mhurhangee/ep-ind-claims huggingface dataset:
A light emitting device comprising: a light emitting structure including a first conductive semiconductor layer, a second conductive semiconductor layer, and an active layer between the first and second conductive semiconductor layers (122, 126); a first ohmic layer over the light emitting structure; and a second ohmic layer including a pattern over the first ohmic layer, an electrode formed on the second ohmic layer, wherein the first and second ohmic layers (132, 134) are electrically connected to the light emitting structure and the electrode, characterised in that the second ohmic layer is formed on the first ohmic layer, wherein a binding energy of materials constituting of the second ohmic layer is different from a binding energy of materials constituting of the first ohmic layer, and wherein the pattern includes holes connected to each other for current diffusion, wherein a boundary surface between the first and second ohmic layers (132, 134) is formed due to a difference in binding energy between the first and second ohmic layers (132, 134). a light emitting structure including a first conductive semiconductor layer, a second conductive semiconductor layer, and an active layer between the first and second conductive semiconductor layers (122, 126); a first ohmic layer over the light emitting structure; and a second ohmic layer including a pattern over the first ohmic layer, an electrode formed on the second ohmic layer, wherein the first and second ohmic layers (132, 134) are electrically connected to the light emitting structure and the electrode, characterised in that the second ohmic layer is formed on the first ohmic layer, wherein a binding energy of materials constituting of the second ohmic layer is different from a binding energy of materials constituting of the first ohmic layer, and wherein the pattern includes holes connected to each other for current diffusion, wherein a boundary surface between the first and second ohmic layers (132, 134) is formed due to a difference in binding energy between the first and second ohmic layers (132, 134).
A method performed by a processor to improve wear-leveling in a cross-point, X3D, memory, comprising: detecting, by a processor coupled to the X3D memory, a trigger event, wherein: the X3D memory comprises a first section of memory units and a second section of memory units, the first section of memory units comprises a plurality of contiguous small memory units, SMUs, configured to store hot data, and the second section of memory units comprises a plurality of contiguous large memory units, LMUs, configured store warm data or cold data; and in response to detecting the trigger event: relocating, by the processor, data stored in a first memory unit of the first section of memory units to a memory unit adjacent to and after a last memory unit of the first section of memory units; and relocating, by the processor, data stored in a first memory unit of the second section of memory units to a memory unit adjacent to and after a last memory unit of the second section of memory units. detecting, by a processor coupled to the X3D memory, a trigger event, wherein: the X3D memory comprises a first section of memory units and a second section of memory units, the first section of memory units comprises a plurality of contiguous small memory units, SMUs, configured to store hot data, and the second section of memory units comprises a plurality of contiguous large memory units, the X3D memory comprises a first section of memory units and a second section of memory units, the first section of memory units comprises a plurality of contiguous small memory units, SMUs, configured to store hot data, and the second section of memory units comprises a plurality of contiguous large memory units, LMUs, configured store warm data or cold data; and in response to detecting the trigger event: relocating, by the processor, data stored in a first memory unit of the first section of memory units to a memory unit adjacent to and after a last memory unit of the first section of memory units; and relocating, by the processor, data stored in a first memory unit of the second section of memory units to a memory unit adjacent to and after a last memory unit of the second section of memory units. relocating, by the processor, data stored in a first memory unit of the first section of memory units to a memory unit adjacent to and after a last memory unit of the first section of memory units; and relocating, by the processor, data stored in a first memory unit of the second section of memory units to a memory unit adjacent to and after a last memory unit of the second section of memory units.
A modular technical system for creating a patient-data-specifically individualized foot sole last having a modular structure, characterized in that per zone (16; 24, 25, 26, 27) of the foot sole last it comprises respectively one or more mutually exchangeable standard foot sole last modules as standardized components which - after selection of the suitable standard module from orthopaedic aspects for the respective zone (16; 24, 25, 26, 27) of a patient's foot - can be mounted consecutively along the longitudinal axis of the foot sole last in series zone-wise to form a patient-data-specifically individualized foot sole last having a modular structure, wherein the upper sides of the standard modules facing the sole of the patient's foot are configured depending on shoe size and depending on zone as negative to the corresponding zones of the foot of the subsequent wearer of the insole to be formed with the aid of the foot sole last and/or each have a shape which, specific to shoe size and specific to zone, corresponds from orthopaedic aspects to the most logical shape for correction or treatment of one specific or several of the statistically most commonly occurring deformities or diseases requiring treatment from orthopaedic aspects and wherein the transitions (23; 28, 29, 30) between two neighbouring standard modules (17; 24, 25, 26, 27) - in the side view - are stepless and smooth and - in the plan view - adjoin one another without gaps.
A hydro-elastic articulation for assembling two structural parts, in particular for connecting a wheel suspension to a vehicle chassis, and for damping vibrations transmitted between both structural parts; said articulation comprising a longitudinal axis, a rigid outer framework, a rigid inner framework, a main space between the inner and outer frameworks, and a rigid intermediate framework disposed in the main space separating it in an inner partial space and an outer partial space, a hydro-elastic spring assembly being disposed in one of the inner or outer partial spaces; and an elastic or hydro-elastic assembly disposed in the other partial space, and wherein a rigid abutment device disposed in one of the inner or outer partial spaces and wherein the abutment device substantially avoids radial deformation of the elastic or hydro-elastic assembly in a locking direction and allows deformation of the elastic or hydro-elastic assembly in a damping direction diametrically opposed to the locking direction and characterized in that an abutment side of the abutment device touches a framework in an articulation relaxed state, and in that the abutment device is secured to one of the frameworks by a tongue-and-groove type holding fixture (46, 48) in radial direction, in particular in the form of a dovetail.
A method for simulating the bend shape of a catheter with at least two sensing elements therein, comprising the steps of: generating an induced current by the sensing elements traversing magnetic lines of force; extracting spatial information of the sensing elements from the information of the induced current; and calculating the bend shape of the catheter based on the spatial information and in combination with characteristic information of the catheter; the step of calculating the bend shape of the catheter comprises establishing a curvilinear function of the bend shape of the catheter, solving the curvilinear function of the catheter by minimal internal energy spline approximation method and obtaining the bend shape of the catheter. generating an induced current by the sensing elements traversing magnetic lines of force; extracting spatial information of the sensing elements from the information of the induced current; and calculating the bend shape of the catheter based on the spatial information and in combination with characteristic information of the catheter; the step of calculating the bend shape of the catheter comprises establishing a curvilinear function of the bend shape of the catheter, solving the curvilinear function of the catheter by minimal internal energy spline approximation method and obtaining the bend shape of the catheter.
An automotive electronic device, comprising: a vehicle content receiving unit configured for receiving vehicle contents including contents and meta information regarding the contents; a content restriction information acquisition unit configured for acquiring content restriction information; and a controller configured for determining a displayable portion in the contents on the basis of the meta information, the content restriction information and vehicle travel information; characterized in that: the device comprises a plurality of display units (151, 151-1, 151-2, 151-3) configured for displaying contents of the determined displayable portion; the controller is configured to determine an undisplayable portion of contents based on service information contained in the meta information, webpage information contained in the meta information, and HTML component information contained in the meta information, sequentially; and at least one of the plurality of display units is configured to restrict display of a region determined to be the undisplayable portion in the contents while another of the display units (151, 151-1, 151-2, 151-3) is configured to display an entirety of the contents including the undisplayable portion. a vehicle content receiving unit configured for receiving vehicle contents including contents and meta information regarding the contents; a content restriction information acquisition unit configured for acquiring content restriction information; and a controller configured for determining a displayable portion in the contents on the basis of the meta information, the content restriction information and vehicle travel information; characterized in that: the device comprises a plurality of display units (151, 151-1, 151-2, 151-3) configured for displaying contents of the determined displayable portion; the controller is configured to determine an undisplayable portion of contents based on service information contained in the meta information, webpage information contained in the meta information, and HTML component information contained in the meta information, sequentially; and at least one of the plurality of display units is configured to restrict display of a region determined to be the undisplayable portion in the contents while another of the display units (151, 151-1, 151-2, 151-3) is configured to display an entirety of the contents including the undisplayable portion. the device comprises a plurality of display units (151, 151-1, 151-2, 151-3) configured for displaying contents of the determined displayable portion; the controller is configured to determine an undisplayable portion of contents based on service information contained in the meta information, webpage information contained in the meta information, and HTML component information contained in the meta information, sequentially; and at least one of the plurality of display units is configured to restrict display of a region determined to be the undisplayable portion in the contents while another of the display units (151, 151-1, 151-2, 151-3) is configured to display an entirety of the contents including the undisplayable portion.
A method of reducing the amount of mercaptans in a hydrocarbon fluid comprising introducing an alpha-amino ether into the fluid, the alpha-amino ether scavenges mercaptan by forming stable non-volatile compounds, the new sulfur containing compounds are higher molecular weight and lower volatility mitigating the odor associated with volatile mercaptans, wherein the alpha-amino ether is selected from the list consisting of: a combination of 1,1'-oxybis(methylene)dipiperidine and bis(piperidinomethoxy)methane, and a combination of 1,1'-oxybis(methylene)dipyrrolidine and bis(pyrrolldinomethoxy)methane. a combination of 1,1'-oxybis(methylene)dipiperidine and bis(piperidinomethoxy)methane, and a combination of 1,1'-oxybis(methylene)dipyrrolidine and bis(pyrrolldinomethoxy)methane.
A test-sensor cartridge (150, 185, 200, 230) comprising: a plurality of test sensors (70, 104) adapted to assist in determining an analyte concentration of a fluid sample; a plurality of walls (159a, 159b, 161) forming a cavity therein, the cavity including the plurality of test sensors (70, 104); and a lid (108, 158, 191, 206, 232) adapted to enclose the cavity, characterized in that at least one of the walls forms (159a, 159b, 161) at least one aperture (166, 204, 240), and the lid (108, 158, 191, 206, 232) includes a locking feature configured to secure the lid to the one or more walls, the locking feature (151, 234) having a tab portion (214, 238) positioned within the at least one aperture (166, 204, 240), the locking feature (151, 234) being configured to be disengaged by the at least one aperture (166, 204, 240) receiving a projection (182, 216) of an analyte-testing instrument (181, 202). a plurality of test sensors (70, 104) adapted to assist in determining an analyte concentration of a fluid sample; a plurality of walls (159a, 159b, 161) forming a cavity therein, the cavity including the plurality of test sensors (70, 104); and a lid (108, 158, 191, 206, 232) adapted to enclose the cavity, characterized in that at least one of the walls forms (159a, 159b, 161) at least one aperture (166, 204, 240), and the lid (108, 158, 191, 206, 232) includes a locking feature configured to secure the lid to the one or more walls, the locking feature (151, 234) having a tab portion (214, 238) positioned within the at least one aperture (166, 204, 240), the locking feature (151, 234) being configured to be disengaged by the at least one aperture (166, 204, 240) receiving a projection (182, 216) of an analyte-testing instrument (181, 202).
Photolithographic illumination device, including: - a light beam source, - a condenser, - an optical homogenizing system, comprising two microlens arrays (L3, L4), disposed upstream from the condenser in such a way that the image focal plane of the optical homogenizing system is positioned in the object focal plane of the condenser, - a shutter, disposed in the object focal plane of the optical homogenizing system, and the illuminator being characterised in that the spacing of the two microlens arrays, as well as the arrangement and orientation of the microlenses, are adapted so that the optical homogenizing system has, in two directions (X,Y) orthogonal to the optical axis, merged image focal planes and merged object focal planes. - a light beam source, - a condenser, - an optical homogenizing system, comprising two microlens arrays (L3, L4), disposed upstream from the condenser in such a way that the image focal plane of the optical homogenizing system is positioned in the object focal plane of the condenser, - a shutter, disposed in the object focal plane of the optical homogenizing system, and
A reciprocating compressor comprising: an airtight container forming an airtight space; a discharge pipe coupled to the airtight container; a motor having a stator (210, 220) and a rotor and installed inside of the airtight container to generate a rotational force; a compression unit having a connecting rod for converting the rotational force of the motor into a linear drive force, a piston connected to the connecting rod, and a cylinder into which the piston is movably inserted; and a discharge muffler (425, 438) configured to attenuate discharge noise of a discharge gas discharged after being compressed in the cylinder, the discharge muffler (425, 438) including a muffler body and a muffler cover coupled to the muffler body to form an internal space, and a plurality of partition walls (W1, W2) positioned in the internal space for partitioning the internal space into a plurality of attenuation spaces (M1, M2, M3); characterised by two or more discharge hoses that connect the discharge muffler (425, 438) and the discharge pipe, wherein the two or more discharge hoses include at least one main hose connected to a last attenuation space positioned last along a flow direction of the discharge gas among the plurality of attenuation spaces (M1, M2, M3), and wherein at least one auxiliary hose is connected to another attenuation space (M1, M2) other than the last attenuation space. an airtight container forming an airtight space; a discharge pipe coupled to the airtight container; a motor having a stator (210, 220) and a rotor and installed inside of the airtight container to generate a rotational force; a compression unit having a connecting rod for converting the rotational force of the motor into a linear drive force, a piston connected to the connecting rod, and a cylinder into which the piston is movably inserted; and a discharge muffler (425, 438) configured to attenuate discharge noise of a discharge gas discharged after being compressed in the cylinder, the discharge muffler (425, 438) including a muffler body and a muffler cover coupled to the muffler body to form an internal space, and a plurality of partition walls (W1, W2) positioned in the internal space for partitioning the internal space into a plurality of attenuation spaces (M1, M2, M3); characterised by two or more discharge hoses that connect the discharge muffler (425, 438) and the discharge pipe, wherein the two or more discharge hoses include at least one main hose connected to a last attenuation space positioned last along a flow direction of the discharge gas among the plurality of attenuation spaces (M1, M2, M3), and wherein at least one auxiliary hose is connected to another attenuation space (M1, M2) other than the last attenuation space.
A pharmaceutical composition for use in preventing or treating asthma, the composition comprising a Pistacia weinmannifolia ( Pistacia weinmannifolia J. Poiss. Ex Franch) extract or a fraction thereof as an active ingredient.
A wall plug for composite waterproofing systems with a hollow cylindrical main body, wherein the main body has an opening at a first end in the axial direction for receiving a screw wherein the main body has a first section and a second section in the axial direction, wherein the first section is arranged between the second section and the first end of the main body, wherein in the first section, the main body has a sealant on its radially outer circumferential surface and optionally on its radially inner circumferential surface and is free of the sealant on its radially outer circumferential surface in the second section, wherein the sealant is formed from a material that is different from the material from which the main body is formed, and wherein the sealant completely surrounds the main body in the first section at the radially outer circumferential surface of the main body thus forming a ring, and wherein the sealant is formed of an elastic material and configured to provide sealing properties on both sides of a composite waterproofing system when a screw is screwed into the wall plug, characterised in that the main body has in the first section on its radially inner circumferential surface a projection extending in the radial and the axial direction. wherein the main body has an opening at a first end in the axial direction for receiving a screw wherein the main body has a first section and a second section in the axial direction, wherein the first section is arranged between the second section and the first end of the main body, wherein in the first section, the main body has a sealant on its radially outer circumferential surface and optionally on its radially inner circumferential surface and is free of the sealant on its radially outer circumferential surface in the second section, wherein the sealant is formed from a material that is different from the material from which the main body is formed, and wherein the sealant completely surrounds the main body in the first section at the radially outer circumferential surface of the main body thus forming a ring, and wherein the sealant is formed of an elastic material and configured to provide sealing properties on both sides of a composite waterproofing system when a screw is screwed into the wall plug, characterised in that the main body has in the first section on its radially inner circumferential surface a projection extending in the radial and the axial direction.
Artificial dermis for transplantation, comprising a wound contact layer that includes a porous sheet consisting of a biodegradable material, the porous sheet satisfying the following Equation: X 2 / X 1 ≤ 0.8, wherein, in the porous sheet, when a line is drawn parallel to a wound contact face and a line of equal length is drawn perpendicular to the wound contact face, X1 represents a number of points of intersection between the line parallel to the wound contact face and pore walls, and X2 represents a number of points of intersection between the line perpendicular to the wound contact face and pore walls, wherein the X2/X1 is from 0.1 to 0.8 wherein the biodegradable material is a recombinant gelatin.
Radio apparatus for a radio communications system, the radio apparatus comprising: a directional beam antenna having a plurality of antenna elements; and control circuitry comprising means for determining signal quality and means for directing an antenna beam of said directional beam antenna, said control circuitry operable: in a first mode to determine a beam direction for a signal received by said directional beam antenna having optimum quality and to direct said antenna beam in said determined beam direction: in a second mode to scan received signal quality in a direction proximal to said beam direction and to update said beam direction for maintaining optimum signal quality; in a third mode to configure said directional beam antenna for omni-directional radiation. a directional beam antenna having a plurality of antenna elements; and control circuitry comprising means for determining signal quality and means for directing an antenna beam of said directional beam antenna, said control circuitry operable: in a first mode to determine a beam direction for a signal received by said directional beam antenna having optimum quality and to direct said antenna beam in said determined beam direction: in a second mode to scan received signal quality in a direction proximal to said beam direction and to update said beam direction for maintaining optimum signal quality; in a third mode to configure said directional beam antenna for omni-directional radiation.