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Proximal Tibial Osteotomy. A Subjective Outcome Study*†
ALAN NAGEL, M.D.‡; JOHN N. INSALL, M.D.§; GILES R. SCUDERI, M.D.§, NEW YORK, N.Y.
View Disclosures and Other Information
Investigation performed at the Insall Scott Kelly Institute for Orthopaedics and Sports Medicine, New York City
The Journal of Bone & Joint Surgery.  1996; 78:1353-8 
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Abstract

We performed a retrospective study of the results of proximal tibial osteotomy in thirty-four men (thirty-seven knees) who had had unicompartmental osteoarthrosis of the knee. The average age of the patients at the time of the procedure was forty-nine years (range, twenty-eight to sixty years). The functional results were evaluated according to the system of Tegner and Lysholm, in which the level of participation in work and sports activities is graded on a scale from 0 points (complete disability) to 10 points (the ability to participate in competitive sports at the elite professional level). The average functional score was 5.4 points (range, 2 to 8 points) preoperatively and 4.8 points (range, 1 to 8 points) postoperatively. Postoperatively, many of the patients were able to participate in activities, such as running and jumping, that can lead to damage of the components of a total knee arthroplasty. Twenty-eight (82 per cent) of the thirty-four patients stated that the results had met their expectations and that they would have the operation again given the same situation.

Figures in this Article
    Jackson and Waugh, in 1961, reported that proximal tibial osteotomy is a reliable procedure for the relief of pain and the restoration of function in patients who have osteoarthrosis of the knee, and this finding has been supported by several other authors3-5,8,11,13,19. Coventry studied the long-term results of proximal tibial osteotomy performed in 213 patients for osteoarthrosis of the knee and reported that 130 patients (61 per cent) had less pain and 138 patients (65 per cent) had better function ten years after the procedure. Matthews et al. performed a survival analysis of forty patients who had been managed with a proximal tibial osteotomy and found that the probability of continued useful function was 86 per cent at one year, 64 per cent at three years, 50 per cent at five years, and 28 per cent at nine years. The reported deterioration of the results of proximal tibial osteotomy increases the difficulty of selecting the appropriate treatment of osteoarthrosis of the knee in active patients who are less than sixty years old.
    In the present study, we tried to determine the highest level of activity that actually had been achieved after a proximal tibial osteotomy, whether the patients had achieved the desired level of function, and whether a total knee arthroplasty would have been a better choice.

    *No benefits in any form have been received or will be received from a commercial party related directly or indirectly to the subject of this article. No funds were received in support of this study.

    †Read at the Annual Meeting of The American Academy of Orthopaedic Surgeons, New Orleans, Louisiana, March 1, 1994.

    ‡187 Thomas Johnson Drive, Frederick, Maryland 21702.

    §Insall Scott Kelly Institute for Orthopaedics and Sports Medicine, Beth Israel Medical Center, North Division, 170 East End Avenue at 87th Street, New York, N.Y. 10128.

    *No benefits in any form have been received or will be received from a commercial party related directly or indirectly to the subject of this article. No funds were received in support of this study.
    †Read at the Annual Meeting of The American Academy of Orthopaedic Surgeons, New Orleans, Louisiana, March 1, 1994.
    ‡187 Thomas Johnson Drive, Frederick, Maryland 21702.
    §Insall Scott Kelly Institute for Orthopaedics and Sports Medicine, Beth Israel Medical Center, North Division, 170 East End Avenue at 87th Street, New York, N.Y. 10128.
     
    Anchor for JumpAnchor for Jump  TABLE I ACTIVITY SCORE OF TEGNER AND LYSHOLM*
    *Reprinted, with permission, from: Tegner, Y., and Lysholm, J.: Rating systems in the evaluation of knee ligament injuries. Clin. Orthop., 198: 46, 1985
      10. Competitive sports  5. Work
      Soccer—national and international elite  Heavy labor (e.g., building, forestry)
      9. Competitive sports  Competitive sports
      Soccer, lower divisions  Cycling
      Ice hockey  Cross-country skiing
      Wrestling  Recreational sports
      Gymnastics  Jogging on uneven ground at least
      8. Competitive sports  twice weekly
      Bandy  4. Work
      Squash or badminton  Moderately heavy labor
      Athletics (jumping, etc.)  (e.g., truck driving, heavy
      Downhill skiing  domestic work)
      7. Competitive sports  Recreational sports
      Tennis  Cycling
      Athletics (running)  Cross-country skiing
      Motorcross, speedway  Jogging on even ground at least
      Handball  twice weekly
      Basketball  3. Work
      Recreational sports  Light labor (e.g., nursing)
      Soccer  Competitive and recreational sports
      Bandy and ice hockey  Swimming
      Squash  Walking in forest possible
      Athletics (jumping)  2. Work
      Cross-country track findings both  Light labor
      recreational and competitive  Walking on uneven ground possible but
      6. Recreational sports  impossible to walk in forest
      Tennis and badminton  1. Work
      Handball  Sedentary work
      Basketball  Walking on even ground possible
      Downhill skiiing  0. Sick leave or disability pension
      Jogging, at least five times per week  because of knee problems
     
    Anchor for JumpAnchor for Jump  TABLE II DATA ON THE PATIENTS
    DiagnosisRadiographic Alignment (Degrees)Activity Score of Tegner and Lysholm (Points)Patient Subjective ScoreWould Patient Have Op. Again?ComplicationsSubsequent Total Knee Replacement
    Age at Op.Duration of Follow-upPreop. (Varus)Postop. (Valgus)
    CasePreop.Postop.
    (Yrs.)(Yrs.)(Points)(Yrs. Postop.)
    Group I
    1R, 56; L, 608OsteoarthrosisR, 15; L, 10R, 8; L, 833R, 90; L, 90Yes
    2492Post-traumatic osteoarthrosis1353365NoStiffness; range of motion, 80°
    3335Osteoarthrosis10104488Yes
    45513OsteoarthrosisR, 7; L, 5R, 10; L, 1043R, 90; L, 85Yes13
    5549Post-traumatic osteoarthrosis1283389Yes6
    64610Post-traumatic osteoarthrosis1083390Yes
    75011Osteoarthrosis6102165No2
    8378Post-traumatic osteoarthrosis1083395Yes
    9524Osteochondritis dissecans9104495Yes
    10528Post-traumatic osteoarthrosis15103292Yes
    115414Osteoarthrosis7154250No2
    123113Post-traumatic osteoarthrosis201522100Yes
    Group II
    13314Osteochondritis dissecansR, 10; L, 10R, 10; L, 1077R, 95; L, 90Yes8
    14498Osteoarthrosis15107785Yes
    15525Osteoarthrosis586550No
    16592Osteoarthrosis596688Yes
    17555Osteoarthrosis51154100Yes
    18502Osteoarthrosis10105580Yes
    19592Osteoarthrosis5127790YesTibiofibular instability
    20605Osteoarthrosis15126585Yes
    215611Osteoarthrosis1056675No
    224811Post-traumatic osteoarthrosis1068894Yes
    235710Post-traumatic osteoarthrosis5754100Yes7
    245511Osteoarthrosis8777100Yes
    25579Post-traumatic osteoarthrosis10106685Yes
    26447Post-traumatic osteoarthrosis1085494Yes
    274310Post-traumatic osteoarthrosis1098790Yes
    285611Osteoarthrosis576480Yes
    295311Osteoarthrosis12987100Yes
    30464Osteoarthrosis617620NoRotational, medial instability
    313410Post-traumatic osteoarthrosis1058890Yes
    32557Osteoarthrosis7107675Yes
    33287Osteoarthrosis1058885Yes
    34475Osteoarthrosis10117792Yes
    We evaluated the results of thirty-seven proximal tibial osteotomies in thirty-four patients. This cohort was part of a group of seventy-eight patients who had had a proximal tibial osteotomy between 1979 and 1991. Our criteria for the performance of an osteotomy were more general in 1979 because of our uncertainty regarding the long-term results of total knee arthroplasty. Today, we seldom recommend osteotomy for women because of concerns about the cosmetic effect of the operation. From the original group of seventy-eight patients, therefore, we excluded twenty-four women, fifteen men who had been more than sixty years old at the time of the operation, and three patients (all men) who had died. Of the thirty-six patients who met our criteria for inclusion, two were lost to follow-up. The study group therefore included thirty-four patients, all of whom were men. The average age of the patients at the time of the operation was forty-nine years (range, twenty-eight to sixty years), and the average deformity was 10 degrees (range, 0 to 20 degrees) of varus. The diagnosis was degenerative osteoarthrosis for twenty-two knees, post-traumatic osteoarthrosis for twelve, and osteochondritis dissecans for three.
    The senior one of us (J. N. I.) performed all of the operations with use of a previously described technique6. A closing-wedge osteotomy was performed, and correction was maintained with an above-the-knee cast (twenty-nine knees) or with fixation with a blade-plate (eight knees). There were no specific indications for the use of internal fixation.
    After an average duration of follow-up of eight years (range, two to fourteen years), the patients were evaluated with use of a detailed questionnaire to determine the highest level of activity that had been achieved after the proximal tibial osteotomy. To avoid bias by the operating surgeon or by the patient, who may try to please the surgeon with satisfactory responses, the operating surgeon did not participate in the interviews or the administration of the questionnaire. The functional results were evaluated according to the scoring system of Tegner and Lysholm (Table I), in which the level of performance in manual labor and recreational sports activities is rated on a scale from 0 points (complete disability) to 10 points (the ability to perform at the level of an elite professional athlete).
    In an earlier report7, one of us (J. N. I.) and colleagues noted deterioration of the clinical results of proximal tibial osteotomy with time and with increasing age of the patient. In the present study, therefore, we recorded the highest level of activity (peak performance) that had been achieved at any time after the osteotomy and not necessarily the level that was observed at the time of the latest evaluation.
    The patients also completed the questionnaire by providing a yes-or-no response to a number of questions regarding the ability to walk one mile (1.6 kilometers), to go up and down stairs normally, to stand for four hours or more, to kneel, to climb a ladder, to perform manual labor before and after the operation, to participate in singles or doubles tennis, to ski downhill or cross-country, to ride a stationary or a conventional bicycle, to run, to jog, and to participate in other sports. They also were asked if activity caused pain or swelling and if they would have the operation again given the same circumstances. They then were asked to grade the efficacy of the operation in relieving pain and improving function on a scale from 0 to 100 points, with 0 implying failure and 100 implying a successful result.
    The patients were divided into two groups on the basis of their preoperative activity score22: the patients in Group I had a score of 4 points or less and those in Group II, a score of 5 points or more. The results were analyzed with the Fisher exact test, and the level of significance was p < 0.05.
    Group I comprised twelve patients (fourteen knees) who were an average of forty-eight years old (range, thirty-one to sixty years old) at the time of the index procedure (Table II). The preoperative diagnosis was post-traumatic osteoarthrosis for six patients, osteoarthrosis for five, and osteochondritis dissecans for one. Two patients had a bilateral procedure. The average deformity was 11 degrees (range, 5 to 20 degrees) of varus preoperatively and 10 degrees (range, 5 to 15 degrees) of valgus postoperatively. The average preoperative activity score of Tegner and Lysholm was 3.2 points (2, 3, or 4 points), and the average postoperative score was 2.8 points (range, 1 to 4 points). Eight patients had no change in their score postoperatively, and four had a decrease in their score (Table II).
    Group II comprised twenty-two patients (twenty-three knees) who were an average of fifty years old (range, twenty-eight to sixty years old) at the time of the index operation (Table II). The preoperative diagnosis was osteoarthrosis for fifteen patients, post-traumatic osteoarthrosis for six, and osteochondritis dissecans for one. One patient had a bilateral procedure. The average deformity was 7 degrees (range, 5 to 15 degrees) of varus preoperatively and 9 degrees (range, 5 to 17 degrees) of valgus postoperatively. The average preoperative activity score of Tegner and Lysholm was 6.5 points (range, 5 to 8 points), and the average postoperative score was 5.9 points (range, 2 to 8 points). Postoperatively, twelve patients had no change in the activity score and ten had a lower score. Of the ten who had a lower score, five had a decrease to a score of 4 points or less and five continued to function at a level of 5 points or more (Table II).
    A comparison of the ability of the patients in each group to participate in activities of daily living showed that the only significant difference was in the ability to stand for four hours or more; seven patients in Group I and twenty patients in Group II were able to do so (p = 0.03). Ten patients in Group I and twenty-one patients in Group II were able to walk at least one mile (1.6 kilometers) (p = 0.28), nine patients in Group I and twenty-one patients in Group II were able to walk up stairs normally (p = 0.12), eight patients in Group I and nineteen patients in Group II were able to walk down stairs normally (p = 0.18), four patients in Group I and thirteen patients in Group II were able to kneel (p = 0.14), and ten patients in Group I and twenty patients in Group II were able to climb a ladder (p = 0.44).
    We combined the two groups for the analysis of the ability to participate in sports and to perform manual labor as several patients in each group had not performed these activities preoperatively and had no intention of performing them postoperatively. The numbers were too small for us to draw any meaningful conclusions. Twenty-six of the thirty-four patients regularly performed manual labor that necessitated climbing, lifting, pushing, or pulling. This manual labor included activities such as painting, laying tile or carpet, paneling, carpentry, daily housekeeping, gardening, lawn-mowing, brick-laying, and construction work.
    Fifteen patients played tennis preoperatively, and thirteen continued to do so postoperatively (nine played singles and four played doubles tennis). This finding was not related to age. Four additional patients participated in squash, racquetball, or handball, and one patient played competitive badminton.
    Eleven patients skied preoperatively. Of the nine patients who continued to ski postoperatively, six skied downhill and three skied both downhill and cross-country; one of these nine also was able to water-ski. All nine patients were able to ski at their preoperative level.
    Preoperatively, fourteen patients jogged ten minutes or more three times a week; ten continued to do so postoperatively. Eight of these ten patients were able to run strenuously.
    Thirty patients were able to ride either a stationary or a conventional bicycle preoperatively, and twenty-six were able to do so postoperatively. Twenty-one of these patients bicycled vigorously for ten minutes or more three times a week.
    Eleven patients had pain with activity: the pain was mild in nine and moderate in two. Six of the thirty-four patients had swelling of the knee with activity.
    The average patient-satisfaction score was 84 of a possible 100 points. Twenty-eight patients (nine from Group I and nineteen from Group II) stated that they would have the operation again; this finding was not significant (p = 0.35).
    Eight patients had at least one additional operative procedure. Six had a total knee replacement at an average of seven years (range, two to thirteen years) after the osteotomy. One patient had reconstruction of the anterior cruciate and medial collateral ligaments because of recurrent instability, and another had a fibular osteotomy because of proximal migration of the fibular head.
    Before the advent of total knee arthroplasty, proximal tibial osteotomy was indicated for patients who had unicompartmental osteoarthrosis of the knee. Previous studies have shown that proximal tibial osteotomy produces satisfactory clinical results but that these results deteriorate with time2,7,9,23,24,27. In a previous study7 of ninety-five knees in eighty-three unselected patients (of both genders) who were thirty to eighty-three years old, ninety-two knees (97 per cent) had a good or excellent rating (according to The Hospital for Special Surgery knee score) at two years postoperatively, compared with only fifty-eight knees (61 per cent) at ten years postoperatively. Similar results have been reported by other authors2,9,23,24,27. Today, surgeons must decide whether total knee arthroplasty or proximal tibial osteotomy best suits the demands of the patient. The choice is easy when the patient is at either end of the age-spectrum, but it is sometimes not as clear when the patient is between fifty and sixty years old. A tibial osteotomy is preferred for young, active patients because of its potential to allow unlimited strenuous activity, which is contraindicated after a total knee arthroplasty.
    The main concern surrounding the performance of a total knee arthroplasty for young, active patients is the potential adverse effect of high joint reactive forces on the durability of the polyethylene articular surface3. Biomechanical studies have shown that activities involving running and jumping produce surface loads that exceed the limits of polyethylene. Running produces contact forces of twice the body weight14, while deep knee-bends can produce patellofemoral joint reactive forces that approach eight times the body weight18. These forces, together with the weight of the patient, the level of activity, and the duration that the implant has been in situ, have been implicated as contributing to polyethylene wear26. In addition, repeated and frequent heavy loading, as is involved in construction work, digging, or climbing, can loosen or damage a prosthesis. On the basis of these findings, one of the proposed merits of a proximal tibial osteotomy is its ability to allow the patient to engage safely in a high level of physical activity6-8. Therefore, if the patient wishes to continue to participate in sports involving running and jumping or to engage in a manual occupation that involves bending, lifting, or climbing, a proximal tibial osteotomy may be the procedure of choice. We found that seventeen of the twenty-six patients who participated in manual labor did so to an extent that would have been of concern if they had had a total knee arthroplasty. Twenty-five patients participated in sports activities, and detailed questioning revealed that nineteen did so to an extent that would have been of concern if they had had a total knee arthroplasty.
    We found that the best predictor of the postoperative level of activity was the preoperative level of activity. Patients who had a preoperative activity score22 of more than 4 points tended to have a high score postoperatively; however, they did not necessarily have improvement in function or maintain the preoperative level of activity. It appears that, after a proximal tibial osteotomy, the level of activity reaches a plateau that is lower than the preoperative level and then gradually decreases with time. This finding is similar to that reported by Odenbring et al. for men and women who were less than fifty years old and had had a tibial osteotomy because of mild (Ahlback stage-I) osteoarthrotic changes.
    At present, we consider proximal tibial osteotomy to be appropriate only for men who are sixty years old or less, who have a varus deformity of the knee secondary to osteoarthrosis or osteochondritis dissecans, who have a high level of activity (a score of at least 4 points according to the system of Tegner and Lysholm), and who wish to participate in activities such as standing or walking for several hours at a time; heavy lifting; construction work that might involve climbing, jumping, or prolonged kneeling; and impact sports, including tennis and jogging. Despite some minor disagreement, the general consensus is that these activities may be inappropriate after total knee arthroplasty because of the stresses of impact loading across the knee joint6,11. As both overcorrection and undercorrection may adversely influence the result, the technical expertise of the surgeon who performs the procedure is a critical factor in the achievement of a successful outcome.
    Complications that are associated with proximal tibial osteotomy include non-union, intra-articular fracture, peroneal nerve palsy, vascular injuries, and infection4,23,24. Therefore, during preoperative counseling, one should not guarantee or suggest that improved function will be achieved. At best, the preoperative level of activity will be maintained. On the basis of our current findings, we perform proximal tibial osteotomy less often then in earlier years.
    Total knee arthroplasty is a reliable and reproducible alternative to osteotomy for most patients; previous investigators have reported good or excellent results in 95 per cent of knees, and survival rates of 90 to 95 per cent, at ten years16,17,20,21. In addition, as proximal tibial osteotomy does not improve the level of activity, total knee arthroplasty is recommended for patients who are less than sixty years old who have become sedentary because of pain. The chance that such a patient will need an additional operation is less after an arthroplasty than it is after an osteotomy25. We found that patients who had an activity score22 of 4 points or less both preoperatively and postoperatively were satisfied with the result; in retrospect, however, such patients could have been managed just as effectively with total knee arthroplasty.
    Ahlback, S.: Osteoarthrosis of the knee. A radiographic investigation. Acta Radiol.,Supplementum 277: 7-72, 1968.Supplementum 2777  1968 
     
    Berman, A. T.; Bosacco, S. J.; Kirshner, S.; and |and |Avolio, A., Jr.: Factors influencing long-term results in high tibial osteotomy. Clin. Orthop.,272: 192-198, 1991.272192  1991  [PubMed]
     
    Burstein, A. H.: Biomechanics of the knee. In Surgery of the Knee, pp. 21-39. Edited by J. N. Insall. New York, Churchill Livingstone, 1984. 
     
    Coventry, M. B.: Upper tibial osteotomy for gonarthrosis. The evolution of the operation in the last 18 years and long term results. Orthop. Clin. North America,10: 191-210, 1979.10191  1979 
     
    Holden, D. L.; James, S. L.; Larson, R. L.; and |and |Slocum, D. B.: Proximal tibial osteotomy in patients who are fifty years old or less. A long-term follow-up study. J. Bone and Joint Surg.,70-A: 977-982, Aug. 1988.70-A977  1988 
     
    Insall, J. N.: Osteotomy. In Surgery of the Knee, edited by J. N. Insall, R. E. Windsor, W. N. Scott, M. A. Kelly, and P. Aglietti. Ed. 2, vol. 2, pp. 635-676. New York, Churchill Livingstone, 1993. 
     
    Insall, J. N.; Joseph, D. M.; and |and |Msika, C.: High tibial osteotomy for varus gonarthrosis. A long-term follow-up study. J. Bone and Joint Surg.,66-A: 1040-1048, Sept. 1984.66-A1040  1984 
     
    Insall, J.; Shoji, H.; and |and |Mayer, V.: High tibial osteotomy. A five-year evaluation. J. Bone and Joint Surg.,56-A: 1397-1405, Oct. 1974.56-A1397  1974 
     
    Ivarsson, I.; Myrnerts, R.; and |and |Gillquist, J.: High tibial osteotomy for medial osteoarthritis of the knee. A 5 to 7 and an 11 to 13 year follow-up. J. Bone and Joint Surg.,72-B(2): 238-244, 1990.72-B(2)238  1990 
     
    Jackson, J. P., and |and |Waugh, W.: Tibial osteotomy for osteoarthritis of the knee. J. Bone and Joint Surg.,43-B(4): 746-751, 1961.43-B(4)746  1961 
     
    Maquet, P.: The treatment of choice in osteoarthritis of the knee. Clin. Orthop.,192: 108-112, 1985.192108  1985  [PubMed]
     
    Matthews, L. S.; Goldstein, S. A.; Malvitz, T. A.; Katz, B. P.; and |and |Kaufer, H.: Proximal tibial osteotomy. Factors that influence the duration of satisfactory function. Clin. Orthop.,229: 193-200, 1988.229193  1988  [PubMed]
     
    Morrey, B. F.: Upper tibial osteotomy for secondary osteoarthritis of the knee. J. Bone and Joint Surg.,71-B(4): 554-559, 1989.71-B(4)554  1989 
     
    Morrison, J. B.: The forces transmitted to the human knee joint during activity. Doctoral thesis. University of Strathclyde, Glasgow, Scotland, 1967. 
     
    Odenbring, S.; Tjornstrand, B.; Egund, N.; Hagstedt, B.; Hovelius, L.; Lindstrand, A.; Luxhoj, T.; and |and |Svanstrom, A.: Function after tibial osteotomy for medial gonarthrosis below aged 50 years. Acta Orthop. Scandinavica,60: 527-531, 1989.60527  1989  [CrossRef]
     
    Ranawat, C. S., and |and |Boachie-Adjei, O.: Survivorship analysis and results of total condylar knee arthroplasty. Eight- to 11-year follow-up period. Clin. Orthop.,226: 6-13, 1988.2266  1988  [PubMed]
     
    Rand, J. A., and |and |Ilstrup, D. M.: Survivorship analysis of total knee arthroplasty. Cumulative rates of survival of 9200 total knee arthroplasties. J. Bone and Joint Surg.,73-A: 397-409, March 1991.73-A397  1991 
     
    Reilly, D. T., and |and |Martens, M.: Experimental analysis of the quadriceps muscle force and patello-femoral joint reaction force for various activities. Acta Orthop. Scandinavica,43: 126-137, 1972.43126  1972  [CrossRef]
     
    Rudan, J. F., and |and |Simurda, M. A.: High tibial osteotomy. A prospective clinical and roentgenographic review. Clin. Orthop.,255: 251-256, 1990.255251  1990  [PubMed]
     
    Scuderi, G. R.; Insall, J. N.; Windsor, R. E.; and |and |Moran, M. C.: Survivorship of cemented knee replacements. J. Bone and Joint Surg.,71-B(5): 798-803, 1989.71-B(5)798  1989 
     
    Stern, S. H., and |and |Insall, J. N.: Posterior stabilized prosthesis. Results after follow-up of nine to twelve years. J. Bone and Joint Surg.,74-A: 980-986, Aug. 1992.74-A980  1992 
     
    Tegner, Y., and |and |Lysholm, J.: Rating systems in the evaluation of knee ligament injuries. Clin. Orthop.,198: 43-49, 1985.19843  1985  [PubMed]
     
    Tjornstrand, B. A.; Egund, N.; and |and |Hagstedt, B. V.: High tibial osteotomy: a seven-year clinical and radiographic follow-up. Clin. Orthop.,160: 124-136, 1981.160124  1981  [PubMed]
     
    Vainionpää, S.; Läike, E.; Kirves, P.; and |and |Tiusanen, P.: Tibial osteotomy for osteoarthritis of the knee. A five to ten-year follow-up study. J. Bone and Joint Surg.,63-A: 938-946, July 1981.63-A938  1981 
     
    Windsor, R. E.; Insall, J. N.; and |and |Vince, K. G.: Technical considerations of total knee arthroplasty after proximal tibial osteotomy. J. Bone and Joint Surg.,70-A: 547-555, April 1988.70-A547  1988 
     
    Wright, T. M.; Hood, R. W.; and |and |Burstein, A. H.: Analysis of material failures. Orthop. Clin. North America,13: 33-44, 1982.1333  1982 
     
    Yasuda, K.; Majima, T.; Tsuchida, T.; and |and |Kaneda, K.: A ten- to 15-year follow-up observation of high tibial osteotomy in medial compartment osteoarthrosis. Clin. Orthop.,282: 186-195, 1992.282186  1992  [PubMed]
     

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    Anchor for JumpAnchor for Jump  TABLE I ACTIVITY SCORE OF TEGNER AND LYSHOLM*
    *Reprinted, with permission, from: Tegner, Y., and Lysholm, J.: Rating systems in the evaluation of knee ligament injuries. Clin. Orthop., 198: 46, 1985
      10. Competitive sports  5. Work
      Soccer—national and international elite  Heavy labor (e.g., building, forestry)
      9. Competitive sports  Competitive sports
      Soccer, lower divisions  Cycling
      Ice hockey  Cross-country skiing
      Wrestling  Recreational sports
      Gymnastics  Jogging on uneven ground at least
      8. Competitive sports  twice weekly
      Bandy  4. Work
      Squash or badminton  Moderately heavy labor
      Athletics (jumping, etc.)  (e.g., truck driving, heavy
      Downhill skiing  domestic work)
      7. Competitive sports  Recreational sports
      Tennis  Cycling
      Athletics (running)  Cross-country skiing
      Motorcross, speedway  Jogging on even ground at least
      Handball  twice weekly
      Basketball  3. Work
      Recreational sports  Light labor (e.g., nursing)
      Soccer  Competitive and recreational sports
      Bandy and ice hockey  Swimming
      Squash  Walking in forest possible
      Athletics (jumping)  2. Work
      Cross-country track findings both  Light labor
      recreational and competitive  Walking on uneven ground possible but
      6. Recreational sports  impossible to walk in forest
      Tennis and badminton  1. Work
      Handball  Sedentary work
      Basketball  Walking on even ground possible
      Downhill skiiing  0. Sick leave or disability pension
      Jogging, at least five times per week  because of knee problems
    Anchor for JumpAnchor for Jump  TABLE II DATA ON THE PATIENTS
    DiagnosisRadiographic Alignment (Degrees)Activity Score of Tegner and Lysholm (Points)Patient Subjective ScoreWould Patient Have Op. Again?ComplicationsSubsequent Total Knee Replacement
    Age at Op.Duration of Follow-upPreop. (Varus)Postop. (Valgus)
    CasePreop.Postop.
    (Yrs.)(Yrs.)(Points)(Yrs. Postop.)
    Group I
    1R, 56; L, 608OsteoarthrosisR, 15; L, 10R, 8; L, 833R, 90; L, 90Yes
    2492Post-traumatic osteoarthrosis1353365NoStiffness; range of motion, 80°
    3335Osteoarthrosis10104488Yes
    45513OsteoarthrosisR, 7; L, 5R, 10; L, 1043R, 90; L, 85Yes13
    5549Post-traumatic osteoarthrosis1283389Yes6
    64610Post-traumatic osteoarthrosis1083390Yes
    75011Osteoarthrosis6102165No2
    8378Post-traumatic osteoarthrosis1083395Yes
    9524Osteochondritis dissecans9104495Yes
    10528Post-traumatic osteoarthrosis15103292Yes
    115414Osteoarthrosis7154250No2
    123113Post-traumatic osteoarthrosis201522100Yes
    Group II
    13314Osteochondritis dissecansR, 10; L, 10R, 10; L, 1077R, 95; L, 90Yes8
    14498Osteoarthrosis15107785Yes
    15525Osteoarthrosis586550No
    16592Osteoarthrosis596688Yes
    17555Osteoarthrosis51154100Yes
    18502Osteoarthrosis10105580Yes
    19592Osteoarthrosis5127790YesTibiofibular instability
    20605Osteoarthrosis15126585Yes
    215611Osteoarthrosis1056675No
    224811Post-traumatic osteoarthrosis1068894Yes
    235710Post-traumatic osteoarthrosis5754100Yes7
    245511Osteoarthrosis8777100Yes
    25579Post-traumatic osteoarthrosis10106685Yes
    26447Post-traumatic osteoarthrosis1085494Yes
    274310Post-traumatic osteoarthrosis1098790Yes
    285611Osteoarthrosis576480Yes
    295311Osteoarthrosis12987100Yes
    30464Osteoarthrosis617620NoRotational, medial instability
    313410Post-traumatic osteoarthrosis1058890Yes
    32557Osteoarthrosis7107675Yes
    33287Osteoarthrosis1058885Yes
    34475Osteoarthrosis10117792Yes
    Ahlback, S.: Osteoarthrosis of the knee. A radiographic investigation. Acta Radiol.,Supplementum 277: 7-72, 1968.Supplementum 2777  1968 
     
    Berman, A. T.; Bosacco, S. J.; Kirshner, S.; and |and |Avolio, A., Jr.: Factors influencing long-term results in high tibial osteotomy. Clin. Orthop.,272: 192-198, 1991.272192  1991  [PubMed]
     
    Burstein, A. H.: Biomechanics of the knee. In Surgery of the Knee, pp. 21-39. Edited by J. N. Insall. New York, Churchill Livingstone, 1984. 
     
    Coventry, M. B.: Upper tibial osteotomy for gonarthrosis. The evolution of the operation in the last 18 years and long term results. Orthop. Clin. North America,10: 191-210, 1979.10191  1979 
     
    Holden, D. L.; James, S. L.; Larson, R. L.; and |and |Slocum, D. B.: Proximal tibial osteotomy in patients who are fifty years old or less. A long-term follow-up study. J. Bone and Joint Surg.,70-A: 977-982, Aug. 1988.70-A977  1988 
     
    Insall, J. N.: Osteotomy. In Surgery of the Knee, edited by J. N. Insall, R. E. Windsor, W. N. Scott, M. A. Kelly, and P. Aglietti. Ed. 2, vol. 2, pp. 635-676. New York, Churchill Livingstone, 1993. 
     
    Insall, J. N.; Joseph, D. M.; and |and |Msika, C.: High tibial osteotomy for varus gonarthrosis. A long-term follow-up study. J. Bone and Joint Surg.,66-A: 1040-1048, Sept. 1984.66-A1040  1984 
     
    Insall, J.; Shoji, H.; and |and |Mayer, V.: High tibial osteotomy. A five-year evaluation. J. Bone and Joint Surg.,56-A: 1397-1405, Oct. 1974.56-A1397  1974 
     
    Ivarsson, I.; Myrnerts, R.; and |and |Gillquist, J.: High tibial osteotomy for medial osteoarthritis of the knee. A 5 to 7 and an 11 to 13 year follow-up. J. Bone and Joint Surg.,72-B(2): 238-244, 1990.72-B(2)238  1990 
     
    Jackson, J. P., and |and |Waugh, W.: Tibial osteotomy for osteoarthritis of the knee. J. Bone and Joint Surg.,43-B(4): 746-751, 1961.43-B(4)746  1961 
     
    Maquet, P.: The treatment of choice in osteoarthritis of the knee. Clin. Orthop.,192: 108-112, 1985.192108  1985  [PubMed]
     
    Matthews, L. S.; Goldstein, S. A.; Malvitz, T. A.; Katz, B. P.; and |and |Kaufer, H.: Proximal tibial osteotomy. Factors that influence the duration of satisfactory function. Clin. Orthop.,229: 193-200, 1988.229193  1988  [PubMed]
     
    Morrey, B. F.: Upper tibial osteotomy for secondary osteoarthritis of the knee. J. Bone and Joint Surg.,71-B(4): 554-559, 1989.71-B(4)554  1989 
     
    Morrison, J. B.: The forces transmitted to the human knee joint during activity. Doctoral thesis. University of Strathclyde, Glasgow, Scotland, 1967. 
     
    Odenbring, S.; Tjornstrand, B.; Egund, N.; Hagstedt, B.; Hovelius, L.; Lindstrand, A.; Luxhoj, T.; and |and |Svanstrom, A.: Function after tibial osteotomy for medial gonarthrosis below aged 50 years. Acta Orthop. Scandinavica,60: 527-531, 1989.60527  1989  [CrossRef]
     
    Ranawat, C. S., and |and |Boachie-Adjei, O.: Survivorship analysis and results of total condylar knee arthroplasty. Eight- to 11-year follow-up period. Clin. Orthop.,226: 6-13, 1988.2266  1988  [PubMed]
     
    Rand, J. A., and |and |Ilstrup, D. M.: Survivorship analysis of total knee arthroplasty. Cumulative rates of survival of 9200 total knee arthroplasties. J. Bone and Joint Surg.,73-A: 397-409, March 1991.73-A397  1991 
     
    Reilly, D. T., and |and |Martens, M.: Experimental analysis of the quadriceps muscle force and patello-femoral joint reaction force for various activities. Acta Orthop. Scandinavica,43: 126-137, 1972.43126  1972  [CrossRef]
     
    Rudan, J. F., and |and |Simurda, M. A.: High tibial osteotomy. A prospective clinical and roentgenographic review. Clin. Orthop.,255: 251-256, 1990.255251  1990  [PubMed]
     
    Scuderi, G. R.; Insall, J. N.; Windsor, R. E.; and |and |Moran, M. C.: Survivorship of cemented knee replacements. J. Bone and Joint Surg.,71-B(5): 798-803, 1989.71-B(5)798  1989 
     
    Stern, S. H., and |and |Insall, J. N.: Posterior stabilized prosthesis. Results after follow-up of nine to twelve years. J. Bone and Joint Surg.,74-A: 980-986, Aug. 1992.74-A980  1992 
     
    Tegner, Y., and |and |Lysholm, J.: Rating systems in the evaluation of knee ligament injuries. Clin. Orthop.,198: 43-49, 1985.19843  1985  [PubMed]
     
    Tjornstrand, B. A.; Egund, N.; and |and |Hagstedt, B. V.: High tibial osteotomy: a seven-year clinical and radiographic follow-up. Clin. Orthop.,160: 124-136, 1981.160124  1981  [PubMed]
     
    Vainionpää, S.; Läike, E.; Kirves, P.; and |and |Tiusanen, P.: Tibial osteotomy for osteoarthritis of the knee. A five to ten-year follow-up study. J. Bone and Joint Surg.,63-A: 938-946, July 1981.63-A938  1981 
     
    Windsor, R. E.; Insall, J. N.; and |and |Vince, K. G.: Technical considerations of total knee arthroplasty after proximal tibial osteotomy. J. Bone and Joint Surg.,70-A: 547-555, April 1988.70-A547  1988 
     
    Wright, T. M.; Hood, R. W.; and |and |Burstein, A. H.: Analysis of material failures. Orthop. Clin. North America,13: 33-44, 1982.1333  1982 
     
    Yasuda, K.; Majima, T.; Tsuchida, T.; and |and |Kaneda, K.: A ten- to 15-year follow-up observation of high tibial osteotomy in medial compartment osteoarthrosis. Clin. Orthop.,282: 186-195, 1992.282186  1992  [PubMed]
     
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