Abstract: Methods for preparing nanoscale reactions using nucleic acids or proteins are presented. Nucleic acids are captured saturably, yet reversibly, on the internal surface of the reaction chamber, typically a capillary. Excess nucleic acid is removed and the reaction is performed directly within the capillary. Proteins are captured specifically and saturably on the modified inner surface of the reaction chamber, typically a capillary. Excess protein is removed and the reaction is performed directly within the capillary. Devices for effecting the methods of the invention and a system designed advantageously to utilize the methods for high throughput reactions involving nucleic acids or proteins are also provided.

Abstract: Methods for preparing nanoscale reactions using nucleic acids or proteins are presented. Nucleic acids are captured saturably, yet reversibly, on the internal surface of the reaction chamber, typically a capillary. Excess nucleic acid is removed and the reaction is performed directly within the capillary. Proteins are captured specifically and saturably on the modified inner surface of the reaction chamber, typically a capillary. Excess protein is removed and the reaction is performed directly within the capillary. Devices for effecting the methods of the invention and a system designed advantageously to utilize the methods for high throughput reactions involving nucleic acids or proteins are also provided.

Abstract: A method of separating a mixture of biopolymers of various lengths using a blend of two linear hydrophilic polymers, particularly polyacrylamides (LPA) or substituted polyacrylamides, one with high weight-average molecular mass and another with low weight-average molecular mass, each present at a low concentration but wherein the concentration of the high weight-average molecular mass LPA is above its entanglement threshold, is disclosed. The matrix is excellent for use in methods of nucleic acid analysis, particularly long read length DNA sequencing.