mhurhangee/patent-ind-claim-en huggingface dataset:
Apparatus for removing individual pharmaceutical containers , in particular vials , from a trough-shaped transport container , in particular a tray , having a planar depositing structure which comprises a depositing surface extending in particular horizontally, it being possible to arrange the transport container on the depositing structure in such a way that an underside of a base of the transport container is directed away from the depositing surface and the individual containers are arranged on the depositing surface or vertically above the depositing surface with spacing, and having a take-off device for taking the transport container off the individual containers , characterized in that the depositing structure is assigned a vibration generating device which is designed to excite the depositing structure during a removal process at least temporarily to perform an in particular horizontal vibrational movement which can be transferred to the transport container and/or to the individual containers in order to release the individual containers from the transport container .
A building support, comprising: a rigid support member comprising a major surface facing a space of a building; a non-volatile storage device provided in the space of the building; a mounting attachment affixed to the rigid support member , the mounting attachment coupled to the non-volatile storage device ; and a transceiver provided in the space of the building, the transceiver coupled to the non-volatile storage device , the transceiver adapted to support an external communication link, characterised in that the space of the building is a space hidden from view and the non-volatile storage device provided in the space hidden from view is concealed, wherein the space hidden from view comprises a cavity selected from a group consisting of a space within a duct, a space within a conduit, a space between floor joists, a space within a hollow core door and a cavity in a concrete slab. a rigid support member comprising a major surface facing a space of a building; a non-volatile storage device provided in the space of the building; a mounting attachment affixed to the rigid support member , the mounting attachment coupled to the non-volatile storage device ; and a transceiver provided in the space of the building, the transceiver coupled to the non-volatile storage device , the transceiver adapted to support an external communication link, characterised in that the space of the building is a space hidden from view and the non-volatile storage device provided in the space hidden from view is concealed, wherein the space hidden from view comprises a cavity selected from a group consisting of a space within a duct, a space within a conduit, a space between floor joists, a space within a hollow core door and a cavity in a concrete slab.
System for individual security, comprising: a case configured to be fastened to a protective helmet , in which the following are disposed: a processor (PROC); a voltage detector (DET) configured to detect an ambient electric field; a signalling system (SIG) configured to emit a signalling signal to an individual if the voltage detector detects (DET) an ambient electric field greater than a detection threshold; a lighting system (ECL); a fastening device coupled to the case and configured to fasten the case to a protective helmet at a location adapted for lighting around the individual when the latter wears the helmet on their head; said security system comprising a first switch (MUTE) configured to interrupt the generation of the signalling signal and to adjust the detection threshold to n times the detected level having led to the previous signalling, n being a constant greater than 1; said security system comprising a second switch (AUTOTEST) configured to initialise the detection threshold to an initial level, said initial level being stored in a memory (MEM) of said security system, the voltage detector (DET), the signalling system (SIG), the lighting system (ECL), the first switch (MUTE), the second switch (AUTOTEST) and the memory being coupled to the processor (PROC). a processor (PROC); a voltage detector (DET) configured to detect an ambient electric field; a signalling system (SIG) configured to emit a signalling signal to an individual if the voltage detector detects (DET) an ambient electric field greater than a detection threshold; a lighting system (ECL); a fastening device coupled to the case and configured to fasten the case to a protective helmet at a location adapted for lighting around the individual when the latter wears the helmet on their head; said security system comprising a first switch (MUTE) configured to interrupt the generation of the signalling signal and to adjust the detection threshold to n times the detected level having led to the previous signalling, n being a constant greater than 1; said security system comprising a second switch (AUTOTEST) configured to initialise the detection threshold to an initial level, said initial level being stored in a memory (MEM) of said security system, the voltage detector (DET), the signalling system (SIG), the lighting system (ECL), the first switch (MUTE), the second switch (AUTOTEST) and the memory being coupled to the processor (PROC).
An adaptor for a monitoring device, the adaptor comprising: a mounting plate including: a front surface , a rear surface , at least two threaded mounting holes extending through the front surface and rear surface, and at least one recess machined into the rear surface; and one or more magnets secured within the at least one recess, such that an exposed surface of the magnet within the recess is substantially flush with the rear surface, wherein the at least two threaded mounting holes are arranged in a hole pattern that corresponds to a bolt pattern of the monitoring device, wherein the at least two threaded mounting holes are configured to receive threaded bolts from the monitoring device to secure the front surface against the monitoring device, wherein the one or more magnets is configured to adhere to a monitored equipment frame and cause at least a portion the rear surface to contact the monitored equipment frame, and wherein the mounting plate is configured to transfer vibration and thermal energy from the monitored equipment frame to the monitoring device. a mounting plate including: a front surface , a rear surface , at least two threaded mounting holes extending through the front surface and rear surface, and at least one recess machined into the rear surface; and a front surface , a rear surface , at least two threaded mounting holes extending through the front surface and rear surface, and at least one recess machined into the rear surface; and one or more magnets secured within the at least one recess, such that an exposed surface of the magnet within the recess is substantially flush with the rear surface, wherein the at least two threaded mounting holes are arranged in a hole pattern that corresponds to a bolt pattern of the monitoring device, wherein the at least two threaded mounting holes are configured to receive threaded bolts from the monitoring device to secure the front surface against the monitoring device, wherein the one or more magnets is configured to adhere to a monitored equipment frame and cause at least a portion the rear surface to contact the monitored equipment frame, and wherein the mounting plate is configured to transfer vibration and thermal energy from the monitored equipment frame to the monitoring device.
Access arrangement (ZAO) for a vehicle (FZ) having the following features: - a vehicle-side unlocking device (DCS, DL) for actuating a lock mechanism (MO); - a vehicle-side chargeable electrical energy storage device (SCD) configured to supply the unlocking device (DCS, DL) with energy; - a vehicle-side charged electrical energy storage device (BUB) configured to charge the vehicle-side chargeable electrical energy storage device (SCD); - a charging control device (CST, CCI) for controlling the process of charging the vehicle-side chargeable electrical energy storage device (SCD) by the vehicle-side charged electrical energy storage device (BUB), characterized by a vehicle-side authentication device (SEE) for checking an access authorization and for controlling the charging control device (CST, CCI) depending on the check of the access authorization. - a vehicle-side unlocking device (DCS, DL) for actuating a lock mechanism (MO); - a vehicle-side chargeable electrical energy storage device (SCD) configured to supply the unlocking device (DCS, DL) with energy; - a vehicle-side charged electrical energy storage device (BUB) configured to charge the vehicle-side chargeable electrical energy storage device (SCD); - a charging control device (CST, CCI) for controlling the process of charging the vehicle-side chargeable electrical energy storage device (SCD) by the vehicle-side charged electrical energy storage device (BUB), characterized by a vehicle-side authentication device (SEE) for checking an access authorization and for controlling the charging control device (CST, CCI) depending on the check of the access authorization.
A wireless transmit/receive unit, WTRU , comprising: a transceiver; and a processor, wherein the transceiver and the processor are configured to detect a trigger frame for uplink, UL, multi-user, MU, transmission, wherein the trigger frame includes an assignment of resource units, RUs, for random access in upcoming UL MU physical layer protocol data units, PPDUs, and an indication that the trigger frame is one of a plurality of successive trigger frames in a cascading sequence of trigger frames in a target wake time, TWT, service period, SP; and wherein the processor and the transceiver are further configured to select one of the RUs in the assignment of RUs for a random access transmission and send the random access transmission on the selected one of the RUs on a condition that the WTRU has uplink data for transmission and has decremented an Orthogonal Frequency Division Multiple Access, OFDMA, backoff, OBO, counter to zero. a transceiver; and a processor, wherein the transceiver and the processor are configured to detect a trigger frame for uplink, UL, multi-user, MU, transmission, wherein the trigger frame includes an assignment of resource units, RUs, for random access in upcoming UL MU physical layer protocol data units, PPDUs, and an indication that the trigger frame is one of a plurality of successive trigger frames in a cascading sequence of trigger frames in a target wake time, TWT, service period, SP; and wherein the processor and the transceiver are further configured to select one of the RUs in the assignment of RUs for a random access transmission and send the random access transmission on the selected one of the RUs on a condition that the WTRU has uplink data for transmission and has decremented an Orthogonal Frequency Division Multiple Access, OFDMA, backoff, OBO, counter to zero.
Vehicle body comprising: - a rear wheel housing ; - a L-shaped bracket in contact with the wheel housing; and - a reinforcing bracket fixing the L-shaped bracket to the rear wheel housing, characterized in that the L-shaped bracket comprises a centering pin and the reinforcing bracket comprises a through-hole for receiving the centering pin of the L-shaped bracket. - a rear wheel housing ; - a L-shaped bracket in contact with the wheel housing; and - a reinforcing bracket fixing the L-shaped bracket to the rear wheel housing,
A method for migrating data, performed by a first terminal, comprising: establishing (S101, S201, S301) a communication connection to a second terminal; classifying data to be migrated into system data and privacy data, determining (S102, S202, S302) the privacy data and the system data in the data to be migrated; transmitting (S204) the system data to the second terminal; and transmitting (S103) the privacy data carrying first decryption information to the second terminal, wherein the first decryption information is for the second terminal to decrypt the privacy data when the second terminal detects that second decryption information input by a user matches the first decryption information. establishing (S101, S201, S301) a communication connection to a second terminal; classifying data to be migrated into system data and privacy data, determining (S102, S202, S302) the privacy data and the system data in the data to be migrated; transmitting (S204) the system data to the second terminal; and transmitting (S103) the privacy data carrying first decryption information to the second terminal, wherein the first decryption information is for the second terminal to decrypt the privacy data when the second terminal detects that second decryption information input by a user matches the first decryption information.
A pharmaceutical preconcentrate consisting of: a fatty acid oil mixture comprising at least 75% eicosapentaenoic acid (EPA) and docosahexaenoic acid (DHA), by weight of the fatty acid oil mixture, wherein the EPA and DHA are in free acid form; at least one non-ionic surfactant chosen from nonionic copolymers comprised of a central hydrophobic polymer (polyoxypropylene (poly(propylene oxide))) with a hydrophilic polymer (polyoxyethylene (poly(ethylene oxide))) on each side, polyethylene ethers, sorbitan esters, polyoxyethylene sorbitan esters, polyoxyethylene fatty acid esters, polyoxyl castor oils, polyoxyl hydrogenated castor oils, macrogol cetostearyl ethers, macrogol lauryl ethers, macrogol oleyl ethers, macrogol stearates, polyoxamers, and mixtures thereof, wherein the weight ratio of fatty acid oil mixture:total surfactant of the preconcentrate ranges from about 1:1 to about 200:1; and optionally at least one co-surfactant which is not in free acid form; and/or at least one pharmaceutically-acceptable solvent; and/or at least one non-active ingredient chosen from colloidal silicon dioxide, crospovidone, lactose monohydrate, lecithin, microcrystalline cellulose, polyvinyl alcohol, povidone, sodium lauryl sulfate, sodium stearyl fumarate, talc, titanium dioxide and xanthum gum; and/or at least one antioxidant; and/or at least one superdisintegrant. a fatty acid oil mixture comprising at least 75% eicosapentaenoic acid (EPA) and docosahexaenoic acid (DHA), by weight of the fatty acid oil mixture, wherein the EPA and DHA are in free acid form; at least one non-ionic surfactant chosen from nonionic copolymers comprised of a central hydrophobic polymer (polyoxypropylene (poly(propylene oxide))) with a hydrophilic polymer (polyoxyethylene (poly(ethylene oxide))) on each side, polyethylene ethers, sorbitan esters, polyoxyethylene sorbitan esters, polyoxyethylene fatty acid esters, polyoxyl castor oils, polyoxyl hydrogenated castor oils, macrogol cetostearyl ethers, macrogol lauryl ethers, macrogol oleyl ethers, macrogol stearates, polyoxamers, and mixtures thereof, wherein the weight ratio of fatty acid oil mixture:total surfactant of the preconcentrate ranges from about 1:1 to about 200:1; and optionally at least one co-surfactant which is not in free acid form; and/or at least one pharmaceutically-acceptable solvent; and/or at least one non-active ingredient chosen from colloidal silicon dioxide, crospovidone, lactose monohydrate, lecithin, microcrystalline cellulose, polyvinyl alcohol, povidone, sodium lauryl sulfate, sodium stearyl fumarate, talc, titanium dioxide and xanthum gum; and/or at least one antioxidant; and/or at least one superdisintegrant.
A silicon carbide, SiC, Schottky diode comprising: a layer of N-type SiC ; a layer of P-type SiC in contact with the layer of N-type SiC creating a P-N junction; and an anode in contact with both the layer of N-type SiC and the layer of P-type SiC creating Schottky contacts between the anode and both the layer of N-type SiC and the layer of P-type SiC , wherein an edge of the layer of P-type SiC is electrically active and comprises a slope that is sloping away from the anode to create an acute angle, α, with the P-N junction, wherein, starting from a tip of the layer of P-type SiC at the vertex of said angle, a tapered negative charge density forms in the layer of P-type SiC when the diode is reverse biased, wherein a thickness, t p , of the P-type SiC layer of the electrically active edge is greater than W L × tan α, wherein W L represents the lateral distance from the tip of the P-type SiC layer to the point at which a maximum charge density of interest N max is reached and is at least 4nm, the maximum charge density of interest N max is reached within the slope, wherein N max = ( ε r × ε 0 × E c ) lq, where ε r is the relative dielectric constant of the P-type SiC, ε 0 is the vacuum permittivity, and E c is the critical electric field of SiC. a layer of N-type SiC ; a layer of P-type SiC in contact with the layer of N-type SiC creating a P-N junction; and an anode in contact with both the layer of N-type SiC and the layer of P-type SiC creating Schottky contacts between the anode and both the layer of N-type SiC and the layer of P-type SiC , wherein an edge of the layer of P-type SiC is electrically active and comprises a slope that is sloping away from the anode to create an acute angle, α, with the P-N junction, wherein, starting from a tip of the layer of P-type SiC at the vertex of said angle, a tapered negative charge density forms in the layer of P-type SiC when the diode is reverse biased, wherein a thickness, t p , of the P-type SiC layer of the electrically active edge is greater than W L × tan α, wherein W L represents the lateral distance from the tip of the P-type SiC layer to the point at which a maximum charge density of interest N max is reached and is at least 4nm, the maximum charge density of interest N max is reached within the slope, wherein N max = ( ε r × ε 0 × E c ) lq, where ε r is the relative dielectric constant of the P-type SiC, ε 0 is the vacuum permittivity, and E c is the critical electric field of SiC.
A graphite article comprising graphitized polymer having a thickness of at least 100 microns and up to 500 microns, the graphite having a density of less than 1.00 g/cc, a compressibility of at least 3% at a contact pressure of 100 kPa and a generally sheet like shape, wherein the graphite article has a resistivity of less than 0.019 °C/W at a contact pressure of 200 kPa, as measured on an apparatus that meets the requirements of ASTM D5470 Standard Test Method.
A computer cluster arrangement for processing a computation task, comprising: a plurality of computation nodes (CN), each of which interfacing a communication infrastructure (IN), at least two of the plurality of computation nodes (CN) being arranged to jointly compute at least a first part of said computation task; a plurality of boosters (B) also interfacing said communication infrastructure (IN); and a resource manager (RM) being arranged to perform an assignment of at least one of the plurality of boosters (B) to at least one of the plurality of computation nodes (CN) for computation of a second part of the computation task; wherein the second part of the computation task is forwarded from one of said at least one of the plurality of computation nodes (CN) to said at least one of the plurality of boosters (B) and the result computed by said at least one of the plurality of boosters (B) is delivered back to said one of said at least one of the plurality of computation nodes (CN); wherein the assignment performed by the resource manager being a dynamic assignment accomplished using an assignment metric updated during processing of the computation task, wherein said assignment metric being a set of rules. a plurality of computation nodes (CN), each of which interfacing a communication infrastructure (IN), at least two of the plurality of computation nodes (CN) being arranged to jointly compute at least a first part of said computation task; a plurality of boosters (B) also interfacing said communication infrastructure (IN); and a resource manager (RM) being arranged to perform an assignment of at least one of the plurality of boosters (B) to at least one of the plurality of computation nodes (CN) for computation of a second part of the computation task; wherein the second part of the computation task is forwarded from one of said at least one of the plurality of computation nodes (CN) to said at least one of the plurality of boosters (B) and the result computed by said at least one of the plurality of boosters (B) is delivered back to said one of said at least one of the plurality of computation nodes (CN); wherein the assignment performed by the resource manager being a dynamic assignment accomplished using an assignment metric updated during processing of the computation task, wherein said assignment metric being a set of rules.
A method for wireless communication at a user equipment, UE, characterised by : transmitting UE capability information that indicates UE support for blind decoding of repetition-based physical downlink control channel candidates, wherein the UE capability information is indicative of a blind decoding count mode which indicates a quantity by which a blind decode count is incremented for each blind decoding attempt of repetition-based physical downlink control channel candidates, the quantity selected between a first quantity of repetitions of a physical downlink control channel candidate and a second quantity that is greater than the first quantity; and monitoring for one or more repetitions of a downlink control information by attempting to blind decode one or more repetitions of the physical downlink control channel candidate in accordance with a maximum blind decode count and the blind decoding count mode. transmitting UE capability information that indicates UE support for blind decoding of repetition-based physical downlink control channel candidates, wherein the UE capability information is indicative of a blind decoding count mode which indicates a quantity by which a blind decode count is incremented for each blind decoding attempt of repetition-based physical downlink control channel candidates, the quantity selected between a first quantity of repetitions of a physical downlink control channel candidate and a second quantity that is greater than the first quantity; and monitoring for one or more repetitions of a downlink control information by attempting to blind decode one or more repetitions of the physical downlink control channel candidate in accordance with a maximum blind decode count and the blind decoding count mode.
A tissue traction device , comprising: a traction band comprising a compliant or semi-compliant material; a first attachment member pivotably attached to a first end of the traction band by a first swivel ; and a second attachment member pivotably attached to a second end of the traction band by a second swivel , and a filament disposed along a length of the traction band , wherein the filament comprises a substantially non-compliant material configured to limit a maximum extended length of the traction band , or wherein the filament comprises a substantially compliant or semi-compliant material configured to increase a retraction force of the traction band . a traction band comprising a compliant or semi-compliant material; a first attachment member pivotably attached to a first end of the traction band by a first swivel ; and a second attachment member pivotably attached to a second end of the traction band by a second swivel , and a filament disposed along a length of the traction band , wherein the filament comprises a substantially non-compliant material configured to limit a maximum extended length of the traction band , or wherein the filament comprises a substantially compliant or semi-compliant material configured to increase a retraction force of the traction band .