Laser Cut Hypotube

Name: Laser Cut Hypotube
Brand: Medical Hypotubes
SKU: MHT-LASER-CUT-HYPOTUBE

Burr-free laser-cut stainless steel hypotube shafts with custom spiral and slotted flexibility patterns.

Target Buyer:R&D teams needing tight-tolerance laser-cut hypotubes.

spiral laser-cut hypotube for catheter flexibility planning

Capability Highlights

Spiral, slot, and variable-flex patterns
Electropolishing
Prototype to production

Typical Applications

Balloon catheter shafts
Stent delivery
Neurovascular devices

Engineering Focus

Slot geometry
Kerf width
Transition-zone stiffness

Key Evaluation Matrix

Metric	Typical Range	Why It Matters
Laser slot width	10-30 um	Controls shaft flexibility.
Pattern options	Spiral, interrupted spiral, slot, window, puzzle joint	Lets engineers tune pushability, flexibility, torque, and kink behavior.
Post-processing	Deburr, electropolish, passivate, microscopic inspect	Reduces HAZ, recast, and burr risk before sample validation.

Buyer Decision Points Before RFQ

Decision Factor	Confirm Before Quote	Buyer Impact
Cut pattern function	Continuous spiral, interrupted spiral, slot/window, jigsaw, bridge width, and transition length.	Connects the drawing to the required pushability, flexibility, torque, and kink behavior.
Kerf and edge condition	Slot width, kerf tolerance, burr limit, recast/HAZ expectation, and inspection method.	Reduces the risk of micro-burrs, fatigue initiation, and failed catheter validation builds.
Post-cut finishing route	Electropolishing, passivation, oxide removal, cleaning, and surface roughness target.	Turns a cut tube into an assembly-ready medical component rather than a rough laser sample.

RFQ Checklist

Share tube and pattern drawing
Define surface finish
State prototype quantity

Risk Controls

Microscopic burrs: Magnified inspection and electropolishing.
Weak bridges or early fatigue: Define bridge width, slot-end radius, transition length, and post-cut finishing before prototype release.

Manufacturing and Release Flow

Pattern review: Check flat pattern, tube geometry, uncut regions, transition zones, and fixture feasibility.
Laser cutting: Run precision tube cutting with controlled kerf, assist gas, heat input, and rotation alignment.
Burr removal: Use electropolishing, cleaning, and edge conditioning to reduce recast and cut-edge defects.
Prototype validation pack: Release samples with dimensional checks, surface notes, and recommended next iteration actions.

Quality Evidence Buyers Can Request

Slot width and pattern feature inspection
Microscopy for burr, slag, recast, and bridge integrity
Electropolishing/passivation record when requested
Drawing revision and sample lot traceability

Product Gallery

laser-cut hypotube sample for slot width and bridge review

medical hypotube with spiral cut pattern for stiffness transition review

precision laser-cut tube pattern for torque and pushability evaluation

laser-cut catheter tube component for burr and edge-condition review

Buyer FAQ

Can you support custom laser patterns?

Yes, please share pattern drawings.

What should a laser cut hypotube drawing include?

Include base tube dimensions, pattern type, slot width, bridge width, pitch, transition zones, burr limit, finish route, and inspection expectations.

Related Buyer Paths

Resources

RFQ Checklist

Applications

Capabilities

Inquiry Email

[email protected]

Email app

Best for drawings, tolerance tables, inspection needs, and quote history.

Instant Chat

+8618857971991

Chat on WhatsApp

Fast path for OD/ID, material, sample quantity, and lead-time questions.

Key Evaluation Matrix

Metric	Typical Range	Why It Matters
Laser slot width	10-30 um	Controls shaft flexibility.
Pattern options	Spiral, interrupted spiral, slot, window, puzzle joint	Lets engineers tune pushability, flexibility, torque, and kink behavior.
Post-processing	Deburr, electropolish, passivate, microscopic inspect	Reduces HAZ, recast, and burr risk before sample validation.

Buyer Decision Points Before RFQ

Decision Factor	Confirm Before Quote	Buyer Impact
Cut pattern function	Continuous spiral, interrupted spiral, slot/window, jigsaw, bridge width, and transition length.	Connects the drawing to the required pushability, flexibility, torque, and kink behavior.
Kerf and edge condition	Slot width, kerf tolerance, burr limit, recast/HAZ expectation, and inspection method.	Reduces the risk of micro-burrs, fatigue initiation, and failed catheter validation builds.
Post-cut finishing route	Electropolishing, passivation, oxide removal, cleaning, and surface roughness target.	Turns a cut tube into an assembly-ready medical component rather than a rough laser sample.

Manufacturing and Release Flow

Pattern review: Check flat pattern, tube geometry, uncut regions, transition zones, and fixture feasibility.

Laser cutting: Run precision tube cutting with controlled kerf, assist gas, heat input, and rotation alignment.

Burr removal: Use electropolishing, cleaning, and edge conditioning to reduce recast and cut-edge defects.

Prototype validation pack: Release samples with dimensional checks, surface notes, and recommended next iteration actions.