mhurhangee/patent-ind-claim-en huggingface dataset:
An assist device for an implement , comprising: a pivot attached to a frame ; a cradle attached to the pivot , the cradle configured to receive a driveline of the implement , the driveline including a longitudinal axis; and a handle attached to and extending past the cradle distally from the pivot , configured to allow a user to rotate the cradle about the pivot , wherein the cradle is disposed apart from the pivot so that rotating the cradle about the pivot causes the cradle to change height relative to the frame , enabling the cradle to selectively engage with the driveline and raise the driveline into a position for coupling the driveline to a power take-off , and characterized in that the assist device further includes at least one spring attached to the cradle , the at least one spring being configured to accept at least part of the weight of the driveline during coupling of the driveline to the power take-off . a pivot attached to a frame ; a cradle attached to the pivot , the cradle configured to receive a driveline of the implement , the driveline including a longitudinal axis; and a handle attached to and extending past the cradle distally from the pivot , configured to allow a user to rotate the cradle about the pivot , wherein the cradle is disposed apart from the pivot so that rotating the cradle about the pivot causes the cradle to change height relative to the frame , enabling the cradle to selectively engage with the driveline and raise the driveline into a position for coupling the driveline to a power take-off , and characterized in that the assist device further includes at least one spring attached to the cradle , the at least one spring being configured to accept at least part of the weight of the driveline during coupling of the driveline to the power take-off .
A sequence processing method, applied to a graphics processor, characterized in that the method comprises: determining (S1 1) a sequence having an irregular tensor data structure as a sequence to be processed; determining (S12) data structure information in the sequence to be processed, where the data structure information includes tensor dimensions and element information in tensors of each dimension; converting (S13) the irregular tensor data structure into a regular tensor data structure based on the tensor dimension and the element information; and processing (S14) the sequence to be processed based on the regular tensor data structure; wherein said converting (S13) the irregular tensor data structure into a regular tensor data structure based on the tensor dimension and the element information comprises: when the irregular tensor data structure includes N tensor dimensions, converting the irregular tensor data structure into N-1 regular array pairs based on the element information. determining (S1 1) a sequence having an irregular tensor data structure as a sequence to be processed; determining (S12) data structure information in the sequence to be processed, where the data structure information includes tensor dimensions and element information in tensors of each dimension; converting (S13) the irregular tensor data structure into a regular tensor data structure based on the tensor dimension and the element information; and processing (S14) the sequence to be processed based on the regular tensor data structure; wherein said converting (S13) the irregular tensor data structure into a regular tensor data structure based on the tensor dimension and the element information comprises: when the irregular tensor data structure includes N tensor dimensions, converting the irregular tensor data structure into N-1 regular array pairs based on the element information.
A freeze dried pellet for a recombinase polymerase amplification process of DNA amplification of a target nucleic acid molecule, comprising: (a) a recombinase; (b) a recombinase loading protein; (c) a single stranded DNA binding protein; (d) a strand displacing DNA polymerase; (e) trehalose; (f) a crowding agent, wherein the crowding agent is polyethylene glycol; (g) a first primer; and optionally (h) a second primer, wherein: (i) Potassium Acetate is not present in said pellet; and (ii) TRIS buffer is present in said pellet and wherein the concentration of said TRIS buffer is 25 mM or less. (a) a recombinase; (b) a recombinase loading protein; (c) a single stranded DNA binding protein; (d) a strand displacing DNA polymerase; (e) trehalose; (f) a crowding agent, wherein the crowding agent is polyethylene glycol; (g) a first primer; and optionally (h) a second primer, (i) Potassium Acetate is not present in said pellet; and (ii) TRIS buffer is present in said pellet and wherein the concentration of said TRIS buffer is 25 mM or less.
An ozone generating apparatus comprising: a first discharge electrode and a second discharge electrode that generate ozone through discharge; a heater electrode having a first end connected to the first discharge electrode and a second end connected to the second discharge electrode; and one power supply that applies voltage between the first end and the second end, wherein, when a current path that connects the first end to the second end through the first discharge electrode and the second discharge electrode is referred to as a first path, a ratio of voltage with respect to current through the first path is referred to as a first resistance value, a current path that connects the first end to the second end through the heater electrode is referred to as a second path, and a ratio of voltage with respect to current through the second path is referred to as a second resistance value, the second resistance value is higher than the first resistance value in a voltage range higher than discharge start voltage at which the discharge occurs between the first discharge electrode and the second discharge electrode. a first discharge electrode and a second discharge electrode that generate ozone through discharge; a heater electrode having a first end connected to the first discharge electrode and a second end connected to the second discharge electrode; and one power supply that applies voltage between the first end and the second end, wherein, when a current path that connects the first end to the second end through the first discharge electrode and the second discharge electrode is referred to as a first path, a ratio of voltage with respect to current through the first path is referred to as a first resistance value, a current path that connects the first end to the second end through the heater electrode is referred to as a second path, and a ratio of voltage with respect to current through the second path is referred to as a second resistance value, the second resistance value is higher than the first resistance value in a voltage range higher than discharge start voltage at which the discharge occurs between the first discharge electrode and the second discharge electrode.
A conjugate comprising (i) an anti-CCR6 antibody and (ii) a calcineurin inhibitor for use in a method for the treatment of an inflammatory disease.
A method for wireless communication performed by an apparatus, comprising: establishing a first connection with a user equipment, UE, using a first carrier in a first frequency band; receiving , from the UE, a timing difference between transmissions in the first frequency band and one or more transmissions in a second frequency band that is higher than the first frequency band; determining that the UE is to use an asynchronous carrier aggregation mode for communications using a second carrier in the second frequency band based at least in part on the timing difference, and transmitting an indication that the UE is to use the asynchronous carrier aggregation mode for communication with the second carrier in the second frequency band. establishing a first connection with a user equipment, UE, using a first carrier in a first frequency band; receiving , from the UE, a timing difference between transmissions in the first frequency band and one or more transmissions in a second frequency band that is higher than the first frequency band; determining that the UE is to use an asynchronous carrier aggregation mode for communications using a second carrier in the second frequency band based at least in part on the timing difference, and transmitting an indication that the UE is to use the asynchronous carrier aggregation mode for communication with the second carrier in the second frequency band.
An artificial reality system comprising: a device comprising one of a peripheral device configured to generate artificial reality content for display or a head-mounted display unit, HMD, configured to output artificial reality content, wherein the device comprises a System on a Chip, SoC, comprising a host subsystem , a plurality of non-host subsystems , and the host subsystem including an inter-process communication, IPC, module connected to each of the non-host subsystems, wherein each non-host subsystem of the plurality of non-host subsystems includes a local processor and a child energy processing unit connected to the local processor, the child energy processing unit configured to manage power states for the non-host subsystem, wherein each local processor is configured to communicate with the local processor of other non-host subsystems of the plurality of non-host subsystems via the IPC module and to request a change in the power state of another non-host subsystem via a corresponding request transferred through the IPC module to the local processor of the another non-host subsystem, and wherein the host subsystem comprises a parent energy processing unit configured to direct power management of each of the child energy processing units of the plurality of non-host subsystems. a device comprising one of a peripheral device configured to generate artificial reality content for display or a head-mounted display unit, HMD, configured to output artificial reality content, wherein the device comprises a System on a Chip, SoC, comprising a host subsystem , a plurality of non-host subsystems , and the host subsystem including an inter-process communication, IPC, module connected to each of the non-host subsystems, wherein each non-host subsystem of the plurality of non-host subsystems includes a local processor and a child energy processing unit connected to the local processor, the child energy processing unit configured to manage power states for the non-host subsystem, wherein each local processor is configured to communicate with the local processor of other non-host subsystems of the plurality of non-host subsystems via the IPC module and to request a change in the power state of another non-host subsystem via a corresponding request transferred through the IPC module to the local processor of the another non-host subsystem, and
A process for the preparation of 1,2-alkanediols in solid dosage form, comprising or consisting of the following steps: (a) providing a melt of at least one 1,2-alkanediol; (b) cooling the melt from step (a) to a temperature below the melting point of 1,2-alkanediol or the 1,2-alkanediol mixture to obtain a pre-scratched melt consisting of a supercooled 1,2-alkanediol or a supercooled 1,2-alkanediol mixture containing 1,2-alkanediol seed crystals; (c) contacting the mixture of step (b) with a cooled surface to obtain 1,2-alkanediols or 1,2-alkanediol mixtures in crystalline form, with the proviso that 1,2-alkanediols which have 8 to 14 carbon atoms are used. (a) providing a melt of at least one 1,2-alkanediol; (b) cooling the melt from step (a) to a temperature below the melting point of 1,2-alkanediol or the 1,2-alkanediol mixture to obtain a pre-scratched melt consisting of a supercooled 1,2-alkanediol or a supercooled 1,2-alkanediol mixture containing 1,2-alkanediol seed crystals; (c) contacting the mixture of step (b) with a cooled surface to obtain 1,2-alkanediols or 1,2-alkanediol mixtures in crystalline form,
A method of measuring at least one parameter of an earth formation, the method comprising: deploying a logging tool in a wellbore traversing the formation, wherein the logging tool comprises: a neutron source configured to emit fast neutrons, and at least one neutron detector (104; 106), using the neutron source to emit fast neutrons into the formation, using the at least one neutron detector (104; 106) to detect neutrons arriving at the detector (104; 106), characterised in that the method further comprises measuring a time-of-flight (TOF) of fast neutrons traversing from the neutron source to the at least one neutron detector (104; 106) through a portion of the earth formation, and using the measured TOF to determine the at least one parameter. deploying a logging tool in a wellbore traversing the formation, wherein the logging tool comprises: a neutron source configured to emit fast neutrons, and at least one neutron detector (104; 106), a neutron source configured to emit fast neutrons, and at least one neutron detector (104; 106), using the neutron source to emit fast neutrons into the formation, using the at least one neutron detector (104; 106) to detect neutrons arriving at the detector (104; 106), characterised in that the method further comprises measuring a time-of-flight (TOF) of fast neutrons traversing from the neutron source to the at least one neutron detector (104; 106) through a portion of the earth formation, and using the measured TOF to determine the at least one parameter. measuring a time-of-flight (TOF) of fast neutrons traversing from the neutron source to the at least one neutron detector (104; 106) through a portion of the earth formation, and using the measured TOF to determine the at least one parameter.
A food composition for use in a method for the improvement and prevention of estrogen deficiency in climacteric women, the composition comprising a thistle ( Cirsium japonicum ) and thyme ( Thymus vulgaris ) complex extract as an active ingredient.
Method for conditioning a breathing tube for use in lung function diagnostics, wherein at least a section of a fully assembled breathing tube, the section comprising at least one window covered by a mesh, is heated by a heating source to a temperature of at least 40 °C, wherein the temperature is at least as high as a glass transition temperature of the mesh and at least 10 °C lower than a lower temperature of a melting range of the mesh, during a first time period lasting between 0.1 seconds and 5 seconds, wherein the mesh comprises a) a material chosen from the group consisting of polyethylene, polypropylene, acrylonitrile butadiene styrene, polyether ether ketone, polycarbonates, polystyrene, polyethylene terephthalate, polyethylene terephthalate glycol, polyamide, polyacetal, as well as blends and copolymers thereof, if the mesh comprises the same material as the rest of the breathing tube, i. e., a breathing tube body; or b) a material chosen from the group consisting of polyesters, polyamide, polyethylene terephthalate, polypropylene, chlorotrifluoroethylene, ethylene tetrafluoroethylene, as well as blends and copolymers thereof, if the mesh comprises a material that is different from the material used for the breathing tube body. a) a material chosen from the group consisting of polyethylene, polypropylene, acrylonitrile butadiene styrene, polyether ether ketone, polycarbonates, polystyrene, polyethylene terephthalate, polyethylene terephthalate glycol, polyamide, polyacetal, as well as blends and copolymers thereof, if the mesh comprises the same material as the rest of the breathing tube, i. e., a breathing tube body; or b) a material chosen from the group consisting of polyesters, polyamide, polyethylene terephthalate, polypropylene, chlorotrifluoroethylene, ethylene tetrafluoroethylene, as well as blends and copolymers thereof, if the mesh comprises a material that is different from the material used for the breathing tube body.
A sensing system , comprising: a patient interface module , PIM, communicatively disposed between a processing system and a sensing device configured to be positioned within a body of a patient, the PIM comprising a transmitter , an analog to digital converter, ADC, a communication device, wherein the PIM is configured to be powered by a wireless charging system, wherein the PIM is configured to: transmit, with the transmitter, a first signal to the sensing device; receive a measurement signal associated with the first signal from the sensing device; digitize the measurement signal with the ADC; and transmit the digitized measurement signal to the processing system wirelessly via the communication device, characterized in that the PIM is configured to cease all transmissions during charging by the wireless charging system. a patient interface module , PIM, communicatively disposed between a processing system and a sensing device configured to be positioned within a body of a patient, the PIM comprising a transmitter , an analog to digital converter, ADC, a communication device, wherein the PIM is configured to be powered by a wireless charging system, wherein the PIM is configured to: transmit, with the transmitter, a first signal to the sensing device; receive a measurement signal associated with the first signal from the sensing device; digitize the measurement signal with the ADC; and transmit the digitized measurement signal to the processing system wirelessly via the communication device, characterized in that the PIM is configured to cease all transmissions during charging by the wireless charging system. transmit, with the transmitter, a first signal to the sensing device; receive a measurement signal associated with the first signal from the sensing device; digitize the measurement signal with the ADC; and transmit the digitized measurement signal to the processing system wirelessly via the communication device, characterized in that the PIM is configured to cease all transmissions during charging by the wireless charging system.
A protective warning fence for preventative protection of road work, construction work, and/or excavation work, consisting of a lattice having fringes and weft threads , which are interwoven, and retroreflective elements , wherein the retroreflective elements are strips, wherein the fringes and weft threads are made of or comprise a polyolefin, wherein the retroreflective elements are woven onto the lattice by means of at least one further weft thread , wherein the at least one further weft thread is woven onto the retroreflective elements in a zig-zag-shaped manner, characterized in that at least the outer fringes comprise in each case two sub-fringes which are connected to one another in pairs by means of yet at least one further weft thread running in a zig-zag-shaped manner such that they run directly adjacent and parallel to one another, wherein the sub-fringes are each formed from at least two threads .
Apparatus for transmitting signals from and to a plurality of terminals , wherein the apparatus has a number of signal connections and a number of antenna connections (AA1, AA2, AA3), wherein the apparatus has at least two antenna connections (AA1, AA2, AA3), wherein one signal connection is a primary connection (HA1, HA2, HA3), or a secondary connection (NA1, NA2), wherein the apparatus has at least one primary connection (HA1, HA2, HA3) for each terminal which can be connected, wherein the number of signal connections is greater than the number of antenna connections (AA1, AA2, AA3), wherein the apparatus also comprises at least one linking element, wherein each primary connection (HA1, HA2, HA3) can be linked to each antenna connection (AA1, AA2, AA3) via a signal link, wherein the apparatus comprises at least one device for detecting transmitting activity, characterised in that by means of the device for detecting transmitting activity, an actively transmitting main connection (HA1, HA2, HA3) can be detected on the basis of a signal characteristic of a signal, wherein an actively transmitting main connection (HA1, HA2, HA3) can be detected when a signal level of the signal is greater than a predetermined threshold value, wherein the signal is present on a signal link section which is linked to the main connection (HA1, HA2, HA3), wherein signaling links between the signal connections and the antenna connections (AA1, AA2, AA3) can be established on the basis of the detected actively transmitting main connections (HA1, HA2, HA3), wherein, in the event of an inadequate energy supply to the apparatus , at least one signal connection (HA1, HA2, HA3, NA1, NA2) can be connected to an antenna connection (AA1, AA2, AA3).
A method of making a composition comprising a functionalized pyranine monomer, the method comprising the steps of - providing a starting amount of pyranine in an aqueous solvent system, - adding an amount of base to the aqueous solvent system, - dosing to the aqueous solvent system an amount of a polymerizable functionalizing agent to form a reaction mixture, thereby initiating the reaction of the pyranine with the functionalizing agent to functionalize the pyranine molecule with a polymerizable functional group, said amount of the polymerizable functionalizing agent being less than said starting amount of pyranine on a molar basis, and - maintaining the dosing of the functionalizing agent to the reaction mixture during the reaction of the pyranine with the functionalizing agent until the amount of functionalizing agent dosed to the system exceeds the starting amount of pyranine on a molar basis, wherein (i) the base is added to the solvent system prior to the addition of the functionalizing agent, or (ii) the base and the functionalizing agent are simultaneously dosed to the aqueous solvent system, wherein the dosing of both the functionalizing agent and the base is maintained during the reaction of the pyranine with the functionalizing agent until the amount of functionalizing agent dosed to the system exceeds the starting amount of pyranine on a molar basis; and wherein said composition comprises less than 5 mol% unfunctionalized pyranine, based on the total amount of unfunctionalized pyranine and functionalized pyranine. - providing a starting amount of pyranine in an aqueous solvent system, - adding an amount of base to the aqueous solvent system, - dosing to the aqueous solvent system an amount of a polymerizable functionalizing agent to form a reaction mixture, thereby initiating the reaction of the pyranine with the functionalizing agent to functionalize the pyranine molecule with a polymerizable functional group, said amount of the polymerizable functionalizing agent being less than said starting amount of pyranine on a molar basis, and - maintaining the dosing of the functionalizing agent to the reaction mixture during the reaction of the pyranine with the functionalizing agent until the amount of functionalizing agent dosed to the system exceeds the starting amount of pyranine on a molar basis, (i) the base is added to the solvent system prior to the addition of the functionalizing agent, or (ii) the base and the functionalizing agent are simultaneously dosed to the aqueous solvent system, wherein the dosing of both the functionalizing agent and the base is maintained during the reaction of the pyranine with the functionalizing agent until the amount of functionalizing agent dosed to the system exceeds the starting amount of pyranine on a molar basis;
A topical composition comprising: a) 0.1 to 10 % by weight of Niacinamide; b) 0.01% to 5% by weight of a first quaternary ammonium salt comprising Didecyl Dimethyl Ammonium Chloride; c) 0.01 to 5 % by weight of a second quaternary ammonium salt; and d) a cosmetically acceptable base. a) 0.1 to 10 % by weight of Niacinamide; b) 0.01% to 5% by weight of a first quaternary ammonium salt comprising Didecyl Dimethyl Ammonium Chloride; c) 0.01 to 5 % by weight of a second quaternary ammonium salt; and d) a cosmetically acceptable base.