mhurhangee/ep-ind-claims huggingface dataset:
A map viewer for displaying a three-dimensional, 3d, map view of a 3d geographical map, the map viewer comprising: - a database storing data which defines the 3d geographical map, wherein the database stores the data in a layered hierarchy comprising data layers (110a, 110b, 110c) which can be individually rendered for the 3d map view, wherein the database comprises at least the following data layers (110a, 110b, 110c): - a data layer of a digital terrain model which is modelling a terrain surface (211, 212); and - a data layer of a 3d road network comprising 3d road elements; - a processor for rendering the 3d map view and coupled to the database, the processor being configured to: - select specific data layers (110a, 110b, 110c) of the database in response to a resolution setting of the 3d map view, - render the 3d map view using the selected specific data layers (110a, 110b, 110c) of the database, - an optical output device, configured for displaying the rendered 3d map view, characterized in that the 3d road elements of the data layer of the 3d road network model a road surface and a height difference between the road surface and the terrain surface (211, 212) of the digital terrain model. - a database storing data which defines the 3d geographical map, wherein the database stores the data in a layered hierarchy comprising data layers (110a, 110b, 110c) which can be individually rendered for the 3d map view, wherein the database comprises at least the following data layers (110a, 110b, 110c): wherein the database stores the data in a layered hierarchy comprising data layers (110a, 110b, 110c) which can be individually rendered for the 3d map view, wherein the database comprises at least the following data layers (110a, 110b, 110c): - a data layer of a digital terrain model which is modelling a terrain surface (211, 212); and - a data layer of a 3d road network comprising 3d road elements; - a processor for rendering the 3d map view and coupled to the database, the processor being configured to: - select specific data layers (110a, 110b, 110c) of the database in response to a resolution setting of the 3d map view, - render the 3d map view using the selected specific data layers (110a, 110b, 110c) of the database, - an optical output device, configured for displaying the rendered 3d map view,
A multithreaded processor, comprising: a plurality of buffers, each configured to store a plurality of instructions corresponding to a respective thread; and a pick unit coupled to the plurality of buffers and configured to pick from at least one of the plurality of buffers in a given cycle, a valid instruction based upon a thread selection algorithm; wherein the plurality of buffers is grouped into a plurality of thread groups, each thread group comprising a portion of the plurality of buffers, wherein the pick unit is further configured to independently pick one instruction from each thread group in a given cycle; wherein the pick unit is further configured to cancel, in the given cycle, the picking of the valid instruction in response to receiving a cancel indication. a plurality of buffers, each configured to store a plurality of instructions corresponding to a respective thread; and a pick unit coupled to the plurality of buffers and configured to pick from at least one of the plurality of buffers in a given cycle, a valid instruction based upon a thread selection algorithm; wherein the plurality of buffers is grouped into a plurality of thread groups, each thread group comprising a portion of the plurality of buffers, wherein the pick unit is further configured to independently pick one instruction from each thread group in a given cycle; wherein the pick unit is further configured to cancel, in the given cycle, the picking of the valid instruction in response to receiving a cancel indication.
Method for manufacturing a stacked structure comprising a receiving substrate and a surface film, the method comprising the following steps: a) providing a support substrate and an initial substrate, each having a front face (30a, 40a) and a rear face (30b, 40b), b) forming a buried brittle plane in the support substrate, by implanting lightweight ions through the front face of said substrate, c) joining the support substrate and the initial substrate by their respective front faces (30a, 40a), d) mechanically and/or chemically thinning the initial substrate from the rear face thereof to form a donor substrate comprising a donor layer that originates from the initial substrate and is arranged on the support substrate, and the buried brittle plane present in the support substrate, the donor substrate having a front face on the side of the donor layer and a rear face on the side of the support substrate, e) providing a receiving substrate having a front face and a rear face, f) joining the donor substrate and the receiving substrate by their respective front faces (60a, 70a), g) separating along the buried brittle plane (32, 42), so as to form the stacked structure comprising the receiving substrate and the surface film including the donor layer and a thin transferred layer that originates from the support substrate. a) providing a support substrate and an initial substrate, each having a front face (30a, 40a) and a rear face (30b, 40b), b) forming a buried brittle plane in the support substrate, by implanting lightweight ions through the front face of said substrate, c) joining the support substrate and the initial substrate by their respective front faces (30a, 40a), d) mechanically and/or chemically thinning the initial substrate from the rear face thereof to form a donor substrate comprising a donor layer that originates from the initial substrate and is arranged on the support substrate, and the buried brittle plane present in the support substrate, the donor substrate having a front face on the side of the donor layer and a rear face on the side of the support substrate, e) providing a receiving substrate having a front face and a rear face, f) joining the donor substrate and the receiving substrate by their respective front faces (60a, 70a), g) separating along the buried brittle plane (32, 42), so as to form the stacked structure comprising the receiving substrate and the surface film including the donor layer and a thin transferred layer that originates from the support substrate.
A compound of Formula I, wherein: R 1 is H or halo; R 2 is H, halo, or cyano; R 3 is R 4 or R 5; R 4 is halo or cyano; R 5 is phenyl, heteroaryl, -C(=O)R 5', C 1-6 alkyl, or benzyl, optionally substituted with one or more R 5'; R 5' is C 1-6 alkyl, cyano, hydroxyl, heterocycloalkyl, phenyl, amino, C 1-10 alkyl amino, di C 1-10 alkyl amino, or C 1-6 alkoxy; and X is C 1-6 alkyl or halo; or a pharmaceutically acceptable salt thereof. R 1 is H or halo; R 2 is H, halo, or cyano; R 3 is R 4 or R 5; R 4 is halo or cyano; R 5 is phenyl, heteroaryl, -C(=O)R 5', C 1-6 alkyl, or benzyl, optionally substituted with one or more R 5'; R 5' is C 1-6 alkyl, cyano, hydroxyl, heterocycloalkyl, phenyl, amino, C 1-10 alkyl amino, di C 1-10 alkyl amino, or C 1-6 alkoxy; and R 4 is halo or cyano; R 5 is phenyl, heteroaryl, -C(=O)R 5', C 1-6 alkyl, or benzyl, optionally substituted with one or more R 5'; R 5' is C 1-6 alkyl, cyano, hydroxyl, heterocycloalkyl, phenyl, amino, C 1-10 alkyl amino, di C 1-10 alkyl amino, or C 1-6 alkoxy; and X is C 1-6 alkyl or halo; or a pharmaceutically acceptable salt thereof.
An image forming apparatus comprising: a latent image bearer (20C, 20K, 20M, and 20Y); a writing device configured to write a latent image onto the latent image bearer (20C, 20K, 20M, and 20Y); a detection device configured to detect, at a plurality of positions, a density of a toner image obtained through development of the latent image; and a controller configured to correct a writing intensity of the writing device to correct an uneven density based on detection values of the detection device, characterized in that the controller is configured to determine whether each of the detection values of the detection device is pass or fail, the controller is configured to correct, in response to a determination that a detection value of the detection values is fail, the writing intensity based on another detection value of the detection values determined to be pass at a position different from a position at which the detection value is determined to be fail, instead of correcting the writing intensity based on the detection value determined to be fail. a latent image bearer (20C, 20K, 20M, and 20Y); a writing device configured to write a latent image onto the latent image bearer (20C, 20K, 20M, and 20Y); a detection device configured to detect, at a plurality of positions, a density of a toner image obtained through development of the latent image; and a controller configured to correct a writing intensity of the writing device to correct an uneven density based on detection values of the detection device, characterized in that the controller is configured to determine whether each of the detection values of the detection device is pass or fail, the controller is configured to correct, in response to a determination that a detection value of the detection values is fail, the writing intensity based on another detection value of the detection values determined to be pass at a position different from a position at which the detection value is determined to be fail, instead of correcting the writing intensity based on the detection value determined to be fail.
Method for generating a motion field between a current frame (I n) and a reference frame (I N) belonging to a video sequence from an input set of elementary motion fields; wherein an elementary motion field associated to an ordered pair of frames comprises for each pixel (x n) belonging to a first frame (I n) of said ordered pair of frames, a motion vector computed from a location of said pixel (x n) in said first frame to a location in a second frame of said ordered pair of frames; the method comprising the following steps performed for each pixel (x n) belonging to said current frame (I n): • determining a plurality of candidate motion vectors between said current frame (I n) and said reference frame (I N) wherein each candidate motion vector is the result of the sum of a first motion vector between said current frame (I n) and an intermediary frame belonging to the video sequence and of a second motion vector between said intermediary frame and said reference frame (I N); selecting an optimal motion vector among candidate motion vectors; wherein said first motion vector belongs to said input set of elementary motion fields wherein elementary motion fields are obtained with different time intervals between pairs of frames and said second motion vector belongs to a set of previously selected motion vectors for other current frames of the video sequence. • determining a plurality of candidate motion vectors between said current frame (I n) and said reference frame (I N) wherein each candidate motion vector is the result of the sum of a first motion vector between said current frame (I n) and an intermediary frame belonging to the video sequence and of a second motion vector between said intermediary frame and said reference frame (I N); selecting an optimal motion vector among candidate motion vectors; wherein said first motion vector belongs to said input set of elementary motion fields wherein elementary motion fields are obtained with different time intervals between pairs of frames and said second motion vector belongs to a set of previously selected motion vectors for other current frames of the video sequence.
A plate intended to be mounted on a steering column of a vehicle, said plate including a sheet from which an axially split drum capable of being mounted on said steering column extends orthogonally, said plate including a plurality of anti-rotation locking elements each arranged so as to cooperate by fitting with a cut-out of the steering column, characterized in that, the plate including two anti-rotation locking elements, the two anti-rotation locking elements are diametrically opposed with respect to the axis of the drum.
A laminated glass comprising: a first glass plate; a second glass plate; and an intermediate film positioned between the first glass plate and the second glass plate, and configured to be bonded to the first glass plate and to the second glass plate, wherein the laminated glass further includes an HUD (head-up display) display area used for a head-up display, wherein in a predetermined area of at least a part of the HUD display area, a wedge angle decreases, in accordance with a direction from a lower edge of the predetermined area to an upper edge of the predetermined area, within a range of greater than or equal to 0.3 mrad and less than or equal to 0.8 mrad per 100 mm, and wherein at least one of the first glass plate and the second glass plate has a maximum depth of curvature of 10 mm or more. a first glass plate; a second glass plate; and an intermediate film positioned between the first glass plate and the second glass plate, and configured to be bonded to the first glass plate and to the second glass plate, wherein the laminated glass further includes an HUD (head-up display) display area used for a head-up display, wherein in a predetermined area of at least a part of the HUD display area, a wedge angle decreases, in accordance with a direction from a lower edge of the predetermined area to an upper edge of the predetermined area, within a range of greater than or equal to 0.3 mrad and less than or equal to 0.8 mrad per 100 mm, and wherein at least one of the first glass plate and the second glass plate has a maximum depth of curvature of 10 mm or more.
A method, performed by a radio network device operative in a wireless communication network utilizing slot timing where a slot comprises a predetermined number of symbols, of transmitting data and Uplink Control Information, UCI, comprising: transmitting uplink data on a physical uplink shared channel aggregating two or more contiguous slots; in Downlink Control Information, DCI, receiving an indication in which of the aggregated slots to transmit UCI; and transmitting, in addition to the uplink data, UCI in the indicated slot. transmitting uplink data on a physical uplink shared channel aggregating two or more contiguous slots; in Downlink Control Information, DCI, receiving an indication in which of the aggregated slots to transmit UCI; and transmitting, in addition to the uplink data, UCI in the indicated slot.
A payment application isolation method, wherein the method is applied to a terminal and comprises: obtaining a payment application that is selected by a user and that is to be added to an isolation area, wherein the payment application includes attribute information of being addable to a first isolation area or a second isolation area; and if the to-be-added payment application includes attribute information of being addable to a first isolation area, adding the to-be-added payment application to the first isolation area; or if the to-be-added payment application includes attribute information of being addable to a second isolation area, adding the to-be-added payment application to the second isolation area, wherein a payment application added to the first isolation area is invocable by a trusted application installed outside the first isolation area, and a payment application added to the second isolation area is completely isolated from an application installed outside the second isolation area. obtaining a payment application that is selected by a user and that is to be added to an isolation area, wherein the payment application includes attribute information of being addable to a first isolation area or a second isolation area; and if the to-be-added payment application includes attribute information of being addable to a first isolation area, adding the to-be-added payment application to the first isolation area; or if the to-be-added payment application includes attribute information of being addable to a second isolation area, adding the to-be-added payment application to the second isolation area, wherein a payment application added to the first isolation area is invocable by a trusted application installed outside the first isolation area, and a payment application added to the second isolation area is completely isolated from an application installed outside the second isolation area.
An electrical motor vehicle vacuum pump arrangement comprising a housing assembly with an inlet opening arrangement and an outlet opening arrangement, which housing assembly has a pump apparatus and a drive motor, wherein said pump apparatus has a pump rotor housing composed of an inlet-side and an outlet-side face wall (16, 18) and of a pump rotor housing part arranged therebetween, which enclose a pump rotor chamber in which a pump rotor is provided, wherein said drive motor has a motor rotor and a motor stator, wherein sound damping means (50, 58, 60) for noise reduction are provided, wherein said sound damping means (50, 58, 60) have at least two sound damping chambers (50, 58) connected in series, wherein said first sound damping chamber is fluidically connected to said pump rotor chamber via a first connecting arrangement and is fluidically connected to said second sound damping chamber via a second connecting arrangement, and wherein said second sound damping chamber is fluidically connected to said outlet opening arrangement, wherein at least one sound damping means in the form of a bore arrangement is provided for said outlet opening arrangement, characterized in that the outlet opening arrangement is provided as a bore arrangement in the form of successive bore elements (62, 64, 66) in the outlet-side face wall, in the pump rotor housing part and in the inlet-side face wall.
A process for the production of glycerol alkyl ethers by glycerol etherification with straight, branched or cyclic olefinic hydrocarbons having 2 to 10 carbon atoms, in the presence of homogeneous acid catalyst, comprising a reaction step for the etherification reaction of glycerol and said olefinic hydrocarbons, and a step for the neutralization of the acid catalyst with caustic and separation of formed salt, wherein the reaction step starts in a multi phase system comprising a polar glycerol phase comprising mainly glycerol and the homogenous acid catalyst, and a non-polar olefin phase comprising olefinic hydrocarbons having 2 to 10 carbon atoms, and wherein a first part of the reaction is carried out in the polar glycerol phase, while as the reaction proceeds, the multiphase system converts into only one liquid phase as a consequence of olefin consumption and of concentration increase of glycerol alkyl ethers, in which one liquid phase the reaction proceeds further, wherein the reaction step is carried out in a plug flow type reactor batchwise or continuously in a cascade of continuously stirred tank reactors (CSTRs). a reaction step for the etherification reaction of glycerol and said olefinic hydrocarbons, and a step for the neutralization of the acid catalyst with caustic and separation of formed salt,
A method in a communication network node of controlling an uplink data rate between a user equipment and said communication network node, which are communicating with each other on uplink and downlink data channels over a radio interface, whereby an available scheduling headroom is distributed by a scheduler between user equipments which are to be scheduled, wherein said available scheduling headroom is the total amount of uplink radio resources that said user equipment may use, characterized in that, the method comprises the step of sending, to said user equipment, a scheduling grant signalling comprising a granted headroom defining a total headroom said user equipment can use for uplink transmission, based on which granted headroom said user equipment is able to select a transport format combination.
A method of sensing the presence of moisture on a vehicle window, the method comprising: moisture receiving data relating to at least two moisture sensing capacitors supported by the vehicle window; autocorrelating the data relating to each capacitor to obtain autocorrelated data; and determining, based at least on said autocorrelated data, whether moisture is present on an exterior surface of the vehicle window. receiving data relating to at least two moisture sensing capacitors supported by the vehicle window; autocorrelating the data relating to each capacitor to obtain autocorrelated data; and determining, based at least on said autocorrelated data, whether moisture is present on an exterior surface of the vehicle window.
A board production management device configured to manage a board production line that is configured to produce boards mounted with electronic components or board production devices that configure the board production line, the board production management device comprising: an initial notification section configured to, when an error cause that requires countermeasures occurs at the board production line or the board production device, issue notification information including contents of countermeasures to a notifyee characterized by an escalation notification section configured to, in a case in which the error cause is not resolved after a specified time has elapsed since the error cause occurred, issue the notification information after escalating the contents of the countermeasures, wherein the initial notification section is configured to issue the notification information including countermeasures that do not change operating conditions of the board production line or the board production device, and the escalation notification section is configured to issue the notification including countermeasures that change the operating conditions of the board production line or the board production device. an initial notification section configured to, when an error cause that requires countermeasures occurs at the board production line or the board production device, issue notification information including contents of countermeasures to a notifyee characterized by an escalation notification section configured to, in a case in which the error cause is not resolved after a specified time has elapsed since the error cause occurred, issue the notification information after escalating the contents of the countermeasures, wherein the initial notification section is configured to issue the notification information including countermeasures that do not change operating conditions of the board production line or the board production device, and the escalation notification section is configured to issue the notification including countermeasures that change the operating conditions of the board production line or the board production device.
A system (1, 51, 71, 81, 91, 101, 111) for the recovery and management of atmospheric gas for use as a vehicle propellant, comprising a compressor configured to draw in and compress atmospheric gas, and a first storage tank configured to store liquefied atmospheric gas from the compressor (6, 8, 10) and comprising an inlet duct (14, 14a) for the supply of liquefied atmospheric gas thereto, the inlet duct (14, 14a) being fluidly connected to the compressor (6. 8, 10), characterised in that the system comprises a second storage tank (4, 54a) that is configured to store liquefied atmospheric gas from the compressor (6, 8, 10) and comprises an inlet duct (14, 14b, 56, 74) for the supply of liquefied gas thereto and a heater (20, 64) operable to heat liquefied atmospheric gas in the second storage tank to convert it to a high pressure gas, wherein the second storage tank (4, 54a) includes an outlet duct fluidly coupled to the first storage tank for supplying high pressure gas to the first storage tank and, a control valve in said outlet duct, and wherein the first storage tank includes an outlet duct for the flow of liquid out of the first storage tank under pressure provided by the gas from the second storage tank (4, 54a).