mhurhangee/ep-ind-claims huggingface dataset:
Method for operating a roadside network unit, wherein the roadside network unit is designed to send payload data (N1, N2) on a sidelink channel of a cell-based wireless communication network (CELL) in a licensed frequency band and on an ad hoc channel (ADCH) of an ad hoc wireless communication network (VANET) in an unlicensed frequency band (NLFB); the method comprising: - determining (302; 500; 512) payload data (N1, N2) for sending to at least one other roadside network unit (UE2; NE1); - delivering (304; 504; 514) the payload data (N1, N2) for sending on a sidelink channel of a cell-based wireless communication network (CELL) in a licensed frequency band and for sending on an ad hoc channel (ADCH) of an ad hoc wireless communication network (VANET) in an unlicensed frequency band (NLFB); and - sending (304; 508; 522) the payload data (N1, N2) on the sidelink channel in the licensed frequency band (NLFB) and on the ad hoc channel (ADCH) in the unlicensed frequency band (NLFB). - determining (302; 500; 512) payload data (N1, N2) for sending to at least one other roadside network unit (UE2; NE1); - delivering (304; 504; 514) the payload data (N1, N2) for sending on a sidelink channel of a cell-based wireless communication network (CELL) in a licensed frequency band and for sending on an ad hoc channel (ADCH) of an ad hoc wireless communication network (VANET) in an unlicensed frequency band (NLFB); and - sending (304; 508; 522) the payload data (N1, N2) on the sidelink channel in the licensed frequency band (NLFB) and on the ad hoc channel (ADCH) in the unlicensed frequency band (NLFB).
A method of detection of a target nucleic acid comprising: fractionating a sample into a plurality of sample volumes wherein more than 50% of the fractions contain no more than 1 target nucleic acid molecule per sample volumes; subjecting the plurality of sample volumes to conditions for amplification; detecting a change in ion concentration in a sample volume wherein a target nucleic acid is present; counting the number of fractions with an amplified target nucleic acid; and determining the quantity of target nucleic acid in the sample. fractionating a sample into a plurality of sample volumes wherein more than 50% of the fractions contain no more than 1 target nucleic acid molecule per sample volumes; subjecting the plurality of sample volumes to conditions for amplification; detecting a change in ion concentration in a sample volume wherein a target nucleic acid is present; counting the number of fractions with an amplified target nucleic acid; and determining the quantity of target nucleic acid in the sample.
A compressor comprising: a drive shaft rotatable about an axis; a compression mechanism arranged to be driven by the drive shaft to compress a fluid; a main bearing configured to rotatably support the drive shaft on a housing (2,3); and a sub-bearing rotatably supporting the drive shaft on the housing (2,3) on an end side of the drive shaft with respect to the main bearing; characterized in that the sub-bearing is configured as a needle bearing and includes a plurality of needles; and a cylindrical ring is provided such that the needles are rolling at an outer peripheral surface of the cylindrical ring, and such that it is clearance-fitted, at an inner peripheral surface of the cylindrical ring, to an outer portion of the drive shaft to rotate together with the drive shaft. a drive shaft rotatable about an axis; a compression mechanism arranged to be driven by the drive shaft to compress a fluid; a main bearing configured to rotatably support the drive shaft on a housing (2,3); and a sub-bearing rotatably supporting the drive shaft on the housing (2,3) on an end side of the drive shaft with respect to the main bearing; characterized in that the sub-bearing is configured as a needle bearing and includes a plurality of needles; and a cylindrical ring is provided such that the needles are rolling at an outer peripheral surface of the cylindrical ring, and such that it is clearance-fitted, at an inner peripheral surface of the cylindrical ring, to an outer portion of the drive shaft to rotate together with the drive shaft.
An apparatus for cleaning a printed band, which apparatus - comprises a frame, - comprises a motor for feeding the printed band through the apparatus, and - comprises a cleaning organ for removing printing ink from the printed band; wherein the apparatus comprises an auxiliary frame, which auxiliary frame comprises at least one guide roll in order to determine a path for the printed band; and wherein the apparatus is arranged in order to allow the auxiliary frame to be in a relatively high first position, and a relatively low second position; characterized in that at any from i) a first side of the auxiliary frame, and ii) an opposite second side of the auxiliary frame, at least one flexible member is provided which - is passed over a suspension point, and - comprises a section that extends downwardly; and the auxiliary frame can be moved from the second position to the first position by exerting a downward force onto said sections. - comprises a frame, - comprises a motor for feeding the printed band through the apparatus, and - comprises a cleaning organ for removing printing ink from the printed band; wherein the apparatus comprises an auxiliary frame, which auxiliary frame comprises at least one guide roll in order to determine a path for the printed band; and wherein the apparatus is arranged in order to allow the auxiliary frame to be in a relatively high first position, and a relatively low second position; to be in a relatively high first position, and a relatively low second position; characterized in that at any from i) a first side of the auxiliary frame, and ii) an opposite second side of the auxiliary frame, at least one flexible member is provided which - is passed over a suspension point, and - comprises a section that extends downwardly; - is passed over a suspension point, and - comprises a section that extends downwardly; and the auxiliary frame can be moved from the second position to the first position by exerting a downward force onto said sections.
An organic light-emitting device comprising: a first electrode; a second electrode facing the first electrode; and an organic layer between the first electrode and the second electrode and comprising an emissior layer, wherein: the emission layer comprises a host and a dopant, the host comprises a first host compound, a second host compound, and a third host compound, and the first host compound satisfies Conditions 1-1 and 1-2: S 1 H 1 > 3 eV T 1 H 1 > 2.8 eV, and wherein, in Conditions 1-1 and 1-2, S1 indicates a lowest excitation singlet energy level of the first host compound, and T1 indicates a lowest excitation triplet energy level of the first host compound, and characterized in that the first host compound is selected from Compounds A-02 to A-10 and A-12 to A-21: a first electrode; a second electrode facing the first electrode; and an organic layer between the first electrode and the second electrode and comprising an emissior layer, wherein: the emission layer comprises a host and a dopant, the host comprises a first host compound, a second host compound, and a third host compound, and the first host compound satisfies Conditions 1-1 and 1-2: S 1 H 1 > 3 eV T 1 H 1 > 2.8 eV, and wherein, in Conditions 1-1 and 1-2, S1 indicates a lowest excitation singlet energy level of the first host compound, and T1 indicates a lowest excitation triplet energy level of the first host compound, and characterized in that the first host compound is selected from Compounds A-02 to A-10 and A-12 to A-21: the emission layer comprises a host and a dopant, the host comprises a first host compound, a second host compound, and a third host compound, and the first host compound satisfies Conditions 1-1 and 1-2: S 1 H 1 > 3 eV T 1 H 1 > 2.8 eV, and wherein, in Conditions 1-1 and 1-2, S1 indicates a lowest excitation singlet energy level of the first host compound, and T1 indicates a lowest excitation triplet energy level of the first host compound, and characterized in that the first host compound is selected from Compounds A-02 to A-10 and A-12 to A-21:
A wearable robotic device comprising: a thigh assembly (108R, 108L) having a thigh retention system to secure the thigh assembly (108R, 108L) to a user's thigh; a lower leg assembly (106R, 106L, 700) rotatably coupled to the thigh assembly (108R, 108L) at a hinge (112R and 112L) including: a lower leg retention system to secure the lower leg assembly (106R, 106L, 700) to a user's lower leg, a lower leg housing, a plantar element of rigid material, a leg element made of rigid material having a lower portion rigidly connected to and extending upwardly from the plantar element, and a cam lock device and a manually operated lever that is coupled to the cam lock device,, wherein the lower portion of the leg element and the plantar element are adjustably coupled to the lower leg housing and wherein a distance between the hinge (112R and 112L) and the plantar element is adjustable by movement of the cam lock device, characterized in that the cam lock device is movable by way of the manually operated lever to allow for an infinitely variable length of the lower leg assembly between a maximum length and a minimum length. a thigh assembly (108R, 108L) having a thigh retention system to secure the thigh assembly (108R, 108L) to a user's thigh; a lower leg assembly (106R, 106L, 700) rotatably coupled to the thigh assembly (108R, 108L) at a hinge (112R and 112L) including: a lower leg retention system to secure the lower leg assembly (106R, 106L, 700) to a user's lower leg, a lower leg housing, a plantar element of rigid material, a leg element made of rigid material having a lower portion rigidly connected to and extending upwardly from the plantar element, and a cam lock device and a manually operated lever that is coupled to the cam lock device,, a lower leg retention system to secure the lower leg assembly (106R, 106L, 700) to a user's lower leg, a lower leg housing, a plantar element of rigid material, a leg element made of rigid material having a lower portion rigidly connected to and extending upwardly from the plantar element, and a cam lock device and a manually operated lever that is coupled to the cam lock device,, wherein the lower portion of the leg element and the plantar element are adjustably coupled to the lower leg housing and wherein a distance between the hinge (112R and 112L) and the plantar element is adjustable by movement of the cam lock device, characterized in that the cam lock device is movable by way of the manually operated lever to allow for an infinitely variable length of the lower leg assembly between a maximum length and a minimum length.
Method for manufacturing a multi-layer safety product, comprising the method steps of: - producing order data for the manufacture of a first individualised lamination layer, - producing order data for the manufacture of at least one further individualised lamination layer, - preparing the first individualised lamination layer, - preparing the at least one further individualised lamination layer, wherein the production of the order data (AD1, AD2) and/or the preparation of the first and the at least one further individualised lamination layer (5, 3) take place at least partially parallel in time, - applying the first individualised lamination layer onto a carrier body, - applying the least one further individualised lamination layer onto the carrier body, - laminating the layer composite consisting of at least the carrier body, the first individualised lamination layer, and the further individualised lamination layer. - producing order data for the manufacture of a first individualised lamination layer, - producing order data for the manufacture of at least one further individualised lamination layer, - preparing the first individualised lamination layer, - preparing the at least one further individualised lamination layer, wherein the production of the order data (AD1, AD2) and/or the preparation of the first and the at least one further individualised lamination layer (5, 3) take place at least partially parallel in time, - applying the first individualised lamination layer onto a carrier body, - applying the least one further individualised lamination layer onto the carrier body, - laminating the layer composite consisting of at least the carrier body, the first individualised lamination layer, and the further individualised lamination layer.
A connecting structure of shield terminals comprising: a conductive housing, two shield terminals each having the same size and the same shape and having a ring-shaped portion which a braided wire of a shield electric wire is inserted into and connected to, a plate portion projected from the ring-shaped portion in an axial direction of the ring shaped portion, and a projecting piece (6, 6') extended perpendicular to the plate portion from a tip of the plate portion and having a bolt-insertion hole at a center thereof, a boss having a screw hole provided on the conductive housing, wherein one wall of the projecting piece (6, 6') is positioned on a plane through a center line (m) of the ring-shaped portion, wherein one shield terminal of the two shield terminals is inverted 180 degree around the center line (m) of the ring-shaped portion with respect to the other shield terminal, and wherein the one wall of the projecting piece (6, 6') of the one shield terminal is overlapped with and abutted on the one wall of the projecting piece (6, 6') of the other shield terminal, wherein the other wall of the projecting pieces (6, 6')abuts on a front end of the boss, and a bolt is inserted into the bolt-insertion holes to tighten and fix both projecting pieces to the boss. a conductive housing, two shield terminals each having the same size and the same shape and having a ring-shaped portion which a braided wire of a shield electric wire is inserted into and connected to, a plate portion projected from the ring-shaped portion in an axial direction of the ring shaped portion, and a projecting piece (6, 6') extended perpendicular to the plate portion from a tip of the plate portion and having a bolt-insertion hole at a center thereof, a boss having a screw hole provided on the conductive housing, wherein one wall of the projecting piece (6, 6') is positioned on a plane through a center line (m) of the ring-shaped portion, wherein one shield terminal of the two shield terminals is inverted 180 degree around the center line (m) of the ring-shaped portion with respect to the other shield terminal, and wherein the one wall of the projecting piece (6, 6') of the one shield terminal is overlapped with and abutted on the one wall of the projecting piece (6, 6') of the other shield terminal, wherein the other wall of the projecting pieces (6, 6')abuts on a front end of the boss, and a bolt is inserted into the bolt-insertion holes to tighten and fix both projecting pieces to the boss.
A chip comprising at least one semiconductor layer (M1, M2, M3, M4, M5) including semiconductor components and conductive tracks, said chip comprising at least one layer formed by a first type of conductive tracks (M4P, M5P) extending over all or part of a surface of the chip and at least one second type of conductive tracks (M4A, M5A) associated with at least one detection circuit configured to detect an alteration of the at least one second type of conductive tracks, the first type of conductive tracks and the at least one second type of conductive tracks being made of a material including metal or alloy presenting a high electrical conductivity are arranged according to a predefined layout on the at least one layer, the first type of conductive tracks is mixed within the at least one second type of conductive tracks, and the at least one second type of conductive tracks (M4A, M5A) is made of a material identical to the material of the first type of conductive tracks (M4P, M5P), the chip being characterised in that the at least one detection circuit is configured to enable countermeasures at detection of an alteration comprising physical or electrical alteration of the at least one second type of conductive tracks (M4A, M5A), the countermeasures comprising resetting or disabling all or part of functionalities of the chip.
A method performed by a session management function, SMF, in a wireless communication system, the method comprising: identifying whether a terminal is moved out of a service area corresponding to a protocol data unit, PDU, session; determining to change a state associated with the PDU session of the terminal to an idle state in case that the terminal is moved out of the service area corresponding to the PDU session; and transmitting, to a user plane function, UPF,, a release request message to release a user plane, UP, connection associated with the PDU session as a response to determining to change the state associated with the PDU session to the idle state. identifying whether a terminal is moved out of a service area corresponding to a protocol data unit, PDU, session; determining to change a state associated with the PDU session of the terminal to an idle state in case that the terminal is moved out of the service area corresponding to the PDU session; and transmitting, to a user plane function, UPF,, a release request message to release a user plane, UP, connection associated with the PDU session as a response to determining to change the state associated with the PDU session to the idle state.
A computer system comprising one or more processing units and memory, wherein the computer system implements a panoramic video stream configuration tool that includes: an input buffer configured to store an input picture of panoramic video; a formatter configured to: create a low-resolution version of the entire input picture; split the input picture into multiple sections according to partition settings; create multiple composite pictures, by creating, for each section of the multiple sections, a composite picture which includes the respective section and the low-resolution version of the entire input picture; and add the multiple composite pictures, respectively, to corresponding video streams; one or more video encoders configured to encode the multiple composite pictures in the corresponding video streams, respectively, thereby producing encoded data for the multiple composite pictures as part of multiple bitstreams for the corresponding video streams, respectively; and one or more output buffers configured to store the encoded data for delivery. an input buffer configured to store an input picture of panoramic video; a formatter configured to: create a low-resolution version of the entire input picture; split the input picture into multiple sections according to partition settings; create multiple composite pictures, by creating, for each section of the multiple sections, a composite picture which includes the respective section and the low-resolution version of the entire input picture; and add the multiple composite pictures, respectively, to corresponding video streams; one or more video encoders configured to encode the multiple composite pictures in the corresponding video streams, respectively, thereby producing encoded data for the multiple composite pictures as part of multiple bitstreams for the corresponding video streams, respectively; and one or more output buffers configured to store the encoded data for delivery. create a low-resolution version of the entire input picture; split the input picture into multiple sections according to partition settings; create multiple composite pictures, by creating, for each section of the multiple sections, a composite picture which includes the respective section and the low-resolution version of the entire input picture; and add the multiple composite pictures, respectively, to corresponding video streams; one or more video encoders configured to encode the multiple composite pictures in the corresponding video streams, respectively, thereby producing encoded data for the multiple composite pictures as part of multiple bitstreams for the corresponding video streams, respectively; and one or more output buffers configured to store the encoded data for delivery.
A method for performing a configuration of a control unit test system, wherein with the test system, control devices are testable in an environment simulated by the test system by means of a model and wherein the test system comprises at least one computer, in particular computer executing the model, and hardware components (2,3,4), which are connected to each other by means of at least one network, characterized in that at least one hardware component is provided (2, 3, 4) with its own server, which, through communication via a client-server functionality, is configured to grant access to configuration data stored in the respective hardware component (2,3,4) and the model and/or the hardware component (2,3,4) is configured as a function of the configuration data made accessible, wherein the server of the hardware component is implemented by a software which is executed on a server hardware not required for the functioning of the hardware component during a test, the server hardware being disposed on the hardware component for the purpose of providing the server, and wherein the configuration data are formed by at least one type of the following data: a.a model component executable by the computer of the test system; b.parameters or characteristic curves of a model; c.an information describing the hardware component. a.a model component executable by the computer of the test system; b.parameters or characteristic curves of a model; c.an information describing the hardware component.