Methods of Making Libraries of Nucleic Acids Using Porous Particles
a technology of porous particles and nucleic acids, applied in the direction of nucleotide libraries, library creation, transportation and packaging, etc., can solve the problems of limited ease of manipulation and/or reagent access, lack of fragment density or concentration for adequate signal-to-noise ratio, and laborious emulsion reaction
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example 1
Making Polyacrylamide Nucleic Acid Polymer Particles by Membrane Emulsification
[0064]This example describes the method and apparatus for production of uniformly sized droplets of aqueous solution in non-miscible continuous phase by extrusion through a micro fabricated plate with multiple through holes (nozzles, orifices) and the subsequent transformation of the emulsion into polymer particles by radical polymerization. The fabrication of the plate with multiple through holes is described in the above references.
[0065]A solution of specific amounts of acrylamide and methylene-N,N-bisacrylamide containing a specified concentration of acrodyte oligonucleotides (primers for PCR) is degassed by bubbling an inert atmosphere (Argon, Nitrogen, Helium) through the solution for a minimum of 30 minutes. Just prior to emulsification, a radical initiator is added. The radical initiator can be a combination of ammonium persulfate (APS) and N,N,N′,N′-tetramethylethylenediamine (TMED) which catalys...
example 2
Making Polyacrylamide Nucleic Acid Polymer Particles by Membrane Emulsification with Batch Mode Initiation
[0066]This example describes membrane emulsification and the subsequent transformation of the aqueous micelles of the emulsion into polyacrylamide particles by radical polymerization in batch mode using an initiator-saturated oil phase. The steps of the process comprise (a) formation of a gel reaction mixture-in-oil emulsion using a membrane, (b) particle polymerization, and (c) particle extraction and washing.
[0067]The following reagents are employed in the process: (a) SNAPP Oil comprises the following mixture: Tegosoft™ DEC oil (730 mL), ABIL WE09 (70 gm), and mineral oil (200 mL) (SNAPP oil is stored under argon); (b) SNAPP Buffer: 1× TE, 0.1% Triton X-100, 0.02% sodium azide; (c) Acrylamide Solution: 50 mg N,N-methylene bisacrylamidc, 450 mg acrylamide, 550 uL double distilled H2O kept under argon; (d) DNA Mix: 10 umol 30-mer acrydite oligonucleotide with 18 C spacer in 2.5...
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