mhurhangee/ep-ind-claims huggingface dataset:
Method for monitoring a tool clamping device mounted on a machine spindle and whose clamping force is generated by a spring assembly which exerts a force in the direction of the clamping position on an actuating element which brings about the clamping or release of a tool or tool holder, characterized in that, during the release and/or during the clamping of a tool or tool holder, the spring load and the path of the actuating element are measured continuously and are each recorded as functions of time, and in that at least one parameter characteristic of the state of the tool clamping device is determined from these recorded functions, a spring characteristic being determined from the spring load and the path as functions of time in the form of the spring load as a function of the path, and in that, in the event of a deviation of a characteristic parameter from a reference value, which deviation exceeds a predetermined level or otherwise indicates a defect, an indication is sent to an electronic control unit controlling the operation of the machine spindle and/or an optical and/or acoustic warning signal is output for operating personnel by means of a display device.
A system for maintaining a set of medical system profiles, said medical system profiles comprising at least one medical system operational parameter associated with an individual, the system comprising: at least one surgical system having a plurality of operational parameters configurable by a surgeon; and a central server system remote from the at least one surgical system, the central server system comprising: a medical profile database configured to receive and maintain the set of medical system profiles, each defining the plurality of operational parameters for a particular surgeon to be downloaded to the at least one surgical system; a medical profile manager configured to update and maintain medical system profiles within the medical profile database; and a server configured to receive information from at least one client device and enable the medical profile manager to direct profile maintenance actions to at least one medical system profile in the medical profile database; wherein the central server system is configured to provide at least one medical system profile to the at least one surgical system. at least one surgical system having a plurality of operational parameters configurable by a surgeon; and a central server system remote from the at least one surgical system, the central server system comprising: a medical profile database configured to receive and maintain the set of medical system profiles, each defining the plurality of operational parameters for a particular surgeon to be downloaded to the at least one surgical system; a medical profile manager configured to update and maintain medical system profiles within the medical profile database; and a server configured to receive information from at least one client device and enable the medical profile manager to direct profile maintenance actions to at least one medical system profile in the medical profile database; a medical profile database configured to receive and maintain the set of medical system profiles, each defining the plurality of operational parameters for a particular surgeon to be downloaded to the at least one surgical system; a medical profile manager configured to update and maintain medical system profiles within the medical profile database; and a server configured to receive information from at least one client device and enable the medical profile manager to direct profile maintenance actions to at least one medical system profile in the medical profile database;
A fast-wearing grade-positioning wound-exposed multifunctional animal ear tag, comprising: a primary tag, a secondary tag, an ambient temperature sensor, an animal body temperature sensor, a fast-wearing grade-positioning pin, a bearing clamp, and a chip, wherein the primary tag comprises a primary tag casing, a primary tag cover, and a primary tag grade positioning pin column disposed at an outer edge of the primary tag casing; the secondary tag comprises a secondary tag casing, a secondary tag grade positioning pin hole formed on the secondary tag casing, and a fast-wearing pin protecting column formed on and extending from an outer side of the secondary tag grade positioning pin hole; the fast-wearing grade-positioning pin passes through the primary tag grade positioning pin column and the secondary tag grade positioning pin hole and aligns with the bearing clamp and passes into the fast-wearing pin protecting column for a fixed connection, and a side of the primary tag casing opposite to the secondary tag has a primary tag buffer pad, and a side of the secondary tag casing opposite to the primary tag has a secondary tag buffer pad; characterized in that the fast-wearing grade-positioning wound-exposed multifunctional animal ear tag further comprises an ultra-high frequency radio frequency identification (RFID) chip; the chip is a half-duplex ultra-low frequency radio frequency identification (RFID) chip; when the fast-wearing grade-positioning pin passes through a center opening of the primary tag grade positioning pin column, the animal ear wound is exposed; the primary tag buffer pad is a silicone pad, and the secondary tag buffer pad is a silicone pad; wherein the fast-wearing grade-positioning pin comes with a quantity of three, and the primary tag grade positioning pin column also comes with a quantity of three and the three primary tag grade positioning pin column are configured to be corresponsive to the three secondary tag grade positioning pin holes respectively; and the primary tag grade positioning pin columns and the secondary tag grade positioning pin holes are distributed in a triangular shape, which is an isosceles right-angled triangular shape or an equilateral triangular shape; wherein the primary tag buffer silicone pad is matched with the outer side of the primary tag casing, and the primary tag buffer silicone pad has a pin hole formed at a position corresponding to the primary tag grade positioning pin column, a boss formed at the periphery of the pin hole for placing an ointment, and the contact between the primary tag buffer silicone pad and the animal body temperature sensor has a sensor hole formed thereon, and the outer periphery of the sensor hole has a seal ring, and an end of the primary tag buffer silicone pad has a groove provided for installation and positioning.
A method of assigning data to storage device nodes in a data storage system wherein the data storage system stores a number M of replicas of the data, the method comprising: dividing (802, 804) the data into a plurality of groups of segments, and for each group of segments: identifying nodes that have sufficient resources available to accommodate a requirement of the data, the requirement including at least one of a reliability requirement, a capacity requirement and a performance requirement, and when the number of nodes is greater than M, assigning the data to M randomly selected nodes from among those identified, and when the number of nodes is less than M, dividing the group of data segments thereby forming a group of data segments having a reduced requirement and identifying nodes that have sufficient resources available to accommodate the reduced requirement. dividing (802, 804) the data into a plurality of groups of segments, and for each group of segments: identifying nodes that have sufficient resources available to accommodate a requirement of the data, the requirement including at least one of a reliability requirement, a capacity requirement and a performance requirement, and when the number of nodes is greater than M, assigning the data to M randomly selected nodes from among those identified, and when the number of nodes is less than M, dividing the group of data segments thereby forming a group of data segments having a reduced requirement and identifying nodes that have sufficient resources available to accommodate the reduced requirement. identifying nodes that have sufficient resources available to accommodate a requirement of the data, the requirement including at least one of a reliability requirement, a capacity requirement and a performance requirement, and when the number of nodes is greater than M, assigning the data to M randomly selected nodes from among those identified, and when the number of nodes is less than M, dividing the group of data segments thereby forming a group of data segments having a reduced requirement and identifying nodes that have sufficient resources available to accommodate the reduced requirement.
A drill press comprising: a main housing; a drill unit supported by the main housing for relative movement therewith; a base coupled to the main housing, the base including a bore formed in a top surface thereof and a magnet to create a magnetic field for magnetically latching the base to a workpiece; a holding force detection assembly including a plug, a sensor coupled to and positioned directly beneath the plug to detect the magnetic field within the base, wherein the holding force detection assembly is received within the bore formed in the top surface of the base, characterised in that the sensor emits a variable output voltage signal in response to the detected magnetic field, and a printed circuit board is at least partially received within a slot formed in the plug. a main housing; a drill unit supported by the main housing for relative movement therewith; a base coupled to the main housing, the base including a bore formed in a top surface thereof and a magnet to create a magnetic field for magnetically latching the base to a workpiece; a holding force detection assembly including a plug, a sensor coupled to and positioned directly beneath the plug to detect the magnetic field within the base, wherein the holding force detection assembly is received within the bore formed in the top surface of the base, characterised in that the sensor emits a variable output voltage signal in response to the detected magnetic field, and a printed circuit board is at least partially received within a slot formed in the plug. a plug, a sensor coupled to and positioned directly beneath the plug to detect the magnetic field within the base, wherein the holding force detection assembly is received within the bore formed in the top surface of the base, characterised in that the sensor emits a variable output voltage signal in response to the detected magnetic field, and a printed circuit board is at least partially received within a slot formed in the plug.
A positive-electrode active material comprising a compound that has a crystal structure belonging to a space group FM3-M and is represented by the composition formula: Li x A y Me z O α F β wherein A denotes Na or K, Me denotes one or two or more elements selected from the group consisting of Mn, Co, Ni, Fe, Al, B, Ce, Si, Zr, Nb, Pr, Ti, W, Ge, Mo, Sn, Bi, Cu, Mg, Ca, Ba, Sr, Y, Zn, Ga, Er, La, Sm, Yb, V, and Cr, and the following conditions are satisfied. 1.7 ≤ x + y ≤ 2.2 0 < y ≤ 0.2 0.8 ≤ z ≤ 1.3 1 ≤ α ≤ 2.5 0.5 ≤ β ≤ 2 wherein A denotes Na or K, Me denotes one or two or more elements selected from the group consisting of Mn, Co, Ni, Fe, Al, B, Ce, Si, Zr, Nb, Pr, Ti, W, Ge, Mo, Sn, Bi, Cu, Mg, Ca, Ba, Sr, Y, Zn, Ga, Er, La, Sm, Yb, V, and Cr, and the following conditions are satisfied. 1.7 ≤ x + y ≤ 2.2 0 < y ≤ 0.2 0.8 ≤ z ≤ 1.3 1 ≤ α ≤ 2.5 0.5 ≤ β ≤ 2
A method of processing a received signal of interest, comprising: determining timing of interference spikes in the received signal of interest; and soft scaling signal values recovered from the received signal of interest that coincide with the interference spikes separately from remaining ones of the signal values. determining timing of interference spikes in the received signal of interest; and soft scaling signal values recovered from the received signal of interest that coincide with the interference spikes separately from remaining ones of the signal values.
A piezoelectric laminate comprising, on a substrate in the following order: a lower electrode layer; a piezoelectric film; wherein the lower electrode layer includes, as a main component, a metal selected from gold (Au), platinum (Pt), iridium (Ir), titanium (Ti), molybdenum (Mo), tantalum (Ta), aluminum (Al), copper (Cu), silver (Ag), and combinations thereof, wherein the piezoelectric film contains a perovskite-type oxide represented by General Formula I, Pb 1-y2 + α A y2 {(Ti, Zr) 1-x-y1 Nb x B1 y1}O 3 General Formula I wherein, A is an A site element, which is one or more elements including at least La, B1 is a B site element, which is one or more divalent or trivalent elements, O is oxygen, and x, y1, y2, and α satisfy 0.05 < x ≤ 0.3, 0.2 x ≤ y 1 + y 2 ≤ 0.5 x, 0 ≤ y 1 ≤ 0.15, 0 ≤ y 2 ≤ 0.15, and 0 ≤ α ≤ 0.2; and a seed layer consisting of a conductive oxide provided between the lower electrode layer and the piezoelectric film. a lower electrode layer; a piezoelectric film; wherein the lower electrode layer includes, as a main component, a metal selected from gold (Au), platinum (Pt), iridium (Ir), titanium (Ti), molybdenum (Mo), tantalum (Ta), aluminum (Al), copper (Cu), silver (Ag), and combinations thereof, wherein the piezoelectric film contains a perovskite-type oxide represented by General Formula I, Pb 1-y2 + α A y2 {(Ti, Zr) 1-x-y1 Nb x B1 y1}O 3 General Formula I wherein, A is an A site element, which is one or more elements including at least La, B1 is a B site element, which is one or more divalent or trivalent elements, O is oxygen, and x, y1, y2, and α satisfy 0.05 < x ≤ 0.3, 0.2 x ≤ y 1 + y 2 ≤ 0.5 x, 0 ≤ y 1 ≤ 0.15, 0 ≤ y 2 ≤ 0.15, and 0 ≤ α ≤ 0.2; and a seed layer consisting of a conductive oxide provided between the lower electrode layer and the piezoelectric film. A is an A site element, which is one or more elements including at least La, B1 is a B site element, which is one or more divalent or trivalent elements, O is oxygen, and x, y1, y2, and α satisfy 0.05 < x ≤ 0.3, 0.2 x ≤ y 1 + y 2 ≤ 0.5 x, 0 ≤ y 1 ≤ 0.15, 0 ≤ y 2 ≤ 0.15, and 0 ≤ α ≤ 0.2; and a seed layer consisting of a conductive oxide provided between the lower electrode layer and the piezoelectric film.
Module to help in the calibration in a device for inspection of metallurgical products with ultrasound waves comprising a bench an ultrasound sensor and a control and processing electronics connected to said sensor, said Module to help in the calibration comprising: - a sample pipe supported by said bench comprising a polydirectional reflector and a directional reflector (13;15;21;25); - memory arranged for storing data in the form of value/angle pairs, each pair corresponding to an amplitude of response to an ultrasound inspection in a direction of the metallurgical product corresponding to said angle; - a calculator arranged to perform a processing function on the stored data; characterized in that the data are organized into: - a first set of data involving a polydirectional reflector disposed in the metallurgical product, the pairs of the first set corresponding to amplitudes of response to ultrasound inspections along at least some of the working directions of the polydirectional reflector, and - a second set of data involving a directional reflector (13;15;21;25) disposed in the metallurgical product, the second set of data comprising, for the directional reflector, at least one pair corresponding to an amplitude of response to an ultrasound inspection along one working direction of the reflector, and in that the processing function is disposed to establish a third set of data by interpolation of pairs of the first set of data and the second set of data, the pairs of the third set corresponding to standard amplitudes for ultrasound inspections along at least some of the working directions of the polydirectional reflector, said third set off data being stored in memory. - a sample pipe supported by said bench comprising a polydirectional reflector and a directional reflector (13;15;21;25); - memory arranged for storing data in the form of value/angle pairs, each pair corresponding to an amplitude of response to an ultrasound inspection in a direction of the metallurgical product corresponding to said angle; - a calculator arranged to perform a processing function on the stored data; - a first set of data involving a polydirectional reflector disposed in the metallurgical product, the pairs of the first set corresponding to amplitudes of response to ultrasound inspections along at least some of the working directions of the polydirectional reflector, and - a second set of data involving a directional reflector (13;15;21;25) disposed in the metallurgical product, the second set of data comprising, for the directional reflector, at least one pair corresponding to an amplitude of response to an ultrasound inspection along one working direction of the reflector,
Sealing member for thermally connecting thermoplastic materials, comprising a heating element having a carrier substrate having a front side and a rear side, which consists of an electrically nonconductive ceramic material, on the front side of which is arranged at least one heating conductor which is electrically contacted from the rear side of the carrier substrate through the carrier substrate, characterized in that - the carrier substrate is plate-shaped, and - the carrier substrate is bent or curved. - the carrier substrate is plate-shaped, and - the carrier substrate is bent or curved.
A key device comprising: a generally elongate shaft portion having a length and a width that respectively define longitudinal and lateral positions along said elongate shaft portion, said elongate shaft portion comprising first and second oppositely directed side surfaces (14, 16), at least one of which is cuttable to form key cuts that define a key combination surface; and first and second key combination elements (20, 22), disposed in said elongate shaft portion, side-by-side one another at different lateral positions along the width of said elongate shaft portion and located at overlapping longitudinal positions along the length of said elongate shaft portion, wherein said first and second key combination elements (20, 22) are each pivotable about a pivot axis, and characterized in that said first and second key combination elements (20, 22) are independently active biasing elements, capable of providing a biasing force independently from one another. a generally elongate shaft portion having a length and a width that respectively define longitudinal and lateral positions along said elongate shaft portion, said elongate shaft portion comprising first and second oppositely directed side surfaces (14, 16), at least one of which is cuttable to form key cuts that define a key combination surface; and first and second key combination elements (20, 22), disposed in said elongate shaft portion, side-by-side one another at different lateral positions along the width of said elongate shaft portion and located at overlapping longitudinal positions along the length of said elongate shaft portion, wherein said first and second key combination elements (20, 22) are each pivotable about a pivot axis, and characterized in that said first and second key combination elements (20, 22) are independently active biasing elements, capable of providing a biasing force independently from one another.
A method of mapping an input message to an output message by a keyed cryptographic operation, wherein the keyed cryptographic operation includes a plurality of rounds (200, 300, 400) using a Feistel network, wherein each round comprises: receiving an input having a first half and a second half; performing, by a basic block, a portion of a round function on the second half to produce a portion of an encoded output, wherein the round function (120, 300) includes a key addition, a substitution function, a permutation function, and an expansion operation, and wherein the basic block provides a portion of the second half as a portion of an encoded first half of the input to a next round; and XORing the portion of the encoded output and a portion of the first half to produce a portion of an encoded second half of the input to the next round. wherein in each intermediate round between the first round and the last round, the expansion operation is applied to the output of the round function in the previous round, so that the expansion operation is applied after the permutation function, wherein the permutation function and the expansion operation are merged into a multiplication with a single matrix, and wherein the key addition is integrated in the substitution function, wherein for the first round, the input has been preprocessed with the expansion operation, and for the last round, the output is postprocessed by removing the copy of the bits that have been duplicated by the expansion operator. receiving an input having a first half and a second half; performing, by a basic block, a portion of a round function on the second half to produce a portion of an encoded output, wherein the round function (120, 300) includes a key addition, a substitution function, a permutation function, and an expansion operation, and wherein the basic block provides a portion of the second half as a portion of an encoded first half of the input to a next round; and XORing the portion of the encoded output and a portion of the first half to produce a portion of an encoded second half of the input to the next round. wherein in each intermediate round between the first round and the last round, the expansion operation is applied to the output of the round function in the previous round, so that the expansion operation is applied after the permutation function, wherein the permutation function and the expansion operation are merged into a multiplication with a single matrix, and wherein the key addition is integrated in the substitution function, wherein for the first round, the input has been preprocessed with the expansion operation, and for the last round, the output is postprocessed by removing the copy of the bits that have been duplicated by the expansion operator.