Introduction
Brachioplasty is also referred to as an 'upper arm lift procedure.' Nearly 20,000 upper arm lifts were performed in 2019, an increase of 20% from 2015.[1] This procedure is most commonly performed in patients following massive weight loss, and 256,000 bariatric procedures were performed in 2019, representing a 31% increase since 2015.[2] Other patient groups that may request brachioplasty include patients presenting after pregnancy and those who are aging with brachial laxity. Excess skin and ptosis can result in functional problems such as intertrigo, poor hygiene, infections, and psychosocial morbidity.[3][4] Furthermore, body contouring procedures, including brachioplasty following bariatric surgery, improve satisfaction, function, and quality of life, reduce body mass index, and aid weight loss.[5][6]
Brachioplasty entails the excision of excess skin and lipodystrophy of the upper arm, which can extend onto the lateral chest wall. Patient assessment and classification of the degree of skin and subcutaneous fat excess are crucial to identify the most appropriate procedure for each patient. This is because alternatives to brachioplasty include liposuction alone or in combination with brachioplasty; additionally, there are variations of brachioplasty depending on the length and placement of the scar. Several classification systems exist to guide the surgeon in selecting the most appropriate procedure.[7][8][9][10]
Anatomy and Physiology
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Anatomy and Physiology
The upper arm is the segment between the elbow and the glenohumeral joint, incorporating the axilla. The contour of the upper arm is afforded by the underlying musculature, primarily the deltoid, biceps brachii, and triceps brachii muscles. In younger, physically fit individuals, the skin is taut, with minimal subcutaneous adiposity. The subcutaneous fat of the arm consists of 2 layers: a superficial alveolar layer and a deep lamellar layer, separated by the superficial fascial system (SFS). The lamellar layer is particularly prone to excess fat deposition.[11] The SFS of the arm is continuous with the clavipectoral and axillary fascia, contributing to the structural integrity of the upper-arm soft tissue envelope and influencing scar placement and postoperative contour.[12]
Cutaneous innervation to the inner arm and forearm is provided primarily by the medial brachial cutaneous nerve and the medial antebrachial cutaneous nerve, both of which lie deep to the SFS within the subcutaneous fat. The medial antebrachial cutaneous nerve typically divides into 2 to 3 branches that accompany the basilic vein from the medial epicondyle and penetrate the deep fascia approximately 8 cm proximal to the medial epicondyle. The medial brachial cutaneous nerve runs posterior and parallel to the basilic vein, terminating roughly 2 cm proximal to the medial epicondyle. Injury to these branches is the most common sensory complication during brachioplasty, potentially resulting in temporary or permanent paresthesia.[13][14]
The deep fascia of the arm invests the major neurovascular structures, including the median, ulnar, and radial nerves, the brachial artery and its tributaries, and the muscles of the anterior and posterior compartments. The lymphatic drainage of the upper limb follows the superficial and deep venous systems, ultimately draining to the axillary lymph nodes—a key consideration in patients with a history of prior breast or axillary surgery. The Appelt classification stratifies the degree of upper-arm and lateral-chest wall skin excess and subcutaneous fat to guide operative planning and technique selection.[9] This system integrates clinical assessment with procedural recommendations, assisting in individualized treatment planning.[8] The Appelt framework remains one of the most clinically useful systems, as it emphasizes both skin redundancy and adipose distribution, facilitating tailored surgical design and improved aesthetic outcomes (see Table 1).
Table 1. Appelt et al Classification
| Appelt et al Group | Clinical Assessment | Recommendation |
| I | Minimal skin, moderate fat | Liposuction alone (ultrasound-assisted [UAL] or suction-assisted [SAL]) |
| IIa | Moderate proximal skin, minimal fat | Limited brachioplasty |
| IIb | Moderate entire arm skin, minimal fat | Brachioplasty (possible L-shape extension) |
| IIc | Moderate arm and chest skin, minimal fat | Extended brachioplasty |
| IIIa | Moderate proximal skin, moderate fat | Staged liposuction or combined liposuction and limited brachioplasty |
| IIIb | Moderate entire arm skin, moderate fat | Staged liposuction or combined liposuction and brachioplasty |
| IIIc | Moderate arm and chest skin, moderate fat | Staged liposuction or combined liposuction and extended brachioplasty |
Indications
Brachioplasty is indicated for patients with contour deformities of the upper arm due to redundant skin and subcutaneous tissue, most commonly resulting from massive weight loss, aging, or a combination of both. The procedure removes excess skin and fat from the arm, typically extending from the axilla to the elbow, to restore a more youthful contour, symmetry, and proportionate appearance. Patients who have achieved substantial weight reduction, whether through bariatric surgery, pharmacologic weight loss (eg, glucagon-like peptide 1 receptor agonists), or lifestyle modification, often experience significant dermal laxity and ptosis that cannot be corrected solely by liposuction. Similarly, age-related changes, such as loss of skin elasticity, soft tissue descent, and localized adiposity, often warrant surgical intervention in individuals who are otherwise stable in terms of weight. Other less common indications include congenital or acquired deformities of the upper arm that cause cosmetic dissatisfaction or functional limitation.
Arm contouring procedures encompass a continuum of interventions, ranging from minimally invasive techniques—such as suction-assisted, power-assisted, or ultrasound-assisted liposuction —to nonsurgical modalities including cryolipolysis, nonablative radiofrequency, and high-intensity focused ultrasound. Formal brachioplasty remains the gold standard for patients with significant skin redundancy or ptosis.[15][16][17] Ideal candidates are nonsmokers with stable body weight, good overall health, and no uncontrolled comorbidities that may impair wound healing, such as diabetes or vascular disease. They should also demonstrate realistic expectations regarding scar placement and achievable contour improvement. In cases where excess adiposity predominates and skin tone remains adequate, liposuction alone may suffice; however, in the presence of marked skin laxity, brachioplasty, with or without adjunctive liposuction, is the preferred approach. Comprehensive preoperative evaluation of arm anatomy, skin quality, and patient goals is essential to tailor the surgical plan and ensure optimal aesthetic and functional outcomes.
Contraindications
Absolute contraindications to brachioplasty are limited but important. These include established lymphedema, peripheral arterial ischemia, and significant venous insufficiency, as well as patients at elevated risk for lymphedema, such as those with a history of axillary lymph node dissection, sentinel node biopsy with adjuvant radiotherapy, or chronic lymphatic compromise.[18] Recent literature also emphasizes caution in patients with chronic inflammatory or autoimmune conditions that impair wound healing, such as scleroderma or severe connective tissue disease. Relative contraindications are determined based on a comprehensive preoperative assessment and include a body mass index greater than 30 kg/m², unstable weight, active smoking, and poorly controlled systemic conditions (eg, diabetes mellitus, hypertension, cardiovascular disease, or nutritional deficiencies). Additional relative contraindications encompass psychiatric instability, untreated depression, or body dysmorphic disorder, as these can adversely influence postoperative satisfaction and recovery.[19]
From a technical and aesthetic standpoint, patients with minimal skin laxity (<5 cm of ptosis) or persistent adiposity unresponsive to weight reduction may be better suited to alternative contouring methods, such as liposuction or noninvasive tightening procedures, rather than formal excision. Conversely, patients with localized proximal arm laxity may benefit from a short-scar (limited-incision) brachioplasty. At the same time, those with redundant tissue extending to the lateral chest wall may require an extended brachioplasty for optimal contour. The decision between these techniques, or the decision to defer surgery, should be individualized, guided by detailed clinical examination, patient goals, and risk–benefit assessment.
Equipment
Specialized equipment is generally not required for standard brachioplasty, as a comprehensive plastic surgery instrument set is typically sufficient for performing the procedure safely and effectively. When brachioplasty is combined with liposuction, however, appropriate liposuction systems, such as suction-assisted liposuction, power-assisted liposuction, or ultrasound-assisted liposuction (UAL), should be available, depending on the surgeon’s preference and institutional resources. Tumescent infiltration with local anesthetic and epinephrine (eg, Klein solution) is routinely utilized for hemostasis, hydrodissection, and postoperative analgesia, particularly during concurrent liposuction.[20] Recent practice trends favor the use of microcannulas and closed suction drains, which have been associated with reduced seroma formation and improved contour uniformity. When energy-assisted modalities such as UAL or radiofrequency-assisted liposuction are employed, compatible temperature-monitoring and safety systems should be in place to reduce the risk of thermal injury and optimize surgical outcomes.[21]
Personnel
Working with a familiar, multidisciplinary operating team that understands the procedural nuances, human factors, and surgeons’ preferences is invaluable to achieving safe, efficient, and predictable outcomes in brachioplasty. Consistent team composition fosters seamless communication, anticipatory coordination, and effective problem-solving, key elements in minimizing intraoperative complications and maintaining surgical flow. Surgeons who routinely perform brachioplasty, whether as an isolated procedure or part of a staged body-contouring plan, generally prefer to operate with a trusted, experienced team familiar with their operative style, instrument preferences, and perioperative protocols. This continuity enhances efficiency, ensures precision in instrument handling, and supports rapid, coordinated responses to any intraoperative challenges.
At minimum, the operative team should include the primary surgeon, an anesthesiologist (for general anesthesia or conscious sedation), and a circulating nurse to oversee sterile technique and coordinate intraoperative needs. Additional key personnel typically include a scrub nurse and, when indicated, a surgical assistant or cosurgeon to assist with tissue handling, retraction, and hemostasis. For more extensive contouring procedures or those incorporating liposuction, a perioperative nurse or assistant skilled in suction-assisted techniques can further improve procedural efficiency and safety. The collective expertise and cohesive function of a well-integrated operating team are essential components in optimizing both surgical performance and patient outcomes.
Preparation
Patient Selection and Preoperative Optimization
Optimal outcomes in brachioplasty depend on meticulous patient selection, thorough preoperative evaluation, and realistic expectation setting. Patients with massive weight loss should be at least 12 months postbariatric surgery and demonstrate stable weight (within 5 kg of their target) for 3 to 6 months, ideally 1 year, to minimize the recurrence of skin laxity and reduce nutritional or metabolic complications.[22][23] A body mass index (BMI) below 30 kg/m² is generally preferred for elective contouring; however, carefully selected patients with higher BMIs may safely undergo the procedure if comorbidities are optimized and expectations are managed appropriately.[24][19] Patients with a large pre–weight-loss BMI or high ΔBMI face elevated risks of wound complications, while a persistently high current BMI is more closely linked to wound dehiscence, delayed healing, and infection.[25][24]
Smoking and Perioperative Risk
Smoking cessation is essential. Active smoking independently increases the risk of wound breakdown, flap necrosis, and infection.[26] Most surgeons recommend abstinence for at least 4 weeks preoperatively, though measurable physiologic improvements, such as enhanced mucociliary clearance, occur as early as 15 days after cessation.[27][28] For high-risk body-contouring candidates, 3 months of abstinence is preferred to reduce wound-healing complications significantly.[22]
Comorbidity and Medication Review
Comprehensive assessment and optimization of comorbidities are critical. Particular attention should be given to glycemic control in patients with diabetes, recognizing that many individuals with massive weight loss experience partial or complete remission postbariatric surgery. Evaluation for thromboembolic disease and coagulopathies, including those induced by medications, is essential. All anticoagulants, over-the-counter supplements, and herbal remedies known to increase bleeding risk, such as ginkgo, garlic, ginseng, and vitamin E, should be discontinued at least 2 weeks before surgery.[19][29]
Nutritional Assessment
Nutritional deficiencies are common in postbariatric and massive weight loss patients and may impair wound healing. Frequent deficiencies include iron, folate, vitamins B12, A, D, and E, as well as zinc and selenium.[30] Surgeons should request a comprehensive micronutrient panel and collaborate with the bariatric team, a dietitian, and the primary physician to correct any abnormalities before elective surgery. Patients on glucagon-like peptide 1 agonists may exhibit additional micronutrient or protein deficiencies due to decreased appetite and gastrointestinal side effects, warranting preoperative nutritional optimization.
Psychosocial Evaluation
A psychological and psychosocial assessment is indispensable in determining candidacy. Many massive weight loss patients harbor unrealistic aesthetic expectations or untreated psychiatric comorbidities. Study results report that up to 40% of these patients have a history of psychiatric disorders.[31] Approximately 15% may meet diagnostic criteria for body dysmorphic disorder (BDD), which significantly increases the risk of postoperative dissatisfaction even when surgical results are objectively favorable.[19][32][19] Preoperative screening using a validated BDD questionnaire (eg, the Body Dysmorphic Disorder Questionnaire or the Body Dysmorphic Disorder–Yale-Brown Obsessive-Compulsive Scale) and early referral for psychiatric evaluation are strongly recommended.
Perioperative Planning
Safe surgery depends on comprehensive perioperative planning and staging. Individuals with massive weight loss often require multiple contouring procedures, which should be staged at least 3 months apart to minimize operative and anesthesia time, blood loss, and personnel fatigue, thereby reducing complications.[19][33] The number of stages required will vary between patients and depend on several variables, including the number of surgeons operating, the number of theatre staff, the availability of multiple teams, and the patient's risk assessment. If brachioplasty is the only procedure intended, this considerably reduces the perioperative risk; however, it can be further mitigated by having 2 teams operate simultaneously, one on each arm.
Intraoperative Considerations
Intraoperatively, maintaining optimal patient positioning, normothermia, and thromboprophylaxis is paramount. Patients are placed supine with their arms abducted on arm boards and elbows flexed to 90°, with the forearms and hands draped circumferentially to allow for flexibility during the procedure.[12] Pressure points should be padded with gel cushions to prevent nerve injury. Hypothermia prevention measures include the use of warming blankets, heated gel pads, forced-air warming systems, and warmed intravenous fluids.
Venous Thromboembolism Prevention
Venous thromboembolism prevention is essential and includes intraoperative application of sequential compression devices, pharmacologic prophylaxis with low-molecular-weight heparin when indicated, and early postoperative mobilization, which should be emphasized during preoperative counseling.[19]
Technique or Treatment
There are several techniques for performing brachioplasty, which differ primarily in scar placement and the extent of tissue resection. The patient is positioned supine with the arms abducted and elbows flexed to 90°, ensuring all pressure points are padded with gel supports. Sequential compression devices are applied to the calves to reduce the risk of venous thromboembolism. Only the arms, axillae, and lateral chest are exposed, and intraoperative warming is maintained to prevent hypothermia. Antibiotic prophylaxis typically consists of a single dose of amoxicillin-clavulanate (or an equivalent agent) administered within 30 minutes of incision; additional doses are reserved for procedures exceeding 4 hours or those with blood loss exceeding 10%.[34]
Preoperative assessment should determine whether liposuction of the excision site is beneficial before skin resection. The medial (bicipital groove) incision remains the conventional approach, with cross-hatch markings used to guide precise wound closure. Variations in scar design include straight, “W,” “S,” and “L” shapes, or a Z-plasty in the axilla to reduce the risk of contracture.[12] A short-scar brachioplasty, limited to the axilla, is suitable for patients with less than 12 cm of skin ptosis from the mid-humerus to the most dependent point of hanging skin. In the Reed series of 1200 patients, this method had a 12% revision rate, most commonly for scar revision.[35] Alternatively, a posterior incision along the brachial sulcus is preferred by some surgeons for its less visible anterior scar, though it is more apparent posteriorly at rest.[36][37]
Dissection is limited to superficial subcutaneous fat, preserving a thin layer over the brachial fascia to protect the medial brachial and antebrachial cutaneous nerves.[35][38][35] The amount of skin resection is individualized through tailor tacking, allowing the surgeon to define the posterior incision safely. The anterior incision may be extended curvilinearly along the axillary dome and lateral chest wall in an extended “L”-shaped brachioplasty.[12][39] After achieving meticulous hemostasis, layered wound closure is performed, approximating the superficial fascial system, including the brachial fascia, in a 3-point closure to minimize dead space and tension.[38] The use of drains is surgeon-dependent. The wound is dressed with steri-strips and micropore tape, and compression garments are applied to the palm, forearm, and arm before repeating the procedure on the contralateral side.[10]
Multimodal analgesia is recommended, including local anesthetic infiltration before liposuction and postoperative oral analgesics (eg, paracetamol, codeine, or equivalents). Postoperatively, patients should avoid strenuous activity and driving for at least 2 weeks and continue wearing compression garments for 4 weeks. Most patients are discharged the same day, followed up in 1 week, and permitted to shower once the incision shows no signs of dehiscence or infection.
Complications
Thorough patient counseling, preoperative discussion, and detailed informed consent are essential components of safe brachioplasty practice. Clear communication regarding potential complications, need for revision, and achievable outcomes not only fosters realistic expectations but also significantly reduces postoperative dissatisfaction and medicolegal risk. Patients who have undergone massive weight loss often require multiple body-contouring procedures to address residual skin laxity and lipodystrophy affecting the arms, chest, back, abdomen, and thighs. These procedures may be performed sequentially or in combination. The combination of multiple procedures in a single session increases surgical time, physiologic stress, and the cumulative risk of complications.[40] Patients who achieved massive weight loss through bariatric surgery appear particularly susceptible to wound-healing complications, nutritional deficiencies, and delayed recovery.[25]
Incidence and Spectrum of Complications
In a meta-analysis of 29 studies involving nearly 1600 patients, the most frequently reported complications following brachioplasty were unfavorable scarring (9.9%), recurrent skin ptosis (7.8%), and wound dehiscence (6.9%). Seroma formation (5.9%) and infection (3.6%) were also relatively common. Less frequent but clinically relevant events included neuropraxia or sensory changes (2.5%), lymphedema or lymphocele (2.5%), skin necrosis or delayed healing (2.3%), and hematoma (2%).[18]
Revision surgery for aesthetic optimization was required in approximately 7.5% of patients, whereas reoperations for nonaesthetic complications were rare (1.6%). Interestingly, the addition of concurrent liposuction to brachioplasty was associated with a significantly lower overall complication rate (P <0.05), likely due to reduced tissue tension and improved flap perfusion.[18] In a prospective multicenter study of nearly 2300 patients, major complications were uncommon. The most frequently reported were hematoma (1.7%) and infection (1.1%).[41] Male sex and combined procedures independently increased the risk of hematoma, while a BMI of 30 kg/m² or greater was the strongest predictor of infection. Extended operative duration and postoperative seroma were also identified as modifiable risk factors in subsequent analyses.
Clinical Significance
Most patients report high satisfaction with the aesthetic and functional outcomes following brachioplasty. Improved arm contour, restoration of proportional body balance, and the ability to wear fitted clothing comfortably contribute significantly to enhanced self-esteem and quality of life. However, as previously discussed, the most frequent indication for secondary or revision surgery remains aesthetic refinement, typically due to residual contour irregularity, hypertrophic or widened scarring, or recurrent skin laxity. These revisions are usually minor and can often be addressed with limited scar revision, liposuction contouring, or adjunctive nonsurgical modalities such as fractional laser resurfacing or radiofrequency-assisted tightening.[18]
Patients must be counseled preoperatively that scar maturation following brachioplasty is a prolonged process. Due to the tension-bearing nature and dependent position of the upper arm, scar remodeling may take up to 12 to 18 months to achieve optimal flattening and fading, considerably longer than in other anatomic regions.[38] During this period, appropriate scar management, including the use of silicone sheeting or gel, gentle massage, sun protection, and, where indicated, intralesional corticosteroid injections, can help optimize cosmetic outcomes and minimize the risk of hypertrophic scarring. Patient education, shared decision-making, and meticulous postoperative follow-up play critical roles in maintaining patient satisfaction, reducing revision rates, and reinforcing realistic expectations about the timeline of healing and scar evolution.
Enhancing Healthcare Team Outcomes
Successful outcomes in brachioplasty depend on coordinated interprofessional collaboration that integrates surgical expertise, perioperative nursing care, anesthesia management, pharmacologic oversight, and patient education. The surgeon leads operative planning, patient selection, and intraoperative decision-making, ensuring the surgical technique aligns with each patient’s anatomy and goals. Anesthesiologists or nurse anesthetists play a critical role in optimizing perioperative safety through vigilant airway management, hemodynamic monitoring, and multimodal analgesia strategies to minimize opioid use and enhance recovery. Perioperative and circulating nurses facilitate sterile technique, patient positioning, and equipment readiness, while maintaining clear communication channels with the surgical team to anticipate needs and prevent complications.
Pharmacists support patient safety by managing antibiotic prophylaxis, reviewing postoperative pain regimens for interactions, and ensuring adherence to evidence-based protocols. Advanced clinicians (eg, physician assistants and nurse practitioners) often coordinate preoperative assessments, wound care follow-up, and patient counseling regarding scar management, activity restrictions, and warning signs of infection or dehiscence. This continuity of care, supported by nurses and physical therapists in the postoperative phase, fosters patient confidence and adherence to recovery plans.
Regular interdisciplinary communication—through operative briefings, postoperative rounds, and shared documentation—enhances patient-centered care, reduces complications, and improves both aesthetic and functional outcomes by aligning all providers toward common goals of safety, efficiency, and satisfaction. Ultimately, a collaborative, multidisciplinary approach emphasizing patient-centered planning, shared decision-making, and coordinated postoperative follow-up has been shown to enhance surgical outcomes and improve functional and psychosocial recovery in patients undergoing brachioplasty and other post-massive weight-loss body contouring procedures.[42]
Nursing, Allied Health, and Interprofessional Team Interventions
Nursing and allied health professionals play a pivotal role in optimizing perioperative and postoperative outcomes in brachioplasty. Preoperatively, nurses assist with patient education, risk assessment, and preparation, ensuring that instructions regarding weight stabilization, nutrition, smoking cessation, and venous thromboembolism prophylaxis are clearly understood. Allied health professionals, including dietitians, physical therapists, and occupational therapists, play a crucial role in optimizing nutrition, mobility, and functional recovery, particularly for patients who have undergone significant weight loss and may experience residual muscle weakness or joint strain.
Psychologists and psychiatrists provide preoperative screening and counseling to address mental health disorders, body dysmorphic tendencies, or unrealistic expectations, improving patient satisfaction and reducing postoperative psychosocial complications. Effective interprofessional communication and coordination, including handovers, shared documentation, and team briefings, ensure that each provider is aware of the patient’s risk profile, perioperative plan, and individualized care needs, thereby enhancing safety, surgical efficiency, and overall outcomes.
Nursing, Allied Health, and Interprofessional Team Monitoring
Brachioplasty is often performed as a same-day procedure. Still, high-risk individuals, including those with a BMI over 30, significant comorbidities, or undergoing combined procedures, may require overnight admission and close monitoring to ensure safety. Postoperative pain management should follow a multimodal strategy, developed in consultation with the anesthesiologist, to optimize analgesia while minimizing opioid use.
The use of closed suction drains is surgeon-dependent. Current evidence indicates that drains do not reliably reduce the incidence of seroma, and their routine use is not universally required.[43] Postoperative compression garments are frequently recommended to reduce swelling and enhance patient comfort, although robust evidence that they decrease complication rates is lacking.[12] Ongoing monitoring by nursing and allied health professionals, including assessment of pain, wound healing, mobility, and early detection of complications, is essential. Clear communication and documentation among the interprofessional team ensure timely interventions and support optimal recovery.
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