mhurhangee/ep-ind-claims huggingface dataset:
A fastening device, configured to be installed on an article, and the fastening device comprising: a base (120, 320, 620, 820) located on the article; an installing assembly (140, 240, 740), comprising: at least one needle (142, 242, 342, 642, 742, 842) pivotally disposed at the base (120, 320, 620, 820) so as to rotate relatively to the base (120, 320, 620, 820); and a reel part coupled to a lace and disposed on the base (120, 320, 620, 820); wherein the at least one needle (142, 242, 342, 642, 742, 842) is suitable to be inserted from a first surface of the article into a second surface of the article, then suitable to be inserted from the second surface of the article into the first surface of the article, and the at least one needle (142, 242, 342, 642, 742, 842) is suitable to be restricted to the article for securing the base (120, 320, 620, 820) on the first surface of the article. a base (120, 320, 620, 820) located on the article; an installing assembly (140, 240, 740), comprising: at least one needle (142, 242, 342, 642, 742, 842) pivotally disposed at the base (120, 320, 620, 820) so as to rotate relatively to the base (120, 320, 620, 820); and a reel part coupled to a lace and disposed on the base (120, 320, 620, 820); wherein the at least one needle (142, 242, 342, 642, 742, 842) is suitable to be inserted from a first surface of the article into a second surface of the article, then suitable to be inserted from the second surface of the article into the first surface of the article, and the at least one needle (142, 242, 342, 642, 742, 842) is suitable to be restricted to the article for securing the base (120, 320, 620, 820) on the first surface of the article.
An outer rail for retaining two lateral screw webs (3, 4) of an intermediate rail to construct a base for wall plate covering, the outer rail extending in a longitudinal direction and having a U-shaped cross section formed by a transverse connecting part connecting two opposed lateral retention webs (7, 8), two retention devices (14, 15) being disposed oppositely on respective inner sides of each retention web (7, 8) for retaining a respective screw web (3, 4) of the intermediate rail, each retention device (14, 15) including an abutment part, which extends inwards from the inner side of the associated retention web (7, 8) such as to form an abutment surface for the respective screw web (3, 4) when the latter is positioned to be retained in the retention device (14, 15), each retention device (14, 15) extending from the abutment part into a locking part, which extends at an angle to the abutment part and at a distance from the respective retention web (7, 8), characterized in that each locking part comprising a first resilient locking pin adapted to lock a first screw web configuration and a second, separate resilient locking pin adapted to lock a second screw web configuration, the first and second screw web configurations being pre-defined and different from each other, each locking pin (18, 19) projecting in an initial, unloaded position towards its associated retention web (7, 8), each locking pin (18, 19) being adapted to resiliently allow for passage of one of said first and second pre-defined screw web configurations such that the screw web (3, 4) during passage pushes the locking pin (18, 19) resiliently towards the locking part, the locking pin (18, 19) after passage resiliently assuming its initial position, such that a screw web (3, 4) corresponding to either of the first and second pre-defined screw web configurations can be attached to each of the retention webs (7, 8) by sliding the screw web (3, 4) past an associated one of the first and second locking pins (18, 19) of each respective retention device (14, 15), after which the respective locking pin (18, 19) assumes its initial position to retain the respective screw web (3, 4) between the respective locking pin (18, 19) and abutment part.
A system comprising: a target illumination laser, TIL, configured to generate a TIL beam that illuminates a target; a beacon illumination laser, BIL, configured to generate a modulated BIL beam that creates a spot on the target; an imaging sensor configured to (i) capture first images of the target at a first rate, the first images containing reflected TIL energy from the TIL beam without reflected BIL energy from the modulated BIL beam and (ii) capture second images of the target at a second rate different from the first rate, the second images containing reflected TIL energy from the TIL beam and reflected BIL energy from the modulated BIL beam; and at least one controller configured to perform target tracking using the first images and boresight error compensation using the second images. a target illumination laser, TIL, configured to generate a TIL beam that illuminates a target; a beacon illumination laser, BIL, configured to generate a modulated BIL beam that creates a spot on the target; an imaging sensor configured to (i) capture first images of the target at a first rate, the first images containing reflected TIL energy from the TIL beam without reflected BIL energy from the modulated BIL beam and (ii) capture second images of the target at a second rate different from the first rate, the second images containing reflected TIL energy from the TIL beam and reflected BIL energy from the modulated BIL beam; and at least one controller configured to perform target tracking using the first images and boresight error compensation using the second images.
A bandpass sampling receiver (100_1) comprising: an analog-digital converter for converting an analog wireless signal into a digital baseband signal; and a complex baseband signal extraction unit for generating a first path signal and a second path signal from the digital baseband signal and for extracting a complex baseband signal (DR 1) using a relative sample delay difference between the first and second path signals, wherein the first path signal is a signal obtained by applying sample delay operation and down sampling operation to the digital signal and the second path signal is a signal obtained by applying down sampling operation to the digital signal, wherein the complex baseband signal extraction unit comprises a first delay, a first down sampler and a second down sampler, wherein the complex baseband signal extraction unit further comprises: a first digital filter for filtering the first path signal; a second digital filter for filtering the second path signal; and an adder for extracting the complex signal by adding a filtering result of the first digital filter and a filtering result of the second digital filter. an analog-digital converter for converting an analog wireless signal into a digital baseband signal; and a complex baseband signal extraction unit for generating a first path signal and a second path signal from the digital baseband signal and for extracting a complex baseband signal (DR 1) using a relative sample delay difference between the first and second path signals, wherein the first path signal is a signal obtained by applying sample delay operation and down sampling operation to the digital signal and the second path signal is a signal obtained by applying down sampling operation to the digital signal, wherein the complex baseband signal extraction unit comprises a first delay, a first down sampler and a second down sampler, wherein the complex baseband signal extraction unit further comprises: a first digital filter for filtering the first path signal; a second digital filter for filtering the second path signal; and an adder for extracting the complex signal by adding a filtering result of the first digital filter and a filtering result of the second digital filter. a first digital filter for filtering the first path signal; a second digital filter for filtering the second path signal; and an adder for extracting the complex signal by adding a filtering result of the first digital filter and a filtering result of the second digital filter.
A method for wireless communications implemented by a user equipment, UE, comprising: receiving, at the UE, a beam diversity request from a base station; performing beam measurements for a plurality of directional candidate beams (325-a, 325-b, 325-c) transmitted by the base station towards the UE based in part on the beam diversity request, wherein the beam measurements comprise beam characteristic correlation information for the plurality of directional candidate beams; and transmitting a beam diversity response based on the beam measurements; wherein performing the beam measurements for the plurality of directional candidate beams transmitted by the base station towards the UE is characterized by comprising: identifying a first reference signals received power, RSRP, for each candidate beam from the plurality of directional candidate beams during a first time period; identifying a second RSRP for each candidate beam during a second time period; calculating RSRP correlation as the difference between the first RSRP and the second RSRP; and selecting, at the UE, each respective candidate beam based on a determination that the RSRP correlation is less than a RSRP-correlation threshold. receiving, at the UE, a beam diversity request from a base station; performing beam measurements for a plurality of directional candidate beams (325-a, 325-b, 325-c) transmitted by the base station towards the UE based in part on the beam diversity request, wherein the beam measurements comprise beam characteristic correlation information for the plurality of directional candidate beams; and transmitting a beam diversity response based on the beam measurements; wherein performing the beam measurements for the plurality of directional candidate beams transmitted by the base station towards the UE is characterized by comprising: identifying a first reference signals received power, RSRP, for each candidate beam from the plurality of directional candidate beams during a first time period; identifying a second RSRP for each candidate beam during a second time period; calculating RSRP correlation as the difference between the first RSRP and the second RSRP; and selecting, at the UE, each respective candidate beam based on a determination that the RSRP correlation is less than a RSRP-correlation threshold. identifying a first reference signals received power, RSRP, for each candidate beam from the plurality of directional candidate beams during a first time period; identifying a second RSRP for each candidate beam during a second time period; calculating RSRP correlation as the difference between the first RSRP and the second RSRP; and selecting, at the UE, each respective candidate beam based on a determination that the RSRP correlation is less than a RSRP-correlation threshold.
Method for erecting a supporting structure of a passenger transport system configured as an escalator or moving walkway, wherein the supporting structure is constructed between two support points (63, 65) of an existing structure by means of a 3D welding robot system, the 3D welding robot system having at least one controller comprising a 3D robot control software, a traveling device having a 3D welding robot, and a welding material feed device, characterized in, that a component model data set which digitally represent the supporting structure to be erected being converted into welding operations (A, B, C, D) by means of the 3D robot control software, which welding operations are to be carried out by the 3D welding robot during the erection phase of the supporting structure, the supporting structure being produced between the two support points (63, 65) by means of the 3D welding robot system by depositing welding material during the erection phase, and fastening regions for further components of the passenger transport system and/or bedding for guide rail inserts also being formed on the supporting structure during the production thereof.
A tubular device (8, 10, 110, 210) for a catheter or sheath comprising a proximal end and a distal end sized for introduction into a patient's body, the tubular device comprising: a central lumen extending between the proximal and distal ends (12, 14); an auxiliary lumen (18b, 118b, 218b) extending at least partially between the proximal and distal ends (12, 14) adjacent the central lumen; a steering element slidably received within the auxiliary lumen (18b, 118b, 218b); one or more reinforcement members comprising windings extending helically around the central lumen at least partially between the proximal and distal ends (12, 14); and one or more layers surrounding the one or more reinforcement members, wherein the tubular device comprises a first portion in which at least some of the windings pass between the central lumen and the steering element and at least some of the windings surround both the central lumen and steering element, and a second portion in which either a) all of the windings surround both the central lumen and steering element or b) all of the windings surround the central lumen and the steering element is disposed outside the windings, wherein the central lumen is substantially aligned around a central longitudinal axis extending between the proximal and distal ends (12, 14), and wherein the auxiliary lumen (18b, 118b, 218b) is offset radially from the central axis. a central lumen extending between the proximal and distal ends (12, 14); an auxiliary lumen (18b, 118b, 218b) extending at least partially between the proximal and distal ends (12, 14) adjacent the central lumen; a steering element slidably received within the auxiliary lumen (18b, 118b, 218b); one or more reinforcement members comprising windings extending helically around the central lumen at least partially between the proximal and distal ends (12, 14); and one or more layers surrounding the one or more reinforcement members, wherein the tubular device comprises a first portion in which at least some of the windings pass between the central lumen and the steering element and at least some of the windings surround both the central lumen and steering element, and a second portion in which either a) all of the windings surround both the central lumen and steering element or b) all of the windings surround the central lumen and the steering element is disposed outside the windings, wherein the central lumen is substantially aligned around a central longitudinal axis extending between the proximal and distal ends (12, 14), and wherein the auxiliary lumen (18b, 118b, 218b) is offset radially from the central axis.
A fabric comprising: (i) a first layer comprising a first set of elongation yarns (18, 20) extending in a substantially warp direction, a plurality of lateral yarns extending in a substantially weft direction across the fabric between the first set of elongation yarns; wherein the elongation yarns of the first set of elongation yarns are interwoven with one another by the plurality of lateral yarns; (ii) a second layer comprising a second set of elongation yarns (24, 26) extending in a substantially warp direction, a plurality of lateral yarns extending in a substantially weft direction across the fabric between the second set of elongation yarns; wherein the elongation yarns of the second set of elongation yarns are interwoven with one another by the plurality of lateral yarns; (iii) a plurality of binder yarns that are interwoven between the first layer and the second layer to bind the first set of elongation yarns with the second set of elongation yarns; and characterized in that at least one of the plurality of binder yarns interweaves pairs of lateral yarns in the first layer with pairs of lateral yarns in the second layer, the at least one of the plurality of binder yarns exits the first layer and reenters the first layer along a plurality of first sections such that each of the first sections includes one of the pairs of lateral yarns, the at least one of the plurality of binder yarns exits the second layer and reenters the second layer along a plurality of second sections such that each of the second sections includes another of the pairs of lateral yarns, and the elongation yarns (18, 20, 24, 26) have a heat shrinkage characteristic that is greater than a heat shrinkage characteristic of the binder yarns and wherein the binder yarns have a tensile strength that is greater than a tensile strength of the elongation yarns. (i) a first layer comprising a first set of elongation yarns (18, 20) extending in a substantially warp direction, a plurality of lateral yarns extending in a substantially weft direction across the fabric between the first set of elongation yarns; wherein the elongation yarns of the first set of elongation yarns are interwoven with one another by the plurality of lateral yarns; (ii) a second layer comprising a second set of elongation yarns (24, 26) extending in a substantially warp direction, a plurality of lateral yarns extending in a substantially weft direction across the fabric between the second set of elongation yarns; wherein the elongation yarns of the second set of elongation yarns are interwoven with one another by the plurality of lateral yarns; (iii) a plurality of binder yarns that are interwoven between the first layer and the second layer to bind the first set of elongation yarns with the second set of elongation yarns; and
A pulse generator, comprising: a plurality of electrode nodes, each electrode node configured to be coupled to a corresponding electrode configured to contact a patient's tissue; and a plurality of first digital-to-analog converters (DACs), wherein each one of the first DACs is dedicated to a different one of the electrode nodes and is configured to receive a first current with a magnitude indicative of a total anodic current amplitude to be produced at the electrode nodes, wherein each of the first DACs is configured to provide an anodic stimulation current to only its dedicated electrode node wherein each first DAC is controlled by a plurality of first control signals, and wherein the first control signals indicate a percentage of the total anodic current amplitude that each first DAC will produce as the anodic stimulation current at its dedicated electrode node. a plurality of electrode nodes, each electrode node configured to be coupled to a corresponding electrode configured to contact a patient's tissue; and a plurality of first digital-to-analog converters (DACs), wherein each one of the first DACs is dedicated to a different one of the electrode nodes and is configured to receive a first current with a magnitude indicative of a total anodic current amplitude to be produced at the electrode nodes, wherein each of the first DACs is configured to provide an anodic stimulation current to only its dedicated electrode node wherein each first DAC is controlled by a plurality of first control signals, and wherein the first control signals indicate a percentage of the total anodic current amplitude that each first DAC will produce as the anodic stimulation current at its dedicated electrode node.
A computer-implemented method for generating procedural code from initial function calls, the initial function calls drawing a parametric object within a graphical user interface of a design system and the parametric object including an attribute and a formula using the attribute, comprising: receiving an attribute for a formula of the parametric object using the attribute, the attribute in a first format; converting the received attribute and the formula to a second format corresponding to a function parameter for one or more functions of the design system; initially drawing the parametric object within the graphical user interface of the design system by calling the one or more functions and passing one or more of the converted attribute and the converted formula to the one or more functions as the function parameter; compiling the calls to the one or more functions into procedural code, wherein the formula and the attribute are translated into parameters used in the function calls; using the attribute to determine an appearance of the parametric object within a graphical user interface of the design system; receiving an updated attribute; if the parametric object includes the procedural code, re-drawing the parametric object within the graphical user interface of the design system by executing the procedural code using the updated attribute; and using the updated attribute to determine a new appearance of the parametric object within the graphical user interface of the design system. receiving an attribute for a formula of the parametric object using the attribute, the attribute in a first format; converting the received attribute and the formula to a second format corresponding to a function parameter for one or more functions of the design system; initially drawing the parametric object within the graphical user interface of the design system by calling the one or more functions and passing one or more of the converted attribute and the converted formula to the one or more functions as the function parameter; compiling the calls to the one or more functions into procedural code, wherein the formula and the attribute are translated into parameters used in the function calls; using the attribute to determine an appearance of the parametric object within a graphical user interface of the design system; receiving an updated attribute; if the parametric object includes the procedural code, re-drawing the parametric object within the graphical user interface of the design system by executing the procedural code using the updated attribute; and using the updated attribute to determine a new appearance of the parametric object within the graphical user interface of the design system.
A coated article including a multi-layer coating supported by a glass substrate, the multi-layer coating comprising, from the glass substrate outwardly: a layer comprising silicon rich silicon nitride located directly on and contacting the glass substrate; a layer comprising zinc oxide located directly on and contacting the layer comprising silicon rich silicon nitride; a layer comprising silver located over and contacting the layer comprising zinc oxide; a metal layer comprising NiCr or NiCrOx located over and contacting the layer comprising silver; and at least one dielectric layer. a layer comprising silicon rich silicon nitride located directly on and contacting the glass substrate; a layer comprising zinc oxide located directly on and contacting the layer comprising silicon rich silicon nitride; a layer comprising silver located over and contacting the layer comprising zinc oxide; a metal layer comprising NiCr or NiCrOx located over and contacting the layer comprising silver; and at least one dielectric layer.