mhurhangee/patent-ind-claim-en huggingface dataset:
A polyolefin, obtained by a process comprising: copolymerizing ethylene with at least one alpha-olefin comonomer, wherein the polyolefin has a molecular weight distribution of 1.5 to 3.0 and has a branch gradient number (BGN) of 0.01 to 1.0, wherein the BGN is calculated by Equation 1 below: Branch Gradient Number BGN = Branch content of high molecular weight − Branch content of low molecular weight Branch content of low molecular weight in Equation 1, the branch gradient number is a measure of a distribution of a content of the at least one alpha-olefin comonomer according to a molecular weight of polyolefin, the branch content is a number of the at least one alpha-olefin comonomer incorporated per 1000 carbon atoms in a molecular weight distribution curve using GPC-FTIR in which an x-axis represents a log value of a molecular weight (log Mw) and a y-axis value represents a molecular weight distribution (dwt/dlog Mw) with respect to the log value, the branch content of low molecular weight is a branch content at a left side boundary of the curve without a first 10% content of the curve, and the branch content of high molecular weight is a branch content at a right side boundary of the curve without the last 10% content of the curve, wherein the number of branch contents of 2 or more carbon atoms per 1000 carbon atoms is 20 to 120, and wherein the polyolefin has a density of 0.86 to 0.90 g/cm 3 . copolymerizing ethylene with at least one alpha-olefin comonomer, wherein the polyolefin has a molecular weight distribution of 1.5 to 3.0 and has a branch gradient number (BGN) of 0.01 to 1.0, wherein the BGN is calculated by Equation 1 below: Branch Gradient Number BGN = Branch content of high molecular weight − Branch content of low molecular weight Branch content of low molecular weight in Equation 1, the branch gradient number is a measure of a distribution of a content of the at least one alpha-olefin comonomer according to a molecular weight of polyolefin, the branch content is a number of the at least one alpha-olefin comonomer incorporated per 1000 carbon atoms in a molecular weight distribution curve using GPC-FTIR in which an x-axis represents a log value of a molecular weight (log Mw) and a y-axis value represents a molecular weight distribution (dwt/dlog Mw) with respect to the log value, the branch content of low molecular weight is a branch content at a left side boundary of the curve without a first 10% content of the curve, and the branch content of high molecular weight is a branch content at a right side boundary of the curve without the last 10% content of the curve, wherein the number of branch contents of 2 or more carbon atoms per 1000 carbon atoms is 20 to 120, and wherein the polyolefin has a density of 0.86 to 0.90 g/cm 3 .
A method of using at least one computing agent to implement a DFA in conjunction with a blockchain , the DFA being defined by a state transition table that specifies the triggering events and future states for all possible current states for the DFA, the method comprising the steps: using, by the at least one computing agent, at least one input signal to determine whether at least one triggering event has occurred, the at least one triggering event being associated with a current state from which the DFA will move after the triggering event and a new state that the DFA will be in after a transition which the triggering event initiates and, based on the outcome of the determination, performing an action in accordance with the state transition table for the DFA; wherein: i) the states of the DFA are represented by unspent outputs in transactions on the blockchain; ii) the triggering event causes spending of an unspent output of at least one transaction on the blockchain, wherein the unspent output is associated with a given state of the DFA, and iii) spending the unspent output of the at least one transaction on the blockchain represents a transition to a different state by creating the output associated with the next state. using, by the at least one computing agent, at least one input signal to determine whether at least one triggering event has occurred, the at least one triggering event being associated with a current state from which the DFA will move after the triggering event and a new state that the DFA will be in after a transition which the triggering event initiates and, based on the outcome of the determination, performing an action in accordance with the state transition table for the DFA; wherein: i) the states of the DFA are represented by unspent outputs in transactions on the blockchain; ii) the triggering event causes spending of an unspent output of at least one transaction on the blockchain, wherein the unspent output is associated with a given state of the DFA, and iii) spending the unspent output of the at least one transaction on the blockchain represents a transition to a different state by creating the output associated with the next state. i) the states of the DFA are represented by unspent outputs in transactions on the blockchain; ii) the triggering event causes spending of an unspent output of at least one transaction on the blockchain, wherein the unspent output is associated with a given state of the DFA, and iii) spending the unspent output of the at least one transaction on the blockchain represents a transition to a different state by creating the output associated with the next state.
A process for the production of a bouillon tablet comprising salt and starch, the process comprising the steps of: a) dissolving the salt or part of the salt in water; b) mixing the starch and the water before, during or after dissolution of the salt or part of the salt in water; c) drying the mixture of step b) to obtain a dry salt-starch mass; d) optionally milling the dry salt-starch mass; e) mixing the dry salt-starch mass with at least one further ingredient selected from the group consisting of salt, sugar, MSG, flavourings, colourants, fillers, oil, fat, or any combination thereof, to result in a dry composition; f) pressing the dry composition to a bouillon tablet; wherein the bouillon tablet comprises at least 10wt% salt-starch mass; and wherein the salt-starch mass comprises 18 to 82wt% salt and 18 to 82wt% starch; and wherein the salt is dissolved in the water at a ratio between 1:2.8 to 1:20; and wherein the drying is done at a temperature between 65 to 120°C. a) dissolving the salt or part of the salt in water; b) mixing the starch and the water before, during or after dissolution of the salt or part of the salt in water; c) drying the mixture of step b) to obtain a dry salt-starch mass; d) optionally milling the dry salt-starch mass; e) mixing the dry salt-starch mass with at least one further ingredient selected from the group consisting of salt, sugar, MSG, flavourings, colourants, fillers, oil, fat, or any combination thereof, to result in a dry composition; f) pressing the dry composition to a bouillon tablet; wherein the bouillon tablet comprises at least 10wt% salt-starch mass; and wherein the salt-starch mass comprises 18 to 82wt% salt and 18 to 82wt% starch; and wherein the salt is dissolved in the water at a ratio between 1:2.8 to 1:20; and wherein the drying is done at a temperature between 65 to 120°C.
A piggery installation for breeding pigs, the piggery installation comprising a piggery , and where the piggery is provided with transport means for supporting the piggery at a location in a field and during a movement of the piggery installation , such that the piggery installation is capable of being transported from one location of the piggery installation in the field to another location of the piggery installation in the field, and where the piggery installation comprises an outdoor enclosure attached to the piggery at a rear end of piggery , where only the piggery has a floor , walls and a roof , and where the piggery has an aperture in the rear wall , characterised in that the transport means is wheels or belts placed on the sides of or below the piggery and/or tracks placed on the sides of or below the piggery , the enclosure comprises a number of enclosure elements capable of enclosing an area of the field provided for natural foraging when the pigs rooting the soil, and where the piggery has a slope leading from the piggery to the enclosure, where the pigs during use of the piggery installation can pass from the piggery to the enclosure , and from the enclosure to the piggery , along the slope and through the aperture in the rear wall of the piggery , wherein the enclosure comprises a number of transverse extending enclosure elements extending transverse to a direction of movement of the piggery installation , and configured for levelling out the area of field having been rooted by the pigs when the enclosure is pulled by the piggery, and where the piggery installation comprises storage containers for feed and liquid, and distribution means for distributing feed and liquid inside the piggery , and the piggery installation comprising at least one of the following electricity generating means: solar panels, motorised electric power generator or a battery, for generating electric power to a plurality of electric power consuming equipment such as the feed and liquid distributing means and lighting, and where the electric power consuming equipment is provided as an integrate part of the piggery installation .
Trametinib for use in the treatment of a neurodegenerative disease due to neuronal loss or damage, wherein the neurodegenerative disease is selected from the group consisting of Alzheimer's disease, amyotrophic lateral sclerosis (ALS, Lou-Gehrig's disease), dementia, vascular dementia, frontotemporal dementia, Lewy body dementia, multiple system atrophy, corticobasal degeneration, progressive supranuclear palsy, Huntington's disease, primary lateral sclerosis, spinal muscular atrophy, progressive bulbar palsy (PBP), progressive muscular atrophy (PMA), pseudobulbar palsy, hereditary spastic paraplegia (HSP) and cerebellar ataxia.
A method for wireless communications by a user equipment, UE, comprising: identifying one or more subframes, within at least one radio frame, unavailable for bundled transmissions across multiple subframes, wherein the identifying comprises classifying unavailable subframes into at least a first group and a second group, wherein the first group comprises subframes that are determined not available for bundled transmissions to any UE that communicates using at least one narrowband region within a wider system bandwidth; and the second group comprises subframes that are determined not available for bundled transmissions to one or more particular UEs; and communicating , via the at least one narrowband region within a wider system bandwidth, using bundled transmissions across multiple subframes, wherein the communicating is adjusted to: skip bundled transmissions that would occur on one or more unavailable subframes of the second group ; or postpone bundled transmissions if they are scheduled to occur on one or more unavailable subframes of the first group and to schedule the postponed bundled transmissions to one or more later occurring subframes . identifying one or more subframes, within at least one radio frame, unavailable for bundled transmissions across multiple subframes, wherein the identifying comprises classifying unavailable subframes into at least a first group and a second group, wherein the first group comprises subframes that are determined not available for bundled transmissions to any UE that communicates using at least one narrowband region within a wider system bandwidth; and the second group comprises subframes that are determined not available for bundled transmissions to one or more particular UEs; and the first group comprises subframes that are determined not available for bundled transmissions to any UE that communicates using at least one narrowband region within a wider system bandwidth; and the second group comprises subframes that are determined not available for bundled transmissions to one or more particular UEs; and communicating , via the at least one narrowband region within a wider system bandwidth, using bundled transmissions across multiple subframes, wherein the communicating is adjusted to: skip bundled transmissions that would occur on one or more unavailable subframes of the second group ; or postpone bundled transmissions if they are scheduled to occur on one or more unavailable subframes of the first group and to schedule the postponed bundled transmissions to one or more later occurring subframes . skip bundled transmissions that would occur on one or more unavailable subframes of the second group ; or postpone bundled transmissions if they are scheduled to occur on one or more unavailable subframes of the first group and to schedule the postponed bundled transmissions to one or more later occurring subframes .
A cartridge to be attached to an apparatus main body of an image forming apparatus configured to perform an image forming operation, the cartridge comprising: a first unit including a photosensitive member ; and a second unit coupled with the first unit and including a developer bearing member and a force receiving portion , the second unit being configured to be rotatable about a first axis to move with respect to the first unit between a first position where the developer bearing member is in contact with the photosensitive member and a second position where the developer bearing member is separated from the photosensitive member , and the second unit being configured to, when the force receiving portion receives a force from the apparatus main body , be disposed at the first position, wherein, in a state where the first unit is in a same posture as when the image forming operation is performed, the second unit is configured to disposed at the second position by its own weight, and the developer bearing member and the force receiving portion are disposed above a horizontal line passing through the first axis, wherein the developer bearing member is configured to be rotatable about a second axis, and wherein, when seen in a direction of the first axis, a first distance between the force receiving portion and the second axis is shorter than a second distance between the first axis and the second axis and a third distance between the first axis and the force receiving portion . a first unit including a photosensitive member ; and a second unit coupled with the first unit and including a developer bearing member and a force receiving portion , the second unit being configured to be rotatable about a first axis to move with respect to the first unit between a first position where the developer bearing member is in contact with the photosensitive member and a second position where the developer bearing member is separated from the photosensitive member , and the second unit being configured to, when the force receiving portion receives a force from the apparatus main body , be disposed at the first position, wherein, in a state where the first unit is in a same posture as when the image forming operation is performed, the second unit is configured to disposed at the second position by its own weight, and the developer bearing member and the force receiving portion are disposed above a horizontal line passing through the first axis, wherein the developer bearing member is configured to be rotatable about a second axis, and wherein, when seen in a direction of the first axis, a first distance between the force receiving portion and the second axis is shorter than a second distance between the first axis and the second axis and a third distance between the first axis and the force receiving portion .
A method comprising: mixing a polymerizable monomer and a polymerization initiator at a mixing temperature of 1-60°C for a mixing period of 1 minute-24 hours to prepare a mixed polymerizable monomer, preserving 1-50 liters of the mixed polymerizable monomer in a mixed polymerizable monomer preserving container at a preserving temperature of 1-23°C for a preserving period of 10 days-1.5 years, kneading the mixed polymerizable monomer and a silanated filler at a kneading temperature of 5-60°C for a kneading period of 5-40 minutes after charging the silanated filler into the mixed polymerizable monomer, wherein a ratio of the silanated filler to the mixed polymerizable monomer is 0.1-9 parts by weight of the silanated filler to 1 part by weight of the mixed polymerizable monomer, defoaming the mixed polymerizable monomer and the silanated filler at 5-200 Torr for a defoaming period of 5-30 minutes to prepare a composite material, preserving 1-8 liters of the composite material in a composite material preserving container at a preserving temperature of 1-25°C for a preserving period of 10 days-1.5 years, filling the composite material extruded from a nozzle of a filling machine into a preserving container having 1-50 cc of volume, and preserving the filled composite material in the preserving container having 1-50 cc of volume at a preserving temperature of 1-40°C for a preserving period of 50 days-5 years. mixing a polymerizable monomer and a polymerization initiator at a mixing temperature of 1-60°C for a mixing period of 1 minute-24 hours to prepare a mixed polymerizable monomer, preserving 1-50 liters of the mixed polymerizable monomer in a mixed polymerizable monomer preserving container at a preserving temperature of 1-23°C for a preserving period of 10 days-1.5 years, kneading the mixed polymerizable monomer and a silanated filler at a kneading temperature of 5-60°C for a kneading period of 5-40 minutes after charging the silanated filler into the mixed polymerizable monomer, wherein a ratio of the silanated filler to the mixed polymerizable monomer is 0.1-9 parts by weight of the silanated filler to 1 part by weight of the mixed polymerizable monomer, defoaming the mixed polymerizable monomer and the silanated filler at 5-200 Torr for a defoaming period of 5-30 minutes to prepare a composite material, preserving 1-8 liters of the composite material in a composite material preserving container at a preserving temperature of 1-25°C for a preserving period of 10 days-1.5 years, filling the composite material extruded from a nozzle of a filling machine into a preserving container having 1-50 cc of volume, and preserving the filled composite material in the preserving container having 1-50 cc of volume at a preserving temperature of 1-40°C for a preserving period of 50 days-5 years.
A device for detecting human activity, comprising: a motion sensor configured to generate a motion measurement of the device, the motion measurement detecting human activities, such as remaining stationary, walking, cycling or driving; an electrostatic charge sensor configured to generate an electrostatic charge measurement of the device, the electrostatic charge measurement detecting whether the device is in an indoor or outdoor environment; and a processing unit configured to determine an activity state of a user of the device based on the motion measurement and the electrostatic charge measurement, and output the activity state, characterised in that the processing unit is configured to use the detected indoor or outdoor environment in conjunction with the detected human activity to validate the detected human activities. a motion sensor configured to generate a motion measurement of the device, the motion measurement detecting human activities, such as remaining stationary, walking, cycling or driving; an electrostatic charge sensor configured to generate an electrostatic charge measurement of the device, the electrostatic charge measurement detecting whether the device is in an indoor or outdoor environment; and a processing unit configured to determine an activity state of a user of the device based on the motion measurement and the electrostatic charge measurement, and output the activity state, characterised in that the processing unit is configured to use the detected indoor or outdoor environment in conjunction with the detected human activity to validate the detected human activities.
An optomechanical device comprising: - a support and, on the same: - at least one mechanical element which is anchored to the support and able to move with respect to the latter, and which comprises a receiving zone able to receive one or more particles (31, P) that are themselves able to cause or modify movement of the mechanical element , and - a device for detecting the movement of the mechanical element or for detecting frequency variations in the movement of the mechanical element , said detecting aiming at determining a physical property of the particle(s) (31, P) from a signal supplied by the detecting device, and at least one part of the detecting device being disposed under all or part of the mechanical element, between the latter and the support, the detecting device comprising an optical device , characterised in that said optical device : - is fixed with respect to the support, - includes at least one optical waveguide and an optical resonator optically coupled to the waveguide through evanescent coupling, - is disposed under all or part of the mechanical element , at a predetermined distance from the same, to allow optomechanical coupling between the mechanical element and the optical resonator , and - is arranged to propagate at least one optical wave having a given wavelength, able to interact with the mechanical element , and in that the optical waveguide is at a determined distance from the mechanical element for the evanescent field of the optical waveguide to interact with the mechanical element. - a support and, on the same: - at least one mechanical element which is anchored to the support and able to move with respect to the latter, and which comprises a receiving zone able to receive one or more particles (31, P) that are themselves able to cause or modify movement of the mechanical element , and - a device for detecting the movement of the mechanical element or for detecting frequency variations in the movement of the mechanical element , said detecting aiming at determining a physical property of the particle(s) (31, P) from a signal supplied by the detecting device, and at least one part of the detecting device being disposed under all or part of the mechanical element, between the latter and the support, the detecting device comprising an optical device , - is fixed with respect to the support, - includes at least one optical waveguide and an optical resonator optically coupled to the waveguide through evanescent coupling, - is disposed under all or part of the mechanical element , at a predetermined distance from the same, to allow optomechanical coupling between the mechanical element and the optical resonator , and - is arranged to propagate at least one optical wave having a given wavelength, able to interact with the mechanical element ,
A process for the direct oxidation of propane to acrylic acid, the process comprising the step of contacting under oxidation conditions propane and oxygen with a propane oxidation catalyst, the oxidation catalyst packed in a tubular reactor such that the effective L/D ratio of the reactor is from 20 to 40 and the oxidation conditions comprising a reactor set point temperature and a peak temperature with a ΔT between the reactor set point and peak temperatures of less than 20°C, wherein the reactor set point temperature is the target temperature for the oxidation reaction and wherein the propane oxidation catalyst is a Mo/V/Te/Nb mixed metal oxide.