Vol.2, No.8, 466-469 (2013) Case Reports in Clinical Medicine
Xeroderma pigmentosa with ocular association: Case
Achyut N. Pandey1*, Krishna Kuldeep1, Ameet a Koul1, Manoj Tyagi1, Parul Singh1,
Parmeshwari Das Sharma1, Deepak Dimri2
1Department of Ophthalmology, VCSG Government Medical College and Research Institute, Srinagar Garhwal, India;
*Corresponding Author: email@example.com
2Department of Dermatology, VCSG Government Medical College and Research Institute, Srinagar Garhwal, India
Received 13 September 2013; revised 10 October 2013; accepted 30 October 2013
Copy r ight © 2013 Achyut N. Pa ndey et al . This is an open access article distributed under the Creative Commons Attribution License,
which permits unrestricted use, distribution, and reproduction in any medium, provided the original work is properly cited.
Xeroderma pigmentosum is a rare, autosomal
recessive disease caused by a defect in DNA
repair. Patients with xeroderma pigmentosum
often have cutaneous and ocular sun sensitivity,
freckle-like skin pigmentation, multiple skin and
eye cancers, and, in some patients, progressive
neurodegeneration. Xeroderma pigmentosum
predominantly affects the ultraviolet (UV) ex-
posed ocular surface, resulting in eyelid atrophy
and cancers, corneal dryness, exposure kera-
topathy, and conjunctival tumors. General fea-
tures included parental consanguinity (40%),
familiarity (60%), onset of symptoms in the first
2 years (50%), malignant skin neoplasms (60%),
and carcinoma of the tongue (20%). Among the
ocular features, 50% of patients presented with
photophobia. Lid freckles or atrophic skin le-
sions were seen in all patients. Lower lid tu-
mours were seen in 30%, chronic conjunctival
congestion in 40%, corneal opacification in 40%,
squamous cell carcinoma of limbus in 20%, bi-
lateral pterygium in 40%, and visual impairment
in 50%. We report the clinical history and ocular
pathology of a boy who is having xeroderma
pigmentosum with ocular manifestations. The
ophthalmic manifestations of xeroderma pig-
mentosum are discussed and reviewed with re-
spect to this report and other cases in the lit-
erature. These cases illustrate the role of DNA
repair in protection of the eyes from UV damage
and neuron degeneration of the retina.
Keywords: Ciliary Body Hamartoma; Ocular
Pathology; Optic Atrophy; Xeroderma Pigmentosum;
Pigmentary Retinal Degeneration
Xeroderma pigmentosum (XP), first described by
Hebra and Kaposi in 1874, presents in early childhood
with photophobia, photosensitivity, cutaneous pigmen-
tary changes, and a predisposition for malignancy in sun-
exposed mucocutaneous areas and ocular structures .
XP patients have a defect in DNA repair related to the
nucleotide excision repair pathway  or a bypass poly-
merase pathway . Mutations in XPA or XPC are pre-
sent in approximately 50% of patients . The disease is
extremely rare in North America and Europe (frequency
1/1,000,000) , but is more common in areas of the
world with increased consanguinity, including Japan
(frequency 1/22,000) , the Middle East, North Africa,
and India .
XP often presents with cutaneous manifestations
within the first two years of life . Patients are pre-
disposed to malignant skin neoplasms in the face, neck
and upper trunk, the tip of the tongue, and the anterior
eye surfaces. Ocular disease is evident in at least 40%
of XP patients and often causes visual impairment.
Clinically apparent ocular disease includes eyelid atro-
phy and tumors, corneal sicca and opacification, expo-
sure keratitis, pterygium, and chronic conjunctival in-
jection. Here, we report the clinical features of a boy in
which we found classic findings of this disease and
A 6-year-old boy comes to the OPD with c/o skin le-
sions all around the body since birth. No h/o treatment
before. No h/o itching, drug use, injury. No other sibling
having the same problem. No parental consanguity. No
similar illness in the family. Birth history normal, normal
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A. N. Pandey et al. / Case Reports in Clinical Medicine 2 (2013) 466-469 467
uneventful vaginal delivery. Normal growth. The chief
complaints were photophobia and defective vision.
On examination–presence of blisters all over face,
trunk, abdomen and legs (Figures 1 and 2). The lesions
are excoriating. The lesions are dry, nontender, raised
and red to pink in colour. On eye examination- both eyes
having projection of rays present and perception of light
inaccurate. The skin of the lid is excoriated. Presence of
growth in both the lids is suggesting of lid malignancy.
Conjunctiva is condested with both limbal and bulbar
conjunctival growth suggesting of basal cell carcinoma.
Cornea is totally opaque with vascularisation (Figures 3
and 4). Other details could not be made out. Neurological
examination is within normal limit. All other investiga-
tions include hemogram, lipid profile. Liver and renal
function tests, ultrasound abdomen were found to be
normal. Patient is advised for phototherapy with radia-
tion and enucleation/exanteration for ocular lesions.
Prognosis explained to parents.
Skin biopsy has been done with diagnosis of xeroder-
Figure 1. Face showing blisters.
Figure 2. Hand showing XP lesions.
Figure 3. Right eye.
Figure 4. Left eye.
3. LITERATURE REVIEW AND
3.1. Systemic Features and Genetics of XP
XP is an autosomal recessive disease of defective
DNA repair that affects males and females equally and is
frequently symptomatic in childhood . Defects in nu-
cleotide excision repair can lead to three diseases: XP,
Cockayne syndrome, and trichothiodystrophy. XP and
Cockayne syndrome both present with photosensitivity
and progressive neurological degeneration . XP has a
greatly increased risk of sun-induced cancers, and
Cockayne patients have normal cancer risk. Retinitis
pigmentosa retinopathy is well recognized in Cockayne
syndrome, while retinal abnormalities are not common in
XP patients . Cockayne syndrome patients may have
poor vision with pupillary unresponsiveness, hyper-
metropia, nystagmus, hypoplastic irides, cataract, vitre-
ous floaters, optic atrophy, and global progressive pig-
mentary retinal degeneration . While Cockayne syn-
drome also presents with photosensitivity and neurologic
Copyright © 2013 SciRes. OPEN ACCESS
A. N. Pandey et al. / Case Reports in Clinical Medicine 2 (2013) 466-469
dysfunction, patients tend to have a “bird-like” face, mi-
crocephaly, premature aging, dwarfism, cachexia, sunken
eyes, and usually die before age 30 . Though the ge-
netic defects are closely related, these diseases have dif-
ferent systemic and ocular manifestations .
Genetic defects in XP are heterogeneous, resulting
from defects in 8 different genes (complementation
groups) . Defects in nucleotide excision repair lead to
premature sunlight-induced damage including hyper-
pigmentation, hypopigmentation, lentigos, telangectasias,
actinic keratoses, and atrophy. Cutaneous symptoms usu-
ally present before 2 years of age, and the median age of
first skin neoplasm is under 10 years.
Progressive neurologic symptoms are present in about
25% of affected patients . Neurologic abnormalities
include cognitive impairment, acquired microcephaly,
abnormal motor activity, areflexia, sensorineural hearing
loss, and abnormal speech. Studies suggest that neuronal
degeneration in XP is a primary process, possibly caused
by the inability to rep air DNA that has been damaged by
oxidative damage from endogenous metabolites .
The majority of neoplasms in patients with XP occur
in areas that are exposed to UV-radiation, including skin,
anterior surfaces of the eye, and tip of the tongue .
There is an increased frequency of central nervous sys-
tem tumors. Internal neoplasms may be related to envi-
ronmental carcinogen exposure that causes DNA damage,
which, like UV-damage, is poorly repaired in XP patients.
Overall, XP patients have a 70% probability of survival
to 40 years of age.
3.2 Clinical Ocular Manifestations of XP
Ocular disease is evident in at least 40% of XP pa-
tients, and blepharospasm and photophobia are common
symptoms. Eyelid skin changes reflect local skin chang es,
including usually erythema, pigmentation, atrophy, and
malignant change . Telangectasias, loss of lashes,
and chronic blepharitis are also seen . Atrophic
scarred skin may cause ectropion of the lower eyelid and
symblepharon . Lower lid loss may result in exposure
keratitis, edema, and even corneal ulceration and perfo-
ration . Corneal opacification, neovascularization,
pterygia, and band keratopathy are common, and band-
shaped nodular dystrophy and squamous cell carcinomas
have also been reported. Conjunctival involvement usu-
ally includes conjunctivitis, pinguecula, symblepharon,
melanosis, and tumors developing from the interpalpe-
bral zone of the limbus . Limbal tumors, especially
pterygia, are common, and squamous cell carcinomas,
malignant melanomas and limbal stem cell deficiency
have been reported. The iris can be affected by iritis,
stromal atrophy, pigment abnormalities, and, rarely,
melanoma . Orbital tumors include basal cell carci-
nomas, squamous cell carcinomas, and melanomas. As
the posterior segment is protected from UV damage by
the cornea and lens, fundus abnormalities are not com-
mon; however, choroidal melanoma rarely develops .
Unlike Cockayne syndrome, which is clinically associ-
ated with pigmentary retinal degeneration including
retinitis pigmentosa, retinal abnormalities have not pre-
viously been reported in XP patients.
Clinical management of XP includes avoidance of
sunlight, minimizing UV and cigarette smoke exposure,
early excision of skin lesions, and genetic counseling .
Oral 13-cis retinoic acid has been shown to reduce the
incidence of new cancers in XP patients . Ophthal-
mic management includes UV-absorbing sunglasses with
side shields, artificial tears, intermittent topical steroids,
surveillance for ocular neoplasms, and management of
complications. Eyelid and conjunctival cancers are the
most commonly reported. Current management of eyelid
tumors is complete resection using Mohs’ micrographic
surgery, with or without reconstruction, or other tissue
sparing techniques . Malignant conjunctival tumors
that can be excised should be removed and treated with
adjuvant cryotherapy/irradiation/topical chemotherapy
. Some malignant limbal tumors can be removed by
iridocyclectomy, while others may require enucleation
. Corneal tumors have been managed with kerato-
plasty and topical chemotherapy. Iris tumors may be
managed with local excision, plaque radiotherapy, or
enucleation . Choroidal melanomas are commonly
managed with plaque radiotherapy, but this has not been
specifically studied in XP patients . If a tumor in-
volves the orbit, imaging is required, and surgical exci-
sion with adjunctive radiation can be therapeutic .
Despite their extreme sensitivity to UV light, XP patients
can be treated with standard doses of radiation for treat-
ment of neoplasms . Large or invasive ocular or or-
bital tumors may require enucleation and/or orbital ex-
Patients with XP often exhibit ocular changes. Beside
the light-dependent degenerative and inflammatory
manifestations of the lids, the conjunctiva and the cornea
patients with XP also develop malignancies early in life.
The majority of patients suffer from dry eye symptoms.
XP behaved aggressively in both malignancy profile and
visual outcome. Various types of malignant ocular-cuta-
neous tumours relating to sunlight developed in
xeroderma pigmentosum patients. These disorders are
more prevalent in severe and moderate forms of
xeroderma pigmentosum. Lesions occur almost exclu-
sively in the eyelids, conjunctiva, limbus and/or cornea.
The rapid regression of these tumours, particularly in the
cornea and limbus, may cause blindness, emphasising the
importance of early management and regular monitoring
Copyright © 2013 SciRes. OPEN ACCESS
A. N. Pandey et al. / Case Reports in Clinical Medicine 2 (2013) 466-469
Copyright © 2013 SciRes.
of patients in order to allow early diagnosis of this cond i-
tion, thereby ensuring the least mutilant treatment possi-
OPEN A CCESS
We acknowledge our patient and his family for their contributions to
our research. The author is thankful to Mr. Divyam Pandey and Anil
Semwal for help in finalising this report.
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