mhurhangee/ep-ind-claims huggingface dataset:
A method for selecting a mode of operation of a data transmission, comprising at a device: - monitoring spatial information (281, 282) associated with a terminal connected to an access node of a network (113, 123, 140) via a radio link (111, 121), - retrieving control data (S1, T1, T2, U2, V4, V6) indicating a spatially-resolved quality of a data transmission between the network (113, 123, 140) and the terminal, wherein the spatially-resolved quality of the data transmission comprises a geo-fence enclosing an area of predefined quality of the data transmission, - depending on the spatial information (281, 282) and further depending on the spatially-resolved quality of the data transmission: selecting between operation of the data transmission in a normal mode and in a resilience mode, wherein the operation in the normal mode is selected if the spatial information (281, 282) and the spatially-resolved quality of the data transmission correspond to non-impaired quality of the data transmission, wherein the operation in the resilience mode is selected if the spatial information (281, 282) and the spatially-resolved quality of the data transmission correspond to impaired quality of the data transmission, wherein the control data are indicative of either the impaired or non-impaired quality wherein operation in the normal mode is selected if at least one of a location of the terminal and an expected route of the terminal as spatial information is not located inside the geo-fence, wherein operation in the resilience mode is selected if at least one of the location of the terminal and the expected route of the terminal is located inside the geo-fence. - monitoring spatial information (281, 282) associated with a terminal connected to an access node of a network (113, 123, 140) via a radio link (111, 121), - retrieving control data (S1, T1, T2, U2, V4, V6) indicating a spatially-resolved quality of a data transmission between the network (113, 123, 140) and the terminal, wherein the spatially-resolved quality of the data transmission comprises a geo-fence enclosing an area of predefined quality of the data transmission, - depending on the spatial information (281, 282) and further depending on the spatially-resolved quality of the data transmission: selecting between operation of the data transmission in a normal mode and in a resilience mode,
A method, which is performed in one or more network elements that are in communication between clients that transmit packets and servers, of distributing the packets among the servers which are to process the packets, while providing stickiness of flows of the packets to servers assigned to process the packets of the flows, the method comprising the steps of: receiving a packet of a flow at a static first level packet distribution module; statically selecting a group of servers, from among a plurality of groups of the servers, for the packet of the flow with the static first level packet distribution module, wherein statically selecting the group of servers does not involve using state that assigns the packet of the flow to the selected group of servers; distributing the packet of the flow to a distributed stateful second level packet distribution system; statefully selecting a server of the selected group of servers that is to process the packet of the flow with the distributed stateful second level packet distribution system by accessing state that assigns processing of packets of the flow to the selected server; and distributing the packet of the flow to the selected server, characterized in that the step of distributing the packet of the flow to the distributed stateful second level packet distribution system comprises a step of distributing the packet of the flow to each of a plurality of distributed stateful second level packet distribution modules that each correspond to a different server of the selected group of servers. receiving a packet of a flow at a static first level packet distribution module; statically selecting a group of servers, from among a plurality of groups of the servers, for the packet of the flow with the static first level packet distribution module, wherein statically selecting the group of servers does not involve using state that assigns the packet of the flow to the selected group of servers; distributing the packet of the flow to a distributed stateful second level packet distribution system; statefully selecting a server of the selected group of servers that is to process the packet of the flow with the distributed stateful second level packet distribution system by accessing state that assigns processing of packets of the flow to the selected server; and distributing the packet of the flow to the selected server, characterized in that the step of distributing the packet of the flow to the distributed stateful second level packet distribution system comprises a step of distributing the packet of the flow to each of a plurality of distributed stateful second level packet distribution modules that each correspond to a different server of the selected group of servers.
A wearable transdermal neurostimulator for modulating a subject's cognitive state, comprising an electrical and mechanical connection between first and second connectors (115, 117, 1805, 1807, 2403, 2404) located off-center on a first surface of a housing of the wearable transdermal neurostimulator with first and second connector mates on an electrode apparatus (100, 200, 239), wherein the first and second connectors (115, 117, 1805, 1807) are separated from each other on the first surface by between 1.78 cm (0.7 inches) and 2.03 cm (0.8 inches), wherein - the electrode apparatus (100, 200, 239) is configured to be secured to the subject's temple or forehead; and - the electrode apparatus (100, 200, 239) is configured to deliver an asymmetric, pulsed, biphasic current for applying electrical stimulation, wherein the electrode apparatus comprises (100, 200, 239) a first portion and a second portion, wherein the first portion is configured to be adhesively secured to the subject's temple or forehead and the second portion of the electrode apparatus (100, 200, 239) is configured to be adhesively secured to another portion of the subject's head or neck, characterized in that an adaptor unit couples to the first and second connectors (115, 117, 1805, 1807) and provides a second set of electrode connectors (115, 117, 1805, 1807) with a separation between them larger than an inter-connector distance on the neurostimulator unit. - the electrode apparatus (100, 200, 239) is configured to be secured to the subject's temple or forehead; and - the electrode apparatus (100, 200, 239) is configured to deliver an asymmetric, pulsed, biphasic current for applying electrical stimulation,
Aerodynamic element for a garment, preferably sporty, in particular for a suit or jacket for a motorcyclist, cyclist, skier or the like, comprising: - a body which is configured to be associated in a removable and repositionable manner with an aerodynamic hump, provided in said garment, and so that, during the performance of the sports gesture by the subject wearing said garment, defines an efficient aerodynamic profile in correspondence with an area defined between said hump of said garment and the rear area of a helmet worn on the head by said subject, and characterized in that said body comprises: - a plurality of through openings intended to be crossed by fixing means to constrain said body to said hump, said through openings being shaped and/or arranged so as to allow to adjust and/or modify the position and/or inclination of said body with respect to said hump, and/or - a plurality of fixing means integrated and/or integral with said body and intended to cooperate with corresponding shaped holes formed in said hump, said shaped holes being shaped and/or arranged so as to allow adjustment and/or modification of the position and/or inclination of said body with respect to said hump. - a body which is configured to be associated in a removable and repositionable manner with an aerodynamic hump, provided in said garment, and so that, during the performance of the sports gesture by the subject wearing said garment, defines an efficient aerodynamic profile in correspondence with an area defined between said hump of said garment and the rear area of a helmet worn on the head by said subject, - a plurality of through openings intended to be crossed by fixing means to constrain said body to said hump, said through openings being shaped and/or arranged so as to allow to adjust and/or modify the position and/or inclination of said body with respect to said hump, and/or - a plurality of fixing means integrated and/or integral with said body and intended to cooperate with corresponding shaped holes formed in said hump, said shaped holes being shaped and/or arranged so as to allow adjustment and/or modification of the position and/or inclination of said body with respect to said hump.
A measurement device (10, 100), comprising a droplet forming part (13, 13a, 113, 213, 413) configured to form aerosol-like liquid droplets from a liquid in which a fluorescent substance specifically bondable to detection target particles and a specimen including the detection target particles are mixed with each other, a droplet sorting part (14, 14') configured to sort droplets having a diameter smaller than a predetermined value from the droplets formed by the droplet forming part (13, 13a, 113, 213, 413), and a measurement part (15, 15') configured to irradiate light onto the droplets sorted by the droplet sorting part (14, 14') and configured to measure the fluorescence intensity of the droplets, wherein the droplet sorting part (14, 14') includes a spray chamber configured to sort the droplets having the diameter smaller than the predetermined value using an inertial force, and supply only the droplets having the diameter smaller than the predetermined value to the measurement part (15, 15').
A laundry appliance comprising: a cabinet; a drum disposed within the cabinet and that processes laundry; a blower that delivers process air from a heater to the drum via an airflow path; and a structural panel, being an interior panel that is set behind an outer cosmetic panel for the cabinet of the appliance, the structural panel defining a front aperture for accessing an interior of the drum, and further defining an air channel that defines a portion of the airflow path; wherein the structural panel includes a lower first portion that is made of a first material and an upper second portion that is made of a second material; and the first and second materials (32, 36) meet at a predetermined seam that extends through a perimeter wall of the structural panel that defines the air channel and below and at least partially around the front aperture, and divides the lower first portion and the upper second portion; characterized in that the second material is different from the first material; the first material defined within the lower first portion of the structural panel has greater heat resistive properties than the second material of the second upper portion; said first material being a fire-resistant material having a V0 rating. a cabinet; a drum disposed within the cabinet and that processes laundry; a blower that delivers process air from a heater to the drum via an airflow path; and a structural panel, being an interior panel that is set behind an outer cosmetic panel for the cabinet of the appliance, the structural panel defining a front aperture for accessing an interior of the drum, and further defining an air channel that defines a portion of the airflow path; wherein the structural panel includes a lower first portion that is made of a first material and an upper second portion that is made of a second material; and the first and second materials (32, 36) meet at a predetermined seam that extends through a perimeter wall of the structural panel that defines the air channel and below and at least partially around the front aperture, and divides the lower first portion and the upper second portion; the structural panel includes a lower first portion that is made of a first material and an upper second portion that is made of a second material; and the first and second materials (32, 36) meet at a predetermined seam that extends through a perimeter wall of the structural panel that defines the air channel and below and at least partially around the front aperture, and divides the lower first portion and the upper second portion; characterized in that the second material is different from the first material; the first material defined within the lower first portion of the structural panel has greater heat resistive properties than the second material of the second upper portion; said first material being a fire-resistant material having a V0 rating.
A geometric end effector system, said system including: a platform; a frame secured to said platform; a plurality of bases arranged at predetermined positions on said frame; an anchor mount secured to at least one of said bases, the anchor mount having a flange with an end face provided with a plurality of slots; a component (36, 38) connected to said anchor mount by a collar assembly, said component (36, 38) including a coupling flange provided with a plurality of slots; and a key arranged between said component (36, 38) and said anchor mount, said key extending into the slots of the flange of the anchor mount and the slots of the coupling flange of the component (36, 38), wherein the slots of the coupling flange of the component (36, 38) are arranged at the same intervals as those of the flange of the anchor mount. a platform; a frame secured to said platform; a plurality of bases arranged at predetermined positions on said frame; an anchor mount secured to at least one of said bases, the anchor mount having a flange with an end face provided with a plurality of slots; a component (36, 38) connected to said anchor mount by a collar assembly, said component (36, 38) including a coupling flange provided with a plurality of slots; and a key arranged between said component (36, 38) and said anchor mount, said key extending into the slots of the flange of the anchor mount and the slots of the coupling flange of the component (36, 38), wherein the slots of the coupling flange of the component (36, 38) are arranged at the same intervals as those of the flange of the anchor mount.
A mitral valve replacement system including an anchoring structure (100; 120; 150; 180; 190; 210; 450; 740; 802) received adjacent a native mitral valve and an artificial valve (543; 820) received by the anchoring structure, the mitral valve replacement system characterized by: the anchoring structure including commissural elements (106; 125; 140; 184; 202, 204; 212; 744) configured to engage commissural clefts in the native mitral valve to position the anchoring structure relative to the native mitral valve such that the commissural elements extend between leaflets of the native mitral valve without interfering with their functions, wherein the anchoring structure (100; 120; 150; 180; 190; 210; 450; 740; 802) is sized and shaped to be implanted at a mitral valve annulus without reshaping the mitral valve annulus and the anchoring structure (100; 120; 150; 180; 190; 210; 450; 740; 802) defines a supra-annular ring sized and shaped to be placed at the mitral valve annulus, the anchoring structure (100; 120; 150; 180; 190; 210; 450; 740; 802) further including a projection configured to engage the mitral valve annulus along a posterior leaflet of the native mitral valve; and wherein the artificial valve (543; 820) is sealingly engaged with the anchoring structure. the anchoring structure including commissural elements (106; 125; 140; 184; 202, 204; 212; 744) configured to engage commissural clefts in the native mitral valve to position the anchoring structure relative to the native mitral valve such that the commissural elements extend between leaflets of the native mitral valve without interfering with their functions, wherein the anchoring structure (100; 120; 150; 180; 190; 210; 450; 740; 802) is sized and shaped to be implanted at a mitral valve annulus without reshaping the mitral valve annulus and the anchoring structure (100; 120; 150; 180; 190; 210; 450; 740; 802) defines a supra-annular ring sized and shaped to be placed at the mitral valve annulus, the anchoring structure (100; 120; 150; 180; 190; 210; 450; 740; 802) further including a projection configured to engage the mitral valve annulus along a posterior leaflet of the native mitral valve; and wherein the artificial valve (543; 820) is sealingly engaged with the anchoring structure.
A method for wireless communication at a user equipment, comprising: semi-statically receiving configuration information including a set of demodulation reference signal, DMRS, patterns and a set of channel state information reference signal, CSI-RS, resources, wherein the set of CSI-RS resources comprises at least one non-zero-power, NZP, resource; identifying the set of DMRS patterns, the set of CSI-RS resources, and a mapping between the set of DMRS patterns and the set of CSI-RS resources that are associated with the set of DMRS patterns; receiving downlink control information, DCI, indicating one or more DMRS patterns of the set of DMRS patterns; determining, based at least in part on the mapping and the indicated one or more DMRS patterns, one or more CSI-RS resources of the set of CSI-RS resources; and receiving a DMRS and a CSI-RS based at least in part on the one or more DMRS patterns indicated by the received DCI and the determined one or more CSI-RS resources, wherein the resources selected for CSI-RS and DMRS transmissions do not overlap based on the mapping between the set of DMRS patterns and the set of CSI-RS resources. semi-statically receiving configuration information including a set of demodulation reference signal, DMRS, patterns and a set of channel state information reference signal, CSI-RS, resources, wherein the set of CSI-RS resources comprises at least one non-zero-power, NZP, resource; identifying the set of DMRS patterns, the set of CSI-RS resources, and a mapping between the set of DMRS patterns and the set of CSI-RS resources that are associated with the set of DMRS patterns; receiving downlink control information, DCI, indicating one or more DMRS patterns of the set of DMRS patterns; determining, based at least in part on the mapping and the indicated one or more DMRS patterns, one or more CSI-RS resources of the set of CSI-RS resources; and receiving a DMRS and a CSI-RS based at least in part on the one or more DMRS patterns indicated by the received DCI and the determined one or more CSI-RS resources, wherein the resources selected for CSI-RS and DMRS transmissions do not overlap based on the mapping between the set of DMRS patterns and the set of CSI-RS resources.
A luminaire comprising: a driver assembly (11,30) vertically integrated with a light emitting diode assembly, the driver assembly (11,30) comprising a driver heatsink (13,31) having an interior in which a circuit board assembly is positioned, and the LED assembly comprising an array of light emitting diodes and LED heatsink, the LED heat sink encircling a portion of the driver heat sink characterized in that an endplate of the driver assembly (11,31) includes one or more structures which engage with the LED assembly and a barrier (18,23) is positioned between the driver heat sink (13,31) and the LED heat sink separating convective cooling of the driver assembly (11,31) from convective cooling of the LED assembly. a driver assembly (11,30) vertically integrated with a light emitting diode assembly, the driver assembly (11,30) comprising a driver heatsink (13,31) having an interior in which a circuit board assembly is positioned, and the LED assembly comprising an array of light emitting diodes and LED heatsink, the LED heat sink encircling a portion of the driver heat sink characterized in that an endplate of the driver assembly (11,31) includes one or more structures which engage with the LED assembly and a barrier (18,23) is positioned between the driver heat sink (13,31) and the LED heat sink separating convective cooling of the driver assembly (11,31) from convective cooling of the LED assembly.
A communication apparatus comprising: a data generating unit adapted to generate write data to be sent to an other communication apparatus at an arbitrary timing; a communication unit adapted to repeatedly send a read request to the other communication apparatus by modulating an electromagnetic signal until the write data is generated and repeatedly receive a read response sent from the other communication apparatus by load-modulating the electromagnetic signal in response to the read request; and a data acquisition unit adapted to acquire read data, which is sent along with the read response by the other communication apparatus, wherein the other communication apparatus sends the read response as well as the read data to the communication apparatus when the generation of the read data is completed upon receiving the read request, and sends the read response to the communication apparatus when the generation of the read data is not completed. a data generating unit adapted to generate write data to be sent to an other communication apparatus at an arbitrary timing; a communication unit adapted to repeatedly send a read request to the other communication apparatus by modulating an electromagnetic signal until the write data is generated and repeatedly receive a read response sent from the other communication apparatus by load-modulating the electromagnetic signal in response to the read request; and a data acquisition unit adapted to acquire read data, which is sent along with the read response by the other communication apparatus, wherein the other communication apparatus sends the read response as well as the read data to the communication apparatus when the generation of the read data is completed upon receiving the read request, and sends the read response to the communication apparatus when the generation of the read data is not completed.
A purifying device, characterized by comprising: an air guiding part provided with an air passage; a negative ion generator, characterized in that: the negative ion generator comprises an emitting head; the emitting head is arranged to face the air passage; the air guiding part is provided with a first position limiting structure disposed on an inner wall of the air passage; and the first position limiting structure is provided with a position limiting groove configured to receive the emitting head; and an air guiding cover, arranged on a top of the inner wall of the air passage and configured to press and cover the position limiting groove, the inner wall of the air passage being configured to support the air guiding cover. an air guiding part provided with an air passage; a negative ion generator, characterized in that: the negative ion generator comprises an emitting head; the emitting head is arranged to face the air passage; the air guiding part is provided with a first position limiting structure disposed on an inner wall of the air passage; and the first position limiting structure is provided with a position limiting groove configured to receive the emitting head; and an air guiding cover, arranged on a top of the inner wall of the air passage and configured to press and cover the position limiting groove, the inner wall of the air passage being configured to support the air guiding cover.