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LibraryDermatology

Dermatology · Medicine

Infantile haemangioma

Also known as Infantile haemangioma · IH · Strawberry naevus · Strawberry mark

Infantile haemangioma (IH) is the most common TUMOUR of infancy — a benign vascular neoplasm (GLUT1-positive) that undergoes a characteristic natural history of proliferation (rapid growth in the first 3-5 months) followed by slow involution (50% resolved by age 5, 90% by 9). It is distinct from congenital haemangiomas (RICH/NICH/PICH — GLUT1-negative, fully grown at birth). ISSVA classifies IH as a vascular tumour, separate from vascular malformations (PWS, venous, lymphatic). Most IH require no treatment (active non-intervention); for high-risk lesions (ulceration, obstruction, disfigurement, segmental distribution), oral propranolol (2-3 mg/kg/day) has revolutionised management as the first-line systemic agent (FDA-approved as Hemangeol). Segmental facial lesions 5 cm warrant screening for PHACES syndrome (MRI brain/MRA + echocardiogram + ophthalmology). Fellowship-level assessment demands mastery of the natural history, the GLUT1+/IH vs GLUT1-/congenital haemangioma distinction, the ISSVA classification, propranolol mechanism and monitoring, PHACES/LUMBAR syndromes, the Kasabach-Merritt trap (caused by KHE/tufted angioma, NOT IH), and the management ladder.

CoreHigh evidenceUpdated 26 July 2026
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FRCDermABDMRCPNEET-PGINICETRANZCD

Red flags

A subglottic haemangioma in an infant presenting with biphasic stridor at 4-8 weeks — airway emergency; urgent propranolol ± bronchoscopy.Periocular haemangioma in an infant — risk of amblyopia and astigmatism from visual axis obstruction; urgent ophthalmology + propranolol.Segmental facial haemangioma >5 cm — screen for PHACES syndrome (MRI brain + MRA + echocardiogram).Multiple (>5) cutaneous haemangiomas — screen liver with abdominal ultrasound for hepatic haemangiomas (risk of high-output cardiac failure).

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Exam tags

FRCDermABDMRCPNEET-PGINICETRANZCD

Red flags

A subglottic haemangioma in an infant presenting with biphasic stridor at 4-8 weeks — airway emergency; urgent propranolol ± bronchoscopy.Periocular haemangioma in an infant — risk of amblyopia and astigmatism from visual axis obstruction; urgent ophthalmology + propranolol.Segmental facial haemangioma >5 cm — screen for PHACES syndrome (MRI brain + MRA + echocardiogram).Multiple (>5) cutaneous haemangiomas — screen liver with abdominal ultrasound for hepatic haemangiomas (risk of high-output cardiac failure).

The one-line answer

Infantile haemangioma (IH) is the commonest tumour of infancy — a benign GLUT1-positive vascular neoplasm that is absent (or a faint precursor) at birth, proliferates rapidly over the first 5 months, then involutes slowly (about 50 percent gone by age 5, 90 percent by 9). It is not a congenital haemangioma (RICH, NICH, PICH — GLUT1-negative, fully grown at birth) and not a vascular malformation (present at birth, never involutes). Most IH need no treatment — watch and reassure. For the high-risk lesion — ulceration, airway, periocular, segmental, disfiguring — oral propranolol 2–3 mg/kg/day is first-line and revolutionised the field, with topical timolol for small superficial lesions.[1][6]

Three IH types (superficial red strawberry plaque, deep blue subcutaneous mass, mixed) and a natural history timeline showing proliferative → plateau → involution phases
FigureInfantile haemangioma: superficial (red strawberry), deep (blue subcutaneous mass), and mixed. Natural history: proliferative (0–5 months) then plateau (6–12 months) then involution (1–9 years; about 50 percent resolved by age 5, 90 percent by 9). (AI-generated educational illustration.)

Meet the patient

A 6-week-old girl is brought in by anxious parents because a "red spot" on her cheek, barely visible at birth, has mushroomed into a bright red, raised, lobulated strawberry plaque the size of a five-cent coin in three weeks. The parents have been told it is a birthmark that will not change; they can see it changing weekly. They want it removed.[1][6]

The two questions that settle their next five years: is this going to keep growing, and will it go away? (yes, then yes — the natural history of IH) and is this a high-risk lesion that needs propranolol now, or a low-risk one I watch? Most are low-risk; the skill is spotting the minority that are not.[1][3]

Tumour, not malformation — the ISSVA fork

The first classification decision is the one that prevents years of wrong management: is this a vascular tumour or a vascular malformation? They look alike to the untrained eye; they behave nothing alike.[5]

CategoryExamplesThe defining behaviour
Vascular tumoursInfantile haemangioma (GLUT1-positive); congenital haemangiomas RICH, NICH, PICH (GLUT1-negative); tufted angioma; kaposiform haemangioendotheliomaNeoplastic; they proliferate
Vascular malformationsCapillary (port-wine stain); venous; lymphatic; arteriovenousDevelopmental error; present at birth, grow with the child, never involute
[1] [5]

The single immunostain that settles it when the clinical picture is ambiguous is GLUT1 (glucose transporter-1): positive in infantile haemangioma, negative in congenital haemangiomas and vascular malformations. Likely of placental origin (the placental hypoxia hypothesis), IH is driven during proliferation by VEGF, FGF-2, beta-catenin and IGF-2 from a CD133-positive stem-cell population, and replaced by fibrofatty tissue during involution.[4][5]

Proliferate, plateau, involute — the defining feature

Memorise the three phases, because the natural history is the diagnosis and the treatment plan in one. IH is absent or a precursor macule at birth, then:[1][6]

  1. Proliferative phase (0–5 months) — rapid growth; about 80 percent of the final size is reached by 5 months, most of it in the first three.
  2. Plateau phase (around 6–12 months) — growth stops; the lesion stabilises.
  3. Involution phase (1–9 years) — slow spontaneous regression; roughly 30 percent resolved by age 3, 50 percent by 5, 70 percent by 7, 90 percent by 9. Residual telangiectasia, atrophy or fibrofatty tissue may remain in 20–40 percent.[1]
Three-panel infographic: panel A — IH absent at birth with telangiectatic precursor; panel B — proliferative phase 0-5 months reaching 80 percent final size; panel C — involution phase 1-9 years with 50 percent resolved by age 5 and 90 percent by age 9
FigureNatural history phases of IH. (A) Absent at birth or a precursor macule. (B) Proliferative phase 0–5 months — 80 percent of final size reached by 5 months of age. (C) Involution phase 1–9 years — 50 percent resolved by age 5, 90 percent by age 9. (AI-generated educational infographic.)

The classic trap — "it grew, so it must be a malformation": vascular malformations are present and fully formed at birth and grow only proportionately with the child. A lesion that was absent at birth and is proliferating postnatally is an IH until proven otherwise. The inverse trap — assuming a fully-grown-at-birth lesion is an IH — points to a congenital haemangioma (RICH rapidly involutes by 12–18 months; NICH never involutes; PICH partially), which is GLUT1-negative and does not respond to propranolol.[4][5]

How propranolol works — the three-phase mechanism

The drug that transformed this field works in three sequential waves, and a fellowship candidate must name each.[3][4]

GLUT1+ endothelial cell proliferation driven by VEGF/FGF/β-catenin; propranolol mechanism: vasoconstriction (β2 blockade → NO↓) + anti-angiogenesis (VEGF/FGF↓) + apoptosis (β1 blockade → Akt/PI3K↓ → caspase)
FigureIH pathogenesis: GLUT1-positive endothelial proliferation driven by VEGF, FGF, beta-catenin, IGF-2. Propranolol works in three waves: (1) vasoconstriction via beta-2 blockade lowering nitric oxide; (2) anti-angiogenesis by suppressing VEGF and FGF; (3) apoptosis of capillary endothelium via beta-1 blockade of the Akt/PI3K survival pathway. (AI-generated educational diagram.)
  1. Early (hours to days) — vasoconstriction: beta-2 blockade cuts endothelial nitric oxide, so the lesion visibly flattens and softens within 24–48 hours. This is the effect parents see first.
  2. Intermediate (weeks) — anti-angiogenesis: blockade of VEGF and FGF signalling halts endothelial proliferation and stops the growth.
  3. Late (months) — apoptosis: beta-1 blockade disables the Akt/PI3K survival pathway, driving caspase-mediated death of capillary endothelial cells and the long-term regression.[3]

Recognise the high-risk lesion

Most IH are uncomplicated; the skill is identifying the minority that threaten function or looks — and treating them early, in the proliferative phase when propranolol works best. About 10–20 percent of IH develop complications; about 60 percent sit on the head and neck.[1][3]

High-risk features and complications of IH
ComplicationClinical scenario and first move
Ulceration (commonest, about 16%)Painful, at perineum, lip, neck or folds; risk of infection, bleeding, scarring. Early white discoloration warns of impending ulceration. Pain control, topical timolol or propranolol, pulsed dye laser, anti-staphylococcal cover if infected.
Visual axis obstructionPeriocular IH risks amblyopia and astigmatism. Urgent ophthalmology plus propranolol — do not wait.
Airway obstructionSubglottic or beard-distribution IH produces biphasic stridor at 4–8 weeks. Urgent propranolol plus ENT and bronchoscopy — an airway emergency.
High-output cardiac failureHepatic haemangiomatosis when there are many cutaneous IH. Screen the liver with ultrasound; treat with propranolol, check thyroid.
DisfigurementFacial IH, especially central face and segmental. Early propranolol for best cosmetic outcome.
[1] [11]

The ulceration warning sign everyone forgets: an IH that develops a pale white discoloration is signalling impending ulceration — escalate to propranolol and protective care before the skin breaks, not after. Ulceration is most common on the lip, perineum and neck, and on large, superficial, segmental and lower-lip lesions.[11][12]

PHACES and LUMBAR — when the skin lesion is the tip

A large segmental IH is not just a skin lesion; it is the visible clue to a syndrome, and missing the screen is the recurring failure.[1][2]

PHACES acronym infographic: Posterior fossa malformations, segmental facial Haemangioma, Arterial anomalies, Cardiac defects, Eye anomalies, Sternal defects; screening protocol MRI brain/MRA/echo/ophthalmology
FigurePHACES syndrome: a large segmental facial haemangioma (over 5 cm) plus Posterior fossa malformations, Haemangioma, Arterial anomalies, Cardiac defects, Eye anomalies and Sternal defects. Screen with MRI brain plus MRA, echocardiogram and ophthalmology. (AI-generated educational figure.)

PHACES — screen a large segmental facial IH

PHACES

P Posterior fossa

Dandy-Walker, cerebellar hypoplasia — MRI brain

H Haemangioma (segmental)

Segmental facial IH over 5 cm; the index lesion

A Arterial anomalies

Cerebrovascular dysgenesis, stenosis, moyamoya; aortic coarctation — MRA

C Cardiac defects

Coarctation, aortic arch abnormalities, VSD — echocardiogram

E Eye anomalies

Coloboma, microphthalmia, persistent fetal vasculature — ophthalmology

S Sternal defects

Sternal clefting or supraumbilical raphe

[1] [2]

A lumbosacral segmental IH carries the mirror syndrome — LUMBAR (Lower body IH, Urogenital, Myelopathy, Bony, Anorectal, Renal anomalies) — and needs spinal MRI for a tethered cord.[1]

The Kasabach-Merritt trap

Kasabach-Merritt phenomenon — thrombocytopaenia with a consumption coagulopathy in an enlarging vascular lesion — is caused by kaposiform haemangioendothelioma or tufted angioma, NOT by infantile haemangioma. This is the classic exam trap, and getting it wrong sends a child down the wrong pathway. IH does not cause Kasabach-Merritt; sirolimus and vincristine, which treat KHE, are not drugs for ordinary IH.[4][5]

Differential diagnosis — the face-off

Four mimics account for most confusion; the discriminator is behaviour over time plus GLUT1.[1][5]

Congenital haemangioma (RICH, NICH, PICH)

  • Fully grown at birth — does NOT proliferate postnatally
  • GLUT1-negative
  • RICH involutes rapidly by 12–18 months; NICH never involutes; PICH partially
  • Does not respond to propranolol — observe or operate

Vascular malformation (PWS, venous, lymphatic)

  • Present at birth; grows proportionately with the child
  • Never involutes — no proliferative-then-involution cycle
  • Capillary, venous, lymphatic or arteriovenous by flow
  • GLUT1-negative; treatment by type (laser, sclerotherapy, embolisation)

Pyogenic granuloma

  • Rapidly growing, friable, bleeding papule in older children or adults
  • Not present at birth; bleeds easily
  • Excision or cautery

Tufted angioma or KHE

  • GLUT1-negative; may cause Kasabach-Merritt phenomenon
  • Purplish indurated plaque
  • Sirolimus or vincristine — not propranolol
[1]

Investigations — mostly clinical

IH is a clinical diagnosis from the history (absent at birth, proliferating) and morphology — most need no test at all. Imaging is reserved for deep, large or ambiguous lesions and for syndrome screening.[1][13]

  • Ultrasound with Doppler — for deep or subcutaneous lesions, and to separate IH from a malformation (a high-flow lesion).
  • MRI — for large, deep or ambiguous lesions, and mandatory for PHACES (brain and MRA) or LUMBAR (spine).
  • GLUT1 immunostaining on biopsy — confirms IH when the diagnosis is genuinely uncertain.
  • Abdominal ultrasound when there are 5 or more cutaneous IH, to screen the liver for hepatic haemangiomatosis.
  • FBC and coagulation only if Kasabach-Merritt is suspected (and remember it is KHE, not IH).[3][13]

Management — the ladder, risk-stratified

Treat the high-risk lesion early in the proliferative phase; leave the low-risk one alone and reassure the parents. The AAP 2019 Clinical Practice Guideline set the modern standard, and it is explicit: propranolol first-line for high-risk, topical timolol for small superficial, steroids deprecated.[3][15]

Management algorithm: assess risk → low risk (active non-intervention) → high risk (propranolol 2-3 mg/kg/day first-line; topical timolol for small superficial; steroids second-line; surgery/laser for residual)
FigureIH management: low-risk lesions get active non-intervention; high-risk lesions get oral propranolol 2–3 mg/kg/day first-line, topical timolol for small superficial lesions, corticosteroids as historical second-line, and surgery or pulsed dye laser for residual change. A segmental facial lesion over 5 cm triggers a PHACES screen. (AI-generated educational flowchart.)
[3]

Active non-intervention (most IH)

Reassure the parents with the numbers — about 50 percent resolved by age 5, 90 percent by 9 — photograph for monitoring, and review every 1–3 months through the proliferative phase. Treat residual telangiectasia or fibrofatty tissue later if it troubles the child.[1][6]

Oral propranolol — first-line systemic for high-risk IH

The target is 2–3 mg/kg/day divided twice daily, continued through the proliferative phase to about 12–15 months of age. The AAP 2019 titration: start at 0.5–1 mg/kg/day, increase by 0.5 mg/kg every 1–2 days to target, monitoring heart rate and blood pressure. A pretreatment ECG is a strong recommendation; echocardiogram if the history or exam suggests cardiac disease; and initiate the first dose in a clinical setting for infants under 3 months, with cardiac disease, or with airway involvement.[3][6][15]

The two monitoring traps. First, hypoglycaemia — propranolol masks the adrenergic warning signs, so hold the dose if the infant is vomiting or fasting (any intercurrent illness), and give doses with feeds. Second, PHACES infants titrate more slowly — they carry a stroke risk from hypotension, so image the brain and arteries first and ramp gently. Contraindications are severe asthma or bronchospasm, heart block, severe heart failure, and hypoglycaemia risk.[3][9][14]

Propranolol dosing and monitoring — the numbers

2–3 mg/kg/day
Target dose (oral)
Divided BD; titrate over 1–2 weeks from 0.5–1 mg/kg/day
0.5–1 mg/kg/day
Starting dose
Increase by 0.5 mg/kg every 1–2 days; PHACES titrates slower
6–12 months
Treatment duration
Continue through proliferative phase; may extend to 18 months
ECG first
Pretreatment screen
Strong recommendation; echo if cardiac suspicion
10–25%
Rebound growth on stopping
Usually mild; restart or extend treatment
~60%
Complete or near-complete resolution
At 3 mg/kg/day vs 4 percent placebo (NEJM 2015)
[1] [15]

Topical timolol, atenolol, and the alternatives

Topical timolol 0.5 percent gel-forming solution, one drop twice daily on the lesion, is for small (under 1 cm), thin, superficial IH where systemic therapy is unnecessary; systemic absorption is negligible, with 47–88 percent improvement in published series. Avoid it on ulcerated IH (rapid absorption through denuded skin) and in preterm infants.[3][10][14]

Atenolol — a beta-1-selective blocker, 0.5 mg/kg/day titrated to 1 mg/kg/day once daily — is non-inferior to propranolol (the Ábarzúa-Araya 2014 RCT) with fewer sleep disturbances and less bronchospasm, making it the choice for propranolol-intolerant infants or those with reactive airways; it remains off-label.[16]

Captopril is an emerging third-line for the infant who cannot take any beta-blocker (severe asthma, bradycardia, prior propranolol failure): start 0.1 mg/kg every 12 hours and up-titrate to 2 mg/kg every 12 hours, monitoring blood pressure, renal function and potassium. It is not yet first-line in any guideline.[17]

Systemic corticosteroids (prednisolone 2–3 mg/kg/day) were the pre-2008 first-line and are now second-line for propranolol failure or contraindication, with growth retardation, hypertension and immunosuppression as the price. The AAP 2019 explicitly deprecates them for uncomplicated IH. Surgery and pulsed dye laser are reserved for residual skin change after involution, small pedunculated lesions, and obstruction unresponsive to medical therapy.[3][15]

The trials that changed practice

The propranolol era began by serendipity in Bordeaux in 2007: two infants given propranolol for hypertrophic cardiomyopathy coinciding with severe facial IH watched their haemangiomas soften and flatten within 24 hours. The 2008 NEJM letter extended this to 11 more infants, all improved, none needing steroids — a chance observation that rewrote a specialty.[8]

The evidence that made it standard of care was the Léauté-Labrèze 2015 NEJM trial — 460 infants randomised to placebo, propranolol 1 mg/kg/day, or propranolol 3 mg/kg/day for 6 months. At the 3 mg/kg/day dose, 60 percent had complete or near-complete resolution versus 4 percent on placebo; 96 percent showed some improvement; serious adverse events were 1 percent (a single hypoglycaemia). That dose became the FDA-registered Hemangeol target in 2014 and the global standard.[6][7]

How IH patients come to harm — the preventable list

  • Missing subglottic IH that presents as biphasic stridor at 4–8 weeks — an airway emergency needing urgent propranolol and ENT.[1]
  • A periocular IH left without urgent ophthalmology and propranolol — permanent amblyopia and astigmatism from visual axis obstruction.[3]
  • A large segmental facial IH without a PHACES screen — missed cerebrovascular anomalies, coarctation and stroke risk.[1][2]
  • Five or more cutaneous IH without a liver ultrasound — missed hepatic haemangiomatosis and high-output cardiac failure.[3]
  • Attributing Kasabach-Merritt to IH and treating with propranolol when the lesion is a KHE needing sirolimus.[4]
  • Propranolol given without feeding guidance — masked hypoglycaemia during intercurrent illness.[9]
  • Five or more cutaneous IH without a thyroid check — consumptive hypothyroidism from hepatic IH missed.[3]

Prognosis

Excellent for most IH — near-zero mortality in uncomplicated cases, with spontaneous involution the rule. About 20–40 percent retain residual telangiectasia, atrophy or fibrofatty tissue after complete involution, addressable with pulsed dye laser or surgery in later childhood. The psychosocial burden of a facial IH is real and justifies early treatment of disfiguring lesions, because the cosmetic outcome is best when propranolol is started in the early proliferative phase.[1][2]

The mantra, and the memory device

IH complications — EMBOLIC

EMBOLIC

E Eye

Periocular IH threatens vision — amblyopia, astigmatism; urgent ophthalmology and propranolol

M Mass effect (airway)

Subglottic IH — biphasic stridor at 4–8 weeks; airway emergency

B Bleeding or ulceration

Commonest complication; lip, perineum, neck; propranolol, timolol, pulsed dye laser

O Obstruction

Airway, visual axis, feeding — each needs urgent treatment

L Liver

Five or more cutaneous IH — screen for hepatic haemangiomatosis and cardiac failure

I Infection

Impetiginisation of ulcerated IH — anti-staphylococcal cover

C Cosmetic

Facial IH — psychosocial impact; treat early for best outcome

[1] [11]

The mantra: it is the commonest tumour of infancy and it mostly goes away — GLUT1-positive, absent at birth, proliferates then involutes. Watch the low-risk lesion; propranolol the high-risk one early, and never forget the airway, the eye, the PHACES screen, the liver, and that Kasabach-Merritt is KHE, not IH.[1][3]

The viva honesty line

"I diagnose infantile haemangioma clinically from the history — absent or a precursor at birth, then rapid postnatal proliferation — and classify it by ISSVA as a GLUT1-positive vascular tumour, distinct from congenital haemangiomas and vascular malformations. Its natural history is proliferate (0–5 months), plateau (6–12), involute (1–9 years; about 50 percent by 5, 90 percent by 9). Most need no treatment beyond reassurance and photography. For high-risk lesions — ulceration, periocular, airway, segmental, disfiguring — I start oral propranolol 2–3 mg/kg/day early in the proliferative phase, with a pretreatment ECG, first-dose-in-clinic monitoring, and careful attention to hypoglycaemia; small superficial lesions get topical timolol 0.5 percent. I screen a segmental facial IH over 5 cm for PHACES with MRI brain, MRA, echocardiogram and ophthalmology, a lumbosacral IH with spinal MRI, and five or more cutaneous IH with a liver ultrasound and thyroid function. I never attribute Kasabach-Merritt to IH — that is kaposiform haemangioendothelioma."[6][15]

Ward-round test — three stems, thirty seconds each

Stem 1 — the mushrooming cheek spot (answer)

A 6-week-old has a bright red, raised, lobulated plaque on the cheek that was barely visible at birth and has grown rapidly over three weeks. What is it, and what is the plan? Model: This is a superficial infantile haemangioma in its proliferative phase — absent or a precursor at birth, then rapid growth, is the signature; GLUT1-positive. It is not a vascular malformation (those are present and stable at birth). The plan is active non-intervention with photographic monitoring every 1–3 months through proliferation, and reassurance that about 50 percent involute by age 5 and 90 percent by 9. Treat with propranolol only if it develops a high-risk feature — ulceration, periocular position, airway, or significant disfigurement.[1][6]

Stem 2 — stridor at 6 weeks with a beard-distribution IH (answer)

A 6-week-old with a segmental haemangioma over the beard area develops biphasic stridor. What is happening, and what is the move? Model: This is a subglottic haemangioma — the beard (segmental) distribution IH is the surface clue, and biphasic stridor at 4–8 weeks is the airway emergency. The move is urgent propranolol escalated to 3 mg/kg/day plus ENT and anaesthesia review and bronchoscopy. Do not wait — subglottic IH can obstruct the airway rapidly. Initiate propranolol in a monitored setting.[1][3]

Stem 3 — the large segmental facial IH and the screen (answer)

A 2-month-old has a large segmental haemangioma covering over 5 cm of the forehead and scalp. What must you do beyond the skin? Model: Screen for PHACES syndrome — a segmental facial IH over 5 cm is the index lesion. Order MRI brain plus MRA, an echocardiogram, and an ophthalmology assessment to look for posterior fossa malformations, cerebrovascular and aortic arch anomalies, cardiac defects and eye anomalies. Before propranolol, complete the imaging and titrate the dose slowly because of the stroke risk from hypotension. A lumbosacral IH would instead trigger a spinal MRI for LUMBAR syndrome and a tethered cord.[1][2]

References

  1. [1]Rodríguez Bandera AI, Sebaratnam DF, Wargon O, et al. Infantile hemangioma. Part 1: Epidemiology, pathogenesis, clinical presentation and assessment J Am Acad Dermatol, 2021.PMID 34419524
  2. [2]Leung AKC, Lam JM, Leong KF, et al. Infantile Hemangioma: An Updated Review Curr Pediatr Rev, 2021.PMID 32384034
  3. [3]Sebaratnam DF, Rodríguez Bandera AL, Wong LF, et al. Infantile hemangioma. Part 2: Management J Am Acad Dermatol, 2021.PMID 34419523
  4. [4]Holm A, Mulliken JB, Bischoff J. Infantile hemangioma: the common and enigmatic vascular tumor J Clin Invest, 2024.PMID 38618963
  5. [5]Kunimoto K, Yamamoto Y, Jinnin M. ISSVA Classification of Vascular Anomalies and Molecular Biology Int J Mol Sci, 2022.PMID 35216474
  6. [6]Léauté-Labrèze C, Harper JI, Hoeger PH. Infantile haemangioma Lancet, 2017.PMID 28089471
  7. [7]Léauté-Labrèze C, Voisard JJ, Moore N Oral Propranolol for Infantile Hemangioma N Engl J Med, 2015.PMID 26176392
  8. [8]Léauté-Labrèze C, Dumas de la Roque E, Hubiche T, et al. Propranolol for severe hemangiomas of infancy N Engl J Med, 2008.PMID 18550886
  9. [9]Biesbroeck L, Brandling-Bennett HA Propranolol for infantile haemangiomas: review of report of a consensus conference Arch Dis Child Educ Pract Ed, 2014.PMID 24242336
  10. [10]Painter SL, Hildebrand GD. Review of topical beta blockers as treatment for infantile hemangiomas Surv Ophthalmol, 2016.PMID 26408055
  11. [11]Cheng J, et al. Clinical characteristics, treatment outcomes and prognostic factors of ulcerated infantile hemangioma: 15 years of experience from a pediatric dermatology center in Hong Kong J Dermatolog Treat, 2025.PMID 41221590
  12. [12]Maguiness SM, Hoffman WY, McCalmont TH, Frieden IJ. Early white discoloration of infantile hemangioma: a sign of impending ulceration Arch Dermatol, 2010.PMID 21079059
  13. [13]Bardo DME, Gill AE, Iyer RS, et al. ACR Appropriateness Criteria® Soft Tissue Vascular Anomalies: Vascular Malformations and Infantile Vascular Tumors (Non-CNS)-Child J Am Coll Radiol, 2024.PMID 38823953
  14. [14]Kumar MG, Coughlin C, Bayliss SJ Outpatient use of oral propranolol and topical timolol for infantile hemangiomas: survey results and comparison with propranolol consensus statement guidelines Pediatr Dermatol, 2015.PMID 25556828
  15. [15]Krowchuk DP, Frieden IJ, Mancini AJ, et al. Clinical Practice Guideline for the Management of Infantile Hemangiomas Pediatrics, 2019.PMID 30584062
  16. [16]Ábarzúa-Araya A, Navarrete-Dechent CP, Heusser F, Retamal J, Zegpi-Trueba MS. Atenolol versus propranolol for the treatment of infantile hemangiomas: a randomized controlled study J Am Acad Dermatol, 2014.PMID 24656727
  17. [17]Gupta A, Kureel SN, Pandey A, et al. Angiotensin-converting Enzyme Inhibitors: Can it be a Potential Treatment of Infantile Hemangioma J Indian Assoc Pediatr Surg, 2021.PMID 34385766