mhurhangee/patent-ind-claim-en huggingface dataset:
A method comprising: writing by a host computer system, a plurality of weight matrices to a memory shared with a neural network accelerator; assembling a plurality of per-layer instructions into an instruction package by the host computer system, each per-layer instruction specifying processing of a respective layer of a plurality of layers of a neural network, and respective offsets of weight matrices in the shared memory; writing input data and the instruction package by the host computer system to the shared memory; reading the instruction package from the shared memory by the neural network accelerator; and processing the plurality of per-layer instructions of the instruction package by the neural network accelerator, wherein the processing the plurality of per-layer instructions includes: processing a first per-layer instruction followed in succession by processing a second per-layer instruction of the instruction package; reading input data from a first portion of the shared memory and writing output data to a second portion of the shared memory in processing the first per-layer instruction; and reading input data from the second portion of the shared memory and writing output data to the first portion of the shared memory in processing the second per-layer instruction. writing by a host computer system, a plurality of weight matrices to a memory shared with a neural network accelerator; assembling a plurality of per-layer instructions into an instruction package by the host computer system, each per-layer instruction specifying processing of a respective layer of a plurality of layers of a neural network, and respective offsets of weight matrices in the shared memory; writing input data and the instruction package by the host computer system to the shared memory; reading the instruction package from the shared memory by the neural network accelerator; and processing the plurality of per-layer instructions of the instruction package by the neural network accelerator, wherein the processing the plurality of per-layer instructions includes: processing a first per-layer instruction followed in succession by processing a second per-layer instruction of the instruction package; reading input data from a first portion of the shared memory and writing output data to a second portion of the shared memory in processing the first per-layer instruction; and reading input data from the second portion of the shared memory and writing output data to the first portion of the shared memory in processing the second per-layer instruction. processing a first per-layer instruction followed in succession by processing a second per-layer instruction of the instruction package; reading input data from a first portion of the shared memory and writing output data to a second portion of the shared memory in processing the first per-layer instruction; and reading input data from the second portion of the shared memory and writing output data to the first portion of the shared memory in processing the second per-layer instruction.
A medical thermometer, comprising: a housing having a radiation entrance aperture a mirror disposed in the housing; a reflective surface of the mirror having a parabolic shape defining a vertex, a baseline tangent to the parabolic shape at the vertex, an axis of symmetry perpendicular to both the baseline and to the radiation entrance aperture and a focal point ; and a radiation sensor having a detection surface , the radiation sensor disposed in the housing at the focal point characterized in that the detector is disposed such that a normal to the detection surface is angled between approximately 25° and 35° from the baseline of the reflective surface, whereby the mirror reflects away from the detection surface radiation that passes through the radiation entrance and that is oriented outside a radiation range of angles from the axis. a housing having a radiation entrance aperture a mirror disposed in the housing; a reflective surface of the mirror having a parabolic shape defining a vertex, a baseline tangent to the parabolic shape at the vertex, an axis of symmetry perpendicular to both the baseline and to the radiation entrance aperture and a focal point ; and a radiation sensor having a detection surface , the radiation sensor disposed in the housing at the focal point characterized in that the detector is disposed such that a normal to the detection surface is angled between approximately 25° and 35° from the baseline of the reflective surface, whereby the mirror reflects away from the detection surface radiation that passes through the radiation entrance and that is oriented outside a radiation range of angles from the axis.
A process for preparing a stable, low viscosity polymer polyol having a solids content of at least 30% by weight, based on the total weight of the polymer polyol, comprising: free-radically polymerizing: (A) one or more base polyols; (B) one or more pre-formed stabilizers; and (C) one or more ethylenically unsaturated monomers; in the presence of (D) one or more free-radical polymerization initiators; and, optionally, (E) one or more polymer control agents; wherein the process is restarted after being stopped by (I) restarting the feed of said one or more base polyols and said one or more initiators, in which (a) the feed of said one or more base polyols and said one or more initiators is restarted simultaneously or (b) the feed of said one or more base polyols is restarted first, followed by restarting the feed of said one or more initiators; (II) continuing the polyol and initiator feed or feeds until the total feed amounts to at least 5% of the total reactor volume; and (III) restarting the feed of said one or more ethylenically unsaturated monomers wherein the ratio of monomers to total feed is ramped up to its final value over a period of not less than 25% of the reactor residence time. free-radically polymerizing: (A) one or more base polyols; (B) one or more pre-formed stabilizers; and (C) one or more ethylenically unsaturated monomers; in the presence of (D) one or more free-radical polymerization initiators; and, optionally, (E) one or more polymer control agents; wherein the process is restarted after being stopped by (I) restarting the feed of said one or more base polyols and said one or more initiators, in which (a) the feed of said one or more base polyols and said one or more initiators is restarted simultaneously or (b) the feed of said one or more base polyols is restarted first, followed by restarting the feed of said one or more initiators; (II) continuing the polyol and initiator feed or feeds until the total feed amounts to at least 5% of the total reactor volume; and (III) restarting the feed of said one or more ethylenically unsaturated monomers wherein the ratio of monomers to total feed is ramped up to its final value over a period of not less than 25% of the reactor residence time. (A) one or more base polyols; (B) one or more pre-formed stabilizers; and (C) one or more ethylenically unsaturated monomers; in the presence of (D) one or more free-radical polymerization initiators; and, optionally, (E) one or more polymer control agents;
A wind turbine rotor blade comprising a rotor blade tip and a rotor blade root as well as a lightning protection system , wherein the lightning protection system has a lightning protection conductor and a heatable coating in the form of a paint on the surface of the rotor blade , wherein the heatable coating is galvanically coupled to the lightning protection conductor , wherein the heatable coating is based on an acrylate basis and has carbon nanomaterials and graphite. a rotor blade tip and a rotor blade root as well as a lightning protection system , wherein the lightning protection system has a lightning protection conductor and a heatable coating in the form of a paint on the surface of the rotor blade , wherein the heatable coating is galvanically coupled to the lightning protection conductor , wherein the heatable coating is based on an acrylate basis and has carbon nanomaterials and graphite.
A mask for patient ventilation comprising: a frame portion for surrounding a respiratory opening region of a patient; a retention strap configured to couple with the frame portion for maintaining positive pressure between the frame portion and the respiratory opening region of said patient; a removable insert that is configured to physically attach and detach from said frame portion without requiring removal of said retention strap or said frame portion from said patient; and a first breathing limb and a second breathing limb laterally disposed with respect to the temporal region of the patient and configured to couple with said frame portion, such that the first breathing limb is on a first lateral side of the frame portion and the second breathing limb is on a second lateral side of the frame portion, said first breathing limb providing fresh respiratory gases to said patient, and said second breathing limb transporting respiratory gases from said patient; wherein said first breathing limb delivers said fresh respiratory gases to said patient with said removable insert removed from said frame portion ,wherein said removable insert enables access to a nose region and a mouth region of said patient without requiring removal of said frame portion . a frame portion for surrounding a respiratory opening region of a patient; a retention strap configured to couple with the frame portion for maintaining positive pressure between the frame portion and the respiratory opening region of said patient; a removable insert that is configured to physically attach and detach from said frame portion without requiring removal of said retention strap or said frame portion from said patient; and a first breathing limb and a second breathing limb laterally disposed with respect to the temporal region of the patient and configured to couple with said frame portion, such that the first breathing limb is on a first lateral side of the frame portion and the second breathing limb is on a second lateral side of the frame portion, said first breathing limb providing fresh respiratory gases to said patient, and said second breathing limb transporting respiratory gases from said patient; wherein said first breathing limb delivers said fresh respiratory gases to said patient with said removable insert removed from said frame portion ,wherein said removable insert enables access to a nose region and a mouth region of said patient without requiring removal of said frame portion .
A humeral implant, comprising: an oval shaped humeral head having a curved exterior surface and a generally planar exterior surface , the humeral head defining: an outer edge ; a main body axis (α-α) extending transversely from the generally planar exterior surface to the curved exterior surface , a polar axis (γ-γ) extending parallel to the planar exterior surface from the outer edge of the humeral head intersecting the main body axis (α-α), an equatorial axis (δ-δ) extending parallel to the planar exterior surface from the outer edge of the humeral head intersecting the main body axis (α-α) and the polar axis (γ-γ); and a polar edge transition between the planar exterior surface and the curved exterior surface , wherein the polar edge transition is positioned (D') at the outer edge of the humeral head; and a humeral stem insertable into a humerus, characterised in that an equatorial edge transition is positioned (D") inward of the outer edge of the humeral head and closer to the main body axis (α-α) than the polar edge transition . an outer edge ; a main body axis (α-α) extending transversely from the generally planar exterior surface to the curved exterior surface , a polar axis (γ-γ) extending parallel to the planar exterior surface from the outer edge of the humeral head intersecting the main body axis (α-α), an equatorial axis (δ-δ) extending parallel to the planar exterior surface from the outer edge of the humeral head intersecting the main body axis (α-α) and the polar axis (γ-γ); and a polar edge transition between the planar exterior surface and the curved exterior surface , wherein the polar edge transition is positioned (D') at the outer edge of the humeral head; and a humeral stem insertable into a humerus, characterised in that an equatorial edge transition is positioned (D") inward of the outer edge of the humeral head and closer to the main body axis (α-α) than the polar edge transition .
A method of manufacturing, comprising: forming a first opening in a solder mask positioned on a side of a substrate , the first opening not extending to the side ; forming a second opening in the solder mask that extends to a conductor pad on the side and to a greater depth than the first opening , wherein the substrate comprises a circuit board and the side is configured to have a semiconductor chip mounted thereon, wherein the solder mask comprises a photoactive compound and the forming the first and second openings comprises photolithographically patterning the first and second openings, and wherein the photolithographically patterning comprises masking first and second portions of the solder mask, exposing the solder mask with a first radiation dosage to leave the first and second portions uncured, masking the second portion but not the first portion of the solder mask, exposing the first portion of the solder mask with a second light dosage smaller than the first light dosage to leave a region of the first portion proximate the side uncured, and developing the solder mask to form the first and second openings. forming a first opening in a solder mask positioned on a side of a substrate , the first opening not extending to the side ; forming a second opening in the solder mask that extends to a conductor pad on the side and to a greater depth than the first opening , wherein the substrate comprises a circuit board and the side is configured to have a semiconductor chip mounted thereon, wherein the solder mask comprises a photoactive compound and the forming the first and second openings comprises photolithographically patterning the first and second openings, and wherein the photolithographically patterning comprises masking first and second portions of the solder mask, exposing the solder mask with a first radiation dosage to leave the first and second portions uncured, masking the second portion but not the first portion of the solder mask, exposing the first portion of the solder mask with a second light dosage smaller than the first light dosage to leave a region of the first portion proximate the side uncured, and developing the solder mask to form the first and second openings.
A data transmission method , comprising: Receiving , by a terminal device, a first reference signal sent by a network device; Measuring , by the terminal device, a downlink channel based on the first reference signal, to obtain a channel status of the downlink channel; Determining , by the terminal device, a target mode from a plurality of modes based on the channel status of the downlink channel, wherein information that is used to feed back channel state information CSI and that is sent by the terminal device in different modes of the plurality of modes is different; and Sending , by the terminal device, indication information to the network device, wherein the indication information is used to indicate the target mode, wherein the plurality of modes comprise a first mode, a second mode, and a third mode; in the first mode, the terminal device feeds back all information of the CSI; in the second mode, the terminal device feeds back a part of information of the CSI, and sends a second reference signal; and in the third mode, the terminal device sends the second reference signal; and the all information is used to indicate a channel status of all of the downlink channel, and the part of information is used to indicate a channel status of a part of the downlink channel. Receiving , by a terminal device, a first reference signal sent by a network device; Measuring , by the terminal device, a downlink channel based on the first reference signal, to obtain a channel status of the downlink channel; Determining , by the terminal device, a target mode from a plurality of modes based on the channel status of the downlink channel, wherein information that is used to feed back channel state information CSI and that is sent by the terminal device in different modes of the plurality of modes is different; and Sending , by the terminal device, indication information to the network device, wherein the indication information is used to indicate the target mode, wherein the plurality of modes comprise a first mode, a second mode, and a third mode; in the first mode, the terminal device feeds back all information of the CSI; in the second mode, the terminal device feeds back a part of information of the CSI, and sends a second reference signal; and in the third mode, the terminal device sends the second reference signal; and the all information is used to indicate a channel status of all of the downlink channel, and the part of information is used to indicate a channel status of a part of the downlink channel.
A cockpit display system for deployment onboard an aircraft, the cockpit display system comprising: a cockpit monitor ; and a controller coupled to the cockpit monitor and configured to: assess the current feasibility of landing at a first landing option, the first landing option being one of one or more airports in a range of the aircraft; assign the first landing option to one of a plurality of predetermined landing feasibility categories including at least a high feasibility landing category and a low feasibility landing category; and generate a vertical navigation display on the cockpit monitor; wherein the controller generates the vertical navigation display to include graphics indicative of the feasibility category assigned to the first landing option , an ideal trajectory profile for the first landing option, and a predicted trajectory profile of the aircraft; and wherein the controller further generates, on the vertical navigation display, one or more drag device deployment cues indicating a drag device deployment scheme that can be employed to capture the ideal trajectory profile when the high feasibility category is assigned to the first landing option. a cockpit monitor ; and a controller coupled to the cockpit monitor and configured to: assess the current feasibility of landing at a first landing option, the first landing option being one of one or more airports in a range of the aircraft; assign the first landing option to one of a plurality of predetermined landing feasibility categories including at least a high feasibility landing category and a low feasibility landing category; and generate a vertical navigation display on the cockpit monitor; assess the current feasibility of landing at a first landing option, the first landing option being one of one or more airports in a range of the aircraft; assign the first landing option to one of a plurality of predetermined landing feasibility categories including at least a high feasibility landing category and a low feasibility landing category; and generate a vertical navigation display on the cockpit monitor; wherein the controller generates the vertical navigation display to include graphics indicative of the feasibility category assigned to the first landing option , an ideal trajectory profile for the first landing option, and a predicted trajectory profile of the aircraft; and wherein the controller further generates, on the vertical navigation display, one or more drag device deployment cues indicating a drag device deployment scheme that can be employed to capture the ideal trajectory profile when the high feasibility category is assigned to the first landing option.
A method for processing micro-operations, the method comprising: fetching a plurality of micro-operations, wherein the plurality of micro-operations includes a first micro-operation; in response to a queue entry in a first queue (138;140) not being available for the first micro-operation, dispatching the first micro-operation to an age-ordered scheduler queue without dispatching the first micro-operation to the first queue, wherein the scheduler queue holds a dispatch payload associated with the first micro-operation, where the first queue is a load queue or a store queue ; associating, at dispatch time, each micro-operation with a queue entry in the first queue (138;140) in program order to maintain age-order; determining a queue entry in the first queue (138;140) identified by the first micro-operation becoming available and source information required by the first micro-operation becoming ready; and in response to the queue entry in the first queue (138;140) identified by the first micro-operation becoming available and source information required by the first micro-operation becoming ready: performing address generation for the micro-operation; reading the dispatch payload including the first micro-operation; and sending the dispatch payload including data to be stored as specified by the first micro-operation to the available queue entry identified by the first micro-operation in the first queue (138;140). fetching a plurality of micro-operations, wherein the plurality of micro-operations includes a first micro-operation; in response to a queue entry in a first queue (138;140) not being available for the first micro-operation, dispatching the first micro-operation to an age-ordered scheduler queue without dispatching the first micro-operation to the first queue, wherein the scheduler queue holds a dispatch payload associated with the first micro-operation, where the first queue is a load queue or a store queue ; associating, at dispatch time, each micro-operation with a queue entry in the first queue (138;140) in program order to maintain age-order; determining a queue entry in the first queue (138;140) identified by the first micro-operation becoming available and source information required by the first micro-operation becoming ready; and in response to the queue entry in the first queue (138;140) identified by the first micro-operation becoming available and source information required by the first micro-operation becoming ready: performing address generation for the micro-operation; reading the dispatch payload including the first micro-operation; and sending the dispatch payload including data to be stored as specified by the first micro-operation to the available queue entry identified by the first micro-operation in the first queue (138;140). performing address generation for the micro-operation; reading the dispatch payload including the first micro-operation; and sending the dispatch payload including data to be stored as specified by the first micro-operation to the available queue entry identified by the first micro-operation in the first queue (138;140).
Spirit drink comprising the following ingredients: - a base with at least two wines, - a plurality of aromatic plant extracts and aromatic plant tinctures, - citrus distillates, - natural citrus flavors, - natural dyes, - alcohol for food use, - water, - sweetener, and characterized by the fact that: - these natural dyes include red potato extract and / or beta-carotene, - said wine base is a blend of a white wine with at least one fortified wine. - a base with at least two wines, - a plurality of aromatic plant extracts and aromatic plant tinctures, - citrus distillates, - natural citrus flavors, - natural dyes, - alcohol for food use, - water, - sweetener, - these natural dyes include red potato extract and / or beta-carotene, - said wine base is a blend of a white wine with at least one fortified wine.
3-(1,2,4-triazolo[4,3-a]pyridine-3-ylethynyl)-4-methyl-N-(4-((4-methylpiperazin-1-yl)methyl)-3-trifluoromethylphenyl)benzamide monomesylate salt.