Abstract: A method for manufacturing a multilayer coil component 1 includes: a step of forming a conductor by a photolithography method using photosensitive conductive paste; a step of forming an insulating film covering the conductor by a photolithography method using photosensitive insulating paste; a step of forming a resin layer holding the conductor covered with the insulating film by a positive-type photoresist; a step of forming a plurality of the conductors and the insulating film and then removing the resin layer by irradiating the resin layer with ultraviolet rays and developing the resin layer; and a step of filling the conductor covered with the insulating film with a magnetic material after removing the resin layer.

Abstract: Preventing blood flow artifacts from being increased in an imaging plane allows reduction of the blood flow artifacts in the cross section subsequently excited. In the imaging using a spin-echo (SE) pulse sequence, an excitation width of a 90° pulse is extended from an imaging plane to one side. This one side indicates a downstream side of the blood flow with respect to a vessel of interest. In imaging multiple slices, the order of measuring the multiple imaging slices is set along the direction in which the width is extended.

Abstract: An element body includes a side surface, a first end surface, and a second end surface opposing the first end surface. Each of first and second external electrodes includes a conductive resin layer including resin and a plurality of metal particles. The conductive resin layer included in the first external electrode includes a first portion located on a side surface and a second portion located on a first end surface, the second portion having a content ratio of the metal particle smaller than a content ratio of the metal particle in the first portion. The conductive resin layer included in the second external electrode includes a third portion located on the side surface and a fourth portion located on a second end surface, the fourth portion having a content ratio of the metal particle smaller than a content ratio of the metal particle in the third portion.

Abstract: In MRI using an SE-based pulse sequence, an object is to suppress flow artifacts and acquire a flow artifact-free image regardless a velocity or a direction of blood flow. A pair of gradient magnetic field pulses are applied before and after a 180-degree pulse of the SE-based pulse sequence, and a plurality of times of imaging are performed using varying intensities of the pair of gradient magnetic field pulses. Image reconstruction is performed by performing a Fourier transformation on measurement data obtained through the plurality of times of imaging in an axial direction of the intensities of the gradient magnetic field pulses, that is, a velocity encoding direction. As a result, images can be separated for each velocity of a stationary tissue and a non-stationary component included in tissues, and an image of spins with a velocity of zero, that is, a flow artifact-free image of the stationary tissue, can be obtained.

Abstract: Provided is an oligonucleotide conjugate comprising an oligonucleotide and two or more linearly connected asialoglycoprotein receptor-binding molecules attached to the oligonucleotide, wherein the oligonucleotide comprises a locked nucleoside analog having a bridging structure between the 4? and 2? positions, is complementary to a human PCSK9 gene, and has inhibitory activity on the expression of the human PCSK9 gene. The oligonucleotide conjugate of the present invention can be used in the field of pharmaceutical products, in particular, the field of the development and production of therapeutic agents for diseases associated with a high LDL cholesterol level.

Abstract: A multilayer coil component includes an element body including an end surface, a coil disposed in the element body, and an external electrode disposed on an end portion of the element body and connected to the coil. The external electrode includes a conductive resin layer. The conductive resin layer includes resin and a plurality of metal particles and is in contact with the end surface. The conductive resin layer includes a metal particle group. The metal particle group consists a plurality of first metal particles included in the plurality of metal particles, and the plurality of first metal particles is adjacent to the end surface and separated from the end surface.

Abstract: A sliding member includes: a substrate; and a sliding alloy part provided on a surface of the substrate and formed of a Cu-based alloy containing Cu as a main component in the form of an assembly of a plurality of unit alloy parts. The sliding alloy part contains: a first soft phase present in interface regions defined in ranges preset with reference to unit interfaces and a second soft phase present in regions other than the interface regions. When the total area ratio of the first soft phase contained per unit area is defined as a first area ratio S1, and the total area ratio of the second soft phase contained per unit area is defined as a second area ratio S2, the sliding alloy part satisfies S1<S2.

Abstract: A method for manufacturing a multilayer coil component 1 includes forming a plurality of insulator layers by a photolithography method using a photosensitive insulator paste, forming a plurality of conductors and via conductors by a photolithography method using a photosensitive conductive paste, a step of forming a first conductor, a step of forming a first insulator layer around the first conductor such that it becomes even with an upper surface of the first conductor, a step of forming a second insulator layer provided with a via hole on the first conductor and the first insulator layer, and a step of forming a second conductor connected to the first conductor via the via hole on the second insulator layer.

Abstract: A multilayer coil component includes: an element body formed by stacking a magnetic body layer containing a plurality of metal magnetic particles of a soft magnetic material; a first coil disposed in the element body and configured to include a plurality of first coil conductors; a second coil disposed in the element body and configured to include a plurality of second coil conductors; a first external electrode to which one end portion of each of the first coil and the second coil is connected; and a second external electrode to which the other end portion of each of the first coil and the second coil is connected.

Abstract: In a coil component, the element body comprises four portions. The first portion includes a main surface and a region between a pair of terminal electrodes in a second direction. The second portion is located between the first portion and the coil conductor layer closest to the main surface in a first direction. The third portion is situated between the coil conductor layers closest to the main surface in the first direction, excluding the region between the coil conductor layers facing each other in the first direction. The fourth portion includes the main surface and is located between the main surface and the third portion in the first direction. The average particle diameter of metal magnetic particles in the first portion is smaller than that in any of the second, third, and fourth portions.

Abstract: A coil component includes: an element body including soft magnetic metal particles; a coil disposed inside the element body; and a first external electrode embedded in the element body to be exposed only from a mounting surface of the element body and connected to the coil. The first external electrode includes a first electrode portion having an exposed surface exposed from the mounting surface, and a second electrode portion projecting into the element body from the first electrode portion and spaced apart from the coil. An entirety of the second electrode portion is provided inside the element body.

Abstract: A coil component 1 includes an element body and a coil, each of a plurality of coil conductors has a rectangular shape and has corner portions in a cross section orthogonal to an extending direction of the coil conductor, at least some of the plurality of coil conductors are disposed to face each other in a first direction, the element body is provided between the coil conductors adjacent to each other in the first direction when viewed from the extending direction of the coil conductor, and includes a first portion covering at least some of the corner portions of the coil conductors and a second portion around the coil conductor, and an average particle size of metal magnetic particles located in the first portion is smaller than an average particle size of metal magnetic particles located in a second portion.

Abstract: A magnetic layer of a magnetic element body is between coil conductor layers in close proximity to each other along a lamination direction of the coil conductor layers. The magnetic layer includes metal magnetic particles. The metal magnetic particles have an average particle size of 0.3 ?m or more and 2.5 ?m or less. The metal magnetic particles provide a fill factor of 60% or more and 82% or less. The metal magnetic particles in a predetermined region, which contains a boundary between one of the coil conductor layers and the magnetic layer, have an average circularity of 0.80 or more.

Abstract: A multilayer coil component includes an element body, a coil disposed in the element body, and an external electrode exposed on the element body. The external electrode is electrically connected to the coil. The element body includes a stress reduction layer positioned between the coil and the external electrode.

Abstract: A vehicle includes a center display, a side display for a side camera monitor system, and an imaging camera which is configured to image an interior of a vehicle cabin, wherein the imaging camera is disposed above the side display and is disposed on a center side of the vehicle.

Abstract: An interior structure of a vehicle includes a roof console and an exciter. The roof console is disposed on a ceiling portion inside a vehicle cabin. The exciter generates vibrations according to an acoustic signal. The roof console includes a console main body in which input and output devices are mounted, and a console panel made of a hard resin to cover a side of the console main body that faces an inside of the vehicle cabin. The exciter is mounted on the console panel.

Abstract: A gear includes an annular sleeve and a tooth portion provided by injection molding to cover a part of the sleeve. The sleeve is a stacked body including a plurality of annular steel plates stacked in an axial direction of the sleeve.

Abstract: A steering column device includes a lower tube that is attached to a vehicle body so as to be pivotable in an up-down direction, a column shaft to which a steering wheel is attached, an upper tube that rotatably supports the column shaft and that also is attached to the lower tube so as to be movable in a front-rear direction, a motor for generating motor torque, a link mechanism that couples the lower tube and the upper tube so as to be capable of moving in conjunction, and a power transmission mechanism that acts to transmit the motor torque to the link mechanism. The link mechanism causes the pivoting of the lower tube in the up-down direction and the movement of the upper tube in the front-rear direction to be performed in conjunction, when the motor torque is transmitted to the link mechanism by the power transmission mechanism.

Abstract: A drug sorting apparatus with reduced packaging time is provided. A drug sorting apparatus includes: a second accommodating portion in which a plurality of sorting cups are arrangeable, the plurality of sorting cups being configured to accommodate a plurality of types of drugs in a state of being sorted by type; a packaging mechanism configured to package a drug, which is accommodated in the accommodating portion; a first dispensing mechanism configured to dispense, for each of the plurality of sorting containers, the drug accommodated in the accommodating portion to the packaging unit; and a container takeout mechanism configured to take out a sorting container from the accommodating portion so as to deliver the sorting container to the first dispensing mechanism, wherein the first dispensing mechanism is configured to tilt the sorting container received from the container takeout mechanism, to thereby dispense the drug accommodated in the sorting container to the packaging unit.

Abstract: Provided is an MRI using a GRE-based pulse sequence in which flow artifacts are suppressed and a flow artifact-free image is obtained regardless a velocity or a direction of blood flow. A pair of gradient magnetic field pulses (velocity encoding gradient magnetic field pulses) is applied before echo measurement of a GRE-based pulse sequence, and imaging is performed a plurality of times by varying intensities of the velocity encoding gradient magnetic field pulses. Measurement data obtained by imaging a plurality of times is subjected to a Fourier transformation in an axial direction of the intensity of the velocity encoding gradient magnetic field pulse, that is, in a velocity encoding direction, to perform image reconstruction. As a result, an image can be separated for each velocity of a stationary tissue and a non-stationary component included in the tissue, and an image of spins with a velocity of zero, that is, a flow artifact-free image of the stationary tissue, can be obtained.