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Semiconstrained Total Elbow Replacement for the Treatment of Post-Traumatic Osteoarthrosis*
ALBERTO G. SCHNEEBERGER, M.D.†; ROBERT ADAMS, R.P.A.‡; BERNARD F. MORREY, M.D.‡, ROCHESTER, MINNESOTA
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Investigation performed at the Mayo Clinic, Rochester
The Journal of Bone & Joint Surgery.  1997; 79:1211-22 
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Abstract

Forty-one consecutive patients were managed for post-traumatic osteoarthrosis or dysfunction of the elbow with use of a non-customized semiconstrained Coonrad-Morrey total elbow prosthesis. The average age at the time of the operation was fifty-seven years (range, thirty-two to eighty-two years). The patients were followed for an average of five years and eight months (range, two to twelve years). Radiographs were made at least two years postoperatively (average, five years and one month; range, two to twelve years) for thirty-nine of the forty-one patients. According to the Mayo elbow performance score, sixteen patients (39 per cent) had an excellent result, eighteen (44 per cent) had a good result, five (12 per cent) had a fair result, and two (5 per cent) had a poor result. Thirty-six (95 per cent) of the thirty-eight patients who had a functioning implant at the time of follow-up considered the outcome to be satisfactory. Preoperatively, thirty-seven patients (90 per cent) had moderate or severe pain; postoperatively, thirty (73 per cent) had no or only mild discomfort. Motion improved from an average arc of flexion of 40 to 118 degrees preoperatively to an average arc of flexion of 27 to 131 degrees postoperatively. All thirty-eight functioning implants rendered the elbow stable.Eleven patients (27 per cent) had a major complication. Nine of them (22 per cent of the series) needed an additional operation. There was no aseptic loosening, and most of the complications were primarily due to so-called mechanical failure. The ulnar component fractured in five patients (12 per cent), and the polyethylene bushings wore out in two (5 per cent). These complications were attributed principally to the performance of strenuous physical labor, such as lifting more than ten kilograms on a regular basis, against the advice of the surgeon; excessive preoperative deformity of the joint; or an unstable traumatic injury. Two patients (5 per cent) had an infection.Semiconstrained joint replacement of the elbow can be a reliable form of treatment, and frequently is the only viable option, for the difficult problems encountered with post-traumatic destruction of a joint. Restoration of function, relief of pain, and patient satisfaction can be achieved even when a patient is less than sixty years old if that patient has low demands and a low level of activity. However, the mechanical failures underscore the fact that this procedure is relatively contraindicated in patients who anticipate strenuous physical activity or who are not expected to comply with the postoperative protocol. This observation reflects the tendency for increased and excessive use of a previously functionless joint, after it has been rendered stable and pain-free, to lead to mechanical failure.

Figures in this Article
    The early results of so-called highly constrained total elbow arthroplasties were disappointing because of a high rate of loosening of the implants4,9,24. With the introduction of semiconstrained and unconstrained resurfacing total elbow prostheses, the rate of loosening decreased dramatically. Hence, the treatment of rheumatoid arthritis with elbow replacement is proving increasingly reliable3,6,10,20,27. However, little information is available regarding the treatment of post-traumatic osteoarthrosis with semiconstrained prostheses and even less is available regarding treatment with resurfacing total elbow replacements2,7,11,12,14,15,21,28. In most reports, patients managed with joint replacement for post-traumatic osteoarthrosis have been part of a larger group of patients who have rheumatoid arthritis and have had distinctly unfavorable results12,14,15,28.
    We are reporting our experience, since 1981, with use of a single device for the treatment of post-traumatic osteoarthrosis. Patients who had a non-union of the distal aspect of the humerus were excluded, as that experience has been previously reported20.

    *One or more of the authors have received or will receive benefits for personal or professional use from a commercial party related directly or indirectly to the subject of this article. In addition, benefits have been or will be directed to a research fund or foundation, educational institution, or other non-profit organization with which one or more of the authors are associated. No funds were received in support of this study.

    †118 Avenue Geanjaureg, G5942 Paris CEDEX 19, France.

    ‡Department of Orthopedic Surgery, Mayo Clinic, 200 First Street S.W., Rochester, Minnesota 55905.

    *One or more of the authors have received or will receive benefits for personal or professional use from a commercial party related directly or indirectly to the subject of this article. In addition, benefits have been or will be directed to a research fund or foundation, educational institution, or other non-profit organization with which one or more of the authors are associated. No funds were received in support of this study.
    †118 Avenue Geanjaureg, G5942 Paris CEDEX 19, France.
    ‡Department of Orthopedic Surgery, Mayo Clinic, 200 First Street S.W., Rochester, Minnesota 55905.
     
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    +Fig. 1 Photograph of the semiconstrained modified Coonrad-Morrey prosthesis (Zimmer), which consists of a hinge articulation that allows a so-called play of 7 to 10 degrees of valgus and varus and 7 degrees of rotation. Sintered beads on the distal aspect of the humeral component allow bone ingrowth and improve fixation by the cement. An anterior flange at the distal aspect of the humeral component resists posterior displacement and torsion of the humeral stem when incorporated with bone grafts. The present ulnar component has a layer of precoat of methylmethacrylate on its proximal aspect to improve fixation by the cement and to lessen the stress concentration that may contribute to fracture.
     
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    +Figs. 2-A and 2-B: Case 1. A forty-one-year-old man who had sustained a fracture-dislocation seventeen months previously, which was treated unsuccessfully with reduction and fixation and, four months later, with resection arthroplasty. He had severe pain and an arc of flexion of 60 to 90 degrees. Fig. 2-A: Anteroposterior and lateral radiographs made before the semiconstrained total elbow replacement.
     
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    +Fig. 2-B Lateral and anteroposterior radiographs made twelve years postoperatively. The patient had an excellent result with no pain, full function, and an arc of flexion of 20 to 135 degrees. The implant was stable without signs of loosening.
     
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    +Figs. 3A, 3-B and 3-C: Case 17. A forty-one-year-old man who had severe pain and moderate instability. He had sustained a supracondylar fracture as a child. Fig. 3-A: Preoperative lateral radiograph showing marked osseous deformity.
     
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    +Fig. 3-B Anteroposterior radiograph, made four years postoperatively, showing worn bushings with recurrence of the valgus deformity. The patient had returned to his previous job as a construction worker, which involved lifting as much as 150 kilograms on a regular basis, against the advice of the surgeon.
     
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    +Fig. 3-C Postoperative anteroposterior radiograph made after exchange of the bushings. Both the humeral and the ulnar component were found to be solidly fixed.
     
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    +Figs. 4-A and 4-B: Case 3. A fifty-eight-year-old man who was a farmer. Fig. 4-A: Preoperative anteroposterior and lateral radiographs showing extensive preoperative osseous deformity due to a malunited supracondylar fracture sustained when the patient was ten years old. The patient had moderate pain and marked loss of motion.
     
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    +Fig. 4-B Lateral radiograph, made nine years after implantation of the prosthesis, showing fracture of the ulnar component. The patient had had no pain and full function during the nine years, and he had returned to his previous strenuous activities, regularly lifting weights of more than fifty kilograms, against the advice of the surgeon.
     
    Anchor for JumpAnchor for Jump  TABLE I DATA ON THE FORTY-ONE PATIENTS
    *3= loss of one condyle, and 4=loss of both condyle21†0 = stable, 1 = varus-valgus laxity of 5 to 20 degrees, and 2 = grossly unstable.‡NA = Not available.‡Preoperative/postoperative.§Clinical/radiographic.¶Acording to the Mayo elbow performance score18.
    CaseGender, Age at Op. (Yrs.)No. of Previous ProceduresDeformityOsseous Loss at Procedure*Preop. Instability†Preop. Location of JointTime from Initial Injury to Joint Replacement (Mos.)Flexion‡ (Degrees)Pronation-Supination‡ (Degrees)Pain§Radiolucent Lines24‡ (Type)ComplicationsDuration of Follow-up‡¶ (Mos.)Result
    Preop.Postop.Preop.Postop.Humeral ComponentUlnar ComponentSubjective‡Objective#
            1M,412-41Centered1760 to 9020 to 13590 to 1080 to 704/100144/144Satisfact.Exc.
            2F,584+31Dislocated1040 to 12530 to 125NA85 to 80      3/2IIUlnar neurop.133/133Satisfact.Good
            3M,580+00Subluxated57670 to 10030 to 1200 to 080 to 703/200Fract. of ulnar component137/109Satisfact.Good
            4M,651-00Centered1350 to 11030 to 13560 to 1560 to 754/100108/36Satisfact.Exc.
            5F,651+40Dislocated73285 to 12046 to 136-5 to 2254 to 634/100117/117Satisfact.Exc.
            6F,761-01Subluxated1722 to 13030 to 14070 to 8060 to 403/100116/NASatisfact.Exc.
            7F,753-41Subluxated40850 to 13040 to 14080 to 9045 to 403/100112/72Satisfact.Exc.
            8M,573+42Dislocated90Flail0 to 130Flail70 to 702/10IFract. of ulnar component103/104Satisfact.Exc.
            9F,662+02Centered76830 to 1305 to 14570 to 8060 to 704/40098/95Satisfact.Fair
        10F,803-02Centered2925 to 12015 to 12070 to 8090 to 904/30097/97Satisfact.Good
        11F,522-02Centered7-8 to 120Resected70 to 70Resected4/1IIIInfection95/87NAFair
        12F,517+02Centered13910 to 13010 to 14062 to 67NA3/300Worn bushings93/73Satisfact.Good
        13F,455-01Centered2725 to 10540 to 120NA90 to 703/20067/67Satisfact.Good
        14F,324+41Centered36045 to 12020 to 14035 to 8570 to 493/200Hematoma; impingement of radial head; rupture of triceps65/65Satisfact.Good
        15F,435-42Centered4880 to 115Resected90 to 90Resected4/400Infection85/69No changeFair
        16F,651+00Centered2435 to 7035 to 10590 to 1075 to 353/100Loss of motion85/87Satisfact.Good
        17M,412+41Dislocated8420 to 13025 to 3020 to 3075 to 754/20IWorn bushings83/62Satisfact.Good
        18F,643-01Subluxated9640 to 13015 to 15070 to 7060 to 804/30060/60Satisfact.Good
        19F,701-00Centered765 to 10025 to 13580 to 2070 to 752/10I65/65Satisfact.Exc.
        20F,543-01Centered4920 to 1300 to 14070 to 7560 to 604/30060/60Satisfact.Good
        21F,722-00Centered1840 to 12040 to 14020 to 7070 to 803/300Fract. of ulnar component56/58NAFair
        22F,521+02Centered50450 to 1400 to 14070 to 9070 to 803/40069/24Unsatisfact.Poor
        23F,371+40Subluxated39615 to 15015 to 12080 to 8580 to 703/10057/70Satisfact.Exc.
        24F,681-01Subluxated360 to 9020 to 13550 to 5070 to 803/10061/62Satisfact.Exc.
        25F,674-00Centered12080 to 13030 to 1500 to 8030 to 602/20061/61Satisfact.Good
        26F,500-00Centered48050 to 1048 to 10520 to 5040 to 34/40033/30Unsatisfact.Poor
        27M,593-42Dislocated2245 to 14020 to 13070 to 7080 to 804/30041/41Satisfact.Good
        28F,522+40Subluxated5550 to 10070 to 13080 to 8080 to 803/20036/36Satisfact.Good
        29F,440-00Centered46850 to 12025 to 12585 to 7570 to 704/20046/48Satisfact.Good
        30F,512-30Subluxated855 to 8540 to 14075 to 30NA3/10043/43Satisfact.Exc.
        31M,542+42Dislocated3Flail20 to 125Flail7.5 to 7.54/100Fract. of ulnar component45/37Satisfact.Exc.
        32F,722-00Centered1510 to 13030 to 12560 to 6080 to 803/20031/43Satisfact.Good
        33M,821-01Subluxated66015 to 11530 to 13072 to 8250 to 504/20IFract. of ulnar component41/35Satisfact.Good
        34F,393-01Centered37210 to 13030 to 11580 to 9060 to 904/200Intraop. fract. of ulna42/32Satisfact.Good
        35M,484-30Centered2465 to 12040 to 12065 to 8560 to 853/3I025/25Satisfact.Fair
        36M,612-02Centered2035 to 11010 to 13560 to 7080 to 803/10028/24Satisfact.Exc.
        37F,651-01Centered67236 to 138NA80 to 90NA4/10025/25SatisfactFair
        38F,782-02Subluxated180 to 125NA70 to 70NA3/1NANA35/NASatisfact.Exc.
        39F,473-00Centered34840 to 12040 to 13060 to 7080 to 754/10024/24Satisfact.Exc.
        40F,601+42Dislocated20FlailNAFlailNA2/20026/26Satisfact.Good
        41F,344-30Centered12255 to 11060 to 14560 to 5080 to 804/10033/27Satisfact.Exc.
     
    Anchor for JumpAnchor for Jump  TABLE II DATA REGARDING THE MAYO ELBOW PERFORMANCE SCORE
    *A good or excellent result was considered satisfactory, and a fair or poor result, was considered unsatisfactory.
    No. of ElbowsNo. of Elbows
    ScoreResult*Preoperativelyat Follow-up
    (Points)
    90 to 100Excellent017
    70 to 89Good317
    50 to 69Fair175
    <50Poor212
     
    Anchor for JumpAnchor for Jump  TABLE III COMPLICATIONS
    *The numbers in parentheses indicate the number of patients.
    ComplicationNo. of PatientsComments*Treatment*
    Intraoperative fracture of1 (2%)Two wires, healed
          proximal aspect of ulna
    Postoperative
          Minor
              Mild persistent ulnar neuropathy1 (2%)None
          Major
              Infection2 (5%)Diabetes mellitus (1)Resection
              Fracture of ulnar component5 (12%)Return to strenuous labor against advice of surgeon (2), traumatic injury (2), no specific event (1)Replacement of ulnar component (4)
              Worn bushings2 (5%)Return to strenuous labor against advice of surgeon or preop. deformity, or bothSynovectomy, débridement, exchange of bushings
              Rupture of triceps1 (2%)Triceps-splitting approachRepair of triceps
              Impingement of radial head1 (2%)Excision of radial head
              Loss of motion1 (2%)Release, excision of radial head
              Hematoma1 (2%)Evacuation
     
    Anchor for JumpAnchor for Jump  TABLE IV DATA ON PATIENTS WHO HAD A REOPERATION FOR MECHANICAL FAILURE
    CaseAge at Op. (Yrs.)ReasonTime from Index Op. to Reop. (Mos.)Result before FailureTreatmentResult at Most Recent Follow-upPreoperative FindingsComments
    Gross InstabilitySubstantial DeformitySubstantial Osseous Loss
    358Fract. of ulnar component108ExcellentReplacement of ulnar componentGood-+-  Farmer; regularly lifted weights of more than 50 kg against advice of surgeon
    857Fract. of ulnar component52ExcellentReplacement of ulnar componentExcellent+++Performed strenuous labor, regularly lifted weights of more than 100 kg against advice of surgeon
    3154Fract. of ulnar component24ExcellentReplacement of ulnar componentExcellent+++
    3382Fract. of ulnar component24ExcellentReplacement of ulnar componentGood---Struck golf club into grass
    1251Worn bushings60GoodReplacement of bushingGood+++
    1741Worn bushings48GoodReplacement of bushingGood-++Performed strenuous labor, regularly lifted weights of as much as 150 kg against advice of surgeon

    Total Prosthetic Device

    The semiconstrained Coonrad-Morrey prosthesis (Zimmer, Warsaw, Indiana) with fixation of both stems with cement was used for all patients. This device is the third-generation design and incorporates a flange, a loose hinge, and a porous coating of the distal aspect of the humeral component and the proximal aspect of the ulnar component. The ulnar component comes in two sizes. Standard humeral stems come in two diameters and are also available in lengths of ten, fifteen, and twenty centimeters. Thirty-seven patients had insertion of a fifteen-centimeter stem; two, a ten-centimeter stem; and two, a twenty-centimeter stem. The selection of the diameter and length of the stem was at the discretion of the surgeon. Usually, shorter implants were selected for smaller humeral intramedullary canals. No custom devices were used for any of these patients. The prosthesis is made of a titanium alloy. The articulation used in this study consists of three high-density-polyethylene bushings rotating around a titanium-alloy pin that is secured with a split ring. It allows a so-called play of 7 to 10 degrees of varus and valgus and 7 degrees of rotation25. Since 1993, a cobalt-chromium pin has been used instead of the original titanium pin. The anterior flange at the distal end of the humeral stem is designed to resist posterior displacement and external rotational stresses on the humeral component when incorporated with bone graft. The surfaces of the distal aspect of the humeral component and the proximal aspect of the ulnar component were treated with sintered beads to improve fixation of the cement and to allow bone ingrowth behind the flange. On the basis of observations of late fractures of the ulnar stem, the layer of sintered beads on the ulnar component was replaced with a precoat of methylmethacrylate in 1991 (Fig. 1). Seven patients had a precoated ulnar component.

    Selection of the Patients

    From 1981 to 1993, forty-one consecutive patients who had post-traumatic osteoarthrosis or dysfunction of the elbow and who met our inclusion criteria all were managed with the same design of joint replacement (Table I). Patients who had an acute injury of the joint of less than three months' duration, had rheumatoid arthritis, had had a previous total joint replacement, or had a non-union were excluded20. Patients who had ankylosis of the elbow with an arc of flexion of less than 30 degrees also were excluded. They are believed to constitute a different subset of patients because of the soft-tissue contracture, which necessitates marked additional dissection, and the typical absence of pain.
    There were thirty-one women and ten men with an average age of fifty-seven years (range, thirty-two to eighty-two years) at the time of the operation. The injury involved the dominant extremity of twenty-nine patients. The primary diagnosis was post-traumatic osteoarthrosis in thirty-eight patients and post-traumatic dysfunction due to a flail elbow in three. Of the latter three patients, one had had a complete resection of the joint for débridement at the site of a comminuted fracture; one, for the treatment of an infection at the site of an impending non-union; and one, for salvage of a failed osteosynthesis. The average time from the original fracture to the joint replacement was sixteen years (range, three months to sixty-four years). All but three patients had had at least one previous operation (average, 2.3 procedures; range, zero to seven procedures). The twenty-three patients who were less than sixty years old had had an average of 2.7 previous procedures, and the eighteen who were sixty years old or more had had an average of 1.8 previous procedures. The primary indication for the index procedure was pain for thirty-six patients (88 per cent); a reduced, painful range of motion for two (5 per cent); and dysfunction with a flail elbow for three (7 per cent).

    Previous Complications

    At the time of presentation, six patients had mild-to-moderate ulnar neuropathy as the result of either the initial injury or a previous operation, one patient had a persistent radial-nerve palsy due to a complete traumatic laceration, and one patient had had an infected non-union that had been treated with resection.

    Operative Technique

    The operative technique has been described elsewhere19; however, some features should be emphasized. The ulnar nerve was always transposed anteriorly in a subcutaneous pocket if this had not been performed previously. The Mayo triceps-sparing approach was used in all but two patients, who had a triceps-splitting approach at the discretion of the surgeon. The Mayo exposure includes the release and lateral reflection of the triceps from the olecranon in continuity with the ulnar periosteum and the fascia of the forearm along with the anconeus. The collateral ligaments were detached from the epicondyles, which allowed complete exposure of the elbow joint. An intramedullary injection system was used for optimum insertion of the cement, to which one gram of tobramycin was added from 1983 on. An important element was the placement of a bone graft between the anterior flange and the distal part of the humerus to resist posterior displacement and rotational stresses on the humeral component after ingrowth. In one patient, the deformed distal aspect of the humerus was in contact with the flange, making insertion of a bone graft unnecessary. Beginning in 1985, no effort to repair the collateral ligaments was made. Marked deficiencies in bone stock with absence of one epicondyle or both did not change or complicate the implantation of the humeral component. Only the humeral diaphysis is required to obtain secure fixation of this device. Therefore, no attempt was made to reconstruct the condyles. The semiconstrained, hinged prosthesis yielded immediate stability, making repair of the collateral ligaments unnecessary. At the end of the procedure, the extensor mechanism was reattached to the olecranon with two number-5 non-absorbable sutures, allowing immediate use of the joint. The average duration of the operation was two hours and twenty-three minutes (range, one hour and fifteen minutes to seven hours). This consecutive series consisted of the patients of five staff surgeons.

    Clinical Evaluation

    The results were rated with use of the Mayo elbow performance score18, with a maximum of 100 points. The components of this score include 45 points for no pain, 20 points for flexion of more than 100 degrees23, 10 points for joint stability, and 25 points for the ability to perform selected daily activities. The results were defined as excellent (90 to 100 points), good (70 to 89 points), fair (50 to 69 points), and poor (less than 50 points). Patients who had mild pain could not be considered to have an excellent result, and those who had moderate pain could be considered to have, at most, a good result, even if the maximum score was given for all of the other components. Excellent and good results were considered satisfactory, and fair and poor results were considered unsatisfactory.

    Follow-up

    All forty-one patients were followed clinically for at least two years, with an average duration of five years and eight months (range, two to twelve years). Two patients died of unrelated causes nine years and two years and four months after the index operation. One of these patients had been examined clinically and radiographically at five years and six months and the other, at two years. Radiographs made at least two years postoperatively (average, five years and one month; range, two to twelve years) were available for thirty-nine of the forty-one patients. Sixteen patients returned to our institution for examination at the time of the study, fourteen were assessed by a local orthopaedic surgeon, and eleven responded to a questionnaire and sent radiographs made at a local radiological institute. The questionnaire allowed the patient to grade the result as much better, better, the same, or worse. The range of motion of the elbow of the eleven patients who were assessed with use of a questionnaire was determined from measurements made at previous examinations at our institution or by a local orthopaedic surgeon (at an average of four years and four months before completion of the questionnaire) as well as on the basis of a diagram that allowed the patient to document his or her perceived arc of motion. The range of motion was not known for three of these eleven patients. The most recent range of motion after a minimum of two years of follow-up was used to obtain a Mayo elbow performance score for these eleven patients.

    Radiographic Evaluation

    The osseous loss seen preoperatively and immediately postoperatively and the preoperative osseous and articular deformities were recorded. Nine (22 per cent) of the forty-one patients had a substantial articular deformity resulting in a carrying angle of more than 30 degrees. Eight patients (20 per cent) had a marked osseous deformity (Figs. 2-A, 2-B, 3-A, 3-B, 3-C, 4-A, 4-B). Over-all, fourteen patients (34 per cent) had a severe articular or osseous deformity. Ten (24 per cent) of the forty-one elbows were subluxated preoperatively, and seven (17 per cent) were dislocated. Twelve patients (29 per cent) had extensive loss of bone stock with loss of both condyles preoperatively (Figs. 3-A, 3-B and 3-C). Resection of one condyle or both for implantation of the prosthesis into the deformed humerus was necessary in three other patients.
    Postoperatively, the integrity of the prosthesis and signs of loosening were evaluated. Type-0 radiographic loosening indicates a radiolucent line less than one millimeter thick and involving less than 50 per cent of the interface; type-I, a radiolucent line at least one millimeter thick and involving less than 50 per cent of the interface; type-II, a radiolucent line more than one millimeter thick and involving more than 50 per cent of the interface; type-III, a radiolucent line more than two millimeters thick and around the entire interface; and type-IV, gross loosening24.

    Statistical Analysis

    The relationship between discrete variables was determined with the Wilcoxon signed-rank test. Factors were tested statistically for association with a satisfactory or unsatisfactory result with use of univariate analysis with the chi-square test. A p value of less than 0.05 was considered significant.
    At the latest follow-up examination, sixteen patients (39 per cent) had an excellent result, eighteen (44 per cent) had a good result, five (12 per cent) had a fair result, and two (5 per cent) had a poor result, according to the Mayo elbow performance score (Table II). The average score was 82 points (range, 20 to 100 points) postoperatively compared with 44 points (range, 15 to 75 points) preoperatively (p < 0.0005). Over-all, thirty-four patients (83 per cent) had a satisfactory objective result, and seven (17 per cent) had an unsatisfactory objective result. Every patient who had a satisfactory objective result also described the subjective outcome as satisfactory (much better or better). In addition, two patients who had an unsatisfactory objective result rated the elbow as satisfactory because of improvement compared with the previous status. Both patients indicated that they had moderate pain. Over-all, of the thirty-eight patients who had a functioning implant (two patients had had a resection arthroplasty, and one patient had an unrevised broken ulnar component), thirty-six (95 per cent) had a satisfactory subjective result at the latest follow-up examination. One patient, who had an infection, and one patient, who had a broken ulnar component, were dissatisfied with their status.

    Pain

    Preoperatively, thirty-seven patients (90 per cent) had moderate or severe pain. Postoperatively, twenty-nine (76 per cent) of the thirty-eight patients who had a functioning implant had no or only mild pain. The difference between the preoperative and postoperative levels of pain was significant (p < 0.0005).

    Motion

    Preoperatively, the average arc of flexion was 40 degrees (range, -8 to 85 degrees) to 118 degrees (range, 70 to 150 degrees), and the average rotation was 61 degrees (range, -5 to 90 degrees) of pronation to 62 degrees (range, -10 to 90 degrees) of supination. Postoperatively, the average arc of flexion improved to 27 degrees (range, 0 to 70 degrees) (p < 0.001) to 131 degrees (range, 105 to 150 degrees) (p < 0.0005). The average rotation also improved, to 67 degrees (range, 7.5 to 90 degrees) of pronation (p = 0.05) to 67 degrees (range, 3 to 90 degrees) of supination.
    Preoperatively, nine patients had a moderately limited arc of flexion of 50 degrees or less (average and standard deviation, 36 ± 8 degrees). These nine patients had improvement to an average arc of 97 ± 21 degrees (range, 60 to 120 degrees) (p = 0.008). A range of 0 to 140 degrees of flexion was attained intraoperatively in one patient, but adhesions developed without explanation and limited the arcs of flexion and rotation of the forearm to 40 degrees each. The adhesions between the triceps muscle and the distal aspect of the humerus were freed, and the radial head was resected five months after implantation of the prosthesis. Flexion improved to an arc of 35 to 105 degrees and rotation improved to an arc of 75 degrees of pronation to 35 degrees of supination.

    Instability

    Only sixteen patients (39 per cent) had a stable elbow preoperatively; thirteen had moderate varus-valgus laxity of 5 to 20 degrees; and twelve, including the three patients who had a flail elbow, had a grossly unstable elbow (Table I). Postoperatively, all thirty-eight of the functioning elbow prostheses were stable.

    Function

    Preoperatively, the patients were able to perform an average of 2.8 ± 2.0 of the five daily activities assessed22. After implantation of the prosthesis, the function returned almost to normal: the patients were able to perform an average of 4.8 ± 0.4 of the five daily activities (p < 0.0005).

    Radiographic Findings

    All grafts behind the flanges were found to have incorporated by the time of the latest follow-up. There was no aseptic loosening. Aseptic non-progressive radiolucent lines at least one millimeter thick and involving less than 50 per cent of the interface (type I) were observed on the humeral side in two (5 per cent) of the thirty-eight patients who had a functioning implant and on the ulnar side in five patients (13 per cent). No type-II, III, or IV aseptic radiolucent lines were observed. Two patients had a periprosthetic infection: the implant in one was measurably loose and the implant in the other was found to be well fixed at the time of removal. Slight periarticular ossifications (less than one centimeter) were observed in only four patients, with no clinical implications or effect on the outcome.

    Complications and Reoperations

    Eleven patients (27 per cent) had at least one major complication (Table III), and nine of them (22 per cent of the series) had an additional operation. One patient (Case 14) (2 per cent) had three complications, all of which were treated operatively.
    Infection developed in two patients (5 per cent), as mentioned previously. Treatment consisted of a resection arthroplasty. Two patients were seen for particulate synovitis and osteolysis due to debris associated with worn bushings (Figs. 3-A, 3-B and 3-C). Both were managed with synovectomy, débridement, and exchange of the bushings. One patient (2 per cent) had impingement between the radial head and the prosthesis and was managed successfully with resection of the radial head. A ruptured triceps also was noted in this patient after a triceps-splitting approach and was repaired. All reoperations performed for a mechanical failure, a fracture, or worn bushings resulted in a satisfactory outcome.
    The ulnar component broke in five patients after two to nine years (average, four years and four months) (Figs. 4-A and 4-B). Before breakage, all five patients had an excellent result with an asymptomatic, essentially normal elbow. The cause of failure was regular lifting of weights of more than fifty kilograms (two patients), landing on the outstretched arm after a fall downstairs (one), and striking a golf club into the turf (one). No specific event or excessive activity could be identified for the breakage in one patient. By the time of the most recent follow-up examination, four of the five ulnar components had been exchanged, resulting in two good and two excellent outcomes (Table IV) at four, twenty-seven, twenty-two, and thirty-nine months after the replacement. At each of the four revisions, the well fixed ulnar component was removed, enlarging the envelope of the well fixed cement, and the new component was reinserted into the previously stable cement cavity. The revisions involved an average of less than seventy minutes of tourniquet time. There were no operative or delayed complications from the reoperation. It is interesting to note that all ulnar components that broke were in patients who were excessively active. While restoration of function typically represents a successful outcome, in the present study the high degree of functional restoration was the cause of failure.

    Factors Influencing the Results

    Mechanical complications, such as breakage of the ulnar component and wear of the bushings, were attributed to overuse of the elbow in three patients, who performed strenuous, repetitive labor, and to considerable traumatic injury in two. It is of interest to note that five of the seven patients who had a mechanical failure had had marked preoperative deformity of the elbow. Over-all, ten patients were considered to have had marked angular deformity before the operation. Thus, the rate of complications (five of ten) for the elbows that had had a preoperative deformity was significantly higher than the rate for the other elbows (6 per cent [two of thirty-one]; p = 0.02). The deformity was corrected with implantation of the prosthesis. In both patients who had worn bushings, almost the same deformity recurred, possibly as a result of the loads imparted by the distorted and shortened soft tissues. Eight (35 per cent) of the twenty-three patients who were less than sixty years old had a complication. Accordingly, the proportion of satisfactory results in this age-group (eighteen [78 per cent] of twenty-three) was lower than that in the patients who were sixty years old or more (sixteen of eighteen). However, we could not detect a significant difference because of the small sample sizes.
    All of the patients in this series had marked destruction of the elbow joint. A high proportion of them also had considerable loss of bone, instability, and deformity. In addition, twenty-three patients (56 per cent) were less than sixty years old at the time of the operation. All but three of the forty-one had had at least one previous operative procedure, and most had had several previous procedures. Management of this patient population is very challenging, with only a few options even theoretically available for operative treatment. Arthrodesis reliably relieves pain16 and restores a strong extremity. However, because it results in great functional impairment26, arthrodesis of the elbow rarely is considered a viable option6,21. Interposition arthroplasty may be considered for a young patient, particularly one who has stiffness. Restoration of motion and relief of pain can be achieved with a reasonable but unpredictable rate of success8,13,17,29. However, this procedure is technically demanding, with an even higher rate of complications than that associated with semiconstrained total elbow replacement17. Interposition arthroplasty also is not considered suitable for patients who perform strenuous physical labor13. In addition, marked loss of bone is a contraindication to this procedure8. Urbaniak and Black30 reported the results of allograft replacement of the entire elbow joint after six months to six years. Seven of ten patients had a satisfactory result. The rate of pain relief was high, with only minimum or mild symptoms in all patients. Complications occurred in three of the ten patients: two patients had a non-union, and one had extensive resorption of the graft associated with chronic dislocation of the elbow. Continued degenerative changes and fragmentation of the allograft were seen in some of the elbows after two years. However, other authors reported less favorable results after other total elbow replacements performed with allografts5.
    The results of total joint replacements with highly constrained designs in the 1970s were disappointing because of high rates of loosening4,9,24. Although a decrease in the rates of loosening was reported after the introduction of semiconstrained and unconstrained replacement devices3,6,10,20,27, those reports dealt almost exclusively with the treatment of rheumatoid arthritis. There is very little information regarding total joint replacement with an unconstrained or semiconstrained device for the treatment of post-traumatic osteoarthrosis. Inglis and Pellicci11, in 1980, reported little improvement in nine patients who had been managed with a semiconstrained Pritchard-Walker and triaxial implant. Lowe et al.15 reported a satisfactory result in only one of seven patients who had an unconstrained device: four implants were unstable, one was associated with an infection, and one was loose. In 1984, Soni and Cavendish28 reported a good or excellent result for only three of eight patients who had an unconstrained implant. Figgie et al.7 were the first of whom we are aware to report a positive experience with a semiconstrained triaxial prosthesis with custom-designed stems for the treatment of post-traumatic conditions of the elbow: eight of their nine patients had a satisfactory result. However, the follow-up was limited to 7.6 years, and different designs with variable stems as well as fixation with or without cement were used7. From the same institution, Kraay et al.14, in 1994, reported their experience with a linked semiconstrained implant. Of 113 patients, eighteen had been managed for post-traumatic osteoarthrosis, non-union, or fracture. The results for these patients were disappointing, with a five-year rate of survival of the implants of only 53 per cent. There were five loose humeral components and two infections among the eighteen patients.
    The present study represents our experience with a single, non-customized, semiconstrained implant. The follow-up of forty-one patients for as long as twelve years is the most comprehensive in the literature, to our knowledge. The results show that severe post-traumatic osteoarthrosis or dysfunction can be treated reliably with a semiconstrained device. Although some patients were followed for as long as twelve years, we must note that the average duration of follow-up was a little more than five years. In light of this fact, the satisfaction expressed by the patients was particularly gratifying. Thirty-six (88 per cent) of the forty-one patients considered the condition of the elbow to be improved. All thirty-eight elbows in which the implant had been retained were stable, and function had been reliably restored. Thirty (73 per cent) of the forty-one patients had relief of pain. However, even though the rate of pain relief was considered rather high, it must be recognized that it was not as high as that reported after the treatment of rheumatoid arthritis18; in that study, 93 per cent of fifty-four patients reported no or only mild pain. This may be explained in part by the severe preoperative condition of the elbows as a result of the initial injury and the number of previous operations in the current study. Only two patients in the present study had non-progressive radiolucent lines, which did not exceed more than 50 per cent of the prosthesis-bone interface. No component was found to be loose after a maximum duration of follow-up of twelve years. This represents a marked improvement compared with the previous constrained implants, which had high rates of loosening4,24,28.
    The rate of complications was notable and should serve to outline the limitations of total joint replacement. Breakage of the ulnar component and wear of the bushings were, in part, associated with patients' severe non-compliance with the postoperative protocol and with marked preoperative deformity. The non-compliance included working as a lumberjack, lifting in excess of 100 kilograms, lifting forty-kilogram bags of horse feed, and the like. Participation in strenuous physical activity and anticipated non-compliance by patients who are less than sixty years old are therefore, in the opinion of the senior one of us (B. F. M.), relative contraindications for this procedure. Currently, patients are advised, as before, not to lift an object that weighs more than 4.5 kilograms and not to lift, on a repetitive basis, an object that weighs more than one kilogram. Caution against excessive use that may lead to fracture is specifically noted. It might also be noted that all fractures occurred through the sintered beads and there were no fractures of the precoated ulnar components. However, in the final analysis, the surgeon must reconcile the needs of a patient who is markedly limited by dysfunction of the elbow that could be dramatically improved by replacement with the realization that this decrease in limitations sometimes results in excessive activity and failure of the implant.
    One major advantage of this implant is its ability to correct deformity. However, our experience suggests that it does so at the expense of increased rates of wear. Nevertheless, the 78 per cent rate of successful results for the twenty-three patients who were less than sixty years old suggests that joint replacement can be a viable option for these patients, particularly if they have low demands and a low level of activity. Despite these favorable results, the indication for total joint replacement should still be very restrictive for patients who are less than sixty years old. Unfortunately, other reconstructive procedures are limited. Careful attention to operative technique and experience with the procedure enhance the likelihood of a satisfactory outcome in this challenging patient population.
    Askew, L. J.; An, K.-N.; Morrey, B. F.; and Chao, E. Y. S.: Isometric elbow strength in normal individuals. Clin. Orthop.,222: 261-266, 1987.222261  1987  [PubMed]
     
    Brumfield, R. H., Jr.; Kuschner, S. H.; Gellman, H.; Redix, L.; and Stevenson, D. V.: Total elbow arthroplasty. J. Arthroplasty,5: 359-363, 1990.5359  1990  [PubMed]
     
    Davis, R. F.; Weiland, A. J.; Hungerford, D. S.; Moore, J. R.; and Volenec-Dowling, S.: Nonconstrained total elbow arthroplasty. Clin. Orthop.,171: 156-160, 1982.171156  1982  [PubMed]
     
    Dee, R.: Total replacement arthroplasty of the elbow for rheumatoid arthritis. J. Bone and Joint Surg.,54-B(1): 88-95, 1972.54-B(1)88  1972 
     
    Dee, R.: Nonimplantation salvage of failed reconstructive procedures of the elbow. In The Elbow and Its Disorders, edited by B. F. Morrey. Ed. 2, pp. 690-695. Philadelphia, W. B. Saunders, 1993. 
     
    Ewald, F. C., and Jacobs, M. A.: Total elbow arthroplasty. Clin. Orthop.,182: 137-142, 1984.182137  1984  [PubMed]
     
    Figgie, H. E., III; Inglis, A. E.; Ranawat, C. S.; and Rosenberg, G. M.: Results of total elbow arthroplasty as a salvage procedure for failed elbow reconstructive operations. Clin. Orthop.,219: 185-193, 1987.219185  1987  [PubMed]
     
    Froimson, A. I.; Silva, J. E.; and Richey, D. G.: Cutis arthroplasty of the elbow joint. J. Bone and Joint Surg.,58-A: 863-865, Sept. 1976.58-A863  1976 
     
    Garrett, J. C.; Ewald, F. C.; Thomas, W. H.; and Sledge, C. B.: Loosening associated with G.S.B. hinge total elbow replacement in patients with rheumatoid arthritis. Clin. Orthop.,127: 170-174, 1977.127170  1977  [PubMed]
     
    Gschwend, N.; Loehr, J.; Ivosevic-Radovanovic, D.; Scheier, H.; and Munzinger, U.: Semiconstrained elbow prostheses with special reference to the GSB III prosthesis. Clin. Orthop.,232: 104-111, 1988.232104  1988  [PubMed]
     
    Inglis, A. E., and Pellicci, P. M.: Total elbow replacement. J. Bone and Joint Surg.,62-A: 1252-1258, Dec. 1980.62-A1252  1980 
     
    Kasten, M. D., and Skinner, H. B.: Total elbow arthroplasty. An 18-year experience. Clin. Orthop.,290: 177-188, 1993.290177  1993  [PubMed]
     
    Knight, R. A., and Zandt, I. L. V.: Arthroplasty of the elbow. An end-result study. J. Bone and Joint Surg.,34-A: 610-618, July 1952.34-A610  1952 
     
    Kraay, M. J.; Figgie, M. P.; Inglis, A. E.; Wolfe, S. W.; and Ranawat, C. S.: Primary semiconstrained total elbow arthroplasty. Survival analysis of 113 consecutive cases. J. Bone and Joint Surg.,76-B(4): 636-640, 1994.76-B(4)636  1994 
     
    Lowe, L. W.; Miller, A. J.; Allum, R. L.; and Higginson, D. W.: The development of an unconstrained elbow arthroplasty. A clinical review. J. Bone and Joint Surg.,66-B(2): 243-247, 1984.66-B(2)243  1984 
     
    McAuliffe, J. A.; Burkhalter, W. E.; Ouellette, E. A.; and Carneiro, R. S.: Compression plate arthrodesis of the elbow. J. Bone and Joint Surg.,74-B(2): 300-304, 1992.74-B(2)300  1992 
     
    Morrey, B. F.: Post-traumatic contracture of the elbow. Operative treatment including distraction arthroplasty. J. Bone and Joint Surg.,72-A: 601-618, April 1990.72-A601  1990 
     
    Morrey, B. F., and Adams, R. A.: Semiconstrained arthroplasty for the treatment of rheumatoid arthritis of the elbow. J. Bone and Joint Surg.,74-A: 479-490, April 1992.74-A479  1992 
     
    Morrey, B. F., and Adams, R. A.: Semiconstrained elbow replacement arthroplasty: rationale, technique, and results. In The Elbow and Its Disorders, edited by B. F. Morrey. Ed. 2, pp. 648-664. Philadelphia, W. B. Saunders, 1993. 
     
    Morrey, B. F., and Adams, R. A.: Semiconstrained elbow replacement for distal humeral nonunion. J. Bone and Joint Surg.,77-B(1): 67-72, 1995.77-B(1)67  1995 
     
    Morrey, B. F.; Adams, R. A.; and Bryan, R. S.: Total replacement for post-traumatic arthritis of the elbow. J. Bone and Joint Surg.,73-B(4): 607-612, 1991.73-B(4)607  1991 
     
    Morrey, B. F.; Askew, L. J.; and An, K. N.: Strength function after elbow arthroplasty. Clin. Orthop.,234: 43-50, 1988.23443  1988  [PubMed]
     
    Morrey, B. F.; Askew, L. J.; An, K. N.; and Chao, E. Y.: A biomechanical study of normal functional elbow motion. J. Bone and Joint Surg.,63-A: 872-877, July 1981.63-A872  1981 
     
    Morrey, B. F.; Bryan, R. S.; Dobyns, J. H.; and Linscheid, R. L.: Total elbow arthroplasty. A five-year experience at the Mayo Clinic. J. Bone and Joint Surg.,63-A: 1050-1063, Sept. 1981.63-A1050  1981 
     
    O'Driscoll, S. W.; An, K.-N.; Korinek, S.; and Morrey, B. F.: Kinematics of semiconstrained total elbow arthroplasty. J. Bone and Joint Surg.,74-B(2): 297-299, 1992.74-B(2)297  1992 
     
    O'Neill, O. R.; Morrey, B. F.; Tanaka, S.; and An, K.-N.: Compensatory motion in the upper extremity after elbow arthrodesis. Clin. Orthop.,281: 89-96, 1992.28189  1992  [PubMed]
     
    Pritchard, R. W.: Anatomic surface elbow arthroplasty. A preliminary report. Clin. Orthop.,179: 223-230, 1983.179223  1983  [PubMed]
     
    Soni, R. K., and Cavendish, M. E.: A review of the Liverpool elbow prosthesis from 1974 to 1982. J. Bone and Joint Surg.,66-B(2): 248-253, 1984.66-B(2)248  1984 
     
    Tsuge, K.; Murakami, T.; Yasunaga, Y.; and Kanaujia, R. R.: Arthroplasty of the elbow. Twenty years' experience of a new approach. J. Bone and Joint Surg.,69-B(1): 116-120, 1987.69-B(1)116  1987 
     
    Urbaniak, J. R., and Black, K. E., Jr.: Cadaveric elbow allografts. A six-year experience. Clin. Orthop.,197: 131-140, 1985.197131  1985  [PubMed]
     

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    Anchor for JumpAnchor for Jump
    +Fig. 1 Photograph of the semiconstrained modified Coonrad-Morrey prosthesis (Zimmer), which consists of a hinge articulation that allows a so-called play of 7 to 10 degrees of valgus and varus and 7 degrees of rotation. Sintered beads on the distal aspect of the humeral component allow bone ingrowth and improve fixation by the cement. An anterior flange at the distal aspect of the humeral component resists posterior displacement and torsion of the humeral stem when incorporated with bone grafts. The present ulnar component has a layer of precoat of methylmethacrylate on its proximal aspect to improve fixation by the cement and to lessen the stress concentration that may contribute to fracture.
    Anchor for JumpAnchor for Jump
    +Figs. 2-A and 2-B: Case 1. A forty-one-year-old man who had sustained a fracture-dislocation seventeen months previously, which was treated unsuccessfully with reduction and fixation and, four months later, with resection arthroplasty. He had severe pain and an arc of flexion of 60 to 90 degrees. Fig. 2-A: Anteroposterior and lateral radiographs made before the semiconstrained total elbow replacement.
    Anchor for JumpAnchor for Jump
    +Fig. 2-B Lateral and anteroposterior radiographs made twelve years postoperatively. The patient had an excellent result with no pain, full function, and an arc of flexion of 20 to 135 degrees. The implant was stable without signs of loosening.
    Anchor for JumpAnchor for Jump
    +Figs. 3A, 3-B and 3-C: Case 17. A forty-one-year-old man who had severe pain and moderate instability. He had sustained a supracondylar fracture as a child. Fig. 3-A: Preoperative lateral radiograph showing marked osseous deformity.
    Anchor for JumpAnchor for Jump
    +Fig. 3-B Anteroposterior radiograph, made four years postoperatively, showing worn bushings with recurrence of the valgus deformity. The patient had returned to his previous job as a construction worker, which involved lifting as much as 150 kilograms on a regular basis, against the advice of the surgeon.
    Anchor for JumpAnchor for Jump
    +Fig. 3-C Postoperative anteroposterior radiograph made after exchange of the bushings. Both the humeral and the ulnar component were found to be solidly fixed.
    Anchor for JumpAnchor for Jump
    +Figs. 4-A and 4-B: Case 3. A fifty-eight-year-old man who was a farmer. Fig. 4-A: Preoperative anteroposterior and lateral radiographs showing extensive preoperative osseous deformity due to a malunited supracondylar fracture sustained when the patient was ten years old. The patient had moderate pain and marked loss of motion.
    Anchor for JumpAnchor for Jump
    +Fig. 4-B Lateral radiograph, made nine years after implantation of the prosthesis, showing fracture of the ulnar component. The patient had had no pain and full function during the nine years, and he had returned to his previous strenuous activities, regularly lifting weights of more than fifty kilograms, against the advice of the surgeon.
    Anchor for JumpAnchor for Jump  TABLE I DATA ON THE FORTY-ONE PATIENTS
    *3= loss of one condyle, and 4=loss of both condyle21†0 = stable, 1 = varus-valgus laxity of 5 to 20 degrees, and 2 = grossly unstable.‡NA = Not available.‡Preoperative/postoperative.§Clinical/radiographic.¶Acording to the Mayo elbow performance score18.
    CaseGender, Age at Op. (Yrs.)No. of Previous ProceduresDeformityOsseous Loss at Procedure*Preop. Instability†Preop. Location of JointTime from Initial Injury to Joint Replacement (Mos.)Flexion‡ (Degrees)Pronation-Supination‡ (Degrees)Pain§Radiolucent Lines24‡ (Type)ComplicationsDuration of Follow-up‡¶ (Mos.)Result
    Preop.Postop.Preop.Postop.Humeral ComponentUlnar ComponentSubjective‡Objective#
            1M,412-41Centered1760 to 9020 to 13590 to 1080 to 704/100144/144Satisfact.Exc.
            2F,584+31Dislocated1040 to 12530 to 125NA85 to 80      3/2IIUlnar neurop.133/133Satisfact.Good
            3M,580+00Subluxated57670 to 10030 to 1200 to 080 to 703/200Fract. of ulnar component137/109Satisfact.Good
            4M,651-00Centered1350 to 11030 to 13560 to 1560 to 754/100108/36Satisfact.Exc.
            5F,651+40Dislocated73285 to 12046 to 136-5 to 2254 to 634/100117/117Satisfact.Exc.
            6F,761-01Subluxated1722 to 13030 to 14070 to 8060 to 403/100116/NASatisfact.Exc.
            7F,753-41Subluxated40850 to 13040 to 14080 to 9045 to 403/100112/72Satisfact.Exc.
            8M,573+42Dislocated90Flail0 to 130Flail70 to 702/10IFract. of ulnar component103/104Satisfact.Exc.
            9F,662+02Centered76830 to 1305 to 14570 to 8060 to 704/40098/95Satisfact.Fair
        10F,803-02Centered2925 to 12015 to 12070 to 8090 to 904/30097/97Satisfact.Good
        11F,522-02Centered7-8 to 120Resected70 to 70Resected4/1IIIInfection95/87NAFair
        12F,517+02Centered13910 to 13010 to 14062 to 67NA3/300Worn bushings93/73Satisfact.Good
        13F,455-01Centered2725 to 10540 to 120NA90 to 703/20067/67Satisfact.Good
        14F,324+41Centered36045 to 12020 to 14035 to 8570 to 493/200Hematoma; impingement of radial head; rupture of triceps65/65Satisfact.Good
        15F,435-42Centered4880 to 115Resected90 to 90Resected4/400Infection85/69No changeFair
        16F,651+00Centered2435 to 7035 to 10590 to 1075 to 353/100Loss of motion85/87Satisfact.Good
        17M,412+41Dislocated8420 to 13025 to 3020 to 3075 to 754/20IWorn bushings83/62Satisfact.Good
        18F,643-01Subluxated9640 to 13015 to 15070 to 7060 to 804/30060/60Satisfact.Good
        19F,701-00Centered765 to 10025 to 13580 to 2070 to 752/10I65/65Satisfact.Exc.
        20F,543-01Centered4920 to 1300 to 14070 to 7560 to 604/30060/60Satisfact.Good
        21F,722-00Centered1840 to 12040 to 14020 to 7070 to 803/300Fract. of ulnar component56/58NAFair
        22F,521+02Centered50450 to 1400 to 14070 to 9070 to 803/40069/24Unsatisfact.Poor
        23F,371+40Subluxated39615 to 15015 to 12080 to 8580 to 703/10057/70Satisfact.Exc.
        24F,681-01Subluxated360 to 9020 to 13550 to 5070 to 803/10061/62Satisfact.Exc.
        25F,674-00Centered12080 to 13030 to 1500 to 8030 to 602/20061/61Satisfact.Good
        26F,500-00Centered48050 to 1048 to 10520 to 5040 to 34/40033/30Unsatisfact.Poor
        27M,593-42Dislocated2245 to 14020 to 13070 to 7080 to 804/30041/41Satisfact.Good
        28F,522+40Subluxated5550 to 10070 to 13080 to 8080 to 803/20036/36Satisfact.Good
        29F,440-00Centered46850 to 12025 to 12585 to 7570 to 704/20046/48Satisfact.Good
        30F,512-30Subluxated855 to 8540 to 14075 to 30NA3/10043/43Satisfact.Exc.
        31M,542+42Dislocated3Flail20 to 125Flail7.5 to 7.54/100Fract. of ulnar component45/37Satisfact.Exc.
        32F,722-00Centered1510 to 13030 to 12560 to 6080 to 803/20031/43Satisfact.Good
        33M,821-01Subluxated66015 to 11530 to 13072 to 8250 to 504/20IFract. of ulnar component41/35Satisfact.Good
        34F,393-01Centered37210 to 13030 to 11580 to 9060 to 904/200Intraop. fract. of ulna42/32Satisfact.Good
        35M,484-30Centered2465 to 12040 to 12065 to 8560 to 853/3I025/25Satisfact.Fair
        36M,612-02Centered2035 to 11010 to 13560 to 7080 to 803/10028/24Satisfact.Exc.
        37F,651-01Centered67236 to 138NA80 to 90NA4/10025/25SatisfactFair
        38F,782-02Subluxated180 to 125NA70 to 70NA3/1NANA35/NASatisfact.Exc.
        39F,473-00Centered34840 to 12040 to 13060 to 7080 to 754/10024/24Satisfact.Exc.
        40F,601+42Dislocated20FlailNAFlailNA2/20026/26Satisfact.Good
        41F,344-30Centered12255 to 11060 to 14560 to 5080 to 804/10033/27Satisfact.Exc.
    Anchor for JumpAnchor for Jump  TABLE II DATA REGARDING THE MAYO ELBOW PERFORMANCE SCORE
    *A good or excellent result was considered satisfactory, and a fair or poor result, was considered unsatisfactory.
    No. of ElbowsNo. of Elbows
    ScoreResult*Preoperativelyat Follow-up
    (Points)
    90 to 100Excellent017
    70 to 89Good317
    50 to 69Fair175
    <50Poor212
    Anchor for JumpAnchor for Jump  TABLE III COMPLICATIONS
    *The numbers in parentheses indicate the number of patients.
    ComplicationNo. of PatientsComments*Treatment*
    Intraoperative fracture of1 (2%)Two wires, healed
          proximal aspect of ulna
    Postoperative
          Minor
              Mild persistent ulnar neuropathy1 (2%)None
          Major
              Infection2 (5%)Diabetes mellitus (1)Resection
              Fracture of ulnar component5 (12%)Return to strenuous labor against advice of surgeon (2), traumatic injury (2), no specific event (1)Replacement of ulnar component (4)
              Worn bushings2 (5%)Return to strenuous labor against advice of surgeon or preop. deformity, or bothSynovectomy, débridement, exchange of bushings
              Rupture of triceps1 (2%)Triceps-splitting approachRepair of triceps
              Impingement of radial head1 (2%)Excision of radial head
              Loss of motion1 (2%)Release, excision of radial head
              Hematoma1 (2%)Evacuation
    Anchor for JumpAnchor for Jump  TABLE IV DATA ON PATIENTS WHO HAD A REOPERATION FOR MECHANICAL FAILURE
    CaseAge at Op. (Yrs.)ReasonTime from Index Op. to Reop. (Mos.)Result before FailureTreatmentResult at Most Recent Follow-upPreoperative FindingsComments
    Gross InstabilitySubstantial DeformitySubstantial Osseous Loss
    358Fract. of ulnar component108ExcellentReplacement of ulnar componentGood-+-  Farmer; regularly lifted weights of more than 50 kg against advice of surgeon
    857Fract. of ulnar component52ExcellentReplacement of ulnar componentExcellent+++Performed strenuous labor, regularly lifted weights of more than 100 kg against advice of surgeon
    3154Fract. of ulnar component24ExcellentReplacement of ulnar componentExcellent+++
    3382Fract. of ulnar component24ExcellentReplacement of ulnar componentGood---Struck golf club into grass
    1251Worn bushings60GoodReplacement of bushingGood+++
    1741Worn bushings48GoodReplacement of bushingGood-++Performed strenuous labor, regularly lifted weights of as much as 150 kg against advice of surgeon
    Askew, L. J.; An, K.-N.; Morrey, B. F.; and Chao, E. Y. S.: Isometric elbow strength in normal individuals. Clin. Orthop.,222: 261-266, 1987.222261  1987  [PubMed]
     
    Brumfield, R. H., Jr.; Kuschner, S. H.; Gellman, H.; Redix, L.; and Stevenson, D. V.: Total elbow arthroplasty. J. Arthroplasty,5: 359-363, 1990.5359  1990  [PubMed]
     
    Davis, R. F.; Weiland, A. J.; Hungerford, D. S.; Moore, J. R.; and Volenec-Dowling, S.: Nonconstrained total elbow arthroplasty. Clin. Orthop.,171: 156-160, 1982.171156  1982  [PubMed]
     
    Dee, R.: Total replacement arthroplasty of the elbow for rheumatoid arthritis. J. Bone and Joint Surg.,54-B(1): 88-95, 1972.54-B(1)88  1972 
     
    Dee, R.: Nonimplantation salvage of failed reconstructive procedures of the elbow. In The Elbow and Its Disorders, edited by B. F. Morrey. Ed. 2, pp. 690-695. Philadelphia, W. B. Saunders, 1993. 
     
    Ewald, F. C., and Jacobs, M. A.: Total elbow arthroplasty. Clin. Orthop.,182: 137-142, 1984.182137  1984  [PubMed]
     
    Figgie, H. E., III; Inglis, A. E.; Ranawat, C. S.; and Rosenberg, G. M.: Results of total elbow arthroplasty as a salvage procedure for failed elbow reconstructive operations. Clin. Orthop.,219: 185-193, 1987.219185  1987  [PubMed]
     
    Froimson, A. I.; Silva, J. E.; and Richey, D. G.: Cutis arthroplasty of the elbow joint. J. Bone and Joint Surg.,58-A: 863-865, Sept. 1976.58-A863  1976 
     
    Garrett, J. C.; Ewald, F. C.; Thomas, W. H.; and Sledge, C. B.: Loosening associated with G.S.B. hinge total elbow replacement in patients with rheumatoid arthritis. Clin. Orthop.,127: 170-174, 1977.127170  1977  [PubMed]
     
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