mhurhangee/ep-ind-claims huggingface dataset:
A computer-implemented method (1, 200, 300, 400) for connecting a vehicle to a wireless local network of a workshop, comprising: - identifying, by a local control unit, at least one wireless local network configuration of the wireless local network, said wireless local network configuration being associated with credentials for using said wireless local network, - associating, by the local control unit, at least one validity parameter to said credentials in order to allow limited accessibility for the vehicle to said wireless local network, - sending, by the local control unit, to a remote server said credentials, thereby enabling said credentials to be provided to the vehicle, - upon receipt of a connection request including the credentials from the vehicle, checking, by the local control unit, the at least one validity parameter to determine that the credentials are still valid for the vehicle, - upon determination that the credentials are still valid, allowing, by the local control unit, the vehicle to connect to the wireless local network of the workshop. - identifying, by a local control unit, at least one wireless local network configuration of the wireless local network, said wireless local network configuration being associated with credentials for using said wireless local network, - associating, by the local control unit, at least one validity parameter to said credentials in order to allow limited accessibility for the vehicle to said wireless local network, - sending, by the local control unit, to a remote server said credentials, thereby enabling said credentials to be provided to the vehicle, - upon receipt of a connection request including the credentials from the vehicle, checking, by the local control unit, the at least one validity parameter to determine that the credentials are still valid for the vehicle, - upon determination that the credentials are still valid, allowing, by the local control unit, the vehicle to connect to the wireless local network of the workshop.
An optical indicia reading terminal comprising: a microprocessor coupled to a system bus; a memory communicatively coupled to said system bus; an image sensor integrated circuit comprising a two-dimensional image sensor including a plurality of pixels and an image data extracting module, wherein said image sensor integrated circuit is coupled to said system bus and communicates with said microprocessor; wherein said image sensor integrated circuit is configured to read out a plurality of analog signals, each analog signal of said plurality of analog signals being representative of light incident on at least one pixel of said plurality of pixels; wherein said optical indicia reading terminal is configured to process a frame of image data for decoding decodable indicia; and an illumination assembly control module in communication with said microprocessor via said system bus, said illumination assembly control module controlling a light source bank and aiming pattern light source bank, and a variable focus imaging lens controlled by focus control module to utilize a relatively lower level of illumination output for shorter focus distances and a relatively higher level of illumination output for longer focus distances. a microprocessor coupled to a system bus; a memory communicatively coupled to said system bus; an image sensor integrated circuit comprising a two-dimensional image sensor including a plurality of pixels and an image data extracting module, wherein said image sensor integrated circuit is coupled to said system bus and communicates with said microprocessor; wherein said image sensor integrated circuit is configured to read out a plurality of analog signals, each analog signal of said plurality of analog signals being representative of light incident on at least one pixel of said plurality of pixels; wherein said optical indicia reading terminal is configured to process a frame of image data for decoding decodable indicia; and an illumination assembly control module in communication with said microprocessor via said system bus, said illumination assembly control module controlling a light source bank and aiming pattern light source bank, and a variable focus imaging lens controlled by focus control module to utilize a relatively lower level of illumination output for shorter focus distances and a relatively higher level of illumination output for longer focus distances.
An arrangement (50, 50') for grinding edged tools, such as knives, said arrangement (50, 50') configured to be part of a grinding machine (100, 100'), comprising: - a conical grinding wheel (110, 100') arranged to be rotated in a rotational direction and having an envelope grinding surface (111, 111') for an edged tool, and; - a grinding jig (120, 120') for holding an edged tool, wherein the grinding jig (120, 120'), in use, is arranged such that the edged tool extends over the envelope grinding surface (111, 111') perpendicular to the rotational direction, and in that the grinding jig (120, 120') comprises a clamp (121, 121') for holding an edged tool, the clamp (121, 121') comprising a first and a second branch (122, 123; 122', 123'), wherein the first and the second branch (122, 123; 122', 123') extend laterally parallel with the envelope grinding surface (111, 111') and perpendicular to the rotational direction of the grinding wheel (110, 110'), characterized in that the first and second branch are joined by a bent (124, 124') and the grinding wheel is made of metal with a super-abrasive coating of CBN or diamond. - a conical grinding wheel (110, 100') arranged to be rotated in a rotational direction and having an envelope grinding surface (111, 111') for an edged tool, and; - a grinding jig (120, 120') for holding an edged tool, wherein the grinding jig (120, 120'), in use, is arranged such that the edged tool extends over the envelope grinding surface (111, 111') perpendicular to the rotational direction, and in that the grinding jig (120, 120') comprises a clamp (121, 121') for holding an edged tool, the clamp (121, 121') comprising a first and a second branch (122, 123; 122', 123'), wherein the first and the second branch (122, 123; 122', 123') extend laterally parallel with the envelope grinding surface (111, 111') and perpendicular to the rotational direction of the grinding wheel (110, 110'), characterized in that the first and second branch are joined by a bent (124, 124') and the grinding wheel is made of metal with a super-abrasive coating of CBN or diamond.
An aircraft propulsion system comprising: a propulsive fan assembly configured for assembly into an aircraft structure, the propulsive fan assembly including a fan rotatable about a fan axis; an inlet duct assembly configured to be disposed within the aircraft structure, the inlet duct assembly including an upper inlet duct with an upper inlet opening and a lower inlet duct with a lower inlet opening, wherein the upper inlet duct and the lower inlet duct merge into a common inlet duct forward of the propulsive fan assembly; an outlet duct disposed aft of the propulsive fan assembly; and a splitter disposed between the upper inlet duct and the lower inlet duct forward of the common inlet duct, characterised in that: the upper inlet duct has a rectangular cross-sectional shape having a minimum height disposed at the upper inlet opening, and the height of the upper inlet duct expands from the upper inlet opening towards a maximum height of the upper inlet duct; and the lower inlet duct has a rectangular cross-sectional shape having a minimum height disposed at the lower inlet opening, and the height of the lower inlet duct expands from the lower inlet opening towards a maximum height of the lower inlet duct. a propulsive fan assembly configured for assembly into an aircraft structure, the propulsive fan assembly including a fan rotatable about a fan axis; an inlet duct assembly configured to be disposed within the aircraft structure, the inlet duct assembly including an upper inlet duct with an upper inlet opening and a lower inlet duct with a lower inlet opening, wherein the upper inlet duct and the lower inlet duct merge into a common inlet duct forward of the propulsive fan assembly; an outlet duct disposed aft of the propulsive fan assembly; and a splitter disposed between the upper inlet duct and the lower inlet duct forward of the common inlet duct, characterised in that: the upper inlet duct has a rectangular cross-sectional shape having a minimum height disposed at the upper inlet opening, and the height of the upper inlet duct expands from the upper inlet opening towards a maximum height of the upper inlet duct; and the lower inlet duct has a rectangular cross-sectional shape having a minimum height disposed at the lower inlet opening, and the height of the lower inlet duct expands from the lower inlet opening towards a maximum height of the lower inlet duct.
A printing unit, comprising: a head unit including a thermal head; and a platen unit combined with the head unit, the platen unit including: a platen roller configured to feed a recording sheet while sandwiching the recording sheet together with the thermal head; a platen frame configured to support the platen roller in a rotatable manner; a sensor unit including: a sensor configured to detect the recording sheet; a connector connected to the sensor; and a connection portion configured to connect the sensor and the connector to each other; and a sensor holder, which is mounted to the platen frame, and includes: a plurality of connector arrangement portions through which a terminal of the connector is to be exposed; and a plurality of sensor receiving portions in which the sensor unit is to be received. a head unit including a thermal head; and a platen unit combined with the head unit, the platen unit including: a platen roller configured to feed a recording sheet while sandwiching the recording sheet together with the thermal head; a platen frame configured to support the platen roller in a rotatable manner; a sensor unit including: a sensor configured to detect the recording sheet; a connector connected to the sensor; and a connection portion configured to connect the sensor and the connector to each other; and a sensor holder, which is mounted to the platen frame, and includes: a plurality of connector arrangement portions through which a terminal of the connector is to be exposed; and a plurality of sensor receiving portions in which the sensor unit is to be received. a platen roller configured to feed a recording sheet while sandwiching the recording sheet together with the thermal head; a platen frame configured to support the platen roller in a rotatable manner; a sensor unit including: a sensor configured to detect the recording sheet; a connector connected to the sensor; and a connection portion configured to connect the sensor and the connector to each other; and a sensor configured to detect the recording sheet; a connector connected to the sensor; and a connection portion configured to connect the sensor and the connector to each other; and a sensor holder, which is mounted to the platen frame, and includes: a plurality of connector arrangement portions through which a terminal of the connector is to be exposed; and a plurality of sensor receiving portions in which the sensor unit is to be received. a plurality of connector arrangement portions through which a terminal of the connector is to be exposed; and a plurality of sensor receiving portions in which the sensor unit is to be received.
A method for dynamically ordering video streams on display in a command and control system according to video content, the method comprising: (a) obtaining a plurality of video streams captured by a plurality of respective video cameras; (b) inputting frames of the plurality of video streams to a neural network; (c) extracting features from the input frames, wherein features are output by an intermediate layer of the neural network, said features representing characteristics of the frames or of objects in the frames or any attributes that represent the video while providing spatiotemporal information, and wherein the intermediate layer embeds information related to motion and appearance not confined to activity categories used for training the neural network; (d) calculating abnormality scores for the extracted features, wherein each abnormality score measures a likelihood that a corresponding feature represents an anomaly or an abnormal behavior; (e) calculating a current rank for ordering each of the plurality of video streams based on current and past abnormality scores of the features extracted from the video stream; and (f) displaying a subgroup of the plurality of video streams having the highest subset of current ranks rearranged in a plurality of display slots in order of their current ranks. (a) obtaining a plurality of video streams captured by a plurality of respective video cameras; (b) inputting frames of the plurality of video streams to a neural network; (c) extracting features from the input frames, wherein features are output by an intermediate layer of the neural network, said features representing characteristics of the frames or of objects in the frames or any attributes that represent the video while providing spatiotemporal information, and wherein the intermediate layer embeds information related to motion and appearance not confined to activity categories used for training the neural network; (d) calculating abnormality scores for the extracted features, wherein each abnormality score measures a likelihood that a corresponding feature represents an anomaly or an abnormal behavior; (e) calculating a current rank for ordering each of the plurality of video streams based on current and past abnormality scores of the features extracted from the video stream; and (f) displaying a subgroup of the plurality of video streams having the highest subset of current ranks rearranged in a plurality of display slots in order of their current ranks.
A support structure for a gas turbine engine comprising: an axially extending portion forming a loop; a radially extending portion extending radially inward from the axially extending portion; and a plurality of retention members attached to the axially extending portion and the radially extending portion for retaining a blade outer air seal; wherein the support structure is an annular ring made of a single piece of material. an axially extending portion forming a loop; a radially extending portion extending radially inward from the axially extending portion; and a plurality of retention members attached to the axially extending portion and the radially extending portion for retaining a blade outer air seal; wherein the support structure is an annular ring made of a single piece of material.
A method of forming a semiconductor device, the method comprising: providing a substrate with a first layer; forming an extended drift region in an upper region of a portion of the first layer, the extended drift region comprising a first conductivity type and having a thickness of between 6μm to 10μm; forming a second layer having a thickness of between 2 μm and 4 μm over the extended drift region and the substrate; forming a first region within the second layer and over the extended drift region, the first region having the same thickness as the second layer and comprising the first conductivity type; forming a second region within the second layer and substantially adjacent to the first region in a plane that is substantially parallel to a major surface of the substrate, the second region comprising a second conductivity type; forming a field dielectric over a portion of the first region; and forming a gate dielectric and gate electrode such that the gate dielectric and the gate electrode extend from over a portion of the field dielectric to over a portion of the second region. providing a substrate with a first layer; forming an extended drift region in an upper region of a portion of the first layer, the extended drift region comprising a first conductivity type and having a thickness of between 6μm to 10μm; forming a second layer having a thickness of between 2 μm and 4 μm over the extended drift region and the substrate; forming a first region within the second layer and over the extended drift region, the first region having the same thickness as the second layer and comprising the first conductivity type; forming a second region within the second layer and substantially adjacent to the first region in a plane that is substantially parallel to a major surface of the substrate, the second region comprising a second conductivity type; forming a field dielectric over a portion of the first region; and forming a gate dielectric and gate electrode such that the gate dielectric and the gate electrode extend from over a portion of the field dielectric to over a portion of the second region.
A security element for security papers, bank notes, ID cards or the like, having at least one plastic layer on which at least two metal layers (3, 4) of different color are so disposed on the same side of the plastic layer that two different colors are visually recognizable, characterized in that the metal layers (3, 4) are disposed side by side, and that the metal layers (3, 4) are mutually adjacent at least in certain areas.
A display device, comprising: a display panel and a module at the back side of the display panel, the module comprising a back plate and a mold frame, wherein, the mold frame is provided between the back plate and the display panel, wherein, the display device further comprises a magnetic device, and the display panel and the mold frame are attached to each other and detached from each other through the magnetic device, wherein the magnetic device comprises a magnetic force adjustable member for adjusting attraction between the display panel and the mold frame, characterized in that the magnetic force adjustable member comprises one or more electromagnetic coils formed at corresponding positions on the display panel, wherein, when the electromagnetic coils are powered on, they generate magnetic force to allow the display panel and the mold frame to attract mutually; and when the electromagnetic coils are powered off, they stop generating magnetic force to allow the display panel and the mold frame to separate from each other.
A closure device intended to close off an opening in a sealed manner, in particular with regard to humidity and dust, comprising lateral sealing means and a plurality of closure elements, in particular blades (6 1, 6 2), articulated in pairs, of the longitudinal edges (6' 1, 6' 2) of two opposite closure elements defining at least one intermediate articulation zone, characterized in that the closure device further comprises at least one sealing sheet which covers in operation a substantial portion of one or of all the intermediate articulation zones, the lateral end of the sealing sheet being capped by the lateral sealing means.
A method of wireless communication by a base station, comprising: configuring x subframes with a subslot configuration that includes y subslots, y being greater than x, each subslot of the y subslots including a first portion having one or more symbols for carrying at least one of data or control information, a second portion having a gap, and a third portion for carrying acknowledgment, ACK, / negative acknowledgment, NACK, information associated with the first portion, the second portion being between the first portion and the third portion, the second portion and the third portion comprising at most one symbol, wherein at least one subslot of the y subslots is arranged to cross a subframe boundary of the x subframes; sending information indicating the subslot configuration to at least one neighboring base station; and communicating content with a user equipment, UE, during at least one of the y subslots. configuring x subframes with a subslot configuration that includes y subslots, y being greater than x, each subslot of the y subslots including a first portion having one or more symbols for carrying at least one of data or control information, a second portion having a gap, and a third portion for carrying acknowledgment, ACK, / negative acknowledgment, NACK, information associated with the first portion, the second portion being between the first portion and the third portion, the second portion and the third portion comprising at most one symbol, wherein at least one subslot of the y subslots is arranged to cross a subframe boundary of the x subframes; sending information indicating the subslot configuration to at least one neighboring base station; and communicating content with a user equipment, UE, during at least one of the y subslots.
A method of wireless communication, comprising: receiving, by a user equipment, UE, a waveform indication in a first downlink channel that uses a first waveform of a plurality of waveforms, wherein the plurality of waveforms include a discrete Fourier transform spread orthogonal frequency division multiplexing, DFT-s-OFDM, waveform and a cyclic prefix orthogonal frequency division multiplexing, CP-OFDM, waveform; determining, by the UE, a second waveform, of the plurality of waveforms, to be used for one or more downlink communications in a second downlink channel based at least in part on the waveform indication received in the first downlink channel; and processing, by the UE, the one or more downlink communications received in the second downlink channel using the second waveform, wherein at least one of a reference signal or a data tone is received using pre-DFT-spread multiplexing or time division multiplexing when the second waveform is the DFT-s-OFDM waveform, or wherein at least one of a reference signal or a data tone is received using frequency division multiplexing, FDM, or time division multiplexing when the second waveform is the CP-OFDM waveform. receiving, by a user equipment, UE, a waveform indication in a first downlink channel that uses a first waveform of a plurality of waveforms, wherein the plurality of waveforms include a discrete Fourier transform spread orthogonal frequency division multiplexing, DFT-s-OFDM, waveform and a cyclic prefix orthogonal frequency division multiplexing, CP-OFDM, waveform; determining, by the UE, a second waveform, of the plurality of waveforms, to be used for one or more downlink communications in a second downlink channel based at least in part on the waveform indication received in the first downlink channel; and processing, by the UE, the one or more downlink communications received in the second downlink channel using the second waveform, wherein at least one of a reference signal or a data tone is received using pre-DFT-spread multiplexing or time division multiplexing when the second waveform is the DFT-s-OFDM waveform, or wherein at least one of a reference signal or a data tone is received using frequency division multiplexing, FDM, or time division multiplexing when the second waveform is the CP-OFDM waveform.