mhurhangee/ep-ind-claims huggingface dataset:
Method for placing packets into and/or out of storage with or without loading aids into/from a particular storage rack aisle of a storage rack, wherein a distribution path conveys packets into storage and/or out of storage, wherein the distribution path comprises adjacent introducing and/or discharging devices which lead to incoming and/or outgoing paths which each supply goods to a storage rack aisle or remove goods therefrom, characterised in that if the incoming/outgoing path of a destination storage rack aisle is overloaded the packet is supplied to another incoming/outgoing path of another intermediate storage rack aisle, wherein then a transfer takes place from the intermediate storage rack aisle to the destination storage rack aisle or vice-versa within the storage rack.
An electronic pen implemented by an electromagnetic induction operation, the electronic pen comprising: a pen housing; a substrate assembly mounted inside the pen housing, and comprises a coil and a substrate configured to generate a resonant frequency by an induced current generated in the coil; and at least one packing member (227, 327, 527, 627) disposed on at least a part of the substrate, and includes at least a part thereof overlapping an inner surface of the pen housing when the substrate assembly is mounted in the pen housing so as to form a waterproof seal; wherein the packing member is molded to enclose a substrate area of the substrate assembly by injecting a liquid or semi-solid packing material using a mold, and the molded packing member is solidified. a pen housing; a substrate assembly mounted inside the pen housing, and comprises a coil and a substrate configured to generate a resonant frequency by an induced current generated in the coil; and at least one packing member (227, 327, 527, 627) disposed on at least a part of the substrate, and includes at least a part thereof overlapping an inner surface of the pen housing when the substrate assembly is mounted in the pen housing so as to form a waterproof seal; wherein the packing member is molded to enclose a substrate area of the substrate assembly by injecting a liquid or semi-solid packing material using a mold, and the molded packing member is solidified.
Teriparatide or a salt thereof for use in preventing or treating osteoporosis in a human patient, characterized in that the teriparatide or a salt thereof is administered in a unit dose of 28.2 μg at a frequency of twice a week, wherein the intervals, not including the days of administration, of administration of twice a week are a 2-day interval and a 3-day interval. osteoporosis in a human patient, characterized in that the teriparatide or a salt thereof is administered in a unit dose of 28.2 μg at a frequency of twice a week, wherein the intervals, not including the days of administration, of administration of twice a week are a 2-day interval and a 3-day interval.
A method for banking human male germline stem cells comprising: transporting testicular tissue obtained from a human male individual at risk of loss of fertility to a central banking facility; enzymatically dissociating said testicular tissue; isolating SSEA-4+ male germline stem cells from said enzymatically dissociated testicular tissue; cryopreserving said SSEA-4+ male germline stem cells in cryoprotectant; and determining fertility potential of said cryopreserved-SSEA-4+ male germline stem cells. transporting testicular tissue obtained from a human male individual at risk of loss of fertility to a central banking facility; enzymatically dissociating said testicular tissue; isolating SSEA-4+ male germline stem cells from said enzymatically dissociated testicular tissue; cryopreserving said SSEA-4+ male germline stem cells in cryoprotectant; and determining fertility potential of said cryopreserved-SSEA-4+ male germline stem cells.
A compound according to formula wherein R 1 is selected from (C 1 -C 4)alkyl, (C 3 -C 4)cycloalkyl, NH 2, and NH(C 1 -C 4)alkyl and R 2 is H; or R 1 and R 2 together are -CH 2 -CH 2 - or -N(CH 3)-CH 2 -; R 3 is selected from H, F, CHF 2, OCH 3 and CN; R 4 is selected from H, F, Cl, OH, OCH 3 and CN; and R 5 is selected from (C 2 -C 4)alkyl, (C 3 -C 5)cycloalkyl and methyl-substituted (C 3 -C 5)cycloalkyl, or a pharmaceutically acceptable salt thereof. R 1 is selected from (C 1 -C 4)alkyl, (C 3 -C 4)cycloalkyl, NH 2, and NH(C 1 -C 4)alkyl and R 2 is H; or R 1 and R 2 together are -CH 2 -CH 2 - or -N(CH 3)-CH 2 -; R 3 is selected from H, F, CHF 2, OCH 3 and CN; R 4 is selected from H, F, Cl, OH, OCH 3 and CN; and R 5 is selected from (C 2 -C 4)alkyl, (C 3 -C 5)cycloalkyl and methyl-substituted (C 3 -C 5)cycloalkyl,
A device for preventing liquid overflow out of an outdoor installation comprising a storage tank for said liquid and a liquid retention means disposed around said tank, comprising a plate element (111, 112, 113) intended to be disposed between the tank and the retention means, said plate element defining an impact surface (131, 132, 133) for liquid spilling onto this plate in the event of the tank rupturing, characterized in that the plate element defines openings distributed over said surface and through said plate element in order to reduce the kinetic energy of the liquid, said openings being chosen among: orifices having a closed contour that are defined in the plate, rectilinear openings, the plate element comprising a set of inclined slats, in the manner of a blind, so as to form an opening between each pair of two adjacent slats. orifices having a closed contour that are defined in the plate, rectilinear openings, the plate element comprising a set of inclined slats, in the manner of a blind, so as to form an opening between each pair of two adjacent slats.
Heat dissipation system intended to regulate the temperature of an electrical unit positioned within a volume delineated by an electrical enclosure and comprising: - a cooling gas ventilation device intended to circulate a cooling gas, - a distribution chamber in communication with the ventilation device and in which the cooling gas is pressurized by the ventilation device, - at least one duct arranged within the volume of the electrical enclosure, in communication with the distribution chamber in order to receive the cooling gas originating from said chamber, characterized in that each duct has a first end in communication with the distribution chamber and a second end in communication with another distribution chamber or with a circulation chamber, and in that the heat dissipation system includes - a programmable logic controller designed to control the ventilation device for the purpose of obtaining a determined pressure in said distribution chamber. - a cooling gas ventilation device intended to circulate a cooling gas, - a distribution chamber in communication with the ventilation device and in which the cooling gas is pressurized by the ventilation device, - at least one duct arranged within the volume of the electrical enclosure, in communication with the distribution chamber in order to receive the cooling gas originating from said chamber, - a programmable logic controller designed to control the ventilation device for the purpose of obtaining a determined pressure in said distribution chamber.
An earbud comprising: a capacitive sensor including at least one conductive trace; a circuitry; an acoustic driver that is electrically coupled with the circuitry; and a controller included in the circuitry and configured to provide an indication of the earbud being inserted into an ear of a user responsive to detecting changes in capacitance of one of the at least one conductive trace relative to ground or different conductive traces relative to one another; wherein the at least one conductive trace is constructed and arranged to exhibit a capacitance that increase with a depth of insertion of the earbud in the ear of the user; wherein the controller is further configured to provide feedback to the user of whether the earbud is inserted into the ear of the user by the circuitry causing the acoustic driver to emit sound pulses or tones that vary depending on a degree of insertion of the earbud into the ear of the user. a capacitive sensor including at least one conductive trace; a circuitry; an acoustic driver that is electrically coupled with the circuitry; and a controller included in the circuitry and configured to provide an indication of the earbud being inserted into an ear of a user responsive to detecting changes in capacitance of one of the at least one conductive trace relative to ground or different conductive traces relative to one another; wherein the at least one conductive trace is constructed and arranged to exhibit a capacitance that increase with a depth of insertion of the earbud in the ear of the user; wherein the controller is further configured to provide feedback to the user of whether the earbud is inserted into the ear of the user by the circuitry causing the acoustic driver to emit sound pulses or tones that vary depending on a degree of insertion of the earbud into the ear of the user.
Grid for an electrode of a lead-acid battery, the grid comprising a plurality of longitudinal ribs arranged at a distance from each other in the transverse direction and a plurality of transverse ribs, each arranged between two adjacent longitudinal ribs and connected thereto, which longitudinal and transverse ribs (2, 3) form a grid pattern with open areas for receiving an active mass, wherein the longitudinal ribs have a first, maximum width in the transverse direction at least in a section extending in the longitudinal direction, which first, maximum width is designed in an optimized manner with regard to the total receiving volume provided by the open areas for receiving the active mass, characterized in that at least one further longitudinal rib is provided, which has a second, maximum width in the transverse direction over its entire longitudinal extent, which second, maximum width exceeds the first, maximum width of the other longitudinal ribs.
Lighting device for shelf, comprising: - an elongated profile body, and - at least one lighting element arranged in the profile body, - wherein the profile body comprises a first retaining profile on one longitudinal side that snaps onto an end profile of a shelf, and - wherein the profile body comprises a second retaining profile on a second longitudinal side opposite the first retaining profile on the first longitudinal side, and which reproduces the contour of the end profile. - an elongated profile body, and - at least one lighting element arranged in the profile body, - wherein the profile body comprises a first retaining profile on one longitudinal side that snaps onto an end profile of a shelf, and - wherein the profile body comprises a second retaining profile on a second longitudinal side opposite the first retaining profile on the first longitudinal side, and which reproduces the contour of the end profile.
Particles of a calcium carbonate which are at least partially coated with a least one coating agent and which have a specific surface of more than 50 m 2 g - 1 before coating, wherein the coating agent comprises at least one compound selected from the group consisting of fatty acids substituted with a hydroxyl group and the salts thereof, and the specific surface is determined by BET-method.
Apparatus comprising a vehicle frame assembly including a hinge device having a hinge axis, said hinge device having first and second hub devices moveable co-axially with respect to said hinge axis and a third hub device interposed between the first and second hub devices and rotatable about said hinge axis, the first and second hub devices releasably engage with the third hub device for locking said vehicle frame assembly in an erected condition, wherein the first and second hub devices have inwardly-projecting lugs about their periphery and said third hub device includes at its periphery recesses, said recesses and said inwardly-projecting lugs arranged to loosely interdigitate in the erected condition, and wherein said inwardly-projecting lugs comprise inwardly-projecting ramped portions and said third hub device comprises, bounding said recesses, corresponding outwardly-projecting ramped surface portions, characterised in that the first and second hub devices are moveable as aforesaid by rotation of the third hub device about said hinge axis.
A lightning current measuring device which is provided with a sensor fiber, and which is configured to input linearly polarized light to the sensor fiber, and to detect the magnitude of Faraday rotation applied to the linearly polarized light by a magnetic field due to a current to be measured flowing through a conductor, whereby said sensor fiber is configured to be arranged around said conductor, the lightning current measuring device further comprising: polarized light separation means for separating output light from the sensor fiber into a horizontal component and a vertical component having orthogonal planes of polarization; first calculation means for calculating a Faraday rotation angle through arc-sine processing of a digitized signal of the difference between the horizontal component and the vertical component converted to a signal through photoelectric conversion after separation by the polarized light separation means; amplification means (42x, 42y) for amplifying the horizontal component and the vertical component converted to a signal through photoelectric conversion after separation by the polarized light separation means; second calculation means for calculating a Faraday rotation angle based on a digitized signal of the difference between the horizontal component and the vertical component amplified by the amplification means (42x, 42y); first conversion means for converting a current value from the Faraday rotation angle calculated by the first calculation means; and second conversion means for converting a current value from the Faraday rotation angle calculated by the second calculation means. polarized light separation means for separating output light from the sensor fiber into a horizontal component and a vertical component having orthogonal planes of polarization; first calculation means for calculating a Faraday rotation angle through arc-sine processing of a digitized signal of the difference between the horizontal component and the vertical component converted to a signal through photoelectric conversion after separation by the polarized light separation means; amplification means (42x, 42y) for amplifying the horizontal component and the vertical component converted to a signal through photoelectric conversion after separation by the polarized light separation means; second calculation means for calculating a Faraday rotation angle based on a digitized signal of the difference between the horizontal component and the vertical component amplified by the amplification means (42x, 42y); first conversion means for converting a current value from the Faraday rotation angle calculated by the first calculation means; and second conversion means for converting a current value from the Faraday rotation angle calculated by the second calculation means.
A direction controlled service apparatus, comprising: a mounting assembly; a housing assembly configured to operably connect to said mounting assembly, said housing assembly being movable with respect to said mounting assembly; and a plurality of actuators connected between said mounting assembly and said housing assembly, each actuator of said plurality of actuators being configured to contract upon a current being applied to said actuator; characterized in that said housing assembly comprises a ball-shaped housing, said ball-shaped housing comprising a first ring; in that said mounting assembly comprises a socket housing configured to receive said ball-shaped housing, said socket housing comprising a second ring; in that each of said actuators of said plurality of actuators is connected between said first ring and said second ring, said plurality of actuators being spaced circumferentially about said first ring and said second ring; in that said ball-shaped housing is configured to rotate with respect to said socket housing upon contraction of at least one actuator of said plurality of actuators; and in that each actuator of said plurality of actuators comprises a shape memory alloy wire. a mounting assembly; a housing assembly configured to operably connect to said mounting assembly, said housing assembly being movable with respect to said mounting assembly; and a plurality of actuators connected between said mounting assembly and said housing assembly, each actuator of said plurality of actuators being configured to contract upon a current being applied to said actuator; characterized in that said housing assembly comprises a ball-shaped housing, said ball-shaped housing comprising a first ring; in that said mounting assembly comprises a socket housing configured to receive said ball-shaped housing, said socket housing comprising a second ring; in that each of said actuators of said plurality of actuators is connected between said first ring and said second ring, said plurality of actuators being spaced circumferentially about said first ring and said second ring; in that said ball-shaped housing is configured to rotate with respect to said socket housing upon contraction of at least one actuator of said plurality of actuators; and in that each actuator of said plurality of actuators comprises a shape memory alloy wire.
A power amplifier, comprising an envelope modulator (101, 201), a main power amplifier (102, 202), and an auxiliary power amplifier (103, 203), wherein the envelope modulator (101, 201) is connected separately to a drain electrode of the main power amplifier (102, 202) and a drain electrode of the auxiliary power amplifier (103, 203), and is configured to obtain an envelope voltage according to a received envelope signal, and output the envelope voltage separately to the drain electrode of the main power amplifier (102, 202) and the drain electrode of the auxiliary power amplifier (103, 203); the main power amplifier (102, 202) is connected to the envelope modulator (101, 201) and is configured to, in an operating state, use the envelope voltage received from the envelope modulator (101, 201) as an operating voltage, and perform amplification processing on a signal input from a source electrode of the main power amplifier; and the auxiliary power amplifier (103, 203) is parallelly connected to the main power amplifier (102, 202), is connected to the envelope modulator (101, 201), and is configured to, in an operating state, use the envelope voltage received from the envelope modulator (101, 201) as an operating voltage, and perform amplification processing on a signal input from a source electrode of the auxiliary power amplifier (103, 203), wherein the signals input from the source electrodes of the main power amplifier (102, 202) and the auxiliary power amplifier (103, 203) are a same radio frequency signal, or the signals input from the source electrodes of the main power amplifier (102, 202) and the auxiliary power amplifier (103, 203) are signals that can represent a same radio frequency signal after being overlapped.
A nucleotide cassette having the following formula: X 1 - X 2 - X 3 - X 4 - X 5 wherein, X 1 is an inducible promoter; X 2 is a nucleotide sequence corresponding to at least one single stranded RNA diagnostic target; X 3 is a nucleotide sequence that encodes an artemin protein from Artemia salina; X 4 is a molecular switch; and X 5 is a nucleotide sequence that encodes a DNAse enzyme and is under control of the molecular switch, wherein the single stranded RNA diagnostic target is a sequence detected by a molecular diagnostic assay. X 1 is an inducible promoter; X 2 is a nucleotide sequence corresponding to at least one single stranded RNA diagnostic target; X 3 is a nucleotide sequence that encodes an artemin protein from Artemia salina; X 4 is a molecular switch; and X 5 is a nucleotide sequence that encodes a DNAse enzyme and is under control of the molecular switch, wherein the single stranded RNA diagnostic target is a sequence detected by a molecular diagnostic assay.
A rocket-based armament launchable from a tubular launcher that comprises - an effective payload; and a rocket motor that is structurally connected to the effective payload and is adapted from the time of its ignition to propel the effective payload; and a pyrotechnic assembly that has been adapted, once actuated, to eject the rocket motor and said effective payload from said tubular launcher and to ignite said rocket motor; and wherein said rocket armament is characterized in that - said armament also comprises - a. a gas dispersion assembly, which when said rocket armament is not encased in the tubular launcher, prevents the ignition of said rocket motor even if said pyrotechnic assembly is actuated; and b. a cutting and separation assembly that is actuated by the pressure of said rocket motor gases for mechanically cutting the structural connection between the rocket motor and the effective payload and separate them during their flight. a rocket motor that is structurally connected to the effective payload and is adapted from the time of its ignition to propel the effective payload; and a pyrotechnic assembly that has been adapted, once actuated, to eject the rocket motor and said effective payload from said tubular launcher and to ignite said rocket motor; and wherein said rocket armament is characterized in that - said armament also comprises - a. a gas dispersion assembly, which when said rocket armament is not encased in the tubular launcher, prevents the ignition of said rocket motor even if said pyrotechnic assembly is actuated; and b. a cutting and separation assembly that is actuated by the pressure of said rocket motor gases for mechanically cutting the structural connection between the rocket motor and the effective payload and separate them during their flight. a. a gas dispersion assembly, which when said rocket armament is not encased in the tubular launcher, prevents the ignition of said rocket motor even if said pyrotechnic assembly is actuated; and b. a cutting and separation assembly that is actuated by the pressure of said rocket motor gases for mechanically cutting the structural connection between the rocket motor and the effective payload and separate them during their flight.
A process for generating glucosamine from plants comprising the following successive steps: - placing a plant material and at least one glucosamine precursor, into a receptacle, - closing said receptacle with a lid, - heating said receptacle at a temperature comprised between 70°C and 110°C for more than 10 h, wherein said glucosamine precursor is a compound providing the nitrogen-containing moiety needed for the formation of glucosamine. - placing a plant material and at least one glucosamine precursor, into a receptacle, - closing said receptacle with a lid, - heating said receptacle at a temperature comprised between 70°C and 110°C for more than 10 h,