One variation of a system includes a cartridge comprising: a substrate; a sample well integrated into the substrate, defining an upper opening and a lower opening, and configured to receive a test solution comprising a user sample and an amount of a fluorescent probe configured to bind with a target bioparticle to form a target complex; a filter membrane extending across the lower opening and defining a network of pores configured to convey fluid from the sample well and prevent passage of the target complex through the filter membrane. The system further includes a reader comprising: a housing; a cartridge receptacle configured to receive the cartridge; an excitation source configured to illuminate a detection region within the housing; and a detector defining a field of view intersecting the detection region and configured to detect a signal generated by fluid in the sample well and representing presence of the target bioparticle.

Disclosed herein is a system to detect and characterize individual particles and cells using at least either optic or electric detection as the particle or cell flows through a microfluidic channel. The system also provides for sorting particles and cells or isolating individual particles and cells.

A system and method for automated single cell capture and processing is described, where the system includes a deck supporting and positioning a set of sample processing elements; a gantry for actuating tools for interactions with the set of sample processing elements supported by the deck; and a base supporting various processing subsystems and a control subsystems in communication with the processing subsystems. The system can automatically execute workflows associated with single cell processing, including mRNA capture, cDNA synthesis, protein-associated assays, and library preparation, for next generation sequencing.

The invention is related to a device (1) for receiving a biological sample (3) wherein the device (1) comprises a plurality of wells (10) wherein each well (10) comprises an inner surface (14) facing a volume (60) for receiving a biological sample (3). The inner surface (14) comprises a top section (20) and a bottom section (30). The top section (20) and the bottom section (30) are connected via a circumferential step (40). The circumferential step (40) forms a stop for a tip of a pipette (70).

Reaction vessels, cartridges, devices and methods for facilitating high-level multiplexing are described herein. Such reaction vessels can include a planar frame defining a fluidic path between a first planar substrate and a second planar substrate, a fluidic interface is located at one end of the planar frame with a pair of fluidic ports, a well chamber and a pre-amplification chamber. Devices for spotting reagents in wells of high-level multiplexing reaction vessels and improved reagent solutions are also described herein.

Provided is a container (10) including a base material (1) including a plurality of concave portions (2); a recognition unit (3) disposed on the base material and configured to recognize the base material; and a storage unit (4) disposed in a position other than a measurement region of the base material and configured to store information on biomaterials contained in the plurality of concave portions, wherein the recognition unit and the storage unit are allowed to correspond to each other.

The sample extraction support tool is placed on an extraction container having at least one well for accommodating a sample extracted from a test piece holding the sample in a microchannel provided therein with both ends open. The sample extraction support tool includes at least one test piece holding portion having an opening for guiding a sample extracted from the test piece to a bottom of the well and configured to hold the test piece at a position where the test piece is not in contact with the sample which is extracted from the test piece and is stored on the bottom of the well, and in a state where one end of the microchannel is directed to the bottom of the well.

Chemical delivery systems, device and methods are provided. A chemical delivery system may include a vessel and a chip. The vessel may include a groove configured to hold a solution. The groove includes an open surface, the open surface having a first surface area. The solution includes a target material. The chip includes a first side, a second side opposing the first side, and a bottom side. The chip includes one or more chambers configured to hold one or more chemicals, the one or more chambers including a bottom surface having a second surface area. The second surface area is greater than the first surface area. When one of the one or more chambers is positioned over the groove, the respective chemical in the chamber moves into the solution in the groove. The system increases the ease, stability, and reliability of a chemical delivery process.

The present invention has: a step for heating a resin or a metal in a state in which the resin or metal is sandwiched by a mold provided with a projection that is constituted from an elastic body having a heat resistance temperature higher than the temperature at which the resin or the metal softens, and a support body which is larder than the mold and which is softened by heat at a higher temperature than the resin or the metal, while a force is applied to the mold in the direction toward the resin or the metal.

An automatic chemical solution formulating device combines and mixes stored solids and liquids into user specified formulations and dispenses those formulations into containers. Chemical solids are stored in cartridges of material separated into predetermined dosages (for example in reeled blister packs), avoiding the need for weighing during formulation. Elements include user interface, computer-controlled automated loading and unloading port for reagent-containing cartridges, cartridge conveyor system, reader for identifying cartridges, blister-pack strip drive system, punching mechanism to release reagents, portioning chamber to mix solvent with solids or liquids with optional portioning, accommodating formulation delivery port, position sensors, liquid flow measuring devices, liquid and gas pumps and valves, and label printer. The combination of these elements allows high-speed formulation and dispensing of user-specified formulations.