The world of medical devices is evolving rapidly, with a growing need for miniaturized components, precision microfabrication, and advanced engineering. As MedTech manufacturers seek to push the boundaries of innovation, the demand for scalable micro manufacturing solutions that ensure ISO 13485 compliance is more critical than ever.
At FEMTOPRINT, we specialize in cutting-edge high-precision glass micromanufacturing that can respond to the MedTech industry’s need for elevated precision and miniaturization. With advanced femtosecond laser technology, we enable the development of complex miniaturized components with exceptional precision, customization, functionalities integration, biocompatibility, and durability.
Our expertise covers medical devices, microfabrication platforms, and innovative components designed for MedTech manufacturers looking for scalability and supply chain reliability.
Glass microfabrication uses a femtosecond laser to build medical-grade components directly in fused silica or borosilicate, hermetic packages, microfluidic channels, micro-optics and biocompatible MEMS, in true 3D, with no molds or masks. Because glass is biocompatible, chemically stable and transparent to both light and radio frequency, it serves implantable and diagnostic devices that metal or polymer can’t. FEMTOPRINT runs this as a one-stop CDMO under ISO 13485:2016, from first prototype to certified volume.
Implantable electronics and sensors need a package that stays sealed for years inside the body. A femtosecond-laser weld bonds glass-to-glass or glass-to-silicon at room temperature, with no adhesives, so heat-sensitive components survive and the package stays transparent to RF and light.
Glass MEMS carry real-time data, intraocular, blood and intracranial pressure, from long-term implants, and can combine bonded multi-materials such as silicon and fused silica in one device.
Glass microfluidic chips control fluids at the microscale for point-of-care diagnostics and lab-on-chip, with channel widths in the 30–50 µm range and optically clear walls for integrated detection.
Beyond packaging, the same platform builds micro-optics, waveguides and micromechanical parts, micro-tweezers and grippers for minimally invasive surgery, optics for endoscopy and Raman spectroscopy.
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Key Applications for miniaturized medical devices.
FEMTOPRINT’s technology is driving advancements across a wide range of miniaturized medical applications:
Why choose FEMTOPRINT?
We differentiate ourselves in the MedTech industry through:
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Our products are manufactured to fulfil the medical market requirements like product lifecycles of 10 years +.
Our design and manufacturing facilities are certified according to the ISO 13485:2016 standard for quality management.
We support our Customers with integrated solutions combining different technology building-blocks and taking the responsibility as a total solution provider.
We excel in product performance with the integration of the latest technologies that may contribute to performance and quality increase as well as to cost reduction.
A femtosecond-laser process that builds medical-grade components directly in fused silica or borosilicate — hermetic packages, microfluidic channels, micro-optics and biocompatible MEMS — in true 3D, with no molds or masks.
Yes. Glass is biocompatible, chemically stable and resistant to corrosion and moisture, and it is transparent to light and radio frequency, which suits long-term implantable sensors and hermetically packaged electronics.
Implantable pressure and biosensors, point-of-care diagnostics and lab-on-chip, endoscopic and imaging optics, microsurgical tools, and drug-delivery systems such as glass microneedles and implantable pumps.
Yes. FEMTOPRINT is certified to ISO 13485:2016 and ISO 9001:2015 and manufactures medical product lifecycles of 10 years and beyond.
Yes. As a one-stop CDMO, the same femtosecond-laser platform runs from prototype to wafer-scale volume up to 300 mm, holding XY ±1 µm / Z ±2 µm tolerances throughout.