mhurhangee/ep-ind-claims huggingface dataset:
A magnetic means assembly for a bone conducting hearing aid (4, 8), which magnetic means assembly is implantable and comprises one or more magnetic means (22, 22') and means for attaching the one or more magnetic means (22, 22') to the tissue (12, 14, 20) surrounding the magnetic means assembly when the magnetic means assembly is implanted in the body of a hearing aid user, the magnetic means assembly comprises means (26, 26', 38, 42, 52, 52', 54, 56) for positioning at least a portion of the one or more magnetic means (22, 22') in the soft tissue between dermis and the subcutaneous fat or the muscle/fat layer, characterised in that the means for attaching comprises an abutment (26, 26') that is adapted to mechanically attach to a screw member (52, 52') adapted to be screwed into the temporal bone and the abutment (26, 26') comprises a mesh structure comprising apertures or an ingrowth structure comprising a mesh structure comprising a plurality of apertures (50, 50', 50").
An energy guide chain for lines like cables, hoses or the like including chain links (5A, 5B) with laterally oppositely disposed chain plates, wherein the energy guide chain has two lateral plate lines (1A, 1B), each plate line includes chain plates which are connected together pivotably relative to each other in the longitudinal direction and which each have a first and a second overlap region (2A, 2B), and side parts of plastic which respectively have two end regions (3A, 3B), wherein the chain plates are made from a different material, in particular of higher strength and/or stiffness, than the side parts, characterised in that at least in a portion of each plate line (1A, 1B) successive chain plates have through apertures (21, 22) in the first overlap region and through apertures (21, 22) in the second overlap region, wherein through apertures (21, 22) of two successive chain plates respectively at least partially overlap; and in said portion associated with each second chain plate is a side part which in its two end regions (3A, 3B) respectively has one or more projections (31, 32), with which the side part engages through both overlap regions of the chain plate associated therewith and the side part with the one or more projections (31, 32) of each end region engages through overlapping through apertures (21, 22) of the associated chain plate and the respectively adjoining chain plate in order to limit the relative pivotal angle of successive chain plates and/or to connect same.
A skull implant, comprising: a rigid substrate shaped and dimensioned to replace a section of a skull, the substrate having an inner side and an outer side; a plurality of electrically-conductive plates, each having an inner side and an outer side, wherein the outer side of each plate is affixed to the inner side of the substrate; a dielectric layer disposed on the inner side of each plate; and a first electrically-conductive lead having an inner end and an outer end, wherein the inner end of the first lead is disposed in electrical contact with a first one of the plates, and the first lead passes through the substrate, with the outer end of the first lead being configured to accept an electrical signal from an external device. a rigid substrate shaped and dimensioned to replace a section of a skull, the substrate having an inner side and an outer side; a plurality of electrically-conductive plates, each having an inner side and an outer side, wherein the outer side of each plate is affixed to the inner side of the substrate; a dielectric layer disposed on the inner side of each plate; and a first electrically-conductive lead having an inner end and an outer end, wherein the inner end of the first lead is disposed in electrical contact with a first one of the plates, and the first lead passes through the substrate, with the outer end of the first lead being configured to accept an electrical signal from an external device.
A printed circuit board comprising conductive layers(11,15, 21) separated by insulation layers (14, 16) of dielectric material, at least one conductive layer (11, 15) being patterned and having at least one signal line (12, 13) embedded in an insulation material (10, 14, 16), whereby a conductive layer, separated by the insulation material and lying in a predetermined distance (d) from the at least one signal line includes a ground plane area associated to and extending along the at least one signal line, whereby the conductive layer associated to and extending along the at least one signal line (12, 13) is provided with openings therein, said openings being spaces between adjacent conducting stripes, extending, seen from above, across the at least one signal line (12, 13), the conducting stripes being integrally connected with the conductive remainder of the conductive layer, characterized in that the adjacent conducting stripes cross the signal line at an angle α of 30° - 60°.
A method comprising: determining, with a processor, a scheduled time period during which data is received by a device via Bluetooth; at least selectively reducing a transmission power of a cellular transmission from the device to a threshold level prior to the scheduled time period and controlling the transmission power so that the transmission power does not exceed the threshold level during the scheduled time period; adjusting an operational parameter of a power amplifier applied to the cellular transmission to increase a linearity of the power amplifier during the scheduled time period;_and subsequent to the scheduled time period, increasing the transmission power to a level exceeding the threshold level. determining, with a processor, a scheduled time period during which data is received by a device via Bluetooth; at least selectively reducing a transmission power of a cellular transmission from the device to a threshold level prior to the scheduled time period and controlling the transmission power so that the transmission power does not exceed the threshold level during the scheduled time period; adjusting an operational parameter of a power amplifier applied to the cellular transmission to increase a linearity of the power amplifier during the scheduled time period;_and subsequent to the scheduled time period, increasing the transmission power to a level exceeding the threshold level.
A process for producing gel - spun UHMWPE fibres having high tenacities and improved creep resistance, the process comprising the steps of a. Preparing a solution of an UHMWPE in a solvent, said UHMWPE having an intrinsic viscosity in decalin at 135°C of at least 5 dl/g; b. Spinning the solution of step a) through a spinneret containing multiple spinholes into an air gap to form fluid filaments; c. Cooling the fluid filaments to form solvent-containing gel filaments; and d. Removing at least partly the remaining solvent from the gel filaments to form solid filaments before or during drawing the solid filaments; characterized in that the UHMWPE is characterized by a difference in the phase angle according to Formula 1 Δδ=δ 0.001 − δ 100 of at most 42°, wherein δ 0.001 is the phase angle at an angular frequency of 0.001 rad/sec; and δ 100 is the phase angle at an angular frequency of 100 rad/sec as measured with a frequency sweep dynamic rheological technique at 150°C on a 10 % solution of UHMWPE in paraffin oil, provided that δ 100 is at most 18°. a. Preparing a solution of an UHMWPE in a solvent, said UHMWPE having an intrinsic viscosity in decalin at 135°C of at least 5 dl/g; b. Spinning the solution of step a) through a spinneret containing multiple spinholes into an air gap to form fluid filaments; c. Cooling the fluid filaments to form solvent-containing gel filaments; and d. Removing at least partly the remaining solvent from the gel filaments to form solid filaments before or during drawing the solid filaments; δ 0.001 is the phase angle at an angular frequency of 0.001 rad/sec; and δ 100 is the phase angle at an angular frequency of 100 rad/sec as measured with a frequency sweep dynamic rheological technique at 150°C on a 10 % solution of UHMWPE in paraffin oil, provided that δ 100 is at most 18°.
Oral dosage form comprising a composition comprising donepezil or a pharmaceutically acceptable salt thereof for use in a method of treating moderate to severe dementia of the Alzheimer's type, wherein the composition has an angle of repose of less than 40 degrees; wherein the dosage form comprises memantine or a pharmaceutically acceptable salt thereof; and wherein more than 60% of the donepezil or pharmaceutically acceptable salt thereof dissolves within 5 minutes of administration to the patient.
Apparatus for producing pressurized hydrogen comprising: a PEM cell, having a porous cathode and a membrane, to separate water molecules into oxygen and hydrogen molecules, a water tank to feed the PEM cell, the tank being devoid of the bottom and being placed above the PEM cell, so that the PEM cell forms the bottom of the tank, characterized in that a disc is placed between the PEM cell and the tank, the disc being provided with parallel slots for the passage of water towards the underlying PEM cell, and placed in contact with the porous anode of the PEM cell and configured to reinforce the membrane of the PEM cell that goes under pressure and swells when hydrogen develops. a PEM cell, having a porous cathode and a membrane, to separate water molecules into oxygen and hydrogen molecules, a water tank to feed the PEM cell, the tank being devoid of the bottom and being placed above the PEM cell, so that the PEM cell forms the bottom of the tank, characterized in that a disc is placed between the PEM cell and the tank, the disc being provided with parallel slots for the passage of water towards the underlying PEM cell, and placed in contact with the porous anode of the PEM cell and configured to reinforce the membrane of the PEM cell that goes under pressure and swells when hydrogen develops. provided with parallel slots for the passage of water towards the underlying PEM cell, and placed in contact with the porous anode of the PEM cell and configured to reinforce the membrane of the PEM cell that goes under pressure and swells when hydrogen develops.
Sump device comprising a sump body, in particular for an oil supply in a utility vehicle, having a pipe unit comprising a pipe body, the sump body being an injection-molded plastics material part, characterized in that the pipe unit is arranged with clearance on the sump body, the pipe unit being arranged with clearance at least partially in the direction of a depth direction of the sump body.
Wire holder that can be inserted in the box of a modular connector to terminate a twisted pair cable for data communication, wherein the wire holder comprises a wire holder casing that includes an external contact face at the distal end of the cable and an admission face for twisted pair cable conductors; characterised in that the wire holder casing includes through admission cavities (21, 22, 25) that extend from the admission face to the outer contact face, in a number equal to the number of twisted pairs of the communications cable, being provided in the form of four cavities, wherein at least one of the cavities can accept one or two twisted pairs of the communications cable.
A method of determining a position of a subject, bjeet, comprising the steps of: obtaining and storing an object dataset comprising object data indicative of multiple objects in an environment, including an indication of object parameters associated with each object, the object parameters including the location of the object in the environment and a semantic type classification associated with the object, obtaining environment data indicative of a region of the environment from a sensor associated with the subject, determining the presence of multiple observed objects in the environment data comprising using an Artificial Neural Network to detect and classify each observed object, including determining one or more equivalent observed object parameters associated with each observed object including its respective semantic type classification by using the Artificial Neural Network to map the data indicative of the region of the environment to a probability distribution over the semantic type classifications associated with the objects in the object dataset, indicating the assessed likelihood that the observed object has each of those types associated with it, and determining the position of the subject based on a comparison of the observed object parameters of each of the multiple observed objects with the equivalent object parameters of the objects in the object dataset including a comparison of the respective semantic type classifications. obtaining and storing an object dataset comprising object data indicative of multiple objects in an environment, including an indication of object parameters associated with each object, the object parameters including the location of the object in the environment and a semantic type classification associated with the object, obtaining environment data indicative of a region of the environment from a sensor associated with the subject, determining the presence of multiple observed objects in the environment data comprising using an Artificial Neural Network to detect and classify each observed object, including determining one or more equivalent observed object parameters associated with each observed object including its respective semantic type classification by using the Artificial Neural Network to map the data indicative of the region of the environment to a probability distribution over the semantic type classifications associated with the objects in the object dataset, indicating the assessed likelihood that the observed object has each of those types associated with it, and determining the position of the subject based on a comparison of the observed object parameters of each of the multiple observed objects with the equivalent object parameters of the objects in the object dataset including a comparison of the respective semantic type classifications.
System for the purification of exhaust gases of an internal combustion engine, comprising at least one duct for exhausting the gases produced by said internal combustion cooling means for cooling said exhaust gases which cross said duct so that to cause, at least in part, the condensation of the water vapor contained in said exhaust gases in water at least at one area of said exhaust duct, and means for separating the condensed water, which is condensed by said cooling means along the exhaust duct, from the exhaust gases and for deviating it along a secondary duct, said system further comprising filtering means, which are arranged downstream of said separating means along said secondary duct, for filtering said condensed and separated water, characterized in that said cooling means comprise a closed circuit inside which a refrigerant fluid circulates, said closed circuit comprising at least one first heat exchange length for exchanging heat with said exhaust duct arranged at said area of said exhaust duct.
Controller device for controlling luminaires of a lighting system, comprising: - a transmitter (502, 503) for transmitting triggering signals to said luminaires, - a directional radar receiver for receiving radar signals transmitted by said luminaires in response to receiving the triggering signals, and - a processing part (504, 505) configured to map said received radar signals into locations of said luminaires in relation to a fixed installation location of the controller device; wherein said processing part (504, 505) is configured to use, in said mapping of received radar signals into locations of said luminaires, the directional property of said directional radar receiver for determining directions to said luminaires. - a transmitter (502, 503) for transmitting triggering signals to said luminaires, - a directional radar receiver for receiving radar signals transmitted by said luminaires in response to receiving the triggering signals, and - a processing part (504, 505) configured to map said received radar signals into locations of said luminaires in relation to a fixed installation location of the controller device;
A wind turbine blade extending from a root end to a tip end along a longitudinal axis and comprising a root region, a transition region, and an airfoil region, the wind turbine blade comprising - a profiled contour with a leading edge and a trailing edge and a chord extending between the leading edge and the trailing edge; - a blade shell with a first blade shell part with a pressure side and a second blade shell part with a suction side, the first and second blade shell parts extending from the root end to the tip end and joined along a trailing edge glue joint; - a first main spar cap integrated in the first blade shell part; - a second main spar cap integrated in the second blade shell part; and - one or more shear webs connected between the first main spar cap and the second main spar cap, wherein one of the first blade shell part and the second blade shell part comprises a shell core arranged between an inner laminate and an outer laminate, characterized in that the shell core comprises a bend having a bend angle of at least 60 degrees between a first part of the shell core and a second part of the shell core. - a profiled contour with a leading edge and a trailing edge and a chord extending between the leading edge and the trailing edge; - a blade shell with a first blade shell part with a pressure side and a second blade shell part with a suction side, the first and second blade shell parts extending from the root end to the tip end and joined along a trailing edge glue joint; - a first main spar cap integrated in the first blade shell part; - a second main spar cap integrated in the second blade shell part; and - one or more shear webs connected between the first main spar cap and the second main spar cap,
Luminaire, in particular as a work, film, or sports events luminaire, comprising at least one retaining element (21, 41, 42) to which at least one LED module is fastened in a pivoting manner, and to which voltage can be supplied via supply lines, wherein the at least one LED module has an approximately triangular, flat basic form, and a lateral surface is fitted with LEDs, preferably power LEDs, and the rear side of the LED module is designed to emit thermal radiation, and at least at one side edge, connecting elements for the retaining element are present, characterized in that the retaining element (21, 41, 42) consists of a polygonal frame which extends over 180 degrees or 360 degrees and receives a plurality of adjacent LED modules or consists of two straight fastening supports which are fastened to the wall or the ceiling and receive a plurality of adjacent LED molecules such that a light band is formed, wherein the at least one LED module as a connecting element is fitted with eyes which receive the retaining element (21, 41, 42), so that the at least one LED module is pivoting about the retaining element (21, 41, 42) at least partially.
A candle holder arrangement comprising a candle holder and a candle, the candle holder comprising a body having a mouth, a base and sides that connect the mouth to the base, the mouth comprising an opening arranged to receive a candle and at least a portion of the sides tapering inwardly from the mouth towards the base, wherein an inward most point of the tapered portion of the sides defines an aperture having a size which is less than that of the widest part of the candle such that the unburnt candle is retained within the candle holder prior to burning, characterised in that the unburnt candle has a top, a base and sides connecting the top to the base, wherein at least a portion of the sides taper inwardly from the top to the base of the candle and the tapered portion of the sides of the candle corresponds to the tapered portion of the sides of the candle holder prior to and after insertion of the candle into the candle holder and is retained within the candle holder solely by the tapered portion of the sides of the candle holder, wherein a reduction in the outer circumference of the candle during burning causes the candle to fall through the aperture.
A communication unit (102, 104) comprising a physical, PHY, layer, and a media-access control, MAC, layer configured to send a physical-service data unit, PSDU, to the PHY for transmission by the PHY, wherein the PHY is configured to transmit a physical protocol data unit, PPDU, that includes the PSDU over up to four channels or more, each channel each having a bandwidth of 20 MHz and configured to transmit orthogonal frequency division multiplexed, OFDM, symbols over a plurality of subcarriers, characterised in that the PPDU has a frame structure including: a short compatibility field, wherein the short compatibility field includes a preamble and a signal field, and wherein the signal field includes length and rate parameters; and fields in a wideband header field including: a field indicating a bit loading per subcarrier to transmit the PPDU; and a field indicating the number of octets in the PSDU. a short compatibility field, wherein the short compatibility field includes a preamble and a signal field, and wherein the signal field includes length and rate parameters; and fields in a wideband header field including: a field indicating a bit loading per subcarrier to transmit the PPDU; and a field indicating the number of octets in the PSDU. a field indicating a bit loading per subcarrier to transmit the PPDU; and a field indicating the number of octets in the PSDU.
Cleaning device (4; 12) for cleaning an application device which, in operation, applies coating agent jets of a coating agent to a component, with a) a jet checking device (6-10; 16) integrated in the cleaning device (4; 12) in order to check the coating agent jets emitted by the application device, so that the cleaning device (4; 12) forms a structural unit with the jet checking device (6-10; 16), b) wherein the jet checking device (6-10; 16) comprises a sensor for detecting the coating agent jets, c) wherein the jet checking device (6-10; 16) comprises an evaluation unit which is connected at the input side to the sensor, characterized in d) that the evaluation unit determines from the sensor signal at least one of the following variables: d1) parallelism of the coating agent jets relative to each other, d2) delay time of the individual coating agent jets between a valve opening command and the detection of the associated coating agent jet, the delay time being determined individually for the individual coating agent jets. a) a jet checking device (6-10; 16) integrated in the cleaning device (4; 12) in order to check the coating agent jets emitted by the application device, so that the cleaning device (4; 12) forms a structural unit with the jet checking device (6-10; 16), b) wherein the jet checking device (6-10; 16) comprises a sensor for detecting the coating agent jets, c) wherein the jet checking device (6-10; 16) comprises an evaluation unit which is connected at the input side to the sensor, characterized in d) that the evaluation unit determines from the sensor signal at least one of the following variables: d1) parallelism of the coating agent jets relative to each other, d2) delay time of the individual coating agent jets between a valve opening command and the detection of the associated coating agent jet, the delay time being determined individually for the individual coating agent jets. d1) parallelism of the coating agent jets relative to each other, d2) delay time of the individual coating agent jets between a valve opening command and the detection of the associated coating agent jet, the delay time being determined individually for the individual coating agent jets.