mhurhangee/ep-ind-claims huggingface dataset:
Method for transmitting data from at least one secondary station to at least one primary station along a segmented path, wherein two abutting segments are each connected by a node (103, 104, 105), and wherein the path has at least three segments with at least two nodes (103, 104, 105), characterized in that - the data of the secondary station are split into N data packets (106, 107, 108), N being the number of nodes (103, 104, 105), - the data packets (106, 107, 108) are distinguishably marked, each marking corresponding to a particular node (103, 104, 105) of the path, - each data packet (106, 107, 108) is forwarded along the path only to the respective adjacent node (103, 104, 105) or the respective adjacent station, - in each node (103, 104, 105), upon receipt of a data packet, a check is carried out in order to ascertain whether the marking of the packet corresponds to the respective node (103, 104, 105), and, if so, data from the node (103, 104, 105) are added to the data packet (106, 107, 108), - the data packets containing the data from the nodes (103, 104, 105) are gathered in the primary station, - and the data transmission is deemed to be successfully concluded once all N data packets (106, 107, 108) containing data from all N nodes (103, 104, 105) are present. - the data of the secondary station are split into N data packets (106, 107, 108), N being the number of nodes (103, 104, 105), - the data packets (106, 107, 108) are distinguishably marked, each marking corresponding to a particular node (103, 104, 105) of the path, - each data packet (106, 107, 108) is forwarded along the path only to the respective adjacent node (103, 104, 105) or the respective adjacent station, - in each node (103, 104, 105), upon receipt of a data packet, a check is carried out in order to ascertain whether the marking of the packet corresponds to the respective node (103, 104, 105), and, if so, data from the node (103, 104, 105) are added to the data packet (106, 107, 108), - the data packets containing the data from the nodes (103, 104, 105) are gathered in the primary station, - and the data transmission is deemed to be successfully concluded once all N data packets (106, 107, 108) containing data from all N nodes (103, 104, 105) are present.
A method of measuring a trajectory of a vehicle, the method comprising - determining a first estimate of the trajectory from measurements that provide temporally localized indications of position changes of the vehicle; - capturing images from the vehicle along the trajectory; - searching for images with matching content to detect closure of a loop in the trajectory and to determine a first and second time point at the start and end of the detected loop; characterized in - computing a measure of curvature of the trajectory as a function of time at least between the first and second time point - determining a second estimate of the trajectory with corrections of position changes in the first estimate, to make the second estimate consistent with the detected loop, said determining the second estimate comprising distributing the corrections of the position changes over a time interval between the first and second time point, with a distribution density at least partly controlled by the measure of curvature. - determining a first estimate of the trajectory from measurements that provide temporally localized indications of position changes of the vehicle; - capturing images from the vehicle along the trajectory; - searching for images with matching content to detect closure of a loop in the trajectory and to determine a first and second time point at the start and end of the detected loop; - computing a measure of curvature of the trajectory as a function of time at least between the first and second time point - determining a second estimate of the trajectory with corrections of position changes in the first estimate, to make the second estimate consistent with the detected loop, said determining the second estimate comprising distributing the corrections of the position changes over a time interval between the first and second time point, with a distribution density at least partly controlled by the measure of curvature.
A crane, in particular a revolving tower crane, having a hoist rope that runs off from a crane boom and carries a load suspension means; having drive devices for moving a plurality of crane elements and for traveling the load suspension means; having a control device for controlling the drive devices such that the load suspension means travels along a travel path; and having an oscillation damping device for damping oscillating movements of the load suspension means and/or of the hoist rope, wherein the oscillation damping device has an oscillation sensor system for detecting oscillating movements of the hoist rope and/or of the load suspension means and has a regulator module having a closed feedback loop for influencing the control of the drive devices in dependence on a oscillation signal of the oscillation sensor system fed back to the feedback loop, characterized in that the oscillation damping device has a structural dynamics sensor system for detecting deformations and/or dynamic movements in themselves of structural components of the crane; and in that the regulator module of the oscillation damping device is configured to take account of both the oscillation signal of the oscillation sensor system and the structural dynamics signals fed back to the feedback loop that indicate deformations and/or dynamic movements in themselves of the structural components on the influencing of the control of the drive devices, with the structural dynamics sensor system being configured to determine dynamic torsions of a crane tower carrying the crane boom and/or of the crane boom; and with the regulator module of the oscillation damping device being configured to influence the control of the drive devices in dependence on the detected dynamic torsions of the crane boom and/or of the crane tower.
An audio processing method, comprising: receiving, with one or more sensors of a device, environment information about an audio recording captured by the device; detecting, with at least one processor of the device, a context of the audio recording based on the audio recording and the environment information; determining, with the at least one processor, a model based on the context; processing, with the at least one processor, the audio recording based on the model to produce a processed audio recording with suppressed noise; characterised in that: determining, with the at least one processor, an audio processing profile based on the context, wherein the audio processing profile includes at least a mixing ratio for mixing the audio recording with the processed audio recording and wherein the mixing ratio is controlled at least in part based on the context; and combining, with the at least one processor, the audio recording and the processed audio recording based on the mixing ratio. receiving, with one or more sensors of a device, environment information about an audio recording captured by the device; detecting, with at least one processor of the device, a context of the audio recording based on the audio recording and the environment information; determining, with the at least one processor, a model based on the context; processing, with the at least one processor, the audio recording based on the model to produce a processed audio recording with suppressed noise; characterised in that: determining, with the at least one processor, an audio processing profile based on the context, wherein the audio processing profile includes at least a mixing ratio for mixing the audio recording with the processed audio recording and wherein the mixing ratio is controlled at least in part based on the context; and combining, with the at least one processor, the audio recording and the processed audio recording based on the mixing ratio. determining, with the at least one processor, an audio processing profile based on the context, wherein the audio processing profile includes at least a mixing ratio for mixing the audio recording with the processed audio recording and wherein the mixing ratio is controlled at least in part based on the context; and combining, with the at least one processor, the audio recording and the processed audio recording based on the mixing ratio.
A method for manufacturing a dopant layer of a solar cell, the method comprising: ion-implanting a dopant to a substrate; and heat-treating for an activation of the dopant, wherein the heat-treating for the activation comprises: forming an anti-out-diffusion film at a temperature under a first gas atmosphere; and heat-treating the substrate at a first temperature higher than the temperature of the forming the anti-out-diffusion film under a second gas atmosphere different from the first gas atmosphere, wherein the first gas atmosphere comprises oxygen, and the anti-out-diffusion film comprises an oxide film, wherein nitrogen is supplied with the oxygen during the forming the anti-out-diffusion film, wherein the second gas atmosphere comprises nitrogen, wherein the forming the anti-out-diffusion film and the heat-treating the substrate are performed by an in-situ process. ion-implanting a dopant to a substrate; and heat-treating for an activation of the dopant, wherein the heat-treating for the activation comprises: forming an anti-out-diffusion film at a temperature under a first gas atmosphere; and heat-treating the substrate at a first temperature higher than the temperature of the forming the anti-out-diffusion film under a second gas atmosphere different from the first gas atmosphere, wherein the first gas atmosphere comprises oxygen, and the anti-out-diffusion film comprises an oxide film, wherein nitrogen is supplied with the oxygen during the forming the anti-out-diffusion film, wherein the second gas atmosphere comprises nitrogen, wherein the forming the anti-out-diffusion film and the heat-treating the substrate are performed by an in-situ process. forming an anti-out-diffusion film at a temperature under a first gas atmosphere; and heat-treating the substrate at a first temperature higher than the temperature of the forming the anti-out-diffusion film under a second gas atmosphere different from the first gas atmosphere, wherein the first gas atmosphere comprises oxygen, and the anti-out-diffusion film comprises an oxide film, wherein nitrogen is supplied with the oxygen during the forming the anti-out-diffusion film, wherein the second gas atmosphere comprises nitrogen, wherein the forming the anti-out-diffusion film and the heat-treating the substrate are performed by an in-situ process.
Frame for conveyor belts comprising at least one base element, and at least one substantially flat structure supported by said at least one base element; wherein said at least one substantially flat structure is projecting with respect to said at least one base element and is open on one of its sides through which said at least one conveyor belt can be introduced/removed, and wherein said at least one conveyor belt is close to at least one of the flat faces of said at least one substantially flat structure in the service position, wherein the frame comprises a plurality of upper transverse elements and a plurality of lower transverse elements located perpendicular to the direction of movement at each point of said conveyor belt and at two height levels, a plurality of vertical elements coupled respectively at the end of each pair of transverse elements (32a, 32b), located in one and the same vertical plane such that they define a C-shaped sub-structure open at one of its ends through which said at least one conveyor belt can be introduced/removed, wherein the upper transverse elements coupled at the upper end of said vertical elements allow the sliding of said at least one conveyor belt over them and define the substantially flat structure, and wherein the lower transverse elements coupled at the lower end of said vertical elements allow supporting the sliding of said at least one conveyor belt over them and define a lower sub-structure, characterized in that at least one enveloping cover is located on an upper side of the substantially flat structure, and wherein said at least one enveloping cover comprises a lifting device for said at least one enveloping cover, allowing the placement/removal of said at least one conveyor belt without needing to remove said at least one enveloping cover.
Method of operating a wind turbine in steady state conditions as a function of a wind speed, the wind turbine having a rotor with a plurality of blades, and one or more pitch mechanisms for rotating the blades around their rotational axes, a generator, and a system for varying a torque of the generator, and wherein each of the blades comprises one or more local aerodynamic actuators and the method comprising a sub-nominal zone of operation for wind speeds below a nominal wind speed and a supra-nominal zone of operation for wind speeds at or above the nominal wind speed, and wherein the sub-nominal zone of operation comprises a first operational range which extends from a cut-in wind speed to a first wind speed, a second operational range extending from the first wind speed to a second wind speed, and a third operational range extending from the second wind speed to the nominal wind speed, wherein in the second operational range, the system for varying the torque of the generator is controlled to maintain a tip speed ratio of the rotor constant and the local aerodynamic actuators are not activated, characterized in that in the third operational range, the local aerodynamic actuators are used to increase the lift of the blade, and/or wherein in the first operational range, the local aerodynamic actuators are used to decrease the lift of the blade. each of the blades comprises one or more local aerodynamic actuators and the method comprising a sub-nominal zone of operation for wind speeds below a nominal wind speed and a supra-nominal zone of operation for wind speeds at or above the nominal wind speed, and wherein the sub-nominal zone of operation comprises a first operational range which extends from a cut-in wind speed to a first wind speed, a second operational range extending from the first wind speed to a second wind speed, and a third operational range extending from the second wind speed to the nominal wind speed, wherein in the second operational range, the system for varying the torque of the generator is controlled to maintain a tip speed ratio of the rotor constant and the local aerodynamic actuators are not activated,
A method for wireless communication performed by a first user equipment, UE, the method comprising: identifying a set of synchronization carriers that are configured for the first UE used for synchronizing the first UE; identifying one or more frequency carriers used to establish sidelink communication with one or more second UEs; determining a subset of synchronization carriers from the set of synchronization carriers based on identification of the one or more frequency carriers used to establish sidelink communication between the first UE and the one or more second UEs; determining a synchronization source for each synchronization carrier in the subset of synchronization carriers; and establishing sidelink communication between the first UE and the one or more second UEs over the one or more frequency carriers based on a timing and frequency synchronization provided by the synchronization source. identifying a set of synchronization carriers that are configured for the first UE used for synchronizing the first UE; identifying one or more frequency carriers used to establish sidelink communication with one or more second UEs; determining a subset of synchronization carriers from the set of synchronization carriers based on identification of the one or more frequency carriers used to establish sidelink communication between the first UE and the one or more second UEs; determining a synchronization source for each synchronization carrier in the subset of synchronization carriers; and establishing sidelink communication between the first UE and the one or more second UEs over the one or more frequency carriers based on a timing and frequency synchronization provided by the synchronization source.
A Time Division Multiple Access (TDMA) access method based on multiple access points, characterized in that the method comprises the following steps: a multi-AP access device is commanded as the time source of the whole network and a station utilizes beacon frames broadcasted by the multi-AP access device to perform time synchronization; the multi-AP access device containing n access points (AP1, AP2 APn) is divided into k groups, and 1≤k≤n; according to the quantity j of the APs within any group B i ={AP i1, AP i2,...AP ij}, super-frames with length of m are divided into k sub-super-frames, in which the i th sub-super-frame corresponds to the group B i; within the corresponding i th sub-super-frame of the group B i, time slots are reserved from the i th sub-super-frame and the quantity of the reserved time slots is equal to the quantity j of the APs in the group B i; with regard to the AP ij within any group B i (1≤i≤k), if Formula Absolute time Slot Number %m=(m/k)*(i-1)+j is true, the AP ij broadcasts the beacon frame within the time slot ASN, or else does not make any response; and the ASN is the present absolute time slot number and is counted from 1. a multi-AP access device is commanded as the time source of the whole network and a station utilizes beacon frames broadcasted by the multi-AP access device to perform time synchronization; the multi-AP access device containing n access points (AP1, AP2 APn) is divided into k groups, and 1≤k≤n; according to the quantity j of the APs within any group B i ={AP i1, AP i2,...AP ij}, super-frames with length of m are divided into k sub-super-frames, in which the i th sub-super-frame corresponds to the group B i; within the corresponding i th sub-super-frame of the group B i, time slots are reserved from the i th sub-super-frame and the quantity of the reserved time slots is equal to the quantity j of the APs in the group B i; with regard to the AP ij within any group B i (1≤i≤k), if Formula Absolute time Slot Number %m=(m/k)*(i-1)+j is true, the AP ij broadcasts the beacon frame within the time slot ASN, or else does not make any response; and the ASN is the present absolute time slot number and is counted from 1.
A pharmaceutical composition for the use in treating sexual dysfunction in a human, wherein the sexual dysfunction is arousal disorder and/or orgasmic disorder, composition comprising one or more dosage forms configured to deliver: a cannabinoid component comprised of at least one of 5 mg to 500 mg of tetrahydrocannabinol or 5 mg to 500 mg of cannabidiol; and a therapeutically effective amount of a sexual response enhancing component selected from the group consisting of sildenafil, tadalafil, and vardenafil. a cannabinoid component comprised of at least one of 5 mg to 500 mg of tetrahydrocannabinol or 5 mg to 500 mg of cannabidiol; and a therapeutically effective amount of a sexual response enhancing component selected from the group consisting of sildenafil, tadalafil, and vardenafil.
A two-component urethane-based composition, comprising: an ester-based polyol resin-containing main composition part; a polyisocyanate-containing curing agent composition part; a filler; and a phosphoric acid ester-based anionic dispersant, wherein the phosphoric acid ester-based anionic dispersant is contained in an amount of 1 part by weight or more and less than 20 parts by weight relative to 100 parts by weight of the sum of the ester-based polyol resin and the polyisocyanate. an ester-based polyol resin-containing main composition part; a polyisocyanate-containing curing agent composition part; a filler; and a phosphoric acid ester-based anionic dispersant, wherein the phosphoric acid ester-based anionic dispersant is contained in an amount of 1 part by weight or more and less than 20 parts by weight relative to 100 parts by weight of the sum of the ester-based polyol resin and the polyisocyanate.
A composition comprising rubisco and a hydrophilic polymer, wherein the hydrophilic polymer is present at a concentration of less than about 0.1% (w/w) and wherein the hydrophilic polymer comprises polyethylene glycol, butylene glycol, hexylene glycol, glycerin, diglycerin, diethylene glycol, dipropylene glycol, or a mixture thereof.
A display device comprising: a main processor; a high-definition multimedia interface (HDMI) receiver circuit electrically coupled to the main processor; a first HDMI input port electrically coupled to the HDMI receiver circuit; a buffer circuit electrically coupled to the HDMI receiver circuit, wherein the buffer circuit is configured to receive a control signal from the HDMI receiver circuit; and characterised by a second HDMI input port electrically coupled to the buffer circuit and configured to provide an HDMI connection to the display device from a source device, wherein the buffer circuit is electrically coupled between the second HDMI input port and the HDMI receiver circuit. a main processor; a high-definition multimedia interface (HDMI) receiver circuit electrically coupled to the main processor; a first HDMI input port electrically coupled to the HDMI receiver circuit; a buffer circuit electrically coupled to the HDMI receiver circuit, wherein the buffer circuit is configured to receive a control signal from the HDMI receiver circuit; and characterised by a second HDMI input port electrically coupled to the buffer circuit and configured to provide an HDMI connection to the display device from a source device, wherein the buffer circuit is electrically coupled between the second HDMI input port and the HDMI receiver circuit.
A sheet manufacturing apparatus comprising: a mixing unit configured to mix fibers and a composite in the atmosphere, the mixing unit comprising an additive supply unit; and a forming unit (70, 80) configured to deposit and heat a mixture mixed by the mixing unit to form a sheet, characterized by the additive supply unit being arranged to supply a composite, by the additive supply unit having an accommodation container that accommodates the composite and by the composite being resin particles with at least a portion of a surface coated with inorganic particles, and by an absolute value of an average charging amount of the composite being 40 μC/g or higher. a mixing unit configured to mix fibers and a composite in the atmosphere, the mixing unit comprising an additive supply unit; and a forming unit (70, 80) configured to deposit and heat a mixture mixed by the mixing unit to form a sheet, characterized by the additive supply unit being arranged to supply a composite, by the additive supply unit having an accommodation container that accommodates the composite and by the composite being resin particles with at least a portion of a surface coated with inorganic particles, and by an absolute value of an average charging amount of the composite being 40 μC/g or higher.
Probiotic for use in the treatment of chronic idiopathic emesis in a canine or a feline, wherein the probiotic comprises Bifidobacterium spp, wherein the bifidobacterium is Bifidobacterium animalis AHC 7.