mhurhangee/ep-ind-claims huggingface dataset:
A fire detection and suppression system for use with an appliance (104,106,108) and a ventilation hood positioned above the appliance (104,106,108), the system comprising: a first linear heat detector including a first pair of conductors (652,654) separated by an insulator, the insulator being configured to decompose to permit electrical coupling of the first pair of conductors (652,654) in response to reaching a first activation temperature; a second linear heat detector including a second pair of conductors (656,658) separated by an insulator, the insulator being configured to decompose to permit electrical coupling of the second pair of conductors (656,658) in response to reaching a second activation temperature different than the first activation temperature; a connector assembly electrically coupling the first linear heat detector and the second linear heat detector; a source of fire suppressant at least selectively coupled to at least one nozzle; and a controller coupled to the first linear heat detector and the second linear heat detector and configured to initiate distribution of the fire suppressant through the at least one nozzle in response to receiving an activation signal, the activation signal indicating at least one of: (a) the first linear heat detector has reached the first activation temperature; or (b) the second linear heat detector has reached the second activation temperature, wherein the connector assembly is configured to be positioned within the ventilation hood. a first linear heat detector including a first pair of conductors (652,654) separated by an insulator, the insulator being configured to decompose to permit electrical coupling of the first pair of conductors (652,654) in response to reaching a first activation temperature; a second linear heat detector including a second pair of conductors (656,658) separated by an insulator, the insulator being configured to decompose to permit electrical coupling of the second pair of conductors (656,658) in response to reaching a second activation temperature different than the first activation temperature; a connector assembly electrically coupling the first linear heat detector and the second linear heat detector; a source of fire suppressant at least selectively coupled to at least one nozzle; and a controller coupled to the first linear heat detector and the second linear heat detector and configured to initiate distribution of the fire suppressant through the at least one nozzle in response to receiving an activation signal, the activation signal indicating at least one of: (a) the first linear heat detector has reached the first activation temperature; or (b) the second linear heat detector has reached the second activation temperature, (a) the first linear heat detector has reached the first activation temperature; or (b) the second linear heat detector has reached the second activation temperature, wherein the connector assembly is configured to be positioned within the ventilation hood.
A quinazoline derivative which is NRC-2694, or a pharmaceutically acceptable salt thereof, for use in the treatment of brain cancer, lung cancer, squamous cell cancer, bladder cancer, gastric cancer, breast cancer, oesophageal cancer or thyroid cancer:
A tile cutting machine comprising: a tub for receiving water therein, the tub having a bottom and at least one sidewall; and a tile supporting surface located in the tub, wherein the tile supporting surface has a plurality of nubs for supporting a tile to be cut; and a cutting head assembly including a blade and a motor for driving the blade, wherein the blade is positioned generally above the tile supporting surface and is movable with respect thereto, characterised in that the tile supporting surface includes a holding mat received within the tub. a tub for receiving water therein, the tub having a bottom and at least one sidewall; and a tile supporting surface located in the tub, wherein the tile supporting surface has a plurality of nubs for supporting a tile to be cut; and a cutting head assembly including a blade and a motor for driving the blade, wherein the blade is positioned generally above the tile supporting surface and is movable with respect thereto, characterised in that the tile supporting surface includes a holding mat received within the tub.
A bushing for rotatably supporting a journal, said bushing comprising: a cylindrical wall having an inner bearing surface configured and dimensioned to surround said journal; means (28, 30) for continuously supplying oil to a lubricated zone between said journal and said bearing surface, with the thus supplied oil escaping in opposite directions from inboard and outboard ends (34, 32) of said zone; a circular channel positioned to capture oil escaping from the outboard end of said zone; and characterized by a drain configured as exit passages in the bushing which communicate with drainage ports in the channel to convey oil captured in said channel directly within the bushing back to the oil escaping from the inboard end of said zone. a cylindrical wall having an inner bearing surface configured and dimensioned to surround said journal; means (28, 30) for continuously supplying oil to a lubricated zone between said journal and said bearing surface, with the thus supplied oil escaping in opposite directions from inboard and outboard ends (34, 32) of said zone; a circular channel positioned to capture oil escaping from the outboard end of said zone; and characterized by a drain configured as exit passages in the bushing which communicate with drainage ports in the channel to convey oil captured in said channel directly within the bushing back to the oil escaping from the inboard end of said zone.
A method at a computing device, the method comprising: obtaining sensor data for a vehicle providing one or both of displacement or acceleration information for the vehicle; calculating a vibration frequency for the vehicle; retrieving calibration data for the vehicle, the calibration data comprising at least a first known mass; a second known mass; a vibration frequency for the vehicle at the first known mass; and a vibration frequency of the vehicle at a second known mass; and using the calibration data and the vibration frequency for the vehicle, calculating a load estimation for the vehicle; wherein the load estimation is calculated based on: m = − b 2 a 1 + 1 − 4 ap / b 2 or m ≈ p b − b a where m is the combined mass of the vehicle and load; a = f d 2, where f d is the vibration frequency of the vehicle with the unknown mass; b = − m 2 f d 2 2 − m 1 f d 1 2 m 2 − m 1, where m 1 is the first known mass, m 2 is the second known mass; f d 1 is the vibration frequency at the first known mass; and f d 2 is the vibration frequency at the second known mass; and p = − m 1 f d 1 2 − m 1 b. obtaining sensor data for a vehicle providing one or both of displacement or acceleration information for the vehicle; calculating a vibration frequency for the vehicle; retrieving calibration data for the vehicle, the calibration data comprising at least a first known mass; a second known mass; a vibration frequency for the vehicle at the first known mass; and a vibration frequency of the vehicle at a second known mass; and using the calibration data and the vibration frequency for the vehicle, calculating a load estimation for the vehicle; wherein the load estimation is calculated based on: m = − b 2 a 1 + 1 − 4 ap / b 2 or m ≈ p b − b a where m is the combined mass of the vehicle and load; a = f d 2, where f d is the vibration frequency of the vehicle with the unknown mass; b = − m 2 f d 2 2 − m 1 f d 1 2 m 2 − m 1, where m 1 is the first known mass, m 2 is the second known mass; f d 1 is the vibration frequency at the first known mass; and f d 2 is the vibration frequency at the second known mass; and p = − m 1 f d 1 2 − m 1 b.
A method for Device to Device, D2D, communication, comprising: generating, by a first D2D device, a data packet, the data packet being a data packet of a Semi-Persistent-Scheduling, SPS, service or a Semi-Persistent-Transmission, SPT, service, the data packet comprising first Scheduling Assignment, SA, information, and the first SA information comprising information of a period of the SPS service or the SPT service; and transmitting, by the first D2D device, the data packet to a second D2D device, wherein the first D2D device and the second D2D device are D2D devices working in mode 2. generating, by a first D2D device, a data packet, the data packet being a data packet of a Semi-Persistent-Scheduling, SPS, service or a Semi-Persistent-Transmission, SPT, service, the data packet comprising first Scheduling Assignment, SA, information, and the first SA information comprising information of a period of the SPS service or the SPT service; and transmitting, by the first D2D device, the data packet to a second D2D device, wherein the first D2D device and the second D2D device are D2D devices working in mode 2.
A lithium ion conductive glass ceramics comprising from 0.5 % to 2.5 % of ZrO 2 from 3.5 % to 5.0 % of Li 2 O, from 50 % to 55 % of P 2 O 5, from 10 % to 30 % of GeO 2, from 8 % to 22 % of TiO 2 and from 5 % to 12 % of M 2 O 3, wherein M is one or two members selected from Al and Ga, in terms of % by mass on the oxide basis; and not comprising a M' 2 O 3 component, wherein M' is one or two or more members selected from the group consisting of In, Fe, Cr, Sc, Y, La, Ce, Pr, Nd, Sm, Eu, Gd, Tb, Dy, Ho, Er, Tm, Yb and Lu.
A method for visual speech recognition to predict a sequence of words being spoken by a person based on movement of a pair of lips of the person in a sequence of video frames, the method comprising: receiving a video comprising the sequence of video frames, wherein each video frame depicts the pair of lips of the person; processing the sequence of video frames using a trained visual speech recognition neural network in accordance with current values of visual speech recognition neural network parameters to generate, for each output position in an output sequence, a phoneme distribution that defines a respective output score for each phoneme in a vocabulary of possible phonemes, to thereby generate a sequence of phoneme distributions that includes a respective phoneme distribution corresponding to each video frame wherein the visual speech recognition neural network comprises one or more volumetric convolutional neural network layers and one or more time-aggregation neural network layers, wherein the volumetric convolutional neural network layers include a plurality of three-dimensional filters, and wherein the time-aggregation neural network layers comprise one or more recurrent neural network layers; and determining the sequence of words expressed by the pair of lips depicted in the video using the output scores; wherein determining the sequence of words comprises providing the sequence of phoneme distributions to a word decoder to process the sequence of phoneme distributions to generate data defining the sequence of words depicted in the video frames. receiving a video comprising the sequence of video frames, wherein each video frame depicts the pair of lips of the person; processing the sequence of video frames using a trained visual speech recognition neural network in accordance with current values of visual speech recognition neural network parameters to generate, for each output position in an output sequence, a phoneme distribution that defines a respective output score for each phoneme in a vocabulary of possible phonemes, to thereby generate a sequence of phoneme distributions that includes a respective phoneme distribution corresponding to each video frame wherein the visual speech recognition neural network comprises one or more volumetric convolutional neural network layers and one or more time-aggregation neural network layers, wherein the volumetric convolutional neural network layers include a plurality of three-dimensional filters, and wherein the time-aggregation neural network layers comprise one or more recurrent neural network layers; and determining the sequence of words expressed by the pair of lips depicted in the video using the output scores; wherein determining the sequence of words comprises providing the sequence of phoneme distributions to a word decoder to process the sequence of phoneme distributions to generate data defining the sequence of words depicted in the video frames.
The writing instrument comprising: a front body, and a rear body capable of turning, relative to the front body, about a longitudinal axis, characterised in that it also comprises a tubular piece axially connecting the front body and the rear body by elastic snap-fit so as to block, independently of the relative rotation of the front and rear bodies, their relative motion in the direction of axial release. a front body, and a rear body capable of turning, relative to the front body, about a longitudinal axis,
An electronic device, comprising: a housing at least partially defining an exterior surface and an internal volume of the electronic device; a display assembly at least partially disposed in the internal volume, the display assembly comprising: a transparent cover at least partially defining the exterior surface of the electronic device; a display unit; a backlight unit disposed between the cover and the housing; a frame coupling the cover to the backlight unit, the frame having a member defining an aperture; and an electronic component disposed in the internal volume and extending through the aperture; characterised in that at least a portion of the frame is in direct contact with the transparent cover. a housing at least partially defining an exterior surface and an internal volume of the electronic device; a display assembly at least partially disposed in the internal volume, the display assembly comprising: a transparent cover at least partially defining the exterior surface of the electronic device; a display unit; a backlight unit disposed between the cover and the housing; a frame coupling the cover to the backlight unit, the frame having a member defining an aperture; and a transparent cover at least partially defining the exterior surface of the electronic device; a display unit; a backlight unit disposed between the cover and the housing; a frame coupling the cover to the backlight unit, the frame having a member defining an aperture; and an electronic component disposed in the internal volume and extending through the aperture;
A cylinder block for a combustion engine having at least one cylinder and comprising an inner coolant circuit, this inner circuit comprising an inlet, an outlet, and at least one coolant chamber arranged near said at least one cylinder in order to cause the coolant to circulate near said at least one cylinder, the inlet of said circuit being provided through an inner housing defined by a reception element forming part of the cylinder block and intended to receive an external supply of coolant, characterized in that the inner housing is provided with a local modification permitting the passage surface area of the inlet of the inner cooling circuit to be increased, in that said housing houses a pump for the recirculation of coolant, and in that said inner housing of the reception element is cylindrical, the local modification being a flat area in the cylindrical wall of said element at the level of the inlet of the circuit.
A solid electrolyte comprising: matrix containing, as a solid salt, at least one selected from the group consisting of (i) magnesium chloride, magnesium bromide, magnesium iodide, and magnesium perchlorate and (ii) at least one selected from the group consisting of Mg(CF 3 SO 2) 2, Mg[(CF 3 SO 3) 2 N] 2, Mg[(C 2 F 2 SO 2) 2 N] 2, Mg[(FSO 2) 2 N] 2, Mg(PF 6) 2, and Mg(BF 4) 2; and one or more fillers embedded in the matrix.
Device for acquiring images of the interior surface of a tyre comprising at least one image acquisition module provided with at least one lighting means able to project a beam of light onto a predetermined zone of the interior surface of the tyre, and with at least one image acquisition means able to acquire a beam of light reflected off the said zone of the tyre and originating from the projected beam of light, characterized in that the said module comprises at least a first reflector positioned optically between the light means and the predetermined zone of the interior surface of the tyre to reflect the projected beam of light towards the said zone of the tyre and at least a second reflector positioned optically between the said zone of the tyre and the image acquisition means to reflect the beam of light reflected off the tyre towards the said acquisition means, the said reflectors (30, 34) being intended to be situated axially inside the interior space of the tyre and the image acquisition means and/or the lighting means being intended to be situated axially outside the said space..
Method for preparing solketal ((2,2-dimethyl-1,3-dioxolan-4-yl)methanol) comprising at least one of the following steps: milling the following reactants, referred to as initial reactants, comprising at least: glycerol, a catalyst selected from a hard Lewis acid containing at least one transition metal, and acetone, the glycerol:acetone molar ratio being less than or equal to 0.8, at an ambient temperature greater than or equal to 50°C, in a three-dimensional mill with microbeads in liquid phase for a residence time of less than or equal to 15 minutes, collecting, at the outlet of the mill, an final composition comprising the solketal and, where applicable, one or more byproducts corresponding to unreacted initial reactant(s) and/or 1,3-0-isopropylideneglycerol, and optionally, separating the solketal from said by-product(s). milling the following reactants, referred to as initial reactants, comprising at least: glycerol, a catalyst selected from a hard Lewis acid containing at least one transition metal, and acetone, the glycerol:acetone molar ratio being less than or equal to 0.8, at an ambient temperature greater than or equal to 50°C, in a three-dimensional mill with microbeads in liquid phase for a residence time of less than or equal to 15 minutes, collecting, at the outlet of the mill, an final composition comprising the solketal and, where applicable, one or more byproducts corresponding to unreacted initial reactant(s) and/or 1,3-0-isopropylideneglycerol, and optionally, separating the solketal from said by-product(s).
A point cloud data transmission method, the method comprising: acquiring point cloud data; encoding geometry information including positions of points of the point cloud data; generating one or more levels of detail, LODs, based on an octree and selecting one or more neighbor points of each point to be attribute-encoded based on the one or more LODs, wherein each depth level of the octree is matched to each LOD, wherein a higher LOD includes points belonging to a lower LOD, wherein the selected one or more neighbor points of each point are located within a maximum neighbor point distance, wherein the maximum neighbor point distance is obtained by multiplying a base distance by a maximum neighbor point range, wherein the base distance is a diagonal distance of one node at each LOD, wherein the maximum neighbor point range is a number of nodes around each point, and wherein the selected one or more neighbor points of each point is used to generate predicted attribute information of each point; encoding attribute information of each point based on the predicted attribute information of each point; and transmitting the encoded geometry information, the encoded attribute information, and signaling information. acquiring point cloud data; encoding geometry information including positions of points of the point cloud data; generating one or more levels of detail, LODs, based on an octree and selecting one or more neighbor points of each point to be attribute-encoded based on the one or more LODs, wherein each depth level of the octree is matched to each LOD, wherein a higher LOD includes points belonging to a lower LOD, wherein the selected one or more neighbor points of each point are located within a maximum neighbor point distance, wherein the maximum neighbor point distance is obtained by multiplying a base distance by a maximum neighbor point range, wherein the base distance is a diagonal distance of one node at each LOD, wherein the maximum neighbor point range is a number of nodes around each point, and wherein the selected one or more neighbor points of each point is used to generate predicted attribute information of each point; encoding attribute information of each point based on the predicted attribute information of each point; and transmitting the encoded geometry information, the encoded attribute information, and signaling information.
A method of manufacturing a stator airfoil assembly having a tip end wall, the method comprising: forming an interior wall of a stator airfoil using an additive manufacturing technique; forming an exterior wall of the stator airfoil using the additive manufacturing technique forming a forward flange of the tip end wall over a cooling air opening of the stator airfoil using the additive manufacturing technique, wherein the flange is disposed radially over the opening such that cooling air flows around the flange to enter into the airfoil; and forming a plurality of internal ribs between the interior wall and the exterior wall using the additive manufacturing technique, wherein a cooling air circuit is formed in a space between the interior wall and the exterior wall, and wherein the interior wall, the exterior wall, and the internal ribs are formed simultaneously as an integral structure by using the additive manufacturing technique. forming an interior wall of a stator airfoil using an additive manufacturing technique; forming an exterior wall of the stator airfoil using the additive manufacturing technique forming a forward flange of the tip end wall over a cooling air opening of the stator airfoil using the additive manufacturing technique, wherein the flange is disposed radially over the opening such that cooling air flows around the flange to enter into the airfoil; and forming a plurality of internal ribs between the interior wall and the exterior wall using the additive manufacturing technique, wherein a cooling air circuit is formed in a space between the interior wall and the exterior wall, and wherein the interior wall, the exterior wall, and the internal ribs are formed simultaneously as an integral structure by using the additive manufacturing technique.