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Université de Bordeaux
 

Timetable & learning outcomes

Chronic pain is a major health problem in developed Western societies, affecting up to 30% of the general population (Cohen et al., 2021, Lancet). In contrast to the physiological role of acute pain, which is crucial for survival, chronic pain is considered a disease with treatment and psychological implications. Chronic pain can be categorised into 7 different subgroups according to the World Health Organization (WHO) and the International Association for the Study of Pain (IASP) task force. Among these categories, chronic neuropathic pain is one of the most frequent and debilitating, representing up to 8% of the general population and 25% of chronic pain patients.

Neuropathic pain, defined by the IASP as "pain arising as a direct consequence of a lesion or disease affecting the somatosensory system”, affects both the central and peripheral nervous systems. It can result from spinal cord injury, post-stroke central lesions, post-surgical or post-traumatic events, etc. Despite being an active and productive clinical research field for the last 20 years, the management of patients remains limited, and few medications are currently effective. For instance, the first-line treatments for neuropathic pain are anticonvulsant drugs (gabapentin and pregabalin) and antidepressants targeting the noradrenergic system (duloxetine). The best efficacy of these molecules is a 50% decrease in pain sensation in 1 patient out of 3, leaving a significant number of patients without improvement in their condition, resulting in therapeutic challenges and a substantial psychological burden, causing significant societal and economic costs.

Pain is a multidimensional sensation resulting from the stimulation of the nociceptive system associated with the environment and modulated by individual experiences. The brain areas involved in the complex pain sensation are gathered in the "pain matrix”," superimposed with brain areas encoding other sensations and emotions. This is one reason why chronic pain often comes with emotional disorders acting as comorbidities and worsening pain sensations.

It is therefore crucial to study all the networks involved in pain sensation in physiological conditions and their plasticity in pathological pain to understand their interactions and develop tomorrow's treatments. This approach requires a high level of cutting-edge technologies, including:

  • molecular biology to specifically target and manipulate brain neuronal populations;

  • high-performance and less invasive electrophysiology tools to record from different brain areas simultaneously;

  • a new pipeline for data storage and analysis;

  • and obviously skilled researchers who will perform, analyse, interpret, and propose new solutions for a better tomorrow in the field of pain.

The objective of this summer school is to bring together highly renowned scientists working on pain pathology, experienced mentors that will train students during workshops, and the Bordeaux School of Neuroscience, which will offer specific training courses.

Over the course of 5 days, this intensive programme will provide students with advanced courses in neural circuits of pain, workshops to study cutting-edge techniques in detail as well as a day dedicated to training courses during which students will be able to choose specific techniques that they may implement in their laboratory after the summer school.

Tentative programme

Local and international experts from academia will lead a series of lectures covering one major topic on pain circuits: from periphery to central circuits with one session (1) focusing on circuit and development and a second session (2) on modulation of pain circuits . These will be followed by roundtables, workshops and training courses. A poster session will also be organised for selected students to present their own work and chat with invited speakers and school organisers.

Students, speakers, and instructors will also be invited to several dinners and social activities, allowing them to bond over meaningful conversations and quality time.

Please note: the schedule is presented in Central European Summer Time (CEST).


Monday
June 10th

Tuesday
June 11th

Wednesday
June 12th

Thursday
July 13th

Friday
July 14th


8.30 – 9.00


Welcoming, opening session

8.30 – 9.20

Lecture 

Tomoko Ohyama

8.30 - 9.30

Technical talks:
- Assessing pain behaviour
- Electrophysiology
8.30 – 9.00

Technical talks:
- Moleclar biology to study pain
- Machine learning to assess pain behaviour
 

8.30 - 9.00

Technical talk:
Wireless technology for electrophysiology

9.00 – 9.50

Lecture

Rohini Kuner


9.55 – 10.45

Lecture


Greg Scherrer

9.25 – 10.15

Lecture


Simon Beggs
9.30 – 10.00

Coffee break
9.30 – 10.00

Coffee break
9.00 – 12.00

Data analysis and preparation of student presentations

10.45 – 11.00

Coffee break
10.15 – 10.30

Coffee break
10.00 - 12.00

Workshops*
10.00 – 12.00

Workshops*

11.00 – 11.50

Lecture


Jing Wang

10.30 – 11.20

Lecture

Steven Prescott

11.55 – 12.45

Lecture

Michelle Roche

11.30 – 12.00

Presentation of the workshops
12.45 – 14.15

Lunch
12.00 – 14.00

Lunch
12.00 – 14.00 

Lunch
12.00 – 14.00 

Lunch
12.00 – 14.00 

Lunch
14.15 – 16.15

Poster session
14.00 – 16.00 

Workshops*




14.00 – 16.00 


Workshops*




14.00 – 16.00 


Workshops*

14.00

Student presentations and summary
16.15 – 16.30

Coffee break
16.30 – 18.00

Round table: career development (students and speakers)
16.00 – 18.00

Workshops*
Free time in Bordeaux
19.00

School dinner
19.00

Consortium dinner

16.00 – 18.00


Workshops*

16.00 – 18.00

Workshops*
19.00

Farewell dinner

*List of workshops:

  1. Single unit recordings and optogenetic manipulations, Alexia Duveau
  2. Pain behaviour and machine learning, Christopher Dedek and Ipek Yalcin
  3. Electrophysiology recordings in freely moving mice, Juliette Viellard
  4. Fiber photometry, Victor Mathis
  5. Nociception and optogenetic in invertebrates, Tomoko Ohyama
  6. Campari: identification of network neuronal activity, Marie-Eve Paquet and Benjamin Sueur
  7. Neuroanatomy, Thibaut Delhemmes
  8. 2-photon imaging of the DRG in anesthetized mice, Louison Brochoire and Sébastien Marais


A certificate of participation will be awarded to students upon completion of the course.


Programme may be subject to change.