Javascript must be enabled to continue!
Bounce PCR v1
View through CrossRef
Bounce PCR: optimisation free PCR for synthetic biology cloning applications. Synthetic biology projects require the cloning of multiple DNA components, and increasingly this is done though in-vitro gene synthesis. This remains an expensive alternative to traditional cloning by PCR. However, PCR often requires time-consuming optimisation. Bounce PCR is a largely optimisation-free PCR method suitable for the rapid cloning of multiple targets. Bounce PCR is a modified version of Touchdown PCR that takes advantage of primer-extension sequences -commonly used in molecular cloning – to successfully amplify most DNA fragments without time consuming optimisation. Touchdown (and related methods) employ a sequential lowering of the annealing temperature over successive cycles to minimise non-specific primer-binding during the early amplification cycles, but maximise amplification efficiency in later cycles when the target amplicon is more abundant (Don et al. 1991; Rowther et al. 2012). However, the lower annealing temperature in later cycles may still allow for non-specific amplification. Bounce PCR takes advantage of the increased primer melting temperature caused by the addition to the template of primer-extension sequences (for example: restriction enzyme recognition sites, Gateway recombination sites, or vector overlaps for Gibson cloning) to maintain the septicity in later cycles- without sacrificing efficiency- by increasing the annealing temperature again after an initial round of touchdown. Don, R. H., Cox, P. T., Wainwright, B. J., Baker, K., & Mattick, J. S. (1991). 'Touchdown' PCR to circumvent spurious priming during gene amplification. Nucleic acids research, 19(14), 4008. Rowther, F. B., Kardooni, H., & Warr, T. (2012). TOUCH-UP gradient amplification method. Journal of biomolecular techniques : JBT, 23(1), 1-3.
Title: Bounce PCR v1
Description:
Bounce PCR: optimisation free PCR for synthetic biology cloning applications.
Synthetic biology projects require the cloning of multiple DNA components, and increasingly this is done though in-vitro gene synthesis.
This remains an expensive alternative to traditional cloning by PCR.
However, PCR often requires time-consuming optimisation.
Bounce PCR is a largely optimisation-free PCR method suitable for the rapid cloning of multiple targets.
Bounce PCR is a modified version of Touchdown PCR that takes advantage of primer-extension sequences -commonly used in molecular cloning – to successfully amplify most DNA fragments without time consuming optimisation.
Touchdown (and related methods) employ a sequential lowering of the annealing temperature over successive cycles to minimise non-specific primer-binding during the early amplification cycles, but maximise amplification efficiency in later cycles when the target amplicon is more abundant (Don et al.
1991; Rowther et al.
2012).
However, the lower annealing temperature in later cycles may still allow for non-specific amplification.
Bounce PCR takes advantage of the increased primer melting temperature caused by the addition to the template of primer-extension sequences (for example: restriction enzyme recognition sites, Gateway recombination sites, or vector overlaps for Gibson cloning) to maintain the septicity in later cycles- without sacrificing efficiency- by increasing the annealing temperature again after an initial round of touchdown.
Don, R.
H.
, Cox, P.
T.
, Wainwright, B.
J.
, Baker, K.
, & Mattick, J.
S.
(1991).
'Touchdown' PCR to circumvent spurious priming during gene amplification.
Nucleic acids research, 19(14), 4008.
Rowther, F.
B.
, Kardooni, H.
, & Warr, T.
(2012).
TOUCH-UP gradient amplification method.
Journal of biomolecular techniques : JBT, 23(1), 1-3.
Related Results
Environmental Surveillance Protocols for Highly Pathogenic Avian Influenza (HPAI) v2
Environmental Surveillance Protocols for Highly Pathogenic Avian Influenza (HPAI) v2
EnvironmentalSurveillance Protocols for Highly Pathogenic Avian Influenza (HPAI) This comprehensive protocol suite enables systematic environmental surveillance for avian influenza...
Bounce PCR v3
Bounce PCR v3
Bounce PCR: optimisation free PCR for synthetic biology cloning applications. Synthetic biology projects require the cloning of multiple DNA components, and increasingly this is d...
Bounce PCR v2
Bounce PCR v2
Bounce PCR: optimisation free PCR for synthetic biology cloning applications. Synthetic biology projects require the cloning of multiple DNA components, and increasingly this is d...
Abstract 2113: A wild-type-blocking reference sequence enhances COLD-PCR and enables fast amplification and high enrichment of all types of low-prevalence unknown mutations
Abstract 2113: A wild-type-blocking reference sequence enhances COLD-PCR and enables fast amplification and high enrichment of all types of low-prevalence unknown mutations
Abstract
Background: Molecular profiling of somatic mutations in cancer often requires the identification of low-prevalence DNA mutations in an excess of wild-type (...
Treseder Lab Pyrosequencing Protocol v1
Treseder Lab Pyrosequencing Protocol v1
DNA Extraction Extract DNA from sample using the phenol/chloroform procedure or your kit of choice. We typically use the Mo Bio Power Soil DNA extraction kit for extracting DNA fro...
Improving of the Nested PCR for Detection of Bovine Leukemia Virus
Improving of the Nested PCR for Detection of Bovine Leukemia Virus
Enzootic bovine leukosis caused by a bovine leukemia virus has a significant economic impact and is reported in World Organization for Animal Health(OIE). Aim. The purpose of our w...

