mhurhangee/ep-ind-claims huggingface dataset:
An image processor for receiving camera images taken with a plurality of cameras capturing the surroundings of a vehicle and generating a synthesized image from the camera images, the image processor comprising: a parameter generation section (108, 109) constructed to be able to generate a plurality of image synthesis parameter groups each representing the correspondence between the camera images and the synthesized image by using a coordinate of a pixel in the camera image used to generate each pixel in the synthesized image, wherein the synthesized image is generated from the camera images according to the image synthesis parameter group generated by the parameter generation section, characterized in that at least two of the image synthesis parameter groups represent substantially same composition of the synthesized image, the at least two of the image synthesis parameter groups have different spatial or temporal resolution relations between the camera images and the synthesized image, and the parameter generation section is adapted to switch the image synthesis parameter group to be generated among the at least two of the image synthesis parameter groups according to an output of a vehicle motion detection section for detecting the motion of the vehicle. a parameter generation section (108, 109) constructed to be able to generate a plurality of image synthesis parameter groups each representing the correspondence between the camera images and the synthesized image by using a coordinate of a pixel in the camera image used to generate each pixel in the synthesized image, wherein the synthesized image is generated from the camera images according to the image synthesis parameter group generated by the parameter generation section, characterized in that at least two of the image synthesis parameter groups represent substantially same composition of the synthesized image, the at least two of the image synthesis parameter groups have different spatial or temporal resolution relations between the camera images and the synthesized image, and the parameter generation section is adapted to switch the image synthesis parameter group to be generated among the at least two of the image synthesis parameter groups according to an output of a vehicle motion detection section for detecting the motion of the vehicle.
A method for treating battery waste, comprising: a first heat treatment step of heating the battery waste in an atmosphere comprising at least one selected from the group consisting of nitrogen, carbon dioxide and water vapor; and after the first heat treatment step, a second heat treatment step of changing the atmosphere in the first heat treatment step and heating the battery waste in an atmosphere which is different from the atmosphere in the first heat treatment step and which comprises a larger amount of oxygen than that in the first heat treatment step; wherein in the first heat treatment step oxygen is present, and an oxygen partial pressure of the atmosphere is retained in a range of higher than 0 atm to 4 × 10 -2 atm; wherein in the first heat treatment step, the highest temperature of the battery waste during heating is 400 °C to 650 °C; and wherein in the second heat treatment step, the highest temperature of the battery waste during heating is 400 °C to 650 °C. a first heat treatment step of heating the battery waste in an atmosphere comprising at least one selected from the group consisting of nitrogen, carbon dioxide and water vapor; and after the first heat treatment step, a second heat treatment step of changing the atmosphere in the first heat treatment step and heating the battery waste in an atmosphere which is different from the atmosphere in the first heat treatment step and which comprises a larger amount of oxygen than that in the first heat treatment step; wherein in the first heat treatment step oxygen is present, and an oxygen partial pressure of the atmosphere is retained in a range of higher than 0 atm to 4 × 10 -2 atm; wherein in the first heat treatment step, the highest temperature of the battery waste during heating is 400 °C to 650 °C; and wherein in the second heat treatment step, the highest temperature of the battery waste during heating is 400 °C to 650 °C.
A method of purifying a cell or a sub-cellular component by reversibly immobilizing a modified biotin compound to a support, the method comprising: (a) providing a first compound comprising desthiobiotin or a derivative thereof and a ligand directed to a target associated with the surface of the cell or a ligand directed to a target associated with a sub-cellular component or an anti-ligand directed to a ligand directed to a target associated with the surface of the cell; (b) providing a solid support comprising nitro-streptavidin; and (c) contacting the first compound and the solid support to form an immobilized material; wherein the first compound is brought into contact with the target associated with the surface of the cell or with the target associated with a sub-cellular component either before or after step (c), and wherein the first compound is releasable from the immobilized material by contact of the immobilised material with a displacement molecule selected from the group consisting of free biotin or fragments thereof. (a) providing a first compound comprising desthiobiotin or a derivative thereof and a ligand directed to a target associated with the surface of the cell or a ligand directed to a target associated with a sub-cellular component or an anti-ligand directed to a ligand directed to a target associated with the surface of the cell; (b) providing a solid support comprising nitro-streptavidin; and (c) contacting the first compound and the solid support to form an immobilized material; wherein the first compound is brought into contact with the target associated with the surface of the cell or with the target associated with a sub-cellular component either before or after step (c), and wherein the first compound is releasable from the immobilized material by contact of the immobilised material with a displacement molecule selected from the group consisting of free biotin or fragments thereof.
A network device, comprising: a first physical layer device (222, 402) that is configured to receive first network traffic from an optical line terminal (110, 210, 610, 910) in a passive optical network, PON, domain at a first transmission rate via a fiber optic media; a second physical layer device (224, 404) that is configured to transmit second network traffic to an end station (230, 630, 940) in a non-PON domain at a second transmission rate, wherein said second network traffic is based on said first network traffic; and a medium-to-medium adaptor (221, 410) that is configured to extract a resource apportionment identifier from a header portion of a frame structure contained in said first network traffic and to include said resource apportionment identifier in an Ethernet frame contained in said second network traffic, wherein said resource apportionment identifier is assigned to said end station (230, 630, 940) by said optical line terminal (110, 210, 610, 910) and enables said end station (230, 630, 940) to report a status to said optical line terminal (110, 210, 610, 910) and to grant bandwidth by said optical line terminal (110, 210, 610, 910) to said end station (230, 630, 940). a first physical layer device (222, 402) that is configured to receive first network traffic from an optical line terminal (110, 210, 610, 910) in a passive optical network, PON, domain at a first transmission rate via a fiber optic media; a second physical layer device (224, 404) that is configured to transmit second network traffic to an end station (230, 630, 940) in a non-PON domain at a second transmission rate, wherein said second network traffic is based on said first network traffic; and a medium-to-medium adaptor (221, 410) that is configured to extract a resource apportionment identifier from a header portion of a frame structure contained in said first network traffic and to include said resource apportionment identifier in an Ethernet frame contained in said second network traffic, wherein said resource apportionment identifier is assigned to said end station (230, 630, 940) by said optical line terminal (110, 210, 610, 910) and enables said end station (230, 630, 940) to report a status to said optical line terminal (110, 210, 610, 910) and to grant bandwidth by said optical line terminal (110, 210, 610, 910) to said end station (230, 630, 940).
A tiltrotor aircraft (100, 200, 300, 400, 500), comprising: a fuselage (102, 202, 302, 402, 502); a biplane wing (120, 220, 320, 420, 520, 530) coupled to the fuselage, wherein the biplane wing comprises an upper wing structure (121a-b, 221a-b, 231a-b, 241a-b, 251a-b, 321, 331, 341, 421a-b) and a lower wing structure (122a-b, 222a-b, 232a-b, 242a-b, 252a-b, 322, 332, 342, 422a-b); a nacelle (112a, 112b) coupled to each outboard end of the biplane wing (120, 220, 320, 420, 520, 530); a plurality of tiltrotors (110a-b, 210a-b, 410a-b) each tiltrotor housed by the respective nacelle (112a, 112b) and comprising a plurality of rotor blades mounted to the respective nacelle (112a, 112b); an engine housed in each nacelle (112a, 112b) to power each of the plurality of tiltrotors (110a-b, 210a-b, 410a-b); wherein the upper wing structure and the lower wing structure are spaced apart at the nacelles (112a, 112b) and characterised in that the upper wing structure and the lower wing structure are parallel to each other with horizontal orientation. a fuselage (102, 202, 302, 402, 502); a biplane wing (120, 220, 320, 420, 520, 530) coupled to the fuselage, wherein the biplane wing comprises an upper wing structure (121a-b, 221a-b, 231a-b, 241a-b, 251a-b, 321, 331, 341, 421a-b) and a lower wing structure (122a-b, 222a-b, 232a-b, 242a-b, 252a-b, 322, 332, 342, 422a-b); a nacelle (112a, 112b) coupled to each outboard end of the biplane wing (120, 220, 320, 420, 520, 530); a plurality of tiltrotors (110a-b, 210a-b, 410a-b) each tiltrotor housed by the respective nacelle (112a, 112b) and comprising a plurality of rotor blades mounted to the respective nacelle (112a, 112b); an engine housed in each nacelle (112a, 112b) to power each of the plurality of tiltrotors (110a-b, 210a-b, 410a-b); wherein the upper wing structure and the lower wing structure are spaced apart at the nacelles (112a, 112b) and characterised in that the upper wing structure and the lower wing structure are parallel to each other with horizontal orientation.
A method of communications in a wireless mesh network having a plurality of communications nodes, the method comprising: selecting a plurality of narrowband radio channels from a predefined radio spectrum range, wherein the plurality of narrowband radio channels define a non-contiguous portion of predefined radio spectrum range; and establishing a plurality of wireless communications links between the communications nodes to form an at least partially connected mesh network, wherein said establishing comprises: transmitting synchronization data from a first one of the plurality of communications nodes on at least two of the plurality of radio channels, wherein the synchronization data is transmitted synchronously across the at least two of the plurality of radio channels; combining energy received at a second one of the plurality of communications nodes from the at least two of the plurality of radio channels to provide a combined signal, the energy comprising the synchronization data,; and synchronizing the second one of the plurality of communications node to the first one of the plurality of communications nodes using the combined signal. selecting a plurality of narrowband radio channels from a predefined radio spectrum range, wherein the plurality of narrowband radio channels define a non-contiguous portion of predefined radio spectrum range; and establishing a plurality of wireless communications links between the communications nodes to form an at least partially connected mesh network, wherein said establishing comprises: transmitting synchronization data from a first one of the plurality of communications nodes on at least two of the plurality of radio channels, wherein the synchronization data is transmitted synchronously across the at least two of the plurality of radio channels; combining energy received at a second one of the plurality of communications nodes from the at least two of the plurality of radio channels to provide a combined signal, the energy comprising the synchronization data,; and synchronizing the second one of the plurality of communications node to the first one of the plurality of communications nodes using the combined signal. transmitting synchronization data from a first one of the plurality of communications nodes on at least two of the plurality of radio channels, wherein the synchronization data is transmitted synchronously across the at least two of the plurality of radio channels; combining energy received at a second one of the plurality of communications nodes from the at least two of the plurality of radio channels to provide a combined signal, the energy comprising the synchronization data,; and synchronizing the second one of the plurality of communications node to the first one of the plurality of communications nodes using the combined signal.
A glass or glass ceramic article, comprising: - a sheet-like glass or glass ceramic substrate having two opposite faces (20, 21), which - in the visible spectral range from 380 nm to 780 nm exhibits a light transmittance τ vis of at least 1 %, preferably at least 30% for visible light that passes through the glass or glass ceramic substrate from one face (20, 21) to the opposite face (21, 20); wherein - one face (20, 21) of the glass or glass ceramic substrate is provided with an opaque coating which in the visible spectral range from 380 nm to 780 nm exhibits a light transmittance τ vis of not more than 5 %; and wherein a linear opening is provided in the opaque coating, which allows light that is incident on the surface of the coating to pass through the coating and through the glass or glass ceramic substrate; wherein said opening has a width of not more than 25 μm, and wherein the width is at least 0.5 μm. - a sheet-like glass or glass ceramic substrate having two opposite faces (20, 21), which - in the visible spectral range from 380 nm to 780 nm exhibits a light transmittance τ vis of at least 1 %, preferably at least 30% for visible light that passes through the glass or glass ceramic substrate from one face (20, 21) to the opposite face (21, 20); wherein - one face (20, 21) of the glass or glass ceramic substrate is provided with an opaque coating which in the visible spectral range from 380 nm to 780 nm exhibits a light transmittance τ vis of not more than 5 %; and wherein a linear opening is provided in the opaque coating, which allows light that is incident on the surface of the coating to pass through the coating and through the glass or glass ceramic substrate; wherein said opening has a width of not more than 25 μm, and wherein the width is at least 0.5 μm.
A control method for controlling an electronic apparatus comprising an image sensor and a touch screen, the image sensor comprising a photosensitive pixel group array and a color filter unit array, the photosensitive pixel group array comprising a plurality of photosensitive pixel groups each comprising a plurality of photosensitive pixels adjacent to each other, and the color filter unit array comprising a plurality of color filter units arranged in a predetermined color array pattern, each color filter unit covering a corresponding photosensitive pixel group and having a uniform color, the control method comprising: controlling the image sensor to output a merged image and a color block image of a scene, wherein the merged image comprises a plurality of merged pixels arranged in the predetermined color array pattern, wherein each of the plurality of merged pixels is output by a corresponding merged photosensitive pixel, wherein the plurality of photosensitive pixels of a corresponding photosensitive pixel group of the photosensitive pixel group array are merged into the corresponding merged photosensitive pixel; and wherein the color block image comprises a plurality of image pixel groups arranged in the predetermined color array pattern, wherein each of the plurality of image pixel groups comprises a plurality of original pixels having a same color and adjacent to each other, wherein each of the plurality of original pixels is output by a corresponding photosensitive pixel of the plurality of photosensitive pixels; using a third interpolating method to convert the merged image into a preview image; controlling the touch screen to display the preview image; defining a first predetermined region based on a user input to the touch screen; converting the color block image into a first imitating image and converting the merged image into a restored image, wherein in a second predetermined region, the color block image is converted using a first interpolating method, and the second predetermined region corresponds to the first predetermined region (2008; or 2504); wherein the first imitating image comprises a plurality of imitating pixels arranged in the predetermined color array pattern, and wherein a number of the plurality of imitating pixels is same as number of the plurality of photosensitive pixels; wherein in a third predetermined region, the merged image is converted using a second interpolating method, and the third predetermined region corresponds to a first region outside the first predetermined region (2008; or 2504); wherein the restored image comprises a plurality of restored pixels arranged in the predetermined color array pattern and same in pixel number as the plurality of photosensitive pixels; and obtaining a second imitating image by synthesizing the first imitating image and the restored image.
A communication terminal apparatus comprising: a receiver adapted to receive a radio signal from a base station apparatus; a reception quality detector adapted to detect a reception quality of said received signal from a received known reference signal; and a selector adapted to select a modulation method applicable to the radio signal from a plurality of modulation methods of varying transmission rates based on a comparison between the detected reception quality and a threshold for said reception quality; characterized by a transmitter adapted to transmit a command to request the selected modulation method to the base station apparatus; and a Doppler frequency detector adapted to detect a Doppler frequency from said received known reference signal, wherein said selector provides two reception quality thresholds for at least each of a first and a second Doppler frequency, the second Doppler frequency being higher than the first Doppler frequency, the larger reception quality threshold for the second Doppler frequency being greater than the larger reception quality threshold for the first Doppler frequency, and said selector is adapted to select said thresholds for said reception quality among the two reception quality thresholds for the first Doppler frequency and the other two reception quality thresholds for the second Doppler frequency, in response to the detected Doppler frequency. a receiver adapted to receive a radio signal from a base station apparatus; a reception quality detector adapted to detect a reception quality of said received signal from a received known reference signal; and a selector adapted to select a modulation method applicable to the radio signal from a plurality of modulation methods of varying transmission rates based on a comparison between the detected reception quality and a threshold for said reception quality;
An IAP inhibitor for use in combination with an oncolytic virus for treating a tumor, wherein the oncolytic virus is at least one selected from the group consisting of an M1 virus and a Getah virus.
A device to process an audio signal representing input sound, the device comprising: one or more sensors coupled to a hand detector and configured to provide sensor data to the hand detector; a hand detector; and an automatic speech recognition system including a buffer and an automatic speech recognition engine; the hand detector being configured to: generate a first indication responsive to detection, via the one or more sensors, of at least a portion of a hand being positioned within a range of 10cm to 30cm from the one or more sensors; and generate a second indication in response to detection that the portion of the hand is no longer positioned within a range of 10cm to 30cm from the one or more sensors, wherein the second indication corresponds to an end-of-utterance signal that causes the automatic speech recognition engine to begin processing audio data from the buffer; and the automatic speech recognition system configured to initiate buffering of the audio signal responsive to the first indication, and to process the audio signal, wherein the audio signal comprises the input sound received between the generation of the first indication and the generation of the second indication. one or more sensors coupled to a hand detector and configured to provide sensor data to the hand detector; a hand detector; and an automatic speech recognition system including a buffer and an automatic speech recognition engine; the hand detector being configured to: generate a first indication responsive to detection, via the one or more sensors, of at least a portion of a hand being positioned within a range of 10cm to 30cm from the one or more sensors; and generate a second indication in response to detection that the portion of the hand is no longer positioned within a range of 10cm to 30cm from the one or more sensors, wherein the second indication corresponds to an end-of-utterance signal that causes the automatic speech recognition engine to begin processing audio data from the buffer; and generate a first indication responsive to detection, via the one or more sensors, of at least a portion of a hand being positioned within a range of 10cm to 30cm from the one or more sensors; and generate a second indication in response to detection that the portion of the hand is no longer positioned within a range of 10cm to 30cm from the one or more sensors, wherein the second indication corresponds to an end-of-utterance signal that causes the automatic speech recognition engine to begin processing audio data from the buffer; and the automatic speech recognition system configured to initiate buffering of the audio signal responsive to the first indication, and to process the audio signal, wherein the audio signal comprises the input sound received between the generation of the first indication and the generation of the second indication.
Head-up display (1; 1') comprising a display device (10; 10') comprising: an LCD screen for generating an image to be displayed, a back-lighting device for the screen, and a sensor sensitive to infrared radiation radiated by the screen and disposed so as to detect at least some of this radiation, the display device (10; 10') further comprising an electronic control unit programmed to determine the temperature of the screen on the basis of the infrared radiation radiated by the screen and measured by the sensor and control an electric power (P E) for powering the back-lighting device as a function of an electrical signal ( s) delivered by said sensor, so that a temperature of the screen derived from said signal ( s) remains below a given temperature threshold (T 1), and comprising a casing having an exit aperture, the screen and the sensor being located in the casing, with the visible light emitted by the screen for displaying said image exiting the casing via said exit aperture, and further comprising a conduit (20; 20'), which extends from the LCD screen to the exit aperture of the casing, with a lateral aperture being formed in a lateral wall of the conduit, and wherein the sensor is disposed outside the conduit, set back relative to said lateral wall.