Seminars in Plastic Surgery最新文献

Despite advancements in pediatric burn care, the profound hypermetabolic response associated with severe burns remains a multifaceted challenge throughout the continuum of care. Understanding the various physiologic disturbances that constitute hypermetabolism is crucial for a thorough evaluation and for implementing appropriate surgical and nonsurgical interventions. In this article, we describe the pathophysiology and treatment of hypermetabolism in pediatric burn patients with a focus on reducing resting energy requirements, minimizing infection, and optimizing nutrition for patients undergoing frequent surgical intervention.

The World Health Organization reveals that pediatric burns represent a large portion of burns globally (61). Increases in survival rates have guided clinical and research focus on physical, psychological, and social outcomes. Research on other childhood illnesses has shown the efficacy of social support throughout recovery. In the pediatric burn literature, studies have shown the efficacy of burn camps for promoting positive interactions among survivors, learning coping skills, and facilitating socialization and reintegration. However, few studies have focused on the benefits of peer support for pediatric burn survivors and their caregivers in the inpatient and outpatient phases of recovery. This descriptive paper identifies options for building resilience for pediatric burn survivors through peer support in the inpatient and outpatient phases of recovery. The authors discuss options for providing peer support during the coronavirus disease 2019 pandemic on the pediatric intensive care unit, general pediatric floor, and outpatient setting.

The goal for treating pediatric burns is to allow the patient to heal with as little scarring as possible. Compared to older children and adults, very small children have anatomic differences that alter their treatment. They have thinner skin that leads to a higher risk for full-thickness burns. Children also tend to freeze when touching a hot item, so that the prolonged contact also leads to deeper burns. Two healing strategies are needed to treat these wounds. One must optimize reepithelialization in superficial burns to reduce scarring. Deeper burns require skin grafting, but there are techniques, such as the use of “sheet” autograft skin that lead to excellent outcomes. Strategies to treat the massive pediatric burn will also be covered. Finally, there are instances where different strategies are needed to cover exposed bone or tendon. The ultimate goal is to return the skin to as normal a state as possible.

Life-saving pediatric burn care is often initiated in hospitals that are not designated as a pediatric burn center. Therefore, familiarity with critical care of pediatric burn patients is crucial for physicians working in all healthcare settings equipped to care for children. Management of airway, mechanical ventilation, preservation of ideal circulatory status, and establishment of vascular access in pediatric burn patients requires many unique considerations. This article aims to summarize important principles of critical care of children with significant burn injuries for review by physicians and surgeons working in hospitals designated as a pediatric burn center and those that stabilize these patients prior to referral.

Microsurgery has changed the ability to perform highly precise and technical surgeries through the utilization of high-powered microscopes and specialized instruments to manipulate and repair anatomical structures as small as a few millimeters. Since the first human trials of robotic-assisted microsurgery in 2006, the expansion of microsurgery to supermicrosurgery (luminal diameter less than 1 mm) has enabled successful repair of previously inaccessible structures. Surgical robotic systems can offer two distinct operative advantages: (1) minimal access surgery—by entering body cavities through ports, flap harvest can be redesigned to affect a minimally invasive approach for flaps such as the rectus abdominis muscle, the latissimus flap, and the deep inferior epigastric perforator flap; and (2) precision—by eliminating physiologic tremor, improving ergonomics, increasing accessibility to difficult spaces, and providing motion scaling, precision is significantly enhanced. Robotic-assisted microsurgery is a promising application of robotics for the plastic surgeon and has played an important role in flap harvest, head and neck reconstruction, nerve reconstruction, gender-affirming surgery, and lymphatic reconstruction—all the while minimizing surgical morbidity. This article aims to review the history, technology, and application of microsurgery and supermicrosurgery in plastic surgery.

Although substantial attention has been given to opioid prescribing in the United States, opioid-related mortality continues to climb due to the rising incidence and prevalence of opioid use disorder. Perioperative care has an important role in the consideration of opioid prescribing and the care of individuals at risk for poor postoperative pain- and opioid-related outcomes. Opioids are effective for acute pain management and commonly prescribed for postoperative pain. However, failure to align prescribing with patient need can result in overprescribing and exacerbate the flow of unused opioids into communities. Conversely, underprescribing can result in the undertreatment of pain, complicating recovery and impairing well-being after surgery. Optimizing pain management can be particularly challenging for individuals who are previously exposed to opioids or have critical risk factors, including opioid use disorder. In this review, we will explore the role of perioperative care in the broader context of the opioid epidemic in the United States, and provide considerations for a multidisciplinary, comprehensive approach to perioperative pain management and optimal opioid stewardship.