Kyocera Corporation

Masashi Yoneta

Yuji Masuda

Jumpei Nakazono

Shigetaka Shintani

Youichi Moto

Yuuki Matsusaki

Takashi Asou

A particle separating and measuring device includes a first flow path device having a post-separation flow outlet to allow discharge of a first fluid containing target particles to be separated, and a second flow path device receiving the first flow path device and having a first flow inlet to receive the first fluid. The first flow path device having a lower surface having the post-separation flow outlet is on the second flow path device having an upper surface having the first flow inlet in a first region, with the post-separation flow outlet facing and connecting to the first flow inlet. A connection flow path vertically extends from an opening of the first flow inlet to a first flow path, and narrows from the opening of the first flow inlet toward the first flow path.

Particle separating and measuring device and particle separating and measuring apparatus

A particle separation device comprises, inside a plate-like base body, a straight main flow path including a flow inlet and a plurality of branch flow paths. The flow inlet includes a sample flow inlet and a pressing flow inlet. The sample flow inlet is connected to the main flow path via a first bending part, a first straight part, a second bending part, and a second straight part. Widths in the first bending part and the first straight part are larger than widths in the second bending part and the second straight part. The widths in the second bending part and the second straight part are larger than a width in the main flow path. The pressing flow inlet is connected to the side surface of the main flow path via a third straight part, a third bending part, a fourth straight part, and a fifth straight part.

Particle separation device and particle separation apparatus

A specimen introduction method for improving a measurement accuracy and efficiency includes a preparation step, first step, second step, and third step. The preparation step uses a switching member to connect a first feeder to a first inlet-and-outlet, a second inlet-and-outlet to a discharge container, a third inlet-and-outlet to a first inflow port, and a second feeder to a second inflow port. The first step includes filling a path from the second feeder to the switching member through the second inflow port, a specimen treatment device, and the first inflow port with a second liquid. The second step includes filling a path from the first feeder to the switching member with a first liquid. The third step includes subsequently introducing the first liquid into the first inflow port from the first feeder through the switching member, and introducing the second liquid into the second inflow port from the second feeder.

Method for introducing liquid samples into sample processing device

A particle separating and measuring device of the present disclosure includes: a first flow path device including a post-separation flow outlet through which a first fluid containing specific particles to be separated flows out; and a second flow path device on which the first flow path device is placed and including a first flow inlet through which the first fluid flows in, the first flow path device in which the post-separation flow outlet is arranged in a lower surface is placed on the second flow path device in which the first flow inlet is arranged in an upper surface of a first region, the post-separation flow outlet and the first flow inlet are connected so as to face each other, and a size of an opening of the first flow inlet is larger than a size of an opening of the post-separation flow outlet.

Particle separating and measuring device, and particle separating and measuring apparatus

A flow path device comprises a plate-like measurement flow path device and a plate-like separation flow path device. The measurement flow path device includes a first flow path for measuring specific particles on a first fluid and connected to a third flow path and a second flow path for correction and passing a second fluid, not including the specific particles. The separation flow path device includes a fourth flow path for separating and selecting the specific particles from a sample and collecting a fluid. The separation flow path device is on the measurement flow path device's upper surface. The sample passes through a fifth flow path, the upper surface's opening, and flows into the fourth flow path from an opening in the separation flow path device's lower surface. The first fluid passes through the lower surface's opening, and flows into the first flow path from the upper surface's opening.

Flow path device and measurement apparatus

Analysis chip for biochemical testing machine

An inspection flow path device according to the present disclosure comprises: a first flow path device having a plate-like shape and including a pair of first surfaces located opposite to each other in a thickness direction and a first flow path located inside and including a first opening located in the pair of first surfaces and a branch flow path; and a second flow path device having a plate-like shape and translucency and including a pair of second surfaces located opposite to each other in a thickness direction and a second flow path located inside and including a second opening located in the pair of second surfaces; wherein one of the pair of first surfaces of the first flow path device is located on one of the pair of second surfaces of the second flow path device, and the first opening and the second opening are connected to each other.

Inspection flow path device and inspection apparatus

A measurement apparatus according to the present disclosure is a measurement apparatus capable of measuring particles in a fluid and comprises: a flow path device including a first flow path with translucency through which a first fluid including the particles passes and a second flow path with translucency through which a second fluid which does not include the particles passes; an optical sensor facing the flow path device, irradiating each of the first flow path and the second flow path with light, and receiving light passing through each of the first flow path and the second flow path; and a controller measuring the particles by comparing an intensity of light passing through the first flow path and an intensity of light passing through the second flow path, each of which is obtained by the optical sensor.

Measurement apparatus

A thermal head according to the disclosure includes: a substrate; a heat generating section disposed on the substrate; an electrode disposed on the substrate so as to be electrically connected to the heat generating section; a protective layer which covers the heat generating section and part of the electrode, the protective layer being formed of an inorganic material; a cover layer disposed on the protective layer, the cover layer being formed of a resin material; and inorganic particles disposed on a surface of the protective layer so as to protrude from the surface. Moreover, the inorganic particles each comprise a first portion located inside the cover layer and a second portion located inside the protective layer.

Thermal head and thermal printer

A thermal head includes: a substrate; a thermal storage layer disposed on the substrate and having a ridge portion; heat generating portions disposed on the ridge portion; and electrodes which are disposed on the substrate. At least one of the electrodes has a first corner portion at which a side surface and an upper surface intersect, more upstream in the conveyance direction of the recording medium than the top portion of the ridge portion. In a cross section of the thermal head, an inclination angle of an imaginary line which connects an intersection point of an imaginary line which hangs downward from the top portion () of the ridge portion and the substrate, with the first corner portion, is 75&#xb0; or less from the substrate. Thus, printing residue is less likely to adhere to the thermal head.

A thermal head includes: a substrate; a heat generating portion disposed on the substrate; a first electrode electrically connected to the heat generating portion; a driving IC which controls actuation of the heat generating portion; a first cover member which covers the driving IC; a connection member which is disposed on the substrate and has a connecting section electrically connected to a second electrode; and a second cover member which covers the connecting section and extends toward the first cover member. The second cover member includes a first portion and a second portion which is thinner than the first portion. The first portion is disposed next to the connection member. The second portion lies farther away from the connection member than the first portion, and includes an overlying part which overlies the first cover member.

A thermal head capable of efficiently radiating heat transferred to a protective member is provided. A thermal head includes a substrate; a plurality of heat generating portions disposed on the substrate; an electrode which is disposed on the substrate and is electrically connected to the heat generating portions; a conductive member electrically connected to the electrode; a protective member which is in contact with the conductive member and protects the conductive member; and a heatsink on an upper surface of which the substrate is disposed, wherein the protective member is also in contact with the heatsink.

Growing community of inventors

Kagoshima, Japan

Masashi Yoneta