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Impact of tumor position, conductivity distribution and tissue homogeneity on the distribution of tumor treating fields in a human brain: A computer modeling study.

Anders Rosendal KorshoejFrederik Lundgaard HansenAxel ThielscherGorm Burckhardt von OettingenJens Christian Hedemann Sørensen
Published in: PloS one (2017)
The TTFields distribution is largely determined by local conductivity differences. The well conducting tumor tissue creates a preferred pathway for current flow, which increases the field intensity in the tumor boundaries and surrounding regions perpendicular to the applied field. The cerebrospinal fluid plays a significant role in shaping the current pathways and funnels currents through the ventricles and sulci towards deeper regions, which thereby experience higher fields. Clinicians may apply these principles to better understand how TTFields will affect individual patients and possibly predict where local recurrence may occur. Accurate predictions should, however, be based on patient specific models. Future work is needed to assess the robustness of the presented results towards variations in conductivity.
Keyphrases
  • cerebrospinal fluid
  • end stage renal disease
  • chronic kidney disease
  • high intensity
  • palliative care
  • machine learning
  • mass spectrometry
  • patient reported
  • functional connectivity