Knia Pablo

The demand for minimally invasive medical devices with advanced therapeutic and diagnostic capabilities is growing rapidly. Modern electrophysiology, interventional cardiology, and neurology procedures require multi-functional devices that can cross complex anatomy while simultaneously delivering energy or sensing real-time biological data.  Traditionally, adding electrical capabilities to a balloon catheter means running discrete, bulky copper wires or integrating rigid,

In neurovascular intervention, visualization is critical. Physicians navigating tortuous cerebral anatomy rely on fluoroscopic imaging to accurately track device location, deployment, and procedural progress. As procedures become increasingly sophisticated, the demand for enhanced radiopacity in neurovascular microcatheters and embolization systems continues to grow.  Radiopacity is a fundamental design requirement that directly impacts procedural precision, physician confidence, and

In the high-stakes environment of interventional radiology and minimally invasive surgery, visibility is not just a feature; it is a safety requirement. Catheter-based delivery systems must navigate complex vascular pathways with extreme precision. However, the polymers typically used in catheter construction, such as Pebax® or polyurethane, are inherently radiolucent, meaning they are nearly invisible under X-ray-based imaging like fluoroscopy (Nugent et al.,

In the rapidly evolving landscape of nuclear medicine, the demand for short-lived isotopes, such as Fluorine-18, Carbon-11, Gallium-68, and Copper-64, has placed unprecedented pressure on cyclotron performance. As the primary engine behind the cyclotron in the development of radiopharmaceuticals, these particle accelerators must operate at peak efficiency to meet the clinical requirements of PET and SPECT imaging. However,

In the evolving landscape of minimally invasive surgery, the demand for high-performance steerable systems has never been greater. At the heart of these complex assemblies lies a critical, often overlooked component: the pull ring. For engineers designing deflectable catheters, the choice of surface finish for these rings is not merely aesthetic; it is a functional necessity that dictates the

In the rapidly evolving landscape of telecommunications, the demand for high-frequency data transmission and 5G infrastructure has placed unprecedented pressure on component reliability. At the heart of these systems are telecom interconnects, the critical junctions where signal integrity is won or lost.  Gold remains the industry standard for these components due to its exceptional conductivity and unparalleled corrosion resistance. However, with the

The evolution of minimally invasive surgery has placed unprecedented demands on the mechanical and biological performance of surgical instruments. At the heart of this revolution is endoscopy, the medical procedure where a surgeon inserts a specialized tube equipped with a camera and lighting (an endoscope) into the body to visualize internal organs or perform complex surgeries through

The rapid evolution of Electric Vehicle (EV) architecture has shifted the engineering focus toward high-voltage efficiency and thermal management. At the heart of this transition lies the battery pack, where thousands of individual cells must be interconnected with absolute reliability. The efficiency of these EV battery contact interfaces is not merely a matter of mechanical fastening; it

Explore the technical role of electroplating in balloon-expandable stent manufacturing. Learn how precision coatings enhance radiopacity and performance.

Optimize electrical performance and reduce costs with targeted metal deposition for connector pins. Discover ProPlate’s selective gold plating solutions.

Explore how high-performance electroplated finishes like Gold and Silver optimize EMI shielding and signal integrity in mission-critical electronics.