mhurhangee/patent-ind-claim-en huggingface dataset:
An electronic device comprising: a touch screen ; a sensor unit for sensing a movement state of the electronic device; and a processor electrically connected to the touch screen and configured to: receive a touch input applied to the touch screen; detect a first location of the received touch input on the touch screen; set an area related to the first location on the touch screen, based on at least one condition; detect, if the received touch input is released, a second location on the touch screen from which the touch input is released; determine whether the second location is within the set area ; and if it is determined that the second location is within the set area , determine whether at least one function is executed, wherein the processor is further configured to obtain a sensed value from the sensor unit for determining a movement state of the electronic device; and adjust, when a degree of movement of the electronic device is greater than a preset threshold, the set area to be greater than a reference size, based on the sensed value. a touch screen ; a sensor unit for sensing a movement state of the electronic device; and a processor electrically connected to the touch screen and configured to: receive a touch input applied to the touch screen; detect a first location of the received touch input on the touch screen; set an area related to the first location on the touch screen, based on at least one condition; detect, if the received touch input is released, a second location on the touch screen from which the touch input is released; determine whether the second location is within the set area ; and if it is determined that the second location is within the set area , determine whether at least one function is executed, wherein the processor is further configured to obtain a sensed value from the sensor unit for determining a movement state of the electronic device; and adjust, when a degree of movement of the electronic device is greater than a preset threshold, the set area to be greater than a reference size, based on the sensed value. receive a touch input applied to the touch screen; detect a first location of the received touch input on the touch screen; set an area related to the first location on the touch screen, based on at least one condition; detect, if the received touch input is released, a second location on the touch screen from which the touch input is released; determine whether the second location is within the set area ; and if it is determined that the second location is within the set area , determine whether at least one function is executed, wherein the processor is further configured to obtain a sensed value from the sensor unit for determining a movement state of the electronic device; and adjust, when a degree of movement of the electronic device is greater than a preset threshold, the set area to be greater than a reference size, based on the sensed value.
A method for polymerizing one or more ethylene-based polymers comprising the steps of: selecting ethylene and optionally one or more alpha-olefin comonomers; selecting one or more catalyst systems comprising one or more Ziegler-Natta procatalysts comprising Ti, one or more cocatalysts comprising Al, and a self-limiting agent (SLA) wherein the self-limiting agent (SLA) is comprised of a C 1 -C 20 alkyl ester of a C 4 -C 30 aliphatic acid wherein the C 4 -C 30 aliphatic acid ester is selected from a laurate, a myristate, a palmitate, a stearate, an oleate, and mixtures thereof; wherein the ratio of SLA to Ti (SLA:Ti) is from 5:1 to 40:1 and the ratio of Al to SLA (Al:SLA) is from 5:1 to 40:1; polymerizing said ethylene and optionally one or more alpha-olefin comonomers in the presence of said one or more catalyst systems via a slurry polymerization process or gas-phase polymerization process in one or more reactors; thereby producing one or more ethylene-based polymers; wherein said catalyst system has a loss of least 85 percent of catalyst productivity when the temperature is increased from 85 to 115° C. selecting ethylene and optionally one or more alpha-olefin comonomers; selecting one or more catalyst systems comprising one or more Ziegler-Natta procatalysts comprising Ti, one or more cocatalysts comprising Al, and a self-limiting agent (SLA) wherein the self-limiting agent (SLA) is comprised of a C 1 -C 20 alkyl ester of a C 4 -C 30 aliphatic acid wherein the C 4 -C 30 aliphatic acid ester is selected from a laurate, a myristate, a palmitate, a stearate, an oleate, and mixtures thereof; wherein the ratio of SLA to Ti (SLA:Ti) is from 5:1 to 40:1 and the ratio of Al to SLA (Al:SLA) is from 5:1 to 40:1; polymerizing said ethylene and optionally one or more alpha-olefin comonomers in the presence of said one or more catalyst systems via a slurry polymerization process or gas-phase polymerization process in one or more reactors; thereby producing one or more ethylene-based polymers; wherein said catalyst system has a loss of least 85 percent of catalyst productivity when the temperature is increased from 85 to 115° C.
A truck mixer with a chassis and a mixer body which carries the mixing drum , wherein at least one section is provided, which extends in longitudinal direction of the truck mixer and serves to accommodate one or more components of the truck mixer, characterized in that the section comprises one or more hollow chambers for forming one or more channels for supply lines extending in longitudinal vehicle direction, wherein, in addition to the hollow chamber forming the channels, the section comprises at least one section chamber with reinforced chamber wall for accommodating fastening elements, and wherein the reinforced chamber wall is provided with at least one marker which designates the mounting point for one or more mounting elements, wherein the marker preferably is designed as groove extending in direction of the section.
A computer-implemented speech wakeup method, comprising: training a speech wakeup model with general speech data, wherein the training includes: iteratively optimizing parameters in the speech wakeup model with the general speech data by means of an asynchronous stochastic gradient descent method until the training converges; acquiring keyword-specific speech data, and training the speech wakeup model with the keyword-specific speech data, wherein a learning rate used in the training with the keyword-specific speech data is less than that is used in the training of the speech wakeup model with the general speech data; inputting (S202) speech data to the speech wakeup model trained with the general speech data and the keyword-specific speech data; and outputting (S204), by the speech wakeup model, a result for determining whether to execute speech wakeup, wherein the speech wakeup model comprises a Deep Neural Network, DNN, and a Connectionist Temporal Classifier, CTC in sequence. training a speech wakeup model with general speech data, wherein the training includes: iteratively optimizing parameters in the speech wakeup model with the general speech data by means of an asynchronous stochastic gradient descent method until the training converges; acquiring keyword-specific speech data, and training the speech wakeup model with the keyword-specific speech data, wherein a learning rate used in the training with the keyword-specific speech data is less than that is used in the training of the speech wakeup model with the general speech data; inputting (S202) speech data to the speech wakeup model trained with the general speech data and the keyword-specific speech data; and outputting (S204), by the speech wakeup model, a result for determining whether to execute speech wakeup, wherein the speech wakeup model comprises a Deep Neural Network, DNN, and a Connectionist Temporal Classifier, CTC in sequence.
A method of producing a cell population comprising antigen-specific T cells, optionally cytotoxic T lymphocytes (CTLs), comprising the steps of: (a) culturing peripheral blood mononuclear cells (PBMCs) isolated from a subject in an antigen presenting cell (APC) induction medium comprising interleukin 4 (IL-4) and soluble CD40 ligand (sCD40L) and/or comprising granulocytemacrophage colony-stimulating factor (GM-CSF) and interferon α (IFN-α), to produce a first population of cells; (b) culturing the first population of cells in the presence of one or more antigens, to produce a second population of cells; and (c) culturing the second population of cells in a T cell expansion medium comprising interleukin 7 (IL-7), interleukin 15 (IL-15), and IL-4, to produce a third population of cells; wherein the third population of cells comprises T cells that are CD3+ and specific for the one or more antigens added in step (b). (a) culturing peripheral blood mononuclear cells (PBMCs) isolated from a subject in an antigen presenting cell (APC) induction medium comprising interleukin 4 (IL-4) and soluble CD40 ligand (sCD40L) and/or comprising granulocytemacrophage colony-stimulating factor (GM-CSF) and interferon α (IFN-α), to produce a first population of cells; (b) culturing the first population of cells in the presence of one or more antigens, to produce a second population of cells; and (c) culturing the second population of cells in a T cell expansion medium comprising interleukin 7 (IL-7), interleukin 15 (IL-15), and IL-4, to produce a third population of cells;
A method for dual layer beamforming, the method comprises: receiving sounding reference signal, SRS, sent by a terminal wherein the broadband occupied when sending the SRS is divided into a plurality of sub-bands by the terminal; determining a broadband beamforming vector corresponding to the broadband and sub-band beamforming vectors corresponding to each sub-band, respectively, according to the SRS and according to a calculation method for the beamforming vector using an Eigenvalue Based Beamforming, EBB; determining two polarized-direction beamforming vectors corresponding to each sub-band, respectively, according to the broadband beamforming vector corresponding to the broadband or the sub-band beamforming vectors corresponding to each sub-band, and according to a calculation method for two polarized-direction beamforming vectors using a Grid of Beam, GOB, method; and directed to each sub-band, adopting the two polarized-direction beamforming vectors corresponding to the sub-band for dual layer beamforming. receiving sounding reference signal, SRS, sent by a terminal wherein the broadband occupied when sending the SRS is divided into a plurality of sub-bands by the terminal; determining a broadband beamforming vector corresponding to the broadband and sub-band beamforming vectors corresponding to each sub-band, respectively, according to the SRS and according to a calculation method for the beamforming vector using an Eigenvalue Based Beamforming, EBB; determining two polarized-direction beamforming vectors corresponding to each sub-band, respectively, according to the broadband beamforming vector corresponding to the broadband or the sub-band beamforming vectors corresponding to each sub-band, and according to a calculation method for two polarized-direction beamforming vectors using a Grid of Beam, GOB, method; and directed to each sub-band, adopting the two polarized-direction beamforming vectors corresponding to the sub-band for dual layer beamforming.
A thermal integrated multi-source plant comprising: • a first tank configured to store technical water and coupled to at least one air-conditioning plant ; • at least a first thermal source (28; 29; 30; 31; 131) associated to the first tank and configured to heat the technical water; • at least a second tank configured to store sanitary water and coupled to a sanitary water supplying circuit ; the second tank being coupled to the first tank ; • a first heat exchanger arranged in the first tank and provided with an inlet coupled to a water network for receiving sanitary water and with an outlet characterized in that the outlet is selectively couplable to the second tank or to the sanitary water supplying circuit . • a first tank configured to store technical water and coupled to at least one air-conditioning plant ; • at least a first thermal source (28; 29; 30; 31; 131) associated to the first tank and configured to heat the technical water; • at least a second tank configured to store sanitary water and coupled to a sanitary water supplying circuit ; the second tank being coupled to the first tank ; • a first heat exchanger arranged in the first tank and provided with an inlet coupled to a water network for receiving sanitary water and with an outlet characterized in that the outlet is selectively couplable to the second tank or to the sanitary water supplying circuit .
A device for simulation of mechanical functions of a real weapon , wherein the device is adapted to be arranged on the real weapon, the device comprising a weapon bolt simulator for simulating the mechanical movement of the weapon bolt and a reload simulator for simulating the function of a reload handle of the real weapon , wherein the weapon bolt simulator is adapted to be mounted as a bolt inside the real weapon, characterized in that the weapon bolt simulator further comprises a hammer detector for detecting the movement of the hammer and in that the hammer detector is adapted upon firing of a shot for activation of simulated movements and functions performed by a real bolt.
A method for preparing a protocell in form of a giant unilamellar vesicle , which comprises the following steps: a) providing a water-based droplet encapsulated by an outer polymer shell , which borders the inner space of the droplet , wherein the droplet has a maximum dimension of 0.5 μm to 1,000 μm, wherein the inner space of the droplet contains at least one lipid , b) transforming the lipid content of the droplet into a lipid bilayer which is arranged at and covers the inner surface of the polymer shell and an oil phase in order to form a polymer shell-stabilized giant unilamellar vesicle , c) optionally incorporating one or more proteins and/or nuclei into the polymer shell-stabilized giant unilamellar vesicle provided in step b) and d) optionally removing the polymer shell from the polymer shell-stabilized giant unilamellar vesicle . a) providing a water-based droplet encapsulated by an outer polymer shell , which borders the inner space of the droplet , wherein the droplet has a maximum dimension of 0.5 μm to 1,000 μm, wherein the inner space of the droplet contains at least one lipid , b) transforming the lipid content of the droplet into a lipid bilayer which is arranged at and covers the inner surface of the polymer shell and an oil phase in order to form a polymer shell-stabilized giant unilamellar vesicle , c) optionally incorporating one or more proteins and/or nuclei into the polymer shell-stabilized giant unilamellar vesicle provided in step b) and d) optionally removing the polymer shell from the polymer shell-stabilized giant unilamellar vesicle .
Support body for supporting a person on a base , preferably on a bed, in a sitting position, the support body comprising a back element and two side elements connected to the back element , wherein the back element and the side elements are designed to be inflatable in order to be able to bring the support body from an uninflated transport state to the inflated use state, wherein each side element is additionally connected to the back element via a stabilizing element , and wherein the support body has at least two, preferably three, fixing sections in order to be able to fix the support body in the use state to the base via the fixing sections , characterized in that the back element and the side elements are designed in such a way that, in a use state, the person supported in the support body sits on the base at least in sections, wherein the person is supported by the back element in a first direction and by the side elements transversely with respect to the first direction . the support body comprising a back element and two side elements connected to the back element , wherein the back element and the side elements are designed to be inflatable in order to be able to bring the support body from an uninflated transport state to the inflated use state, wherein each side element is additionally connected to the back element via a stabilizing element , and wherein the support body has at least two, preferably three, fixing sections in order to be able to fix the support body in the use state to the base via the fixing sections , characterized in that the back element and the side elements are designed in such a way that, in a use state, the person supported in the support body sits on the base at least in sections, wherein the person is supported by the back element in a first direction and by the side elements transversely with respect to the first direction .
A method of rendering a webpage, comprising: generating a first serialized eventual document object module (DOM) based on processing a first Web document referenced by a location, the first Web document comprising first client side generated dynamic content including static dynamic content and first true dynamic content; the first client side generated dynamic content in-lined in the first serialized eventual DOM ; generating a second serialized eventual DOM based on processing a second Web document referenced by the location, the second Web document comprising second client side generated dynamic content including static dynamic content and second true dynamic content the second client side generated dynamic content in-lined in the second serialized eventual DOM ; and: generating a common serialized eventual DOM based on a difference between the first and second serialized eventual DOMs, the common serialized eventual DOM including static dynamic content included in the first and second serialized eventual DOMs, wherein generating the common serialized eventual DOM includes identifying one or more differences between the first and second serialized eventual DOMs and removing the one or more differences from the first serialized eventual DOM; the one or more differences being true dynamic content; and rendering the common serialized eventual DOM to a display of a device. generating a first serialized eventual document object module (DOM) based on processing a first Web document referenced by a location, the first Web document comprising first client side generated dynamic content including static dynamic content and first true dynamic content; the first client side generated dynamic content in-lined in the first serialized eventual DOM ; generating a second serialized eventual DOM based on processing a second Web document referenced by the location, the second Web document comprising second client side generated dynamic content including static dynamic content and second true dynamic content the second client side generated dynamic content in-lined in the second serialized eventual DOM ; and: generating a common serialized eventual DOM based on a difference between the first and second serialized eventual DOMs, the common serialized eventual DOM including static dynamic content included in the first and second serialized eventual DOMs, wherein generating the common serialized eventual DOM includes identifying one or more differences between the first and second serialized eventual DOMs and removing the one or more differences from the first serialized eventual DOM; the one or more differences being true dynamic content; and rendering the common serialized eventual DOM to a display of a device.
Security label having a multi-layered initial opening indicator having a layered structure with a carrier film and having a first and second ink layer (105, 205 and 106, 206) and a first and second separative coating layer (104, 204 and 108, 208), having at least one first security code , which is legible on the sealed security label , a second security code , which is only legible after the initial opening indicator has been opened, characterised in that, arranged on the carrier film on the product side are initially the first separative coating layer and, thereon, the first ink layer and, thereon, the second separative coating layer and, thereon, the second ink layer , and the second security code is arranged between the first or the second separative coating layer (104, 204 or 108, 208) and the second ink layer , and, after opening, the first security code either remains on the second ink layer or is peeled off along with a tab , and the first security code and the second security code are printed simultaneously in a common printing step and are arranged in the same layer. having at least one first security code , which is legible on the sealed security label , a second security code , which is only legible after the initial opening indicator has been opened, characterised in that, arranged on the carrier film on the product side are initially the first separative coating layer and, thereon, the first ink layer and, thereon, the second separative coating layer and, thereon, the second ink layer , and the second security code is arranged between the first or the second separative coating layer (104, 204 or 108, 208) and the second ink layer , and, after opening, the first security code either remains on the second ink layer or is peeled off along with a tab , and the first security code and the second security code are printed simultaneously in a common printing step and are arranged in the same layer.
A personal care composition comprising: a) retinoid; b) 0.01 to 20 wt% porous silica; c) silicone elastomer; and d) a cosmetically acceptable carrier, wherein the composition comprises 35 to 80 wt% water and wherein weight ratio of silicone elastomer to the porous silica is from 3:1 to 10:1. a) retinoid; b) 0.01 to 20 wt% porous silica; c) silicone elastomer; and d) a cosmetically acceptable carrier, wherein the composition comprises 35 to 80 wt% water and wherein weight ratio of silicone elastomer to the porous silica is from 3:1 to 10:1.
A system, comprising: a flexible circuit that includes a first portion and a second portion , radio-frequency identification RFID circuitry , said RFID circuitry comprising: an integrated circuit , an antenna , and a connector that couples the integrated circuit to the antenna ; and wherein the RFID circuitry is positioned in the first portion of the flexible circuit characterised in that : the flexible circuit further includes a plated through-hole extending through the flexible circuit , and the plated through-hole is positioned between the first portion and the second portion, and wherein at least a portion of the plated through-hole is plated with radio frequency insulation that shields the second portion from at least some radio frequency radiation radiated from the RFID circuitry . a flexible circuit that includes a first portion and a second portion , radio-frequency identification RFID circuitry , said RFID circuitry comprising: an integrated circuit , an antenna , and a connector that couples the integrated circuit to the antenna ; and an integrated circuit , an antenna , and a connector that couples the integrated circuit to the antenna ; and wherein the RFID circuitry is positioned in the first portion of the flexible circuit characterised in that : the flexible circuit further includes a plated through-hole extending through the flexible circuit , and the plated through-hole is positioned between the first portion and the second portion, and the flexible circuit further includes a plated through-hole extending through the flexible circuit , and the plated through-hole is positioned between the first portion and the second portion, and wherein at least a portion of the plated through-hole is plated with radio frequency insulation that shields the second portion from at least some radio frequency radiation radiated from the RFID circuitry .