A compact air cylinder is essentially a standard pneumatic cylinder—but built with a shorter body and smaller footprint, typically reducing its size by about 50–60% while delivering the same bore and force output.
Core Components:
End caps
Piston and piston rod
Cylinder barrel
Seals
Despite the smaller size, compact cylinders maintain the same structural design as standard ISO-profile cylinders, ensuring reliable performance in a much smaller package.
Compact cylinders function in two primary ways:
Double‑acting:
Compressed air is used to extend and retract the piston rod, enabling both pushing and pulling actions. Ideal for bidirectional control.
Single‑acting:
Air pushes in one direction, and a spring or external force returns the piston. Best suited for simple, unidirectional applications like clamping or tensioning.
Compact cylinders offer several advantages for space‑constrained designs:
Space Efficiency: Up to 50–60% smaller, designed for tight installations.
Compact but Capable: Delivers same force output as a standard cylinder under identical pressure and bore.
Lightweight: Constructed from materials like aluminum or stainless steel .
Design Flexibility: Multiple mounting options, built‑in sensors, and short strokes support complex automation.
Modular Scaling: Multi‑piston variants boost thrust if needed.
Feature | Standard Cylinder | Compact Cylinder |
---|---|---|
Size & Footprint | Larger, bulkier | ~50–60% smaller |
Bore & Force | Standard bore, high output | Same bore/output in compact size |
Stroke Length | Usually longer | Typically shorter |
Durability | Higher endurance | Slightly less rugged under full loads |
Mounting | External brackets often needed | Built-in options, easy installation |
Weight | Heavier | Lightweight, ideal for mobile equipment |
Compact cylinders excel in automation environments where space is limited:
Assembly lines and robotics
Packaging, food & beverage, and electronic manufacturing
Medical devices and laboratory equipment
Any application needing fast, precise, short-range motion
Though they match the force of standard cylinders under equal parameters, standard cylinders may be preferred when space is ample and durability is critical .
Choose compact cylinders when:
Installation space is tight
Precise short strokes are needed
Light to medium loads are handled
Opt for standard cylinders when:
Long stroke or high-load capacity is required
Exceptional durability is essential
Space constraints aren’t a concern
Compact cylinders offer high power in a small size, with up to 60% less space, lightweight build, and short-stroke precision, while matching the force of standard cylinders. They are ideal for modern, space-sensitive automation—but when space and ruggedness aren’t issues, standard cylinders may provide greater longevity and simplicity.
Bore Size(mm): 12mm~100mm.
Working Pressure:
🧭 Double Acting Model: 0.1~1.0Mpa (15~145Psi) (1.0~10Bar)
🧭 Single Acting Model: 0.2~1.0Mpa(28~145Psi)(2.0~10Bar)
Proof Pressure: 1.50Mpa(213Psi)(15.0Bar)
Working Temperature ℃: -10~70℃. (No Freezing)
Cushion Type: Bumper
Standard Stroke(mm): 5 10 15 20 25 30 35 40 45 50 55 60 65 70 75 80 85 90 100.
Magnetic switch grooves around the cylinder barrel make sensor installation quick and seamless.
Bore Size(mm): 12mm~200mm.
Working Pressure:
🧭 Double Acting Model: 0.1~1.0Mpa (15~145Psi) (1.0~10Bar)
🧭 Single Acting Model: 0.2~1.0Mpa(28~145Psi)(2.0~10Bar)
Proof Pressure: 1.35Mpa(200Psi)(13.5Bar)
Working Temperature ℃:
⚙️ Without auto switch: -10~70℃. (No Freezing)
⚙️ With auto switch: -10~60℃. (No Freezing)
Cushion Type: Bumper
Standard Stroke(mm): 5 10 15 20 25 30 35 40 45 50 55 60 65 70 75 80 85 90 100.
Magnetic switch grooves around the cylinder barrel make sensor installation
Bore Size(mm): 12mm~125mm.
Working Pressure:
🧭 Double Acting Model: 0.1~1.0Mpa (15~145Psi) (1.0~10Bar)
Proof Pressure: 1.50Mpa(213Psi)(15.0Bar)
Working Temperature ℃: -10~70℃. (No Freezing)
Cushion Type: Bumper
Standard Stroke(mm): 5 10 15 20 25 30 35 40 45 50 55 60 65 70 75 80 85 90 100.
Magnetic switch grooves around the cylinder barrel make sensor installation quick and seamless.
Bore Size(mm): 12mm~100mm.
Working Pressure:
🧭 Double Acting Model: 0.1~1.0Mpa (15~145Psi) (1.0~10Bar)
Proof Pressure: 1.35Mpa(200Psi)(13.5Bar)
Working Temperature ℃:
⚙️ Without auto switch: -10~70℃. (No Freezing)
⚙️ With auto switch: -10~60℃. (No Freezing)
Cushion Type: Bumper
Standard Stroke(mm): 5 10 15 20 25 30 35 40 45 50 55 60 65 70 75 80 85 90 100.
Magnetic switch grooves around the cylinder barrel make sensor installation
Bore Size(mm): 12mm~25mm.
Working Pressure: 0.1~1.0Mpa (15~145Psi) (1.0~10Bar)
Proof Pressure: 1.35Mpa(200Psi)(13.5Bar)
Working Temperature ℃:
⚙️ Without auto switch: -10~70℃. (No Freezing)
⚙️ With auto switch: -10~60℃. (No Freezing)
Cushion Type: Bumper
Standard Stroke(mm): 5 10 15 20 25 30 35 40 45 50 55 60 65 70 75 80 85 90 100.
Magnetic switch grooves around the cylinder barrel make sensor installation
Bore Size(mm): 12mm~100mm.
Working Pressure:
🧭 Double Acting Model: 0.1~1.0Mpa (15~145Psi) (1.0~10Bar)
Proof Pressure: 1.35Mpa(200Psi)(13.5Bar)
Working Temperature ℃:
⚙️ Without auto switch: -10~70℃. (No Freezing)
⚙️ With auto switch: -10~60℃. (No Freezing)
Cushion Type: Air Cushion
Standard Stroke(mm): 5 10 15 20 25 30 35 40 45 50 55 60 65 70 75 80 85 90 100.
Magnetic switch grooves around the cylinder barrel make sensor installation
Bore Size(mm): 12mm~125mm.
Working Pressure:
🧭 Double Acting Model: 0.1~1.0Mpa (15~145Psi) (1.0~10Bar)
🧭 Single Acting Model: 0.2~1.0Mpa(28~145Psi)(2.0~10Bar)
Proof Pressure: 1.50Mpa(213Psi)(15.0Bar)
Working Temperature ℃:
⚙️ Without auto switch: -10~70℃. (No Freezing)
⚙️ With auto switch: -10~60℃. (No Freezing)
Cushion Type: Bumper
Standard Stroke(mm): 5 10 15 20 25 30 35 40 45 50 55 60 65 70 75 80 85 90 100.
Magnetic switch grooves around the cylinder barrel make sensor installation
Variable loads: If the load frequently changes, select a cylinder with extra force capacity to prevent sticking or operational downtime.
High temperatures: Use high-temperature cylinders equipped with fluorine rubber or PTFE (Teflon) seals to maintain seal integrity under heat.
Always inspect and clear tubing of debris—dust, metal shavings, grit—before piping. Foreign particles can quickly damage piston seals and cylinder walls, leading to internal leakage .
Install an inline filter (at least 40 µm) in the air supply (e.g. FRL modules). Regularly check and replace filters per manufacturer guidance to prevent contaminant-induced wear .
Moisture in compressed air can condense inside the cylinder and freeze, impairing performance. Use air dryers or aftercoolers and install moisture traps upstream of the cylinder.
Perform a no-load trial run before full operation. Start with minimal cushion settings and gradually adjust upward.
This helps avoid piston slamming, protecting seals and internal surfaces .
Side loads create uneven friction and rapid seal wear, commonly causing premature cylinder failure.
Ensure rod alignment with the load axis and consider guide cylinders if needed.
Apply lubricant at recommended points (rod, seals, inner bore) as instructed. Lack of lubrication leads to seal drying and failure .
Inspect seals periodically; replace at the first sign of cracking, hardening, or leakage.
If unused for extended periods, apply surface rust protection.
Add dust caps to intake/exhaust ports, or use bellows/rod covers to prevent contamination .