mhurhangee/ep-ind-claims huggingface dataset:
An energy storage module comprising a plurality of energy storage devices electrically connected together in series; and a plurality of electronics boards (24, 26) distributed across the module, in electrical contact with one or more of the energy storage devices; the module further comprising a plurality of flexible printed circuit boards whereby each of the plurality of electronics boards is electrically connected together in series with a neighbouring one of the plurality of electronics boards by a different one of the plurality of flexible printed circuit boards; and for each electronics board and for each flexible printed circuit board, a ground plane (13, 16) is provided, whereby the ground planes provide electrical grounding at substantially the same potential across all the electronics boards and all the flexible printed circuit boards.
A computer system, comprising a computing unit designed to be coupled to a database of person data storing a plurality of records, each record including at least respective person name data and respective address location data, the computing unit being configured to retrieve from the database output records matching an input request, including at least a name and an address to be searched, wherein the respective address location data and address to be searched include address reference data defining a city, street identifier and house number; and the computing unit is configured to: implement indexing of the database records based on geo-coordinate attributes derived from the respective address location data; determine corresponding geo-coordinate attributes associated with the address to be searched; evaluate geographic proximity between the respective address location data and the address to be searched, as a function of said geo-coordinate attributes; evaluate name similarity between the respective person name data and the name to be searched based on Levenshtein distance implementing an extended Universal Levenshtein Automata configured to take into account language specific semantics; and retrieve the output records matching the input request, based on a combined evaluation of the name similarity and the geographic proximity, wherein the database relates to a geographic territory, and the computing unit is configured to divide said geographic territory in a plurality of geolocation areas at different hierarchical geographic area levels; said geo-coordinate attributes being based on the database records, or address to be searched, belonging to a respective geolocation area at a respective hierarchical geographic area level. implement indexing of the database records based on geo-coordinate attributes derived from the respective address location data; determine corresponding geo-coordinate attributes associated with the address to be searched; evaluate geographic proximity between the respective address location data and the address to be searched, as a function of said geo-coordinate attributes; evaluate name similarity between the respective person name data and the name to be searched based on Levenshtein distance implementing an extended Universal Levenshtein Automata configured to take into account language specific semantics; and retrieve the output records matching the input request, based on a combined evaluation of the name similarity and the geographic proximity, wherein the database relates to a geographic territory, and the computing unit is configured to divide said geographic territory in a plurality of geolocation areas at different hierarchical geographic area levels; said geo-coordinate attributes being based on the database records, or address to be searched, belonging to a respective geolocation area at a respective hierarchical geographic area level.
A method of positioning of a working member (1, 24) of a tool, the tool comprising a base for resting on a working surface, the working member comprising a cylindrical tool, drawing tool, cutting tool, cutting member, router bit or drill bit, the method characterized by comprising: detecting, by a sensor (10, 23) configured to detect values of a parameter indicating a vertical position of the base of the tool and communicatively coupled to a computing device comprising one or more processors, a first value of the parameter for a first vertical position of the base of the tool corresponding to a portion of the base being in contact with the working surface; extending, by a motor controlled by the computing device, the working member along a z-axis towards the working surface of a work piece; detecting, by the sensor (10, 23), a second value of the parameter indicating a second vertical position of the base of the tool corresponding to movement of the portion of the base responsive to the motor causing the working member (1, 24) to contact the working surface; and comparing, by the computing device, the first value of the parameter with the second value of the parameter; and determining, by the computing device, that a z-axis position of the working member (1, 24) relative to the working surface corresponds to the working member in contact with the working surface, responsive to the difference between the first value and the second value being greater than a threshold. detecting, by a sensor (10, 23) configured to detect values of a parameter indicating a vertical position of the base of the tool and communicatively coupled to a computing device comprising one or more processors, a first value of the parameter for a first vertical position of the base of the tool corresponding to a portion of the base being in contact with the working surface; extending, by a motor controlled by the computing device, the working member along a z-axis towards the working surface of a work piece; detecting, by the sensor (10, 23), a second value of the parameter indicating a second vertical position of the base of the tool corresponding to movement of the portion of the base responsive to the motor causing the working member (1, 24) to contact the working surface; and comparing, by the computing device, the first value of the parameter with the second value of the parameter; and determining, by the computing device, that a z-axis position of the working member (1, 24) relative to the working surface corresponds to the working member in contact with the working surface, responsive to the difference between the first value and the second value being greater than a threshold.
An electromechanical actuator for controlling screens which belong to a blackout device of the blind or shutter type, the actuator being configured to set a winding tube of a screen in rotation while being inserted into this winding tube or a drive shaft on which cords for deploying the screen are wound, while being inserted in a rail, the actuator comprising an electronically-switched brushless DC electric motor, a rotor and a stator of the electric motor being positioned coaxially around an axis of rotation, an outer diameter of the stator depending on an inner dimeter of the winding tube or on the section of the rail, the rotor comprising a rotor body provided with magnetic elements distributed over the outer surface of the rotor, the magnetic elements of the rotor being surrounded by the stator, which in turn is formed by a stator core comprising a circular peripheral wall and pole elements supporting windings, the pole elements being distributed on the inside of the peripheral wall of the stator, the electromechanical actuator being characterized in that: - the ratio between the outer diameter of the stator and its inner diameter is less than 1.7, preferably less than 1.6, still more preferably less than 1.58, and - the ratio between the axial length of the stator and the outer diameter of the stator is greater than 1.5, preferably greater than 2. - the ratio between the outer diameter of the stator and its inner diameter is less than 1.7, preferably less than 1.6, still more preferably less than 1.58, and - the ratio between the axial length of the stator and the outer diameter of the stator is greater than 1.5, preferably greater than 2.
A data processing method using storage means for storing information in block units, said storing means comprising at least: a data region for storing a plurality of object blocks and a plurality of updating blocks; and a first and a second region for storing a plurality of block numbers allocated to the object blocks and the updating blocks, characterized in that said data processing method comprises the steps of: writing data (S12; S14) to be written to one or more of the object blocks allocated with the block numbers stored to either one region of the first and the second regions to one or more of updating blocks for updating data in the object blocks constituting the data region; and storing (S12; S14) the block numbers of the blocks which have been the updating blocks to which the data has been written to the other of the first and the second regions. a data region for storing a plurality of object blocks and a plurality of updating blocks; and a first and a second region for storing a plurality of block numbers allocated to the object blocks and the updating blocks, characterized in that writing data (S12; S14) to be written to one or more of the object blocks allocated with the block numbers stored to either one region of the first and the second regions to one or more of updating blocks for updating data in the object blocks constituting the data region; and storing (S12; S14) the block numbers of the blocks which have been the updating blocks to which the data has been written to the other of the first and the second regions.
A method of determining whether a subject who has received a kidney transplant is undergoing an acute rejection response, the method comprising: (a) evaluating an expression level of one or more genes in peripheral blood from the subject, wherein the one or more genes are selected from: SLC25A37, MAP2K3, EPOR, ANK1, CHST11, LYST, RARA, PCTP, ABTB1, and RXRA, wherein SLC25A37 is a selected gene; and (b) determining whether the subject is undergoing an AR response based on the expression level of the selected one or more genes. (a) evaluating an expression level of one or more genes in peripheral blood from the subject, wherein the one or more genes are selected from: SLC25A37, MAP2K3, EPOR, ANK1, CHST11, LYST, RARA, PCTP, ABTB1, and RXRA, wherein SLC25A37 is a selected gene; and (b) determining whether the subject is undergoing an AR response based on the expression level of the selected one or more genes.
A method at a User Equipment, UE, the method comprising: performing a Listen-Before-Talk, LBT, procedure prior to a first occasion of configured-grant, CG, resources; performing uplink, UL, transmission of a first transport block, TB, during the first occasion and using a first beam in response to successful LBT; said method characterised by: starting a timer in response to the UL transmission; determining failure of the UL transmission if no HARQ-ACK feedback is received within the duration of timer; and switching to a second beam for subsequent UL transmission of the first TB in response to determining failure of the UL transmission. performing a Listen-Before-Talk, LBT, procedure prior to a first occasion of configured-grant, CG, resources; performing uplink, UL, transmission of a first transport block, TB, during the first occasion and using a first beam in response to successful LBT; said method characterised by: starting a timer in response to the UL transmission; determining failure of the UL transmission if no HARQ-ACK feedback is received within the duration of timer; and switching to a second beam for subsequent UL transmission of the first TB in response to determining failure of the UL transmission. starting a timer in response to the UL transmission; determining failure of the UL transmission if no HARQ-ACK feedback is received within the duration of timer; and switching to a second beam for subsequent UL transmission of the first TB in response to determining failure of the UL transmission.
A method for carrying out a change of material in an extrusion device having at least two feed devices for feeding a feed material to an extruder having the following steps: - identifying a change request for a change of material in an extrusion device - predetermining a production stability for a point in time after the material of at least one feed device has been changed, - comparing the predetermined production stability with a stability limit value, - carrying out the change of material for at least one feed unit depending on the result of the comparison, wherein the gradient of the production stability is predetermined for the entire change of material for all feed devices characterized in that the step of carrying out the change of material is performed as long as at least one stable and/or stabilizing layer of a film results in the predetermination of a production stability above the stability limit value. - identifying a change request for a change of material in an extrusion device - predetermining a production stability for a point in time after the material of at least one feed device has been changed, - comparing the predetermined production stability with a stability limit value, - carrying out the change of material for at least one feed unit depending on the result of the comparison, wherein the gradient of the production stability is predetermined for the entire change of material for all feed devices
A method for encapsulating a microelectronic device, disposed on a support substrate, with an encapsulation cover comprising the following successive steps: a) providing a support substrate, made of a first material, comprising a first main face on which a microelectronic device is disposed, and a second main face opposite the first main face, b) depositing a bonding layer, made of a second material, on the first face of the substrate, around the microelectronic device, c) positioning an encapsulation cover, made of a third material, comprising a first main face and a second main face, opposite the first main face, on the bonding layer, so as to fix the first main face of the encapsulation cover on the support substrate, and so as to encapsulate the microelectronic device, d) thinning, by chemical etching, the second main face of the support substrate and the second main face of the encapsulation cover to a thickness less than 200 μm, preferably, less than or equal to 100 μm and even more preferably less than 50 μm, the second main face of the support substrate and the second main face of the encapsulation cover are thinned simultaneously during step d). a) providing a support substrate, made of a first material, comprising a first main face on which a microelectronic device is disposed, and a second main face opposite the first main face, b) depositing a bonding layer, made of a second material, on the first face of the substrate, around the microelectronic device, c) positioning an encapsulation cover, made of a third material, comprising a first main face and a second main face, opposite the first main face, on the bonding layer, so as to fix the first main face of the encapsulation cover on the support substrate, and so as to encapsulate the microelectronic device, d) thinning, by chemical etching, the second main face of the support substrate and the second main face of the encapsulation cover to a thickness less than 200 μm, preferably, less than or equal to 100 μm and even more preferably less than 50 μm,
A container assembly for specimen preparation, comprising: a biological sample collecting device; and a container for sample dilution, the biological sample collecting device comprising: a capillary tube having openings formed at both ends thereof; and a support member for supporting the capillary tube, the container for sample dilution comprising: an opening; and a swirl flow generating member formed on an inner wall of the container for sample dilution, and the capillary tube of the biological sample collecting device being arranged inside the container for sample dilution by the support member, characterized in that the swirl flow generating member is formed of one or a plurality of salients, or one or a plurality of recesses formed on a bottom of the inner wall of the container or on a side wall of the container. a biological sample collecting device; and a container for sample dilution, the biological sample collecting device comprising: a capillary tube having openings formed at both ends thereof; and a support member for supporting the capillary tube, a capillary tube having openings formed at both ends thereof; and a support member for supporting the capillary tube, the container for sample dilution comprising: an opening; and a swirl flow generating member formed on an inner wall of the container for sample dilution, and an opening; and a swirl flow generating member formed on an inner wall of the container for sample dilution, and the capillary tube of the biological sample collecting device being arranged inside the container for sample dilution by the support member, characterized in that the swirl flow generating member is formed of one or a plurality of salients, or one or a plurality of recesses formed on a bottom of the inner wall of the container or on a side wall of the container.
Bipolar plate assembly for a fuel cell or a fuel cell stack having at least a first flow field plate and a second flow field plate, wherein the first flow field plate and the second flow filed plate are fastened on top of each other, and both the first flow field plate and the second flow field plate have a flow field for the reactants at one side and a flow field for a cooling fluid on the other side, wherein in the bipolar plate assembly, the cooling fluid flow fields are facing each other, and the reactant fluid flow fields are arranged at the outside surfaces of the bipolar plate assembly, characterized in that the bipolar plate assembly has a first area, in which an edge of the first flow field plate is flush with an edge of the second flow field plate, and has at least one second area, in which the edge of the first flow field plate is recessed from the edge of the second flow field plate.
A computer-implemented method for operating an autonomous driving vehicle, the method comprising: in response to detecting an obstacle ahead of the ADV, determining a first distance to the obstacle; and for each of a plurality of planning cycles, performing, determining (602.2) an offset (A 505) to the first distance based on a real-time value for each of a set of parameters, wherein the set of parameters comprises a plurality of parameters, calculating (602.3) a second distance (A 506) based on the first distance and the offset (A 505), and performing speed planning based on the second distance (A 506) to control a further speed of the ADV, such that the ADV can decelerate and stop at a point with the second distance to the obstacle; wherein the set of parameters include a speed of the ADV, a distance of the ADV to the obstacle, and a speed limit in an environment surrounding the ADV. in response to detecting an obstacle ahead of the ADV, determining a first distance to the obstacle; and for each of a plurality of planning cycles, performing, determining (602.2) an offset (A 505) to the first distance based on a real-time value for each of a set of parameters, wherein the set of parameters comprises a plurality of parameters, calculating (602.3) a second distance (A 506) based on the first distance and the offset (A 505), and performing speed planning based on the second distance (A 506) to control a further speed of the ADV, such that the ADV can decelerate and stop at a point with the second distance to the obstacle; wherein the set of parameters include a speed of the ADV, a distance of the ADV to the obstacle, and a speed limit in an environment surrounding the ADV.
A window for use in an asset, having stealth plates mounted adjacent the window, in an active adaptive stealth system, the window comprising: a pivotally mounted window pane suitable to reflect an IR signature of the sky or of the ground that can create a difference between an apparent temperature of the window pane and the background temperature that is copied by active stealth plates on the asset, the difference creating an image of the window at a viewer looking in the direction of the window and using a thermal sensor; a motor drivingly coupled to said window pane causing said window pane to tilt relative to the asset; and a tilt control mechanism controlling the motor to change the tilt position of the window pane relative to the ground to approach a best match of IR signature from the window pane with the stealth plates. a pivotally mounted window pane suitable to reflect an IR signature of the sky or of the ground that can create a difference between an apparent temperature of the window pane and the background temperature that is copied by active stealth plates on the asset, the difference creating an image of the window at a viewer looking in the direction of the window and using a thermal sensor; a motor drivingly coupled to said window pane causing said window pane to tilt relative to the asset; and a tilt control mechanism controlling the motor to change the tilt position of the window pane relative to the ground to approach a best match of IR signature from the window pane with the stealth plates.
A build support for a gas turbine engine, comprising: a stand; a yoke comprising an arcuate body mountable to a stand, characterised in that: the yoke is rotatable between an upright orientation and a horizontal orientation, the arcuate body having an inner wall spaced apart from an outer wall and first and second side walls (26A, 26B) extending between the inner and outer walls (24A, 24B), a mounting plane of the yoke extending through the inner and outer walls (24A, 24B) and positioned between the first and second side walls (26A, 26B), and engine attachments spaced apart along the inner wall and lying in the mounting plane; and the build support further comprises an adapter removably mountable to the yoke and removably mountable to the stand to mount the yoke to the stand, the adapter being rotatable between the upright orientation and the horizontal orientation to thereby rotate the yoke between the upright orientation and the horizontal orientation. a stand; a yoke comprising an arcuate body mountable to a stand, characterised in that: the yoke is rotatable between an upright orientation and a horizontal orientation, the arcuate body having an inner wall spaced apart from an outer wall and first and second side walls (26A, 26B) extending between the inner and outer walls (24A, 24B), a mounting plane of the yoke extending through the inner and outer walls (24A, 24B) and positioned between the first and second side walls (26A, 26B), and engine attachments spaced apart along the inner wall and lying in the mounting plane; and the build support further comprises an adapter removably mountable to the yoke and removably mountable to the stand to mount the yoke to the stand, the adapter being rotatable between the upright orientation and the horizontal orientation to thereby rotate the yoke between the upright orientation and the horizontal orientation. the yoke is rotatable between an upright orientation and a horizontal orientation, the arcuate body having an inner wall spaced apart from an outer wall and first and second side walls (26A, 26B) extending between the inner and outer walls (24A, 24B), a mounting plane of the yoke extending through the inner and outer walls (24A, 24B) and positioned between the first and second side walls (26A, 26B), and engine attachments spaced apart along the inner wall and lying in the mounting plane; and the build support further comprises an adapter removably mountable to the yoke and removably mountable to the stand to mount the yoke to the stand, the adapter being rotatable between the upright orientation and the horizontal orientation to thereby rotate the yoke between the upright orientation and the horizontal orientation.