Practical work

Use the EBTT 2026 companion app

Your whole event in one place — the live schedule, labwork selection & the safety test, lecture materials & recordings, announcements, messaging with faculty & participants, social events and practical information.

How to sign in: open 2026.app.ebtt.org and enter the email address you registered with — you will receive a one-tap sign-in link (no password needed). Add the app to your phone home screen to receive push notifications.

Open the EBTT 2026 app

Practical work

You will be able to choose your practical work sessions only after you have paid the registration fee and passed the laboratory safety test.

You will receive an email with access details for the e-learning platform, where you can complete the laboratory safety test and select your practical sessions. The selection will open on October 15, 2026.

Your practical work preferences will be considered until all available places are filled. Sessions with a limited number of participants will be allocated on a first-come, first-served basis. Please make sure to rank all practical work sessions by priority, as it is possible that your second or third choice will be assigned if your first choice is full.

The selection period will close on November 2, 2026. Participants who do not submit their preferences by this date will be assigned to the remaining available sessions.


Laboratory safety test

You will receive an email with access details for the e-learning platform, where you can complete the laboratory safety test and select your practical sessions.

If you do not receive the email with access details by October 15, 2026, please contact as soon as possible.

List of Practical Work Sessions

Below you can find a list of this year practical work sessions. We are offering on-site practical work sessions as well as interactive online training sessions for those who are participating EBTT online.

Laboratory exercises

Practical work session On-site On-line
  L1 – Gene electrotransfer using locally enhanced electric field    
  L2 – Visualization of local ablation zone distribution between two needle electrodes    
  L3 – Comparison of flow cytometry and spectrofluorometric measurements in cell permeabilization experiments    
  L4 – Triggering action potential and electroporation in excitable cells exposed to electric pulses    
  L5 – E. coli inactivation by pulsed electric fields in a continuous mode    
  L6 – Influence of the orientation of the electric field on the formation of the DNA membrane complex    
  L7 – Measurements of the induced transmembrane voltage with fluorescent dye di-8-ANEPPS    
  L8 – Influence of the orientation of the electric field on gene electrotransfer efficiency and cell viability    
  L9 – Modelling, visualizing, and tracking pH front formation in tissue phantoms    
  L10 – Simultaneous measurement of sarcomere shortening and calcium transients in primary rat cardiomyocytes exposed to electrical pulses    
  L11 – Visualizing gas bubble formation during pulsed field delivery    
  L12 – Visualization of cytoskeletal filaments with super-resolution structured illumination microscopy (SIM)    
  L13 – Electroporation for treatment of cardiac arrhythmias    
  L14 – Monitoring cell membrane depolarization due to electroporation using fluorescent plasma membrane potential indicator    
  L15 – Measurements of the induced transmembrane voltage with fluorescent dye ElectroFluor630