mhurhangee/ep-ind-claims huggingface dataset:
A connector device comprising: a connector housing having a terminal accommodating chamber; a terminal configured to be accommodated in the terminal accommodating chamber; a sheathed electric wire including an electric wire core wire made of aluminum and an insulating sheath made of resin or the like that covers the electric core wire, the insulating sheath at an end portion of the electric wire is peeled off to expose the core wire, wherein the electric wire is configured to be connected by laser welding to an electric wire coupling portion of the terminal at the exposed portion of the core wire; a corrosion-proof material and a corrosion-proof material holding portion retaining the corrosion-proof material above the connector housing, wherein a melting point of the corrosion-proof material is set to be lower than a melting point of a material forming the connector housing, characterized in that the corrosion-proof material is to be disposed at a position facing the terminal accommodated in the terminal accommodating chamber and a corrosion proof target portion of the electric wire including a connection portion at which the terminal and the electric wire core wire are connected to each other, wherein the corrosion-proof material holding portion retains the corrosion-proof material such that the corrosion-proof material can be moved downward toward the corrosion-proof target portion, and wherein the corrosion-proof material is configured to be melted and then cured while covering the corrosion-proof target portion. a connector housing having a terminal accommodating chamber; a terminal configured to be accommodated in the terminal accommodating chamber; a sheathed electric wire including an electric wire core wire made of aluminum and an insulating sheath made of resin or the like that covers the electric core wire, the insulating sheath at an end portion of the electric wire is peeled off to expose the core wire, wherein the electric wire is configured to be connected by laser welding to an electric wire coupling portion of the terminal at the exposed portion of the core wire; a corrosion-proof material and a corrosion-proof material holding portion retaining the corrosion-proof material above the connector housing, wherein a melting point of the corrosion-proof material is set to be lower than a melting point of a material forming the connector housing, characterized in that the corrosion-proof material is to be disposed at a position facing the terminal accommodated in the terminal accommodating chamber and a corrosion proof target portion of the electric wire including a connection portion at which the terminal and the electric wire core wire are connected to each other, wherein the corrosion-proof material holding portion retains the corrosion-proof material such that the corrosion-proof material can be moved downward toward the corrosion-proof target portion, and wherein the corrosion-proof material is configured to be melted and then cured while covering the corrosion-proof target portion.
A method comprising: determining, by a wireless communication device (104, 204, 315), at least one resource element that is scheduled for a defined communication associated with a first configuration index, and is assigned for use for at least one signal associated with a second configuration index that is same as the first configuration index, wherein the first configuration index comprises a first physical cell identity, PCI, index and the second configuration index comprises a second PCI index; and performing, by the wireless communication device (104, 204, 315), the defined communication using resource elements other than the determined at least one resource element. determining, by a wireless communication device (104, 204, 315), at least one resource element that is scheduled for a defined communication associated with a first configuration index, and is assigned for use for at least one signal associated with a second configuration index that is same as the first configuration index, wherein the first configuration index comprises a first physical cell identity, PCI, index and the second configuration index comprises a second PCI index; and performing, by the wireless communication device (104, 204, 315), the defined communication using resource elements other than the determined at least one resource element.
A metal foil resistor having a metal foil resistive element (20, 20A, 20B, 20Ca, 20Cb, 20D) constituted of a metal foil in which a resistance circuit pattern is formed, the metal foil resistor comprising: a package which contains the metal foil resistive element (20, 20A, 20B, 20Ca, 20Cb, 20D); and a relay terminal (26, 26A, 26B, 26C, 26D, 50, 52) which is held in the package in an electrically insulated state and is connected to an electrode of the metal foil resistive element (20, 20A, 20B, 20Ca, 20Cb, 20D); characterized in that the metal foil resistive element (20, 20A, 20B, 20Ca, 20Cb, 20D) is contained in the package in an electrically insulated state so that the resistive element can be freely expandable and freely contractible in a spreading direction of the metal foil. a package which contains the metal foil resistive element (20, 20A, 20B, 20Ca, 20Cb, 20D); and a relay terminal (26, 26A, 26B, 26C, 26D, 50, 52) which is held in the package in an electrically insulated state and is connected to an electrode of the metal foil resistive element (20, 20A, 20B, 20Ca, 20Cb, 20D);
A method of manufacturing a gas sensor, comprising the steps of: a) preparing a plurality of ceramic green sheets; b) forming a predetermined pattern by printing on at least one of said plurality of ceramic green sheets, including the steps of: b-1) forming a measuring electrode pattern, said measuring electrode pattern being formed on one of said plurality of ceramic green sheets; and b-2) forming an electrode protection layer pattern on said measuring electrode pattern; c) laminating said plurality of ceramic green sheets; and d) burning the laminated body obtained by said step c), characterized in that said electrode protection layer pattern is formed by laminating at least three unit layer patterns, and wherein each of said at least three unit layer patterns is formed using a protection layer forming paste with ceramic powder mixed with a pore-forming agent in a predetermined ratio, and the ratio of said pore-forming agent in said protection layer forming paste used for forming both of a bottom layer and an uppermost layer of said at least three unit layer patterns is larger than that of said pore-forming agent in said protection layer forming paste used for forming other layers of said at least three unit layer patterns. a) preparing a plurality of ceramic green sheets; b) forming a predetermined pattern by printing on at least one of said plurality of ceramic green sheets, including the steps of: b-1) forming a measuring electrode pattern, said measuring electrode pattern being formed on one of said plurality of ceramic green sheets; and b-2) forming an electrode protection layer pattern on said measuring electrode pattern; b-1) forming a measuring electrode pattern, said measuring electrode pattern being formed on one of said plurality of ceramic green sheets; and b-2) forming an electrode protection layer pattern on said measuring electrode pattern; c) laminating said plurality of ceramic green sheets; and d) burning the laminated body obtained by said step c),
A control device for operating an air treatment apparatus, comprising - an input arranged to receive measured data that is indicative of particle concentration from a sensing unit, - a baseline processing module arranged to derive particle concentration indicative information from the received measured data, - an obtaining module arranged to obtain augmenting information that is indicative of air quality and is indicative of short term or medium term events thereby configured to detect micro events that include a sudden increase in particles in the air, - an air quality index augmenting module arranged to determine an augmented air quality index based on the particle concentration indicative information and the augmenting information, wherein the augmented air quality index is indicative of an estimated risk of airborn allergens; and - an operation control module arranged to operate the air treatment apparatus based on the augmented air quality index. - an input arranged to receive measured data that is indicative of particle concentration from a sensing unit, - a baseline processing module arranged to derive particle concentration indicative information from the received measured data, - an obtaining module arranged to obtain augmenting information that is indicative of air quality and is indicative of short term or medium term events thereby configured to detect micro events that include a sudden increase in particles in the air, - an air quality index augmenting module arranged to determine an augmented air quality index based on the particle concentration indicative information and the augmenting information, wherein the augmented air quality index is indicative of an estimated risk of airborn allergens; and - an operation control module arranged to operate the air treatment apparatus based on the augmented air quality index.
A computer-implemented method of determining a target lateral acceleration of a host vehicle relative to a road along which the host vehicle is travelling, for use in autonomous control of the host vehicle to drive along the road in accordance with predetermined driving rules, the method comprising: evaluating each scalar velocity function of a plurality of scalar velocity functions at a plurality of key lateral positions predefined with respect to a model of the road to generate a respective set of scalar velocity values, wherein values of each scalar velocity function bias the autonomous control towards controlling the host vehicle to be driven along the road in accordance with a respective one of the driving rules; combining the scalar velocity values generated for each key lateral position of the plurality of key lateral positions to generate a respective target lateral velocity value for the key lateral position, the scalar velocity values generated for each of the key lateral positions being combined by adding a first value, which is the greatest of zero and the scalar velocity values, to a second value, which is the smallest of zero and the scalar velocity values; generating a lateral velocity field by interpolating between the target lateral velocity values generated for the plurality of key lateral positions; and determining the target lateral acceleration of the host vehicle using the generated velocity field and a measured lateral velocity of the host vehicle. evaluating each scalar velocity function of a plurality of scalar velocity functions at a plurality of key lateral positions predefined with respect to a model of the road to generate a respective set of scalar velocity values, wherein values of each scalar velocity function bias the autonomous control towards controlling the host vehicle to be driven along the road in accordance with a respective one of the driving rules; combining the scalar velocity values generated for each key lateral position of the plurality of key lateral positions to generate a respective target lateral velocity value for the key lateral position, the scalar velocity values generated for each of the key lateral positions being combined by adding a first value, which is the greatest of zero and the scalar velocity values, to a second value, which is the smallest of zero and the scalar velocity values; generating a lateral velocity field by interpolating between the target lateral velocity values generated for the plurality of key lateral positions; and determining the target lateral acceleration of the host vehicle using the generated velocity field and a measured lateral velocity of the host vehicle.
Mobile network for mobile devices (UE1, UE2), the mobile devices being arranged for exchanging communication data via the mobile network or, by selection, via a Device-To-Device [D2D] communication channel, the mobile network comprising: - a base station for establishing a control channel between one of the mobile devices and the mobile network; and - a controller for, via the control channel, i) receiving a request from the mobile device for establishing the D2D communication channel (D2D) with a further mobile device, and ii) controlling the establishing of the D2D communication channel by exchanging D2D control data with the mobile device; wherein the controller is arranged for: i) receiving an interception request from a lawful intercept controller, the interception request being indicative of a subscriber; ii) determining whether a target device associated with the subscriber participates in the D2D communication channel (D2D) based on the D2D control data; and iii) if the target device is deemed to participate in the D2D communication channel (D2D), requesting the base station to intercept the communication data exchanged via the D2D communication channel (D2D); and wherein the base station is arranged for, in response to a request from the controller, intercepting radio signals of the D2D communication channel based on the D2D control data. - a base station for establishing a control channel between one of the mobile devices and the mobile network; and - a controller for, via the control channel, i) receiving a request from the mobile device for establishing the D2D communication channel (D2D) with a further mobile device, and ii) controlling the establishing of the D2D communication channel by exchanging D2D control data with the mobile device; i) receiving an interception request from a lawful intercept controller, the interception request being indicative of a subscriber; ii) determining whether a target device associated with the subscriber participates in the D2D communication channel (D2D) based on the D2D control data; and iii) if the target device is deemed to participate in the D2D communication channel (D2D), requesting the base station to intercept the communication data exchanged via the D2D communication channel (D2D);
A method comprising: - inputting one or more audio signals for an audio scene; - determining relevant auditory cues that preserve detailed information about sound features over time, by - windowing said one or more audio signals, wherein said windowing comprises first and second windowings of different bandwidths; and - transforming the windowed audio signals into a transform domain; - forming an auditory neurons map based at least partly on the relevant auditory cues so as to describe the relevant audio cues of the audio scene; - transforming said one or more audio signals into the transform domain; and - using the auditory neurons map to form a sparse representation of said one or more transformed audio signals. - inputting one or more audio signals for an audio scene; - determining relevant auditory cues that preserve detailed information about sound features over time, by - windowing said one or more audio signals, wherein said windowing comprises first and second windowings of different bandwidths; and - transforming the windowed audio signals into a transform domain; - windowing said one or more audio signals, wherein said windowing comprises first and second windowings of different bandwidths; and - transforming the windowed audio signals into a transform domain; - forming an auditory neurons map based at least partly on the relevant auditory cues so as to describe the relevant audio cues of the audio scene; - transforming said one or more audio signals into the transform domain; and - using the auditory neurons map to form a sparse representation of said one or more transformed audio signals.
A method for determining a geo coordinate for an indoor location, the method comprising: receiving and storing information (204, 206) of a plurality of anchor points, wherein the information of each anchor point includes Global Positioning System, GPS, data of a particular location of the each anchor point and radio frequency, RF, data, from one or more RF transmitting devices, that was obtained at a device at the particular location of the each anchor point; selecting a subset of the plurality of anchor points based on at least a number of overlapping RF signal transmitting devices between the each anchor point and a first indoor location; and determining a first geo coordinate for the first indoor location based on a distance between each anchor point of the selected subset of the plurality of anchor points and the first indoor location, and the GPS data of the each anchor point of the selected subset of the plurality of anchor points, wherein the distance is determined based on a similarity between a first RF data obtained at the first indoor location and each RF data of the each anchor point of the selected subset of the plurality of anchor points. receiving and storing information (204, 206) of a plurality of anchor points, wherein the information of each anchor point includes Global Positioning System, GPS, data of a particular location of the each anchor point and radio frequency, RF, data, from one or more RF transmitting devices, that was obtained at a device at the particular location of the each anchor point; selecting a subset of the plurality of anchor points based on at least a number of overlapping RF signal transmitting devices between the each anchor point and a first indoor location; and determining a first geo coordinate for the first indoor location based on a distance between each anchor point of the selected subset of the plurality of anchor points and the first indoor location, and the GPS data of the each anchor point of the selected subset of the plurality of anchor points, wherein the distance is determined based on a similarity between a first RF data obtained at the first indoor location and each RF data of the each anchor point of the selected subset of the plurality of anchor points.
A dunnage conversion system, comprising: a supply area (120, 320) configured to hold a supply of a sheet material (122, 322), wherein the sheet material (122, 322) is in a substantially flat configuration in the supply area (120, 320); a dunnage conversion machine configured to pull the sheet material (122, 322) from the supply area (120, 320) and to convert the sheet material (122, 322) into a non-flat configuration; an arcuate slot (130, 230, 330) positioned between the supply area (120, 320) and the dunnage conversion machine such that the sheet material (122, 322) is fed through the arcuate slot (130, 230, 330) as the sheet material (122, 322) passes along a path from the supply area (120, 320) to the dunnage conversion machine; and at least one guide element (124, 126, 324, 326) positioned between the arcuate slot (130, 230, 330) and the sheet material (122, 322) in the supply area (120, 320); wherein the at least one guide element (124, 126, 324, 326) is configured to limit a range of approach angles of the sheet material (122, 322) with respect to the arcuate slot (130, 230, 330); characterized in that the arcuate slot (130, 230, 330) comprises a convex edge (136, 236, 336) and a concave edge (138, 238, 338), and in that the at least one guide element (124, 126, 324, 326) comprises: a first guide element (124, 324) positioned forward of the convex edge (136, 236, 336); and a second guide element (126, 326) positioned rearward of the concave edge (138, 238, 338). a supply area (120, 320) configured to hold a supply of a sheet material (122, 322), wherein the sheet material (122, 322) is in a substantially flat configuration in the supply area (120, 320); a dunnage conversion machine configured to pull the sheet material (122, 322) from the supply area (120, 320) and to convert the sheet material (122, 322) into a non-flat configuration; an arcuate slot (130, 230, 330) positioned between the supply area (120, 320) and the dunnage conversion machine such that the sheet material (122, 322) is fed through the arcuate slot (130, 230, 330) as the sheet material (122, 322) passes along a path from the supply area (120, 320) to the dunnage conversion machine; and at least one guide element (124, 126, 324, 326) positioned between the arcuate slot (130, 230, 330) and the sheet material (122, 322) in the supply area (120, 320); wherein the at least one guide element (124, 126, 324, 326) is configured to limit a range of approach angles of the sheet material (122, 322) with respect to the arcuate slot (130, 230, 330); characterized in that the arcuate slot (130, 230, 330) comprises a convex edge (136, 236, 336) and a concave edge (138, 238, 338), and in that the at least one guide element (124, 126, 324, 326) comprises: a first guide element (124, 324) positioned forward of the convex edge (136, 236, 336); and a second guide element (126, 326) positioned rearward of the concave edge (138, 238, 338). a first guide element (124, 324) positioned forward of the convex edge (136, 236, 336); and a second guide element (126, 326) positioned rearward of the concave edge (138, 238, 338).
A method, performed in a video camera, for controlling an infrared cut, IR-cut, filter of the video camera, comprising: receiving an indication to switch state of an IR-cut filter of the video camera, wherein the IR-cut filter is switchable between an ON state in which it filters out infrared light and an OFF state in which it does not filter out infrared light; and characterized by synchronizing a switch of state of the IR-cut filter with a video encoding of frames captured by the video camera, such that the IR-cut filter is controlled to switch state when the video camera is about to capture a frame which is a predetermined number of inter-frames before a frame which is scheduled to be encoded as an intra-frame. receiving an indication to switch state of an IR-cut filter of the video camera, wherein the IR-cut filter is switchable between an ON state in which it filters out infrared light and an OFF state in which it does not filter out infrared light; and characterized by synchronizing a switch of state of the IR-cut filter with a video encoding of frames captured by the video camera, such that the IR-cut filter is controlled to switch state when the video camera is about to capture a frame which is a predetermined number of inter-frames before a frame which is scheduled to be encoded as an intra-frame.