mhurhangee/patent-ind-claim-en huggingface dataset:
A method for managing sensor data collected and registered by a remote sensing system at a remote field location, referred to as a field segment , wherein the remote sensing system is a satellite-based remote sensing system or the remote sensing is performed by Unmanned Aerial Vehicles (UAVs), and downlinking sensor data to a separate location, referred to as a ground or home segment , wherein the method comprises the steps of: - formatting and storing (S1) sensor data in data blocks in a field data archive together with associated metadata describing the collected sensor data, wherein each data block has a corresponding data block identifier in the field data archive; - generating (S2) a sensor data product for preview, referred to as an overview, from the sensor data stored in data blocks in the field data archive, wherein the generated overview is a data product with lower data density than the original sensor data; - downlinking (S3) the overview together with corresponding data block identifiers and associated metadata to the ground or home segment to enable a ground-based process where data blocks, representing a selected subset of sensor data, are selected for transfer based on the content of the overview and/or the associated metadata; - receiving (S4) command(s) from the ground or home segment requesting transfer of selected data blocks by their data block identifiers to the home segment; and - transferring (S5) the selected data blocks to the ground or home segment for storage in a home data archive to enable delivery of a sensor data product to end-users. - formatting and storing (S1) sensor data in data blocks in a field data archive together with associated metadata describing the collected sensor data, wherein each data block has a corresponding data block identifier in the field data archive; - generating (S2) a sensor data product for preview, referred to as an overview, from the sensor data stored in data blocks in the field data archive, wherein the generated overview is a data product with lower data density than the original sensor data; - downlinking (S3) the overview together with corresponding data block identifiers and associated metadata to the ground or home segment to enable a ground-based process where data blocks, representing a selected subset of sensor data, are selected for transfer based on the content of the overview and/or the associated metadata; - receiving (S4) command(s) from the ground or home segment requesting transfer of selected data blocks by their data block identifiers to the home segment; and - transferring (S5) the selected data blocks to the ground or home segment for storage in a home data archive to enable delivery of a sensor data product to end-users.
A housing for a transmission of the type comprising two housing elements that can be positioned to press against each other and that delimit, in the assembled state, a cavity , a shaft at least partially projecting from the housing, a movement transmission mechanism for transmitting movement to said shaft , this movement transmission mechanism being housed at least partially inside the cavity of the housing and sealing means arranged in the zone where the housing elements are pressed against each other and called join plane , these sealing means surrounding said cavity , these sealing means being adhesive connection means of the housing elements , the adhesive connection means comprising a so-called main channel for receiving adhesive surrounding said cavity , characterized in that said main channel comprises a female element borne by one housing element , and a male element borne by the other housing element with the male element fitting at least partially in the female element in the assembled state of said housing elements , in that the female element borne by a housing element of the main channel is a groove and the male element borne by the other housing element of the main channel is a rib and in that the housing comprises connection means for connecting the housing elements by snap fit in order to keep the housing elements pressed against one another.
An Azelastine compound in an antiviral effective amount of 0.1 - 500 μg per dose, for use as an antiviral substance in a pharmaceutical preparation for use in the prophylactic or therapeutic treatment of a subject in need of anti-SARS-CoV-2 treatment, wherein the Azelastine compound is Azelastine, or a pharmaceutically acceptable salt thereof.
A method for operating a transmitting node of a wireless communication network, the transmitting node being adapted for a plurality of beamforming states, wherein the method comprises transmitting (ST10) reference signaling based on a beamforming state of the transmitting node and transmitting, to a referencing node, a beamforming state indication that pertains to the beamforming state of the transmitting node , wherein the beamforming state indication indicates the beamforming state at a predetermined time and a schedule of planned beamforming states, wherein the beamforming state is a network beamforming state from a list of network beamforming states, wherein the network beamforming state is a combination of a beam used by the transmitting node and one or more beams used by one or more respective additional transmitting nodes of the network, and wherein the list of network beamforming states excludes non-desired network beamforming states that correspond to combinations of beamformers of the transmitting node and another transmitting node of the one or more additional transmitting nodes that result in a high interference level at a user equipment.
A new energy bus, comprising a bus body, the bus body comprising a bus top frame located on a top portion, a bus top skin covering a top portion of the bus top frame , and a passenger region top floor located below the bus top frame , wherein the bus top frame is fixedly provided with a liquid heat exchange plate , the liquid heat exchange plate is provided with a coolant inlet and a coolant outlet that are connected to an air conditioning system, a top surface of the liquid heat exchange plate is fixedly provided with a battery module , the bus top skin is directly or indirectly mounted with a sealing cover in a sealing manner covering an outer portion of the battery module , a filling body is disposed between the liquid heat exchange plate and the passenger region top floor and forms a sealed chamber with the liquid heat exchange plate and the passenger region top floor in a surrounding manner, a position on the passenger region top floor corresponding to the chamber is provided with a window in communication with a passenger region , the window is provided with a window body that opens and closes the window, and the chamber is provided with a blower inside for blowing air to the passenger region through the window.
Method for producing a connecting element , in particular for the articulated connection of components which are arranged in the chassis, the connecting element being formed by a profile element which has a joint section for receiving a joint component , a centre section and a connecting section , the profile element being formed by way of an arrangement of at least one first profile section and at least one second profile section which are held in their position by way of a positively locking connection by means of at least one fixing element , and a joint component being inserted into the joint section which is formed, characterized in that the first profile section and the second profile section are configured in one piece, the said two profile sections (32; 33) being connected to one another by means of a web on annular sections which lie opposite one another, and in that the profile element and the joint component are overmoulded in sections with a plastic.
An aqueous dispersion, comprising: (a) fragrance-containing binder particles having an average particle size of from 50 to 500 nanometers as measured by Brookhaven BI-90 Particle Size Analyzer, wherein the binder comprises, as polymerized units, one or more monoethylenically unsaturated nonionic monomers; and (b) polymeric adsorbent particles having a D50 particle size of from 1 to 30 microns and a specific surface area of 900 m 2 /g or more, wherein the polymer in the polymeric adsorbent particles comprises, as polymerized units, one or more vinyl aromatic monomers and optionally one or more monovinyl aliphatic monomers, and wherein the vinyl aromatic monomer is selected from the group consisting of at least one monovinyl aromatic monomer and at least one polyvinyl aromatic monomer. (a) fragrance-containing binder particles having an average particle size of from 50 to 500 nanometers as measured by Brookhaven BI-90 Particle Size Analyzer, wherein the binder comprises, as polymerized units, one or more monoethylenically unsaturated nonionic monomers; and (b) polymeric adsorbent particles having a D50 particle size of from 1 to 30 microns and a specific surface area of 900 m 2 /g or more, wherein the polymer in the polymeric adsorbent particles comprises, as polymerized units, one or more vinyl aromatic monomers and optionally one or more monovinyl aliphatic monomers, and wherein the vinyl aromatic monomer is selected from the group consisting of at least one monovinyl aromatic monomer and at least one polyvinyl aromatic monomer.
A method of operating a wireless communication network to serve User Equipment, UE, over wireless uplinks , the method comprising: a primary wireless access node wirelessly receiving primary power headroom for the UE on the primary wireless access node from the UE; a secondary wireless access node wirelessly receiving secondary power headroom for the UE on the secondary wireless access node from the UE and transferring the secondary power headroom to the primary wireless access node; the primary wireless access node executing a Packet Data Convergence Protocol, PDCP, and the executing PDCP comparing the primary power headroom to the secondary power headroom, determining a primary uplink grant amount and a secondary uplink grant amount for the UE based on the power headroom comparison, and transferring the secondary uplink grant amount to the secondary wireless access node; the primary wireless access node granting primary uplink resources to the UE based on the primary uplink grant amount and wirelessly receiving primary user data from the UE using the primary uplink resources; and the secondary wireless access node granting secondary uplink resources to the UE based on the secondary uplink grant amount and wirelessly receiving secondary user data from the UE using the secondary uplink resources. a primary wireless access node wirelessly receiving primary power headroom for the UE on the primary wireless access node from the UE; a secondary wireless access node wirelessly receiving secondary power headroom for the UE on the secondary wireless access node from the UE and transferring the secondary power headroom to the primary wireless access node; the primary wireless access node executing a Packet Data Convergence Protocol, PDCP, and the executing PDCP comparing the primary power headroom to the secondary power headroom, determining a primary uplink grant amount and a secondary uplink grant amount for the UE based on the power headroom comparison, and transferring the secondary uplink grant amount to the secondary wireless access node; the primary wireless access node granting primary uplink resources to the UE based on the primary uplink grant amount and wirelessly receiving primary user data from the UE using the primary uplink resources; and the secondary wireless access node granting secondary uplink resources to the UE based on the secondary uplink grant amount and wirelessly receiving secondary user data from the UE using the secondary uplink resources.
Galacto-oligosaccharides or nutritional composition comprising galacto-oligosaccharides for use in therapeutically preventing and/or ameliorating a food contaminant induced decrease of the B cell adaptive immune response to vaccination with an antigen that is derived from a virus, wherein the galacto-oligosaccharides comprise beta1,3'-galactosyllactose, and wherein the galacto-oligosaccharides comprise at least 20 % beta1,3'-galactosyllactose based on total weight of the galacto-oligosaccharides, wherein the nutritional composition is a synthetic nutritional composition.
Drive system for a vehicle , wherein the drive system comprises a combustion engine with an output shaft , a gear box with an input shaft , an electric machine which comprises a stator and a rotor , and a planetary gear which comprises a sun wheel , a ring wheel and a planet wheel holder , wherein the output shaft of the combustion engine is connected to a first of said components of the planetary gear such that a rotation of this shaft leads to a rotation of this component, wherein the input shaft of the gear box is connected to a second of said components of the planetary gear such that a rotation of this shaft leads to a rotation of this component and the rotor of the electric machine is connected to a third of said components of the planetary gear such that a rotation of the rotor leads to a rotation of this component, characterized in that the drive system comprises a low voltage battery with a rated voltage of at most 60 volt and an electric switch with which the low voltage battery is connectable to the electric machine and a hybrid energy storage , and that the low voltage battery is connected to the electric machine during a starting process of the vehicle when the hybrid energy storage is estimated to have an undesired function.
A manufacturing method for a metal plate used for manufacturing a deposition mask having a plurality of through-holes formed therein, the method comprising a preparation step of preparing a plate member made of an iron alloy containing 30 to 54% by mass of nickel, wherein the preparation step includes a rolling step of rolling a base metal made of an iron alloy containing nickel, or wherein the preparation step includes a foil creating step of creating a plating film by using a plating liquid including a solution containing a nickel compound and a solution containing an iron compound, further comprising an annealing step of annealing the plate member to obtain the metal plate, wherein the annealing step is performed in an inert gas atmosphere where the inert gas exists 90% or more, and comprising a severing step of severing both ends of the metal plate in the width direction thereof over a predetermined range, wherein a thickness of the metal plate is 85 μm or less, and wherein: when a composition analysis of a first surface of the metal plate obtained from the plate member is performed by using an X-ray photoelectron spectroscopy, a ratio A1/A2 obtained by the result of the X-ray photoelectron spectroscopy is 0.4 or less, where A1 is a sum of a peak planar dimension value of nickel oxide and a peak planar dimension value of nickel hydroxide, and A2 is a sum of a peak planar dimension value of iron oxide and a peak planar dimension value of iron hydroxide; and in the composition analysis of the first surface of the metal plate by means of the X-ray photoelectron spectroscopy, an incident angle of an X-ray emitted to the metal plate on the first surface is 45 degrees, and an acceptance angle of photoelectrons discharged from the metal plate is 90 degrees, wherein the method for calculating the ratio A1/A2 based on the analysis result by means of the XPS method is performed as specified in the description; and wherein calculating the background line is performed by using the Shirley method as specified in the description. when a composition analysis of a first surface of the metal plate obtained from the plate member is performed by using an X-ray photoelectron spectroscopy, a ratio A1/A2 obtained by the result of the X-ray photoelectron spectroscopy is 0.4 or less, where A1 is a sum of a peak planar dimension value of nickel oxide and a peak planar dimension value of nickel hydroxide, and A2 is a sum of a peak planar dimension value of iron oxide and a peak planar dimension value of iron hydroxide; and in the composition analysis of the first surface of the metal plate by means of the X-ray photoelectron spectroscopy, an incident angle of an X-ray emitted to the metal plate on the first surface is 45 degrees, and an acceptance angle of photoelectrons discharged from the metal plate is 90 degrees, wherein the method for calculating the ratio A1/A2 based on the analysis result by means of the XPS method is performed as specified in the description; and wherein calculating the background line is performed by using the Shirley method as specified in the description.
A method of generating information on an excitation class for bandwidth extension, the method including: determining, based on a result of signal classification, whether a current frame corresponds to a speech signal ; generating an excitation class information for the current frame, in response that the current frame corresponds to the speech signal; when the current frame does not correspond to the speech signal, obtaining tonality of the current frame ; generating an excitation class information for the current frame by using the tonality and at least one threshold; and generating a bitstream including the excitation class information. determining, based on a result of signal classification, whether a current frame corresponds to a speech signal ; generating an excitation class information for the current frame, in response that the current frame corresponds to the speech signal; when the current frame does not correspond to the speech signal, obtaining tonality of the current frame ; generating an excitation class information for the current frame by using the tonality and at least one threshold; and generating a bitstream including the excitation class information.
A kit, comprising an object delivery arrangement for delivering objects into bone, and retention means (108, 113, 109, 111, 112, 200, 201, 203, 204a-e) formed by one of - a covering layer having a lower perfusion coefficient than the embracing tissues, - an active object having a size sufficient to prevent passive diffusion out of the target in the bone, - a substance configured to expand and cover the target site in the bone, and - means for subsequent application of mechanical waves for maintaining the substance in the target, after application of mechanical waves for depositing the substance, wherein said object delivery arrangement comprises an ultrasound, photo-acoustics or plasma source configured to generate localized mechanical waves, and wherein said object delivery arrangement is configured to - perform localized deposition of the objects near bone, - expose the objects and the bone to said localized mechanical waves to force the objects into the bone, and - wherein said retention means is configured to perform retention of the deposited objects in the bone, so as to prevent the deposed objects from escaping the target site in the bone. - a covering layer having a lower perfusion coefficient than the embracing tissues, - an active object having a size sufficient to prevent passive diffusion out of the target in the bone, - a substance configured to expand and cover the target site in the bone, and - means for subsequent application of mechanical waves for maintaining the substance in the target, after application of mechanical waves for depositing the substance, - perform localized deposition of the objects near bone, - expose the objects and the bone to said localized mechanical waves to force the objects into the bone, and - wherein said retention means is configured to perform retention of the deposited objects in the bone, so as to prevent the deposed objects from escaping the target site in the bone.
High-temperature water gas shift reactor , low-temperature water gas shift reactor or preferential oxidation reactor , which purifies a carbon monoxide containing hydrogen rich reformat gas (B) from carbon monoxide contained in the carbon monoxide containing hydrogen rich reformate gas (B), wherein the water gas shift reactor or the preferential oxidation reactor comprises a housing , wherein the housing a. incorporates an oxidation catalyst , which oxidizes the carbon monoxide of the carbon monoxide containing hydrogen rich reformat gas (B) by means of an oxidizing agent (A) to carbon dioxide, b. comprises upstream of the catalyst at least one gas inlet for providing a gas stream (B; C) of at least said carbon monoxide containing hydrogen rich reformat gas (B) into the housing , c. comprises downstream of the catalyst a gas outlet for exiting purified hydrogen rich reformat gas from the housing , and d. incorporates a gas stream perturbation device which is arranged upstream of the catalyst and which is adapted to provide a perturbation in the gas stream, characterized in that the gas stream perturbation device is designed as at least one propeller- shaped plate with a plate portion having a surface facing the gas stream and at least one circumferentially extending blade which is connected to the plate portion and has a radially extending leading edge and a radially extending effluent edge which are axially aligned , wherein a surface defined between leading edge and effluent edge is inclined in relation to the surface of the plate portion with a predetermined blade inclination angle (α), thereby defining at least one opening in the plate. a. incorporates an oxidation catalyst , which oxidizes the carbon monoxide of the carbon monoxide containing hydrogen rich reformat gas (B) by means of an oxidizing agent (A) to carbon dioxide, b. comprises upstream of the catalyst at least one gas inlet for providing a gas stream (B; C) of at least said carbon monoxide containing hydrogen rich reformat gas (B) into the housing , c. comprises downstream of the catalyst a gas outlet for exiting purified hydrogen rich reformat gas from the housing , and d. incorporates a gas stream perturbation device which is arranged upstream of the catalyst and which is adapted to provide a perturbation in the gas stream,
A method for the long-term storage of the waste nuclear fuel of the nuclear reactor comprising the allocation of the waste nuclear reactor fuel assembly (WNRFA) in the steel canister and sealing with the lid characterized by the preliminary filling of the canister with the material chemically resistant to the fuel element jackets of WNRFA, canister material, air and water, then putting the canister in the heating unit, heating the canister filled with material until it liquefies afterwards the WNRFA is taken out of the nuclear reactor is placed in the canister so the fueling section of WNRFA is below the liquefied material level in the canister, the WNRFA is fixed in this position, sealed with the liquified material, afterwards the sealed steel canister is removed from the heating unit and placed in the storage cooled with the ambient air.