Abstract: This disclosure provides, among other things, a method for processing a membrane comprising rolling circle amplification (RCA) products. In some embodiments, this method may comprise: (a) obtaining a porous capillary membrane that comprises fluorescently labeled RCA products that are in or on the membrane; (b) depositing a curable polymer onto the membrane; and (c) curing the curable polymer to encapsulate the RCA products in a solid. In some embodiments, the curable polymer may be a silicone and may be transparent in its solid form. A kit for performing the method and a composition made by the method are also provided.

Abstract: This disclosure provides, among other things, a filtration device comprising an open bottomed multi-well plate, a planar spacer that comprises apertures, and a porous capillary membrane. In the device, the planar spacer is sandwiched between the multi-well plate and the porous capillary membrane and the planar spacer is bonded to both the multi-well plate and the porous capillary membrane via an adhesive. Kits and methods of making the device are also provide.

Abstract: A method of sample analysis is provided. In certain embodiments, the method may comprise: (a) filtering a liquid sample containing rolling circle amplification (RCA) products using a porous capillary membrane, thereby producing an array of the RCA products on the membrane; wherein the sample contains at least a first population of RCA products and a second population of RCA products, wherein the first and second populations of labeled RCA products are distinguishably labeled; and (b) determining the amount of the first labeled population of RCA products and the amount of the second labeled population of RCA products in an area of the membrane.

Abstract: This disclosure provides, among other things, a method for processing a membrane comprising rolling circle amplification (RCA) products. In some embodiments, this method may comprise: (a) obtaining a porous capillary membrane that comprises fluorescently labeled RCA products that are in or on the membrane; (b) depositing a curable polymer onto the membrane; and (c) curing the curable polymer to encapsulate the RCA products in a solid. In some embodiments, the curable polymer may be a silicone and may be transparent in its solid form. A kit for performing the method and a composition made by the method are also provided.

Abstract: This disclosure provides, among other things, a method for processing a membrane comprising rolling circle amplification (RCA) products. In some embodiments, this method may comprise: (a) obtaining a porous capillary membrane that comprises fluorescently labeled RCA products that are in or on the membrane; (b) depositing a curable polymer onto the membrane; and (c) curing the curable polymer to encapsulate the RCA products in a solid. In some embodiments, the curable polymer may be a silicone and may be transparent in its solid form. A kit for performing the method and a composition made by the method are also provided.

Abstract: A method of sample analysis is provided. In certain embodiments, the method may comprise: (a) filtering a liquid sample containing rolling circle amplification (RCA) products using a porous capillary membrane, thereby producing an array of the RCA products on the membrane; wherein the sample contains at least a first population of RCA products and a second population of RCA products, wherein the first and second populations of labeled RCA products are distinguishably labeled; and (b) determining the amount of the first labeled population of RCA products and the amount of the second labeled population of RCA products in an area of the membrane.

Abstract: This disclosure provides, among other things, a filtration device comprising an open bottomed multi-well plate, a planar spacer that comprises apertures, and a porous capillary membrane. In the device, the planar spacer is sandwiched between the multi-well plate and the porous capillary membrane and the planar spacer is bonded to both the multi-well plate and the porous capillary membrane via an adhesive. Kits and methods of making the device are also provide.

Abstract: A method of sample analysis is provided. In certain embodiments, the method may comprise: (a) filtering a liquid sample containing rolling circle amplification (RCA) products using a porous capillary membrane, thereby producing an array of the RCA products on the membrane; wherein the sample contains at least a first population of RCA products and a second population of RCA products, wherein the first and second populations of labeled RCA products are distinguishably labeled; and (b) determining the amount of the first labeled population of RCA products and the amount of the second labeled population of RCA products in an area of the membrane.

Abstract: This disclosure provides, among other things, a method for processing a membrane comprising rolling circle amplification (RCA) products. In some embodiments, this method may comprise: (a) obtaining a porous capillary membrane that comprises fluorescently labeled RCA products that are in or on the membrane; (b) depositing a curable polymer onto the membrane; and (c) curing the curable polymer to encapsulate the RCA products in a solid. In some embodiments, the curable polymer may be a silicone and may be transparent in its solid form. A kit for performing the method and a composition made by the method are also provided.

Abstract: A method of sample analysis is provided. In certain embodiments, the method may comprise: (a) filtering a liquid sample containing rolling circle amplification (RCA) products using a porous capillary membrane, thereby producing an array of the RCA products on the membrane; wherein the sample contains at least a first population of RCA products and a second population of RCA products, wherein the first and second populations of labeled RCA products are distinguishably labeled; and (b) determining the amount of the first labeled population of RCA products and the amount of the second labeled population of RCA products in an area of the membrane.

Abstract: Methods and systems are provided for massively parallel genetic analysis of single cells in emulsions or droplets. A biological sample is divided into subsamples of single cells or cell supbopulations, and a fusion complex is formed by molecular linkage and amplification techniques. Methods, apparatuses, and systems are provided for high-throughput, massively parallel analysis of the subsamples. These methods integrate molecular, algorithmic, and engineering approaches. They have broad and useful application in a number of biological and medical fields, including immunology, noninvasive prenatal diagnosis, and noninvasive cancer diagnosis.