Alicja Kędzia


Alicja Kędzia was a Polish neurologist and anatomist, a professor of medical sciences, and a long-time head of the chair and Department of Normal Anatomy at Wroclaw Medical University. She was named an honorary member of the Polish Anatomical Society. She also served within the Wrocław Scientific Society, including as secretary of its audit committee.

Education and career

Kędzia graduated from the Academy of Medicine in Wrocław in 1963. She obtained neurology specialization. She earned a PhD in 1972 and a habilitation in 1992. She received the title of professor in 2000.
She was professionally affiliated with Wroclaw Medical University, where she led the chair and Department of Normal Anatomy for many years. According to national academic records, she supervised doctoral theses and served as a reviewer in doctoral and habilitation proceedings.

Research

Kędzia was the author and co-author of approximately 446 publications. Kędzia's research focused on neuroanatomy and clinical anatomy, particularly:
  • macro- and micro-angioarchitecture of the human cerebral venous system across the lifespan, including prenatal development;
  • dural structures and venous sinuses, including developmental variants;
  • quantitative and computer-assisted approaches in anatomy, and early applications of fractal geometry to neuroanatomical and clinical material.
Her publications included work on the falcine sinus, a venous structure present during fetal development that may persist and be associated with vascular malformations.
She authored an atlas of the human cerebral venous system, based on her own anatomical research. She conducted unique research on the falcine sinus, which runs within the cerebral falx and connects the vein of Galen with the superior sagittal sinus. This structure is physiologically present during fetal development and disappears after birth, and its persistence after birth is associated with malformation of the vein of Galen and other vascular anomalies. Professor Alicja Kędzia's research interests included the macro- and microangioarchitecture of the human cerebral venous system in the prenatal, adult, and senile periods. She implemented new research techniques in neuroanatomical research: infrared, ultraviolet, and image processing systems, and initiated and co-authored the development of mathematical models for the assessment of prenatal growth processes. She was one of the first to use fractal geometry in neuroanatomical research: analysis of the course of growth and involution processes, determination of fractal dimensions of brain vessels, fractal analysis of subdural hematomas.

Selected works

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