mhurhangee/ep-ind-claims huggingface dataset:
An electronic device (X1; X2; X3; X4; X5) comprising: a touch panel configured to detect an input position; a first housing including a base disposed opposite the touch panel and a frame body positioned on the base so as to surround the touch panel in plan view; an operation unit positioned on a front surface of the touch panel so as to cover the touch panel in plan view; a vibrating body provided on a portion of a back surface of the operation unit; a flexible portion (8; 80) provided over a whole circumference of the frame body and located between the operation unit and the frame body, supporting the operation unit; and characterised by a gap provided between the touch panel and the flexible portion (8; 80), being a portion of the operation unit that is not supported by the touch panel and the flexible portion, wherein the vibrating body is arranged in the gap so as not to overlap with the touch panel in plan view. a touch panel configured to detect an input position; a first housing including a base disposed opposite the touch panel and a frame body positioned on the base so as to surround the touch panel in plan view; an operation unit positioned on a front surface of the touch panel so as to cover the touch panel in plan view; a vibrating body provided on a portion of a back surface of the operation unit; a flexible portion (8; 80) provided over a whole circumference of the frame body and located between the operation unit and the frame body, supporting the operation unit; and characterised by a gap provided between the touch panel and the flexible portion (8; 80), being a portion of the operation unit that is not supported by the touch panel and the flexible portion, wherein the vibrating body is arranged in the gap so as not to overlap with the touch panel in plan view.
A method for drilling a portion of a borehole comprising using a computer system to: receive a maximum value for depth of cut of a bit avoiding engagement of the bit body with the formation being drilled; receive a total revolution rate value for the bit, the total rate including a rate of revolution by a mud motor that is calculated from a differential pressure value of the mud motor; generate a rate of penetration value for the bit (226, 510, 1210) as operatively coupled to the mud motor by multiplying the maximum depth of cut value and the total revolution rate value; and operate a rigsite system according to the rate of penetration value for drilling a portion of a borehole using the bit as operatively coupled to the mud motor. receive a maximum value for depth of cut of a bit avoiding engagement of the bit body with the formation being drilled; receive a total revolution rate value for the bit, the total rate including a rate of revolution by a mud motor that is calculated from a differential pressure value of the mud motor; generate a rate of penetration value for the bit (226, 510, 1210) as operatively coupled to the mud motor by multiplying the maximum depth of cut value and the total revolution rate value; and operate a rigsite system according to the rate of penetration value for drilling a portion of a borehole using the bit as operatively coupled to the mud motor.
A method for forming an anisotropic sensor material (b) on a substrate, using electrodes (a) forming one or more anisotropic conductive pathways in one or more layers (b) from mixture comprising matrix and conductive particles, said conductive particles being present in a concentration below a percolation threshold, comprising the steps of: a. forming a layer (b) of the mixture, the mixture having a first viscosity which allows the conductive particles to rearrange within the layer (b); b. applying an electric field over the layer (b), so that a number of the conductive particles are assembled and aligned with the field, thus creating one or more conductive pathways, wherein the electric field is generated between one or more pairs of alignment electrodes (a) that are at fixed position or that are moved relatively to the substrate, and the alignment electrodes (a) are insulated from the layer (b) by insulating layers (c); c. changing the viscosity of the layer (b) to a second viscosity, said second viscosity being higher than the first viscosity, in order to mechanically stabilise the layer (b) and preserve the one or more conductive pathways, and wherein the percolation threshold is the lowest concentration of conductive particles necessary to achieve long-range conductivity in a random system. a. forming a layer (b) of the mixture, the mixture having a first viscosity which allows the conductive particles to rearrange within the layer (b); b. applying an electric field over the layer (b), so that a number of the conductive particles are assembled and aligned with the field, thus creating one or more conductive pathways, wherein the electric field is generated between one or more pairs of alignment electrodes (a) that are at fixed position or that are moved relatively to the substrate, and the alignment electrodes (a) are insulated from the layer (b) by insulating layers (c); c. changing the viscosity of the layer (b) to a second viscosity, said second viscosity being higher than the first viscosity, in order to mechanically stabilise the layer (b) and preserve the one or more conductive pathways, and wherein the percolation threshold is the lowest concentration of conductive particles necessary to achieve long-range conductivity in a random system.
A tubular filter comprising expanded metal that has been rolled on itself to form a multi-layered tube wherein: the expanded metal comprises a multiplicity of openings and includes at least one section that is free of openings, wherein said section: (i) is between two sections, each of which comprises a multiplicity of openings, (ii) extends over the entire width of the expanded metal, (iii) produces circumferential flow of gas within the filter; and wherein the filter has an inner diameter and an outer diameter; and all possible flow paths from the inner diameter to the outer diameter include both radial and at least some circumferential flow over a distance greater than 5 times the average distance between openings. the expanded metal comprises a multiplicity of openings and includes at least one section that is free of openings, wherein said section: (i) is between two sections, each of which comprises a multiplicity of openings, (ii) extends over the entire width of the expanded metal, (iii) produces circumferential flow of gas within the filter; and wherein the filter has an inner diameter and an outer diameter; and (i) is between two sections, each of which comprises a multiplicity of openings, (ii) extends over the entire width of the expanded metal, (iii) produces circumferential flow of gas within the filter; and wherein the filter has an inner diameter and an outer diameter; and all possible flow paths from the inner diameter to the outer diameter include both radial and at least some circumferential flow over a distance greater than 5 times the average distance between openings.
A wired pipe system for downhole applications comprising: a wired pipe segment having a first end and a second end; a first coupler in the first end and a second coupler in the second end; and a transmission line disposed in the wired pipe segment between the first and second ends (24, 26), the transmission line characterized by: an inner conductor; an insulating material surrounding the inner conductor, the insulating material having an initial outer diameter; and a wire channel surrounding the insulating material and the inner conductor for at least a portion of a length of the transmission line, the wire channel being formed from at least two profiles (100a, 100b) forced together to compress the insulating material such that it has a final outer diameter that is less than the initial outer diameter, a first of the at least two profiles including a first mating feature in the form of a groove that mates a second mating feature in the form of a nose included by a second of the at least two profiles. a wired pipe segment having a first end and a second end; a first coupler in the first end and a second coupler in the second end; and a transmission line disposed in the wired pipe segment between the first and second ends (24, 26), the transmission line characterized by: an inner conductor; an insulating material surrounding the inner conductor, the insulating material having an initial outer diameter; and an inner conductor; an insulating material surrounding the inner conductor, the insulating material having an initial outer diameter; and a wire channel surrounding the insulating material and the inner conductor for at least a portion of a length of the transmission line, the wire channel being formed from at least two profiles (100a, 100b) forced together to compress the insulating material such that it has a final outer diameter that is less than the initial outer diameter, a first of the at least two profiles including a first mating feature in the form of a groove that mates a second mating feature in the form of a nose included by a second of the at least two profiles.
A method performed by an IP multimedia system, IMS, node for handling data of a user equipment, UE, in a communication network, wherein the communication network comprises partitioned sets of functionalities of one or more core networks wherein each set of functionalities belongs to a network slice, the method comprising: - receiving a message for registering the UE to an IMS of the IMS node, wherein the message comprises a slice indication indicating a network slice identity and a UE indication identifying the UE; and being characterised by - storing a registration of the UE in the IMS node comprising the indicated network slice identity, in addition to a previously stored registration of the UE comprising a previous network slice identity, with the proviso that the indicated network slice identity differs from the previous network slice identity of the previously stored registration of the UE and thereby allowing parallel active communications using the registration and the previously stored registration. - receiving a message for registering the UE to an IMS of the IMS node, wherein the message comprises a slice indication indicating a network slice identity and a UE indication identifying the UE; and being characterised by - storing a registration of the UE in the IMS node comprising the indicated network slice identity, in addition to a previously stored registration of the UE comprising a previous network slice identity, with the proviso that the indicated network slice identity differs from the previous network slice identity of the previously stored registration of the UE and thereby allowing parallel active communications using the registration and the previously stored registration.
A field configurable electrical device configured to be installed within a wall mounted electrical box, comprising: a housing having a housing cover; a faceplate covering the housing cover having a front surface and an opening therein; an antenna comprising an antenna bezel frame and an antenna element mounted within the antenna bezel frame such that the antenna element extends parallel to the faceplate; wherein the antenna bezel frame protrudes through the faceplate such that the antenna element is located forward of the front surface of the faceplate a radio frequency circuitry component located beneath the housing cover which is in electrical communication with the antenna element for receiving a control signal from the antenna element; one or more spring-loaded connectors (731, 732) that protrude through the housing cover to place the radio frequency circuitry component in electrical communication with the antenna element such that an electrical connection between the radio frequency circuitry component and the antenna element is given; a housing having a housing cover; a faceplate covering the housing cover having a front surface and an opening therein; an antenna comprising an antenna bezel frame and an antenna element mounted within the antenna bezel frame such that the antenna element extends parallel to the faceplate; wherein the antenna bezel frame protrudes through the faceplate such that the antenna element is located forward of the front surface of the faceplate a radio frequency circuitry component located beneath the housing cover which is in electrical communication with the antenna element for receiving a control signal from the antenna element; one or more spring-loaded connectors (731, 732) that protrude through the housing cover to place the radio frequency circuitry component in electrical communication with the antenna element such that an electrical connection between the radio frequency circuitry component and the antenna element is given;
An aqueous ink composition, comprising: from 2 wt% to 5 wt% pigment, from 70 wt% to 95 wt% water, from 1 wt% to 10 wt% binder, wherein the binder comprises polyurethane, polyurea, polyurethane with a curable double bond, polyurethane-graph polyol, or a combination thereof, from 0.1 wt% to 3 wt% non-ionic surfactant, from 1 wt% to 15 wt% humectant solvent including a hydrophilic group, and from 0.3 wt% to 4.5 wt% non-volatile glycol ether co-solvent having a boiling point of 220°C or greater. from 2 wt% to 5 wt% pigment, from 70 wt% to 95 wt% water, from 1 wt% to 10 wt% binder, wherein the binder comprises polyurethane, polyurea, polyurethane with a curable double bond, polyurethane-graph polyol, or a combination thereof, from 0.1 wt% to 3 wt% non-ionic surfactant, from 1 wt% to 15 wt% humectant solvent including a hydrophilic group, and from 0.3 wt% to 4.5 wt% non-volatile glycol ether co-solvent having a boiling point of 220°C or greater.
Fitting connector comprising a base body with connecting pieces for water lines and a base body region with fitting surfaces for a functional unit, wherein each connecting piece being connected by channels in the interior of the base body to a respective associated opening in one fitting surface, and a functional unit with complementarily arranged openings can be mounted on the base body region with the fitting surfaces, characterized in that the connecting pieces are movably mounted in or on the base body.
Method for detecting and locating in a motor vehicle a garage providing at least one parking space for the motor vehicle, wherein the motor vehicle has at least one distance sensor which is directed to the surroundings of the motor vehicle and delivers distance data from object surfaces to the motor vehicle and wherein after the detection and location, depending on garage information determined in this way, a target pose is determined for parking the motor vehicle in at least one of the at least one parking spaces, characterised in that that the distance data for detecting an opening garage door are evaluated with reference to an opening criterion, wherein when the opening criterion is met a garage is detected and with reference to the position of the garage door derived from the distance data location information for the garage is determined as part of the garage information, wherein during a monitoring phase prospective structures (20, 25) indicating potential closed garage doors are identified in the distance data and by means of the opening criterion are monitored for a change indicating the opening of a garage door.
A method of producing hypochlorous acid (HOCl), the method comprising the steps of: mixing together in an air-free environment, a compound that generates a proton (H +) in water and a compound that generates a hypochlorite anion (OCl -) in water, thereby to produce air-free hypochlorous acid.
Process for improving the quality of lignosulfonate at least partly derived form a spent sulfite cooking liquor in at least two steps, comprising: one step in which a lignosulfonate-containing fraction at least partly derived from the spent sulfite cooking liquor is subjected to filtration using a membrane having a cut-off of 40-150 kD (high cut-off) at the pressure, flow rate and temperature of the step and the permeate is recovered; and another step in which a lignosulfonate-containing fraction at least partly derived from the spent sulfite cooking liquor is subjected to filtration using a membrane having a cut-off of 1-20 kD (low cut-off) at the pressure, flow rate and temperature of the step and the retentate is recovered, in which process the material recovered from the membrane filtration steps is concentrated by removal of water, such as evaporation of water. one step in which a lignosulfonate-containing fraction at least partly derived from the spent sulfite cooking liquor is subjected to filtration using a membrane having a cut-off of 40-150 kD (high cut-off) at the pressure, flow rate and temperature of the step and the permeate is recovered; and another step in which a lignosulfonate-containing fraction at least partly derived from the spent sulfite cooking liquor is subjected to filtration using a membrane having a cut-off of 1-20 kD (low cut-off) at the pressure, flow rate and temperature of the step and the retentate is recovered, in which process the material recovered from the membrane filtration steps is concentrated by removal of water, such as evaporation of water.
A method for manufacturing a filter element, in particular a filter element intended for the filtration of air for a motor vehicle, the method comprising the steps of: a) unwinding a strip of filter medium including synthetic fibers, the strip having two longitudinal edges (2, 3) and a front lateral edge perpendicular to the longitudinal edges (2, 3), and guiding the strip in an advance direction, then in this advance direction b) making a plurality of markings (9, 10) on the strip of filter medium in a direction transverse to the longitudinal edges (2,3), at least some of the markings having a pointed-shape central portion and two flat lateral portions surrounding said central portion, then c) folding the strip of filter medium along each marking (9, 10) so as to conform the strip into an accordion, and then d) cutting the strip perpendicular to the longitudinal edges (2, 3) so as to form a rear lateral edge parallel to the front lateral edge, characterized in that it comprises an additional step of forming a lateral flat area along the front and rear lateral edges (17a, 17b) respectively, each of the lateral flat areas extending between the longitudinal edges (2, 3), said additional step being carried out by marking the strip during step b), each of the lateral flat areas corresponding to a marking with a rectangular or trapezoidal profile. a) unwinding a strip of filter medium including synthetic fibers, the strip having two longitudinal edges (2, 3) and a front lateral edge perpendicular to the longitudinal edges (2, 3), and guiding the strip in an advance direction, then in this advance direction b) making a plurality of markings (9, 10) on the strip of filter medium in a direction transverse to the longitudinal edges (2,3), at least some of the markings having a pointed-shape central portion and two flat lateral portions surrounding said central portion, then c) folding the strip of filter medium along each marking (9, 10) so as to conform the strip into an accordion, and then d) cutting the strip perpendicular to the longitudinal edges (2, 3) so as to form a rear lateral edge parallel to the front lateral edge,
A process for the production of hydrogen, comprising the following steps: (i) recovering methanol from black liquor, and (ii) subjecting the methanol to non-catalytic reforming to produce hydrogen, wherein the non-catalytic reforming is performed at a temperature in the range of 700-1300°C. (i) recovering methanol from black liquor, and (ii) subjecting the methanol to non-catalytic reforming to produce hydrogen,
A prosthetic valve assembly (300; 500; 800) for replacing a native heart valve comprising: a radially expandable and compressible support structure (302; 502; 802), the support structure (302; 502; 802) comprising an annular frame (308; 510; 812) having a lumen extending from an inflow end (506; 808) to an outflow end, the support structure (302; 502; 802) further comprising an annular sealing member (330; 512) extending radially inwardly into the lumen of the frame (308; 510; 812) and having an inner peripheral portion defining an orifice (332; 514); and a radially expandable and compressible valve component (304; 504; 804), the valve component (304; 504; 804) comprising an annular frame (322; 546; 820) and a valve structure (326; 548) supported inside of the frame (322; 546; 820) for permitting the flow blood through the valve component (304; 504; 804) in one direction and blocking the flow of blood in the opposite direction; wherein the valve component (304; 504; 804) is configured to expand within the orifice (332; 514) of the sealing member (330; 512) and engage the inner peripheral portion of the sealing member (330; 512) when radially expanded so that the valve component (304; 504; 804) is suspended within the support structure (302; 502; 802). a radially expandable and compressible support structure (302; 502; 802), the support structure (302; 502; 802) comprising an annular frame (308; 510; 812) having a lumen extending from an inflow end (506; 808) to an outflow end, the support structure (302; 502; 802) further comprising an annular sealing member (330; 512) extending radially inwardly into the lumen of the frame (308; 510; 812) and having an inner peripheral portion defining an orifice (332; 514); and a radially expandable and compressible valve component (304; 504; 804), the valve component (304; 504; 804) comprising an annular frame (322; 546; 820) and a valve structure (326; 548) supported inside of the frame (322; 546; 820) for permitting the flow blood through the valve component (304; 504; 804) in one direction and blocking the flow of blood in the opposite direction; wherein the valve component (304; 504; 804) is configured to expand within the orifice (332; 514) of the sealing member (330; 512) and engage the inner peripheral portion of the sealing member (330; 512) when radially expanded so that the valve component (304; 504; 804) is suspended within the support structure (302; 502; 802).