mhurhangee/ep-ind-claims huggingface dataset:
A method of mixed-mesh networking encompassing multiple wireless networking technologies in a smart grid network comprising: communication network devices (210, 300) adapted to support a first wireless communication protocol and an alternative wireless communication protocol, wherein the network devices (210, 300) connect to each other by the first wireless communication protocol; and, end devices (150, 220) adapted to support the alternative wireless communication protocol 240, which end devices (150, 220) are adapted to facilitate the generation of data; the method characterized by: a network device (210, 300) configuring itself as an Internet access point or gateway by finding paths to the Internet, and when no path is found to Internet, scanning the other network devices over the first wireless communication protocol to find another network device (210, 300) acting as an Internet access point; the network device (210, 300) receiving a request from the Internet or a server or other network device (210, 300) to record a status of an end device (150, 220); the network device (210, 300) identifying end devices (150, 220) that are connected the network device (210, 300) by routes using the alternative wireless protocol 240; the network device (210, 300) monitoring if a route to the requested end device (150 220) is available and, if so, sending the request using the alternative wireless communication protocol to the requested end device (150, 220) and connecting the requested end device (150, 220) via the alternative wireless communication protocol to the network device to provide the network device with data requested; the network device (210, 300) responding to the request by routing the data requested over an optimal path to the Internet or the server or other network device (210, 300) using the first wireless communication protocol. a network device (210, 300) configuring itself as an Internet access point or gateway by finding paths to the Internet, and when no path is found to Internet, scanning the other network devices over the first wireless communication protocol to find another network device (210, 300) acting as an Internet access point; the network device (210, 300) receiving a request from the Internet or a server or other network device (210, 300) to record a status of an end device (150, 220); the network device (210, 300) identifying end devices (150, 220) that are connected the network device (210, 300) by routes using the alternative wireless protocol 240; the network device (210, 300) monitoring if a route to the requested end device (150 220) is available and, if so, sending the request using the alternative wireless communication protocol to the requested end device (150, 220) and connecting the requested end device (150, 220) via the alternative wireless communication protocol to the network device to provide the network device with data requested; the network device (210, 300) responding to the request by routing the data requested over an optimal path to the Internet or the server or other network device (210, 300) using the first wireless communication protocol.
A lock for a device for constricting vessels, comprising: at least two lock elements (201, 202), which are connected detachably to one another, wherein one of the lock elements (201, 202) is fixedly connectable with a constricting belt and the other lock element (201, 202) is arrangable movably on the constricting belt, wherein one of the lock elements (201, 202) is provided on a side facing the other lock element (201, 202) on at least one external edge with a chamfer and the other lock element (201, 202) is provided on at least one external edge with at least one web, wherein the at least one chamfer corresponds with the at least one web of the respectively opposing lock element (201, 202) for a sliding interplay of the lock elements (201, 202), wherein magnets, which act with their magnetic fields between both lock elements (201, 202) and which pull the lock elements (201, 202) into one another by their opposite polarity, are connected to the lock elements (201, 202), characterized in that the at least one web on the lock element (201, 202) has a base and a tip, and wherein the base is at least 0.1 mm, preferably 0.5 mm to 5 mm wider than the tip. at least two lock elements (201, 202), which are connected detachably to one another, wherein one of the lock elements (201, 202) is fixedly connectable with a constricting belt and the other lock element (201, 202) is arrangable movably on the constricting belt, wherein one of the lock elements (201, 202) is provided on a side facing the other lock element (201, 202) on at least one external edge with a chamfer and the other lock element (201, 202) is provided on at least one external edge with at least one web, wherein the at least one chamfer corresponds with the at least one web of the respectively opposing lock element (201, 202) for a sliding interplay of the lock elements (201, 202), wherein magnets, which act with their magnetic fields between both lock elements (201, 202) and which pull the lock elements (201, 202) into one another by their opposite polarity, are connected to the lock elements (201, 202), characterized in that the at least one web on the lock element (201, 202) has a base and a tip, and wherein the base is at least 0.1 mm, preferably 0.5 mm to 5 mm wider than the tip.
Radar sensor arrangement for a motor vehicle (2, 16), comprising at least two antenna modules (3, 4) each having a transmitting unit for transmitting radar signals and a receiving unit for receiving radar signals, wherein the antenna modules (3, 4) are arranged on a common substrate, which is elastically or plastically deformable and comprises at least one circuit component which is connectable or connected to each of the antenna modules (3, 4) arranged on the substrate, wherein the at least one circuit component is integrated in a chip or module, characterised in that the substrate is deformable by means of an actuator and the radar sensor arrangement comprises or is connectable or connected to a control device adapted to deform the substrate by actuating the actuator, wherein the actuator is in the form of an electric motor.
Inhaler, preferably for insertion into a nostril, in particular of a horse, with an inhalation valve, which has a movable valve element which is configured in an annular manner and has an outer edge and an inner edge, wherein the valve element is fastened at the outer edge, wherein the inner edge forms the boundary of a through passage of the valve element, wherein the inhalation valve has a valve body seat that corresponds to the inner edge, characterized in that the inhaler comprises a discharge nozzle, wherein the discharge nozzle is arranged in the through passage of the valve element.
An air jet loom comprising: an apparatus for showing compressed air flow rate in the air jet loom; a main nozzle and sub-nozzles causing a weft yarn to move by means of compressed air; a flow rate measuring device (9, 11, 16, 24, 29, 33, 37, 40) that serves to measure flow rate of compressed air consumed in the air jet loom; and a controller equipped with a display, characterized in that the controller is configured to cause the display to show a time series graph of the measured flow rate of compressed air together with a time series graph of a previously set upper limit flow rate of compressed air for the air jet loom for determining a possible change amount of the upper limit flow rate of compressed air on the basis of a difference between the measured flow rate of compressed air and the upper limit flow rate of compressed air, and to provide means for rewriting data of the upper limit flow rate of compressed air to a new upper limit flow rate of compressed air (LQ-X), on the basis of the determined possible change amount. an apparatus for showing compressed air flow rate in the air jet loom; a main nozzle and sub-nozzles causing a weft yarn to move by means of compressed air; a flow rate measuring device (9, 11, 16, 24, 29, 33, 37, 40) that serves to measure flow rate of compressed air consumed in the air jet loom; and a controller equipped with a display, characterized in that the controller is configured to cause the display to show a time series graph of the measured flow rate of compressed air together with a time series graph of a previously set upper limit flow rate of compressed air for the air jet loom for determining a possible change amount of the upper limit flow rate of compressed air on the basis of a difference between the measured flow rate of compressed air and the upper limit flow rate of compressed air, and to provide means for rewriting data of the upper limit flow rate of compressed air to a new upper limit flow rate of compressed air (LQ-X), on the basis of the determined possible change amount.
A coated article including a layer system supported by a glass substrate, the layer system comprising: a first dielectric layer; a layer comprising an oxide of niobium zirconium (NbZr) provided on the substrate over at least the first dielectric layer; and a second dielectric layer provided on the substrate over at least the layer comprising the oxide of niobium zirconium, wherein the coated article has no metallic infrared reflecting layer comprising Ag or Au. a first dielectric layer; a layer comprising an oxide of niobium zirconium (NbZr) provided on the substrate over at least the first dielectric layer; and a second dielectric layer provided on the substrate over at least the layer comprising the oxide of niobium zirconium, wherein the coated article has no metallic infrared reflecting layer comprising Ag or Au.
Miniaturized electrochemical cell comprising a main body comprising a tip adapted to allow electrochemical measurements of a surface of a conductor material to be analyzed which serves as working electrode, said main body comprising at least one inlet hollow conduit for an electrolytic liquid solution and at least one outlet hollow conduit for said electrolytic liquid solution, said electrolytic liquid solution flowing from said at least one inlet hollow conduit to said at least one outlet hollow conduit, the miniaturized electrochemical cell comprising a counter electrode, said miniaturized electrochemical cell mounting a reference electrode, at a region of the tip each of said at least one inlet hollow conduit narrows into at least one inlet hollow conduit of millimeter-size diameter and each of said at least one outlet hollow conduit narrows into at least one outlet hollow conduit of millimeter-size diameter, at a space between the tip and the surface of the conductor material to be analyzed it is identified a millimeter-size chamber for redox reactions which communicates with said at least one inlet hollow conduit of millimeter-size diameter and with said at least one outlet hollow conduit of millimeter-size diameter, said at least one inlet hollow conduit of millimeter-size diameter being separated from said at least one outlet hollow conduit of millimeter-size diameter by at least one partition wall, characterized in that said at least one partition wall is one piece with said main body, said at least one inlet hollow conduit and said at least one outlet hollow conduit are hollowed out inside the main body, the tip of the main body comprises a millimeter-size opening of millimetric dimension which communicates with said millimeter-size chamber for redox reactions, wherein said millimeter-size opening is defined by said at least one partition wall, by said at least one inlet hollow conduit of millimeter-size diameter and by said at least one outlet hollow conduit of millimeter-size diameter.
A dental aligner for producing predetermined movement in a patient's tooth, comprising: a shell-shaped portion including an outer surface, an inner surface, a bottom portion and a tip portion, wherein said inner surface is provided to be in contact with the patient's tooth, said bottom portion is provided to be near the gingival of the patient's tooth and said tip portion is the opposite side of the bottom portion, wrinkles formed in at least one of the outer surface and the inner surface wherein said surfaces are furrowed, ridged or creased rather than normally smooth and aligned substantially from the tip portion to the bottom portion. a shell-shaped portion including an outer surface, an inner surface, a bottom portion and a tip portion, wherein said inner surface is provided to be in contact with the patient's tooth, said bottom portion is provided to be near the gingival of the patient's tooth and said tip portion is the opposite side of the bottom portion, wrinkles formed in at least one of the outer surface and the inner surface wherein said surfaces are furrowed, ridged or creased rather than normally smooth and aligned substantially from the tip portion to the bottom portion.
Energy storage device for storing electrical energy, comprising: a cathode layer comprising at least one ply of carbon fibers, the carbon fibers being coated with a Li-ion containing coating and embedded in an electrolytic polymer matrix material; an anode layer comprising at least one ply of carbon fibers, the carbon fibers being embedded in an electrolytic polymer matrix material; a separator layer comprising at least one ply of fibers, the fibers being embedded in an electrolytic polymer matrix material, wherein the separator layer is sandwiched between the cathode layer and the anode layer; and carbon nanotubes extending between and partly into the separator layer and the cathode layer, or the separator layer and the anode layer, or the separator layer and the cathode layer and the separator layer and the anode layer, wherein the carbon nanotubes provide travel paths for the Li-ions between the anode layer and the cathode layer. a cathode layer comprising at least one ply of carbon fibers, the carbon fibers being coated with a Li-ion containing coating and embedded in an electrolytic polymer matrix material; an anode layer comprising at least one ply of carbon fibers, the carbon fibers being embedded in an electrolytic polymer matrix material; a separator layer comprising at least one ply of fibers, the fibers being embedded in an electrolytic polymer matrix material, wherein the separator layer is sandwiched between the cathode layer and the anode layer; and carbon nanotubes extending between and partly into the separator layer and the cathode layer, or the separator layer and the anode layer, or the separator layer and the cathode layer and the separator layer and the anode layer, wherein the carbon nanotubes provide travel paths for the Li-ions between the anode layer and the cathode layer.
Cable feed-through with an elastic sealing element having at least one cable feed-through channel, said elastic sealing element being assembled from two sealing element parts separated by a dividing surface, wherein the sealing element parts are designed such that their assembly to form the sealing element leads to a deformation of the elastic material forming the sealing element parts, and said elastic sealing element having a feed-through member comprising the at least one cable feed-through channel, said feed-through member comprising inner sealing surfaces (32, 34) adapted to abut sealingly on at least one cable sheath, and with at least one holding element (60, 62), the two sealing element parts being acted upon with said holding element in such a manner that the inner sealing surfaces (32, 34) abut sealingly on the cable sheath and the sealing element parts abut sealingly on one another with their contact surfaces respectively bordering on the dividing surface, wherein each of the sealing element parts has at least one recess and at least one projection and the sealing element parts comprise feed-through member parts (20", 20'''), each of said member parts comprising the projections as well as the recesses accommodating the projections of the respectively other feed-through member part (20", 20''') characterized in that each of the feed-through member parts (20", 20''') comprises projections rising on both sides of a cable section and that each of the feed-through member parts (20", 20''') comprises projecting areas as well as recessed areas, wherein the recessed areas are formed by the recesses and the projecting areas by the projections rising on both sides of the cable section and wherein during the assembly of two feed-through member parts (20"a, 20"b) the projecting area of one of the feed-through member parts (20"a) engages in the recessed areas of the other feed-through member part (20"b), wherein the projecting areas and the recessed areas form surfaces abutting on one another and, therefore, altogether an interlocking of the feed-through member parts (20"a, 20"b) results, and that the recessed areas have smaller dimensions than the projecting areas engaging in them so that a deformation of the elastic material forming the feed-through member parts (20"a, 20"b), in particular a compression thereof, must take place, wherein a considerable reciprocal areal pressure results in the area of the surfaces of the recessed areas and the projecting areas abutting on one another, whereby a sealed connection is achievable.
A method for handling an in-phase and quadrature, "I/Q", channel mismatch of an I/Q down-converted signal for an in-phase channel, and a quadrature channel, wherein the method comprises: - obtaining a discrete-time complex valued signal r(n) for the in-phase channel, and the quadrature channel, wherein the discrete-time complex valued signal r(n) is based on an analog-to-digital conversion of the I/Q down-converted signal, wherein the obtained discrete-time complex valued signal r(n) is oversampled by a factor of two or more, - forming an intermediate signal v(n) that corresponds to the real part of a π / 2 frequency shifted version of the obtained discrete-time complex valued signal r(n), and - applying, on the formed intermediate signal v(n), a procedure for obtaining an estimate of a frequency dependent mismatch of a two-channel time-interleaved analog-to-digital converter, "TI-ADC", thereby obtaining a TI-ADC mismatch estimate, wherein the TI-ADC mismatch estimate directly or indirectly relates to filter coefficients that are used for compensating the I/Q channel mismatch. - obtaining a discrete-time complex valued signal r(n) for the in-phase channel, and the quadrature channel, wherein the discrete-time complex valued signal r(n) is based on an analog-to-digital conversion of the I/Q down-converted signal, wherein the obtained discrete-time complex valued signal r(n) is oversampled by a factor of two or more, - forming an intermediate signal v(n) that corresponds to the real part of a π / 2 frequency shifted version of the obtained discrete-time complex valued signal r(n), and - applying, on the formed intermediate signal v(n), a procedure for obtaining an estimate of a frequency dependent mismatch of a two-channel time-interleaved analog-to-digital converter, "TI-ADC", thereby obtaining a TI-ADC mismatch estimate, wherein the TI-ADC mismatch estimate directly or indirectly relates to filter coefficients that are used for compensating the I/Q channel mismatch.
A pesticide composition comprising respective fractions of pesticide and polymer, said polymer fraction comprising at least 60% by weight of a copolymer including maleic and itaconic moieties, wherein the total weight of the polymer fraction is taken as 100% by weight, said pesticide fraction including a pesticide selected from the group consisting of herbicides or mixtures of herbicides and insecticides; said copolymer being in an acid or salt form; and said herbicide being an organophosphorus herbicide.
Method for applying at least one material layer to a workpiece made of a material containing a titanium aluminide, in particular consisting thereof, the method comprising the steps of: - heating the workpiece in a locally delimited area by means of induction to a predetermined preheating temperature; - applying a preferably powdery additive to the heated surface of the workpiece by means of deposition welding, in particular laser, laser powder, plasma, micro-plasma, TIG or micro-TIG deposition welding, the additive comprising a titanium aluminide; and - cooling the workpiece at a defined cooling rate to a cooling temperature between 500°C and 650°C, characterized in that the cooling rate is between 5 K/min and 50 K/min. - heating the workpiece in a locally delimited area by means of induction to a predetermined preheating temperature; - applying a preferably powdery additive to the heated surface of the workpiece by means of deposition welding, in particular laser, laser powder, plasma, micro-plasma, TIG or micro-TIG deposition welding, the additive comprising a titanium aluminide; and - cooling the workpiece at a defined cooling rate to a cooling temperature between 500°C and 650°C,
An isolated or recombinant peptide comprising a sequence selected from the group comprising SFEWIYKQIFKLWA [SEQ ID NO:1], SFEWIKYQIKKLWA [SEQ ID NO:2], SFEWIYKQIWKLKRGLA [SEQ ID NO:3], formyl-SFKWIYKQIKKLWA [SEQ ID NO:4], SFKWIYKQIKKLWA [SEQ ID NO:5], SFEWIYKQIKKLWAK [SEQ ID NO:6] and SFEWIYKQIKKLWAKKK [SEQ ID NO:7], wherein the isolated or recombinant peptides are bactericidal and/or bacteriostatic.
A method comprising: obtaining a plurality of live images of a scene, the live images comprising a tracked object; determining for a live image in the plurality of live images, a camera pose relative to the tracked object; and determining (315, 320) a 3D model of the scene, wherein a mask corresponding to the tracked object to be removed is applied to live input video image frames and the 3D model is reconstructed considering pixels that are not masked out; rendering, based on the camera pose and the 3D model of the scene, a plurality of synthetic images without the tracked object, each synthetic image obtained from a distinct keyframe; comparing the live and synthetic images to determine a first mask region associated with the tracked object; computing optical flow values for a plurality of pixels in the first mask region associated with the tracked object relative to a subset of synthetic images in the plurality of synthetic images; determining, for each of the plurality of pixels in the first mask region, a corresponding pixel in each of the subset of synthetic images based, in part, on the optical flow values; and determining replacement pixels for each of the plurality of pixels in the first mask region, each replacement pixel corresponding to a distinct pixel in the first mask region, wherein each replacement pixel is determined as a function of the corresponding pixels in the subset of synthetic images that correspond to the pixel in the first mask region. obtaining a plurality of live images of a scene, the live images comprising a tracked object; determining for a live image in the plurality of live images, a camera pose relative to the tracked object; and determining (315, 320) a 3D model of the scene, wherein a mask corresponding to the tracked object to be removed is applied to live input video image frames and the 3D model is reconstructed considering pixels that are not masked out; rendering, based on the camera pose and the 3D model of the scene, a plurality of synthetic images without the tracked object, each synthetic image obtained from a distinct keyframe; comparing the live and synthetic images to determine a first mask region associated with the tracked object; computing optical flow values for a plurality of pixels in the first mask region associated with the tracked object relative to a subset of synthetic images in the plurality of synthetic images; determining, for each of the plurality of pixels in the first mask region, a corresponding pixel in each of the subset of synthetic images based, in part, on the optical flow values; and determining replacement pixels for each of the plurality of pixels in the first mask region, each replacement pixel corresponding to a distinct pixel in the first mask region, wherein each replacement pixel is determined as a function of the corresponding pixels in the subset of synthetic images that correspond to the pixel in the first mask region.