Textbook/Part 5/Chapter 14

Lymphedema

Primary and secondary lymphedema pathophysiology, staging, and multimodal management

16 sections
29 references
Last updated today

Background

Lymphedema is common globally; contemporary estimates vary and are method-dependent.

Primary Lymphedema

  • Congenital or genetic defects in lymphatic development.
  • Milroy disease: congenital, vascular endothelial growth factor receptor 3 (VEGFR3) mutation.
  • Meige disease: onset around puberty.
  • Late-onset primary lymphedema (20–40 yrs).
  • Management includes the use of non-pneumatic compression (NPC), which is endorsed for its clinical utility by the American Venous Forum (AVF) and the American Venous and Lymphatic Society (AVLS) (Jacobowitz 2025).

Secondary Lymphedema

  • Cancer-related: most common cause in developed countries.
    • Breast cancer-related lymphedema (BCRL) (axillary lymph node dissection, radiation); early preventive interventions, including prospective surveillance and early compression therapy, are critical in reducing incidence (Wu 2026).
    • Gynecologic malignancies (pelvic node dissection).
    • Prostate and urologic cancers.
    • Socioeconomic disparities and barriers to care, such as race and insurance status, significantly influence the prevalence and severity of BCRL (Mattia 2025).
  • Infectious:
    • Filariasis (Wuchereria bancrofti) – leading global cause.
  • Other:
    • Trauma, chronic venous insufficiency (CVI) (see 13CVI), obesity, inflammatory conditions.
    • Physical therapy remains a primary intervention for managing secondary lymphedema associated with breast cancer, with network meta-analyses confirming its effectiveness in reducing limb volume (Aguilera 2025).

Pathophysiology

  • Lymphatic transport failure → accumulation of protein-rich interstitial fluid.
  • Chronic inflammation → fibroblast activation, adipose deposition, fibrosis.
  • Progressive skin changes: hyperkeratosis, papillomatosis, lymphorrhea.
  • Immunologic dysfunction: impaired dendritic/T-cell trafficking → recurrent cellulitis.

Stages (ISL classification)

  • Stage 0: latent/subclinical.
  • Stage I: pitting edema, reversible with elevation.
  • Stage II: persistent swelling, fibrosis.
  • Stage III: elephantiasis, skin thickening, recurrent infections.

Clinical Presentation

  • Chronic, insidious swelling (usually limbs).
  • Heaviness, tightness, decreased ROM.
  • Pitting early, non-pitting later.
  • Stemmer’s sign: inability to pinch skin at base of second toe/finger.
  • Recurrent cellulitis/erysipelas.
  • In advanced cases: elephantiasis, verrucous skin changes, ulcers.

Clinical

  • History of surgery, radiation, infection.
  • Staging by ISL criteria.

Imaging

Computed tomography (CT) has a limited role in lymphedema characterization but may help exclude alternative diagnoses such as 12VTE or underlying malignancy (Markarian 2024). The characteristic honeycomb appearance of lymphedematous tissue is more consistently demonstrated on magnetic resonance imaging (MRI), which provides detailed structural information regarding subcutaneous changes (Markarian 2024). Additionally, ultrasonography (US) is often used to evaluate skin thickness and exclude venous pathology, while lymphoscintigraphy remains the clinical gold standard for the functional assessment of lymphatic transport (Markarian 2024).

Conservative (cornerstone)

Complete decongestive therapy (CDT) remains the gold standard and first-line treatment for lymphedema, consisting of an intensive decongestive phase (short-stretch multilayer bandaging, manual lymphatic drainage (MLD), exercise, and skin care) followed by lifelong maintenance with appropriately fitted compression garments. (International Society 2020)📄 (Mortimer 2014)📄 (Donahue 2023)

  • Compression: Transition from bandaging to flat-knit garments. Typical compression targets are 20–30 mmHg for the upper limb and 30–40+ mmHg for the lower limb as tolerated. Treatment should be individualized based on disease stage, patient tolerance, and comorbidities. (Donahue 2023)
  • Exercise: Supervised, progressive resistance and low-impact aerobic activity are safe and recommended with compression in place to improve lymphatic pump function. (Donahue 2023) (Annunziata 2024)
  • Infection prevention: Meticulous skin care is essential to prevent dermatological complications. Prophylactic penicillin V should be considered for patients with recurrent cellulitis.
  • Pharmacologic agents: No disease-modifying therapy is currently approved. Anti-inflammatory strategies (e.g., ketoprofen) have early-phase data but are not standard of care.
  • Adjuncts: Intermittent pneumatic compression (IPC) may be considered for selected patients as an adjunct to CDT. Weight management, skin care, and prompt treatment of cellulitis are emphasized. Antibiotic prophylaxis should be considered for patients with recurrent episodes. (International Society 2020)📄 (Thomas 2013)📄 (Rockson 2018)📄

Surgical and Interventional

1. Physiologic microsurgery

  • Lymphaticovenular anastomosis (LVA): Best suited for earlier, fluid-predominant disease. This technique aims to bypass obstructed lymphatics by creating anastomoses into venules.
  • Vascularized lymph node transfer (VLNT): Considered for selected patients with recurrent infections or failure of complete decongestive therapy, often combined with ongoing compression therapy.
  • The evidence base demonstrates volume reduction and decreased infection frequency, though heterogeneity in surgical techniques and outcome measures persists. (Basta 2014) (Mihara 2012) (International Society 2020)📄

2. Reductive surgery

3. Image-guided lymphatic interventions

  • Lymphatic embolization is established for treatment of lymphatic leaks (e.g., chylothorax) but is not indicated for extremity lymphedema. Lymphangioplasty for peripheral lymphedema remains investigational with limited supporting evidence. (International Society 2020)📄

4. Medical therapy

Follow-up

  • Lifelong compression and CDT adherence.
  • Imaging surveillance after microsurgical reconstruction.
  • Prompt antibiotics for cellulitis.
  • Patient education critical for compliance.

Guidelines

Clinical practice guidelines provide evidence-based frameworks for the management of vascular pathologies. For lower extremity peripheral artery disease (PAD), the 2024 American College of Cardiology (ACC)/American Heart Association (AHA)/Society for Vascular Surgery (SVS) guideline offers updated recommendations for screening, diagnosis, and longitudinal management (Gornik 2024). A systematic review of global PAD guidelines has emphasized the need for high-quality, standardized approaches to screening and diagnosis, noting variations in current international recommendations (Uyagu 2022).

In the management of lymphedema, specific pharmacological interventions have been evaluated: Rockson SG, et al. Pilot study of ketoprofen in lymphedema. JCI Insight. 2018. PubMed. (Rockson 2018)📄

Risk stratification and incidence of cancer-related lymphedema

Breast cancer-related lymphedema (BCRL) incidence varies by axillary management and radiation exposure. Risk is higher after axillary lymph node dissection (ALND) compared to sentinel node biopsy. Obesity and infection further increase risk. Prospective surveillance programs and early compression therapy are recommended for high-risk patients. (Di 2013) (International Society 2020)📄

Differential diagnosis and objective limb measurement

The differential diagnosis includes lipedema, phlebolymphedema, 12deep venous thrombosis with venous insufficiency (see 13CVI), and myxedema. Standard objective measurement methods include tape-derived truncated cone volume calculation, perometry, and water displacement volumetry. Diagnostic thresholds are typically defined as a ≥10% volume difference or ≥2 cm circumference difference between limbs, and these measurements are used to track treatment response. (International Society 2020)📄

Antibiotic prophylaxis for recurrent cellulitis in lymphedema

Prophylactic penicillin V should be considered for patients experiencing two or more cellulitis episodes per year. The decision should involve shared decision-making with the patient and requires periodic re-evaluation of ongoing need. (Thomas 2013)📄 (International Society 2020)📄

Patient selection and expectations for lymphatic surgery

Surgical intervention is guided by International Society of Lymphology (ISL) staging and indocyanine green (ICG) lymphography patterns. Lymphaticovenular anastomosis (LVA) is best suited for earlier, fluid-predominant disease. Vascularized lymph node transfer (VLNT) is considered for selected patients who have failed complete decongestive therapy or experience recurrent infections. Liposuction is effective for advanced fibroadipose enlargement. All surgical interventions require ongoing compression therapy. Outcomes remain heterogeneous due to variation in surgical techniques, patient selection, and outcome measures, highlighting the need for standardized outcome reporting. (Basta 2014) (International Society 2020)📄

References

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