mhurhangee/ep-ind-claims huggingface dataset:
An input device that inputs information according to a state of approach of an object to a detection surface, the input device comprising: a sensor unit comprising a plurality of capacitive sensor elements distributed in a detection surface at respective detection positions and configured to detect a degree of the approach of the object at each of the plurality of detection positions on the detection surface and to generate detection data indicating a result of the detection for each of the plurality of detection positions; a sensor control unit that is configured to control the sensor unit so that the sensor unit is configured to perform a periodic detection operation of generating the detection data in the plurality of detection positions in every one of cycles; a detection data acquisition unit that is configured to acquire a plurality of detection data items generated for the plurality of detection positions in every one of cycles of the detection operation; and characterized by an error determination unit that is configured to determine, in every one of cycles, whether or not there is an error in the detection operation due to noise based on a degree of a temporal change and a degree of a positional change in the detection data, wherein when it is determined by the error determination unit that there is an error in the detection operation in one cycle, the detection data acquisition unit is configured to skip a process of acquiring the detection data generated in the one cycle. a sensor unit comprising a plurality of capacitive sensor elements distributed in a detection surface at respective detection positions and configured to detect a degree of the approach of the object at each of the plurality of detection positions on the detection surface and to generate detection data indicating a result of the detection for each of the plurality of detection positions; a sensor control unit that is configured to control the sensor unit so that the sensor unit is configured to perform a periodic detection operation of generating the detection data in the plurality of detection positions in every one of cycles; a detection data acquisition unit that is configured to acquire a plurality of detection data items generated for the plurality of detection positions in every one of cycles of the detection operation; and characterized by an error determination unit that is configured to determine, in every one of cycles, whether or not there is an error in the detection operation due to noise based on a degree of a temporal change and a degree of a positional change in the detection data, wherein when it is determined by the error determination unit that there is an error in the detection operation in one cycle, the detection data acquisition unit is configured to skip a process of acquiring the detection data generated in the one cycle.
A method (1100, 1500) for communication, comprising: determining (1114, 1514) a packet size to use for data transmission; and selecting a code rate from among a plurality of code rates for a selected forward error correction, FEC, code based on the packet size, with progressively higher code rates being selected for progressively larger packet sizes; wherein a convolutional code is selected as the FEC code if the packet size is less than or equal to a first threshold, a Turbo code is selected as the FEC code if the packet size is greater than the first threshold and less than or equal to a second threshold. determining (1114, 1514) a packet size to use for data transmission; and selecting a code rate from among a plurality of code rates for a selected forward error correction, FEC, code based on the packet size, with progressively higher code rates being selected for progressively larger packet sizes; wherein a convolutional code is selected as the FEC code if the packet size is less than or equal to a first threshold, a Turbo code is selected as the FEC code if the packet size is greater than the first threshold and less than or equal to a second threshold.
Power tool, in particular chisel hammer, comprising a drive, a striking mechanism device, a control device, an energy supply device for supplying the power tool with electrical energy and a power tool housing with a first and second power tool housing area (20, 30), wherein the energy supply device can be positioned in one direction between the first and second power tool housing areas (20, 30), wherein a first interface for connecting the energy supply device to the first power tool housing area and a second interface for connecting the energy supply device to the second power tool housing area are provided, wherein the energy supply device is designed as a battery connection device with at least one battery interface for the releasable connection of the energy supply device to at least one battery, characterized in that the energy supply device comprises a first interface and a second interface, wherein by means of the first interface of the energy supply device, the energy supply device can be releasably connected to the first interface of the first power tool housing area and by means of the second interface of the energy supply device, the energy supply device can be releasably connected to the second interface of the second power tool housing area and the interfaces respectively comprise electrical contact elements, so that electrical energy can pass from the energy supply device to the first and/or second power tool housing area (20, 30).
A tire for a motorcycle comprising: a tread and a carcass having a radial structure, the tread including a base layer positioned on an inside in a radial direction and a cap layer positioned on an outside, the cap layer having a center region and a pair of shoulder regions positioned on an outside in an axial direction with respect to the center region, a ratio (Wc/Wt) of a width Wc of the center region to a width Wt of the tread being equal to or higher than 0.15 and being equal to or lower than 0.4, a loss tangent tanδc of the center region being smaller than a loss tangent tanδs of the shoulder region, a loss tangent tanδb of the base layer being smaller than the loss tangent tanδs of the shoulder region, the loss tangent tanδb of the base layer being equal to or smaller than 0.15, and the loss tangent tanδb of the base layer being equal to or smaller than the loss tangent tanδc of the center region. a tread and a carcass having a radial structure, the tread including a base layer positioned on an inside in a radial direction and a cap layer positioned on an outside, the cap layer having a center region and a pair of shoulder regions positioned on an outside in an axial direction with respect to the center region, a ratio (Wc/Wt) of a width Wc of the center region to a width Wt of the tread being equal to or higher than 0.15 and being equal to or lower than 0.4, a loss tangent tanδc of the center region being smaller than a loss tangent tanδs of the shoulder region, a loss tangent tanδb of the base layer being smaller than the loss tangent tanδs of the shoulder region, the loss tangent tanδb of the base layer being equal to or smaller than 0.15, and the loss tangent tanδb of the base layer being equal to or smaller than the loss tangent tanδc of the center region.
An imaging system comprising: an image acquiring unit adapted to acquire an image captured by a first surveillance camera; a position determining unit adapted to determine one of a plurality of pieces of position information in an object space of the image as an imaging position based on a priority order of the pieces of position information; a controlling unit adapted to change a viewing point of a second surveillance camera which can mechanically perform pan, tilt and zoom operations, based on the imaging position, a designation unit adapted to allow a user to specify a region in the image, characterized by a measuring unit adapted to measure a distance to an object in an object space; a system controlling unit adapted to determine whether or not the region includes a preset position set in advance; wherein when the region includes the preset position, the position determining unit determines first position information including the preset position as the imaging position; and when the region does not include the preset position, the position determining unit determines the imaging position using second position information which defines a three-dimensional position based on a distance of the region specified via the designation unit, the distance being measured by the measuring unit. an image acquiring unit adapted to acquire an image captured by a first surveillance camera; a position determining unit adapted to determine one of a plurality of pieces of position information in an object space of the image as an imaging position based on a priority order of the pieces of position information; a controlling unit adapted to change a viewing point of a second surveillance camera which can mechanically perform pan, tilt and zoom operations, based on the imaging position, a designation unit adapted to allow a user to specify a region in the image, characterized by a measuring unit adapted to measure a distance to an object in an object space; a system controlling unit adapted to determine whether or not the region includes a preset position set in advance; wherein when the region includes the preset position, the position determining unit determines first position information including the preset position as the imaging position; and when the region does not include the preset position, the position determining unit determines the imaging position using second position information which defines a three-dimensional position based on a distance of the region specified via the designation unit, the distance being measured by the measuring unit.
A device for formfree printing a three-dimensional object in layers using at least one printing material, the device comprising: at least one printing head configured to output printing material in at least one printing material string in string-shape; a printing platen configured to receive the at least one printing material string output by the at least one printing head; a rod-shaped heating device movably arranged over the printing platen, wherein the rod-shaped heating device comprises a rod-shaped lamp, and wherein the rod-shaped lamp has a length (103b, 103d) of approximately the same or higher than the width (103a, 103c) of the printing platen so that the irradiated heat is irradiated on substantially the entire width (103a, 103c) of the printing platen; a heat controller configured to control the rod-shaped heating device to emit a heat irradiation directed to the printing platen to heat the at least one printing material string to a reaction temperature to trigger a chemical reaction of the at least one printing material of the at least one printing material string; at least one motor coupled to the rod-shaped heating device to move it over the printing platen; and a motor controller configured to control the at least one motor to move the rod-shaped heating device over the printing platen to harden the at least one printing material string printed on the printing platen. at least one printing head configured to output printing material in at least one printing material string in string-shape; a printing platen configured to receive the at least one printing material string output by the at least one printing head; a rod-shaped heating device movably arranged over the printing platen, wherein the rod-shaped heating device comprises a rod-shaped lamp, and wherein the rod-shaped lamp has a length (103b, 103d) of approximately the same or higher than the width (103a, 103c) of the printing platen so that the irradiated heat is irradiated on substantially the entire width (103a, 103c) of the printing platen; a heat controller configured to control the rod-shaped heating device to emit a heat irradiation directed to the printing platen to heat the at least one printing material string to a reaction temperature to trigger a chemical reaction of the at least one printing material of the at least one printing material string; at least one motor coupled to the rod-shaped heating device to move it over the printing platen; and a motor controller configured to control the at least one motor to move the rod-shaped heating device over the printing platen to harden the at least one printing material string printed on the printing platen.
A defrosting and acoustic treatment device for an air intake lip of a turbojet engine nacelle, characterized in that it includes an embossed acoustic structure which is adapted to bear on an acoustic skin of the air intake lip, and which delimits a plurality of acoustic cells, each cell being delimited by an independent peripheral wall which allows the circulation of a defrost air flow around each cell.
Arrangement comprising a lateral structure of a vehicle, notably a motor vehicle, a front roof cross-member (9; 13) and a central roof cross-member (8; 14), the front roof cross-member (9; 13) and the central roof cross-member (8; 14) extending transversely or substantially transversely, the lateral structure comprising a B-pillar lining and an A-pillar lining of a vehicle body, the arrangement comprises a first bracket fastened to the A-pillar lining and to the front roof cross-member (9; 13), the A-pillar lining extending beyond a B-pillar towards the rear of such a body in the longitudinal or substantially longitudinal direction, characterized in that the arrangement comprises a rear side member, notably fastened at a rear end of the A-pillar lining, and a fourth bracket fastened to the rear side member and to the central roof cross-member.
A device for wrapping crop bales (43, 43'), having a wrapping table which comprises a frame and two support rollers (29, 30) held by the frame to support a crop bale (43, 43'), and at least one wrapping material dispenser which is guided in a path around the crop bale (43, 43') supported by the support rollers (29, 30), wherein the crop bale (43, 43') can be supported on the wrapping table in different positions with respect to the frame, in particular in separate purely vertical positions, characterized in that the wrapping table is pivotably suspended on a chassis about an axis.
A branched polycarboxylic acid or salt thereof, wherein the average number of branches is 2 to 100 and the average degree of polymerization of the branches is 2 to 50 as measured by 1 H-NMR spectroscopy; and wherein the polycarboxylic acid is derived from copolymerization of (meth)acrylic acid with at least one other (meth)acrylic or vinyl monomer.
An eye patch, comprising: a single layer substrate comprising a sheet of material having a first region and a second region, the substrate including an outer edge extending around the substrate and a slit extending through the substrate from a point on the outer edge of the first region to an interior point of the substrate so as to form a first flap and a second flap, a first adhesive portion applied to the substrate near the first region such that the first and second flaps (28, 30) each receive part of the first adhesive portion with the slit extending between the respective parts of the first adhesive portion received on the first and second flaps (28, 30) so that the respective parts of the first adhesive portion are positioned directly on opposite sides of the slit, and adjacent the slit, with the slit extending therebetween, and a second adhesive portion applied to the substrate near the second region, the second adhesive portion being discontinuous with the first adhesive portion, wherein the first and second flaps (28, 30) are configured to be placed into an overlapping arrangement and adhered together by the first adhesive portion to give the eye patch a generally cupped shape, and wherein the first and second adhesive portions (40, 42) provide two locations for adhering the eye patch to the periorbital tissue surrounding an eye, wherein the substrate is generally planar and teardrop-shaped and tapered near the second region, and has sufficient rigidity to retain the eye patch in the cupped shape. a single layer substrate comprising a sheet of material having a first region and a second region, the substrate including an outer edge extending around the substrate and a slit extending through the substrate from a point on the outer edge of the first region to an interior point of the substrate so as to form a first flap and a second flap, a first adhesive portion applied to the substrate near the first region such that the first and second flaps (28, 30) each receive part of the first adhesive portion with the slit extending between the respective parts of the first adhesive portion received on the first and second flaps (28, 30) so that the respective parts of the first adhesive portion are positioned directly on opposite sides of the slit, and adjacent the slit, with the slit extending therebetween, and a second adhesive portion applied to the substrate near the second region, the second adhesive portion being discontinuous with the first adhesive portion, wherein the first and second flaps (28, 30) are configured to be placed into an overlapping arrangement and adhered together by the first adhesive portion to give the eye patch a generally cupped shape, and wherein the first and second adhesive portions (40, 42) provide two locations for adhering the eye patch to the periorbital tissue surrounding an eye, wherein the substrate is generally planar and teardrop-shaped and tapered near the second region, and has sufficient rigidity to retain the eye patch in the cupped shape.
A plasma processing method of subjecting a substrate to deep etching by executing alternately and repeatedly an etching process of etching the substrate by using plasma generated in a chamber and a protective film deposition process of depositing a protective film in a recess formed through the etching process by using plasma generated in the chamber, wherein in the protective film deposition process, a plasma processing gas which is a mixed gas of C 4 F 8 and 2,3,3,3-tetrafluoropropene and has a flow rate ratio of 2,3,3,3-tetrafluoropropene in the mixed gas being 5% or more and 60% or less is used as gas supplied for generating plasma, and wherein after completion of the deep etching on the substrate, a cleaning process step is executed to clean the chamber. wherein in the protective film deposition process, a plasma processing gas which is a mixed gas of C 4 F 8 and 2,3,3,3-tetrafluoropropene and has a flow rate ratio of 2,3,3,3-tetrafluoropropene in the mixed gas being 5% or more and 60% or less is used as gas supplied for generating plasma, and wherein after completion of the deep etching on the substrate, a cleaning process step is executed to clean the chamber.
A method for measuring a liquid level in a pressure vessel of a urea synthesis plant, the method comprising: emitting a first electromagnetic signal from above the liquid level and towards the liquid level, through a wave guide; detecting a second electromagnetic signal which is generated by the first signal reflected by the surface of the liquid; determining the liquid level on the basis of the elapsed time between the emission of the first signal and the detection of the second signal, wherein the gaseous phase contained in the pressure vessel above said liquid level, which is a gaseous phase including ammonia and carbon dioxide, has a pressure equal to or greater than 80 bar and a temperature equal to or greater than 120 °C, characterized in that said wave guide is an elongate solid rod, and in that the solid rod extends below the liquid level and wherein the determination of the liquid level comprises a step of a compensation of the dielectric of said gaseous phase. emitting a first electromagnetic signal from above the liquid level and towards the liquid level, through a wave guide; detecting a second electromagnetic signal which is generated by the first signal reflected by the surface of the liquid; determining the liquid level on the basis of the elapsed time between the emission of the first signal and the detection of the second signal, wherein the gaseous phase contained in the pressure vessel above said liquid level, which is a gaseous phase including ammonia and carbon dioxide, has a pressure equal to or greater than 80 bar and a temperature equal to or greater than 120 °C, characterized in that said wave guide is an elongate solid rod, and in that the solid rod extends below the liquid level and wherein the determination of the liquid level comprises a step of a compensation of the dielectric of said gaseous phase.
A method for a public information system, adapted for broadcasting a message in a first wireless access network that is a public safety network, the first wireless access network arranged to, at least partly, overlap one or more further wireless access networks (120a, 120b) that is a commercial network being separated from the public safety network, the method being performed in a public information system control node comprises; initiating a modified support announcement by the first wireless access network, the modified support announcement configured to announce support for the further wireless access networks (120a, 120b) by comprising network identifiers associated with the further wireless access networks, whereby a wireless device associated with the further wireless access network (120a, 120b) is prompted to connect to the first wireless access network, and initiating broadcasting of the message over the first wireless access network, whereby said wireless device may receive the message over the first wireless access network.