Localization of Y-Receptor Subtype mRNAs in Rat Brain by Digoxigenin Labeled In Situ Hybridization
Rachel M.C. Parker, Herbert Herzog
Abstract
Rachel M.C. Parker, Herbert Herzog
Abstract
In situ hybridization histochemistry (ISHH), first described in 1969 ( 1 , 2 ), allows a specific complementary RNA species to be detected directly at its site of expression, revealing its cellular localization and relative abundance. The utilization as a label of digoxigenin ( 3 ), which is not endogenous to mammalian tissue, provides a sensible alternative to radiolabels, having obvious inherent advantages (e.g., safety, speed, and higher cellular resolution), yet provides comparable sensitivity ( 4 – 7 ). The method basically includes the following six steps: (1) probe labeling (the cloning techniques needed to produce suitable vector templates for cDNA and riboprobe synthesis are not covered in this chapter); (2) tissue preparation; (3) prehybridization tissue treatment; (4) hybridization; (5) posthybridization washing; and (6) signal detection. These keywords were added by machine and not by the authors. This process is experimental and the keywords may be updated as the learning algorithm improves.
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In situ hybridization histochemistry (ISHH), first described in 1969 ( 1 , 2 ), allows a specific complementary RNA species to be detected directly at its site of expression, revealing its cellular localization and relative abundance. The utilization as a label of digoxigenin ( 3 ), which is not endogenous to mammalian tissue, provides a sensible alternative to radiolabels, having obvious inherent advantages (e.g., safety, speed, and higher cellular resolution), yet provides comparable sensitivity ( 4 – 7 ). The method basically includes the following six steps: (1) probe labeling (the cloning techniques needed to produce suitable vector templates for cDNA and riboprobe synthesis are not covered in this chapter); (2) tissue preparation; (3) prehybridization tissue treatment; (4) hybridization; (5) posthybridization washing; and (6) signal detection. These keywords were added by machine and not by the authors. This process is experimental and the keywords may be updated as the learning algorithm improves.
Key concepts: Riboprobe, Digoxigenin, In situ hybridization, Molecular biology, Complementary DNA, Biology, In situ, Computational biology