RSS-Feed abonnieren
DOI: 10.1055/a-1887-7530
Functional Muscle Transfer after Oncologic Extremity Resection
- Abstract
- Methods
- Results
-
Case Series
- Discussion
- Conclusion
- References
Abstract
Background Functional muscle transfer (FMT) can provide wound closure and restore adequate muscle function for patients with oncologic extremity defects. Herein we describe our institutional experience with FMT after oncological resection and provide a systematic review and meta-analysis of the available literature on this uncommon procedure.
Methods A single-institution retrospective review was performed, including all patients who received FMT after oncological resection from 2005 to 2021. For the systematic review and meta-analysis, PubMed, Cochrane, Medline, and Embase libraries were queried according to the Preferred Reporting Items for Systematic Reviews and Meta-Analyses guidelines; results were pooled, weighted by study size, and analyzed.
Results The meta-analysis consisted of seven studies with 70 patients overall, demonstrating a mean Medical Research Council (MRC) score of 3.78 (95% confidence interval: 2.97–4.56; p < 0.01). The systematic review included 28 studies with 103 patients. Receipt of adjuvant chemotherapy was associated with significantly lower mean MRC score (3.00 ± 1.35 vs. 3.90 ± 1.36; p = 0.019). Seventy-four percent of the patients underwent free FMT, with the most common donor muscle being the latissimus dorsi (55%). The flap loss rate was 0.8%. Neoadjuvant chemotherapy (p = 0.03), radiotherapy (p = 0.05), pedicled FMTs (p = 0.01), and a recipient femoral nerve (p = 0.02) were associated with significantly higher complication rates. The institutional retrospective review identified 13 patients who underwent FMT after oncological resection with a median follow-up time of 21 months (range: 6–74 months). The most common tumor necessitating FMT was undifferentiated pleomorphic sarcoma (77%), and the most common donor muscle was the latissimus dorsi (62%). A high body mass index was associated with prolonged neuromuscular recovery (R = 0.87, p = 0.002).
Conclusion FMT after oncological resection may contribute to improved extremity function. Careful consideration of risk factors and preoperative planning is imperative for successful FMT outcomes.
#
Soft-tissue sarcoma (STS) is a rare mesenchymal tumor that accounts for less than 1% of all malignancies.[1] Historically, for extremity STS, amputation was the recommended surgical treatment.[2] Contemporary treatment of extremity STS centers on wide local excision of the tumor, with the goal of limb preservation. When combined with radiotherapy, limb-preserving surgery demonstrated 5-year survival rates comparable with those for amputation, solidifying limb preservation as the standard of care.[3] However, surgical resection with wide margins frequently results in loss of major musculotendinous and neurovascular structures, which can cause significant disability despite the fact that the limb has been “preserved.” Functional muscle transfer (FMT) is one technique that can be used to reconstruct STS extirpations and may restore some degree of function to the limb.
FMT involves transferring a functioning donor muscle with a neurovascular pedicle to a new location to assume an independent function. FMT is indicated when a tumor resection eliminates the ability to move the extremity along one or more joints. For instance, an STS located in the anterior compartment of the leg would require an en bloc resection, which could eliminate the ability to dorsiflex the ankle; in this scenario, FMT could be used to not only close the wound and resurface the leg but also restore ankle dorsiflexion. FMT can be harvested with the muscle's neurovascular pedicle for a distant transfer or islandized on its neurovascular pedicle and rotated. The latissimus dorsi (LD),[4] [5] [6] [7] gracilis,[8] [9] [10] tensor fasciae latae (TFL),[5] [7] [8] [11] and vastus lateralis[12] [13] [14] [15] are the most commonly used donor muscles for FMT. Aside from restoring motor function to the involved extremity, FMT with vascularized, nonirradiated tissue provides several other reconstructive advantages over local options, all of which potentiate more reliable wound healing: improved soft tissue resurfacing, ample tissue volume for filling dead space, and durable coverage or critical neurovascular structures and/or bone.[16] [17] [18]
Studies evaluating outcomes following FMT are heterogeneous, involving various techniques and metrics. To assess the feasibility, outcomes, and predictors of success or failure of FMT, a review of the literature is needed. Because our institution is a large international referral center, we have a unique perspective on the use of FMT for complex and uncommon oncological defects. In this study, we analyze oncological FMT using a two-pronged approach: (1) a systematic review and meta-analysis of the extant literature and (2) an in-depth analysis of our own institutional experience.
Methods
Systematic Review
Search Strategy
The Preferred Reporting Items for Systematic Reviews and Meta-Analyses guidelines were used to develop the literature search protocol. PubMed, Cochrane Library, Medline, and Embase databases were searched by two independent reviewers in August 2021 using the following keywords: muscle OR flap OR free tissue flap AND transfer OR reconstruction AND soft tissue neoplasm OR sarcoma OR soft tissue cancer AND extremity OR limb OR shoulder OR arm OR hand OR finger OR digit OR thumb OR hip OR leg OR ankle OR foot OR toe ([Fig. 1]).
#
Eligibility Criteria and Study Selection
Inclusion criteria included original English language articles reporting on FMT after oncological resection in humans from 1980 to 2021. Studies describing FMT for nononcological indications, studies with no individual patient data, systematic reviews, review articles, articles by the same author with identical data, meta-analyses, basic science studies, cadaver studies, editorials, and commentaries were excluded.
#
Data Extraction Process
The following data were extracted from the articles: study design, number of patients, patient characteristics, comorbidities, tumor characteristics, surgical techniques, complications, and functional outcomes. The quality of each study was evaluated using the parameters established by the Oxford Centre for Evidence-Based Medicine (OCEBM).
#
Methodological Assessment and Risk of Bias
The methodological quality and risk of bias of nonrandomized studies in meta-analyses were assessed using the Newcastle–Ottawa Scale.[19] [20] A modified Newcastle–Ottawa Scale of six points was used to evaluate studies based on the following parameters: duration of follow-up, adequacy of follow-up, ascertainment of exposure to the intervention, representation of the exposed group, outcome not present at the start of the analysis, and outcome assessment.[19] [21] [22] [23]
#
#
Case Series
We conducted a comprehensive review of all patients who underwent FMT after oncological resection at the University of Texas MD Anderson Cancer Center from March 2005 to June 2021. We collected patient demographics and comorbidities, tumor characteristics, surgical techniques, complications, and final extremity motor function status. Complications included seroma or hematoma requiring drainage, wound dehiscence, infection requiring antibiotics, total or partial flap loss, microvascular thrombosis, and any complication necessitating return to the operating room. Functional recovery was assessed using Medical Research Council (MRC) motor strength scores, time to initial neuromuscular recovery, and time to maximal neuromuscular recovery.
#
Statistical Analysis
RStudio software was used for statistical analyses. The Pearson chi-square test and Mann–Whitney U-test were used to assess associations between categorical variables. Analysis of variance and the Kruskal–Wallis test were used to compare continuous variables. Cumulative survival probabilities after FMT were estimated using the Kaplan–Meier product-limit method. p-Values less than 0.05 were considered significant.
Studies presenting individual patient data were assessed using the Newcastle–Ottawa Scale for inclusion in the meta-analysis. A meta-analysis with an accompanying forest plot was performed. Cochrane's Q and I 2 were used to assess heterogeneity among studies, with an I 2 less than 50% defined as low heterogeneity, 50 to 75% as moderate heterogeneity, and greater than 75% as high heterogeneity. A random-effects model was used to account for variation in studies.
#
#
Results
Systematic Review
Search Results
The search identified 1,673 articles ([Fig. 1]). After employing our exclusion criteria, 28 articles—representing 103 patients—were appropriate for inclusion in the systematic review ([Table 1]). The included articles were published from 1993 to 2021 and were categorized as level 4 or 5 according to OCEBM.[4] [5] [6] [7] [8] [9] [10] [11] [12] [13] [14] [15] [24] [25] [26] [27] [28] [29] [30] [31] [32] [33] [34] [35] [36] [37] [38] [39] [40] [41] [42] [43]
Abbreviations: MPNST, malignant peripheral nerve sheath tumor; MRC, Medical Research Council.
a data reported from this study included non-FMT patients.
#
Patient Demographics
The median patient age was 54 years (range: 6 months to 83 years). Forty-seven percent received preoperative radiotherapy, and 27% received preoperative chemotherapy. Fourteen percent and 11% received postoperative chemotherapy and postoperative radiotherapy, respectively. The median follow-up time was 23 months (range: 6–150 months), the median MRC score was 4 (range: 0–5), and the median time to first neuromuscular recovery was 4 months (range: 2–12 months). Pearson correlation testing demonstrated a weak positive correlation between age and MRC score (R = 0.16, n = 82, p = 0.31) ([Supplementary Fig. S1], available in the online version). Receipt of postoperative chemotherapy was associated with a significantly lower mean MRC score (3.0 ± 1.35 vs. 3.90 ± 1.36; p = 0.019).
#
Tumor Characteristics
Pleomorphic sarcoma was the most common tumor (29%), followed by liposarcoma (26%). Sixty-eight percent of the tumors involved the lower extremity. The thigh (57%) was the most commonly affected location, followed by the arm (17%). [Supplementary Fig. S2] (available in the online version) shows a histogram of the mean MRC scores by tumor type. We found no significant differences between tumor types and MRC scores (p = 0.17). There was also no significant difference in the time to first neuromuscular recovery by defect location ([Supplementary Fig. S3], available in the online version).
#
Flap Characteristics
Seventy-four percent of the patients received a free FMT. The most common donor muscle was the LD (55%), followed by the rectus abdominis (15%) and gracilis (13%). The femoral nerve was the most common recipient nerve (54%), followed by the sciatic (9%) and peroneal (9%) nerves. We found no significant differences in MRC score according to flap type (p = 0.32), donor muscle (p = 0.16), or recipient nerve (p = 0.09) ([Supplementary Figs. S4] and [S5], available in the online version). We also found no significant differences in time to first neuromuscular recovery according to flap type (p = 0.43), donor muscle (p = 0.32), or recipient nerve (p = 0.22) ([Supplementary Figs. S6] and [S7], available in the online version).
#
Complications
Eleven percent of the patients experienced complications ([Table 2]). Pedicled FMT and receipt of preoperative chemotherapy or radiotherapy were associated with an increased risk of donor-site complications (p = 0.01, p = 0.03, and p = 0.05, respectively). Also, a recipient femoral nerve was associated with an increased risk of recipient-site complications (p = 0.02).
#
Comparison of Upper versus Lower Extremity FMT
Sixty-eight percent (n = 70) of patients had FMT for a lower extremity defect, while 32% had FMT for an upper extremity defect ([Table 3]). Lower extremity FMT patients were more likely to receive preoperative radiotherapy (57.1 vs. 24.2%, p = 0.003) and free flaps (94.8 vs. 37.5%, p = 0.001) than upper extremity FMT patients. When compared with patients with lower extremity FMT, patients with upper extremity FMT were more likely to undergo reconstruction with LD (63.6 vs. 52.9%, p = 0.037), gracilis (15.2 vs. 11.4%, p = 0.037), but not rectus abdominis (0 vs. 21.4%, p = 0.037). In the upper extremity FMT group, there was a trend toward more donor-site (6.1 vs. 1.4%, p = 0.239) and recipient-site (12.1 vs. 7.1%, p = 0.462) complications, but the difference was not statistically significant. We found no difference in median [interquartile range, IQR] MRC score (4 [3–5] vs. 4 [3–5], p = 0.956) between lower and upper extremity FMT, but we observed longer time to median [IQR] first neuromuscular recovery in the lower FMT group (4.5 [4.0–4.75] vs. 3.0 [2.25–5.25], p = 0.956), albeit not statistically significant.
|
Tumor location |
|||
|---|---|---|---|
|
Variable |
Lower extremity |
Upper extremity |
p-Value |
|
Number of patients, n (%) |
70 (68.0) |
33 (32.0) |
|
|
Age, median (IQR) |
54 (34–63) |
54 (27–71) |
0.946 |
|
Follow-up, median (IQR) |
24 (14–52) |
21 (15–56) |
0.781 |
|
Preoperative chemotherapy, n (%) |
21 (30.0) |
28 (21.2) |
0.477 |
|
Preoperative radiotherapy, n (%) |
40 (57.1) |
8 (24.2) |
0.003 |
|
Tumor type, n (%) |
0.170 |
||
|
Pleomorphic sarcoma |
24 (34.3) |
6 (18.2) |
|
|
Liposarcoma |
18 (25.7) |
8 (24.2) |
|
|
Others |
28 (40.0) |
19 (57.6) |
|
|
Flap type, n (%) |
<0.001 |
||
|
Free flap |
55 (94.8) |
12 (37.5) |
|
|
Pedicled flap |
3 (5.2) |
20 (62.5) |
|
|
Donor muscle, n (%) |
0.037 |
||
|
Latissimus dorsi |
37 (52.9) |
21 (63.6) |
|
|
Rectus abdominis |
15 (21.4) |
0 (0) |
|
|
Gracilis |
8 (11.4) |
5 (15.2) |
|
|
Others |
10 (14.3) |
7 (21.2) |
|
|
Any complication, n (%) |
6 (8.6) |
5 (15.1) |
0.323 |
|
Recipient-site complication, n (%) |
5 (7.1) |
4 (12.1) |
0.462 |
|
Donor-site complication, n (%) |
1 (1.4) |
2 (6.1) |
0.239 |
|
MRC, median (IQR) |
4 (3–5) |
4 (3–5) |
0.956 |
|
First neuromuscular recovery, mo, median (IQR)[a] |
4.5 (4.0–4.75) |
3.0 (2.25–5.25) |
0.085 |
Abbreviations: FMT, functional muscle transfer; IQR, interquartile range; MRC, Medical Research Council.
Note: Statistically significant p-values are indicated in bold.
a Only one patient with known tumor location reported maximal neuromuscular recovery.
#
#
Meta-Analysis
The meta-analysis consisted of seven studies, representing the pooled outcomes of 70 patients. The mean modified Newcastle–Ottawa Scale score for these studies was 6/6.[7] [10] [24] [25] [37] [38] [39] Because the I 2 statistic indicated inter-study heterogeneity (I 2 = 89%), we used a random-effects model to mitigate data heterogeneity. This analysis identified a mean MRC score of 3.78 (95% CI: 2.9–4.6; p < 0.01), indicating that most patients' FMTs provided the motor force necessary to overcome gravity at the affected joint ([Fig. 2]).
#
#
Case Series
Patient and Tumor Characteristics
Our chart review identified 13 patients who underwent FMT after oncological resection with a median age of 57 years (IQR: 14–77 years), median body mass index (BMI) of 27 kg/m2 (IQR: 20–48 kg/m2), and median follow-up time of 21 months (IQR: 6–74 months). The reconstructions were performed by a total of eight plastic surgeons from 2005 to 2021. Seventy-seven percent (n = 10) of the patients received preoperative chemotherapy ([Table 4]). The triceps was the most commonly affected muscle group (38%), followed by the biceps, quadriceps, and anterior compartment of the leg (all 15%) ([Table 5]).
Abbreviations: BMI, body mass index; IQR, interquartile range.
Abbreviations: FMT, functional muscle transfer; IQR, interquartile range; LD, latissimus dorsi.
#
Oncologic Outcomes
The most common tumor (77%) was undifferentiated pleomorphic sarcoma, followed by liposarcoma (15%) and osteosarcoma (8%). Sixty-two percent of the tumors (n = 8) were located in the upper extremity. The arm was the most commonly affected location (62%), followed by the thigh (23%). At the time of the final follow-up, 43% (n = 6) of patients were alive. The median duration of follow-up for surviving patients was 31.50 months (IQR: 18.0–46.50 months). During the follow-up period, 31% of patients (n = 4) developed a local tumor recurrence, and 85% developed tumor metastasis. [Fig. 3] depicts a Kaplan–Meier curve for the probability of survival following FMT. The 1-year and 3-year survival probabilities after FMT were estimated to be 84.6 and 76.1%, respectively.
#
Flap Characteristics
Among the 13 patients in the chart review, 7 received a free FMT, whereas 8 received a pedicled FMT. Eleven flaps were musculocutaneous, whereas 2 were buried muscle-only flaps. The LD flap was the most common flap (62%), followed by the gracilis (23%) and vastus lateralis (15%) flaps. [Figs. 4] [5] [6] and [Videos 1] [2] [3] depict representative case examples of these reconstructions.
Video 1 Video of functional recovery 17 months postoperatively of the patient depicted in [Fig. 3]. The patient underwent functional muscle transfer with a pedicled latissimus dorsi myocutaneous flap for reconstruction of the arm. The patient achieved maximal neuromuscular function, with an MRC score of 5. The patient was able to extend her arm against resistance despite the complete absence of her triceps muscle. MRC, Medical Research Council.
Qualität:
Video 2 Intraoperative video of the patient depicted in [Fig. 6]. The patient underwent functional muscle transfer using a free latissimus dorsi myocutaneous flap for reconstruction of the thigh. After neural coaptation, stimulation of the recipient motor nerve at 2 mA produced contraction across the anastomosis in the latissimus dorsi muscle. MRC, Medical Research Council.
Qualität:
Video 3 Video of functional recovery 13 months postoperatively of the patient depicted in [Fig. 6]. The patient underwent functional muscle transfer using free latissimus dorsi myocutaneous flap for reconstruction of the thigh. The video shows an unassisted extension of the left knee against gravity. Upon physical examination, his MRC score was 5. He reported being able to mountain bike and jog. MRC, Medical Research Council.
Qualität:
#
Functional Outcomes
One patient required a reoperation due to a complication; there were no flap losses ([Table 6]). The median MRC score was 5 (range: 2–5). Among the recipient nerves, the deep peroneal nerve had the lowest median MRC score (2.25 [range: 2–2.5]), whereas the femoral nerve, nerve to triceps, and vastus lateralis had a median MRC score of 5 (range: 5–5). Gracilis FMTs had a lower median MRC score (2.5) than did LD (5) and vastus medialis (5) FMTs.
Abbreviations: IQR, interquartile range; MRC, Medical Research Council.
The median time to first neuromuscular recovery and maximal neuromuscular recovery was 1.5 months (range: 0.3–6.4 months) and 7.6 months (range: 2.3–23.8 months), respectively. A high BMI was associated with delayed first neuromuscular recovery (R = 0.87, p = 0.002) ([Supplementary Fig. S8], available in the online version).
#
#
Discussion
Pedicled or free FMT can be used to provide wound closure and improve motor function after resection of a connective tissue malignancy, particularly when a substantial amount of muscle and skin is resected. In our systematic review, we identified 28 studies, representing 103 patients who underwent FMT after oncological resection. The meta-analysis results demonstrated a mean MRC score of 3.78 (95% CI: 2.97–4.56), indicating functional outcomes consistent with the ability of the reconstructed extremity to counteract the force of gravity. In addition, receipt of adjuvant chemotherapy was associated with markedly lower MRC scores. We identified a complication rate of 11%, with only two patients experiencing flap loss. The variables associated with increased risk of complications were neoadjuvant chemotherapy and radiotherapy, pedicled flaps, and a recipient femoral nerve. Our institutional chart review identified similar patient characteristics and functional outcomes to those found in the systematic review. In addition, our chart review identified that greater BMI was significantly associated with delayed neuromuscular recovery. Taken together, the results of the systematic review and our institutional chart review suggest that FMT is an effective technique for improving extremity motor function after oncological resection.
Studies have identified several qualities of an appropriate donor muscle[44] [45]: (1) adequate power and excursion, (2) expendable and adaptable muscle type, (3) sufficient range of motion, and (4) minimal functional impairment after harvesting. Considering these criteria, the LD, vastus lateralis, gracilis, TFL, rectus femoris, and rectus abdominis are each considered appropriate donor muscles for FMT. In our systematic review, the LD was the most commonly used donor muscle, employed in more than half of reported cases to reconstruct defects in the anterior[10] [33] [35] [41] [43] and posterior[33] arm, deltoid,[7] [34] shoulder,[4] [7] and scapular region.[38] Terzis and Kostopoulos[46] reported that the LD achieved greater muscle power than did the rectus femoris and gracilis. Our systematic review found that most authors reported that the rectus abdominis and vastus lateralis achieved greater muscle power (mean MRC score: 4.3) than did the TFL (mean MRC score: 4), LD (mean MRC score: 3.5), gracilis (mean MRC score: 3.1), and rectus femoris (mean MRC score: 3). Our case series corroborated the findings of the systematic review, with the gracilis muscle having a lower median MRC score (2.5) than that of the LD (5) and vastus lateralis (5) FMTs. With its lower power, gracilis FMT is better suited for oncological reconstruction in the forearm, where less excursion and force are needed. Doi et al[25] reported three cases of oncological reconstruction for extensive finger flexor and extensor defects. Two patients received a gracilis flap, whereas the third received an LD flap. The gracilis FMT patients had good outcomes, with MRC scores of 3, whereas the patient with the LD had poor flexor muscle balance because the LD was too powerful in relation to the native forearm extensors. Therefore, donor muscle selection requires careful consideration of the defect characteristics, most importantly, the required muscle excursion and force needed for the anatomic area in question.
Although the rate of complications in our institutional review was higher than that reported in the literature (54 vs. 11%, respectively), the majority of cases (86%) were minor complications that did not necessitate a return to the operating room. In addition, no patient experienced flap loss, compared with two in the systematic review. Despite this, the higher incidence of complications in our institutional series could be attributed to the complexity of the cases and the longer follow-up period. Patients in the institutional review received more chemotherapy (77 vs. 27%) and radiotherapy (69 vs. 47%), and had a higher proportion of pedicled flaps (46 vs. 26%), all of which are associated with a higher risk of complications.
The time required to achieve neuromuscular recovery after FMT varies depending on patient characteristics, the donor muscle, and the recipient nerve. In our retrospective review, we found that patients with high BMIs are likely to experience delayed neuromuscular recovery. In our systematic review, use of the TFL as the donor muscle had the longest mean time to first neuromuscular recovery (5.2 months), followed by the LD (4.9 months), gracilis (3.7 months), and rectus femoris (3.5). Authors in only two studies reported the time to maximal neuromuscular recovery. Barrera-Ochoa et al[36] reported that this time was 4 months for a free LD flap after excision of a synovial sarcoma in the hip, with an MRC score of 5. In comparison, Ihara et al[11] reported that the time to maximal neuromuscular recovery was 24 months for a free TFL flap after excision of a liposarcoma in the deltoid, also with an MRC score of 5. In our case series, a vastus lateralis FMT was associated with the longest median time to maximal neuromuscular recovery (16.8 months), followed by the LD (7.8 months) and gracilis (4.9 months).
The effect of adjuvant therapy on outcomes of FMT is controversial. Previous studies demonstrated that radiotherapy causes intimal vessel damage that negatively affects microvascular outcomes.[47] Muramatsu et al[45] showed that chemotherapy administration leads to a significantly delayed period of reinnervation in a rodent FMT model. In the present study, postoperative chemotherapy was associated with considerably lower muscle power. Additionally, receipt of preoperative chemotherapy or radiotherapy was associated with an increased risk of complications. Patients receiving chemotherapy and/or radiotherapy may have significantly larger and higher grade tumors, necessitating more extensive resections, which may contribute to a higher complication rate.[48] Additionally, many of the commonly used chemotherapeutic agents for sarcoma are neurotoxic and can contribute to poor wound healing.[49] [50] [51] While oncologically effective, agents such as anthracyclines and ifosfamide may impair neuron growth, delaying reinnervation of the FMT, resulting in worse outcomes and higher complication rates compared with patients not requiring chemotherapy.
This study has several limitations, most notably the small number of patients undergoing FMT for tumor defects. This calls attention to the fact that these oncologic defects are incredibly rare, even at a large international cancer center such as M.D. Anderson. It is for this reason that we decided to include a formal systematic review and meta-analysis with our chart review, to include as many patients as possible in our analysis. Limitations identified in our systematic review and meta-analysis include the relative heterogeneity of the included studies and the high OCEBM scores; for this reason, we used a random-effects model to minimize the confounding effects of data heterogeneity as much as possible. Limitations in our chart review include the retrospective nature of the study, recall bias, and selection bias. Lastly, we did not include patient-reported outcome measures, which are important considerations in outcome evaluation.
#
Conclusion
Oncological reconstruction following soft-tissue tumor resection remains a challenge. As demonstrated by our analysis, FMT after oncological resection may improve extremity function after limb-sparing tumor resection. Larger donor muscles such as the LD and VL are more appropriate for lower extremity reconstructions and proximal upper extremity (elbow/shoulder) defects, whereas the gracilis may be more appropriate for wrist and/or finger FMTs. Careful consideration of risk factors and preoperative planning is imperative for successful outcomes.
#
#
Conflict of Interest
None declared.
-
References
- 1 Clark MA, Fisher C, Judson I, Thomas JM. Soft-tissue sarcomas in adults. N Engl J Med 2005; 353 (07) 701-711
- 2 Abbas JS, Holyoke ED, Moore R, Karakousis CP. The surgical treatment and outcome of soft-tissue sarcoma. Arch Surg 1981; 116 (06) 765-769
- 3 Pisters PW, O'Sullivan B, Maki RG. Evidence-based recommendations for local therapy for soft tissue sarcomas. J Clin Oncol 2007; 25 (08) 1003-1008
- 4 Ihara K, Katsube K, Misumi H, Kawai S. Successful restoration of the trapezius muscle using pedicle latissimus dorsi. A case report. Clin Orthop Relat Res 2000; (371) 125-130
- 5 Ihara K, Shigetomi M, Kawai S, Doi K, Yamamoto M. Functioning muscle transplantation after wide excision of sarcomas in the extremity. Clin Orthop Relat Res 1999; (358) 140-148
- 6 Ihara K, Kishimoto T, Kawai S, Doi K. Reconstruction of hip abduction using free muscle transplantation: a case report and description of the technique. Ann Plast Surg 2000; 45 (02) 177-180
- 7 Ihara K, Shigetomi M, Muramatsu K. et al. Pedicle or free musculocutaneous flaps for shoulder defects after oncological resection. Ann Plast Surg 2003; 50 (04) 361-366
- 8 Doi K, Ihara K, Kawai S. Limb-sparing surgery in synovial sarcoma of the forearm and lower leg by reinnervated free muscle transfer. Plast Reconstr Surg 1998; 102 (02) 442-447
- 9 Hattori Y, Doi K, Ohi R, Fukushima S, Baliarsing AS. Clinical application of intraoperative measurement of choline acetyltransferase activity during functioning free muscle transfer. J Hand Surg Am 2001; 26 (04) 645-648
- 10 Grinsell D, Di Bella C, Choong PF. Functional reconstruction of sarcoma defects utilising innervated free flaps. Sarcoma 2012; 2012: 315190
- 11 Ihara K, Doi K, Shigetomi M, Kawai S. Tensor fasciae latae flap: alternative donor as a functioning muscle transplantation. Plast Reconstr Surg 1997; 100 (07) 1812-1816
- 12 Dillon AB, Sinno S, Blechman K, Berman R, Saadeh P. Functional reconstruction of a large anterior thigh defect using contralateral anterolateral thigh flap with tensor fasciae latae and motorized vastus lateralis. J Reconstr Microsurg 2015; 31 (01) 79-82
- 13 Stranix JT, Lee ZH, Lam G, Mirrer J, Rapp T, Saadeh PB. Limb-sparing sarcoma reconstruction with functional composite thigh flaps. Microsurgery 2018; 38 (05) 466-472
- 14 Hasmat S, Low TH, Krishnan A. et al. Chimeric vastus lateralis and anterolateral thigh flap for restoring facial defects and dynamic function following radical parotidectomy. Plast Reconstr Surg 2019; 144 (05) 853e-863e
- 15 Ozols D, Berezovska MM, Krasts J, Grutupa M, Petersons A. One-step lower leg reconstruction with vascularized functional vastus lateralis muscle flap in the treatment of embryonal rhabdomyosarcoma for a six-month-old boy: a case report. Medicina (Kaunas) 2020; 56 (07) E362
- 16 Carlson GW. The evolution of extremity reconstruction for soft tissue sarcoma. Ann Surg Oncol 2006; 13 (05) 610-611
- 17 Popov P, Tukiainen E, Asko-Seljaavaara S. et al. Soft tissue sarcomas of the lower extremity: surgical treatment and outcome. Eur J Surg Oncol 2000; 26 (07) 679-685
- 18 Marsden N, Grinsell D. Advances in functional limb reconstruction in the irradiated setting. Plast Aesthet Res. 2019; 6: 24
- 19 Head LK, Hicks K, Wolff G, Boyd KU. Clinical outcomes of nerve transfers in peroneal nerve palsy: a systematic review and meta-analysis. J Reconstr Microsurg 2019; 35 (01) 57-65
- 20 Stang A. Critical evaluation of the Newcastle-Ottawa scale for the assessment of the quality of nonrandomized studies in meta-analyses. Eur J Epidemiol 2010; 25 (09) 603-605
- 21 Duggal A, Perez P, Golan E, Tremblay L, Sinuff T. Safety and efficacy of noninvasive ventilation in patients with blunt chest trauma: a systematic review. Crit Care 2013; 17 (04) R142
- 22 Head L, Gencarelli JR, Allen M, Boyd KU. Wrist ganglion treatment: systematic review and meta-analysis. J Hand Surg Am 2015; 40 (03) 546-53 .e8
- 23 Garg SP, Hassan AM, Patel AA. et al. Outcomes of tibial nerve repair and transfer: a structured evidence-based systematic review and meta-analysis. J Foot Ankle Surg 2021; 60 (06) 1280-1289
- 24 Doi K, Sakai K, Ihara K, Abe Y, Kawai S, Kurafuji Y. Reinnervated free muscle transplantation for extremity reconstruction. Plast Reconstr Surg 1993; 91 (05) 872-883
- 25 Doi K, Kuwata N, Kawakami F, Hattori Y, Otsuka K, Ihara K. Limb-sparing surgery with reinnervated free-muscle transfer following radical excision of soft-tissue sarcoma in the extremity. Plast Reconstr Surg 1999; 104 (06) 1679-1687
- 26 Schoeller T, Wechselberger G, Meirer R, Bauer T, Piza-Katzer H, Ninković M. Functional osteomuscular free-tissue transfer: the reinnervated fibula-flexor hallucis longus free flap. Plast Reconstr Surg 2002; 109 (01) 253-257
- 27 Willcox TM, Smith AA, Beauchamp C, Meland NB. Functional free latissimus dorsi muscle flap to the proximal lower extremity. Clin Orthop Relat Res 2003; (410) 285-288
- 28 Pritsch T, Malawer MM, Wu CC, Squires MH, Bickels J. Functional reconstruction of the extensor mechanism following massive tumor resections from the anterior compartment of the thigh. Plast Reconstr Surg 2007; 120 (04) 960-969
- 29 Goertz O, Lehnhardt M, Hirsch T, Stricker I, Steinau HU, Homann HH. Functional reconstruction of the superficial posterior compartment of the leg after tumour ablation in an infant [in German]. Handchir Mikrochir Plast Chir 2009; 41 (04) 244-247
- 30 Innocenti M, Abed YY, Beltrami G, Delcroix L, Balatri A, Capanna R. Quadriceps muscle reconstruction with free functioning latissimus dorsi muscle flap after oncological resection. Microsurgery 2009; 29 (03) 189-198
- 31 Moschella F, D'Arpa S, Pirrello R, Cordova A. Posterior compartment of the lower leg reconstruction with free functional rectus femoris transfer after sarcoma resection. J Plast Reconstr Aesthet Surg 2010; 63 (03) e269-e272
- 32 Muramatsu K, Ihara K, Taguchi T. Selection of myocutaneous flaps for reconstruction following oncologic resection of sarcoma. Ann Plast Surg 2010; 64 (03) 307-310
- 33 Mundinger GS, Prucz RB, Frassica FJ, Deune EG. Concomitant upper extremity soft tissue sarcoma limb-sparing resection and functional reconstruction: assessment of outcomes and costs of surgery. Hand (N Y) 2014; 9 (02) 196-204
- 34 Muramatsu K, Ihara K, Tominaga Y, Hashimoto T, Taguchi T. Functional reconstruction of the deltoid muscle following complete resection of musculoskeletal sarcoma. J Plast Reconstr Aesthet Surg 2014; 67 (07) 916-920
- 35 Nicoli F, Orfaniotis G, Lazzeri D. et al. The latissimus dorsi-groin-lymph node compound flap: a comprehensive technique with three features including skin coverage, restoration of motor function, and prevention of upper limb lymphedema. Microsurgery 2016; 36 (08) 689-694
- 36 Barrera-Ochoa S, Collado-Delfa JM, Sallent A, Lluch A, Velez R. Free neurovascular latissimus dorsi muscle transplantation for reconstruction of hip abductors. Plast Reconstr Surg Glob Open 2017; 5 (09) e1498
- 37 Walley KC, Taylor EM, Anderson M, Lozano-Calderon S, Iorio ML. Reconstruction of quadriceps function with composite free tissue transfers following sarcoma resection. J Surg Oncol 2017; 115 (07) 878-882
- 38 Beltrami G, Ristori G, Scoccianti G. et al. Latissimus dorsi rotational flap combined with a custom-made scapular prosthesis after oncological surgical resection: a report of two patients. BMC Cancer 2018; 18 (01) 1003
- 39 Grinsell D, Lonie S, Wilson KC, Choong PFM. The innervated rectus abdominis flap for quadriceps reconstruction. J Plast Reconstr Aesthet Surg 2019; 72 (06) 941-945
- 40 MacArthur IR, McInnes CW, Dalke KR. et al. Patient reported outcomes following lower extremity soft tissue sarcoma resection with microsurgical preservation of ambulation. J Reconstr Microsurg 2019; 35 (03) 168-175
- 41 Nascimento R, Valença-Filipe R, Horta R, Silva Á. Arm malignant peripheral nerve sheath tumour: a rare clinical presentation. BMJ Case Rep 2019; 12 (08) e229852
- 42 Huayllani MT, Boczar D, Murray PM, Sherman CE, Wilke BK, Forte AJ. Reconstruction of quadriceps muscle function using the latissimus dorsi muscle transfer in an elderly patient: a case report. JBJS Case Connect 2020; 10 (04) 00255
- 43 Garcia M, Legallois Y, Stoeckle E, Michot A. Reconstruction of elbow flexion after sarcoma excision by a unipolar pedicled latissimus dorsi flap. Acta Chir Belg 2021; 1-21
- 44 Yi Lee TM, Sechachalam S, Satkunanantham M. Systematic review on outcome of free functioning muscle transfers for elbow flexion in brachial plexus injuries. J Hand Surg Eur Vol 2019; 44 (06) 620-627
- 45 Muramatsu K, Ihara K, Doi K. et al. Functional neuro-vascularized muscle transfer for oncological reconstruction of extremity sarcoma. Surg Oncol 2012; 21 (04) 263-268
- 46 Terzis JK, Kostopoulos VK. Free muscle transfer in posttraumatic plexopathies part II: the elbow. Hand (N Y) 2010; 5 (02) 160-170
- 47 Hidalgo DA, Carrasquillo IM. The treatment of lower extremity sarcomas with wide excision, radiotherapy, and free-flap reconstruction. Plast Reconstr Surg 1992; 89 (01) 96-101 , discussion 102
- 48 Davidge KM, Wunder J, Tomlinson G, Wong R, Lipa J, Davis AM. Function and health status outcomes following soft tissue reconstruction for limb preservation in extremity soft tissue sarcoma. Ann Surg Oncol 2010; 17 (04) 1052-1062
- 49 ESMO/European Sarcoma Network Working Group. Soft tissue and visceral sarcomas: ESMO Clinical Practice Guidelines for diagnosis, treatment and follow-up. Ann Oncol 2014; 25 (Suppl. 03) iii102-iii112
- 50 Carvalho C, Santos RX, Cardoso S. et al. Doxorubicin: the good, the bad and the ugly effect. Curr Med Chem 2009; 16 (25) 3267-3285
- 51 Klastersky J. Side effects of ifosfamide. Oncology 2003; 65 (Suppl. 02) 7-10
Address for correspondence
Publikationsverlauf
Eingereicht: 19. Dezember 2021
Angenommen: 21. Juni 2022
Accepted Manuscript online:
29. Juni 2022
Artikel online veröffentlicht:
17. Oktober 2022
© 2022. Thieme. All rights reserved.
Thieme Medical Publishers, Inc.
333 Seventh Avenue, 18th Floor, New York, NY 10001, USA
-
References
- 1 Clark MA, Fisher C, Judson I, Thomas JM. Soft-tissue sarcomas in adults. N Engl J Med 2005; 353 (07) 701-711
- 2 Abbas JS, Holyoke ED, Moore R, Karakousis CP. The surgical treatment and outcome of soft-tissue sarcoma. Arch Surg 1981; 116 (06) 765-769
- 3 Pisters PW, O'Sullivan B, Maki RG. Evidence-based recommendations for local therapy for soft tissue sarcomas. J Clin Oncol 2007; 25 (08) 1003-1008
- 4 Ihara K, Katsube K, Misumi H, Kawai S. Successful restoration of the trapezius muscle using pedicle latissimus dorsi. A case report. Clin Orthop Relat Res 2000; (371) 125-130
- 5 Ihara K, Shigetomi M, Kawai S, Doi K, Yamamoto M. Functioning muscle transplantation after wide excision of sarcomas in the extremity. Clin Orthop Relat Res 1999; (358) 140-148
- 6 Ihara K, Kishimoto T, Kawai S, Doi K. Reconstruction of hip abduction using free muscle transplantation: a case report and description of the technique. Ann Plast Surg 2000; 45 (02) 177-180
- 7 Ihara K, Shigetomi M, Muramatsu K. et al. Pedicle or free musculocutaneous flaps for shoulder defects after oncological resection. Ann Plast Surg 2003; 50 (04) 361-366
- 8 Doi K, Ihara K, Kawai S. Limb-sparing surgery in synovial sarcoma of the forearm and lower leg by reinnervated free muscle transfer. Plast Reconstr Surg 1998; 102 (02) 442-447
- 9 Hattori Y, Doi K, Ohi R, Fukushima S, Baliarsing AS. Clinical application of intraoperative measurement of choline acetyltransferase activity during functioning free muscle transfer. J Hand Surg Am 2001; 26 (04) 645-648
- 10 Grinsell D, Di Bella C, Choong PF. Functional reconstruction of sarcoma defects utilising innervated free flaps. Sarcoma 2012; 2012: 315190
- 11 Ihara K, Doi K, Shigetomi M, Kawai S. Tensor fasciae latae flap: alternative donor as a functioning muscle transplantation. Plast Reconstr Surg 1997; 100 (07) 1812-1816
- 12 Dillon AB, Sinno S, Blechman K, Berman R, Saadeh P. Functional reconstruction of a large anterior thigh defect using contralateral anterolateral thigh flap with tensor fasciae latae and motorized vastus lateralis. J Reconstr Microsurg 2015; 31 (01) 79-82
- 13 Stranix JT, Lee ZH, Lam G, Mirrer J, Rapp T, Saadeh PB. Limb-sparing sarcoma reconstruction with functional composite thigh flaps. Microsurgery 2018; 38 (05) 466-472
- 14 Hasmat S, Low TH, Krishnan A. et al. Chimeric vastus lateralis and anterolateral thigh flap for restoring facial defects and dynamic function following radical parotidectomy. Plast Reconstr Surg 2019; 144 (05) 853e-863e
- 15 Ozols D, Berezovska MM, Krasts J, Grutupa M, Petersons A. One-step lower leg reconstruction with vascularized functional vastus lateralis muscle flap in the treatment of embryonal rhabdomyosarcoma for a six-month-old boy: a case report. Medicina (Kaunas) 2020; 56 (07) E362
- 16 Carlson GW. The evolution of extremity reconstruction for soft tissue sarcoma. Ann Surg Oncol 2006; 13 (05) 610-611
- 17 Popov P, Tukiainen E, Asko-Seljaavaara S. et al. Soft tissue sarcomas of the lower extremity: surgical treatment and outcome. Eur J Surg Oncol 2000; 26 (07) 679-685
- 18 Marsden N, Grinsell D. Advances in functional limb reconstruction in the irradiated setting. Plast Aesthet Res. 2019; 6: 24
- 19 Head LK, Hicks K, Wolff G, Boyd KU. Clinical outcomes of nerve transfers in peroneal nerve palsy: a systematic review and meta-analysis. J Reconstr Microsurg 2019; 35 (01) 57-65
- 20 Stang A. Critical evaluation of the Newcastle-Ottawa scale for the assessment of the quality of nonrandomized studies in meta-analyses. Eur J Epidemiol 2010; 25 (09) 603-605
- 21 Duggal A, Perez P, Golan E, Tremblay L, Sinuff T. Safety and efficacy of noninvasive ventilation in patients with blunt chest trauma: a systematic review. Crit Care 2013; 17 (04) R142
- 22 Head L, Gencarelli JR, Allen M, Boyd KU. Wrist ganglion treatment: systematic review and meta-analysis. J Hand Surg Am 2015; 40 (03) 546-53 .e8
- 23 Garg SP, Hassan AM, Patel AA. et al. Outcomes of tibial nerve repair and transfer: a structured evidence-based systematic review and meta-analysis. J Foot Ankle Surg 2021; 60 (06) 1280-1289
- 24 Doi K, Sakai K, Ihara K, Abe Y, Kawai S, Kurafuji Y. Reinnervated free muscle transplantation for extremity reconstruction. Plast Reconstr Surg 1993; 91 (05) 872-883
- 25 Doi K, Kuwata N, Kawakami F, Hattori Y, Otsuka K, Ihara K. Limb-sparing surgery with reinnervated free-muscle transfer following radical excision of soft-tissue sarcoma in the extremity. Plast Reconstr Surg 1999; 104 (06) 1679-1687
- 26 Schoeller T, Wechselberger G, Meirer R, Bauer T, Piza-Katzer H, Ninković M. Functional osteomuscular free-tissue transfer: the reinnervated fibula-flexor hallucis longus free flap. Plast Reconstr Surg 2002; 109 (01) 253-257
- 27 Willcox TM, Smith AA, Beauchamp C, Meland NB. Functional free latissimus dorsi muscle flap to the proximal lower extremity. Clin Orthop Relat Res 2003; (410) 285-288
- 28 Pritsch T, Malawer MM, Wu CC, Squires MH, Bickels J. Functional reconstruction of the extensor mechanism following massive tumor resections from the anterior compartment of the thigh. Plast Reconstr Surg 2007; 120 (04) 960-969
- 29 Goertz O, Lehnhardt M, Hirsch T, Stricker I, Steinau HU, Homann HH. Functional reconstruction of the superficial posterior compartment of the leg after tumour ablation in an infant [in German]. Handchir Mikrochir Plast Chir 2009; 41 (04) 244-247
- 30 Innocenti M, Abed YY, Beltrami G, Delcroix L, Balatri A, Capanna R. Quadriceps muscle reconstruction with free functioning latissimus dorsi muscle flap after oncological resection. Microsurgery 2009; 29 (03) 189-198
- 31 Moschella F, D'Arpa S, Pirrello R, Cordova A. Posterior compartment of the lower leg reconstruction with free functional rectus femoris transfer after sarcoma resection. J Plast Reconstr Aesthet Surg 2010; 63 (03) e269-e272
- 32 Muramatsu K, Ihara K, Taguchi T. Selection of myocutaneous flaps for reconstruction following oncologic resection of sarcoma. Ann Plast Surg 2010; 64 (03) 307-310
- 33 Mundinger GS, Prucz RB, Frassica FJ, Deune EG. Concomitant upper extremity soft tissue sarcoma limb-sparing resection and functional reconstruction: assessment of outcomes and costs of surgery. Hand (N Y) 2014; 9 (02) 196-204
- 34 Muramatsu K, Ihara K, Tominaga Y, Hashimoto T, Taguchi T. Functional reconstruction of the deltoid muscle following complete resection of musculoskeletal sarcoma. J Plast Reconstr Aesthet Surg 2014; 67 (07) 916-920
- 35 Nicoli F, Orfaniotis G, Lazzeri D. et al. The latissimus dorsi-groin-lymph node compound flap: a comprehensive technique with three features including skin coverage, restoration of motor function, and prevention of upper limb lymphedema. Microsurgery 2016; 36 (08) 689-694
- 36 Barrera-Ochoa S, Collado-Delfa JM, Sallent A, Lluch A, Velez R. Free neurovascular latissimus dorsi muscle transplantation for reconstruction of hip abductors. Plast Reconstr Surg Glob Open 2017; 5 (09) e1498
- 37 Walley KC, Taylor EM, Anderson M, Lozano-Calderon S, Iorio ML. Reconstruction of quadriceps function with composite free tissue transfers following sarcoma resection. J Surg Oncol 2017; 115 (07) 878-882
- 38 Beltrami G, Ristori G, Scoccianti G. et al. Latissimus dorsi rotational flap combined with a custom-made scapular prosthesis after oncological surgical resection: a report of two patients. BMC Cancer 2018; 18 (01) 1003
- 39 Grinsell D, Lonie S, Wilson KC, Choong PFM. The innervated rectus abdominis flap for quadriceps reconstruction. J Plast Reconstr Aesthet Surg 2019; 72 (06) 941-945
- 40 MacArthur IR, McInnes CW, Dalke KR. et al. Patient reported outcomes following lower extremity soft tissue sarcoma resection with microsurgical preservation of ambulation. J Reconstr Microsurg 2019; 35 (03) 168-175
- 41 Nascimento R, Valença-Filipe R, Horta R, Silva Á. Arm malignant peripheral nerve sheath tumour: a rare clinical presentation. BMJ Case Rep 2019; 12 (08) e229852
- 42 Huayllani MT, Boczar D, Murray PM, Sherman CE, Wilke BK, Forte AJ. Reconstruction of quadriceps muscle function using the latissimus dorsi muscle transfer in an elderly patient: a case report. JBJS Case Connect 2020; 10 (04) 00255
- 43 Garcia M, Legallois Y, Stoeckle E, Michot A. Reconstruction of elbow flexion after sarcoma excision by a unipolar pedicled latissimus dorsi flap. Acta Chir Belg 2021; 1-21
- 44 Yi Lee TM, Sechachalam S, Satkunanantham M. Systematic review on outcome of free functioning muscle transfers for elbow flexion in brachial plexus injuries. J Hand Surg Eur Vol 2019; 44 (06) 620-627
- 45 Muramatsu K, Ihara K, Doi K. et al. Functional neuro-vascularized muscle transfer for oncological reconstruction of extremity sarcoma. Surg Oncol 2012; 21 (04) 263-268
- 46 Terzis JK, Kostopoulos VK. Free muscle transfer in posttraumatic plexopathies part II: the elbow. Hand (N Y) 2010; 5 (02) 160-170
- 47 Hidalgo DA, Carrasquillo IM. The treatment of lower extremity sarcomas with wide excision, radiotherapy, and free-flap reconstruction. Plast Reconstr Surg 1992; 89 (01) 96-101 , discussion 102
- 48 Davidge KM, Wunder J, Tomlinson G, Wong R, Lipa J, Davis AM. Function and health status outcomes following soft tissue reconstruction for limb preservation in extremity soft tissue sarcoma. Ann Surg Oncol 2010; 17 (04) 1052-1062
- 49 ESMO/European Sarcoma Network Working Group. Soft tissue and visceral sarcomas: ESMO Clinical Practice Guidelines for diagnosis, treatment and follow-up. Ann Oncol 2014; 25 (Suppl. 03) iii102-iii112
- 50 Carvalho C, Santos RX, Cardoso S. et al. Doxorubicin: the good, the bad and the ugly effect. Curr Med Chem 2009; 16 (25) 3267-3285
- 51 Klastersky J. Side effects of ifosfamide. Oncology 2003; 65 (Suppl. 02) 7-10