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LionX: our chips enable your products

  • Arne Leinse EMAIL logo
Veröffentlicht/Copyright: 6. April 2013
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1 The company

LioniX is a leading co-developer, manufacturer and provider of products and components based on cutting-edge micro/nano technology for its original equipment manufacturer (OEM) customers. LioniX provides design to manufacturing and “horizontal integration” by partnering with foundries, suppliers of complementary technologies and R&D institutes. LioniX offers small volume manufacturing, second sourcing, as well as transfer to medium and high volume manufacturing. The company specializes in applications of integrated optics, microfluidics and optofluidics, including surface functionalization.

2 The optofluidic technology

In an optofluidic application, a fluidic channel can be probed with an integrated optical waveguide, and absorption, fluorescence or refractive index measurements can be done. The integrated optical waveguide is realized in the proprietary waveguide technology (TriPleX) of LioniX.

TriPleX waveguides form a new class of integrated-optical planar lightwave circuits, using low-cost, CMOS-compatible fabrication equipment. The waveguides are based on low pressure chemical vapor deposition (LPCVD) processing of alternating Si3N4 and SiO2 layers. TriPleX technology allows for medium and high index-contrast waveguides that exhibit low channel attenuation. In addition, TriPleX waveguides are suitable for operation at wavelengths ranging from 405nm through 2.35 µm. The high index-contrast and broad wavelength range make the TriPleX technology extremely suitable for a variety of applications, ranging from telecom to sensing. Besides silicon as a carrier, the TriPleX technology can also be combined with fused silica, which makes it extremely suitable for a Lab-on-a-Chip.

3 An example

In microreactor technology, the integration of waveguides can have a high added value to monitor the reactions inside a fluidic chip. By using a light source with multiple laser line widths (like for instance a Hyperion light source of XiO Photonics http://www.xiophotonics.com/products/hyperion_multicolor_laser_source/), a spectral fingerprint of a reaction in the fluidic channel can be obtained in, for instance, microreactors. In the picture, an example of an absorption based sensor in a fluidic channel is shown.

 Optofluidic chip with fluidic channel (in blue) and waveguide (in yellow)

Optofluidic chip with fluidic channel (in blue) and waveguide (in yellow)

4 The people (CEO)

Hans van den Vlekkert has been active in the micro systems technology (MST) for nearly 30 years. He has carried out research, as well as development work, resulting in many products available on the market such as pH-ISFET systems and accelerometers. During his career, he has been responsible for marketing and sales (CSEM and TMP), as well as for the production of Microsystems (Sentron, CSEM and TMP), as head of silicon foundries and subcontracting higher volumes to other foundries and assembly companies. He has also been responsible for the Mesa+ Nanolab. He was active in European programs as a project leader for large projects, such as Europractice, and was also a member of the board of Nexus and Eurimus. At present, amongst others, he is member of the board of IVAM and project coordinator of the large Memphis project (>30 MEuro’s research program on photonics in the Netherlands). He has written over 50 papers and holds several patents in various fields.


Corresponding author: Arne Leinse, LioniX, PO box 456, Enschede 7500AL, The Netherlands

Published Online: 2013-04-06
Published in Print: 2013-04-01

©2013 by Walter de Gruyter Berlin Boston

Artikel in diesem Heft

  1. Masthead
  2. Masthead
  3. Graphical abstracts
  4. In this Issue
  5. Editorial
  6. Scientific spring metamorphosis
  7. Original articles
  8. Development highlights of micro-nano technologies in the MENA region and pathways for initiatives to support and network
  9. Integrated processing for the separation of biobutanol. Part A: experimental investigation and process modelling
  10. Integrated processing for the separation of biobutanol. Part B: model-based process analysis
  11. Direct saccharification of lignocellulosic biomass by hydrolysis with formic acid solution
  12. A facile synthesis of 2H-chromen-2-ones via Pechmann condensation under solvent free conditions using grinding technique
  13. Counter-current arrangement of microfluidic liquid-liquid droplet flow contactors
  14. Organization profiles
  15. The Centre for Green Process Engineering (CGPE) opens with launch event at London South Bank University (LSBU)
  16. King Saud University: nanoscience and nanotechnology research highlights
  17. Kuwait Institute for Scientific Research
  18. University profile
  19. Nanoscience and nanotechnology research highlights at Kuwait University
  20. Laboratory profiles
  21. Microfluidics Group – Department of Chemistry, Sultan Qaboos University
  22. Assiut Microfluidics Laboratory
  23. Company profiles
  24. Hikma Pharmaceuticals
  25. SÜSS MicroTec and iX-factory: qualified process and equipment support for development, research and production – made in Germany
  26. LionX: our chips enable your products
  27. Conference announcements
  28. 17th Annual Green Chemistry and Engineering Conference (GC&E; North Bethesda, MD, USA, June 18–20, 2013)
  29. 17th IUPAC Conference on Organometallic Chemistry Directed Towards Organic Synthesis (OMCOS 17), Fort Collins, CO, USA, July 28–August 1, 2013
  30. Conferences 2013/2014
  31. Book review
  32. Chemicals from biomass: integrating bioprocesses into chemical production complexes for sustainable development
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