Nucleic Acid Detection Technologies--Labels, Strategies, And Formats. Nucleic Acid Detection Technologies--Labels, Strategies, And Formats.

Nucleic Acid Detection Technologies--Labels, Strategies, And Formats‪.‬

Clinical Chemistry 1999, April, 45, 4

    • £2.99
    • £2.99

Publisher Description

The range and scope of nucleic acid-based assays continues to expand (e.g., medical, forensic, and environmental applications) (1-3). Many of the types of nucleic acid assays developed require a secondary detection technology, e.g., a label, because a nucleic acid does not have intrinsic properties that are useful for direct high-sensitivity detection. As yet there is no consensus on the choice of a label for nucleic acid detection, and none of the current labels has the attributes of a universal or ideal label. Key factors governing label choice include stability, sensitivity of detection, speed and convenience of detection, and the overall cost for the label, detection reagents, and detection system. In addition, modulation of a property of a label when a conjugate binds to a binding molecule is also desirable because it can form the basis of nonseparation assays. Two new analytical formats, the microchip and the microarray, pose new challenges for nucleic acid detection (4-6). Here I review current directions in nucleic acid analysis and discusses recent strategies for ultrasensitive detection (Table 1). Labels and Sensitivity

GENRE
Science & Nature
RELEASED
1999
1 April
LANGUAGE
EN
English
LENGTH
19
Pages
PUBLISHER
American Association for Clinical Chemistry, Inc.
SIZE
185.5
KB
Molecular Analysis and Genome Discovery Molecular Analysis and Genome Discovery
2011
Detection of Biological Threat Agents by Real-Time PCR: Comparison of Assay Performance on the R.A.P.I.D., the Lightcycler, And the Smart Cycler Platforms (Technical Briefs) Detection of Biological Threat Agents by Real-Time PCR: Comparison of Assay Performance on the R.A.P.I.D., the Lightcycler, And the Smart Cycler Platforms (Technical Briefs)
2006
Molecular Biomethods Handbook Molecular Biomethods Handbook
2008
Multiplex Assays with Fluorescent Microbead Readout: A Powerful Tool, For Mutation Detection (Editorials) Multiplex Assays with Fluorescent Microbead Readout: A Powerful Tool, For Mutation Detection (Editorials)
2004
Nonisotopic DNA Probe Techniques Nonisotopic DNA Probe Techniques
2012
Nonisotopic Probing, Blotting, and Sequencing Nonisotopic Probing, Blotting, and Sequencing
1995
Single-Nucleotide Polymorphism Allele Frequencies Determined by Quantitative Kinetic Assay of Pooled Dna (Technical Briefs) Single-Nucleotide Polymorphism Allele Frequencies Determined by Quantitative Kinetic Assay of Pooled Dna (Technical Briefs)
2002
Interlaboratory Comparison of Fetal Male DNA Detection from Common Maternal Plasma Samples by Real-Time Pcr (Molecular Diagnostics and Genetics) Interlaboratory Comparison of Fetal Male DNA Detection from Common Maternal Plasma Samples by Real-Time Pcr (Molecular Diagnostics and Genetics)
2004
High Concentrations of Excised Oxidative DNA Lesions in Human Cerebrospinal Fluid (Technical Briefs) High Concentrations of Excised Oxidative DNA Lesions in Human Cerebrospinal Fluid (Technical Briefs)
2003
Doping in Sport: Misuse, Analytical Tests, And Legal Aspects (Editorial) Doping in Sport: Misuse, Analytical Tests, And Legal Aspects (Editorial)
1997
Relationship Between Genetic Polymorphisms of Alcohol-Metabolizing Enzymes and Changes in Risk Factors for Coronary Heart Disease Associated with Alcohol Consumption (Lipids, Lipoproteins, And Cardiovascular Risk Factors) Relationship Between Genetic Polymorphisms of Alcohol-Metabolizing Enzymes and Changes in Risk Factors for Coronary Heart Disease Associated with Alcohol Consumption (Lipids, Lipoproteins, And Cardiovascular Risk Factors)
2002
Detection of Mycobacterium Tuberculosis by Real-Time PCR Using Pan-Mycobacterial Primers and a Pair of Fluorescence Resonance Energy Transfer Probes Specific for the M. Tuberculosis Complex (Technical Briefs) Detection of Mycobacterium Tuberculosis by Real-Time PCR Using Pan-Mycobacterial Primers and a Pair of Fluorescence Resonance Energy Transfer Probes Specific for the M. Tuberculosis Complex (Technical Briefs)
2003