mhurhangee/ep-ind-claims huggingface dataset:
A light emitting diode, comprising: an n-type semiconductor layer (120, 220, 330); an active layer (130, 230, 340) formed by alternately laminating a well layer (131, 231, 341) and a barrier (132, 232, 342) at least twice: and a p-type semiconductor layer (140,240, 350), wherein the barrier layer (132, 232, 342) is at least twice as thick as the well layer (131, 231, 341), and the barrier layer comprises a first barrier layer that is formed adjacent to the p-type semiconductor layer, and second barrier layers that are the rest of the barrier layers except for the first barrier layer; characterized in that a first region of the first barrier layer is doped with n-type impurity; a second region of the first barrier layer is undoped; at least one of the second barrier layers is doped with n-type impurity; the first region of the first barrier layer is adjacent to the well layer, and the second region is adjacent to the p-type semiconductor layer; and wherein the second region is at least approximately 1.5 times as thick as the first. region. an n-type semiconductor layer (120, 220, 330); an active layer (130, 230, 340) formed by alternately laminating a well layer (131, 231, 341) and a barrier (132, 232, 342) at least twice: and a p-type semiconductor layer (140,240, 350), wherein the barrier layer (132, 232, 342) is at least twice as thick as the well layer (131, 231, 341), and the barrier layer comprises a first barrier layer that is formed adjacent to the p-type semiconductor layer, and second barrier layers that are the rest of the barrier layers except for the first barrier layer; characterized in that a first region of the first barrier layer is doped with n-type impurity; a second region of the first barrier layer is undoped; at least one of the second barrier layers is doped with n-type impurity; the first region of the first barrier layer is adjacent to the well layer, and the second region is adjacent to the p-type semiconductor layer; and wherein the second region is at least approximately 1.5 times as thick as the first. region.
A station of a mesh network wherein the station is configured to transmit and receive data packets comprising a header comprising a mesh mode channel switch announcement element and a mesh channel switch parameter element, wherein the station comprises a controller (210; 502) configured to initiate communication with at least one second station on a first communication channel; a transceiver configured to transmit and receive data packets to and from the at least one second station on the first communication channel; a counter configured to monitor an amount of lost data packets; wherein if the amount of lost data packets exceeds a drop threshold, the controller (210; 502) is further configured to determine if at least one communication criterion is fulfilled, and if the controller (210; 502) determines that the at least one communication criterion is fulfilled, the controller (210; 502) is configured to move the communication from the first communication channel to a second communication channel during the remainder of the communication.
A separator comprising: a porous substrate having a plurality of pores; and a porous coating layer provided on at least one surface of the porous substrate and formed from a mixture of plural inorganic particles and a binder polymer, wherein the binder polymer comprises a result of a curing reaction of an acryl-based copolymer and an isocyanate-based crosslinking agent, characterised in that the acryl-based copolymer is a copolymer including (a) a first monomer unit with a tertiary amine group, (b) a second monomer unit with at least one functional group selected from an amine group other than a tertiary amine group, an amide group, a cyano group, and an imide group, (c) a third monomer unit of (meth)acrylate with a carboxyl group, (d) a fourth monomer unit of (meth)acrylate with a hydroxyl group, and (e) a fifth monomer unit of (meth)acrylate with an alkyl group having 1 to 14 carbon atoms, and a content of the first monomer unit is 0.5 to 20 parts by weight, a content of the second monomer unit is 30 to 60 parts by weight, a content of the third monomer unit is 0.1 to 2 parts by weight, a content of the fourth monomer unit is 0.5 to 10 parts by weight, and a content of the fifth monomer unit is 8 to 68 parts by weight, based on the total acryl-based copolymer. a porous substrate having a plurality of pores; and a porous coating layer provided on at least one surface of the porous substrate and formed from a mixture of plural inorganic particles and a binder polymer, wherein the binder polymer comprises a result of a curing reaction of an acryl-based copolymer and an isocyanate-based crosslinking agent, characterised in that the acryl-based copolymer is a copolymer including (a) a first monomer unit with a tertiary amine group, (b) a second monomer unit with at least one functional group selected from an amine group other than a tertiary amine group, an amide group, a cyano group, and an imide group, (c) a third monomer unit of (meth)acrylate with a carboxyl group, (d) a fourth monomer unit of (meth)acrylate with a hydroxyl group, and (e) a fifth monomer unit of (meth)acrylate with an alkyl group having 1 to 14 carbon atoms, and a content of the first monomer unit is 0.5 to 20 parts by weight, a content of the second monomer unit is 30 to 60 parts by weight, a content of the third monomer unit is 0.1 to 2 parts by weight, a content of the fourth monomer unit is 0.5 to 10 parts by weight, and a content of the fifth monomer unit is 8 to 68 parts by weight, based on the total acryl-based copolymer.
A thin-film transistor array comprising: an insulating substrate; a plurality of gate lines formed on the insulating substrate; a plurality of source lines formed on the insulating substrate; and a plurality of transistors each being disposed corresponding to a respective intersection of the gate lines and the source lines, and being arranged in a matrix on the insulating substrate as pixels, each of the transistors including a gate electrode connected to one of the gate lines, a source electrode connected to one of the source lines, a drain electrode, and a pixel electrode connected to the drain electrode, wherein each of the source lines is connected to source electrodes of a respective column of the pixels, and each of the gate lines has at least a portion connected to gate electrodes of a pixel group which is formed of a row of a predetermined number of pixels and to gate electrodes of other pixel groups which are formed and disposed in adjacent parallel rows of a predetermined number of pixels and which are offset in one direction by one row every predetermined number of pixels along one direction of the rows. an insulating substrate; a plurality of gate lines formed on the insulating substrate; a plurality of source lines formed on the insulating substrate; and a plurality of transistors each being disposed corresponding to a respective intersection of the gate lines and the source lines, and being arranged in a matrix on the insulating substrate as pixels, each of the transistors including a gate electrode connected to one of the gate lines, a source electrode connected to one of the source lines, a drain electrode, and a pixel electrode connected to the drain electrode, wherein each of the source lines is connected to source electrodes of a respective column of the pixels, and each of the gate lines has at least a portion connected to gate electrodes of a pixel group which is formed of a row of a predetermined number of pixels and to gate electrodes of other pixel groups which are formed and disposed in adjacent parallel rows of a predetermined number of pixels and which are offset in one direction by one row every predetermined number of pixels along one direction of the rows. a gate electrode connected to one of the gate lines, a source electrode connected to one of the source lines, a drain electrode, and a pixel electrode connected to the drain electrode, wherein each of the source lines is connected to source electrodes of a respective column of the pixels, and each of the gate lines has at least a portion connected to gate electrodes of a pixel group which is formed of a row of a predetermined number of pixels and to gate electrodes of other pixel groups which are formed and disposed in adjacent parallel rows of a predetermined number of pixels and which are offset in one direction by one row every predetermined number of pixels along one direction of the rows.
An implant retrieval device (400, 500) comprising: an outer elongate body (420, 520) having a first longitudinal lumen extending therethrough; an inner elongate body (422, 522) configured to be slidably disposed within the first longitudinal lumen, wherein the inner elongate body comprises a second longitudinal lumen (421, 521) and a stop (434, 534) located within the second longitudinal lumen at a distal portion thereof; an actuator slidably coupled to the inner elongate body; a retrieval cable (424, 524) slidably disposed within the second longitudinal lumen of the inner elongate body and connected to the actuator such that the retrieval cable at least partially surrounds the stop; and a retainer comprising a clamp disposed over the inner elongate body that secures the position of the actuator with respect to the inner elongate body. an outer elongate body (420, 520) having a first longitudinal lumen extending therethrough; an inner elongate body (422, 522) configured to be slidably disposed within the first longitudinal lumen, wherein the inner elongate body comprises a second longitudinal lumen (421, 521) and a stop (434, 534) located within the second longitudinal lumen at a distal portion thereof; an actuator slidably coupled to the inner elongate body; a retrieval cable (424, 524) slidably disposed within the second longitudinal lumen of the inner elongate body and connected to the actuator such that the retrieval cable at least partially surrounds the stop; and a retainer comprising a clamp disposed over the inner elongate body that secures the position of the actuator with respect to the inner elongate body.
An end effector assembly including a pair of opposing jaw members (310, 320), at least one of the jaw members comprising: a support base (316, 326); an electrical jaw lead (325a, 325b); a sealing plate (312, 322) coupled to the electrical jaw lead, the sealing plate having a stainless steel layer and at least one piezoelectric sensor; and an insulative plate (319', 329') disposed between the support base and the sealing plate and characterised in that the insulative plate is a flex circuit comprising: a plastic substrate; and a circuit trace (520, 524) having at least one contact coupled thereto, the at least one contact is coupled to the at least one piezoelectric sensor. a support base (316, 326); an electrical jaw lead (325a, 325b); a sealing plate (312, 322) coupled to the electrical jaw lead, the sealing plate having a stainless steel layer and at least one piezoelectric sensor; and an insulative plate (319', 329') disposed between the support base and the sealing plate and characterised in that the insulative plate is a flex circuit comprising: a plastic substrate; and a circuit trace (520, 524) having at least one contact coupled thereto, the at least one contact is coupled to the at least one piezoelectric sensor. a plastic substrate; and a circuit trace (520, 524) having at least one contact coupled thereto, the at least one contact is coupled to the at least one piezoelectric sensor.
A drill with a tip part on which thinning is performed, consisting of two cutting blades which are formed symmetrical about an axis of rotation, said cutting blades consisting of a thinning cutting blade extending from a chisel edge toward a peripheral side of the drill to become a shape including curves, and a main cutting blade extending from an end part of said thinning cutting blade to the peripheral end of the drill, when seen from tip side of the drill, wherein a thinning surface shaped by said thinning cutting blade is substantially u-shaped, inclining toward the drill axis direction when seen from front side of the drill, and wherein a rake angle θ 1 formed by said main cutting blade and a rake angle θ 2 formed by said thinning cutting blade satisfy θ 1 > θ 2 >0°, except for a part just below the chisel. said cutting blades consisting of a thinning cutting blade extending from a chisel edge toward a peripheral side of the drill to become a shape including curves, and a main cutting blade extending from an end part of said thinning cutting blade to the peripheral end of the drill, when seen from tip side of the drill, wherein a thinning surface shaped by said thinning cutting blade is substantially u-shaped, inclining toward the drill axis direction when seen from front side of the drill, and wherein a rake angle θ 1 formed by said main cutting blade and a rake angle θ 2 formed by said thinning cutting blade satisfy θ 1 > θ 2 >0°, except for a part just below the chisel.
A thermal radiation shield for a gas turbine engine comprising: a ring section; and a mounting base disposed at an aft end of the ring section for securing the ring section within a generally annular cavity defined at least in part by a hot fluid flow path boundary wall, and a radially adjacent and spaced apart cold fluid flow path boundary wall, the ring section configured to substantially block a line of sight between the hot fluid flow path boundary wall and the cold fluid flow path boundary wall; characterised in that: the ring section is a corrugated ring section and comprises a plurality of radially recessed corrugations distributed circumferentially around the ring section between adjacent ones of a plurality of circumferentially distributed fingers. a ring section; and a mounting base disposed at an aft end of the ring section for securing the ring section within a generally annular cavity defined at least in part by a hot fluid flow path boundary wall, and a radially adjacent and spaced apart cold fluid flow path boundary wall, the ring section configured to substantially block a line of sight between the hot fluid flow path boundary wall and the cold fluid flow path boundary wall; characterised in that: the ring section is a corrugated ring section and comprises a plurality of radially recessed corrugations distributed circumferentially around the ring section between adjacent ones of a plurality of circumferentially distributed fingers.
A process for extracting target cells from a three dimensional biological specimen by the steps a) imaging the three dimensional specimen by a light sheet microscope b) identifying target cells c) registering the spatial parameters (x,y,z coordinates) of the target cells d) extraction of target cells according to their spatial parameters characterized in that three dimensional specimen is provided with an optically inducible crosslinking reagent in at last one of the steps a), b), c) or d) and crosslinked by a one-photon laser scanning activation wherein the detection lens of the light sheet microscope is used to direct the crosslinking laser to the sample. a) imaging the three dimensional specimen by a light sheet microscope b) identifying target cells c) registering the spatial parameters (x,y,z coordinates) of the target cells d) extraction of target cells according to their spatial parameters
A wireless communications network radio unit (10, 30, 40, 50, 60, 70) comprising: an input (12, 72) arranged to receive a radio over fibre, RoF, input optical signal (14, 42, 74) carrying digital radio communications traffic for transmission from a plurality of antenna elements, synchronisation traffic and control and management traffic; a digital receiver (16, 44, 76) arranged to receive and terminate the RoF input optical signal to obtain the digital radio communications traffic; a framer (18, 32, 46, 78) arranged to frame the digital radio communications traffic into at least one digital traffic stream consisting of the digital radio communications traffic for transmission from a plurality of the antenna elements and clock recovery information; and at least one optical transmitter (20, 80) arranged to generate an RoF output optical signal carrying the digital traffic stream. an input (12, 72) arranged to receive a radio over fibre, RoF, input optical signal (14, 42, 74) carrying digital radio communications traffic for transmission from a plurality of antenna elements, synchronisation traffic and control and management traffic; a digital receiver (16, 44, 76) arranged to receive and terminate the RoF input optical signal to obtain the digital radio communications traffic; a framer (18, 32, 46, 78) arranged to frame the digital radio communications traffic into at least one digital traffic stream consisting of the digital radio communications traffic for transmission from a plurality of the antenna elements and clock recovery information; and at least one optical transmitter (20, 80) arranged to generate an RoF output optical signal carrying the digital traffic stream.
A method comprising: receiving data without associated control signalling; and determining a particular hybrid automatic repeat request process identification for the received data as a function of [Current TTI/SP_Period] mod Num_SP_HARQ where the term [Current TTI/SP_Period] is rounded to an integer before the modulo operation, wherein Current TTI is a number of the TTI under consideration for a subframe derived from a system frame number; SP_Period is the periodicity of the semi-persistent scheduling in TTIs; and Num_SP_HARQ is the number of hybrid automatic repeat request processes that are allocated for semi-persistent scheduling. receiving data without associated control signalling; and determining a particular hybrid automatic repeat request process identification for the received data as a function of [Current TTI/SP_Period] mod Num_SP_HARQ where the term [Current TTI/SP_Period] is rounded to an integer before the modulo operation, wherein Current TTI is a number of the TTI under consideration for a subframe derived from a system frame number; SP_Period is the periodicity of the semi-persistent scheduling in TTIs; and
A body fluid testing device, characterised by comprising: at least one penetrating member; a penetrating member driver configured to be coupled to the at least one penetrating member; a plurality of analyte sensors on a spoked disk substrate, wherein each of the at least one penetrating member can pass between spokes of the disk substrate to provide that a used penetrating member can be removed and a new penetrating member inserted without removing the disk; and a disposable housing that houses the at least one penetrating member and the plurality of analyte sensors. at least one penetrating member; a penetrating member driver configured to be coupled to the at least one penetrating member; a plurality of analyte sensors on a spoked disk substrate, wherein each of the at least one penetrating member can pass between spokes of the disk substrate to provide that a used penetrating member can be removed and a new penetrating member inserted without removing the disk; and a disposable housing that houses the at least one penetrating member and the plurality of analyte sensors.
An acrylic polymer comprising greater than 40 wt.-% of a low Tg alkyl acrylate component having a Tg of less than 0°, greater than 5 wt.-% of a non-primary hydroxyl functional monomer, from 5 to 25 wt.-% of a carboxy functional monomer, and from 0.1 wt.-% to 1 wt.-% of an antioxidant.
A method of emitting warning and/or alarm signals by operating a LED lighting source whose emission wavelength is a function of the current through the LED lighting source and the temperature of the LED lighting source, the method including: - powering the LED lighting source in a first lighting mode wherein the source emits light radiation at a first wavelength, - detecting a warning and/or alarm condition, and - responsive to a signal indicative of said warning or alarm condition detected, powering the LED lighting source with a pulsed current in at least one second lighting mode, wherein at least one of the current through the LED lighting source and the temperature of the LED lighting source is varied with respect to said first lighting mode to induce a shift in the emission wavelength of the LED lighting source, whereby the LED lighting source emits light radiation at a second wavelength, said second wavelength being different from said first wavelength. - powering the LED lighting source in a first lighting mode wherein the source emits light radiation at a first wavelength, - detecting a warning and/or alarm condition, and - responsive to a signal indicative of said warning or alarm condition detected, powering the LED lighting source with a pulsed current in at least one second lighting mode, wherein at least one of the current through the LED lighting source and the temperature of the LED lighting source is varied with respect to said first lighting mode to induce a shift in the emission wavelength of the LED lighting source, whereby the LED lighting source emits light radiation at a second wavelength, said second wavelength being different from said first wavelength.
A federated configuration management database (40; 80) for managing a plurality of management data repositories (410, 420; 810), the federated configuration management database being characterised by: specifying means (402, 405, 406; 802, 805, 806) for obtaining information related to data stored in the plurality of management data repositories (410, 420; 810), and specifying the data overlappingly stored in the management data repositories (410, 420; 810) and the management data repositories (410, 420; 810) storing the overlapping data based on the information related to the data; and determination means (401; 801) for selecting any one of the specified management data repositories (410, 420; 810) as a backup destination management data repository (410, 420; 810) for backing up the overlapping data, and causing the selected management data repository (410, 420; 810) to back up the overlapping data in the selected management data repository (410, 420; 810) within the selected management data repository (410, 420; 810). specifying means (402, 405, 406; 802, 805, 806) for obtaining information related to data stored in the plurality of management data repositories (410, 420; 810), and specifying the data overlappingly stored in the management data repositories (410, 420; 810) and the management data repositories (410, 420; 810) storing the overlapping data based on the information related to the data; and determination means (401; 801) for selecting any one of the specified management data repositories (410, 420; 810) as a backup destination management data repository (410, 420; 810) for backing up the overlapping data, and causing the selected management data repository (410, 420; 810) to back up the overlapping data in the selected management data repository (410, 420; 810) within the selected management data repository (410, 420; 810).