Genetic basis of endocrine disease 5. Molecular genetics of parathyroid gland neoplasia.

1993 ◽  
Vol 77 (5) ◽  
pp. 1108-1112 ◽  
Author(s):  
A Arnold
1991 ◽  
Vol 73 (6) ◽  
pp. 1158-1163 ◽  
Author(s):  
SIMEON I. TAYLOR ◽  
ALESSANDRO CAMA ◽  
DOMENICO ACCILI ◽  
FABRIZIO BARBETTI ◽  
EIICHI IMANO ◽  
...  

Author(s):  
Daniel Allain

Abstract This chapter aims to present the genetics of fibre and fur production in the rabbit. It focuses first on general biology of hair covering and hair development of the rabbit. A clear understanding of the biological basis of the coat is essential for a better understanding of the genetic basis of fibre and fur production. It then examines the genetic basis of hair growth pattern and coat composition for fibre and fur production. Selection of rabbit on coat colour, a component of fur production, will be dealt with very briefly. Genetics and molecular genetics of coat colour is the subject of Chapter 6 of this book.


2021 ◽  
pp. 787-808
Author(s):  
Márta Korbonits ◽  
Paul Newey

This chapter begins with describing the genetic basis of endocrine disease, and the potential utility for genetic testing (alongside consent). It then covers different types of genetic tests and their applications. There is a section on pituitary adenomas, MEN types 1 and 4, familial isolated pituitary adenoma, and various other genetic conditions related to the endocrine system.


Author(s):  
Timothy C Bates

This article reviews research on the behavioral and molecular genetics of reading and, where available, spelling. Recent research is summarized, suggesting that reading and spelling appear to share a common genetic basis, and that dyslexia lies on a genetic continuum with normal variance in reading skill. Research also suggests that while many of the genes involved in reading disorder affect all forms of reading, some genes are specific for processing irregular words, while others are specific for non-word or grapheme–phoneme processing, forming a genetic basis for the clinical distinction between surface and phonological dyslexia. Advances in molecular genetics mean that identifying specific genes for reading is now a practical project, and to date 11 chromosomal regions have been associated with reading or spelling and these findings are reviewed. Finally data are presented on the genetic relationship of dyslexia to other developmental disorders including Autism and ADHD, and reasons for this overlap or comorbidity are discussed. Gene discovery is at a point where precise biochemical effects underlying dyslexia can be understood, findings that will have an important impact not only for neuropsychology and neuroscience but also for psychological practice.


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