 60C for a short storage period. If the robot is to be stored/preserved for more than a month, the temperature should not exceed 50C.
WarningDanger
Failure to provide a proper environment for installation and storage/preservation may shorten the service
life of the robot, reduce its operation precision, or cause a malfunction or failure.
Never use the robot in a flammable atmosphere. The robot may explode or ignite.
8. Installation Environment and Storage Environment
79
Page 88
9.
How to Install
Shown below is how to install SCARA Robot.
9.1
: Available s : Not available

9. How to Install

Installation Posture

Ceiling-MountWall-MountHorizontally Oriented Mount
s
s
80
Page 89

9.2 Installing the Robot

Install the robot horizontally. Use four M3 or M4 hexagonal socket head bolts and washers to securely affix the robot.
Model number Bolt size Tightening torque
IX-NNN50H/60H IX-NSN5016H/6016H IX-NNW50H/60H IX-NNC50H/60H
IX-NNN70H/80H IX-NNW70H/80H IX-NNC70H/80H
M10 60 Nm
M12 104 Nm
9. How to Install
81
Page 90
For the hexagonal socket head bolts, use high-strength bolts of ISO10.9 or higher.
9. How to Install
Be sure to use washers. If not, the bearing surface may cave in. Tighten the hexagonal socket head bolts securely to the correct torque. If not, precision may drop and in the
worst case the robot may topple and cause an accident.
CautionWarning
82
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9.2 Checking after Installation

9.3
Once the robot has been installed, check the following items:
Visually check the robot, controller and cables for dents and other abnormalities. Confirm that the cables are connected properly and that the connectors are inserted securely.
Warning
Failure to perform these checks may result in a malfunctioning robot or a damaged controller or robot.
9. How to Install
83
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10. Connecting the Controller

The controller connection cables are attached on the robot (standard cable: 5 m, to air-tube joint: 150 mm).
Pay attention to the following items when connecting the controller:
Connect to the robot of the serial number specified on the robot designation label provided on the front panel of the controller.
Connect the cables securely after confirming that they are free from damage or bent connector pins.
Connect each cable by aligning the indication on the marking tube on the cable with the indication on the
controller panel.
When installing the PG connector (D-sub connector), ensure correct orientation of the connector.
Please prepare the dedicated 24V DC power source for the brake power circuit of Horizontal Articulated
Robot since it is on the primary (high pressure) side.
Do not attempt to share the secondary circuit power sources such as I/O power source.
The brake power to be supplied to Horizontal Articulated Robot should be 24V DC ±10% and the voltage
source capacity 20W. The brake power to be supplied to the controller should be 24V DC ±10% and the voltage source capacity 9W.
(Note) It is necessary to increase the voltage source capacity of the brake power source if brake actuators are
to be connected to the 5th and 6th axes of the controller. [Refer to the section of the voltage source
10. Connecting the Controller
capacity and heat generation in the controller operation manual.]
Robot designation label
Robot serial number
Refer to the operation manuals for the controller and PC software for the procedures to connect the I/O cable, controller power cable, PC connection cable, etc.
Warning
Be sure to connect to the robot of the serial number specified on the front panel of the controller. The controller will not operate properly if any other robot is connected. Failure to observe this warning may cause the robot to malfunction, resulting in a serious accident.
Before connecting or disconnecting a cable, always turn off the power to the controller. Connecting/disconnecting a cable with the power supplied to the controller may cause the robot to malfunction, resulting in a serious accident.
Installing the connectors into the wrong sockets may cause the robot to malfunction. Be sure to check the designation on the cable with that on the controller panel before plugging in any connector.
If the connectors are not inserted securely, the robot may malfunction and generate the risk of danger. Be sure to affix each connector with the supplied screws.
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Output voltage: 24 VDC 10% Current capacity: 20 to 30 W
M cable (outside robot)
PG cable
(outside robot)
U cable (outside robot) (cable for user wiring)
BK power cable (outside robot)
Standard cable length: 5 m
4, 6 quick joint (2 pcs.)
To air tube (provided by user)
24 VDC power supply for brake (provided by user)
Tool, control unit, etc. (provided by user)
Warning
Before connecting or disconnecting a cable, always turn off the power to the controller.
Connecting/disconnecting a cable with the power supplied to the controller may cause the robot to malfunction, resulting in a serious accident.
Installing the connectors into the wrong sockets may cause the robot to malfunction. Be sure to check the
designation on the cable with that on the controller panel before plugging in any connector.
If the connectors are not inserted securely, the robot may malfunction and generate the risk of danger.
Be sure to affix each connector with the supplied screws.
10. Connecting the Controller
85
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If you are using an X-SEL-PX/QX controller, you must supply the brake power to the controller in addition to wiring the brake power cable from the SCARA robot. Supply the brake power (+24 V) to the controller as shown in the figure.
3-phase 200 to 230-
VAC power supply
Auxiliary power-
supply circuit
Upper position: 0 V Lower position: 24 V
Example of X-SEL-PX controller (4-axis SCARA robot of arm length 250 to 600 mm without I/O expansion)
Brake power
+24-V power
supply
10. Connecting the Controller
86
SCARA robot
Page 95

11. Precautions for Use

11.1 Setting the Acceleration/Deceleration

Set the acceleration/deceleration using the graphs below as a reference.
(1) PTP operation (Set using the SEL language commands ACCS and DCLS.)
IX-NNN50H/60H/70H/80H, IX-NNW50H/60H/70H/80H, IX-NNC50H/60H/70H/80H
IX arm length 500/600
Reference settings for PTP
acceleration/deceleration
Maximum
setting range
Reference range for
continuous operation
Acceleration deceleration (%)
Mass of carrying load (kg)
Inertial moment (kg-m)
IX arm length 700/800
Reference settings for PTP
acceleration/deceleration
IX arm length 500/600
Reference duties for PTP
continuous operation
Axis 4 (rotation
axis) only
Reference range of duty for
continuous operation duty
Acceleration deceleration (%)
11. Precautions for Use
Duty (%)
Duty (%) = (Continuous operation / (Continuous operation + Stopping time)) / 100
IX arm length 700/800
Reference duties for PTP
continuous operation
Maximum
setting range
Reference range for
Acceleration deceleration (%)
continuous operation
Mass of carrying load (kg)
Inertial moment (kg-m)
Reference range of duty for
Acceleration deceleration (%)
Duty (%) = (Continuous operation / (Continuous operation + Stopping time)) / 100
continuous operation duty
Duty (%)
87
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IX-NSN5016H/6016H
IX arm length 500/600, high-speed (NSN)
Reference settings for PTP
acceleration/deceleration
Maximum
setting range
Reference range for
continuous operation
Acceleration deceleration (%)
Mass of carrying load (kg)
Inertial moment (kg-m)
IX arm length 500/600, high-speed (NSN)
Reference duties for PTP continuous
operation
Reference range of duty for
continuous operation duty
Acceleration deceleration (%)
Duty (%)
Duty (%) = (Continuous operation / (Continuous operation + Stopping time)) / 100
11. Precautions for Use
88
Page 97
(2) CP operation (Set using the SEL Language commands ACC and DCL.)
g
g
IX-NNN50H/60H/70H/80H, IX-NNW50H/60H/70H/80H, IX-NNC50H/60H/70H/80H
IX arm length 500
Reference settings for CP
acceleration/deceleration
Maximum
setting range
Acceleration deceleration (G)
Reference range for
continuous operation
Mass of carrying load (kg)
Maximum CP operation speed: 1500 mm/sec
IX arm length 500
Reference duties for CP
continuous operation
Carrying 2 k
or less
Carrying 10 kg
Reference range of duty for
continuous operation duty
Acceleration deceleration (G)
Duty (%)
Duty (%) = (Continuous operation / (Continuous operation + Stopping time)) / 100
11. Precautions for Use
IX arm length 600
Reference settings for CP
acceleration/deceleration
Maximum
setting range
Reference range for
Acceleration deceleration (G)
continuous operation
Mass of carrying load (kg)
Maximum CP operation speed: 1800 mm/sec
IX arm length 600
Reference duties for CP
continuous operation
Carrying 2 k
or less
Carrying 10 kg
Reference range of duty for
continuous operation duty
Acceleration deceleration (G)
Duty (%)
Duty (%) = (Continuous operation / (Continuous operation + Stopping time)) / 100
89
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IX arm length 700
g
g
Reference settings for CP
acceleration/deceleration
IX arm length 700
Reference duties for CP
continuous operation
Carrying 5 k
or less
Maximum
setting range
Reference range for
Acceleration deceleration (G)
continuous operation
Mass of carrying load (kg)
Maximum CP operation speed: 1400 mm/sec
IX arm length 800
Reference settings for CP
acceleration/deceleration
Carrying 20 kg
Acceleration deceleration (G)
Reference range of duty for
continuous operation duty
Duty (%)
Duty (%) = (Continuous operation / (Continuous operation + Stopping time)) / 100
IX arm length 800
Reference duties for CP
continuous operation
Carrying 5k
or less
11. Precautions for Use
Acceleration deceleration (G)
Maximum CP operation speed: 1700 mm/sec
90
Maximum
setting range
Reference range for
continuous operation
Mass of carrying load (kg)
Carrying 20 kg
Reference range of duty for
continuous operation duty
Acceleration deceleration (G)
Duty (%)
Duty (%) = (Continuous operation / (Continuous operation + Stopping time)) / 100
Page 99
IX-NSN5016H/6016H
p
g
g
p
IX arm length 500, high-speed (NSN)
Reference settings for CP
acceleration/deceleration
Maximum
setting range
Reference range for
continuous operation
Acceleration deceleration (G)
Mass of carrying load (kg)
Arm length 500, maximum CP
eration speed: 1100 mm/sec
o
IX arm length 600, high-speed (NSN)
Reference settings for CP
acceleration/deceleration
IX arm length 500, high-speed (NSN)
Reference duties for P continuous
operation
Carrying 1k
or less
Carrying 3 kg
Reference range of duty for
continuous operation duty
Acceleration deceleration (G)
Duty (%)
Duty (%) = (Continuous operation / (Continuous operation + Stopping time)) / 100
IX arm length 600, high-speed (NSN)
Reference duties for P continuous
operation
11. Precautions for Use
Maximum
setting range
Reference range for
continuous operation
Acceleration deceleration (G)
Mass of carrying load (kg)
Arm length 600, maximum CP
eration speed: 1400 mm/sec
o
Carrying 1k
or less
Carrying 3 kg
Reference range of duty for
continuous operation duty
Acceleration deceleration (G)
Duty (%)
Duty (%) = (Continuous operation / (Continuous operation + Stopping time)) / 100
91
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Caution
When PTP operation is performed with the acceleration/deceleration set to 100%, the optimal
acceleration/deceleration function adjusts the maximum acceleration/acceleration at which the robot can accelerate/decelerate carrying the load weight set by the WGHT command, to 100%. Be sure to set the mass and inertial moment using the WGHT command. Never set in the WGHT command a value smaller than the load mass installed on the vertical axis. If such smaller value is set, the robot accelerates/decelerates at the maximum acceleration/deceleration permitted for the applicable load weight or even higher, and consequently the SCARA robot may stop by generating an error or break down.
Start from the appropriate reference setting for acceleration/deceleration during continuous operation, and
then gradually raise the value for the purpose of adjustment.
Operate the SCARA robot by maintaining an acceleration/deceleration appropriate for the applicable mass
and inertial moment. If not, the life of the driving part may be shortened or damage or vibration may result.
If an overload error (error code: D0A) occurs, lower the acceleration/deceleration setting or provide an
appropriate stopping time based on the reference duty for continuous operation. Duty (%) = (Continuous operation / (Continuous operation + Stopping time)) / 100
To move arm 1 or 2 of the SCARA robot horizontally at high speed, keep the vertical axis near the top
position. If such high-speed operation is performed with the vertical axis lowered, the vertical axis may vibrate.
Be sure to keep the inertial moment and carrying load at the allowable values or less. The carrying load represents the inertial moment and mass at the center of rotation of axis 4. If the
acceleration/deceleration is raised when the inertial moment far exceeds the allowable value, control is disabled in the rotating direction.
Depending on the position of the vertical axis, the vertical axis may generate vibration when the inertial
moment of the load is high. If vibration occurs, lower the acceleration/deceleration.
11. Precautions for Use
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