mhurhangee/ep-ind-claims huggingface dataset:
A tool magazine comprising: at least one tool carriage that is movable along a circulation path; a plurality of tool pots (18, 19) that hold a tool; a plurality of tool holders each having a tool pot socket (50; 52) to which the tool pots (18, 19) are mountable, the tool holders being disposed to be pivotable about a predetermined pivot axis relative to the tool carriage; a turning unit that allows each of the tool holders to pivot about the predetermined pivot axis at a predetermined position on the circulation path; and a tool pot stopper that positions each of the tool pots (18, 19), characterized in that each tool holder has a plurality of tool pot sockets (50, 52), the plurality of tool pot sockets (50, 52) include a first tool pot socket and a second tool pot socket, the plurality of tool pots (18, 19) include a first tool pot and a second tool pot, in a state in which the first tool pot is mounted to the first tool pot socket and the second tool pot is mounted to the second tool pot socket, the first tool pot mounted to the first tool pot socket forms a predetermined angle with the second tool pot mounted to the second tool pot socket, in a pivoting direction about the predetermined pivot axis, and the tool pot stopper is capable of stopping either one of the first tool pot and the second tool pot at a predetermined pivotable location in the pivoting direction. at least one tool carriage that is movable along a circulation path; a plurality of tool pots (18, 19) that hold a tool; a plurality of tool holders each having a tool pot socket (50; 52) to which the tool pots (18, 19) are mountable, the tool holders being disposed to be pivotable about a predetermined pivot axis relative to the tool carriage; a turning unit that allows each of the tool holders to pivot about the predetermined pivot axis at a predetermined position on the circulation path; and a tool pot stopper that positions each of the tool pots (18, 19), characterized in that each tool holder has a plurality of tool pot sockets (50, 52), the plurality of tool pot sockets (50, 52) include a first tool pot socket and a second tool pot socket, the plurality of tool pots (18, 19) include a first tool pot and a second tool pot, in a state in which the first tool pot is mounted to the first tool pot socket and the second tool pot is mounted to the second tool pot socket, the first tool pot mounted to the first tool pot socket forms a predetermined angle with the second tool pot mounted to the second tool pot socket, in a pivoting direction about the predetermined pivot axis, and the tool pot stopper is capable of stopping either one of the first tool pot and the second tool pot at a predetermined pivotable location in the pivoting direction.
Process for fabricating a micromechanical object of millimetric size or larger, of high precision, formed of at least one inorganic material, characterized in that it comprises the following steps: - using a high-resolution photolithography process employing, in a chosen direction Z, radiation of a wavelength adapted to the desired degree of precision, to form, on or in a chosen material substrate, a negative mold, having micrometric precision on a millimetric height comprising at least a part in the form of a straight cylinder whose generating line is parallel to the chosen direction Z, said negative mold being not deformable on the micrometric scale during the steps of the process, in a material that is resistant to the physicochemical and temperature conditions of a step of forming the object by dry deposition and that can either be removed without altering the fabricated object or separated from said object, said resistant material being a photosensitive resin, in which case the substrate is cooled and is an integral part of the final object, or a material deposited by electroplating in which case a prior step of forming a positive mold made of photosensitive resin of the object is carried out; - choosing, independently of the normal redox potential of its constituent elements, at least one inorganic material from the group of materials that cannot be deposited by electroplating but can be deposited by dry deposition; and - carrying out, by means of the non-deformable negative mold, by dry deposition of said at least one inorganic material, the forming of the micromechanical object that is of millimetric size or larger. - using a high-resolution photolithography process employing, in a chosen direction Z, radiation of a wavelength adapted to the desired degree of precision, to form, on or in a chosen material substrate, a negative mold, having micrometric precision on a millimetric height comprising at least a part in the form of a straight cylinder whose generating line is parallel to the chosen direction Z, said negative mold being not deformable on the micrometric scale during the steps of the process, in a material that is resistant to the physicochemical and temperature conditions of a step of forming the object by dry deposition and that can either be removed without altering the fabricated object or separated from said object, said resistant material being a photosensitive resin, in which case the substrate is cooled and is an integral part of the final object, or a material deposited by electroplating in which case a prior step of forming a positive mold made of photosensitive resin of the object is carried out; - choosing, independently of the normal redox potential of its constituent elements, at least one inorganic material from the group of materials that cannot be deposited by electroplating but can be deposited by dry deposition; and - carrying out, by means of the non-deformable negative mold, by dry deposition of said at least one inorganic material, the forming of the micromechanical object that is of millimetric size or larger.
A computerized system for processing telecommunications detail records (210a, 210b, and 210n), the system comprising: (a) a network-side input/output interface for receiving a plurality of data streams from a plurality of network probes (205a, 205b and 205n) in communication with one or more telecommunication networks, the data streams including telecommunications detail records (210a, 210b, and 210n) and being transmitted in heterogeneous input formats; (b) a mapping and format configuration module for defining one or more data mappings from one or more of the heterogeneous input formats to one or more output formats; and (c) a plurality of adapter instances in electronic communication with the network-side input/output interface for applying the defined data mappings to the received data streams and producing a plurality of output data streams such that the output data streams are formatted according to at least one of the one or more output formats, wherein the plurality of adapter instances is deployed to process the plurality of input data streams from the plurality of network probes (205a, 205b and 205n) and wherein each of the plurality of network probes (205a, 205b and 205n) provides one of the plurality of data streams in a different format. (a) a network-side input/output interface for receiving a plurality of data streams from a plurality of network probes (205a, 205b and 205n) in communication with one or more telecommunication networks, the data streams including telecommunications detail records (210a, 210b, and 210n) and being transmitted in heterogeneous input formats; (b) a mapping and format configuration module for defining one or more data mappings from one or more of the heterogeneous input formats to one or more output formats; and (c) a plurality of adapter instances in electronic communication with the network-side input/output interface for applying the defined data mappings to the received data streams and producing a plurality of output data streams such that the output data streams are formatted according to at least one of the one or more output formats, wherein the plurality of adapter instances is deployed to process the plurality of input data streams from the plurality of network probes (205a, 205b and 205n) and wherein each of the plurality of network probes (205a, 205b and 205n) provides one of the plurality of data streams in a different format.
A method performed by a base station, the method comprising: establishing a radio resource control RRC connection with a user equipment UE in a mobile communication network, wherein the base station is involved in Minimization of Drive Test MDT measurements and logging; receiving a power headroom report PHR corresponding to a Physical Uplink Shared Channel PUSCH from the UE and forwarding the PHR to an MDT server; performing uplink measurements of a demodulation reference signal DM-RS allocated in the PUSCH, wherein the uplink measurements also involve measuring an uplink received interference power RIP associated with the PUSCH; and reporting results of the uplink measurements to the MDT server for determining uplink coverage based on the PHR and the uplink measurement results. establishing a radio resource control RRC connection with a user equipment UE in a mobile communication network, wherein the base station is involved in Minimization of Drive Test MDT measurements and logging; receiving a power headroom report PHR corresponding to a Physical Uplink Shared Channel PUSCH from the UE and forwarding the PHR to an MDT server; performing uplink measurements of a demodulation reference signal DM-RS allocated in the PUSCH, wherein the uplink measurements also involve measuring an uplink received interference power RIP associated with the PUSCH; and reporting results of the uplink measurements to the MDT server for determining uplink coverage based on the PHR and the uplink measurement results.
Reinforcement structure for components, comprising a multilayered fabric with at least one first fabric layer, which is formed as first annular element, at least one second fabric layer, which is formed as second annular element, and at least one third fabric layer which is arranged between the at least one first fabric layer and the at least one second fabric layer and is partially interwoven with the at least one first fabric layer and with the at least one second fabric layer, and is at least in some sections in the form of webs via which the first annular element and the second annular element are connected to one another, wherein the webs have no joint.
An automatic bicycle pedal (1, 100) comprising an elongated body (2, 102) from which emerge at least two arms (4, 5, 104, 105) located on either side of said body (2, 102), said pedal (1, 100) further comprising two engagement mechanisms (6, 106) able to be fastened each to one of said arms (4, 5, 104, 105), each engagement mechanism (6, 106) comprises a first fixed fastening element (7, 107) able to be securely anchored on an arm (4, 5, 104, 105), a second fastening element (8, 108) mounted pivoting on said first fastening element (7, 107) using a pivot axis (10, 110) passing through said two fastening elements (7, 8, 107, 108), and a resilient return element (9, 109) able to keep the second fastening element (8, 108) against the first fastening element (7, 107) by means of a stop system, and in that the first (7, 107) and the second (8, 108) fastening element are made up of open parts each having a fastening hook (13, 25, 123, 124), characterized in that said two engagement mechanisms (6, 106) being positioned on the pedal (1, 100) so as to form two attachment devices, each attachment device including the fastening hook (13, 124) of the first fastening element (7, 107) of an engagement mechanism (6, 106) and the fastening hook (25, 123) of the second fastening element (8, 108) of the other engagement mechanism (6, 106).
A method for invoking a routing algorithm, comprising: pre-configuring a customized routing algorithm, and further comprising: a software defined network, SDN, controller receiving a path computation request from an application, APP; the SDN controller invoking a corresponding customized routing algorithm according to information about the customized routing algorithm carried in the path computation request to compute a service path;. characterized in that, before the software defined network, SDN, controller receives a path computation request from an application, APP, the method further comprises: the APP acquiring the information about the customized routing algorithm before a service is established; wherein, the APP acquiring the information about the customized routing algorithm comprises: the APP transmitting a query request to an SDN Open Algorithm Function, SDN-OAF, and the SDN-OAF providing the customized routing algorithm for the APP to query, and returning a Uniform Resource Locator, URL, address of a customized routing algorithm which is selected by the APP as the information about the customized routing algorithm to the APP.
A manual device comprising a body, said device being characterized in that it comprises at least one reversible tip mounted on the body, the reversible tip comprising a first head and a second head opposite to the first head, the tip being configured to be mounted on the body in a first position in which the first head projects from the body while the second head is stored inside the body or in a second position in which the second head projects from the body while the first head is stored inside the body, and in that the first head comprises a first pad for a capacitive screen.
A degradation-determination system for a secondary battery comprising: four strain gauges (5A, 5B, 5C, 5D) that are respectively installed at four corners (24A, 24B, 24C, 24D) of an approximately rectangularly shaped principal surface of one or more surfaces of the secondary battery and each of which is configured to detect pressure of a battery surface at a corresponding installation position; and a degradation determining unit configured to determine degradation of the secondary battery based on measured values (S1, S2, S3, S4) at the four strain gauges, wherein the degradation determining unit is configured to estimate a maximum expansion position where volume expansion is maximal in a region defined by the four strain gauges, of the one or more surfaces of the secondary battery, wherein the maximum expansion position is associated with coordinates, on a two-dimensional coordinate system, on the primary surface of the secondary battery, and wherein the degradation determining unit is configured to determine coordinates of the maximum expansion position on the two-dimensional coordinate system, based on the measured values (S1 to S4) at the four strain gauges, the maximum expansion position being single. a degradation determining unit configured to determine degradation of the secondary battery based on measured values (S1, S2, S3, S4) at the four strain gauges, wherein the degradation determining unit is configured to estimate a maximum expansion position where volume expansion is maximal in a region defined by the four strain gauges, of the one or more surfaces of the secondary battery, wherein the maximum expansion position is associated with coordinates, on a two-dimensional coordinate system, on the primary surface of the secondary battery, and wherein the degradation determining unit is configured to determine coordinates of the maximum expansion position on the two-dimensional coordinate system, based on the measured values (S1 to S4) at the four strain gauges, the maximum expansion position being single.
A method carried out on a host computer system by a virtualization layer that manages sharing of physical CPUs of the host computer system between a plurality of virtual machines each having a plurality of virtual CPUs, the method comprising: determining a demanded number of virtual CPUs of a particular virtual machine, based on a demand of the virtual machine and a current system load of the host computer system; determining an entitled number of virtual CPUs to which the virtual machine is entitled; determining a target number of virtual CPUs for the virtual machine as a lesser of the demanded number of virtual CPUs and the entitled number of virtual CPUs; notifying the virtual machine of the target number of virtual CPUs, following which, when the notified target number is less than a current number of executing virtual CPUs, one of the virtual CPUs of the virtual machine executes a halt instruction causing the virtual CPU to halt work; and detecting that the virtual CPU is executing the halt instruction, and responsive thereto, deactivating the virtual CPU from executing in the virtual machine by descheduling the virtual CPU from executing on one or more physical CPUs of the host computer system. determining a demanded number of virtual CPUs of a particular virtual machine, based on a demand of the virtual machine and a current system load of the host computer system; determining an entitled number of virtual CPUs to which the virtual machine is entitled; determining a target number of virtual CPUs for the virtual machine as a lesser of the demanded number of virtual CPUs and the entitled number of virtual CPUs; notifying the virtual machine of the target number of virtual CPUs, following which, when the notified target number is less than a current number of executing virtual CPUs, one of the virtual CPUs of the virtual machine executes a halt instruction causing the virtual CPU to halt work; and detecting that the virtual CPU is executing the halt instruction, and responsive thereto, deactivating the virtual CPU from executing in the virtual machine by descheduling the virtual CPU from executing on one or more physical CPUs of the host computer system.
A terminal apparatus for communicating with one or multiple base station apparatuses (102, 108), the terminal apparatus comprising: a processing unit; and a receiver configured to receive a Radio Resource Control, RRC, connection reconfiguration message including, for a Data Radio Bearer, DRB, associated with a DRB identity, a New Radio, NR, Packet Data Convergence Protocol, PDCP, entity configuration or an Evolved Universal Terrestrial Radio Access, E-UTRA, PDCP entity configuration, from a base station apparatus of the one or multiple base station apparatuses (102, 108); the terminal apparatus is characterised in that the processing unit is configured to notify a higher layer of information indicating that the DRB is established and an EPS bearer identity of the DRB established, based on a determination that both of the following conditions hold: a) the DRB identity is not currently configured in the terminal apparatus, and b) the E-UTRA PDCP entity configuration for the DRB is included in a DRB configuration included in the RRC connection reconfiguration message. a processing unit; and a receiver configured to receive a Radio Resource Control, RRC, connection reconfiguration message including, for a Data Radio Bearer, DRB, associated with a DRB identity, a New Radio, NR, Packet Data Convergence Protocol, PDCP, entity configuration or an Evolved Universal Terrestrial Radio Access, E-UTRA, PDCP entity configuration, from a base station apparatus of the one or multiple base station apparatuses (102, 108); the terminal apparatus is characterised in that the processing unit is configured to notify a higher layer of information indicating that the DRB is established and an EPS bearer identity of the DRB established, based on a determination that both of the following conditions hold: a) the DRB identity is not currently configured in the terminal apparatus, and b) the E-UTRA PDCP entity configuration for the DRB is included in a DRB configuration included in the RRC connection reconfiguration message.
Light module for a motor vehicle lighting device, having at least one semiconductor light source which is arranged on a circuit carrier, and having a reflector which is coated with a lacquer, characterized in that the reflector has a mounting region which is coated with the lacquer, which has a broad side and a narrow side and to which the circuit carrier is secured by an adhesive bond, in that the mounting area has a surface from which protrusions protrude which are coated with the lacquer and on which the circuit carrier rests at a distance from the remaining surface of the mounting area, and that the adhesive bond is produced by an adhesive applied to at least part of the remaining surface of the mounting area next to the protrusions or between the protrusions.
A method of conducting a transaction between a user and a resource provider, the method comprising: receiving, at a communication device of the user, transaction data for the transaction from an access device associated with the resource provider, the transaction data comprising a location of the access device; receiving, by the communication device, a selection of a sensitive information from a list of sensitive information associated with the user; determining, by the communication device, a location of the communication device; determining, by the communication device, if a distance between the location of the access device and the location of the communication device is within a predetermined threshold; and transmitting, by the communication device, the transaction data, the sensitive information, and an indicator to a remote computer, wherein the indicator indicates whether the distance between the location of the access device and the location of the communication device is within the predetermined threshold and wherein the remote computer proceeds with processing the transaction when the distance is within the predetermined threshold using the transaction data, and wherein the remote computer declines processing of the transaction when the distance is not within the predetermined threshold. receiving, at a communication device of the user, transaction data for the transaction from an access device associated with the resource provider, the transaction data comprising a location of the access device; receiving, by the communication device, a selection of a sensitive information from a list of sensitive information associated with the user; determining, by the communication device, a location of the communication device; determining, by the communication device, if a distance between the location of the access device and the location of the communication device is within a predetermined threshold; and transmitting, by the communication device, the transaction data, the sensitive information, and an indicator to a remote computer, wherein the indicator indicates whether the distance between the location of the access device and the location of the communication device is within the predetermined threshold and wherein the remote computer proceeds with processing the transaction when the distance is within the predetermined threshold using the transaction data, and wherein the remote computer declines processing of the transaction when the distance is not within the predetermined threshold.