CondAlign AS
CondAlign AS
Website
HQ Country
Norway
Profile
CondAlign develops anisotropic film materials based on our patented technology. We create next generation advanced films, like anisotropic conductive pressure sensitive adhesives and other conductive films. These add new freedom to the designers' building techniques when they create new products within hybrid, flexible and printed electronics systems. The technology makes use of electric fields to structure particles in a polymer matrix. The process is well suited for roll-2-roll production.
CondAlign was established in 2010 as a spin off from a Norwegian research center, has eight full time employees, offices, lab-space and R2R pilot production capabilities in Oslo, Norway.
Filtered by:
CondAlign AS
Company
Topic
Show
2023
15 Jan 2023
CondAlign
CondAlign is an early-stage Norwegian company that is about to commercially launch its field-aligned anisotropic electrically conductive adhesive film. This enables low temperature component attachment with pitches as fine as 25 um. IDTechEx caught up with Moreton Lindberget, VP of Sales and Marketing.
Included are:
2021
23 Mar 2021
Electrically Conductive Adhesives in Wearable Electronic Applications
Investigating the fields of Component and Electrode Attachments in the Wearables Industry
Included are:
8 Mar 2021
Where are the Innovations in Thermal Interface Materials
Thermal management is one of the most important topics in a wide range of applications; from electric vehicle battery packs through to consumer electronics, there is a pressing need to dissipate heat efficiently. Thermal interface materials (TIM) come in numerous types and play a crucial role in the thermal transfer from a heat source. This article looks at what the major innovations are for these materials and why those developments are significant.2020
18 Aug 2020
Nopion
CondAlign have developed an anisotropic conductive film based on an electric field that pre-aligns conductive particles before the resin sets.
12 Aug 2020
CondAlign
CondAlign has developed a technology for making anisotropic conductive films, in which electrically and/or thermally conductive particles are aligned by applying an electric field during film manufacture.
Included are:
2019
21 Nov 2019
Anisotropic Particle-Filled Polymer Films Structured By Electric Fields - Technology, Applications And Markets
CondAlign AS, Norway
8 Oct 2019
CondAlign
CondAlign have developed a material agnostic process for aligning additives in polymeric resins. IDTechEx interviewed Guttorm Osborg (CEO), Dr Henrik Hemmen (CTO), and Morten Lindberget (VP Business Development and Sales). This profile will give a focus on their work for TIM developments.
Included are:
2018
13 Dec 2018
Technology for making anisotropic conductive films by CondAlign
New enabling alignment technology ready for the market. Potential applications in Medical Technology, Display Technology and Thermal Interface Materials. Raghu Das from IDTechEx interviews CTO Dr. Hemmen about the status of the technology, customer value and market.
Included are:
15 Nov 2018
Anisotropic Particle-Filled Polymer Films Structured By Electric Fields - Technology, Applications And Markets
CondAlign AS, Norway
14 Nov 2018
Anisotropic Particle-Filled Polymer Films Structured By Electric Fields - Technology, Applications And Markets
CondAlign AS, Norway
2017
16 Nov 2017
Anisotropic Particle-Filled Polymer Films Structured By Electric Fields - Technology, Applications And Markets
CondAlign AS, Norway
2016
28 Apr 2016
Advanced Polymer Composites By Electric Field Induced Particle Alignment
CondAlign AS, Norway
2013
21 Nov 2013
Enhanced Materials from Conductive Alignment Technology
CondAlign AS, Norway
9 Jul 2013
Enhanced Materials from Conductive Alignment Technology
CondAlign AS, Norway
2012
6 Dec 2012
Enhanced Materials from Conductive Alignment Technology
CondAlign, Norway
3 Dec 2012
Electric field alignment of nanoparticles from CondAlign
Norwegian based company CondAlign has developed an electric field control technology which allows the rapid alignment of conductive nanoparticles.