mhurhangee/ep-ind-claims huggingface dataset:
A coupler for securing an attachment to an earth working machine, comprising: a coupler body that presents a receptacle comprising a mouth opening via which a pin of an attachment can pass to move through a passage of the receptacle to a captive region of the receptacle, a retainer moveably presented from and relative to the coupler body, the passage of the receptacle being able to be at least partially occluded so as to prevent said pin from moving out of the captive region by said retainer of said coupler, wherein the retainer is biased to a passage occluded first position at which the retainer prevents said pin from moving out of the captive region and that can be moved to a second position relative the passage to allow: (i) the ingress of said pin into the captive region by forcing said pin against the retainer to move the retainer against its bias towards said second position; and (ii) egress of said pin from the captive region, by a driver of the coupler, wherein the driver is able to be moved relative the coupler body to be: (a) coupled with the retainer, to allow the retainer to be moved by the driver to its second position and (b) decoupled from the retainer, preventing the driver from moving the retainer's position, characterised in that the coupler further comprises a trigger that is moveable relative the coupler body in a manner to be engaged and able to be moved by said pin as said pin moves through the passage in a manner so that the trigger can, when so moved by said pin, cause the driver to decouple from the retainer, preventing the driver from moving the retainer's position. a coupler body that presents a receptacle comprising a mouth opening via which a pin of an attachment can pass to move through a passage of the receptacle to a captive region of the receptacle, a retainer moveably presented from and relative to the coupler body, the passage of the receptacle being able to be at least partially occluded so as to prevent said pin from moving out of the captive region by said retainer of said coupler, wherein the retainer is biased to a passage occluded first position at which the retainer prevents said pin from moving out of the captive region and that can be moved to a second position relative the passage to allow: (i) the ingress of said pin into the captive region by forcing said pin against the retainer to move the retainer against its bias towards said second position; and (ii) egress of said pin from the captive region, by a driver of the coupler, (i) the ingress of said pin into the captive region by forcing said pin against the retainer to move the retainer against its bias towards said second position; and (ii) egress of said pin from the captive region, by a driver of the coupler, (a) coupled with the retainer, to allow the retainer to be moved by the driver to its second position and (b) decoupled from the retainer, preventing the driver from moving the retainer's position,
An assembly comprising a nacelle cover for a wind turbine, wherein the nacelle cover comprises a roof, opposite sidewalls and a floor assembled together to form a composite material elongate housing defining an interior space for containing machinery components of the wind turbine, the housing having a front end mounted to a tower of the wind turbine, and an opposite rear end, wherein each of the roof, the opposite sidewalls and the floor comprises a fibre-reinforced polymer composite material, wherein at least one machinery component of the wind turbine is mounted on the housing at a position laterally spaced from the tower in a longitudinal direction along the housing, and the housing comprises a structural tube which functions as a vertically displaceable cantilever beam carrying the load of the at least one machinery component mounted thereon, characterised in that in an unloaded state prior to mounting the at least one machinery component on the housing, the rear end is higher than the front end, and in a loaded state after mounting the at least one machinery component on the housing, the rear end is lowered as compared to the unloaded state by flexural elastic deformation of the structural tube.
A process of dynamic milking, comprising the steps of: arranging a milking teat having a milk channel into an inner cavity of a shell of a teat cup having a milk output; generating a vacuum action in the teat cup communicating with the milking teat and applying in the teat cup a mechanical action on at least one lateral part of the milking teat to cause a flow of a milking milk from an output of the milk channel of the milking teat; modulating the vacuum action and periodically changing the mechanical action so that increasing of the modulated vacuum action on the milking teat occurs at the same time as increasing of the mechanical action on the milking teat and decreasing of the modulated vacuum action on the milking teat occurs at the same time as decreasing of the mechanical action on the milking teat in-phase, respectively, in each period of the process without interrupting a spatial channel for movement of the flow of the milking milk between the output of the milk channel of the milking teat and the constantly-open milk output of the teat cup such that an energy-physiological optimization of the process is provided.
A channel receiving apparatus, comprising: a first modulating device (102_a), arranged to convert a first channel into a first predetermined frequency according to a first oscillating signal and a second oscillating signal; and at least one second modulating device (102_b-102_m), arranged to convert a second channel into a second predetermined frequency according to a third oscillating signal and a fourth oscillating signal; wherein the first oscillating signal has a first oscillating frequency, the second oscillating signal has a second oscillating frequency, the third oscillating signal has a third oscillating frequency, and the fourth oscillating signal has a fourth oscillating frequency, and wherein when the third oscillating frequency is substantially equal to the first oscillating frequency, the third oscillating signal is arranged to be shifted by a predetermined frequency range fs to have a fifth oscillating frequency different from the first oscillating frequency and the fourth oscillating signal is arranged to be shifted by the predetermined frequency range fs to have a sixth oscillating frequency, and the channel receiving apparatus characterised in that the third oscillating signal and the fourth oscillating signal are arranged to be shifted by the predetermined frequency range fs in a different direction; and in that when the first oscillating frequency is substantially equal to the second oscillating frequency, the first oscillating signal and the second oscillating signal are arranged to be shifted by the predetermined frequency range fs in a different direction. a first modulating device (102_a), arranged to convert a first channel into a first predetermined frequency according to a first oscillating signal and a second oscillating signal; and at least one second modulating device (102_b-102_m), arranged to convert a second channel into a second predetermined frequency according to a third oscillating signal and a fourth oscillating signal;
A method comprising: Receiving sector numbers for critical sectors (422, 424, 426) of a first physical disk on a primary computer system, wherein the critical sectors comprise sectors of the first physical disk comprising information used to operate the first physical disk and used to specify the geometry of the first physical disk; receiving corresponding data from the critical sectors of the first physical disk; creating a virtual disk for a virtual machine, wherein the virtual disk (132, 330, 430) comprises sectors; writing the corresponding data from the critical sectors of the first physical disk into respective sectors of the virtual disk, wherein the respective sectors of the virtual disk are identified by the sector numbers, and the creating and the writing are performed during a backup of the primary computing system; and after the writing the corresponding data from the critical sectors into the respective sectors of the virtual disk, writing user data from a backup of the primary computing system into respective files of the virtual disk. Receiving sector numbers for critical sectors (422, 424, 426) of a first physical disk on a primary computer system, wherein the critical sectors comprise sectors of the first physical disk comprising information used to operate the first physical disk and used to specify the geometry of the first physical disk; receiving corresponding data from the critical sectors of the first physical disk; creating a virtual disk for a virtual machine, wherein the virtual disk (132, 330, 430) comprises sectors; writing the corresponding data from the critical sectors of the first physical disk into respective sectors of the virtual disk, wherein the respective sectors of the virtual disk are identified by the sector numbers, and the creating and the writing are performed during a backup of the primary computing system; and after the writing the corresponding data from the critical sectors into the respective sectors of the virtual disk, writing user data from a backup of the primary computing system into respective files of the virtual disk.
A lubrication system (80; 80'), comprising: a reserve lubrication subsystem including a pressurized reserve lubricant tank; characterized by means for sensing a prolonged reduced-G condition, the prolonged reduced-G condition being a condition that lasts for a period of time greater than 7 seconds, during which G forces are below 1G; and a control subsystem operable to selectively communicate lubricant under gas pressure from said pressurized reserve lubricant tank in response to a prolonged reduced-G condition; the reserve lubrication subsystem further comprising a multiple of pressurized reserve lubricant tanks, wherein the pressurized reserve lubricant tanks are line-replaceable units. a reserve lubrication subsystem including a pressurized reserve lubricant tank; characterized by means for sensing a prolonged reduced-G condition, the prolonged reduced-G condition being a condition that lasts for a period of time greater than 7 seconds, during which G forces are below 1G; and a control subsystem operable to selectively communicate lubricant under gas pressure from said pressurized reserve lubricant tank in response to a prolonged reduced-G condition; the reserve lubrication subsystem further comprising a multiple of pressurized reserve lubricant tanks, wherein the pressurized reserve lubricant tanks are line-replaceable units.
Motor vehicle comprising a floor structure, and an axle for two front wheels, characterised in that it further comprises, a reinforcing beam extending transversally under the floor structure, behind the axle, so as to limit a movement to the rear of one of the front wheels in case of front impact with a partial side coverage of the side of said wheel.
A method of simulating on a quantum computer device comprising a plurality of qubits, including at least one ancilla qubit, a real time evolution unitary of a Hamiltonian H on a lattice of qubits Λ modelling a physical quantum system, the method comprising: decomposing in a classical computer a unit time evolution unitary operator, e -itH, of the Hamiltonian H into smaller unitary operators of the form e -itH □ and e + itH □, implemented on overlapping smaller blocks □ of qubits within the lattice of qubits Λ, wherein H = ∑ X ⊂Λ h X h X such that ∥ h X ∥ ≤ 1 for every X, h X is supported on region X of the lattice Λ, and: h X = 0 whenever diam > 1, or ‖ h X ‖ ≤ e − diam X and H □ is the sum of local terms in the Hamiltonian H supported on block □; and simulating the unit time evolution unitary operator of the Hamiltonian, e -itH, on the lattice of qubits Λ, using a quantum signal processing algorithm to implement each smaller unitary operator of the form e -itH □ and e + itH □ on the quantum computer device, wherein each block □ has a size O l D where D is the number of spatial dimensions of the lattice Λ, and each smaller unitary operator is implemented using only O log l ancilla qubits of the quantum computer device, wherein l is the width of the overlap between the smaller overlapping blocks □ within the lattice Λ of qubits, and is proportional to the logarithm of the number of qubits in the lattice Λ. decomposing in a classical computer a unit time evolution unitary operator, e -itH, of the Hamiltonian H into smaller unitary operators of the form e -itH □ and e + itH □, implemented on overlapping smaller blocks □ of qubits within the lattice of qubits Λ, wherein H = ∑ X ⊂Λ h X h X such that ∥ h X ∥ ≤ 1 for every X, h X is supported on region X of the lattice Λ, and: h X = 0 whenever diam > 1, or ‖ h X ‖ ≤ e − diam X and H □ is the sum of local terms in the Hamiltonian H supported on block □; and simulating the unit time evolution unitary operator of the Hamiltonian, e -itH, on the lattice of qubits Λ, using a quantum signal processing algorithm to implement each smaller unitary operator of the form e -itH □ and e + itH □ on the quantum computer device, wherein each block □ has a size O l D where D is the number of spatial dimensions of the lattice Λ, and each smaller unitary operator is implemented using only O log l ancilla qubits of the quantum computer device, wherein l is the width of the overlap between the smaller overlapping blocks □ within the lattice Λ of qubits, and is proportional to the logarithm of the number of qubits in the lattice Λ.
An optical property analyzing apparatus comprising: a single lighting device configured to emit light to a measurement object and to provide a luminous intensity distribution pattern on the measurement object; a two-dimensional photoelectric conversion element comprising a two-dimensional array of pixels, the two-dimensional photoelectric conversion element arranged to receive a specular and near-specular reflection and to convert the reflections to image data when, in use, the single lighting device emits the light to the measurement object having a sparking effect material-containing layer in an outermost region of the measurement object, the sparkling effect material-containing layer containing a sparkling effect material; a calculating means configured to calculate a first component that is a component of a specular reflection from a surface of the measurement object, with reference to the image data; and an extracting means configured to extract a second component that is a component of a reflection from the sparkling effect material, by subtracting the first component from the image data, the first component being calculated by the calculating means; characterized in that the calculating means is configured to calculate the first component by analyzing the image data at positions supposed to have equivalent illuminance according to the luminous intensity distribution pattern on the measurement object by the lighting device and to obtain the common specular reflection component at the positions. a single lighting device configured to emit light to a measurement object and to provide a luminous intensity distribution pattern on the measurement object; a two-dimensional photoelectric conversion element comprising a two-dimensional array of pixels, the two-dimensional photoelectric conversion element arranged to receive a specular and near-specular reflection and to convert the reflections to image data when, in use, the single lighting device emits the light to the measurement object having a sparking effect material-containing layer in an outermost region of the measurement object, the sparkling effect material-containing layer containing a sparkling effect material; a calculating means configured to calculate a first component that is a component of a specular reflection from a surface of the measurement object, with reference to the image data; and an extracting means configured to extract a second component that is a component of a reflection from the sparkling effect material, by subtracting the first component from the image data, the first component being calculated by the calculating means; characterized in that the calculating means is configured to calculate the first component by analyzing the image data at positions supposed to have equivalent illuminance according to the luminous intensity distribution pattern on the measurement object by the lighting device and to obtain the common specular reflection component at the positions.
A one-piece conductive clip for electrically connecting at least two conductors of stripped ends of electrical wires, the clip comprising: a busbar with first and second contact surfaces (17, 18); a first end wall connected to the first contact surface and extending therefrom and a second end wall connected to the second contact surface and extending therefrom; a first spring finger supported by the first end wall and having a movable clamping end opposed to and directed toward the first contact surface; a second spring finger supported by the second end wall and having a movable clamping end opposed to and directed toward the second contact surface; wherein a clamping zone is defined between each spring finger clamping end and the opposed respective contact surface (17, 18) and wherein when a conductor is inserted into the clip the conductor engages the spring finger clamping end and opposed respective contact surface (17, 18) and deflects the spring finger toward the end wall, characterised in that each end wall defines at least one opening which is aligned with the clamping zone such that upon insertion of a conductor the opening receives a conductor after it passes through the clamping zone. a busbar with first and second contact surfaces (17, 18); a first end wall connected to the first contact surface and extending therefrom and a second end wall connected to the second contact surface and extending therefrom; a first spring finger supported by the first end wall and having a movable clamping end opposed to and directed toward the first contact surface; a second spring finger supported by the second end wall and having a movable clamping end opposed to and directed toward the second contact surface; wherein a clamping zone is defined between each spring finger clamping end and the opposed respective contact surface (17, 18) and wherein when a conductor is inserted into the clip the conductor engages the spring finger clamping end and opposed respective contact surface (17, 18) and deflects the spring finger toward the end wall, characterised in that each end wall defines at least one opening which is aligned with the clamping zone such that upon insertion of a conductor the opening receives a conductor after it passes through the clamping zone.
A wound dressing comprising, a material having i) an initial conformation, and ii) an expanded conformation resulting from the application of an extensive force to the material, wherein the material is provided with a plurality of slits to form a lattice, such that upon application of the extensive force to the lattice an open lattice structure is formed and characterised in that the lattice comprises a material having a plurality of slits, the slits being capable of expansion into apertures, the lattice having i) a first conformation, wherein the slits are substantially closed, and ii) a second conformation, an open lattice conformation, wherein the open lattice is stretched by the application of an extensive force expanding the slits to form aperture having a first dimension, and further characterised in that the wound dressing comprises retaining means being a transparent backing layer is fixed to the non-wound contact surface of the open lattice, or a transparent film removably applied to the non-wound contact surface of the open lattice, the retaining means is provided for retaining and supporting the lattice in the extended or open lattice conformation prior to and during application and that upon removal of the retaining means the open lattice recovers more than 10 % of the difference between its dimensions prior to extension of those same dimensions post extension. i) a first conformation, wherein the slits are substantially closed, and ii) a second conformation, an open lattice conformation, wherein the open lattice is stretched by the application of an extensive force expanding the slits to form aperture having a first dimension, and further characterised in that the wound dressing comprises retaining means being a transparent backing layer is fixed to the non-wound contact surface of the open lattice, or a transparent film removably applied to the non-wound contact surface of the open lattice, the retaining means is provided for retaining and supporting the lattice in the extended or open lattice conformation prior to and during application and that upon removal of the retaining means the open lattice recovers more than 10 % of the difference between its dimensions prior to extension of those same dimensions post extension. retaining means being a transparent backing layer is fixed to the non-wound contact surface of the open lattice, or a transparent film removably applied to the non-wound contact surface of the open lattice, the retaining means is provided for retaining and supporting the lattice in the extended or open lattice conformation prior to and during application and that upon removal of the retaining means the open lattice recovers more than 10 % of the difference between its dimensions prior to extension of those same dimensions post extension.