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Institute of Biological Information Processing (IBI)
Bioelectronics (IBI-3)
Research
Aptamer sensors
Conducting polymers
EC/Surface Plasmon Polaritrons
Microelectrode arrays
Nanowire/Graphene FETs
Microwave microfluidic sensors
Neuron-device-interfaces
Neuroengineering (NEI)
Engineering the interface
Scaffolds and 3D electrodes
Electrical Methods / Implantable Electronics
Optical Methods
Long-term neural recordings
Neural network function in vivo
Expertise
RWTH Aachen: "Biophysics I - Cellular Biophysics"
University of Dortmund: ”Materials for Nanoelectronics and High-Speed Quantum Electronic Devices”
FH Aachen: "Magnetic Biosensing"
Instrumentation and Methods
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AFM/STM
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Probe Station
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Quartz Crystal Microbalance
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Contact Angle Measurement
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Spectrophotometry
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Autolab PGSTAT302N
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Biologic VSP-300
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CHI Instruments CHI1030B
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Noise Measurements
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Centrifuge
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Molecular Genetics Facilities
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Cell Biology
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Patch clamp technique
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MEAs
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Magnetic Tweezers
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Live cell imaging
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ApoTome
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Surface Plasmon Resonance
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Dip Coater
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Spin Coater
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Screen Printer
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Nanoparticle synthesis
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Modular Glove Box
Career
Organization and Research Groups
Cell Engineering
Electrochemical (Bio)Sensors
Electronic Sensing
In-vivo Neurophysiology
Magnetic Field Sensors
Molecular Bioelectronics
Neuroelectronics
Neuroelectronic Interfaces (NEI)
In vivo Neuroelectronics (IvN)
About us
IBI-3 Organisation & Contact Information
Team members
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IBI-3 team member gallery
Cooperations
Internal Links:
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images
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level2_bs
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level3_molecularbioelectronics
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MolecularBioelectronics2.normal.gif
MolecularBioelectronics2.normal.gif
Working principle of mechanical break junction
Size: 6.43 kB — Click to download full sized image
Last Modified: 27.09.2021
