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Erschienen in: Knee Surgery, Sports Traumatology, Arthroscopy 8/2022

Open Access 13.08.2021 | KNEE

Cones and sleeves present good survival and clinical outcome in revision total knee arthroplasty: a meta-analysis

verfasst von: Laura Theresa Fischer, Markus Heinecke, Eric Röhner, Peter Schlattmann, Georg Matziolis

Erschienen in: Knee Surgery, Sports Traumatology, Arthroscopy | Ausgabe 8/2022

Abstract

Purpose

The fixation of revision total knee arthroplasties (rTKA) tends to be difficult, leading to a reduction in implant survival. One option for achieving a more stable anchorage is to use metaphyseal cones and sleeves. The objective of the present paper is to provide a current comparative meta-analysis on survival and clinical results of cones vs. sleeves, with a differentiation between the short- and long-term outcome.

Methods

A search of the literature was conducted systematically to include original papers from 2010 to June 2021. The following parameters were taken into account: revision for aseptic loosening, revision for any reason, periprosthetic joint infections (PJI), KSS as well as KSFS. Studies with a mean follow-up of at least 60 months were defined to be long-term follow-up studies (LT). All other studies were included in the short-term (ST) study analysis. A pooled incidence was used as a summary statistic using a random intercept logistic regression model.

Results

The present meta-analysis included 43 publications with 3008 rTKA. Of these, 23 publications with 1911 cases were allocated to the sleeve group (SG) and 20 papers with 1097 cases to the cone group (CG). CG showed overall numerically higher complication rates in short- and long-term follow-up, compared with SG. Aseptic loosening occurred at a rate of 0.4% in SG (LT) and 4.1% in CG (LT) (p = 0.09). Periprosthetic joint infection (PJI) was more frequent in the cone group (7% in ST and 11.7% in LT) than in the sleeve group (3.4% in ST and 4.9% in LT, p = 0.02 both). The total revision rate was 5.5% in SG (LT) and 14.4% in CG (LT) (p = 0.12). The clinical scores were also comparable between the two groups. Hinged prothesis were used more frequent in the cone group (ST p < 0.001; LT p = 0.10), whereas CC type protheses were used more frequently in the sleeve group (ST p < 0.001; LT p < 0.11).

Conclusions

This meta-analysis takes into account the longest follow-up periods covered to date. Both cones and sleeves represent a reliable fixation method in the case of severe bone loss in rTKA, although the higher rate of PJI after cone fixation remains a source of concern. A metaphyseal fixation of hinged implants should be taken into account.

Level of evidence

II (meta-analysis).
Hinweise

Publisher's Note

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Introduction

Regardless of the reason for revision, implant survival is reduced after revision total knee arthroplasty (rTKA) [23]. One reason for this is the challenging fixation of the implant in the bone stock, which is compromised both in substance and in density [5, 8, 14, 28, 29].
Implant fixation and defect management are oriented according to the estimated bone defect and bone quality [11, 28]. Various techniques are used to achieve the stable anchorage of a revision implant. Apart from cement, allografts, wedges and stem extensions, cones and sleeves have become increasingly popular over the past few years. This is because an additional metaphyseal implant anchorage is superior to a sole diaphyseal fixation [22].
Cones may be regarded as metaphyseally anchored metallic bone grafts, which enable a cementless fixation over their porous surface. Sleeves also follow the principle of cement-free metaphyseal anchorage. In contrast to cones, sleeves are firmly attached to the prosthesis. However, it also bears the risk of fractures during broaching, which represents the most common intraoperative complication when sleeves are used [17, 24, 31].
In numerous individual studies, excellent implant survival has been shown both for cones and for sleeves after a medium-term follow-up [6, 9, 12, 17, 21, 23, 33]. The few studies with long-term follow-up (> 7 years) [1, 3, 6, 13, 15, 25] could not be taken into account in previous meta-analyses [18, 27, 30, 34]. Nevertheless, there is initial evidence of a drop in survival over long-term follow-up [1].
It is thereby obvious, that the revision reasons differ depending on timepoint of failure [2, 3]. Revisions within the first years after implantation of cones or sleeves may result from failing bony integration or persistence of infection (in septic revisions). In contrast, late revisions may result from aseptic loosening of a primarily integrated implant or new infection. Given a different aetiology of failure, specific information about the short- and long-term outcome of cones and sleeves is missing.
Since all published meta-analyses [18, 27, 30, 34] include studies without differentiation between short- and long-term survival, there is lack of evidence about differing results of cones and sleeves depending on length of follow-up.
The objective of the present paper was therefore to conduct a current comparative meta-analysis on the survival and clinical outcome of cones vs. sleeves. Here, in contrast to previous meta-analyses, short- and long-term (ST vs. LT) follow-up were to be differentiated.

Methods

Literature search strategy

The literature search was conducted systematically, following the internationally recognised Preferred Reporting Items for Systematic Reviews and Meta-Analysis (PRISMA) (Fig. 1). The literature databases PubMed, Ovid Medline, GoogleScholar and Cochrane Library were used. The following search terms were used in combination: (“total knee arthroplasty” OR “revision total knee arthroplasty”) AND (“cones” OR “sleeves”).
Original papers published in English between 2010 and June 2021 were included after thorough screening of their relevance with regard to content. All publications with a follow-up of less than 1 year were excluded.
The data were extracted both from the text and from the respective tables and figures. For quality assurance, a second reviewer (M.H.) was consulted in the event of uncertainty and a cross-check was carried out.
For the evaluation of survival, the following parameters were selected: number of implant exchanges in total, implant exchanges due to aseptic loosening and septic reoperations with and without implant exchange e.g. DAIR (debridement, antibiotics and implant retention) in periprosthetic joint infections (PJI). Regarding clinical outcome the KSS (Knee Society Score) and KSFS (Knee Society functional Score) were assessed.
Revisions were defined as implant exchange, excluding PE-exchange only. All complications requiring revision but without prosthesis replacement counted as re-operations.
Descriptive data considered were the mean follow-up of the studies, the reasons for revision (index indication), the level of constraint (non-constrained, condylar constrained (CC) or hinged) as well as the patients’ age and sex.

Statistics

Prevalence represents the ratio of the number of patients with complications to the total of number of patients in that study. A pooled prevalence was used as a summary statistic using a random intercept logistic regression model. Accordingly, prevalence was used to enable a forest plot. The horizontal bars in the plots represent the range of confidence interval (CI). A 95% CI was used in the analysis. Analysis of heterogeneity of prevalence across studies was initially done using a Chi-square test. The degree of heterogeneity was also quantified using I2 values. The I2 statistic describes the percentage of variation across studies that is due to heterogeneity rather than chance. In this meta-analysis the heterogeneity variance tau2 was estimated based on the maximum likelihood estimate according to a random effects logistic regression model. Publication bias was investigated using Egger’s regression test [10]. Statistical analysis was performed using the statistical software R using the package meta [4, 32].

Results

The present meta-analysis included 43 publications with n = 3008 rTKA. Of these, 23 publications with 1911 cases were allocated to the sleeve group (SG) and 20 papers with 1097 cases the cone group (CG). In the subgroup analysis according to the respective follow-up period, a total of 27 studies resulted for the ST group and a total of 16 studies were assigned to the LT group. This meta-analysis takes into account the longest follow-up periods covered to date. (Table 1).
Table 1
Summary of all studies main results
Author
Year
FU (months)
FU (short term/ long term)
Therapy
patients
knees
Age
BMI
Male
Female
Hinged
CC
Unconstrained
Septic index indication
Aseptic index indication
Revision total
Aseptic loosening
PJI (DAIR and implant exchange)
Abdelaziz
2019
126.5
Long
Cone
25
25
65.0
 
13
12
25
0
0
0
25
13
10
3
Abdelaziz
2019
49.9
Short
Cone
72
72
70.0
30.0
41
31
72
0
0
72
0
15
7
8
Bohl
2017
40.5
Short
Cone
49
49
69.0
35.7
13
36
5
32
12
12
37
1
1
3
Burastero
2018
43.5
Short
Cone
60
60
67.9
27.7
26
34
18
42
0
60
0
5
3
2
Chalmers
2021
24.0
Short
Cone
163
163
67.0
33.0
75
88
52
106
5
46
117
6
2
16
De Martino
2015
72.0
Long
Cone
18
18
73.0
29.0
6
12
12
6
0
13
5
2
0
2
Derome
2014
33.0
Short
Cone
29
29
70.0
 
19
10
0
18
11
7
22
1
0
2
Erivan
2020
24.0
Short
Cone
61
61
60.4
 
30
31
6
12
43
2
59
5
2
8
Girerd
2016
34.0
Short
Cone
51
52
68.0
28.0
25
26
38
14
0
19
33
4
0
4
Hernandez
2021
91.2
Long
Cone
59
62
70.0
34.1
21
38
5
41
16
23
39
18
9
11
Howard
2011
33.0
Short
Cone
24
24
64.0
 
11
13
10
11
3
7
17
0
0
0
Jensen
2014
47.0
Short
Cone
36
36
69.0
 
25
11
16
14
6
15
21
4
2
2
Kamath
2015
70.0
Long
Cone
63
66
67.0
33.0
27
36
25
33
8
26
40
3
1
7
Lachiewicz
2013
39.0
Short
Cone
27
27
64.6
35.9
13
14
3
22
2
13
14
2
1
1
Ohlmeier
2020
22.0
Short
Cone
52
52
68.6
30.5
29
23
52
0
0
17
35
2
1
2
Panda
2019
83.0
Long
Cone
59
59
69.7
28.7
18
41
  
0
26
33
2
0
2
Potter
2016
60.0
Long
Cone
157
157
64.0
32.7
82
75
   
75
82
27
10
21
Rao
2013
36.0
Short
Cone
26
26
72.0
 
15
11
26
0
0
7
19
1
0
2
Schmitz
2013
37.0
Short
Cone
38
38
72.0
   
38
0
0
0
38
2
2
0
Villanueva-Martinez
2013
36.0
Short
Cone
21
21
73.3
 
7
14
10
11
0
5
16
1
0
2
Agarwal
2018
95.7
Long
Sleeve
103
104
74.7
 
54
49
0
55
49
31
73
21
7
5
Agarwal
2013
43.0
Short
Sleeve
103
104
69.0
 
54
49
0
55
49
31
73
2
2
2
Alexander
2013
33.0
Short
Sleeve
28
30
71.0
 
14
14
0
30
0
8
22
0
0
1
Algarni
2020
49.0
Short
Sleeve
27
27
65.4
37.6
5
22
3
24
0
3
24
1
0
0
Barnett 
2014
38.0
Short
Sleeve
34
34
60.0
30.7
  
3
24
7
9
25
4
2
1
Bloch
2019
91.0
Long
Sleeve
277
319
70.0
 
133
144
59
260
0
70
249
4
0
4
Bugler
2015
39.0
Short
Sleeve
34
35
72.0
30.2
20
14
0
35
0
0
35
0
0
0
Chalmers
2016
38.0
Short
Sleeve
227
227
66.0
34.0
  
10
166
51
84
143
8
3
12
Dalury
2016
57.6
Short
Sleeve
40
40
73.0
32.0
19
21
6
34
0
6
34
1
1
0
Fedorka
2016
58.8
Short
Sleeve
50
50
65.6
 
28
22
0
46
0
25
25
5
3
2
Gill
2020
65.0
Long
Sleeve
31
31
    
8
18
5
  
0
0
1
Goettsche
2016
24.0
Short
Sleeve
67
67
    
0
67
0
16
51
4
1
1
Graichen 
2015
43.2
Short
Sleeve
121
121
    
17
27
77
0
121
12
4
4
Gurel
2021
82.4
Long
Sleeve
30
30
69.9
30.2
10
20
0
30
0
8
22
0
0
0
Huang 
2014
29.0
Short
Sleeve
79
83
63.5
33.0
29
50
10
73
0
20
63
6
3
6
Klim
2018
63.6
Long
Sleeve
56
56
73.0
34.0
22
34
   
56
0
9
0
9
Klim
2020
75.6
Long
Sleeve
93
93
68.0
30.0
39
54
0
93
0
52
41
17
0
15
Lai
2020
24.0
Short
Sleeve
17
17
68.0
30.4
5
12
0
17
0
8
9
0
0
1
Martin-Hernandez
2016
71.5
Long
Sleeve
134
134
75.0
29.8
52
82
0
134
0
12
122
2
0
2
Panesar
2021
91.0
Long
Sleeve
99
99
69.7
 
46
53
99
0
0
32
67
18
2
11
Stefani
2017
37.0
Short
Sleeve
47
47
71.0
   
0
47
0
17
30
1
0
1
Watters 
2017
63.0
Long
Sleeve
116
116
63.7
30.7
58
58
3
98
13
28
88
3
1
6
Wirries
2019
60.0
Long
Sleeve
47
47
67.2
30.6
8
39
23
24
0
19
28
6
3
3
SG and CG were comparable with regard to age, sex distribution (male/female) and index indication for revision (septic/aseptic). (Tables 2 and 3).
Table 2
Patient’s demographics were comparable and without significant differences between the therapy groups
Follow-up
Therapy
Age
BMI
Male (%)
Female (%)
short
cone
67.8
31.5
49.0
51.0
short
sleeve
67.1
33.2
46.0
54.0
long
cone
66.8
32.2
43.8
56.2
long
sleeve
70.2
30.7
44.2
53.4
Table 3
The results illustrating the indication for index revision using cone or sleeve, the degree of implant constraint, the rates of implant exchange for any reason, aseptic loosening, and the rates for operative intervention resulting from PJI
short term follow-up (< 5 years)
Cones
Sleeves
p value
Aseptic index RTKA
61.2 (27.8–86.5)
80.8 (66.4–90.0)
0.23
Septic index RTKA
38.9 (13.5–72.2)
19.2 (10.0–33.6)
0.23
Hinged implant
68.2 (20.8–94.6)
1.8 (0.4–7.9)
< 0.001
CC implant
20.1 (5.5–52.1)
93.9 (77.0–98.6)
< 0.001
Unconstraint implant
2.0 (0.3–12.2)
0.3 (0.01–9.7)
0.37
Implant exchange for any reason
6.1 (3.9–9.3)
4.5 (2.8–7.1)
0.35
Implant exchange for aseptic loosening
4.3 (2.8–6.3)
2.8 (1.8–4.2)
0.16
PJI (with or without implant exchange)
7.0 (4.8–10.0)
3.4 (2.1–5.4)
0.02
Long-term follow-up (> 5 years)
Cones
Sleeves
p value
Aseptic index RTKA
63.9 (39.4–82.8)
60.0 (32.7–82.2)
0.83
Septic index RTKA
36.1 (17.2–60.6)
40.0 (17.8–67.3)
0.83
Hinged implant
64.0 (9.9–96.6)
2.0 (0.02–65.1)
0.10
CC implant
27.7 (5.4–72.1)
89.6 (23.7–99.6)
0.11
Unconstraint implant
1.6 (0.1–31.8)
0.2 (0.2–0.2)
0.23
Implant exchange for any reason
14.4 (5.9–31.0)
5.5 (2.2–12.7)
0.12
Implant exchange for aseptic loosening
4.1 (0.8–19.7)
0.4 (0.1–3.0)
0.09
PJI (with or without implant exchange)
11.7 (8.2–16.3)
4.9 (2.6–9.1)
0.02
Numbers are given in percent with 95% confidence interval in brackets and p value for subgroup differences
With regard to the fixation in groups SG and CG, good short- and long-term prosthesis survival times were seen for both devices. No significant difference was found in relation to prosthesis survival (implant exchange for aseptic loosening, implant exchange for any reason) (Figs. 2 and 3). In contrast to that, periprosthetic joint infections (PJI) were twice frequent in the cone group compared to the sleeve group (Table 3, Fig. 4).
For both devices, significant improvements and good results were seen in all scores (KSS, KSFS) postoperatively (Figs. 5 and 6). A significant superiority of one device over the other could not be demonstrated. Hinged prothesis were used at a higher volume in the CG than in the SG whereas CC type protheses were used more frequently in the SG. (Table 3).
We found publication bias with a bias equal to − 2.86 and p value < 0.01. All papers included were level III (retrospective cohort studies, case–control studies) and IV (case series) studies (Table 4).
Table 4
Publication bias of the included studies
Author
Year
Therapy
FU (months)
Assembly of comparable groups
Maintenance of comparable groups
High loss to FU (>20%)
Measurements: equal, reliable, valid
Clear definition of interventions
All important outcomes considered
Adjustment for potential confounders
Overall assessed quality
Abdelaziz
2019
Cone
126.5
No
No
Yes
Yes
Yes
No scores
No
Fair
Abdelaziz
2019
Cone
49.9
No
No
Yes
Yes
Yes
No scores
No
Fair
Bohl
2017
Cone
40.5
No
No
No
Yes
Yes
Yes
No
Fair
Burastero
2018
Cone
43.5
No
No
No
Yes
Yes
Yes
No
Fair
Chalmers
2021
Cone
24.0
No
No
No
Yes
Yes
No scores
No
Fair
De Martino
2015
Cone
72.0
No
No
No
Yes
Yes
Yes
No
Fair
Derome
2014
Cone
33.0
No
No
No
Yes
Yes
Yes
No
Fair
Erivan
2020
Cone
24.0
No
No
No
Yes
Yes
No scores
No
Fair
Girerd
2016
Cone
34.0
No
No
No
Yes
Yes
Yes
No
Fair
Hernandez
2021
Cone
91.2
No
No
No
Yes
Yes
No scores
No
Fair
Howard
2011
Cone
33.0
No
No
No
Yes
Yes
Yes
No
Fair
Jensen
2014
Cone
47.0
No
No
No
Yes
Yes
Yes
No
Fair
Kamath
2015
Cone
70.0
No
No
No
Yes
Yes
Yes
No
Fair
Lachiewicz
2013
Cone
39.0
No
No
No
Yes
Yes
Yes
No
Fair
Ohlmeier
2020
Cone
22.0
No
No
No
Yes
Yes
No scores
No
Fair
Panda
2019
Cone
83.0
No
No
No
Yes
Yes
Yes
No
Fair
Potter
2016
Cone
60.0
No
No
No
Yes
Yes
Yes
No
Fair
Rao
2013
Cone
36.0
No
No
No
Yes
Yes
Yes
No
Fair
Schmitz
2013
Cone
37.0
No
No
No
Yes
Yes
Yes
No
Fair
Villanueva-Martinez
2013
Cone
36.0
No
No
No
Yes
Yes
No scores
No
Fair
Agarwal
2018
Sleeve
95.7
No
No
No
Yes
Yes
No scores
No
Fair
Agarwal
2013
Sleeve
43.0
No
No
No
Yes
Yes
No scores
No
Fair
Alexander
2013
Sleeve
33.0
No
No
Yes
Yes
Yes
Yes
No
Fair
Algarni
2020
Sleeve
49.0
No
No
No
Yes
Yes
Yes
No
Fair
Barnett 
2014
Sleeve
38.0
No
No
No
Yes
Yes
Yes
No
Fair
Bloch
2019
Sleeve
91.0
No
No
No
Yes
Yes
No scores
No
Fair
Bugler
2015
Sleeve
39.0
No
No
Yes
Yes
Yes
No scores
No
Fair
Chalmers
2016
Sleeve
38.0
No
No
No
Yes
Yes
No scores
No
Fair
Dalury
2016
Sleeve
57.6
No
No
No
Yes
Yes
Yes
No
Fair
Fedorka
2016
Sleeve
58.8
No
No
No
Yes
Yes
No scoreS
No
Fair
Gill
2020
Sleeve
65.0
No
No
No
Yes
Yes
No scores
No
Fair
Goettsche
2016
Sleeve
24.0
No
No
No
Yes
Yes
Yes
No
Fair
Graichen 
2015
Sleeve
43.2
No
No
No
Yes
Yes
Yes
No
Fair
Gurel
2021
Sleeve
82.4
No
No
No
Yes
Yes
Yes
No
Fair
Huang 
2014
Sleeve
29.0
No
No
No
Yes
Yes
Yes
No
Fair
Klim
2020
Sleeve
63.6
No
No
No
Yes
Yes
Yes
No
Fair
Klim
2018
Sleeve
75.6
No
No
No
Yes
Yes
No scores
No
Fair
Lai
2020
Sleeve
24.0
No
No
No
Yes
Yes
Yes
No
Fair
Martin-Hernandez
2016
Sleeve
71.5
No
No
No
Yes
Yes
Yes
No
Fair
Panesar
2021
Sleeve
91.0
No
No
No
Yes
Yes
No scores
No
Fair
Stefani
2017
Sleeve
37.0
No
No
No
Yes
Yes
Yes
No
Fair
Watters 
2017
Sleeve
63.0
No
No
No
Yes
Yes
Yes
No
Fair
Wirries
2019
Sleeve
60.0
No
No
Yes
Yes
Yes
Yes
No
Fair

Discussion

The most important finding of the present study was that no difference regarding overall prosthesis survival and clinical outcome could be determined neither in short-term nor in long-term follow-up between fixation using cones compared with sleeves in rTKA. The subgroup analyses for the endpoints “implant exchange for aseptic loosening” and “implant exchange for any reason” showed no statistically significant difference, again regardless of the follow-up period. This result has to be interpreted taking into account, that cones were used more frequently with higher constrained implants than sleeves. The endpoint “PJI” differed significantly between the groups presenting a higher infection rate in the cone group.
Available data are predominantly with short follow-up. As a result, previous meta-analyses are biased by a disproportionate evaluation of the short-term follow-up and therefore overestimation of reasons for early revisions. These differ between short- and long-term follow-up [2, 3]. Therefore, studies with short- and long-term follow-up were compared separately in the present meta-analysis.
Bone defects and loss of bone substance are frequently encountered in revision total knee arthroplasty and present a challenge to the surgeon, making the implant fixation complicated. However, an optimal implant fixation is essential for a good functional outcome and survival of the prosthesis. Within the context of rTKA implantations, the epiphysis is almost always damaged and cannot be used as the sole fixation zone. In contrast, the metaphysis is usually sufficiently retained and can be used to anchor the implant [12, 22]. Cones and sleeves are two options available for metaphyseal anchorage.
In knee revision arthroplasty, semi-constrained or hinge prostheses are usually used based on the state of ligaments. Numerous studies have shown that the level of constraint influences the survival time and clinical outcome of the prosthesis. Pure hinge knee prostheses and type 3 bone defects are associated with higher numbers of aseptic loosening and worse clinical outcome [1, 7, 26]. A metaphyseal implant fixation seems to reduce that effect because, despite the significant higher volume of hinged prothesis in the CG, our study shows comparable rates of aseptic loosening between SG and CG. Based on these findings, a metaphyseal fixation of hinged implants should therefore be considered.
Regarding the clinical outcome both devices demonstrated postoperatively significant improvements and good results in all scores (KSS, KSFS) without a significant superiority of one device over the other.
In addition to the aforementioned fixation with cones or sleeves, numerous other factors can influence the subsequent outcome. Levent et al. [20] demonstrated smoking, a large femoral canal anteroposterior diameter and right-sided TKA as significant risk factors for aseptic loosening in TKA. Jasper et al. [16] and Klasan et al. [19] showed younger age, higher knee joint activity and male gender as significant risk factors for repeat revision procedures.
Moreover, both tibial and femoral component can get loose, so that the endpoint loosening is influenced by both components’ fixation. Implant geometry, implantation errors or compromises (rotation, anterior overstuffing, reduction of posterior offset, mediolateral overhang) are more frequent on the femoral than on the tibial side. Therefore, it is to be expected that the femoral component influences the clinical outcome more than the tibial component.
The higher rate of PJI in the CG compared to the SG remains a source of concern and needs further investigation. This cannot be explained by an inclusion bias because the number of septic index operations did not differ between the groups. Apart from generally known reasons for higher rates of postoperative infections that were not systematically assessed by most studies (e.g. smoking, diabetes, malnutrition, obesity, ASA classification), a possible explanation for higher numbers of PJI can be found in the different material properties of cones and sleeves. Sleeves have a dense surface that is structured by surface finish or coating. In contrast, the structure of cones is formed by interconnecting pores, resulting in a large total surface area. Given a relation between foreign material surface area and the risk of late infection this may explain the trend toward more PJI-related revisions in the cone group.
The meta-analyses already published on the clinical and radiological outcome of cones and sleeves have failed to show any statistically significant superiority of one anchorage method over the other. However, they do show a good clinical and radiological outcome for both devices in short- and medium-term follow-up. [18, 27, 30, 34]
There are some limitations to our study. One is the heterogeneous data pool, as not all the papers included in the meta-analysis stated means and standard deviations. The considerable heterogeneity of the data may additionally result from the fact, that revision operations per se are heterogenous (e.g. indication, bone defect, soft tissue situation, number of previous operations). Another limitation is the number of patients. It is a decimal power smaller than in studies dealing with primary TKA, so that few outliers have a higher impact on the given standard deviations. This meta-analysis is further limited by a significant publication bias that could not be eliminated by additional literature data after a second search. Only in very few cases, the bone defects were classified consistently, which means that an indication bias cannot be ruled out. In addition, the surgical technique, implant anchorage (with regard to cementation and/or additional stem anchorage), level of constraint of the implanted prostheses and the definition of complications, re-operations and revisions are not uniform.
According to present knowledge, cones and sleeves have not been directly checked against each other in a randomised controlled trial yet. All results and conclusions of the present meta-analysis must be considered with respect to the quality of the individual studies.

Conclusion

In conclusion, both cones and sleeves represent a reliable fixation method for revision knee arthroplasty in the case of severe bone loss. Based on our results, we recommend taking an additional metaphyseal fixation of hinged implants into account. While there is no apparent superiority of one method over the other regarding the overall survival and clinical outcome, the higher rate of PJI after cone fixation remains a source of concern.

Declarations

Conflict of interest

The authors declare that they have no conflict of interest.

Ethical approval

Resulting from the study design (meta-analysis) an ethical approval is not applicable. All included studies declared compliance to ethical standards. Table 1 contains a summary of all includes studies. We ourself, did not do any work with human participants and laboratory animals to establish this meta-analysis.
Open AccessThis article is licensed under a Creative Commons Attribution 4.0 International License, which permits use, sharing, adaptation, distribution and reproduction in any medium or format, as long as you give appropriate credit to the original author(s) and the source, provide a link to the Creative Commons licence, and indicate if changes were made. The images or other third party material in this article are included in the article's Creative Commons licence, unless indicated otherwise in a credit line to the material. If material is not included in the article's Creative Commons licence and your intended use is not permitted by statutory regulation or exceeds the permitted use, you will need to obtain permission directly from the copyright holder. To view a copy of this licence, visit http://​creativecommons.​org/​licenses/​by/​4.​0/​.

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Metadaten
Titel
Cones and sleeves present good survival and clinical outcome in revision total knee arthroplasty: a meta-analysis
verfasst von
Laura Theresa Fischer
Markus Heinecke
Eric Röhner
Peter Schlattmann
Georg Matziolis
Publikationsdatum
13.08.2021
Verlag
Springer Berlin Heidelberg
Erschienen in
Knee Surgery, Sports Traumatology, Arthroscopy / Ausgabe 8/2022
Print ISSN: 0942-2056
Elektronische ISSN: 1433-7347
DOI
https://doi.org/10.1007/s00167-021-06670-0

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