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Published on: November 22, 2019
Hutchinson-Gilford progeria syndrome
Nicole J Ullrich1, Leslie B Gordon2
1Department of Neurology, Boston Children's Hospital and Harvard Medical School, Boston, MA, USA.
Insights
Hutchinson-Gilford progeria syndrome (HGPS) causes premature aging and cardiovascular disease in children. Despite brain cell abnormalities, cognitive function remains intact, offering insights into aging and neuroprotection.
Area of Science:
- Genetics and Molecular Biology
- Pathology
- Gerontology
Background:
- Hutchinson-Gilford progeria syndrome (HGPS) is a rare, fatal genetic disorder characterized by rapid
- premature aging
- phenotypes.
Purpose of the Study:
- To explore the unique craniofacial and cerebrovascular anatomy in HGPS.
- To investigate the impact of HGPS on cognitive function and brain pathology.
- To discuss preclinical and clinical aspects of HGPS, focusing on neurologic and cutaneous findings.
Main Methods:
- Review of clinical data and autopsy findings in HGPS patients.
- Analysis of a transgenic mouse model expressing the common HGPS mutation.
- Examination of neurologic and cutaneous manifestations.
Main Results:
- HGPS primarily causes premature aging, cardiovascular disease, and stroke, with death typically by age 14.6.
- Patients exhibit unique craniofacial and cerebrovascular abnormalities, including arterial stenosis and calcification.
- Despite ultrastructural neuronal nuclear distortions in mouse models, significant cognitive decline or Alzheimer-like pathology is not observed in HGPS patients.
Conclusions:
- HGPS presents with multisystem premature aging, predominantly affecting the cardiovascular system.
- Cognitive function appears preserved in HGPS, suggesting potential neuroprotective mechanisms against the progerin protein.
- Further research into HGPS genetics, pathobiology, and clinical care is crucial, especially regarding neurologic and skin manifestations.
Abstract:
Hutchinson-Gilford progeria syndrome (HGPS) is an extremely rare, uniformly fatal, segmental "premature aging" disease in which children exhibit phenotypes that may give us insights into the aging process at both the cellular and organismal levels. Initial presentation in early childhood is primarily based on growth and dermatologic findings. Primary morbidity and mortality for children with HGPS is from atherosclerotic cardiovascular disease and strokes with death occurring at an average age of 14.6 years. There is increasing data to support a unique phenotype of the craniofacial and cerebrovascular anatomy that accompanies the premature aging process. Strokes in HGPS can occur downstream of carotid artery and/or vertebral artery occlusion, stenosis, and calcification, with prominent collateral vessel formation. Both large and small vessel disease are present, and strokes are often clinically silent. Despite the presence of multisystem premature aging, children with HGPS do not appear to have cognitive deterioration, suggesting that some aspects of brain function may be protected from the deleterious effects of progerin, the disease-causing protein. Based on limited autopsy material, there is no pathologic evidence of dementia or Alzheimer-type changes. In a transgenic mouse model of progeria with expression of the most common HGPS mutation in brain, skin, bone, and heart, there are distortions of neuronal nuclei at the ultrastructural level with irregular shape and severe invaginations, but no evidence of inclusions or aberrant tau in brain sections. Importantly, the nuclear distortions did not result in significant changes in gene expression in hippocampal neurons. This chapter will discuss both preclinical and clinical aspects of the genetics, pathobiology, clinical phenotype, clinical care, and treatment of HGPS, with special attention toward neurologic and cutaneous findings.
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