A Multimodal Minimally Invasive Approach to Early Facial Rejuvenation

Updated: Apr 15

VJM Spring Edition 2026

Authors: Catherine E. Lyons BS, BA¹; Christa R. Haran BS²; R Graham Boyce MD³; George D. Lyons Jr MD³; Michael B. Lyons MD FACS³

Author Affiliation:

¹University of Virginia School of Medicine

²Alabama College of Osteopathic Medicine

³Department of Otolaryngology, Louisiana State University Health System

Abstract

Background

Early facial aging is characterized by subtle gravitational descent, soft-tissue volume loss, and changes in skin quality. While traditional rhytidectomy is effective for advanced aging, less invasive approaches may be more appropriate for younger patients or those with mild structural changes.

Objective

To provide an educational review of a multimodal, minimally invasive surgical approach to early facial rejuvenation, with emphasis on anatomical principles, procedural components, patient selection, outcomes, and limitations.

Methods

This review describes a combination technique incorporating facial and cervical radiofrequency assisted liposculpture, submental hammock platysmoplasty, autologous fat transfer using multilayer microinjection techniques, and medium-depth chemical peeling. Clinical experience from a consecutive patient series is used to contextualize outcomes and complications.

Results

Among 66 treated patients, the approach was associated with improvement in cervical contour, restoration of midfacial volume, and enhancement of overall facial balance. Complications were infrequent, transient, and managed conservatively.

Conclusions

A multimodal, minimally invasive strategy may provide effective rejuvenation for carefully selected patients with early facial aging. A clear understanding of the anatomical rationale and procedural limitations is essential for safe application and optimal outcomes.

Introduction

Facial aging results from a complex interplay of gravitational tissue descent, soft-tissue atrophy, skeletal remodeling, and alterations in skin quality. Traditional facelift techniques are designed to correct moderate to advanced aging changes, particularly skin laxity and jowling; however, these approaches may be disproportionate for patients with early or mild aging features. Increasingly, younger patients and patients with subtle aging changes seek interventions that provide meaningful improvement while minimizing operative extent and postoperative recovery. In addition, patients who have previously undergone facelift surgery may present with contour irregularities or volume depletion rather than significant laxity.

This educational review describes a multimodal, minimally invasive approach to early facial rejuvenation that integrates several established techniques. Rather than emphasizing procedural branding, this manuscript focuses on the anatomical rationale, technical execution, patient selection, and clinical outcomes relevant to trainees and clinicians.

Educational Framework and Methods

This manuscript is intended as an educational review of a multimodal surgical approach to early facial rejuvenation. The described technique reflects cumulative clinical experience and is presented to illustrate operative principles, indications, and limitations rather than to promote a proprietary method.

Patient Selection Principles

Appropriate patient selection is central to achieving favorable outcomes. Ideal candidates include individuals approximately 35-49 years of age with early facial aging, minimal to mild jowling, limited cervical skin laxity, and preserved skin elasticity. Patients with advanced aging changes requiring significant skin excision are not suitable candidates for this approach. Standard contraindications to elective facial surgery apply, including medical comorbidities precluding conscious sedation or tumescent anesthesia. Skin type considerations are particularly relevant when chemical peeling is incorporated.

Surgical Technique

Phase I: Facial and Cervical Liposculpture and Fat Harvesting

With the patient in the supine position, tumescent infiltration is performed using a dilute lidocaine and epinephrine solution (Klein solution: 1 L normal saline, 25 mL of 2% lidocaine, and 1 mL epinephrine 1:1000). Liposuction of the jawline and neck is carried out using a 2.5-mm flat spatula-tip cannula through three stab incisions created with an 18-gauge needle: one in the midline submental region and one posterior to each earlobe, after delivering 3kj of radiofrequency energy to each side of the neck and 2kj to each cheek and jowl region.

Autologous fat for transfer is harvested from the abdomen or thigh using a 3-mm cannula attached to 10-mL syringes. Approximately 120 mL of adipose tissue is aspirated using low negative pressure, generated by retracting the syringe plunger to half its capacity. The aspirate is centrifuged at 1800 rpm for three minutes to separate viable adipocytes from blood, oil, and tumescent fluid.

Phase II: Submental Hammock Platysmoplasty

A 3-cm submental incision is placed parallel to the mandibular border, inferior to the second submental skin crease. The medial borders of the platysma are separated with facelift scissors, and minimal subplatysmal fat is excised to enhance cervicomental definition. Using a tendon passer, the medial edge of the platysma is secured to the contralateral mastoid periosteum with 2-0 polydioxanone suture in patients with thicker necks or 2-0 polyglactin suture in patients with thinner necks. The procedure is repeated on the opposite side, allowing controlled overlap of the platysmal edges at the midline. This configuration creates a supportive sling, permitting the platysma to function as a hammock supporting the submental soft tissues. Additional buried midline plication sutures are placed for reinforcement.

*Diagram demonstrating platysma suture technique*

Phase III: Autologous Fat Transfer

Fat transfer is performed using site-specific cannulas designed for multilayer microinjection. Curved cannulas are used for the lips, melolabial and melomandibular folds, tear troughs, and chin, while straighter cannulas facilitate cheek and lateral brow augmentation. A hockey stick–shaped cannula allows access to the glabellar and medial brow regions via a mid-forehead puncture site.

Fat is injected during cannula withdrawal into subcutaneous, intramuscular, and subperiosteal planes using 1-mL syringes. Transferred volumes vary according to patient anatomy and treatment goals. Minimal overcorrection is employed, acknowledging that approximately 60% of transferred adipocytes are expected to survive long term. Severe asymmetries, when present, are managed with small volumes of diluted triamcinolone administered at three-week intervals.

Long-term follow-up demonstrates fat graft survival exceeding 50% in relatively immobile regions such as the cheeks and chin at three years in nonsmokers, with lower survival rates observed in highly mobile areas such as the lips. Post procedure case includes topical antibiotic ointment and application of a pressure dressing to the neck for one week.

Phase IV: Medium-Depth Chemical Peel

A medium-depth chemical peel is performed 7-10 days later to improve fine rhytids and dermal collagen organization. Optimal results are observed in patients with Fitzpatrick skin types I-III. A combination of 70% glycolic acid gel with 20–35% trichloroacetic acid (TCA) is applied to the face, and 15% TCA is applied to the neck. The peel is neutralized using a dilute sodium bicarbonate solution following the appearance of a uniform light frost.

Contraindications

Patients with moderate to severe jowling, significant cervical skin laxity, or advanced facial aging are excluded due to the limited capacity of this technique to excise excess skin. Additional contraindications include inability to tolerate conscious sedation and Fitzpatrick skin types IV or higher when deeper chemical peeling is required.

Complications

Among the 66 patients treated, complications were uncommon. Reported events included transient hyperpigmentation (n = 3), temporary marginal mandibular nerve weakness (n = 2), transient cutaneous numbness (n = 8), inadequate skin redraping (n = 2), and seroma formation (n = 4). All complications resolved with conservative management, and no hematomas were observed.

Discussion

Early facial aging reflects contributions from cervical adiposity, platysmal laxity, midfacial volume depletion, and surface skin changes. Addressing a single component often yields incomplete results. The multimodal approach described here is based on the principle that coordinated, modest interventions across multiple anatomical layers can produce balanced and natural-appearing rejuvenation.

Radiofrequency assisted liposculpture improves cervicomental definition and skin tightening, while hammock platysmoplasty provides structural support without extensive skin undermining. Autologous fat transfer addresses volume loss in the midface and periorbital regions, which is increasingly recognized as a primary contributor to the aged appearance. Chemical peeling enhances skin texture and dermal organization, complementing deeper structural corrections.

Volume loss following fat grafting occurs most rapidly within the first three postoperative weeks, with stabilization typically achieved by four months as neovascularization develops. Once vascularized, fat grafts demonstrate long-term persistence, with many patients maintaining results for several years, consistent with prior reports in the literature. Compared with traditional rhytidectomy, this approach offers reduced operative morbidity and recovery time but has inherent limitations. It does not adequately address significant skin excess or advanced jowling and therefore should not be considered a substitute for facelift surgery in appropriately selected older patients.

Conclusion

From an educational perspective, a multimodal, minimally invasive approach provides a useful framework for understanding the management of early facial aging. By integrating radiofrequency assisted liposculpture, submental platysmoplasty, autologous fat transfer, and chemical peeling, surgeons can address both gravitational and atrophic changes while preserving normal facial anatomy. For trainees and clinicians, this technique underscores the importance of careful patient selection, detailed anatomical assessment, and realistic goal setting. When applied judiciously, such an approach can yield durable, natural-appearing results with a favorable safety profile; however, it should be regarded as complementary to, rather than a replacement for, traditional facelift techniques.

*Above are photos taken before and after the described procedures demonstrating effective rejuvenation. Photos were used with permission of the patient.*

Limitations

This review is limited by its retrospective nature and reliance on clinical observation rather than validated patient-reported outcome measures. Follow-up duration varied among patients, and outcomes were not assessed using standardized photographic or scoring systems. Future studies incorporating objective outcome metrics and longer-term follow-up would further clarify the role of minimally invasive multimodal approaches in facial rejuvenation.

References

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Coleman SR. Long-term survival of fat transplants: Controlled demonstrations. Aesthetic Plast Surg. 1995;19:421–425.