![Corti Fridberger, inside hamster ear](/-/media/liu/2015/11/11/corti-fridberger.png?as=1&w=360&hash=5200F437C7542ADA6634547BC5D441EDA80AF429)
![Anders Fridberger working](/-/media/liu/2015/11/30/fridberger-klinisk-och-experimentell-horselforskning-liu-tb-3.jpg?as=1&w=360&hash=BABFDFE4C744554B6439182A406AABCF73DD26FA)
Loud sounds will alter the function of inner ear sensory cells, and the techniques mentioned above are also used for studying the physiological mechanisms underlying noise-induced hearing loss.
![Laboratory work](/-/media/liu/2015/11/30/fridberger-klinisk-och-experimentell-horselforskning-liu-tb-5.jpg?as=1&w=740&hash=1E309FAE1CD8B86A6BABF1CAC21593CC2D3B9BCF)
Seeing how we hear with optical flow calculations
We are happy to receive applications from students interested in our work, who would like to perform a master or doctoral thesis project or be a research assistant in the Auditory neuroscience laboratory.
We encourage students in pursuing a hearing physiology project involving physiological measurements using electrophysiological recordings combined with confocal imaging. Matlab or R programming building scripts for visualizing and analysis of scientific data is used. Minimum basic knowledge of R or Matlab and understanding of basic neuroscience and physiology and biophysics is appreciated.
See contact information below.
Laser interferometer integrated with Zeiss confocal LSM 5 Pascal (Equipped with PV-Pump HSPC-1 and PicoSpritzer).
Confocal Laser Scanning Microscope 780, Upright – Zeiss Axio Observer ( Equipped with Patch Clamp and Picospritzer)
In vivo physiological recordings (ABRs, CAPs, DPOAEs, Three-tone suppression and Zeiss surgical microscope.