Sort by
Refine Your Search
-
Listed
-
Category
-
Program
-
Employer
-
Field
-
limitations in materials, devices concepts and processing of transistors based on III-nitride semiconductors. About us The Microwave Electronics Laboratory (MEL) at the Department of Microtechnology and
-
semiconductor manufacturing methods with drastically reduced environmental footprint, the consideration of material recycling already at the design stage, and novel device designs and concepts to enhance
-
and Applications of Doped Organic Semiconductors, is a consortium composed of eight universities, four research institutes, and four companies from EU countries, the UK, and Switzerland. The mission
-
and plasmonic effects. Manufacture of nano(opto)electronic components, particularly based on individual semiconductor nanowires. Experimental characterization of nano-optoelectronic devices
-
Doctoral student in Materials Chemistry of Doped Organic Semiconductors in EU Training Network FADOS
an international cohort of 17 doctoral students across 16 research groups in Europe, you will contribute to advancing the understanding and applications of doped organic semiconductors. About FADOS FADOS
-
the electronic properties of organic semiconductors through light-driven chemical doping. The work will involve combining tailored materials design with advanced characterization methods to enable new device
-
, particularly based on individual semiconductor nanowires. Experimental characterization of nano-optoelectronic devices Consideration will also be given to good collaborative skills, drive and independence, and
-
equality and diversity as a strength and an asset. Description of the workplace The research at the division of Solid State Physics is focused around different aspects of semiconductor physics, ranging from
-
systems demand power amplifiers combining high efficiency, linearity, and frequency agility. Meeting these requirements calls for a deeper understanding of how semiconductor device properties influence
-
properties to produce commercially competitive LEC devices fit for a variety of applications. The attractive properties of the LEC technology originate in that the organic semiconductor (OSC) in the active