mhurhangee/patent-ind-claim-en huggingface dataset:
A method of accessing, by a user equipment, UE, a network in a wireless communication system, the method performed by the UE and comprising: receiving (S501), from the network, a skip condition for an access barring check operation for a cell supported by the network; determining (S502) whether the UE satisfies the skip condition for the access barring check operation; determining (S503) that access to the network on the cell has not been barred based on the skip condition for the access barring check operation being satisfied; and performing (S504) the access to the network on the cell without performing the access barring check operation, wherein the skip condition for the access barring check operation comprises one or more of a support of E-UTRA-NR dual connectivity, ENDC, a support of multi-RAT dual connectivity, MRDC, a support of licensed assisted access, LAA, a support of an LTE-WLAN aggregation, LWA, or a support of a new RAT, and wherein the skip condition for the access barring check operation further comprises frequency information to which the skip condition for the access barring check operation is applied. receiving (S501), from the network, a skip condition for an access barring check operation for a cell supported by the network; determining (S502) whether the UE satisfies the skip condition for the access barring check operation; determining (S503) that access to the network on the cell has not been barred based on the skip condition for the access barring check operation being satisfied; and performing (S504) the access to the network on the cell without performing the access barring check operation, wherein the skip condition for the access barring check operation comprises one or more of a support of E-UTRA-NR dual connectivity, ENDC, a support of multi-RAT dual connectivity, MRDC, a support of licensed assisted access, LAA, a support of an LTE-WLAN aggregation, LWA, or a support of a new RAT, and wherein the skip condition for the access barring check operation further comprises frequency information to which the skip condition for the access barring check operation is applied.
A piston ring, in particular compression piston ring , containing a running surface , upper and lower flank regions , an inner peripheral surface as well as a joint , wherein at least the running surface is provided with at least one wear-resistant PVD or CVD coating , characterized in that the PVD or CVD coating , which is formed as TaC coating, extends with a predeterminable coating thickness over a peripheral length of more than 95%, but less than 100% of the piston ring , and defined peripheral sections in the region of the joint are formed in a coating-free manner, wherein the TaC coating has a coating thickness of between 5 and 30 μm, and wherein the radial wall thickness (a) of the piston ring in the finished state is such that the coated peripheral regions of the piston ring correspond in terms of wall thickness to the non-coated peripheral sections .
A scissors lift vehicle system comprising a carriage including a plurality of independently steerable wheel assemblies configured to engage a travel surface , said plurality of independently steerable wheel assemblies , each steerable about a steer axis of rotation , said plurality of independently steerable wheel assemblies comprising one master wheel assembly , the remaining wheel assemblies being slave wheel assemblies , said master and slave wheel assemblies each comprising: a variable-speed steer actuator configured to rotate said wheel assembly about the steer axis of rotation at a selectable rate; a wheel comprising a respective drive axis of rotation ; and a variable-speed drive actuator configured to rotate said wheel about the respective drive axis of rotation at a selectable rate. a variable-speed steer actuator configured to rotate said wheel assembly about the steer axis of rotation at a selectable rate; a wheel comprising a respective drive axis of rotation ; and a variable-speed drive actuator configured to rotate said wheel about the respective drive axis of rotation at a selectable rate.
A neuromorphic chip , comprising: - a plurality of neurons , configured to generate a spike event based on an amount of current received through a synapse; and - a spike event detection unit configured to detect whether a spike event occurred in the plurality of neurons, - wherein the plurality of neurons are grouped in a plurality of neuron groups and neurons in each of the neuron groups are grouped in a plurality of neuron subgroups, and - wherein the spike event detection unit is configured to: * determine, by means of a circuit , a neuron group among the plurality of neuron groups in the neuromorphic chip in which neuron group a spike event occurred; * determine, by means of a circuit , only for the neuron groups in which a spike event is determined to have occurred, a neuron subgroup among the plurality of neuron subgroups in the neuron group, in which the spike event occurred, and * identify, only for the neuron subgroups in which a spike event is determined to have occurred, an address of a neuron within the neuron subgroup, in which the spike event occurred; and a spike event information transmission unit comprising a transmitter configured to transmit address information of the neuron in the neuron subgroup, in which the spike event is determined to have occurred, the address information comprising an address identified for the determined subgroup and the identified address of the neuron within the subgroup out of the neuromorphic chip via the transmitter to a receiver . - a plurality of neurons , configured to generate a spike event based on an amount of current received through a synapse; and - a spike event detection unit configured to detect whether a spike event occurred in the plurality of neurons, - wherein the plurality of neurons are grouped in a plurality of neuron groups and neurons in each of the neuron groups are grouped in a plurality of neuron subgroups, and - wherein the spike event detection unit is configured to: * determine, by means of a circuit , a neuron group among the plurality of neuron groups in the neuromorphic chip in which neuron group a spike event occurred; * determine, by means of a circuit , only for the neuron groups in which a spike event is determined to have occurred, a neuron subgroup among the plurality of neuron subgroups in the neuron group, in which the spike event occurred, and * identify, only for the neuron subgroups in which a spike event is determined to have occurred, an address of a neuron within the neuron subgroup, in which the spike event occurred; and * determine, by means of a circuit , a neuron group among the plurality of neuron groups in the neuromorphic chip in which neuron group a spike event occurred; * determine, by means of a circuit , only for the neuron groups in which a spike event is determined to have occurred, a neuron subgroup among the plurality of neuron subgroups in the neuron group, in which the spike event occurred, and * identify, only for the neuron subgroups in which a spike event is determined to have occurred, an address of a neuron within the neuron subgroup, in which the spike event occurred; and
Locking system having a mechatronic locking cylinder and an associated mechatronic key for actuating the locking cylinder , the locking cylinder having a cylinder housing part , a cylinder core which is rotatably mounted in the cylinder housing part , a locking bit and an electronic control device , an adjusting device , a control piece , a blocking element and a coupling element being arranged on or in the cylinder core , the control piece being movable between a blocking position and an unblocking position by means of the adjusting device , the control piece , in the blocking position, blocking a movement of the blocking element into its release position and, in the unblocking position, allowing a movement of the blocking element into its release position, the blocking element moving from its blocking position into its release position by rotating the cylinder core when the control piece is in the unblocked position so that the cylinder core can be rotated, characterized in that the coupling element is coupled to the blocking element such that the coupling element is moved into its coupling position when the blocking element is moved into its release position, the coupling element , in its coupling position, coupling the cylinder core and the locking bit to one another for conjoint rotation. an adjusting device , a control piece , a blocking element and a coupling element being arranged on or in the cylinder core , the control piece being movable between a blocking position and an unblocking position by means of the adjusting device , the control piece , in the blocking position, blocking a movement of the blocking element into its release position and, in the unblocking position, allowing a movement of the blocking element into its release position, the blocking element moving from its blocking position into its release position by rotating the cylinder core when the control piece is in the unblocked position so that the cylinder core can be rotated, characterized in that the coupling element is coupled to the blocking element such that the coupling element is moved into its coupling position when the blocking element is moved into its release position, the coupling element , in its coupling position, coupling the cylinder core and the locking bit to one another for conjoint rotation.
A data management device comprising: a trapdoor acquisition unit to acquire a trapdoor t(s) resulting from converting a search word s by a map sk_U' assigned to an identifier U' among maps sk that differ for each identifier; a search ciphertext generation unit to convert the trapdoor t(s) acquired by the trapdoor acquisition unit by a map f_U' assigned to the identifier U' among maps f that differ for each identifier, so as to generate a search ciphertext c(s); a data acquisition unit to acquire an encrypted tag c resulting from converting a keyword w by a map sk_U assigned to an identifier U among the maps sk that differ for each identifier; a storage tag generation unit to convert the encrypted tag c acquired by the data acquisition unit by a map f_U assigned to the identifier U among the maps f that differ for each identifier, so as to generate a storage tag c'; and a search unit to identify the storage tag c' that matches the search ciphertext c(s), characterized in that a composite map obtained by combining one of the maps sk and one of the maps f that are assigned to a same identifier is a map mk common to all the identifiers. a trapdoor acquisition unit to acquire a trapdoor t(s) resulting from converting a search word s by a map sk_U' assigned to an identifier U' among maps sk that differ for each identifier; a search ciphertext generation unit to convert the trapdoor t(s) acquired by the trapdoor acquisition unit by a map f_U' assigned to the identifier U' among maps f that differ for each identifier, so as to generate a search ciphertext c(s); a data acquisition unit to acquire an encrypted tag c resulting from converting a keyword w by a map sk_U assigned to an identifier U among the maps sk that differ for each identifier; a storage tag generation unit to convert the encrypted tag c acquired by the data acquisition unit by a map f_U assigned to the identifier U among the maps f that differ for each identifier, so as to generate a storage tag c'; and a search unit to identify the storage tag c' that matches the search ciphertext c(s), characterized in that a composite map obtained by combining one of the maps sk and one of the maps f that are assigned to a same identifier is a map mk common to all the identifiers.
A dynamic frequency allocation method for a base station, wherein the method is applicable to a shelf label system and comprises: obtaining, based on ranging results among base stations in a store, a current connectivity topological structure of all the base stations; obtaining a current weight degree of each base station based on a frequency interval weight between every two base stations in the current connectivity topological structure; performing priority classification on all current base stations to obtain a current priority type of each base station based on base stations corresponding to respective docking tasks in a current batch docking task list and priority types of the docking tasks; obtaining a current allocated frequency of each base station based on the current priority type of the base station, the current weight degree of the base station, the frequency interval weight and a current available frequency set; and transmitting, by each base station, a corresponding docking task to an electronic shelf label based on the current allocated frequency, and releasing, by each base station, the current allocated frequency, so that during issuance of a next-round batch docking task list, each base station is dynamically re-allocated with a frequency based on the current available frequency set. obtaining, based on ranging results among base stations in a store, a current connectivity topological structure of all the base stations; obtaining a current weight degree of each base station based on a frequency interval weight between every two base stations in the current connectivity topological structure; performing priority classification on all current base stations to obtain a current priority type of each base station based on base stations corresponding to respective docking tasks in a current batch docking task list and priority types of the docking tasks; obtaining a current allocated frequency of each base station based on the current priority type of the base station, the current weight degree of the base station, the frequency interval weight and a current available frequency set; and transmitting, by each base station, a corresponding docking task to an electronic shelf label based on the current allocated frequency, and releasing, by each base station, the current allocated frequency, so that during issuance of a next-round batch docking task list, each base station is dynamically re-allocated with a frequency based on the current available frequency set.
A system for connecting a first tube and a second tube , the system comprising a clamping collar suitable for being tightened around the abutted ends of the two tubes , and a washer secured to the clamping collar by securing means , the washer presenting a frustoconical annular portion that is suitable for inserting between the facing ends of the two tubes when they are clamped together using said system, wherein the washer presents a blocking element configured to co-operate with a corresponding positioning member of the first tube so as to block the washer against turning relative to the first tube and so as to ensure a predetermined angular position between the clamping system and the first tube by selecting the locations for the blocking element on the washer and for the positioning element on the first tube , respectively, the blocking element being provided substantially on a smallest diameter portion of the washer .
A mandrel assembly comprising: an elongated mandrel shaft having a longitudinal axis , a proximal end structured to be coupled to a mandrel carrier and a distal end ; a hollow, elongated mandrel structured to be rotatably disposed about said mandrel shaft and structured to concentrically rotate about said mandrel shaft longitudinal axis ; a bearing assembly disposed between said mandrel and said mandrel shaft , said bearing assembly being located at a discrete location along the mandrel shaft longitudinal axis , whereby said bearing assembly rotatably couples said mandrel to said mandrel shaft ; said bearing assembly defining a virtual pivot point about which said mandrel is pivotable relative to said mandrel shaft , said virtual pivot point being disposed substantially on said mandrel shaft longitudinal axis ; wherein said bearing assembly includes at least three ball bearing units ; and wherein said bearing assembly is the only coupling between said mandrel shaft and said mandrel ; wherein each ball bearing unit includes an outer race having an outer groove , an inner race having an inner groove and a plurality of ball bearings ; said inner race is disposed radially within said outer race such that a passage is defined between the inner groove of said inner race and the outer groove of said outer race , wherein said ball bearings are disposed within said passage ; said passage is oversized relative to said ball bearings ; and said virtual pivot point is defined at the centre of said inner race . an elongated mandrel shaft having a longitudinal axis , a proximal end structured to be coupled to a mandrel carrier and a distal end ; a hollow, elongated mandrel structured to be rotatably disposed about said mandrel shaft and structured to concentrically rotate about said mandrel shaft longitudinal axis ; a bearing assembly disposed between said mandrel and said mandrel shaft , said bearing assembly being located at a discrete location along the mandrel shaft longitudinal axis , whereby said bearing assembly rotatably couples said mandrel to said mandrel shaft ; said bearing assembly defining a virtual pivot point about which said mandrel is pivotable relative to said mandrel shaft , said virtual pivot point being disposed substantially on said mandrel shaft longitudinal axis ; wherein said bearing assembly includes at least three ball bearing units ; and wherein said bearing assembly is the only coupling between said mandrel shaft and said mandrel ; wherein each ball bearing unit includes an outer race having an outer groove , an inner race having an inner groove and a plurality of ball bearings ; said inner race is disposed radially within said outer race such that a passage is defined between the inner groove of said inner race and the outer groove of said outer race , wherein said ball bearings are disposed within said passage ; said passage is oversized relative to said ball bearings ; and said virtual pivot point is defined at the centre of said inner race .
A gas turbine engine comprising: a fan drive turbine for driving a gear reduction , said gear reduction for driving a fan rotor ; and a lubrication system for supplying oil to said gear reduction , the lubrication system including a lubricant pump and a deaerator , the lubricant pump supplying a mixture of air and oil to an inlet of the deaerator , said deaerator including a separator for separating oil, and delivering separated air to an air outlet , and for delivering separated oil back into an oil tank ; characterised in that : said separator includes a member having lubricant flow paths on both of two opposed sides; and said separator includes a scroll spiraling from said inlet to a deaerator exit . a fan drive turbine for driving a gear reduction , said gear reduction for driving a fan rotor ; and a lubrication system for supplying oil to said gear reduction , the lubrication system including a lubricant pump and a deaerator , the lubricant pump supplying a mixture of air and oil to an inlet of the deaerator , said deaerator including a separator for separating oil, and delivering separated air to an air outlet , and for delivering separated oil back into an oil tank ; characterised in that : said separator includes a member having lubricant flow paths on both of two opposed sides; and said separator includes a scroll spiraling from said inlet to a deaerator exit . said separator includes a member having lubricant flow paths on both of two opposed sides; and said separator includes a scroll spiraling from said inlet to a deaerator exit .
Blank mould baffle pressing system for forming a burr-free mouth entry of a glass container to be produced, which comprises a piston (9.1) operated by the supply of gas pressure, preferably compressed air , and a pressing element with a pressing element profile (10.3), whereby the piston (9.1), when subjected with gas pressure on one side, brings the blank mould baffle pressing system into a pressing position against a glass gob to be formed in a blank mould , and preforms a baffle for the glass container to be produced in the process of contact of the pressing element profile (10.3) with the glass gob , characterized in that the blank mould baffle pressing system comprises a control or closed-loop-control of the stroke of the piston (9.1), which serves to compensate for mass fluctuations of the glass gob by adapting this stroke to the respective glass gob mass, the blank mould baffle pressing system having an internal cooling device for cooling by means of a cooling medium.
Mould element , in particular a sipe or rib, for forming a sipe or a groove in the tread strip of a pneumatic vehicle tyre during its vulcanization in a tyre vulcanization mould, with an anchoring portion for anchoring the mould element in a mould segment of the tyre vulcanization mould and with a forming portion which forms the sipe or the groove in the tread strip of the tyre which is inserted into the tyre vulcanization mould, the mould element being produced from a metal powder in accordance with an additive method, the forming portion having, on its end region which faces away from the anchoring portion , a row of elements , the greatest dimension of which transversely with respect to the forming portion is greater than the thickness of the forming portion , characterized in that the elements are ellipsoidal elements with two or three half-axes of different size or spherical elements, the elements being arranged so as to overlap mutually. the forming portion having, on its end region which faces away from the anchoring portion , a row of elements , the greatest dimension of which transversely with respect to the forming portion is greater than the thickness of the forming portion , characterized in that the elements are ellipsoidal elements with two or three half-axes of different size or spherical elements, the elements being arranged so as to overlap mutually.