PFxx-OMS0001CN

No.PF-OMS0001CN-A // PFMC7501 PFMC7102 PFMC7202 2 10 11 12 14 15 17 18 [] 22 OU1OUT2 {3 ] 23 [] 25 26 F0 27 F1 OUT1 29 F2 OUT2 37 F3 42 F10 43 F20 47 F22 48 F30 49 F31 50 F80 OFF 51 F81 52 F82 53 F90 54 F98 56 F99 57 58 62 63 65 66 66 69 71 -1No.PF-OMS0001CN-A (ISO/IEC)(JIS) *1) *2) *1) ISO 4414: Pneumatic fluid power -General rules relating to systems ISO

PF-OMM0004_C

No.PF-OMM0004-D / / PF3W7## SMC 2 11 13 14 16 17 19 21 24 26 26 F1 OUT1 60 F2 OUT2 36 F3 42 F10 43 F20 47 F22 48 F30 50 F80 51 F81 52 F82 53 F90 54 F98 55 F99 56 57 61 61 65 65 71 79 81 88 -1No.PF-OMM0004-D (ISO/IEC) (JIS) 1 2 1) ISO 4414:Pneumatic fluid power -General rules relating to systems.

CEx-OMQ0011

OUTPUT 35 9-3-5. 36 10 3744 11 11-1. 11-1-1. 45 11-1-2. 4548 11-1-3. 48 11-2. 11-2-1. 4952 11-2-2. 53 11-3. 11-3-1. 53 12 12-1. 54 12-2. 54 13 13-1. 5557 13-2. () 5758 14 14-1. 5960 - 1 1 1 1 (ISO/IEC)(JIS) 1) 2) *1) ISO 4414:Pneumatic fluid powerGeneral rules relating to systems ISO 10218-1:2006Robots for industrial environments-Safety requirements-part1

Electro-Pneumatic Valve NVEP/NVEF Series

SERIES NVEP PRESSURE TYPE FLOW CHARACTERISNCS Flqv Rateg NvERtl2O-1-02 ftimary Pressure P1 : 150 PSIG {9.9 Kg/crn2} iYo CurrnyPressure NVEP3120/3140 OPERATING PRINCIPLES The secondary pressure is controlled by the movement of the spool which is balanced belween the Solenoid Force (F1) and F2. F2 results lrom the secondary pressure (P2) acting on the end face of the spool.

VEX1

When A port pressure is lower than P1 port pressure, F1 becomes larger than F2, and the pressure regulating piston moves downwards,opening the lower poppet valves.Thus air is supplied from P port to A port.(DRW(3)) When A port pressure rises enough to restore the balance, the regulator valve returns again to the DRW(2) condition.

NVEPA|VEFseies

SERIES NVEP PRESSURE TYPE FLOW CHARACTERISNCS Flqv Rateg NvERtl2O-1-02 ftimary Pressure P1 : 150 PSIG {9.9 Kg/crn2} iYo CurrnyPressure NVEP3120/3140 OPERATING PRINCIPLES The secondary pressure is controlled by the movement of the spool which is balanced belween the Solenoid Force (F1) and F2. F2 results lrom the secondary pressure (P2) acting on the end face of the spool.

Actuation: 1 (2-Position Single), Electrical Entry: TT (Terminal Type), Lead Wire Length: 100 (10000mm, Semi-standard), Manual Override: Non-locking Push Type, A,B Port: N9 (ø5/16" One-touch Fitting, Inch), Thread Type: N (NPT), Bracket: F1 (w/Foot Bracket, 2-position, Single Only)

Actuation: 2-Position Single, Electrical Entry: Terminal Type, Lead Wire Length: 10000mm, Semi-standard, Manual Override: Non-locking Push Type, A,B Port: ø5/16" One-touch Fitting, Inch, Thread Type: NPT, Bracket: w/Foot Bracket, 2-position, Single Only

MY1

D-Y7P, D-Y7PV D-Y59B, D-Y69B D-Y59A, D-Y69A Internal circuits Lead wire length 0.5m 10 9 10 D-Y59A, D-Y69A Lead wire length 3m 53 50 53 Dimensions DC(+) Brown [Red] D-Y59A, D-Y7P, D-Y59B Main circuit of switch OUT Black [White] M2.5 x 4 Slotted set screw Indicator light 3.4 2.5 DC() Blue [Black] SMC 6.2 5 D-Y7P(V) 29 DC(+) Brown [Red] Main circuit of switch Most sensitive position 12.5 OUT

EXxx-OML0010CN

Terminal Setting() 47 50 52 53 53 -1No.EX-OML0010CN-C (ISO/IEC)(JIS) *1) *2) *1) ISO 4414: Pneumatic fluid power -General rules relating to systems ISO 4413: Hydraulic fluid power -General rules relating to systems IEC 60204-1: Safety of machinery -Electrical equipment of machines (Part 1: General requirements) ISO 10218: Manipulating industrial robots-Safety JIS B 8370: JIS B 8361:

PFxx-OMO0004CN

No.PF-OMO0004CN-E // PFMB7201 2 10 13 14 16 16 19 21 [] 25 OU1OUT2 {3 ] 26 28 [] 28 28 F0 29 F1 OUT1 31 F2 OUT2 39 F3 44 F10 45 F13 46 F20 47 F22 48 F30 49 F31 50 F80 OFF 51 F81 52 F90 53 F98 55 F99 56 57 61 62 64 65 65 68 71 -1No.PF-OMO0004CN-E (ISO/IEC)(JIS) *1) *2) *1) ISO 4414: Pneumatic fluid power -General rules relating to systems ISO 4413: Hydraulic

PFxx-OMP0001CN

No.PF-OMP0001CN-F // PFMB7501 PFMB7102 PFMB7202 2 10 11 12 14 14 16 17 [] 21 OU1OUT2 {3 ] 22 22 [] 24 25 F0 26 F1 OUT1 28 F2 OUT2 36 F3 41 F10 42 F13 43 F20 44 F22 45 F30 46 F31 47 F80 OFF 48 F81 49 F90 50 F98 52 F99 53 54 58 59 61 62 62 65 67 -1No.PF-OMP0001CN-F (ISO/IEC)(JIS) *1) *2) *1) ISO 4414: Pneumatic fluid power -General rules relating to systems

PF-OMN0011_C

No.PF-OMN0011CN-C / / PF3W3## SMC 2 9 12 13 15 15 16 21 23 23 F0 25 F1 OUT1 26 F2 OUT2 34 F3 40 F10 41 F20 45 F22 46 F30 48 F80 49 F81 50 F82 51 F90 52 F96 53 F97 54 F98 57 F99 58 59 62 63 66 66 69 71 -1No.PF-OMN0011CN-C (ISO/IEC)(JIS) 1) 2) 1) ISO 4414: Pneumatic fluid power -General rules relating to systems ISO 4413: Hydraulic fluid power -General rules

CEx-OMG0106

Selection of Dip Switch 53 Chapter 12: Driving 12-1. Setting of Origin Direction 54 12-2. Adjustment of Air Balance 54 Chapter 13: Error Messages & Countermeasures 13-1. Controller 5557 13-2. Brake Units Life Span 58 Chapter 14: Appendix 14-1.

ML1C

Moment (Nm) Moment (Nm) Moment (Nm) Load mass (kg) M1 = F1 x L1 Piston speed V (mm/s) ML1C/M2, M3 M2 = F2 x L2 M3 = F3 x L3 Piston speed V (mm/s) (How to calculate the load ratio) A. Consider (1) max. load mass, (2) static moment, (3) dynamic moment (when stopper collides) when calculating the max. allowable moment and load mass.

PSxx-OMU0002CN

No.PS-OMU0002CN-D // ZSE20A(F) ISE20A 2 8 10 11 15 15 17 19 [] 22 23 3 24 26 28 28 28 F0 30 F1 OUT1 31 F2 OUT2 34 F3 36 F4 37 F5 FUNC 39 F6 41 F10 42 F11 48 F80 49 F81 50 F82 52 F90 53 F96 55 F97 56 F98 58 F99 60 61 65 65 66 75 75 78 -1No.PS-OMU0002CN-D 1 (ISO/IEC)(JIS) *1) *2) *1) ISO 4414: Pneumatic fluid power -General rules relating to systems ISO

3-Screen Display Multi-channel Digital Sensor Monitor Up to 4 pressure sensors can be connected!

Analog voltage 1 to 5 V Analog voltage 1 to 5 V Or IO-Link hub (Commercially available) Process Data Bit offset 79 78 77 76 75 74 73 72 71 70 69 68 67 66 65 64 Item CH11 measured value: 16-bit signed integer Bit offset 63 62 61 60 59 58 57 56 55 54 53 52 51 50 49 48 Measurement data of sensors for 4 channels are combined and cyclically sent as a process data.

Magnetically Coupled Rodless Cylinder Low Profile Guide Type Series CY1F ø10, ø15, ø25 1

Load (kg) m1 m4 m2 m3 Moment (Nm) F3 M3=F3 x L3 L3 F1 M1=F1 x L1 F2 M2=F2 x L2 L1 L2 1. Maximum allowable load (1), static moment (2), and dynamic moment (3) (at the time of impact with stopper) must be examined for the selection calculations. Maximum Allowable Load To evaluate, use a (average speed) for (1) and (2), and (impact speed = 1.4a) for (3).

Low Profile Guide Type

Load (kg) m1 m4 m2 m3 Moment (Nm) F3 M3=F3 x L3 L3 F1 M1=F1 x L1 F2 M2=F2 x L2 L1 L2 1. Maximum allowable load (1), static moment (2), and dynamic moment (3) (at the time of impact with stopper) must be examined for the selection calculations. Maximum Allowable Load To evaluate, use a (average speed) for (1) and (2), and (impact speed = 1.4a) for (3).

MY2

Load weight (kg) m1 m2 m3 Moment (Nm) M3 = F3 x L3 F3 M1 = F1 x L1 F1 M2 = F2 x L2 F2 L1 L2 L3 1. Maximum load weight (1), static moment (2), and dynamic moment (3) (at the time of impact with stopper) must be examined for the selection calculations. To evaluate, use a (average speed) for (1) and (2), and (impact speed = 1.4a) for (3).