Abstract
The human skeleton gives the body rigidity, allows for locomotion and protects the organs. The figure shows that intact cortical bone is very strong. A segment of the tibia is able to carry a small car, and a screw inserted into the cortex of the thigh bone (femur) will take the load of three persons. Intact healthy bone resists appreciable amounts of load without failure, for example, when a parachute jumper lands. When bone is mechanically overloaded, for example by work or a traffic or sports accident, it fractures. Prior to the accident the bone was able to carry load without giving way. After the accident the fractured bone bends, buckles, shortens or twists when even a small load is applied.
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References
Aebi M, Regazzoni P (eds) Bone transplantation. Springer, Berlin Heidelberg New York
Allgöwer M (1978) Cinderella of surgery — fractures? Surg Clin North Am 58: 1071–1093
Allgöwer M, Ehrsam R, Ganz R, Matter P, Perren SM (1969) Clinical experience with a new compression plate “DCP”. Acta Orthop Scand [Suppl] 125: 45–63
Cordey J, Schwyzer HK, Brun S, Matter P (1985) Bone loss following plate fixation of fractures? Helv Chir Acta 52: 181–184
Frigg R (1992) The development of the pinless external fixator: from the idea to the implant. Injury 23 [Suppl 3]: 3–8
Hutzschenreuter P, Perren SM, Steinemann S, Geret B, Klebl M (1969) Some effects of rigidity of internal fixation on the healing pattern of osteotomies. Injury 1: 77–81
Klein MPM, Rahn BA, Frigg R, Kessler S, Perren SM (1990) Reaming versus non-reaming in medullary nailing: interference with cortical circulation of the canine tibua. arch Orthop trauma Surg 109 /6: 314–316
Küntscher G (1970) Das Kallus-Problem. Enke, Stuttgart.
Lucas-Championnière J (1907) Les dangers de l’immogilisation des membres — fagilité des os— altération de la nutrition du membre — conclusions pratiques. Rev Méd Chir Pratique 78: 81–87
Mast J, Jakob R, Ganz R (1989) Planning and reduction techniques in fracture surgery. Springer, Berlin Heidelberg New York
Matter P, Brennwald J, Perren SM (1974) Biologische Reaktion des Knochens auf Osteosyntheseplatten. Helv Chir Acta [Suppl] 12: 1
Moor R, Tepic S, Perren SM (1989) Hochgeschwindigkeits-Film-Analyse des Knochenbruchs. Z Unfallchir 82: 128–132
Müller ME, Allgöwer M, Willenegger H (1963) Technik der operativen Frakturenbehandlung. Springer, Berlin Heidelberg New York
Perren SM, Klaue K, Frigg R, Predieri M, Tepic S (1991) The concept of biolgical plating: the limited contact dynamic compression plate, LCDCP. Orthop Trauma
Schenk R (1987) Cytodynamics and histodynamics of primary bone repair. In Lane JM (ed) Fracture healing. Churchill Livingstone, New York
Swiontkowski M (1992) Pinless fixation — Part I: introduction. Injury 23 [Suppl 3]: 1–2
Timoshenko S (1941) Strength of materials. Van Nostrand, Princeton Wolff J (1986 [18931) The law of bone remodeling. Springer, Berlin Heidelberg New York
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© 1994 Springer-Verlag Berlin Heidelberg
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Perren, S.M., Buchanan, J., Hertel, R., Colton, C. (1994). Basic AO/ASIF Technique: Aims and Principles. In: AO/ASIF Instruments and Implants. Springer, Berlin, Heidelberg. https://doi.org/10.1007/978-3-662-03032-5_4
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DOI: https://doi.org/10.1007/978-3-662-03032-5_4
Publisher Name: Springer, Berlin, Heidelberg
Print ISBN: 978-3-662-03034-9
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