Abstract: The present technology relates to an imaging device, a display system, and a display method capable of improving visibility. The imaging device includes an imaging unit and a light control element. The light control element is arranged at a position intersecting with an optical axis of the imaging unit and adapted to change a transmittance or a reflectance of light when a predetermined condition is satisfied. The present technology can be applied to a display system of a vehicle.

Abstract: The present technology relates to an imaging device, a display system, and a display method capable of improving visibility. The imaging device includes: an imaging unit; and a light control element arranged at a position intersecting with an optical axis of the imaging unit and adapted to change a transmittance or a reflectance of light when a predetermined condition is satisfied. The present technology can be applied to a display system of a vehicle.

Abstract: A microchip includes a channel permitting a sheath liquid to flow therethrough; and a microtube for introducing a sample liquid into a laminar flow of the sheath liquid flowing through the channel; wherein liquid feeding is performed in the condition where a laminar flow of the sample liquid introduced through the microtube is surrounded by the laminar flow of the sheath liquid.

Abstract: A microchip includes a channel permitting a sheath liquid to flow therethrough; and a microtube for introducing a sample liquid into a laminar flow of the sheath liquid flowing through the channel; wherein liquid feeding is performed in the condition where a laminar flow of the sample liquid introduced through the microtube is surrounded by the laminar flow of the sheath liquid.

Abstract: A microchip which includes, a liquid flow path through which a liquid sample including a sample flows; and a gas flow path in which compressed gas flows, wherein liquid sample inlet which communicates with the starting end of the liquid flow path and a gas supply port which communicates with a terminal of the gas flow path are formed on the same plane, and a sealing material is disposed so as to enclose the liquid sample inlet and the gas supply port.

Abstract: A microchip includes a channel permitting a sheath liquid to flow therethrough; and a microtube for introducing a sample liquid into a laminar flow of the sheath liquid flowing through the channel; wherein liquid feeding is performed in the condition where a laminar flow of the sample liquid introduced through the microtube is surrounded by the laminar flow of the sheath liquid.

Abstract: A microchip includes a channel permitting a sheath liquid to flow therethrough; and a microtube for introducing a sample liquid into a laminar flow of the sheath liquid flowing through the channel; wherein liquid feeding is performed in the condition where a laminar flow of the sample liquid introduced through the microtube is surrounded by the laminar flow of the sheath liquid.

Abstract: A microchip includes a sample liquid feed channel permitting a sample liquid containing particulates to flow through, at least one pair of sheath liquid feed channels configured to merge to the sample liquid feed channel from both sides thereof for permitting a sheath liquid to flow through surrounding the sample liquid, a merging channel connected to the sample liquid feed channel and the one pair of the sheath liquid feed channels for permitting the sample liquid and the sheath liquid to merge and flow through the merging channel, a vacuum suction unit for drawing into the particulate subject to collection, connected to the merging channel, and at least one pair of discharge channels formed on both sides of the vacuum suction unit for permitting to flow through from the merging channel.

Abstract: A microchip which includes, a liquid flow path through which a liquid sample including a sample flows; and a gas flow path in which compressed gas flows, wherein liquid sample inlet which communicates with the starting end of the liquid flow path and a gas supply port which communicates with a terminal of the gas flow path are formed on the same plane, and a sealing material is disposed so as to enclose the liquid sample inlet and the gas supply port.

Abstract: A microchip includes a sample liquid feed channel permitting a sample liquid containing particulates to flow through, at least one pair of sheath liquid feed channels configured to merge to the sample liquid feed channel from both sides thereof for permitting a sheath liquid to flow through surrounding the sample liquid, a merging channel connected to the sample liquid feed channel and the one pair of the sheath liquid feed channels for permitting the sample liquid and the sheath liquid to merge and flow through the merging channel, a vacuum suction unit for drawing into the particulate subject to collection, connected to the merging channel, and at least one pair of discharge channels formed on both sides of the vacuum suction unit for permitting to flow through from the merging channel.

Abstract: A microchip includes a channel permitting a sheath liquid to flow therethrough; and a microtube for introducing a sample liquid into a laminar flow of the sheath liquid flowing through the channel; wherein liquid feeding is performed in the condition where a laminar flow of the sample liquid introduced through the microtube is surrounded by the laminar flow of the sheath liquid.