mhurhangee/ep-ind-claims huggingface dataset:
A tapered trunking bus for solar panels comprising: a first combiner and junction box electrically coupled to a first solar panel array (102, 104); and a second combiner and junction box (110, 310, 410, 510) electrically coupled to a second solar panel array (112, 114); a first conductor (210, 216, 322, 352, 412, 414, 512, 514, 614, 616, 618) of a first gauge configured to electrically connect the first combiner and junction box to the second combiner and junction box; characterized in that it further comprises a second conductor (212, 218, 340, 354, 422, 426, 516, 518, 628, 630, 632) of a second gauge greater than the first gauge configured to supply an output current from the second combiner and junction box (110, 310, 410, 510), wherein the output current supplied by the second junction and combiner box is greater than a current received by the second combiner and junction box over the first conductor. a first combiner and junction box electrically coupled to a first solar panel array (102, 104); and a second combiner and junction box (110, 310, 410, 510) electrically coupled to a second solar panel array (112, 114); a first conductor (210, 216, 322, 352, 412, 414, 512, 514, 614, 616, 618) of a first gauge configured to electrically connect the first combiner and junction box to the second combiner and junction box; characterized in that it further comprises a second conductor (212, 218, 340, 354, 422, 426, 516, 518, 628, 630, 632) of a second gauge greater than the first gauge configured to supply an output current from the second combiner and junction box (110, 310, 410, 510), wherein the output current supplied by the second junction and combiner box is greater than a current received by the second combiner and junction box over the first conductor.
Method for transmitting data between at least two nodes of a network, each one of said nodes being attached to at least one IP environment, known as source environment of said node, said method comprising: - a step of assigning, to at least one user agent included in one of said nodes, a fake address in an IP environment other than the source environment of this node, one of said IP environments being an IPv6 environment and the other being an IPv4 environment, and - a step of presenting at least said fake address and a source address of said user agent in said source environment when a communication is set up with at least one remote node, characterized in that said presenting step is executed by said user agent in at least one message of invitation inviting to enter into communication with said remote node and/or in at least one response message to a message of invitation to enter into communication sent by said remote node. - a step of assigning, to at least one user agent included in one of said nodes, a fake address in an IP environment other than the source environment of this node, one of said IP environments being an IPv6 environment and the other being an IPv4 environment, and - a step of presenting at least said fake address and a source address of said user agent in said source environment when a communication is set up with at least one remote node, characterized in that said presenting step is executed by said user agent in at least one message of invitation inviting to enter into communication with said remote node and/or in at least one response message to a message of invitation to enter into communication sent by said remote node.
A vehicle comprising: an operating member to be pressed by a user for operation; a wire including one end disposed closer to the operating member than an other end of the wire; a wire cover that slidably covers the wire; and an actuating section that supports one end of the wire cover closer to the one end of the wire and that moves the wire cover in a direction away from the one end of the wire in accordance with the operation to press the operating member; and a non-actuating section that supports the one end of the wire so that an operation amount of the one end of the wire with respect to a vehicle body is smaller than an operation amount of the actuating section when the operation to press the operating member is performed, a supporting section (16,17) that supports a region of the wire cover that is closer to the other end of the wire than the portion of the wire cover supported by the actuation section, characterised in that said supporting section (16, 17) fixes the wire cover to, or with respect to, the vehicle body, wherein the actuating section and the non-actuating section are configured such that moving the wire cover in a direction away from the one end of the wire in accordance with the operation to press the operating member increases a degree of curvature of the wire cover between the actuating section and the supporting section (16, 17) and pulls the other end of the wire. an operating member to be pressed by a user for operation; a wire including one end disposed closer to the operating member than an other end of the wire; a wire cover that slidably covers the wire; and an actuating section that supports one end of the wire cover closer to the one end of the wire and that moves the wire cover in a direction away from the one end of the wire in accordance with the operation to press the operating member; and a non-actuating section that supports the one end of the wire so that an operation amount of the one end of the wire with respect to a vehicle body is smaller than an operation amount of the actuating section when the operation to press the operating member is performed, a supporting section (16,17) that supports a region of the wire cover that is closer to the other end of the wire than the portion of the wire cover supported by the actuation section, characterised in that said supporting section (16, 17) fixes the wire cover to, or with respect to, the vehicle body, wherein the actuating section and the non-actuating section are configured such that moving the wire cover in a direction away from the one end of the wire in accordance with the operation to press the operating member increases a degree of curvature of the wire cover between the actuating section and the supporting section (16, 17) and pulls the other end of the wire.
A method for producing beads comprising the steps of: (i) forming a combined liquid composition and a first hydrophobic phase by combining (a) a liquid composition comprising a material capable of gelation; and (b) a first hydrophobic phase; (ii) subjecting the combined liquid composition and the first hydrophobic phase to emulsification in a first reactor by adding an external mechanical energy input of at least 100 Watt/L thereby creating an emulsion comprising individual droplets comprising the material capable of gelation in the first hydrophobic phase, wherein the material capable of gelation provides a discontinuous phase and the first hydrophobic phase provides a continuous phase; (iii) stabilising the droplets by transferring the emulsion obtained in step (ii) from the first reactor to a stabilisation reactor; and (iv) subjecting the emulsion in the stabilisation reactor to gelation conditions within 1 second or less after receiving the external mechanical energy input according to step (ii) sufficient to cause gelation of the material capable of gelation in the droplets to thereby form the beads. (i) forming a combined liquid composition and a first hydrophobic phase by combining (a) a liquid composition comprising a material capable of gelation; and (b) a first hydrophobic phase; (ii) subjecting the combined liquid composition and the first hydrophobic phase to emulsification in a first reactor by adding an external mechanical energy input of at least 100 Watt/L thereby creating an emulsion comprising individual droplets comprising the material capable of gelation in the first hydrophobic phase, wherein the material capable of gelation provides a discontinuous phase and the first hydrophobic phase provides a continuous phase; (iii) stabilising the droplets by transferring the emulsion obtained in step (ii) from the first reactor to a stabilisation reactor; and (iv) subjecting the emulsion in the stabilisation reactor to gelation conditions within 1 second or less after receiving the external mechanical energy input according to step (ii) sufficient to cause gelation of the material capable of gelation in the droplets to thereby form the beads.
Multistrand metal cord (C-1) having two layers (Ci, Ce) of J+K construction, consisting of a core comprising J strands forming an inner layer (Ci), J varying from 1 to 4, around which core are wound, in a helix, with a helix pitch P K, K outer strands forming an outer layer (Ce) around said inner layer (Ci), each outer strand: o consisting of a cord having two layers (C1, C2) of L+M construction, rubberized in situ, comprising an inner layer consisting of L wires of diameter d 1, L varying from 1 to 4, and an outer layer of M wires, M being equal to or greater than 5, of diameter d 2, which are wound together in a helix with a pitch p 2 around the inner layer; its inner layer is sheathed with a rubber composition called a "filling rubber "; each outer strand having the following characteristics (d 1, d 2 being expressed in mm): - 0.10 < d 1 < 0.50; - 0.10 < d 2 < 0.50; characterized in that each outer strand has the following characteristics (p 2 being expressed in mm): ∘ 6 < p 2 < 30; ∘ over any length of the outer strand equal to P K, the filling rubber is present in each of the capillaries delimiteddelimited by the L wires of the inner layer and the M wires of the outer layer, and also, when L is equal to 3 or 4, in the central channel delimiteddelimited by the L wires of the inner layer; and o the amount of filling rubber in said outer strand is between 5 and 40 mg per g of strand o each outer strand has no filling rubber on its periphery and in that P K is between 20 and 70 mm. o consisting of a cord having two layers (C1, C2) of L+M construction, rubberized in situ, comprising an inner layer consisting of L wires of diameter d 1, L varying from 1 to 4, and an outer layer of M wires, M being equal to or greater than 5, of diameter d 2, which are wound together in a helix with a pitch p 2 around the inner layer; its inner layer is sheathed with a rubber composition called a "filling rubber "; each outer strand having the following characteristics (d 1, d 2 being expressed in mm): - 0.10 < d 1 < 0.50; - 0.10 < d 2 < 0.50; - 0.10 < d 1 < 0.50; - 0.10 < d 2 < 0.50; ∘ 6 < p 2 < 30; ∘ over any length of the outer strand equal to P K, the filling rubber is present in each of the capillaries delimiteddelimited by the L wires of the inner layer and the M wires of the outer layer, and also, when L is equal to 3 or 4, in the central channel delimiteddelimited by the L wires of the inner layer; and o the amount of filling rubber in said outer strand is between 5 and 40 mg per g of strand o each outer strand has no filling rubber on its periphery
A method for sending a physical uplink control channel, comprising: generating a physical uplink control channel, wherein the physical uplink control channel carries a demodulation reference signal and uplink control information, the physical uplink control channel is sent on a resource element set, the resource element set occupies at least two time domain symbols in time domain, the demodulation reference signal is located on at least one time domain symbol of the resource element set, the at least one time domain symbol comprises a first time domain symbol, the demodulation reference signal occupies some but not all frequency domain subcarriers of the resource element set on the first time domain symbol, and the some but not all frequency domain subcarriers are the same as frequency domain subcarriers that are occupied by the uplink control information and that are of the resource element set; and sending the physical uplink control channel; wherein the at least one time domain symbol further comprises a second time domain symbol, and the demodulation reference signal occupies all frequency domain subcarriers of the resource element set on the second time domain symbol. generating a physical uplink control channel, wherein the physical uplink control channel carries a demodulation reference signal and uplink control information, the physical uplink control channel is sent on a resource element set, the resource element set occupies at least two time domain symbols in time domain, the demodulation reference signal is located on at least one time domain symbol of the resource element set, the at least one time domain symbol comprises a first time domain symbol, the demodulation reference signal occupies some but not all frequency domain subcarriers of the resource element set on the first time domain symbol, and the some but not all frequency domain subcarriers are the same as frequency domain subcarriers that are occupied by the uplink control information and that are of the resource element set; and sending the physical uplink control channel; wherein the at least one time domain symbol further comprises a second time domain symbol, and the demodulation reference signal occupies all frequency domain subcarriers of the resource element set on the second time domain symbol.
Endovascular medical device, wherein at least parts of the medical device are coated and the coating comprises a functional layer containing saccharides and wherein the medical device is an implant intended to remain in the body permanently, characterised in that the functional layer contains peptide sequences with integrin-binding motifs.
A switching mode power supply (SMPS), comprising: a) at least one power transistor configured to control the flow of energy to an inductor via a switching node; b) a time off estimator configured to predict an off-time (tf) when the flow of energy is turned off in a clock cycle and awaiting the next clock cycle, the prediction being based on the input voltage, the output voltage (VoUT) and the charge time (tr) and discharge time (tf) of a capacitor which is used in the time off estimator to mimic the inductor of the switching mode power supply (SMPS); c) an adaptive controller configured to provide feedback to the time off estimator by sensing overshoot or undershoot of the voltage at the switching node above or below the supply rails of the switching mode power supply (SMPS), to adjust a reference offset voltage (VrefOffset) across a reference capacitor (Cref) based on the input voltage and an offset voltage (offset1), to determine the best turn off setting to avoid power signal spikes caused by turn off time (tf) being too long, or truncation of the signal because the energy from the reactive device is terminated too soon; and d) a zero crossing comparator receiving as inputs a voltage (vCap) of the capacitor connected to the time off estimator and a reference voltage (vRef), which is the sum of a starting reference voltage (vRef0) and the reference offset voltage (vRefOffset), and outputting a trigger signal (ZComp) for the switching mode power supply (SMPS)." a) at least one power transistor configured to control the flow of energy to an inductor via a switching node; b) a time off estimator configured to predict an off-time (tf) when the flow of energy is turned off in a clock cycle and awaiting the next clock cycle, the prediction being based on the input voltage, the output voltage (VoUT) and the charge time (tr) and discharge time (tf) of a capacitor which is used in the time off estimator to mimic the inductor of the switching mode power supply (SMPS); c) an adaptive controller configured to provide feedback to the time off estimator by sensing overshoot or undershoot of the voltage at the switching node above or below the supply rails of the switching mode power supply (SMPS), to adjust a reference offset voltage (VrefOffset) across a reference capacitor (Cref) based on the input voltage and an offset voltage (offset1), to determine the best turn off setting to avoid power signal spikes caused by turn off time (tf) being too long, or truncation of the signal because the energy from the reactive device is terminated too soon; and d) a zero crossing comparator receiving as inputs a voltage (vCap) of the capacitor connected to the time off estimator and a reference voltage (vRef), which is the sum of a starting reference voltage (vRef0) and the reference offset voltage (vRefOffset), and outputting a trigger signal (ZComp) for the switching mode power supply (SMPS)."
A curable composition for lens formation, the curable composition comprising: a cycloaliphatic epoxide represented by Formula (a); a cationic-polymerization initiator; a polysiloxane represented by Formula (c), a siloxane compound containing two or more epoxy groups per molecule and a cationically curable compound containing one or more oxetane groups per molecule, excluding compounds belonging to the cycloaliphatic epoxide and the siloxane compound, the curable composition containing the polysiloxane in an amount of 0.01% to 5% by weight based on the total amount (100% by weight) of the curable composition, Formulae (a) and (c) expressed as follows: wherein: R 1 to R 18 are each, identically or differently, selected from hydrogen, halogen, a hydrocarbon group which may contain oxygen or halogen, and optionally substituted alkoxy; and X is selected from a single bond and a linkage group excluding a siloxane-bond-containing group, wherein: R 19 to R 22 each represent, identically or differently in each occurrence, a group selected from hydrogen, alkyl, haloalkyl, aryl, aralkyl, alkoxy, acyloxy, and -RNHCOR', where R is selected from alkylene and alkenylene, and R' is selected from alkyl and alkenyl; and m and n each represent, identically or differently, an integer of 1 or more. a cycloaliphatic epoxide represented by Formula (a); a cationic-polymerization initiator; a polysiloxane represented by Formula (c), a siloxane compound containing two or more epoxy groups per molecule and a cationically curable compound containing one or more oxetane groups per molecule, excluding compounds belonging to the cycloaliphatic epoxide and the siloxane compound, R 1 to R 18 are each, identically or differently, selected from hydrogen, halogen, a hydrocarbon group which may contain oxygen or halogen, and optionally substituted alkoxy; and X is selected from a single bond and a linkage group excluding a siloxane-bond-containing group, R 19 to R 22 each represent, identically or differently in each occurrence, a group selected from hydrogen, alkyl, haloalkyl, aryl, aralkyl, alkoxy, acyloxy, and -RNHCOR', where R is selected from alkylene and alkenylene, and R' is selected from alkyl and alkenyl; and m and n each represent, identically or differently, an integer of 1 or more.
Method for conducting traffic on a rail network which is fitted with a train control system and is connected to a train maintenance facility, wherein during maintenance of a train, train operating status information is automatically transmitted from the respective train being maintained to the train control system, characterised in that during the maintenance of the train, facility operating status information is automatically transmitted from the train maintenance facility to the train control system and movement control signals are automatically transmitted to the train and maintenance process signals are automatically transmitted to the train maintenance facility by the train control system.
An endpoint element of a distributed antenna system having multiple endpoints (18, 20) coupled together by serial data links, wherein an endpoint is either a remote antenna unit or a master unit, comprising: processing circuitry configured for processing a plurality of digital signals (r1, r2) at one endpoint for conditioning the signals (r1, r2); circuitry configured for evaluating similarities between at least first and second signals of the digital signals (r1, r2) and forming a similarity value indicative of similarities between the first and second signals (r1, r2); threshold circuitry configured for comparing the similarity value to a threshold value; signal transmission circuitry coupled with the threshold circuitry and configured for transmitting the first and second digital signals (r1, r2) to another endpoint over a serial data link if the similarity value does not compare favorably to the threshold value; the signal transmission circuitry further configured for only transmitting the first digital signal as a representative signal for both the first and second digital signals (r1, r2) to another endpoint over the serial data link if the similarity value compares favorably to the threshold value. processing circuitry configured for processing a plurality of digital signals (r1, r2) at one endpoint for conditioning the signals (r1, r2); circuitry configured for evaluating similarities between at least first and second signals of the digital signals (r1, r2) and forming a similarity value indicative of similarities between the first and second signals (r1, r2); threshold circuitry configured for comparing the similarity value to a threshold value; signal transmission circuitry coupled with the threshold circuitry and configured for transmitting the first and second digital signals (r1, r2) to another endpoint over a serial data link if the similarity value does not compare favorably to the threshold value; the signal transmission circuitry further configured for only transmitting the first digital signal as a representative signal for both the first and second digital signals (r1, r2) to another endpoint over the serial data link if the similarity value compares favorably to the threshold value.
Method for calibrating a distance sensor which is placed on an agricultural vehicle, the distance sensor being provided for the purpose of measuring the distance between the sensor and a set of points on a ground surface in front of the agricultural vehicle, the agricultural vehicle, or an implement attached to the rear of the agricultural vehicle has an inlet sensor wherein the method comprises the following steps of: - performing a reference measurement when the agricultural vehicle is standing on a paved and substantially flat ground surface; - processing the results of the reference measurement to reference data for use as reference during further measurements; - storing the reference data in a memory; - moving the agricultural vehicle forward at a speed; - registering a first moment in time at which the distance sensor detects a predetermined pattern relative to the reference data via the distance sensor; - registering a second moment in time at which the inlet sensor measures a predetermined value; - determining a time period which is a difference between the first and second moment in time; - determining a distance by multiplying the time period by the speed; - storing said distance in the memory. - performing a reference measurement when the agricultural vehicle is standing on a paved and substantially flat ground surface; - processing the results of the reference measurement to reference data for use as reference during further measurements; - storing the reference data in a memory; - moving the agricultural vehicle forward at a speed; - registering a first moment in time at which the distance sensor detects a predetermined pattern relative to the reference data via the distance sensor; - registering a second moment in time at which the inlet sensor measures a predetermined value; - determining a time period which is a difference between the first and second moment in time; - determining a distance by multiplying the time period by the speed; - storing said distance in the memory.