Abstract: A carrageenan derivative according to the present disclosure can quickly and easily detect and label the presence of inflammation-related macrophages and, particularly, can accurately and easily identify M1-type macrophages highly associated with early inflammation. In addition, the carrageenan derivative has advantages in that it can be produced easily, environmental pollution is minimized because a small amount of organic solvent is used, and initial cost is low.

Abstract: The present invention relates to a composition for detecting hydrogen sulfide or measuring a concentration of hydrogen sulfide, and a composition comprising same as an effective ingredient for diagnosing or imaging in vivo inflammation, tissues having hypoxic damage, or cancer.

Abstract: A sensor driving device includes a first substrate; a second substrate disposed on the first substrate; and an image sensor. The second substrate includes a body having first and second lateral surfaces; a first protrusion part protruding from the first lateral surface; and a second protrusion part protruding from the second lateral surface. The first protrusion part includes a first extension part, and a second extension part extending in a direction different from the first extension part. The second protrusion part includes a first extension part, and a second extension part extending in a direction different from the first extension part. The first extension parts are disposed parallel to an optical axis of the image sensor. The second extension part of the first protrusion part is closer to the second extension part of the second protrusion part than to the first extension part of the second protrusion part.

Abstract: A substrate processing apparatus includes a processing chamber having a processing space in which a substrate is plasma-processed, and having a transparent window; a gas flow unit supplying and discharging process gas to the processing chamber; and a laser irradiator irradiating a laser for heating the substrate to be selectively atomic layer-processed for each of a plurality of thin films formed on the substrate through the transparent window from an external space of the processing chamber.

Abstract: The inventive concept provides an antenna member. In an embodiment, the antenna member includes a first coil and a second coil which have a rotational symmetry to each other, and wherein the first coil includes a first supply terminal applied with a current and a first ground terminal connected to the ground, the second coil includes a second supply terminal applied with the current and a second ground terminal connected to the ground, and wherein the first coil and the second coil each include a first portion having an arc-shape and a second portion having an arc-shape which as a whole form one winding, and when seen from a side, the second portion has a relatively lower height than the first portion, and the second portion of the second coil is positioned below the first portion of the first coil, and the second portion of the first coil is positioned below the first portion of the second coil.

Abstract: A lens driving device according to an embodiment of the present invention comprises: a first lens; and an optical path-changing member that changes the path of light incident from the first lens and emits same, wherein the first lens and the optical path-changing member are arranged so as to be tilted simultaneously with respect to a first axis and to be tilted separately with respect to a second axis.

Abstract: A sensor driving device includes a first substrate; a second substrate disposed on the first substrate; and an image sensor. The second substrate includes a body having first and second lateral surfaces; a first protrusion part protruding from the first lateral surface; and a second protrusion part protruding from the second lateral surface. The first protrusion part includes a first extension part, and a second extension part extending in a direction different from the first extension part. The second protrusion part includes a first extension part, and a second extension part extending in a direction different from the first extension part. The first extension parts are disposed parallel to an optical axis of the image sensor. The second extension part of the first protrusion part is closer to the second extension part of the second protrusion part than to the first extension part of the second protrusion part.

Abstract: The embodiment relates to a lens driving device and a camera module including the same. A lens driving device according to an embodiment can include a first housing in which a bobbin including a lens is disposed and a magnet is disposed; a second housing disposed to surround the first housing and having a coil disposed thereon; a main substrate disposed below the second housing, a sensor substrate located between the main substrate and the second housing and having an image sensor disposed thereon, and a wiring substrate electrically connecting the main substrate and the sensor substrate.

Abstract: The present embodiment relates to a camera module comprising: a housing including a first surface; a holder including a lens, and including a second surface which faces the first surface and is formed on the outer surface of the holder; and a guide member disposed between the first surface and the second surface, wherein the first surface and the second surface have curved surfaces, the curved surface of the second surface is a curved surface of which the central portion further protrudes outward than the top and bottom thereof, and the curved surface of the first surface is a curved surface of which the central portion is more recessed than the top and bottom thereof.

Abstract: The present disclosure relates to a jig for measuring a 3-electrode voltage. The jig can measure charging and discharging voltages of a secondary battery in an environment similar to that of an actually used secondary battery by minimizing air contact and electrolyte use of a battery cell. In an embodiment, disclosed is a jig for measuring a 3-electrode voltage that comprises a jig body including a receiving part for mounting a secondary battery in which an electrode assembly is accommodated inside a case. The jig also includes a jig door that opens or closes a side of the jig body in which the receiving part is located. The jig further includes a cathode electrode that is mounted to the jig body, with the cathode electrode including a part being electrically connected to a cathode electrode tab protruding from upper portion of the secondary battery mounted in the receiving part, and with a part of the cathode electrode protruding to outside of the jig.

Abstract: The present embodiment relates to a sensor driving apparatus comprising: a first substrate including a first opening; a support member arranged at a position corresponding to the first opening; a first connector for electrically connecting the support member and the first substrate and elastically supporting the support member; a base coupled to the support member; a second substrate arranged on the base; an image sensor mounted on the second substrate; a second connector which is arranged on the base and electrically connects the second substrate and the first connector; a first driving unit arranged on the first substrate; and a second driving unit arranged on the base and facing the first driving unit.

Abstract: The present embodiment relates to a sensor driving apparatus comprising: a first substrate including a first opening; a support member arranged at a position corresponding to the first opening; a first connector for electrically connecting the support member and the first substrate and elastically supporting the support member; a base coupled to the support member; a second substrate arranged on the base; an image sensor mounted on the second substrate; a second connector which is arranged on the base and electrically connects the second substrate and the first connector; a first driving unit arranged on the first substrate; and a second driving unit arranged on the base and facing the first driving unit.

Abstract: Proposed are a substrate treatment system and a substrate treatment method. More particularly, a technology capable of realizing a fine etching adjustment and capable of increasing a Unit Per Equipment Hour (UPEH) by reducing time required for a process is provided.

Abstract: The inventive concept provides a substrate treating apparatus. The substrate treating apparatus includes a chamber having a treating space; a support unit configured to support a substrate in the treating space; a window plate positioned above the treating space; and a conductive layer formed on the window plate, and wherein a bottom surface of the window plate is exposed to the treating space, and the conductive layer is formed on a top surface among a top surface and a bottom surface of the window plate.

Abstract: Proposed are a substrate treatment method and a substrate treatment system in which a cooling process with an improved cooling speed and an improved cooling efficiency is applied in a substrate treatment process using an upper heat source. A substrate treatment method etching a substrate at an atomic layer level by using a processing unit and a thermal treatment unit may be provided. The substrate treatment method includes a surface treatment process in which a substrate surface is modified in the processing unit, a desorption process in which the substrate surface-treated in the processing unit is heated by the upper heat source in the thermal treatment unit, thereby generating a desorption reaction on the substrate surface, and a temperature adjustment process in which the substrate is cooled by a cooling plate in the thermal treatment unit, thereby maintaining a temperature of the substrate at a set temperature range.

Abstract: Proposed is a substrate treatment apparatus and a plasma density control method, and relates to a technology of controlling non-uniformity of plasma density in a substrate treatment process using plasma so that a plasma sheath is adjusted, thereby precisely controlling the substrate treatment process.

Abstract: The inventive concept provides a substrate treating apparatus. The substrate treating apparatus includes an ion blocker dividing the inner space into a first space at a bottom side and a second space at a top side; a support unit configured to support a substrate at the first space; and a plasma source generating a plasma at the inner space, and wherein a plurality of passages are formed at the ion blocker for flowing a fluid from the second space to the first space, and the ion blocker is made of a dielectric substance, and an ion among an ion and a radical included in the plasma is captured while passing through the passage.

Abstract: A nanoplatform for targeting macrophages is obtained by a click chemistry reaction between albumin conjugated with an aizde (N3) or cyclooctyne functional group and a transmitter conjugated with an azide (N3) or cyclooctyne functional group, wherein the transmitter comprises a mannosyl group or a galactosyl group, and when the albumin is conjugated with the azide functional group, the transmitter is conjugated with the cyclooctyne functional group while, when the albumin is conjugated with the cyclooctyne functional group, the transmitter is conjugated with the azide functional group.

Abstract: A method for operating an electronic device, the method including: displacing a rollable touchscreen to a first position along a first direction, a first side of the rollable touchscreen being mounted in a housing, the rollable touchscreen being configured to be rolled into or unrolled out of the housing along the first direction, detecting an active electrode at a first location on the rollable touchscreen, the active electrode being mounted in the housing, and determining the first position of the rollable touchscreen based on the first location, the first positing being indicative of a fractional amount of the rollable touchscreen outside the housing.

Abstract: A method of fabricating a semiconductor device, which is capable of sufficiently filling trenches, is provided. The method includes: providing a substrate having defined thereon a plurality of active regions, which are spaced apart from one another by a device isolation film; forming a plurality of wordline trenches, which extend longitudinally in one direction, by removing portions of the active regions and portions of the device isolation film; forming gate insulating films along inner sidewalls of the wordline trenches; and forming wordlines, which fill portions of the wordline trenches, on the gate insulating films, wherein the forming the wordlines, comprises filling the portions of the wordline trenches with metal layers using a supercritical fluid deposition (SFD) method.