mhurhangee/patent-ind-claim-en huggingface dataset:
A time measurement apparatus comprising: a first time measurement instrument configured to receive an input of a detection signal, which is a phenomenon detected and output by a detector, and output a measurement signal corresponding to a time associated with the detection signal; a gate unit configured to be provided between the detector and the first time measurement instrument and set to be in a first state where the detection signal is transmitted in a direction of the first time measurement instrument, or a second state where the detection signal is not transmitted in a direction of the first time measurement instrument; a setting unit configured to set a gate dead time during which the gate unit is set to be in the second state in the gate unit; and a derivation unit configured to derive and output time information related to the detection signal based on the measurement signal output from the first time measurement instrument, wherein the setting unit sets a time, which is an integral multiple of a repetition period of the phenomenon detected by the detector and is longer than a dead time of the first time measurement instrument itself, in the gate unit as the gate dead time. a first time measurement instrument configured to receive an input of a detection signal, which is a phenomenon detected and output by a detector, and output a measurement signal corresponding to a time associated with the detection signal; a gate unit configured to be provided between the detector and the first time measurement instrument and set to be in a first state where the detection signal is transmitted in a direction of the first time measurement instrument, or a second state where the detection signal is not transmitted in a direction of the first time measurement instrument; a setting unit configured to set a gate dead time during which the gate unit is set to be in the second state in the gate unit; and a derivation unit configured to derive and output time information related to the detection signal based on the measurement signal output from the first time measurement instrument, wherein the setting unit sets a time, which is an integral multiple of a repetition period of the phenomenon detected by the detector and is longer than a dead time of the first time measurement instrument itself, in the gate unit as the gate dead time.
A method for producing gluten-free bakery and patisserie products comprising the following steps; a. mixing at least the following solid ingredients: gluten-free flours, gluten-free starches, gluten-free fibers, and gluten-free enzymes, obtaining a mixture of solids, b. adding water to the mixture of solids in a proportion between 60% and 110% of the weight of the mentioned mixture of solids, obtaining a hydrated mixture, c. stirring the hydrated mixture in a rapid mixer, obtaining a pre-dough, d. performing ultra-fine wet grinding of the pre-dough, obtaining a colloidal dispersion, in which the size of the solid particles is comprised between 10 and 100 nanometers, e. aerating the colloidal dispersion, obtaining a colloidal dough, f. extruding the colloidal dough, obtaining an extruded colloidal dough, g. cutting the extruded colloidal dough to one or more measurements, obtaining pieces of extruded colloidal dough, h. performing baking for the initial cooking and drying of the pieces of extruded colloidal dough in a microwave oven of between 2.45 GHz and 9.15 GHz for between 2 and 25 minutes until the moisture content of the pieces of extruded colloidal dough is between 40% and 60% and the temperature of the mentioned pieces is between 80oC and 95oC, obtaining cooked pieces, i. performing aqueous vaporization or spraying of the cooked pieces in a chamber in which water is vaporized or sprayed until the environment in the chamber reaches a relative humidity of 99%, obtaining pieces of semi-finished bakery or patisserie products. a. mixing at least the following solid ingredients: gluten-free flours, gluten-free starches, gluten-free fibers, and gluten-free enzymes, obtaining a mixture of solids, b. adding water to the mixture of solids in a proportion between 60% and 110% of the weight of the mentioned mixture of solids, obtaining a hydrated mixture, c. stirring the hydrated mixture in a rapid mixer, obtaining a pre-dough, d. performing ultra-fine wet grinding of the pre-dough, obtaining a colloidal dispersion, in which the size of the solid particles is comprised between 10 and 100 nanometers, e. aerating the colloidal dispersion, obtaining a colloidal dough, f. extruding the colloidal dough, obtaining an extruded colloidal dough, g. cutting the extruded colloidal dough to one or more measurements, obtaining pieces of extruded colloidal dough, h. performing baking for the initial cooking and drying of the pieces of extruded colloidal dough in a microwave oven of between 2.45 GHz and 9.15 GHz for between 2 and 25 minutes until the moisture content of the pieces of extruded colloidal dough is between 40% and 60% and the temperature of the mentioned pieces is between 80oC and 95oC, obtaining cooked pieces, i. performing aqueous vaporization or spraying of the cooked pieces in a chamber in which water is vaporized or sprayed until the environment in the chamber reaches a relative humidity of 99%, obtaining pieces of semi-finished bakery or patisserie products.
A vehicle interior component (IC) configured to provide a user interface system comprising at least one sensor and at least one light source and configured to provide a user interface (UI) for interaction with a vehicle occupant in a vehicle (V) providing at least one vehicle system comprising: - a composite structure configured to present the user interface (UI) for the vehicle occupant comprising: (a) a substrate (S); (b) a cover (CL) providing an exterior surface; and (c) at least one functional layer (FM) between the cover (CL) and the substrate (S); wherein the user interface (UI) for the vehicle occupant comprises an input device connected to at least one sensor of the user interface system and a light display adjacent the input device from at least one light source of the user interface system; wherein the substrate (S) comprises a light-transmissive section (TL) configured to allow transmission of light from the at least one light source to the light display for the user interface (UI); wherein the at least one functional layer (FM) comprises at least one of (a) a soft layer; (b) a foam layer; (c) a fleece layer; (d) a fabric layer; (e) a textile layer; wherein the input device comprises a switch (SW) coupled through a hole (H) in the cover (CL), wherein the cover (CL) comprises at least one of (a) textile; (b) fabric; (c) leather; (d) artificial leather; (g) upholstered material. - a composite structure configured to present the user interface (UI) for the vehicle occupant comprising: (a) a substrate (S); (b) a cover (CL) providing an exterior surface; and (c) at least one functional layer (FM) between the cover (CL) and the substrate (S); (a) a substrate (S); (b) a cover (CL) providing an exterior surface; and (c) at least one functional layer (FM) between the cover (CL) and the substrate (S); wherein the user interface (UI) for the vehicle occupant comprises an input device connected to at least one sensor of the user interface system and a light display adjacent the input device from at least one light source of the user interface system; wherein the substrate (S) comprises a light-transmissive section (TL) configured to allow transmission of light from the at least one light source to the light display for the user interface (UI); wherein the at least one functional layer (FM) comprises at least one of (a) a soft layer; (b) a foam layer; (c) a fleece layer; (d) a fabric layer; (e) a textile layer; wherein the input device comprises a switch (SW) coupled through a hole (H) in the cover (CL), wherein the cover (CL) comprises at least one of (a) textile; (b) fabric; (c) leather; (d) artificial leather; (g) upholstered material.
A wireless communication method, comprising: receiving (S210), by a terminal device, a first command transmitted by a network device, wherein the first command is used for deactivating a first state, wherein the first state corresponds to at least one configured grant, CG, configuration; and transmitting (S220), by the terminal device, a feedback media access control, MAC, control element, CE, of the first command to the network device, characterized in that : the feedback MAC CE contains first indication information and feedback information of the first state, wherein the first indication information is used for indicating that the feedback MAC CE is feedback of the terminal device on deactivation of a state, and the method further comprises receiving, by the terminal device, a state table configured by the network device, wherein the state table contains a plurality of states, and wherein each of the plurality of states is one of an activation state and a deactivation state and corresponds to a state index, and each state corresponds to one or more CG configurations. receiving (S210), by a terminal device, a first command transmitted by a network device, wherein the first command is used for deactivating a first state, wherein the first state corresponds to at least one configured grant, CG, configuration; and transmitting (S220), by the terminal device, a feedback media access control, MAC, control element, CE, of the first command to the network device, characterized in that : the feedback MAC CE contains first indication information and feedback information of the first state, wherein the first indication information is used for indicating that the feedback MAC CE is feedback of the terminal device on deactivation of a state, and the method further comprises receiving, by the terminal device, a state table configured by the network device, wherein the state table contains a plurality of states, and wherein each of the plurality of states is one of an activation state and a deactivation state and corresponds to a state index, and each state corresponds to one or more CG configurations. the feedback MAC CE contains first indication information and feedback information of the first state, wherein the first indication information is used for indicating that the feedback MAC CE is feedback of the terminal device on deactivation of a state, and the method further comprises receiving, by the terminal device, a state table configured by the network device, wherein the state table contains a plurality of states, and wherein each of the plurality of states is one of an activation state and a deactivation state and corresponds to a state index, and each state corresponds to one or more CG configurations.
2,4,7-Trimethyloct-6-en-1-ol.
An ophthalmological surgical apparatus for making a cut in an ocular biological tissue , such as a cornea or a crystalline lens, comprising: - a laser source (1.1, 1.2) suitable for delivering a pulsed laser beam, - a focusing optical system for focusing the pulsed laser beam to a focal point in the ocular biological tissue; - an optical system for moving the pulsed laser beam, said system being configured to move the focal point along a predetermined three-dimensional path; - a control unit configured to control the laser source (1.1, 1.2) and the optical system for moving the pulsed laser beam so that the parameters of the pulsed laser beam and the parameters of the optical system for moving the pulsed laser beam are adjusted with respect to the position of the focal point on the path during cutting; - the parameters being the pulse duration of the laser beam, the energy per pulse, the pulse rate of the laser beam and the scan speed of the laser beam; - said control unit being configured to synchronously control the laser source and the moving optical system so that the pulse duration of the laser source varies with respect to the position of the focal point on the predetermined three-dimensional path. - a laser source (1.1, 1.2) suitable for delivering a pulsed laser beam, - a focusing optical system for focusing the pulsed laser beam to a focal point in the ocular biological tissue; - an optical system for moving the pulsed laser beam, said system being configured to move the focal point along a predetermined three-dimensional path; - a control unit configured to control the laser source (1.1, 1.2) and the optical system for moving the pulsed laser beam so that the parameters of the pulsed laser beam and the parameters of the optical system for moving the pulsed laser beam are adjusted with respect to the position of the focal point on the path during cutting; - the parameters being the pulse duration of the laser beam, the energy per pulse, the pulse rate of the laser beam and the scan speed of the laser beam; - said control unit being configured to synchronously control the laser source and the moving optical system so that the pulse duration of the laser source varies with respect to the position of the focal point on the predetermined three-dimensional path.
An energetic one way sequence termination arrangement , comprising: a housing ; a first inlet in operable communication with the housing; a second inlet in operable communication with the housing; and an outlet in operable communication with the housing, the energetic one way sequence termination arrangement being configured such that the second inlet is blocked from fluidic communication with the outlet , and the first inlet establishes fluidic communication with the outlet in response to the second signal being received at the second inlet before the first signal is received at the first inlet , said energetic one way sequence termination arrangement further comprising: a cavity disposed within the housing ; and a moveable shuttle disposed within the cavity , characterized by : the moveable shuttle being moveable between a neutral position, a transferring position, and a terminating position; the moveable shuttle moving is to the terminating position in response to the first signal being received from the first inlet before the second signal is received from the second inlet , and the moveable shuttle moving to the transferring position in response to the second signal being received from the second inlet before the first signal is received from the first inlet . a housing ; a first inlet in operable communication with the housing; a second inlet in operable communication with the housing; and an outlet in operable communication with the housing, the energetic one way sequence termination arrangement being configured such that the second inlet is blocked from fluidic communication with the outlet , and the first inlet establishes fluidic communication with the outlet in response to the second signal being received at the second inlet before the first signal is received at the first inlet , said energetic one way sequence termination arrangement further comprising: a cavity disposed within the housing ; and a moveable shuttle disposed within the cavity , characterized by : the moveable shuttle being moveable between a neutral position, a transferring position, and a terminating position; the moveable shuttle moving is to the terminating position in response to the first signal being received from the first inlet before the second signal is received from the second inlet , and the moveable shuttle moving to the transferring position in response to the second signal being received from the second inlet before the first signal is received from the first inlet . the moveable shuttle being moveable between a neutral position, a transferring position, and a terminating position; the moveable shuttle moving is to the terminating position in response to the first signal being received from the first inlet before the second signal is received from the second inlet , and the moveable shuttle moving to the transferring position in response to the second signal being received from the second inlet before the first signal is received from the first inlet .
A method for mineralizing wood and wooden material comprising: i) a first impregnation step, comprising a first impregnation of wood or wooden material with an aqueous solution of potassium oxalate, ii) a first drying step, comprising drying of the wood or wooden material, iii) a second impregnation step, comprising a second impregnation of wood or wooden material with an aqueous solution of calcium chloride, iv) a second drying step, comprising drying of the wood or wooden material. i) a first impregnation step, comprising a first impregnation of wood or wooden material with an aqueous solution of potassium oxalate, ii) a first drying step, comprising drying of the wood or wooden material, iii) a second impregnation step, comprising a second impregnation of wood or wooden material with an aqueous solution of calcium chloride, iv) a second drying step, comprising drying of the wood or wooden material.
An oxidized organic compound manufacturing method, comprising: - a step of forming an oxidized organic compound proceeding by a catalytic gas-phase oxidation reaction due to a molecular oxygen-containing gas using a fixed-bed reactor having a reaction tube packed with an oxide catalyst by supplying at least one type of organic compound as a reaction feedstock gas; and - a step of stopping the catalytic gas-phase oxidation reaction with the following sequence of operations: a) stopping the supply of the reaction feedstock gas; b) supplying an inert gas to the reactor; c) supplying a molecular oxygen-containing gas; d) stopping the supply of the molecular oxygen-containing gas; wherein in the manufacturing method, the supply of the molecular oxygen-containing gas is stopped when an amount of carbon oxide present in gases at an outlet of the reactor, excluding an amount of carbon dioxide contained in the molecular oxygen-containing gas supplied, is greater than 0 ppm and not more than 1,000 ppm. - a step of forming an oxidized organic compound proceeding by a catalytic gas-phase oxidation reaction due to a molecular oxygen-containing gas using a fixed-bed reactor having a reaction tube packed with an oxide catalyst by supplying at least one type of organic compound as a reaction feedstock gas; and - a step of stopping the catalytic gas-phase oxidation reaction with the following sequence of operations: a) stopping the supply of the reaction feedstock gas; b) supplying an inert gas to the reactor; c) supplying a molecular oxygen-containing gas; d) stopping the supply of the molecular oxygen-containing gas; a) stopping the supply of the reaction feedstock gas; b) supplying an inert gas to the reactor; c) supplying a molecular oxygen-containing gas; d) stopping the supply of the molecular oxygen-containing gas;
Method for producing a HUD compatible windshield comprising a HUD viewing field provided by an area of a portion of a wedge shaped PVB sheet with an appropriate wedge angle for compensating the double images occurring in reflection at outside and inside surfaces of the windshield , wherein the method comprises the following steps: - providing said wedge shaped PVB sheet portion ; - providing a portion of a plane PVB sheet ; - assembling said two respective portions of the wedge shaped and plane PVB sheets together; and - forming the windshield , characterized in that the portion of the plane PVB sheet is assembled to the portion of the wedge shaped PVB sheet above the latter, in order to be in the upper part of the windshield , in that the windshield comprising the two portions exclusively, in that the slope of the wedge shaped PVB sheet portion is linear, and in that the adjacent edge of the plane PVB sheet portion and the adjacent edge of the wedge shaped PVB sheet portions have the same thickness . - providing said wedge shaped PVB sheet portion ; - providing a portion of a plane PVB sheet ; - assembling said two respective portions of the wedge shaped and plane PVB sheets together; and - forming the windshield , the portion of the plane PVB sheet is assembled to the portion of the wedge shaped PVB sheet above the latter, in order to be in the upper part of the windshield , in that the windshield comprising the two portions exclusively, in that the slope of the wedge shaped PVB sheet portion is linear, and in that the adjacent edge of the plane PVB sheet portion and the adjacent edge of the wedge shaped PVB sheet portions have the same thickness .
A smart window system comprising: a display element comprising a transparency adjustment layer and a liquid crystal layer , the liquid crystal layer being disposed adjacent to the transparency adjustment layer ; an input device configured to receive a control command for the display element ; and a controller configured to control transparency, color pattern, and gradation of the display element and information displayed on the display element on the basis of the control command, wherein the transparency adjustment layer is adapted to be switched to a transparent mode or an opaque mode depending on whether power is applied; characterized in that the display element further comprises a quantum layer including a liquid crystal molecule and a quantum rod (QR) having a surface to which an organic surfactant is bonded, wherein the quantum layer is adapted to be switched to a transparent mode or a fluorescent mode depending on the application of an electric field. a display element comprising a transparency adjustment layer and a liquid crystal layer , the liquid crystal layer being disposed adjacent to the transparency adjustment layer ; an input device configured to receive a control command for the display element ; and a controller configured to control transparency, color pattern, and gradation of the display element and information displayed on the display element on the basis of the control command, wherein the transparency adjustment layer is adapted to be switched to a transparent mode or an opaque mode depending on whether power is applied; characterized in that the display element further comprises a quantum layer including a liquid crystal molecule and a quantum rod (QR) having a surface to which an organic surfactant is bonded, wherein the quantum layer is adapted to be switched to a transparent mode or a fluorescent mode depending on the application of an electric field.
Compounds of the formula (I) in which A 1 is nitrogen, R 1 is ethyl R 2 is a ring from the series Q-42, Q-43, Q-45 or Q-47 optionally monosubstituted by fluorine, chlorine or trifluoromethyl, R 3 is hydrogen, X is a heteroaromatic 9-membered or 12-membered fused bicyclic or tricyclic ring system from the series H1, H2, H5, H15, H16 or H19, R 5 is trifluoromethyl, R 6 is hydrogen, R 7 is methyl n is 0, 1 or 2 wherein if R 2 is optionally substituted Q45, then X is not H1 or H2. R 5 is trifluoromethyl, R 6 is hydrogen, R 7 is methyl n is 0, 1 or 2