A fluid handling device has an introduction port, a first flow channel which is connected to the introduction port and in which a droplet can move when a fluid including the droplet is caused to flow therein, a first chamber for capturing the droplet moving through the first flow channel, and a second chamber through which the droplet captured by the first chamber can move via the first flow channel. The liquid handling device is capable of switching between a first state in which a droplet moving through the first flow channel is captured by the first chamber, and a second state in which the droplet captured by the first chamber moves to the second chamber via the first flow channel.

Disclosed herein are systems and methods for providing a portable magnetic field therapy system for inducing an effect of a chemical or biochemical agent to a mammalian subject, such as for the treatment of diseases and adverse health conditions.

A microchip electrophoresis method includes sequentially analyzing a plurality of samples by repeating an analysis process by electrophoresis separation in a microchip, executing a cleaning process of the microchip, and setting timing of the cleaning process of the microchip at arbitrary timing between a plurality of analysis processes.

A device includes a first unit for skeletal muscle tissue formation; a second unit for motor neuron culture; a third unit for causing the first and second units to communicate with each other; and a pillar serving as a scaffold for skeletal muscle tissue formation. The first unit includes a first base material and a first culture tank formed in the first base material. The second unit includes a second base material and a second culture tank formed in the second base material. The third unit includes a third base material and an axon channel formed in the third base material, through which a bundle of axons passes. One end of the third unit is connectable to the second unit and cause the axon channel and the second culture tank to communicate with each other. A first opening part is formed to the other end of the third unit.

A fluidic device includes a first circulation flow path and a second circulation flow path which circulate a solution containing a sample material, the first circulation flow path and the second circulation flow path share at least a part of the flow path, and at least one selected from the group consisting of a capture unit which captures the sample material, a detection unit which detects the sample material, a valve, and a pump is provided on the shared flow path.

A fluidic device includes a first circulation flow path and a second circulation flow path which circulate a solution containing a sample material, the first circulation flow path and the second circulation flow path share at least a part of the flow path, and at least one selected from the group consisting of a capture unit which captures the sample material, a detection unit which detects the sample material, a valve, and a pump is provided on the shared flow path.

The purpose of the present invention is to provide a liquid handling method that makes it possible to simply isolate a droplet, a fluid handling device used in this method, and a fluid handling system. This fluid handling method serves to flow a fluid including a solvent and a droplet through a fluid handling device comprising an inlet, a first flow path having one end connected to the inlet, a chamber connected to the other end of the first flow path, a second flow path having one end connected to the chamber, and an outlet connected to the other end of the second flow path. This fluid handling method includes an introduction step for introducing the fluid through the inlet and accommodating the droplet in the chamber, a rotation step for rotating the fluid handling device after the introduction step, and a removal step for removing the droplet from the inside of the chamber after the rotation step. In the introduction step, the fluid handling device is disposed such that the chamber widens from the position where the chamber and the second flow path are connected in the direction opposite from the direction of gravity.

The present invention aims at providing a fluidic device that can hold a large amount of solutions in a reservoir without depending on an attitude. The reservoir includes a meandering flow path including: a plurality of first flow paths that extend linearly along a first direction and that are arranged to be spaced in a second direction crossing the first direction; and a second flow path that extends linearly along the second direction such that a connection between first end sides of the adjacent first flow paths and a connection between second end sides of the adjacent first flow paths are alternately switched along the second direction for each first flow path, wherein the meandering flow path meanders along the second direction. When the length of each of the first flow path and the second flow path is L, a surface tension is γ, the density of the solution is ρ, the acceleration which includes a gravity and which is applied to the solution is G, the wetted perimeter length of the first flow path and the second flow path is Wp, a cross-sectional area of the first flow path and the second flow path is A, a receding contact angle is α, and an advancing contact angle is β, a relationship L≤(γ×Wp×(cos α−cos β))/(ρ×A×G) is satisfied.

The present disclosure provides a technique capable of manufacturing a measurement cell having a high specimen utilization ratio in the case of using a measurement cell that introduces a specimen into a surface hole. In the measurement cell manufacturing method according to the present disclosure, a measurement cell includes a channel wall protruding from the lower surface substrate toward the through-hole, and a specimen solution is introduced into a lower surface side space to introduce the specimen into the through-hole (see FIG. 1).

The present disclosure provides a technique capable of manufacturing a measurement cell having a high specimen utilization ratio in the case of using a measurement cell that introduces a specimen into a surface hole. In the measurement cell manufacturing method according to the present disclosure, a measurement cell includes a channel wall protruding from the lower surface substrate toward the through-hole, and a specimen solution is introduced into a lower surface side space to introduce the specimen into the through-hole (see FIG. 1).