In situ polymerase chain reaction and cycling primed in situ amplification: improvements and adaptations

Ethanol fixation combined with microwave pretreatment allows rapid and simple detection of signals produced by cycling primed in situ (PRINS) amplification, which uses a single primer, and in situ polymerase chain reaction (ISPCR) in intact cells. After thermal cycling, signals remain as discrete su...

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Veröffentlicht in:Histochemistry and cell biology 1999-05, Vol.111 (5), p.411-416
Hauptverfasser: Paskins, L, Brownie, J, Bull, J
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Brownie, J
Bull, J
description Ethanol fixation combined with microwave pretreatment allows rapid and simple detection of signals produced by cycling primed in situ (PRINS) amplification, which uses a single primer, and in situ polymerase chain reaction (ISPCR) in intact cells. After thermal cycling, signals remain as discrete subnuclear spots in the region of amplification and are clearly distinguishable from non-specific background labelling. These methods are applicable to routine blood smears, even after Giemsa staining or immunocytochemistry, and cellular morphology is retained. Chromosome enumeration by cycling PRINS is demonstrated using primers for repeat DNA sequences, whilst single copy sequence detection is demonstrated using bcl-2, CFTR and chromosome 21 specific primer pairs in ISPCR. We show that ethanol fixation supports efficient extension of cycling PRINS products to approximately 550 bp using up to 70 rounds of thermal cycling.
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subjects Adaptation
Azure Stains
Bcl-2 protein
Cell Line
Chromosome 21
Chromosomes, Human, Pair 21
Color
Enumeration
Ethanol
Fixatives
Gene Dosage
Humans
Immunocytochemistry
Labeling
Microwaves
Nucleotide sequence
Polymerase chain reaction
Primed In Situ Labeling - methods
Staining and Labeling - methods
Thermal cycling
Tissue Fixation
title In situ polymerase chain reaction and cycling primed in situ amplification: improvements and adaptations
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