mhurhangee/ep-ind-claims huggingface dataset:
A memory device, comprising: an array of bitcells, each bitcell having two elements including a single antifuse element for storing a bitcell state and a single access element for providing access to the antifuse element for bitcell programming and readout, wherein the antifuse element is an NMOS transistor having its source and drain tied together and comprises a doped well, wherein the doped well is an N Well surrounding +N source and drain regions; power select circuitry for biasing a gate line of the array to a first voltage level for bitcell programming and a second voltage level for bitcell readout, the gate line connected to at least one of the antifuse elements; and sense amplifier circuitry for sensing bitcell state during readout, wherein the sense circuitry comprises a voltage divider coupled to a transmission gate coupled to a skewed inverter, wherein the sense amplifier circuitry is operable to pass a voltage divided signal through the transmission gate to the skewed inverter and a high or low value is delivered at the output of the inverter. an array of bitcells, each bitcell having two elements including a single antifuse element for storing a bitcell state and a single access element for providing access to the antifuse element for bitcell programming and readout, wherein the antifuse element is an NMOS transistor having its source and drain tied together and comprises a doped well, wherein the doped well is an N Well surrounding +N source and drain regions; power select circuitry for biasing a gate line of the array to a first voltage level for bitcell programming and a second voltage level for bitcell readout, the gate line connected to at least one of the antifuse elements; and sense amplifier circuitry for sensing bitcell state during readout, wherein the sense circuitry comprises a voltage divider coupled to a transmission gate coupled to a skewed inverter, wherein the sense amplifier circuitry is operable to pass a voltage divided signal through the transmission gate to the skewed inverter and a high or low value is delivered at the output of the inverter.
A threaded tubular component for drilling or working hydrocarbon wells, said tubular component having at one of its ends (1; 2) a threaded zone (3; 4) produced on its outer or inner peripheral surface depending on whether the threaded end is male or female in type, at least a portion of the end (1; 2) being coated with at least one lubricating dry film comprising at least 65% by weight of a polyaryletherketone, characterized in that the lubricating dry film has a structure with a degree of crystallinity in the range 10% to 35%, the degree of crystallinity being measured by the enthalpy of fusion or crystallization of the polymer, and in that the lubricating dry film comprises a perfluoroalkoxyethylene copolymer, as a class 4 solid lubricant, in a proportion by weight in the range 10% to 30%.
A concentrating-enriching magnetic bead purifier, comprising: a base; at least one first mixing sleeve shelf movably disposed on the base, the first mixing sleeve shelf comprising at least one first magnetic rod provided on the base, and at least one first magnetic rod sleeve arranged to insert the first magnetic rod therein; at least one second mixing sleeve shelf movably disposed on the base, the second mixing sleeve shelf comprising at least one second magnetic rod provided on the base, and at least one second magnetic rod sleeve arranged to insert the second magnetic rod therein, a cross section area of the second magnetic rod sleeve being smaller than that of the first magnetic rod sleeve; a plurality of wells placed on the base, the wells comprising at least one binding well, at least one washing well, and at least one elution well, a volume of the elution well being smaller than that of the binding well; and a controlling module constructed for controlling the first mixing sleeve shelf and the second mixing sleeve shelf, the controlling module controlling the first magnetic rod sleeve to only mix or adsorb in the at least one binding well and the at least one washing well and controlling the second magnetic rod sleeve to mix or adsorb in the at least one washing well and the at least one elution well. a base; at least one first mixing sleeve shelf movably disposed on the base, the first mixing sleeve shelf comprising at least one first magnetic rod provided on the base, and at least one first magnetic rod sleeve arranged to insert the first magnetic rod therein; at least one second mixing sleeve shelf movably disposed on the base, the second mixing sleeve shelf comprising at least one second magnetic rod provided on the base, and at least one second magnetic rod sleeve arranged to insert the second magnetic rod therein, a cross section area of the second magnetic rod sleeve being smaller than that of the first magnetic rod sleeve; a plurality of wells placed on the base, the wells comprising at least one binding well, at least one washing well, and at least one elution well, a volume of the elution well being smaller than that of the binding well; and a controlling module constructed for controlling the first mixing sleeve shelf and the second mixing sleeve shelf, the controlling module controlling the first magnetic rod sleeve to only mix or adsorb in the at least one binding well and the at least one washing well and controlling the second magnetic rod sleeve to mix or adsorb in the at least one washing well and the at least one elution well.
A first component for use with a second component without a power source output, wherein the second component comprises a communication device having an auto-shutdown mechanism, the first component comprising: a data input port configured to receive a data signal from the second component; and a power input port configured to (i) provide activity on a receive signal that is received by the communication device to defeat the auto-shutdown mechanism and (ii) receive a transmit signal from the communication device based on the activity on the receive signal, wherein the first component is configured to process or transmit the data signal using power provided by the transmit signal. a data input port configured to receive a data signal from the second component; and a power input port configured to (i) provide activity on a receive signal that is received by the communication device to defeat the auto-shutdown mechanism and (ii) receive a transmit signal from the communication device based on the activity on the receive signal, wherein the first component is configured to process or transmit the data signal using power provided by the transmit signal.
A reader (2; 100), comprising: a computer configured to analyze an image created by a camera module and read information from a symbol included in the image, wherein the computer comprises the camera module, and wherein the computer is a smartphone; a unit including a light source to display a marker (62; 162; 262; 362) indicating a range photographed by the camera module, the unit being configured to be externally attachable to the computer, characterized in that the light source is configured to emit light in accordance with an instruction from the computer, the marker (62; 162; 262; 362) includes a range marker (162; 262) indicating a specific range, the specific range being in the photographing range by the camera module, and the computer is further configured to analyze only an image in the specific range and to omit analyzing an image other than the specific range. a computer configured to analyze an image created by a camera module and read information from a symbol included in the image, wherein the computer comprises the camera module, and wherein the computer is a smartphone; a unit including a light source to display a marker (62; 162; 262; 362) indicating a range photographed by the camera module, the unit being configured to be externally attachable to the computer, characterized in that the light source is configured to emit light in accordance with an instruction from the computer, the marker (62; 162; 262; 362) includes a range marker (162; 262) indicating a specific range, the specific range being in the photographing range by the camera module, and the computer is further configured to analyze only an image in the specific range and to omit analyzing an image other than the specific range.
A first wireless LAN device for transmitting moving images to a second wireless LAN device, comprising: means for setting a second maximum detection number parameter as Wi-Fi Display, WFD, parameter for requesting a second maximum detection number of the second wireless LAN device in a M3 GET_PARAMETER request transmitted in a process of a capability negotiation according to WFD standard; means for receiving the second maximum detection number parameter and an associated value indicating the second maximum detection number of the second wireless LAN device in a M3 GET_PARAMETER response to the M3 GET_PARAMETER request; and means for setting a multi touch number that is equal or under both the second maximum detection number of the second wireless LAN device and a first maximum detection number of the first wireless LAN device and notifying the second wireless LAN device of the set multi touch number in a M4 or M14 SET_PARAMETER request, the first maximum detection number representing the maximum number of simultaneous touch operations, which the first wireless LAN device is able to detect, a touch operation representing an operation in which an operation body touches or is brought close to a touch panel of the first wireless LAN device, and the second maximum detection number representing the maximum number of simultaneous touch operations, which the second wireless LAN device is able to detect, a touch operation representing an operation in which an operation body touches or is brought close to a touch panel of the second wireless LAN device. means for setting a second maximum detection number parameter as Wi-Fi Display, WFD, parameter for requesting a second maximum detection number of the second wireless LAN device in a M3 GET_PARAMETER request transmitted in a process of a capability negotiation according to WFD standard; means for receiving the second maximum detection number parameter and an associated value indicating the second maximum detection number of the second wireless LAN device in a M3 GET_PARAMETER response to the M3 GET_PARAMETER request; and means for setting a multi touch number that is equal or under both the second maximum detection number of the second wireless LAN device and a first maximum detection number of the first wireless LAN device and notifying the second wireless LAN device of the set multi touch number in a M4 or M14 SET_PARAMETER request, the first maximum detection number representing the maximum number of simultaneous touch operations, which the first wireless LAN device is able to detect, a touch operation representing an operation in which an operation body touches or is brought close to a touch panel of the first wireless LAN device, and the second maximum detection number representing the maximum number of simultaneous touch operations, which the second wireless LAN device is able to detect, a touch operation representing an operation in which an operation body touches or is brought close to a touch panel of the second wireless LAN device.
A method for producing a catalyst-coated membrane provided in a fuel cell, the method comprising: preparing a membrane-shape retaining film-assembly produced so that a shape retaining film having a width longer than that of a polymer electrolyte membrane is attached on one surface of the electrolyte membrane so as to protrude from both sides of the electrolyte membrane in a width direction; forming a catalyst layer by applying catalyst ink onto an other surface of the electrolyte membrane having the attached shape retaining film, and drying the electrolyte membrane; attaching a second shape retaining film having a width longer than that of the electrolyte membrane, on the other surface of the electrolyte membrane having the catalyst layer so as to protrude from both sides of the electrolyte membrane in the width direction; peeling off the shape retaining film from the electrolyte membrane having the attached second shape retaining film; and forming a second catalyst layer by applying second catalyst ink on the electrolyte membrane exposed after the shape retaining film has been peeled off, and drying the electrolyte membrane. preparing a membrane-shape retaining film-assembly produced so that a shape retaining film having a width longer than that of a polymer electrolyte membrane is attached on one surface of the electrolyte membrane so as to protrude from both sides of the electrolyte membrane in a width direction; forming a catalyst layer by applying catalyst ink onto an other surface of the electrolyte membrane having the attached shape retaining film, and drying the electrolyte membrane; attaching a second shape retaining film having a width longer than that of the electrolyte membrane, on the other surface of the electrolyte membrane having the catalyst layer so as to protrude from both sides of the electrolyte membrane in the width direction; peeling off the shape retaining film from the electrolyte membrane having the attached second shape retaining film; and forming a second catalyst layer by applying second catalyst ink on the electrolyte membrane exposed after the shape retaining film has been peeled off, and drying the electrolyte membrane.
A curved display apparatus comprising: a curved display panel; a curved rear housing disposed at the rear of the curved display panel and spaced apart from the curved display panel, the curved rear housing including a rear part and a rear side part orthogonally extending from the periphery of the rear part towards the curved display panel; and a light source unit disposed at an inner side of the rear side part of the curved rear housing and arranged to radiate light to the curved rear housing, wherein the curved rear housing is arranged to reflect the light radiated from the light source unit to the curved display panel, characterised in that the curved display apparatus does not comprise an edge-illuminated light guide plate for guiding light from the light source unit to the curved display panel, and that the curved rear housing is provided at the inside thereof with a diffusion pattern to diffuse light radiated from the light source unit, the diffusion pattern being formed only at portions of the curved rear housing where light radiated in a direction perpendicular to the rear side part of the rear housing strikes the curved rear housing. a curved display panel; a curved rear housing disposed at the rear of the curved display panel and spaced apart from the curved display panel, the curved rear housing including a rear part and a rear side part orthogonally extending from the periphery of the rear part towards the curved display panel; and a light source unit disposed at an inner side of the rear side part of the curved rear housing and arranged to radiate light to the curved rear housing, wherein the curved rear housing is arranged to reflect the light radiated from the light source unit to the curved display panel, characterised in that the curved display apparatus does not comprise an edge-illuminated light guide plate for guiding light from the light source unit to the curved display panel, and that the curved rear housing is provided at the inside thereof with a diffusion pattern to diffuse light radiated from the light source unit, the diffusion pattern being formed only at portions of the curved rear housing where light radiated in a direction perpendicular to the rear side part of the rear housing strikes the curved rear housing.
An anticonvulsive pharmaceutical composition for transnasal administration, comprising: - a poorly soluble anticonvulsant as an active component; - diethylene glycol monoethyl ether; and - fatty acid ester selected from the group consisting of caprylocaproyl polyoxylglyceride, isopropyl palmitate, oleoyl polyoxylglyceride, sorbitan monolaurate 20, methyl laurate, ethyl laurate, and polysorbate 20. - a poorly soluble anticonvulsant as an active component; - diethylene glycol monoethyl ether; and - fatty acid ester selected from the group consisting of caprylocaproyl polyoxylglyceride, isopropyl palmitate, oleoyl polyoxylglyceride, sorbitan monolaurate 20, methyl laurate, ethyl laurate, and polysorbate 20.
An electronic device comprising: a first access management unit that manages an access to a database from a first process; and a second access management unit that manages an access to the database from a second process, wherein the first process is a process of platform software and the second process is a process of application software operating on the platform software, characterized in that the first access management unit, among regions on the database, maps a shared region for data to be used by both of the first process and the second process, and further maps a first dedicated region for data to be used by only the first process among the first process and the second process, and causes the first process to access to the first dedicated region and the shared region, and, the second access management unit, among the regions on the database, maps the shared region and maps a second dedicated region for the data to be used by only the second process among the first process and the second process, and causes the second process to access to the shared region and the second dedicated region. a first access management unit that manages an access to a database from a first process; and a second access management unit that manages an access to the database from a second process, wherein the first process is a process of platform software and the second process is a process of application software operating on the platform software, characterized in that the first access management unit, among regions on the database, maps a shared region for data to be used by both of the first process and the second process, and further maps a first dedicated region for data to be used by only the first process among the first process and the second process, and causes the first process to access to the first dedicated region and the shared region, and, the second access management unit, among the regions on the database, maps the shared region and maps a second dedicated region for the data to be used by only the second process among the first process and the second process, and causes the second process to access to the shared region and the second dedicated region.
A system for applying electric current to tissue of a subject, comprising: a current source generator; a catheter having a distal tip configured to apply electric current to the tissue; and a processor, configured to: calculate an estimated depth of penetration into the tissue of the distal tip of the catheter, select a predefined function of time from multiple predefined functions of time, responsively to the estimated depth of penetration, and drive the current source generator to supply an electric current having an amplitude that varies in accordance with the predefined function of time, such that the amplitude initially monotonically increases to a maximum value. a current source generator; a catheter having a distal tip configured to apply electric current to the tissue; and a processor, configured to: calculate an estimated depth of penetration into the tissue of the distal tip of the catheter, select a predefined function of time from multiple predefined functions of time, responsively to the estimated depth of penetration, and drive the current source generator to supply an electric current having an amplitude that varies in accordance with the predefined function of time, such that the amplitude initially monotonically increases to a maximum value. calculate an estimated depth of penetration into the tissue of the distal tip of the catheter, select a predefined function of time from multiple predefined functions of time, responsively to the estimated depth of penetration, and drive the current source generator to supply an electric current having an amplitude that varies in accordance with the predefined function of time, such that the amplitude initially monotonically increases to a maximum value.
A refractory object for use in a glass fusion process comprising Al 2 O 3, wherein at least 70 wt% of the total Al 2 O 3 content is beta alumina, wherein the refractory object includes a glass overflow forming block, and wherein the refractory object has a porosity, determined using ASTM C20-00 Standard Test Method (reapproved 2005), of at least 1 vol% and no greater than 20 vol%.
A sulfur-carbon composite comprising a porous carbon material; and sulfur, wherein at least a portion of an inside and a surface of the porous carbon material is coated with the sulfur, the sulfur-carbon composite has a pore volume of 0.180 cm 3 /g to 0.300 cm 3 /g, and the sulfur-carbon composite has an average pore size of 40.0 nm to 70.0 nm; and wherein: sulfur and the porous carbon material are present in the sulfur-carbon composite at a weight ratio of 7.5:2.5 to 4:6; the sulfur-carbon composite has particle size distributions d90, d10, and d50 of 100 um to 140 um, 7 um to 15 μm, and 30 um to 70 um, respectively; the particle size distributions d90, d10, and d50 are determined in a range of 0.4 um to 2000 um using a particle size analyzer; and the pore volume and the average pore size are determined using a nitrogen adsorption system. wherein at least a portion of an inside and a surface of the porous carbon material is coated with the sulfur, the sulfur-carbon composite has a pore volume of 0.180 cm 3 /g to 0.300 cm 3 /g, and the sulfur-carbon composite has an average pore size of 40.0 nm to 70.0 nm; and wherein: sulfur and the porous carbon material are present in the sulfur-carbon composite at a weight ratio of 7.5:2.5 to 4:6; the sulfur-carbon composite has particle size distributions d90, d10, and d50 of 100 um to 140 um, 7 um to 15 μm, and 30 um to 70 um, respectively; the particle size distributions d90, d10, and d50 are determined in a range of 0.4 um to 2000 um using a particle size analyzer; and the pore volume and the average pore size are determined using a nitrogen adsorption system. sulfur and the porous carbon material are present in the sulfur-carbon composite at a weight ratio of 7.5:2.5 to 4:6; the sulfur-carbon composite has particle size distributions d90, d10, and d50 of 100 um to 140 um, 7 um to 15 μm, and 30 um to 70 um, respectively; the particle size distributions d90, d10, and d50 are determined in a range of 0.4 um to 2000 um using a particle size analyzer; and the pore volume and the average pore size are determined using a nitrogen adsorption system.