mhurhangee/patent-ind-claim-en huggingface dataset:
A bone implant for treatment of skeletal abnormalities in an individual, the bone implant comprised of: a staple having an outer periphery and a central pocket, the central pocket including threads ; a bone screw receivable through the central pocket; and a locking screw having threads adapted and configured for locking to the threads of the central pocket, characterised in that the staple has a domed upper surface extending from the outer periphery to the central pocket, wherein the staple has a domed lower surface , and wherein the domed upper surface of the staple includes a first cut-out adapted and configured to accommodate therein the placement of a tether cord. a staple having an outer periphery and a central pocket, the central pocket including threads ; a bone screw receivable through the central pocket; and a locking screw having threads adapted and configured for locking to the threads of the central pocket, characterised in that the staple has a domed upper surface extending from the outer periphery to the central pocket, wherein the staple has a domed lower surface , and wherein the domed upper surface of the staple includes a first cut-out adapted and configured to accommodate therein the placement of a tether cord.
A method for protecting a fan, comprising: acquiring (S10) coordinate data of the fan; and determining (S20) whether the coordinate data is beyond a scope of a standing state of the fan, and disabling the fan if the coordinate data is beyond the scope of the standing state, wherein the coordinate data of the fan is acquired by a gravity sensor mounted on the fan, wherein the coordinate data comprises a vertical coordinate, the method being characterized in that determining (S20) whether the coordinate data is beyond a scope of standing state of the fan comprises: determining that the coordinate data is beyond the scope of the standing state of the fan due to shaking of the fan, if a change of the vertical coordinate exceeds a first preset range for a certain period of time, wherein the first preset range is -20°~20°, and the certain period of time is 500ms, and determining that the coordinate data is beyond the scope of the standing state of the fan due to moving of the fan, if a change of the vertical coordinate exceeds a second preset range, wherein the second preset range is -255°~225°. acquiring (S10) coordinate data of the fan; and determining (S20) whether the coordinate data is beyond a scope of a standing state of the fan, and disabling the fan if the coordinate data is beyond the scope of the standing state, wherein the coordinate data of the fan is acquired by a gravity sensor mounted on the fan, wherein the coordinate data comprises a vertical coordinate, the method being characterized in that determining determining that the coordinate data is beyond the scope of the standing state of the fan due to shaking of the fan, if a change of the vertical coordinate exceeds a first preset range for a certain period of time, wherein the first preset range is -20°~20°, and the certain period of time is 500ms, and determining that the coordinate data is beyond the scope of the standing state of the fan due to moving of the fan, if a change of the vertical coordinate exceeds a second preset range, wherein the second preset range is -255°~225°.
A resource allocation method, wherein the method comprises: establishing, by a master control device, a first asynchronous connection link with a first slave device; establishing, by the master control device, a first synchronous connection link with the first slave device based on the first asynchronous connection link; and dynamically allocating, by the master control device, a first air interface resource to the first asynchronous connection link based on indication information in a data packet transmitted on the first synchronous connection link, wherein the indication information indicates whether control signaling transmission needs to be performed on the first asynchronous connection link. establishing, by a master control device, a first asynchronous connection link with a first slave device; establishing, by the master control device, a first synchronous connection link with the first slave device based on the first asynchronous connection link; and dynamically allocating, by the master control device, a first air interface resource to the first asynchronous connection link based on indication information in a data packet transmitted on the first synchronous connection link, wherein the indication information indicates whether control signaling transmission needs to be performed on the first asynchronous connection link.
A mobile robot comprising: a traveling unit configured to move a main body ; a cleaning unit configured to perform a cleaning function; a sensing unit configured to sense a surrounding environment; an image acquiring unit configured to acquire an image outside the main body ; and a controller configured to: perform a preceding cleaning in a cleaning area, generate a distance map indicating distance information from an obstacle for a cleaning area based on information detected through the sensing unit and the image acquired by the image acquiring unit , wherein the distance map is composed of a plurality of pixels, and each pixel includes distance information from an obstacle, divide the cleaning area into a plurality of detailed areas according to the distance information of the distance map, and control to perform cleaning independently for each of the detailed areas. a traveling unit configured to move a main body ; a cleaning unit configured to perform a cleaning function; a sensing unit configured to sense a surrounding environment; an image acquiring unit configured to acquire an image outside the main body ; and a controller configured to: perform a preceding cleaning in a cleaning area, generate a distance map indicating distance information from an obstacle for a cleaning area based on information detected through the sensing unit and the image acquired by the image acquiring unit , wherein the distance map is composed of a plurality of pixels, and each pixel includes distance information from an obstacle, divide the cleaning area into a plurality of detailed areas according to the distance information of the distance map, and control to perform cleaning independently for each of the detailed areas. perform a preceding cleaning in a cleaning area, generate a distance map indicating distance information from an obstacle for a cleaning area based on information detected through the sensing unit and the image acquired by the image acquiring unit , wherein the distance map is composed of a plurality of pixels, and each pixel includes distance information from an obstacle, divide the cleaning area into a plurality of detailed areas according to the distance information of the distance map, and control to perform cleaning independently for each of the detailed areas.
Steering column for a motor vehicle, comprising a support unit which can be connected to the body of a motor vehicle, an adjusting unit which can be releasably clamped to the support unit and in which a steering spindle is mounted so as to be rotatable about its longitudinal axis (L), and a clamping device , which can be brought into a fixing position, in which it fixes the adjusting unit relative to the support unit , and into a release position, in which it releases an adjustment of the adjusting unit relative to the support unit at least in a height direction (H) transverse to the longitudinal axis (L), and which has a clamping bolt which is arranged along a clamping axis (S) and which is guided transversely to the longitudinal axis (L) through an elongate slot in the support unit in an adjustment direction, in which slot it can be moved in the adjustment direction in the release position, and which co-operates with a clamping gear, wherein a fixing element is arranged on the clamping bolt , which fixing element can be braced against the support unit by the clamping device in the direction of the clamping axis (S), and a guide device is formed with corresponding guide elements on the fixing element and on the support unit , in which the fixing element is guided in translation relative to the support unit , wherein the guide elements are arranged at a distance from the slotted hole , and wherein the fixing element has at least one laterally projecting extension arm , to which at least one guide element is attached, characterised in in that at least one cantilever has a spring element. a support unit which can be connected to the body of a motor vehicle, an adjusting unit which can be releasably clamped to the support unit and in which a steering spindle is mounted so as to be rotatable about its longitudinal axis (L), and a clamping device , which can be brought into a fixing position, in which it fixes the adjusting unit relative to the support unit , and into a release position, in which it releases an adjustment of the adjusting unit relative to the support unit at least in a height direction (H) transverse to the longitudinal axis (L), and which has a clamping bolt which is arranged along a clamping axis (S) and which is guided transversely to the longitudinal axis (L) through an elongate slot in the support unit in an adjustment direction, in which slot it can be moved in the adjustment direction in the release position, and which co-operates with a clamping gear, wherein a fixing element is arranged on the clamping bolt , which fixing element can be braced against the support unit by the clamping device in the direction of the clamping axis (S), and a guide device is formed with corresponding guide elements on the fixing element and on the support unit , in which the fixing element is guided in translation relative to the support unit , wherein the guide elements are arranged at a distance from the slotted hole , and wherein the fixing element has at least one laterally projecting extension arm , to which at least one guide element is attached, characterised in in that at least one cantilever has a spring element.
A method for forming a unitized crucible assembly for holding a melt of silicon for forming a silicon ingot by the Czochralski method, the method comprising: providing a crucible mold, the mold having a channel network comprising: a bottom channel; an outer sidewall channel that extends from the bottom channel; a central weir channel that extends from the bottom channel; and an inner weir channel that extends from the bottom channel, the central weir channel being disposed between the outer sidewall channel and the inner weir channel; introducing a slip slurry into the channel network to fill the bottom channel, outer sidewall channel, central weir channel, and inner weir channel with the slip slurry, the slip slurry comprising silica and a liquid carrier; removing at least a portion of the liquid carrier from the channel network to form a green body; separating the green body from the crucible mold; and sintering the green body to dry and densify the green body to form the unitized crucible assembly. providing a crucible mold, the mold having a channel network comprising: a bottom channel; an outer sidewall channel that extends from the bottom channel; a central weir channel that extends from the bottom channel; and an inner weir channel that extends from the bottom channel, the central weir channel being disposed between the outer sidewall channel and the inner weir channel; a bottom channel; an outer sidewall channel that extends from the bottom channel; a central weir channel that extends from the bottom channel; and an inner weir channel that extends from the bottom channel, the central weir channel being disposed between the outer sidewall channel and the inner weir channel; introducing a slip slurry into the channel network to fill the bottom channel, outer sidewall channel, central weir channel, and inner weir channel with the slip slurry, the slip slurry comprising silica and a liquid carrier; removing at least a portion of the liquid carrier from the channel network to form a green body; separating the green body from the crucible mold; and sintering the green body to dry and densify the green body to form the unitized crucible assembly.
A positive electrode active material, comprising matrix particles and a coating layer covering an exterior surface of the matrix particle, wherein the matrix particle comprises a lithium nickel cobalt manganese oxide, and the coating layer comprises an oxide of element M 1 ; the matrix particle is doped with element M 2 and element M 3 , relative deviation of a local mass concentration of element M 2 in the matrix particle is 20% or below, determined according to the method described in the description, and element M 3 in the matrix particle has a decreasing concentration from the exterior surface to a core of the matrix particle; and element M 1 and element M 3 are each independently selected from one or more of Mg, Al, Ca, Ba, Ti, Zr, Zn, and B, and element M 2 comprises one or more of Si, Cr, Mo, V, Ge, Se, Nb, Ru, Rh, Pd, Sb, Te, Ce, and W; and wherein the lithium nickel cobalt manganese oxide is a compound represented by chemical formula 1: Li 1+ a [Ni x Co y Mn z M 2 b M 3 d ]O 2- p X p chemical formula 1 in chemical formula 1, X is selected from one or more of F, Cl, Br, and S, 0.5 ≤ x < 1, 0 < y < 0.3, 0 < z < 0.3, -0.1 ≤ a ≤ 0.2, 0 < b ≤ 0.1, 0 < d ≤ 0.1, 0 ≤ p ≤ 0.1, and x + y + z + b + d = 1. the matrix particle is doped with element M 2 and element M 3 , relative deviation of a local mass concentration of element M 2 in the matrix particle is 20% or below, determined according to the method described in the description, and element M 3 in the matrix particle has a decreasing concentration from the exterior surface to a core of the matrix particle; and element M 1 and element M 3 are each independently selected from one or more of Mg, Al, Ca, Ba, Ti, Zr, Zn, and B, and element M 2 comprises one or more of Si, Cr, Mo, V, Ge, Se, Nb, Ru, Rh, Pd, Sb, Te, Ce, and W; and wherein the lithium nickel cobalt manganese oxide is a compound represented by chemical formula 1: Li 1+ a [Ni x Co y Mn z M 2 b M 3 d ]O 2- p X p chemical formula 1 in chemical formula 1, X is selected from one or more of F, Cl, Br, and S, 0.5 ≤ x < 1, 0 < y < 0.3, 0 < z < 0.3, -0.1 ≤ a ≤ 0.2, 0 < b ≤ 0.1, 0 < d ≤ 0.1, 0 ≤ p ≤ 0.1, and x + y + z + b + d = 1.
A method for generating an embedding in an embedding space for a signal in a signal space, wherein the embedding is defined as being invariant or approximately invariant to an operator, wherein the signal is a visual signal, an audio signal, or an industrial automation signal, and wherein the operator characterizes a shift, a scale change, a rotation, or combinations thereof as a transformation, and is parameterized by a parameter characterizing the specific properties of the transformation, the method comprising steps: measuring the signal with each vector from a set of measurement vectors to produce an optimal transformation for each measurement vector, wherein, for each measurement vector, the measuring transforms either said measurement vector or the signal using the parameterized operator and determines as the optimal transformation of the respective measurement vector the parameterized operator which either minimizes the dissimilarity or maximizes the similarity between the signal and the transformed measurement vector after said measurement vectors is transformed by using the parameterized operator or between the transformed signal and said measurement vectors after the signal is transformed by using the parameterized operator; wherein each measurement vector has dimensionality N for some natural number N and each measurement vector of the set of measurement vectors is generated by randomly drawing each of the N vector component from an i.i.d. real or complex normal distribution; selecting a set of one or more matching coefficients ; wherein the matching coefficients are determined by measuring the signal using the optimal transformation of each respective measurement vector; and combining the matching coefficients to produce the embedding for the signal, wherein the steps are performed in a processor. measuring the signal with each vector from a set of measurement vectors to produce an optimal transformation for each measurement vector, wherein, for each measurement vector, the measuring transforms either said measurement vector or the signal using the parameterized operator and determines as the optimal transformation of the respective measurement vector the parameterized operator which either minimizes the dissimilarity or maximizes the similarity between the signal and the transformed measurement vector after said measurement vectors is transformed by using the parameterized operator or between the transformed signal and said measurement vectors after the signal is transformed by using the parameterized operator; wherein each measurement vector has dimensionality N for some natural number N and each measurement vector of the set of measurement vectors is generated by randomly drawing each of the N vector component from an i.i.d. real or complex normal distribution; selecting a set of one or more matching coefficients ; wherein the matching coefficients are determined by measuring the signal using the optimal transformation of each respective measurement vector; and combining the matching coefficients to produce the embedding for the signal, wherein the steps are performed in a processor.
Gemcitabine-[phenyl-(benzoxy-L-alaninyl)]-(S)-phosphate 3: or a pharmaceutically acceptable salt thereof, having a diastereoisomeric purity greater than 90%, for use in treating a cancer selected from pancreatic cancer, ovarian cancer, lung cancer, bladder cancer, cholangiocarcinoma, renal cancer, cervical cancer and thymic cancer.
A method of preparing an irreversible positive electrode additive for a secondary battery, the method comprising: mixing Li 2 O, NiO, and NH 4 VO 3 and performing thermal treatment to prepare a lithium nickel composite oxide represented by Chemical Formula 1 below, wherein the NH 4 VO 3 is mixed in an amount of 1.5 to 6.5 parts by weight with respect to a total of 100 parts by weight of the Li 2 O, NiO, and NH 4 VO 3 : [Chemical Formula 1] Li 2+a Ni 1-b-c M 1 b V c O 2-d A d in Chemical Formula 1, M 1 is at least one selected from the group consisting of Cu, Mg, Pt, Al, Co, P, W, Zr, Nb, and B, A is at least one selected from the group consisting of F, S, Cl, and Br, and 0≤a≤0.2, 0≤b≤0.5, 0.01≤c≤0.065, and 0≤d≤0.2 are satisfied. mixing Li 2 O, NiO, and NH 4 VO 3 and performing thermal treatment to prepare a lithium nickel composite oxide represented by Chemical Formula 1 below, wherein the NH 4 VO 3 is mixed in an amount of 1.5 to 6.5 parts by weight with respect to a total of 100 parts by weight of the Li 2 O, NiO, and NH 4 VO 3 : [Chemical Formula 1] Li 2+a Ni 1-b-c M 1 b V c O 2-d A d in Chemical Formula 1, M 1 is at least one selected from the group consisting of Cu, Mg, Pt, Al, Co, P, W, Zr, Nb, and B, A is at least one selected from the group consisting of F, S, Cl, and Br, and 0≤a≤0.2, 0≤b≤0.5, 0.01≤c≤0.065, and 0≤d≤0.2 are satisfied.
A connection terminal (B) for electrically connecting the connection area of an electrical appliance (D) to an electric cable (c) or a tooth belonging to a connection device, said terminal including a cage (C) have a substantially parallelepipedal shape made by cutting and bending a metal strip to form a frame delimiting an opening (O) of quadrangular section intended for the insertion of the aforementioned cable or tooth and the terminal further including a clamping screw screwed into a tapped orifice provided in a so-called upper wall of said cage, said screw being able to be rotated so as to cause a relative translational movement between the area and the cage, between a so-called clamping position in which the cable or the tooth is brought into electrical contact with the area and a so-called loosened position in which the cable or the tooth is no longer in electrical contact with the area, said cage including an upper wall, a bottom wall and two side walls, said terminal further including clamping compensation means, wherein the upper wall of the cage (C) is constituted by the superposition of two branches , respectively lower and upper, respectively belonging to the two side walls , each of these branches being formed by bending an upper part of the side wall toward the other side wall , these two branches each including a tapped orifice for passage of the screw , these two orifices being opposite one another, characterized in that an outer end of the upper branch of the cage (C) is able to bear at a bearing point (p) on an inner end of the lower branch of the cage (C) during the tightening of the screw , this causing an elastic movement of the entire cage (C), said cage having, in section in a plane perpendicular to the side walls , a substantially diamond-shaped section (s) in the loosened position of the screw , and a substantially rectangular section (v) in the tightened position of the screw after the aforementioned elastic deformation.
A data transmission method, comprising: receiving , by a receiving end, a data packet from a transmitting end, wherein the data packet comprises a media access control, MAC, protocol data unit, PDU, and the MAC PDU comprises multiple MAC subPDUs, each of which comprises an MAC sub-header, wherein the MAC sub-header comprises a first information field used for indicating whether a current MAC subPDU has a same format as a next adjacent MAC subPDU; and in a case where the first information field indicates that the current MAC subPDU has the same format as the next adjacent MAC subPDU, reading, by the receiving end, an information field of the next adjacent MAC subPDU according to the format of the current MAC subPDU. receiving , by a receiving end, a data packet from a transmitting end, wherein the data packet comprises a media access control, MAC, protocol data unit, PDU, and the MAC PDU comprises multiple MAC subPDUs, each of which comprises an MAC sub-header, wherein the MAC sub-header comprises a first information field used for indicating whether a current MAC subPDU has a same format as a next adjacent MAC subPDU; and in a case where the first information field indicates that the current MAC subPDU has the same format as the next adjacent MAC subPDU, reading, by the receiving end, an information field of the next adjacent MAC subPDU according to the format of the current MAC subPDU.
A method of adjusting a center of gravity, CG, of an aircraft , the aircraft comprising first and second ballast docks each comprising a housing and a first ballast tray secured within the housing , the first ballast tray comprising a plurality of bays (104-106, 204-206), each bay of the plurality of bays (104-106, 204-206) comprising a different width and depth so that only one movable ballast of a plurality of movable ballasts (107-109, 207-209) can fit within a particular bay of the plurality of bays (104-106, 204-206), the method comprising: inputting at least one load parameter into a flight computer ; determining , via a processor of the flight computer , the CG of the aircraft ; responsive to a determination by the processor that the CG is outside of a CG envelope, moving at least a first movable ballast of the plurality of movable ballasts (107-109, 207-209) from a bay (104-106) of the first ballast dock to a corresponding bay (204-206) of the second ballast dock to move the CG toward the CG envelope. inputting at least one load parameter into a flight computer ; determining , via a processor of the flight computer , the CG of the aircraft ; responsive to a determination by the processor that the CG is outside of a CG envelope, moving at least a first movable ballast of the plurality of movable ballasts (107-109, 207-209) from a bay (104-106) of the first ballast dock to a corresponding bay (204-206) of the second ballast dock to move the CG toward the CG envelope.