mhurhangee/ep-ind-claims huggingface dataset:
A method, comprising: determining, based on input to one or more microphones (114, 116) of a mobile computing device (102, 204, 304, 404, 518), that a user (202, 302, 402) has provided a spoken utterance, wherein the mobile computing device includes one or more first motors that maneuver the mobile computing device across an area; determining (604, 606), based on the input to the one or more microphones, that the user is requesting the mobile computing device to perform an action that is associated with an automated assistant rendering content via one or more speakers and/or a display panel of the mobile computing device; determining, based on the input to the one or more microphones, an additional input (310, 410) to the one or more microphones, and/or one or more other sensors of the mobile computing device, a location of the user relative to the mobile computing device; characterised by: in response to determining that the user has requested graphical content to be rendered at the mobile computing device and determining that the location of the user is not within a distance for perceiving the graphical content: causing the first motor of the mobile computing device to maneuver the mobile computing device toward the location of the user, subsequently, when the location of the user is within the distance for perceiving the graphical content, causing one or more one or more second motors of the mobile computing device to maneuver the display panel of the mobile computing device in furtherance of rendering the graphical content toward the user, and causing the display panel to render the graphical content in furtherance of performing the action. determining, based on input to one or more microphones (114, 116) of a mobile computing device (102, 204, 304, 404, 518), that a user (202, 302, 402) has provided a spoken utterance, wherein the mobile computing device includes one or more first motors that maneuver the mobile computing device across an area; determining (604, 606), based on the input to the one or more microphones, that the user is requesting the mobile computing device to perform an action that is associated with an automated assistant rendering content via one or more speakers and/or a display panel of the mobile computing device; determining, based on the input to the one or more microphones, an additional input (310, 410) to the one or more microphones, and/or one or more other sensors of the mobile computing device, a location of the user relative to the mobile computing device; causing the first motor of the mobile computing device to maneuver the mobile computing device toward the location of the user, subsequently, when the location of the user is within the distance for perceiving the graphical content, causing one or more one or more second motors of the mobile computing device to maneuver the display panel of the mobile computing device in furtherance of rendering the graphical content toward the user, and causing the display panel to render the graphical content in furtherance of performing the action.
A process of preparing a tomato derived composition, comprising: • providing a starting material containing at least 80% by weight of dry matter of one or more tomato derived products selected from tomato paste, tomato juice, tomato serum, tomato pulp and combinations thereof; • treating the starting material with deaminase to convert at least 30% of the 5'AMP contained therein into 5'IMP. • providing a starting material containing at least 80% by weight of dry matter of one or more tomato derived products selected from tomato paste, tomato juice, tomato serum, tomato pulp and combinations thereof; • treating the starting material with deaminase to convert at least 30% of the 5'AMP contained therein into 5'IMP.
A milking parlour comprising milking equipment, a milking pit, a first stalling arrangement for holding at least one animal during milking at a first side of the milking pit, a second stalling arrangement for holding at least one animal at an opposite second side of the milking pit, a supporting member arranged centrally in the milking pit, and a support arm assembly for the milking equipment, the support arm assembly comprising a pivotable support arm and a stationary arm suspension for supporting the pivotable support arm, the pivotable support arm comprising a first pivot member and an elongated arm member having a distal end portion and a proximal end portion, and the stationary arm suspension comprising a second pivot member, wherein the stationary arm suspension is arranged centrally in the milking pit with the second pivot member connected to the supporting member, and wherein the elongated arm member is configured to support a milking cluster of the milking equipment at the distal end portion and the first pivot member is connected to the proximal end portion, characterized in that the first pivot member and the second pivot member interact to permit the distal end portion of the elongated arm member to be pivoted in a first direction and an opposite second direction in a substantially horizontal plane, and that the support arm assembly comprises a holding device configured to maintain the elongated arm member in a first pivotal position when the elongated arm member is subjected to a pivotal force smaller than a threshold force in the first direction or the second direction. milking equipment, a milking pit, a first stalling arrangement for holding at least one animal during milking at a first side of the milking pit, a second stalling arrangement for holding at least one animal at an opposite second side of the milking pit, a supporting member arranged centrally in the milking pit, and a support arm assembly for the milking equipment, the support arm assembly comprising a pivotable support arm and a stationary arm suspension for supporting the pivotable support arm, the pivotable support arm comprising a first pivot member and an elongated arm member having a distal end portion and a proximal end portion, and the stationary arm suspension comprising a second pivot member, wherein the stationary arm suspension is arranged centrally in the milking pit with the second pivot member connected to the supporting member, and wherein the elongated arm member is configured to support a milking cluster of the milking equipment at the distal end portion and the first pivot member is connected to the proximal end portion, characterized in that the first pivot member and the second pivot member interact to permit the distal end portion of the elongated arm member to be pivoted in a first direction and an opposite second direction in a substantially horizontal plane, and that the support arm assembly comprises a holding device configured to maintain the elongated arm member in a first pivotal position when the elongated arm member is subjected to a pivotal force smaller than a threshold force in the first direction or the second direction.
A low-noise and high-wet-skidding-resistance tire, comprising a tread pattern, wherein the tread pattern comprises a longitudinal pattern groove, arranged along the circumferential direction of the tire, and wherein a circumferential scale-shaped concave-convex structure (a-b) is disposed on each of two side walls (a'-b') of the longitudinal pattern groove, characterized in that a depth of the longitudinal pattern groove is comprised between 5 mm and 18 mm, and a width thereof is comprised between 3 mm and 14 mm; and in that a position of the scale-shaped concave-convex structure on the side wall (a') of the longitudinal pattern groove is provided from depth 0 to depth d of the longitudinal pattern groove, where the depth of the longitudinal pattern groove is D, and a d/D ratio is comprised between 50% and 85%. wherein the tread pattern comprises a longitudinal pattern groove, arranged along the circumferential direction of the tire, and wherein a circumferential scale-shaped concave-convex structure (a-b) is disposed on each of two side walls (a'-b') of the longitudinal pattern groove, characterized in that a depth of the longitudinal pattern groove is comprised between 5 mm and 18 mm, and a width thereof is comprised between 3 mm and 14 mm; and in that a position of the scale-shaped concave-convex structure on the side wall (a') of the longitudinal pattern groove is provided from depth 0 to depth d of the longitudinal pattern groove, where the depth of the longitudinal pattern groove is D, and a d/D ratio is comprised between 50% and 85%.
Method for operating an inhaler comprising a housing with a mouth end, at least one air inlet opening and an air channel extending in the housing between the at least one air inlet opening and the mouth end, a fluid reservoir storing a component mixture, a receiving area for the fluid reservoir, an electrical energy storage, a supply device which generates vapor and/or aerosol from the component mixture extracted from the fluid reservoir, and adds the vapor and/or the aerosol to an air flow flowing in the air channel, wherein the supply device comprises a controllable evaporator, and a control device (15; 29) for controlling the supply device, wherein the control device (15; 29) is connected to a data store (53; 59) in which at least one set of predefined evaporating parameters is stored and can be called upon for evaporating the component mixture in the evaporator, wherein the at least one set of predefined evaporating parameters is deduced from the liquid phase-gas phase equilibrium diagram of the component mixture, wherein a heating power retrieved at any time during the evaporation is used to control the evaporation of the component mixture, characterized in that an instantaneous vapor composition is specifically adjusted by controlling the evaporation of the component mixture by means of the stored set of evaporation parameters.
A machine for welding a medical bag made of a plastic material and comprising a first sheet and a second sheet separated by a plurality of tubes, the machine being configured to weld the tubes between the first sheet and the second sheet and to carry out at least one peripheral welding of the two sheets (202, 203) and comprising a welding press and a high-frequency generator which, by means of a main switch, supplies in an alternating manner either a first circuit configured to weld the tubes or a second circuit configured to peripherally weld the sheets (202, 203), wherein said welding press comprises, in turn: - an upper plate to which an electrode suitable to be electrically supplied through the second circuit is mechanically associated, - a lower plate to which a counter-electrode and tube-holder mandrels are mechanically associated, where the counter-electrode is configured to receive power from the electrode and where the tube-holder mandrels are electrically connected to the first circuit and configured to hold the tubes in place, the machine being characterized in that the welding press further comprises a capacitor electrically connected to the upper plate and connectable to the ground by a switching device configured to selectively open/close an electric contact between a closed position, which connects the capacitor to the ground, and an open position, which releases the capacitor from the ground connection, where the closed position is taken when the generator supplies the first circuit to weld the tubes. - an upper plate to which an electrode suitable to be electrically supplied through the second circuit is mechanically associated, - a lower plate to which a counter-electrode and tube-holder mandrels are mechanically associated, where the counter-electrode is configured to receive power from the electrode and where the tube-holder mandrels are electrically connected to the first circuit and configured to hold the tubes in place,
A system for shearing biological materials in a sample well of a microplate, comprising: a number of transducer elements (450, 560), characterised in that: each transducer element (450, 560) is constructed to receive a conical sample well of a microplate at least partially through the transducer element (450, 560) and to deliver ultrasound energy into the sample well at sufficient acoustic pressures to cause inertial cavitation in a biological sample, wherein: each transducer element is cylindrical, or each transducer element is disk-shaped with a hole through a central portion thereof and includes a waveguide on top of the disk to direct ultrasound energy from the transducer into a sample well of the microplate. each transducer element is cylindrical, or each transducer element is disk-shaped with a hole through a central portion thereof and includes a waveguide on top of the disk to direct ultrasound energy from the transducer into a sample well of the microplate.
Elevation device comprising a raising device for an elevating vehicle roof comprising a displaceable roof element, wherein the roof element can be displaceably mounted on a frame surrounding a roof opening in a vehicle such that the roof element covers the roof opening in a closed position and is at a distance from the roof opening at least in regions in an open position, wherein the raising device comprises a raising scissor-joint mechanism that comprises two support arms (15, 19) which are each interconnected in an articulated manner so as to be at a distance from the respective ends, wherein a gas pressure spring is arranged between the frame and the roof element at a distance from the raising device such that a first end of the gas pressure spring is pivotally articulated to the frame and an opposite, second end of the gas pressure spring is pivotally articulated to the roof element, characterised in that at least one pivotable support arm is pivotally and linearly movably mounted, by a first adjustment end, on a fitting element that is fastened to the roof element or to the frame surrounding the roof opening, and in that a drive means is arranged on the fitting element, which means assists a linear displacement of the adjustment end of the support arm along the fitting element during an opening movement of the raising device.
A polypeptide comprising: (i) an amino acid sequence as set forth in SEQ ID NO: 1, wherein X at position 79 is selected from alanine, glycine, serine, asparagine, or threonine; (ii) a portion of (i) comprising an amino acid sequence as set forth in SEQ ID NO: 2, wherein X at position 56 is selected from alanine, glycine, serine, asparagine or threonine; (iii) an amino acid sequence with at least 80% sequence identity to a sequence as set forth in SEQ ID NO: 1, wherein the polypeptide comprises alanine, glycine, serine, asparagine or threonine at a position equivalent to position 79 of SEQ ID NO: 1; or (iv) a portion of (iii) comprising an amino acid sequence with at least 80% sequence identity to a sequence as set forth in SEQ ID NO: 2, wherein the polypeptide comprises alanine, glycine, serine, asparagine or threonine at a position equivalent to position 56 of SEQ ID NO: 2, wherein the polypeptide binds selectively and reversibly to a peptide comprising an amino acid sequence as set forth in SEQ ID NO: 3, 4 or 5. (i) an amino acid sequence as set forth in SEQ ID NO: 1, wherein X at position 79 is selected from alanine, glycine, serine, asparagine, or threonine; (ii) a portion of (i) comprising an amino acid sequence as set forth in SEQ ID NO: 2, wherein X at position 56 is selected from alanine, glycine, serine, asparagine or threonine; (iii) an amino acid sequence with at least 80% sequence identity to a sequence as set forth in SEQ ID NO: 1, wherein the polypeptide comprises alanine, glycine, serine, asparagine or threonine at a position equivalent to position 79 of SEQ ID NO: 1; or (iv) a portion of (iii) comprising an amino acid sequence with at least 80% sequence identity to a sequence as set forth in SEQ ID NO: 2, wherein the polypeptide comprises alanine, glycine, serine, asparagine or threonine at a position equivalent to position 56 of SEQ ID NO: 2,
A detergent supply device for a laundry treating apparatus, the detergent supply device comprising: a housing; a detergent storage container (221, 222) installed in the housing and storing laundry detergent; and a residual amount detecting unit disposed at the detergent storage container (221, 222) and configured to detect a residual amount of laundry detergent stored in the detergent storage container (221, 222), wherein the residual amount detecting unit comprises an electrode installed to one surface of the detergent storage container (221, 222) to contact laundry detergent stored in the storage container (221, 222), characterized in that the detergent supply device further comprises: a blocking portion (265a, 265b) is protruded from the one surface of the detergent storage container (221, 222) and located above the electrode to limit the laundry detergent from moving toward the electrode. a housing; a detergent storage container (221, 222) installed in the housing and storing laundry detergent; and a residual amount detecting unit disposed at the detergent storage container (221, 222) and configured to detect a residual amount of laundry detergent stored in the detergent storage container (221, 222), wherein the residual amount detecting unit comprises an electrode installed to one surface of the detergent storage container (221, 222) to contact laundry detergent stored in the storage container (221, 222), characterized in that the detergent supply device further comprises: a blocking portion (265a, 265b) is protruded from the one surface of the detergent storage container (221, 222) and located above the electrode to limit the laundry detergent from moving toward the electrode.
A computerized method comprising: providing a computing device acting as a gateway in a system, which comprises gateways as Industrial Internet of Things nodes with a configuration of a gateway comprising an internal configuration (203-2, 203-2') defining at least how to monitor gateway operations of the computing device itself acting as a gateway, by defining telemetry data which to collect on internal telemetry operations of the computing device acting as a gateway, what information based on the collected telemetry data to report and when to report; monitoring, by the computing device, the gateway operations of the computing device itself according to the internal configuration; collecting, by the computing device, according to the internal configurations, telemetry data on the internal telemetry operations of the computing device acting as a gateway; and reporting, by the computing device, information on the collected telemetry data according to the internal configuration. providing a computing device acting as a gateway in a system, which comprises gateways as Industrial Internet of Things nodes with a configuration of a gateway comprising an internal configuration (203-2, 203-2') defining at least how to monitor gateway operations of the computing device itself acting as a gateway, by defining telemetry data which to collect on internal telemetry operations of the computing device acting as a gateway, what information based on the collected telemetry data to report and when to report; monitoring, by the computing device, the gateway operations of the computing device itself according to the internal configuration; collecting, by the computing device, according to the internal configurations, telemetry data on the internal telemetry operations of the computing device acting as a gateway; and reporting, by the computing device, information on the collected telemetry data according to the internal configuration.
Method for measuring workpiece geometries using a coordinate measuring device with movable travel axes and with at least one image processing sensor or X-ray sensor for recording measurement points on the workpiece surfaces, where in each case the sensor appropriate for the measuring task to be performed is selected for measuring the workpiece geometries, wherein to optimize the quality of recorded images, several images of an object area are recorded with different lighting or exposure intensities in each case at the image processing sensor or at the X-ray sensor, and are then combined into an overall image, where from each individual image the image point amplitudes used are those which are within a validly defined amplitude range, with amplitude values indicating overexposure being left out of consideration.
Underground storage system for storing fluids, said storage system comprising: - a hole made in a ground, said hole having a bottom, - a support element comprising at least one opening, - a joining element inserted in the opening of the support element, - at least one reservoir, said reservoir having a longitudinal axis (l), a bottom end closed by a first closure means, and a top end closed by a second closure means, the joining element being attached to the top end, and said top end being joined to the support element via the joining element such that the reservoir is hung inside the hole and such that an axial clearance able to absorb axial thermal expansion of said reservoir remains between the first closure means of the reservoir and the bottom of the hole. - a hole made in a ground, said hole having a bottom, - a support element comprising at least one opening, - a joining element inserted in the opening of the support element, - at least one reservoir, said reservoir having a longitudinal axis (l), a bottom end closed by a first closure means, and a top end closed by a second closure means,
A method of decoding video data, the method comprising: determining a size for a block (400; 512, 522) of video data, wherein the block of video data comprises a rectangular, non-square block; determining an intra prediction mode for the block of video data; locating, in a neighboring block of the block of video data, reference samples corresponding to the determined intra prediction mode; in response to the intra prediction mode for the block of video data being a wide-angle intra prediction mode and corresponding to a diagonal direction (514, 516; 524, 526) of the block, filtering the reference samples to determine filtered reference samples; generating a predictive block for the block of video data from the filtered reference samples; determining decoded version of the block of video data from the predictive block; and outputting the decoded version of the block of video data; wherein filtering the reference samples to determine filtered reference samples comprises applying a smoothing filter to the reference samples; characterized in that applying the smoothing filter to the reference samples comprises applying the smoothing filter without applying an interpolation filter to the reference samples. determining a size for a block (400; 512, 522) of video data, wherein the block of video data comprises a rectangular, non-square block; determining an intra prediction mode for the block of video data; locating, in a neighboring block of the block of video data, reference samples corresponding to the determined intra prediction mode; in response to the intra prediction mode for the block of video data being a wide-angle intra prediction mode and corresponding to a diagonal direction (514, 516; 524, 526) of the block, filtering the reference samples to determine filtered reference samples; generating a predictive block for the block of video data from the filtered reference samples; determining decoded version of the block of video data from the predictive block; and outputting the decoded version of the block of video data; wherein filtering the reference samples to determine filtered reference samples comprises applying a smoothing filter to the reference samples; characterized in that applying the smoothing filter to the reference samples comprises applying the smoothing filter without applying an interpolation filter to the reference samples.