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Extruded Tubing

Extruded Tubing

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Medical-Grade Extruded Tubing

Medical-Grade Extruded Tubing

From Simple to Complex

Nordson MEDICAL has a long, successful track record of supplying high-precision, specialized extruded tubing to the medical device industry. A global partner with facilities around the world, we specialize in high-performance tubing for critical applications. We know that speed to market is key, so we offer expertise in premium, medical-grade extruded tubing with expanded capacity in our U.S. and European facilities with less than two week lead times on new projects specific to multi-layer PTA/PTCA applications, single-lumen, and multi-lumen tubing. We also scale to your production needs with confidence through FDA registered production sites, ISO 13485 certified facilities, and Class 8 qualified production cleanrooms.

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Lubricious Tubing

Medical device designers of catheter-based devices use lubricious materials to ease insertion into the body or into another device, boost pushability, and increase sensitivity of movement. Read more about the features and benefits of lubricious tubing in our white paper.

Customized Materials

Customized Materials

Meeting Your Needs

  • Full range of thermoplastics
  • Full range of Fluoroplastics (FEP, PTFE)
  • Engineering plastics (PEEK, Polysulphone)
  • Custom compounds: colorants, stabilizers, radiopaque fillers, and active agents
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Lubricious Materials and Additives

Lubricious Materials & Additives

Used as Tubing Liners

Lubricious materials are used as a tubing liner, as an alternative to hydrophilic coatings, or as a way to improve bonding to other components. We have multiple configurations of lubricious, single-lumen extruded tubing available with the following market-leading lubricious additives: EverGlide®, PEBASlide, ProPell S™, and Mobilize. Contact us to discuss custom medical extruded tubing with lubricious materials and additives.

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Secondary Processes

Secondary Processes

Enhancing Functionality and Versatility

Nordson MEDICAL offers a comprehensive range of secondary processes for extruded tubing, enhancing the functionality and versatility of our products while maintaining cost-efficiency through automation. These secondary processes include:

  • Tipping:
    Tipping involves the formation of a radius or chamfer at the end of the tube, facilitating assembly and device insertion. Nordson MEDICAL offers a variety of tipping capabilities, from closed and tapered tips to radiopaque and soft tips, ensuring compatibility with a wide range of applications.
  • Printing:
    Printing adds branding, markings, and other essential information to medical devices and components. Nordson MEDICAL offers various printing capabilities, including text, numeric identifiers, depth marks, and surface treatments, with a range of colors available for customization.
  • Hole Forming:
    Hole forming is crucial for creating access points to extrusion channels, serving purposes like balloon inflation and irrigation. Nordson MEDICAL can achieve virtually any hole or skive pattern, with precise cutting edges and multi-lumen configurations to meet specific device requirements.
  • Over-Molding:
    Over-molding seamlessly combines one or more materials to create a single part, commonly used for inflation or liquid transfer connections. This process opens up endless possibilities for profile, size, and performance customization, with the potential to incorporate components like Y-connectors, hubs, and strain reliefs.
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What are Fluoropolymers?

Fluoropolymers achieve high temperature resistance, lubricity, electrical resistance, dielectric strength, and low reactivity.

Learn More about Our Medical Extruded Tubing

Sometimes process parameters and extrusion equipment are more important than the actual dimensions of the tube. Learn more in our white paper: 'Medical Extruded Tubing: Process Parameters & Equipment Play Critical Role in Performance Characteristics'.

In-House Equipment & Expertise

Nordson MEDICAL brings state-of-the-art extrusion equipment together with materials and engineering expertise to develop specialized extruded tubing for the most demanding interventional and surgical applications. We offer:

  • Best-in-class tolerances
  • Fastest medical polyurethane line in the world (> 300 million feet annually)
  • Automatic closed-loop feedback systems that allow us to maintain constant melt pressure to minimize process variation
  • Validated processes to support customer compliance
  • Cleanroom environment for most commercial extrusions

Our Capabilities

Our single-lumen tubing includes ultrathin-wall tubing and microthin-wall tubing.

From simple to the most complex designs, our multi-lumen tubing has 2-9 lumens for simultaneous passage of guidewires, catheters, fluids, and/or gasses. The number of lumens depends on the material and cross-sectional area. Lumens can be shaped to meet user requirements and contained within a round tube or other cross section like an oval or figure-eight.

The extrusion of multiple layers of material is done simultaneously to produce multi-layer tubing. Multi-layer technology is primarily used to improve functionality; for example, to combine a weldable material with one that has other performance characteristics, like lubricity. These constructions can also increase performance and possibly reduce overall assembly and material costs, making the medical device more cost effective for the customer. Other key functionalities may include active material layers, such as hydrophilic, bioresorbable, or drug-eluting layers. The technology and materials now used to produce multi-layer products for today's medical devices have advanced greatly and provide the designer with a wealth of opportunities for optimizing size, materials, and functionality.

Co-extruded multi-layer tubing can combine materials with different but complementary properties, including durometer, color, opacity, radiopacity, or tensile strength, to provide custom catheter solutions. The most common application is medical extruded tubing with radiopaque stripes visible under x-ray. This is accomplished by encapsulating stripes containing a filler visible under x-ray within the wall of the tubing. Typical fillers include these compounds, which can be used in various concentrations to enhance radiopacity:

  • Barium sulphate
  • Bismuth trioxide
  • Bismuth subcarbonate
  • Tungsten

Advanced Co-Extruded Multi-Layer Extruded Tubing Allows Smaller, Thinner, More Functional Catheter-Based Medical Devices
Advances in multi-layer medical extruded tubing have come a long way in providing increased capability to procedures that were previously difficult to execute.

Technical Information
Co-Extruded Multi-Layer Component Desired Primary Property on Inner Layer Inner Layer Material Desired Primary Property on Outer Layer Outer Layer Material
PTA/PTCA Inner Tubing Lubricity HDPE Bondable to adjacent device components Nylon 12
Infusion Tubing Chemical inertness HDPE Flexibility PVC
Tungsten-Polymer Marker Band Radiopacity 80% Tungsten-filled PUR Smoothness PUR
Implantable Central Venous Catheter Flexibility PUR Antimicrobial Silver ion-filled PUR
Coronary Implant Delivery System Lubricity HDPE Bondable to adjacent device components Pebax

Tapered tubing has a transition in outer and inner diameter in a section of the extruded tube. More complex than typical extrusion operations, tapered tubing production requires sophisticated control on the tube pulling/cutting station combined with other process equipment to achieve precise tapered tubing dimensions.

Bump tubing is similar to tapered tubing but has a bump (area of increased outer diameter) along the length of the tube.

The dimensions that can be achieved using this technology depend on the material used. Advantages of this type of specialized extruded tubing include eliminating labor-intensive assembly steps such as welding and stretching.

We can extrude complex shapes and geometries to give you a custom profile.

Materials

Also referred to as melt fluoropolymers as they are processed with traditional extrusion equipment, our line of fluoropolymer tubing is created through a proprietary compounding/blending process that provides custom color and radiopaque fillers while maintaining strict process control.

From pellet to product, Nordson MEDICAL processes an array of fluoropolymer materials including FEP, PFA, PCTFE, ETFE, PVDF, ECTFE, and EFEP. Nordson MEDICAL is one of the few companies in the world with expertise across all of these raw materials.

What are Fluoropolymers?

Fluoropolymers are chemically similar to polyolefins, with the exception of substituting fluorine for hydrogen. This drastically changes the properties. Fluorine's electronegativity causes the bond between carbon and fluorine to be the strongest bond in organic chemistry. This strong bond lends itself to fluoropolymers, achieving high temperature resistance, lubricity, electrical resistance, dielectric strength, and low reactivity.

All of these properties lend to fluoropolymers being extremely biocompatible, and thus ideal, for medical applications. Their drawback is in long-term-use applications under load, as fluoropolymers are notorious for cold-flow, or material creep.

  • Fluoropolymer Tubing Options
    • Single-lumen tubing
    • Multi-lumen/profile extrusions
    • Radiopaque tubing
    • FEP heat shrink tubing
  • Device Components
    • Filled fluoropolymers
      • Custom colors
      • Radiopaque fill/stripe
    • Etched liners
      • Thin-wall/over-wire
    • Tubing for packaging
  • Value-Added Features
    • OD etching
      • Bondability to outer jacket
    • Dip etching
      • Ease of hub attachment
    • Atraumatic taper and radius tips
    • Flanging and flaring
      • Ease of hub attachment
    • Notching and drilling
    • Welding
    • Integration of radiopaque tip
      • Visibility under x-ray or fluoroscopy imaging

Fluoropolymer Etching

Fluoropolymers are known for their combination of superior properties, whether chemical, electrical, or physical. Chances are that when you choose to use a fluoropolymer, it will have to be bonded with another part, whether metal, plastic, ceramic or composite, in order to perform its intended function. This can be a problem, since fluoropolymers are notorious for their lack of bondability. This lack of bondability is caused by the very stable, covalent carbon-fluorine bonds that make up your fluoropolymer. These bonds are so stable that the polymer has difficulty bonding to anything else, even temporarily. To improve bondability, one must remove some of these carbon-fluorine bonds. This process is called fluoropolymer etching, and is a solution that Nordson MEDICAL offers to combat the bondability problem.

Etching is a chemical process that removes the fluorine atoms from the surface layer of the fluoropolymer. This surface layer is so thin; it is most conveniently measured in Angstroms. Once the fluorine atoms are removed, the carbon atoms left behind in the etched polymer quickly form temporary bonds with atoms from the air, such as oxygen, nitrogen, and sometimes even hydrogen. Since these bonds are much weaker, the carbon atoms are still reactive, reducing the surface lubricity and allowing for a more bondable product. Because of the loss of carbon-fluorine bonds, once the surface of your fluoropolymer is etched, the properties of the etched area are changed. One will no longer have the lubricous and low energy surface that is expected from a fluoropolymer. Instead, one will have a wettable, bondable, frictional surface upon which to glue, mold, or print onto your product.

While there are a variety of methods available for fluoropolymer etching, Nordson MEDICAL exclusively uses a solution of Sodium Naphthalene for our in house etching processes. We offer alternate etching chemistries through subcontracts currently in place with outside etching companies.

Etching will only affect the chemistry of the surface with which it comes in contact. The properties of your fluoropolymer are kept intact not only underneath the etched surface, but on the entire remaining unetched surface as well, meaning that the etched product's bulk properties are unaffected by this process.

The results of the etching are not permanent, however. If left unused for long periods of time or stored incorrectly, the etched part regains its initial low bondability.

Nordson MEDICAL offers a variety of etching configurations:

  • In-line surface (OD) etching during extrusion
  • Dip-etching, which offers more control such that only specific surface areas are etched
  • Inside (ID) tube etching
  • Aggressive etching that Nordson MEDICAL subcontracts for alternate etch chemistries (please contact our engineering staff for additional information)

At Nordson MEDICAL, all of our fluoropolymer products are custom manufactured to meet our customers' needs. We can assist whether you have a current design or require our engineering support to design an etching solution for your application.

With excellent strength and heat endurance, PEEK is one of the few polymers that can replace metal, even in high-temperature sterilization applications. PEEK is a solution to invest in due to its many high-performing mechanical properties. This versatile material allows designers to heat form, tip, taper, flare, or flange complex designs.

Highest Strength-to-Weight Ratio Tubing

Our customers choose PEEK tubing for its exceptional strength and lightweight properties, offering excellent pushability along with resistance against kinking and heat. Nordson MEDICAL's PEEK tubing offers:

  • Excellent thermal stability
  • Chemical resistance
  • Impact resistance
  • Electrical insulation
  • Biocompatibility
  • High-tensile strength
  • Low flammability
PEEK Component Applications

Nordson MEDICAL produces PEEK tubing for multiple applications:

Application Featured Material Properties
Balloon tube High burst strength
Bushing Abrasion and heat-resistant properties
Cannulae Pushability, high torque and kink resistance
Delivery catheter Pushability and kink resistance
Inner tubing High-tensile strength
Insulator tubing Electrical and heat-insulation properties
Needle jacket Abrasion and scratch-resistant properties
Outer sleeve Abrasion and heat-resistant properties
Shaped needle Pushability, lubricity and heat-resistance

Technical Information

Single-Lumen Extruded Tubing Technical Information
Single-Lumen Single-Lumen Ultrathin Wall Single-Lumen Microthin Wall
OD Range From 0.003" (0.076 mm) 0.004"–0.120" (0.102 mm–3.048 mm) 0.020"–1" (0.508 mm–25.4 mm)
OD Tolerance From ± 0.0003" (± 0.008 mm) From ± 0.0002" (± 0.005 mm) From ± 0.0004" (± 0.001 mm)
Wall From 0.001" (0.025 mm) From 0.0005" (0.013 mm) 0.00025"–0.003" (0.006 mm–0.08 mm)

Length:
Standard: 62" (157 cm)
Custom Cutting:

  • Maximum straight length: 96" (Longer lengths possible for some sizes)
  • Minimum: 0.020" or less

Fluoropolymer Materials:
PTFE, FEP, ECTFE, EFEP, ETFE, PCTFE, PFA, PVDF

Typical Thermoplastic Materials (contact us for additional options):
ABS, Acetal, Arnitel, Bionate, Carbothane, Chronosil, EFEP, Elastollan, EVA, EVAL, HDPE, Hytrel, LDPE, LLDPE, Medalist, NEOFLONTM EFEP RP-5000, NEOFLONTM PFA AP-210, Nylon 11, Nylon 12, Nylon 6, Pebax® 35D, Pebax 45D, Pebax 55D, Pebax 63D, Pebax 70D, Pebax 72D, Pebax/EverGlide®, Pebax/Mobilize, Pebax/PEBASlide, Pebax/ProPell STM PEEK, Pellethane 55D, Pellethane 75D, PET, Polycarbonate, Polypropylene, Polysulfone, Primacor, PVC, Resin, Rezilient, Santoprene, SEBS, Tecoplast, Tecothane, Texin, Thermoplastic Polyimide

Printing:
Most can be printed using conventional techniques

Multi-Lumen Extruded Tubing Technical Information
OD Range 0.030" (0.8 mm) and up
OD Tolerance From ± 0.001" (± 0.025 mm)
Lumen Diameter 0.006" (0.152 mm) and up
Length Standard: 62" (157 cm)
Custom Cutting
  • Maximum straight length: 96"
    • Longer lengths possible for some sizes
  • Minimum:0.020" or less
Typical Materials (Contact us for additional options) Polyurethane, Pebax, PET, Nylon, Polypropylene, PEEK, Polycarbonate, HDPE, TPE
Printing Can be printed using conventional techniques

Co-Extruded Multi-Layer Extruded Tubing Technical Information

Up to three discrete layers

OD Range From 0.016" (0.410 mm)
OD Tolerance From ± 0.00027" (± 0.007 mm)
Wall From 0.0016" (0.041 mm)
Length Standard: 62" (157 cm)
Custom Cutting:
  • Maximum straight length: 96"
    • Longer lengths possible for some sizes
  • Minimum: 0.020" or less
Materials Outer jacket:
Polyurethane, Pebax, PET, Nylon, Polypropylene, HDPE, TPE

Inner jacket:
Polypropylene, HDPE, Polyurethane
Printing Can be printed using conventional techniques

Co-Extruded/Stripe Extruded Tubing Technical Information
OD Range From 0.020" (0.508 mm)
OD Tolerance From ± 0.00027" (± 0.007 mm)
Wall From 0.0016" (0.04 mm)
Length Standard: 62" (157 cm)
Custom Cutting:
  • Maximum straight length: 96"
    • Longer lengths possible for some sizes
  • Minimum: 0.020" or less
Typical Materials (Contact us for additional options) Polyurethane, Pebax, Nylon, TPE
Stripes: a range of radiopaque fillers
Printing Can be printed using conventional techniques

General
Property ASTM PTFE FEP PFA ETFE PVDF PCTFE ECTFE
Chemical/Solvent Resistance D543 Excellent Excellent Excellent Excellent Excellent Excellent Excellent
Density D792 2.22 g/cc 2.15 g/cc 2.15 g/cc 1.7-1.86 g/cc 1.76-1.88 g/cc 2.10-2.17 g/cc 1.68 g/cc
Water Absorption D570 <0.01% <0.01% <0.03% <0.03% <0.06% <0.02% <0.01%
Refractive Index 1.35 1.338 1.34 1.40 1.42 1.435 1.447
Standard Percent Crystallinity >90% 70% 48-70% 50% 35-70% 30-70% 50-55%
Mechanical
Property ASTM PTFE FEP PFA ETFE PVDF PCTFE ECTFE
Specific Gravity D792 2.13-2.20 2.12-2.17 2.12-2.17 1.70-1.76 1.78 2.12 1.68
Elongation D638 200-550% 325% 300% 300% 50-400% 100-250% 200-300%
Tensile Strength D638 20-35 MPa 23 MPa 24 MPa 37-50 MPa 17-48 MPa 34-39 MPa 30-48 MPa
Young's Modulus D638 0.39-0.6 GPa 0.44-0.64 GPa 0.45 GPa 0.49-0.78 GPa 0.5-5 GPa 1.4 GPa 1.4-2.1 GPa
Flexural Modulus D790 0.275-0.7 GPa 0.58 GPa 0.6-0.7 GPa 0.7-1.2 GPa 1.3-7 GPa 1.2-1.4 GPa 1.6-2 GPa
Hardness Durometer 55 Shore D 0.58 GPa 55-60 Shore D 63-75 Shore D 65-82 Shore D 80-90 Shore D 70-90 Shore D
Coefficient of Friction 0.02 (on steel) 0.05 (on steel) 0.2 (on steel) 0.06 (on steel) 0.15 (on steel) 0.08 (on steel) 0.19 (on steel)
Thermal
Property ASTM PTFE FEP PFA ETFE PVDF PCTFE ECTFE
Melting Point 327°C 260°C 305°C 267°C 173°C 212°C 240°C
Glass Transition Temperature 127°C 80°C 100°C 40-80°C -35°C 120°C 85°C
Upper Service Temperature 260°C 204°C 260°C 176°C 150°C 132°C 150-170°C
Thermal Conductivity 0.25 W/m-K 0.19-0.25 W/m-K 0.15-0.25 W/m-K 0.24 W/m-K 0.17-0.19 W/m-K 0.84 W/m-K 0.151-0.157 W/m-K
Linear Coefficient of Thermal Expansion D696 >11.6 10-5/°C 8.3-10.5 10-5/°C 13 10-5/°C 13 10-5/°C 6.6 10-5/°C 7 10-5/°C NA
Electrical
Property ASTM PTFE FEP PFA ETFE PVDF PCTFE ECTFE
Dielectric Constant D150 2.1 MHz 2.1 MHz 2.1 MHz 2.6 MHz 8.5 MHz 2.6 MHz 2.55 MHz
Dielectric Strength D149 >1400 V/mil >1400 V/mil >1400 V/mil 1600 V/mil 1700 V/mil 3000 V/mil NA
Volume Resistivity D257 >1018 ohm-cm >1018 ohm-cm >1018 ohm-cm >1016 ohm-cm >1014 ohm-cm >1017 ohm-cm >1016 ohm-cm
Surface Resistivity D257 >1017 ohm/sq. >1017 ohm/sq. >1017 ohm/sq. >1015 ohm/sq. >1014 ohm/sq. >1015 ohm/sq. >1014 ohm/sq.
Linear Coefficient of Thermal Expansion D696 >11.6 10-5/°C 8.3-10.5 10-5/°C 13 10-5/°C 13 10-5/°C 6.6 10-5/°C 7 10-5/°C NA

PTFE:
PTFE was the first fluoropolymer to be discovered. It is also the most difficult to process. Because its melt temperature is only a few degrees shy of its degradation temperature, it cannot be melt-processed. PTFE is processed using a sintering method, where the material is heated to a temperature below its melting point for an extended period of time. The PTFE crystals unravel and interlock with each other, allowing the plastic to take the shape it is intended to take. PTFE has been used in the medical industry as early as the 1960s. Today, it is typically used for split-sheath introducers and dilators, as well as lubricious catheter liners and heat shrink tubing. Because of the chemical stability and low coefficient of friction, PTFE is an ideal catheter liner.

FEP:
FEP is chemically very similar to PTFE. It adds on a CF3 pendant group every fourth carbon, which dramatically lowers its crystallinity. Because it is less crystalline than PTFE, its melt temperature is lower, which allows it to be melt-processed. All of its other material properties are nearly identical to those of PTFE. It is used for a variety of purposes where sterilization and heat resistance are the biggest factors. It can also be used to make high-temperature heat shrink tubing used for reflow catheter layups.

ECTFE:
ECTFE is a copolymer of PE and PCTFE. It is known for impact strength and good low temperature properties. For this reason, it is used as a gasket material for stored gases, particularly oxygen. It can also be used as a filtering material.

EFEP:
EFEP is a copolymer of FEP and polyethylene. This fluoropolymer is special because it can bond with other materials without requiring an etching step, yet it still retains the chemical resistance that is the trademark of fluoropolymers. It is also more optically clear than other fluoropolymers.

ETFE:
ETFE is a copolymer of PTFE and polyethylene. This allows the polymer to take on some of the properties of both individual plastics. It is also very resistant to UV light. It is used for medical applications that involve exposure to UV light on a regular basis. It is often considered a high strength version of FEP or PFA.

PCTFE:
PCTFE is known primarily for its low water vapor transmission rate. Because of this, it is often used in packaging of things that are extremely moisture-sensitive. It is also used for chemical-resistant barriers and coatings. The addition of the chlorine atom into its structure dramatically lowers its melting temperature due to chlorine's bulkiness.

PFA:
Perfluoroalkoxy (PFA) is the melt-processable fluoropolymer with the highest temperature resistance. It is often compared with FEP, which it surpasses in fatigue life, but falls short in moisture resistance. Its advantage in medical applications is that it is similar to PTFE in fatigue life but can be manufactured in more complex ways as it is melt-processable.

PVDF:
Polyvinylidene fluoride (PVDF) is used when chemical purity is a must. It also demonstrates piezoelectric behavior, which is a contraction or expansion in response to a magnetic field. It is a popular material used to create tools used for protein separation.

Melt Fluoropolymers Specifications
Material Features Capabilities Configurations Fillers Sterilization Enhancements
Fluorinated Ethylene
Propylene (FEP)
Chemical Resistance
Melt-Processable
Good Dielectric Properties
Good Surface Lubricity
OD up to 0.4"
Wall Down to .0015"
2-10 Lumens
Custom Heat Shrink Sizes
Beading/Custom Profiles
Multi-Lumen
Heat Shrink
Bismuth Trioxide
Barium Sulfate
Titanium Dioxide
Tungsten
Custom Colors
EtO
Steam/Autoclave
Notching/Drilling
Flaring/Flanging/Tipping
Etching
Ethylene
Tetrafluoroethylene
(ETFE)
Chemical Resistance
Melt-Processable
Good Dielectric Properties
Aging-Resistant
OD up to 0.4"
Wall Down to .0015"
2-10 Lumens
Beading/Custom Profiles
Multi-Lumen
Bismuth Trioxide
Barium Sulfate
Titanium Dioxide
Tungsten
Custom Colors
EtO
Steam/Autoclave
Gamma
E-Beam
Notching/Drilling
Flaring/Flanging/Tipping
Etching
Ethylene Fluorinated
Thylene Propylene
(EFEP)
Chemical Resistance
Adherence to Polymers Without Etching
Very High Transparency
OD up to 0.4"
Wall Down to .0015"
2-10 Lumens
Beading/Custom Profiles
Multi-Lumen
Bismuth Trioxide
Barium Sulfate
Titanium Dioxide
Tungsten
Custom Colors
EtO
Gamma
Notching/Drilling
Flaring/Flanging/Tipping
Perfluoroalkoxy
(PFA)
Chemical Resistance
Melt-Processable
High Purity
Good Stiffness
OD up to 0.4"
Wall Down to .0015"
2-10 Lumens
Beading/Custom Profiles
Multi-Lumen
Bismuth Trioxide
Barium Sulfate
Titanium Dioxide
Tungsten
Custom Colors
EtO
Steam/Autoclave
Notching/Drilling
Flaring/Flanging/Tipping
Etching
Polyvinylidene
Fluoride
(PVDF)
Chemical Resistance
Easily Melt-Processable
High Purity
OD up to 0.4"
Wall Down to .0015"
2-10 Lumens
Beading/Custom Profiles
Multi-Lumen
Bismuth Trioxide
Barium Sulfate
Titanium Dioxide
Tungsten
Custom Colors
EtO
Steam/Autoclave
Gamma
E-Beam
Notching/Drilling
Flaring/Flanging/Tipping
Etching
Polychlorotrifluoroethylene
(PCTFE)
Chemical Resistance
Good Temp Resistance
Melt-Processable
Excellent Stiffness
OD up to 0.4"
Wall Down to .0015"
2-10 Lumens
Beading/Custom Profiles
Multi-Lumen
Bismuth Trioxide
Barium Sulfate
Titanium Dioxide
Tungsten
Custom Colors
EtO
Steam/Autoclave
Gamma
E-Beam
Notching/Drilling
Flaring/Flanging/Tipping
Etching
Ethylene
Chlorotrifluoroethylene
(ECTFE)
Chemical Resistance
Melt-Processable
Good Dielectric Properties
Good Surface Lubricity
OD up to 0.4"
Wall Down to .0015"
2-10 Lumens
Beading/Custom Profiles
Multi-Lumen
Bismuth Trioxide
Barium Sulfate
Titanium Dioxide
Tungsten
Custom Colors
EtO
Steam/Autoclave
Notching/Drilling
Flaring/Flanging/Tipping
Etching

Contact us for PEEK tubing specifications.

Contact Us »

Tapered and Bump Extruded Tubing Specifications

Available in single- or multi-layer coextruded configurations. Tapered wall thickness with constant ID available.

OD Range From 0.02" (0.5 mm)
OD Tolerance From ± 0.0003" (± 0.008 mm)
Wall Transition From 0.001" (0.025 mm) over discrete transition
Length Standard: 62" (157 cm)
Custom Cutting:
  • Maximum straight length: 96" (longer lengths possible for some sizes)
  • Minimum: 0.020" or less
Typical Materials (contact us for aditional options) Polyurethane, Nylon, Pebax, Polyethylene, TPE
Printing Can be printed using conventional techniques

Profile Extruded Tubing Specifications

Can be designed in various shapes (e.g., crescent, H-shape, rod)

OD Range 0.010"–0.14" (0.254 mm–3.56 mm)
OD Tolerance ± 0.0003" (± 0.007 mm)
Wall N/A
Length Standard: 62" (157 cm)
Custom Cutting:
  • Maximum straight length: 96" (longer lengths possible for some sizes)
  • Minimum: 0.020" or less
Fluoropolymer Materials PTFE, FEP, ECTFE, EFEP, ETFE, PCTFE, PFA, PVDF
Typical Thermoplastic Materials (contact us for additional options) Polyurethane, Pebax, PET, Nylon, Acetal, HDPE, Polypropylene
Printing Can be printed using conventional techniques

Tipping
Materials Capabilities Dimensions Tolerances Performance Characteristics Some Clinical Applications
All thermoplastic polymers can
be formed, including:

LDPE
HDPE
Polyethylene(PE) copolymers
Polypropylene (PP)
Polyurethans (PU) & PU blends
Pebax®
PEEK
Tungsten-loaded
Closed tips
Tapered tips
Radiused tips
Angled tips
Soft tips
Radiopaque tips
Neck Down
Butt welds
Overlap welds
Flaring
Bulbous tips
Polyimide reinforced
Constant IDs
Tapered IDs
Flashless
Deflashed
Dimensions from 2 Fr - 45 Fr

Taper lengths from 0.039"
(1 mm) - 3.543" (90 mm)
Tip OD tolerances
±0.0002" (0.005 mm)

General tolerances
± 0.001" (0.025 mm)
High temperature tipping
Process controls
Fast cycle times
1-, 2-, & 4-up tipping
Validatable processes
Aneurysmembolization
  • Peripheral
  • Neurovascular
Tracheal
Urinary
Angiographic
Central venous catheters
CVC
IV tips
Dilator tips
Coronary
Contraceptive devices - IUCD
And more

Printing
Materials Capabilities Dimensions Tolerances Performance Characteristics Some Clinical Applications
Pre-treated polyethylene (PE)
Pre-treated polypropylene (PP)
Polyurethane (PU)
Polyamide (PA)
Polystyrene (PS)
ABS
Polycarbonate (PC)
Rigid & soft PVC
Coated substrates
Thermoset plastics
Text
Numeric
Depth marks
Corona surface treatment
Plasma surface treatment
Medical-grade TPU, TPR, & PP solvent-based inks
Range of colors available
360° marking
Taper lengths from 0.039"
Single-plane printing
Adjustability for various tube diameters
Print areas up to 33.465" (850 mm)
Position tolerances
up to 0.02" (0.500 mm)
High temperature Tipping
Y- & Z-axis servo drives
Y-axis servo control allows the pad to pick up various artworks from a single cliche
Adjustable vacuum control
Automatic pad cleaning
Angiographic catheters
Balloon catheters
Contraceptive devices - IUCD
Central venous catheters
Dilators
Tracheal devices
Urinary devices
And more

Hole Forming
Materials Capabilities Dimensions Tolerances Performance Characteristics Some Clinical Applications
Teflon® PTFE
Teflon® FAP
Silicone
Polyimide
Pebax®
PEEK
Polyurethane (PU)
PVC (vinyl)
Latex & natural rubber
TPE
PET
Polycarbonate (PC)
Acrylic
Polyethylene (PE)
Nylon 6 & small diameter nylon 12
Delrin® (acetal)
Polypropylene (PP)
Any hole or skive pattern
is achievable
Holes as small as 0.009" (0.229 mm)
Razor-sharp cutting edges
Drill edge diameters sharpened to ±0.0007" (0.018 mm)
Multi-lumen configurations
from 2 - 8+ lumens
Drill tip registration
Hole plug detection
Precise location & performation of individual lumens
Long drill life
Collet-style drill head for punches & ejector pins
Three cutting tip profiles: outside, middle, & inside
Aneurysm embolization
  • Peripheral
  • Neurovascular

Contraceptive devices - IUCD
Drainage catheters
And more

Over-Molding
Materials Capabilities Dimensions Tolerances Performance Characteristics Some Clinical Applications
Wide variety of thermoplastic polymers
Substrate Materials
  • Extruded shafts
  • Braided shafts
  • Metal hypotubes
Over-molding
Insert molding
Y-connectors & hubs
Strain reliefs
Luers, connectors, & hubs
Other assemblies
Incorporated into handles
Profiles, size, & performance are limitless
All projects assessed separately based on
material selection, quantity, and size
General tolerances ±.002" (0.051 mm)
- ±.003" (0.076 mm)
Increased product value
Additional functionality
Reduced post processing & assembly
Repeatable & validatable
Single cavity & up to 4 or 8 cavities
Cold or hot runners
Common catheter shafts - luers, connectors, hubs
Strain reliefs
Handles
Endoflator devices
And more

Heat Shrink Tubing

Nordson MEDICAL brings years of experience and expertise to PET and FEP heat shrink tubing. Learn how our heat shrink tubing can be used in your next project.

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