mhurhangee/ep-ind-claims huggingface dataset:
A flash memory system, comprising: an array of memory cells organized into rows and columns, wherein each column of memory cells is coupled to a bit line; and a trimmable bitline regulator system for applying a precharge bias voltage on a bias line to one or more bit lines prior to a read operation, the trimmable bitline regulator system comprising: a bitline regulator for receiving a reference voltage (VREF) and a plurality of trim bits, the bitline regulator comprising a plurality of boost circuits (221, 222, and 223; or 231, 232, and 233; or 241, 242, and 243), wherein each trim bit in the plurality of trim bits selectively connects one of the plurality of boost circuits to the bias line to generate the bias precharge voltage; a sample and hold circuit for generating a sampled voltage based on the bias line in response to a control signal; a comparator for comparing the sampled voltage to the reference voltage (VREF) and generating an output; and an arbiter for receiving the output from the comparator and generating the plurality of trim bits in response to the output from the comparator. an array of memory cells organized into rows and columns, wherein each column of memory cells is coupled to a bit line; and a trimmable bitline regulator system for applying a precharge bias voltage on a bias line to one or more bit lines prior to a read operation, the trimmable bitline regulator system comprising: a bitline regulator for receiving a reference voltage (VREF) and a plurality of trim bits, the bitline regulator comprising a plurality of boost circuits (221, 222, and 223; or 231, 232, and 233; or 241, 242, and 243), wherein each trim bit in the plurality of trim bits selectively connects one of the plurality of boost circuits to the bias line to generate the bias precharge voltage; a sample and hold circuit for generating a sampled voltage based on the bias line in response to a control signal; a comparator for comparing the sampled voltage to the reference voltage (VREF) and generating an output; and an arbiter for receiving the output from the comparator and generating the plurality of trim bits in response to the output from the comparator. a bitline regulator for receiving a reference voltage (VREF) and a plurality of trim bits, the bitline regulator comprising a plurality of boost circuits (221, 222, and 223; or 231, 232, and 233; or 241, 242, and 243), wherein each trim bit in the plurality of trim bits selectively connects one of the plurality of boost circuits to the bias line to generate the bias precharge voltage; a sample and hold circuit for generating a sampled voltage based on the bias line in response to a control signal; a comparator for comparing the sampled voltage to the reference voltage (VREF) and generating an output; and an arbiter for receiving the output from the comparator and generating the plurality of trim bits in response to the output from the comparator.
A combination of an electronic cam lock and a door, cabinet, drawer or panel for a cabinet or furniture that provides ingress and no egress, the electronic cam lock comprising: a compact housing containing electronics and having a terminal enabling entry of a code by a user, such that the code when properly entered will cause the electronics to permit access, wherein the housing is positioned behind and on a back side of a panel of said door or other openable structure to which the lock is affixed, a lock driver extending from a back side of the housing, engaged with a latch device at the inside of the door or panel, with a knob or handle on the housing for operating the lock manually to rotate the lock driver when permitted by the electronics, the housing including a base plate secured against the back side of the panel, and the knob or handle and the terminal protruding forward from the base plate and extending through the panel, such that the knob or handle and terminal are accessible for operation at the front side of the panel as extended through the panel, and a power source connected to power the electronics. a compact housing containing electronics and having a terminal enabling entry of a code by a user, such that the code when properly entered will cause the electronics to permit access, wherein the housing is positioned behind and on a back side of a panel of said door or other openable structure to which the lock is affixed, a lock driver extending from a back side of the housing, engaged with a latch device at the inside of the door or panel, with a knob or handle on the housing for operating the lock manually to rotate the lock driver when permitted by the electronics, the housing including a base plate secured against the back side of the panel, and the knob or handle and the terminal protruding forward from the base plate and extending through the panel, such that the knob or handle and terminal are accessible for operation at the front side of the panel as extended through the panel, and a power source connected to power the electronics.
A cranial bone plate having antioxidative properties comprising: a substrate comprising an antioxidant and a polymer material; and a polymer film(s) covering a surface of the substrate, the polymer film(s) comprising a (meth)acrylate compound; wherein the polymer material is an ultrahigh molecular weight polyethylene having a molecular weight of 3 × 10 6 g/mol or more; and wherein the antioxidant comprises a lipid-soluble vitamin E group. a substrate comprising an antioxidant and a polymer material; and a polymer film(s) covering a surface of the substrate, the polymer film(s) comprising a (meth)acrylate compound; wherein the polymer material is an ultrahigh molecular weight polyethylene having a molecular weight of 3 × 10 6 g/mol or more; and wherein the antioxidant comprises a lipid-soluble vitamin E group.
A battery pack having a refrigerant circulation channel provided in a pack case, the battery pack comprising: at least one battery module; a pack case configured to receive the battery module therein; and a cooling unit located between an inside upper surface of the pack case and the battery module, the cooling unit being configured to discharge heat generated from the battery module, wherein the pack case is provided with a refrigerant circulation channel therein configured to supply and collect a refrigerant to and from the cooling unit, wherein the pack case comprises a front frame, a rear frame, and a pair of side frames connecting the front frame and the rear frame to each other, and the refrigerant circulation channel is provided in each of the pair of side frames, characterized in that an air circulation channel is located adjacent to the refrigerant circulation channel of the side frame so as to be parallel to the refrigerant circulation channel, and wherein the air circulation channel has at least one incision portion configured to allow external air to pass therethrough. at least one battery module; a pack case configured to receive the battery module therein; and a cooling unit located between an inside upper surface of the pack case and the battery module, the cooling unit being configured to discharge heat generated from the battery module, wherein the pack case is provided with a refrigerant circulation channel therein configured to supply and collect a refrigerant to and from the cooling unit, wherein the pack case comprises a front frame, a rear frame, and a pair of side frames connecting the front frame and the rear frame to each other, and the refrigerant circulation channel is provided in each of the pair of side frames, characterized in that an air circulation channel is located adjacent to the refrigerant circulation channel of the side frame so as to be parallel to the refrigerant circulation channel, and
A resilient compressible roller (110; 120; 310; 320) rotatably engaged with an autonomous coverage robot, the resilient compressible roller comprising: a rigid drive shaft; a resilient tubular member (150; 350) having a longitudinal axis and including an outer surface, one or more vanes (160; 360) extending outwardly from the outer surface, a hub disposed along the longitudinal axis of the resilient tubular member within the outer surface, the hub having one or more engagement elements formed therein for engaging securely with the rigid drive shaft, a plurality of resilient curvilinear spokes extending between an inner surface of the resilient tubular member and the hub. a rigid drive shaft; a resilient tubular member (150; 350) having a longitudinal axis and including an outer surface, one or more vanes (160; 360) extending outwardly from the outer surface, a hub disposed along the longitudinal axis of the resilient tubular member within the outer surface, the hub having one or more engagement elements formed therein for engaging securely with the rigid drive shaft, a plurality of resilient curvilinear spokes extending between an inner surface of the resilient tubular member and the hub.
A modular carrying system composed of at least the following system components: a. a protective vest with at least one back part and with means (7,8) for fastening to a human torso, b. a hip belt, c. a carrying device for being filled with loads to be carried, wherein the carrying device has carrying shoulder straps for fastening to a human torso, and d. a housing for accommodating an electronic unit, wherein the housing can be attached to the rear side of the protective vest, wherein the hip belt has a connecting element for the connection of the protective vest without the interposition of the housing, wherein the connecting element is designed to transmit weight loads from the protect tive vest to the hip belt, characterized in that at least one of the two laterally and vertically running side edges of the connecting element has a sawtooth-like profile section provided with projections and grooves. a. a protective vest with at least one back part and with means (7,8) for fastening to a human torso, b. a hip belt, c. a carrying device for being filled with loads to be carried, wherein the carrying device has carrying shoulder straps for fastening to a human torso, and d. a housing for accommodating an electronic unit, wherein the housing can be attached to the rear side of the protective vest,
A method comprising: receiving, by a wireless device, an activation command indicating at least two transmission configuration indicator, TCI, states for a control resource set, coreset, with a lowest coreset index in an active downlink bandwidth part of a cell; receiving downlink control information, DCI, scheduling a downlink signal; based on a time offset between the received DCI and the downlink signal being less than a threshold, selecting a TCI state that occurs first in the set of the at least two activated TCI states of the coreset; and receiving the downlink signal based on the selected TCI state. receiving, by a wireless device, an activation command indicating at least two transmission configuration indicator, TCI, states for a control resource set, coreset, with a lowest coreset index in an active downlink bandwidth part of a cell; receiving downlink control information, DCI, scheduling a downlink signal; based on a time offset between the received DCI and the downlink signal being less than a threshold, selecting a TCI state that occurs first in the set of the at least two activated TCI states of the coreset; and receiving the downlink signal based on the selected TCI state.
A production method for a hollow spring, comprising: a preparing step in which a straight-shaped hollow spring material is prepared; and an abrasive blasting step in which abrasives are ejected to an inner surface of the spring material and are suctioned, and the inner surface of the spring material is thereby ground, wherein in the abrasive blasting step, a first blasting and a second blasting are performed as the blasting in turn, characterized in that in the preparing step of the spring material, length of the spring material is set to be 1.5 m to 3.5 m, and an inner diameter of the spring material is set to be not more than 10 mm in the first blasting, the abrasives are ejected to one end portion of the spring material and are suctioned from a suction side valve provided at another end portion of the spring material so that an eddy flow is generated at the inside of the spring material, and in the second blasting, the abrasives are ejected to the another end portion of the spring material and are suctioned from a suction side valve provided at the one end portion of the spring material so that an eddy flow is generated at the inside of the spring material. a preparing step in which a straight-shaped hollow spring material is prepared; and an abrasive blasting step in which abrasives are ejected to an inner surface of the spring material and are suctioned, and the inner surface of the spring material is thereby ground, wherein in the abrasive blasting step, a first blasting and a second blasting are performed as the blasting in turn, characterized in that in the preparing step of the spring material, length of the spring material is set to be 1.5 m to 3.5 m, and an inner diameter of the spring material is set to be not more than 10 mm in the first blasting, the abrasives are ejected to one end portion of the spring material and are suctioned from a suction side valve provided at another end portion of the spring material so that an eddy flow is generated at the inside of the spring material, and in the second blasting, the abrasives are ejected to the another end portion of the spring material and are suctioned from a suction side valve provided at the one end portion of the spring material so that an eddy flow is generated at the inside of the spring material.
A system for ablating body tissue, comprising: an RF generator including a switching mechanism configured for switching back and forth_between a first position and a second position; a fluid source including a supply of electrically conductive fluid; and an ablation device, including: an elongate shaft having a proximal section, a distal section, and at least one fluid lumen; an inflatable balloon coupled to the distal section of the shaft and including an interior section in fluid communication with the fluid source for actuating the balloon between a collapsed state and an expanded state; a first electrode disposed within the interior space of the balloon and electrically coupled to the RF generator, the first electrode configured for supplying a first RF electrical field through the balloon and into the body tissue when the switching mechanism is in the first position; a second electrode coupled to a distal end portion of the elongate shaft and electrically coupled to the RF generator, the second electrode configured for supplying a second RF electric field directly into the tissue when the switching mechanism is in the second position. an RF generator including a switching mechanism configured for switching back and forth_between a first position and a second position; a fluid source including a supply of electrically conductive fluid; and an ablation device, including: an elongate shaft having a proximal section, a distal section, and at least one fluid lumen; an inflatable balloon coupled to the distal section of the shaft and including an interior section in fluid communication with the fluid source for actuating the balloon between a collapsed state and an expanded state; a first electrode disposed within the interior space of the balloon and electrically coupled to the RF generator, the first electrode configured for supplying a first RF electrical field through the balloon and into the body tissue when the switching mechanism is in the first position; a second electrode coupled to a distal end portion of the elongate shaft and electrically coupled to the RF generator, the second electrode configured for supplying a second RF electric field directly into the tissue when the switching mechanism is in the second position. an elongate shaft having a proximal section, a distal section, and at least one fluid lumen; an inflatable balloon coupled to the distal section of the shaft and including an interior section in fluid communication with the fluid source for actuating the balloon between a collapsed state and an expanded state; a first electrode disposed within the interior space of the balloon and electrically coupled to the RF generator, the first electrode configured for supplying a first RF electrical field through the balloon and into the body tissue when the switching mechanism is in the first position; a second electrode coupled to a distal end portion of the elongate shaft and electrically coupled to the RF generator, the second electrode configured for supplying a second RF electric field directly into the tissue when the switching mechanism is in the second position.
Muffler for motor vehicles comprising: - an intake pipe of the exhaust gas which separates, at a fork, into a main pipe and a secondary pipe, - a muffler body which delimits an expansion volume and houses at least partially the main pipe and the secondary pipe, - wherein the intake pipe of the exhaust gas is in fluid continuous connection with the main pipe through the secondary pipe, and - wherein the main pipe comprises, downstream of the fork, a throttle valve which allows or prevents a further fluidic connection of the intake pipe of exhaust gas with the main pipe, and an output of the exhaust gases, for the expulsion of the gases from the pipe; wherein the main pipe, at a first portion contained in the expansion volume, comprises a plurality of inlet holes suitable to allow the leakage into it of the exhaust gases expanded in the expansion volume, coming from the open end of the secondary pipe; characterized in that the muffler body comprises a separator septum which divides it into the expansion volume containing the open end, the first portion and the inlet holes, so as to allow the conveying of the exhaust gases coming from the open end into the inlet holes, and a second portion which houses an end portion of the main pipe which ends with the output of the exhaust gases; and wherein the end portion of the main pipe housed in said second portion comprises damping holes surrounded by sound absorbent material fitted around the end portion of the main pipe. - an intake pipe of the exhaust gas which separates, at a fork, into a main pipe and a secondary pipe, - a muffler body which delimits an expansion volume and houses at least partially the main pipe and the secondary pipe, - wherein the intake pipe of the exhaust gas is in fluid continuous connection with the main pipe through the secondary pipe, and - wherein the main pipe comprises, downstream of the fork, a throttle valve which allows or prevents a further fluidic connection of the intake pipe of exhaust gas with the main pipe, and an output of the exhaust gases, for the expulsion of the gases from the pipe;
A filter cartridge for a respiratory mask, the cartridge comprising a housing comprised of an inner receptacle (4, 22) having an open end and an outer cover mounted over said open end of said inner receptacle, said outer cover having, in a covering surface thereof, an air intake aperture in fluid communication with said inner receptacle (4, 22), said outer cover being pivotally mounted to said inner receptacle and configured for pivotal movement relative thereto between a first configuration in which there is a gap between said open end of said inner receptacle and said outer cover such that a first respiratory airway is defined between said intake aperture and said inner receptacle (4, 22), and a second configuration in which said outer cover substantially seals said open end of said inner receptacle (4, 22) and said first respiratory airway is thereby blocked; characterized in that said air intake aperture is located at a first longitudinal end of said housing, said cover is pivotally mounted to said inner receptacle by means of a fixed pivot (30, 32) provided at a second, opposite longitudinal end of said housing, a second respiratory airway is defined by said gap between the open end of the inner receptacle and the cover in said first configuration, and the inner receptacle (4, 22) further comprises a connecting portion adjacent the second longitudinal end of the housing configured to mount the filter cartridge over a respiratory aperture in a respiratory mask.
Method of determining deformation along a first direction of an equipment in contact with hot material and comprising an inner face intended to be in contact with the hot material and an outer face opposite to the inner face, this method comprising the steps of: - providing the outer face with: o at least one first optical fibre (5 i) set along the first direction and comprising at least two first Bragg gratings (6 ij) having different grating periods for reflecting photons having different Bragg wavelengths, and o at least two second optical fibres (7 k) set along at least one second direction that crosses the at least first optical fibre (5 i) at a crossing point located in the vicinity of one of the first Bragg gratings (6 ij), and each comprising, in the vicinity of a crossing point, a second Bragg grating (8 kn) having a grating period for reflecting photons having a Bragg wavelength, - inputting photons having wavelengths belonging to a wavelength group comprising all of the Bragg wavelengths, into respective first ends of the first (5 i) and second (7 k) optical fibres, - determining wavelengths of photons reflected by a corresponding first (6 ij) or second Bragg grating (8 kn), and - determining a deformation of the equipment along the first direction from corresponding couples each comprising a determined wavelength λ R and a corresponding Bragg wavelength λ B. - providing the outer face with: o at least one first optical fibre (5 i) set along the first direction and comprising at least two first Bragg gratings (6 ij) having different grating periods for reflecting photons having different Bragg wavelengths, and o at least two second optical fibres (7 k) set along at least one second direction that crosses the at least first optical fibre (5 i) at a crossing point located in the vicinity of one of the first Bragg gratings (6 ij), and each comprising, in the vicinity of a crossing point, a second Bragg grating (8 kn) having a grating period for reflecting photons having a Bragg wavelength, o at least one first optical fibre (5 i) set along the first direction and comprising at least two first Bragg gratings (6 ij) having different grating periods for reflecting photons having different Bragg wavelengths, and o at least two second optical fibres (7 k) set along at least one second direction that crosses the at least first optical fibre (5 i) at a crossing point located in the vicinity of one of the first Bragg gratings (6 ij), and each comprising, in the vicinity of a crossing point, a second Bragg grating (8 kn) having a grating period for reflecting photons having a Bragg wavelength, - inputting photons having wavelengths belonging to a wavelength group comprising all of the Bragg wavelengths, into respective first ends of the first (5 i) and second (7 k) optical fibres, - determining wavelengths of photons reflected by a corresponding first (6 ij) or second Bragg grating (8 kn), and - determining a deformation of the equipment along the first direction from corresponding couples each comprising a determined wavelength λ R and a corresponding Bragg wavelength λ B.