mhurhangee/patent-ind-claim-en huggingface dataset:
A mechanical seal comprising: a rotating seal ring which rotates together with a rotary shaft ; a stationary seal ring , an adapter which holds the stationary seal ring , the adapter being fixed to a seal cover by bolts ; and a plurality of holders brought into contact with the adapter and provided with through holes , a body part of each of the bolts passing through each of the through holes and being screwed into each of threaded holes formed in the seal cover , the plurality of holders being arranged so as to surround the rotary shaft , characterized in that the plurality of holders is brought into contact with the adapter in axial directions of the bolts , wherein the holders have inner flange portions formed around the through holes , wherein bottom portions of head parts of the bolts are brought into contact with the inner flange portions , wherein the inner flange portion of each of the holders is pressed against the seal cover by screwing the bolts into the threaded holes and as a result the adapter is fixed to the seal cover through the holders . a rotating seal ring which rotates together with a rotary shaft ; a stationary seal ring , an adapter which holds the stationary seal ring , the adapter being fixed to a seal cover by bolts ; and a plurality of holders brought into contact with the adapter and provided with through holes , a body part of each of the bolts passing through each of the through holes and being screwed into each of threaded holes formed in the seal cover , the plurality of holders being arranged so as to surround the rotary shaft , characterized in that the plurality of holders is brought into contact with the adapter in axial directions of the bolts , wherein the holders have inner flange portions formed around the through holes , wherein bottom portions of head parts of the bolts are brought into contact with the inner flange portions , wherein the inner flange portion of each of the holders is pressed against the seal cover by screwing the bolts into the threaded holes and as a result the adapter is fixed to the seal cover through the holders .
A dishwasher detergent composition comprising a strong biodegradable builder selected from methyl-glycine-diacetic acid and glutamic-N,N-diacetic acid, and/ or salts thereof; a secondary builder; a bleach; a sulfonated polymer; and one or more enzymes; wherein the composition is provided without phosphorous-containing compound(s), wherein the bleach is present in an amount from 1 wt% up to 30 wt%, wherein the sulfonated polymer, includes, as a or the monomer unit, 2-acrylamido-2-methyl-1-propanesulfonic acid.
A method comprising: receiving a request to store a content item; determining a chroma component, a luminance component, and an audio component of the content item; causing, via a network , a central server, disposed at a central location, to store the chroma component; and causing, via the network , an edge device, located in a region proximate to a user location, to cache the luminance component and the audio component for enabling faster delivery to user devices at the user location. receiving a request to store a content item; determining a chroma component, a luminance component, and an audio component of the content item; causing, via a network , a central server, disposed at a central location, to store the chroma component; and causing, via the network , an edge device, located in a region proximate to a user location, to cache the luminance component and the audio component for enabling faster delivery to user devices at the user location.
A semiconductor device comprising: a semiconductor substrate; a plurality of wiring layers formed on the semiconductor substrate; a pad formed on an uppermost wiring layer of the plurality of wiring layers; a surface protection film which includes an opening on the pad and is made of an inorganic insulating film; a rewiring formed on the surface protection film; and a pad electrode which is formed on the rewiring, and is a region for connection with a wire, wherein the rewiring includes a pad electrode mounting portion on which the pad electrode is mounted, a connection portion which is connected to the pad, and an extended wiring portion which couples the pad electrode mounting portion and the connection portion, and the pad electrode mounting portion has a rectangular shape when seen in a plan view, wherein the pad electrode mounting portion has two short sides and two long sides, the extended wiring portion is connected to one side of the two short sides , and a wiring width of the extended wiring portion is smaller than a length of the short side, characterized in that the rewiring further comprises a first fin portion which is connected to the other side of the two short sides of said rectangularly shaped pad electrode mounting portion , wherein the first fin portion extends to an outer side of the pad electrode mounting portion , such that a part of the fin portion is covered by the pad electrode and that another part of the fin portion is not covered by the pad electrode . a semiconductor substrate; a plurality of wiring layers formed on the semiconductor substrate; a pad formed on an uppermost wiring layer of the plurality of wiring layers; a surface protection film which includes an opening on the pad and is made of an inorganic insulating film; a rewiring formed on the surface protection film; and a pad electrode which is formed on the rewiring, and is a region for connection with a wire, wherein the rewiring includes a pad electrode mounting portion on which the pad electrode is mounted, a connection portion which is connected to the pad, and an extended wiring portion which couples the pad electrode mounting portion and the connection portion, and the pad electrode mounting portion has a rectangular shape when seen in a plan view, wherein the pad electrode mounting portion has two short sides and two long sides, the extended wiring portion is connected to one side of the two short sides , and a wiring width of the extended wiring portion is smaller than a length of the short side, characterized in that the rewiring further comprises a first fin portion which is connected to the other side of the two short sides of said rectangularly shaped pad electrode mounting portion , wherein the first fin portion extends to an outer side of the pad electrode mounting portion , such that a part of the fin portion is covered by the pad electrode and that another part of the fin portion is not covered by the pad electrode .
A method for controlling a wireless power transmitter , the method comprising: applying a detection power for detecting a change in a load of the wireless power transmitter ; detecting the change in the load of the wireless power transmitter ; receiving a first signal comprising load detection indication bits from an electronic device within a preset time after detecting the change in the load; determining whether the change in the load of the wireless power transmitter can be detected for the electronic device based on the load detection indication bits; in response to determining that the change in the load of the wireless power transmitter can be detected for the electronic device based on the load detection indication bits, transmitting a second signal responsive to the first signal; and in response to determining that the change in the load of the wireless power transmitter cannot be detected for the electronic device based on the load detection indication bits, stopping a communication with the electronic device. applying a detection power for detecting a change in a load of the wireless power transmitter ; detecting the change in the load of the wireless power transmitter ; receiving a first signal comprising load detection indication bits from an electronic device within a preset time after detecting the change in the load; determining whether the change in the load of the wireless power transmitter can be detected for the electronic device based on the load detection indication bits; in response to determining that the change in the load of the wireless power transmitter can be detected for the electronic device based on the load detection indication bits, transmitting a second signal responsive to the first signal; and in response to determining that the change in the load of the wireless power transmitter cannot be detected for the electronic device based on the load detection indication bits, stopping a communication with the electronic device.
Method for machine cutting several parts out of a piece of material using a beam cutting technology, said method providing a set of controlling rules and variables for cutting two dimensional shapes or patterns, where one rule or a combination of several rules are used for the cutting operation depending on the shape or pattern to be cut, said shape or pattern forming said parts out of said piece of material, characterised in, that said set of controlling rules comprises rules for the forming of a cluster of parts with free form shapes, said parts being separated by one cut from the cutting beam and positioned so close to each other so that only the thickness of said one cut from the cutting beam is found between adjacent parts whenever the shape of said parts allows it, wherein said set of controlling rules comprises a rule for cutting angles, said rule stating that an angle is cut in two cuts, wherein one cut leads into the angle and one cut leads away from the angle, and wherein at least one cut does not lead all the way to the tip of the angle, thus leaving a micro joint in the tip of the angle, or wherein one or both of the cuts leads past the tip of the angle.
Method of estimation of rotor operational characteristics including rotor speed , rotor azimuth and rotation direction , of a rotating rotor of a wind turbine, the method comprising: measuring pulse rising edge time and pulse falling edge time of pulses generated by each of multiple proximity sensors (SA1, SR1, SR2) originating from each of multiple detection targets (TA, TR1, TR2) arranged on the rotor ; estimating values of parameters (ρ1, ρ 2 , ε12) of the positioning and detection range of at least one sensor of said multiple proximity sensors (SA1, SR1, SR2) based on the measured pulse rising edge times and pulse falling edge times; estimating rotor operational characteristics, including a rotor speed and a rotor azimuth and a rotation direction , based on the measured pulse rising edge times and pulse falling edge times and the estimated values of said parameters (ρ1, ρ 2 , ε12) of the at least one sensor of said mutliple proximity sensors. measuring pulse rising edge time and pulse falling edge time of pulses generated by each of multiple proximity sensors (SA1, SR1, SR2) originating from each of multiple detection targets (TA, TR1, TR2) arranged on the rotor ; estimating values of parameters (ρ1, ρ 2 , ε12) of the positioning and detection range of at least one sensor of said multiple proximity sensors (SA1, SR1, SR2) based on the measured pulse rising edge times and pulse falling edge times; estimating rotor operational characteristics, including a rotor speed and a rotor azimuth and a rotation direction , based on the measured pulse rising edge times and pulse falling edge times and the estimated values of said parameters (ρ1, ρ 2 , ε12) of the at least one sensor of said mutliple proximity sensors.
A carrier configured to hold and transport a vessel containing a barcode label for an automation system for use in an in vitro diagnostics (IVD) environment, the carrier comprising: a body comprising a top surface ; two sets of a plurality of vertically-extending vessel guides on the top surface of the body , each of the two sets of the plurality of vertically-extending vessel guides arranged in a circumferential orientation defining an opening sized and shaped to contain a vessel in the opening ; and a spring assembly on the top surface of the body comprising a central member that supports two sets of springs , wherein a respective one of the two sets of springs provides support to the vessel contained in a respective one of the two openings to hold the vessel in the respective opening ; wherein the two sets of the plurality of vertically-extending vessel guides and the spring assembly are arranged in a lateral configuration with the spring assembly positioned between the two sets, and wherein the two sets are a mirrored-configuration with respect to one another such that substantially all of an outer surface of the vessel is unobscured when the vessel is contained in, one at a time, each of the two openings , wherein the carrier is configured to be held and moved on a track , the track being part of the automation system, and an unobstructed space for each opening is complimentary such that an unobstructed view of the vessel can be constructed by imaging the vessel in both openings by a plurality of peripheral readers and fusing resulting data by a processor. a body comprising a top surface ; two sets of a plurality of vertically-extending vessel guides on the top surface of the body , each of the two sets of the plurality of vertically-extending vessel guides arranged in a circumferential orientation defining an opening sized and shaped to contain a vessel in the opening ; and a spring assembly on the top surface of the body comprising a central member that supports two sets of springs , wherein a respective one of the two sets of springs provides support to the vessel contained in a respective one of the two openings to hold the vessel in the respective opening ; wherein the two sets of the plurality of vertically-extending vessel guides and the spring assembly are arranged in a lateral configuration with the spring assembly positioned between the two sets, and wherein the two sets are a mirrored-configuration with respect to one another such that substantially all of an outer surface of the vessel is unobscured when the vessel is contained in, one at a time, each of the two openings , wherein the carrier is configured to be held and moved on a track , the track being part of the automation system, and an unobstructed space for each opening is complimentary such that an unobstructed view of the vessel can be constructed by imaging the vessel in both openings by a plurality of peripheral readers and fusing resulting data by a processor.
A method for manufacturing a mesh type atomizer using a porous thin film, comprising: providing a porous thin film having a multi-hole structure; forming a photosensitive layer in a nozzle area in which droplets are to be sprayed through the holes on a surface of the porous thin film ; depositing a metal layer on the porous thin film and the photosensitive layer ; removing the photosensitive layer from the porous thin film ; and combining an ultrasonic transducer with the porous thin film. providing a porous thin film having a multi-hole structure; forming a photosensitive layer in a nozzle area in which droplets are to be sprayed through the holes on a surface of the porous thin film ; depositing a metal layer on the porous thin film and the photosensitive layer ; removing the photosensitive layer from the porous thin film ; and combining an ultrasonic transducer with the porous thin film.
A lens for distribution of light predominantly toward a preferential side from a light emitter having an emitter axis and defining an emitter plane, comprising: an output-end surface ; and a refracting inner surface configured for refracting light from the emitter , the refracting inner surface comprising a surrounding lateral surface formed about the emitter axis ; characterized in that the refracting inner surface further comprises an end surface including a substantially planar portion angled toward the preferential side and transitioning from near emitter axis to a convex portion in a cross-sectional plane including the emitter axis , the convex portion being on the non-preferential side . an output-end surface ; and a refracting inner surface configured for refracting light from the emitter , the refracting inner surface comprising a surrounding lateral surface formed about the emitter axis ; characterized in that the refracting inner surface further comprises an end surface including a substantially planar portion angled toward the preferential side and transitioning from near emitter axis to a convex portion in a cross-sectional plane including the emitter axis , the convex portion being on the non-preferential side .
Pump group for a cooling system of an engine of a vehicle, comprising: - an impeller rotatable around an axis (X-X); - command means operatively connected to the impeller to command its rotation speed, comprising: i) an electric drive comprising an electric motor and a first unidirectional clutch , wherein the electric motor is operatively connected to the impeller via the unidirectional clutch ; ii) a mechanical drive comprising a centrifugal clutch , wherein the mechanical drive is operatively connected to the impeller via the centrifugal clutch . - an impeller rotatable around an axis (X-X); - command means operatively connected to the impeller to command its rotation speed, comprising: i) an electric drive comprising an electric motor and a first unidirectional clutch , wherein the electric motor is operatively connected to the impeller via the unidirectional clutch ; ii) a mechanical drive comprising a centrifugal clutch , wherein the mechanical drive is operatively connected to the impeller via the centrifugal clutch . i) an electric drive comprising an electric motor and a first unidirectional clutch , wherein the electric motor is operatively connected to the impeller via the unidirectional clutch ; ii) a mechanical drive comprising a centrifugal clutch , wherein the mechanical drive is operatively connected to the impeller via the centrifugal clutch .
A wireless communication method supporting hybrid automatic repeat request performed by a user equipment, comprising: in a carrier aggregation scenario, receiving first hybrid automatic repeat request, HARQ, process quantity indication information of at least one component carrier sent by a base station through a first system information block message, wherein the first HARQ process quantity indication information is first sub-frame configuration information of the at least one component carrier in the first system information block message; and receiving, through dedicated signaling, second HARQ process quantity indication information of the at least one component carrier sent by the base station; determining a second HARQ process quantity according to the second HARQ process quantity indication information, and performing data communication with the base station based on the second HARQ process quantity on the at least one component carrier, wherein the second HARQ process quantity indication information comprises: configuration information of aggregation of a frequency division duplex, FDD, carrier and a time division duplex, TDD, carrier; wherein the second HARQ process quantity is the maximum number of downlink HARQ processes M DL_HARQ , and before the performing data communication with the base station, the method further comprises: calculating a size of an HARQ soft buffer and dividing the soft buffer according to the maximum number of downlink HARQ processes M DL_HARQ ; and the performing data communication with the base station based on the determined second HARQ process quantity comprises: performing, on the at least one component carrier, data communication with the base station according to the divided soft buffer and the second HARQ process quantity; wherein the at least one component carrier is: a secondary component carrier having a sub-frame configuration different from that of a primary component carrier; the determining the HARQ process quantity according to the second HARQ process quantity indication information comprises: according to the configuration information of the aggregation of an FDD carrier and a TDD carrier, when the secondary component carrier is the TDD carrier, determining the HARQ process quantity of the secondary component carrier as the HARQ process quantity of the FDD carrier, and when the secondary component carrier is the FDD carrier, determining the HARQ process quantity of the secondary component carrier as the HARQ process quantity determined according to the sub-frame configuration of the TDD carrier.
An apparatus comprising means for performing: obtaining initial training labels for first performance management data of a mobile communication network , wherein the initial training labels are generated by a first classification model to identify potentially sleeping cells of the mobile communication network ; training a machine-learning model based on the initial training labels, wherein the model is configured to identify potentially sleeping cells within the mobile communication network; identifying potentially sleeping cells using the trained machine-learning model based on second performance management data of the mobile communication network; receiving feedback based on an impact of corrective action taken based on the identification, by the machine-learning model, of said potentially sleeping cells; updating said training labels based on said received feedback; and retraining the machine-learning model based on the updated training labels wherein the means for obtaining initial training labels is further configured to perform: receiving said first performance management data from the mobile communication network ; and generating said initial training labels from the received first performance management data using the first classification model. obtaining initial training labels for first performance management data of a mobile communication network , wherein the initial training labels are generated by a first classification model to identify potentially sleeping cells of the mobile communication network ; training a machine-learning model based on the initial training labels, wherein the model is configured to identify potentially sleeping cells within the mobile communication network; identifying potentially sleeping cells using the trained machine-learning model based on second performance management data of the mobile communication network; receiving feedback based on an impact of corrective action taken based on the identification, by the machine-learning model, of said potentially sleeping cells; updating said training labels based on said received feedback; and retraining the machine-learning model based on the updated training labels receiving said first performance management data from the mobile communication network ; and generating said initial training labels from the received first performance management data using the first classification model.
Method for controlling a polymer electrolyte membrane fuel cell, the fuel cell being installed in a system comprising a fuel gas supply circuit linking a fuel gas reservoir to the anode of the fuel cell, and an oxidant gas supply circuit linking an oxidant gas reservoir, or atmospheric air, the method comprising the following steps: • supplying the fuel cell with oxidant gas, • detecting that the current produced by the cell is greater than a first threshold determined on the basis of the system in which the fuel cell is installed, • reducing the supply of oxidant gas to the fuel cell in order to reduce the current that is produced,and • recirculating cathodic gas by drawing gas at the cathode outlet and reinjecting it at the inlet. • supplying the fuel cell with oxidant gas, • detecting that the current produced by the cell is greater than a first threshold determined on the basis of the system in which the fuel cell is installed, • reducing the supply of oxidant gas to the fuel cell in order to reduce the current that is produced,and • recirculating cathodic gas by drawing gas at the cathode outlet and reinjecting it at the inlet.