mhurhangee/ep-ind-claims huggingface dataset:
An antenna apparatus for a portable device, comprising: a main antenna having a first radiator pattern; a metal surface adjacent to the main antenna configured to form a ground surface of the antenna apparatus; a printed circuit board, PCB adjacent to the metal surface; and an auxiliary antenna (200, 400) provided in a cut-out area (210, 310) of the printed circuit board; the auxiliary antenna (200, 400) being separated from the main antenna by the metal surface; the auxiliary antenna (200, 400) further comprising a radiating element having a first end configured to be connected to an RF feed point and a second opposite end; the auxiliary antenna further comprising a first group of three capacitors connected in series; wherein a first side of the first group of three capacitors connected in series is connected to the second end of the radiating element and a second side of the first group of three capacitors connected in series is connected to the ground surface; wherein the capacitance and physical structure of the first group of three series connected capacitors is configured to determine the resonance frequency band of the auxiliary antenna (200, 400). a main antenna having a first radiator pattern; a metal surface adjacent to the main antenna configured to form a ground surface of the antenna apparatus; a printed circuit board, PCB adjacent to the metal surface; and an auxiliary antenna (200, 400) provided in a cut-out area (210, 310) of the printed circuit board; the auxiliary antenna (200, 400) being separated from the main antenna by the metal surface; the auxiliary antenna (200, 400) further comprising a radiating element having a first end configured to be connected to an RF feed point and a second opposite end; the auxiliary antenna further comprising a first group of three capacitors connected in series; wherein a first side of the first group of three capacitors connected in series is connected to the second end of the radiating element and a second side of the first group of three capacitors connected in series is connected to the ground surface; wherein the capacitance and physical structure of the first group of three series connected capacitors is configured to determine the resonance frequency band of the auxiliary antenna (200, 400).
A security paper for manufacturing value documents, comprising a substrate having an optically variable security element which is recognizable upon viewing at least a first side of the substrate, and an ink-receiving layer which is arranged at least on the first side of the substrate, wherein the ink-receiving layer has a first layer thickness in a first substrate region located outside the region of the optically variable security element, and has a reduced layer thickness compared to the first layer thickness in a second substrate region in which the optically variable security element is arranged, and the layer thickness within the second substrate region, starting from the first layer thickness in the first substrate region, has a course which decreases in stepped or stepless form, and the layer thickness within the second substrate region has a minimum value.
A submersible power generating apparatus comprising an integral unit pre-assembled prior to installation on a foundation structure, the integral unit comprising: a generator having a stator mounted along a substantially vertical axis and a generator rotor; a turbine having a turbine rotor and at least one blade supported on the turbine rotor, wherein the generator rotor forms a component part of the turbine rotor, the turbine rotor being mounted for rotation about the stator; and the power generating apparatus comprising at least one engagement portion for mutual engagement with at least one engagement feature of the foundation structure. a generator having a stator mounted along a substantially vertical axis and a generator rotor; a turbine having a turbine rotor and at least one blade supported on the turbine rotor, wherein the generator rotor forms a component part of the turbine rotor, the turbine rotor being mounted for rotation about the stator; and the power generating apparatus comprising at least one engagement portion for mutual engagement with at least one engagement feature of the foundation structure.
An apparatus for recovering the core of a sheathed electrical cable, comprising: a ram operable to exert a pushing force on the core of a length of the cable; a plurality of linkage, each linkage being configured to be insertable into the cable along its length under the action of the ram to displace the core relative to an outer sheath of the cable; and a puller operable to exert a pulling force on the core to thereby facilitate removal of the displaced core from the outer sheath by action of the pushing and pulling forces. a ram operable to exert a pushing force on the core of a length of the cable; a plurality of linkage, each linkage being configured to be insertable into the cable along its length under the action of the ram to displace the core relative to an outer sheath of the cable; and a puller operable to exert a pulling force on the core to thereby facilitate removal of the displaced core from the outer sheath by action of the pushing and pulling forces.
A method for solving mismatch between sidelink Buffer Status Report, in the following also referred to as BSR, and available sidelink transmission, comprising: a relay User Equipment, in the following also referred to as UE, establishes a first layer-2 link and a second layer-2 link between the relay UE and a remote UE, wherein the first layer-2 link and the second layer-2 link have two different source identities and a same destination identity (2005; 2205); and the relay UE receives a sidelink grant from an evolved Node B, in the following also referred to as eNB (2010; 2210); characterized in that the relay UE uses the sidelink grant to serve the first layer-2 link and the second layer-2 link (2015; 2215). a relay User Equipment, in the following also referred to as UE, establishes a first layer-2 link and a second layer-2 link between the relay UE and a remote UE, wherein the first layer-2 link and the second layer-2 link have two different source identities and a same destination identity (2005; 2205); and the relay UE receives a sidelink grant from an evolved Node B, in the following also referred to as eNB (2010; 2210); characterized in that the relay UE uses the sidelink grant to serve the first layer-2 link and the second layer-2 link (2015; 2215).
Measuring device (1, 12, 22) for measuring a measured variable of an object to be measured (4, 30), which measuring device comprises at least one transmitting part (2, 13, 25) which can be attached to objects to be measured (4, 30) and has at least one data memory (6, 31) and at least two first electrical contacts (5, 27) with respective surfaces which form respective sub-areas of a bearing face of the transmitting part (2, 13, 25), at least one data reading part (3, 14, 26) with at least two second electrical contacts (7, 28) with respective surfaces which form respective sub-areas of a bearing face of the data reading part (3, 14, 26), wherein the transmitting part and/or the data reading part have/has at least one magnet (9, 29), wherein the data reading part and/or the transmitting part (2, 13, 25) have/has at least one sensor for measuring the measured variable of the object to be measured (4, 30) and the measuring device (1, 12, 22) is configured to assume an uncoupled state in which the first electrical contacts (5, 27) are spaced apart from the second electrical contacts (7, 28), and to assume a coupled state in which the data reading part (3, 14, 26) and the transmitting part (2, 13, 25) are coupled to one another owing to an attractive force which is brought about by the magnet (9, 29), wherein the bearing face of the transmitting part (2, 13, 25) and the bearing face of the data reading part (3, 14, 26) bear one against the other, and in each case one of the first electrical contacts (5, 27) bears with its surface against the surface of a respective one of the second electrical contacts (7, 28), as a result of which the electrically conductive connections exist between respective first contacts (5, 27) which bear one against the other and second contacts (7, 28) which permit the data reading part (3, 14, 26) to read data stored in the data memory (6, 31).
Dosing device for inhaling a powdery substance, particularly of a medical nature, which is arranged in a storage chamber above a trailing bottom and can be brought from said storage chamber into an emptying readiness position, and having a display associated with the actual filling level in the area of the device wall, characterized in that the display is composed of a strip tape carried along by the bottom and deflected by 180°, wherein the deflection area of the strip tape lies behind the transparent device wall.
A conductive ink for a rollerball pen, the conductive ink comprising: an aqueous solvent; conductive particles comprising one or more metals dispersed in the aqueous solvent at a concentration of at least 30 wt.%, the conductive particles comprising conductive flakes and conductive nanoparticles; and a dispersant coating the conductive particles at a loading level of from 0.1 mg/m 2 to t 0.8 mg/m 2. an aqueous solvent; conductive particles comprising one or more metals dispersed in the aqueous solvent at a concentration of at least 30 wt.%, the conductive particles comprising conductive flakes and conductive nanoparticles; and a dispersant coating the conductive particles at a loading level of from 0.1 mg/m 2 to t 0.8 mg/m 2.
A composition comprising at least the following: polymer particles comprising a coating on at least a portion of the total surface of the polymer particles, and wherein the coating is formed from a powder composition comprising: at least one inorganic powder selected from the group consisting of the following: talc, mica, calcium carbonate, and combinations thereof; and at least one metal stearate powder, wherein the weight ratio of the total amount of the inorganic powder to the total amount of the metal stearate powder is from 3.0 to 50.0. talc, mica, calcium carbonate, and combinations thereof; and at least one metal stearate powder, wherein the weight ratio of the total amount of the inorganic powder to the total amount of the metal stearate powder is from 3.0 to 50.0.
Dermatological composition comprising heparan sulphate and one or more of the following ingredients: preservatives, emulsifiers, stabilizers, humectants, anti-oxidants, wherein heparan sulfate is present at a concentration comprised between 0.5 % by weight and 5 % by weight.
Rubber composition based on at least one elastomer, a reinforcing inorganic filler, an agent for coupling the elastomer to the reinforcing inorganic filler, and a crosslinking system; said reinforcing inorganic filler comprising at least one silica S having: - a CTAB specific surface area S CTAB within a range extending from 40 to 300 m 2 /g; - a difference between the BET specific surface area S BET and the CTAB specific surface area S CTAB of greater than or equal to 35 m 2 /g; - an aluminium content W Al within a range extending from 0.5 to 7.0% by weight relative to the weight of the silica S; - a width of the aggregate size distribution Ld, measured by centrifugal sedimentation, of greater than or equal to 1.5; and - a median aggregate diameter d50, measured by centrifugal sedimentation, such that for a given value of CTAB specific surface area S CTAB and a given aluminium content W Al, a magnitude A is defined by the following equation: A = d 50 + 0.782 × S CTAB − 8.524 × W Al in which: is the numerical value of d50, expressed in nm; [S CTAB] is the numerical value of S CTAB, expressed in m 2 /g; [W Al] is the numerical value of W Al, expressed in % by weight relative to the weight of the silica S; and said magnitude A satisfies the relationship: A ≥ 253 - a CTAB specific surface area S CTAB within a range extending from 40 to 300 m 2 /g; - a difference between the BET specific surface area S BET and the CTAB specific surface area S CTAB of greater than or equal to 35 m 2 /g; - an aluminium content W Al within a range extending from 0.5 to 7.0% by weight relative to the weight of the silica S; - a width of the aggregate size distribution Ld, measured by centrifugal sedimentation, of greater than or equal to 1.5; and - a median aggregate diameter d50, measured by centrifugal sedimentation, such that for a given value of CTAB specific surface area S CTAB and a given aluminium content W Al, a magnitude A is defined by the following equation: A = d 50 + 0.782 × S CTAB − 8.524 × W Al in which: is the numerical value of d50, expressed in nm; [S CTAB] is the numerical value of S CTAB, expressed in m 2 /g; [W Al] is the numerical value of W Al, expressed in % by weight relative to the weight of the silica S; and said magnitude A satisfies the relationship: A ≥ 253 is the numerical value of d50, expressed in nm; [S CTAB] is the numerical value of S CTAB, expressed in m 2 /g; [W Al] is the numerical value of W Al, expressed in % by weight relative to the weight of the silica S; and
An intraosseous injector (50, 100, 300) useful for injecting a fluid into a patient's bone marrow, the injector comprising: a housing (52, 56, 150, 160); a container (54, 108) located within the housing; a hollow needle (58, 118) having proximal and distal ends, the needle (58, 118) slidable axially relative to the housing and having a proximal end projecting from a proximal end of the housing; a release mechanism comprising a bone probe needle (60, 116) and a release member (172, 174) movable between a first configuration in which the member blocks the needle (58, 118) from moving axially relative to the housing in a first direction that would move the proximal end of the needle (58, 118) toward the housing and a second configuration in which the member does not prevent the proximal end of the needle (58, 118) from moving in the first direction, the bone probe needle (60, 116) coupled to a trigger that frees the member to move from the first configuration to the second configuration; a valve operated by motion of the hollow needle (58, 118) in the first direction to establish fluid communication between an interior of the container and a bore of the hollow needle. a housing (52, 56, 150, 160); a container (54, 108) located within the housing; a hollow needle (58, 118) having proximal and distal ends, the needle (58, 118) slidable axially relative to the housing and having a proximal end projecting from a proximal end of the housing; a release mechanism comprising a bone probe needle (60, 116) and a release member (172, 174) movable between a first configuration in which the member blocks the needle (58, 118) from moving axially relative to the housing in a first direction that would move the proximal end of the needle (58, 118) toward the housing and a second configuration in which the member does not prevent the proximal end of the needle (58, 118) from moving in the first direction, the bone probe needle (60, 116) coupled to a trigger that frees the member to move from the first configuration to the second configuration; a valve operated by motion of the hollow needle (58, 118) in the first direction to establish fluid communication between an interior of the container and a bore of the hollow needle.
A wearable sensor apparatus comprising: a motion sensor configured to sense two or three dimensional movement and orientation of the sensor; a vibration sensor configured to sense acoustic vibrations, the vibration sensor comprising an acoustic pressure sensor; means (2, 20, 31) for attaching the motion sensor and the vibration sensor to a body; and a classification processor (5, 32, 33, 34, 35) configured to receive the sensed two- or three-dimensional movement and orientation motion signals from the motion sensor and to receive mechanomyographic muscle signals from the vibration sensor, and to classify a pattern of movement, or a posture of, at least one part of a body on which the wearable sensor apparatus is attached, based on said motion signals, and to use both the motion signals and the mechanomyographic muscle signals to determine simultaneous patterns of movement, or postures of, multiple articulating parts of the body on which the wearable sensor apparatus is attached. a motion sensor configured to sense two or three dimensional movement and orientation of the sensor; a vibration sensor configured to sense acoustic vibrations, the vibration sensor comprising an acoustic pressure sensor; means (2, 20, 31) for attaching the motion sensor and the vibration sensor to a body; and a classification processor (5, 32, 33, 34, 35) configured to receive the sensed two- or three-dimensional movement and orientation motion signals from the motion sensor and to receive mechanomyographic muscle signals from the vibration sensor, and to classify a pattern of movement, or a posture of, at least one part of a body on which the wearable sensor apparatus is attached, based on said motion signals, and to use both the motion signals and the mechanomyographic muscle signals to determine simultaneous patterns of movement, or postures of, multiple articulating parts of the body on which the wearable sensor apparatus is attached.
A rotary electric machine, comprising: field windings supplied with DC power; armature windings supplied with AC power; a stator core formed into a ring-like shape including slots including field slots and armature slots, the field slots housing the field windings, the armature slots housing the armature windings, the field slots and the armature slots being formed in a circumferential direction of the stator core; permanent magnets housed in the field slots; and a rotor core opposite to the stator core, with predetermined air gap being interposed therebetween, wherein the permanent magnets face the field windings in the radial direction both on the outer circumferential side and on the inner circumferential side in the field slots, and coil ends of the armature windings straddle predetermined ones of the field slots and pass over an axial end face of the permanent magnets in the predetermined field slots; wherein coil ends of field windings arranged on the outer circumferential side of the permanent magnets do not intersect with the coil ends of the armature windings as viewed in an axial direction of the stator core, and coil ends of field windings arranged on the inner circumferential side of the permanent magnets do not intersect with the coil ends of the armature windings as viewed in the axial direction of the stator core. field windings supplied with DC power; armature windings supplied with AC power; a stator core formed into a ring-like shape including slots including field slots and armature slots, the field slots housing the field windings, the armature slots housing the armature windings, the field slots and the armature slots being formed in a circumferential direction of the stator core; permanent magnets housed in the field slots; and a rotor core opposite to the stator core, with predetermined air gap being interposed therebetween, wherein the permanent magnets face the field windings in the radial direction both on the outer circumferential side and on the inner circumferential side in the field slots, and coil ends of the armature windings straddle predetermined ones of the field slots and pass over an axial end face of the permanent magnets in the predetermined field slots; wherein coil ends of field windings arranged on the outer circumferential side of the permanent magnets do not intersect with the coil ends of the armature windings as viewed in an axial direction of the stator core, and coil ends of field windings arranged on the inner circumferential side of the permanent magnets do not intersect with the coil ends of the armature windings as viewed in the axial direction of the stator core.
A method of managing measurement reports in a wireless communications system comprising at least one base station and a terminal, wherein the base station provides the terminal with a configuration which comprises a resource pattern defined by a plurality of different sets of time and frequency locations in which a signal may be transmitted, the resource pattern being from among a plurality of resource patterns each of which is associated with a behaviour of the terminal with respect to the signal, the behaviours associated with the resource patterns including: which of one or more different types of measurement the terminal is expected to make when receiving signals in one or more of the different sets of time and frequency locations; and/or one or more different types of report the terminal is expected to provide to the said base station on the basis of the measurements, wherein the base station controls a plurality of transmission points forming one or more groups for coordinated multipoint, each transmission point being a member of at least one of the coordinated multipoint groups, the terminal being served by one of the groups, and wherein the resource pattern provided by the base station to the terminal instructs the terminal to make one or more measurements and/or to send one or more reports, wherein the wireless communication system is based on LTE and the signal includes a channel state information reference signal, CSI-RS transmitted from each of one or more transmission points in the form of a non-zero power, NZP, CSI-RS and/or a zero-power, ZP, CSI-RS, and wherein the configuration further identifies or implies the signal to be an NZP and/or ZP CSI-RS and the behaviour of the terminal with respect to the signal includes any of: using a NZP CSI-RS to measure the channel from the transmission point for CQI purposes when the transmission point is participating in CoMP transmission to the terminal; using a NZP CSI-RS to estimate interference from the transmission point for CQI purposes when the transmission point is not participating in CoMP transmission to the terminal; ignoring a NZP CSI-RS intended for other terminals; using a ZP CSI-RS to measure interference from other transmission points outside the group serving the terminal; ignoring a ZP CSI-RS intended for other terminals; and using a NZP CSI-RS to measure a quantity used in radio resource management. which of one or more different types of measurement the terminal is expected to make when receiving signals in one or more of the different sets of time and frequency locations; and/or one or more different types of report the terminal is expected to provide to the said base station on the basis of the measurements,
A veterinary composition for use for treating heart failure in dogs and/or cats comprising spironolactone or metabolites thereof chosen among canrenone, canrenoic acid, 15β-OH canrenone, 21-OH canrenone, potassium canrenoate, 7α-thio-spironolactone, 7α-thiomethyl-spironolactone, and 6-β-hydroxy-7-α-thiomethyl-spironolactone, and a pharmaceutically acceptable vehicle, wherein said spironolactone or metabolites thereof are administered in a therapeutic dose ranging between 2 and 5 mg/kg/day, in a single take, in combination with an inotrope.