Zusammenfassung
Studienziel: Ziel der Arbeit ist es, die mittelfristigen radiologischen Ergebnisse unterschiedlicher
Femurkomponenten aus Zirkonium und Chrom-Kobalt eines designgleichen Kniegelenkersatzes
darzustellen. Methode: Durchschnittlich 4 Jahre postoperativ wurden 31 Patienten mit einer Genesis-II-Knieendoprothese
mit oberflächenkeramisierter Femurkomponente aus einer Zirkonium-Niob-Legierung und
32 Kniegelenke mit Standardfemurkomponenten aus einer Kobalt-Chrom-Legierung klinisch
und radiologisch nach dem Roentgenographic Evaluation and Scoring System der Knee
Society ausgewertet. Ergebnisse: Bei korrekter Implantatlage fanden sich statistisch signifikant häufiger Säume beim
Gelenkersatz mit der oberflächenkeramisierten Femurkomponente in den Zonen 1 und 4
des Tibiaimplantates. Schlussfolgerungen: Die Ergebnisse stehen denen biomechanischer Studien des gleichen Prothesentyps am
Kniesimulator entgegen, in denen der Abrieb in der Zirkoniumoxid-Gruppe um 85 % im
Vergleich zur CoCr-Gruppe reduziert werden konnte. Eine Erklärung für die hohe Zahl
bislang allerdings klinisch nicht relevanter Säume, könnte die Beobachtung sein, dass
Zirkoniumionen die Mineralisierung von vorhandenem Osteoid im angrenzenden Interface
durch negativen Einfluss auf die Entwicklung und Funktion von Matrixvesikeln hemmen.
Abstract
Aim: The present work aimed at evaluating the radiological mid-term results of femoral
components of different materials in an identically designed total knee system. Method: 31 knees with zirconium femoral components and 32 standard femoral components were
evaluated about 4 years following surgery using the Roentgenographic Evaluation and
Scoring System of the Knee Society. Results: In both groups, the implant position was correct. There was a statistically significant
higher rate of radiolucent lines in zones 1 and 4 at the tibia site in the zirconium
group. Conclusion: Our clinical results disagree with the results of biomechanical studies of the same
type of prosthesis. However, there are some findings from animal studies showing that
zirconium ions may inhibit the mineralisation of osteoid, which could be an explanation
for the higher rate of radiolucent lines seen in the present study.
Schlüsselwörter
Knie‐TEP - Zirkoniumoxid - Saumbildung
Key words
total knee arthroplasty - zirconium - radiolucent line
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Dr. med. Felix Göbel
Zentrum für Erkrankungen und Verletzungen der Haltungs- und Bewegungsorgane (ZHBO) Martin-Luther-Universität Halle-Wittenberg
Magdeburger Straße 22
06097 Halle
Email: felix.goebel@medizin.uni-halle.de