mhurhangee/ep-ind-claims huggingface dataset:
A hand held, powered breast pump comprising: a body having a breast-receiving portion and means for attaching a vessel to receive expressed milk; piston means, including an actuating element, for effecting pumping; and a motor unit including a motor and a drive mechanism for reciprocally driving the piston means, wherein the drive mechanism is configured to connect to said actuating element when brought into contact therewith, characterised in that the drive mechanism is a crank mechanism and includes connecting rod means and said connection to said actuating element is effected by relative resilient deflection and recovery between the connecting rod means and said actuating element. a body having a breast-receiving portion and means for attaching a vessel to receive expressed milk; piston means, including an actuating element, for effecting pumping; and a motor unit including a motor and a drive mechanism for reciprocally driving the piston means, wherein the drive mechanism is configured to connect to said actuating element when brought into contact therewith, characterised in that the drive mechanism is a crank mechanism and includes connecting rod means and said connection to said actuating element is effected by relative resilient deflection and recovery between the connecting rod means and said actuating element.
Apparatus for supporting data storage elements and supplying stored data, said apparatus comprising: a support unit (110, 111, 112) having a plurality of connectors for connecting to a plurality of data storage elements; a cable (607, 608) having a first end connected to said support unit and a second end connected to a main part; said main part including a mid plane defining a first space containing a portion of said cable, and a second space for containing said support unit, such that said support unit is movable between (i) a first position providing access to said data storage elements and (ii) a second position in which said data storage elements are located within said second space; and a guide means comprising a retractable guide member (903, 904) having an end attached to said support unit and which is configured to extend within said second space along a portion of said cable as said support unit is moved from said second position to said first position, characterised in that said guide means is configured to cause said cable to develop at least two loops (1406, 1407) within said first space while said support unit is moved to said second position; said retractable guide member (903, 904) is configured to coil-up into a volume while said support unit is moved between said first position and said second position, said volume being separate to the first space occupied by the loops of folded cable. a support unit (110, 111, 112) having a plurality of connectors for connecting to a plurality of data storage elements; a cable (607, 608) having a first end connected to said support unit and a second end connected to a main part; said main part including a mid plane defining a first space containing a portion of said cable, and a second space for containing said support unit, such that said support unit is movable between (i) a first position providing access to said data storage elements and (ii) a second position in which said data storage elements are located within said second space; and a guide means comprising a retractable guide member (903, 904) having an end attached to said support unit and which is configured to extend within said second space along a portion of said cable as said support unit is moved from said second position to said first position, said guide means is configured to cause said cable to develop at least two loops (1406, 1407) within said first space while said support unit is moved to said second position; said retractable guide member (903, 904) is configured to coil-up into a volume while said support unit is moved between said first position and said second position, said volume being separate to the first space occupied by the loops of folded cable.
A system for controlling the load on an agricultural harvester comprising: a first load sensor (124, 126, 128, 130) disposed to sense a first load applied to the agricultural harvester; a second load sensor (132, 134, 136, 138) disposed to sense a second load applied to the agricultural harvester, an electronic control unit coupled to the first load sensor (124, 126, 128, 130) and the second load sensor (132, 134, 136, 138), wherein the electronic control unit is configured to (a) read a first load signal from the first load sensor, (b) read a second load signal from the second load sensor, characterized in that the electronic control unit is configured to (c) determine whether a difference of the first load and the second load exceeds a threshold load, and (d) if the difference exceeds the threshold load, to either (i) lift a harvesting head, or (ii) stop over-the-ground travel of the agricultural harvester. a first load sensor (124, 126, 128, 130) disposed to sense a first load applied to the agricultural harvester; a second load sensor (132, 134, 136, 138) disposed to sense a second load applied to the agricultural harvester, an electronic control unit coupled to the first load sensor (124, 126, 128, 130) and the second load sensor (132, 134, 136, 138), wherein the electronic control unit is configured to (a) read a first load signal from the first load sensor, (b) read a second load signal from the second load sensor, characterized in that the electronic control unit is configured to (c) determine whether a difference of the first load and the second load exceeds a threshold load, and (d) if the difference exceeds the threshold load, to either (i) lift a harvesting head, or (ii) stop over-the-ground travel of the agricultural harvester.
A modular interconnection system for transmitting power and data between a control processor that receives and transmits signals along a trunk of a distributed control network and one or more field devices (16a-16c) located in a hazardous area, the system comprising: a backplane, a trunk module connected to the backplane, and one or more field modules (30a-30c) attached to the backplane; the backplane comprising two lines (26, 28) that conduct both data and power along the backplane; each of the one or more field modules (16a-16c) comprising a backplane interface that connects the field module to the backplane, a field device interface to operatively connect a field device to the field module, an intrinsically safe connection between the field device interface and the backplane interface transmitting power from the backplane interface to the field device interface and transmitting data between the backplane interface and the field device interface; the trunk module comprising a trunk interface that connects the trunk module to the trunk of the distributed control network, a backplane interface that connects the trunk module to the backplane, and a connection between the trunk interface and the backplane interface transmitting power from the trunk interface to the backplane and transmitting data between the trunk interface and the backplane whereby power is transmitted from the control processor along the trunk to the field devices (16a-16c) through the two lines (26, 28) of the backplane and data signals are transmitted between the control processor and the field devices (16a-16c) through the two lines (26, 28) of the backplane. a backplane, a trunk module connected to the backplane, and one or more field modules (30a-30c) attached to the backplane; the backplane comprising two lines (26, 28) that conduct both data and power along the backplane; each of the one or more field modules (16a-16c) comprising a backplane interface that connects the field module to the backplane, a field device interface to operatively connect a field device to the field module, an intrinsically safe connection between the field device interface and the backplane interface transmitting power from the backplane interface to the field device interface and transmitting data between the backplane interface and the field device interface; the trunk module comprising a trunk interface that connects the trunk module to the trunk of the distributed control network, a backplane interface that connects the trunk module to the backplane, and a connection between the trunk interface and the backplane interface transmitting power from the trunk interface to the backplane and transmitting data between the trunk interface and the backplane whereby power is transmitted from the control processor along the trunk to the field devices (16a-16c) through the two lines (26, 28) of the backplane and data signals are transmitted between the control processor and the field devices (16a-16c) through the two lines (26, 28) of the backplane.
A multi-aperture imaging device, comprising: an image sensor; a plurality of optical channels (14 1, 14 2, 14 3, 14 4); a beam-deflecting device for deflecting optical paths (22 1, 22 2, 22 3 22 4) of the plurality of optical channels, wherein the beam-deflecting device comprises a carrier substrate common for the plurality of optical channels, wherein a deflection angle of deflecting the optical path (22 1, 22 2, 22 3, 22 4) of each optical channel (14 1, 14 2, 14 3, 14 4) is based on a setting angle of the carrier substrate of the beam deflection apparatus with respect to the image sensor and on an inclination with respect to the carrier substrate, which varies among the optical channels, of a reflecting facet (26 1, 26 2, 26 3, 26 4) of a surface of the beam deflecting apparatus facing the image sensor, the reflecting facet being allocated to the optical channel. an image sensor; a plurality of optical channels (14 1, 14 2, 14 3, 14 4); a beam-deflecting device for deflecting optical paths (22 1, 22 2, 22 3 22 4) of the plurality of optical channels, wherein the beam-deflecting device comprises a carrier substrate common for the plurality of optical channels, wherein a deflection angle of deflecting the optical path (22 1, 22 2, 22 3, 22 4) of each optical channel (14 1, 14 2, 14 3, 14 4) is based on a setting angle of the carrier substrate of the beam deflection apparatus with respect to the image sensor and on an inclination with respect to the carrier substrate, which varies among the optical channels, of a reflecting facet (26 1, 26 2, 26 3, 26 4) of a surface of the beam deflecting apparatus facing the image sensor, the reflecting facet being allocated to the optical channel.
A particulate composition for an easy-to-take solid preparation, comprising particles comprising sugar alcohol, a water-soluble polymer and a water-insoluble polymer that is micro-fibrillated cellulose or crystalline cellulose, wherein: (a) the water soluble polymer is selected from the group consisting of sodium carmellose, xanthan gum, and sodium alginate; and (b) the whole of the surface of particles of said particles of the particulate composition is coated with the water-soluble polymer. (a) the water soluble polymer is selected from the group consisting of sodium carmellose, xanthan gum, and sodium alginate; and (b) the whole of the surface of particles of said particles of the particulate composition is coated with the water-soluble polymer.
A safety holster for handguns comprising: a hollow body defined by two side walls (1 b) joined together by a front wall (1 c) and a rear wall (1 d), and adapted to receive said handgun through a top opening (1 a), said body defining a longitudinal direction substantially corresponding to the axis of the barrel of the handgun when housed in the body; a first locking device comprising locking means pivotally mounted on at least one of said side walls (1 b) so that it is adapted to between two angularly spaced positions, a locking position where said locking means partially shuts from above the holster opening (1 a) preventing the extraction of the handgun, and a release position in which the locking means clear said holster opening (1 a); elastic means for biasing the rotation of said locking means from said locking position to said release position; and a release device mounted in one of said side walls (1 b) and comprising a displaceable member catching said locking means in said locking position, the actuation of said member releasing said locking means letting them rotate from said locking position to said release position, characterized in that said locking means comprise a shutter pivotally connected to one of said side walls so as to swing about an axis running along said longitudinal direction.
Head for hedge trimmer, comprising an external casing (2, 102) intended to rotate around a respective axis of rotation and equipped with at least one lateral exit hole (4, 104) for a cutting wire, said external casing (2, 102) internally defining a housing for the storage of a part of the cutting wire so that an end portion of said wire exits from the casing (2, 102) through said lateral hole (4, 104); wherein said head for hedge trimmer comprises a pair of presser elements (5, 6, 105, 106), said presser elements (5, 6, 105, 106) facing each other and defining between them an annular shaped housing (7, 107) to contain said part of the cutting wire, said presser elements (5, 6, 105, 106) being moveable towards each other along said axis of rotation so as to compress between them said part of the cutting wire stored between them; wherein the presser elements (5, 6, 105, 106) are conformed so as to contain, within the housing (7, 107) formed between them, the cutting wire arranged to strike against first surfaces (5a, 6a, 105a, 106a) of the presser elements (5, 6, 105, 106) and configured according to a spiral winding with coils all resting on the same plane perpendicular to the axis of rotation; wherein said head for hedge trimmer comprises clamping means (3, 15; 116) provided to generate movement towards each other between said presser elements (5, 6, 105, 106) so as to clamp between said presser elements (5, 6, 105, 106) said part of the cutting wire stored between them; and wherein said head for hedge trimmer is a head of the type with automatic replacement of the cutting wire, characterized in that the pair of presser elements (5, 6, 105, 106) are arranged inside the housing internally defined by the external casing (2, 102).
A position measurement system to measure a position of an object relative to a reference, comprising a grating on the object and two interferometers (IF1, IF2), wherein each interferometer (IF1, IF2) is configured to form a reference beam and a measurement beam from an input radiation and to combine the reference beam and the measurement beam to provide output radiation to be delivered to a detector, wherein each interferometer (IF1, IF2) is configured such that the reference beam is formed by reflection of the input radiation from a reflective element (RE1, RE2), and such that the measurement beam is formed by diffraction of the input radiation from the grating on the object, and wherein the reflective element (RE1, RE2) is arranged to reflect a portion of the input radiation to form the reference beam in a direction parallel to a direction of the measurement beam, wherein the reflective element (RE1, RE2) is arranged to propagate another portion of the input radiation to form the measurement beam, and wherein the reflective element (RE1, RE2) is directly in front of the interferometer (IF1, IF2). wherein each interferometer (IF1, IF2) is configured to form a reference beam and a measurement beam from an input radiation and to combine the reference beam and the measurement beam to provide output radiation to be delivered to a detector, wherein each interferometer (IF1, IF2) is configured such that the reference beam is formed by reflection of the input radiation from a reflective element (RE1, RE2), and such that the measurement beam is formed by diffraction of the input radiation from the grating on the object, and wherein the reflective element (RE1, RE2) is arranged to reflect a portion of the input radiation to form the reference beam in a direction parallel to a direction of the measurement beam, wherein the reflective element (RE1, RE2) is arranged to propagate another portion of the input radiation to form the measurement beam, and wherein the reflective element (RE1, RE2) is directly in front of the interferometer (IF1, IF2).
A uniflow scavenging 2-cycle engine (100, 200) comprising: a cylinder in which a combustion chamber is formed; a piston which slides within the cylinder; a scavenge port which is provided on one end side in a stroke direction of the piston in the cylinder to suck an active gas into the combustion chamber in accordance with the sliding movement of the piston; and a fuel injection unit (128, 228) which has an injection port located on the outside of the cylinder, and injects a premixed gas into the active gas sucked into the scavenge port, characterized in that the fuel injection unit (128, 228) has mixing tubes (128a, 128b, 228a, 228b) which are formed separately from the cylinder, the mixing tubes (128a, 128b, 228a, 228b) adapted to mix an active gas with a fuel gas to generate the premixed gas, and the mixing tubes (128a, 128b, 228a, 228b) are a first mixing tube (128a, 228a) which is disposed further on one end side in the stroke direction of the piston than the scavenge port and a second mixing tube (128b, 228a) which is disposed further on the other end side in the stroke direction of the piston than the scavenge port. a cylinder in which a combustion chamber is formed; a piston which slides within the cylinder; a scavenge port which is provided on one end side in a stroke direction of the piston in the cylinder to suck an active gas into the combustion chamber in accordance with the sliding movement of the piston; and a fuel injection unit (128, 228) which has an injection port located on the outside of the cylinder, and injects a premixed gas into the active gas sucked into the scavenge port, characterized in that the fuel injection unit (128, 228) has mixing tubes (128a, 128b, 228a, 228b) which are formed separately from the cylinder, the mixing tubes (128a, 128b, 228a, 228b) adapted to mix an active gas with a fuel gas to generate the premixed gas, and the mixing tubes (128a, 128b, 228a, 228b) are a first mixing tube (128a, 228a) which is disposed further on one end side in the stroke direction of the piston than the scavenge port and a second mixing tube (128b, 228a) which is disposed further on the other end side in the stroke direction of the piston than the scavenge port.
A method of providing help information for a user device comprising: receiving a video displaying a function and meta-data related to the video; identifying, by the user device, information about the function from the received video by analyzing the meta-data related to the video, wherein the information about the function comprises information about an updated function; determining, by the user device, whether the user device supports the function based on the identified information; executing, by the user device, when the user device supports the function, a help function for the function; and outputting, by the user device, the help information corresponding to the executed help function, wherein executing the help function comprises executing the help function when executing another function that creates a same result as the function corresponding to the help function. receiving a video displaying a function and meta-data related to the video; identifying, by the user device, information about the function from the received video by analyzing the meta-data related to the video, wherein the information about the function comprises information about an updated function; determining, by the user device, whether the user device supports the function based on the identified information; executing, by the user device, when the user device supports the function, a help function for the function; and outputting, by the user device, the help information corresponding to the executed help function, wherein executing the help function comprises executing the help function when executing another function that creates a same result as the function corresponding to the help function.
A method of controlling a gas engine that is operated under lean-burn conditions, the method adjusting ignition timing such that a moving average value of an actual knocking occurrence ratio becomes a target occurrence ratio, the method comprising: when a moving average value of a maximum pressure in a cylinder of the gas engine is greater than or equal to a reference value, converting the moving average value of the maximum pressure in the cylinder into a virtual knocking occurrence ratio greater than or equal to a value that is greater than the target occurrence ratio; and either: adding the virtual knocking occurrence ratio to the moving average value of the actual knocking occurrence ratio to calculate a calculated occurrence ratio, comparing the calculated occurrence ratio with the target occurrence ratio, and advancing or retarding the ignition timing based on a deviation between the calculated occurrence ratio and the target occurrence ratio; or comparing the virtual knocking occurrence ratio instead of the moving average value of the actual knocking occurrence ratio with the target occurrence ratio, and advancing or retarding the ignition timing based on a deviation between the virtual knocking occurrence ratio and the target occurrence ratio. adding the virtual knocking occurrence ratio to the moving average value of the actual knocking occurrence ratio to calculate a calculated occurrence ratio, comparing the calculated occurrence ratio with the target occurrence ratio, and advancing or retarding the ignition timing based on a deviation between the calculated occurrence ratio and the target occurrence ratio; or comparing the virtual knocking occurrence ratio instead of the moving average value of the actual knocking occurrence ratio with the target occurrence ratio, and advancing or retarding the ignition timing based on a deviation between the virtual knocking occurrence ratio and the target occurrence ratio.