Optogenetics, chemogenetics, and biosensors for neural circuit research

Genetically encoded tools for neuroscience enable precise observation and manipulation of defined neural cell types, in behaving animals. This course provides both breadth and depth in the theoretical and practical application of these tools across a variety of classes including experimental designs, and with an emphasis on hands-on experience.

After completing this course, a student should expect to be knowledgeable about a wide range of molecular tools, have experience with multiplexed read/write experimental design, understand how to integrate optical hardware with rodent behavior, and appreciate nuances between 1-photon and 2 photon implementations. Interpretation and data analysis are integrated across the course.

Course directors

  • Ofer Yizhar (Weizmann Institute of Science, Israel)
  • Anna Beyeler (Bordeaux University, France)
  • Lief Fenno (University of Texas, USA)

Nicolo Accanto – Institut de la Vision, France
Francois Blot – Institut de la Vision, France
Mario Carta – Bordeaux University, France
Dimitri Decombe – Institut de la Vision, France
Daniel Jercog – Univ. of Copenhagen, Denmark
Nikolas Karalis – Paris Brain Institute, France
Steeve Laquitaine – EPFL, Switzerland
Quinn Lee – McGill University, Canada
Meryl Malezieux – Max Planck Institute, Germany
Olivia Masseck – Univ. of Bremen, Germany
Eleni Moysiadou – Paris Brain Institute, France
Jesse Muir – UC Davis, USA
Sean Piantadosi – Univ. of Washington, USA
Alon Rubin – Weizmann Institute of Science, Israel
Inbar Saraf-Sinik – Weizmann Institute of Science, Israel
Nanci Winke – University of Basel, Switzerland

The course will comprise keynote lectures, hands-on expert workshops in experimental sessions and data analysis. Keynote lecturers will provide an introduction to their respective fields and exciting recent findings, while expert workshops will be given by a selected set of instructors. Instructors will work with the students prior to the course to design and plan their experiments in detail.

Each student will have an opportunity to present his/her work in a poster session, and an interactive journal club will provide the students with an opportunity to present and discuss the seminal studies that have shaped modern neuroscience through the introduction of novel techniques. Following the success of a pilot session held in the previous course, we will also hold semi-formal discussions with directors and instructors about career development, scientific “soft skills” and science communication.

  • Stereotaxic surgery: viral vector injection, fiberoptic implants, cranial windows
  • Wide-field fluorescence imaging in vivo
  • Two-photon fluorescence imaging in vivo
  • Optogenetic manipulations: somatic and presynaptic excitation/inhibition
  • Building and implanting electrode arrays for in-vivo recordings
  • In-vivo electrophysiological recordings
  • Spike sorting and electrophysiological data analysis
  • In-vitro imaging in cell culture
  • Fiber photometry recordings in behaving mice
  • Design and execution of behavioral experiments
  • Using DeepLabCut for behavioral analysis

● Imaging neural activity with open-source miniscopes

● Photo-pharmacological and wireless optogenetic tools

● Thalamocortical processing of memory

● Methods for the development and characterization of genetically encoded biosensors

● Miniscope calcium imaging and analysis of the spatial code in CA1

● Comparing fluorescence-based sensors for dendritic imagining with in vivo 2-photon microscopy

● Activity-based tagging of neurons for functional dissection experiments

● 2-photon fibreoscope for imaging and holographic optogenetics in freely moving animals

● Computational analytical methods to link high-dimensional neuronal population and behavioral data

● Large-scale electrophysiological investigation of circuit dynamics

● Optogenetic silencing of synaptic terminals in freely moving mice

● Analysis of high dimensional neuronal data

Analysis of high dimensional neuronal data

(Illumination and equipment for in-vivo set-ups provided by Prizmatix)

Keynote Speakers

Christina Kim – UC Davis, USA
Karl Deisseroth – Stanford University, USA
Mackenzie Mathis – EPFL, Switzerland
Marie Carlen – Karolinska Institute, Sweden
Michael Bruchas – Univ. of Washington, USA
Simon Wiegert – Univ. Heidelberg, Germany
Stephan Herlitze – Bochum University, Germany
Valentina Emiliani – Institut de la Vision, France
Cyril Herry – Bordeaux University, France
Yaniv Ziv – Weizmann Institute of Science, Israel