BACKGROUND: Among a cohort of patients who underwent chest wall resection and reconstruction by rigid prosthesis, 6% required removal of the prosthesis, and in 80% of these cases the indication for prosthesis removal was infection. Although artificial prosthesis removal is the primary approach in such cases of infection, the usefulness of vacuum-assisted closure (VAC) has also been reported.
METHODS: A 64-year-old man with diabetes mellitus underwent right middle and lower lobectomy with chest wall (3rd to 5th rib) resection and lymph node dissection because of lung squamous cell carcinoma. The chest wall defect was reconstructed by an expanded polytetrafluoroethylene (PTFE) sheet. Three months after surgery, the patient developed an abscess in the chest wall around the PTFE sheet. We performed debridement and switched to VAC therapy 2 weeks after starting continuous drainage of the abscess in the chest wall. The space around the PTFE sheet gradually decreased, and formation of wound granulation progressed. We performed wound closure 6 weeks after starting VAC therapy, and the patient was discharged 67 days after hospitalization.
CONCLUSIONS: We experienced a case of chest wall reconstruction infection after surgery for non-small cell lung cancer that was successfully treated by VAC therapy without removal of the prosthesis. Although removal of an infectious artificial prosthesis can be avoided by application of VAC therapy, perioperative management to prevent surgical site infection is considered essential.

We report the case of a 41-year-old man with a Morel-Lavallée lesion (MLL) that developed an infection. The patient was initially treated with intravenous antibiotics, but the infection persisted. He was then treated with outpatient cleansing and retention sutures, which resulted in successful wound healing. This case report demonstrates the efficacy of outpatient cleansing and retention sutures for the treatment of MLL infection. This treatment modality is less expensive than inpatient treatment, and it allows the patient to return to their normal activities sooner.

UNASSIGNED: Pressure ulcers (known as pressure injuries) occur when a bony prominence, such as the sacrum, is subjected to prolonged pressure and can result in soft tissue injury. Continuous and attentive repositioning is necessary to prevent and cure pressure-induced wounds.
METHODS: A 49-year-old patient who presented to the hospital with a case of paraplegia post spinal injury due to Road Traffic Accident, with a huge infected sacral bed sore and complaints of generalized weakness and fever. His ulcer was 15 cm ∗ 15 cm ∗ 8 cm, grade 4. He underwent flap reconstruction, was post-operatively transferred into the ward, and started on IV antibiotics and analgesia. The flap is well vascularized with no signs of infection or dehiscence.
UNASSIGNED: Wound management begins with the identification and aggressive management of the modifiable factors, such as positioning, incontinence, spasticity, diet, devices, and medical comorbidity, which contribute to pressure injury formation. Initial interventions include washing, cleaning, and maintaining the surfaces of the wound. In certain cases, it may be sufficient to debride the non-viable or contaminated tissue. However, operational care in more severe cases or to encourage patient satisfaction may be necessary.
CONCLUSIONS: The bilobed flap is the best technique for healing sacral pressure ulcers. It has a plentiful supply of blood. The layout is uncomplicated and straightforward. The fact that it has a low risk of complications is crucial. It ought to be taken into account as a component of the local flap arsenal for sacral pressure ulcers.

BACKGROUND: The authors reported the first pediatric case of a craniocerebral gunshot injury successfully treated with a wound vacuum-assisted closure (VAC) device after dehiscence and infection of the initial cranial wound.
METHODS: A 17-year-old boy suffered several gunshots to the left hemisphere, resulting in significant damage to the scalp, calvaria, and brain. Emergency hemicraniectomy was performed, with reconstruction of a complicated scalp wound performed at the initial surgery. The scalp was devitalized and ultimately dehisced, resulting in a cranial infection. It was treated first with a repeated attempt at primary closure, which failed because of persistent devitalized tissue, and was then treated with aggressive debridement followed by placement of a wound VAC device over the exposed brain as a bridge therapy to reconstruction. This procedure was deemed necessary given the active infection.
CONCLUSIONS: The patient received delayed reconstruction with a free split-thickness skin graft and made a remarkable recovery, with cranioplasty performed 6 months later. The authors reviewed the literature on wound VAC use in cranial wound treatment and proposed it as a legitimate bridge therapy to definitive reconstruction in the setting of dirty wounds, active infection, or even hemodynamically unstable patients.

Traumatic limb injuries are common in horses. Negative pressure wound therapy (NPWT) has been proven to promote wound healing in human medicine. It has also been described for the treatment of wounds in horses. In this retrospective study, clinical records of 42 (n = 42) animals were assessed. Categories of wounds, duration of NPWT application, frequency of resetting the NPWT device, technical complications, and tolerance to the procedure were recorded. 42 wounds were classified as bony (n = 15; 36 %), articular (n = 14; 33 %), tenosynovial (n = 9; 21%), muscular (n = 2; 5%) and cutaneous (n = 2; 5 %). NPWT was used to help (1) first intention healing by preoperative (n = 3; 7 %) or postoperative (n = 7; 17%) application, (2) second intention healing (n = 31; 74%), and (3) delayed primary closure (n = 1; 2%). Duration of NPWT application ranged from 2 to 36 days (mean 11.5), with the system staying in place for periods ranging from 1 to 7 days (mean 4.5). In 69% (n = 29) of the cases, healing was considered satisfactory at discharge. 26 % (n = 11) of horses were discharged whilst ideally NPWT should have been continued. 2 animals (n = 2; 5%) were euthanized after surgery due to unrelenting pain. The procedure was well tolerated except in 1 horse who showed signs of discomfort at the first application. This study demonstrated that NPWT with long periods of application can be used successfully to manage various types of limb wounds.

Study of negative pressure wound therapy (NPWT) safety for patients with intraoperative exposure of the dura.
We analyzed the literature on the NPWT usage after spinal surgery in patients with exposure of the dura. We also described our experience of NPWT in 3 pediatric patients with spinal dysraphism. Due to the peculiarities of the anatomy (spina bifida), all of these patients had dural sac exposure during spinal surgery.
The reasons for NPWT in all three cases were different. In the first patient with segmental spinal dysgenesis, surgery was complicated by extensive postoperative wound necrosis and the formation of soft tissue deficiency. The second patient with post-myelomeningocele kyphosis had a deficiency of soft tissues during spinal surgery due to a large bedsore at the apex of the deformity. And in the third patient also with post-myelomeningocele kyphosis, NPWT was applied with surgical site infection. In all three cases, NPWT was used when the dura was exposed, without complications and with satisfactory results. The observation period for the patients was 3 years, 2.5 years, and 2 years, respectively.
The usage of NPWT in cases of wound complications in the spinal surgery may be a useful option, which allows saving implants. NPWT is not contraindicated in cases of intraoperative dural exposure if there are no signs of cerebrospinal fluid (CSF) leak.

UNASSIGNED: Giant omphalocele and large gastroschisis remain challenging issues faced by pediatric surgeons and neonatal intensivists. In this report, we presented 3 neonatal cases with complex congenital abdo-minal wall defects that were successfully treated with vacuum-assisted closure (VAC). Case 1 had a ruptured giant omphalocele and was treated with VAC for 24 days. She was successfully discharged at 78 days old. Case 2 had large gastroschisis that was unretractable using silo reduction. She was treated with VAC for 19 days and was succes-sfully discharged at 69 days old. Case 3 had large gastroschisis, and his defect had been closed using Gore-tex after silo reduction. VAC was applied for 14 days, and the baby was discharged at 67 days old. The VAC system can be effectively used to assist with visceral reduction, promote granulation tissue development, and skin epithelialization. This method represents a life-saving treatment for neonates with giant omphalocele and large gastroschisis.

Scalp erosion is not an uncommon complication of deep brain stimulation (DBS) surgery. Although various methods have been proposed to prevent and manage complications, there are still challenges. We introduce a case of recurrent scalp erosion after DBS surgery treated with vacuum-assisted closure.
This article reports the case of a patient who underwent DBS for advanced Parkinson\'s disease and suffered from recurrent scalp erosion with device extrusion through the skin. Scalp erosion occurred 2 years after DBS and repeated improvement and deterioration despite scalp reconstruction using a skin flap. We opened the wound and performed temporal muscle reconstruction to cover the burr hole site, and we changed the exposed cable and applied vacuum-assisted closure. During the follow-up period, no signs of erosion or infection occurred, and DBS efficacy was preserved.
To date, the available management strategies for scalp erosion after DBS are revision with debridement and scalp reconstruction using skin flaps or skin grafts. However, if erosion occurs repeatedly despite the above management strategies, vacuum-assisted closure with temporalis muscle reconstruction could be a suitable option. We suggest that if the condition of the scalp is weakened, it is worth considering this approach preferentially.

BACKGROUND: Wound dehiscence (WD) of the anocutaneous anastomosis or perineal body after posterior sagittal anorectoplasty (PSARP) is common. We aimed to evaluate the efficacy of a perineal vacuum-assisted closure (VAC) for prevention of WD following repair of anorectal malformations (ARM) with rectoperineal and rectovestibular fistula.
METHODS: A retrospective dual-center case-control study of children undergoing PSARP without colostomy between 2011 and 2019 was performed. The VAC group received preoperative bowel preparation (PBP), postoperative application of a VAC, loperamide (only Location A), intravenous antibiotics (IA), and total parenteral nutrition (TPN). The non-VAC group underwent PBP, loperamide (Location A), IA, and TPN without VAC. Primary outcome was WD at the anocutaneous anastomosis or reconstructed perineal body within the first 14 days after surgery.
RESULTS: The study population included 18 patients (VAC group) and 20 children (non-VAG group) with rectoperineal and rectovestibular fistula. The incidence of WD in the VAC group was 0% compared to 25% in the non-VAC group (0/18 vs. 5/20, p = 0.04). No VAC related complications occurred.
CONCLUSIONS: Postoperative application of a VAC embedded in a perioperative treatment protocol has the potential to prevent wound dehiscence of the neoanus and reconstructed perineal body following PSARP.
METHODS: Case-control study.
METHODS: Level III.

A 62-year-old woman with a history of lung resection for lung cancer was admitted to our hospital due to cough, which became progressively more severe. She was diagnosed with chronic empyema with bronchopleural fistula (BPF) of the right upper bronchial stump. Although a pedicled muscle flap was transposed to the empyema cavity, the fistula remained. We used a vacuum-assisted closure system after open-window thoracotomy and observed the cavity reduction with expansion of the transposed muscle flap. We quantitatively evaluated the dynamics of the cavity change using a three-dimensional image analysis system. A reduction of the volume of the muscle flap by prolonged empyema and expansion of the muscle flap was observed immediately after vacuum-assisted management. However, expansion of the right residual lung was not recognized. Pedicled muscle flap transposition followed by vacuum-assisted management after open-window thoracotomy may be effective for treating chronic empyema caused by BPF.