mhurhangee/patent-ind-claim-en huggingface dataset:
A solder paste for use with a reducing gas during soldering, essentially consisting of: a solder powder; a thixotropic agent that is solid at normal temperature, wherein the thixotropic agent is one or more of: a compound containing an amide bond, a compound containing a polyamide obtained by condensation polymerization of a diamine with a dicarboxylic acid, sorbitol, a benzylidene sorbitol, hardened castor oil, beeswax and carnauba wax; and a solvent for dispersing the solder powder and thixotropic agent, imparting a structural viscosity to gelate the solder paste, and allowing viscosity adjustment, wherein percentage compositions of the solder powder, the thixotropic agent and the solvent are 80 to 99% by mass of the solder powder, 0.1 to 2% by mass of the thixotropic agent and 0.9 to 18% by mass of the solvent, the solder paste is free of reducing agents for removal of oxide films and free of activators for improvement of reducibility, and the solvent shows a weight loss of 25% or more at a rate of temperature increase of 10°C/min in thermogravimetry (TG) under normal pressure at 180°C. a solder powder; a thixotropic agent that is solid at normal temperature, wherein the thixotropic agent is one or more of: a compound containing an amide bond, a compound containing a polyamide obtained by condensation polymerization of a diamine with a dicarboxylic acid, sorbitol, a benzylidene sorbitol, hardened castor oil, beeswax and carnauba wax; and a solvent for dispersing the solder powder and thixotropic agent, imparting a structural viscosity to gelate the solder paste, and allowing viscosity adjustment, wherein percentage compositions of the solder powder, the thixotropic agent and the solvent are 80 to 99% by mass of the solder powder, 0.1 to 2% by mass of the thixotropic agent and 0.9 to 18% by mass of the solvent, the solder paste is free of reducing agents for removal of oxide films and free of activators for improvement of reducibility, and the solvent shows a weight loss of 25% or more at a rate of temperature increase of 10°C/min in thermogravimetry (TG) under normal pressure at 180°C.
A method performed by a first wireless communication device, the method comprising: broadcasting a first message on a first carrier, wherein the first message comprises information about a first resource pool set on the first carrier, wherein the first resource pool set comprises at least one first resource pool; transmitting a second message in the at least one first resource pool on the first carrier, wherein the second message comprises information about a second carrier and a second resource pool set on the second carrier, wherein the second resource pool set comprises at least one second resource pool; and communicating with at least one second wireless communication device in the at least one second resource pool on the second carrier. broadcasting a first message on a first carrier, wherein the first message comprises information about a first resource pool set on the first carrier, wherein the first resource pool set comprises at least one first resource pool; transmitting a second message in the at least one first resource pool on the first carrier, wherein the second message comprises information about a second carrier and a second resource pool set on the second carrier, wherein the second resource pool set comprises at least one second resource pool; and communicating with at least one second wireless communication device in the at least one second resource pool on the second carrier.
A radiation therapy treatment system to predict a radiation therapy dose, comprising: an image acquisition device to acquire one or more three-dimensional medical images; a machine-readable medium to store the one or more three-dimensional medical images, a neural network model, one or more three-dimensional anatomy maps and one or more three-dimensional dose distributions; an image processing device configured to: train the neural network model to predict a fluence map and a dose map based on one or more three-dimensional medical images and one or more three-dimensional anatomy maps, use the trained neural network model to predict a fluence map and dose map based on one or more three-dimensional medical images and one or more three-dimensional anatomy maps, wherein the fluence map depicts localized deposition of energy in a patient and the dose map depicts a radiation dose to be delivered to a patient from a radiotherapy device at a particular location; and generate a three-dimensional dose distribution based on the neural network predictions. a machine-readable medium to store the one or more three-dimensional medical images, a neural network model, one or more three-dimensional anatomy maps and one or more three-dimensional dose distributions; an image processing device configured to: train the neural network model to predict a fluence map and a dose map based on one or more three-dimensional medical images and one or more three-dimensional anatomy maps, use the trained neural network model to predict a fluence map and dose map based on one or more three-dimensional medical images and one or more three-dimensional anatomy maps, wherein the fluence map depicts localized deposition of energy in a patient and the dose map depicts a radiation dose to be delivered to a patient from a radiotherapy device at a particular location; and generate a three-dimensional dose distribution based on the neural network predictions. train the neural network model to predict a fluence map and a dose map based on one or more three-dimensional medical images and one or more three-dimensional anatomy maps, use the trained neural network model to predict a fluence map and dose map based on one or more three-dimensional medical images and one or more three-dimensional anatomy maps, wherein the fluence map depicts localized deposition of energy in a patient and the dose map depicts a radiation dose to be delivered to a patient from a radiotherapy device at a particular location; and generate a three-dimensional dose distribution based on the neural network predictions.
A video decoding method, comprising: decoding information on a quantization matrix (S1410) (S1420); reconstructing a quantization matrix based on the information on the quantization matrix (S1440); generating a residual block for a current block based on the reconstructed quantization matrix; generating a prediction block for the current block; and reconstructing the current block based on the residual block and the prediction block, wherein the information on the quantization matrix includes information indicating a prediction method of the quantization matrix (S1430) and further includes, based on the information indicating a prediction method of the quantization matrix, information representing a difference value between quantization matrix coefficients, wherein the reconstructing of the quantization matrix is characterized by including deriving a quantization matrix coefficient by using the information representing a difference value between the quantization matrix coefficients; and arranging the quantization matrix coefficients in the quantization matrix by up-right diagonally scanning the quantization matrix coefficients, wherein the up-right diagonally scanning arranges the quantization matrix coefficients along every up-right diagonal lines in the quantization matrix one by one from top-left to bottom-right direction, and starting from a lower-left position to an upper-right position for each up-right diagonal line. decoding information on a quantization matrix (S1410) (S1420); reconstructing a quantization matrix based on the information on the quantization matrix (S1440); generating a residual block for a current block based on the reconstructed quantization matrix; generating a prediction block for the current block; and reconstructing the current block based on the residual block and the prediction block, wherein the information on the quantization matrix includes information indicating a prediction method of the quantization matrix (S1430) and further includes, based on the information indicating a prediction method of the quantization matrix, information representing a difference value between quantization matrix coefficients, wherein the reconstructing of the quantization matrix is characterized by including deriving a quantization matrix coefficient by using the information representing a difference value between the quantization matrix coefficients; and arranging the quantization matrix coefficients in the quantization matrix by up-right diagonally scanning the quantization matrix coefficients, wherein the up-right diagonally scanning arranges the quantization matrix coefficients along every up-right diagonal lines in the quantization matrix one by one from top-left to bottom-right direction, and starting from a lower-left position to an upper-right position for each up-right diagonal line.
A liquid composition comprising: (a) an alpha-2-macroglobulin polypeptide (A2M) isolated from a biological sample from a mammal, wherein a concentration of the A2M present in the liquid composition is at least 5 times higher than the concentration of A2M present in the biological sample, and (b) plasma from the biological sample from the mammal; wherein the liquid composition does not elicit an immune response in the mammal. (a) an alpha-2-macroglobulin polypeptide (A2M) isolated from a biological sample from a mammal, wherein a concentration of the A2M present in the liquid composition is at least 5 times higher than the concentration of A2M present in the biological sample, and (b) plasma from the biological sample from the mammal;
A capped bisphenol polyether oligomer comprising a reactive end group, wherein the capped bisphenol polyether oligomer further comprises a repeating unit derived from: a bisphenol monomer; a benzylic dihalide, a tertiary cycloalkyl dihalide, or a combination thereof; and optionally, a branching agent; wherein the bisphenol monomer comprises a monomer of the formula or wherein, R a , R b , and R 14 are each independently a C 1-12 alkyl, C 1-12 alkoxy, or C 4-12 alkylaryl; R 15 is hydrogen, C 1-6 alkyl, or a substituted or unsubstituted phenyl; R 20 and R 21 are each independently C 1-3 alkyl or phenyl; each R f is hydrogen or both R f groups taken together with the carbon atom to which they are attached form a carbonyl group; k is an integer of 0, 1, 2, 3, 4, 5, 6, 7, 8, 9, or 10; and p, q, and j are each independently integers of 0, 1, 2, 3, or 4. a bisphenol monomer; a benzylic dihalide, a tertiary cycloalkyl dihalide, or a combination thereof; and optionally, a branching agent; wherein the bisphenol monomer comprises a monomer of the formula or wherein, R a , R b , and R 14 are each independently a C 1-12 alkyl, C 1-12 alkoxy, or C 4-12 alkylaryl; R 15 is hydrogen, C 1-6 alkyl, or a substituted or unsubstituted phenyl; R 20 and R 21 are each independently C 1-3 alkyl or phenyl; each R f is hydrogen or both R f groups taken together with the carbon atom to which they are attached form a carbonyl group; k is an integer of 0, 1, 2, 3, 4, 5, 6, 7, 8, 9, or 10; and p, q, and j are each independently integers of 0, 1, 2, 3, or 4.
Gravimetric measuring device, comprising a weighing chamber having a vertical weighing chamber wall which is designed as a support structure with cover modules which are detachably fastened thereto on the weighing chamber side and which each comprise a module front wall on the weighing chamber side and cover the support structure at least in regions, wherein the cover modules have locking cantilevers directed towards the support structure, characterized in that the locking cantilevers are provided with vertically oriented through-openings which align with corresponding openings of the support structure , wherein the cover modules are locked to the support structure by means of locking rods which penetrate the mutually aligned openings (40; 20, 22) of the cover modules and of the support structure . wherein the cover modules have locking cantilevers directed towards the support structure, characterized in that the locking cantilevers are provided with vertically oriented through-openings which align with corresponding openings of the support structure , wherein the cover modules are locked to the support structure by means of locking rods which penetrate the mutually aligned openings (40; 20, 22) of the cover modules and of the support structure .
A distributed audio speaker system comprising an audio source and a plurality of end-points , each end-point of the plurality of end-points having a speaker configured to playback the audio, an Ethernet receiver coupled to the speaker, and a power line communication, PLC, receiver coupled to the Ethernet receiver, wherein the audio source is configured to transmit the audio and the power over a common conductor to the plurality of end-points, and wherein the audio source comprises a power supply configured to generate the power, a PLC transmitter coupled to an output of the power supply, an Ethernet audio transmitter coupled to the PLC transmitter, and a master clock coupled to the PLC transmitter and the Ethernet audio transmitter, wherein the master clock is configured to generate a master clock signal for both the Ethernet audio transmitter and PLC transmitter, wherein the PLC transmitter is configured to generate a PLC encoded signal comprising the audio and to transmit the PLC encoded signal and the power over the common conductor, wherein an end-point of the plurality of endpoints is configured to receive the PLC encoded signal and the power, wherein the PLC receiver of the end-point is configured to recover the master clock signal from the PLC encoded signal to synchronize the Ethernet receiver of the end-point to the Ethernet transmitter of the audio source, wherein the PLC encoded signal comprises PLC telemetry information including PLC symbol latency and jitter, and wherein the end-point is configured to further adjust the recovered master clock signal to align with an audio sample stream of the transmitted PLC encoded signal using the telemetry information. a power supply configured to generate the power, a PLC transmitter coupled to an output of the power supply, an Ethernet audio transmitter coupled to the PLC transmitter, and
A suction device comprising a fan device for generating a suction air flow and an air conducting device having at least one flow deflection element (46; 90) comprising an inlet tube (52; 92) and an outlet tube (54; 94), wherein the outlet tube (54; 94) is oriented transversely to the inlet tube (52; 92), wherein in a transitional area between the inlet tube (52; 92) and the outlet tube (54; 94) there is arranged a sound reflector device at which sound is reflected and/or sound is absorbed, wherein the sound reflector device has a wall structure , which reflects sound, wherein the wall structure comprises a first wall , which is arranged opposite an inlet of the inlet tube (52; 92), wherein the wall structure comprises a second wall , which is oriented transversely to the first wall and adjoins the first wall toward the inlet of the inlet tube (52; 92), wherein the wall structure has a third wall , which is arranged opposite the first wall and connects the inlet tube (52; 92) to the outlet tube (54; 94), wherein the third wall is curved, wherein the inlet tube (52; 91) has a first central longitudinal axis and the outlet tube (54; 94) has a second central longitudinal axis , wherein the first central longitudinal axis and the second central longitudinal axis intersect one another at a point of intersection , which lies in the transitional area within the at least one flow deflection element (46; 90), characterized in that an inner radius (R) of the third wall is greater than half the hydraulic diameter of the inlet tube (52; 92).
A capacity control valve (V) for controlling a flow rate by energization of a solenoid , comprising: a valve housing formed with a discharge port through which discharge fluid with a discharge pressure (Pd) passes, a suction port through which suction fluid with a suction pressure (Ps) passes, and first and second control ports through which control fluid with a control pressure (Pc) passes; a rod arranged in the valve housing and driven by the solenoid ; a CS valve configured to control a fluid flow between the first control port and the suction port in accordance with a movement of the rod ; and a DC valve configured to control a fluid flow between the second control port and the discharge port in accordance with the movement of the rod , characterized in that in a non-energization state of the solenoid , the CS valve is closed and the DC valve is opened, wherein as the energization of the solenoid becomes larger, the CS valve transitions from a closed state to an open state, and the DC valve is throttled from an open state and thereafter transitions to the open state, and wherein in a maximum current state of the solenoid , the CS valve is opened and the DC valve is opened. a valve housing formed with a discharge port through which discharge fluid with a discharge pressure (Pd) passes, a suction port through which suction fluid with a suction pressure (Ps) passes, and first and second control ports through which control fluid with a control pressure (Pc) passes; a rod arranged in the valve housing and driven by the solenoid ; a CS valve configured to control a fluid flow between the first control port and the suction port in accordance with a movement of the rod ; and a DC valve configured to control a fluid flow between the second control port and the discharge port in accordance with the movement of the rod , characterized in that in a non-energization state of the solenoid , the CS valve is closed and the DC valve is opened, wherein as the energization of the solenoid becomes larger, the CS valve transitions from a closed state to an open state, and the DC valve is throttled from an open state and thereafter transitions to the open state, and wherein in a maximum current state of the solenoid , the CS valve is opened and the DC valve is opened.
A medical device (100; 100a, 100b), comprising a container receiver unit configured to receive and hold a container , the container accommodating a pharmaceutical product and comprising a first communication tag configured to store information regarding the pharmaceutical product ; a reader unit configured to wirelessly read the information from the first communication tag ; a control unit configured to control the medical device based on the information read from the first communication tag ; and a second communication tag provided in a fixed manner in the medical device and configured to wirelessly receive and store information regarding debugging of the medical device , wherein the reader unit is configured to wirelessly read the information stored in the second communication tag , and the control unit is configured to control the medical device (100; 100a, 100b) based on the information read from the second communication tag , wherein the information is used to enter the medical device (100; 100a, 100b) into a debug mode, characterized in that the debug mode is a mode for calibrating sensors in the medical device or a mode for checking an angular detection ability of the first communication tag by the reader unit . a container receiver unit configured to receive and hold a container , the container accommodating a pharmaceutical product and comprising a first communication tag configured to store information regarding the pharmaceutical product ; a reader unit configured to wirelessly read the information from the first communication tag ; a control unit configured to control the medical device based on the information read from the first communication tag ; and a second communication tag provided in a fixed manner in the medical device and configured to wirelessly receive and store information regarding debugging of the medical device , wherein the reader unit is configured to wirelessly read the information stored in the second communication tag , and the control unit is configured to control the medical device (100; 100a, 100b) based on the information read from the second communication tag , wherein the information is used to enter the medical device (100; 100a, 100b) into a debug mode, characterized in that the debug mode is a mode for calibrating sensors in the medical device or a mode for checking an angular detection ability of the first communication tag by the reader unit .
An invasive medical device comprising: a device portion for inserting into a patient, said device portion including a functional module ; an electrically conductive path extending through the invasive medical device and connecting to the functional module; and a deformable switch within the device portion arranged to alter the electrical impedance of said conductive path as a function of a degree of deformation of the switch, said deformation being caused by a blood parameter of the patient's blood that varies during the cardiac cycle of said patient. a device portion for inserting into a patient, said device portion including a functional module ; an electrically conductive path extending through the invasive medical device and connecting to the functional module; and a deformable switch within the device portion arranged to alter the electrical impedance of said conductive path as a function of a degree of deformation of the switch, said deformation being caused by a blood parameter of the patient's blood that varies during the cardiac cycle of said patient.
An enclosure system for a footwear article , which includes a lateral side , a medial side , an inferior side, and a superior side , the enclosure system comprising: a first strand anchor point (42A-D, 142A-D, 242A-D) on the lateral side of the footwear article, the first strand anchor point configured to receive a lace element ; a second strand anchor point (44A-D, 144A-D, 244A-D) on the medial side of the footwear article, the second strand anchor point (44A-D, 144A-D, 244A-D) configured to receive a second strand element (30A-D, 130A-D, 230A-D); the second strand element (30A-D, 130A-D, 230A-D) extending from the lateral side of the footwear article to the medial side of the footwear by traversing the superior side of the footwear article, the second strand element interlooping with the second strand anchor point (44A-D, 144A-D, 244A-D) to form a third strand anchor point (48A-D, 48A-D, 248A-D) on the medial side ; and the lace element threading between the first strand anchor point on the lateral side and the third strand anchor point (48A-D, 148A-D, 248A-D) on the medial side , wherein an amount of tension applied to the second strand element (30A-D, 130A-D, 230A-D) is adjustable by changing an amount of tension applied to the lace element . a first strand anchor point (42A-D, 142A-D, 242A-D) on the lateral side of the footwear article, the first strand anchor point configured to receive a lace element ; a second strand anchor point (44A-D, 144A-D, 244A-D) on the medial side of the footwear article, the second strand anchor point (44A-D, 144A-D, 244A-D) configured to receive a second strand element (30A-D, 130A-D, 230A-D); the second strand element (30A-D, 130A-D, 230A-D) extending from the lateral side of the footwear article to the medial side of the footwear by traversing the superior side of the footwear article, the second strand element interlooping with the second strand anchor point (44A-D, 144A-D, 244A-D) to form a third strand anchor point (48A-D, 48A-D, 248A-D) on the medial side ; and the lace element threading between the first strand anchor point on the lateral side and the third strand anchor point (48A-D, 148A-D, 248A-D) on the medial side , wherein an amount of tension applied to the second strand element (30A-D, 130A-D, 230A-D) is adjustable by changing an amount of tension applied to the lace element .