Skin is the largest organ by surface area of the body and is essential to prevent dehydration as the first barrier to infection, permit unrestricted movement, and provide a normal profile and appearance. A skin graft is a paper-thin piece of skin that has no fat or other body tissues attached and has been completely removed from its blood supply. Therefore, a skin graft can be transferred anywhere in the body as long as where placed, the so-called recipient site, does have a sufficient blood supply to nourish the skin until new blood vessels can grow into it within a short timeframe. Otherwise, if that does not occur, the graft will shrivel up and die. The downside even of a successful skin graft is the variable final color and inharmonious appearance of the skin, a tendency to contract possibly causing deformities especially limiting motion across joints, and similar healing issues at a second wound, that is the donor site of the graft itself. Nevertheless, this is a rapidly performed surgical procedure requiring but the simplest of instrumentation for the harvest of that graft that can then permit replacement of extensive skin deficiencies. In this video article, these virtues are displayed as a split-thickness skin graft is used to replace the skin missing following the removal of a large squamous cell skin cancer of the forearm.
Occasionally, the treatment of breast cancer requires the removal of the breast while also leaving a large chest skin deficit. Especially if radiation has been done or is planned, the best way to restore the missing skin to preserve its essential function would be by the use of a vascularized flap. Sometimes this can be achieved while simultaneously providing a reconstruction of a very aesthetic breast mound. Depending on circumstances and the extent of disease, a simpler solution might be to just close only the chest wound that has been created.
A “workhorse” flap alternative that is almost always available to achieve this is the latissimus dorsi (LD) muscle from the back, as this can be moved to almost all regions of the chest. The LD muscle usually can be swung to the chest about its blood vessels that remain attached to the armpit, and so would be called a local flap that as such avoids the complexities of a transfer requiring microsurgery to reconnect the blood supply. The long-term experience by reconstructive surgeons in using the LD muscle as a local flap, not just for the chest but also the back, head, and neck, has proven its deserved accolade to be a versatile flap unparalleled by most other donor sites.
Pediatric burns are one of the most common forms of injury affecting children worldwide. Of these, hand involvement occurs in 80–90% of such incidents. With the skin in children already diffusely thinner throughout the body than adults, this provides a particular challenge for areas naturally possessing thinner skin, such as the dorsal hand. There, the cutaneous tissue is the only protection for vital structures in the hand that allow full function, such as extensor tendons, nerves, and vessels. Injury to this area early in life can have a detrimental impact on how the survivor interacts with the physical world, affecting their functional capacity and quality of life.
Here presents a case of burn contractures on the right hand of an 8-year-old boy that will be released using a split-thickness graft, along with a pigment transfer graft for his left knee and fractional CO2 laser therapy over areas of hypertrophic scar tissue on his bilateral upper extremities. The split-thickness graft will greatly decrease the tension built up from the burn contracture, while the fractional CO2 laser procedure can soften the surrounding scar, allowing mild remodeling and increased range of motion.
Burn injuries are often devastating accidents that result in long-term physical and psychosocial consequences and the formation of hypertrophic scars. Laser treatment is a low risk minimally invasive approach to treating such burn scars.
This video discusses the pulsed dye laser (PDL) and fractional ablative CO2 laser, and demonstrates their use in treating the scars on a pediatric patient who suffered from burn injuries 7 years ago in Vietnam.
The complications stemming from a poorly-healed burn wound can lead to functional deficits and overall aesthetically unfavorable results leading to psychological distress. Due to the inquisitive nature of infants and toddlers, and their nature to learn the world with their hands, their sensitive regions like the hands become likely targets for burns.
Superficial burns can be managed on an outpatient basis with spontaneous healing expected in 2 or 3 days with minimal scarring. Deep burns, particularly in pediatric populations, need considerable attention to avoid secondary contracture that leads to deformity.
Many treatment options exist, but in sensitive areas like the hands and face, full-thickness skin grafts are favored due to their superior healing and decreased likelihood of secondary contracture. This article aims to guide the surgeon in managing a pediatric burn wound with an arsenal of treatment options with the goal of achieving full mobility and functionality of the hand.
Reconstruction of external ear defects often poses various challenges due to the complex anatomy of the ear and its significant role in overall facial aesthetics. The location of the defect independently impacts the repair as various locations present distinct, additional factors to consider during planning. Specifically, defects of the superior auricle complicate the reconstructive process, due to the role of the helical root and superior rim in providing mechanical support for facial accessories such as glasses or hearing aids. The approach to reconstruction must be systematic while also being individually tailored in order to appropriately restore both optimal cosmesis and function.
The featured case involves the reconstruction of a full-thickness superior helix and auricular defect in a patient who wears eyeglasses with a cochlear implant on the same side. The discussion highlights the complexity of superior auricular reconstruction as well as the various surgical options used and challenges encountered.
Reconstruction of full-thickness scalp defects often poses various challenges depending on the complexity and characteristics of the wound as well as independent patient health factors. Despite a range of reconstructive options ranging from primary closure, adjacent tissue transfer, and autografts to free flap reconstruction, there is no universally adopted decision algorithm.
Integra, an acellular matrix composed of crosslinked bovine collagen and glycosaminoglycan covered by a silicone membrane, is widely used for scalp reconstruction and has been shown to produce excellent functional and cosmetic results.
The featured case involves staged scalp reconstruction utilizing the Integra bilayer matrix wound dressing for an elderly immunocompromised patient presenting with two adjacent full-thickness scalp defects resulting in exposed calvarial bone over the vertex. The discussion centers on determining the most optimal scalp reconstructive option and exploring the treatment algorithm used at our institution. Furthermore, application of Integra for calvarial bone coverage will be discussed.
Upper blepharoplasty is one of the most commonly performed oculoplastic procedures. It is aimed at correcting the involutional changes of the upper eyelids, characterized by loose, excess eyelid skin (dermatochalasis) and preaponeurotic fat herniation (steatoblepharon) as well as some cases of ptosis. These conditions could result in functional symptoms, such as reduced visual fields, as well as cosmetic concerns and perceived body dysmorphia.
In this case, the patient underwent upper blepharoplasty for cosmetic improvement and to remove xanthomatous lesions. This article discusses and demonstrates the preoperative assessment of the patient, the preparation, the surgical technique, and possible complications.
Maintenance of intact skin throughout the body is essential to prevent dehydration, to act as a barrier to infection, to allow unrestricted movement, and to provide a normal appearance. A flap is a piece of body tissue, usually skin and fat, that always has its own blood supply. Therefore, a flap can be moved anywhere it can reach without worrying about the circulation present at the place that needs it, which is called the recipient site. When compared with all other possible choices, a flap best meets all the requirements for any area needing skin replacement.
The keystone type flap as one such option is so named because its design has the shape of the keystone of a Roman arch. If taken from loose tissues adjacent to a defect, it can be simply cut and advanced for any necessary skin coverage. Direct closure of the donor site where this flap comes from is possible so that usually a quite good overall cosmetic result is also obtained. These virtues are shown as an overview in this video where a keystone flap is transferred after removal of a common basal cell skin cancer from the lower lip.
Local Tissue Rearrangement for Hypertrophic Chemical Burn: Z-Plasty and VY-Plasty
Daniel N. Driscoll, MD, FACS¹; Lisa Gfrerer, MD, PhD²; Robert Dabek, MD³; Aleia M. Boccardi* ¹Shriners Hospitals for Children – Boston
²Harvard Plastic Surgery Combined Residency Program
³Massachusetts General Hospital
*Touro University College of Osteopathic Medicine
Hypertrophic scarring following burn injuries has been shown to occur in up to 70% of patients, potentially causing both long-term psychological and physical morbidity. Increased rates of depression and anxiety are seen to arise from aesthetic dissatisfaction, affecting patient rehabilitation and subsequent societal interaction. Mobility is jeopardized from contractures that develop within the damaged tissue, leading to decreased range of motion and function of the area. Both sequelae leave the patient with an overall decreased quality of life.
Surgical techniques involving local tissue rearrangement, including Z-plasty and VY-plasty can be employed to improve both the function and cosmetic effects of burn scars. Essentially, these techniques illicit a decrease in tension through a lengthening of contracted tissue of up to 50–70%, allowing for better static alignment and increased mobility over joint surfaces. This video depicts the combination of both tissue rearrangement techniques as applied to hypertrophic scar contractures resulting from prior burn injuries. These techniques are an invaluable part of a reconstructive surgeons’ armamentarium when approaching scar revision.
