mhurhangee/patent-ind-claim-en huggingface dataset:
Method for controlling a device , said device operating in several operating modes corresponding to different levels of power consumption and comprising a first and a second communication interface , said method being characterised in that it comprises, in said device the steps of: - activating (S3) said second communication interface upon receiving (S2) a first wake-up message via said first interface when said device is in a first operating mode (S1) corresponding to a first level of power consumption, said activation resulting in a second level of power consumption higher than said first level of power consumption. - receiving (S4) a second wake-up message via said second communication interface, said second wake-up message resulting in the closure of power supply lines with a view to supplying power to functional blocks of said device, an exit from the standby mode, and consequently a transition of said device to an operating mode corresponding to a third level of power consumption, said third level of power consumption being higher than said second level of power consumption. - activating (S3) said second communication interface upon receiving (S2) a first wake-up message via said first interface when said device is in a first operating mode (S1) corresponding to a first level of power consumption, said activation resulting in a second level of power consumption higher than said first level of power consumption. - receiving (S4) a second wake-up message via said second communication interface, said second wake-up message resulting in the closure of power supply lines with a view to supplying power to functional blocks of said device, an exit from the standby mode, and consequently a transition of said device to an operating mode corresponding to a third level of power consumption, said third level of power consumption being higher than said second level of power consumption.
A method for producing an aromatic bisimide, the method comprising reacting a dialkali metal salt of a dihydroxy aromatic compound with an N-alkyl nitrophthalimide composition under conditions effective to form a product mixture comprising the aromatic bisimide, wherein the N-alkyl nitrophthalimide composition comprises 4-nitro-N-(C 1-13 alkyl)phthalimide, 3-nitro-N-(C 1-13 alkyl)phthalimide, or a combination comprising at least one of the foregoing; and 4-hydroxy-3,5-dinitro-N-(C 1-13 alkyl)phthalimide in an amount of 1-10000 ppm, or 50-10000 ppm, or 100-10000 ppm, or 500-10000 ppm, or 1000-10000 ppm; 1-8000 ppm, or 50-8000 ppm, or 100-8000 ppm, or 500-8000 ppm, or 1000-8000 ppm or 1-8000 ppm, or 50-8000 ppm, or 100-7000 ppm, or 500-7000 ppm, or 1000-7000 ppm; or 1-6000 ppm, or 50-6000 ppm, or 100-6000 ppm, or 500-6000 ppm, or 1000-6000 ppm; or 1-4000 ppm, or 50-4000 ppm, or 100-4000 ppm, or 500-4000 ppm, or 1000-4000 ppm; or 1-3000 ppm, or 50-3000 ppm, or 100-3000 ppm, or 500-3000 ppm, or 1000-3000 ppm; and wherein the aromatic bisimide is obtained in a yield of greater than 75%, or greater than 85%, or 90-99.8%, or 95-99.8%, or 97-99.8%, or 98-99.8%, or 99-99.8%. reacting a dialkali metal salt of a dihydroxy aromatic compound with an N-alkyl nitrophthalimide composition under conditions effective to form a product mixture comprising the aromatic bisimide, wherein the N-alkyl nitrophthalimide composition comprises 4-nitro-N-(C 1-13 alkyl)phthalimide, 3-nitro-N-(C 1-13 alkyl)phthalimide, or a combination comprising at least one of the foregoing; and 4-hydroxy-3,5-dinitro-N-(C 1-13 alkyl)phthalimide in an amount of 1-10000 ppm, or 50-10000 ppm, or 100-10000 ppm, or 500-10000 ppm, or 1000-10000 ppm; 1-8000 ppm, or 50-8000 ppm, or 100-8000 ppm, or 500-8000 ppm, or 1000-8000 ppm or 1-8000 ppm, or 50-8000 ppm, or 100-7000 ppm, or 500-7000 ppm, or 1000-7000 ppm; or 1-6000 ppm, or 50-6000 ppm, or 100-6000 ppm, or 500-6000 ppm, or 1000-6000 ppm; or 1-4000 ppm, or 50-4000 ppm, or 100-4000 ppm, or 500-4000 ppm, or 1000-4000 ppm; or 1-3000 ppm, or 50-3000 ppm, or 100-3000 ppm, or 500-3000 ppm, or 1000-3000 ppm; and 4-nitro-N-(C 1-13 alkyl)phthalimide, 3-nitro-N-(C 1-13 alkyl)phthalimide, or a combination comprising at least one of the foregoing; and 4-hydroxy-3,5-dinitro-N-(C 1-13 alkyl)phthalimide in an amount of 1-10000 ppm, or 50-10000 ppm, or 100-10000 ppm, or 500-10000 ppm, or 1000-10000 ppm; 1-8000 ppm, or 50-8000 ppm, or 100-8000 ppm, or 500-8000 ppm, or 1000-8000 ppm or 1-8000 ppm, or 50-8000 ppm, or 100-7000 ppm, or 500-7000 ppm, or 1000-7000 ppm; or 1-6000 ppm, or 50-6000 ppm, or 100-6000 ppm, or 500-6000 ppm, or 1000-6000 ppm; or 1-4000 ppm, or 50-4000 ppm, or 100-4000 ppm, or 500-4000 ppm, or 1000-4000 ppm; or 1-3000 ppm, or 50-3000 ppm, or 100-3000 ppm, or 500-3000 ppm, or 1000-3000 ppm; and wherein the aromatic bisimide is obtained in a yield of greater than 75%, or greater than 85%, or 90-99.8%, or 95-99.8%, or 97-99.8%, or 98-99.8%, or 99-99.8%.
A dental restoration, comprising a base body consisting of an implant in combination with an abutment , a superstructure which is attachable to the base body, especially by adhesive bonding, and a screw with a screw head, which extends on or at the base body, when the screw connects the two parts of the base body to each other in a rotationally fixed manner, and having an access channel in the superstructure for the screw , the opening of which access channel being located opposite to the extension of the axis of the screw in lingual or palatal direction of the superstructure , characterized in that the diameter of the access channel , which is bent with a constant bending radius and terminates at the lingual or palatal surface of the superstructure , is smaller than the diameter of the screw head of the screw , and the screw is able to be screwed through the access channel , i.e. it is insertable and removable, and in that the abutment forms a support for the screw head of the screw.
A pipe plug for temporarily plugging a pipe, said pipe plug being configured to be lowered through a lateral pipe access connection into a pipe, said pipe plug comprising: a carrier configured to remain in the lateral pipe access connection when the pipe is plugged; a first plugging head , said first plugging head having a first circumferential sealing element and a first pivotal connection to said carrier at a first end, said first pivotal connection permitting said first plugging head to rotate relative to said carrier about a first pivot point and traverse a right angle to gain access to an interior space of the pipe; a second plugging head , said second plugging head having a second circumferential sealing element and a second pivotal connection to said first plugging head , said second pivotal connection permitting said second plugging head to rotate relative to said first plugging head about a second pivot point and traverse a right angle to gain access to the interior space of the pipe. a carrier configured to remain in the lateral pipe access connection when the pipe is plugged; a first plugging head , said first plugging head having a first circumferential sealing element and a first pivotal connection to said carrier at a first end, said first pivotal connection permitting said first plugging head to rotate relative to said carrier about a first pivot point and traverse a right angle to gain access to an interior space of the pipe; a second plugging head , said second plugging head having a second circumferential sealing element and a second pivotal connection to said first plugging head , said second pivotal connection permitting said second plugging head to rotate relative to said first plugging head about a second pivot point and traverse a right angle to gain access to the interior space of the pipe.
A receptacle terminal for receipt of a mating terminal therein, the receptacle terminal having a contact portion comprising: a bottom wall with resilient contact arms extending from opposed sides of the bottom wall ; each of the resilient contact arms having an opening extending therethrough with a first resilient contact section and a second resilient contact section extending on either side of the opening ; the first resilient contact sections and the second resilient contact sections having arcuate portions which extend from the bottom wall to mating terminal engaging members ; the first resilient contact sections and the second resilient contact sections are configured to generate a contact force when a mating terminal is inserted into the terminal each of the first resilient contact sections and each of the second resilient contact sections have a width proximate the bottom wall which is greater than a width proximate a mating terminal engaging member , the width proximate the bottom wall is configured to distribute forces to the bottom wall ; characterized in that the space and size of the first resilient contact sections , the second resilient contact sections and opening are configured to control the normal insertion forces of resilient contact arms when a mating terminal is inserted into the receptacle terminal . a bottom wall with resilient contact arms extending from opposed sides of the bottom wall ; each of the resilient contact arms having an opening extending therethrough with a first resilient contact section and a second resilient contact section extending on either side of the opening ; the first resilient contact sections and the second resilient contact sections having arcuate portions which extend from the bottom wall to mating terminal engaging members ; the first resilient contact sections and the second resilient contact sections are configured to generate a contact force when a mating terminal is inserted into the terminal each of the first resilient contact sections and each of the second resilient contact sections have a width proximate the bottom wall which is greater than a width proximate a mating terminal engaging member , the width proximate the bottom wall is configured to distribute forces to the bottom wall ; characterized in that the space and size of the first resilient contact sections , the second resilient contact sections and opening are configured to control the normal insertion forces of resilient contact arms when a mating terminal is inserted into the receptacle terminal .
A method of wireless communication by a user equipment, UE , comprising: receiving , from a base station, BS , signaling indicating multiple uplink transmission configuration indicator, TCI states, wherein the signaling indicating the multiple uplink TCI states is indicated via a mapping of the multiple uplink TCI states to a single uplink TCI codepoint which applies only to uplink transmissions, wherein the multiple uplink TCI states are based on more than one of a space division multiplexing, SDM, scheme, a frequency division multiplexing, FDM, scheme, or a time division multiplexing, TDM, scheme; configuring , based on the signaling indicating the multiple uplink TCI states, the multiple uplink TCI states to be used by the UE for the uplink transmissions; and transmitting , to the base station, BS , the uplink transmissions based on the multiple uplink TCI states. receiving , from a base station, BS , signaling indicating multiple uplink transmission configuration indicator, TCI states, wherein the signaling indicating the multiple uplink TCI states is indicated via a mapping of the multiple uplink TCI states to a single uplink TCI codepoint which applies only to uplink transmissions, wherein the multiple uplink TCI states are based on more than one of a space division multiplexing, SDM, scheme, a frequency division multiplexing, FDM, scheme, or a time division multiplexing, TDM, scheme; configuring , based on the signaling indicating the multiple uplink TCI states, the multiple uplink TCI states to be used by the UE for the uplink transmissions; and transmitting , to the base station, BS , the uplink transmissions based on the multiple uplink TCI states.
A method of preparing a canister having a cavity loaded with wet radioactive elements for dry storage, the method comprising: (a) providing a gas circulation system comprising a condensing module , a vacuum module , a gas circulator module ; (b) connecting the gas circulation system to the canister so as to form a hermetically sealed closed-loop path that includes the cavity , the condensing module , and the gas circulator module ; (c) filling the hermetically sealed closed-loop path with a non-reactive gas; (d) circulating the non-reactive gas through the hermetically sealed closed-loop path until the condensing module is no longer removing substantial amounts of water from the circulating non-reactive gas, wherein the vacuum module is sealed off from the hermetically sealed closed-loop path during step (d); (e) discontinuing the circulation of the non-reactive gas through the hermetically sealed closed-loop path; (f) fluidly coupling the vacuum module to the cavity and fluidly isolating the cavity and the vacuum module ; and (g) applying a vacuum pressure to the cavity via the vacuum module so as to create a sub-atmospheric pressure within the cavity until a desired vapor pressure is achieved in the cavity of the canister ; (h) holding the cavity at sub-atmospheric pressure for a predetermined period of time while continuing to apply vacuum pressure to the cavity to remove residual moisture, wherein the predetermined period of time is selected to prevent overheating cladding on the radioactive elements; and (i) discontinuing application of vacuum pressure to the cavity after the predetermined period of time has lapsed. (a) providing a gas circulation system comprising a condensing module , a vacuum module , a gas circulator module ; (b) connecting the gas circulation system to the canister so as to form a hermetically sealed closed-loop path that includes the cavity , the condensing module , and the gas circulator module ; (c) filling the hermetically sealed closed-loop path with a non-reactive gas; (d) circulating the non-reactive gas through the hermetically sealed closed-loop path until the condensing module is no longer removing substantial amounts of water from the circulating non-reactive gas, wherein the vacuum module is sealed off from the hermetically sealed closed-loop path during step (d); (e) discontinuing the circulation of the non-reactive gas through the hermetically sealed closed-loop path; (f) fluidly coupling the vacuum module to the cavity and fluidly isolating the cavity and the vacuum module ; and (g) applying a vacuum pressure to the cavity via the vacuum module so as to create a sub-atmospheric pressure within the cavity until a desired vapor pressure is achieved in the cavity of the canister ; (h) holding the cavity at sub-atmospheric pressure for a predetermined period of time while continuing to apply vacuum pressure to the cavity to remove residual moisture, wherein the predetermined period of time is selected to prevent overheating cladding on the radioactive elements; and (i) discontinuing application of vacuum pressure to the cavity after the predetermined period of time has lapsed.
A manifold comprising: a frame ; a plurality of valves supported by the frame , each valve having a cross gear ; a screw drive ; and a slider driven by the screw drive , the slider comprising an actuator that protrudes from the slider to thereby engage one of the cross gears to actuate a respective one of the plurality of valves , wherein each cross gear has four semicircular recesses and four arms that terminate in pointed tips ; and characterised in that each valve further comprises a splined rotatable shaft , parallel to the screw drive , over which the slider is driven by the screw drive ; wherein the actuator protrudes from the slider in response to rotation of the splined rotatable shaft ; and wherein the pointed tips of the arms of each cross gear are non-jamming rubber tips . a frame ; a plurality of valves supported by the frame , each valve having a cross gear ; a screw drive ; and a slider driven by the screw drive , the slider comprising an actuator that protrudes from the slider to thereby engage one of the cross gears to actuate a respective one of the plurality of valves , wherein each cross gear has four semicircular recesses and four arms that terminate in pointed tips ; and characterised in that each valve further comprises a splined rotatable shaft , parallel to the screw drive , over which the slider is driven by the screw drive ; wherein the actuator protrudes from the slider in response to rotation of the splined rotatable shaft ; and wherein the pointed tips of the arms of each cross gear are non-jamming rubber tips . characterised in that each valve further comprises a splined rotatable shaft , parallel to the screw drive , over which the slider is driven by the screw drive ; wherein the actuator protrudes from the slider in response to rotation of the splined rotatable shaft ; and wherein the pointed tips of the arms of each cross gear are non-jamming rubber tips .
A food product comprising hydrolyzed, dried, agglomerated grain powder, wherein the agglomerated grain powder comprises hydrolyzed starch, wherein the agglomerated grain powder has an average particle size of 150 to 450 μm, and wherein at least 50% of particles in the agglomerated grain powder are within the range of 150 to 450 μm.
A method for determining an analyte concentration in a sample, comprising: receiving the sample at sensor strip; forming a measurable species from reacting an analyte in the sample with an analyte-specific enzyme; applying an electrical input signal to the sample after an incubation period from 0.01 second to 12 seconds such that the measurable species has a variant concentration distribution at an end of the incubation period, the electrical input signal including an excitation and a relaxation; responsive to applying the electrical input signal, measuring an output current signal having a transient decay with a decay constant greater than or less than -0.5; and determining the analyte concentration of the sample from at least the decay constant of the measured output current signal. receiving the sample at sensor strip; forming a measurable species from reacting an analyte in the sample with an analyte-specific enzyme; applying an electrical input signal to the sample after an incubation period from 0.01 second to 12 seconds such that the measurable species has a variant concentration distribution at an end of the incubation period, the electrical input signal including an excitation and a relaxation; responsive to applying the electrical input signal, measuring an output current signal having a transient decay with a decay constant greater than or less than -0.5; and determining the analyte concentration of the sample from at least the decay constant of the measured output current signal.
A display apparatus comprising: an addressable array of light-emitting elements ; an array of collimating optical elements configured to collimate light emitted by the array of light-emitting elements ; one or more diffractive grating layers configured to diffract the collimated light collimated by the array of collimating optical elements ; and an array of adaptive optical mask elements configured to selectively block or pass light received from the one or more diffractive grating layers in synchronization to illumination of the addressable array of light-emitting elements based on content to be displayed. an addressable array of light-emitting elements ; an array of collimating optical elements configured to collimate light emitted by the array of light-emitting elements ; one or more diffractive grating layers configured to diffract the collimated light collimated by the array of collimating optical elements ; and an array of adaptive optical mask elements configured to selectively block or pass light received from the one or more diffractive grating layers in synchronization to illumination of the addressable array of light-emitting elements based on content to be displayed.
A method of searching for data in a distributed file system, the method comprising: Receiving (Step 405) a data request at a name node of the distributed file system, the distributed file system comprising a plurality of data nodes with a storage disk each having a plurality of data blocks , each data node storing statistical data of records stored in the respective plurality of data blocks, the statistical data stored in a statistical data block in a memory of the data node, wherein the statistical data block of the data node comprises statistical data of the data node and, for each of the data blocks comprised by the data node, statistical data of the respective data block ; determining (Step 420) qualified data nodes based on the statistical data of each data node and, afterwards, determining (Step 435) qualified data blocks of the plurality of data blocks comprised by the determined qualified data nodes, wherein the qualified data blocks satisfy the request, based on comparing the statistical data of records with a criteria of the data request; and determining qualified records of the qualified data blocks, based on the data request; wherein qualified data nodes are determined based, at least in part of results of online analytical processing which are pre-calculated for each data block. Receiving (Step 405) a data request at a name node of the distributed file system, the distributed file system comprising a plurality of data nodes with a storage disk each having a plurality of data blocks , each data node storing statistical data of records stored in the respective plurality of data blocks, the statistical data stored in a statistical data block in a memory of the data node, wherein the statistical data block of the data node comprises statistical data of the data node and, for each of the data blocks comprised by the data node, statistical data of the respective data block ; determining (Step 420) qualified data nodes based on the statistical data of each data node and, afterwards, determining (Step 435) qualified data blocks of the plurality of data blocks comprised by the determined qualified data nodes, wherein the qualified data blocks satisfy the request, based on comparing the statistical data of records with a criteria of the data request; and determining qualified records of the qualified data blocks, based on the data request; wherein qualified data nodes are determined based, at least in part of results of online analytical processing which are pre-calculated for each data block.
A floor treatment appliance with a replaceable change component , a detection device for detecting an actual parameter that is influenced by wear of the change component , an evaluation device for determining a degree of wear of the change component based on the actual parameter and a communication device for communicating information concerning a required replacement of the change component to an external terminal that is communicatively linked to the floor treatment appliance , wherein the change component comprises a floor treatment element for mechanically acting upon a floor surface to be treated, characterized in that the evaluation device is configured for calculating an average value of the actual parameter detected by the detection device referred to a defined time period of at least one hour, for comparing the average value with a defined reference value and for determining the degree of wear of the change component in dependence on the result of the comparison.