mhurhangee/ep-ind-claims huggingface dataset:
An inkjet recording apparatus comprising: an ink ejector which includes a nozzle and which is configured to eject ink from the nozzle; a first conveyor which is configured to convey a first recording medium in a predetermined first direction facing an ink ejecting surface of the ink ejector; a second conveyor which is configured to move a second recording medium between the ink ejector and a conveying path of the first recording medium along a predetermined second direction, the first direction and the second direction being parallel; characterised in that the inkjet recording apparatus comprises: an imager (41, 42) which includes a one-dimensional imaging sensor and which is positioned on a moving path along the second direction of the second recording medium and which is configured to image a surface of the second recording medium throughout a width in which the ink ejector can record on the second recording medium in a direction intersecting with the second direction; and a controller which is configured to move the second recording medium, which is configured to control the ink ejector to record a test image on the second recording medium, and which is configured to control the imager (41, 42) to image the test image. an ink ejector which includes a nozzle and which is configured to eject ink from the nozzle; a first conveyor which is configured to convey a first recording medium in a predetermined first direction facing an ink ejecting surface of the ink ejector; a second conveyor which is configured to move a second recording medium between the ink ejector and a conveying path of the first recording medium along a predetermined second direction, the first direction and the second direction being parallel; characterised in that the inkjet recording apparatus comprises: an imager (41, 42) which includes a one-dimensional imaging sensor and which is positioned on a moving path along the second direction of the second recording medium and which is configured to image a surface of the second recording medium throughout a width in which the ink ejector can record on the second recording medium in a direction intersecting with the second direction; and a controller which is configured to move the second recording medium, which is configured to control the ink ejector to record a test image on the second recording medium, and which is configured to control the imager (41, 42) to image the test image. an imager (41, 42) which includes a one-dimensional imaging sensor and which is positioned on a moving path along the second direction of the second recording medium and which is configured to image a surface of the second recording medium throughout a width in which the ink ejector can record on the second recording medium in a direction intersecting with the second direction; and a controller which is configured to move the second recording medium, which is configured to control the ink ejector to record a test image on the second recording medium, and which is configured to control the imager (41, 42) to image the test image.
A device for tracking objects (Oi) in a video stream (S IN), said device comprising a processing unit in turn comprising: - a tracking module configured for tracking positions of predetermined objects (Oi) in video stream portions of said video stream (S IN); - a creation module configured for creating partial video streams (Si), each said partial video stream (Si) representing one tracked predetermined object (Oi); characterized in that the device further comprises: - a composition module configured for composing said partial video streams (Si) of said individual objects (Oi) into an output video stream (S OUT), wherein said output video stream (S OUT) comprises information on said objects (Oi), wherein said tracking module comprises: • an interface for setting reference points (Ri) representative of each said predetermined object (Oi) in said video stream portions; • an association module for associating predetermined polygonal shapes (Gi) with said predetermined object (Oi) in said positions, starting from said reference points, wherein the association module comprises: • interpolating a reference sequence using a linear approximation algorithm; • comparing the interpolated sequence with the predetermined polygonal shapes (Gi). - a tracking module configured for tracking positions of predetermined objects (Oi) in video stream portions of said video stream (S IN); - a creation module configured for creating partial video streams (Si), each said partial video stream (Si) representing one tracked predetermined object (Oi); - a composition module configured for composing said partial video streams (Si) of said individual objects (Oi) into an output video stream (S OUT), • an interface for setting reference points (Ri) representative of each said predetermined object (Oi) in said video stream portions; • an association module for associating predetermined polygonal shapes (Gi) with said predetermined object (Oi) in said positions, starting from said reference points, • interpolating a reference sequence using a linear approximation algorithm; • comparing the interpolated sequence with the predetermined polygonal shapes (Gi).
A compressor system (250, 300) for an air conditioning service system, comprising: a compressor for compressing a fluid, the compressor (140A, 140B) including a compressor case and a compressor head; an inlet for the fluid to be compressed; an outlet for the compressed fluid; a low side passage fluidly connecting the inlet to the compressor head; a high side passage fluidly connecting the outlet to the compressor head; a low side return passage (272, 348) for returning fluid from the compressor case to the low side passage; and a first valve (268, 332, 336) positioned at least partially in the low side return passage (272, 348) and configured to control flow in the low side return passage, the compressor system characterized in that it further comprises: a high side return passage (276, 352) for returning fluid from the high side passage to the compressor case with the high side passage, wherein the first valve includes a high side portion and a low side portion, and wherein the low side portion is positioned in the low side return passage (272, 348) and is configured to control flow through the low side return passage (272, 348) and the high side portion is positioned in the high side return passage (276, 352) and is configured to control flow through the high side return passage. a compressor for compressing a fluid, the compressor (140A, 140B) including a compressor case and a compressor head; an inlet for the fluid to be compressed; an outlet for the compressed fluid; a low side passage fluidly connecting the inlet to the compressor head; a high side passage fluidly connecting the outlet to the compressor head; a low side return passage (272, 348) for returning fluid from the compressor case to the low side passage; and a first valve (268, 332, 336) positioned at least partially in the low side return passage (272, 348) and configured to control flow in the low side return passage, the compressor system characterized in that it further comprises: a high side return passage (276, 352) for returning fluid from the high side passage to the compressor case with the high side passage, wherein the first valve includes a high side portion and a low side portion, and wherein the low side portion is positioned in the low side return passage (272, 348) and is configured to control flow through the low side return passage (272, 348) and the high side portion is positioned in the high side return passage (276, 352) and is configured to control flow through the high side return passage. wherein the first valve includes a high side portion and a low side portion, and wherein the low side portion is positioned in the low side return passage (272, 348) and is configured to control flow through the low side return passage (272, 348) and the high side portion is positioned in the high side return passage (276, 352) and is configured to control flow through the high side return passage.
A method for managing communication between a contactless reader and a portable device, said contactless reader being able to communicate using a first wireless technology configured to communicate in a short-range mode, characterized in that the method comprises the following steps: - establishing a first communication channel between the contactless reader and a wireless unit, - establishing between the wireless unit and the portable device a second communication channel using a second wireless technology, said second wireless technology being a Ultra-Wide Band protocol which is configured: - to operate with a range greater than that of said first wireless technology, - to handle an anti-collision phase, - detecting the position of the portable device with respect to the wireless unit using the second wireless technology, - establishing a bridge between the contactless reader and the portable device through said first and second communication channels (C1, C2) only if the detected position of the portable device is located in a preset physical area associated with the contactless reader. - establishing a first communication channel between the contactless reader and a wireless unit, - establishing between the wireless unit and the portable device a second communication channel using a second wireless technology, said second wireless technology being a Ultra-Wide Band protocol which is configured: - to operate with a range greater than that of said first wireless technology, - to handle an anti-collision phase, - to operate with a range greater than that of said first wireless technology, - to handle an anti-collision phase, - detecting the position of the portable device with respect to the wireless unit using the second wireless technology, - establishing a bridge between the contactless reader and the portable device through said first and second communication channels (C1, C2) only if the detected position of the portable device is located in a preset physical area associated with the contactless reader.
User equipment, UE, of a wireless communication system, wherein the user equipment, UE, is configured to operate in a new radio sidelink mode 1, wherein the user equipment, UE, is configured to receive, in the sidelink scenario, sidelink transmissions using a discontinuous reception, DRX, mode of operation, wherein the user equipment, UE, is configured to adjust, modify or stop an inactivity timer of the discontinuous reception, DRX, mode of operation in dependence on an operating parameter of the user equipment, UE, wherein the user equipment, UE, is configured to communicate in the new radio sidelink mode 1 with a group of other user equipments, UEs, wherein the user equipment, UE is configured to receive from a base station, gNB, of the wireless communication system a discontinuous reception, DRX, configuration information and to adjust at least one parameter of the discontinuous reception, DRX, mode of operation in dependence on the discontinuous reception, DRX, configuration information, wherein the user equipment, UE, is configured to transmit to one or more other UEs of the group of other UEs, that are operating in a new radio sidelink mode 2, the discontinuous reception, DRX, configuration information. wherein the user equipment, UE, is configured to operate in a new radio sidelink mode 1, wherein the user equipment, UE, is configured to receive, in the sidelink scenario, sidelink transmissions using a discontinuous reception, DRX, mode of operation, wherein the user equipment, UE, is configured to adjust, modify or stop an inactivity timer of the discontinuous reception, DRX, mode of operation in dependence on an operating parameter of the user equipment, UE, wherein the user equipment, UE, is configured to communicate in the new radio sidelink mode 1 with a group of other user equipments, UEs, wherein the user equipment, UE is configured to receive from a base station, gNB, of the wireless communication system a discontinuous reception, DRX, configuration information and to adjust at least one parameter of the discontinuous reception, DRX, mode of operation in dependence on the discontinuous reception, DRX, configuration information, wherein the user equipment, UE, is configured to transmit to one or more other UEs of the group of other UEs, that are operating in a new radio sidelink mode 2, the discontinuous reception, DRX, configuration information.
Modular device configured to be coupled in-between a space object and means for changing an orbit on ground before launching the space object from earth to space, the device adapted to control change of an orbit of the space object in space or removal of the space object from space without itself comprising means for changing an orbit, wherein the device is independent with respect to said space object and comprises: on-board control means; an on-board power sub-system; and a casing for housing the on-board control means and the on-board power sub-system, the casing provided with: a first interface for attachment to the space object; and at least one second interface for attachment to the means for changing an orbit. on-board control means; an on-board power sub-system; and a casing for housing the on-board control means and the on-board power sub-system, the casing provided with: a first interface for attachment to the space object; and at least one second interface for attachment to the means for changing an orbit. a first interface for attachment to the space object; and at least one second interface for attachment to the means for changing an orbit.
An injection molding machine comprising: a controller that controls a molding operation; and a reading unit that reads a certification code and outputs the read certification code to the controller, characterized in that a combination of a plurality of kinds of information is embedded in the certification code, and the plurality of kinds of information correspond to a plurality of items confirmed by the controller before the start of the molding operation, wherein the plurality of items embedded in the certification code includes at least molding condition names and information of a mold unit and/or information of a molding material and/or information of a take-out robot. a controller that controls a molding operation; and a reading unit that reads a certification code and outputs the read certification code to the controller, characterized in that a combination of a plurality of kinds of information is embedded in the certification code, and the plurality of kinds of information correspond to a plurality of items confirmed by the controller before the start of the molding operation, wherein the plurality of items embedded in the certification code includes at least molding condition names and information of a mold unit and/or information of a molding material and/or information of a take-out robot.
Method for conveying at least one first medium within a channel system of a microfluidic device, comprising at least the following steps: a) providing the at least one first medium at a first location of the channel system, b) conveying the at least one first medium from the first location to a second location of the channel system by means of at least one second medium, which is adjacent to the at least one first medium, c) changing at least one through-flowable cross section of the channel system for the purpose of peristaltic pumping only if this at least one cross section is flowed through by the at least one second medium and is not flowed through by the at least one first medium, characterized in that the change in the at least one through-flowable cross section of the channel system for the purpose of peristaltic pumping is carried out with at least one valve. a) providing the at least one first medium at a first location of the channel system, b) conveying the at least one first medium from the first location to a second location of the channel system by means of at least one second medium, which is adjacent to the at least one first medium, c) changing at least one through-flowable cross section of the channel system for the purpose of peristaltic pumping only if this at least one cross section is flowed through by the at least one second medium and is not flowed through by the at least one first medium,
A surface treatment machine, comprising: - a frame configured to translate with respect to a surface to treat, - a surface treatment element connected to said frame and configured to treat with liquid a surface with respect to which said frame advances, - a reservoir connected to said frame and arranged to supply a liquid to said surface treatment element through a delivery mouth; - an adjustment element arranged to feed adjustably the liquid provided by said reservoir to said delivery mouth; - a sensor configured to measure the translation speed of the frame with respect to the surface to treat and to provide a signal proportional to this speed; - a control unit arranged to receive from said sensor said signal proportional to the speed; - a program means, resident in said control unit, configured to set the adjustment element so that a flow-rate of liquid is supplied in an increasing way responsive to an increase of said speed optimizing the flow-rate, in order to achieve a maximum range of the machine; - wherein said control unit is associated with a display unit of said speed and of a value of range of the machine determined on the basis of said speed calculated as residual time or residual surface that can be treated by said machine before a replenishment of liquid in said reservoir. - a frame configured to translate with respect to a surface to treat, - a surface treatment element connected to said frame and configured to treat with liquid a surface with respect to which said frame advances, - a reservoir connected to said frame and arranged to supply a liquid to said surface treatment element through a delivery mouth; - an adjustment element arranged to feed adjustably the liquid provided by said reservoir to said delivery mouth; - a sensor configured to measure the translation speed of the frame with respect to the surface to treat and to provide a signal proportional to this speed; - a control unit arranged to receive from said sensor said signal proportional to the speed; - a program means, resident in said control unit, configured to set the adjustment element so that a flow-rate of liquid is supplied in an increasing way responsive to an increase of said speed optimizing the flow-rate, in order to achieve a maximum range of the machine; - wherein said control unit is associated with a display unit of said speed and of a value of range of the machine determined on the basis of said speed calculated as residual time or residual surface that can be treated by said machine before a replenishment of liquid in said reservoir. - a program means, resident in said control unit, configured to set the adjustment element so that a flow-rate of liquid is supplied in an increasing way responsive to an increase of said speed optimizing the flow-rate, in order to achieve a maximum range of the machine; - wherein said control unit is associated with a display unit of said speed and of a value of range of the machine determined on the basis of said speed calculated as residual time or residual surface that can be treated by said machine before a replenishment of liquid in said reservoir.
Process for the preparation of the compound of formula: wherein R 1 is propargyl or allyl group and P is an amine protecting group comprising the following steps: (a) conversion of the compound of formula: to provide the compound of formula or salt thereof: (b) protection of the compound of formula to provide the compound of formula: wherein P is an amine protecting group. (c) alkylation of the compound of formula to provide the compound of formula: (a) conversion of the compound of formula: to provide the compound of formula or salt thereof: (b) protection of the compound of formula to provide the compound of formula: wherein P is an amine protecting group. (c) alkylation of the compound of formula to provide the compound of formula:
Method for manufacturing a metal sheet, with a thickness of less than 0.4 mm, made of a tungsten heavy metal alloy or a molybdenum alloy, having an isotropic microstructure based on molybdenum or tungsten, wherein a slip for foil casting is produced from a tungsten heavy metal alloy or molybdenum alloy, a foil is cast from the slip onto a substrate and, after drying, the foil is freed of binder and sintered in order to obtain the metal sheet, wherein the foil is brought to the desired thickness by drawing the substrate in the drawing direction through casting blades.
Heat exchanger plate and a gasket to be positioned within a gasket groove formed in said heat exchanger plate for a heat exchanger, where said gasket groove forming groove extensions essentially H-shaped having two first groove extensions extending in a direction away from a main gasket groove of the heat exchanger plate and a second groove section extending in a direction to connect the two first groove sections, and where the gasket comprises gasket extensions for fixing the gasket in the gasket groove, where the gasket extensions are essentially H-shaped having two first parts reaching in a direction away from the gasket to be positioned within the two first groove extensions of the heat exchanger plate and a second part connecting the two first parts to be positioned within the second groove section of the heat exchanger plate, wherein the groove extensions are such that an opening is formed in the edge of the heat exchanger plate and characterized in that at least one of the two first parts of the gasket extensions has a length such that when positioned within a groove extension it extends through the opening into the externals such that the gasket may be contacted at these first parts and re-positioned.
A probing tip for a signal acquisition probe comprising: a non-conductive substrate compatible with thin and thick film processing having opposing planar surfaces (14; 16) and side surfaces with two of the side surfaces converging to a point; a contoured probing tip contact formed at the converging point on the non-conductive substrate with the probing tip contact having first and second intersecting arcuate surfaces (26;28) that produce a substantially 3-dimensional spherical probing tip contact; and electrically conductive material deposited on the contoured probing tip contact. a non-conductive substrate compatible with thin and thick film processing having opposing planar surfaces (14; 16) and side surfaces with two of the side surfaces converging to a point; a contoured probing tip contact formed at the converging point on the non-conductive substrate with the probing tip contact having first and second intersecting arcuate surfaces (26;28) that produce a substantially 3-dimensional spherical probing tip contact; and electrically conductive material deposited on the contoured probing tip contact.