mhurhangee/ep-ind-claims huggingface dataset:
A battery comprising: a core cell comprising a first surface and a second surface which are opposite to each other and forming first and second electrodes (11, 12), and a lateral surface connecting the first and second surfaces (10a, 10b); an insulating sheet arranged on the first surface of the core cell and in which a conduction hole is defined in a position corresponding to the first electrode; and an electrode plate arranged on the insulating sheet and electrically connected to the first electrode through the conduction hole, characterized in that a conductive connection member is arranged in the conduction hole to electrically connect the first electrode to the electrode plate, the electrode plate is located on an upper side of the insulating sheet and the first electrode is located on a lower side of the insulating sheet, and the conductive connection member comprises a compressible conductor which is compressible so as to be compressed in mutually-facing directions between the electrode plate and the first electrode for contacting with the electrode plate and the first electrode. a core cell comprising a first surface and a second surface which are opposite to each other and forming first and second electrodes (11, 12), and a lateral surface connecting the first and second surfaces (10a, 10b); an insulating sheet arranged on the first surface of the core cell and in which a conduction hole is defined in a position corresponding to the first electrode; and an electrode plate arranged on the insulating sheet and electrically connected to the first electrode through the conduction hole, characterized in that a conductive connection member is arranged in the conduction hole to electrically connect the first electrode to the electrode plate, the electrode plate is located on an upper side of the insulating sheet and the first electrode is located on a lower side of the insulating sheet, and the conductive connection member comprises a compressible conductor which is compressible so as to be compressed in mutually-facing directions between the electrode plate and the first electrode for contacting with the electrode plate and the first electrode.
A drug infusion system comprising a memory device and at least one processor executing an infusion controller configured to: receive a plurality of electrical signals, wherein each of the plurality of electrical signals are received from a respective area electrode detecting localized bioelectrical signal from a uterus; determine the presence of a first rest period, wherein the first rest period does not contain a uterine contraction; characterized in that the controller is further configured to: identify, within the first rest period of the plurality of electrical signals, an oscillatory signal in at least one of the plurality of electrical signals, wherein the oscillatory signal has an amplitude of between about 20 μV and about 200 μV; determine a duration of the oscillatory signal identified within the first rest period; and reduce, responsive to determining that the duration of the oscillatory signal exceeds a threshold, an infusion rate of a drug. receive a plurality of electrical signals, wherein each of the plurality of electrical signals are received from a respective area electrode detecting localized bioelectrical signal from a uterus; determine the presence of a first rest period, wherein the first rest period does not contain a uterine contraction; characterized in that the controller is further configured to: identify, within the first rest period of the plurality of electrical signals, an oscillatory signal in at least one of the plurality of electrical signals, wherein the oscillatory signal has an amplitude of between about 20 μV and about 200 μV; determine a duration of the oscillatory signal identified within the first rest period; and reduce, responsive to determining that the duration of the oscillatory signal exceeds a threshold, an infusion rate of a drug. identify, within the first rest period of the plurality of electrical signals, an oscillatory signal in at least one of the plurality of electrical signals, wherein the oscillatory signal has an amplitude of between about 20 μV and about 200 μV; determine a duration of the oscillatory signal identified within the first rest period; and reduce, responsive to determining that the duration of the oscillatory signal exceeds a threshold, an infusion rate of a drug.
A light emitting device comprising: a light emitting structure including a second conductivity type semiconductor layer, an active layer, and a first conductivity type semiconductor layer; a second electrode layer arranged under the light emitting structure; a first electrode layer (350,) having at least a portion extending to contact the first conductivity type semiconductor layer passing the second conductivity type semiconductor layer and the active layer; an insulating layer (340,) arranged between the second electrode layer and the first electrode layer, between the second conductivity type semiconductor layer and the first electrode layer, and between the active layer and the first electrode layer; and an electrode pad arranged on the first electrode layer, wherein the first electrode layer includes; a contact portion passing the second conductivity type semiconductor layer and the active layer and in contact with the first conductivity type semiconductor layer overlapped with the light emitting structure in a vertical direction, and an exposed portion not overlapped with the light emitting structure in the vertical direction and exposed at a sidewall of the light emitting structure, and a top side of the exposed portion is positioned higher than a top side of the active layer, and wherein the top side of the exposed portion is exposed at the sidewall of the light emitting structure and is exposed from the insulating layer, and the electrode pad is arranged on the top side of the exposed portion, and wherein the vertical direction is a direction facing from the second electrode layer toward the first conductivity type semiconductor layer, and a top side of the contact portion has a roughness which is a regular or irregular pattern to increase contact area between the first electrode layer and the first conductivity type semiconductor layer, and wherein the roughness is in contact with the first conductivity type semiconductor layer and has a width of 0.02μm -100μm and a height of 0.2μm - 10μm. a light emitting structure including a second conductivity type semiconductor layer, an active layer, and a first conductivity type semiconductor layer; a second electrode layer arranged under the light emitting structure; a first electrode layer (350,) having at least a portion extending to contact the first conductivity type semiconductor layer passing the second conductivity type semiconductor layer and the active layer; an insulating layer (340,) arranged between the second electrode layer and the first electrode layer, between the second conductivity type semiconductor layer and the first electrode layer, and between the active layer and the first electrode layer; and an electrode pad arranged on the first electrode layer,
Strip for organizing cables into a layer, the strip comprising a body lying in a transverse direction between two end portions (3, 4), the body having an upper surface and a lower surface, at least one out of the upper surface and the lower surface comprising at least two slots, each slot forming a substantially longitudinal passage for a cable, the strip being characterized in that it also comprises: - on a first end portion, a hinge connection system, which includes, on the side of the upper surface, a first cylindrical hinge element forming an axis of rotation and which includes, on the side of the lower surface, a second depressed hinge element that complements the first hinge element, adapted to engage on the first hinge element by clicking; - on the second end portion, a locking system, which includes, on the side of the upper surface, a first projecting locking element and which includes, on the side of the lower surface, a second depressed locking element adapted to come into engagement with the first locking element; such that a first hinge element of a first strip can be assembled by clicking onto a second hinge element of a second strip, and a first locking element of the first strip can be held by a second locking element of the second strip, in order to form an assembly for organizing cables. - on a first end portion, a hinge connection system, which includes, on the side of the upper surface, a first cylindrical hinge element forming an axis of rotation and which includes, on the side of the lower surface, a second depressed hinge element that complements the first hinge element, adapted to engage on the first hinge element by clicking; - on the second end portion, a locking system, which includes, on the side of the upper surface, a first projecting locking element and which includes, on the side of the lower surface, a second depressed locking element adapted to come into engagement with the first locking element;
An oxygen-sensitive probe comprising a microporous wettable polyolefin support layer and an oxygen-sensitive photoluminescent dye applied onto a first major surface of said support layer forming a thin film coating on the support layer and wherein the microporous wettable polyolefin support layer is a non-woven spinlaid or spunbond polypropylene fabric with hydrophilic pendant groups.
A method of printing a three-dimensional article with a surface colorization, the method comprising: receiving data representing the surface colorization of the article; transforming the data representing the surface colorization of the article into voxel data of the article, the voxel data comprising (a) location values and at least one of (b) color values and (c) transparency values for a plurality of columns of voxels normal to a surface of the article; and selectively depositing layers of one or more build materials onto a substrate to form the article in accordance with the voxel data, wherein at least one column of the plurality of columns of voxels exhibits a surface color resulting from a combination of colors of a plurality of voxels of the column, and wherein at least one build material used to form the article comprises a composite ink comprising an optically transparent or substantially optically transparent carrier ink comprising a curable material, and a colorant dispersed in the carrier ink in an amount of 0.01 to 5 weight %, based on the total weight of the composite ink, and wherein the carrier ink has an optical transparency of at least 70% transmission between 350 nm and 750 nm at a thickness of 0.01 to 10 mm. receiving data representing the surface colorization of the article; transforming the data representing the surface colorization of the article into voxel data of the article, the voxel data comprising (a) location values and at least one of (b) color values and (c) transparency values for a plurality of columns of voxels normal to a surface of the article; and selectively depositing layers of one or more build materials onto a substrate to form the article in accordance with the voxel data, wherein at least one column of the plurality of columns of voxels exhibits a surface color resulting from a combination of colors of a plurality of voxels of the column, and wherein at least one build material used to form the article comprises a composite ink comprising an optically transparent or substantially optically transparent carrier ink comprising a curable material, and a colorant dispersed in the carrier ink in an amount of 0.01 to 5 weight %, based on the total weight of the composite ink, and wherein the carrier ink has an optical transparency of at least 70% transmission between 350 nm and 750 nm at a thickness of 0.01 to 10 mm.
A method of forming an organosilicon product, the method comprising: contacting a first side of a membrane with a nonvolatile liquid reactant comprising a compound having at least one silicon-bonded hydrogen atom; and contacting a second side of the membrane with a gaseous reactant comprising a compound having at least one carbon-carbon multiple bond, wherein the contacting is sufficient to react the gaseous reactant with the liquid reactant via a hydrosilylation reaction to form an organosilicon product on the first side of the membrane, wherein the membrane is substantially impermeable to the liquid reactant and substantially permeable to the gaseous reactant. contacting a first side of a membrane with a nonvolatile liquid reactant comprising a compound having at least one silicon-bonded hydrogen atom; and contacting a second side of the membrane with a gaseous reactant comprising a compound having at least one carbon-carbon multiple bond, wherein the contacting is sufficient to react the gaseous reactant with the liquid reactant via a hydrosilylation reaction to form an organosilicon product on the first side of the membrane, wherein the membrane is substantially impermeable to the liquid reactant and substantially permeable to the gaseous reactant.
An electrode plate of a secondary battery, comprising: a current collector; an active material layer; a conductive structure; and a first protective layer, wherein the current collector comprises an insulating layer and a conductive layer disposed on the insulating layer, the conductive layer includes a main body portion and a protrusion portion connected to the main body portion, a surface of the main body portion facing away from the insulating layer is covered by the active material layer, and a surface of the protrusion portion facing away from the insulating layer is uncovered by the active material layer, the conductive structure is welded to the protrusion portion and thus a welded zone is formed, and the first protective layer has elasticity, and the first protective layer is disposed on a side of the protrusion portion facing away from the insulating layer and is located between the welded zone and the active material layer. a current collector; an active material layer; a conductive structure; and a first protective layer, wherein the current collector comprises an insulating layer and a conductive layer disposed on the insulating layer, the conductive layer includes a main body portion and a protrusion portion connected to the main body portion, a surface of the main body portion facing away from the insulating layer is covered by the active material layer, and a surface of the protrusion portion facing away from the insulating layer is uncovered by the active material layer, the conductive structure is welded to the protrusion portion and thus a welded zone is formed, and the first protective layer has elasticity, and the first protective layer is disposed on a side of the protrusion portion facing away from the insulating layer and is located between the welded zone and the active material layer.
A method of preparing a multi-drug eluting coronary stent comprising: a. providing a stent framework; b. depositing on said stent framework a first layer comprising a first pharmaceutical agent; c. depositing a second layer comprising a second pharmaceutical agent; wherein said first and second pharmaceutical agents are selected from two different classes of pharmaceutical agents, wherein the pharmaceutical agents comprise a macrolide immunosuppressive (limus) drug, and wherein said macrolide immunosuppressive drug is at least 50% crystalline. a. providing a stent framework; b. depositing on said stent framework a first layer comprising a first pharmaceutical agent; c. depositing a second layer comprising a second pharmaceutical agent;
A vibrating gyroscope comprising: a proof mass; a spring suspension system (5, 6, 7, 8; 9) for suspending the proof mass; an electrical drive mechanism for vibrating the proof mass along a drive axis (x); electrodes (2, 3) for building together with at least a part of the proof mass a capacitance system for detecting moves of the proof mass along a sense axis (z) perpendicular to the drive axis; the gyroscope being arranged so that quadrature forces generate displacements of the proof mass without substantially displacing the neutral point of the proof mass along the sense axis (z), wherein the neutral point is a point in the proof mass such that a rotation around an axis (y) passing through this point effects essentially no change in the capacitance of the capacitance system; wherein said spring suspension system (5, 6, 7, 8; 9) and said proof mass are designed such that displacements of the neutral point along the sense axis is essentially cancelled by compensating the quadrature forces by spring forces and inertial forces rotated to a rotation movement or a translation movement along the drive axis (x) of the proof mass according to the equation I y m = k t k x wherein l y is the moment of the inertia of said proof mass with respect to an axis (y) passing through the neutral point of the proof mass, m is the mass of said proof mass, k t is the torsional spring constant spring suspension system in the plane formed by said drive axis (x) and said sense axis (z) and k x is the torsional spring constant of said spring suspension system in the direction of said drive axis (x). a proof mass; a spring suspension system (5, 6, 7, 8; 9) for suspending the proof mass; an electrical drive mechanism for vibrating the proof mass along a drive axis (x); electrodes (2, 3) for building together with at least a part of the proof mass a capacitance system for detecting moves of the proof mass along a sense axis (z) perpendicular to the drive axis; the gyroscope being arranged so that quadrature forces generate displacements of the proof mass without substantially displacing the neutral point of the proof mass along the sense axis (z), wherein the neutral point is a point in the proof mass such that a rotation around an axis (y) passing through this point effects essentially no change in the capacitance of the capacitance system; wherein said spring suspension system (5, 6, 7, 8; 9) and said proof mass are designed such that displacements of the neutral point along the sense axis is essentially cancelled by compensating the quadrature forces by spring forces and inertial forces rotated to a rotation movement or a translation movement along the drive axis (x) of the proof mass according to the equation I y m = k t k x
A method of power conversion-alteration for a solar energy system comprising the steps of: - establishing a plurality of solar panels, each having a DC photovoltaic output; - individual panel DC-DC power converting each of said DC photovoltaic outputs to an individual converted DC output; - combining each of said individual converted DC outputs to create a combined converted set point DC photovoltaic output as an input to an inverter, and - wirelessly directing an individual panel programmable functionality change in said step of individual panel DC-DC power converting each of said DC photovoltaic outputs to said individual converted DC outputs for a wirelessly controlled photovoltaic power functionality change controller that programmably controls altering between different converter set point voltage outputs as an input to an inverter or different converter set point current outputs as an input to the inverter; wherein said step of wirelessly directing said functionality change in said step of DC-DC power converting each of said DC photovoltaic outputs comprises a step of wirelessly causing disconnection of a DC output of at least one solar panel, and/or a step of wirelessly causing connection of a disconnected DC output to a solar panel such that the efficiency characteristics of the inverter are improved. - establishing a plurality of solar panels, each having a DC photovoltaic output; - individual panel DC-DC power converting each of said DC photovoltaic outputs to an individual converted DC output; - combining each of said individual converted DC outputs to create a combined converted set point DC photovoltaic output as an input to an inverter, and - wirelessly directing an individual panel programmable functionality change in said step of individual panel DC-DC power converting each of said DC photovoltaic outputs to said individual converted DC outputs for a wirelessly controlled photovoltaic power functionality change controller that programmably controls altering between different converter set point voltage outputs as an input to an inverter or different converter set point current outputs as an input to the inverter; wherein said step of wirelessly directing said functionality change in said step of DC-DC power converting each of said DC photovoltaic outputs comprises a step of wirelessly causing disconnection of a DC output of at least one solar panel, and/or a step of wirelessly causing connection of a disconnected DC output to a solar panel such that the efficiency characteristics of the inverter are improved.
A device for prevention of snoring in the form of a neck collar with a middle section for placement under the chin of a user, side sections (3, 4) connecting to said middle section and end parts (5, 6), optionally connectable to each other, consisting of a core of foam plastic contained in a covering, characterized in that the foam plastic is a soft foam plastic, in that in said middle section an opening is formed and in that resilient means (14; 15; 27; 28) are arranged in said opening for adjustment of the height of the opening and thereby the height of the middle section.
A dialyzer housing comprising i) a cylindrical first section having an inner diameter d 1; ii) a cylindrical second section coaxial with the first section and having an inner diameter d 2 which is larger than d 1; wherein a plurality of openings tapering from the outside towards the inside is provided in the wall of the second section; and iii) a third section joining the first section and the second section, wherein a plurality of circumferential ridges are provided on the inner surface of the third section, each circumferential ridge having a tooth profile and pointing in the direction of the axis of the first section away from the first section, with the faces of the circumferential ridge forming an angle in the range of from 20° to 40, and the circumferential ridge having an elevation relative to the inner wall surface of the third section in the range of from 1 to 10 mm. i) a cylindrical first section having an inner diameter d 1; ii) a cylindrical second section coaxial with the first section and having an inner diameter d 2 which is larger than d 1; wherein a plurality of openings tapering from the outside towards the inside is provided in the wall of the second section; and iii) a third section joining the first section and the second section, wherein a plurality of circumferential ridges are provided on the inner surface of the third section, each circumferential ridge having a tooth profile and pointing in the direction of the axis of the first section away from the first section, with the faces of the circumferential ridge forming an angle in the range of from 20° to 40, and the circumferential ridge having an elevation relative to the inner wall surface of the third section in the range of from 1 to 10 mm.