Parker TE Series Hydraulic Torqmotor TE0165CN410AAAB, 2-Bolt Flange, 1" SAE Parallel Key Shaft, Manifold Mount Port Threads
You are here: Home » Products » Hydraulic Motor » Ungrouped » Parker TE Series Hydraulic Torqmotor TE0165CN410AAAB, 2-Bolt Flange, 1" SAE Parallel Key Shaft, Manifold Mount Port Threads

loading

Parker TE Series Hydraulic Torqmotor TE0165CN410AAAB, 2-Bolt Flange, 1" SAE Parallel Key Shaft, Manifold Mount Port Threads

Pictures are for display only, please contact us to choose the right product for you.
Availability:
Quantity:
facebook sharing button
twitter sharing button
line sharing button
wechat sharing button
linkedin sharing button
pinterest sharing button
whatsapp sharing button
kakao sharing button
snapchat sharing button
telegram sharing button
sharethis sharing button
  • BME2-165-HM-A

  • Xeriwell or Others

Product: Low Speed High Torque Motor Material: Cast Iron
Displacement: 165 Ml/r Speed: 283-355 Rpm
Torque: 307-422 Nm Output: 8.9-15.7 Kw
Pressure Drop: 14 - 19 MPa Flange: SAE A Mount
Shaft: 25.4MM Shaft Rotation: CCW
Highlight:

TE0165CN410AAAB Parker TE Series Motor

,

TE0165CN410AAAB Parker TE Motor

,

2 Bolt Parker TE Motor


Parker TE Series Motor TE0165CN410AAAB, 2 bolt flange shaft, 1" SAE Parallel key, manifold port threads


Quick review:

Model number: BME2-165-HM-A
Displacement:165 ml/r
Speed, 283-355 rpm
Torque, 307-422 Nm
Output, 8.9-15.7 Kw
Pressure Drop, 14 - 29 MPa
Flange, square mount
Shaft, 25.4mm key shaft
Rotation, CCW
Features, suit Parker TE0165CN410AAAB


Here is it's technical details:

Type BME2 BME2 BME2 BME2 BME2 BME2 BME2 BME2 BME2 BME2 BME2
65 80 100 125 160 200 230 250 295 315 375
Geometric displacement (cm3 /rev.) 66.8 81.3 101.6 127 157.2 193.6 226 257 287.8 314.5 370
Max. speed (rpm) cont. 667 543 439 350 283 229 247 216 196 178 152
int. 842 689 553 441 355 289 328 287 254 235 199
Max. torque (N•m) cont. 126 157 191 245 307 382 378 381 393 448 439
int. 176 215 268 335 422 520 528 543 547 587 613
Max. output (kW) cont. 8.3 8.8 7.9 8.9 8.9 9 9.9 9.3 8.7 8 7.6
int. 13.9 14.4 13.5 14.1 15.6 15.7 17.9 16.5 15.6 14.3 14
Max. pressure drop (MPa) cont. 14 14 14 14 14 14 12 11 10 10 9
int. 19 19 19 19 19 19 165 15.5 14.5 13.5 12.5
peak 20 20 20 20 20 20 18 18 17 16 16
Max. flow (L/min) cont. 45 45 45 45 45 45 57 57 57 57 57
int. 57 57 57 57 57 57 75 75 75 75 75


-1286--1286


Composition of a Hydraulic System: Five Core Components

  1. Power Components
    Serving as the heart of a hydraulic system, power components primarily refer to hydraulic pumps. Their core function is to convert mechanical energy output from prime movers (e.g., electric motors, internal combustion engines) into hydraulic energy carried by the working fluid.
  2. Actuators
    Actuators convert the hydraulic energy of the working fluid into mechanical energy to drive loads. The two mainstream types are hydraulic cylinders and hydraulic motors: cylinders deliver linear motion, while motors generate rotary motion.
  3. Control Components
    This category covers a full range of hydraulic control valves, including pressure control valves, flow control valves and directional control valves. These valves regulate and adjust the pressure, flow rate and flow direction of the working fluid to satisfy the system’s power transmission and performance requirements.
  4. Auxiliary Components
    Auxiliary parts comprise hydraulic reservoirs, oil filters, coolers, heaters, accumulators, tubing, pipe fittings, sealing rings, quick couplings, high-pressure ball valves, hose assemblies, pressure test ports, pressure gauges, oil level indicators and fluid temperature gauges. These auxiliary and protective parts guarantee stable and reliable system operation.
  5. Working Media
    Typical working media include hydraulic oil and emulsions. They act not only as energy transfer carriers, but also enable system condition monitoring and fault diagnosis. Common options are mineral-based oils, animal & vegetable oils, and water-oil emulsions.


Operating Principle of Hydraulic Systems

A hydraulic pump draws fluid from the reservoir and pressurizes it before feeding the fluid into hydraulic control valves. The valves govern fluid pressure and flow direction, then route pressurized fluid to hydraulic cylinders or hydraulic motors. These actuators convert fluid pressure into usable mechanical power to drive equipment and complete operational tasks. Once the work cycle finishes, fluid is redirected via control valves back to the reservoir to restart the circulation process.


Industrial Applications of Hydraulic Systems

Hydraulic technology is extensively adopted across numerous sectors: national defense, machine tools, metallurgy, automotive manufacturing, textiles and shipbuilding.
  • Defense: Hydraulic drive & control systems are standard onboard army, navy and air force military hardware.

  • Machine Tools: Widely integrated into grinders, drill presses, milling machines and planers.

  • Automotive: Deployed on hydraulic off-road vehicles, hydraulic tipper trucks and more.


Hydraulic

Previous: 
Next: 

About XeriWell

XeriWell provides tailored solutions that address the unique hydraulic needs of any region, supporting industries with high-quality, dependable performance.

Quick Links

Products

Get In Touch

With a team of experienced hydraulic engineers and a deep...
Copyright © 2024 XeriWell All Rights Reserved. SitemapPrivacy Policy