Abstract: A mist-generating device includes: a droplet generating unit that generates, in a third liquid, a functional droplet including a first liquid that is spherical and a second liquid that covers an entirety of the first liquid and has a volatility lower than a volatility of the first liquid; and a mist-generating unit that generates a multilayer mist obtained by atomizing the third liquid containing the functional droplet.

Abstract: A mist-generating device includes: a droplet generating unit that generates, in a third liquid, a functional droplet including a first liquid that is spherical and a second liquid that covers an entirety of the first liquid and has a volatility lower than a volatility of the first liquid; and a mist-generating unit that generates a multilayer mist obtained by atomizing the third liquid containing the functional droplet.

Abstract: A nucleic acid amplification device which includes a flow channel for feeding a reaction solution containing a target nucleic acid includes: a nucleic acid amplification reaction portion that amplifies the target nucleic acid contained in the reaction solution; and a fed-solution retention portion that retains the reaction solution. The flow channel includes a first flow channel disposed in the nucleic acid amplification reaction portion and a second flow channel disposed in the fed-solution retention portion, and the reaction solution fed from the first flow channel is retained in the second flow channel.

Abstract: A microfluidic device includes a flow path through which a reaction solution flows, and an introducing portion for introducing the reaction solution into the flow path, wherein the flow path passes alternately and repeatedly several times through a first temperature region and a second temperature region having different predetermined temperatures, and the flow path includes the repeating unit portions passing through the first temperature region and the second temperature region, the repeating unit portions having decreasing lengths as the repeating unit portions are located farther away from the introducing portion.

Abstract: A nucleic acid amplification device includes: an introduction unit into which a reaction solution including a target nucleic acid is introduced; a nucleic acid amplification reaction section in which at least two temperature zones of different temperature are present, for amplifying the target nucleic acid included in the reaction solution introduced into the introduction unit; and a channel arranged to pass back and forth or in cyclic fashion through the at least two temperature zones, and having a capillary force transport mechanism for feeding the reaction solution by capillary force.

Abstract: A microfluidic device includes a flow path through which a reaction solution flows, and an introducing portion for introducing the reaction solution into the flow path, wherein the flow path passes alternately and repeatedly several times through a first temperature region and a second temperature region having different predetermined temperatures, and the flow path includes the repeating unit portions passing through the first temperature region and the second temperature region, the repeating unit portions having decreasing lengths as the repeating unit portions are located farther away from the introducing portion.

Abstract: A microfluidic device includes a channel through which a reaction solution flows. The channel passes through a reaction section having a plurality of temperature zones set at predetermined different temperatures. The channel includes, at least in the reaction section, a region where a cross-sectional area decreases in a feeding direction of the reaction solution.

Abstract: A nucleic acid amplification device which includes a flow channel for feeding a reaction solution containing a target nucleic acid includes: a nucleic acid amplification reaction portion that amplifies the target nucleic acid contained in the reaction solution; and a fed-solution retention portion that retains the reaction solution. The flow channel includes a first flow channel disposed in the nucleic acid amplification reaction portion and a second flow channel disposed in the fed-solution retention portion, and the reaction solution fed from the first flow channel is retained in the second flow channel.

Abstract: The present invention provides a miniaturized microfluidic device with a heater that has a simple structure without needing adhesion means for improving the heat transfer between the heater block and the device, and which can form the uniform temperature regions. Disclosed is a microfluidic device, including: a substrate; a reaction flow path formed on the substrate; and a temperature adjustment heater for heating the reaction flow path, in which a reaction flow path formation region including the reaction flow path formed therein and a temperature adjustment heater formation region including the temperature adjustment heater formed therein are alternately arranged on the substrate, the reaction flow path is formed to be bent at least one time in the reaction flow path formation region, and the temperature adjustment heater is formed to be bent at least one time in the temperature adjustment heater formation region.

Abstract: A nucleic acid amplification device includes: an introduction unit into which a reaction solution including a target nucleic acid is introduced; a nucleic acid amplification reaction section in which at least two temperature zones of different temperature are present, for amplifying the target nucleic acid included in the reaction solution introduced into the introduction unit; and a channel arranged to pass back and forth or in cyclic fashion through the at least two temperature zones, and having a capillary force transport mechanism for feeding the reaction solution by capillary force.

Abstract: A microfluidic device includes a channel through which a reaction solution flows. The channel passes through a reaction section having a plurality of temperature zones set at predetermined different temperatures. The channel includes, at least in the reaction section, a region where a cross-sectional area decreases in a feeding direction of the reaction solution.

Abstract: The present invention provides a miniaturized microfluidic device with a heater that has a simple structure without needing adhesion means for improving the heat transfer between the heater block and the device, and which can form the uniform temperature regions. Disclosed is a microfluidic device, including: a substrate; a reaction flow path formed on the substrate; and a temperature adjustment heater for heating the reaction flow path, in which a reaction flow path formation region including the reaction flow path formed therein and a temperature adjustment heater formation region including the temperature adjustment heater formed therein are alternately arranged on the substrate, the reaction flow path is formed to be bent at least one time in the reaction flow path formation region, and the temperature adjustment heater is formed to be bent at least one time in the temperature adjustment heater formation region.

Abstract: To provide a microfluidic device which does not apply a meandering reaction channel and thus can be reduced in size, the microfluidic device comprising a reaction channel is characterized in that a plurality of thermal cycle regions which respectively comprise at least two thermal regions with different temperatures are repeatedly provided and the reaction channel passes through the plurality of thermal cycle regions.

Abstract: In a moving structure, stability of swing motion of a moving plate is increased by enhancing tensional rigidity or flexural rigidity while restraining torsion rigidity of the hinge units. The hinge units of ladder shape with honeycombed portions are formed by twin supporting rods and crosspieces bridged between the twin supporting rods so as to support the moving plate rotatably. The tensional rigidity or the flexural rigidity is increased while restraining the torsion rigidity of the hinge units by the honeycombed portions of the hinge units.

Abstract: To provide a chemical sensor that can dissolve analytes in a gas in a liquid using a simple method, the chemical sensor comprising a sensor support section; a gas injection hole through which a gas containing an analyte is injected; a sample collection section in which the analyte contained in the gas injected through the gas injection hole is collected; a sample delivery section through which the analyte collected in the sample collection section is delivered; a sample reaction section including a reactant that causes a predetermined reaction with the analyte delivered through the sample delivery section; and a detection section in which the analyte reacted with the reactant in the sample reaction section is detected, wherein the sample collection section includes a Peltier element that liquefies water vapor contained in the gas injected through the gas injection hole.

Abstract: A video signal input-output circuit and a recording-reproduction apparatus in which a digitally compressed video signal input in packet form can be recorded and reproduced efficiently and in stable fashion. In this apparatus, a clock reference is detected from a packet signal containing the clock reference and a digitally compressed video signal, a time stamp for a packet is generated using a clock signal in phase with the clock reference and added to the particular packet, and the packet signals with the time stamp added thereto are recorded closely to each other in a data storage element such as a magnetic recording medium. At playback, the packet interval is output by being restored to the original length on the basis of the time stamp added to the packet in store.

Abstract: A video signal input-output circuit and a recording-reproduction apparatus in which a digitally compressed video signal input in packet form can be recorded and reproduced efficiently and in stable fashion. In this apparatus, a clock reference is detected from a packet signal containing the clock reference and a digitally compressed video signal, a time stamp for a packet is generated using a clock signal in phase with the clock reference and added to the particular packet, and the packet signals with the time stamp added thereto are recorded closely to each other in a data storage element such as a magnetic recording medium. At playback, the packet interval is output by being restored to the original length on the basis of the time stamp added to the packet in store.

Abstract: A video signal input-output circuit and a recording-reproduction apparatus in which a digitally compressed video signal input in packet form can be recorded and reproduced efficiently and in stable fashion. In this apparatus, a clock reference is detected from a packet signal containing the clock reference and a digitally compressed video signal, a time stamp for a packet is generated using a clock signal in phase with the clock reference and added to the particular packet, and the packet signals with the time stamp added thereto are recorded closely to each other in a data storage element such as a magnetic recording medium. At playback, the packet interval is output by being restored to the original length on the basis of the time stamp added to the packet in store.

Abstract: A video signal input-output circuit and a recording-reproduction apparatus in which a digitally compressed video signal input in packet form can be recorded and reproduced efficiently and in stable fashion. In this apparatus, a clock reference is detected from a packet signal containing the clock reference and a digitally compressed video signal, a time stamp for a packet is generated using a clock signal in phase with the clock reference and added to the particular packet, and the packet signals with the time stamp added thereto are recorded closely to each other in a data storage element such as a magnetic recording medium. At playback, the packet interval is output by being restored to the original length on the basis of the time stamp added to the packet in store.

Abstract: In a semiconductor mechanical structure, hinges may not be broken even when a mechanical shock is applied from outside, and thus, crashworthy is enhanced. A light scanning mirror includes a moving plate, a twin hinges constituting an axis of swing motion of the moving plate wherein an end of each hinge is connected to both ends of the moving plate, a stationary frame which is disposed to surround peripheries of the moving plate and supports another end of each of the twin hinges, and stoppers formed on the stationary frame. When the moving plate displaces in a lateral direction, the stopper contacts a side end portion of a recess of the moving plate, so that the displacement of the moving plate in the lateral direction is restrained. Thereby, the breakage of the hinges is prevented even when the mechanical shock is applied from outside.