mhurhangee/ep-ind-claims huggingface dataset:
A method of measuring dangerous situation information associated with a flow of traffic performed by an electronic device, the method comprising: collecting (305, 305a, 510) vector data from a portable device within a vehicle; determining (307, 520) a plurality of primarily accident types by using at least one of a size, acceleration, and angular velocity of the collected vector data with reference to a change of amount according to measurement information including vector data, acceleration information, and angular velocity information in relation to at least one of a size, an acceleration, and an angular velocity of the vector data according to each accident type; determining a final accident type as dangerous situation information associated with a flow of traffic by filtering (308, 530) the primarily determined accident types based on at least one of road information, road history information, road condition information, weather information, and time information; and transmitting the dangerous situation information associated with the flow of traffic to the portable device. collecting (305, 305a, 510) vector data from a portable device within a vehicle; determining (307, 520) a plurality of primarily accident types by using at least one of a size, acceleration, and angular velocity of the collected vector data with reference to a change of amount according to measurement information including vector data, acceleration information, and angular velocity information in relation to at least one of a size, an acceleration, and an angular velocity of the vector data according to each accident type; determining a final accident type as dangerous situation information associated with a flow of traffic by filtering (308, 530) the primarily determined accident types based on at least one of road information, road history information, road condition information, weather information, and time information; and transmitting the dangerous situation information associated with the flow of traffic to the portable device.
A method of encoding a 3D video data signal, the method comprising: providing at least a first image of a scene as seen from a first viewpoint, providing rendering information for enabling a decoder to generate at least one rendered image of the scene as seen from a rendering viewpoint being different than the first viewpoint, the rendering information comprising depth indication values for pixels in the first image, providing a preferred direction indicator, defining a preferred orientation of the rendering viewpoint relative to the first viewpoint, the preferred direction indicator indicating an orientation of the rendering viewpoint relative to the first viewpoint in which the rendering information provides a highest image quality of a rendered image wherein the image quality is related to an availability of data needed for reconstructing of de-occluded objects; and generating the 3D video data signal comprising encoded data representing the first image, the rendering information and the preferred direction indicator. providing at least a first image of a scene as seen from a first viewpoint, providing rendering information for enabling a decoder to generate at least one rendered image of the scene as seen from a rendering viewpoint being different than the first viewpoint, the rendering information comprising depth indication values for pixels in the first image, providing a preferred direction indicator, defining a preferred orientation of the rendering viewpoint relative to the first viewpoint, the preferred direction indicator indicating an orientation of the rendering viewpoint relative to the first viewpoint in which the rendering information provides a highest image quality of a rendered image wherein the image quality is related to an availability of data needed for reconstructing of de-occluded objects; and generating the 3D video data signal comprising encoded data representing the first image, the rendering information and the preferred direction indicator.
A method of forming surface structures on a solid plastic part, the method comprising: treating a surface of the solid plastic with laser interference patterning to define the surface structures on the solid plastic, the surface structures having at least one dimension approximately parallel to the surface of 100 nm to 1 mm, the solid plastic part patterned to define a diffusive surface for diffusing light that passes through the solid plastic part.
A method of image processing implemented on at least one machine, each of which has at least one processor and storage device for image processing, the method comprising: acquiring a three-dimensional image data set representative of a region including at least one airway, the data set comprising a plurality of voxels; identifying a first-level seed within the region; identifying a first-level airway within the region based on the first-level seed; defining a plurality of second-level seeds based on the first-level airway; characterised in that the method further comprises: identifying a second-level airway within the region by performing growing based on the plurality of second-level seeds using an energy-based 3D reconstruction algorithm; and fusing the first-level airway and the second-level airway to form an airway tree, wherein the growing using the energy-based 3D reconstruction algorithm is performed based on a first growing potential energy at a first state of an adjacent voxel of each second-level seed and a second growing potential energy at a second state of the adjacent voxel of the each second-level seed. acquiring a three-dimensional image data set representative of a region including at least one airway, the data set comprising a plurality of voxels; identifying a first-level seed within the region; identifying a first-level airway within the region based on the first-level seed; defining a plurality of second-level seeds based on the first-level airway; characterised in that the method further comprises: identifying a second-level airway within the region by performing growing based on the plurality of second-level seeds using an energy-based 3D reconstruction algorithm; and fusing the first-level airway and the second-level airway to form an airway tree, wherein the growing using the energy-based 3D reconstruction algorithm is performed based on a first growing potential energy at a first state of an adjacent voxel of each second-level seed and a second growing potential energy at a second state of the adjacent voxel of the each second-level seed. identifying a second-level airway within the region by performing growing based on the plurality of second-level seeds using an energy-based 3D reconstruction algorithm; and fusing the first-level airway and the second-level airway to form an airway tree, wherein the growing using the energy-based 3D reconstruction algorithm is performed based on a first growing potential energy at a first state of an adjacent voxel of each second-level seed and a second growing potential energy at a second state of the adjacent voxel of the each second-level seed.
An immediate-release oral pharmaceutical formulation in 30 mg tablet form, comprising by weight: - 4.69 % nalbuphine/HCl, - 54.58 % mannitol, - 37.8 % povidone, - 2 % crospovidone, - 0.10 % colloidal anhydrous silica, - 0.50 % sodium stearoyl fumarate, - 0.33 % talc. - 4.69 % nalbuphine/HCl, - 54.58 % mannitol, - 37.8 % povidone, - 2 % crospovidone, - 0.10 % colloidal anhydrous silica, - 0.50 % sodium stearoyl fumarate, - 0.33 % talc.
Method for data communication between rail vehicles located on a rail network and a target sink, wherein each rail vehicle forms a mobile node of a self-configuring radio network known per se for data communication, the nodes of which communicate with one another using topology-based routing methods, and each rail vehicle has a mobile, (de)activatable gateway at the network gateway to a further telecommunication network, wherein • the data communication from mobile nodes (A, B, C in Fig. 1) of a self-configuring radio network, which comprises at least one node formed as a locally installed gateway at the network gateway to a further telecommunication network, to the target sink takes place via this at least one locally installed gateway, • and also the data communication from mobile nodes of a self-configuring radio network, which comprises no nodes formed as locally installed gateway at the network gateway to a further telecommunication network, to the target sink takes place via a mobile gateway, wherein in the course of an initialisation a mobile node (B in Fig. 2) of this self-configuring radio network is determined, whose mobile gateway is activated for the data communication, characterised in that from each node of a self-configuring radio network status information regarding its own operational status is determined and is integrated in each case into a data set cyclically transmitted by this node, in order to determine the mobile gateway to be activated. • the data communication from mobile nodes (A, B, C in Fig. 1) of a self-configuring radio network, which comprises at least one node formed as a locally installed gateway at the network gateway to a further telecommunication network, to the target sink takes place via this at least one locally installed gateway, • and also the data communication from mobile nodes of a self-configuring radio network, which comprises no nodes formed as locally installed gateway at the network gateway to a further telecommunication network, to the target sink takes place via a mobile gateway,
A head mounted display, HMD, device comprising: a communication unit configured to transmit and receive data to and from an external device, a display unit configured to display visual information and include an optical see-through display panel, a camera unit configured to capture an image, and a processor configured to control the communication unit, the display unit and the camera unit, wherein the processor is further configured to: detect an object image from a first image, which includes the object image, the first image being displayed in the external device located in an angle of view area of the camera unit, display information related to the object image for a first threshold time, display the first image in addition to the information when detecting that the first image is switched to a second image within a second threshold time, wherein the second image does not include the object image, and not display the first image and the information when detecting that the first image is switched to the second image for more than the second threshold time and within the first threshold time, wherein the external device is paired with the HMD device. a communication unit configured to transmit and receive data to and from an external device, a display unit configured to display visual information and include an optical see-through display panel, a camera unit configured to capture an image, and a processor configured to control the communication unit, the display unit and the camera unit, wherein the processor is further configured to: detect an object image from a first image, which includes the object image, the first image being displayed in the external device located in an angle of view area of the camera unit, display information related to the object image for a first threshold time, display the first image in addition to the information when detecting that the first image is switched to a second image within a second threshold time, wherein the second image does not include the object image, and not display the first image and the information when detecting that the first image is switched to the second image for more than the second threshold time and within the first threshold time, wherein the external device is paired with the HMD device. detect an object image from a first image, which includes the object image, the first image being displayed in the external device located in an angle of view area of the camera unit, display information related to the object image for a first threshold time, display the first image in addition to the information when detecting that the first image is switched to a second image within a second threshold time, wherein the second image does not include the object image, and not display the first image and the information when detecting that the first image is switched to the second image for more than the second threshold time and within the first threshold time, wherein the external device is paired with the HMD device.
An air filtration media comprising a single layer polymeric electret nanofibrous web comprising a single source randomly intermingled fiber network of nanofibers, microfibers and coarse fibers made by a centrifugal melt spinning process, having an electrostatic charge up to -20 kV, a filtration efficiency range from about 70% to about 99.99%, and an air resistance less than about 2.5 mm wg for 0.3 diameter micron particles, wherein the nanofibrous web comprises: (a) at least about 65% by number of fibers in the nanofibrous web are nanofibers with a number average diameter less than about 1000 nm; (b) at most about 30% by number of fibers in the nanofibrous web are microfibers with a number average diameter from about 1.0 μm to about 3.0 μm; and (c) at most about 5% by number of fibers in the nanofibrous web are coarse fibers with a number average diameter greater than about 3.0 μm. (a) at least about 65% by number of fibers in the nanofibrous web are nanofibers with a number average diameter less than about 1000 nm; (b) at most about 30% by number of fibers in the nanofibrous web are microfibers with a number average diameter from about 1.0 μm to about 3.0 μm; and (c) at most about 5% by number of fibers in the nanofibrous web are coarse fibers with a number average diameter greater than about 3.0 μm.
A luminescence method of measuring presence and concentration of an analyte in a liquid sample, the method comprising a) marking the analyte with a marker capable of effecting luminescence upon application of excitation energy, wherein reference data being descriptive of the luminescence decay of the luminescence to be effected by the marker is stored in an electronic memory, b) applying the excitation energy for causing the luminescence, c) time-resolved measuring of the luminescence over a period of time for acquisition of a measurement signal, d) reading the reference data from the electronic memory, e) comparing the measurement signal with the luminescence decay described by the reference data, f) generating an output signal being indicative of the presence and concentration of the analyte in the liquid sample using the measurement signal, g) in case of a mismatch of the measurement signal and the luminescence decay described by the reference data, generating an error signal, wherein the reference data is descriptive of a linear law relating the maximum amplitude of the luminescence to a luminescence level reached after a predefined decay time, the method further comprising - determining the maximum amplitude from the measurement signal, - using the reference data to calculate an expected level of the luminescence after the predefined decay time, - comparing the expected level and the measurement signal at the predefined decay time for determining whether the mismatch exists. a) marking the analyte with a marker capable of effecting luminescence upon application of excitation energy, wherein reference data being descriptive of the luminescence decay of the luminescence to be effected by the marker is stored in an electronic memory, b) applying the excitation energy for causing the luminescence, c) time-resolved measuring of the luminescence over a period of time for acquisition of a measurement signal, d) reading the reference data from the electronic memory, e) comparing the measurement signal with the luminescence decay described by the reference data, f) generating an output signal being indicative of the presence and concentration of the analyte in the liquid sample using the measurement signal, g) in case of a mismatch of the measurement signal and the luminescence decay described by the reference data, generating an error signal, - determining the maximum amplitude from the measurement signal, - using the reference data to calculate an expected level of the luminescence after the predefined decay time, - comparing the expected level and the measurement signal at the predefined decay time for determining whether the mismatch exists.
An electrical heating installation of a building, which includes at least one electrical heating appliance disposed in this building and an automatic facility, the operation of said appliance being managed by said automatic facility which has an energy limitation function, this automatic facility transmitting to said heating appliance on/off, and/or speed, and/or operating setpoint commands as a function of the temperature detected outside the building, by a first probe, characterized by the fact that it comprises at least one additional temperature probe (S1, Sn) the value of which is set to a predetermined temperature (TE1, TEn) in combination with a limited operating time of the heating, or even of the absence of heating, as well as a module including a microprocessor which, when receiving an outside erase information (i 1; i 2) is configured to transmit to said appliance via a second module, a command for switching the measured temperature originating from said first probe to a decoyed, that is to say imposed, outside temperature (TEl) value, originating from said additional temperature probe (S1, Sn) for a predetermined duration.
Egg printing system comprising at least one printer having a printing head (30, 31, 32) and an endless egg conveyor that is adapted to move the eggs past the printer, the egg conveyor including at least one endless element running around a set of rotational wheels (7, 8) rotating around respective rotational axes and a drive unit defining a conveying direction of the conveyor, said egg conveyor having an upper run and a lower run and head sections (4, 5) where the direction of movement of the endless element between the upper run and the lower run is reversed over one or more of said rotational wheels (7, 8), characterized in that the egg conveyor furthermore includes at least one lane of egg retaining pockets coupled to the endless element, said lane of retaining pockets in use moving in the conveying direction, each of said retaining pockets having a central axis and an upper receiving opening to receive an egg with a longitudinal axis of the egg generally aligned with said central axis of the pocket, said pocket having a side opening at a side thereof facing in the conveying direction and/or in the opposite direction, leaving a side surface area exposed of the egg that is received in the pocket, in that the retaining pockets are each coupled to the endless element by a bearing structure allowing rotation of the retaining pocket around a rotational axis that extends parallel to the rotational axes of said rotational wheels (7, 8), allowing the retaining pockets to remain in an upright position in every position in the lane, and in that the printer is positioned at one of the head sections (4, 5) of the conveyor with a printing head facing the corresponding lane being directed to said side opening in the pocket to allow printing on said side surface area of the egg.
A method for optimizing energy management of an electrical propulsion system of a vehicle, wherein said electrical propulsion system of the vehicle comprises an energy storage system and an electric machine, wherein said electrical propulsion system further comprises at least one electrical component, wherein said electrical component has an idle state and an operation state, said method comprising the steps of: a) determining at least one parameter of said electrical component being in said operation state, wherein said at least one parameter is at least electrical current through said electrical component, the time during which said electrical component has been in the operation state, ambient temperature in vicinity of said electrical component, and duration of the latest idle state period prior to the current operation state of said electrical component; b) inputting said parameter into a thermal model of said electrical component; c) predicting the temperature T p of said electrical component being in operation state in real time on board the vehicle; d) comparing the predicted temperature value T p with a predefined threshold value T max, and, e) automatically reducing the magnitude of the electrical current through said electrical component to a safe level if said predicted temperature value T p exceeds said predefined threshold value T max, the safe level being a level at which the magnitude of the electrical current does not cause a further increase in the temperature of the electrical component. a) determining at least one parameter of said electrical component being in said operation state, wherein said at least one parameter is at least electrical current through said electrical component, the time during which said electrical component has been in the operation state, ambient temperature in vicinity of said electrical component, and duration of the latest idle state period prior to the current operation state of said electrical component; b) inputting said parameter into a thermal model of said electrical component; c) predicting the temperature T p of said electrical component being in operation state in real time on board the vehicle; d) comparing the predicted temperature value T p with a predefined threshold value T max, and, e) automatically reducing the magnitude of the electrical current through said electrical component to a safe level if said predicted temperature value T p exceeds said predefined threshold value T max, the safe level being a level at which the magnitude of the electrical current does not cause a further increase in the temperature of the electrical component.
A method for transmitting and receiving signals at a base station, BS, in a time division duplex, TDD, communication system, the method comprising: transmitting a first uplink/downlink configuration among a plurality of uplink/downlink configurations by higher layer to a user equipment, UE,; and transmitting a physical downlink control channel, PDCCH, indicating a second uplink/downlink configuration among the plurality of uplink/downlink configurations to the UE; and transmitting and receiving, with the UE, the signals based on the first uplink/downlink configuration or the second uplink/downlink configuration, wherein, if a transmission of a periodic Sounding Reference Signal, SRS, is configured to the UE, the periodic SRS is not received in a subframe indicated as a downlink subframe by the first uplink/downlink configuration when the PDCCH is not detected by the UE. transmitting a first uplink/downlink configuration among a plurality of uplink/downlink configurations by higher layer to a user equipment, UE,; and transmitting a physical downlink control channel, PDCCH, indicating a second uplink/downlink configuration among the plurality of uplink/downlink configurations to the UE; and transmitting and receiving, with the UE, the signals based on the first uplink/downlink configuration or the second uplink/downlink configuration, wherein, if a transmission of a periodic Sounding Reference Signal, SRS, is configured to the UE, the periodic SRS is not received in a subframe indicated as a downlink subframe by the first uplink/downlink configuration when the PDCCH is not detected by the UE.