mhurhangee/ep-ind-claims huggingface dataset:
A wound dressing comprising an absorbent body that is laminated to, or is in intimate contact with, a perforated film comprising honey, wherein the film is formed with a regular array of perforations and, in use, is exposed to a wound to which the dressing is applied, such that exudate from the wound passes through perforations in the film and is absorbed by the absorbent body, and wherein the film dissolves upon exposure to wound exudate, thereby releasing the honey.
A method used in a User Equipment, UE, for transmitting a Hybrid Automatic Repeat Request, HARQ, feedback, the method comprising steps of: receiving DownLink, DL, data from a Base Station, BS,; determining an UpLink, UL, control channel position for transmitting the HARQ feedback based on one or more DL Resource Blocks, RBs, allocated to the UE; transmitting the HARQ feedback on the determined UL control channel position, wherein the UL control channel position is determined based on: HARQ idx = ⌊ RB idx P RBG ⌋ × K + offset, wherein HARQ idx indicates an index of the UL control channel position, P RBG represents the number of RBs forming a Resource Block Group, RBG, wherein there are more than one RBGs, RB idx indicates an index of a RB in the one or more DL RBs allocated to the UE, └*┘ represents a floor operator, K is the number of UL control channel positions corresponding to one RBG, and offset denotes an offset of HARQ idx including a first offset, and wherein the method further comprises: receiving Downlink Control Information, DCI, from the BS; determining a DL RB resource allocation scheme for the DL data from the received DCI; and determining RB idx, and the first offset based on the DL RB resource allocation scheme. receiving DownLink, DL, data from a Base Station, BS,; determining an UpLink, UL, control channel position for transmitting the HARQ feedback based on one or more DL Resource Blocks, RBs, allocated to the UE; transmitting the HARQ feedback on the determined UL control channel position, wherein the UL control channel position is determined based on: HARQ idx = ⌊ RB idx P RBG ⌋ × K + offset, wherein HARQ idx indicates an index of the UL control channel position, P RBG represents the number of RBs forming a Resource Block Group, RBG, wherein there are more than one RBGs, RB idx indicates an index of a RB in the one or more DL RBs allocated to the UE, └*┘ represents a floor operator, K is the number of UL control channel positions corresponding to one RBG, and offset denotes an offset of HARQ idx including a first offset, and wherein the method further comprises: receiving Downlink Control Information, DCI, from the BS; determining a DL RB resource allocation scheme for the DL data from the received DCI; and determining RB idx, and the first offset based on the DL RB resource allocation scheme.
A laser-based distance measuring device comprising: a phase-based laser transmitting and receiving module; an eye-safe pulse-based laser transmitter for directing laser energy toward said target; a pulse-based laser receiver for receiving reflected laser energy from said target; an optical aiming system aligned with said pulse-based laser transmitter for directing pulses of laser energy produced by said pulse-based laser transmitting toward a target; a view-through display superimposed on said optical aiming system; and a processor coupled to said phase-based laser transmitting and receiving module, said eye-safe pulse-based laser transmitter and receiver and said display for providing an indication of a distance between said device and said target. a phase-based laser transmitting and receiving module; an eye-safe pulse-based laser transmitter for directing laser energy toward said target; a pulse-based laser receiver for receiving reflected laser energy from said target; an optical aiming system aligned with said pulse-based laser transmitter for directing pulses of laser energy produced by said pulse-based laser transmitting toward a target; a view-through display superimposed on said optical aiming system; and a processor coupled to said phase-based laser transmitting and receiving module, said eye-safe pulse-based laser transmitter and receiver and said display for providing an indication of a distance between said device and said target.
A method implemented by a communication device, the method comprising: while conducting a first call of a first call type with the communication device, wherein the first call is between the communication device and an other communication device, displaying a call progress user interface for the first call of the first call type and determining whether it is possible to seamlessly transition to a second call of a second call type, wherein determining whether it is possible to seamlessly transition comprises determining whether a communication application of the second call type is available at the communication device and the other communication device supports calls of the second call type before requesting consent from the other communication device; before requesting consent from the other communication device, responsive to determining that it is possible to seamlessly transition to the second call of the second call type, presenting a user interface option at the communication device in the call progress user interface for the first call of the first call type to seamlessly transition to the second call of the second call type; depicting the user interface option as disabled in the call progress user interface for the first call of the first call type when it is determined not possible to seamlessly transition to the second call of the second call type; and responsive to activation of the user interface option, seamlessly transitioning to the second call of the second call type. while conducting a first call of a first call type with the communication device, wherein the first call is between the communication device and an other communication device, displaying a call progress user interface for the first call of the first call type and determining whether it is possible to seamlessly transition to a second call of a second call type, wherein determining whether it is possible to seamlessly transition comprises determining whether a communication application of the second call type is available at the communication device and the other communication device supports calls of the second call type before requesting consent from the other communication device; before requesting consent from the other communication device, responsive to determining that it is possible to seamlessly transition to the second call of the second call type, presenting a user interface option at the communication device in the call progress user interface for the first call of the first call type to seamlessly transition to the second call of the second call type; depicting the user interface option as disabled in the call progress user interface for the first call of the first call type when it is determined not possible to seamlessly transition to the second call of the second call type; and responsive to activation of the user interface option, seamlessly transitioning to the second call of the second call type.
An obstacle touching detecting device for a swimming pool cleaner, wherein the obstacle touching detecting device is configured to detect whether an obstacle is met when cleaning work is performed and is configured to be disposed in a main functional portion of the swimming pool cleaner, said swimming pool cleaner comprising a cleaner main body, a controller module and a power-driven actuating device wherein the obstacle touching detecting device for a swimming pool cleaner comprises an obstacle touching sensor, the obstacle touching sensor comprises a trigger unit device and a sensor detecting module, the trigger unit device is connectable to the cleaner main body, the sensor detecting module is electrically connectable to the controller module, the controller module is electrically connectable to the power-driven actuating device, and the trigger unit device is operatively connected with the sensor detecting module and is configured to trigger the sensor detecting module to generate a detection signal, the trigger unit device comprises at least one resistance plate (11, 11-1, 11-2) characterized in that the resistance plate (11, 11-1, 11-2) is configured to move toward the direction opposite to the moving direction under the resistance of the water. said swimming pool cleaner comprising a cleaner main body, a controller module and a power-driven actuating device wherein the obstacle touching detecting device for a swimming pool cleaner comprises an obstacle touching sensor, the obstacle touching sensor comprises a trigger unit device and a sensor detecting module, the trigger unit device is connectable to the cleaner main body, the sensor detecting module is electrically connectable to the controller module, the controller module is electrically connectable to the power-driven actuating device, and the trigger unit device is operatively connected with the sensor detecting module and is configured to trigger the sensor detecting module to generate a detection signal, the trigger unit device comprises at least one resistance plate (11, 11-1, 11-2) characterized in that the resistance plate (11, 11-1, 11-2) is configured to move toward the direction opposite to the moving direction under the resistance of the water.
A particulate material consisting of a plurality of composite particles, wherein the composite particles comprise: (a) a porous carbon framework comprising micropores and mesopores, • wherein the micropores and mesopores have a total pore volume of P 1 cm 3 /g, wherein P 1 represents a dimensionless number having a value of from 0.4 to 0.75, as measured by nitrogen gas adsorption at 77 K using QSDFT in accordance with ISO 15901-2 and ISO 15901-3, and • wherein the micropore volume fraction is in the range of 0.5 to 0.85, based on the total volume of micropores and mesopores; and (b) a plurality of nanoscale elemental silicon domains located within the pores of the porous carbon framework; wherein the weight ratio of silicon to the porous carbon framework in the composite particles is in the range of from [0.9×P 1 to 1.9×P 1]: 1. (a) a porous carbon framework comprising micropores and mesopores, • wherein the micropores and mesopores have a total pore volume of P 1 cm 3 /g, wherein P 1 represents a dimensionless number having a value of from 0.4 to 0.75, as measured by nitrogen gas adsorption at 77 K using QSDFT in accordance with ISO 15901-2 and ISO 15901-3, and • wherein the micropore volume fraction is in the range of 0.5 to 0.85, based on the total volume of micropores and mesopores; and • wherein the micropores and mesopores have a total pore volume of P 1 cm 3 /g, wherein P 1 represents a dimensionless number having a value of from 0.4 to 0.75, as measured by nitrogen gas adsorption at 77 K using QSDFT in accordance with ISO 15901-2 and ISO 15901-3, and • wherein the micropore volume fraction is in the range of 0.5 to 0.85, based on the total volume of micropores and mesopores; and (b) a plurality of nanoscale elemental silicon domains located within the pores of the porous carbon framework;
A composite film comprising a polyamide substrate layer having a first and second surface; a primer coating layer disposed on the first surface of the substrate layer, wherein the primer coating layer is derived from a composition comprising an acid copolymer resin, an organic crosslinker and an acid catalyst; and a heat-sealable polymeric coating layer disposed on the primer coating layer.
A method of coating substantially spherical particles comprising a beta-blocker compound where the pellets are substantially free of surface defects, with a membrane forming coating to provide a membrane on said substantially spherical particles that controls the release of the active compound from said substantially spherical particle, said method comprising the following steps: (a) determining the surface area of a weighed sample of said substantially spherical particles comprising a beta-blocker compound in a first batch of substantially spherical particles based on the particle size distribution and density; (b) determining the weight of coating material per surface area unit of said substantially spherical particles that will provide a coating level of a composition for said substantially spherical particles of step (a) that will provide a desired release profile in vivo; (c) determining the surface area of a new batch of substantially spherical particles containing the same active compound that was contained in the substantially spherical particles that were coated in step (b); (d) coating said new batch of substantially spherical particles with the coating applied in step (b) to provide a coating on said new batch of substantially spherical particles, wherein said coating on said new batch of spherical particles has the substantially the same weight of coating material per surface area unit of substantially spherical particles as determined in step (b). (a) determining the surface area of a weighed sample of said substantially spherical particles comprising a beta-blocker compound in a first batch of substantially spherical particles based on the particle size distribution and density; (b) determining the weight of coating material per surface area unit of said substantially spherical particles that will provide a coating level of a composition for said substantially spherical particles of step (a) that will provide a desired release profile in vivo; (c) determining the surface area of a new batch of substantially spherical particles containing the same active compound that was contained in the substantially spherical particles that were coated in step (b); (d) coating said new batch of substantially spherical particles with the coating applied in step (b) to provide a coating on said new batch of substantially spherical particles, wherein said coating on said new batch of spherical particles has the substantially the same weight of coating material per surface area unit of substantially spherical particles as determined in step (b).
A method for selecting a consensus node from multiple nodes on a blockchain, the method comprising: obtaining an equity interest voting result of a shareholder node for at least one expected node, wherein the shareholder node comprises a node that owns at least one of predetermined total shares and wherein an expected node comprises a node that the shareholder node votes for; determining, based on the equity interest voting result, a number of shares owned by each shareholder node after equity interest voting; and determining a consensus node selection result based on the number of shares owned by each shareholder node after equity interest voting, the method being characterised by further comprising, if the shareholder nodes comprise multiple nodes that own the same number of shares after equity interest voting: selecting a consensus node from the multiple nodes that own the same number of shares based on a time sequence of generated root certificates for the multiple nodes that own the same number of shares after equity interest voting, wherein a root certificate for a node comprises: data information used to prove the node is valid, and information representing the time the root certificate was generated. obtaining an equity interest voting result of a shareholder node for at least one expected node, wherein the shareholder node comprises a node that owns at least one of predetermined total shares and wherein an expected node comprises a node that the shareholder node votes for; determining, based on the equity interest voting result, a number of shares owned by each shareholder node after equity interest voting; and determining a consensus node selection result based on the number of shares owned by each shareholder node after equity interest voting, the method being characterised by further comprising, if the shareholder nodes comprise multiple nodes that own the same number of shares after equity interest voting: selecting a consensus node from the multiple nodes that own the same number of shares based on a time sequence of generated root certificates for the multiple nodes that own the same number of shares after equity interest voting, wherein a root certificate for a node comprises: data information used to prove the node is valid, and information representing the time the root certificate was generated. data information used to prove the node is valid, and information representing the time the root certificate was generated.
A beam training method, comprising: sending, by an initiator, beam training indication information, wherein the beam training indication information comprises: identification information of one or more responders that participate in beam training, and either or both of information about resources allocated to the one or more responders and information about training sequences allocated to the one or more responders, wherein the identification information is a wildcard character, wherein the wildcard character denotes that the initiator does not specify a responder that is to participate in uplink beam training; receiving, by the initiator, uplink training signals sent based on the beam training indication information by the one or more responders that participate in beam training, wherein the receiving, by the initiator, uplink training signals sent based on the beam training indication information by the one or more responders that participate in beam training comprises: receiving, by the initiator, a temporary identifier of a responder, out of the one or more responders, that determines to perform beam training based on the beam training indication information; and sending, by the initiator, training feedback information, wherein the training feedback information comprises information about beams selected for the one or more responders, wherein the beams selected for the one or more responders are beams selected by the initiator and used by the one or more responders. sending, by an initiator, beam training indication information, wherein the beam training indication information comprises: identification information of one or more responders that participate in beam training, and either or both of information about resources allocated to the one or more responders and information about training sequences allocated to the one or more responders, wherein the identification information is a wildcard character, wherein the wildcard character denotes that the initiator does not specify a responder that is to participate in uplink beam training; receiving, by the initiator, uplink training signals sent based on the beam training indication information by the one or more responders that participate in beam training, wherein the receiving, by the initiator, uplink training signals sent based on the beam training indication information by the one or more responders that participate in beam training comprises: receiving, by the initiator, a temporary identifier of a responder, out of the one or more responders, that determines to perform beam training based on the beam training indication information; and sending, by the initiator, training feedback information, wherein the training feedback information comprises information about beams selected for the one or more responders, wherein the beams selected for the one or more responders are beams selected by the initiator and used by the one or more responders.
A method for coating a rubber substrate, comprising: exposing the rubber substrate to a first cationic solution to produce a first cationic layer on the rubber substrate; exposing the first cationic layer to a first anionic solution to produce a first anionic layer on the first cationic layer; exposing the first anionic layer to a second cationic solution to produce a second cationic layer on the first anionic layer; and exposing the second cationic layer to a second anionic solution to produce a second anionic layer on the second cationic layer, wherein a quadlayer comprises the first cationic layer, the first anionic layer, the second cationic layer, and the second anionic layer, and further wherein the coating comprises the quadlayer, wherein the rubber substrate comprises a portion of a tire. exposing the rubber substrate to a first cationic solution to produce a first cationic layer on the rubber substrate; exposing the first cationic layer to a first anionic solution to produce a first anionic layer on the first cationic layer; exposing the first anionic layer to a second cationic solution to produce a second cationic layer on the first anionic layer; and exposing the second cationic layer to a second anionic solution to produce a second anionic layer on the second cationic layer, wherein a quadlayer comprises the first cationic layer, the first anionic layer, the second cationic layer, and the second anionic layer, and further wherein the coating comprises the quadlayer,
A hydraulic system which is configured as a closed circuit system, wherein the hydraulic system comprises at least one hydraulic motor assembly and a hydraulic fluid reservoir hydraulically coupled to this hydraulic motor assembly (11, 11a, 11b), wherein a deaeration device for deaerating a hydraulic fluid is associated with the at least one hydraulic motor assembly (11, 11a, 11b), wherein the deaeration device has a suction means configured as a Venturi nozzle in order to aspirate the hydraulic fluid of the at least one hydraulic motor assembly (11, 11a, 11b), wherein the suction means removes hydraulic fluid from the at least one hydraulic motor assembly (11, 11a, 11b) integrated into at least one motor housing through a return line into the hydraulic fluid reservoir by means of a partial vacuum (Δp), characterized in that a supply of pre-pressurized scavenging oil of the at least one hydraulic motor assembly (11, 11a, 11b) is provided through a branch line as the working medium of the suction means, wherein a pilot-controlled pressure limiting valve is disposed in the branch line and is connected to the motor housing by a signal line, wherein the partial vacuum (Δp) in the motor housing serves to control the pressure limiting valve.
A pharmaceutical combination for use in treating lymphoma comprising a therapeutically effective amount of a histone deacetylase 6 (HDAC6) specific inhibitor or a pharmaceutically acceptable salt thereof, and an immunomodulatory drug (IMiD) or a pharmaceutically acceptable salt thereof, wherein the HDAC6 specific inhibitor is a compound of Formula I: or a pharmaceutically acceptable salt thereof, wherein, ring B is aryl or heteroaryl; R 1 is an aryl or heteroaryl, each of which may be optionally substituted by OH, halo, or C 1-6- alkyl; and R is H or C 1-6- alkyl; and wherein the immunomodulatory drug is a compound of Formula III: or a pharmaceutically acceptable salt thereof, wherein, one of X and Y is C=O, the other of X and Y is CH 2 or C=O; and R 2 is H or C 1-6- alkyl.
Attenuated strain of the Porcine Reproductive and Respiratory Syndrome (PRRS) virus deposited under the Budapest Treaty at the Collection Nationale de Cultures de Micro-organismes (CNCM), with n. CNCM 1-4859 on June 5, 2014.