Pebax Tube
Pebax tubing is composed of a blend of thermoplastic elastomers, typically consisting of polyether and polyamide segments. This unique composition imparts Pebax tubing with its distinctive combination of flexibility, durability, and biocompatibility, making it an excellent choice for medical tubing applications.
Features
- Stable Product Size:The Balloon Material Tube maintains consistent dimensions, ensuring uniformity and reliability in the final balloon product.
- Coaxiality ≥ 95%: This specification denotes the concentricity or alignment of the layers within the tube, ensuring that the balloon material is evenly distributed around the central axis. High coaxiality enhances the performance and reliability of the balloon during inflation and deflation.
- Less Appearance Defects: The Balloon Material Tube exhibits minimal visual imperfections or defects such as air bubbles, wrinkles, or irregularities on the surface, ensuring aesthetic appeal and quality consistency in the final balloon product.
- Balloon Forming Pass Rate ≥ 90%: This specification indicates the success rate of the balloon forming process, where at least 90% of the balloon material tubes are successfully transformed into balloons without defects or failures. A high pass rate ensures manufacturing efficiency and reduces waste.
- The unique combination of flexibility, strength, and resistance to kinking, allowing for easy manipulation and insertion during medical procedures.
- Highly resistant to chemical degradation and offers low friction properties, reducing the risk of tissue irritation or damage during use.
Applications
Pebax Tubes find extensive use in various medical applications, including:- PTCA/PTA balloon tubing,
- PTA Balloon Catheter
- Angiography Catheter
- Guiding Catheter
- Microcatheter
- Other braided sheath tubing inner, outer, and outer sheath tubing
Technical Parameters
- Outer Diameter Specification(mm) : 0.5-10.0
- Outer Diameter Tolerance(mm): ±0125
- Minimum Tube Wall Thickness(mm): 0.03
- Tube Wall Thickness Tolerance(mm): ±02
Related products
Hook Forming
Demax utilizes high-quality materials such as stainless steel or nitinol for hook forming, chosen for their exceptional mechanical properties, corrosion resistance, and biocompatibility. These materials undergo precise shaping processes to achieve intricate hook configurations tailored to specific medical device applications. With our commitment to quality and precision, Demax ensures that hook-formed components meet the rigorous demands of medical device manufacturing, contributing to the advancement of healthcare worldwide.
Flaring
Precision Medical Tubing Services Flaring involves the precise modification of medical-grade tubing materials to create flares and expansions. The composition of the tubing used in this process varies depending on the specific requirements of the medical device and the application. Typically, medical tubing is made from biocompatible polymers such as polyethylene (PE), polyurethane (PU), polyvinyl chloride (PVC), silicone, or thermoplastic elastomers (TPE). These materials are selected for their flexibility, durability, and compatibility with bodily fluids and tissues.
ETFE Tube
ETFE tubes manufactured by Demax are crafted from high-quality ethylene tetrafluoroethylene (ETFE) polymer.
This fluoropolymer material offers exceptional chemical resistance, mechanical strength, and biocompatibility, making it ideal for medical device applications.
ETFE tubes undergo precise extrusion processes to achieve consistent dimensions, smooth surfaces, and reliable performance in medical settings.
POM
In the context of medical devices, POM tubing is frequently employed as a core wire due to its exceptional properties. Characterized by its high hardness, POM tubing serves as a robust support structure within various medical instruments and devices. Its rigidity and durability make it well-suited for this role, providing stability and reinforcement to delicate components.
Moreover, POM tubing’s super smooth surface finish facilitates seamless movement within devices, ensuring smooth operation and minimal friction. This attribute is particularly advantageous in applications where precise control and maneuverability are essential, such as catheterization procedures or endoscopic interventions.
