mhurhangee/ep-ind-claims huggingface dataset:
A method for applying a physiological characteristic to a portion of video, the method comprising: receiving a frame of a video sequence; receiving a physiological signal; generating an attention mask based on the received physiological signal, wherein the attention mask includes attention weights indicative of a strength of the physiological signal for differing portions of the frame of the video sequence; generating a pixel adjustment value based on the physiological signal and the attention mask; and applying the pixel adjustment value to an identified pixel in the frame of the video sequence, wherein the attention mask is generated from a machine learning model specifically trained to generate attention masks based on a frame of a video sequence and the physiological signal. receiving a frame of a video sequence; receiving a physiological signal; generating an attention mask based on the received physiological signal, wherein the attention mask includes attention weights indicative of a strength of the physiological signal for differing portions of the frame of the video sequence; generating a pixel adjustment value based on the physiological signal and the attention mask; and applying the pixel adjustment value to an identified pixel in the frame of the video sequence, wherein the attention mask is generated from a machine learning model specifically trained to generate attention masks based on a frame of a video sequence and the physiological signal.
A battery pack for powering a device, comprising: a rechargeable battery having a positive and a negative terminal; a sensor for monitoring a parameter related to operation of the rechargeable battery; a clock; a memory for storing data related to operation of the rechargeable battery; and a processor in electrical communication with the sensor and the memory, the processor configured to receive signals from the sensor and to store the data related to operation of the rechargeable battery extracted from the signals from the sensor in the memory, the processor also configured to retrieve the stored data from the memory and to communicate the stored data to a processor external to the battery pack, characterised by the memory having a clock field and the processor being configured to retrieve the data from the memory associated with the last change of data related to operation of the rechargeable battery stored in the memory and to reset the clock using the retrieved data so that timestamps applied to data related to operation of the rechargeable battery increase with time after the processor experiences a power loss. a rechargeable battery having a positive and a negative terminal; a sensor for monitoring a parameter related to operation of the rechargeable battery; a clock; a memory for storing data related to operation of the rechargeable battery; and a processor in electrical communication with the sensor and the memory, the processor configured to receive signals from the sensor and to store the data related to operation of the rechargeable battery extracted from the signals from the sensor in the memory, the processor also configured to retrieve the stored data from the memory and to communicate the stored data to a processor external to the battery pack, characterised by the memory having a clock field and the processor being configured to retrieve the data from the memory associated with the last change of data related to operation of the rechargeable battery stored in the memory and to reset the clock using the retrieved data so that timestamps applied to data related to operation of the rechargeable battery increase with time after the processor experiences a power loss.
A battery that can supply electrical power to an electric motor for a saddle-type electric vehicle, and can be attached to, and detached from, a vehicle body, the battery comprising: a housing; a connector for fitting engagement with a connector of a battery case of the vehicle body; battery cells disposed inside the housing; wherein the battery is chargeable in a state where the battery is detached from the vehicle body; and a controller disposed inside the housing to manage the battery cells, to control the charging and discharging of the battery and to communicate with a motor control unit which is provided in the vehicle body and drives the electric motor; wherein the housing includes a right housing half body (31 R) and a left housing half body (31 L) which form right and left portions of the housing, respectively, and are assembled together in a lateral direction of the housing, the housing has a lateral width less than a length of the housing in the front-rear direction and vertical length of the housing, wherein the connector being disposed on the housing, characterized in that the controller is disposed either in front of or behind the battery cells in a front-rear direction of the housing, and the controller has a plurality of switching elements for controlling the charging and discharging of the battery, wherein an opening is formed in only one housing half body of the right housing half body and the left housing half body, and a heat radiating member is fitted into the opening of the housing to be thermally exposed and the heat radiating member extends along the plurality of switching elements. a housing; a connector for fitting engagement with a connector of a battery case of the vehicle body; battery cells disposed inside the housing; wherein the battery is chargeable in a state where the battery is detached from the vehicle body; and a controller disposed inside the housing to manage the battery cells, to control the charging and discharging of the battery and to communicate with a motor control unit which is provided in the vehicle body and drives the electric motor; wherein the housing includes a right housing half body (31 R) and a left housing half body (31 L) which form right and left portions of the housing, respectively, and are assembled together in a lateral direction of the housing, the housing has a lateral width less than a length of the housing in the front-rear direction and vertical length of the housing, wherein the connector being disposed on the housing, characterized in that the controller is disposed either in front of or behind the battery cells in a front-rear direction of the housing, and the controller has a plurality of switching elements for controlling the charging and discharging of the battery, wherein an opening is formed in only one housing half body of the right housing half body and the left housing half body, and a heat radiating member is fitted into the opening of the housing to be thermally exposed and the heat radiating member extends along the plurality of switching elements.
An article comprising: a first structural component comprising a polycarbonate composition; and a second structural component comprising a polymeric blend of (i) from 80 to 90 wt% of an ethylene/α-olefin multi-block copolymer consisting of ethylene monomer and a C 4 -C 8 α-olefin comonomer selected from butene, hexene, and octene, and (ii) from 10 to 20 wt% of a functional polymer modifier that is an ethylene/ester copolymer; and the second structural component is adhered to the first structural component. a first structural component comprising a polycarbonate composition; and a second structural component comprising a polymeric blend of (i) from 80 to 90 wt% of an ethylene/α-olefin multi-block copolymer consisting of ethylene monomer and a C 4 -C 8 α-olefin comonomer selected from butene, hexene, and octene, and (ii) from 10 to 20 wt% of a functional polymer modifier that is an ethylene/ester copolymer; and the second structural component is adhered to the first structural component.
An image-processing device comprising: a first converting means for converting a high-resolution character data to a high-resolution binary data; a first storing means for storing the high resolution binary data; a second converting means for converting the high-resolution character data to a low-resolution character data; a second storing means for storing the low-resolution character data and a low-resolution image data as low-resolution composite data; a third converting means for converting the low-resolution composite data into a high-resolution multi-value composite data; a first correcting means for correcting the high-resolution multi-value composite data by using a logic filter table that employs the high-resolution binary data stored in the first storing means, the first correcting means resulting in pixels being assigned either data from the high-resolution multi-value composite data or blank data; and a second correcting means for correcting the high-resolution multi-value composite data corrected by the first correcting means by either: (i) assigning to a blank pixel in the corrected high-resolution multi-value composite data that was generated to have the blank data when the first correcting means corrected the high-resolution multi-value composite data a value of a pixel adjacent to the blank pixel; or (ii) leaving said blank pixel in the corrected high-resolution multi-value composite data blank. a first converting means for converting a high-resolution character data to a high-resolution binary data; a first storing means for storing the high resolution binary data; a second converting means for converting the high-resolution character data to a low-resolution character data; a second storing means for storing the low-resolution character data and a low-resolution image data as low-resolution composite data; a third converting means for converting the low-resolution composite data into a high-resolution multi-value composite data; a first correcting means for correcting the high-resolution multi-value composite data by using a logic filter table that employs the high-resolution binary data stored in the first storing means, the first correcting means resulting in pixels being assigned either data from the high-resolution multi-value composite data or blank data; and a second correcting means for correcting the high-resolution multi-value composite data corrected by the first correcting means by either: (i) assigning to a blank pixel in the corrected high-resolution multi-value composite data that was generated to have the blank data when the first correcting means corrected the high-resolution multi-value composite data a value of a pixel adjacent to the blank pixel; or (ii) leaving said blank pixel in the corrected high-resolution multi-value composite data blank.
A sensor system for detecting elements of a flow of harvested material (50, 51, 52, 53, 54, 55, 56, 57, 58), in particular in an agricultural working machine, wherein the sensor system comprises an oscillating circuit and a measuring device, wherein the oscillating circuit consists of at least one capacitive structural element with a capacitance and an inductive structural element with an inductance, wherein the oscillating circuit has a resonance frequency, wherein the resonance frequency depends on the capacitance and the inductance, wherein the measuring device is provided and configured to determine the resonance frequency of the oscillating circuit, wherein the capacitive element is disposed in the region of the flow of harvested material (50, 51, 52, 53, 54, 55, 56, 57, 58), wherein the capacitive element is configured such that the capacitance is influenced by individual elements of the flow of harvested material (50, 51, 52, 53, 54, 55, 56, 57, 58), wherein the sensor system is provided and configured to infer at least one property of the respective element of the flow of harvested material (50, 51, 52, 53, 54, 55, 56, 57, 58) from the resonance frequency of the oscillating circuit, characterized in that the capacitive structural element is configured as a flat capacitor. wherein the sensor system comprises an oscillating circuit and a measuring device, wherein the oscillating circuit consists of at least one capacitive structural element with a capacitance and an inductive structural element with an inductance, wherein the oscillating circuit has a resonance frequency, wherein the resonance frequency depends on the capacitance and the inductance, wherein the measuring device is provided and configured to determine the resonance frequency of the oscillating circuit, wherein the capacitive element is disposed in the region of the flow of harvested material (50, 51, 52, 53, 54, 55, 56, 57, 58), wherein the capacitive element is configured such that the capacitance is influenced by individual elements of the flow of harvested material (50, 51, 52, 53, 54, 55, 56, 57, 58), wherein the sensor system is provided and configured to infer at least one property of the respective element of the flow of harvested material (50, 51, 52, 53, 54, 55, 56, 57, 58) from the resonance frequency of the oscillating circuit, characterized in that the capacitive structural element is configured as a flat capacitor.
Extension device adapted to be attached to an electrosurgical pencil with a suction channel and an electrode, the extension device comprises an extender (50;511) to extend the suction channel and an electrode extender (212,111,112) with conducting means of a conducting material extending inside the suction channel of the extender (50;511), characterized in that the electrode extender is comprised in a separate extension piece that comprises a pipe piece surrounding the conducting means of the electrode extender and extends through the length of said separate extension piece, which extension piece is adapted to be positioned on the electrosurgical pencil and on another extension piece by pushing the extension piece onto the electrosurgical pencil or the other extension piece to extend the length of the electrode projecting from the suction channel as well as the suction channel.
A separator for a non-aqueous secondary battery, the separator comprising: a porous substrate; a heat-resistant porous layer that is provided on one side or on both sides of the porous substrate, and that contains a binder resin and inorganic particles, the inorganic particles having an average primary particle diameter from 0.01 μm to less than 0.45 μm; wherein the average primary particle diameter is measured according to the method described in the description; and an adhesive layer that is provided on one side or on both sides of a laminated body of the porous substrate and the heat-resistant porous layer, and adhesive resin particles adhered to the laminated body; wherein the binder resin is selected from the group consisting of a wholly aromatic polyamide, a polyamideimide, a polyether sulfone, a polysulfone, a polyether ketone, a polyketone, a polyether imide, and a copolymerized polyether polyamide. a porous substrate; a heat-resistant porous layer that is provided on one side or on both sides of the porous substrate, and that contains a binder resin and inorganic particles, the inorganic particles having an average primary particle diameter from 0.01 μm to less than 0.45 μm; wherein the average primary particle diameter is measured according to the method described in the description; and an adhesive layer that is provided on one side or on both sides of a laminated body of the porous substrate and the heat-resistant porous layer, and adhesive resin particles adhered to the laminated body; wherein the binder resin is selected from the group consisting of a wholly aromatic polyamide, a polyamideimide, a polyether sulfone, a polysulfone, a polyether ketone, a polyketone, a polyether imide, and a copolymerized polyether polyamide.
A front module for a portion for supporting products of a product display unit, wherein the front module is configured to be disposed at the front end of the portion for supporting products, wherein the front module comprises a planar light guide plate and a light source associated to it, wherein light from the light source is coupled into the light guide plate and the light guide plate is configured to provide a back-lighting for a text and/or graphics information to be displayed at least in sections at the front side of the front module, wherein the light guide plate has a first non-curved portion, an adjacent curved light deflecting portion and a second non-curved portion adjacent to the curved light deflecting portion, and the curved light deflecting portion is configured for deflecting the light coupled into the light guide plate into another direction of propagation, characterized in that the light guide plate is configured such that light is respectively coupled out in different spatial directions in the first non-curved portion and in the second non-curved portion.
Method for optimising a signal-to-noise ratio of a magnetic resonance dataset which is acquired by means of a magnetic resonance system having at least one receive coil, said method comprising the steps: - providing a measurement protocol for an acquisition that is to be performed in order to obtain a magnetic resonance dataset of a predefined measurement volume, wherein the measurement protocol comprises at least one radiofrequency pulse having a predefined flip angle that is relevant to the signal amplitude, and wherein the measurement volume is a slice, a plurality of slices or a volume, i.e. a slab, of a 3D measurement; - determining a deviation of an actual flip angle from the predefined flip angle in a specific area of the predefined measurement volume for a preset transmitter scaling; - adjusting the transmitter scaling of the radiofrequency pulse in order to correct the actual flip angle so that the actual flip angle is approximated to the predefined flip angle in the specific area, and so that the signal-to-noise ratio lies above a minimum value in the entire predefined measurement volume; and - subsequent acquisition of the magnetic resonance dataset at the adjusted transmitter scaling. - providing a measurement protocol for an acquisition that is to be performed in order to obtain a magnetic resonance dataset of a predefined measurement volume, wherein the measurement protocol comprises at least one radiofrequency pulse having a predefined flip angle that is relevant to the signal amplitude, and wherein the measurement volume is a slice, a plurality of slices or a volume, i.e. a slab, of a 3D measurement; - determining a deviation of an actual flip angle from the predefined flip angle in a specific area of the predefined measurement volume for a preset transmitter scaling; - adjusting the transmitter scaling of the radiofrequency pulse in order to correct the actual flip angle so that the actual flip angle is approximated to the predefined flip angle in the specific area, and so that the signal-to-noise ratio lies above a minimum value in the entire predefined measurement volume; and - subsequent acquisition of the magnetic resonance dataset at the adjusted transmitter scaling.
A method for manufacturing a silicon wafer having a defect-free region, wherein a silicon wafer is sliced from a silicon single crystal ingot whose whole area in a radial direction is an N-region, the ingot being grown by the Czochralski method, wherein an N-region is a neutral region, where excess and deficiency of vacancies and interstitial-type point defects is small, the whole silicon wafer is previously pre-heated at not less than 500°C to less than 1100°C when performing the heat treatment, and then only a surface layer region having a predetermined depth from a front surface of the silicon wafer is subjected to heat treatment at a temperature of not less than 1100°C for not less than 0.01 msec to not more than 1 sec, to thereby make said surface layer region defect-free to form said defect-free region. wherein a silicon wafer is sliced from a silicon single crystal ingot whose whole area in a radial direction is an N-region, the ingot being grown by the Czochralski method, wherein an N-region is a neutral region, where excess and deficiency of vacancies and interstitial-type point defects is small, the whole silicon wafer is previously pre-heated at not less than 500°C to less than 1100°C when performing the heat treatment, and then only a surface layer region having a predetermined depth from a front surface of the silicon wafer is subjected to heat treatment at a temperature of not less than 1100°C for not less than 0.01 msec to not more than 1 sec, to thereby make said surface layer region defect-free to form said defect-free region.
Microwave cavity resonator, comprising: - a cavity housing forming a cavity, the cavity housing comprising a first housing wall and a second housing wall opposite the first housing wall, and - a resonator element arranged in the cavity and extending longitudinally along a longitudinal axis, wherein the resonator element comprises, when viewed along the longitudinal axis, a first end connected to the first housing wall and a second end opposite the first end, the second end being arranged at a distance from the second housing wall, wherein the resonator element, at its second end, comprises at least one first capacitor element (123, 124, 125) and the cavity housing comprises at least one second capacitor element (106, 107) reaching into the cavity, wherein the at least one second capacitor element (106, 107) is arranged on a side wall of the cavity housing extending in between the first housing wall and the second housing wall characterized in that the at least one first capacitor element (123, 124, 125) and the at least one second capacitor element (106, 107) are arranged coaxially to each other, and the at least one second capacitor element (106, 107) is arranged at a distance from the at least one first capacitor element (123, 124, 125) in a direction perpendicular to the longitudinal axis such that a gap is formed in a direction perpendicular to the longitudinal axis between the at least one first capacitor element (123, 124, 125) and the at least one second capacitor element (106, 107). - a cavity housing forming a cavity, the cavity housing comprising a first housing wall and a second housing wall opposite the first housing wall, and - a resonator element arranged in the cavity and extending longitudinally along a longitudinal axis, wherein the resonator element comprises, when viewed along the longitudinal axis, a first end connected to the first housing wall and a second end opposite the first end, the second end being arranged at a distance from the second housing wall, wherein the resonator element, at its second end, comprises at least one first capacitor element (123, 124, 125) and the cavity housing comprises at least one second capacitor element (106, 107) reaching into the cavity, wherein the at least one second capacitor element (106, 107) is arranged on a side wall of the cavity housing extending in between the first housing wall and the second housing wall