Certification: | GS, RoHS, CE, ISO9001 |
---|---|
Type: | Gear Type |
MOQ: | 1 |
Suppliers with verified business licenses
BMPH Orbit Hydraulic Motor
BMPH can match Amercian standard OMPH.Horizontal oil port cycloidal hydraulic motor can be used with 2-hole diamond flange, 4-hole square flange, cast iron material, strong pressure resistance, the use of advanced production technology, reduce the internal friction of the motor, improve the working efficiency of the motor. BMPH Motors' products are designed to withstand harsh environmental conditions and frequent use. They are made of high-quality materials that offer enhanced strength and durability. The motors are sealed to prevent contamination and ensure consistent performance. They also feature a variety of shaft and mounting options for easy integration into different machinery. In addition to high-quality motors, BMPH Motors also offers exceptional customer service and technical support. Their team of experts is available to help customers with any queries and offer solutions to their problems. They also have an extensive network of distributors and service partners across the world to ensure timely and efficient product support.
The BMPH orbit hydraulic motor is the perfect solution for those in need of a reliable and durable hydraulic motor. With its unique design, this motor delivers exceptional performance and efficiency, making it a top choice for a variety of applications.
One of the biggest advantages of the BMPH cycloid hydraulic motor is its unique cycloid design. This design ensures that the motor is able to operate smoothly and efficiently, even under heavy loads or high pressure. Additionally, it provides excellent torque-to-size ratio, which means that this motor is able to deliver high torque without taking up too much space.
Another competitive advantage of this hydraulic motor is its durability. The BMPH cycloid hydraulic motor is built to withstand harsh and demanding environments, thanks to high-quality materials and advanced engineering. This motor is able to handle heavy loads, high speeds, and long-term use without any significant wear or damage.
In addition, the BMPH cycloid hydraulic motor is also highly customizable. Customers can choose from a variety of options, including different shaft styles, mounting patterns, and flange options. This level of customization ensures that the motor will fit seamlessly into any application, regardless of its unique requirements.
Finally, the BMPH cycloid hydraulic motor is also backed by a team of experts who are dedicated to providing exceptional support to customers. The experts at BMPH are available to answer any questions or concerns, and can help customers select the best motor for their specific needs.
In summary, if you are in need of a reliable, efficient, and durable hydraulic motor, look no further than the BMPH cycloid hydraulic motor. With its unique design, exceptional performance, and expert support, this motor is the perfect solution for a wide range of applications.
Displ. cm3/r | 36 | 50 | 63 | 80 | 100 | 125 | 160 | 200 | 250 | 320 | 400 | 500 | |
Flow (LPM) |
Continuous | 40 | 38 | 45 | 57 | 57 | 57 | 57 | 57 | 57 | 57 | 57 | 57 |
Intermittent | 45 | 45 | 53 | 68 | 68 | 68 | 68 | 68 | 68 | 68 | 68 | 68 | |
Speed (RPM) |
Continuous | 1055 | 698 | 663 | 684 | 580 | 452 | 353 | 284 | 235 | 178 | 145 | 110 |
Intermittent | 1250 | 859 | 774 | 842 | 659 | 544 | 364 | 339 | 281 | 210 | 180 | 136 | |
Pressure (bar) |
Continuous | 140 | 124 | 124 | 124 | 124 | 124 | 115 | 110 | 100 | 90 | 90 | 83 |
Intermittent | 162 | 138 | 138 | 138 | 138 | 138 | 124 | 124 | 124 | 124 | 110 | 90 | |
Torque (N.m) |
Continuous | 69 | 78 | 99 | 126 | 158 | 194 | 234 | 280 | 318 | 366 | 457 | 527 |
Intermittent | 83 | 86 | 110 | 140 | 176 | 216 | 256 | 365 | 394 | 504 | 558 | 570 |
flow(LPM) | 3 | 6 | 7 | 8 | 10 | 11 | 12.5 | 16.5 | ||
8 | 13 214 |
25 205 |
29 200 |
34 194 |
43 187 |
48 179 |
||||
15 |
13 406 |
25 398 |
29 391 |
34 383 |
43 374 |
48 366 |
56 353 |
75 324 |
||
20 |
13 541 |
24 534 |
29 528 |
34 521 |
43 513 |
48 500 |
56 486 |
76 458 |
||
30 |
12 814 |
24 804 |
29 792 |
34 778 |
43 763 |
48 749 |
56 726 |
76 701 |
||
35 |
12 952 |
23 944 |
28 930 |
34 913 |
43 897 |
48 879 |
56 856 |
76 833 |
||
Max Continuous Max Interminttent |
40 |
12 1090 |
23 1078 |
28 1064 |
32 1048 |
41 1024 |
47 998 |
55 977 |
75 943 |
|
45 | 11 1232 |
22 1218 |
26 1196 |
32 1175 |
41 1149 |
46 1118 |
54 1080 |
74 1044 |
||
55 | 6 1505 |
15 1494 |
22 1480 |
28 1466 |
37 1438 |
44 1406 |
52 1367 |
71 1309 |
||
60 | 3 1650 |
11 1640 |
18 1626 |
20 1603 |
30 1571 |
38 1536 |
49 1502 |
67 1466 |
flow(LPM) | 5 | 7 | 9 | 10 | 12 | 14 | 16 | 17.5 | ||
5 | 34 94 |
44 85 |
58 77 |
65 77 |
75 72 |
88 50 |
||||
10 |
36 187 |
46 178 |
62 166 |
69 162 |
79 155 |
95 138 |
108 120 |
120 99 |
||
15 |
35 285 |
49 279 |
63 271 |
73 263 |
84 252 |
102 232 |
108 213 |
121 187 |
||
20 |
34 379 |
46 377 |
60 367 |
68 363 |
82 348 |
95 332 |
109 304 |
125 272 |
||
30 |
32 578 |
43 571 |
59 563 |
66 556 |
79 544 |
94 533 |
107 502 |
121 467 |
||
Max Continuous Max Intermittent |
40 |
30 762 |
40 760 |
57 755 |
65 750 |
78 740 |
91 726 |
105 702 |
120 672 |
|
45 | 29 858 |
39 855 |
56 851 |
64 847 |
77 837 |
89 817 |
104 798 |
120 772 |
||
50 | 25 952 |
36 942 |
52 927 |
59 908 |
72 882 |
84 854 |
98 834 |
113 803 |
flow(LPM) | 5 | 7 | 9 | 10 | 12 | 14 | 16 | 17.5 | ||
5 | 44 84 |
58 67 |
76 61 |
85 61 |
99 57 |
113 55 |
||||
10 |
45 149 |
59 135 |
77 133 |
83 130 |
97 125 |
110 120 |
||||
15 |
44 224 |
60 220 |
75 218 |
81 215 |
99 213 |
108 210 |
128 207 |
|||
20 |
42 298 |
55 295 |
76 292 |
81 286 |
93 280 |
104 276 |
125 270 |
140 265 |
||
30 |
40 447 |
53 440 |
73 334 |
82 330 |
91 326 |
100 320 |
123 315 |
135 310 |
||
Max Continuous Max Intermittent |
40 |
38 596 |
52 593 |
72 585 |
80 580 |
85 572 |
95 568 |
115 560 |
130 550 |
|
45 | 35 671 |
48 665 |
70 660 |
77 654 |
80 650 |
95 642 |
110 634 |
128 624 |
||
50 | 31 745 |
45 740 |
65 735 |
73 730 |
75 725 |
90 720 |
105 715 |
120 710 |
flow(LPM) | 5 | 7 | 9 | 10 | 12 | 14 | 16 | 17.5 | ||
5 | 48 61 |
54 58 |
84 52 |
106 46 |
129 40 |
|||||
10 |
50 122 |
74 116 |
96 112 |
106 108 |
126 106 |
145 99 |
170 60 |
|||
20 |
54 243 |
76 239 |
100 231 |
109 219 |
136 206 |
152 192 |
174 176 |
193 152 |
||
30 |
52 362 |
74 358 |
96 356 |
104 350 |
128 349 |
148 335 |
172 325 |
191 300 |
||
40 |
45 484 |
70 480 |
95 478 |
104 476 |
125 470 |
146 468 |
171 440 |
188 438 |
||
Max Continuous Max Intermittent |
50 |
41 610 |
68 608 |
91 606 |
101 630 |
122 600 |
145 598 |
168 550 |
186 520 |
|
60 | 35 726 |
65 723 |
88 720 |
96 718 |
120 710 |
142 700 |
164 698 |
182 680 |
||
70 | 30 845 |
58 834 |
81 820 |
93 802 |
114 789 |
136 767 |
158 754 |
175 730 |
||
75 | 19 910 |
48 895 |
76 881 |
88 867 |
108 852 |
132 830 |
151 806 |
168 787 |
flow(LPM) | 5 | 7 | 9 | 10 | 12 | 14 | 16 | 17.5 | ||
5 | 64 49 |
90 48 |
118 46 |
134 42 |
154 38 |
|||||
10 |
65 96 |
93 94 |
122 93 |
134 91 |
156 80 |
183 60 |
210 48 |
|||
20 |
62 192 |
93 188 |
121 184 |
135 178 |
153 171 |
184 168 |
208 158 |
236 146 |
||
30 |
61 296 |
90 294 |
118 290 |
130 290 |
150 288 |
180 282 |
200 270 |
230 258 |
||
40 |
55 387 |
86 380 |
115 369 |
126 361 |
146 356 |
181 348 |
206 338 |
228 320 |
||
Max Continuous Max Intermittent |
50 |
46 484 |
77 479 |
108 472 |
121 463 |
146 452 |
181 445 |
200 428 |
221 410 |
|
60 | 34 583 |
62 567 |
98 569 |
110 555 |
136 540 |
170 536 |
186 528 |
199 516 |
||
70 | 30 680 |
63 672 |
97 662 |
110 650 |
138 640 |
170 635 |
190 620 |
210 606 |
||
75 | 20 728 |
54 720 |
90 710 |
106 695 |
130 681 |
165 667 |
188 650 |
200 634 |
flow(LPM) | 5 | 7 | 9 | 10 | 12 | 14 | 16 | 17.5 | ||
5 | 74 37 |
106 32 |
140 27 |
163 21 |
||||||
10 |
81 78 |
114 77 |
152 74 |
172 59 |
200 45 |
220 29 |
250 20 |
|||
20 |
80 157 |
114 156 |
150 154 |
170 151 |
200 146 |
221 142 |
254 120 |
292 114 |
||
30 |
78 232 |
112 230 |
149 228 |
169 222 |
198 220 |
220 218 |
252 199 |
290 170 |
||
40 |
77 312 |
111 311 |
147 307 |
168 300 |
196 298 |
218 284 |
250 270 |
288 252 |
||
Max Continuous Max Intermittent |
50 |
62 391 |
105 388 |
143 384 |
165 380 |
195 372 |
223 362 |
254 346 |
285 330 |
|
60 | 52 470 |
98 468 |
136 464 |
160 459 |
191 448 |
220 434 |
250 412 |
282 405 |
||
70 | 41 548 |
90 544 |
130 540 |
156 541 |
187 538 |
215 535 |
242 530 |
278 496 |
||
75 | 32 586 |
79 583 |
126 578 |
148 570 |
180 560 |
208 546 |
234 532 |
462 520 |
flow(LPM) | 5 | 7 | 9 | 10 | 12 | 14 | 16 | 17.5 | ||
5 | 100 29 |
142 26 |
188 21 |
207 19 |
||||||
10 |
104 62 |
146 60 |
191 58 |
211 49 |
245 45 |
282 32 |
330 25 |
|||
20 |
102 124 |
148 120 |
194 118 |
218 114 |
251 109 |
290 104 |
338 99 |
368 94 |
||
30 |
96 183 |
114 181 |
186 179 |
215 176 |
248 166 |
288 258 |
335 144 |
364 132 |
||
40 |
87 246 |
136 242 |
180 240 |
206 235 |
248 231 |
286 219 |
330 200 |
358 155 |
||
Max Continuous Max Intermittent |
50 |
70 309 |
126 307 |
172 300 |
198 295 |
238 287 |
278 278 |
320 262 |
350 247 |
|
60 | 58 371 |
111 367 |
168 359 |
191 354 |
231 346 |
271 338 |
312 323 |
342 306 |
||
70 | 47 435 |
104 430 |
160 420 |
190 415 |
228 403 |
267 393 |
301 381 |
338 365 |
||
75 | 34 470 |
91 463 |
150 450 |
180 441 |
221 431 |
261 420 |
291 405 |
328 389 |
flow(LPM) | 5 | 7 | 9 | 10 | 12 | 14 | 16 | 17.5 | ||
5 | 129 24 |
176 22 |
230 18 |
256 13 |
||||||
10 |
133 49 |
182 47 |
236 45 |
261 43 |
310 38 |
352 33 |
400 24 |
|||
20 |
131 99 |
181 97 |
232 94 |
256 92 |
308 88 |
354 83 |
400 74 |
431 64 |
||
30 |
126 149 |
176 147 |
299 144 |
252 141 |
308 135 |
353 126 |
400 113 |
430 105 |
||
40 |
112 200 |
168 197 |
224 194 |
248 191 |
304 185 |
350 174 |
393 160 |
423 151 |
||
Max Continuous Max Intermittent |
50 |
94 252 |
154 249 |
220 246 |
243 243 |
294 238 |
343 228 |
384 212 |
414 194 |
|
60 | 78 304 |
144 301 |
213 298 |
236 294 |
287 286 |
339 276 |
382 262 |
410 243 |
||
70 | 67 355 |
135 353 |
206 349 |
228 340 |
277 329 |
336 316 |
375 300 |
408 288 |
||
75 | 58 382 |
125 375 |
197 373 |
220 363 |
270 350 |
321 337 |
360 322 |
398 312 |
flow(LPM) | 5 | 7 | 9 | 10 | 11 | 12 | 14 | ||
5 | 172 20 |
240 19 |
300 18 |
380 16 |
352 15 |
||||
10 |
173 42 |
242 38 |
308 36 |
340 33 |
351 33 |
405 28 |
462 22 |
||
20 |
170 79 |
238 77 |
301 75 |
339 72 |
350 71 |
402 69 |
460 61 |
||
30 |
160 117 |
231 114 |
298 111 |
330 109 |
347 108 |
398 103 |
455 95 |
||
40 |
141 157 |
221 155 |
298 153 |
327 150 |
342 148 |
394 146 |
445 135 |
||
Max Continuous Max Intermittent |
50 |
122 196 |
206 193 |
287 190 |
321 177 |
330 175 |
382 170 |
438 163 |
|
60 | 101 236 |
190 233 |
278 230 |
312 227 |
328 225 |
369 221 |
424 208 |
||
70 | 86 276 |
176 273 |
262 270 |
298 266 |
302 264 |
353 255 |
416 245 |
||
75 | 60 297 |
163 294 |
254 290 |
286 286 |
291 282 |
345 277 |
410 266 |
flow(LPM) | 3 | 5 | 7 | 9 | 10 | 11 | ||
5 | 110 14 |
199 12 |
||||||
10 |
108 31 |
190 30 |
272 29 |
360 28 |
400 26 |
451 25 |
||
20 |
110 61 |
196 60 |
279 59 |
356 57 |
396 55 |
448 53 |
||
30 |
106 91 |
186 90 |
270 89 |
355 86 |
390 84 |
442 82 |
||
40 |
100 123 |
179 122 |
262 120 |
350 117 |
382 112 |
436 110 |
||
Max Continuous Max Interminttent |
50 |
92 154 |
169 153 |
252 151 |
342 147 |
373 140 |
432 136 |
|
60 | 86 185 |
159 184 |
241 182 |
339 177 |
369 172 |
428 170 |
||
70 | 77 217 |
146 216 |
235 213 |
324 208 |
342 201 |
412 200 |
||
75 | 66 232 |
132 231 |
212 228 |
303 222 |
332 216 |
402 214 |
flow(LPM) | 3 | 4 | 6 | 7 | 8 | 9 | ||
5 | 152 12 |
|||||||
10 |
154 24 |
205 21 |
308 18 |
349 17 |
||||
20 |
150 49 |
201 48 |
302 47 |
340 46 |
392 44 |
441 41 |
||
30 |
146 73 |
198 74 |
296 73 |
331 72 |
387 70 |
438 67 |
||
40 |
140 98 |
191 97 |
290 96 |
320 95 |
381 94 |
421 92 |
||
Max Continuous Max Intermittent |
50 |
132 122 |
182 121 |
281 118 |
315 115 |
376 112 |
402 110 |
|
60 | 128 145 |
175 145 |
270 143 |
310 140 |
260 135 |
390 130 |
||
70 | 110 170 |
170 168 |
260 165 |
300 163 |
340 160 |
380 155 |
||
75 | 98 181 |
163 180 |
232 178 |
291 175 |
320 174 |
355 170 |
flow(LPM) | 3 | 4 | 6 | 7 | 8 | 9 | ||
4 | 194 6 |
285 4 |
||||||
10 |
201 15 |
304 14 |
391 14 |
443 12 |
512 9 |
574 7 |
||
20 |
191 40 |
280 40 |
372 39 |
418 37 |
493 33 |
546 31 |
||
30 |
185 60 |
272 60 |
360 58 |
412 56 |
486 53 |
541 50 |
||
40 |
172 80 |
261 80 |
343 79 |
408 76 |
480 73 |
538 70 |
||
Max Continuous Max Intermittent |
50 |
160 101 |
241 100 |
332 98 |
391 96 |
466 93 |
528 90 |
|
60 | 134 121 |
213 120 |
305 119 |
371 117 |
438 114 |
496 110 |
||
70 | 111 142 |
189 141 |
292 139 |
344 137 |
418 135 |
475 131 |
||
75 | 83 152 |
154 151 |
241 150 |
312 149 |
389 147 |
448 144 |
1 | 2 | 3 | 4 | 5 | 6 | 7 | |||||
Code | Displ.(CC/r) | Flange | Output Shaft | Port and Drain Port | Rotation Direction |
Paint | |||||
BMPH | 50 | F1 | 2-φ13.5 Rhomb-flange, pilot φ82.55x2.8mm |
A7 | Cylindrical shaft φ25.4 Woodruff key φ25.4x6.35 |
P1 | 7/8-14UNF O-ring 7/16-20UNF |
R | Standard | N | No paint |
63 | |||||||||||
80 | A8 | Splined SAE 6B |
P2 | 1/2-14NPTF 7/16-20UNF |
|||||||
100 | |||||||||||
125 | F2 | 4-M10 Square-flange, pilot φ44.4x2.8 |
Q | Blue |
|||||||
160 | |||||||||||
200 | A9 | Cylindrical shaft φ25.4 Pin hole φ8 |
P3 | G1/2 G1/4 |
|||||||
250 | A10 | Cylindrical shaft φ25.4 Pin hole φ10.3 |
P4 | G1/2 O-ring G1/4 |
|||||||
315 | L | Opposite | B | Black |
|||||||
400 | F3 | 4-3/8-16 Square-flange, pilot φ44.4x2.8 |
A11 | Cylindrical shaft φ22.22 Parallel key 6.35x6.35x25.4 |
P5 | 3/4-16 O-ring 7/16-20UNF |
|||||
500 | A12 | Splined 13-DP16/32 Z=13 |
P6 | PT1/2 PT1/4 |
S | Silver gray |
|||||
A13 | Cone shaft φ25.4 Parallel key 6.35x6.35x25.4 |
P7 | M18X1.5 M 14X1.5 |
||||||||
P8 | φ10 O-ring manifold 4-M8 G1/4 |
||||||||||
P9 | φ10 O-ring manifold4-5/16-18UNC 7/16-20UNF |
Q1: What is the delivery date after an order is placed?
A: It depends on whether the products you buy are in stock. If we have inventory, we can arrange shipment in 2 to 3 days. If not, the delivery time is determined by the production time of the factory.
Q2: If the products do not meet the requirements, how to solve the problem?
A: If the products do not conform to the customer's samples or have quality problems, our company will be responsible.
Q3: How to calculate torque?
A: The calculation formula is as follows:
Torque (Nm) = Displacement (cc/rev) x Working Pressure (MPa) x 0.16 (Factor)
According to the functional theorem: Vm (ml per radian) × w (radian per second) × p (MPa, differential pressure) × (total hydraulic motor efficiency) = w (radian per second) × T (Nm); so T =Vm×P×η; where the milliliter per radian of Vm is converted into milliliter per revolution and needs to be divided by 2π, which is multiplied by 0.16.
The displacement can be seen from the product label. The working pressure depends on the pressure gauge at the entrance of the orbit hydraulic motor. Knowing these two values, you can calculate the output torque of the orbit hydraulic motor at this time.
Q4: What kind of Motor circuit is there?
A: Hydraulic motor circuit has series and parallel connection.