mhurhangee/patent-ind-claim-en huggingface dataset:
A battery comprising: a cathode; an anode; and a liquid electrolyte, wherein the anode comprises at least one anode active material from the group consisting of simple substances or alloys of silicon (Si) or tin (Sn), and compounds selected from SiB 4 , SiB 6 , Mg 2 Si, Mg 2 Sn, Ni 2 Si, TiSi 2 , MoSi 2 , CoSi 2 , NiSi 2 , CaSi 2 , CrSi 2 , Cu 5 Si, FeSi 2 , MnSi 2 , NbSi 2 , TaSi 2 , VSi 2 , WSi 2 , ZnSi 2 , SiC, Si 3 N 4 , Si 2 N 2 O, SiO v (o<v≤2), SnO w (O<w≤2), SnSiO 3 , LiSiO, and LiSnO, a capacity of the anode includes a capacity component derived from inserting and extracting a light metal by the anode active material, and the electrolyte includes a light metallic salt, and a solvent, wherein the content of the light metallic salt is from 0.01 mol/kg to 2.0 mol/kg in relation to the solvent, and wherein the light metallic salt is bis [1,2-benzene diorate (2-)-O, O'] lithium borate expressed by Chemical formula 11, or tris [1,2-benzene diorate (2-)-O, O'] lithium phosphate expressed by Chemical formula 12. a cathode; an anode; and a liquid electrolyte, wherein the anode comprises at least one anode active material from the group consisting of simple substances or alloys of silicon (Si) or tin (Sn), and compounds selected from SiB 4 , SiB 6 , Mg 2 Si, Mg 2 Sn, Ni 2 Si, TiSi 2 , MoSi 2 , CoSi 2 , NiSi 2 , CaSi 2 , CrSi 2 , Cu 5 Si, FeSi 2 , MnSi 2 , NbSi 2 , TaSi 2 , VSi 2 , WSi 2 , ZnSi 2 , SiC, Si 3 N 4 , Si 2 N 2 O, SiO v (o<v≤2), SnO w (O<w≤2), SnSiO 3 , LiSiO, and LiSnO, a capacity of the anode includes a capacity component derived from inserting and extracting a light metal by the anode active material, and the electrolyte includes a light metallic salt, and a solvent, wherein the content of the light metallic salt is from 0.01 mol/kg to 2.0 mol/kg in relation to the solvent, and wherein the light metallic salt is bis [1,2-benzene diorate (2-)-O, O'] lithium borate expressed by Chemical formula 11, or tris [1,2-benzene diorate (2-)-O, O'] lithium phosphate expressed by Chemical formula 12. a capacity of the anode includes a capacity component derived from inserting and extracting a light metal by the anode active material, and the electrolyte includes a light metallic salt,
A device for the microscopic examination of an object, with an illumination system that is configured to generate a first illumination light beam and a second illumination light beam and in an illuminated object non-linear Raman effects, a first circular polarization filter that circularly polarizes the first illumination light beam, a second polarization filter that linearly p-polarizes the second illumination light beam, a modulator for modulating the polarized second illumination light beam, an excitation optical system that directs the two illumination light beams onto the object , a detection optical system, a first wavelength-selective element , a third polarization filter and at least two detectors , wherein the detection optical system directs the detection light beams emanating from the object onto the at least two detectors , wherein the first wavelength-selective element is configured to deflect a first wavelength range of the detection light beams towards the third polarization filter , wherein the third polarization filter filters out the p-polarized portion of the detection light beams and transmits it to the first detector , the first detector detecting a first non-linear Raman effect and the second detector detecting a second non-linear Raman effect. a first circular polarization filter that circularly polarizes the first illumination light beam, a second polarization filter that linearly p-polarizes the second illumination light beam, a modulator for modulating the polarized second illumination light beam, an excitation optical system that directs the two illumination light beams onto the object , a detection optical system, a first wavelength-selective element , a third polarization filter and at least two detectors , wherein the detection optical system directs the detection light beams emanating from the object onto the at least two detectors , wherein the first wavelength-selective element is configured to deflect a first wavelength range of the detection light beams towards the third polarization filter , wherein the third polarization filter filters out the p-polarized portion of the detection light beams and transmits it to the first detector , the first detector detecting a first non-linear Raman effect and the second detector detecting a second non-linear Raman effect.
A method for autonomous segmentation of three-dimensional nervous system structures from raw medical images, the method comprising the following steps: - receiving a 3D scan volume comprising a set of medical scan images of a region of the anatomy; - autonomously processing the set of medical scan images to perform segmentation of a bony structure of the anatomy to obtain bony structure segmentation data; characterized by further comprising the steps of: - autonomously processing a subsection of the 3D scan volume as a 3D region of interest ROI, by combining the raw medical scan images and the bony structure segmentation data, wherein the 3D ROI contains a subvolume of the bony structure with a portion of surrounding tissues, including the nervous system structure, wherein the 3D ROI includes 3D matrices, each 3D matrix containing information about voxel distribution along X, Y and Z axes with bone density obtained from the 3D scan volume and classification information data for bony structure; - autonomously processing the ROI to determine the 3D shape, location, and size of the nervous system structures by means of a pre-trained convolutional neural network, CNN, . - receiving a 3D scan volume comprising a set of medical scan images of a region of the anatomy; - autonomously processing the set of medical scan images to perform segmentation of a bony structure of the anatomy to obtain bony structure segmentation data; characterized by further comprising the steps of: - autonomously processing a subsection of the 3D scan volume as a 3D region of interest ROI, by combining the raw medical scan images and the bony structure segmentation data, wherein the 3D ROI contains a subvolume of the bony structure with a portion of surrounding tissues, including the nervous system structure, wherein the 3D ROI includes 3D matrices, each 3D matrix containing information about voxel distribution along X, Y and Z axes with bone density obtained from the 3D scan volume and classification information data for bony structure; - autonomously processing the ROI to determine the 3D shape, location, and size of the nervous system structures by means of a pre-trained convolutional neural network, CNN, . - autonomously processing a subsection of the 3D scan volume as a 3D region of interest ROI, by combining the raw medical scan images and the bony structure segmentation data, wherein the 3D ROI contains a subvolume of the bony structure with a portion of surrounding tissues, including the nervous system structure, wherein the 3D ROI includes 3D matrices, each 3D matrix containing information about voxel distribution along X, Y and Z axes with bone density obtained from the 3D scan volume and classification information data for bony structure; - autonomously processing the ROI to determine the 3D shape, location, and size of the nervous system structures by means of a pre-trained convolutional neural network, CNN, .
A battery management system configured to determine a self-discharge rate of at least one battery cell, the battery management system comprising: an analog-to-digital converter, ADC (104A-104D), ADO, circuit coupled to the at least one battery cell (100A-100D) and configured to receive an analog input signal representing a voltage of the at least one battery cell and generate digital codes representing the analog input signal at corresponding time intervals; characterised in that the battery management system further comprising a processor configured to: receive the digital codes; determine a length of time at which corresponding ones of the digital codes remain; and determine the self-discharge rate of the at least one battery cell using the determined length of time. an analog-to-digital converter, ADC (104A-104D), ADO, circuit coupled to the at least one battery cell (100A-100D) and configured to receive an analog input signal representing a voltage of the at least one battery cell and generate digital codes representing the analog input signal at corresponding time intervals; characterised in that the battery management system further comprising a processor configured to: receive the digital codes; determine a length of time at which corresponding ones of the digital codes remain; and determine the self-discharge rate of the at least one battery cell using the determined length of time. receive the digital codes; determine a length of time at which corresponding ones of the digital codes remain; and determine the self-discharge rate of the at least one battery cell using the determined length of time.
An aliphatic polyester resin composition comprising: polyhydroxyalkanoate (A); pentaerythritol (B); and a filler (C), wherein the polyhydroxyalkanoate (A) includes a repeating unit represented by general formula below, [-CHR-CH 2 -CO-O-] where R denotes an alkyl group represented by C n H 2n+1 , and n is an integer of 1 or more and 15 or less, and wherein the filler (C) is an inorganic filler or an organic filler, the organic filler is made from at least one selected from a woody material and an organic fiber, and the organic fiber comprises at least one selected from a natural fiber and a synthetic fiber, which synthetic fiber is at least one selected from polyamide fiber, nylon fiber, polyacryl, polyarylate fiber, fluorine fiber, polyvinyl alcohol, polyvinyl chloride, polyolefin, polyurethane, acetyl cellulose, polybenzazole, and a poly-p-phenylene benzobisoxazole fiber. where R denotes an alkyl group represented by C n H 2n+1 , and n is an integer of 1 or more and 15 or less, and wherein the filler (C) is an inorganic filler or an organic filler, the organic filler is made from at least one selected from a woody material and an organic fiber, and the organic fiber comprises at least one selected from a natural fiber and a synthetic fiber, which synthetic fiber is at least one selected from polyamide fiber, nylon fiber, polyacryl, polyarylate fiber, fluorine fiber, polyvinyl alcohol, polyvinyl chloride, polyolefin, polyurethane, acetyl cellulose, polybenzazole, and a poly-p-phenylene benzobisoxazole fiber.
A communications method performed by a terminal or a chip , the method comprising the steps of: • receiving (S 202) beam configuration information from a network device, wherein the beam configuration information indicates to the terminal or the chip to transmit or receive a signal by using a first beam; and • transmitting, to the network device, the signal by using the first beam after a first preset duration starting from a first time point expires, or, receiving, from the network device, the signal by using the first beam after the first preset duration starting from the first time point expires, ∘ wherein the first time point is slot (y), which is an uplink slot in which an acknowledgement, ACK, message for the beam configuration information is transmitted by the terminal or the chip to the network device, ∘ wherein the first preset duration is 3 N slot subframe , μ , N slot subframe , μ is a quan-tity of slots in one subframe, N slot subframe , μ is related to μ , and μ indicates a subcarrier spacing, SCS, configuration that is used for transmitting the ACK message. • receiving (S 202) beam configuration information from a network device, wherein the beam configuration information indicates to the terminal or the chip to transmit or receive a signal by using a first beam; and • transmitting, to the network device, the signal by using the first beam after a first preset duration starting from a first time point expires, or, receiving, from the network device, the signal by using the first beam after the first preset duration starting from the first time point expires, ∘ wherein the first time point is slot (y), which is an uplink slot in which an acknowledgement, ACK, message for the beam configuration information is transmitted by the terminal or the chip to the network device, ∘ wherein the first preset duration is 3 N slot subframe , μ , N slot subframe , μ is a quan-tity of slots in one subframe, N slot subframe , μ is related to μ , and μ indicates a subcarrier spacing, SCS, configuration that is used for transmitting the ACK message. ∘ wherein the first time point is slot (y), which is an uplink slot in which an acknowledgement, ACK, message for the beam configuration information is transmitted by the terminal or the chip to the network device, ∘ wherein the first preset duration is 3 N slot subframe , μ , N slot subframe , μ is a quan-tity of slots in one subframe, N slot subframe , μ is related to μ , and μ indicates a subcarrier spacing, SCS, configuration that is used for transmitting the ACK message.
A production method for a metal cord-rubber composite, wherein the metal cord-rubber composite is prepared by coating a metal cord with a rubber composition, wherein the metal cord comprises a single steel wire subjected to brass plating on a peripheral surface or is prepared by twisting plural wires of the steel wire, wherein the metal cord is subjected to surface treatment with a buffer solution of pH 5.0 to 7.2 and treatment with at least one triazole compound selected from 1,2,4-triazole, 1,2,3-triazole, 3-amino-1,2,4-triazole, and 4-amino-1,2,4-triazole, and wherein on a surface of the metal cord, which is a surface region up to a depth of 5 nm toward an inside in a radial direction, an N atom accounts for 2 atomic % or more and 60 atomic % or less, and a Cu/Zn ratio is 1 or more and 4 or less.
A method of manufacturing a corrugated polymeric material web for an aerosol-generating article, the method comprising the steps of: heating polymeric material pellets to form a polymeric material melt ; forming a polymeric material web from the polymeric material melt and working the polymeric material web at an elevated temperature to form a corrugated polymeric material web ; and winding the corrugated polymeric material web onto a bobbin . heating polymeric material pellets to form a polymeric material melt ; forming a polymeric material web from the polymeric material melt and working the polymeric material web at an elevated temperature to form a corrugated polymeric material web ; and winding the corrugated polymeric material web onto a bobbin .
A wireless communication method performed by a wireless terminal, the wireless communication method comprising: receiving, from a wireless network node, a configuration indicating resources of at least one reference signal, and transmitting, to the wireless network node, at least one report based on the configuration, wherein the at least one report comprises measurement results of at least one measurement performed based on the resources of the at least one reference signal, wherein the configuration indicates a resource reuse mode per reference signal, per group of reference signals or per groups of reference signals, wherein the resource reuse mode indicates the resources where reference signals associated with the resource reuse mode are transmitted, wherein the resources are a frequency region and/or a polarization mode, wherein the resource reuse mode is indicated by a Quasi Co-Location, QCL, relationship between each of the one ore more reference signals and an associated reference signal for QCL indication. receiving, from a wireless network node, a configuration indicating resources of at least one reference signal, and transmitting, to the wireless network node, at least one report based on the configuration, wherein the at least one report comprises measurement results of at least one measurement performed based on the resources of the at least one reference signal, wherein the configuration indicates a resource reuse mode per reference signal, per group of reference signals or per groups of reference signals, wherein the resource reuse mode indicates the resources where reference signals associated with the resource reuse mode are transmitted, wherein the resources are a frequency region and/or a polarization mode, wherein the resource reuse mode is indicated by a Quasi Co-Location, QCL, relationship between each of the one ore more reference signals and an associated reference signal for QCL indication.
A method for monitoring a filling level of a feeding device , having the following steps: - providing a feeding device having at least one storage container which can be driven in rotation about an axis (A), - operating the feeding device by motorized driving of the storage container about the axis (A), - filling the storage container with material to be conveyed, characterized in that - a drive torque (M) which is necessary for driving the storage container about the axis (A) or which corresponds thereto is measured and observed, and - a conclusion as regards a filling level of the material in the storage container is drawn from the drive torque (M) for the storage container . - providing a feeding device having at least one storage container which can be driven in rotation about an axis (A), - operating the feeding device by motorized driving of the storage container about the axis (A), - filling the storage container with material to be conveyed, - a drive torque (M) which is necessary for driving the storage container about the axis (A) or which corresponds thereto is measured and observed, and - a conclusion as regards a filling level of the material in the storage container is drawn from the drive torque (M) for the storage container .
A method for millimeter wave wireless communication, comprising: configuring a synchronization slot associated with a plurality of synchronization blocks; configuring a transmission of each synchronization block of the plurality of synchronization blocks based at least in part on the configured synchronization slot, wherein each synchronization block is beamformed to a particular direction and associated with a transmission beam; assigning a synchronization region to a first frequency portion associated with the transmission beam of each synchronization block; assigning at least one of a data region or a control region to a second frequency portion associated with the transmission beam of each synchronization block, wherein the first frequency portion and the second frequency portion are associated with a same transmission beam; and transmitting a synchronization signal during the synchronization region and transmitting at least one of data signal during the data region or control information during the control region to a wireless node using the same transmission beam. configuring a synchronization slot associated with a plurality of synchronization blocks; configuring a transmission of each synchronization block of the plurality of synchronization blocks based at least in part on the configured synchronization slot, wherein each synchronization block is beamformed to a particular direction and associated with a transmission beam; assigning a synchronization region to a first frequency portion associated with the transmission beam of each synchronization block; assigning at least one of a data region or a control region to a second frequency portion associated with the transmission beam of each synchronization block, wherein the first frequency portion and the second frequency portion are associated with a same transmission beam; and transmitting a synchronization signal during the synchronization region and transmitting at least one of data signal during the data region or control information during the control region to a wireless node using the same transmission beam.
A pharmaceutical composition comprising solubilized estradiol, micronized and partially solubilized progesterone, and a solubilizing agent; wherein the solubilizing agent is a C6-C12 oil selected from monoglycerides of C6-C12 fatty acids, diglycerides of C6-C12 fatty acids, and combinations thereof; and the estradiol and the progesterone are present in the solubilizing agent.
A marine propulsion system configured to be provided on or in a hull of a marine vessel , the marine propulsion system comprising: a main propulsion device configured to rotate in a right-left direction with regard to the hull to change a direction of a thrust; an auxiliary propulsion device including an electric motor configured to drive an auxiliary thruster to generate a thrust, configured to rotate in the right-left direction to change a direction of the thrust with regard to the hull , and configured to have a maximum output (P20) smaller than a maximum output of the main propulsion device ; and a controller configured or programmed to perform a drift control to move the hull by external forces (F) including wind and water flow under the external forces (F) while maintaining an orientation (T1) of a bow of the hull at a target orientation (T2) by rotating the hull ; wherein the controller is configured or programmed to maintain the orientation (T1) of the bow at the target orientation (T2) by rotating the hull by driving the auxiliary thruster while stopping a main thruster configured to generate the thrust from the main propulsion device and to move the hull only by the external forces (F) under the external forces (F) while maintaining the orientation (T1) of the bow of the hull at the target orientation (T2) by rotating the hull in the drift control by driving the auxiliary thruster . a main propulsion device configured to rotate in a right-left direction with regard to the hull to change a direction of a thrust; an auxiliary propulsion device including an electric motor configured to drive an auxiliary thruster to generate a thrust, configured to rotate in the right-left direction to change a direction of the thrust with regard to the hull , and configured to have a maximum output (P20) smaller than a maximum output of the main propulsion device ; and a controller configured or programmed to perform a drift control to move the hull by external forces (F) including wind and water flow under the external forces (F) while maintaining an orientation (T1) of a bow of the hull at a target orientation (T2) by rotating the hull ; wherein the controller is configured or programmed to maintain the orientation (T1) of the bow at the target orientation (T2) by rotating the hull by driving the auxiliary thruster while stopping a main thruster configured to generate the thrust from the main propulsion device and to move the hull only by the external forces (F) under the external forces (F) while maintaining the orientation (T1) of the bow of the hull at the target orientation (T2) by rotating the hull in the drift control by driving the auxiliary thruster .
A Method for generating a preview image with an inclined plane microscope , comprising the method steps of illuminating at successive times (t 1 -t x ) different illumination planes which are tilted with respect to an optical axis of an observation optics and spaced apart from one another, and of imaging onto a sensor with photosensitive elements arranged line by line, characterized in that in each case at least one strip-shaped read-out region of the sensor , which is oriented parallel to the lines in its longitudinal extent and can be read out in a read-out step, is read out, and in that a preview image is generated from successively read-out regions , which preview image reproduces a viewing plane lying perpendicular to the optical axis of the observation optics .