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http://www.scirp.org/journal/PaperInformation.aspx?PaperID=53391#.VMBv-yzQrzE
ABSTRACT
Celiac
disease is a permanent intolerance to gluten proteins of wheat, rye,
barley, and oats in genetically susceptible individuals. The clinical
picture is characterized by inflammation and damage of the small
intestinal mucosa and malabsorption of essential nutrients.
Therapeutically, a lifelong strict gluten-free diet is necessary. The
diagnosis of celiac disease is complex and includes symptomatology,
serology, small intestinal histology, and genetic status. Serological
testing plays a central role within the diagnostic procedure and is
based on the measurement of disease-specific antibodies against gluten
proteins (antigen) and tissue transglutaminase (autoantigen).
Immunofluorescence detection and enzyme-linked immunosorbent assays are
currently most often applied for antibody testing. However, these tests
are expensive and time-consuming. Therefore, simple and rapid
alternative methods have been developed during the last years, and
electro-chemical immunosensors seem to be the most promising analytical
tools. The architecture of these sensors may comprise the following
elements: working and reference electrodes, covalent or noncovalent
binding of the antigen to the surface of the working electrode by means
of a functional monolayer, and blocking of unreacted binding sites. The
analytical procedure is initiated by adding the analyte (serum
antibodies) and an analyte-specific second antibody, which is usually
labeled with an enzyme. The special reaction of the enzyme with an
appropriate substrate results in a product that initiates a current that
can be measured by different electrical methods. A number of different
electrochemical immunosensors variable in different electrodes, binding
systems, secondary antibodies, and current measurements have been
developed. Most of them have been tested with real human serum samples
of celiac patients and healthy individuals, and some of them reached
disease sensitivity and specificity comparable with traditional
analytical systems. Thus, electrochemical immunosensors can be promising
alternatives to existing diagnostic tests in future. They are simple,
reliable, robust, user-friendly, and cost-effective tools with short
operation times.
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