I am trying to make a numerical model for the RF ablation of Kidney tumor using a bipolar electrode. I need to know the maximum power and time to be applied using a bipolar electrode.
There is none to my knowledge. If you are looking for specific information about electroporation in the medical area you should take a look at an in-depth and exhaustive review by Kotnik et al (2012) [1]. It is the first of a series of 3 papers. I would start digging in its references to gain even more insight and its citations to stay updated. I give you an excerpt of the introduction so that you can assess if it may be of interest:
"Since its discovery, electroporation has steadily gained ground as a useful tool in various areas of medicine and biotechnology. Today, reversible electroporation is an established method for introducing chemotherapeutic drugs into tumor cells (electrochemotherapy). It also offers great promise as a technique for gene therapy without the risks caused by viral vectors (DNA electrotransfer). In clinical medicine, irreversible electroporation is being investigated as a method for tissue ablation (nonthermal electroablation), whereas in biotech-nology, it is useful for extraction of biomolecules and for microbial deactivation, particularly in food preservation.
This article, the first in a series of three focusing on electro-poration, describes the phenomenon at the molecular level of the lipid bilayer, and then proceeds to the cellular level, explaining how exposure of a cell as a whole to an external electric field results in an inducement of voltage on its plasma membrane, its electroporation, and transport thorough the electroporated mem-brane. The second article will review the most important and promising applications of electroporation, and the third article will focus on the hardware for electroporation (pulse generators and electrodes) and on the need for standards, safety, and certification."
[1] Kotnik, T., Kramar, P., Pucihar, G., Miklavcic, D., Tarek, M., 2012. Cell
membrane electroporation-part 1: the phenomenon. IEEE Electrical