mhurhangee/ep-ind-claims huggingface dataset:
A method of operating an image display device, the method comprising: receiving a power-on signal based on IR communication from a pointing device; displaying a Graphic User Interface, GUI, including a guide screen on a display of the image display device for pairing the pointing device with the image display device; receiving, through the IR communication, a signal corresponding to a pairing button manipulated as indicated in the GUI; determining from the received signal that the pairing button of the pointing device has been manipulated and transmitting information about frequency channels that are available for pairing from the image display device to the pointing device; receiving a selected frequency channel information from the pointing device; establishing a pairing for RF communication between the image display device and the pointing device using a frequency channel selected from a plurality of frequency channels indicated by the frequency channel information according to the selected frequency channel information, and displaying a pointer on the display in correspondence with movement of the pointing device based on information about the movement received in the RF communication. receiving a power-on signal based on IR communication from a pointing device; displaying a Graphic User Interface, GUI, including a guide screen on a display of the image display device for pairing the pointing device with the image display device; receiving, through the IR communication, a signal corresponding to a pairing button manipulated as indicated in the GUI; determining from the received signal that the pairing button of the pointing device has been manipulated and transmitting information about frequency channels that are available for pairing from the image display device to the pointing device; receiving a selected frequency channel information from the pointing device; establishing a pairing for RF communication between the image display device and the pointing device using a frequency channel selected from a plurality of frequency channels indicated by the frequency channel information according to the selected frequency channel information, and displaying a pointer on the display in correspondence with movement of the pointing device based on information about the movement received in the RF communication.
A discharge container comprising: a container body having a discharge face, on which a discharge hole is formed; a cylinder part including a discharge space in communication with the discharge hole inside the container body; a piston movable between a first position and a second position, the second position being farther than the first position from the discharge face in the discharge space; and a plurality of storage portions for storing contents, wherein a plurality of inlet holes respectively corresponding to the plurality of storage portions (5a to 5e) are formed in an inner wall of the discharge space, wherein, when the piston is at the second position, the plurality of inlet holes communicates with the discharge space between a top face of the piston and the discharge face, and the contents are ready to flow into the discharge space from the plurality of inlet holes, and wherein, when the piston is at the first position, the plurality of inlet holes are closed by the piston, and wherein the diameter of the discharge hole is substantially a same as an internal diameter of the cylinder part, and the first position is present at a substantially same position as an opening face of the discharge hole. a container body having a discharge face, on which a discharge hole is formed; a cylinder part including a discharge space in communication with the discharge hole inside the container body; a piston movable between a first position and a second position, the second position being farther than the first position from the discharge face in the discharge space; and a plurality of storage portions for storing contents, wherein a plurality of inlet holes respectively corresponding to the plurality of storage portions (5a to 5e) are formed in an inner wall of the discharge space, wherein, when the piston is at the second position, the plurality of inlet holes communicates with the discharge space between a top face of the piston and the discharge face, and the contents are ready to flow into the discharge space from the plurality of inlet holes, and wherein, when the piston is at the first position, the plurality of inlet holes are closed by the piston, and wherein the diameter of the discharge hole is substantially a same as an internal diameter of the cylinder part, and the first position is present at a substantially same position as an opening face of the discharge hole.
A computer-implemented method comprising: receiving airspace surveillance data from a plurality of sensors, the airspace surveillance data comprising tracks associated with one or more targets, wherein the tracks comprise recent positions of the one or more targets measured by the plurality of sensors; aggregating the airspace surveillance data received up to a certain predetermined threshold duration in the past to obtain aggregated data, wherein the aggregated data combines all positions of all tracks within the predetermined threshold duration; performing density-based clustering of the aggregated data to obtain a plurality of clusters; determining one or more candidate track-to-cluster associations between the tracks and the clusters, wherein the candidate track-to-cluster associations are ranked according to the number of target positions from a track that are included in a cluster; associating each of the tracks with one of the one or more targets based on the ranking of the candidate track-to-cluster associations; and estimating a state for each of the one or more targets by fusing the tracks associated with the same one or more targets into a single track. receiving airspace surveillance data from a plurality of sensors, the airspace surveillance data comprising tracks associated with one or more targets, wherein the tracks comprise recent positions of the one or more targets measured by the plurality of sensors; aggregating the airspace surveillance data received up to a certain predetermined threshold duration in the past to obtain aggregated data, wherein the aggregated data combines all positions of all tracks within the predetermined threshold duration; performing density-based clustering of the aggregated data to obtain a plurality of clusters; determining one or more candidate track-to-cluster associations between the tracks and the clusters, wherein the candidate track-to-cluster associations are ranked according to the number of target positions from a track that are included in a cluster; associating each of the tracks with one of the one or more targets based on the ranking of the candidate track-to-cluster associations; and estimating a state for each of the one or more targets by fusing the tracks associated with the same one or more targets into a single track.
A silicone resin, of which a molar ratio of aryl groups bound to the silicon atom with respect to the total silicon atoms is in a range of 0.7 to 1.3, which is represented by an average composition formula of Formula 1 and comprises a siloxane unit of Formula 2 and a siloxane unit of Formula 3, of which a molar ratio of aryl groups bound to the silicon atom in the siloxane unit of the Formula 2 with respect to the total silicon atoms is in a range of 0.3 to 0.8, of which a molar ratio of aryl groups bound to the silicon atom in the siloxane unit of the Formula 3 with respect to the total silicon atoms is in a range of 0.25 to 0.7 and in which a ratio of the trifunctional siloxane unit of Formula 3 with respect to the total trifunctional siloxane units is 80 mol% or more, wherein the average composition formula of Formula 1 represents an average composition of at least two silicone resins: [Formula 1] (R 3 SiO 1/2) a (R 2 SiO 2/2) b (RSiO 3/2) c (SiO 4/2) d [Formula 2] R 1 R 2 SiO 2/2 [Formula 3] R 3 SiO 3/2 wherein R's are substituents directly bound to a silicon atom, and each independently represents hydrogen, an alkoxy group, a hydroxy group, an epoxy group, a (meth)acryloyl group, an isocyanate group or a monovalent hydrocarbon group; R 1 and R 2 each independently represent an alkyl group or an aryl group, R 3 represents an aryl group, a is in a range of 0 ≤ a ≤ 0.5, b is in a range of 0 < b ≤ 0.8, c is in a range of 0 < c ≤ 0.8, and d is in a range of 0 ≤ d ≤ 0.2, with the proviso that a+b+c+d is 1, and at least one of R 1 and R 2 represents an aryl group.
A one-touch openable cap configured to be coupled to a bottle which includes a nozzle from which a content inside the bottle is discharged; the cap comprising: a base including coupling means couplable to the bottle, a ring connected to a portion of the coupling means and disposed with a space between the coupling means and the ring, and a latch portion; and a lid portion disposed in such a way as to be pivotable relative to the base and including a body configured to cover the nozzle when the lid portion is closed, and a claw disposed on the body and configured to be latched to the latch portion when the lid portion is closed; characterized in that the ring is configured to be deformed by press forces from left and right sides so as to allow a front edge of the ring to be frontwardly pushed out, and in that the latch portion is disposed on the front edge of the ring, wherein, upon press of the ring from the left and right sides, the ring is deformed, the claw is released from the latch portion, the lid portion pivots, and the nozzle is uncovered. a base including coupling means couplable to the bottle, a ring connected to a portion of the coupling means and disposed with a space between the coupling means and the ring, and a latch portion; and a lid portion disposed in such a way as to be pivotable relative to the base and including a body configured to cover the nozzle when the lid portion is closed, and a claw disposed on the body and configured to be latched to the latch portion when the lid portion is closed; characterized in that the ring is configured to be deformed by press forces from left and right sides so as to allow a front edge of the ring to be frontwardly pushed out, and in that the latch portion is disposed on the front edge of the ring, wherein, upon press of the ring from the left and right sides, the ring is deformed, the claw is released from the latch portion, the lid portion pivots, and the nozzle is uncovered.
Method for 3D printing an object, the method comprising: A) melting a thermoplastic polymer composition for 3D printing comprising: (a) at least 25 wt.-%, of an amorphous polyamide polymer, the polyamide polymer being obtainable by polymerizing a1) at least one dimerized fatty acid; a2) optionally at least one mono carboxylic acid; a3) optionally at least one linear dicarboxylic acid; and a4) at least one linear diamine; (b) at least 5 wt.-% of a crystalline or semicrystalline thermoplastic polymer; (c) optionally at least 0.1 wt.-% of a compatibilizing agent; and (d) optionally at least 1 wt.-% of a filler; B) printing the melted composition of A) using a 3D printer to form an object. A) melting a thermoplastic polymer composition for 3D printing comprising: (a) at least 25 wt.-%, of an amorphous polyamide polymer, the polyamide polymer being obtainable by polymerizing a1) at least one dimerized fatty acid; a2) optionally at least one mono carboxylic acid; a3) optionally at least one linear dicarboxylic acid; and a4) at least one linear diamine; (b) at least 5 wt.-% of a crystalline or semicrystalline thermoplastic polymer; (c) optionally at least 0.1 wt.-% of a compatibilizing agent; and (d) optionally at least 1 wt.-% of a filler; (a) at least 25 wt.-%, of an amorphous polyamide polymer, the polyamide polymer being obtainable by polymerizing a1) at least one dimerized fatty acid; a2) optionally at least one mono carboxylic acid; a3) optionally at least one linear dicarboxylic acid; and a4) at least one linear diamine; (b) at least 5 wt.-% of a crystalline or semicrystalline thermoplastic polymer; (c) optionally at least 0.1 wt.-% of a compatibilizing agent; and (d) optionally at least 1 wt.-% of a filler; B) printing the melted composition of A) using a 3D printer to form an object.
A self-foaming composition containing ivermectin, intended for rinse-off topical application, comprising: - at least one intermediate composition B comprising a gas-generating agent and at least one gelling agent and/or suspending agent chosen from acrylic acid polymers, polysaccharides, the family of magnesium aluminum silicates, the family of modified starches and the family of carrageenans, - at least one intermediate composition A comprising an agent for activating the gas-generating agent and at least one gelling agent and/or suspending agent chosen from polysaccharides, the family of magnesium aluminum silicates, the family of modified starches, the family of carrageenans and PVA, and - ivermectin contained in at least one of said intermediate compositions A and B. - at least one intermediate composition B comprising a gas-generating agent and at least one gelling agent and/or suspending agent chosen from acrylic acid polymers, polysaccharides, the family of magnesium aluminum silicates, the family of modified starches and the family of carrageenans, - at least one intermediate composition A comprising an agent for activating the gas-generating agent and at least one gelling agent and/or suspending agent chosen from polysaccharides, the family of magnesium aluminum silicates, the family of modified starches, the family of carrageenans and PVA, and - ivermectin contained in at least one of said intermediate compositions A and B.
An electromagnetic coupling reader comprising: - an antenna configured to perform the electromagnetic coupling, - a management module configured to modulate and transmit an input signal on said antenna, and to demodulate and transmit an output signal received by said antenna, - a supervision unit configured to generate said input signal and analyze said output signal in such a way as to organize a wireless communication, - said supervision unit comprising a sleep mode (Slp) configured to limit energy consumption, a first wake-up signal enabling said supervision unit to exit said sleep mode (Sip), - a second wake-up signal controlled by a clock configured to extract said supervision unit from said sleep mode at regular intervals, characterized in that said electromagnetic coupling reader is integrated to an automotive vehicule allowing the central opening of doors, said management module further comprising: - an energy saving mode (LPCD) consisting of measuring, at regular intervals, an impedance of said antenna in order to detect the presence of a peripheral authorizing an electromagnetic coupling, said first wake-up signal being activated by said management module when a peripheral is detected. - an antenna configured to perform the electromagnetic coupling, - a management module configured to modulate and transmit an input signal on said antenna, and to demodulate and transmit an output signal received by said antenna, - a supervision unit configured to generate said input signal and analyze said output signal in such a way as to organize a wireless communication, - said supervision unit comprising a sleep mode (Slp) configured to limit energy consumption, a first wake-up signal enabling said supervision unit to exit said sleep mode (Sip), - a second wake-up signal controlled by a clock configured to extract said supervision unit from said sleep mode at regular intervals, - an energy saving mode (LPCD) consisting of measuring, at regular intervals, an impedance of said antenna in order to detect the presence of a peripheral authorizing an electromagnetic coupling, said first wake-up signal being activated by said management module when a peripheral is detected.
A collapsible valve (200, 300) comprising: a cylindrical wall (204, 304) having a center axis (201, 301) and an internal surface; a head fixedly attached to the wall (204, 304), the head having a continuous top surface that is generally perpendicular to the axis; and a first dimple (110a, 110b, 110c) formed in the internal surface of the cylindrical wall (204, 304), the dimple (110a, 110b, 110c) extending around the internal surface over an angle, the collapsible valve being characterized in that, the head has a smiley cut (26, 226, 326) at a first angular position about the center axis (201,301), and in that the dimple (110a, 110b, 110c) extends (i) over an angle in the range of 90-270°, and (ii) having a variable depth over a circumferential length of the dimple extending over the angle. a cylindrical wall (204, 304) having a center axis (201, 301) and an internal surface; a head fixedly attached to the wall (204, 304), the head having a continuous top surface that is generally perpendicular to the axis; and a first dimple (110a, 110b, 110c) formed in the internal surface of the cylindrical wall (204, 304), the dimple (110a, 110b, 110c) extending around the internal surface over an angle, the collapsible valve being characterized in that,
A method for detecting nitrogenous materials within an object by means of Gamma-Resonance Absorption, comprising: (i) placing a target on one side of an inspected object, said target containing 13 C for bombardment with a proton beam of approximately 1.75 MeV energy, to produce a source of 9.172 MeV gamma-rays; (ii) placing on an opposite side of the object, on the periphery of a flux cone at polar angle θ R = 80.7° with respect to the proton beam, a gamma-ray detector with a nitrogen rich detection medium; (iii) screening the object with a gamma-ray beam from said source; (iv) reading from said gamma-ray detector total and non-resonant attenuations of incident photon flux; (v) deriving from said attenuations a net resonant attenuation and spatial distribution thereof; and (vi) determining a status of said inspected object based on a nitrogen-density distribution derived from said net resonant attenuation and said spatial distribution thereof; characterized in that screening the object comprises a step of performing a rapid pre-scan to classify an overall gamma-ray-attenuation regime and locate regions of high physical density; and repeating said step of performing a rapid pre-scan as required to determine said status of said inspected object; and in that said gamma-ray detector comprises a scintillator whose basic cell transverse dimensions are comparable to proton ranges from on-resonance events and considerably smaller than lepton ranges from off-resonance events. (i) placing a target on one side of an inspected object, said target containing 13 C for bombardment with a proton beam of approximately 1.75 MeV energy, to produce a source of 9.172 MeV gamma-rays; (ii) placing on an opposite side of the object, on the periphery of a flux cone at polar angle θ R = 80.7° with respect to the proton beam, a gamma-ray detector with a nitrogen rich detection medium; (iii) screening the object with a gamma-ray beam from said source; (iv) reading from said gamma-ray detector total and non-resonant attenuations of incident photon flux; (v) deriving from said attenuations a net resonant attenuation and spatial distribution thereof; and (vi) determining a status of said inspected object based on a nitrogen-density distribution derived from said net resonant attenuation and said spatial distribution thereof;
A system for improving a drilling speed by using drill string vibration, comprising: a downhole drill string vibration-reduction and supercharging device, and an ultra-high pressure bit device used for a downhole supercharger; said downhole drill string vibration-reduction and supercharging device comprises a high-pressure flow channel; said ultra-high pressure bit device used for the downhole supercharger comprises an ultra-high pressure drilling fluid transmission flow channel; said ultra-high pressure drilling fluid transmission flow channel comprises an ultra-high pressure drilling fluid flow channel, a high-pressure resisting hose and a high-pressure resisting rigid tube; said high-pressure flow channel is connected to the ultra-high pressure drilling fluid flow channel; one end of said high-pressure resisting hose is connected to the ultra-high pressure drilling fluid flow channel, and the other end of said high-pressure resisting hose is connected to the high-pressure resisting rigid tube; and the other end of said high-pressure resisting rigid tube is connected to an ultra-high pressure drilling fluid nozzle, the drill bit further comprising a common pressure nozzle, wherein, the downhole drill string vibration-reduction and supercharging device further comprises: an upper transition joint, a spring (4, 41), an upper plugging joint of the spring (4, 41), a spring outer case, a lower plugging joint of the spring (4, 41), a central shaft having a shunt mechanism, a splined outer sleeve, a piston shaft, a locking nut, an inlet one-way valve (10, 37), a sealing assembly, a supercharging cylinder, a supercharging cylinder centralizing sleeve, a supercharging cylinder outer sleeve, an outlet one-way valve (15, 38) and a lower transition joint; the upper transition joint, the upper plugging joint of the spring (4, 41), the central shaft, the piston shaft and the inlet one-way valve (10, 37) are joined together into an integral; the central shaft engages with the splined outer sleeve to transmit the torque and allow the central shaft to move up and down; the central shaft connects with the piston shaft via thread and gets locked by the locking nut; the spring outer case, the lower plugging joint of the spring (4, 41), the splined outer sleeve, the supercharging cylinder outer sleeve and the lower transition joint are joined together into an integral; the spring (4, 41) is positioned within the spring outer case; the supercharging cylinder is fixed within the supercharging cylinder centralizing sleeve; the supercharging cylinder centralizing sleeve is positioned within the supercharging cylinder outer sleeve; the sealing assembly is positioned at one side where the supercharging cylinder contacts with the piston shaft; the outlet one-way valve (15, 38) connecting the high-pressure flow channel is positioned at the other side of the supercharging cylinder.