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Treatment of Ischial Pressure Sores with Both Profunda Femoris Artery Perforator Flaps and Muscle Flaps

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Background Reconstruction of ischial pressure sore defects is challenging due to extensive bursas and high recurrence rates. In this study, we simultaneously applied a muscle flap that covered the exposed ischium and large bursa with sufficient muscular volume and a profunda femoris artery perforator fasciocutaneous flap for the management of ischial pressure sores. Methods We retrospectively analyzed data from 14 patients (16 ischial sores) whose ischial defects had been reconstructed using both a profunda femoris artery perforator flap and a muscle flap between January 2006 and February 2014. We compared patient characteristics, operative procedure, and clinical course. Results All flaps survived the entire follow-up period. Seven patients (50%) had a history of surgery at the site of the ischial pressure sore. The mean age of the patients included was 52.8 years (range, 18-85 years). The mean follow-up period was 27.9 months (range, 3-57 months). In two patients, a biceps femoris muscle flap was used, while a gracilis muscle flap was used in the remaining patients. In four cases (25%), wound dehiscence occurred, but healed without further complication after resuturing. Additionally, congestion occurred in one case (6%), but resolved with conservative treatment. Among 16 cases, there was only one (6%) recurrence at 34 months. Conclusions The combination of a profunda femoris artery perforator fasciocutaneous flap and muscle flap for the treatment of ischial pressure sores provided pliability, adequate bulkiness and few long-term complications. Therefore, this may be used as an alternative treatment method for ischial pressure sores.
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387
Original Article
INTRODUCTION
Pressure sores result from the destruction of skin and underly-
ing tissue due to continuous pressure applied to the skin and
muscle. As a result, the blood supply to the tissue is decreased,
which leads to necrosis. Additionally, pressure sores are influ-
enced by patient position, patient movement, nutrition, and the
general health status of the patient [1]. Ischial pressure sores are
the most common type of sores to occur in the wheelchair-
bound patient, and there is always a risk of recurrence despite
Treatment of Ischial Pressure Sores with Both
Profunda Femoris Artery Perforator Flaps and
Muscle Flaps
Chae Min Kim, In Sik Yun, Dong Won Lee, Dae Hyun Lew, Dong Kyun Rah, Won Jai Lee
Department of Plastic and Reconstructive Surgery, Institute for Human Tissue Restoration, Severance Hospital, Yonsei University College of
Medicine, Seoul, Korea
Background Reconstruction of ischial pressure sore defects is challenging due to extensive
bursas and high recurrence rates. In this study, we simultaneously applied a muscle flap that
covered the exposed ischium and large bursa with sufficient muscular volume and a profunda
femoris artery perforator fasciocutaneous flap for the management of ischial pressure sores.
Methods We retrospectively analyzed data from 14 patients (16 ischial sores) whose ischial
defects had been reconstructed using both a profunda femoris artery perforator flap and a
muscle flap between January 2006 and February 2014. We compared patient characteristics,
operative procedure, and clinical course.
Results All flaps survived the entire follow-up period. Seven patients (50%) had a history of
surgery at the site of the ischial pressure sore. The mean age of the patients included was
52.8 years (range, 1885 years). The mean follow-up period was 27.9 months (range, 357
months). In two patients, a biceps femoris muscle flap was used, while a gracilis muscle flap
was used in the remaining patients. In four cases (25%), wound dehiscence occurred, but
healed without further complication after resuturing. Additionally, congestion occurred in
one case (6%), but resolved with conservative treatment. Among 16 cases, there was only one
(6%) recurrence at 34 months.
Conclusions The combination of a profunda femoris artery perforator fasciocutaneous flap
and muscle flap for the treatment of ischial pressure sores provided pliability, adequate
bulkiness and few long-term complications. Therefore, this may be used as an alternative
treatment method for ischial pressure sores.
Keywords Pressure ulcer / Ischium / Perforator flap / Muscle
Correspondence: Won Jai Lee
Department of Plastic and
Reconstructive Surgery, Severance
Hospital, Yonsei University Medical
College, 50-1 Yonsei-ro,
Seodaemun-gu, Seoul 120-752, Korea
Tel: +82-2-2228-2219
Fax: +82-2-82-2-393-6947
E-mail: pswjlee@yuhs.ac
The authors would like to thank Dong-
Su Jang, MFA, (Medical Illustrator, Seoul,
Korea) for his help with the illustrations.
No potential conflict of interest relevant
to this article was reported.
Received: 29 Apr 2014 Revised: 19 May 2014 Accepted: 30 May 2014
pISSN: 2234-6163 eISSN: 2234-6171 http://dx.doi.org/10.5999/aps.2014.41.4.387 Arch Plast Surg 2014;41:387-393
Kim CM et al. Perforator flap for ischial sore
388
successful treatment [2]. There are several studies that have ex-
amined long-term outcomes including recurrence rates in pa-
tients with pressure sores [3-6]. Ischial pressure sores specifical-
ly have a widely variable recurrence rate of 7% to 48% [4,5].
This variability indicates that it would be difficult to estimate a
single factor that influences recurrence, and that this typically
occurs in relation to postoperative care and rehabilitation status
[6]. The flaps used for reconstruction of ischial pressure sores
have included inferior gluteus maximus flaps, V-Y hamstring
myocutaneous flaps, gluteal thigh flaps, gracilis myocutaneous
flaps, adipofascial turnover and fasciocutaneous flaps, biceps
femoris musculocutaneous flaps, tensor fascia lata flaps, inferior
gluteal artery perforator (IGAP) flaps [7], lateral thigh fasciocu-
taneous flaps, anterior thigh flaps, rectus abdominis myocutane-
ous flaps, and adductor muscle perforator flaps.
After the concept of a perforator flap was introduced by Ko-
shima et al. [8], the superior gluteal artery perforator flap
(SGAP) and IGAP became more frequently used in the treat-
ment of these sores [7,9]. Perforator flaps have become more
popular due to advantages such as sparing of the underlying
muscle with resultant decreased donor-site morbidity, as well as
the possibility of improving aesthetic outcomes. Based on per-
forasome theory, a flap can be based on any perforator, whether
free or pedicled.
The profunda femoris artery (deep femoral artery) has four
perforating arteries after the branching of the medial and lateral
circumflex arteries [10,11]. Among these, the first and second
perforating arteries have cutaneous branches that travel to the
posteromedial aspect of the thigh [10,12]. Therefore, these
branches could be used in the reconstruction of ischial pressure
sores. There have been few reports, however, of using profunda
femoris artery perforator flaps for ischial pressure sores [13,14].
The advantages of using muscle flaps in the surgical treatment
of pressure sores are as follows: 1) bulk to eliminate dead space,
2) reliable blood supply, 3) mass of tissue that allows for better
distribution of pressure, and 4) superior infection control [15].
In particular, musculocutaneous flaps are useful for filling dead
space in large, deep wounds, while fasciocutaneous flaps may
have insufficient volume to accomplish this. Additionally, be-
cause of their abundant flow, musculocutaneous flaps are a good
choice for treatment of infected wounds [16].
In our study, we used a unilateral gracilis or biceps muscle flap
along with a profunda femoris artery perforator fasciocutaneous
flap for treatment of ischial defects with large bursas. The mus-
cle flap was used as a turnover flap to cover the ischial bone and
to provide volume to fill the dead space. The profunda femoris
artery perforator fasciocutaneous flap was used to cover the sur-
face of the defect, and for dual padding of the ischium. This du-
al-flap technique is a durable and efficient reconstructive option
for major ischial defects due to recurrent ischial pressure sores
with minimal donor site morbidity.
METHODS
Between January 2006 and February 2014, 14 patients (16 is-
chial sores) who were surgically treated using both a profunda
femoris artery perforator flap and a muscle flap for ischial pres-
sure sores were included in this study. Among these patients, 11
were men (13 sores) and three were women (three sores). We
compared and analyzed the size of defect, treatment method,
rate of recurrence, and whether or not it was treated after a pre-
vious complication based on patient medical records.
Surgical technique
Each patient was placed in the prone position. After meticulous
debridement and softening of the ischial bony prominent por-
tion, ostectomy or rasping was performed. The profunda femo-
ris artery perforator was mapped using portable Doppler flow-
metry (Fig. 1). After securing a skin flap with sufficient size and
length, we identified the location of the profunda femoris artery
perforator on the ipsilateral medial side along the gluteal fold at
the ischial tuberosity. The skin flap was constructed according
to the distance to the defect and the available range of transposi-
tion (Fig. 1A). To fill the dead space and cover the exposed is-
chium, a muscle flap constructed from the gracilis or biceps
femoris muscle was used. An incision was made from the superi-
olateal margin of the flap, which was carried down to include the
fascia, extending to the medial knee in an S-shape pattern. Using
subfascial dissection, 1-4 musculocutaneous perforators were
identified and clipped to allow for maximal arch of transposition
of the flap (Fig. 2). The fasciocutaneous flap, which was based
on the profunda femoris artery perforator, was then elevated. To
allow for greater flap mobility, the tissue around the pedicle was
further dissected without full skeletonization of the perforator
pedicle (Fig. 2B). The gracilis or biceps muscle under the previ-
ously elevated skin flap was then detached from its insertion site
and dissected proximally until the main pedicle was identified
(Fig. 1B). The muscle was then transposed to the exposed ischi-
al site in a turn-over pattern. The elevated profunda femoris ar-
tery perforator flap was advanced or transpositioned toward the
defect (Fig. 1C). The flap was inserted without tension, and the
donor defect was closed primarily with minimal subcutaneous
undermining, which was achieved with adduction of the thighs
(Fig. 1D). The duration of pedicle dissection and flap elevation
was around 30 minutes and the duration of the total surgery was
around 3 to 4 hours. Two negative suction drainage catheters
Vol. 41 / No. 4 / July 2014
389
were placed for at least seven days, and the patients remained in
the prone position for two weeks to limit pressure on the flap.
RESULTS
Seven (50%) patients had a history of surgery at the same site as
the ischial pressure sore (Table 1). The mean age of the patients
was 52.8 years (range, 18–85 years). The majority of the pa-
tients were paraplegic (13 cases, 81%), two were quadriplegic
(12.5%), and one was ambulatory (6%). Fourteen patients had
suffered spinal cord injury due to trauma, one patient had spinal
stenosis, and one patient had been diagnosed with a spinal cord
tumor. Among 16 cases (14 patients), the mean follow-up peri-
od was 27.9 months (range, 3–57 months). The size of the flap
(A) Preoperative design. We identified and marked the location of the perforator preoperatively. (B) After performing ostectomy at the bony
prominence, we rotated the gracilis muscle to fill the dead space. (C) We covered the skin defect by performing transposition of the profunda
femoris artery perforator (*) flap. (D) Postoperative image.
Fig. 1. Diagram showing the surgical steps for harvesting the profunda femoris artery perforator flap and gracilis muscle flap
A B C D
AB
(A) Schematic vascular diagram of profunda femoris artery perforator (*) flap. (B) This is an intraoperative image of Profunda femoris artery per-
forator flap and gracilis flap after dissection and before transposition. The yellow round dotted line is where the perforator is thought to be lo-
cated. The existence of perforator was checked by an intraoperative Doppler flowmetry and perforator skeletonization was not performed be-
cause there was no problem in the transposition of the flap.
Fig. 2. Profunda femoris artery perforator-based fasciocutaneous flap
Kim CM et al. Perforator flap for ischial sore
390
was variable, from 3× 3 cm to 12 ×6 cm, and most of the flaps
healed without complications. The size of the pressure sores
ranged from 1× 1 cm to 8 × 5 cm, though the size of the bursa
was typically several times larger than that of the skin defect.
The size of the bursa was estimated by measuring the diameter
using a cotton swab prior to surgery. In four cases (25%), wound
dehiscence occurred but completely healed after resuturing. In
one case (6%), congestion occurred, but improved with conser-
vative treatment. During long-term follow-up, only one case
(6%) recurred after 34 months and was treated with an IGAP
flap. In seven patients (50%) who had a history of surgery at the
same site of the ischial pressure sore, surgery that was performed
with the technique described yielded good results without com-
plications for a mean follow-up period of 22.7 months.
Case 1 (patient no. 1)
An 85-year-old female patient with spinal stenosis presented
with a left ischial pressure sore, and underwent surgical recon-
struction with a profunda femoris artery perforator flap and
gracilis muscle flap (Fig. 3). Preoperative findings included a
skin defect measuring 3× 2 cm and a bursa measuring 8× 4 cm.
We decreased the defect size using vaccum assisted closure ther-
apy (VAC) for two weeks prior to surgery. There was a coexist-
ing sacral pressure sore, which was treated with a SGAP flap.
Postoperative follow-up for 18 months revealed no evidence of
recurrence or complications.
Case 2 (patient no. 6)
A 33-year-old patient with paraplegia due to 10th thoracic verte-
bra injury sustained in a traffic accident presented with a left is-
chial pressure sore that was treated with primary sutures twice
at another hospital three years and six months before an IGAP
flap was performed three years ago. The pressure sore recurred
at the site of the IGAP flap, and was reconstructed with a pro-
funda femoris artery perforator flap and gracilis muscle flap (Fig.
4). Preoperative findings included a skin defect measuring 2 ×2
cm and a bursa measuring 11× 6 cm. On postoperative day 10,
a 2 cm open wound was noted at the surgical site, which healed
without further complication after resuturing. Postoperative fol-
low-up was conducted for 56 months without recurrence or
complications.
Case 3 (patient no. 9)
A 39-year-old patient with paraplegia due to fourth thoracic ver-
tebra injury sustained in a traffic accident presented with a right
ischial pressure sore. The dead space was filled using the gracilis
muscle, and transposition was performed using a profunda fem-
oris artery perforator flap (Fig. 5). Preoperative findings includ-
No. Sex Age
(yr) Dx Site Defect
size (cm)
Flap size
(cm)
Bursa
size (cm)
Muscle
flap
Predisposing
factor Status Operation
Hx. PHx Short
term Cx Tx Long
term Cx Tx Follow-up
(mo)
1 F 85 Ischial sore Lt 3 ×2 8 ×4 5×4 Gracilis Spinal stenosis Ambulation - Dementia x x x x 18
2 M 52 Ischial sore
(recurred)
Lt 3 ×3 8 ×5 6 ×4 Gracilis T12-L1 Fx Paraplegia Sore operation
once
x x x x x 3
3 M 52 Ischial sore Lt 4 ×4 10 ×6 8×6 Gracilis C5-6 Fx Quadriplegia - CRF,
Schizo
Wound
dehiscence
Revision x x 29
4 M 39 Ischial sore Lt
Rt
5×2
2×2
6×4
3×3
5×4
3×3
Gracilis
x
Spinal cord
tumor mets
Paraplegia - Brain
tumor
x
x
x
x
x
x
x
x
14
-
5 M 63 Ischial sore
(recurred)
Lt 2 ×1 12 ×5 6×3 Gracilis SCI Paraplegia Sore operation
once
x x x x x 25
6 M 33 Ischial sore
(recurred)
Lt 2 ×2 11 ×6 7×4 Gracilis L2 Fx Paraplegia Sore operation
twice
x Wound
dehiscence
Revision x x 56
7 M 54 Ischial sore
(recurred)
Rt 1 ×1 10 ×5 4×4 Gracilis T11 Fx Paraplegia Sore operation
several times
HTN, CVA x x x x 3
8 M 72 Ischial sore
(recurred)
Lt 2 ×2 5 ×3 7 ×4 Gracilis SCI Paraplegia Sore operation
several times
DM Wound
dehiscence
Revision x x 21
9 M 39 Ischial sore Rt
Lt
4×3
3×3
8×5
9×5
9×6
12 ×6
Gracilis
Gracilis
T4-5 Fx Paraplegia Sore operation
several times
x x x Rt recur
after 34 m
IGAP 57
31
10 M 72 Ischial sore
(recurred)
Ischial sore
Rt
Lt
3×3
2×2
7×4
10 ×6
5×4
4×4
Biceps
femoris
Gracilis
T10 SCI Paraplegia Sore operation
once
COPD x
Wound
dehiscence
x
Revision
x
x
x
x
27
4
11 M 36 Ischial sore Rt 3×2 7 ×5 5 ×3 Gracilis C-SCI Quadriplegia - x x x x x 57
12 F 46 Ischial sore
(recurred)
Lt 8 ×5 12 ×6 12 ×4 Gracilis L1-3 SCI Paraplegia Sore operation
several times
x Flap
congestion
Conservative
care
x x 24
13 F 18 Ischial sore Lt 3 ×3 7 ×4 7×4 Biceps
femoris
T6 SCI Paraplegia - Scoliosis x x x x 45
14 M 78 Ischial sore Lt 2×2 7 ×5 8 ×5 Gracilis SCI Paraplegia - HTN x x x x 32
The mean follow-up period was 27.9 months for 14 patients with ischial pressure sores (16 sores).
Dx, diagnosis; Hx., history; PHx, past history; Cx, complication; Tx, treatment; Lt, left; Rt, right; SCI, spinal cord injury; HTN, hypertension; CVA, cerebrovascular accident;
DM, diabetes mellitus; IGAP, inferior gluteal artery perforator flap; COPD, chronic obstructive pulmonary disease.
Table 1. Characteristics of patients (patient information)
Vol. 41 / No. 4 / July 2014
391
(A) The bursa is deeper and wider than
the skin defect. (B) The dead space was
filled with the gracilis muscle and cov-
ered with the elevated profunda femoris
artery perforator flap. (C) Postoperative
photo 18 months after reconstruction.
Fig. 3. A case of unilateral ischial pressure sore (case 1)
A B C
C
DA B
(A) The perforator was identified and marked preoperatively, and was rechecked after debridement. (B) Elevation of the profunda femoris artery
perforator fasciocutaneous flap and gracilis muscle flap. The dead space was filled with the rotated gracilis muscle. (C) Defect coverage was
achieved by transposition of the profunda femoris artery perforator flap. (D) Follow-up image at 12 months.
Fig. 4. Picture showing the surgical steps (case 2)
ed a skin defect measuring 4× 3 cm and a bursa measuring 8× 5
cm. After one year, a left ischial pressure sore developed, and
was reconstructed using a gracilis muscle flap and a profunda
femoris artery perforator island flap. The skin defect was 3× 3
cm in size, and the bursa measured 9× 5 cm. The right ischial
pressure sore recurred 34 months after surgery due to dead
space, and was treated with bursa resection and IGAP flap.
DISCUSSION
Ischial pressure sores most frequently occur in wheelchair-
bound patients. Despite successful surgery, however, recurrence
and complications frequently occur making this condition diffi-
cult to treat. Moreover, paralyzed patients also tend to have pres-
sure sores in the sacral or trochanteric regions. Thus several flap
surgeries are often needed. For this reason, preservation of the
Kim CM et al. Perforator flap for ischial sore
392
Fig. 5. A case of bilateral ischial pressure sore (case 3)
(A) This patient had bilateral ischial pres-
sure sores. A right ischial pressure sore was
reconsturcted using a gracilis muscle flap
and a profunda femoris artery perforator
island flap. After one year, a left ischial
pressure sore also occurred and was sub-
sequently reconstructed same method. (B)
Follow-up image 18 months after right is-
chial pressure sore reconstruction.
A B
tissue structure and vascularity and is important in cases in
which secondary surgery is required [17].
Various surgical methods have been introduced for the treat-
ment of ischial pressure sores. Recently, the use of perforators
has become more popular based on anatomical and clinical
studies. The perforators that can be used for ischial pressure
sore defects are largely divided into those in the gluteal regions
and those in the thigh regions. Unal et al. [18] divided the ori-
gins of the perforators into two groups depending on the avail-
able donor flap site: 1) IGA and perforators of the descending
branch of the IGA, and 2) posterior thigh vessels (medial or lat-
eral circumflex femoral artery, profunda femoris artery).
Each pedicle includes either the IGAP in the gluteal region, or
the profunda femoris artery, medial, or lateral femoral circum-
flex artery perforators in the thigh region. Among these, the
IGAPs distributed in the gluteal region have been frequently
used in reconstructive surgery for ischial pressure sores after
Higgins et al. [7] reported a case in which the IGAP was suc-
cessfully used [18,19].
In a case in which the posterior thigh perforator was used in
1983, Baek [20] described the use of the skin territory of the
third perforator of the profunda femoris as well their methods
of elevation. Since then, Homma et al. [13] performed recon-
struction of ischial pressure sores using the posterior thigh per-
forator. In that study, good results were achieved in 11 patients
with ischial pressure sores using a posteromedial thigh fasciocu-
taneous flap based on perforators from the gracilis or adductor
magnus muscle. The adductor magnus muscle perforator that
was described has been confirmed to be a profunda femoris ar-
tery perforator by anatomical and imaging studies [14,21,22].
Angrigiani et al. [11,14] subsequently identified the location of
the profunda femoris artery perforator and elevated the postero-
lateral thigh flap and posteromedial thigh flap for treatment of
ischial pressure sores. Lee et al. [2] reported good results using a
V-Y profunda femoris artery perforator flap and gracilis muscle
flap in the treatment of ischial pressure sores. We used a similar
method, but dissected the pedicle of the V-Y advancement flap
further, elevated the fasciocutaneous flap, and performed trans-
position. By using this method, we allowed for coverage of the
large skin defect that resulted from debridement of the necrotic
skin and reduced the tension at the ischial site.
We used a muscle flap together with a profunda femoris artery
perforator flap in all patients. This was because pressure sores
typically have a larger bursa than other skin defects. We used a
gracilis muscle flap in 14 cases and a biceps femoris muscle flap
in two cases. The gracilis muscle is commonly used in the re-
construction of ischial pressure sores because it is easily accessi-
ble and has sufficient vascularity [23]. Two patients were treated
using a biceps femoris muscle flap because this muscle was
more easily accessed than the gracilis, and it was adequate for
filling the dead space. In addition, we were able to simultane-
ously elevate the profunda femoris artery perforator flap and
muscle flap with the patient in the prone position, unlike Lee et
al. [2] who elevated the gracilis in the supine position first, and
then applied the profunda femoris artery perforator flap.
In 14 patients (16 total cases) we had a mean follow-up period
of 27.9 months, and one case of recurrence at 34 months after
surgery. The remaining patients had no further problems at the
surgical site during a mean follow-up period of more than two
years. Our study demonstrates that simultaneous use of a pro-
funda femoris artery perforator flap and a muscle flap results in
good durability, and may be a feasible option for the treatment
of ischial pressure sores. Additionally, it would be helpful for pa-
tients who will likely require multiple surgeries to avoid damag-
ing the pedicles and their vascular supply by being aware of the
location and anatomical structure of each perforator [24]. The
patients preserved all of their gluteal skin and pedicle, so in case
of recurrence they could be used.
The pre-existing inferior gluteal myocutaneous flap is one of
the most commonly used method in ischial pressure sore [16]
Vol. 41 / No. 4 / July 2014
393
and this conventional method has also shows good results [25].
But the method in this journal uses muscle flap in cases of recur-
rence or large defects, which has advantages in bone padding or
dead space filling. And in primary cases, when there is recur-
rence the convential method can be used again, so it has advan-
tages when choosing a reconstruction method.
In conclusion, use of both a profunda femoris artery perfora-
tor flap and muscle flap for the treatment of ischial pressure
sores resulted in good durability and few long-term complica-
tions. Thus, this may be a useful method for reconstruction of
ischial pressure sores.
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flap coverage. Ann Plast Surg 2012;69:67-72.
19. Kim YS, Lew DH, Roh TS, et al. Inferior gluteal artery per-
forator flap: a viable alternative for ischial pressure sores. J
Plast Reconstr Aesthet Surg 2009;62:1347-54.
20. Baek SM. Two new cutaneous free flaps: the medial and lat-
eral thigh flaps. Plast Reconstr Surg 1983;71:354-65.
21. Hurwitz ZM, Montilla R, Dunn RM, et al. Adductor mag-
nus perforator flap revisited: an anatomical review and clini-
cal applications. Ann Plast Surg 2011;66:438-43.
22. Hallock GG. The propeller flap version of the adductor
muscle perforator flap for coverage of ischial or trochanteric
pressure sores. Ann Plast Surg 2006;56:540-2.
23. Labandter HP. The gracilis muscle flap and musculocutane-
ous flap in the repair of perineal and ischial defects. Br J Plast
Surg 1980;33:95-8.
24. Wong CH, Tan BK, Song C. The perforator-sparing buttock
rotation flap for coverage of pressure sores. Plast Reconstr
Surg 2007;119:1259-66.
25. Sameem M, Au M, Wood T, et al. A systematic review of
complication and recurrence rates of musculocutaneous,
fasciocutaneous, and perforator-based flaps for treatment of
pressure sores. Plast Reconstr Surg 2012;130:67e-77e.
... The biceps femoris muscle flaps are an easily harvested muscle flap with a robust vascularity that could control residual bone infection and obliterate the ulcer dead space. [16,17] Moreover, the muscle bulk provides an even pressure distribution over the bony prominence in wheelchair pediatric patients. ...
... In addition, the incision lines of this flap design are positioned outside the area of weight-bearing besides possible frequent flap remobilizations if desired in recurrent sores. [9] Several authors [16][17][18][19][20][21][22] reported the use of a combined fasciocutaneous/muscle flap technique for reconstruction of ischial pressure ulcers. Ahluwalia et al. [18] and Bertheuil et al. [19] presented their experience by describing a medially based rotational posterior thigh flap with a biceps femoris muscle for ischial pressure wound reconstruction and recorded a relatively low recurrence rate. ...
... Few reports [17,21,22] described the use of perforatorbased flaps as profunda femoris artery perforator flaps along Fig. 3 a A 10-year-old male patient with a left side ischial pressure sore. b A posteromedial thigh flap was elevated. ...
Article
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Background Ischial pressure sores are mostly seen in wheelchair-bound pediatric patients, who are affected by a myelomeningocele, as a result of constant shearing force over the ischial region. The ischial sores are the most difficult to treat with high recurrence rates. Although there are various reconstructive modalities that are described for coverage of ischial pressure sores, there is still a long-term debate on an optimal method of reconstruction.Methods Between April 2017 and June 2019, a total of 6 patients who were affected with a myelomeningocele anomalis were operated on for a total of 7 recurrent grade IV ischial ulcers. Data collection was done through analysis of medical records, which included the patients’ demography, operative details, and postoperative complications. A routine preoperative regimen including correction of the nutrition status and anemia should be ensured. We dissected a biceps femoris muscle turnover flap that obliterated the wound cavity and simultaneously applied a V-Y rotation advancement posterior thigh fasciocutaneous flap for coverage of ischial pressure sore surface.ResultsAll flaps survived without early complications except for one case (14.2%) where a minor wound dehiscence had occurred and managed by secondary stitches. Among all 7 cases, only one (14.2%) had a recurrence 9 months after surgery, which required further debridement and advancement of the same flap. The mean follow-up period was 12.3 months (range, 4–24 months).Conclusions Although there is still no ideal flap for closure of ischial pressure sores, the rotation advancement V-Y posterior thigh fasciocutaneous flap combined with a biceps femoris muscle turnover flap is considered a reliable reconstructive technique in pediatric patients. The present technique integrates the benefits of well-vascularized muscle tissue with a durable skin coverage that can be reused in cases of recurrence.Level of evidence: Level V, therapeutic study.
... Having a good surgical procedure without longterm recurrences is difficult because of all of these considerations. 1 The pressure ulcers have been rebuilt using various techniques and flap covering. Examples include the posterior thigh flap, the V-Y fasciocutaneous flap, and the gluteus maximus island flap. ...
Article
Full-text available
Background: Pressure ulcers frequently occur in the gluteal region, particularly in paraplegic patients with a high risk of recurrence. For this reason, future reconstructive treatments should be considered when choosing flaps for reconstructive surgery. Both the upper and superior gluteal artery perforator flaps (IGAP and SGAP) are examples of neural perforator flaps; first and second perforators from profundal femoris artery perforator (PFAP) are popular perforator flaps in the treatment of gluteal pressure sores. Objective: To assess the gluteal and para-gluteal regions by providing different sizes and designs of perforator propeller flaps to reconstruct gluteal pressure ulcers. Material and methods: A prospective study was conducted on forty patients at Al-Azhar University Hospitals between Dec. 2018 and Feb. 2023. Patients presented with different gluteal pressure ulcers reconstructed by free-style perforator propeller flaps. Flap size, source artery of the perforator, perforator site, flap survival, rotation angle, operative time, and complications were recorded. Result: The Mean hospital stay (days) was 37.85 ± 12.71, and the follow-up mean was 8.68 ± 1.95. The mean of propeller flap size was 183.64 ± 31.76, and the mean of Flap operation time was 158.50 ± 43.76. Conclusion: Reconstruction of pressure ulcers can benefit from the free-style perforator flap, which has the advantage of having little donor-site morbidity and preserving spare tissue for future reconstruction.
... Having a good surgical procedure without longterm recurrences is difficult because of all of these considerations. 1 The pressure ulcers have been rebuilt using various techniques and flap covering. Examples include the posterior thigh flap, the V-Y fasciocutaneous flap, and the gluteus maximus island flap. ...
... Pressure ulcers are extremely common in individuals with spinal cord injuries (SCIs), and more than 80% of patients with SCIs who rely on wheelchairs for mobility will have a pressure ulcer at least once during their lifetime [1][2][3][4] . Ischial pressure ulcers are particularly difficult to treat due to the high rate of recurrence, especially because they are more common in highly active patients with SCIs than in other regions of the body 1,5) . Based on our experience of treating a patient with SCI with bilateral ischial defects due to surgical treatment of pressure ulcers, we report some points for consideration in the surgical treatment of ischial osteomyelitis. ...
Article
Full-text available
Pressure ulcers are extremely common in individuals with spinal cord injuries, especially ischial pressure ulcers, which have a higher rate of recurrence and are more difficult to treat than those in other regions of the body. We report a case of a 69-year-old man with bilateral ischial defects due to surgical treatment of pressure ulcers. Previous reports have shown that when surgical resection of pressure ulcers extends beyond the ischial tuberosity to the pubic symphysis and acetabulum, the superior psoas and piriformis muscles are easily dislocated, and the pelvic ring can be unstable. Therefore, the region of resection must not extend beyond the acetabulum and pubic symphysis to achieve a stable sitting position. In this article, we discuss an anatomically safe ischial tuberosity resection.
... Originally the PAP flap was described as a pedicled option for ischiatic pressure sores (Arquette et al., 2022;Homma et al., 2001;Kim et al., 2014;Lee et al., 2009;Sharp et al., 2021) and as a free flap for head and neck reconstruction, including tongue (Heredero et al., 2021;Riera et al., 2017;Scaglioni et al., 2015). A recent expanding use is for breast reconstruction (Ahmadzadeh et al., 2007;Allen et al., 2012Allen et al., , 2016Angrigiani et al., 2001;Atzeni et al., 2021;Cho et al., 2021;Jo et al., 2022;Martinez et al., 2021;Murphy et al., 2021;Saad et al., 2012;Song et al., 2020;Yano et al., 2020). ...
Article
Full-text available
The profunda femoris artery perforator (PAP) flap has been recently popularized as an alternative option for microsurgical reconstruction. The use of PAP flap has never been reported and described for reconstruction of the upper extremities, in particular the forearm. The purpose of this case report is to describe a case suggesting the PAP flap as a further reconstructive option in the upper limb. A 16‐year‐old girl who sustained a traumatic injury to her right dominant forearm resulting in subtotal circumferential tissue loss following a road traffic accident was referred to the authors' department 2 years post‐trauma. The disabling fibrotic sequelae on her volar forearm (15 × 10 cm) resulted in a nonfunctional hand. She was unable to perform any active movement of her wrist or digits. Passive movements in the finger joints were preserved. Following debridement and reconstruction of nerves and tendons, soft tissues were resurfaced with a PAP flap. The transverse skin paddle, 12 × 7 cm, was placed distally with the adipofascial portion positioned proximally above the muscle bellies and anastomoses site. A small raw area (4 × 3 cm) was covered with an acellular dermal matrix (ADM). The postoperative course was uneventful. At 9 months postoperatively, the patient demonstrated active flexion and extension of the fingers with independent function. The patient reported satisfaction with the flap donor site and forearm resurfacing. The PAP flap can be a further option for areas requiring soft tissue coverage in patients refusing visible scars. This flap had both the advantage of reducing the morbidity and visibility of the donor site, as well as the ability to resurface a large recipient site with soft and pliable tissue, covering exposed nerves and tendons.
... The 70 mmHg of sustained pressure for 2 h can cause irreversible skin damage. 36,37 Continued pressure caused by local skin, soft tissue blood circulation disorders, ischemia and hypoxia can cause deep subcutaneous tissue, muscle, skin, and epidermal damage. Therefore, decompression is the most important factor in the prevention of a pressure ulcer. ...
Article
Full-text available
To investigate the characteristics of pressure ulcer microcirculation in SCI patients with pressure ulcer, and to provide evidence for the treatment of pressure ulcer in patients with SCI. Group 1 ( n = 12) SCI patients with pressure ulcer, 23 pressure ulcers were included. Group 2 ( n = 15) SCI patients without pressure ulcer and the control group ( n = 16) healthy adults. The application of laser Doppler perfusion imaging system (Moor FLPI) detector to the microcirculation perfusion of the sacrum area of the control group, the observation group 2 and the pressure ulcer site of the observation group 1, record the microcirculation perfusion (PU), The data of microcirculation perfusion (PU) were compared and analyzed. The correlation between microcirculation perfusion and healing time of pressure ulcer was analyzed. (1) The microcirculation perfusion was highest in the pressure ulcer center. (2) SCI patients and healthy adults had no significant difference of microcirculation perfusion at sacrococcygeal skin. (3) The lower the microcirculation perfusion of the pressure ulcer center, the longer the healing time of pressure ulcer. The healing time and the microcirculation perfusion of pressure ulcer center was negatively correlated. Microcirculation perfusion detection is a noninvasive and effective method for the determination of the scope of pressure ulcer, detection and direction judgment of pressure ulcer sinus tract, monitoring and guidance of pressure ulcer treatment, and prediction of the healing time of pressure ulcer.
... But, our future perspective is to spare muscle and use more fasciocutaneous perforator flaps for reconstruction according to evidence-based clinical practice. [17][18][19] ...
Article
Full-text available
Pela frequência e dificuldade de manejo, as úlceras sacrais demandam grande dedicação e apuro técnico do cirurgião plástico e da equipe multiprofissional, visto que as feridas sacrais possuem uma taxa de recidiva maior que 80%. Mesmo os retalhos fasciocutâneos sendo mais finos que os miocutâneos, o que pode parecer uma desvantagem, sua rotação e adaptação são mais fáceis. Além disso, o risco de recorrência após reconstruções é menor quando comparado aos retalhos miocutâneos. Com a evolução do conhecimento e das técnicas anatômicas, a aplicação clínica dos retalhos fasciocutâneos para a reconstrução sacral obteve boa aceitação como uma alternativa útil para reconstrução de lesões por pressão isquiáticas e trocantéricas. Neste trabalho demonstramos mais uma opção a ser considerada, a versatilidade do retalho bilobado fasciocutâneo e seu uso de forma não convencional, realizando uma cobertura extensa na região sacral com uso unilateral de uma área doadora lateral.
Article
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Objective The present study aims to explore the individualized treatment options for multisite pressure ulcer (PU) at various stages in elderly patients with multiple medical conditions. Methods Stages 1 and 2 PU at 146 sites were treated with closed negative pressure suction combined with continuous micro-oxygen perfusion and the local application of foam dressings, silver ion dressings, and moist burn cream. Stages 3 and 4 PU in the sacrococcygeal region were treated with skin or myocutaneous flap transplantation. Results Stages 1 and 2 PU healed after treatment with closed negative pressure suction combined with continuous micro-oxygen perfusion and dressing changes. One case died during hospitalization due to an illness. Skin or myocutaneous flap repair was conducted in 34 cases of stage 3 or 4 PU in the sacrococcygeal area. Of these cases, 28 achieved primary healing, and 6 required two or three surgeries, 5 of which received micro-skin implantation. In addition, 10 small deep PU at other sites were repaired by direct excision and suturing or local flap repair. Seven cases were transferred to other departments or hospitals due to concomitant diseases or were discharged automatically without surgical treatment. Conclusion Home care for geriatric patients is difficult. PU often occur at multiple sites because of the duration of various pressures, and different sites may demonstrate different stages because of varying degrees of pressure. When actively treating stages 3 and 4 PU, the trauma management of stages 1 and 2 PU should not be neglected.
Article
Full-text available
Introduction: Pressure sores are agonizing complications of chronically bedridden patients. The management of these lesions particularly with respect to grades III and IV lesions are chiefly surgical and involves a multidisciplinary approach. Although there are a variety of local flap options, like fasciocutaneous flaps, musculocutaneous flaps, perforator flaps, and combinations of these to choose from, there is a paucity of literature regarding which flap is better among these in terms of complication and recurrence rates. Methods: The databases searched were as follows: Cochrane Central Register of Controlled trials (January 2000 to July 2020), MEDLINE (January 2000 to July 2020), and EMBASE (January 2000 to August of 2020). Key words used were "pressure ulcer," "flaps," "surgery," "pressure sore" with limits, "human," and "English." Primary outcomes were "overall complication rates" and "recurrence rates." Overall complication was further categorized as flap necrosis, flap dehiscence, infection, and others. Results: Thirty-nine articles were included in the final analysis. There was a statistically significant difference among the various types of flaps for overall complication, flap dehiscence, infection, flap necrosis, and recurrence rates. Conclusions: Our study indicates that musculocutaneous flaps have lower recurrence rates, and combined flaps have lower complication rates. However, various other factors, like donor site morbidity, initial defect size, operating time, intraoperative blood loss, salvage options in case of recurrence, should also be considered while choosing a flap to reconstruct a defect.
Article
A gluteal perforator-based flap employing the gluteus maximus muscle perforators located around the sacrum is described. A cadaveric study disclosed the existence of several significant perforators all around the gluteal region. Among these, the parasacral perforators originating from the internal pudendal artery and lateral sacral artery have proven useful for the repair of sacral pressure sores. A total of eight decubitus in seven patients were treated with gluteal perforator-based flaps. There were no postoperative complications, such as flap necrosis and wound infection, with the exception of fistula formation in one case. This flap requires no transection or sacrifice of the gluteus maximus muscle, and elevation time for the flap is short. However, the perforators are located at various sites and thus require some careful dissection. (C)1993American Society of Plastic Surgeons
Article
After studying this article, the participant should be able to: 1. Cite risk factors for pressure sore development. 2. Detail the pathophysiology of pressure sores. 3. List the types and classification of pressure sores. 4. Consider the various nonsurgical conservative wound management strategies. 5. Describe the appropriate surgical interventions for each pressure sore type. 6. Understand the causes of recurrent pressure sores and methods of avoiding recurrence. Pressure sores are the result of unrelieved pressure, usually over a bony prominence. With an estimated 2.5 million pressure ulcers treated annually in the United States at a cost of $11 billion, pressure sores represent a costly and labor-intensive challenge to the health care system. A comprehensive team approach can address both prevention and treatment of these recalcitrant wounds. Consideration must be given to the patient's medical and socioeconomic condition, as these factors are significantly related to outcomes. Mechanical prophylaxis, nutritional optimization, treatment of underlying infection, and spasm control are essential in management. A variety of pressure sore patterns exist, with surgical approaches directed to maximize future coverage options. A comprehensive approach is detailed in this article to provide the reader with the range of treatment options available.
Article
Management of pressure sores poses a significant reconstructive challenge for plastic surgeons. Currently, there is no consensus on whether musculocutaneous, fasciocutaneous, or perforator-based flaps provide superior results for treating pressure sores. The following databases were searched: Cochrane Database of Systematic Reviews, Cochrane Central Register of Controlled Trials, LILACS (January of 1950 to November of 2010), MEDLINE (January of 1950 to November of 2010), and EMBASE (January of 1980 to November of 2010). Only articles reporting on the use of musculocutaneous, fasciocutaneous, and perforator-based flaps were included. The primary study outcomes were complication and recurrence rates. Fifty-five articles were included in the final analysis (kappa = 0.78). From this total, 28 were categorized as pertaining to musculocutaneous flaps, 13 studied fasciocutaneous flaps, and 14 evaluated perforator-based flaps. The authors' review revealed recurrence and complication rates of 8.9 and 18.6 percent, respectively, following reconstruction with musculocutaneous flaps, 11.2 and 11.7 percent following reconstruction with fasciocutaneous flaps, and 5.6 and 19.6 percent following reconstruction with perforator-based flaps. Overall, statistical analysis revealed no significant difference in complication or recurrence rates among these three techniques. The authors' review revealed that there was no statistically significant difference with regard to recurrence or complication rates among musculocutaneous, fasciocutaneous, or perforator-based flaps. This suggests that surgeons performing such reconstructive procedures may choose to consider the advantages of a specific approach rather than the complication and recurrence rates. Therapeutic, IV.
Article
We propose the profunda femoris artery perforator (PAP) flap for autologous breast reconstruction. We provide an anatomic basis for this flap. Ten cadaveric thighs were dissected. A perforator was dissected to its origin. The lengths of pedicle, vessel diameters, and weights were measured. The average distance inferior to the gluteal crease was 3.5 cm (1 to 5 cm). The average distance from the midline was 6.2 cm (3 to 12 cm). The average pedicle length was 10.6 cm. Diameters of the artery and vein averaged 2.3 mm and 2.8 mm. The flaps averaged 28 × 8 cm. The average weight was 206 g (100 to 260 g). Computed tomography angiograms of 20 thighs were examined. Measurements were taken from the gluteal crease and midline to the perforator. The average distance caudal to the gluteal crease was 4.4 cm (1.1 to 7.2 cm). The average distance lateral to the midline was 5.1 cm (2.5 to 9 cm). The data presented in this article provide an anatomic basis for the PAP flap.
Article
Perforator-based fasciocutaneous flaps for reconstructing pressure sores can achieve good functional results with acceptable donor site complications in the short-term. Recurrence is a difficult issue and a major concern in plastic surgery. In this study, we introduce a reusable perforator-preserving gluteal artery-based rotation flap for reconstruction of pressure sores, which can be also elevated from the same incision to accommodate pressure sore recurrence. The study included 23 men and 13 women with a mean age of 59.3 (range 24-89) years. There were 24 sacral ulcers, 11 ischial ulcers, and one trochanteric ulcer. The defects ranged in size from 4 × 3 to 12 × 10 cm(2) . Thirty-six consecutive pressure sore patients underwent gluteal artery-based rotation flap reconstruction. An inferior gluteal artery-based rotation fasciocutaneous flap was raised, and the superior gluteal artery perforator was preserved in sacral sores; alternatively, a superior gluteal artery-based rotation fasciocutaneous flap was elevated, and the inferior gluteal artery perforator was identified and dissected in ischial ulcers. The mean follow-up was 20.8 (range 0-30) months in this study. Complications included four cases of tip necrosis, three wound dehiscences, two recurrences reusing the same flap for pressure sore reconstruction, one seroma, and one patient who died on the fourth postoperative day. The complication rate was 20.8% for sacral ulcers, 54.5% for ischial wounds, and none for trochanteric ulcer. After secondary repair and reconstruction of the compromised wounds, all of the wounds healed uneventfully. The perforator-preserving gluteal artery-based rotation fasciocutaneous flap is a reliable, reusable flap that provides rich vascularity facilitating wound healing and accommodating the difficulties of pressure sore reconstruction.
Article
Reconstructive surgery for ischial pressure sore defects presents a challenge because of high rates of recurrence. The aim of this study was to describe the use of inferior gluteal artery (IGA) and posterior thigh perforators in management of ischial pressure sores with limited donor sites. Between September 2005 and 2009, 11 patients (9 male, 2 female) with ischial sores were operated by using IGA and posterior thigh perforator flaps. The data of patients included age, sex, cause of paraplegia, flap size, perforator of flap, previous surgeries, recurrences, complications, and postoperative follow-up. Nine IGA and 5 posterior thigh perforator flaps were used. Six patients presented with recurrent lesions, 5 patients were operated for sacral and contralateral ischial pressure sores previously. In 2 patients, IGA and posterior thigh perforator flaps were used in combination. Patients were followed for an average of 34.3 months. In 2 recurrent cases, readvancement of IGA perforator flap and gluteus maximus myocutaneous flap were treatment of choice. Treatment of patients with recurrent lesions or multiple pressure sores is challenging because of limited available flap donor sites. In this study, posterior thigh perforator flaps were preferred in patients in whom the previous donor site was the gluteal region. IGA perforator flaps were the treatment of choice in patients for whom posterior thigh region was previously used. Alternately, preserved perforators of previous conventional myocutaneous flaps enabled us to use these perforators in recurrences.
Article
The adductor magnus musculocutaneous perforator flap is a medial thigh flap whose utility is often overshadowed by that of its anatomic neighbor, the gracilis flap. It has a large, reliable pedicle and associated skin paddle. Few reports have been published describing the use of this flap as a local or free tissue transfer. The purpose of this study is to revisit and further characterize the anatomy of this extremely versatile yet underutilized flap. A total of 13 cadavers (n = 26 thighs) were dissected to identify the musculocutaneous perforators that supply the skin of the posteriomedial thigh. The vascular anatomy was studied using multiple modalities. Based on the anatomic data, a local V-Y advancement flap was designed. A total of 8 patients (n = 10 flaps) underwent reconstruction of locoregional defects. Our anatomic studies confirmed the presence of multiple parallel musculocutaneous perforators that travel through the adductor magnus muscle and course obliquely in a posterior-inferior direction. We found that the primary perforator is reliably found approximately 8 cm distal to the groin crease and 2 cm posterior to the posterior border of the gracilis muscle. We discovered that it is consistently accompanied by a separate perforator located 2 cm distally. Minimal dissection into the muscle revealed a Y-configuration of these 2 perforators. This configuration was present in 100% of the cadaveric dissections and is supplied by the first medial branch of the profunda femoris artery. Computed tomography angiograms depicted vascular arborization of the perforators supplying the flap. Clinical experience showed that complete flap survival was achieved in all of the cases. The adductor magnus perforator flap is a reliable flap that offers robust blood supply, through a consistent vascular pedicle, to an extensive skin territory. Our anatomic studies revealed the consistent presence of 2 proximal perforators in the medial thigh that are linked by an intramuscular Y-configuration that provides enhanced blood supply to a local V-Y advancement flap design. The location of the skin paddle on the proximal medial thigh allows for minimal donor-site morbidity as it can be closed primarily with a V-Y advancement flap design, obviating the need for skin grafting.
Article
Pressure ulcers are estimated to be present in more than one-third of patients with spinal cord injury. The rate of recurrence after flap surgery over last 50 years has ranged between 3 and 82 percent, with no trend toward improvement. This study seeks to identify and evaluate patient and operative characteristics associated with flap dehiscence and ulcer recurrence. A retrospective chart review of all patients who underwent pressure ulcer flap coverage between 1993 and 2008 was performed. Thirty-one demographic and operative variables were collected. Multivariate logistic regression with generalized estimating equation was used to evaluate the effect of significant variables. The primary outcome was recurrence of pressure ulcer at the operative site. Secondary outcomes included flap line dehiscence and the need for operative revision. There were 88 recurrences of pressure ulcers after flap surgery (39 percent) of 227 operations performed on 135 patients. Thirty-six flaps (16 percent) had dehiscences necessitating return to the operating room. Hemoglobin A1c less than 6 percent and previous same-site flap failure were associated with both dehiscence and recurrence (odds ratios, 2.15 and 3.84; and odds ratios, 6.51 and 3.27). Younger age and albumin less than 3.5 were associated with early flap failure (odds ratios, 5.95 and 2.45). Ischial wound location correlated with late recurrence (odds ratio, 4.01). Patients with multiple risk factors had operative success rates that approached zero. Confirmation of adequate nutritional status and strict preoperative management of blood glucose may improve operative success rates. The authors propose that operative management should be approached with trepidation, if at all, in young patients with recurrent ischial ulcers.
Article
Musculocutaneous flaps have become the first choice in the surgical repair of pressure sores, but the indication for including muscle in the transferred flaps still remains poorly defined. This study compares outcomes after muscle and non-muscle flap coverage of pressure sores to investigate whether it is still necessary to incorporate muscle tissue as part of the surgical treatment of these ulcers. A retrospective revision of 94 consecutive patients with ischial or sacral pressure sores operated between 1996 and 2002 was performed. Depending on the inclusion of muscle into the flap, the patients were divided in two groups: musculocutaneous flap group and fasciocutaneous flap group. Charts were reviewed for patient characteristics, ulcer features and reconstructive information. Data between groups were compared with emphasis on early (haematoma or seroma, dehiscence, infections, necrosis and secondary procedures) and late (recurrence) postoperative complications. A total of 37 wounds were covered with muscle and 57 wounds covered without muscle tissue. The groups were comparable in relation to age, gender, ulcer characteristics and timing for surgery. There were no significant differences in early complications between the study groups. The mean follow-up period was 3.10 ± 1.8 years (range: 0.5 to 6.7). There were no statistical differences in ulcer recurrence between the groups. The type of flap used was not associated with postoperative morbidity or recurrence in the univariate and multivariate analyses. The findings of this clinical study indicate that the musculocutaneous flaps are as good as fasciocutaneous flaps in the reconstruction of pressure sores, and they question the long-standing dogma that muscle is needed in the repair of these ulcers.
Article
The ischial area is by far the most common site for pressure sores in wheelchair-bound paraplegic patients, because most of the pressure of the body is exerted on this area in the seated position. Even after a series of successful pressure sore treatments, the site is very prone to relapse from the simplest everyday tasks. Therefore, it is crucial to preserve the main pedicle during primary surgery. Several surgical procedures, such as myocutaneous flap and perforator flap, have been introduced for the treatment of pressure sores. During a 4-year time period at our institute, we found favourable clinical results using the inferior gluteal artery perforator (IGAP) procedure for ischial sore treatment. A total of 23 patients (20 males and three females) received IGAP flap surgery in our hospital from January 2003 to January 2007. Surgery was performed on the same site again in 10 (43%) patients who had originally relapsed after undergoing the conventional method of pressure sore surgery. The average age of patients was 47.4 years (range 26–71 years). Most of the patients were paraplegic (16 cases, 70%) and others were either quadriplegic (four cases, 17%) or ambulatory (three cases, 13%). Based on hospital records and clinical photographs, we attempted to assess the feasibility and practicability of the IGAP flap procedure through comparative analysis of several parameters including the size of the defective area, treatment modalities, relapses, complications, and postoperative treatments. The average follow-up duration for 23 subjects was 25.4 months (range 5–42 months). All flaps survived without major complications. Partial flap necrosis developed in one case but secondary healing was achieved and the final outcome was not impaired. Most of the cases healed well during the follow-up period. Postoperative complications such as wound dehiscence and fistula developed in some subjects, but all healed well with a secondary treatment. A total of five cases relapsed after surgery due to tissue deficit and these were treated with bursectomy and muscle transposition flap to fill the dead space. We propose that the IGAP flap should be considered a viable alternative to other methods of ischial pressure sore surgery owing to its many advantages, which include the ability to preserve peripheral muscle tissue, the variability of flap designs, relatively good durability, and the low donor site morbidity rate.