Nerve Disease ALS and Gradual Loss of Muscle Function: Amyotrophic Lateral Sclerosis

Mary E. Miller

In Stock Date: 
10/21/2016
Print Price: 
$49.95
Print ISBN: 
9781944749798
E-book Price: 
$29.95
E-book ISBN: 
9781944749804
Pages: 
100
Binding Type: 
Softcover

Amyotrophic lateral sclerosis, ALS, is a common form of motor neuron disease that involves a loss of function in upper and lower motor neurons. ALS causes a progressive loss of muscle function that frequently initiates in the limbs, called limb-onset ALS, or initiates in facial muscles, called bulbar-onset ALS. This book describes the current understanding of ALS symptoms, diagnosis, causes, and treatments. Initial symptoms vary in type of muscle dysfunction, intensity of symptoms, and speed of disease progression. Diagnosis requires loss of function in both upper and lower motor neurons for limb- and bulbar-onset ALS, distinguishing ALS from other neuromuscular diseases. Although no cause or initial trigger has been determined for ALS, eventually both limb and bulbar muscles will show dysfunction as the disease progresses.

In later stages of the disease, muscle dysfunction typically leads to respiratory failure and death. Management of neurotransmitter levels in patients can prolong life by months, but no cure exits for the disease. Other treatments exist that can help patients manage muscle weakness or spasms as the disease progresses. The book concludes by considering future detection, treatment, and diagnostic approaches with the goal of preventing disease initiation or progression.

If you are a professor or instructor interested in using this title in your course, please fill out our desk copy request form and we will review your request.

Mary E. Miller

Mary E. Miller is a professor of biology at Rhodes College, Tennessee, where she teaches introductory biology, genetics, molecular biology, microbiology, and topical seminars on cancer and has served as the director of the biochemistry and molecular biology program. Dr. Miller studies cell division and key regulators of the cell division cycle and has been awarded the Rhodes College Clarence Day Award for Outstanding Research or Creative Activity.

Classification: