mhurhangee/ep-ind-claims huggingface dataset:
Coupling system (10; 110; 210; 310) comprising - a trailer coupling (20; 320) for a motor vehicle, in particular a car, for attaching a trailer to the motor vehicle, wherein the trailer coupling (20; 320) has a coupling body member which is attachable to the motor vehicle and a coupling body located at a free end section of the coupling body member and at least partly spherical on its outer surface, and - a trailer towing coupling (50; 150; 250; 350) of a trailer with a towing coupling seating which may be placed on the coupling body, wherein the coupling body forms for the towing coupling seating a bearing body giving it rotatable support for multi-axis hinge-jointed swivelling relative to the coupling body member, wherein on the coupling body at least one sensor driver (40; 340) is movably, in particular rotatably, mounted and may be driven by the trailer towing coupling (50; 150; 250; 350) during rotation relative to the coupling body and is rotatable and/or movable relative to the coupling body, wherein the sensor driver (40; 340) forms part of a sensor array (30; 330) for detecting an angular position of the trailer towing coupling (50; 150; 250; 350) relative to the coupling body member, wherein the trailer towing coupling (50; 150; 250; 350) has an actuating driver for actuating the sensor driver (40; 340), wherein the sensor driver (40; 340) and the actuating driver have an engaging element assembly (45; 345) provided on one part of the sensor driver (40; 340) and the actuating driver, and at least one mating engaging element provided on the other part of the sensor driver (40; 340) and the actuating driver, wherein the engaging element assembly (45; 345) has a row arrangement of engaging recesses (44; 344) or engaging projections extending along an outer periphery of the coupling body or an inner periphery of the towing coupling seating, for engaging with an engaging projection or an engaging recess (44; 344) on the mating engaging element or elements, if the coupling body is held in the towing coupling seating, characterised in that at least one engaging element of the actuating driver is mounted on the trailer towing coupling (50; 150; 250; 350), adjustable between an engaged position in which the engaging element is engaged with the sensor driver (40; 340), and a disengaged position in which the engaging element is disengaged from the sensor driver (40; 340), wherein the actuating driver-engaging element is movable between the engaged position and the disengaged position when the coupling body is held in the towing coupling seating. - a trailer coupling (20; 320) for a motor vehicle, in particular a car, for attaching a trailer to the motor vehicle, wherein the trailer coupling (20; 320) has a coupling body member which is attachable to the motor vehicle and a coupling body located at a free end section of the coupling body member and at least partly spherical on its outer surface, and - a trailer towing coupling (50; 150; 250; 350) of a trailer with a towing coupling seating which may be placed on the coupling body,
A combination consisting of an alpha-amylase (EC 3.2.1.1), which is thermo-labile and has activity in a range of from 30 to 65 °C, an amyloglucosidase (EC 3.2.1.3), which is thermo-stable and has optimum activity at about 60-65 °C, and a maltogenic amylase (EC 3.2.1.133), which has optimal activity in a range of from 50 to 75 °C, and wherein the thermo-labile alpha-amylase, the thermo-stable amyloglucosidase and the maltogenic amylase are present in ratios corresponding to from 20 to 48 Fau or from 28 to 40 Fau of the thermo-labile alpha-amylase, from 578 to 1650 Agu or from 660 to 1650 Agu of the thermo-stable amyloglucosidase, and from 500 to 2500 Manu or from 1000 to 2500 Manu of the maltogenic amylase. from 20 to 48 Fau or from 28 to 40 Fau of the thermo-labile alpha-amylase, from 578 to 1650 Agu or from 660 to 1650 Agu of the thermo-stable amyloglucosidase, and from 500 to 2500 Manu or from 1000 to 2500 Manu of the maltogenic amylase.
A housing unit of a Venturi device (400, 401, 402) comprising: a Venturi portion (106a, 106a') defining an internal passageway having a motive section aligned end to end with a discharge section, and defining a bore having fluid communication with the internal passageway; a first end of the Venturi portion defines a motive port of the internal passageway, the motive section tapering toward a fluid junction between an outlet end of the motive section and an inlet end of the discharge section, and the fluid junction is in fluid communication with the bore; an exterior of the Venturi portion comprises a plurality of fingers circumferentially spaced apart about the bore and projecting away from the internal passageway; characterized in that a second end of the Venturi portion defines a first canister portion having an open end shaped to receive a sound attenuating member and matable to a second canister portion (414, 414', 462) to enclose the sound attenuating member. a Venturi portion (106a, 106a') defining an internal passageway having a motive section aligned end to end with a discharge section, and defining a bore having fluid communication with the internal passageway; a first end of the Venturi portion defines a motive port of the internal passageway, the motive section tapering toward a fluid junction between an outlet end of the motive section and an inlet end of the discharge section, and the fluid junction is in fluid communication with the bore; an exterior of the Venturi portion comprises a plurality of fingers circumferentially spaced apart about the bore and projecting away from the internal passageway; characterized in that a second end of the Venturi portion defines a first canister portion having an open end shaped to receive a sound attenuating member and matable to a second canister portion (414, 414', 462) to enclose the sound attenuating member.
A hydrogel composition comprising: a first hydrogel comprising a first reactive precursor comprising a multi-arm polyether possessing electrophilic groups, a second reactive precursor comprising nucleophilic groups, and at least one bioactive agent; and a barrier layer on an external surface of the first hydrogel, the barrier layer comprising at least one initiated precursor selected from the group consisting of phosphorylcholine containing monomers, furanone functional vinyl monomers, N-vinyl pyrrolidone, siloxane functional vinyl compounds, polyethylene glycol-silicone co-monomers having vinyl groups, pyrrole, liquid crystalline vinyl monomers, liquid crystalline vinyl polymers, and combinations thereof, wherein the barrier layer directs delivery of the bioactive agent from the first hydrogel in a direction opposite the barrier layer. a first hydrogel comprising a first reactive precursor comprising a multi-arm polyether possessing electrophilic groups, a second reactive precursor comprising nucleophilic groups, and at least one bioactive agent; and a barrier layer on an external surface of the first hydrogel, the barrier layer comprising at least one initiated precursor selected from the group consisting of phosphorylcholine containing monomers, furanone functional vinyl monomers, N-vinyl pyrrolidone, siloxane functional vinyl compounds, polyethylene glycol-silicone co-monomers having vinyl groups, pyrrole, liquid crystalline vinyl monomers, liquid crystalline vinyl polymers, and combinations thereof, wherein the barrier layer directs delivery of the bioactive agent from the first hydrogel in a direction opposite the barrier layer.
Slotted waveguide antennal element (ElA) of generally parallelepipedal shape comprising several conductive surfaces, of which one of the conductive surfaces (Fs) is provided with at least one slot excited by the propagation of the electromagnetic field of the wave in the waveguide along the axis of the latter, the slot delimiting in its central part a conductive region (Zc) and electrically insulating this region (Zc) from the rest of the surface (Fs), characterized in that the slot (Fan) is annular.
An inspection method for inspecting a suction nozzle that picks up a target object using air suction, the method comprising: a reference pipe measurement step of measuring an air flow rate per unit time which flows in each of multiple reference pipes (120, 122) that have different sectional areas (D 1, D 2); a proportionality factor calculation step of calculating a proportionality factor between the air flow rates (L 1, L 2) the reference pipes (120, 122) and sectional areas (D 1, D 2) based on the air flow rate of each of the multiple reference pipes measured in the reference pipe measurement step, and the sectional areas of the multiple reference pipes; a suction nozzle measurement step of measuring the air flow rate (L n1) per unit time that flows in a suction nozzle which is an inspection target; and a sectional area calculation step of calculating a sectional area (D n) of the suction nozzle which is the inspection target based on the air flow rate measured in the suction nozzle measurement step, and the proportionality factor calculated in the proportionality factor calculation step. a reference pipe measurement step of measuring an air flow rate per unit time which flows in each of multiple reference pipes (120, 122) that have different sectional areas (D 1, D 2); a proportionality factor calculation step of calculating a proportionality factor between the air flow rates (L 1, L 2) the reference pipes (120, 122) and sectional areas (D 1, D 2) based on the air flow rate of each of the multiple reference pipes measured in the reference pipe measurement step, and the sectional areas of the multiple reference pipes; a suction nozzle measurement step of measuring the air flow rate (L n1) per unit time that flows in a suction nozzle which is an inspection target; and a sectional area calculation step of calculating a sectional area (D n) of the suction nozzle which is the inspection target based on the air flow rate measured in the suction nozzle measurement step, and the proportionality factor calculated in the proportionality factor calculation step.
A method comprising the steps of: identifying a set of network devices interconnected in a line within a network; establishing a common frame size for scheduling of active and inactive periods at each network device of the line; for each of the network devices of the line, scheduling active and inactive periods for that network device in a corresponding frame having the common frame size, and coordinating the scheduling of active and inactive periods in the line so that packets do not have to wait for an active period at each network device of the line, with the frames in the respective network devices of the line being time shifted relative to one another by designated offsets; and for each of one or more of the active periods of each of the network devices of the line, scheduling received packets for processing in that network device, wherein the step of scheduling the received packets for processing further comprises scheduling the received packets on a farthest-to-go basis such that, within the active period, packets having a longer distance to travel in the network are given priority over packets having a shorter distance to travel in the network. identifying a set of network devices interconnected in a line within a network; establishing a common frame size for scheduling of active and inactive periods at each network device of the line; for each of the network devices of the line, scheduling active and inactive periods for that network device in a corresponding frame having the common frame size, and coordinating the scheduling of active and inactive periods in the line so that packets do not have to wait for an active period at each network device of the line, with the frames in the respective network devices of the line being time shifted relative to one another by designated offsets; and for each of one or more of the active periods of each of the network devices of the line, scheduling received packets for processing in that network device, wherein the step of scheduling the received packets for processing further comprises scheduling the received packets on a farthest-to-go basis such that, within the active period, packets having a longer distance to travel in the network are given priority over packets having a shorter distance to travel in the network.
An apparatus for detecting volatile organic compounds, VOCs, in a gas, the apparatus comprising: a processing device; a compensation voltage source; a separation voltage source; and a detecting region comprising: a first interdigital pole disposed within the detecting region and electrically connected to the separation voltage source; a second interdigital pole disposed within the detecting region and electrically connected to a switch; and an ionization device configured to interact with a gas within the detecting region creating a plurality of ionized gas molecules; wherein the switch is configured to alternate the connection of the second interdigital pole between the compensation voltage source and the processing device; and wherein the processing device is configured to determine a VOC value representative of a number of volatile organic compounds in the gas based at least in part on a number of ionized gas molecules that contact the second interdigital pole while the second interdigital pole is electrically connected to the processing device. a processing device; a compensation voltage source; a separation voltage source; and a detecting region comprising: a first interdigital pole disposed within the detecting region and electrically connected to the separation voltage source; a second interdigital pole disposed within the detecting region and electrically connected to a switch; and an ionization device configured to interact with a gas within the detecting region creating a plurality of ionized gas molecules; a first interdigital pole disposed within the detecting region and electrically connected to the separation voltage source; a second interdigital pole disposed within the detecting region and electrically connected to a switch; and an ionization device configured to interact with a gas within the detecting region creating a plurality of ionized gas molecules; wherein the switch is configured to alternate the connection of the second interdigital pole between the compensation voltage source and the processing device; and wherein the processing device is configured to determine a VOC value representative of a number of volatile organic compounds in the gas based at least in part on a number of ionized gas molecules that contact the second interdigital pole while the second interdigital pole is electrically connected to the processing device.
An articulable rotational coupling comprising: first and second shafts (30, 32); a universal joint coupling the first and second shaft (30, 32) and configured to provide a first maximum angle between the first and second shafts (30, 32); and a stop assembly configured to provide a second maximum angle between the first and second shafts (30, 32) that is less than the first maximum angle, and the first and second shafts (30, 32) respectively including first and second yokes (40, 54) coupled to one another by a knuckle, and wherein each of the first and second yokes (40, 54) include spaced apart lateral sides (42, 56), and the knuckle is disposed radially inwardly of the lateral sides (42, 56) and joining the yokes (40, 54) to one another, characterized in that the first yoke includes a wall interconnecting the lateral sides (42, 56) of the first yoke to provide an enclosed space within which the knuckle is arranged, and wherein the stop assembly includes a protrusion extending from the wall and configured to cooperate with the second shaft to establish the second maximum angle. first and second shafts (30, 32); a universal joint coupling the first and second shaft (30, 32) and configured to provide a first maximum angle between the first and second shafts (30, 32); and a stop assembly configured to provide a second maximum angle between the first and second shafts (30, 32) that is less than the first maximum angle, and the first and second shafts (30, 32) respectively including first and second yokes (40, 54) coupled to one another by a knuckle, and wherein each of the first and second yokes (40, 54) include spaced apart lateral sides (42, 56), and the knuckle is disposed radially inwardly of the lateral sides (42, 56) and joining the yokes (40, 54) to one another, characterized in that the first yoke includes a wall interconnecting the lateral sides (42, 56) of the first yoke to provide an enclosed space within which the knuckle is arranged, and wherein the stop assembly includes a protrusion extending from the wall and configured to cooperate with the second shaft to establish the second maximum angle.
A method for loading a compressed fluid into a container, comprising: injecting a displacement fluid into a first tank, the first tank having an upper portion and a lower portion, wherein the displacement fluid is a gas under the conditions inside the first tank; injecting the displacement fluid and/or a compressed fluid into the first tank until a desired pressure is reached in the first tank, cooling and injecting the compressed fluid into the lower portion of the first tank; bleeding the displacement fluid out of the upper portion of the first tank after the desired pressure is attained while continuing to inject the compressed fluid into the lower portion of the first tank; adjusting the flow rate of the displacement fluid bled out of the upper portion of the first tank to maintain the pressure in the first tank within a desired range about the desired pressure; and wherein the injecting the compressed fluid into the lower portion of the first tank is performed until a desired mass of the compressed fluid is contained in the first tank while bleeding the displacement fluid out of the upper portion of the first tank. injecting a displacement fluid into a first tank, the first tank having an upper portion and a lower portion, wherein the displacement fluid is a gas under the conditions inside the first tank; injecting the displacement fluid and/or a compressed fluid into the first tank until a desired pressure is reached in the first tank, cooling and injecting the compressed fluid into the lower portion of the first tank; bleeding the displacement fluid out of the upper portion of the first tank after the desired pressure is attained while continuing to inject the compressed fluid into the lower portion of the first tank; adjusting the flow rate of the displacement fluid bled out of the upper portion of the first tank to maintain the pressure in the first tank within a desired range about the desired pressure; and wherein the injecting the compressed fluid into the lower portion of the first tank is performed until a desired mass of the compressed fluid is contained in the first tank while bleeding the displacement fluid out of the upper portion of the first tank.
A pressure sensing element comprising a sensing sub-element disposed on a diaphragm, the element comprising: a contact via, and an interconnect disposed between the sub-element and the contact via; a field shield disposed over the sub-element, the contact via and the interconnect, the field shield configured to reduce influence of charge accumulation on the sub-element during operation; a field shield circuit configured to substantially eliminate influence of external charge on the sub-element during operation by applying a potential to a substrate of the diaphragm and the field shield; a high-pressure port and a low-pressure port coupled to opposed sides of the diaphragm, the low-pressure port coupled via a reservoir of oil to a side of the diaphragm opposed from a pressure environment; and a passivation layer (19, 20) disposed between the field shield and the sub-element. a contact via, and an interconnect disposed between the sub-element and the contact via; a field shield disposed over the sub-element, the contact via and the interconnect, the field shield configured to reduce influence of charge accumulation on the sub-element during operation; a field shield circuit configured to substantially eliminate influence of external charge on the sub-element during operation by applying a potential to a substrate of the diaphragm and the field shield; a high-pressure port and a low-pressure port coupled to opposed sides of the diaphragm, the low-pressure port coupled via a reservoir of oil to a side of the diaphragm opposed from a pressure environment; and a passivation layer (19, 20) disposed between the field shield and the sub-element.
A method for producing a structure comprising a layer of strained semiconductor material, the method comprising steps consisting of: a) providing on a substrate a stack comprising a first semiconductor layer based on a first semiconductor material coated with a second semiconductor layer based on a second semiconductor material having a different lattice parameter to that of the first semiconductor material, b) producing on the second semiconductor layer a mask formed by one or a plurality of separate blocks (10a, 10b, 10c, 100a, 100b, 100c, 110a, 110b, 110c) the mask being symmetrical with respect to a plane of symmetry, this plane of symmetry being orthogonal to a main plane of the substrate and passing through at least one first block (10a, 100a, 110a) of the mask, c) performing one or a plurality of inclined implantations with respect to a normal to the main plane of the substrate, so as to render amorphous the first semiconductor layer over its entire thickness and the zones of the second semiconductor layer without rendering amorphous one or a plurality of regions (6a, 6b, 6c) of the second semiconductor layer protected by the mask and arranged respectively opposite the mask block(s), d) performing recrystallisation of the zones of the second amorphous semiconductor layer and of first semiconductor amorphous layer (6a, 6b, 6c) using said regions (6a, 6b, 6c) of the second semiconductor layer as starting regions of recrystallization fronts from which it follows that this first semiconductor layer is strained. a) providing on a substrate a stack comprising a first semiconductor layer based on a first semiconductor material coated with a second semiconductor layer based on a second semiconductor material having a different lattice parameter to that of the first semiconductor material, b) producing on the second semiconductor layer a mask formed by one or a plurality of separate blocks (10a, 10b, 10c, 100a, 100b, 100c, 110a, 110b, 110c) the mask being symmetrical with respect to a plane of symmetry, this plane of symmetry being orthogonal to a main plane of the substrate and passing through at least one first block (10a, 100a, 110a) of the mask, c) performing one or a plurality of inclined implantations with respect to a normal to the main plane of the substrate, so as to render amorphous the first semiconductor layer over its entire thickness and the zones of the second semiconductor layer without rendering amorphous one or a plurality of regions (6a, 6b, 6c) of the second semiconductor layer protected by the mask and arranged respectively opposite the mask block(s), d) performing recrystallisation of the zones of the second amorphous semiconductor layer and of first semiconductor amorphous layer (6a, 6b, 6c) using said regions (6a, 6b, 6c) of the second semiconductor layer as starting regions of recrystallization fronts from which it follows that this first semiconductor layer is strained.