Pneumohydraulic Cylinder, BS Series
  • Pneumohydraulic Cylinder, BS Series
  • Pneumohydraulic Cylinder, BS Series
  • Pneumohydraulic Cylinder, BS Series
  • Pneumohydraulic Cylinder, BS Series
  • Pneumohydraulic Cylinder, BS Series

    • Pneumohydraulic Cylinder, BS Series

    • Pressing force 2-2000kN
    • Force stroke 6-52mm
    • Total stroke 100/200mm

    The pneumohydraulic cylinder, or pneumohydraulic intensifier cylinder is a drive unit that combines the high speed of pneumatic actuation with the high output force of hydraulic systems. It operates with a rapid pneumatic approach to the workpiece, followed by hydraulic pressure generation in the final stroke to deliver high force. This design ensures precise and powerful pressing while maintaining high operating speed. With high energy efficiency and flexible control, it is widely used in stamping, clinching, assembly operations, and pneumatic-hydraulic press applications where both speed and high force are required.

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    Operating Parameters
    Model Pressing force at 6 bar (kN) Approach force at 6bar (kg) Return force at 6bar (kg) Pressure ratio Max. oil pressure at 6bar (bar)
    BS01 Series 11 95 105 62 345
    BS02 Series 17 150 170 64 350
    BS04 Series 35 240 260 69 380
    BS08 Series 72 350 370 61 340
    BS15 Series 135 500 700 64 350
    BS20 Series 200 580 780 64 350
    BS30 Series 276 730 1000 64 350
    BS50 Series 476 1150 1700 61 340
    BS75 Series 736 2355 3780 51 280
    BS100 Series 970 2355 3780 69 380
    Dimensions
    Model A1 A2 B C D E F(f7) G H K L M N O U(g6) V Remarks
    BS01-100-12S 66 80 596 6-M6×12 40 G1/8 30 10 16 24 M12×1.5 15 13 110 Spring
    BS01-200-12S 66 80 786 6-M6×12 40 G1/8 30 10 16 24 M12×1.5 15 13 110 Spring
    BS01-100-24S 66 92 668 6-M6×12 40 G1/8 30 10 16 24 M12×1.5 15 13 135 Spring
    BS01-200-24S 66 92 868 6-M6×12 40 G1/8 30 10 16 24 M12×1.5 15 13 135 Spring
    BS02-100-12S 78 92 683 6-M08×15 54 G1/4 40 10 20 26 M16×1.5 15 17 135 Spring
    BS02-200-12S 78 92 883 6-M08×15 54 G1/4 40 10 20 26 M16×1.5 15 17 135 Spring
    BS02-100-24S 78 112 714 6-M08×15 54 G1/4 40 10 20 26 M16×1.5 15 17 150 Spring
    BS02-200-24S 78 112 914 6-M08×15 54 G1/4 40 10 20 26 M16×1.5 15 17 150 Spring
    BS04-100-12S 98 112 730 6-M08×18 64 G3/8 50 10 30 29 M22×2 20 24 150 18 7 Spring
    BS04-200-12S 98 112 937 6-M08×18 64 G3/8 50 10 30 29 M22×2 20 24 150 Spring
    BS04-100-24S 98 137 762 6-M08×18 64 G3/8 50 10 30 29 M22×2 20 24 180 18 7 Spring
    BS04-200-24S 98 137 962 6-M08×18 64 G3/8 50 10 30 29 M22×2 20 24 180 Spring
    BS08-100-12S 120 137 792 6-M10×20 88 G1/2 70 10 45 35 M30×2 25 36 180 26 7 Spring
    BS08-200-12S 120 137 1008 6-M10×20 88 G1/2 70 10 45 35 M30×2 25 36 180 26 7 Spring
    Dimensions
    Model A1 A2 B C D E F (f7) G H K L M N O Remarks
    BS08-100-24A 120 177 872 6-M10×20 88 G1/2 70 10 45 35 M30×2 25 36 220 Gas Spring
    BS08-200-24A 120 177 1072 6-M10×20 88 G1/2 70 10 45 35 M30×2 25 36 220 Gas Spring
    BS15-150-12A 145 177 1044 6-M16×25 100 G1/2 75 15 50 36 M30×2 25 41 220 Gas Spring
    BS15-250-12A 145 177 1300 6-M16×25 100 G1/2 75 15 50 36 M30×2 25 41 220 Gas Spring
    BS15-150-24A 145 216 1114 6-M16×25 100 G1/2 75 15 50 36 M30×2 25 41 270 Gas Spring
    BS15-250-24A 145 216 1314 6-M16×25 100 G1/2 75 15 50 36 M30×2 25 41 270 Gas Spring
    BS20-150-12A 166 177 1110 6-M20×30 115 G1/2 85 18 56 52 M39×2 35 46 220 Gas Spring
    BS20-250-12A 166 216 1359 6-M20×30 115 G1/2 85 18 56 52 M39×2 35 46 270 Gas Spring
    BS30-150-12A 190 216 1135 6-M20×30 132 G3/4 100 18 63 47 M39×2 35 55 270 Gas Spring
    BS30-250-12A 190 216 1385 6-M20×30 132 G3/4 100 18 63 47 M39×2 35 55 270 Gas Spring
    BS50-200-12A 190 268 1285 8-M20×35 150 G3/4 115 25 63 56 M42×2 40 55 330 Gas Spring
    BS75-200-12A 315 1629 12-M24×45 200 G1 150 20 100 60 M64×2 60 85 380 Gas Spring
    BS100-200-12A 315 332 1643 12-M24×45 200 G1 150 20 100 60 M64×2 60 85 380 Gas Spring
    Dimensions
    Key Advantages

    High efficiency and energy saving
    The approach speed is faster than hydraulic systems and more stable than pure pneumatic systems. Rapid advance occurs in the pre-load stage, while high pressure output is delivered only during the intensification stage. Energy consumption is low, typically only 10-30% of conventional hydraulic systems, with no continuously running motor required.

    Stable and controllable output force
    A wide force range from 1-200t achieves output levels comparable to hydraulic presses. The soft-touch approach technology allows tooling to contact the workpiece smoothly, reducing impact, noise, and extending tool life.

    Applicable Processes
    • FormingForming
    • TestingTesting
    • StampingStamping
    • EmbossingEmbossing
    • DrawingDrawing
    • SealingSealing
    • RivetingRiveting
    • CuttingCutting
    • BendingBending
    • CompressionCompression
    • ClinchingClinching
    • Press fittingPress fitting
    Pneumohydraulic Drives

    Pneumatic rapid approach ensures short cycle times, while hydraulic intensification engages only when high force is required, achieving a better balance between efficiency and output force than pure pneumatic solutions.

    No hydraulic power unit or oil piping is required. Operation relies solely on compressed air, reducing equipment footprint and maintenance workload.