Literature DB >> 19047719

The geometry of the tibial plateau and its influence on the biomechanics of the tibiofemoral joint.

Javad Hashemi1, Naveen Chandrashekar, Brian Gill, Bruce D Beynnon, James R Slauterbeck, Robert C Schutt, Hossein Mansouri, Eugene Dabezies.   

Abstract

BACKGROUND: The geometry of the tibial plateau is complex and asymmetric. Previous research has characterized subject-to-subject differences in the tibial plateau geometry in the sagittal plane on the basis of a single parameter, the posterior slope. We hypothesized that (1) there are large subject-to-subject variations in terms of slopes, the depth of concavity of the medial plateau, and the extent of convexity of the lateral plateau; (2) medial tibial slope and lateral tibial slope are different within subjects; (3) there are sex-based differences in the slopes as well as concavities and convexities of the tibial plateau; and (4) age is not associated with any of the measured parameters.
METHODS: The medial, lateral, and coronal slopes and the depth of the osseous portion of the tibial plateau were measured with use of sagittal and coronal magnetic resonance images that were made for thirty-three female and twenty-two male subjects, and differences between the sexes with respect to these four parameters were assessed. Within-subject differences between the medial and lateral tibial slopes also were assessed. Correlation tests were performed to examine the existence of a linear relationship between various slopes as well as between slopes and subject age.
RESULTS: The range of subject-to-subject variations in the tibial slopes was substantive for males and females. However, the mean medial and lateral tibial slopes in female subjects were greater than those in male subjects (p < 0.05). In contrast, the mean coronal tibial slope in female subjects was less than that in male subjects (p < 0.05). The correlation between medial and lateral tibial slopes was poor. The within-subject difference between medial and lateral tibial slopes was significant (p < 0.05). No difference in medial tibial plateau depth was found between the sexes. The subchondral bone on the lateral part of the tibia, within the articulation region, was mostly flat. Age was not associated with the observed results.
CONCLUSIONS: The geometry of the osseous portion of the tibial plateau is more robustly explained by three slopes and the depth of the medial tibial condyle.

Mesh:

Year:  2008        PMID: 19047719      PMCID: PMC2663332          DOI: 10.2106/JBJS.G.01358

Source DB:  PubMed          Journal:  J Bone Joint Surg Am        ISSN: 0021-9355            Impact factor:   5.284


  19 in total

1.  Posterior tibial slope in the normal and varus knee.

Authors:  S Matsuda; H Miura; R Nagamine; K Urabe; T Ikenoue; K Okazaki; Y Iwamoto
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2.  Medial opening wedge tibial osteotomy and the sagittal plane: the effect of increasing tibial slope on tibiofemoral contact pressure.

Authors:  Craig M Rodner; Douglas J Adams; Vilmaris Diaz-Doran; Janet P Tate; Stephen A Santangelo; Augustus D Mazzocca; Robert A Arciero
Journal:  Am J Sports Med       Date:  2006-04-24       Impact factor: 6.202

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Authors:  Philippe Massin; Antoine Gournay
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Review 4.  Intraclass correlations: uses in assessing rater reliability.

Authors:  P E Shrout; J L Fleiss
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5.  A sagittal plane model of the knee and cruciate ligaments with application of a sensitivity analysis.

Authors:  B Beynnon; J Yu; D Huston; B Fleming; R Johnson; L Haugh; M H Pope
Journal:  J Biomech Eng       Date:  1996-05       Impact factor: 2.097

6.  Caudal slope of the tibia and its relationship to noncontact injuries to the ACL.

Authors:  K Meister; M C Talley; M B Horodyski; P A Indelicato; J S Hartzel; J Batts
Journal:  Am J Knee Surg       Date:  1998

7.  Theoretical estimates of cruciate ligament forces: effects of tibial surface geometry and ligament orientations.

Authors:  A Imran; J J O'Connor
Journal:  Proc Inst Mech Eng H       Date:  1997       Impact factor: 1.617

8.  Cranial tibial wedge osteotomy: a technique for eliminating cranial tibial thrust in cranial cruciate ligament repair.

Authors:  B Slocum; T Devine
Journal:  J Am Vet Med Assoc       Date:  1984-03-01       Impact factor: 1.936

9.  The association between posterior-inferior tibial slope and anterior cruciate ligament insufficiency.

Authors:  Mark L Brandon; Paul T Haynes; Joel R Bonamo; MaryIrene I Flynn; Gene R Barrett; Mark F Sherman
Journal:  Arthroscopy       Date:  2006-08       Impact factor: 4.772

10.  The effect of the geometry of the tibia on prediction of the cruciate ligament forces: a theoretical analysis.

Authors:  S C Chan; B B Seedhom
Journal:  Proc Inst Mech Eng H       Date:  1995       Impact factor: 1.617

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  109 in total

1.  Influence of soft tissues on the proximal bony tibial slope measured with two-dimensional MRI.

Authors:  Sébastien Lustig; Corey J Scholes; Sean P M Leo; Myles Coolican; David A Parker
Journal:  Knee Surg Sports Traumatol Arthrosc       Date:  2012-04-05       Impact factor: 4.342

Review 2.  The role of the tibial slope in sustaining and treating anterior cruciate ligament injuries.

Authors:  Matthias J Feucht; Craig S Mauro; Peter U Brucker; Andreas B Imhoff; Stefan Hinterwimmer
Journal:  Knee Surg Sports Traumatol Arthrosc       Date:  2012-03-07       Impact factor: 4.342

3.  Width is a more important predictor in graft extrusion than length using plain radiographic sizing in lateral meniscal transplantation.

Authors:  Bum-Sik Lee; Jong-Won Chung; Jong-Min Kim; Kyung-Ah Kim; Seong-Il Bin
Journal:  Knee Surg Sports Traumatol Arthrosc       Date:  2011-10-19       Impact factor: 4.342

Review 4.  Biomechanics of high tibial osteotomy.

Authors:  Andrew A Amis
Journal:  Knee Surg Sports Traumatol Arthrosc       Date:  2012-07-07       Impact factor: 4.342

5.  ACL Research Retreat VII: An Update on Anterior Cruciate Ligament Injury Risk Factor Identification, Screening, and Prevention.

Authors:  Sandra J Shultz; Randy J Schmitz; Anne Benjaminse; Malcolm Collins; Kevin Ford; Anthony S Kulas
Journal:  J Athl Train       Date:  2015-09-04       Impact factor: 2.860

6.  Anthropometric difference of the knee on MRI according to gender and age groups.

Authors:  Hyuksoo Han; Sohee Oh; Chong Bum Chang; Seung-Baik Kang
Journal:  Surg Radiol Anat       Date:  2015-08-08       Impact factor: 1.246

7.  Atlas-based automatic measurements of the morphology of the tibiofemoral joint.

Authors:  M Brehler; G Thawait; W Shyr; J Ramsay; J H Siewerdsen; W Zbijewski
Journal:  Proc SPIE Int Soc Opt Eng       Date:  2017-03-13

Review 8.  In vivo evidence for tibial plateau slope as a risk factor for anterior cruciate ligament injury: a systematic review and meta-analysis.

Authors:  Samuel C Wordeman; Carmen E Quatman; Christopher C Kaeding; Timothy E Hewett
Journal:  Am J Sports Med       Date:  2012-04-26       Impact factor: 6.202

9.  Relationship between tibial spine size and the occurrence of osteochondritis dissecans: an argument in favour of the impingement theory.

Authors:  Etienne Cavaignac; Geoffroy Perroncel; Mathias Thépaut; Julie Vial; Franck Accadbled; Jérôme Sales De Gauzy
Journal:  Knee Surg Sports Traumatol Arthrosc       Date:  2015-12-12       Impact factor: 4.342

10.  Tibial articular cartilage and meniscus geometries combine to influence female risk of anterior cruciate ligament injury.

Authors:  Daniel R Sturnick; Robert Van Gorder; Pamela M Vacek; Michael J DeSarno; Mack G Gardner-Morse; Timothy W Tourville; James R Slauterbeck; Robert J Johnson; Sandra J Shultz; Bruce D Beynnon
Journal:  J Orthop Res       Date:  2014-08-06       Impact factor: 3.494

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