mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: - providing a yarn or thread comprising a base fiber uniformly blended with trace fiber slivers, said trace fiber slivers comprising luminescent nano-particle photon marker microcapsules evenly distributed within cellulose fibers, the luminescent nano-particle photon marker microcapsules transmitting a reflected response signature within a wavelength range of 380 nm and 100 μm when examined under a spectrophotometer reader, the response signature being indicative of an aspect of the yarn, thread or any intermediate or final product manufactured therefrom, the method comprising: - providing the trace fiber slivers by processing trace fiber strands into the trace fiber slivers; - forming the trace fiber strands by: - forming the luminescent nano-particle photon marker microcapsules by encasing luminescent nano-particle photon markers in shells, and - mixing the luminescent nano-particle photon marker microcapsules within a diluted cellulose slurry to form a mixture; - extruding the mixture through a spinneret to form the trace fiber strands. - providing a yarn or thread comprising a base fiber uniformly blended with trace fiber slivers, said trace fiber slivers comprising luminescent nano-particle photon marker microcapsules evenly distributed within cellulose fibers, the luminescent nano-particle photon marker microcapsules transmitting a reflected response signature within a wavelength range of 380 nm and 100 μm when examined under a spectrophotometer reader, the response signature being indicative of an aspect of the yarn, thread or any intermediate or final product manufactured therefrom, the method comprising: - providing the trace fiber slivers by processing trace fiber strands into the trace fiber slivers; - forming the trace fiber strands by: - forming the luminescent nano-particle photon marker microcapsules by encasing luminescent nano-particle photon markers in shells, and - mixing the luminescent nano-particle photon marker microcapsules within a diluted cellulose slurry to form a mixture; - extruding the mixture through a spinneret to form the trace fiber strands. - forming the luminescent nano-particle photon marker microcapsules by encasing luminescent nano-particle photon markers in shells, and - mixing the luminescent nano-particle photon marker microcapsules within a diluted cellulose slurry to form a mixture; - extruding the mixture through a spinneret to form the trace fiber strands.
Method for retrofitting an existing electrical energy network (1, 61, 81, 82, 83, 84, 85) with additional controllable devices for transmitting energy, - in which a model of the energy network is provided, which model takes into account a voltage distribution inside the energy network by means of a system of equations and/or a system of inequations on the basis of the number and position of additional controllable devices and on the basis of control positions of all controllable devices, and - in which the model is used to carry out a simulation for minimizing a target function, the target function taking into account retrofitting effort and/or energy losses caused by the additional controllable devices, and - in which the number and position of additionally required controllable devices and the control positions of all controllable devices are stated as the result of the simulation so that the energy network (1, 61, 81, 82, 83, 84, 85) complies with a predefined voltage band during operation, characterized in that the target function is minimized by means of mixed-integer optimization, wherein, in order to comply with the predefined voltage band, operation of the energy network a) with maximum load and minimum feed-in power, and b) with minimum load and maximum feed-in power is simulated. - in which a model of the energy network is provided, which model takes into account a voltage distribution inside the energy network by means of a system of equations and/or a system of inequations on the basis of the number and position of additional controllable devices and on the basis of control positions of all controllable devices, and - in which the model is used to carry out a simulation for minimizing a target function, the target function taking into account retrofitting effort and/or energy losses caused by the additional controllable devices, and - in which the number and position of additionally required controllable devices and the control positions of all controllable devices are stated as the result of the simulation so that the energy network (1, 61, 81, 82, 83, 84, 85) complies with a predefined voltage band during operation, characterized in that the target function is minimized by means of mixed-integer optimization, wherein, in order to comply with the predefined voltage band, operation of the energy network a) with maximum load and minimum feed-in power, and b) with minimum load and maximum feed-in power is simulated. a) with maximum load and minimum feed-in power, and b) with minimum load and maximum feed-in power
Lifting device (1; 100) for lifting and moving a manhole cover, wherein the lifting device (1; 100) comprises a variable geometry structure comprising in turn: - a lifting portion (2; 102), configured to support at least one tool through which to hook said manhole cover, - a handle (3; 103) at one end of which there is at least one handle, said lifting portion (2; 102) and said handle (3; 103) being hinged directly to each other around a rotation axis, - locking members configured to selectively abut a bottom end of said handle (3; 103) to lock said handle (3; 103) in a predetermined position with respect to said lifting portion (2; 102) to define a configuration of use among a plurality of predetermined use configurations wherein said lifting device assumes an "L" or substantially "L" shape or wherein said handle (3; 103; 203) is inclined with respect to said lifting portion (2; 102), wherein said lifting portion (2; 102) defines a seat for housing at least one bottom end of a bottom portion of said handle (3; 103), wherein said seat is delimited at a connection end between said lifting portion (2; 102) and said handle (3; 103), characterized in that said locking members comprise a lever hinged to said lifting portion around an actuation axis parallel to said rotation axis, wherein said lever is configured to selectively move an abutment element between a locking position, wherein said abutment element abuts against said bottom end of said bottom portion of said handle, preventing its relative rotation with respect to said lifting portion, and a release position, wherein said abutment element disengages said bottom end of said bottom portion of said handle, allowing the relative rotation of said handle with respect to said lifting portion. - a lifting portion (2; 102), configured to support at least one tool through which to hook said manhole cover, - a handle (3; 103) at one end of which there is at least one handle, said lifting portion (2; 102) and said handle (3; 103) being hinged directly to each other around a rotation axis, - locking members configured to selectively abut a bottom end of said handle (3; 103) to lock said handle (3; 103) in a predetermined position with respect to said lifting portion (2; 102) to define a configuration of use among a plurality of predetermined use configurations wherein said lifting device assumes an "L" or substantially "L" shape or wherein said handle (3; 103; 203) is inclined with respect to said lifting portion (2; 102), wherein said lifting portion (2; 102) defines a seat for housing at least one bottom end of a bottom portion of said handle (3; 103), wherein said seat is delimited at a connection end between said lifting portion (2; 102) and said handle (3; 103),
A screw, having 1.1 a screw head, 1.2 a screw shaft, 1.3 an at least approximately conical screw tip and 1.4 a screw thread (4, 14) 1.4.1 extending up to the screw tip, and having 1.5 an additional thread (5, 15), 1.5.1 the thread turn thereof starting within the conical screw tip, reaching up to the shaft and presenting a smaller pitch than the screw thread (4, 14). 1.1 a screw head, 1.2 a screw shaft, 1.3 an at least approximately conical screw tip and 1.4 a screw thread (4, 14) 1.4.1 extending up to the screw tip, and having 1.4.1 extending up to the screw tip, and having 1.5 an additional thread (5, 15), 1.5.1 the thread turn thereof starting within the conical screw tip, reaching up to the shaft and presenting a smaller pitch than the screw thread (4, 14). 1.5.1 the thread turn thereof starting within the conical screw tip, reaching up to the shaft and presenting a smaller pitch than the screw thread (4, 14).
A charged particle system comprising: a charged particle source for producing charged particles; illumination optics for illuminating a sample with the charged particles; an objective lens for focusing the charged particles transmitted through the sample; an imaging deflector system disposed behind the objective lens and operative to deflect the charged particles; a detector having a detection surface and operative to detect the charged particles incident thereon and to output intensity information corresponding to the number of the detected charged particles; imaging optics disposed behind the imaging deflector system and operative to focus the charged particles as diffraction discs onto the detection surface; a storage unit for storing the intensity information output from the detector; and a controller for controlling the imaging deflector system; characterized in that said controller controls said imaging deflector system to cause the charged particles passing through a given position of particle impingement on the sample to be deflected under successively different sets of deflection conditions so that different diffraction discs are brought successively into focus, each onto a different region (115a - 115d) of said detection surface; and wherein said storage unit stores the intensity information for each set of said deflection conditions. a charged particle source for producing charged particles; illumination optics for illuminating a sample with the charged particles; an objective lens for focusing the charged particles transmitted through the sample; an imaging deflector system disposed behind the objective lens and operative to deflect the charged particles; a detector having a detection surface and operative to detect the charged particles incident thereon and to output intensity information corresponding to the number of the detected charged particles; imaging optics disposed behind the imaging deflector system and operative to focus the charged particles as diffraction discs onto the detection surface; a storage unit for storing the intensity information output from the detector; and a controller for controlling the imaging deflector system; characterized in that said controller controls said imaging deflector system to cause the charged particles passing through a given position of particle impingement on the sample to be deflected under successively different sets of deflection conditions so that different diffraction discs are brought successively into focus, each onto a different region (115a - 115d) of said detection surface; and wherein said storage unit stores the intensity information for each set of said deflection conditions.
A communication method, comprising: receiving, by a target access network device, a handover request from a source access network device, wherein the handover request comprises an identifier of a session requested to be handed over; performing, by the target access network device, an admission control based on the handover request; sending, by the target access network device, a handover response message to the source access network device, receiving, by the target access network device, a handover acknowledge message from a terminal device; sending, by a target access network device, a path switch request to a core network device, wherein the path switch request comprises an identifier of a session that is accepted by the target access network device and an identifier of a session that is rejected by the target access network device; and receiving, by the target access network device, a path switch request response message sent by the core network device. receiving, by a target access network device, a handover request from a source access network device, wherein the handover request comprises an identifier of a session requested to be handed over; performing, by the target access network device, an admission control based on the handover request; sending, by the target access network device, a handover response message to the source access network device, receiving, by the target access network device, a handover acknowledge message from a terminal device; sending, by a target access network device, a path switch request to a core network device, wherein the path switch request comprises an identifier of a session that is accepted by the target access network device and an identifier of a session that is rejected by the target access network device; and receiving, by the target access network device, a path switch request response message sent by the core network device.
An aerodynamic surface for an aircraft comprising: - a torsion box having a front spar, and - a composite leading edge section, comprising: - an outer surface shaped with an aerodynamic leading edge profile, - an inner surface internally arranged with respect to the outer surface, and - a blanket spanwise arranged between the outermost point of the inner surface and the front spar,- wherein the blanket is made of a fibre material having a specific energy absorption ranging from 47 to 72 J•g -1 and a longitudinal wave speed ranging from 6 to 15 km•s -1, - wherein the major part of the blanket is dry fibre, - wherein the blanket is joined to at least two opposing areas of the inner surface for absorbing a bird strike, to prevent the damage of the front spar, and - wherein the blanket 4 is arranged within the 0% - 20% of the chord length of the leading edge section. - a torsion box having a front spar, and - a composite leading edge section, comprising: - an outer surface shaped with an aerodynamic leading edge profile, - an inner surface internally arranged with respect to the outer surface, and - a blanket spanwise arranged between the outermost point of the inner surface and the front spar,- wherein the blanket is made of a fibre material having a specific energy absorption ranging from 47 to 72 J•g -1 and a longitudinal wave speed ranging from 6 to 15 km•s -1, - wherein the major part of the blanket is dry fibre, - wherein the blanket is joined to at least two opposing areas of the inner surface for absorbing a bird strike, to prevent the damage of the front spar, and - wherein the blanket 4 is arranged within the 0% - 20% of the chord length of the leading edge section. - an outer surface shaped with an aerodynamic leading edge profile, - an inner surface internally arranged with respect to the outer surface, and - a blanket spanwise arranged between the outermost point of the inner surface and the front spar,- wherein the blanket is made of a fibre material having a specific energy absorption ranging from 47 to 72 J•g -1 and a longitudinal wave speed ranging from 6 to 15 km•s -1, - wherein the major part of the blanket is dry fibre, - wherein the blanket is joined to at least two opposing areas of the inner surface for absorbing a bird strike, to prevent the damage of the front spar, and - wherein the blanket 4 is arranged within the 0% - 20% of the chord length of the leading edge section.
An antenna arrangement (20, 30, 40, 50, 60) connectable to a transceiver for transmitting and receiving RF signals in at least two separate frequency bands, said antenna arrangement comprising: a first set of antenna elements (21, 31, 41, 51) and a second set of antenna elements (22, 32, 42, 52) in an interleaved arrangement on a reflector, wherein said first and second sets of antenna elements are interleaved along and positioned on a straight line so as to form a single column; wherein the first set of antenna elements (21, 31, 41, 51) operates in a first frequency region, whereas the second set of antenna elements (22, 42) operates in a second frequency region, wherein said first and second frequency regions include first and second frequency bands (FB1, FB2), respectively, which are separate and substantially non-overlapping but relatively close to each other, and wherein each of the antenna elements operates in only one frequency band; the distance (x) between adjacent antenna elements in said column, operating in different frequency bands, is substantially the same along said column and is smaller than the wavelength λ of the centre frequency of the highest one of said first and second frequency bands, characterized in that all antenna elements of the antenna arrangement (20, 30, 40, 50, 60) are arranged in said single column. a first set of antenna elements (21, 31, 41, 51) and a second set of antenna elements (22, 32, 42, 52) in an interleaved arrangement on a reflector, wherein said first and second sets of antenna elements are interleaved along and positioned on a straight line so as to form a single column; wherein the first set of antenna elements (21, 31, 41, 51) operates in a first frequency region, whereas the second set of antenna elements (22, 42) operates in a second frequency region, wherein said first and second frequency regions include first and second frequency bands (FB1, FB2), respectively, which are separate and substantially non-overlapping but relatively close to each other, and wherein each of the antenna elements operates in only one frequency band; the distance (x) between adjacent antenna elements in said column, operating in different frequency bands, is substantially the same along said column and is smaller than the wavelength λ of the centre frequency of the highest one of said first and second frequency bands, characterized in that all antenna elements of the antenna arrangement (20, 30, 40, 50, 60) are arranged in said single column.
Battery system, comprising - at least one lithium cell with an electrolyte, which comprises at least one polymer that is impregnated or can be impregnated with an electrolyte fluid, and - at least one electrolyte fluid metering device according to either of Claims 8 and 9, wherein at least one component of the electrolyte fluid can be supplied to the lithium cell and/or can be discharged from the lithium cell by the electrolyte fluid metering device, and wherein the electrolyte fluid metering device has at least one electrolyte fluid component reservoir, the volume of which can be varied by a movable wall, characterized in that the battery system comprises a control device, which controls a corresponding stroke of the movable wall of the electrolyte fluid metering device in dependence on at least one measuring parameter, selected from the group comprising the cell voltage, cell current, internal cell resistance and combinations thereof. - at least one lithium cell with an electrolyte, which comprises at least one polymer that is impregnated or can be impregnated with an electrolyte fluid, and - at least one electrolyte fluid metering device according to either of Claims 8 and 9,
A method for gas stunning of poultry for slaughter arriving at the poultry slaughterhouse in transport crates, where gas stunning of the animals is achieved while the animals are still in transport crates, and where the transport crates and the animals, are conveyed successively by means of conveyors (12, 14, 18, 20) through a stunning chamber, characterised in that an influence of the gas for stunning the animals is adjusted while the animals are within the stunning gas by shortening or lengthening a conveying time during which the animals travel within the stunning gas and adjusting a length of conveying by changing the configuration of the path of travel of the transport crates on the conveyor travelled by the animals within the stunning gas within the transport crates through the stunning chamber.
A method of controlling a movable object to track a target, comprising: determining a difference (Δ h) between a desired height (h REF) and a measured height (h m) of the movable object; determining a reference speed of the movable object or the target; and adjusting the movable object based on: the difference (Δ h) between the desired height (h REF) and the measured height (h m); and the reference speed, wherein adjusting the movable object includes adjusting one or more movement characteristics of the movable object, characterized in that: the reference speed is a horizontal speed of the movable object or the target; the method further comprises determining a vertical speed of the movable object based on the reference speed; and the method further comprises adjusting an actual height (h UAV) of the movable object based on the vertical speed. determining a difference (Δ h) between a desired height (h REF) and a measured height (h m) of the movable object; determining a reference speed of the movable object or the target; and adjusting the movable object based on: the difference (Δ h) between the desired height (h REF) and the measured height (h m); and the reference speed, wherein adjusting the movable object includes adjusting one or more movement characteristics of the movable object, the difference (Δ h) between the desired height (h REF) and the measured height (h m); and the reference speed, wherein adjusting the movable object includes adjusting one or more movement characteristics of the movable object, characterized in that: the reference speed is a horizontal speed of the movable object or the target; the method further comprises determining a vertical speed of the movable object based on the reference speed; and the method further comprises adjusting an actual height (h UAV) of the movable object based on the vertical speed. the reference speed is a horizontal speed of the movable object or the target; the method further comprises determining a vertical speed of the movable object based on the reference speed; and the method further comprises adjusting an actual height (h UAV) of the movable object based on the vertical speed.
A log dog, comprising: an elongate body having a log dog first end, a log dog second end, a front face, a back face and side faces; a row of spaced-apart teeth coupled to the body and defining setting notches adapted to enable movement of the log dog in one direction when the log dog is releasably-locked in position during operation; and one or more projections coupled to the body proximate the log dog first end and protruding from the front face for engaging a log; characterized in that said body is configured to allow an axle to move along the row of spaced apart teeth as part of a ratchet-type mechanism, said axle being perpendicular to said row of spaced apart teeth an elongate body having a log dog first end, a log dog second end, a front face, a back face and side faces; a row of spaced-apart teeth coupled to the body and defining setting notches adapted to enable movement of the log dog in one direction when the log dog is releasably-locked in position during operation; and one or more projections coupled to the body proximate the log dog first end and protruding from the front face for engaging a log; characterized in that said body is configured to allow an axle to move along the row of spaced apart teeth as part of a ratchet-type mechanism, said axle being perpendicular to said row of spaced apart teeth