mhurhangee/ep-ind-claims huggingface dataset:
A computer-implemented method for synthesising a height-field terrain, the method being conducted on a computing device and comprising: providing access to multiple exemplar terrain image-based templates based on real terrain exemplar images; generating a working terrain image with user-defined target terrain dimensions and an associated working terrain height image, including: providing user-defined constraints including height constraints and terrain type constraints; sampling a plurality of the exemplar terrain templates for addition of the templates to the working terrain image; and performing image synthesis to improve the working terrain image including matching the type and height of the exemplar terrain samples to the user-defined type and height constraints; controlling modification of the working terrain image by applying user-defined constraints to modify the synthesised terrain; and outputting the working terrain image as a synthesised terrain in the form of a synthesised height-field. providing access to multiple exemplar terrain image-based templates based on real terrain exemplar images; generating a working terrain image with user-defined target terrain dimensions and an associated working terrain height image, including: providing user-defined constraints including height constraints and terrain type constraints; sampling a plurality of the exemplar terrain templates for addition of the templates to the working terrain image; and performing image synthesis to improve the working terrain image including matching the type and height of the exemplar terrain samples to the user-defined type and height constraints; providing user-defined constraints including height constraints and terrain type constraints; sampling a plurality of the exemplar terrain templates for addition of the templates to the working terrain image; and performing image synthesis to improve the working terrain image including matching the type and height of the exemplar terrain samples to the user-defined type and height constraints; controlling modification of the working terrain image by applying user-defined constraints to modify the synthesised terrain; and outputting the working terrain image as a synthesised terrain in the form of a synthesised height-field.
A method of processing information related to a screen displayed on a first device, performed by a head-mounted display, HMD, device, the method comprising: obtaining, at the HMD device via a network connection to the first device, a display screen displayed on the first device and information related to the display screen according to a screen display request regarding the first device, the display screen comprising information displayed on a display unit of the first device (operation 210); determining, at the HMD device, an additional screen based on the display screen on the first device and the information related to the display screen (operation 220); and displaying the additional screen as a virtual image viewed near the display screen on the first device (operation 230); wherein the information related to the display screen comprises at least information related to a content of the additional screen. obtaining, at the HMD device via a network connection to the first device, a display screen displayed on the first device and information related to the display screen according to a screen display request regarding the first device, the display screen comprising information displayed on a display unit of the first device (operation 210); determining, at the HMD device, an additional screen based on the display screen on the first device and the information related to the display screen (operation 220); and displaying the additional screen as a virtual image viewed near the display screen on the first device (operation 230); wherein the information related to the display screen comprises at least information related to a content of the additional screen.
A process for producing an absorbent structure comprising the following steps: - providing a carrier layer; - positioning particulate absorbent material onto the carrier layer according to a continuously connected absorbent material pattern of particulate absorbent material clusters with areas where substantially no particulate absorbent material is present in between the particulate absorbent material clusters; - providing an auxiliary layer covering the particulate absorbent material so as to form a sandwich structure of the carrier layer, the auxiliary layer and the particulate absorbent material; - attaching an adhesive to the carrier layer and/or to the auxiliary layer prior to the bringing together of the sandwich structure; - after the bringing together of the sandwich structure, attaching the carrier layer to the auxiliary layer to provide substantially detachable or temporary secondary bonding regions corresponding with the areas where substantially no particulate absorbent material is present. - providing a carrier layer; - positioning particulate absorbent material onto the carrier layer according to a continuously connected absorbent material pattern of particulate absorbent material clusters with areas where substantially no particulate absorbent material is present in between the particulate absorbent material clusters; - providing an auxiliary layer covering the particulate absorbent material so as to form a sandwich structure of the carrier layer, the auxiliary layer and the particulate absorbent material; - attaching an adhesive to the carrier layer and/or to the auxiliary layer prior to the bringing together of the sandwich structure; - after the bringing together of the sandwich structure, attaching the carrier layer to the auxiliary layer to provide substantially detachable or temporary secondary bonding regions corresponding with the areas where substantially no particulate absorbent material is present.
An apparatus for computing in association with one or more mobile client devices, comprising: one or more processors; and a virtual sensor server to be operated by the one or more processors, to provide virtual sensor service to the one or more mobile client devices to virtualize one or more sensors of each of the one or more mobile client devices; wherein the virtual sensor server is to provide sensor data to each of the one or more mobile client devices, or to report sensor data to one or more recipients external to the one or more mobile client devices on behalf of respective one or ones of the one or more mobile client devices, the provision or the reporting superseding the corresponding sensor(s) on the respective one or more of the mobile client devices; wherein the virtual sensor service includes provision to the one or more mobile client devices, one or more configuration or operational policies for the one or more sensors on the one or more mobile client devices; wherein the one or more configuration or operational policies comprise one or more configuration or operational policies for the one or more sensors on the one or more mobile client devices, while the one or more mobile client devices are in a geo-fenced area. one or more processors; and a virtual sensor server to be operated by the one or more processors, to provide virtual sensor service to the one or more mobile client devices to virtualize one or more sensors of each of the one or more mobile client devices; wherein the virtual sensor server is to provide sensor data to each of the one or more mobile client devices, or to report sensor data to one or more recipients external to the one or more mobile client devices on behalf of respective one or ones of the one or more mobile client devices, the provision or the reporting superseding the corresponding sensor(s) on the respective one or more of the mobile client devices; wherein the virtual sensor service includes provision to the one or more mobile client devices, one or more configuration or operational policies for the one or more sensors on the one or more mobile client devices; wherein the one or more configuration or operational policies comprise one or more configuration or operational policies for the one or more sensors on the one or more mobile client devices, while the one or more mobile client devices are in a geo-fenced area.
A camera system comprising a camera with a lens and an image sensor, and a liquid crystal diffuser in a light path of the camera, and characterized by a diffuser driver for electronically changing an amount of diffusion of the liquid crystal diffuser on light received by the camera system projected by the lens on the sensor during an individual exposure of the image on the sensor; a controller that synchronizes the diffuser driver and the amount of diffusion with the exposure to vary the amount of diffusion during the exposure; and recording means recording an image read from the sensor; and a deconvolutor for deconvolution of the recorded image, wherein diffusion during the individual exposure produces a blur kernel, the blur kernel comprising a blurred point imaged on the sensor, the blurred point being represented by a point spread function and having a blur radius that is constant for a range of object velocities and changes over time during the individual exposure, and wherein the deconvoluter is configured to deconvolute the recorded image, based on the blur kernel, by using an inverse point spread function.
Method for thermally treating at least one electrode film (111a; 111b) on a metal current collector, characterized by the following steps a. the current collector is inductively heated and b. an electrode film which is part of a cell comprising at least one positive electrode and at least one negative electrode is chosen as the at least one electrode film to be thermally treated. a. the current collector is inductively heated and b. an electrode film which is part of a cell comprising at least one positive electrode and at least one negative electrode is chosen as the at least one electrode film to be thermally treated.
Functional block for a mixing installation for metering a liquid component, particularly for producing polyurethane, comprising the following: - an inlet for the feed of the component, - an outlet for the conveying out of the component, - a metering pump for the conveying of the component from the inlet and for the pressure increase of the component, - a drive for the metering pump, and - a coupling for the connection between the metering pump and the drive, characterised in that the functional block is constructed as an integral unit in that the components of the functional block are connected by a common housing to form an integral unit, and the fluid feed of the component between the inlet and the outlet is conducted completely within the functional block, wherein the functional block has an axis on which the metering pump, the coupling and the drive are arranged in alignment, wherein the functional block comprises a filter unit which is arranged in alignment on the axis of the functional block and has fluid connection into a flow path between the inlet and the metering pump. - an inlet for the feed of the component, - an outlet for the conveying out of the component, - a metering pump for the conveying of the component from the inlet and for the pressure increase of the component, - a drive for the metering pump, and - a coupling for the connection between the metering pump and the drive,
A method for decoding a video comprising: - decoding a partitioning tree structure corresponding to a partitioning process of a block of an image of the video; - decoding said block based at least on said partitioning tree structure; wherein a single partitioning tree structure is shared between luma and chroma blocks from a root node of the partitioning tree down to a switching node and separate partitioning tree structures are determined for luma blocks and for chroma blocks from the switching node down to a leaf node of the partitioning tree; the switching node being determined based on a partitioning block size. - decoding a partitioning tree structure corresponding to a partitioning process of a block of an image of the video; - decoding said block based at least on said partitioning tree structure;
A consumption meter arranged to measure a flow rate of a fluid, the consumption meter comprising: - a flow tube with a through-going opening for passage of the fluid between an inlet and an outlet, - first and second ultrasonic transducers (T1, T2) arranged at a wall of the flow tube for transmitting and receiving ultrasonic signals transmitted through the fluid, the flow tube providing a coupling surface between the ultrasonic transducers and the fluid flowing in the flow tube, - a control circuit comprising a flow measurement sub-circuit arranged for operating the first and second ultrasonic transducers (T1, T2), and being arranged to generate a signal indicative of the flow rate of the fluid from the transmitted and received ultrasonic signals transmitted through the fluid, characterised in that the control circuit further comprises a noise measurement sub-circuit, arranged for generating a signal indicative of a noise level of the flow tube or of the fluid therein by means of operating at least one of the first and second ultrasonic transducers (T1, T2) to detect acoustic signals of the flow tube or of the fluid. - a flow tube with a through-going opening for passage of the fluid between an inlet and an outlet, - first and second ultrasonic transducers (T1, T2) arranged at a wall of the flow tube for transmitting and receiving ultrasonic signals transmitted through the fluid, the flow tube providing a coupling surface between the ultrasonic transducers and the fluid flowing in the flow tube, - a control circuit comprising a flow measurement sub-circuit arranged for operating the first and second ultrasonic transducers (T1, T2), and being arranged to generate a signal indicative of the flow rate of the fluid from the transmitted and received ultrasonic signals transmitted through the fluid,
A mobile filling station for motor vehicles, including at least one fuel dispenser connected to a petrol tank, a lane element, and at least one collecting tub (15, 16) integrated in the lane element and provided for spilled fuel or contaminated fluids, characterized in that the mobile filling station is comprised of at least one container (1, 2) as a space-forming module, through which the vehicle to be filled can travel, wherein the bottom of the container supports or comprises the lane element and the top wall of the container forms the roof of the filling station, and wherein the at least one fuel dispenser is arranged within the container.
A system for simulating energy use of one or more vehicles under consideration, the system comprising: (a) a network accessible server; (b) an energy modeling tool linked to the server by means of the network, the energy modeling tool operable to generate energy consumption data that provides an energy consumption function of a vehicle under consideration; characterized by that the system further comprises (c) a data logging tool (17, 19) associated with one or more test vehicles (21, 23) for collecting one or more sets of drive cycle data based on real-world driving conditions, the data logging tool (17, 19) operable to communicate the drive cycle data to the server over the network, wherein the network accessible server is remote from the one or more test vehicles (21, 23); and (d) a fleet management tool linked to the server for combining the energy consumption data with the drive cycle data to estimate the energy use of the one or more vehicles under consideration. (a) a network accessible server; (b) an energy modeling tool linked to the server by means of the network, the energy modeling tool operable to generate energy consumption data that provides an energy consumption function of a vehicle under consideration; (c) a data logging tool (17, 19) associated with one or more test vehicles (21, 23) for collecting one or more sets of drive cycle data based on real-world driving conditions, the data logging tool (17, 19) operable to communicate the drive cycle data to the server over the network, wherein the network accessible server is remote from the one or more test vehicles (21, 23); and (d) a fleet management tool linked to the server for combining the energy consumption data with the drive cycle data to estimate the energy use of the one or more vehicles under consideration.
A valve attachment that is attachable to a valve to adjust a flow through the valve, wherein the valve attachment comprises a housing as well as a valve adapter, wherein the valve adapter facilitates a connection of the housing to the valve, wherein the housing is axially displaceable relative to the valve adapter during installation of the valve attachment to the valve, and wherein the housing can be fixed to the valve adapter in a plurality of relative axial positions, characterized in that, the valve attachment comprises an indicator means that indicates when the indicator means abuts the valve and thus a correct relative axial position of the housing and the valve is reached during installation.
An actuator adapted to provide drive power and hold power to an external device, comprising: a motor provided for driving the external device to a determined position when the motor is energized; a switching circuit configured to energize the motor with a high voltage to drive the external device to the determined position and energize the motor with a low voltage to hold the external device in the determined position; wherein the switching circuit comprises a drive/hold switch connected with the motor, the drive/hold switch configured to select a high voltage or a low voltage, the high voltage for energizing the motor to drive the external device to the determined position, and the low voltage to hold the external device when a determined time has passed from a moment the motor is energized, where the low voltage is lower than the high voltage; and an active/return switch connected with the motor, the active/return switch is a relay configured to: in a de-energized mode, connect the motor with a combination of a diode and a zener diode and disconnect the motor from the high voltage or low voltage selected by the drive/hold switch to provide a braking load for the motor when no power is supplied to the motor and the external device is returning a stasis state under spring power; and in an energized mode, supply the high voltage or the low voltage selected by the drive/hold switch to the motor and disconnect the motor from the combination of the diode and the zener diode. a motor provided for driving the external device to a determined position when the motor is energized; a switching circuit configured to energize the motor with a high voltage to drive the external device to the determined position and energize the motor with a low voltage to hold the external device in the determined position; wherein the switching circuit comprises a drive/hold switch connected with the motor, the drive/hold switch configured to select a high voltage or a low voltage, the high voltage for energizing the motor to drive the external device to the determined position, and the low voltage to hold the external device when a determined time has passed from a moment the motor is energized, where the low voltage is lower than the high voltage; and an active/return switch connected with the motor, the active/return switch is a relay configured to: in a de-energized mode, connect the motor with a combination of a diode and a zener diode and disconnect the motor from the high voltage or low voltage selected by the drive/hold switch to provide a braking load for the motor when no power is supplied to the motor and the external device is returning a stasis state under spring power; and in an energized mode, supply the high voltage or the low voltage selected by the drive/hold switch to the motor and disconnect the motor from the combination of the diode and the zener diode.
Method for generating magnetic resonance recordings of an examination object in a magnetic resonance tomography device, having the following steps: - acquisition of magnetic resonance raw data (RD1, RD2), wherein first magnetic resonance raw data is acquired in a first recording region (B1 2D, B1 3D) inside a homogeneity volume of the magnetic resonance tomography device in a k-space and second magnetic resonance raw data is acquired in a second recording region (B2 2D, B2 3D) outside the homogeneity volume of the magnetic resonance tomography device using a signal encoding function which is not present in the form of a conventional Fourier integral and is therefore not acquired in a k-space, - reconstruction of first image data on the basis of the first magnetic resonance raw data and reconstruction of second image data on the basis of the second magnetic resonance raw data, wherein - the first image data is reconstructed on the basis of the first magnetic resonance raw data by means of a Fourier transform and - the second image data is reconstructed on the basis of the second magnetic resonance raw data by a signal model-based image reconstruction method - combination of the first image data and the second image data to form combination image data which covers a region which extends in the first recording region (B1 2D, B1 3D) and the second recording region (B2 2D, B2 3D), wherein at least before an acquisition of the second magnetic resonance raw data a magnetic field distribution and a magnetic field distribution of the gradient non-linearity is determined at least in the second recording region (B2 2D, B2 3D). - acquisition of magnetic resonance raw data (RD1, RD2), wherein first magnetic resonance raw data is acquired in a first recording region (B1 2D, B1 3D) inside a homogeneity volume of the magnetic resonance tomography device in a k-space and second magnetic resonance raw data is acquired in a second recording region (B2 2D, B2 3D) outside the homogeneity volume of the magnetic resonance tomography device using a signal encoding function which is not present in the form of a conventional Fourier integral and is therefore not acquired in a k-space, - reconstruction of first image data on the basis of the first magnetic resonance raw data and reconstruction of second image data on the basis of the second magnetic resonance raw data, wherein - the first image data is reconstructed on the basis of the first magnetic resonance raw data by means of a Fourier transform and - the second image data is reconstructed on the basis of the second magnetic resonance raw data by a signal model-based image reconstruction method - combination of the first image data and the second image data to form combination image data which covers a region which extends in the first recording region (B1 2D, B1 3D) and the second recording region (B2 2D, B2 3D),
A layered double hydroxide of the general formula [(M 2+) 1-x (M 3+) x 2] x+ (A n-) x/n· mH 2 O, where, M 2+ is Zn 2+, Cu 2+, Fe 2+ or Ca 2+; M 3+ is Al 3+ or Fe 3+ and A n- is CO 3 2-, OH -, Cl -, NO 3 -, SO 4 2- or PO4 3-, "x" is in the range of 0.05 to 0.5, "n" is in the range of 1 to 10, and "m" is in the range of 0 to 10; wherein said layered double hydroxide is granular having particle size in the range of 50 μm to 2000 μm and wherein molar ratio of M 2+: M 3+ is in the range of 2:1 to 4:1.