Anophthalmia-Plus Syndrome is a very rare multiple congenital anomaly condition in which a baby is born with no eyes (anophthalmia) or very small eyes (severe microphthalmia) plus malformations in other organs. Reported associated findings include cleft lip and/or palate, facial clefts, choanal stenosis/atresia (blocked nasal passages), sacral or other neural tube defects, abdominal wall defects, ear anomalies, and limb differences. APS is described as distinct but overlaps clinically with the broader anophthalmia–microphthalmia (A/M) spectrum. Because very few cases exist, the exact genetic cause of APS is not fully defined yet. Orpha+2Genetic Diseases Center+2

In the broader A/M spectrum, single-gene variants are common—especially in SOX2, and less often OTX2, PAX6, STRA6, ALDH1A3, RARB, VSX2, RAX, FOXE3, BMP4/7, GDF3/6, and others. Some children with A/M also have pituitary hypoplasia and hypogonadotropic hypogonadism, feeding difficulties from esophageal atresia, and neurodevelopmental differences. These facts help guide evaluation and management for APS because clinical care is similar. PMC+5NCBI+5PMC+5

Anophthalmia plus syndrome is a rare condition in which a baby is born with no eyes (anophthalmia) or very small, severely under-developed eyes (severe microphthalmia), plus problems in other organs or body systems. Many—though not all—cases are caused by a harmful change (variant) in the SOX2 gene, a master “instruction” gene that guides early development of the eyes, brain, pituitary gland, esophagus (food pipe), and reproductive organs. Because SOX2 controls other genes, a defect can create a wide pattern of findings from head to toe. NCBI+2BioMed Central+2

Historically, doctors used names like “Anophthalmia-Esophageal-Genital (AEG) syndrome” or “anophthalmia/microphthalmia–esophageal atresia (A/MEA) syndrome” for this same picture—eye absence/small eyes with esophageal and genital findings—and today many experts group these together under SOX2 anophthalmia spectrum (often called anophthalmia plus because more than the eyes are involved). MedlinePlus+3PubMed+3Oxford Academic+3


Other names

Doctors and references may use one or more of the following for the same or overlapping disorder:

  • SOX2 anophthalmia syndrome

  • Anophthalmia-esophageal-genital (AEG) syndrome

  • Anophthalmia/microphthalmia–esophageal atresia (A/MEA) syndrome

  • Anophthalmia plus syndrome (umbrella term used in rare-disease catalogs)
    All of these emphasize anophthalmia or severe microphthalmia plus extra-ocular features (esophagus, pituitary, genital, brain). NCBI+2MedlinePlus+2


Types

  1. By eye involvement

    • Bilateral anophthalmia (no eyes on both sides)

    • Unilateral anophthalmia (no eye on one side)

    • Severe bilateral microphthalmia (eyes present but extremely small)
      These lie on a continuum; anophthalmia and microphthalmia often arise from the same early developmental disruption. BioMed Central

  2. By syndrome pattern

    • SOX2-related anophthalmia spectrum (classic “plus” pattern) — eye absence/small eyes with brain/pituitary, esophageal, and genital findings. NCBI+1

    • Other gene–related anophthalmia-plus phenotypes (less common), where similar multi-organ patterns occur with variants in genes such as OTX2, STRA6, ALDH1A3, BMP4, FOXE3, RAX, PAX6, VSX2/CHX10. These can also cause syndromic anophthalmia or severe microphthalmia. Wiley Online Library+1

  3. By inheritance

    • Autosomal dominant (often new/de novo) for SOX2 disorder; an affected parent can pass it on with a 50% chance each pregnancy, but most cases arise de novo (new in the child). NCBI


Causes

A “cause” here means a factor that can lead to the anophthalmia-plus pattern or a very similar syndromic anophthalmia/microphthalmia picture.

  1. SOX2 gene variants (loss-of-function, whole-gene deletions, truncating mutations). The most established cause of AEG/anophthalmia-plus; SOX2 directs early eye, brain, pituitary, and foregut development. NCBI+2PubMed+2

  2. OTX2 variants. Homeobox gene important for eye/brain; can produce severe bilateral malformations and syndromic features. Wiley Online Library

  3. STRA6 variants. Retinoic-acid (vitamin A signaling) receptor; biallelic changes cause Matthew-Wood spectrum with anophthalmia-plus. Wiley Online Library

  4. ALDH1A3 variants. Impair retinaldehyde (vitamin A pathway) conversion; linked to microphthalmia/anophthalmia with extra findings. BioMed Central

  5. RAX variants. Eye field transcription factor; severe eye malformations often syndromic. BioMed Central

  6. PAX6 variants. Classic eye development gene; usually aniridia but can contribute to microphthalmia spectrum. BioMed Central

  7. VSX2/CHX10 variants. Retinal progenitor factor; severe microphthalmia with systemic associations in some families. BioMed Central

  8. BMP4 variants. Signaling molecule for early patterning; reported in anophthalmia-plus phenotypes. BioMed Central

  9. FOXE3 variants. Lens/eye development; severe ocular defects sometimes syndromic. BioMed Central

  10. Chromosomal deletions/duplications (esp. 3q26–q27 including SOX2). Can remove SOX2 or disrupt regulation. NCBI

  11. De novo chromosomal translocations involving SOX2 region. Structural change can delete/regulate SOX2. PubMed

  12. Pituitary development pathway defects (secondary to SOX2). Lead to hypopituitarism and growth/puberty issues—part of the “plus.” JCI

  13. Foregut development disruption (secondary to SOX2). Esophageal atresia/tracheoesophageal fistula are hallmark “plus” features. NCBI

  14. Genital development disruption (hypogonadotropic hypogonadism). Cryptorchidism, micropenis, delayed puberty; due to pituitary-gonadal axis effects. NCBI

  15. Brain malformation pathways. Corpus callosum defects, hypothalamic hamartoma, seizures—reflect early brain specification issues. JCI

  16. Retinoic acid signaling imbalance (biology). Explains why vitamin-A pathway genes (STRA6/ALDH1A3) give anophthalmia-plus. BioMed Central

  17. Family history with autosomal dominant transmission of SOX2 disorder. Less common than de novo but documented. NCBI

  18. Mosaicism in a parent (hidden). A parent with low-level variant can have multiple affected children despite looking unaffected. (Inference consistent with SOX2 inheritance patterns described in case series.) NCBI

  19. Broad anophthalmia/microphthalmia gene panel–detectable causes. Modern panels identify multiple rare genes beyond SOX2. fulgentgenetics.com

  20. Unknown genetic cause. Even with testing, some cases remain unsolved; anophthalmia/microphthalmia overall is genetically diverse. BioMed Central


Symptoms and signs

Not every person has all features. Patterns vary even within the same family.

  1. No eyes or very small eyes at birth. Usually obvious on newborn exam; often both eyes are affected. NCBI

  2. Severe vision loss or blindness. With true anophthalmia there is no light perception. MedlinePlus

  3. Esophageal atresia or feeding problems. The food pipe may not connect to the stomach, or there may be a tracheoesophageal fistula—causing choking, drooling, and inability to feed. Orpha

  4. Genital differences. In males: small penis, undescended testes; in females: ovarian or uterine anomalies; in both: delayed puberty. NCBI

  5. Poor growth after birth. Due to pituitary hormone deficiency and feeding issues. NCBI

  6. Low muscle tone (hypotonia). Common in infancy; may affect feeding and motor milestones. NCBI

  7. Developmental delay or learning difficulties. Range from mild to significant. NCBI

  8. Seizures or unusual movements (spasticity/dystonia). Often linked to brain malformations. NCBI

  9. Pituitary hormone problems (hypopituitarism). Can cause low blood sugar, growth failure, and delayed puberty. JCI

  10. Hearing loss (often sensorineural). May be mild to moderate. JCI

  11. Brain structure differences. Such as absent/partial corpus callosum or hypothalamic hamartoma. JCI

  12. Facial differences and clefting. Some rare “anophthalmia-plus” catalogs note cleft lip/palate or facial clefts. Orpha

  13. Breathing troubles in newborn period. Related to TE fistula, aspiration risk, or airway anomalies. Orpha

  14. Feeding and reflux problems beyond surgery. Swallowing discoordination and reflux may persist. Orpha

  15. Behavioral and sleep difficulties. Can be secondary to neurodevelopmental issues and visual impairment (reported across SOX2 spectrum). NCBI


Diagnostic tests

A) Physical examination

  1. Newborn head-to-toe exam focused on eyes. Confirms absent or very small globes and eyelid/ocular adnexa status; helps plan imaging and prosthetic steps. BioMed Central

  2. Feeding/airway assessment. Looks for choking, cyanosis, or excessive drooling that suggest esophageal atresia or TE fistula. Orpha

  3. Genital exam and pubertal staging. Identifies cryptorchidism, micropenis, or Müllerian anomalies to trigger endocrine and imaging work-up. NCBI

  4. Neurologic exam. Tone, reflexes, seizures, and developmental screening guide brain imaging and early therapy. NCBI

  5. Growth and vital signs tracking. Monitors for hypopituitarism (poor growth) and peri-operative risks. JCI

B) “Manual” clinical tests done at the bedside

  1. Light response/menace/visual tracking checks (when eyes present). Simple behavioral observations help judge residual vision if microphthalmia exists. BioMed Central

  2. Oropharyngeal suction and nasogastric pass attempt (by clinicians). Failure to pass into the stomach suggests esophageal atresia. Orpha

  3. Genital palpation (testes position) and stretched penile length (males). Screens for hypogonadotropic hypogonadism effects. NCBI

C) Laboratory & pathological tests

  1. Chromosomal microarray (CMA). Detects deletions/duplications, including 3q26–q27 loss that removes SOX2. NCBI

  2. SOX2 single-gene sequencing + deletion/duplication analysis. First-line molecular test when anophthalmia-plus is suspected. NCBI+1

  3. Syndromic anophthalmia/microphthalmia multigene panel. Captures OTX2, STRA6, ALDH1A3, RAX, VSX2, and others if SOX2 is negative. fulgentgenetics.com+1

  4. Pituitary hormone profile. Basal and, when age-appropriate, stimulation tests for GH, ACTH/cortisol, TSH/FT4, LH/FSH, prolactin. JCI

  5. Metabolic/nutritional labs as indicated. To address growth issues (glucose, electrolytes) and peri-operative nutrition for esophageal repair. Orpha

  6. Pathology from esophageal surgery (when done). Confirms atresia/fistula anatomy and guides postoperative care. Orpha

D) Electrodiagnostic tests

  1. Electroretinography (ERG) (if a small eye is present). Measures retinal function; may be extinguished in severe microphthalmia. BioMed Central

  2. Visual evoked potentials (VEP) (when possible). Checks brain’s response to visual signals; often absent in anophthalmia, reduced in microphthalmia. BioMed Central

  3. Electroencephalography (EEG). Evaluates seizures linked to brain malformations in the SOX2 spectrum. NCBI

E) Imaging tests

  1. Orbital ultrasound or CT. Confirms absence of globe and looks for cysts, optic nerve anomalies, or calcifications; helpful for prosthetic planning. BioMed Central

  2. Brain and pituitary MRI. Looks for pituitary hypoplasia, corpus callosum defects, hypothalamic hamartoma, and other malformations that guide endocrinology and neurology care. JCI

  3. Contrast studies for esophagus (e.g., esophagram) or intra-op endoscopy. Maps atresia/tracheoesophageal fistula before surgery. Orpha

Non-Pharmacological Treatments (therapies & others)

  1. Early socket expansion with clear conformers to stimulate bony orbital and soft-tissue growth; changed progressively by an ocularist. Purpose: promote symmetrical facial growth and prepare for prosthesis. Mechanism: gentle, continuous tissue expansion. JAAPOS+1

  2. Custom ocular prosthesis fitting once adequate volume is achieved. Purpose: cosmesis and lid support. Mechanism: prosthesis occupies socket volume and supports eyelids. NCBI

  3. Serial expander therapy (e.g., hydrogel or staged conformers) in infancy when rapid growth is needed. Purpose: faster soft-tissue expansion. Mechanism: osmotic swelling or staged size increases. PMC

  4. Dermis-fat graft (when volume deficit persists). Purpose: autologous bulk to the socket. Mechanism: living tissue graft integrates and grows with the child. NCBI

  5. Eyelid reconstruction (e.g., ptosis repair, canthoplasty) if lid malposition prevents expansion. Purpose: improve lid function and coverage. Mechanism: surgical repositioning/shortening/lengthening. NCBI

  6. Cleft lip/palate repair on standard craniofacial timelines. Purpose: improve feeding, speech, and growth. Mechanism: surgical closure and alignment. Genetic Diseases Center

  7. Choanal atresia repair if present. Purpose: secure nasal airway. Mechanism: endoscopic opening and stenting. Genetic Diseases Center

  8. Feeding and swallowing therapy (with or without gastrostomy if severe esophageal issues). Purpose: safe nutrition and weight gain. Mechanism: compensatory strategies, texture modification, devices. MedlinePlus

  9. Endocrine evaluation and therapy planning for pituitary hypoplasia/hypogonadism. Purpose: normal growth/puberty and stress response. Mechanism: replace deficient hormones (see meds section). NCBI+1

  10. Developmental and early-intervention services. Purpose: optimize motor, language, and cognitive skills. Mechanism: structured therapy programs from infancy. NCBI

  11. Orientation & mobility training / educational support (for unilateral cases: protect the seeing eye). Purpose: independence and school readiness. Mechanism: skills training, protective eyewear. Cleveland Clinic

  12. Psychological counseling and family support. Purpose: coping, resilience, and adherence. Mechanism: therapy, peer support, social resources. Cleveland Clinic

  13. Genetic counseling for recurrence risk and testing cascade in family. Purpose: informed family planning and surveillance. Mechanism: explain inheritance/testing options. NCBI

  14. Hearing assessment and speech therapy if speech/hearing concerns coexist. Purpose: communication and learning. Mechanism: audiology plus language therapy. Lippincott Journals

  15. Seizure evaluation and neurorehab when neurological signs exist. Purpose: safety and function. Mechanism: EEG, therapy programs. NCBI

  16. Occupational therapy for activities of daily living. Purpose: self-care and fine motor skills. Mechanism: task-specific training. Cleveland Clinic

  17. Social work navigation for devices, transport, benefits, and schooling. Purpose: reduce practical barriers. Mechanism: linkage to services. Cleveland Clinic

  18. Infection prevention in socket care (hygiene education). Purpose: reduce discharge and irritation. Mechanism: cleaning routines and follow-up. NCBI

  19. Protective head/face gear during sports for unilateral cases. Purpose: protect the functioning eye. Mechanism: polycarbonate eyewear/shields. Cleveland Clinic

  20. Care coordinator / case management across specialties. Purpose: organized, on-time care. Mechanism: single point of contact to sync referrals and surgeries. NCBI


Drug Treatments

Important truth up front: there is no drug that regrows an eye. Medicines are used to treat associated problems (e.g., pituitary hormone deficiencies, airway or reflux symptoms, pain, infections, post-op care). Doses are individualized by specialists; always follow local pediatric protocols. NCBI+1

  1. Hydrocortisone (physiologic glucocorticoid replacement)
    Class: corticosteroid. Use: adrenal insufficiency from pituitary defects. Purpose: replace cortisol; protect during illness/surgery. Mechanism: activates glucocorticoid receptors to support metabolism and stress response. Side effects: with excess—weight gain, hypertension, hyperglycemia. Oxford Academic

  2. Levothyroxine
    Class: thyroid hormone. Use: central hypothyroidism with pituitary hypoplasia. Purpose: normal metabolism and neurodevelopment. Mechanism: T4 replacement → T3 in tissues. Side effects: overtreatment causes tachycardia, irritability, poor weight gain. NCBI

  3. Desmopressin (DDAVP)
    Class: vasopressin analog. Use: central diabetes insipidus (if present). Purpose: control polyuria/polydipsia. Mechanism: V2-receptor agonist concentrates urine. Side effects: hyponatremia if excess. NCBI

  4. Recombinant human growth hormone (somatropin)
    Class: peptide hormone. Use: growth hormone deficiency. Purpose: normal linear growth. Mechanism: stimulates IGF-1 axis. Side effects: pseudotumor cerebri (rare), edema, SCFE risk. NCBI

  5. Pubertal induction hormones (e.g., estradiol in girls, testosterone in boys)
    Class: sex steroids. Use: delayed puberty from hypogonadotropic hypogonadism. Purpose: sexual maturation, bone health. Mechanism: replace deficient gonadal steroids. Side effects: acne, mood changes; monitor bone age. NCBI

  6. Gonadotropins (hCG/FSH) in selected hypogonadism cases later in life
    Class: pituitary hormone analogs. Use: fertility induction when appropriate. Purpose: spermatogenesis/ovulation. Mechanism: stimulate gonads directly. Side effects: ovarian hyperstimulation (in females), gynecomastia (in males). NCBI

  7. Proton-pump inhibitors/H2 blockers (for esophageal atresia repairs or reflux)
    Class: acid suppression. Purpose: symptom relief, protect anastomosis. Mechanism: reduce gastric acid. Side effects: diarrhea, rare hypomagnesemia with long use. MedlinePlus

  8. Analgesics (acetaminophen ± cautious opioids post-op)
    Class: analgesics. Purpose: post-surgical comfort. Mechanism: central COX inhibition (acetaminophen); opioid receptor agonism (opioids). Side effects: hepatotoxicity risk (APAP overdose), constipation/respiratory depression (opioids). NCBI

  9. Topical ocular-surface lubricants (for prosthesis/socket comfort)
    Class: artificial tears/ointments. Purpose: reduce friction/discharge around conformer/prosthesis. Mechanism: tear film supplement and barrier. Side effects: transient blur; preservative irritation (pick pediatric-friendly options). NCBI

  10. Topical/short-course systemic antibiotics when clinically indicated
    Class: antimicrobials. Purpose: treat true socket or surgical-site infection. Mechanism: pathogen-specific. Side effects: vary by agent; avoid unnecessary use. NCBI

  11. Nasal steroids/saline post-airway surgery (choanal atresia) per ENT
    Class: anti-inflammatory / irrigation. Purpose: reduce edema, keep stents clear. Mechanism: local steroid effect; saline cleanses. Side effects: minor epistaxis/irritation. Genetic Diseases Center

  12. Antiepileptic medicines if seizures present
    Class: antiseizure drugs. Purpose: seizure control. Mechanism: agent-specific neuronal stabilization. Side effects: agent-specific; monitor cognition and labs. NCBI

  13. Iron, vitamin D, calcium (deficiency correction only)
    Class: supplements. Purpose: correct lab-proven deficits; support growth and bone health. Mechanism: replace lacking nutrients. Side effects: GI upset (iron); hypercalcemia risk if overdosed. Cleveland Clinic

  14. Inhaled bronchodilators/ICS if comorbid airway reactivity post-ENT issues
    Class: respiratory. Purpose: symptom relief. Mechanism: smooth muscle relaxation / anti-inflammatory. Side effects: tremor (SABA), oral thrush (ICS). Cleveland Clinic

  15. Antireflux prokinetics (select cases)
    Class: motility agents. Purpose: reduce regurgitation in complex esophageal repairs. Mechanism: enhance gastric emptying. Side effects: extrapyramidal effects with some agents—use cautiously. MedlinePlus

  16. Stool softeners during post-op opioid use
    Class: laxatives. Purpose: prevent constipation. Mechanism: soften stool/increase motility. Side effects: cramping/diarrhea if excessive. NCBI

  17. Emergency stress-dose steroids education kit (for adrenal insufficiency)
    Class: hydrocortisone IM kit. Purpose: life-saving coverage during illness/trauma. Mechanism: temporary high-dose glucocorticoid. Side effects: minimal in emergencies; teach families thoroughly. Oxford Academic

  18. Antiemetics post-op or with reflux
    Class: dopamine/serotonin antagonists, etc. Purpose: nausea control. Mechanism: central receptor blockade. Side effects: extrapyramidal effects or QT prolongation—pick child-safe options. NCBI

  19. Antibiotic prophylaxis only for specific surgeries per local protocols
    Class: antimicrobials. Purpose: reduce surgical site infection risk. Mechanism: peri-op coverage. Side effects: agent-specific; avoid routine overuse. NCBI

  20. Allergy meds (antihistamines) for prosthesis-related irritation when allergic
    Class: H1 blockers. Purpose: itch/watery discharge control. Mechanism: histamine receptor antagonism. Side effects: drowsiness (1st gen). NCBI


Dietary Molecular Supplements

There is no supplement that can restore an absent eye. Nutrition supports general growth, bone health, and healing after surgeries. Use supplements only to correct proven deficiencies and avoid megadoses. Very high vitamin A in pregnancy is teratogenic, while severe deficiency in pregnancy is also harmful—so balance, not extremes, is the rule. CDC+2NCBI+2

  1. Vitamin D (correct deficiency only): supports bone/mineralization; dosing per pediatrics. Mechanism: improves calcium absorption. Cleveland Clinic

  2. Calcium (if low intake or documented deficit): supports bone health, especially with steroid or endocrine therapies. Mechanism: mineral substrate. Cleveland Clinic

  3. Iron (if iron-deficiency anemia): improves hemoglobin and growth. Mechanism: hemoglobin synthesis. Cleveland Clinic

  4. Iodine (through iodized salt): supports thyroid hormone production. Mechanism: essential micronutrient for T4/T3. Cleveland Clinic

  5. Zinc (deficiency correction): supports wound healing and growth. Mechanism: cofactor in enzymes. Cleveland Clinic

  6. Omega-3 fatty acids (dietary): general cardiometabolic and anti-inflammatory support; no effect on socket development. Mechanism: membrane lipid modulation. Cleveland Clinic

  7. Protein adequacy (whey/food): supports growth and surgical recovery. Mechanism: provides amino acids for tissue repair. Cleveland Clinic

  8. Folate (age-appropriate RDA): for general health; (note: periconceptional folate prevents neural tube defects—not postnatal APS). Mechanism: one-carbon metabolism. BioMed Central

  9. Avoid megadose Vitamin A outside medical advice; in pregnancy it is teratogenic. Mechanism: retinoid pathway dysregulation. NCBI+1

  10. General balanced diet (whole foods; adequate calories): supports normal growth curves and recovery. Mechanism: broad micronutrient sufficiency. Cleveland Clinic


Immunity-booster / Regenerative / Stem-cell Drugs

There are no approved “immunity boosters,” regenerative drugs, or stem-cell medicines that can restore absent eyes or reverse APS. Offering or advertising such treatments to children outside a regulated clinical trial is not evidence-based and may be unsafe or illegal. Current standard care is prosthetic/oculoplastic, endocrine, and supportive; research continues into eye development biology, but no clinical regenerative drug is available for anophthalmia. Safer alternatives include enrollment in legitimate registries or research studies via your tertiary center’s genetics/ophthalmology teams. NCBI+1


Surgeries

  1. Serial socket expansion procedures (office or OR): place progressively larger conformers or expanders in infancy/early childhood to grow soft tissues and stimulate orbital bone; this prepares for a stable prosthesis and symmetric face. JAAPOS+1

  2. Dermis-fat graft (DFG) to the socket: autologous tissue transplanted to increase volume when external expansion is insufficient; adds living volume that can grow with the child. NCBI

  3. Eyelid reconstruction (e.g., canthoplasty/ptosis repair): correct lid malposition to cover and protect the socket, allow prosthesis retention, and improve appearance. NCBI

  4. Cleft lip/palate repair: staged repairs per craniofacial timelines to improve feeding, speech, and facial form. Genetic Diseases Center

  5. Choanal atresia repair: endoscopic opening and stenting to secure nasal breathing, especially critical in neonates. Genetic Diseases Center


Preventions

  1. Avoid isotretinoin and other oral retinoids in pregnancy; follow iPLEDGE-style precautions. NCBI+1

  2. Avoid thalidomide in pregnancy and related analogs. PMC+1

  3. Correct maternal vitamin A deficiency but avoid megadoses; keep intake in the recommended range. PMC

  4. Vaccinate against rubella and manage infections pre-pregnancy as advised. CDC

  5. Avoid solvent/toxin exposure and unnecessary radiation during pregnancy. BioMed Central

  6. Control maternal diabetes and chronic illnesses before conception. CDC

  7. Use folic acid per guidelines before conception and in early pregnancy (prevents neural tube defects; general fetal benefit). BioMed Central

  8. Early prenatal care and anomaly scanning in high-risk pregnancies. BioMed Central

  9. Genetic counseling for families with a history of A/M or known variants. NCBI

  10. Avoid hyperthermia (hot tubs/saunas) early in pregnancy as part of general teratogen caution. Wiley Online Library


When to see doctors

Right away in newborns: noisy breathing or poor breathing through the nose (possible choanal atresia), poor feeding or choking (possible esophageal anomaly), dehydration or very frequent urination (possible central diabetes insipidus), jaundice or fever, seizures, or very low energy. Soon: concerns about growth, delayed milestones, ambiguous or under-developed genitalia, or very small/absent eye(s). Ongoing: regular visits with ophthalmology/oculoplastics, endocrinology, ENT/craniofacial, genetics, and developmental pediatrics. Genetic Diseases Center+1


What to eat & what to avoid

Eat: a balanced, age-appropriate diet with enough calories and protein (dairy/alternatives, legumes, fish/meat/eggs if used, fruits/vegetables, whole grains). Correct documented deficiencies (iron, vitamin D, iodine, calcium) under medical guidance. Avoid: “megadose” vitamins without indication—especially high-dose vitamin A; unregulated “immune boosters” or “stem-cell” products; and extreme/restrictive diets that risk growth failure. For pregnant or planning mothers: avoid isotretinoin/retinoids and thalidomide; keep vitamin A intake within recommendations. Cleveland Clinic+2NCBI+2


Frequently Asked Questions

  1. Is APS the same as SOX2 anophthalmia syndrome?
    Not exactly. APS is a rare clinical label for anophthalmia with extra malformations; SOX2-related disorders are a defined genetic cause within the broader A/M spectrum and often include endocrine and neurologic features. Orpha+1

  2. Can medicines regrow eyes?
    No. Medicines treat associated conditions (e.g., hormones), not the missing eye. Socket growth is achieved with conformers/prosthetics and surgeries. NCBI+1

  3. Will the face grow normally without treatment?
    Without expansion/prosthesis, orbital and midface growth can be asymmetrical. Early expansion helps guide growth. PMC+1

  4. Is APS inherited?
    APS itself is poorly defined genetically; however, many A/M cases are due to single-gene variants (e.g., SOX2, OTX2, PAX6, ALDH1A3, etc.). Genetic counseling/testing is recommended. ScienceDirect+1

  5. What endocrine problems should we watch for?
    Pituitary hypoplasia can cause adrenal, thyroid, growth, water balance, and puberty issues; endocrinology will screen and replace hormones. NCBI+1

  6. Can we delay socket expansion until school age?
    Early infancy is preferred to guide bony and soft-tissue growth; delays make symmetry harder. PMC+1

  7. Are “stem-cell eye drops” or regenerative injections available?
    No approved regenerative drugs exist for anophthalmia; avoid unproven clinics. NCBI+1

  8. Will a prosthesis move naturally?
    With good socket volume and lid support, cosmesis is high; movement is limited compared to a natural eye but often acceptable. NCBI

  9. Can unilateral APS children live normal lives?
    Yes—protect the seeing eye, use school supports, and continue regular checkups. Cleveland Clinic

  10. Is pregnancy safe after taking isotretinoin?
    Only after appropriate washout and medical clearance; isotretinoin is highly teratogenic during pregnancy. NCBI+1

  11. What imaging or tests are typical?
    Tailored to the child: MRI brain/pituitary, airway/endoscopy, craniofacial assessment, endocrine labs, genetics panels. NCBI

  12. Does vitamin A help after birth?
    No evidence supports vitamin A after birth to change eye development; in pregnancy, both deficiency and excess are harmful—keep within recommended range only. PMC+1

  13. How often do conformers need changing?
    Frequently in infancy (weeks to months) to keep pace with growth; schedules are individualized by the ocularist/surgeon. JAAPOS

  14. What about schooling and development?
    Early-intervention, mobility training, and educational plans (IEP/504) support optimal outcomes. Cleveland Clinic

  15. Where can families find reliable information?
    Tertiary pediatric ophthalmology/genetics centers, GeneReviews (SOX2 disorders), Orphanet, GARD, and national birth-defect resources. NCBI+2Orpha+2

Disclaimer: Each person’s journey is unique, treatment planlife stylefood habithormonal conditionimmune systemchronic disease condition, geological location, weather and previous medical  history is also unique. So always seek the best advice from a qualified medical professional or health care provider before trying any treatments to ensure to find out the best plan for you. This guide is for general information and educational purposes only. Regular check-ups and awareness can help to manage and prevent complications associated with these diseases conditions. If you or someone are suffering from this disease condition bookmark this website or share with someone who might find it useful! Boost your knowledge and stay ahead in your health journey. We always try to ensure that the content is regularly updated to reflect the latest medical research and treatment options. Thank you for giving your valuable time to read the article.

The article is written by Team RxHarun and reviewed by the Rx Editorial Board Members

Last Updated: September 19, 2025.

 

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