mhurhangee/patent-ind-claim-en huggingface dataset:
A container comprising: a receptacle with an open upper end for receiving material; a lid that is movably supported relative to the receptacle , the lid being movable between a closed condition, in which the lid at least partially covers the open end of the receptacle , and an open condition, in which the lid is moved so as to provide access to the open end of the receptacle ; a sidewall that is spaced from and movably supported relative to the receptacle , the sidewall being movable between a first position, in which the sidewall is spaced a first distance from the receptacle , and a second position, in which the sidewall is spaced a second distance from the receptacle , the first distance being greater than the second distance; and an actuation mechanism that is configured to effect movement of the lid from the closed condition to the open condition upon movement of the sidewall from the first position to the second position; characterized in that : the receptacle comprises a camming surface and the lid comprises a cam surface that is positioned between the camming surface and the sidewall ; wherein the container is configured such that, when the sidewall is moved from the first position to the second position, the cam surface engages with the camming surface to pivot the lid from the closed condition to the open condition. a receptacle with an open upper end for receiving material; a lid that is movably supported relative to the receptacle , the lid being movable between a closed condition, in which the lid at least partially covers the open end of the receptacle , and an open condition, in which the lid is moved so as to provide access to the open end of the receptacle ; a sidewall that is spaced from and movably supported relative to the receptacle , the sidewall being movable between a first position, in which the sidewall is spaced a first distance from the receptacle , and a second position, in which the sidewall is spaced a second distance from the receptacle , the first distance being greater than the second distance; and an actuation mechanism that is configured to effect movement of the lid from the closed condition to the open condition upon movement of the sidewall from the first position to the second position; characterized in that : the receptacle comprises a camming surface and the lid comprises a cam surface that is positioned between the camming surface and the sidewall ; wherein the container is configured such that, when the sidewall is moved from the first position to the second position, the cam surface engages with the camming surface to pivot the lid from the closed condition to the open condition. the receptacle comprises a camming surface and the lid comprises a cam surface that is positioned between the camming surface and the sidewall ; wherein the container is configured such that, when the sidewall is moved from the first position to the second position, the cam surface engages with the camming surface to pivot the lid from the closed condition to the open condition.
A drone network comprising: a first drone comprising a first receiver , a first transmitter , and a first processor ; and a second drone positionable a distance from the first drone , the second drone comprising a second receiver , a second transmitter , and a second processor , wherein the first transmitter is configured to emit a signal towards the second drone for reception at the second receiver , and the second processor is configured to determine a minimum signal power for the signal to be processed at the second drone , wherein the second transmitter is configured to emit a return signal towards the first drone for reception at the first receiver , the return signal containing minimum signal power data as determined by the second processor , and the first processor is configured to modulate the power of signals to be emitted towards the second drone from the first transmitter based on the minimum signal power data, wherein the second processor is further configured to determine an excess signal power contained in the signal based on a difference between a power of the signal and the minimum signal power, the second drone further comprising an energy collection subsystem configured to collect and store the excess signal power within the second drone . a first drone comprising a first receiver , a first transmitter , and a first processor ; and a second drone positionable a distance from the first drone , the second drone comprising a second receiver , a second transmitter , and a second processor , wherein the first transmitter is configured to emit a signal towards the second drone for reception at the second receiver , and the second processor is configured to determine a minimum signal power for the signal to be processed at the second drone , wherein the second transmitter is configured to emit a return signal towards the first drone for reception at the first receiver , the return signal containing minimum signal power data as determined by the second processor , and the first processor is configured to modulate the power of signals to be emitted towards the second drone from the first transmitter based on the minimum signal power data, wherein the second processor is further configured to determine an excess signal power contained in the signal based on a difference between a power of the signal and the minimum signal power, the second drone further comprising an energy collection subsystem configured to collect and store the excess signal power within the second drone .
An electrode assembly for a lithium secondary battery comprising: a plurality of negative electrodes having a negative electrode mixture laminated on both sides of a negative electrode current collector ; a plurality of positive electrodes having a positive electrode mixture laminated on both sides of a positive electrode current collector ; and a separator provided between the negative electrode and the positive electrode, wherein the negative electrodes or positive electrodes are successively stacked on the separator, wherein the negative electrode mixture is a lithium metal sheet, wherein the negative electrode current collector has an area of from 95% to 97% with respect to the area of the lithium negative electrode mixture, wherein the area of the negative electrode current collector refers to the area of a horizontal surface that is in contact with the lithium negative electrode mixture, and wherein the lithium metal sheets laminated on both sides of the negative electrode current collector adjoin each other, except for the region corresponding to the negative electrode current collector, to form a sealed structure which encases the negative electrode current collector. a plurality of negative electrodes having a negative electrode mixture laminated on both sides of a negative electrode current collector ; a plurality of positive electrodes having a positive electrode mixture laminated on both sides of a positive electrode current collector ; and a separator provided between the negative electrode and the positive electrode, wherein the negative electrodes or positive electrodes are successively stacked on the separator, wherein the negative electrode mixture is a lithium metal sheet, wherein the negative electrode current collector has an area of from 95% to 97% with respect to the area of the lithium negative electrode mixture, wherein the area of the negative electrode current collector refers to the area of a horizontal surface that is in contact with the lithium negative electrode mixture, and wherein the lithium metal sheets laminated on both sides of the negative electrode current collector adjoin each other, except for the region corresponding to the negative electrode current collector, to form a sealed structure which encases the negative electrode current collector.
An apparatus, comprising: an interface configured to communicate with a plurality of devices; control logic coupled with the interface; wherein the control logic is configured to advertise availability of a data stream and a plurality of forward error correction streams associated with the data stream via the interface; characterized in that the control logic is further configured to receive data representative of forward error correction from each of the plurality of devices requesting the data stream via the interface; wherein the control logic is configured to determine from the data representative of forward error correction a minimal amount of forward error correction streams that enables all of the plurality of devices to process the data stream; and wherein the control logic is configured to limit forwarding of the associated forward error correction streams via the interface to the minimal amount of forward error correction streams that enables all of the plurality of devices to process the data stream. an interface configured to communicate with a plurality of devices; control logic coupled with the interface; wherein the control logic is configured to advertise availability of a data stream and a plurality of forward error correction streams associated with the data stream via the interface; characterized in that the control logic is further configured to receive data representative of forward error correction from each of the plurality of devices requesting the data stream via the interface; wherein the control logic is configured to determine from the data representative of forward error correction a minimal amount of forward error correction streams that enables all of the plurality of devices to process the data stream; and wherein the control logic is configured to limit forwarding of the associated forward error correction streams via the interface to the minimal amount of forward error correction streams that enables all of the plurality of devices to process the data stream.
An anti-PD-L1 antagonist antibody or antigen-binding fragment thereof and an anti-TIGIT antagonist antibody or antigen-binding fragment thereof for use as a medicament.
A compound of the formula where R 1 and R 2 are each H, or a pharmaceutically acceptable salt thereof.
A crystal form A of compound 1, wherein the crystal form A of compound 1 has an X-ray powder diffraction pattern comprising characteristic diffraction peaks at angle 2θ of 7.16 ± 0.2°, 17.98 ± 0.2°, and 22.30±0.2°;
A method for increasing the light emission produced by the chemiluminescent reaction of 8-amino-5-chloro-7-phenylpyrido[3,4-d]pyridazine-1,4 -dione, a peroxidase enzyme or a conjugate thereof, an enhancer, a co-enhancer and a peroxide oxidizer, wherein the enhancer is an anionic N-alkylphenothiazine and wherein the method comprises the following steps: i. preparing a chemiluminescent substrate by means of mixing together 8-amino-5-chloro-7-phenylpyrido[3,4-d]pyridazine-1,4 -dione, the enhancer, the co-enhancer and the peroxide oxidizer, and ii. adding the peroxidase enzyme or a conjugate thereof to the chemiluminescent substrate, wherein the co-enhancer is selected among imidazole, 1-methylimidazole, 4-morpholinopyridine (MORP), 4-dimethylaminopyridine (DMAP) and 4-pyrrolidinopyridine (PPY), wherein the concentration of the chemiluminescent compound, 8-amino-5-chloro-7-phenylpyrido[3,4-d]pyridazine-1,4 -dione, in the chemiluminescent substrate is comprised between 0.01 mM and 1 mM and wherein the pH of the chemiluminescent substrate is comprised between 6.0 and 7.9. wherein the method comprises the following steps: i. preparing a chemiluminescent substrate by means of mixing together 8-amino-5-chloro-7-phenylpyrido[3,4-d]pyridazine-1,4 -dione, the enhancer, the co-enhancer and the peroxide oxidizer, and ii. adding the peroxidase enzyme or a conjugate thereof to the chemiluminescent substrate, i. preparing a chemiluminescent substrate by means of mixing together 8-amino-5-chloro-7-phenylpyrido[3,4-d]pyridazine-1,4 -dione, the enhancer, the co-enhancer and the peroxide oxidizer, and ii. adding the peroxidase enzyme or a conjugate thereof to the chemiluminescent substrate, wherein the co-enhancer is selected among imidazole, 1-methylimidazole, 4-morpholinopyridine (MORP), 4-dimethylaminopyridine (DMAP) and 4-pyrrolidinopyridine (PPY), wherein the concentration of the chemiluminescent compound, 8-amino-5-chloro-7-phenylpyrido[3,4-d]pyridazine-1,4 -dione, in the chemiluminescent substrate is comprised between 0.01 mM and 1 mM and wherein the pH of the chemiluminescent substrate is comprised between 6.0 and 7.9.
An apparatus for producing powder particles by plasma atomization of a feed material in the form of an elongated member, comprising: a) a plasma torch including: an injection probe for receiving the feed material ; and an atomization nozzle configured to: receive a forward portion of the feed material from the injection probe , be supplied with plasma, produce one or more plasma jets, and melt a surface of a forward end of the feed material by exposure to the one or more plasma jets; wherein the one or more plasma jets are selected from an annular plasma jet and a combination of an annular plasma jet and a plurality of converging plasma jets, the atomization nozzle comprising a central aperture for receiving the forward end of the feed material and an internal face tapering off toward the central aperture ; b) a cooling chamber mounted to the plasma torch downstream of the atomization nozzle . a) a plasma torch including: an injection probe for receiving the feed material ; and an atomization nozzle configured to: receive a forward portion of the feed material from the injection probe , be supplied with plasma, produce one or more plasma jets, and melt a surface of a forward end of the feed material by exposure to the one or more plasma jets; wherein the one or more plasma jets are selected from an annular plasma jet and a combination of an annular plasma jet and a plurality of converging plasma jets, the atomization nozzle comprising a central aperture for receiving the forward end of the feed material and an internal face tapering off toward the central aperture ; b) a cooling chamber mounted to the plasma torch downstream of the atomization nozzle .
An apparatus comprising: decode means to decode an instance of a single instruction having one or more fields for an opcode, one or more fields to identify a source/destination matrix operand, one or more fields to identify a first plurality of source matrix operands , wherein elements of the first plurality of source matrix operands are in an 8-bit integer format, one or more fields to identify a second plurality of matrix operands , wherein the opcode is to indicate that execution means is to select a proper subset of data elements from the first plurality of source matrix operands based on sparsity controls from a first matrix operand of the second plurality of matrix operands, wherein the sparsity controls are to select four data elements from the first plurality of source matrix operands per row, for each element position of the source/destination matrix operand, convert pairs of elements, as selected, from a row of the first source matrix operands and pairs of elements from a column of one of the second source matrix operands to FP32, multiply converted even elements from the two specified source matrix operands to generate a first product and separately multiply converted odd elements from the specified source matrix operands to generate second product, and accumulate the first and second products with previous contents of the source/destination matrix operand; and execution means to respond to the decoded instruction as specified by the opcode. decode means to decode an instance of a single instruction having one or more fields for an opcode, one or more fields to identify a source/destination matrix operand, one or more fields to identify a first plurality of source matrix operands , wherein elements of the first plurality of source matrix operands are in an 8-bit integer format, one or more fields to identify a second plurality of matrix operands , wherein the opcode is to indicate that execution means is to select a proper subset of data elements from the first plurality of source matrix operands based on sparsity controls from a first matrix operand of the second plurality of matrix operands, wherein the sparsity controls are to select four data elements from the first plurality of source matrix operands per row, for each element position of the source/destination matrix operand, convert pairs of elements, as selected, from a row of the first source matrix operands and pairs of elements from a column of one of the second source matrix operands to FP32, multiply converted even elements from the two specified source matrix operands to generate a first product and separately multiply converted odd elements from the specified source matrix operands to generate second product, and accumulate the first and second products with previous contents of the source/destination matrix operand; and execution means to respond to the decoded instruction as specified by the opcode.
A solar cell assembly comprising: two or more solar cell units coupled in series, wherein each solar cell unit comprises a first solar cell series and a second solar cell series coupled in parallel, characterized in that the first and second solar cell series each including a plurality of half-cut solar cells connecting in series respectively; and a by-pass diode coupled to each solar cell unit, wherein the by-pass diode is coupled in parallel with the first solar cell series and second solar cell series respectively, a plurality of junction boxes, each junction box comprising exactly one of the by-pass diodes, wherein the solar cell assembly is a solar cell module or a portion of a solar cell module, wherein the solar cell series are coupled with the by-pass diodes via cross-connectors, the cross-connectors of all the solar cell units being combined as a single row central cross-connector assembly that is placed substantially in a centre line of the solar cell assembly, and wherein the junction boxes are placed substantially in a centre line of the solar cell assembly. two or more solar cell units coupled in series, wherein each solar cell unit comprises a first solar cell series and a second solar cell series coupled in parallel, characterized in that the first and second solar cell series each including a plurality of half-cut solar cells connecting in series respectively; and a by-pass diode coupled to each solar cell unit, wherein the by-pass diode is coupled in parallel with the first solar cell series and second solar cell series respectively, a plurality of junction boxes, each junction box comprising exactly one of the by-pass diodes, wherein the solar cell assembly is a solar cell module or a portion of a solar cell module, wherein the solar cell series are coupled with the by-pass diodes via cross-connectors, the cross-connectors of all the solar cell units being combined as a single row central cross-connector assembly that is placed substantially in a centre line of the solar cell assembly, and wherein the junction boxes are placed substantially in a centre line of the solar cell assembly.
A method of wireless communication, comprising: communicating , by a first wireless communication device with a second wireless communication device, a reservation request, RRQ, signal to reserve a transmission opportunity, TXOP , in a shared spectrum, wherein the shared spectrum is shared by a plurality of network operating entities, and wherein the first wireless communication device and the second wireless communication device are associated with a first network operating entity of the plurality of network operating entities and wherein the communicating includes transmitting, by the first wireless communication device to the second wireless communication device, the RRQ signal ; and transmitting , by the first wireless communication device during the TXOP in response to the RRQ signal , a reservation response, RRS, signal indicating an interference tolerance level of the first wireless communication device. communicating , by a first wireless communication device with a second wireless communication device, a reservation request, RRQ, signal to reserve a transmission opportunity, TXOP , in a shared spectrum, wherein the shared spectrum is shared by a plurality of network operating entities, and wherein the first wireless communication device and the second wireless communication device are associated with a first network operating entity of the plurality of network operating entities and wherein the communicating includes transmitting, by the first wireless communication device to the second wireless communication device, the RRQ signal ; and transmitting , by the first wireless communication device during the TXOP in response to the RRQ signal , a reservation response, RRS, signal indicating an interference tolerance level of the first wireless communication device.
A device (1; 101; 201) for providing a therapy to a patient , said device comprising: a memory for storing a plurality of programmable waveform shape templates; a waveform generator for retrieving one of the waveform shape templates from the memory and generating a first waveform portion having a desired shape according to the retrieved waveform shape template, wherein said waveform generator has an input for receiving a scaling factor; said waveform generator being configured to use said scaling factor for generating a second waveform portion being a scaled version of the first waveform portion, characterized in that the second waveform portion is scaled by 1/k times the first portion in an amplitude and scaled by k times the first portion in a period, with k integer equal or greater than 2, and said device outputs a plurality of stimulation pulses, wherein each single stimulation pulse comprises both said first waveform portion and said second waveform portion for stimulating a stimulation region of the patient . a memory for storing a plurality of programmable waveform shape templates; a waveform generator for retrieving one of the waveform shape templates from the memory and generating a first waveform portion having a desired shape according to the retrieved waveform shape template, wherein said waveform generator has an input for receiving a scaling factor; said waveform generator being configured to use said scaling factor for generating a second waveform portion being a scaled version of the first waveform portion, characterized in that the second waveform portion is scaled by 1/k times the first portion in an amplitude and scaled by k times the first portion in a period, with k integer equal or greater than 2, and said device outputs a plurality of stimulation pulses, wherein each single stimulation pulse comprises both said first waveform portion and said second waveform portion for stimulating a stimulation region of the patient .