mhurhangee/patent-ind-claim-en huggingface dataset:
A three-component polyurethane adhesive composition comprising: (a) a first polyol component comprising (i) one or more polyols having a hydroxyl equivalent weight of 400 to 2000 and a nominal hydroxyl functionality of 2 to 4; (ii) one or more aliphatic diol chain extenders; (iii) from 0.01 to 1 weight percent, based on the total weight of the first polyol component, of one or more latent room temperature organometallic catalysts; and (iv) from 0.01 to 1 weight percent, based on the total weight of the first polyol component, of one or more blocked cyclic amidine compound catalysts; (b) a second polyol component comprising (i) one or more polyols having a hydroxyl equivalent weight of 400 to 2000 and a nominal hydroxyl functionality of 2 to 4; (ii) one or more aliphatic diol chain extenders; (iii) from 0.01 to 1 weight percent, based on the total weight of the second polyol component, of one or more latent room temperature organometallic catalysts; and (iv) from 0.01 to 1 weight percent, based on the total weight of the second polyol component, of one or more blocked cyclic amidine compound catalysts; and (c) an isocyanate component comprising (i) one or more isocyanate compounds; wherein the isocyanate component and the first and second polyol components are contacted at an isocyanate index of 0.5 to 2. (a) a first polyol component comprising (i) one or more polyols having a hydroxyl equivalent weight of 400 to 2000 and a nominal hydroxyl functionality of 2 to 4; (ii) one or more aliphatic diol chain extenders; (iii) from 0.01 to 1 weight percent, based on the total weight of the first polyol component, of one or more latent room temperature organometallic catalysts; and (iv) from 0.01 to 1 weight percent, based on the total weight of the first polyol component, of one or more blocked cyclic amidine compound catalysts; (b) a second polyol component comprising (i) one or more polyols having a hydroxyl equivalent weight of 400 to 2000 and a nominal hydroxyl functionality of 2 to 4; (ii) one or more aliphatic diol chain extenders; (iii) from 0.01 to 1 weight percent, based on the total weight of the second polyol component, of one or more latent room temperature organometallic catalysts; and (iv) from 0.01 to 1 weight percent, based on the total weight of the second polyol component, of one or more blocked cyclic amidine compound catalysts; and (c) an isocyanate component comprising (i) one or more isocyanate compounds; wherein the isocyanate component and the first and second polyol components are contacted at an isocyanate index of 0.5 to 2.
A lightweight slab or similar structural element that can receive facilities which will be extended through the slab being easily accessible, the lightweight slab comprising: - two main parallel steel reinforcement elements , extending parallel to one another, and each of the two main parallel reinforcement elements is placed in a different plane with respect to one another and with respect to the horizontal plane - secondary steel reinforcement elements wherein all of the reinforcements are embedded in a minimum volume of concrete filling which covers and protects such steel reinforcement element, the volume of concrete filling is defined during its production by a recoverable formwork or mould to create a hollow main volume of the lightweight slab , the formwork or mould formed by hollow prismatic or by truncated-pyramid-shaped volumes with smooth edges and vertices or formed by semi-sphere-shaped elements that improve structural strength and facilitate the extraction thereof when it is necessary to retrieve the moulds, and the concrete filling defines open holes adjacent the secondary and main steel reinforcement elements to form a succession of nodes connected to one another to form a network of open channels of the lightweight slab which extend in all directions through the hollow main volume and the open holes are configured to be accessed from a lower level, upper level and sides for receiving any type of facilities such as electricity, telecommunications, plumbing, air conditioning or ventilation equipment, the lightweight slab is characterized in that the secondary steel reinforcement elements extend between the two main parallel steel reinforcement elements and those secondary steel reinforcement elements are arranged to form a double diagonal or a single diagonal in relation to the main steel reinforcement elements to form a series of structural nodes. - two main parallel steel reinforcement elements , extending parallel to one another, and each of the two main parallel reinforcement elements is placed in a different plane with respect to one another and with respect to the horizontal plane - secondary steel reinforcement elements
Double grab mountable onto an arm of a milking machine for applying automatically teat cups to an udder of an animal to be milked, the double grab comprising: - a first housing part for holding a first teat cup ; - a second housing part , installed substantially in a horizontal plane next to the first housing part , for holding a second teat cup ; characterised, in that each housing part is provided with pivoting means that are activatable separately, designed to make the relative housing part pivot around a pivoting axis which in use extends substantially in a horizontal direction, substantially in widthwise direction of the arm . - a first housing part for holding a first teat cup ; - a second housing part , installed substantially in a horizontal plane next to the first housing part , for holding a second teat cup ; characterised, in that
A device for determining the phase interface level of a multiphase system, comprising: a tank intended to receive a multiphase system comprising at least two fluids having distinct phases ; a tube vertically immersed inside the tank, said tube being intended to be filled with a fluid at equal pressure with the fluid contained in the tank at the level of a headspace of said tank, the tube comprising a plurality of differential pressure sensors per membrane which are spaced apart vertically from each other along the tube to measure the pressure difference between the fluids contained and stratified in height in the tank and the fluid contained in the tube charaterised in that each differential pressure sensor comprises a corrosion-resistant sealed membrane which is mounted in an orifice of the tube and which is fixed to a Bragg grating optical fiber strain sensor , the strain of said membrane being intended to measure a differential of pressure between, on the one hand, the multiphase mixture contained in the tank and, on the other hand, the fluid contained in the tube; and in that the orifices of the tube in which the membranes of the differential pressure sensors are mounted are positioned on several lateral faces of the tube, each lateral face of the tube being provided with the same number (n) of differential pressure sensors spaced apart at the same pitch (p) in height from a different initial height (H1-H4) from a lower end of the tube in order to increase the spatial resolution of the measurement. a tank intended to receive a multiphase system comprising at least two fluids having distinct phases ; a tube vertically immersed inside the tank, said tube being intended to be filled with a fluid at equal pressure with the fluid contained in the tank at the level of a headspace of said tank, the tube comprising a plurality of differential pressure sensors per membrane which are spaced apart vertically from each other along the tube to measure the pressure difference between the fluids contained and stratified in height in the tank and the fluid contained in the tube charaterised in that each differential pressure sensor comprises a corrosion-resistant sealed membrane which is mounted in an orifice of the tube and which is fixed to a Bragg grating optical fiber strain sensor , the strain of said membrane being intended to measure a differential of pressure between, on the one hand, the multiphase mixture contained in the tank and, on the other hand, the fluid contained in the tube; and in that the orifices of the tube in which the membranes of the differential pressure sensors are mounted are positioned on several lateral faces of the tube, each lateral face of the tube being provided with the same number (n) of differential pressure sensors spaced apart at the same pitch (p) in height from a different initial height (H1-H4) from a lower end of the tube in order to increase the spatial resolution of the measurement.
A method for training a neural network model used for image processing, applied to an electronic device , the method comprising: obtaining (S202, S302) a plurality of video frames that are adjacent in time; processing (S204, S304) each of the plurality of video frames through the neural network model so that the neural network model outputs an intermediate image corresponding to the respective video frame; obtaining (S206, S306) optical flow information of change from an early video frame to a later video frame in the plurality of video frames that are adjacent in time, wherein the early video frame is earlier in time than the later video frame; obtaining (S208, S308) an image by changing an intermediate image corresponding to the early video frame according to the optical flow information; obtaining (S210, S310) a time loss between an intermediate image corresponding to the later video frame and the obtained image; obtaining (S212, S312) a feature loss between each of the intermediate images corresponding to a respective one of the plurality of video frames that are adjacent in time and a target feature image; and adjusting (S214, S314, S316, S318) the neural network model according to the time loss and all the feature losses, and returning (S214, S320, S322) to the act of obtaining a plurality of video frames that are adjacent in time to continue training until the neural network model satisfies a training finishing condition. obtaining (S202, S302) a plurality of video frames that are adjacent in time; processing (S204, S304) each of the plurality of video frames through the neural network model so that the neural network model outputs an intermediate image corresponding to the respective video frame; obtaining (S206, S306) optical flow information of change from an early video frame to a later video frame in the plurality of video frames that are adjacent in time, wherein the early video frame is earlier in time than the later video frame; obtaining (S208, S308) an image by changing an intermediate image corresponding to the early video frame according to the optical flow information; obtaining (S210, S310) a time loss between an intermediate image corresponding to the later video frame and the obtained image; obtaining (S212, S312) a feature loss between each of the intermediate images corresponding to a respective one of the plurality of video frames that are adjacent in time and a target feature image; and adjusting (S214, S314, S316, S318) the neural network model according to the time loss and all the feature losses, and returning (S214, S320, S322) to the act of obtaining a plurality of video frames that are adjacent in time to continue training until the neural network model satisfies a training finishing condition.
A method of operation of a macro node in a cellular communication network , comprising: applying almost blank subframes, ABSs, in a downlink, DL, from the macro node ; and identifying one or more user equipment, UE, devices for which transmissions are to be scheduled in an uplink, UL, to the macro node using a scheduling scheme that does not require control information for every subframe, wherein the scheduling scheme is transmit time interval, TTI, bundling; and time-aligning a TTI bundle of the one or more UE devices for the UL with subframes in the UL that occur 4 TTIs after the ABSs in the DL, wherein: - the DL from the macro node includes a series of subframes 0 to 3 including the subframe 0 that includes a normal transmission along with control information that schedules the TTI bundle in the uplink UL, - the subframe 0 in the DL is followed by the three subframes 1, 2 and 3 being ABSs, wherein the ABSs in the DL do not contain control information for the subframes in the UL occurring 4 TTIs after the ABSs in the DL, and - the TTI bundle having four consecutive subframes transmitting the same data is transmitted in the UL starting at subframe 4 and continuing through subframe 7 of the UL. applying almost blank subframes, ABSs, in a downlink, DL, from the macro node ; and identifying one or more user equipment, UE, devices for which transmissions are to be scheduled in an uplink, UL, to the macro node using a scheduling scheme that does not require control information for every subframe, wherein the scheduling scheme is transmit time interval, TTI, bundling; and time-aligning a TTI bundle of the one or more UE devices for the UL with subframes in the UL that occur 4 TTIs after the ABSs in the DL, wherein: - the DL from the macro node includes a series of subframes 0 to 3 including the subframe 0 that includes a normal transmission along with control information that schedules the TTI bundle in the uplink UL, - the subframe 0 in the DL is followed by the three subframes 1, 2 and 3 being ABSs, wherein the ABSs in the DL do not contain control information for the subframes in the UL occurring 4 TTIs after the ABSs in the DL, and - the TTI bundle having four consecutive subframes transmitting the same data is transmitted in the UL starting at subframe 4 and continuing through subframe 7 of the UL. - the DL from the macro node includes a series of subframes 0 to 3 including the subframe 0 that includes a normal transmission along with control information that schedules the TTI bundle in the uplink UL, - the subframe 0 in the DL is followed by the three subframes 1, 2 and 3 being ABSs, wherein the ABSs in the DL do not contain control information for the subframes in the UL occurring 4 TTIs after the ABSs in the DL, and - the TTI bundle having four consecutive subframes transmitting the same data is transmitted in the UL starting at subframe 4 and continuing through subframe 7 of the UL.
Method for the operation of a hand-operated power tool with a suction unit which has a suction motor to generate the suction flow , and a suction unit housing in which the suction motor and a dust collection chamber for the collection of particles separated out of the suction flow are mounted, wherein the suction unit is provided for suction during operation of a hand-operated power tool with a drive motor for driving a tool , wherein a suction unit communication device (40; 140) of the suction unit communicates wirelessly or by wire with an external communication device (50; 150; 250) for operation at a distance from the suction unit housing in connection with the hand-operated power tool or forming an integral part of the hand-operated power tool , wherein the suction unit communication device (40; 140) sends at least one identification code and/or an operating parameter to the external communication device (50; 150; 250), and/or receives at least one identification code and/or an operating parameter from the external communication device (50; 150; 250), and that the suction unit and/or the hand-operated power tool execute at least one function with the aid of the respectively received identification code or codes and/or the respectively received operating parameter , characterised in that the suction unit and/or the hand-operated power tool determine, with the aid of the received operating parameter and/or the identification code , whether or under what conditions operation is possible, conforming to at least one criterion, in particular a safety criterion or an environmental criterion, of the pairing comprising the suction unit and the hand-operated power tool .
A system for treating cerebrospinal fluid of a human or animal subject, the system comprising: a multi-lumen catheter including an inlet lumen and an outlet lumen; a treatment system including a tangential flow filter coupled to the multi-lumen catheter , the tangential flow filter being in fluid communication with the inlet lumen and being in fluid communication with the outlet lumen; a pump configured to withdraw a volume of cerebrospinal fluid from the human or animal subject and transfer the volume of cerebrospinal fluid to the tangential flow filter along the inlet lumen; wherein the tangential flow filter is configured to filter the volume of cerebrospinal fluid into a permeate and a retentate; wherein the pump is configured to return at least a portion of the permeate to the human or animal subject along the outlet lumen; and a processing unit configured to increase a rate at which the volume of cerebrospinal fluid passes through the tangential flow filter by diverting a portion of the permeate or retentate back through the tangential flow filter. a multi-lumen catheter including an inlet lumen and an outlet lumen; a treatment system including a tangential flow filter coupled to the multi-lumen catheter , the tangential flow filter being in fluid communication with the inlet lumen and being in fluid communication with the outlet lumen; a pump configured to withdraw a volume of cerebrospinal fluid from the human or animal subject and transfer the volume of cerebrospinal fluid to the tangential flow filter along the inlet lumen; wherein the tangential flow filter is configured to filter the volume of cerebrospinal fluid into a permeate and a retentate; wherein the pump is configured to return at least a portion of the permeate to the human or animal subject along the outlet lumen; and a processing unit configured to increase a rate at which the volume of cerebrospinal fluid passes through the tangential flow filter by diverting a portion of the permeate or retentate back through the tangential flow filter.
A method of painting a five-sided shipping container (140; 240), wherein the container (140; 240) comprises an open side, a first wall (147; 247) opposite the open side, and four side walls (145; 245) connected to the first wall (147; 247), wherein the side walls (145; 245) extend in a first direction downwards with respect to the first wall (147; 247), and wherein each of the first wall (147; 247) and the four side walls (145; 245) have an interior surface (142; 242) and an exterior surface , the method comprising: (a) applying a water-based paint to the interior surfaces (142; 242) and the exterior surfaces of the first wall (147; 247) and the side walls (145; 245) of the container (140; 240); characterised by (b) forcing heated air into the open side of the container (140; 240) to at least partially dry the paint on the interior surfaces (142; 242) and the exterior surfaces of the container (140; 240), wherein the heated air is directed such that the heated air (i) travels in a second direction opposite to the first direction to contact an interior surface (142A; 242A) of the first wall (147; 247) and flows in a third direction and a fourth direction thereover, wherein the third direction and the fourth direction are substantially opposite one another and substantially normal to the second direction and the first direction; (ii) flows in the first direction along the interior surfaces (142C; 242C) of the walls (145; 245) of the container (140; 240); and (iii) exits the container (140; 240). (a) applying a water-based paint to the interior surfaces (142; 242) and the exterior surfaces of the first wall (147; 247) and the side walls (145; 245) of the container (140; 240); characterised by (b) forcing heated air into the open side of the container (140; 240) to at least partially dry the paint on the interior surfaces (142; 242) and the exterior surfaces of the container (140; 240), wherein the heated air is directed such that the heated air (i) travels in a second direction opposite to the first direction to contact an interior surface (142A; 242A) of the first wall (147; 247) and flows in a third direction and a fourth direction thereover, wherein the third direction and the fourth direction are substantially opposite one another and substantially normal to the second direction and the first direction; (ii) flows in the first direction along the interior surfaces (142C; 242C) of the walls (145; 245) of the container (140; 240); and (iii) exits the container (140; 240). (i) travels in a second direction opposite to the first direction to contact an interior surface (142A; 242A) of the first wall (147; 247) and flows in a third direction and a fourth direction thereover, wherein the third direction and the fourth direction are substantially opposite one another and substantially normal to the second direction and the first direction; (ii) flows in the first direction along the interior surfaces (142C; 242C) of the walls (145; 245) of the container (140; 240); and (iii) exits the container (140; 240).
Stop for a rotating drilling, milling or countersinking tool , comprising a stop sleeve coupled to a plain or roller bearing in the installed state so as to be freely rotatable about the tool and a shank sleeve , wherein a first bearing bush of the bearing carries the stop sleeve , and a second bearing bush of the bearing is seated on the shank sleeve in a rotationally fixed manner, wherein the stop is designed such that the shank sleeve can be slipped onto and fastened to a threadless shank of a drilling, milling or countersinking tool, characterised in that at least a second, axially offset bearing is arranged between the stop sleeve and the shank sleeve , and in that a locking nut , in particular a knurled nut, is included, which can be screwed onto an adjusting thread of the tool shank and which is designed for locking the shank sleeve in a countering manner.
A counterweight assembly for an elevator system comprising: a counterweight ; and a guide shoe affixed to the counterweight, the guide shoe having a u-shaped cross-section;; and a plurality of counterweight guide brackets affixed to a hoistway wall for engaging the guide shoe , the plurality of counterweight guide brackets spaced vertically from each other; characterized in that the guide shoe extends continuously and unbroken along a vertical length of the counterweight ; and two or more counterweight guide brackets are engaged with the guide shoe during travel of the counterweight along the hoistway . a counterweight ; and a guide shoe affixed to the counterweight, the guide shoe having a u-shaped cross-section;; and a plurality of counterweight guide brackets affixed to a hoistway wall for engaging the guide shoe , the plurality of counterweight guide brackets spaced vertically from each other; characterized in that the guide shoe extends continuously and unbroken along a vertical length of the counterweight ; and two or more counterweight guide brackets are engaged with the guide shoe during travel of the counterweight along the hoistway .