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Professorship of Electronic Devices of Micro and Nano Technique
Results
Professorship of Electronic Devices of Micro and Nano Technique 

Selection of Professorship's R&D Results


  • Design of a digital-to-analog converter in a 0.18 µm CMOS technology
  • Design and building of a 6 kW tube-based tesla transformer
  • Design and production of a 10-bit SAR analog-to-digital converter in a 0.35 µm technology
  • Design of a MSP430 microcontroller core for the application in integrated sensor systems
  • Design and production of a configurable 8051-compatible microcontroller
  • Development of charge-sensitive yarn speed sensors for textile machines
  • Design and layout of circuit variants for the signal evaluation of piezoresistive pressure sensors
  • Design and characterization of an electronical adjustable, temperature-stable RC oscillator in a 0.25 µm semiconductor technology
  • Development and characterization of a four-channel multiplexer in a 0.25 µm semiconductor technology
  • Development of an integrated sensor signal evaluation circuit on the principle of sigma-delta modulation
  • Modeling of trench isolation structures
  • Development of an integrated low-noise CMOS operational amplifiers for low voltages
  • Design of a RF system with bidirectional data transfer
  • Development and production of a Vertical FET in near-surface Si bulk micromechanics
  • Development of a TLP measuring station for isothermal characteristic curve recording of electronic devices
  • Creation of models for DMOS transistors and integrated polysilicon resistors
  • Development of novel solar cells based on negatively charged drift field sources
  • Design of an integrated high-voltage amplifier with protection circuits for array applications
  • CCD camera control for a spectral imaging scanner technology
  • Switched-capacitor correlation analysis in CMOS technology
  • Development and building of a digital PID controller for temperature regulation
  • Development and building of a measuring station for illuminated I-V curves of solar cells; creation of driving / signal evaluation software for Windows NT
  • Development and building of a efficient analog front-end for a microcontroller for spectral detection of sensor signals
  • Development and building of a noise and crosstalk simulator for sensor arrays
  • Design and production of a monolithic integrated low-noise CMOS transimpedance amplifier for driving resp. signal evaluation of a Si resonator (chip photo, results)
  • Design and production of a SC balanced modulator for lock-in recovery of noisy signals (function principle, chip photo)
  • Design and production of an 800 V amplifier for driving capacitive microactuators (chip photo, oscillogram)
  • Development of high-voltage DMOS simulation models for IC design using the macro model approach (results)
  • Development of a Mentor Graphics designkit for the DIMOST technology (alpha microelectronics, 450 V)
  • Programming of a GDS2 interface for the anisotropic etching simulator SiMODE
  • Works on an interface between the simulators ANSYS and SiMODE
  • Development and verification of an HDLA model for pressure sensors
  • Test system-based development of models for Spice-compatible simulators
  • Development, modeling and production of cheap highly effective solar cells
  • Development and building of noise-optimized amplifiers for sensor signal evaluation
  • Development and building of a sun simulator for a solar cell measuring station
  • Development and building of a Lock-in amplifier module with multiplying D/A converter
  • Development and building of a modulierbaren 500 V high-voltage amplifier with modulation capability and driving unit
  • Development and building of a temperature control module for a measure and calibration system
  • Development and building of a high temperature suitable microprocessor-controlled pressure measurement device
  • Development and building of an air pressure gauge
  • Development and building of an universal PIC-controlled sensor evaluation module
  • Development and production of a 3D graphics card for personal computers


K. Hammer at the soldering station