mhurhangee/ep-ind-claims huggingface dataset:
An in-ear portion of an in-ear earpiece, comprising: a body having an upper portion shaped to make contact with the tragus and anti-tragus and having a substantially planar surface that substantially rests against the concha of a user's ear when worn by the user, and a lower portion shaped to enter the ear canal, the lower portion being not relied upon to provide retention of the in-ear earpiece in the ear, wherein a first void in the upper portion is configured to receive an acoustic driver module of the in-ear earpiece and a second void in the lower portion is configured so that a nozzle extending from the acoustic driver module can extend into the second void, the second void ending in an opening to conduct acoustic energy to the user's ear canal, and a positioning and retaining structure including an outer leg and an inner leg, wherein the outer leg and the inner leg are attached to the body at an attachment end, and attached at a joined end to each other, wherein the outer leg lies in a plane, wherein the outer leg is curved; wherein, to fit the antihelix, an outer edge of the outer leg has a variable radius of curvature, more-sharply curved near the body and flattening out at positions farther from the body. a body having an upper portion shaped to make contact with the tragus and anti-tragus and having a substantially planar surface that substantially rests against the concha of a user's ear when worn by the user, and a lower portion shaped to enter the ear canal, the lower portion being not relied upon to provide retention of the in-ear earpiece in the ear, wherein a first void in the upper portion is configured to receive an acoustic driver module of the in-ear earpiece and a second void in the lower portion is configured so that a nozzle extending from the acoustic driver module can extend into the second void, the second void ending in an opening to conduct acoustic energy to the user's ear canal, and a positioning and retaining structure including an outer leg and an inner leg, wherein the outer leg and the inner leg are attached to the body at an attachment end, and attached at a joined end to each other, wherein the outer leg lies in a plane, wherein the outer leg is curved; wherein, to fit the antihelix, an outer edge of the outer leg has a variable radius of curvature, more-sharply curved near the body and flattening out at positions farther from the body.
Down-holder for holding down a coupling socket of a vehicle coupling on a coupling ball of the vehicle coupling, wherein the down-holder has a down-holder main body with a threaded bore, wherein an adjustment screw is arranged in the threaded bore, wherein the adjustment screw has a contact surface for contacting the coupling socket, wherein the down-holder has a clamping device for clamping the adjustment screw in the threaded bore, wherein the clamping device is arranged laterally relative to the threaded bore, characterized in that the threaded bore has at least one lateral slot, in that the slot separates two regions of the down-holder main body from one another, and in that the clamping device is designed to press the two regions of the down-holder main body separated by the slot together in a predefinable manner.
A cogeneration method whereby a hot source produces steam which is expanded through at least one turbine the low-pressure steam outlet of which is connected to a condenser, at least a fraction of the low-pressure steam leaving the turbine is directed toward a venturi-effet thermocompressor in which the steam, tapped from an intermediate stage of the turbine, at a temperature and pressure that are higher than those of the low-pressure steam, is injected near the throat of the venturi in order to yield a resultant fluid the pressure and temperature of which are higher than those of the low-pressure steam leaving the turbine, this resultant fluid being directed toward a second condenser, characterized in that the second condenser has passing through it an auxiliary fluid from a circuit external to the thermodynamic cycle of the turbine and in that all or some of the latent heat of condensation of the steam, on the exhaust side of the turbine, is transferred to the external circuit.
Method for controlling an induction hob, the induction hob comprising a plurality of induction coils and two or more power units, each power unit being coupled with one or more induction coils, wherein a cooking zone is formed by associating one or more induction coils to a coil group (6.1 - 6.4), the method comprising the steps of: - defining one or more coil groups (6.1 - 6.4), each coil group (6.1 - 6.4) being associated with one or more induction coils; - calculating a relative power value of each coil group (6.1 - 6.4) based on a maximum power value, the maximum power value being the power value of the coil group with the highest power request; - calculating, for each coil group (6.1 - 6.4), a coil activation number based on the relative power value, the coil activation number being the number of induction coils to be activated in subsequent steps of a coils activation sequence; - establishing a coils activation schedule based on the coil activation number; - operating the induction hob according to the coils activation schedule. wherein the power units are operated according to a master-slave configuration, wherein a master power unit is adapted to calculate the coil activation number, establish the coils activation schedule and operate the plurality of induction coils of a master power unit and one or more slave power units according to the coils activation schedule. - defining one or more coil groups (6.1 - 6.4), each coil group (6.1 - 6.4) being associated with one or more induction coils; - calculating a relative power value of each coil group (6.1 - 6.4) based on a maximum power value, the maximum power value being the power value of the coil group with the highest power request; - calculating, for each coil group (6.1 - 6.4), a coil activation number based on the relative power value, the coil activation number being the number of induction coils to be activated in subsequent steps of a coils activation sequence; - establishing a coils activation schedule based on the coil activation number; - operating the induction hob according to the coils activation schedule.
Arrangement of a. an adapter plate b. wherein the adapter plate enables a fastening of a connection device on a base, c. wherein the connection device lies at least partly with a bottom side against the adapter plate, d. wherein the adapter plate has a cutout to receive elements (4a, 4b, 307) of the connection device, e. wherein the connection device can be screwed or locked onto the adapter plate, characterized in that f. the connection device mounted on the adapter plate is designed for the connection of electrical conductors, g. the connection device has several connector units ranged in a row, h. the cutout is fully enclosed by a marginal region, which is formed by the adapter plate. a. an adapter plate b. wherein the adapter plate enables a fastening of a connection device on a base, c. wherein the connection device lies at least partly with a bottom side against the adapter plate, d. wherein the adapter plate has a cutout to receive elements (4a, 4b, 307) of the connection device, e. wherein the connection device can be screwed or locked onto the adapter plate, f. the connection device mounted on the adapter plate is designed for the connection of electrical conductors, g. the connection device has several connector units ranged in a row, h. the cutout is fully enclosed by a marginal region, which is formed by the adapter plate.
A method of identifying a dog at risk of developing a hypothyroid disease, comprising testing whether the dog exhibits one or more single nucleotide polymorphisms (SNPs) selected from the SNPs identified below:. CHR SNP BP A1 TES T NMISS OR STAT P GENE 1 BICF2S2291826 10908244 2 A ADD 598 3.10 1 5.178 2.25E-07 KLK14 5 BICF2P644940 32018566 G ADD 598 2.91 5.143 2.71E-07 mmp3 5 BICF2S23620647 48768926 G ADD 597 2.93 4 4.919 8.68E-07 5 BICF2P1010252 48773672 A ADD 598 2.93 9 4.928 8.29E-07 UBE2U 6 BICF2S2299083 63965090 C ADD 566 3.65 5 5.343 9.14E-08 LMO4 7 BICF2P325158 78980520 A ADD 598 2.89 5 5.046 4.52E-07 VAPA 13 BICF2G630619848 32292493 G ADD 598 3.00 4 4.976 6.51E-07 TG 13 BICF2G630664672 32998675 A ADD 598 3.18 4.99 6.03E-07 TG 14 BICF2S2309682 26627034 G ADD 598 4.63 7 5.156 2.53E-07 19 BICF2P676019 21913501 A ADD 598 3.74 8 5.364 8.12E-08 TNIP3 19 TIGRP2P259868_rs88 26879 21963920 A ADD 598 3.18 5.167 2.37E-07 TNIP3 19 BICF2S23412424 21970802 T ADD 598 3.18 5.167 2.37E-07 TNIP3 19 BICF2P891737 21978107 C ADD 595 3.15 1 5.121 3.03E-07 TNIP3 19 BICF2G63043222 23950538 A ADD 596 3.25 5 5.003 5.64E-07 PLEKH B2 19 BICF2G63044170 24819071 G ADD 597 3.74 1 5.032 4.85E-07 Pqbp1 19 BICF2P1049515 25239827 A ADD 598 3.78 3 5.295 1.19E-07 TADA1 19 BICF2G63044580 25251446 G ADD 598 3.78 3 5.295 1.19E-07 19 BICF2G63044702 25925990 G ADD 598 3.12 6 5.163 2.43E-07 19 BICF2S23139628 32148097 G ADD 598 3.28 6 4.895 9.81E-07 CLASP1 20 BICF2P777635 51403698 G ADD 598 3.10 8 5.433 5.56E-08 ASF1B 20 BICF2P1281945 56168011 G ADD 598 2.85 2 5.097 3.45E-07 ACTL9 31 BICF2P782092 7378002 G ADD 598 5.82 7 5.412 6.22E-08 SMAD2 31 BICF2G630734810 21004766 G ADD 598 2.80 6 4.906 9.28E-07 CLNS1A 31 BICF2G630741339 34096864 A ADD 598 4.82 7 4.988 6.09E-07 SIM2 31 BICF2P1171495 40784356 A ADD 593 3.90 4 5.043 4.58E-07 SUMO3 31 BICF2P989266 40802884 A ADD 598 3.77 4 4.957 7.14E-07 UBE2G2 38 BICF2S22955325 22793576 C ADD 579 6.51 1 5.068 4.03E-07 RGS4
Dispensing device for dispensing a liquid, in particular in foam form, comprising at least one piston pump having a cylinder and a piston which can move inside the cylinder, the piston comprising a piston seal, by means of which the piston adjoins the cylinder in a substantially sealing manner, wherein the dispensing device is provided with a lubricant in order for the area where the piston seal adjoins the cylinder to be lubricated in use, wherein the piston pump can be manually operated, characterized in that the lubricant is provided in a lubricant reservoir that has a dispenser opening to dispense the lubricant.
A method comprising: appending, to a furnisher blockchain, an interoperability smart contract comprising a cryptologic committal, the cryptologic committal comprising commit logic configured to cause a data receiver to commit token data to a receiver blockchain based on a pre-commit authorization; encrypting, based on a predetermined committal key, the pre-commit authorization to transfer token data stored on the furnisher blockchain to the receiver blockchain; sending the pre-commit authorization to the data receiver; after sending the pre-commit authorization, receiving a pre-commit acknowledgement of the pre-commit authorization; and responsive to the pre-commit acknowledgement: locking the token data on the furnisher blockchain in response to verification that the token data is appended to the receiver blockchain, and sending the predetermined committal key to the data receiver, the data receiver configured to execute the commit logic based on the pre-commit authorization unencrypted by the predetermined committal key and commit the token data to the receiver blockchain based on the commit logic. appending, to a furnisher blockchain, an interoperability smart contract comprising a cryptologic committal, the cryptologic committal comprising commit logic configured to cause a data receiver to commit token data to a receiver blockchain based on a pre-commit authorization; encrypting, based on a predetermined committal key, the pre-commit authorization to transfer token data stored on the furnisher blockchain to the receiver blockchain; sending the pre-commit authorization to the data receiver; after sending the pre-commit authorization, receiving a pre-commit acknowledgement of the pre-commit authorization; and responsive to the pre-commit acknowledgement: locking the token data on the furnisher blockchain in response to verification that the token data is appended to the receiver blockchain, and sending the predetermined committal key to the data receiver, the data receiver configured to execute the commit logic based on the pre-commit authorization unencrypted by the predetermined committal key and commit the token data to the receiver blockchain based on the commit logic. locking the token data on the furnisher blockchain in response to verification that the token data is appended to the receiver blockchain, and sending the predetermined committal key to the data receiver, the data receiver configured to execute the commit logic based on the pre-commit authorization unencrypted by the predetermined committal key and commit the token data to the receiver blockchain based on the commit logic.
A method for use in a user equipment, UE being a Machine-Type Communications device, comprising: receiving one or more symbols at the start of a first transmission time interval, TTI, of a channel, wherein the channel is a broadcast channel; obtaining a signal quality estimate based on at least one of the one or more symbols; comparing the signal quality estimate to a signal quality threshold; and determining, based on the comparison, whether to process the broadcast channel in the first TTI, wherein prior to receiving the one or more symbols, the method further comprises: receiving a request to perform one or more operations related to the broadcast channel within a time period, the time period comprising at least two TTIs of the channel, wherein the one or more operations related to the channel comprise one or more of: acquiring a master information block, MIB; and acquiring a master information block narrowband, MIB-NB, and wherein processing the channel comprises at least one of: acquiring a MIB; and acquiring a MIB-NB receiving one or more symbols at the start of a first transmission time interval, TTI, of a channel, wherein the channel is a broadcast channel; obtaining a signal quality estimate based on at least one of the one or more symbols; comparing the signal quality estimate to a signal quality threshold; and determining, based on the comparison, whether to process the broadcast channel in the first TTI, wherein prior to receiving the one or more symbols, the method further comprises: receiving a request to perform one or more operations related to the broadcast channel within a time period, the time period comprising at least two TTIs of the channel, wherein the one or more operations related to the channel comprise one or more of: acquiring a master information block, MIB; and acquiring a master information block narrowband, MIB-NB, acquiring a master information block, MIB; and acquiring a master information block narrowband, MIB-NB, acquiring a MIB; and acquiring a MIB-NB
A system comprising: a pressure-mitigation apparatus that includes a geometric arrangement of inflatable chambers formed by interconnections between a top layer and a bottom layer, wherein the top layer is comprised of an air-permeable, non-irritating material configured for direct contact with a human body, and wherein the inflatable chambers are configured to mitigate contact pressure applied to the human body by a support surface when pressure in the inflatable chambers is varied; and an attachment apparatus for securing the pressure-mitigation apparatus to the support surface, characterised in that the attachment apparatus is comprised of a material that, when contacted by an outer surface of the bottom layer, provides sufficient tackiness to naturally limit movement of the pressure-mitigation apparatus in relation to the support surface, but allows the pressure-mitigation apparatus to be readily detached from the attachment apparatus, and wherein the attachment apparatus includes an adhesive film disposed along a bottom surface that is to contact the support surface. a pressure-mitigation apparatus that includes a geometric arrangement of inflatable chambers formed by interconnections between a top layer and a bottom layer, wherein the top layer is comprised of an air-permeable, non-irritating material configured for direct contact with a human body, and wherein the inflatable chambers are configured to mitigate contact pressure applied to the human body by a support surface when pressure in the inflatable chambers is varied; and an attachment apparatus for securing the pressure-mitigation apparatus to the support surface, characterised in that the attachment apparatus is comprised of a material that, when contacted by an outer surface of the bottom layer, provides sufficient tackiness to naturally limit movement of the pressure-mitigation apparatus in relation to the support surface, but allows the pressure-mitigation apparatus to be readily detached from the attachment apparatus, and wherein the attachment apparatus includes an adhesive film disposed along a bottom surface that is to contact the support surface.
A method comprising: monitoring a virtual service chain formed by a plurality of stitched virtualized network functions running on a plurality of virtual nodes, wherein the virtualized network functions are stitched together, at least in part, through a hypervisor layer on which the plurality of virtual nodes are provided; generating, by an inline statistics agent, inline statistics of the operation of the virtual service chain; identifying an actual throughput of the virtual service chain from the inline statistics; and providing throughput assurance for the virtual service chain by comparing the actual throughput of the virtual service chain with an expected throughput of the virtual service chain; wherein the inline statistics agent is implemented in the hypervisor layer and wherein data passing between the virtualized network functions is monitored by the inline statistics agent in the hypervisor layer to generate the inline statistics for the virtual service chain. monitoring a virtual service chain formed by a plurality of stitched virtualized network functions running on a plurality of virtual nodes, wherein the virtualized network functions are stitched together, at least in part, through a hypervisor layer on which the plurality of virtual nodes are provided; generating, by an inline statistics agent, inline statistics of the operation of the virtual service chain; identifying an actual throughput of the virtual service chain from the inline statistics; and providing throughput assurance for the virtual service chain by comparing the actual throughput of the virtual service chain with an expected throughput of the virtual service chain; wherein the inline statistics agent is implemented in the hypervisor layer and wherein data passing between the virtualized network functions is monitored by the inline statistics agent in the hypervisor layer to generate the inline statistics for the virtual service chain.
Odour trap for a sanitary water drain, in particular for a urinal, comprising a. an inlet having at least an opening to a supply for sanitary water, b. a tubular discharge, fixed or deformable, with an upper end arranged downstream of the inlet, whereby the tubular discharge surrounds the supply, c. a lower end of the discharge for the discharge of the sanitary water and a sealing body, which is arranged in the discharge and attached thereto at the inlet side, whereby the sealing body is arranged at least partially in the tubular discharge and fills up the cross-section of the discharge and substantially abuts upon the tubular discharge circumferentially in a contact section whereby the sealing body forms pleats upon supply of urine or flush water for discharging the liquid, characterized in that the sealing body is provided with inlet channels on the surface which are directed from an uppermost position to a lowermost position and which end prior to the contact section. a. an inlet having at least an opening to a supply for sanitary water, b. a tubular discharge, fixed or deformable, with an upper end arranged downstream of the inlet, whereby the tubular discharge surrounds the supply, c. a lower end of the discharge for the discharge of the sanitary water and a sealing body, which is arranged in the discharge and attached thereto at the inlet side,
Method for detecting an accident involving a motorcycle, wherein the method comprises the following steps: reading in a measured motorcycle speed of the motorcycle and selecting a threshold value for at least one sensed sensor value from an acceleration sensor of the motorcycle using the motorcycle speed; and recognizing the accident involving the motorcycle when the sensed sensor value reaches or exceeds the threshold value selected in the selecting step, and determining an accident severity and/or accident type of the accident using the motorcycle speed and a clipping time of a sensor signal from the sensor, wherein the clipping time is a period of time in which the sensor signal is located outside a dynamic range of the sensor and is not resolvable. reading in a measured motorcycle speed of the motorcycle and selecting a threshold value for at least one sensed sensor value from an acceleration sensor of the motorcycle using the motorcycle speed; and recognizing the accident involving the motorcycle when the sensed sensor value reaches or exceeds the threshold value selected in the selecting step, and determining an accident severity and/or accident type of the accident using the motorcycle speed and a clipping time of a sensor signal from the sensor, wherein the clipping time is a period of time in which the sensor signal is located outside a dynamic range of the sensor and is not resolvable.
A method for retransmitting data of a user equipment, UE, in a wireless communication system, comprising: transmitting data; receiving downlink control information, DCI, from a network, wherein the DCI includes an acknowledgement/negative-acknowledgement, ACK/NACK, field informing whether or not reception of the data is acknowledged by the network; and retransmitting the data per an hybrid automatic repeat request, HARQ, process identifier, ID, based on the DCI, wherein based on the UE receiving both the DCI and uplink grant for a same HARQ process ID, the retransmission is performed according to the UL grant, wherein the DCI is used for a non-adaptive retransmission and the uplink grant is used for an adaptive retransmission. transmitting data; receiving downlink control information, DCI, from a network, wherein the DCI includes an acknowledgement/negative-acknowledgement, ACK/NACK, field informing whether or not reception of the data is acknowledged by the network; and retransmitting the data per an hybrid automatic repeat request, HARQ, process identifier, ID, based on the DCI, wherein based on the UE receiving both the DCI and uplink grant for a same HARQ process ID, the retransmission is performed according to the UL grant, wherein the DCI is used for a non-adaptive retransmission and the uplink grant is used for an adaptive retransmission.