(4 locations) (Except 10) E D1 B D2 Model A End boss assembly 0.016 0.043 MHZJ2-10S C K 7 12f8 40 11 15 D2 0.016 0.043 MHZJ2-16S C K 10 16f8 43.5 15 20 0.020 0.053 MHZJ2-20S C K 12 20f8 51.7 19 22 D1 0.020 0.053 MHZJ2-25S C K 15 25f8 61.3 24 25 Other dimensions and specifications correspond to the standard type.
Load rate Ea= K E max Ea=1 0.11=0.11 Work mounting coeficient K: Fig.3 Max. allowable kinetic energy Emax: Table 1 Kinetic energy (E)Allowable kinetic energy (Ea) Possible to use by E=0.0 3 3-1 Load rate of work Calculate static work Wa (N) Wa=1 X 1 X 4=4 K=1 b=1 Wmax=4 a1=1/4=0.25 Wa=K b Wmax Work mounting coeficient K: Fig.3 Allowable load coeficient b: Graph 1 Max.
F . 4 6 3 l b s . ( 2 1 k o ) P.T. 0 216 in, (5 5mm) or, 0 039 in (1mm) T T 0 256 in (6 smm) .75 PS|G (5 tuffi 2way 3 way F O F 3.31 lbs (1 5 kg ) T T 900 '75 PSIG (5 Kgf/cm2) A B c D E F G H J K A B c D E F G H J K M N 2.64 (67) 1.95 49.s) 0.96 '24.5) 0.69 '17.5)0.06 (1.s) 0.12 (3) 1.57 (40) 0.96 (24.5) 1.20 130.5) 0.24 (6) 3.31 (ul 2.09 (53) 1 . 1 0 (24\ 1.22 (31) 0.06 (1.5) 0.12 (3) 1.57
F . 4 6 3 l b s . ( 2 1 k o ) P.T. 0 216 in, (5 5mm) or, 0 039 in (1mm) T T 0 256 in (6 smm) .75 PS|G (5 tuffi 2way 3 way F O F 3.31 lbs (1 5 kg ) T T 900 '75 PSIG (5 Kgf/cm2) A B c D E F G H J K A B c D E F G H J K M N 2.64 (67) 1.95 49.s) 0.96 '24.5) 0.69 '17.5)0.06 (1.s) 0.12 (3) 1.57 (40) 0.96 (24.5) 1.20 130.5) 0.24 (6) 3.31 (ul 2.09 (53) 1 . 1 0 (24\ 1.22 (31) 0.06 (1.5) 0.12 (3) 1.57
Cushion Suffix for cylinder Nil N F Lube type Non-lube type Steel tube J K N R H Nil Nylon tarpaulin Heat resistant tarpaulin Without cushion With cushion on rod end With cushion on head end With cushion on both ends Rod boot D Cushion T Except tubing I.D. 40 Auto switch is not mountable. When specifying symbol more than one, combine symbols in alphabetically.
Cushion Suffix for cylinder Nil N F Lube type Non-lube type Steel tube J K N R H Nil Nylon tarpaulin Heat resistant tarpaulin Without cushion With cushion on rod end With cushion on head end With cushion on both ends Rod boot D Cushion T Except tubing I.D. 40 Auto switch is not mountable. When specifying symbol more than one, combine symbols in alphabetically.
Both ends tapped(mm) Standard (Through-hole)/CQ2WB, CDQ2WB Bore (mm) O1 R Both ends tapped: CQ2WA 32 40 50 M6 X 1.0 10 O1 thread R R M6 X 1.0 10 M8 X 1.25 14 2-H thread effective depth C (Opposite side, too) 2-P (Port size) U 4-N through Q Q 8-O counter bore 1 2 width across flats K 11 Lead wire minimum bending radius 10 D D 22 Z M E Auto switch K M L B L+ stroke D-A7, A8 E J S A+stroke
Load rate Ea= K E max Ea=1 0.11=0.11 Work mounting coeficient K: Fig.3 Max. allowable kinetic energy Emax: Table 1 < = Possible to use by E=0.09 Ea=0.11 Kinetic energy (E) Allowable kinetic energy (Ea) < = 3 3-1 Load rate of moment Wa=K Wmax Work mounting coeficient K: Fig.3 Allowable load coeficient : Graph 1 Max.
Relief port (10-, 21-) Vacuum port (11-, 22-) Effective thread length FL NA Width across flats B2 G H2 NN Width across flats KA G Width across flats B1 H1 MM NA 20, 25 Eh8 D Standard port 45 Relief port (10-, 21-) Vacuum port (11-, 22-) 1.5 A AL K ZZ + Stroke S + Stroke H F 32, 40 (mm) ZZ H H2 H1 S P I G E D A 12 10 8 6 KA MM NA NN B1 B2 Bore size 13.5 10.5 10.5 10.5 FL K AL F 8 13 0 1/8
Width across flats B1 2-NN MM MM NA 20, 25 2-Eh8 D D Standard port 45 45 Relief port 1.5 AL 1.5 AL A F K K N N F A H + Stroke H S + Stroke ZZ + 2 x Stroke 32, 40 (mm) AL F K MM NA NN ZZ Bore size S P N I G E A 41 32 32 26 B2 H2 22 17 17 13 B1 21 19.5 19.5 15.5 D H H1 8 13 0 14 12 10 8 20-0.033 24 22 22 18 40 32 25 20 M14 x 1.5 M10 x 1.25 M10 x 1.25 M8 x 1.25 42.5 34.5 30 24 21.5 15 15 15
ARP20/30/40 Construction ARP20(K)/30(K)/40(K) ARP20K/30K/40K (With backflow function) r q 1 I N e C SM 2 OUT A A IN OUT t A-A BLEED w y Note Component Parts Material No.
Rod series (mm) B series rod C series rod Bore size (mm) MM A MA D E K G H ZZ MM A MA D E K G H ZZ 32 34 M16 x 1.5 25 22 18 7 14 55 207 0.025 0.064 40 40 36 M20 x 1.5 30 27 22.4 9 19 60 212 M16 x 1.5 25 22 18 7 14 55 207 0.025 0.064 50 46 40 M24 x 1.5 35 32 28 11 24 65 231 M20 x 1.5 30 27 22.4 9 19 60 226 63 55 46 M30 x 1.5 45 42 35.5 13 30 80 257 M24 x 1.5 35 32 28 11 24 70 247 0.030 0.076
) Bore size: 32, 40, 50 M E J 2 x P (Rc, NPT, G) T 0 0.1 D Q F Z Stroke M E J T 0 0.1 D Width across flats K A + 2 stroke B + Stroke V H + Stroke 2 x P (Rc, NPT, G) E M 4 x N through 8 x O counterbore Q F Z Stroke T 0 0.1 Width across flats K A + 2 stroke B + Stroke V H + Stroke D M E J E M 4 x N through 8 x O counterbore Width across flats K A + 2 stroke B + Stroke V H + Stroke T 0 0.1 D
AL SMC SMC SMC SMC SMC SMC 0.1 0.3 0.2 0.4 0.5 0.6 IS1000 MPa SMC SMC SMC K K K P P P C C C U U U O O O SMC SMC SMC SMC S S S L L L H H H MADE IN JAPAN K K K P P P C C C U U U O O O S S S L L L H H H Mixed manifold Mixed manifold Front handle/Bottom ported Front handle/Top ported Common exhaust type and individual exhaust type can be mounted on the same manifold base.
AL SMC SMC SMC SMC SMC SMC 0.1 0.3 0.2 0.4 0.5 0.6 IS1000 MPa SMC SMC SMC K K K P P P C C C U U U O O O SMC SMC SMC SMC S S S L L L H H H MADE IN JAPAN K K K P P P C C C U U U O O O S S S L L L H H H Mixed manifold Mixed manifold Front handle/Bottom ported Front handle/Top ported Common exhaust type and individual exhaust type can be mounted on the same manifold base.
9200-www.stevenengineering.com 120 K 6cos + 2 (3.4 + Lo) sin 25 CX F: Drive (from slide block to position Lo) resistance force (kg) Lo: Distance from mounting surface to load center of gravity (cm) 210 K 7cos + 2 (4.2 + Lo) sin Angle k to 45 1 to 60 0.9 to 75 0.8 to 90 0.7 32 D400 K 8cos + 2 (5.1 + Lo) sin Angle coefficient (k): k = [to 45 (= )] = 1, [to 60] = 0.9, [to 75] = 0.8, [to
J K Nylon tarpaulin 60C 110C Heat resistant tarpaulin Maximum ambient temp. for the rod boot itself.
TR d d W D E E D TY W TDe8 MA a MA a C NA F K A A K F NA B H S + Stroke H + Stroke TX 0 0.5 ZZ + 2 strokes TZ (mm) Bore size (mm) A B C TR a E D TDe8 d F G GA J K M MA MM NA P R S T H 0 0.018 0 0.021 0 0.021 0 0.021 0 0.025 0 0.025 0 0.025 0 0.062 0 0.062 0 0.074 0 0.074 0 0.074 0 0.074 0 0.087 0.032 0.059 0.032 0.059 0.032 0.059 0.040 0.073 0.050 0.089 0.050 0.089 0.050 0.089 40 17 45 R0.5
Combination of [B] and [K] is not possible.
Brown Brown Load Load Switch 1 Switch 1 Blue Blue Brown Brown Switch 2 Switch 2 Blue Blue Load voltage at OFF = Leakage current x 2 pcs. x Load impedance = 1 mA x 2 pcs. x 3 k = 6 V Example: Load impedance is 3 k.