mhurhangee/patent-ind-claim-en huggingface dataset:
A battery aligning device comprising: an inlet through which a first cylindrical battery (B1, B2) is input; an outlet from which the first cylindrical battery (B1, B2) is discharged; a plurality of regulating plates (3a - 3e) constituting a plurality of slits in a path from the inlet to the outlet ; and a support member which supports one end portion and another end portion of each of the plurality of regulating plates (3a - 3e), wherein all regulating plates (3a - 3e) comprise a length (L) from the one end portion to the other end portion which is longer than a length (L1, L2) of the first cylindrical battery (B1, B2), and comprises a cross-section perpendicular to a direction where the one end portion and the other end portion are connected which has a non-linear shape; wherein all facing intervals (J1) between two adjacent regulating plates (3a - 3e) comprise a distance with respect to facing surfaces of the adjacent regulating plates (3a - 3e) which is larger than a diameter (D1, D2) of the first cylindrical battery (B1, B2); and the regulating plates (3a - 3e) are configured such that when an imagined line segment (PQ) having the same length as that of the first cylindrical battery (B1, B2) is in contact with one of the regulating plates (3a - 3e) at two points (Q, R) on the cross-section, a distance between the imagined line segment (PQ) and one other adjacent regulating plate (3a - 3e) is smaller than the diameter (D1, D2) of the first cylindrical battery (B1, B2). an inlet through which a first cylindrical battery (B1, B2) is input; an outlet from which the first cylindrical battery (B1, B2) is discharged; a plurality of regulating plates (3a - 3e) constituting a plurality of slits in a path from the inlet to the outlet ; and a support member which supports one end portion and another end portion of each of the plurality of regulating plates (3a - 3e), wherein all regulating plates (3a - 3e) comprise a length (L) from the one end portion to the other end portion which is longer than a length (L1, L2) of the first cylindrical battery (B1, B2), and comprises a cross-section perpendicular to a direction where the one end portion and the other end portion are connected which has a non-linear shape; wherein all facing intervals (J1) between two adjacent regulating plates (3a - 3e) comprise a distance with respect to facing surfaces of the adjacent regulating plates (3a - 3e) which is larger than a diameter (D1, D2) of the first cylindrical battery (B1, B2); and the regulating plates (3a - 3e) are configured such that when an imagined line segment (PQ) having the same length as that of the first cylindrical battery (B1, B2) is in contact with one of the regulating plates (3a - 3e) at two points (Q, R) on the cross-section, a distance between the imagined line segment (PQ) and one other adjacent regulating plate (3a - 3e) is smaller than the diameter (D1, D2) of the first cylindrical battery (B1, B2).
A trailer control module for a braking system , the trailer control module including an electronic control unit , which is operable to receive a signal indicative of a braking demand from at least one electrical braking control circuit and to provide signals to a supply valve and an exhaust valve which control the supply of pressurised air from a reservoir to one or more trailer brake actuators through a service line and a supply line , characterized in that the electronic control unit is operable to control an emergency line restrictor valve which is, in turn, operable to control the flow of pressurised fluid from the reservoir to a supply line in the event of a drop in pressure in the service line .
Sectional door for an opening in a surface of a vessel in a ship's side made at least in section of glass, comprising sectional portions horizontally separated from each other, which are held at their free ends in holding members, and comprising a sliding guide for the sectional portions for moving the sectional portions into a parking position, wherein the holding members of the sectional portions are attached to a pulling means accommodated in the sliding guide, wherein an additional component projecting from the holding member is arranged on each of the holding members for the sectional portions for guiding the sectional portions as they move and wherein a separate receptacle is provided in the sliding guide for this additional component , wherein the additional component can also be brought into a retaining operative connection with a fixing member in the parking position of the sectional portions , characterized in that the pulling means is a chain, in that the chain is composed of chain links and in that the chain links respectively have projections projecting transversely to the longitudinal extension of the chain, wherein the chain is guided over a deflection region, in which the chain meshes with a sprocket and is guided over the sprocket , wherein the sprocket is associated with a housing, which has housing portions closely fitted to the chain and to the projections of the chain.
A cosmetic tool, comprising: a brush head ; a material core loaded with a cosmetic substance; a moving sleeve , wherein the material core is mounted in the moving sleeve , the brush head is located at one end of the moving sleeve and disposed opposite to the material core , and an end face of the material core facing the brush head is provided with a discharge port; a fixed sleeve , wherein the fixed sleeve is sleeved outside the moving sleeve , and the moving sleeve is movable along an axial direction; and a transmission structure through which the fixed sleeve , the moving sleeve and the brush head are connected; wherein when the moving sleeve moves along the axial direction, the moving sleeve drives the brush head to turn over through the transmission structure, so as to dip in the cosmetic substance at the discharge port. a brush head ; a material core loaded with a cosmetic substance; a moving sleeve , wherein the material core is mounted in the moving sleeve , the brush head is located at one end of the moving sleeve and disposed opposite to the material core , and an end face of the material core facing the brush head is provided with a discharge port; a fixed sleeve , wherein the fixed sleeve is sleeved outside the moving sleeve , and the moving sleeve is movable along an axial direction; and a transmission structure through which the fixed sleeve , the moving sleeve and the brush head are connected; wherein when the moving sleeve moves along the axial direction, the moving sleeve drives the brush head to turn over through the transmission structure, so as to dip in the cosmetic substance at the discharge port.
Use of a smectite clay that has been pre-treated with a dispersant as a binder, wherein the smectite clay that has been pre-treated with a dispersant is used as a binder to form pellets such as iron ore pellets, and wherein the dispersant is a phosphate-type dispersant.
A method for adaptive user equipment,UE, grouping and beamforming for multicast transmission, the method comprising: assigning each of a plurality of UE devices into a respective UE group of a plurality of UE groups, each UE group comprising at least one UE device; and reassigning a UE device from the respective UE group to an updated UE group and generating an updated respective beamforming vector for the updated UE group until the updated respective beamforming vector for each UE group produces a largest average UE rate or the largest minimum UE rate for the updated UE groups; wherein the UE rate comprises a UE download rate over a wireless channel between the UE device and a base station; or wherein the UE rate comprises a signal-to-noise ratio of a wireless channel between the UE device and a base station; and transmitting in a multicast manner to the plurality of UE groups, wherein transmission to multiple UE devices in a particular group of the plurality of UE groups includes a same information stream precoded with a same beamforming vector and wherein transmissions to different UE groups are on orthogonal channel resources. assigning each of a plurality of UE devices into a respective UE group of a plurality of UE groups, each UE group comprising at least one UE device; and reassigning a UE device from the respective UE group to an updated UE group and generating an updated respective beamforming vector for the updated UE group until the updated respective beamforming vector for each UE group produces a largest average UE rate or the largest minimum UE rate for the updated UE groups; wherein the UE rate comprises a UE download rate over a wireless channel between the UE device and a base station; or wherein the UE rate comprises a signal-to-noise ratio of a wireless channel between the UE device and a base station; and transmitting in a multicast manner to the plurality of UE groups, wherein transmission to multiple UE devices in a particular group of the plurality of UE groups includes a same information stream precoded with a same beamforming vector and wherein transmissions to different UE groups are on orthogonal channel resources.
A method for identifying a new master battery pack, comprising: detecting, by a first battery pack, that a master battery pack is removed from a battery cabinet of a power cabinet; detecting, by the first battery pack, that a new battery pack is not connected to the battery cabinet within a time period after the master battery pack is removed, wherein the time period indicates a longest time that the power cabinet continues to operate in its current configuration after the master battery pack is removed; and identifying, by the first battery pack, the new master battery pack and new slave battery packs according to a sorted result of battery pack identifiers when the new battery pack is not connected to the battery cabinet within the time period. detecting, by a first battery pack, that a master battery pack is removed from a battery cabinet of a power cabinet; detecting, by the first battery pack, that a new battery pack is not connected to the battery cabinet within a time period after the master battery pack is removed, wherein the time period indicates a longest time that the power cabinet continues to operate in its current configuration after the master battery pack is removed; and identifying, by the first battery pack, the new master battery pack and new slave battery packs according to a sorted result of battery pack identifiers when the new battery pack is not connected to the battery cabinet within the time period.
A method for operating an unmanned aerial vehicle , the method comprising the steps of: - defining at least one initial waypoint for creating an initial trajectory, which is provided to the aerial vehicle , - receiving geographic information for a plurality of positions along the trajectory, - conducting a numerical simulation of a communication link between the unmanned aerial vehicle along the trajectory and at least one predetermined ground station at a predetermined ground station position, which comprises calculating a quality factor for the communication link under consideration of the geographic information , and comparing the quality factors with at least one predetermined minimum quality factor, and - in case of an insufficient quality factor on the trajectory, adjusting the position of at least one waypoint to form an adjusted trajectory, and repeating the numerical simulation of the communication link until the quality factors along the adjusted trajectory reach at least the minimum quality factor, to form an optimized final trajectory, - characterized in that an optimized final trajectory is provided to the aerial vehicle before the start and wherein the optimized final trajectory is continuously re-optimized during the flight of the aerial vehicle . - defining at least one initial waypoint for creating an initial trajectory, which is provided to the aerial vehicle , - receiving geographic information for a plurality of positions along the trajectory, - conducting a numerical simulation of a communication link between the unmanned aerial vehicle along the trajectory and at least one predetermined ground station at a predetermined ground station position, which comprises calculating a quality factor for the communication link under consideration of the geographic information , and comparing the quality factors with at least one predetermined minimum quality factor, and - in case of an insufficient quality factor on the trajectory, adjusting the position of at least one waypoint to form an adjusted trajectory, and repeating the numerical simulation of the communication link until the quality factors along the adjusted trajectory reach at least the minimum quality factor, to form an optimized final trajectory, - characterized in that an optimized final trajectory is provided to the aerial vehicle before the start and wherein the optimized final trajectory is continuously re-optimized during the flight of the aerial vehicle .
A method performed by a network node for scheduling at least a first user equipment, UE , and a second UE served by the network node, the method comprising: determining (S302) that the first UE and the second UE are candidates to be grouped together, wherein the determining comprises determining whether there is an overlap between a first message for the first UE and a second message for the second UE; as a result of determining that the first UE and the second UE are candidates to be grouped together, estimating (S304) 1) a first channel quality of a first channel between the first UE and the network node and 2) a second channel quality of a second channel between the second UE and the network node; and after estimating the channel qualities, determining (S306), based on the estimated channel qualities, whether to use the same time and frequency resources to transmit downlink data to the first UE and the second UE. determining (S302) that the first UE and the second UE are candidates to be grouped together, wherein the determining comprises determining whether there is an overlap between a first message for the first UE and a second message for the second UE; as a result of determining that the first UE and the second UE are candidates to be grouped together, estimating (S304) 1) a first channel quality of a first channel between the first UE and the network node and 2) a second channel quality of a second channel between the second UE and the network node; and after estimating the channel qualities, determining (S306), based on the estimated channel qualities, whether to use the same time and frequency resources to transmit downlink data to the first UE and the second UE.
A parameter training method for a convolutional neural network, CNN, for classifying image type data representative of a single biometric trait, the method comprising the implementation, by data processing means of a server , of steps of: (a) For at least one data item from an already classified training database containing image type data representative of a single biometric trait, generating several alternate versions of this data item each by application of at least one geometric transformation chosen from a set of reference transformations satisfying a statistical distribution of geometric transformations observed in the training database, comprising the construction of a statistical atlas of the training data comprising an average model of images from the training database and also the variability of geometric transformations observed in the training database. (b) Training the parameters of said CNN, from the already classified training database augmented with said alternate versions of the data; wherein step (a) comprises substeps of: (a1) Statistical modeling of the transformations observed in said training database by means of said statistical atlas of training data; (a2) Determining said set of reference transformations satisfying a statistical distribution of transformations observed in the training database depending on the result of said statistical modeling. (a) For at least one data item from an already classified training database containing image type data representative of a single biometric trait, generating several alternate versions of this data item each by application of at least one geometric transformation chosen from a set of reference transformations satisfying a statistical distribution of geometric transformations observed in the training database, comprising the construction of a statistical atlas of the training data comprising an average model of images from the training database and also the variability of geometric transformations observed in the training database. (b) Training the parameters of said CNN, from the already classified training database augmented with said alternate versions of the data; (a1) Statistical modeling of the transformations observed in said training database by means of said statistical atlas of training data; (a2) Determining said set of reference transformations satisfying a statistical distribution of transformations observed in the training database depending on the result of said statistical modeling.
A shift device comprising: an operation knob ; an operation lever ; and a lock mechanism configured to restrict a movement operation of the operation lever at a home position , wherein the lock mechanism includes a cylindrical slide member assembled to be movable in an axial direction along an outer periphery of the operation lever , and wherein the movement operation of the operation lever is restricted or its restriction is released, by a movement operation of the slide member ; wherein a locking portion , which is configured to restrict the movement operation of the operation lever at the home position , and a guide portion , which is configured to guide an operation of the operation lever after the restriction of the movement operation of the operation lever is released, are integrally formed on the slide member ; characterized in that the operation lever is configured to be operated to be moved to a plurality of positions by the operation knob to select a driving state. an operation knob ; an operation lever ; and a lock mechanism configured to restrict a movement operation of the operation lever at a home position , wherein the lock mechanism includes a cylindrical slide member assembled to be movable in an axial direction along an outer periphery of the operation lever , and wherein the movement operation of the operation lever is restricted or its restriction is released, by a movement operation of the slide member ; wherein a locking portion , which is configured to restrict the movement operation of the operation lever at the home position , and a guide portion , which is configured to guide an operation of the operation lever after the restriction of the movement operation of the operation lever is released, are integrally formed on the slide member ; characterized in that the operation lever is configured to be operated to be moved to a plurality of positions by the operation knob to select a driving state.
A packet sending method, applied to an anycast service-based network, wherein the network comprises a client device (500A; 500B) and an anycast server cluster, the anycast server cluster comprises at least two servers, the at least two servers have a same IP anycast address, and the method comprises: obtaining, by the client device (500A; 500B), the IP anycast address and an IP unicast address of a target server in the at least two servers, characterized by generating, by the client device (500A; 500B), an IP detection packet, wherein the IP detection packet is used to detect whether the target server is reachable based on the IP anycast address, and the IP detection packet comprises the IP anycast address and the IP unicast address of the target server, and instructs the target server to replace the IP unicast address of the target server with the IP anycast address; and sending, by the client device (500A; 500B), the IP detection packet to the target server. obtaining, by the client device (500A; 500B), the IP anycast address and an IP unicast address of a target server in the at least two servers, characterized by generating, by the client device (500A; 500B), an IP detection packet, wherein the IP detection packet is used to detect whether the target server is reachable based on the IP anycast address, and the IP detection packet comprises the IP anycast address and the IP unicast address of the target server, and instructs the target server to replace the IP unicast address of the target server with the IP anycast address; and sending, by the client device (500A; 500B), the IP detection packet to the target server.
A content addressable memory, CAM, device , comprising: a plurality of CAM sub-banks, each CAM sub-bank comprising: an array of CAM cells arranged in rows and columns and partitioned into a first stage and a second stage along a column dimension; a plurality of first-stage match lines, MLs, each first-stage ML coupled to a first-stage row segment of CAM cells and indicating whether a match is found in the first-stage row segment for a first portion search key; a plurality of first-stage search line, SL, pairs in the first stage ; a plurality of second-stage MLs, each second-stage ML coupled to a second-stage row segment of CAM cells ; a plurality of second-stage SL pairs, wherein each second-stage SL pair is coupled to a column of CAM cells in the second stage and is gated by an SL enable, SL_EN, signal; and a circuit operative to receive all of the first-stage MLs as input and de-assert the SL_EN signal when none of the first-stage MLs indicate a match, wherein de-assertion of the SL_EN signal blocks a second portion search key from being provided to the second-stage SL pairs. an array of CAM cells arranged in rows and columns and partitioned into a first stage and a second stage along a column dimension; a plurality of first-stage match lines, MLs, each first-stage ML coupled to a first-stage row segment of CAM cells and indicating whether a match is found in the first-stage row segment for a first portion search key; a plurality of first-stage search line, SL, pairs in the first stage ; a plurality of second-stage MLs, each second-stage ML coupled to a second-stage row segment of CAM cells ; a plurality of second-stage SL pairs, wherein each second-stage SL pair is coupled to a column of CAM cells in the second stage and is gated by an SL enable, SL_EN, signal; and a circuit operative to receive all of the first-stage MLs as input and de-assert the SL_EN signal when none of the first-stage MLs indicate a match, wherein de-assertion of the SL_EN signal blocks a second portion search key from being provided to the second-stage SL pairs.