Preparation of λ phage DNA by double restriction enzyme cleavage as a cloning vector
Replacement vectors (e.g., λ2001, λDASH, EMBL series, Charon 34, Charon 35, and Charon 40) contain a series of restriction sites that are aligned
3,200+ step-by-step lab protocols and SOPs for cell culture, staining, PCR, protein work and microbiology, with reagents, conditions and evaluation criteria.
Replacement vectors (e.g., λ2001, λDASH, EMBL series, Charon 34, Charon 35, and Charon 40) contain a series of restriction sites that are aligned
Mass preparation of λ phage can be obtained by either low-mass infection of bacterial cultures or high-mass infection. Immediately after low magnificatio
In some cases, prepared λ phage DNA can be used for cloning after simple digestion with restriction enzymes. However, this option is only feasible if the
Unlike insertion vectors, replacement vectors contain a filler fragment in the middle of the genome, which must be removed in order to accommodate the foreign D
Regardless of the base composition and sequence of high-molecular-quality DNA, it can be fragmented in a semi-random fashion by hydrodynamic shearing. However,
Phage plasmids skillfully combine the characteristics of plasmids and filamentous phages. In addition to the basic features, these plasmids are usually high cop
Synthetic double-stranded oligonucleotides can be used to screen cDNA expression libraries constructed in λ phage to identify clones corresponding to spe
The steps for constructing genomic DNA libraries in λ phage are essentially the same as in mucosal vectors. In both systems, eukaryotic DNA is ligated to vecto
The P1 phage was discovered in the same year as the λ phage (Bertani 1951). Both phages are mild phages in their natural hosts, and their research history in t