mhurhangee/ep-ind-claims huggingface dataset:
A security insert (500, 510, 520, 530) having optically recognizable indicia for an identification document, comprising: a first transparent layer, and a second transparent layer, and an infrared-transparent ink layer on the first layer formed of the base colors cyan, magenta, and yellow, and a first UV ink coating located on the first layer and/or on the ink coating, which reflects at least UV light in a first wavelength range, wherein the layers (20, 30) are bonded to one another, and at least one of the layers (20, 30) comprises blackenings (24, 34), and a first portion of the optically detectable indicia is formed by the blackenings (24, 34), and a second portion of the optically detectable indicia is formed by the ink coatings, and a third part of the optically recognizable characters is formed by the UV ink application such that the first and second parts of the optically recognizable characters reflect visible light and the third part of the optically recognizable characters reflects at least UV light in a first wavelength range, wherein the ink application and the blackenings (24, 34) complement each other to form an overall image. a first transparent layer, and a second transparent layer, and an infrared-transparent ink layer on the first layer formed of the base colors cyan, magenta, and yellow, and a first UV ink coating located on the first layer and/or on the ink coating, which reflects at least UV light in a first wavelength range, wherein the layers (20, 30) are bonded to one another, and at least one of the layers (20, 30) comprises blackenings (24, 34), and a first portion of the optically detectable indicia is formed by the blackenings (24, 34), and a second portion of the optically detectable indicia is formed by the ink coatings, and a third part of the optically recognizable characters is formed by the UV ink application such that the first and second parts of the optically recognizable characters reflect visible light and the third part of the optically recognizable characters reflects at least UV light in a first wavelength range, wherein the ink application and the blackenings (24, 34) complement each other to form an overall image.
Method to manage the defrosting of a refrigeration plant provided with at least one compressor and at least one evaporator, wherein said method comprises: defining a plurality of not mutually exclusive defrosting modes (d0, d1, d2, d3, d4, d5, d9), which can be selected by the end user in a non-exclusive manner, which are based on one or more functioning parameters of the refrigeration plant, said functioning parameters being detected by means of detection probes provided in the refrigeration plant such as pressure switches, thermostats, timing devices, associated with said compressor and/or said evaporator; memorizing said plurality of defrosting modes (d0, d1, d2, d3, d4, d5, d9) in an electronic device to manage the defrosting, said electronic device being configured by the end user through means (21, 22, 23, 24, 25, 26) able to select said plurality of defrosting modes (d0, d1, d2, d3, d4, d5, d9), in which the functioning parameters of the refrigeration plant are selected and adjustable by the end user for each of the defrosting modes (d0, d1, d2, d3, d4, d5, d9) memorized in the electronic device, such that said defrosting modes (d0, d1, d2, d3, d4, d5, d9) are activated individually according to two or more defrosting modes chosen by the end user. defining a plurality of not mutually exclusive defrosting modes (d0, d1, d2, d3, d4, d5, d9), which can be selected by the end user in a non-exclusive manner, which are based on one or more functioning parameters of the refrigeration plant, said functioning parameters being detected by means of detection probes provided in the refrigeration plant such as pressure switches, thermostats, timing devices, associated with said compressor and/or said evaporator; memorizing said plurality of defrosting modes (d0, d1, d2, d3, d4, d5, d9) in an electronic device to manage the defrosting, said electronic device being configured by the end user through means (21, 22, 23, 24, 25, 26) able to select said plurality of defrosting modes (d0, d1, d2, d3, d4, d5, d9), in which the functioning parameters of the refrigeration plant are selected and adjustable by the end user for each of the defrosting modes (d0, d1, d2, d3, d4, d5, d9) memorized in the electronic device, such that said defrosting modes (d0, d1, d2, d3, d4, d5, d9) are activated individually according to two or more defrosting modes chosen by the end user.
An apparatus for folding a pouch for a secondary battery, the apparatus comprising: a forming means configured to gradually bend and fold an edge of a pouch-type secondary battery so that the edge has a target cross-sectional shape; a support means configured to support the forming means; and first to fourth gap spacers (150a, 150b, 150c, 150d) having various thicknesses, formed in a flat plate shape, and configured to be interposed between the forming means and the support means to align the forming means. a forming means configured to gradually bend and fold an edge of a pouch-type secondary battery so that the edge has a target cross-sectional shape; a support means configured to support the forming means; and first to fourth gap spacers (150a, 150b, 150c, 150d) having various thicknesses, formed in a flat plate shape, and configured to be interposed between the forming means and the support means to align the forming means.
A polymer obtained by introducing an anion exchanging group to a glycidyl group of a polymer obtained by polymerizing a compound represented by the following general formula: wherein each of R 1 and R 2 independently represents a hydrogen atom, a linear alkyl group having 1 to 3 carbon atoms or a halogen atom, Bz represents benzene ring, and a compound represented by the following general formula: wherein R 9 represents a hydrogen atom, a linear alkyl group having 1 to 3 carbon atoms or a halogen atom, R 10 represents a linear alkylene group having 1 to 3 carbon atoms, each of R 11 and R 12 independently represents a hydrogen atom or a linear alkyl group having 1 to 6 carbon atoms wherein the anion exchanging group is an ammonium group represented by the following general formula: wherein each of R 3 represents independently a linear alkyl group having 1 to 3 carbon atoms, R 4 represents a linear alkyl group having 1 to 6 carbon atoms and molar ratio of the compound represented by the general formula and the compound represented by the general formula is 60 to 90: 10 to 40.
Device for covering screed expansion joints in a floor structure in the interior of a building, wherein the device is formed as an expansion joint profile which consists of at least two spaced profile elements (7, 8) which are arranged to be movable with respect to one another and between them form an empty space which is filled with a sealing composition which adheres to at least one surface (13, 14, 15) of the empty space, wherein the sealing composition compensates the changes in distance of the expansion joint of the floor structure, characterised in that an anti-adhesion system, which prevents an adhesive effect of the sealing composition at least at one surface (13, 14, 15), is arranged in the empty space.
A method for detecting interactions between or with any two of at least three target substrates, or any two of at least three features of a target substrate, or a combination of interactions and features of target substrates, by a multiplexed proximity ligation assay, said method comprising: a) for each of the at least three target substrates or features, providing a proximity probe comprising a binding moiety with affinity for the feature or binding site on said substrate, and a proximity probe oligonucleotide coupled on the binding moiety; wherein each of the proximity probe oligonucleotide carries a unique tag sequence; b) mixing the proximity probes with a sample, under a condition to allow binding of each proximity probe to its respective binding site or feature on each of said substrates through the binding moiety, c) simultaneous with, or following step b), forming circularized DNA molecules where any two proximity probes bind sufficiently close to each other on the substrate, wherein each of the circularized DNA molecules comprise complementary sequences to the unique tag sequences from the two proximity probes oligonucleotides; d) amplifying the circularized DNA; e) characterizing the amplified DNA. a) for each of the at least three target substrates or features, providing a proximity probe comprising a binding moiety with affinity for the feature or binding site on said substrate, and a proximity probe oligonucleotide coupled on the binding moiety; wherein each of the proximity probe oligonucleotide carries a unique tag sequence; b) mixing the proximity probes with a sample, under a condition to allow binding of each proximity probe to its respective binding site or feature on each of said substrates through the binding moiety, c) simultaneous with, or following step b), forming circularized DNA molecules where any two proximity probes bind sufficiently close to each other on the substrate, wherein each of the circularized DNA molecules comprise complementary sequences to the unique tag sequences from the two proximity probes oligonucleotides; d) amplifying the circularized DNA; e) characterizing the amplified DNA.
A method for use in centralized shared scenario-specific operational control management for a plurality of autonomous vehicles (2110, 2100), the method comprising: performing centralized shared scenario-specific operational control management for a plurality of autonomous vehicles by a centralized, with respect to the plurality of autonomous vehicles, shared scenario-specific operational control management device, wherein centralized shared scenario-specific operational control management for a plurality of vehicles includes: receiving shared scenario-specific operational control management input data, from an autonomous vehicle of the plurality of vehicles (1000, 2100, 2110); validating the shared scenario-specific operational control management input data received, such a validating step including the step of determining whether the shared scenario-specific operational control management input data include malicious data; identifying a current distinct vehicle operational scenario based on the shared scenario-specific operational control management input data; generating shared scenario-specific operational control management output data based on the current distinct vehicle operational scenario; and transmitting the shared scenario-specific operational control management output data to one or more autonomous vehicles of the plurality of autonomous vehicles. receiving shared scenario-specific operational control management input data, from an autonomous vehicle of the plurality of vehicles (1000, 2100, 2110); validating the shared scenario-specific operational control management input data received, such a validating step including the step of determining whether the shared scenario-specific operational control management input data include malicious data; identifying a current distinct vehicle operational scenario based on the shared scenario-specific operational control management input data; generating shared scenario-specific operational control management output data based on the current distinct vehicle operational scenario; and transmitting the shared scenario-specific operational control management output data to one or more autonomous vehicles of the plurality of autonomous vehicles.
An apparatus for holding at least two oblong objects (16, 18, 20), in particular pens, the longitudinal axes (32, 34) of both of the objects held by the apparatus enclosing a first angle in a first operating state of the apparatus, wherein the apparatus can adopt a second operating state in which the longitudinal axes of both of the objects held by it enclose a second angle different from the first angle, the apparatus comprises a first and a second holding device for holding the first object in at least one direction transverse to the longitudinal axis of said first object, characterized by a first component and a second component rotatable in relation to the first component, said first holding device being rotatably coupled to the first component and the second holding device being rotatably coupled to the second component and said holding devices holding the respectively held object in the direction of rotation.
A method for content retrieval from remote network regions, comprising: receiving, by an end-point device (808, 902, 1014), a request for content from a client device located in a first geographic region, the request routed via a Content Delivery Agent (803, D006, 1012) located on the end-point device (808, 902, 1014) in close proximity to the client device, the request specifying a desired geographic region to fetch the content from, wherein the content is on one or more content servers (840, 908, 1040) located in the desired geographic region and wherein the desired geographic region is different from the first geographic region; forwarding, by the Content Delivery Agent (803, D006, 1012), the request, via tunneling, to a Content Pulling Agent (830, D106, D302) running on a destination access point server (832, 904, 1000) that is located in the desired geographic region and in proximity to the one or more content servers (840, 908, 1040); pulling, by the Content Pulling Agent (830, D106, 1012), the content from the one or more content servers (840, 908, 1040); and receiving, by the end-point device (808, 902, 1014), the content from the destination access point server (832, 904, 1000) for serving to the client device. receiving, by an end-point device (808, 902, 1014), a request for content from a client device located in a first geographic region, the request routed via a Content Delivery Agent (803, D006, 1012) located on the end-point device (808, 902, 1014) in close proximity to the client device, the request specifying a desired geographic region to fetch the content from, wherein the content is on one or more content servers (840, 908, 1040) located in the desired geographic region and wherein the desired geographic region is different from the first geographic region; forwarding, by the Content Delivery Agent (803, D006, 1012), the request, via tunneling, to a Content Pulling Agent (830, D106, D302) running on a destination access point server (832, 904, 1000) that is located in the desired geographic region and in proximity to the one or more content servers (840, 908, 1040); pulling, by the Content Pulling Agent (830, D106, 1012), the content from the one or more content servers (840, 908, 1040); and receiving, by the end-point device (808, 902, 1014), the content from the destination access point server (832, 904, 1000) for serving to the client device.
A portable terminal for controlling a plurality of external devices (200, 300, 400, 500, 600) connected thereto, characterized by: a memory for storing a plurality of Operating Systems, OSs, and User Interfaces, UIs, corresponding to each of the plurality of external devices (200, 300, 400, 500, 600); and a controller for detecting a connection to at least one external device (200, 300, 400, 500, 600), and upon detection, extracting an OS and UI that matches the connected external device (200, 300, 400, 500, 600) from among the plurality of OSs and UIs corresponding to each of the plurality of external devices (200, 300, 400, 500, 600) stored in the memory, wherein a current OS and UI of the portable terminal are replaced by the extracted OS and UI, and controlling functions of the connected external device via the portable terminal by using the extracted OS and UI. a memory for storing a plurality of Operating Systems, OSs, and User Interfaces, UIs, corresponding to each of the plurality of external devices (200, 300, 400, 500, 600); and a controller for detecting a connection to at least one external device (200, 300, 400, 500, 600), and upon detection, extracting an OS and UI that matches the connected external device (200, 300, 400, 500, 600) from among the plurality of OSs and UIs corresponding to each of the plurality of external devices (200, 300, 400, 500, 600) stored in the memory, wherein a current OS and UI of the portable terminal are replaced by the extracted OS and UI, and controlling functions of the connected external device via the portable terminal by using the extracted OS and UI.
An introducer for deploying a stent graft in a curved lumen, the introducer including: a carrier for a stent graft including a plurality of stents (4, 4', 5, 6); a release mechanism including a constraining mechanism, wherein the constraining mechanism includes at least one release wire; a stent graft mounted on the carrier, the stent graft including at least one wire-receiver co-operating with the release wire of the introducer, wherein the wire-receiver and the release wire radially constrain at least a portion of at least one stent of the stent graft, wherein at least the most proximal stent of the stent graft is not constrained; the release wire and the wire receiver together operable to enable the constrained stent to expand so as to overlap with the interior of at least a portion of an adjacent stent in an expanded portion of the stent graft. a carrier for a stent graft including a plurality of stents (4, 4', 5, 6); a release mechanism including a constraining mechanism, wherein the constraining mechanism includes at least one release wire; a stent graft mounted on the carrier, the stent graft including at least one wire-receiver co-operating with the release wire of the introducer, wherein the wire-receiver and the release wire radially constrain at least a portion of at least one stent of the stent graft, wherein at least the most proximal stent of the stent graft is not constrained; the release wire and the wire receiver together operable to enable the constrained stent to expand so as to overlap with the interior of at least a portion of an adjacent stent in an expanded portion of the stent graft.
Method for producing semiconductor wafers from a workpiece by processing the workpiece by means of a wire saw, comprising feeding the workpiece through an arrangement of wires which are tensioned between wire guide rollers (3, 4) while being divided into wire groups (25a-d) and move in a running direction; producing kerfs when the wires engage into the workpiece; characterized by the following method steps: for each of the wire groups (25a-d), determining a placement error of the kerfs of the wire group; and for each of the wire groups, inducing compensating movements of the wires of the wire group as a function of the determined placement error of the kerfs of the wire group in a direction perpendicular to the running direction of the wires of the wire group (25a-d) during the feeding of the workpiece through the arrangement of wires by activating at least one drive element (24a-e). feeding the workpiece through an arrangement of wires which are tensioned between wire guide rollers (3, 4) while being divided into wire groups (25a-d) and move in a running direction; producing kerfs when the wires engage into the workpiece; characterized by the following method steps: for each of the wire groups (25a-d), determining a placement error of the kerfs of the wire group; and for each of the wire groups, inducing compensating movements of the wires of the wire group as a function of the determined placement error of the kerfs of the wire group in a direction perpendicular to the running direction of the wires of the wire group (25a-d) during the feeding of the workpiece through the arrangement of wires by activating at least one drive element (24a-e). for each of the wire groups (25a-d), determining a placement error of the kerfs of the wire group; and for each of the wire groups, inducing compensating movements of the wires of the wire group as a function of the determined placement error of the kerfs of the wire group in a direction perpendicular to the running direction of the wires of the wire group (25a-d) during the feeding of the workpiece through the arrangement of wires by activating at least one drive element (24a-e).
A method, comprising: applying a first set of beamforming coefficients to a transmit beam signal to generate a set of component transmit signals (325-a, 325-b, 325-c) for transmission by a set of co-located satellite antennas, wherein an inter-element spacing of satellite antennas (301-a, 301-b, 301-c) of the set of co-located satellite antennas is different across the set of co-located satellite antennas; transmitting, by the set of co-located satellite antennas at a first time (401-a), the set of component transmit signals (325-a, 325-b, 325-c) to form a beam, wherein a first line segment at a boundary of the beam is tangential to a first sphere (335-a) having a surface that encompasses Earth, wherein a location on the first line segment tangential to the surface of the first sphere (335-a) is above a surface of the Earth by a threshold altitude; receiving, by the set of co-located satellite antennas, a plurality of component receive signals (330-a, 330-b, 330-c) comprising reflected energy of the beam; applying a second set of beamforming coefficients to the plurality of component receive signals (330-a, 330-b, 330-c) to obtain a receive beam signal associated with the beam; and processing the receive beam signal based at least in part on the transmit beam signal to obtain a signature associated with an object within a limb of the Earth defined by the first sphere (335-a) and a second sphere (335-b) that is concentric with and larger than the first sphere (335-b). applying a first set of beamforming coefficients to a transmit beam signal to generate a set of component transmit signals (325-a, 325-b, 325-c) for transmission by a set of co-located satellite antennas, wherein an inter-element spacing of satellite antennas (301-a, 301-b, 301-c) of the set of co-located satellite antennas is different across the set of co-located satellite antennas; transmitting, by the set of co-located satellite antennas at a first time (401-a), the set of component transmit signals (325-a, 325-b, 325-c) to form a beam, wherein a first line segment at a boundary of the beam is tangential to a first sphere (335-a) having a surface that encompasses Earth, wherein a location on the first line segment tangential to the surface of the first sphere (335-a) is above a surface of the Earth by a threshold altitude; receiving, by the set of co-located satellite antennas, a plurality of component receive signals (330-a, 330-b, 330-c) comprising reflected energy of the beam; applying a second set of beamforming coefficients to the plurality of component receive signals (330-a, 330-b, 330-c) to obtain a receive beam signal associated with the beam; and processing the receive beam signal based at least in part on the transmit beam signal to obtain a signature associated with an object within a limb of the Earth defined by the first sphere (335-a) and a second sphere (335-b) that is concentric with and larger than the first sphere (335-b).