mhurhangee/patent-ind-claim-en huggingface dataset:
Contact arrangement comprising a circuit carrier and a busbar , wherein the circuit carrier has at least one electrically insulating layer and at least one electrically conductive layer connected to the electrically insulating layer , wherein the circuit carrier has an electrically conductive connection element embodied in a resilient fashion, wherein the connection element has at least one securing foot connected to the electrically conductive layer by soldering, wherein the connection element has a connection section arranged at a distance from the circuit carrier , wherein the busbar is electrically and mechanically connected to the connection section , wherein the connection element has three spacer legs and the connection section is connected to the respective spacer leg in each case via a spring arm , wherein the spacer legs each have a securing foot integrally formed on the respective spring arm , characterized in that the spring arms extend in a manner pointing away radially in each case in the flat extent of the connection section and spring arms that are directly adjacent to one another form an angle of 120 degrees between one another, with the result that a star-shaped arrangement of the spring arms and the spacer legs is formed.
A display module comprising: a window cover ; a touch panel disposed on the window cover ; an antenna layer disposed on one surface of the touch panel such that the antenna layer is disposed between the window cover and the touch panel ; and a display panel disposed on another surface of the touch panel ; wherein the antenna layer comprises: a resin layer disposed on the one surface of the touch panel and imprinted to form at least one groove , and a conductive ink in the at least one groove . a window cover ; a touch panel disposed on the window cover ; an antenna layer disposed on one surface of the touch panel such that the antenna layer is disposed between the window cover and the touch panel ; and a display panel disposed on another surface of the touch panel ; wherein the antenna layer comprises: a resin layer disposed on the one surface of the touch panel and imprinted to form at least one groove , and a conductive ink in the at least one groove . a resin layer disposed on the one surface of the touch panel and imprinted to form at least one groove , and a conductive ink in the at least one groove .
An end can assembly for an engine exhaust aftertreatment canister , comprising: an end can comprising an end plate and a wall extending from a periphery of the end plate , the end can having a first cutaway portion formed therein; a pipe provided in the first cutaway portion and attached to the end can around the first cutaway portion to form a seal with the end can , the pipe comprising at least one opening therein which opens into an interior (B) of the end can assembly ; and a bracket comprising a plate and a shoulder extending at an angle from the plate , the bracket being attached to the end plate and to the wall , the shoulder having a second cutaway portion formed therein which is shaped to receive the pipe whereby the shoulder abuts the pipe ; characterised in that the first cutaway portion is formed in the end plate and the wall , and the pipe comprises at least one portion removed therefrom to define said at least one opening . an end can comprising an end plate and a wall extending from a periphery of the end plate , the end can having a first cutaway portion formed therein; a pipe provided in the first cutaway portion and attached to the end can around the first cutaway portion to form a seal with the end can , the pipe comprising at least one opening therein which opens into an interior (B) of the end can assembly ; and a bracket comprising a plate and a shoulder extending at an angle from the plate , the bracket being attached to the end plate and to the wall , the shoulder having a second cutaway portion formed therein which is shaped to receive the pipe whereby the shoulder abuts the pipe ; the first cutaway portion is formed in the end plate and the wall , and the pipe comprises at least one portion removed therefrom to define said at least one opening .
A manufacturing method for an extruded rubber member (R) comprising extruding at least one type of rubber from a die , the method comprising the steps of: inserting at least one thread (S) into a flow channel (11..13) of the at least one type of rubber; and embedding the at least one thread (S) in a longitudinal direction of the extruded rubber member (R), characterized in that a breaking strength of the at least one thread (S) is 100 N or less. inserting at least one thread (S) into a flow channel (11..13) of the at least one type of rubber; and embedding the at least one thread (S) in a longitudinal direction of the extruded rubber member (R),
A charge control system for a vehicle , the charge control system being configured to control charging of a power storage device of the vehicle , the power storage device being adapted to be externally charged with electric power from an outside of the vehicle, and adapted to be charged with electric power generated by a generator that is driven with driving force from an internal combustion engine, the charge control system comprising: a user detector configured to determine whether a user is present within a predetermined range relative to the vehicle ; and a vehicle electronic control unit configured to permit the power storage device to be charged with electric power generated by the generator, in addition to the electric power from the outside of the vehicle, during external charging, when the user detector determines that the user is present within the predetermined range, the vehicle electronic control unit being configured to inhibit power generation by the generator during external charging when the user detector determines that the user is not present within the predetermined range. a user detector configured to determine whether a user is present within a predetermined range relative to the vehicle ; and a vehicle electronic control unit configured to permit the power storage device to be charged with electric power generated by the generator, in addition to the electric power from the outside of the vehicle, during external charging, when the user detector determines that the user is present within the predetermined range, the vehicle electronic control unit being configured to inhibit power generation by the generator during external charging when the user detector determines that the user is not present within the predetermined range.
A messaging system comprising: a proximity engine adapted to, determine proximity of a user with respect to each of a plurality of user devices associated with the user; further determine which of the plurality of user devices is in closest proximity with the user among the plurality of user devices; and a message delivery engine to provide a message to the user device determined to be in the closest proximity to the user, wherein the proximity engine is further adapted to: obtain proximity values, indicated by a proximity directory , corresponding to each of the devices associated with the user from a mapping between the user and each of the devices; iteratively compare the proximity value of each of the devices to determine the least proximity value; and identify one of the devices associated with the least proximity value as the device being in closest proximity to the user. a proximity engine adapted to, determine proximity of a user with respect to each of a plurality of user devices associated with the user; further determine which of the plurality of user devices is in closest proximity with the user among the plurality of user devices; and determine proximity of a user with respect to each of a plurality of user devices associated with the user; further determine which of the plurality of user devices is in closest proximity with the user among the plurality of user devices; and a message delivery engine to provide a message to the user device determined to be in the closest proximity to the user, wherein the proximity engine is further adapted to: obtain proximity values, indicated by a proximity directory , corresponding to each of the devices associated with the user from a mapping between the user and each of the devices; iteratively compare the proximity value of each of the devices to determine the least proximity value; and identify one of the devices associated with the least proximity value as the device being in closest proximity to the user. obtain proximity values, indicated by a proximity directory , corresponding to each of the devices associated with the user from a mapping between the user and each of the devices; iteratively compare the proximity value of each of the devices to determine the least proximity value; and identify one of the devices associated with the least proximity value as the device being in closest proximity to the user.
A method performed by a user equipment , UE, for wireless communication, comprising: monitoring , at a user-equipment , UE, for control information in each of a plurality of physical downlink control channels, PDCCHs, during a different one of a plurality of time intervals, wherein the PDCCHs contain the same control information that indicates a resource allocation within a respective one of the time intervals for receiving one of a plurality of physical downlink shared channels, PDSCHs, wherein data in each of the plurality of PDSCHs is the same; soft-combining the plurality of PDCCHs to decode the control information; decoding the control information based on the soft-combination of the plurality of PDCCHs; receiving each of the plurality of PDSCHs in a respective one of the plurality of time intervals based on the resource allocation, wherein each of the plurality of PDSCHs are encoded using a different redundancy version, RV, of the same data; determining an index corresponding to each of the RVs based on an indication from a node, wherein the plurality of PDSCHs are soft-combined based on the indices; decoding data within the plurality of PDSCHs based on the soft-combination of the plurality of PDSCHs; the method characterized in that the index corresponding to each of the RVs is modulated on a demodulation reference signal, DMRS, of a corresponding one of the plurality of PDSCHs. monitoring , at a user-equipment , UE, for control information in each of a plurality of physical downlink control channels, PDCCHs, during a different one of a plurality of time intervals, wherein the PDCCHs contain the same control information that indicates a resource allocation within a respective one of the time intervals for receiving one of a plurality of physical downlink shared channels, PDSCHs, wherein data in each of the plurality of PDSCHs is the same; soft-combining the plurality of PDCCHs to decode the control information; decoding the control information based on the soft-combination of the plurality of PDCCHs; receiving each of the plurality of PDSCHs in a respective one of the plurality of time intervals based on the resource allocation,
Service orchestrator of an orchestration system of a military communication network , capable of generating commands to a multitude of controllers, the multitude of controllers comprising at least one network controller , an information system controller and a security controller , characterized in that it comprises an artificial intelligence - AI module and an application programming interface - API - server , the AI module comprising: - a data acquisition unit , adapted to acquire a multitude of input variables describing an operational situation; - a neural network unit , capable, from the multitude of input variables acquired by the data acquisition unit , of determining at least one scenario, a scenario being a configuration file model; and, - an inference engine unit , capable of instantiating parameters of the scenario provided by the neural network unit , to determine a configuration file ready to be executed by the API server , the configuration file comprising commands according to the network, information system and security components of the communication network , the configuration file prepared by the inference engine unit being transmitted to the API server for deployment in the communication network . - a data acquisition unit , adapted to acquire a multitude of input variables describing an operational situation; - a neural network unit , capable, from the multitude of input variables acquired by the data acquisition unit , of determining at least one scenario, a scenario being a configuration file model; and, - an inference engine unit , capable of instantiating parameters of the scenario provided by the neural network unit , to determine a configuration file ready to be executed by the API server , the configuration file comprising commands according to the network, information system and security components of the communication network ,
A Chinese Hamster Ovary (CHO) cell line comprising an expression vector comprising a nucleotide sequence encoding a mammalian dehydroorotate dehydrogenase (DHODH) and at least one expression cassette for expressing a recombinant protein, wherein said DHODH comprises a sequence at least 90 % identical to the sequence of SEQ ID NO: 2 or to the sequence of SEQ ID NO: 4 and wherein said DHODH is sensitive to at least one DHODH inhibitor.
A reactor system comprising: A boiler, One or more inlets for introducing one or more reducing agents downstream of the boiler, wherein the reducing agent comprises ammonia, and A zeolite based SCR catalyst, wherein the boiler is upstream of the catalyst, and wherein the catalyst comprises (a) a first component selected from the group consisting of manganese and/or copper; (b) a second component selected from the group consisting of cerium, a lanthanide, a mixture of lanthanides, and mixtures thereof; (c) a zeolite; and (d) an oxygen storage material, wherein the oxygen storage material is a cerium oxide-based material comprising in addition one or more metal oxides and having a composition with a formula Ce 1-a Zr a O 2 or Ce 1-c-d Zr c Lan d O 2 , wherein Lan is selected from the group consisting of Y, La, Pr, Nd, Sm, Eu, Gd, Ho, Yb and mixtures thereof. A boiler, One or more inlets for introducing one or more reducing agents downstream of the boiler, wherein the reducing agent comprises ammonia, and A zeolite based SCR catalyst, wherein the boiler is upstream of the catalyst, and wherein the catalyst comprises (a) a first component selected from the group consisting of manganese and/or copper; (b) a second component selected from the group consisting of cerium, a lanthanide, a mixture of lanthanides, and mixtures thereof; (c) a zeolite; and (d) an oxygen storage material, wherein the oxygen storage material is a cerium oxide-based material comprising in addition one or more metal oxides and having a composition with a formula Ce 1-a Zr a O 2 or Ce 1-c-d Zr c Lan d O 2 , wherein Lan is selected from the group consisting of Y, La, Pr, Nd, Sm, Eu, Gd, Ho, Yb and mixtures thereof.
A computer graphics processing method, comprising: processing a set of graphics primitive information for a virtual object with a compute shader running on a GPU to generate a modified set of primitive information ; passing the modified set of primitive information to a vertex shader running on the GPU, wherein said passing the modified set of primitive information to a vertex shader includes passing the modified set of primitive information through a ring buffer; and performing vertex shading on the modified set of primitive information with the vertex shader, wherein the size of the ring buffer is determined in dependence upon the speed of the synchronisation of the compute shader and vertex shader operations, such that a faster synchronisation results in a smaller ring buffer size. processing a set of graphics primitive information for a virtual object with a compute shader running on a GPU to generate a modified set of primitive information ; passing the modified set of primitive information to a vertex shader running on the GPU, wherein said passing the modified set of primitive information to a vertex shader includes passing the modified set of primitive information through a ring buffer; and performing vertex shading on the modified set of primitive information with the vertex shader, wherein the size of the ring buffer is determined in dependence upon the speed of the synchronisation of the compute shader and vertex shader operations, such that a faster synchronisation results in a smaller ring buffer size.
Trailer comprising a frame , a drawbar attached to the frame for connecting the trailer to a bicycle, a motorcycle or a passenger car, at least one wheel axle supported on the frame and having whells and a loading space , wherein a tent floor is arranged on the loading space , characterized in that the tent floor is formed by an inflatable, in the inflated state plate-like body, the top and bottom layer of which consist of a flexible material and are connected to one another by numerous connecting threads or fibers and are kept at a maximum normal distance from one another when inflated, wherein means for holding the tent floor together in the folded state are provided and the tent floor protrudes beyond the frame when inflated.
A method performed by an access point, AP, of a wireless communication network, which is able to perform peer-to-peer communication over the air with neighboring APs, for participating in a distributed clustering process directed at defining clusters of access points, APs, wherein each of the clusters comprises a cluster head, CH, and associated member nodes, the method characterized in that the AP: performs neighbor discovery to find a neighboring AP being a member of a discovered cluster that is different than the AP's own current cluster; requesting from the CH of the current cluster a marginal cost of the current cluster and requesting from the CH of the discovered cluster a marginal cost of the discovered cluster, whereby the marginal cost is defined as a cost function for the cluster including the AP minus the cost function for the cluster omitting the AP, and the cost function is based on one or more of frequency of handovers between APs of a cluster, inter cell interference between the APs of the cluster, path loss between the APs of the cluster, Euclidian distance between the APs of the cluster, and cell loads at APs of the cluster; comparing the marginal costs and if the marginal cost of the discovered cluster is less than the marginal cost of the current cluster, then leaving the current cluster and joining the discovered cluster; whereby the aforementioned steps are iterated by the AP until the marginal costs of each discovered cluster is higher than that of the current cluster. performs neighbor discovery to find a neighboring AP being a member of a discovered cluster that is different than the AP's own current cluster; requesting from the CH of the current cluster a marginal cost of the current cluster and requesting from the CH of the discovered cluster a marginal cost of the discovered cluster, whereby the marginal cost is defined as a cost function for the cluster including the AP minus the cost function for the cluster omitting the AP, and the cost function is based on one or more of frequency of handovers between APs of a cluster, inter cell interference between the APs of the cluster, path loss between the APs of the cluster, Euclidian distance between the APs of the cluster, and cell loads at APs of the cluster; comparing the marginal costs and if the marginal cost of the discovered cluster is less than the marginal cost of the current cluster, then leaving the current cluster and joining the discovered cluster; whereby the aforementioned steps are iterated by the AP until the marginal costs of each discovered cluster is higher than that of the current cluster.
A method for producing a hardened steel component, wherein a blank is punched out and the punched-out blank is heated either completely or in parts to a temperature ≥Ac 3 and, if appropriate, is held at this temperature for a predetermined time in order to carry out the austenite formation, and then the completely or partially heated blank is transferred to a forming tool, is formed in the forming tool and is cooled in the forming tool at a speed which is above the critical hardening speed and is thereby hardened, or is finished by cold-working and the formed blank is completely or partially heated to a temperature >Ac 3 and optionally held at this temperature for a predetermined time in order to carry out the austenite formation, and then the completely or partially heated and formed blank is transferred to a hardening tool in which hardening tool the process of hardening is performed at a speed which is above the critical hardening speed, the steel material being adjusted with a transformation delay such that at a forming temperature which is in the range of 450°C to 700°C, a quench hardening takes place by transformation of the austenite into martensite, wherein after heating and before forming, an active cooling takes place in which the blank or parts of the blank or the formed blank or areas thereof are cooled at a cooling rate >15K/s, characterized in that a cooling device and an object with a hot surface are moved relative to one another for homogeneous, contactless cooling of the hot blanks or components, the cooling device having at least two parallel, spaced-apart cooling blades or cooling columns , the cooling blades or cooling columns having a nozzle edge with nozzles toward the blank to be cooled or toward the component to be cooled, a cooling fluid being directed through the nozzles onto the surface of the blank or component and the cooling fluid flows off into the interspace between the blades or cooling columns after contacting the hot surface, the cooling blade and/or the cooling columns or the device for cooling comprising means by which the device is designed to be able to pivot or oscillating about the X, Y or Z axis.
A timepiece including, in addition to a crystal, the following external elements: a back , a middle part , a dial , and two bracelet strands , the at least one of these external elements comprising a body formed of at least one first portion made of a first opaque material zirconia-free and of at least one second portion made of a second partially transparent or translucent material, said first material being integral with said second material and the timepiece further including at least one light source producing light which passes through said at least one second portion made of a partially transparent or translucent ceramic material comprising zirconia.
A culture medium comprising a) Alk5 inhibitor, b) triiodothyronine (T3), and c) staurosporine.
A laminated surface covering, comprising: a layer of backing material, an adhesive, and a layer of facing material, wherein the backing material comprises a continuous layer of a backing material and the facing material comprises a continuous layer of a facing material, wherein the adhesive bonds the continuous layer of the facing material directly to the continuous layer of the backing material and comprises a layer of heat-activated bonding material that is in a solid or semi-solid form at room temperature 21°C, wherein the facing material is an EPDM rubber or a wood-grain PVC, and wherein the backing material includes a rubber material. a layer of backing material, an adhesive, and a layer of facing material, wherein the backing material comprises a continuous layer of a backing material and the facing material comprises a continuous layer of a facing material, wherein the adhesive bonds the continuous layer of the facing material directly to the continuous layer of the backing material and comprises a layer of heat-activated bonding material that is in a solid or semi-solid form at room temperature 21°C, wherein the facing material is an EPDM rubber or a wood-grain PVC, and wherein the backing material includes a rubber material.