This books presents the state-of-the-art of lumbar dynamic spine stabilization, a set of surgical techniques designed to overcome the limits of fusion surgery, such as mortality and morbidity, especially in elderly people and chronic instability.
The opening chapters explore the philosophy and rationale of dynamic stabilization and present its evolution over the past two decades. It also analyzes the differences with other non-fusion systems such as disc prostheses, interspinous devices, facet replacement, and other soft or semi-rigid stabilization systems.
Readers discover the biomechanics, indications, technical pearls and pitfalls, as well as the clinical results and complications of this technical innovation. They further learn its application in special deformities, e.g. idiopathic scoliosis in adolescents which have not reached the bone growth age, as well as its increased success rate in lumbar disc herniation surgery. Insights into its application at the initial stage of degeneration, preparing the ground for regeneration, complement the book.
Written by an international panel of experts, this timely and up-to-date guide offers an excellent source of knowledge and a valuable aid to clinical practice for orthopedic surgeons and neurosurgeons alike.
Chapter
1. Dynamic Stabilization and Philosophy.
Chapter
2. Functional
Anatomy & Load Dynamics of the Lumbar Spine.
Chapter
3. Degenerative Spine
Biomechanics.
Chapter
4. Lumbar Segmental Instability.
Chapter
5. Adult
Deformity Classifications and Dynamic Stabilization.
Chapter
6. Spinal
Fusion Surgery Advantages and Disadvantages.
Chapter
7. Total Disc
Replacement and Posterior Dynamic Stabilization in the Treatment of
Degenerative Disc Disease.
Chapter
8. ANESTHESA N LUMBAR DYNAMC
STABLZATON SURGERES.
Chapter
9. POSTERIOR DYNAMIC SYSTEMS as FACET
REPLACEMENT SYSTEM.
Chapter
10. Biomechanics of Posterior Dynamic Pedicular
Stabilization Systems.
Chapter
11. Stabilization with Polyaxial dynamic
screw and Hinged screw.
Chapter
12. Combination of Dynamic Rods and Screws.-
Chapter
13. INDICATIONS OF DYNAMIC STABILIZATION WITHOUT FUSION.
Chapter
14.
THE ORTHRUS PEDICULAR DYNAMIC STABILIZATION SYSTEM.
Chapter
15. DYNAMIC
ROD.
Chapter
16. Biomechanical analysis of different dynamic rods used with
rigid screws .
Chapter
17. Long segment pedicular stabilization in
multilevel steno-instability using hybrid fixation.
Chapter
18. Dynamic
stabilization in scoliosis deformity.
Chapter
19. Pedicular Dynamic
Stabilization in Kyphotic Deformities.
Chapter
20. Complications of Dynesys
system.
Chapter
21. TWO-STAGE SURGERY FOR DYNAMIC STABILIZATION OF THE
SPINE.
Chapter
22. Vertebra Body Tethering.
Chapter
23. RE-EVALUATION OF
TREATMENT IN LUMBAR DISC SURGERY.
Chapter
24. Reevaluation of the treatment
of chronic degenerative spine disease.
Chapter
25. Rehabilitation after
lumbar transpedicular dynamic stabilization surgery .
Chapter
26. Emerging
Biological Treatments for Intervertebral Disc Degeneration Disease: A
Regenerative Medicine Perspective.
Ali Fahir Özer graduated from Atatürk University School of Medicine in 1976. He did his neurosurgery residency between 1977 and 1982 at Hacettepe University School of Medicine. He obtained his Associate Professor degree in 1988 and full-professorship in 1994. He served as the head of neurosurgery department in Kocaeli University between 1994 and 1995. He has been working at the neurosurgery department of the American Hospital since 1995 and is currently a faculty at Koc University School of Medicine, Department of Neurosurgery. Since 2018, he is Adjunct Professor in Bioengineering and Orthopaedic Surgery Colleges of Engineering and Medicine, University of Toledo (OH, USA). Professor Özer is member of Eurospine and North American Spine Society. He also is member of the advisory board and reviewer of sevarel journals, e. g. The Spine Journal, World Neurosurgery, BMC Musculoskelatal Journal, Journal of Turkish Neurosurgery, Case Reports in Orthopedics etc. He has authored or coauthored over 230 articles and 46 book chapters, and he also editor of 9 books. Prof. Özers research mainly focuses on biomechanics and dynamic stabilization of spine. He had patented Orthrus Dynamic Spinal System, Safinaz Dynamic Screw and Cervical Disc Prosthesis.
Mario Di Silvestre attended the Scoliosis Center of the Pisa University Orthopedic Clinic (Pisa, Italy) during his Orthopedics and Traumatology residency, directed by Prof. Pier Giorgio Marchetti. After his specialization, in 1984 he moved to the Scoliosis Center at the Rizzoli Orthopedic Institute in Bologna (taly), becoming more actively involved in spine surgery under the guidance of Prof. Leonardo Gui and Prof. Romolo Savini. He was then hired back to the Rizzoli Institute in 1989, first as an orthopedics and traumatology medical assistant, then as an orthopedics and traumatology hospital assistant, and finally as a medical director of the Spine Surgery Department. Since 2017, he is responsible of the Spine Surgery at the Santa Corona Hospital in Pietra Ligure (Savona, Italy). He has many publications published in international journals and many papers presented at international meetings.
Vijay K. Goel is professor of Orthopaedic Bioengineering and Co-Director of the Engineering Center for Orthopaedic Research Excellence (E-CORE), Department of Bioengineering and Orthopaedic Surgery, University of Toledo, Toledo (OH, USA). He has been active as professor of bioengineering over four decades, and is a globally recognized biomechanical researcher and mentor of a large number of scientis and clinicians. He is a prolific contributor to device development as an industrial advisor/entrepreneur, and a dedicated society-benefactor in developing treatments of orthopedic ailments
Deniz Erbulut, PhD, received his PhD in Mechanical Engineering from the University of Melbourne in 2010. After faculty appointments in the USA and Turkey, he joined HBI as a senior research fellow in 2020. He gained about 10 years of research experience in biomechanics for understanding clinically relevant issues in medicine. Using a combination of experimental and computational tools, he performs research in in-vivo/in vitro joint mechanics, human motion, musculoskeletal modelling, computational biomechanics and spinal/orthopaedic implant development and testing. Dr. Erbulut holds three orthopaedic implant patents for the USA and most European countries. He has been a principal investigator for several projects, teaching graduate and undergraduate level courses in the biomedical and mechanical engineering departments at various universities, and supervised several master and PhD students as a principal advisor.
