Primer Synthesis Kinetics
Primer Synthesis Kinetics - Related Videos
08:14
Kinetics of Lagging-strand DNA Synthesis In Vitro by the Bacteriophage T7 Replication Proteins
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Cited by 3 •
2017
We describe sensitive, gel-based discontinuous assays to examine the kinetics of lagging-strand initiation using the replication proteins of bacteriophage T7.
11:14
Primer-Free Aptamer Selection Using A Random DNA Library
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Cited by 20 •
2010
SELEX protocols comprise multiple rounds of selection, each of which require regeneration of bound ligands, which in turn require fixed primer sequences flanking the random library regions. These fixed primer sequences can interfere with the selection process (false positives and negatives). Here we present a primer-free protocol.
03:07
Kinetic Molecular Theory: Molecular Velocities, Temperature, and Kinetic Energy
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2020
The kinetic molecular theory qualitatively explains the behaviors described by the various gas laws. The postulates of this theory may be applied in a more quantitative fashion to derive these individual laws. Collectively, the molecules in a sample of gas have average kinetic energy and average speed; but individually, they move at different speeds. Molecules frequently undergo elastic collisions in which the momentum is conserved. Since the colliding molecules are deflected off at different...
08:07
Enzyme Assays and Kinetics
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2023
Enzyme kinetics describes the catalytic effects of enzymes, which are biomolecules that facilitate chemical reactions necessary for living organisms. Enzymes act on molecules, referred to as substrates, to form products. Enzyme kinetic parameters are determined via assays that directly or indirectly measure changes in substrate or product concentration over time. This video will cover the basic principles of enzyme kinetics (including rate equations) and kinetic models. The concepts governing...
10:01
Kinetics of Addition Polymerization to Polydimethylsiloxane
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2023
Source: Kerry M. Dooley and Michael G. Benton, Department of Chemical Engineering, Louisiana State University, Baton Rouge, LA Polymers are molecules consisting of many repeating monomer units that are chemically bonded into long chains. They exhibit a broad range of physical properties, which are affected by their chemical structure, molecular weight and degree of polymerization. The polymer industry manufactures thousands of raw materials used in a broad variety of commercial products.1,2 The...
FAQs
These variables can change both initiation and elongation rates during primer production. Template sequence affects how primase recognizes and uses the template, whereas nucleotide concentration influences sequential nucleotide incorporation. Enzyme activity also affects the efficiency of this process. Comparing these factors helps researchers identify conditions that promote or restrict the start of DNA synthesis.
Initiation describes the beginning of primer production after primase recognizes the template, while elongation refers to subsequent nucleotide incorporation. Separating these stages reveals whether a change primarily affects template recognition or continued primer growth. This distinction provides a more precise way to interpret altered replication timing and enzyme behavior.
Repeated primer formation is necessary for the discontinuous synthesis associated with the lagging strand. Measuring how efficiently and rapidly primers are generated therefore provides information about recurring events at the replication fork. Changes in these measurements can help explain altered fork progression and connect primer-production behavior with broader replication defects.
Researchers can compare primer formation rates under different template sequences, nucleotide concentrations, or levels of enzyme activity. The analysis can distinguish effects on initiation from effects on elongation and evaluate overall primer-production efficiency. Such comparisons help determine which condition changes the timing of DNA synthesis and which primarily affects continued primer formation.
Primase mutations can be examined by determining how they change primer initiation, sequential nucleotide incorporation, or overall formation efficiency. Comparing mutant and unaffected activity helps link a molecular alteration to replication behavior. In genetics, these measurements can clarify why replication forks progress differently or why repeated primer production becomes impaired.
Kinetic measurements can show whether a compound changes the rate or efficiency of primer formation. Researchers may assess its effects on initiation, elongation, or repeated primer production during lagging-strand synthesis. These results connect compound-dependent changes in primase activity with altered replication-fork progression and provide a way to characterize replication-related effects.