Related Experiment Videos
[Menkes' disease (new skin and hair ultrastructural abnormalities) (author's transl)]
Abstract:
The authors report the sixth case of Menkes' kinky hair disease. This boy has been observed for as long as 16 months, and he his still alive at the time of publication. This genetic, X linked disorder of copper metabolism is always fatal in childhood. Diagnosis is evoked when is noted the conjunction of progressive cerebral degeneration, seizures, with pili torti and monilethrix. It can be asserted with the very low copper and cerulo-plasmin blood levels. Recognition of the disease in utero might be possible. New findings in skin' electron microscopy and hair' scanning electron microscopy are reported here. And two RX scanner of the brain have been performed.
Insights
Menkes' kinky hair disease, a fatal genetic disorder of copper metabolism, was identified in its sixth reported case. Early diagnosis through characteristic symptoms and low copper levels may enable in-utero recognition.
Area of Science:
- Biochemistry
- Genetics
- Pediatrics
Background:
- Menkes' kinky hair disease is a rare, X-linked genetic disorder affecting copper metabolism.
- It is characterized by progressive neurological deterioration and is typically fatal in childhood.
Observation:
- The sixth reported case of Menkes' disease involved a male infant observed for 16 months.
- Clinical presentation included progressive cerebral degeneration, seizures, pili torti, and monilethrix.
- Biochemical analysis revealed significantly low blood copper and ceruloplasmin levels.
Findings:
- Novel findings from skin electron microscopy and hair scanning electron microscopy are presented.
- Two brain RX scans were performed, contributing to the case study.
Implications:
- This case highlights the diagnostic criteria for Menkes' disease, including characteristic hair abnormalities and biochemical markers.
- The potential for in-utero diagnosis is suggested, offering possibilities for earlier intervention.
- Advanced microscopy techniques provide further insight into the cellular pathology of this rare disorder.