mhurhangee/patent-ind-claim-en huggingface dataset:
A method for hardware-accelerated generation of a K-mer graph using a programmable logic device, the method comprising: obtaining a first set of nucleic acid sequences, wherein the first set of nucleic acid sequences includes (i) a plurality of reads corresponding to a region of a reference sequence and (ii) a portion of the reference sequence; generating, using a plurality of non-pipelined hardware logic units (131-138) of a programmable logic device a K-mer graph using the obtained first set of nucleic acid sequences, wherein each hardware logic unit comprises a different hardware logic circuit configured to perform one or more operations, wherein each node (431-438, 441-444) of the K-mer graph represents a K-mer, each edge (431a-437a, 432b, 441a-444a) of the K-mer graph represents a link between a pair of K-mers, and each weight of each edge of the K-mer graph represents a number of occurrences of a K-mer sequence represented by a pair of K-mers; and during generation of the K-mer graph: periodically updating, with a control machine , graph description data for the K-mer graph after performance of the one or more operations by each hardware logic unit that is used to generate at least a portion of the K-mer graph, wherein the graph description data represents (i) a K-mer graph identifier and (ii) K-mer graph state information, wherein the control machine creates a workflow of operations using the non-pipelined hardware logic units by triggering performance of the one or more operations of each respective hardware logic unit during generation of the K-mer graph. obtaining a first set of nucleic acid sequences, wherein the first set of nucleic acid sequences includes (i) a plurality of reads corresponding to a region of a reference sequence and (ii) a portion of the reference sequence; generating, using a plurality of non-pipelined hardware logic units (131-138) of a programmable logic device a K-mer graph using the obtained first set of nucleic acid sequences, wherein each hardware logic unit comprises a different hardware logic circuit configured to perform one or more operations, wherein each node (431-438, 441-444) of the K-mer graph represents a K-mer, each edge (431a-437a, 432b, 441a-444a) of the K-mer graph represents a link between a pair of K-mers, and each weight of each edge of the K-mer graph represents a number of occurrences of a K-mer sequence represented by a pair of K-mers; and during generation of the K-mer graph: periodically updating, with a control machine , graph description data for the K-mer graph after performance of the one or more operations by each hardware logic unit that is used to generate at least a portion of the K-mer graph, wherein the graph description data represents (i) a K-mer graph identifier and (ii) K-mer graph state information, wherein the control machine creates a workflow of operations using the non-pipelined hardware logic units by triggering performance of the one or more operations of each respective hardware logic unit during generation of the K-mer graph.
A liquid discharge head , comprising: a head body comprising a discharge hole for discharging a liquid therethrough; a driver IC configured to control driving of the head body ; a casing which is disposed on the head body and comprises an opening on a side surface of the casing , wherein the casing is formed from a resin; a heat sink which is disposed on the opening of the casing and configured to dissipate heat generated in the driver IC , wherein the heat sink is disposed so as to be in contact with the driver IC , and wherein the heat sink is made of metal or alloy; and a thermal insulation part disposed between the heat sink and the head body , wherein the heat sink is disposed on the thermal insulation part . a head body comprising a discharge hole for discharging a liquid therethrough; a driver IC configured to control driving of the head body ; a casing which is disposed on the head body and comprises an opening on a side surface of the casing , wherein the casing is formed from a resin; a heat sink which is disposed on the opening of the casing and configured to dissipate heat generated in the driver IC , wherein the heat sink is disposed so as to be in contact with the driver IC , and wherein the heat sink is made of metal or alloy; and a thermal insulation part disposed between the heat sink and the head body , wherein the heat sink is disposed on the thermal insulation part .
System for contactless determining a physical feature of a target item, the system comprising a terahertz scanner unit , a detector unit and a determiner unit ; wherein the terahertz scanner unit is configured to operate according to a relative position between the target item and the terahertz scanner unit , said operation including emitting a terahertz scanning radiation onto the target item and measuring an interaction radiation (108, 300 - 30n) caused by interaction of the terahertz scanning radiation with the target item ; wherein the detector unit includes one or more vibration measurers couplable to a supporting system configured to support or hold the target item or to a positioning system configured to position the terahertz scanner unit in or at the relative position , so as to measure vibrations at the supporting system or the positioning system as part of a condition potentially distorting the operation of the terahertz scanner unit ; and wherein the determiner unit is configured to determine the physical feature of the target item depending on the interaction radiation (108, 300 - 30n) measured by the terahertz scanner unit and the potentially distorting condition measured by the detector unit . the terahertz scanner unit is configured to operate according to a relative position between the target item and the terahertz scanner unit , said operation including emitting a terahertz scanning radiation onto the target item and measuring an interaction radiation (108, 300 - 30n) caused by interaction of the terahertz scanning radiation with the target item ; wherein the detector unit includes one or more vibration measurers couplable to a supporting system configured to support or hold the target item or to a positioning system configured to position the terahertz scanner unit in or at the relative position , so as to measure vibrations at the supporting system or the positioning system as part of a condition potentially distorting the operation of the terahertz scanner unit ; and wherein the determiner unit is configured to determine the physical feature of the target item depending on the interaction radiation (108, 300 - 30n) measured by the terahertz scanner unit and the potentially distorting condition measured by the detector unit .
A biosensor system , comprising: a sensor strip having a sample interface adjacent to a reservoir formed by the sensor strip ; and a measurement device having a processor connected to a sensor interface , wherein the sensor interface has electrical communication with the sample interface , wherein the processor has electrical communication with a storage medium , wherein the processor is programmed to determine at least one output signal value responsive to the concentration of an analyte in a sample from the sensor interface within less than 300 milliseconds of applying an excitation pulse to the sample interface , the applied excitation pulse having a pulse width of 0.3 to 0.8 seconds, and wherein the excitation pulse is part of an input signal having at least 3 duty cycles within 30 seconds, where each duty cycle includes an excitation pulse and a relaxation, and wherein the processor is further programmed to determine the analyte concentration in the sample in response to the determined at least one output signal value. a sensor strip having a sample interface adjacent to a reservoir formed by the sensor strip ; and a measurement device having a processor connected to a sensor interface , wherein the sensor interface has electrical communication with the sample interface , wherein the processor has electrical communication with a storage medium , wherein the processor is programmed to determine at least one output signal value responsive to the concentration of an analyte in a sample from the sensor interface within less than 300 milliseconds of applying an excitation pulse to the sample interface , the applied excitation pulse having a pulse width of 0.3 to 0.8 seconds, and wherein the excitation pulse is part of an input signal having at least 3 duty cycles within 30 seconds, where each duty cycle includes an excitation pulse and a relaxation, and wherein the processor is further programmed to determine the analyte concentration in the sample in response to the determined at least one output signal value.
A method for avoiding unwanted safety gear tripping in a safety stopping system of an elevator system, the safety stopping system comprising a machinery brake for decelerating a moving mass so as to perform a quick stop of the moving mass, a safety gear mounted to the moving mass, an overspeed governor , an overspeed governor rope connected to the moving mass of the elevator system, a synchronization linkage mounted to the moving mass for tripping the safety gear, the synchronization linkage comprising a lever arm having a first end pivotally connected to the overspeed governor rope and a second end fixedly connected to a spindle shaft to which a safety gear tripping arm for tripping the safety gear is connected, characterized in that kinetic energy caused by inertia of the overspeed governor rope to the lever arm is dissipated by implementing fluid viscous damping to dampen the rotary movement of the spindle shaft to prevent unwanted safety gear tripping when the upwards movement of the moving mass is decelerated by the machinery brake to perform a quick stop of the moving mass. a machinery brake for decelerating a moving mass so as to perform a quick stop of the moving mass, a safety gear mounted to the moving mass, an overspeed governor , an overspeed governor rope connected to the moving mass of the elevator system, a synchronization linkage mounted to the moving mass for tripping the safety gear, the synchronization linkage comprising a lever arm having a first end pivotally connected to the overspeed governor rope and a second end fixedly connected to a spindle shaft to which a safety gear tripping arm for tripping the safety gear is connected, characterized in that kinetic energy caused by inertia of the overspeed governor rope to the lever arm is dissipated by implementing fluid viscous damping to dampen the rotary movement of the spindle shaft to prevent unwanted safety gear tripping when the upwards movement of the moving mass is decelerated by the machinery brake to perform a quick stop of the moving mass.
A terahertz carrier sending apparatus, comprising a feed transmission line, a mode excitation structure, a mode conversion structure, a terahertz transmission line, and a circuit board, wherein the feed transmission line is configured to: receive an electrical signal sent by a radio frequency sending circuit, and transmit the electrical signal to the mode excitation structure; the mode excitation structure is configured to excite a terahertz signal based on the received electrical signal; the mode conversion structure comprises an inner cavity whose inner wall is metal, and the mode excitation structure and one end of the terahertz transmission line are located in the inner cavity, so that the terahertz signal excited by the mode excitation structure is coupled into the terahertz transmission line; the terahertz transmission line is configured to transmit the terahertz signal; and the circuit board is configured to fasten the feed transmission line and the mode excitation structure, the mode conversion structure further comprises a positioning slot, configured to insert a part of the circuit board and the mode excitation structure into the inner cavity of the mode conversion structure, a plurality of metal through holes are distributed on both sides of the mode excitation structure, and a boundary of the positioning slot is metal and is press-fitted on the metal through holes on the both sides of the mode excitation structure. the feed transmission line is configured to: receive an electrical signal sent by a radio frequency sending circuit, and transmit the electrical signal to the mode excitation structure; the mode excitation structure is configured to excite a terahertz signal based on the received electrical signal; the mode conversion structure comprises an inner cavity whose inner wall is metal, and the mode excitation structure and one end of the terahertz transmission line are located in the inner cavity, so that the terahertz signal excited by the mode excitation structure is coupled into the terahertz transmission line; the terahertz transmission line is configured to transmit the terahertz signal; and the circuit board is configured to fasten the feed transmission line and the mode excitation structure, the mode conversion structure further comprises a positioning slot, configured to insert a part of the circuit board and the mode excitation structure into the inner cavity of the mode conversion structure, a plurality of metal through holes are distributed on both sides of the mode excitation structure, and a boundary of the positioning slot is metal and is press-fitted on the metal through holes on the both sides of the mode excitation structure.
An injection device comprising: a housing ; a medicament chamber ; a needle guard moveable relative to the housing between an extended position and a retracted position; and a shock absorbing member including a sleeve configured to receive the medicament chamber, the sleeve having a proximal end and a distal end connected by a middle portion, characterized in that the sleeve includes a compressible element between the proximal end and the distal end that is deformable, wherein the compressible element is a single sleeve having one or more longitudinally extending openings. a housing ; a medicament chamber ; a needle guard moveable relative to the housing between an extended position and a retracted position; and a shock absorbing member including a sleeve configured to receive the medicament chamber, the sleeve having a proximal end and a distal end connected by a middle portion, characterized in that the sleeve includes a compressible element between the proximal end and the distal end that is deformable, wherein the compressible element is a single sleeve having one or more longitudinally extending openings.
A low-friction lubrication assembly characterized by comprising: a first member relatively slidable against a second member, the first member having chemical affinity with an OH-group on its sliding surface; and an oxygen containing compound located on the sliding surface of the first member and being able to produce a tribofilm to be located on the sliding surface of the first member having the chemical affinity, through hydrogen bond interactions with the OH-group, wherein the second member further has chemical affinity with an OH group, and the tribofilm is also able to be formed on a sliding surface of the second member through hydrogen bond interactions with the OH-group in response to sliding motion, wherein the first member includes a coating of a hydrogen free diamond-like carbon of ta-C type which is a hydrogen free tetrahedral carbon, and the second member includes a coating of a hydrogen free diamond-like carbon of ta-C type, wherein the oxygen containing compound consists of glycerol which is the only lubricant in the low-friction lubrication assembly. a first member relatively slidable against a second member, the first member having chemical affinity with an OH-group on its sliding surface; and an oxygen containing compound located on the sliding surface of the first member and being able to produce a tribofilm to be located on the sliding surface of the first member having the chemical affinity, through hydrogen bond interactions with the OH-group, wherein the second member further has chemical affinity with an OH group, and the tribofilm is also able to be formed on a sliding surface of the second member through hydrogen bond interactions with the OH-group in response to sliding motion, wherein the first member includes a coating of a hydrogen free diamond-like carbon of ta-C type which is a hydrogen free tetrahedral carbon, and the second member includes a coating of a hydrogen free diamond-like carbon of ta-C type, wherein the oxygen containing compound consists of glycerol which is the only lubricant in the low-friction lubrication assembly.
Transportable machining unit , in particular a circular table saw, for machining a workpiece with a tool , comprising a box-shaped support structure which can be placed on a support and which has a workpiece support plate which can be used to support the workpiece to be machined, and a drive unit for mechanically driving the tool , which is arranged at least partially in the support structure and is fastened thereto ready for operation, so that the drive unit remains at least partially in the support structure during machining of the workpiece by the tool driven by the drive unit , characterised in that the support structure has support arms which, in a state, in which the support structure is placed on the support, define a footprint of the support structure , and which can be positioned selectively in a transport position or in a working position, wherein the footprint of the support structure is larger in the working position in at least one horizontal direction than in the transport position, wherein the support structure has a base body and the supporting arms are mounted pivotably on the base body in such a way that the supporting arms remain essentially in the same vertical region in the transport position and in the working position, wherein each of the supporting arms is mounted on the base body so as to be pivotable about a respective vertical axis of rotation; or the supporting arms are mounted pivotably and slidably on the base body in such a way that the supporting arms remain essentially in the same vertical region in the transport position and in the working position, wherein each of the supporting arms is mounted on the base body so as to be pivotable about a respective vertical axis of rotation; or the supporting arms are mounted slidably on the base body in such a way that the supporting arms remain essentially in the same vertical region in the transport position and in the working position.
A calculation device for the selection and the description of points of interest in at least one image decomposed into a plurality of strips, said device comprising: • a first module (SIPI) for selecting and indexing points of interest from among a set of points of interest detected in the image, each strip being decomposed into one or more selection areas (Z 0 , Z 1 , Z 2 , Z 3 ), said first module (SIPI) being configured to select, in each selection area, at most a fixed number P of candidate points of interest, and associate a unique index with them, the first module (SIPI) comprising a selection and indexation unit (USI 0 , USI 1 , USI 2 , USI 3 ) for each selection area, each selection and indexation unit comprising a memory dimensioned to save a fixed number of candidate points of interest and their indices, and being configured to replace, when the memory is filled with selected P points of interest, a point of interest saved in the memory with a new point of interest selected in the selection area according to a predetermined criterion, • a second module (GIPI) for managing calculation of descriptors for the candidate points of interest, • the first module (SIPI) being configured to transmit the candidate points of interest saved in the selection and indexation units and their index to the second module (GIPI) immediately at the end of the processing of K lines of a strip, with K an integer number greater than or equal to 1 and strictly less than the number of lines per strip. • a first module (SIPI) for selecting and indexing points of interest from among a set of points of interest detected in the image, each strip being decomposed into one or more selection areas (Z 0 , Z 1 , Z 2 , Z 3 ), said first module (SIPI) being configured to select, in each selection area, at most a fixed number P of candidate points of interest, and associate a unique index with them, the first module (SIPI) comprising a selection and indexation unit (USI 0 , USI 1 , USI 2 , USI 3 ) for each selection area, each selection and indexation unit comprising a memory dimensioned to save a fixed number of candidate points of interest and their indices, and being configured to replace, when the memory is filled with selected P points of interest, a point of interest saved in the memory with a new point of interest selected in the selection area according to a predetermined criterion, • a second module (GIPI) for managing calculation of descriptors for the candidate points of interest, • the first module (SIPI) being configured to transmit the candidate points of interest saved in the selection and indexation units and their index to the second module (GIPI) immediately at the end of the processing of K lines of a strip, with K an integer number greater than or equal to 1 and strictly less than the number of lines per strip.
A method of manufacturing an electronic assembly for emitting a responsive field comprising at least a first electrically conductive element (410; 710; 810) and a second electrically conductive element (420; 720; 820), the method comprising: - obtaining a first substrate film and a second substrate film , - providing through utilizing printed electronics technology the first electrically conductive element (410; 710; 810) to the first substrate film , - providing through utilizing printed electronics technology the second electrically conductive element (420; 720; 820) to the second substrate film , - arranging said electrically conductive elements (410, 420; 710, 720; 810, 820) printed on said substrate films (510, 520 at a pre-defined distance from each other for establishing a wireless electromagnetic coupling between said electrically conductive elements, wherein the pre-defined distance is based on desired operational characteristics of the electronic assembly , and - molding a molding material layer at least between said electrically conductive elements (410, 420; 710, 720; 810, 820), wherein the molding material layer has a thickness between said electrically conductive elements (410, 420; 710, 720; 810, 820) defined by the pre-defined distance . - obtaining a first substrate film and a second substrate film , - providing through utilizing printed electronics technology the first electrically conductive element (410; 710; 810) to the first substrate film , - providing through utilizing printed electronics technology the second electrically conductive element (420; 720; 820) to the second substrate film , - arranging said electrically conductive elements (410, 420; 710, 720; 810, 820) printed on said substrate films (510, 520 at a pre-defined distance from each other for establishing a wireless electromagnetic coupling between said electrically conductive elements, wherein the pre-defined distance is based on desired operational characteristics of the electronic assembly , and - molding a molding material layer at least between said electrically conductive elements (410, 420; 710, 720; 810, 820), wherein the molding material layer has a thickness between said electrically conductive elements (410, 420; 710, 720; 810, 820) defined by the pre-defined distance .