mhurhangee/ep-ind-claims huggingface dataset:
A light emission drive circuit comprising: a light emission current wire configured to flow a light emission current for causing a light emitting element to emit light, in the light emitting element; a light emission current switch that is connected to the light emission current wire, and is configured to control the light emission current; a preliminary current wire configured to flow, in the light emission current wire, a preliminary current for exciting an inductance component of the light emission current wire before a light emission period being a period in which the light emission current flows in the light emitting element; and a preliminary current switch that is connected to the preliminary current wire, and is configured to control the preliminary current, wherein one end of the preliminary current switch is connected to the preliminary current wire via a first resistor, and another end of the preliminary current switch is grounded, and wherein one end of the light emission current switch is connected to the light emission current wire via a second resistor, and another end of the light emission current switch is grounded. a light emission current wire configured to flow a light emission current for causing a light emitting element to emit light, in the light emitting element; a light emission current switch that is connected to the light emission current wire, and is configured to control the light emission current; a preliminary current wire configured to flow, in the light emission current wire, a preliminary current for exciting an inductance component of the light emission current wire before a light emission period being a period in which the light emission current flows in the light emitting element; and a preliminary current switch that is connected to the preliminary current wire, and is configured to control the preliminary current,
A method for transmitting and receiving a signal by a base station in a mobile communication system, the method comprising: transmitting a signal using a plurality of downlink, DL, subframes comprising at least one DL subframe supporting DL short latency; and receiving a signal using a plurality of uplink, UL, subframes comprising at least one UL subframe supporting UL short latency, wherein a frame comprises the plurality of UL subframes and the plurality of DL subframes, the method being characterised in that: a DL data burst requiring short latency is transmitted in at least one first DL subframe supporting the DL short latency, a Hybrid Automatic Repeat Request, HARQ, feedback for the DL data burst is received in a first UL subframe to which a feedback channel corresponding to the DL data burst is allocated among the at least one UL subframe subsequent to the at least one first DL subframe, such that packet retransmission is performed with a reduced delay with respect to data not requiring short latency, and the first UL subframe conveying the HARQ feedback is included in the same frame as the at least one first DL subframe conveying the DL data burst, and wherein a UL data burst requiring short latency is received in at least one second UL subframe supporting the UL short latency, and a HARQ feedback for the UL data burst is transmitted in a second DL subframe to which a feedback channel corresponding to the UL data burst is allocated among the at least one DL subframe supporting the DL short latency in a frame immediately subsequent to a frame comprising the second UL subframe. transmitting a signal using a plurality of downlink, DL, subframes comprising at least one DL subframe supporting DL short latency; and receiving a signal using a plurality of uplink, UL, subframes comprising at least one UL subframe supporting UL short latency,
A retinal prosthesis comprising: a high-resolution electrode array (10, 110) suitable to be mounted within the sclera in close proximity to a fovea of a retina; a lower-resolution electrode array (30, 130) suitable to be mounted external to the sclera around the periphery of the retina; and implantable electronics (14, 114) for driving said high-resolution electrode array and said lower resolution electrode array. a high-resolution electrode array (10, 110) suitable to be mounted within the sclera in close proximity to a fovea of a retina; a lower-resolution electrode array (30, 130) suitable to be mounted external to the sclera around the periphery of the retina; and implantable electronics (14, 114) for driving said high-resolution electrode array and said lower resolution electrode array.
A method for identifying a sub-population of cells from a heterologous population of biological cells, the method comprising: a) providing: i) a solid substrate; ii) at least one binding partner attached to said solid substrate; iii) a plurality of longitudinally fused capillary fibers forming an array of micro-pores, wherein the internal diameter of micro-pores ranges between approximately 1.0 micrometers and 500 micrometers, said array being reversibly attached to said solid substrate, each fiber defining a well and said solid surface serving as the bottom of the well, the wells collectively comprising said array; and iv) said heterologous population of cells in solution or suspension; b) contacting said array with said heterologous population of cells and said at least one binding partner attached to said solid substrate, such that a sub-population comprising at least one of said biological cells settles into at least one of said micro-pores of said array; c) incubating said array under conditions to promote the secretion of molecules from said biological cells; d) removing said array from said solid support; and e) detecting desired secreted molecules bound to said at least one binding partner on said solid support, thereby identifying said sub-population of cells. a) providing: i) a solid substrate; ii) at least one binding partner attached to said solid substrate; iii) a plurality of longitudinally fused capillary fibers forming an array of micro-pores, wherein the internal diameter of micro-pores ranges between approximately 1.0 micrometers and 500 micrometers, said array being reversibly attached to said solid substrate, each fiber defining a well and said solid surface serving as the bottom of the well, the wells collectively comprising said array; and iv) said heterologous population of cells in solution or suspension; i) a solid substrate; ii) at least one binding partner attached to said solid substrate; iii) a plurality of longitudinally fused capillary fibers forming an array of micro-pores, wherein the internal diameter of micro-pores ranges between approximately 1.0 micrometers and 500 micrometers, said array being reversibly attached to said solid substrate, each fiber defining a well and said solid surface serving as the bottom of the well, the wells collectively comprising said array; and iv) said heterologous population of cells in solution or suspension; b) contacting said array with said heterologous population of cells and said at least one binding partner attached to said solid substrate, such that a sub-population comprising at least one of said biological cells settles into at least one of said micro-pores of said array; c) incubating said array under conditions to promote the secretion of molecules from said biological cells; d) removing said array from said solid support; and e) detecting desired secreted molecules bound to said at least one binding partner on said solid support, thereby identifying said sub-population of cells.
An absorbent article comprising: a chassis comprising an outer cover having an interior surface and an exterior surface and an absorbent structure positioned adjacent the interior surface of the outer cover, the chassis including a crotch region positioned in between a front region and a back region, the front region and the back region defining a waist region therebetween; first and second conductive elements (200,202) contained in the chassis, the first and second conductive elements (200,202) forming part of a circuit that is configured to sense the presence of a substance, characterised in that the conductive elements (200,202) each include a conductive nonwoven web comprising conductive fibers. a chassis comprising an outer cover having an interior surface and an exterior surface and an absorbent structure positioned adjacent the interior surface of the outer cover, the chassis including a crotch region positioned in between a front region and a back region, the front region and the back region defining a waist region therebetween; first and second conductive elements (200,202) contained in the chassis, the first and second conductive elements (200,202) forming part of a circuit that is configured to sense the presence of a substance, characterised in that the conductive elements (200,202) each include a conductive nonwoven web comprising conductive fibers.
A barrier arrangement for a structural opening comprising a main frame structure (5, 6) expandable in a first direction to engage the barrier arrangement with a structural opening, the barrier arrangement further comprising a frame expansion element moveable relative to the main frame structure between a contracted and an expanded configuration to enable expansion of the barrier arrangement in a second direction to further engage the barrier arrangement with a structural opening, such that in the expanded configuration a separation opening is defined between the main frame structure (5, 6) and the frame expansion element, one of the frame expansion element or main frame structure comprising a projection projecting therefrom arranged to substantially occlude the separation opening, wherein the frame expansion element, projection and main frame structure each comprise outwardly facing abutment surfaces facing the first direction and being coplanar in the expanded configuration, characterised in that the projection bridges across the entire separation gap in the expanded configuration.
A vehicular control device for a vehicle including an engine, an electrically heatable catalyst device purifying exhaust gas of said engine, and a first rotating electric machine, said first rotating electric machine generating electric power in accordance with motive power of said engine for a low speed state with a vehicular speed being a speed lower than a first vehicular speed, the vehicular control device comprising: a switching device switching an electrical connection state of said first rotating electric machine and said catalyst device; and an energization control unit controlling said switching device to control energizing said catalyst device, said energization control unit configured to energize said catalyst device for a predetermined period of time when said vehicle starts up a hill or in said low speed state an accelerator is operated in an amount exceeding a threshold amount to perform a large accelerator operation, said energization control unit estimating a temperature of a catalyst attained when said catalyst device is energized for a reference period of time, and if said catalyst attains a temperature lower than a tolerable temperature, said energization control unit energizing said catalyst device, whereas if said catalyst attains a temperature exceeding said tolerable temperature, said energization control unit avoiding energizing said catalyst device. a switching device switching an electrical connection state of said first rotating electric machine and said catalyst device; and an energization control unit controlling said switching device to control energizing said catalyst device,
A motion-sparing spinal implant, comprising: a first endcap formed of a rigid material and having a size corresponding to a first vertebral body; a second endcap formed of a rigid material and having a size corresponding to a second vertebral body; and a pliable material configured to fill an interior space between the first and second endcaps (12100, 12200), the pliable material being configured to be dispensed by a dispensing component and to be cured in-situ within the disc space of a patient, wherein the first endcap and second endcap are coupled together by a tether configured to define a height of the interior space between the first and second endcaps (12100, 12200), and wherein the pliable material is an expanding material configured to, when dispensed, expand the interior space between the first and second endcaps (12100, 12200) thereby placing the tether under tension. a first endcap formed of a rigid material and having a size corresponding to a first vertebral body; a second endcap formed of a rigid material and having a size corresponding to a second vertebral body; and a pliable material configured to fill an interior space between the first and second endcaps (12100, 12200), the pliable material being configured to be dispensed by a dispensing component and to be cured in-situ within the disc space of a patient, wherein the first endcap and second endcap are coupled together by a tether configured to define a height of the interior space between the first and second endcaps (12100, 12200), and wherein the pliable material is an expanding material configured to, when dispensed, expand the interior space between the first and second endcaps (12100, 12200) thereby placing the tether under tension.
Passivating solution for forming a conversion layer for a surface of a metal component in a method for passivating the surface of the metal component, in which a calcium phosphate containing conversion layer is produced on the surface in in a passivating step using the aqueous passivating solution, which comprises oxides, hydroxides and carbonates of the component material and of the passivating solution, wherein the passivating solution for forming the conversion layer comprises a substance acting as chelate complexing agent, wherein the conversion layer of the component is covered by at least one layer (6, 7, 9) in a subsequent coating process, and wherein the coating process comprises a first coating step, in which an organic protective layer is formed, and indeed in a dipping method under applied DC voltage, whereby the paint particles dissolved in the dipping bath are attracted to the component and adhere there forming the protective layer, wherein the pH value of the passivating solution is in a neutral to acid range, and wherein the layer morphology during the first coating step ensures a sufficient residual electrical conductivity between the dipping bath and the component material, characterised in that, for the building up of the conversion layer with a closed layer morphology having few cracks, the passivating solution comprises exactly one substance acting as a chelate complexing agent and the passivating solution contains MgSO 4 ·7H 2 O at a concentration between 100 and 400, in particular 200 mg/l.
Module for a turbomachine, having a guide vane arrangement and a seal carrier, the guide vane arrangement comprising a guide vane, an inner platform and a first guide pin, the guide vane being arranged radially on the outside on the inner platform and the first guide pin being arranged radially on the inside on the inner platform, in each case with respect to a longitudinal axis of the module, and the seal carrier being arranged radially inside the inner platform and forming a receptacle which is open radially outward and in which the first guide pin of the guide vane arrangement is arranged, and a sliding body being arranged in the receptacle, against which sliding body the first guide pin of the guide vane arrangement abuts in relation to a rotation about the longitudinal axis of the module and is guided in a radially displaceable manner in this abutment, the sliding body being formed integrally with a wall (23a, b) of the seal carrier, which wall axially delimits the receptacle, characterized in that the wall (23a, b) of the seal carrier forms the receptacle in a U-profile shape, as viewed in an axial cross section, together with another wall (23a, b) of the seal carrier.
A method for managing cloud computing resources, the method comprising: receiving, at a first platform, an identity verification result of an external account on a server that is different than the first platform, the identity verification result returned by a verification server; determining whether a virtual sub-account is bound to the external account, the virtual sub-account having pre-configured rights to manage the cloud computing resources, the cloud computing resources being associated with one or more internal main accounts of the first platform, the virtual sub-account being subordinate to one of the one or more internal main accounts; and if it is determined that the virtual sub-account is bound to the external account, allowing the external account to manage the cloud computing resources associated with the internal main account based on the pre-configured rights of the virtual sub-account. receiving, at a first platform, an identity verification result of an external account on a server that is different than the first platform, the identity verification result returned by a verification server; determining whether a virtual sub-account is bound to the external account, the virtual sub-account having pre-configured rights to manage the cloud computing resources, the cloud computing resources being associated with one or more internal main accounts of the first platform, the virtual sub-account being subordinate to one of the one or more internal main accounts; and if it is determined that the virtual sub-account is bound to the external account, allowing the external account to manage the cloud computing resources associated with the internal main account based on the pre-configured rights of the virtual sub-account.
A method, performed by a wireless RFID tag reader, of incrementing a counter in an RFID tag memory associated with a limited-use product by a value, c, the method comprising: wirelessly reading an initial counter value, s, and an initial verification value, v, from the RFID tag memory; applying a hash function, h, to the initial verification value c times to obtain a hashed verification value, v'=h (c) (v); incrementing the initial counter value, s, by the value c to obtain an incremented counter value, s'=s+c; and in response to at least one use of the limited-use product, wirelessly replacing the initial verification value, v, with the hashed verification value, v', and the initial counter value, s, with the incremented counter value, s', in the RFID tag memory. wirelessly reading an initial counter value, s, and an initial verification value, v, from the RFID tag memory; applying a hash function, h, to the initial verification value c times to obtain a hashed verification value, v'=h (c) (v); incrementing the initial counter value, s, by the value c to obtain an incremented counter value, s'=s+c; and in response to at least one use of the limited-use product, wirelessly replacing the initial verification value, v, with the hashed verification value, v', and the initial counter value, s, with the incremented counter value, s', in the RFID tag memory.
A cutting tool comprising: a drive unit; a working assembly having a proximal end, a distal end, and a longitudinal axis that passes between the proximal end and the distal end, the working assembly configured to couple with the drive unit by releasable locking and to at least in part be rotated by the drive unit; and two or more sensors positioned between the drive unit and the working assembly; wherein the two or more sensors are positioned to detect force applied to the working assembly transverse to the longitudinal axis of the working assembly while the working assembly is coupled to the drive unit; and wherein the working assembly comprises a housing and a rotatable shaft mounted in the housing, wherein the two or more sensors are spaced around the periphery of the housing when the working assembly is coupled to the drive unit. a drive unit; a working assembly having a proximal end, a distal end, and a longitudinal axis that passes between the proximal end and the distal end, the working assembly configured to couple with the drive unit by releasable locking and to at least in part be rotated by the drive unit; and two or more sensors positioned between the drive unit and the working assembly; wherein the two or more sensors are positioned to detect force applied to the working assembly transverse to the longitudinal axis of the working assembly while the working assembly is coupled to the drive unit; and wherein the working assembly comprises a housing and a rotatable shaft mounted in the housing, wherein the two or more sensors are spaced around the periphery of the housing when the working assembly is coupled to the drive unit.
An implantable electrode (1607, 2611), characterized by a multi-layer graphene-fiber core (111, 2605); an insulative coating surrounding the multi-layer graphene-fiber core (111, 2605); and a metal layer disposed between the multi-layer graphene fiber core (111, 2605) and the insulative coating. a multi-layer graphene-fiber core (111, 2605); an insulative coating surrounding the multi-layer graphene-fiber core (111, 2605); and a metal layer disposed between the multi-layer graphene fiber core (111, 2605) and the insulative coating.
Luminaire, comprising a plurality of directed light sources arranged in a surface of a three-dimensional body, and a controller for controlling the operational state of the luminaire manually, said controller comprising a three-dimensional touch-sensitive surface, each point on the touch-sensitive surface being allocated to a position of the body surface such that an operational state of at least one light source at a position of the body surface is changeable by touching a point on the touch-sensitive surface allocated to this position.
A spade with a shaft, a handle piece at the upper shaft end and a spade blade out of metal that is fixed to the shaft, with the shaft overall being formed of a metallic tube, characterized in that the handle piece is confirmed as a ball-shaped knob out of hard wood and that the spade blade has a thickness in the range of 4 to 6 mm.