Cardiovascular

Medical illustration of a cardiac electrophysiology catheter with multiple electrodes advancing through a blood vessel toward the heart. Medical illustration of a cardiac electrophysiology catheter with multiple electrodes advancing through a blood vessel toward the heart.

Cardiovascular device manufacturing.

Catheter-based devices and cardiovascular diagnostics, built on the catheter, interconnect, and precision-assembly engineering behind ATL Medical's cardiovascular work—for established OEMs and emerging innovators.

Overview

Proven catheter engineering, applied to cardiovascular devices.

ATL Medical's cardiovascular work draws on the same catheter, interconnect, and molded-component engineering behind its electrophysiology programs. Shaft mechanics, materials, articulation, electrical elements, assembly, and manufacturability are engineered together as one system, whether the program is a catheter-based device or an imaging-enabled diagnostic.

Where ATL Medical fits

Where ATL Medical fits in cardiovascular programs.

Advanced vascular therapies

Catheter-based delivery for emerging vascular therapies, built on braided, steerable, and multi-lumen shaft construction. Includes: vascular and non-vascular delivery devices.

Cardiovascular diagnostics

Complex, imaging-enabled diagnostic devices that combine mechanical and sensing systems. Includes: intracardiac echocardiography (ICE) and other diagnostic catheters.

Catheter-based devices

Precision assembly, molded components, and interconnect applied to cardiovascular catheter platforms. Includes: guiding and access catheters, introducers, steerable shafts, and guidewires.

Braiding machine forming wire braid over a catheter shaft Braiding machine forming wire braid over a catheter shaft
Why it matters • Complex Catheter & Delivery Systems

Catheter shafts, designed and built in-house.

ATL Medical designs and manufactures the catheter shaft in-house, along with the connector, cable, PCBA, handle, and other molded components, and brings them together into one assembly.

For cardiovascular programs, that means one team engineers shaft performance and manufacturability instead of coordinating across suppliers.

Common questions

Common questions engineers ask.

The same catheter, interconnect, and molded-component capabilities behind ATL's electrophysiology work, applied to catheter-based devices and imaging-enabled diagnostic devices.

Single-lumen and multi-lumen constructions, guiding and access catheters, working channels, introducers, and percutaneous platforms, in one-, two-, and four-way steerable configurations.

Pushability, column and radial strength, force translation and stiffness, flexibility and trackability, kink resistance, torque response, durability, radiopacity and ultrasound visibility, coating performance, and burst resistance.

Round- and flat-wire braiding across multiple braid patterns; coiled and hypotube-reinforced constructions through qualified supply pathways; fluoropolymer, polyimide, HDPE, and other liners; PEBAX, nylon/polyamide, polyurethane, and other jackets; and lamination, reflow, and split-die bonding to join them.

No. ATL's cardiovascular work builds directly on the catheter and interconnect engineering behind its electrophysiology programs, so programs start from established capability.

Electrophysiology and percutaneous ablation catheters; cardiac imaging, including intracardiac echocardiography (ICE); guiding and access catheters and introducers; steerable catheter shafts; vascular and non-vascular delivery devices; and guidewires.

Have a cardiovascular device in development?

Talk to an ATL Medical engineer about your program.