mhurhangee/patent-ind-claim-en huggingface dataset:
An electro-optic window assembly , comprising: a bezel having an inner edge , the bezel covering a peripheral portion of a first substantially transparent substrate and a peripheral portion of a second substantially transparent substrate ; a first substantially transparent substrate comprising: a first surface with a portion in thermal communication with the bezel, a second surface , and a first peripheral edge ; a second substantially transparent substrate comprising: a third surface , a fourth surface with a portion in thermal communication with the bezel, and a second peripheral edge , wherein the first and second substrates define a cavity , and the fourth surface and the inner edge of the bezel define a visible area ; and an electro-optic medium at least partially filling the cavity and configured to reduce the transmission of light viewed through the electro-optic window assembly, characterized in that a distance between the inner edge of the bezel and the peripheral edges of the substrates is sized such that the substrates each have a theoretical maximum thermal stress of less than approximately 25 MPa upon exposure of the electro-optic window assembly to an approximately 50°C thermal gradient that exists between the peripheral portions of the substrates and the visible area . a bezel having an inner edge , the bezel covering a peripheral portion of a first substantially transparent substrate and a peripheral portion of a second substantially transparent substrate ; a first substantially transparent substrate comprising: a first surface with a portion in thermal communication with the bezel, a second surface , and a first peripheral edge ; a first surface with a portion in thermal communication with the bezel, a second surface , and a first peripheral edge ; a second substantially transparent substrate comprising: a third surface , a fourth surface with a portion in thermal communication with the bezel, and a second peripheral edge , a third surface , a fourth surface with a portion in thermal communication with the bezel, and a second peripheral edge , wherein the first and second substrates define a cavity , and the fourth surface and the inner edge of the bezel define a visible area ; and an electro-optic medium at least partially filling the cavity and configured to reduce the transmission of light viewed through the electro-optic window assembly, characterized in that a distance between the inner edge of the bezel and the peripheral edges of the substrates is sized such that the substrates each have a theoretical maximum thermal stress of less than approximately 25 MPa upon exposure of the electro-optic window assembly to an approximately 50°C thermal gradient that exists between the peripheral portions of the substrates and the visible area .
A method in a wireless local area network, WLAN, system, the method comprising: receiving, by a receiving station, STA , a Physical Protocol Data Unit, PPDU, from a transmitting STA through a frequency band; and decoding, by the receiving STA, the PPDU, wherein the receiving STA is an STA that operates only in a 20MHz band, wherein the PPDU includes a preamble and a data field, wherein the data field is received through resources other than a first resource unit, RU, and a first multiple RUs, MRU, among the frequency band, wherein, based on the frequency band being a 40MHz band, the 40MHz band includes first to 18th 26 tone RUs in case of only 26 tone RUs, the 40MHz band includes first to 8th 52 tone RUs in case of only 52 tone RUs, the 40MHz band includes first to 4th 106 tone RUs in case of only 106 tone RUs, and the 40MHz band includes first and second 242 tone RUs in case of only 242 tone RUs, wherein the first RU includes the 5th and 14th 26 tone RUs and the first and second 242 tone RUs, and wherein the first MRU includes an MRU in which the 5th 26 tone RU and the second 52 tone RU are aggregated, an MRU in which the 14th 26 tone RU and the 6th 52 tone RU are aggregated, an MRU in which the 5th 26 tone RU and the first 106 tone RU are aggregated, an MRU in which the 5th 26 tone RU and the second 106 tone RU are aggregated, an MRU in which the 14th 26 tone RU and the 3rd 106 tone RU are aggregated, and an MRU in which the 14th 26 tone RU and the 4th 106 tone RU are aggregated. receiving, by a receiving station, STA , a Physical Protocol Data Unit, PPDU, from a transmitting STA through a frequency band; and decoding, by the receiving STA, the PPDU, wherein the receiving STA is an STA that operates only in a 20MHz band, wherein the PPDU includes a preamble and a data field, wherein the data field is received through resources other than a first resource unit, RU, and a first multiple RUs, MRU, among the frequency band, wherein, based on the frequency band being a 40MHz band, the 40MHz band includes first to 18th 26 tone RUs in case of only 26 tone RUs, the 40MHz band includes first to 8th 52 tone RUs in case of only 52 tone RUs, the 40MHz band includes first to 4th 106 tone RUs in case of only 106 tone RUs, and the 40MHz band includes first and second 242 tone RUs in case of only 242 tone RUs, wherein the first RU includes the 5th and 14th 26 tone RUs and the first and second 242 tone RUs, and wherein the first MRU includes an MRU in which the 5th 26 tone RU and the second 52 tone RU are aggregated, an MRU in which the 14th 26 tone RU and the 6th 52 tone RU are aggregated, an MRU in which the 5th 26 tone RU and the first 106 tone RU are aggregated, an MRU in which the 5th 26 tone RU and the second 106 tone RU are aggregated, an MRU in which the 14th 26 tone RU and the 3rd 106 tone RU are aggregated, and an MRU in which the 14th 26 tone RU and the 4th 106 tone RU are aggregated.
Heat exchanger with a protection system, consisting of ceramic plates , head bolts , spacers and sealing means , wherein the head bolts are disposed on the heat exchanger , the ceramic plates have a continuous vertical groove on their surface facing the heat exchanger in an area enhanced in its thickness and a plurality of ceramic plates side by side to and one above the other with their groove are pushed onto the head bolts and the sealing means and the spacers to align the ceramic plates are disposed between ceramic plates disposed one above the other and the space between the heat exchanger and the ceramic plates is filled with fluid concrete , characterised in that , the spacers have an outer contour that can be inserted into the groove of the ceramic plate and on this outer contour have a encircling bead that is horizontal in their mounted position and that is smaller in its width extending in the direction of the thickness of the ceramic plate than the thickness of the ceramic plate in the area of the groove , wherein the bead rests with its underside on the upper edge of the ceramic plate and the ceramic plate disposed above this ceramic plate rests with its underside on the upper side of the bead , so that a gap is formed between the ceramic plates disposed above one another.
A method in a wireless communication device for initiating a session with a radio network node , comprising: determining that the radio network node has enabled an access class barring, ACB, test; determining (312-318) whether to perform or bypass the access class barring test for the session; and performing or bypassing the access class barring test according to the determination; the method further comprising and characterized by : setting an access class barring, ACB-bypass variable to true upon a determination to bypass the access class barring test for the session. determining that the radio network node has enabled an access class barring, ACB, test; determining (312-318) whether to perform or bypass the access class barring test for the session; and performing or bypassing the access class barring test according to the determination; the method further comprising and characterized by : setting an access class barring, ACB-bypass variable to true upon a determination to bypass the access class barring test for the session.
A method for accessing a network by an Internet of Things device, the method comprising: sending , by an Internet of Things device, an access request message to an access point according to a service set identifier, SSID, wherein the access request message comprises a universally unique identifier, UUID, the SSID, and a first temporary password pass_tmp pre-configured at the Internet of Things device, the UUID is used to uniquely identify the Internet of Things device, receiving , by the access point, the access request message; and sending , by the access point, an access response message to the Internet of Things device when the first pass_tmp is the same as a second temporary password pass_tmp that is obtained by the access point from a server according to the UUID; receiving , by the Internet of Things device, the access response message sent by the access point, wherein the access response message comprises the SSID and a third password; and accessing , by the Internet of Things device, a network by using the SSID and the third password in the access response message. sending , by an Internet of Things device, an access request message to an access point according to a service set identifier, SSID, wherein the access request message comprises a universally unique identifier, UUID, the SSID, and a first temporary password pass_tmp pre-configured at the Internet of Things device, the UUID is used to uniquely identify the Internet of Things device, receiving , by the access point, the access request message; and sending , by the access point, an access response message to the Internet of Things device when the first pass_tmp is the same as a second temporary password pass_tmp that is obtained by the access point from a server according to the UUID; receiving , by the Internet of Things device, the access response message sent by the access point, wherein the access response message comprises the SSID and a third password; and accessing , by the Internet of Things device, a network by using the SSID and the third password in the access response message.
A grinder-doser for beans, for example coffee beans, comprising a body which encloses: - a first grinder supported by a relative first grinder-holder , and a second grinder supported by a relative second grinder-holder , wherein the first and second grinders are facing along an axial direction (X-X) and define a grinding chamber for coffee beans, - an adjustment device of the relative axial distance between said first and second grinders provided with a screw or ring-nut comprising a first threaded portion , having a first pitch being engaged with a first nut and a second threaded portion , having a second pitch and being engaged with a second nut , - wherein the first nut is associated with the axially fixed body of the grinder-doser and the second nut is operatively associated with one of said grinders , movable along the axial direction (X-X) with respect to the other grinder , so as to be able to vary the relative axial distance between said first and second grinders , the first pitch being different from the second pitch. - a first grinder supported by a relative first grinder-holder , and a second grinder supported by a relative second grinder-holder , wherein the first and second grinders are facing along an axial direction (X-X) and define a grinding chamber for coffee beans, - an adjustment device of the relative axial distance between said first and second grinders provided with a screw or ring-nut comprising a first threaded portion , having a first pitch being engaged with a first nut and a second threaded portion , having a second pitch and being engaged with a second nut , - wherein the first nut is associated with the axially fixed body of the grinder-doser and the second nut is operatively associated with one of said grinders , movable along the axial direction (X-X) with respect to the other grinder , so as to be able to vary the relative axial distance between said first and second grinders , the first pitch being different from the second pitch.
A radial filter vent comprising: (a) a first gas diversion layer having an opening therethrough; (b) a second gas diversion layer; (c) a filter sheet disposed between (a) and (b), said filter sheet having a first surface and an opposing second surface circumscribed by a perimeter edge; wherein said first surface of said filter sheet is sealed to a first surface of said second gas diversion layer and said second surface of the filter sheet is sealed to a first surface of said first gas diversion layer whereby an opening in said first gas diversion layer is covered by said filter sheet and a gas passageway is defined from said opening through a portion of said second surface of said filter sheet and extending through said filter perimeter edge, wherein said filter sheet has a gas passageway distance greater than a minimum thickness of said filter sheet, wherein the materials used for said gas diversion layers are selected from materials including a) polyolefins, polyesters, polyethylene terephthalates, polyamides, nylons, polystyrenes, and polyacrylates, b) homopolymers, copolymers, and their derivatives and blends of the materials according to a), or c) metal foils, metal foil laminates and metalized films. (a) a first gas diversion layer having an opening therethrough; (b) a second gas diversion layer; (c) a filter sheet disposed between (a) and (b), said filter sheet having a first surface and an opposing second surface circumscribed by a perimeter edge; wherein said first surface of said filter sheet is sealed to a first surface of said second gas diversion layer and said second surface of the filter sheet is sealed to a first surface of said first gas diversion layer whereby an opening in said first gas diversion layer is covered by said filter sheet and a gas passageway is defined from said opening through a portion of said second surface of said filter sheet and extending through said filter perimeter edge, wherein said filter sheet has a gas passageway distance greater than a minimum thickness of said filter sheet, wherein the materials used for said gas diversion layers are selected from materials including a) polyolefins, polyesters, polyethylene terephthalates, polyamides, nylons, polystyrenes, and polyacrylates, b) homopolymers, copolymers, and their derivatives and blends of the materials according to a), or c) metal foils, metal foil laminates and metalized films.
A control method for a hybrid vehicle comprising an electric motor that drives the vehicle to travel, a generator that supplies power to the electric motor , and an engine that drives the generator , the control method comprising: when bringing the electric motor into a regenerative state, operating the generator to drive the engine in a state in which fuel supply to the engine is cut, thereby executing, in accordance with required deceleration, motoring control for consuming output power of the electric motor ; the control method being characterized by further comprising: when increasing a rotational speed of the engine due to an increase in the required deceleration upon execution of the motoring control, setting the rotational speed of the engine such that a change rate of the rotational speed of the engine increases as the required deceleration increases, wherein in a case in which the change rate of the rotational speed of the engine after releasing an accelerator pedal is compared between when the required deceleration is high and when the required deceleration is low under same consumed power by the motoring control, the change rate of the rotational speed of the engine after releasing the accelerator pedal when the required deceleration is high is larger than that when the required deceleration is low. when increasing a rotational speed of the engine due to an increase in the required deceleration upon execution of the motoring control, setting the rotational speed of the engine such that a change rate of the rotational speed of the engine increases as the required deceleration increases, wherein in a case in which the change rate of the rotational speed of the engine after releasing an accelerator pedal is compared between when the required deceleration is high and when the required deceleration is low under same consumed power by the motoring control, the change rate of the rotational speed of the engine after releasing the accelerator pedal when the required deceleration is high is larger than that when the required deceleration is low.
Module for housing portable terminals , comprising a main body extended along a longitudinal direction (x) and provided with at least one housing receptacle for a portable terminal , said main body comprising: - a first mounting wall of said main body adapted to be mounted on a support wall ; - a second mounting wall of said main body adapted to be mounted on said support wall , said second mounting wall being inclined with respect to said first mounting wall by a fixed angle (ω); wherein said main body is mountable on said support wall in at least two different mounting positions, a first mounting position being defined when said main body is oriented in order to be mounted on said support wall by means of said first mounting wall and a second mounting position being defined when said main body is oriented in order to be mounted on said support wall by means of said second mounting wall ; wherein, in said first mounting position said at least one housing receptacle extends along a first insertion/extraction direction (A) of said portable terminal toward/from said at least one housing receptacle and in said second mounting position said at least one housing receptacle extends along a second insertion/extraction direction (B) of said portable terminal toward/from said at least one housing receptacle , said second insertion/extraction direction (B) being different from said first insertion/extraction direction (A). - a first mounting wall of said main body adapted to be mounted on a support wall ; - a second mounting wall of said main body adapted to be mounted on said support wall , said second mounting wall being inclined with respect to said first mounting wall by a fixed angle (ω);
A gas turbine engine for an aircraft, comprising: an engine core comprising a turbine , a compressor , and a core shaft connecting the turbine to the compressor ; a fan assembly located upstream of the engine core ; and a gearbox that receives an input from the core shaft and outputs drive to the fan assembly so as to drive the fan assembly at a lower rotational speed than the core shaft , wherein the fan assembly comprises a plurality of fan blades mounted around a hub , the fan blades having blade tips defining an outer diameter of the fan assembly of from around 220 cm to around 400 cm, the hub comprising a plurality of slots located around a rim of the hub , each slot receiving a root of a corresponding fan blade , the rim having a minimum radial thickness between a base of each slot and an internal cavity within the hub , characterised in that the minimum radial thickness is within a range of around 0.5 % to around 1.1 % of the outer fan diameter. an engine core comprising a turbine , a compressor , and a core shaft connecting the turbine to the compressor ; a fan assembly located upstream of the engine core ; and a gearbox that receives an input from the core shaft and outputs drive to the fan assembly so as to drive the fan assembly at a lower rotational speed than the core shaft , wherein the fan assembly comprises a plurality of fan blades mounted around a hub , the fan blades having blade tips defining an outer diameter of the fan assembly of from around 220 cm to around 400 cm, the hub comprising a plurality of slots located around a rim of the hub , each slot receiving a root of a corresponding fan blade , the rim having a minimum radial thickness between a base of each slot and an internal cavity within the hub , characterised in that the minimum radial thickness is within a range of around 0.5 % to around 1.1 % of the outer fan diameter.
A blast furnace tap hole temperature measurement device, comprising: a temperature measurement unit configured to measure a temperature value by measuring first and second wavelength radiation energy of a blast furnace tap hole , and applying a reference emissivity ratio to the first and second wavelength radiation energy; a camera configured to obtain an image of the blast furnace tap hole ; an image processing unit configured to calculate a ratio of slag and molten iron by identifying the slag and the molten iron from the image; and a correction unit configured to generate a final temperature value by applying a corrected temperature value, corresponding to a difference between a ratio, calculated by the image processing unit , and a reference ratio, corresponding to the reference emissivity ratio, to a temperature value, measured by the temperature measurement unit , wherein, when an amount of the slag is greater as compared with the molten iron in the blast furnace tap hole , the correction unit generates the corrected temperature value so that the final temperature value is higher. a temperature measurement unit configured to measure a temperature value by measuring first and second wavelength radiation energy of a blast furnace tap hole , and applying a reference emissivity ratio to the first and second wavelength radiation energy; a camera configured to obtain an image of the blast furnace tap hole ; an image processing unit configured to calculate a ratio of slag and molten iron by identifying the slag and the molten iron from the image; and a correction unit configured to generate a final temperature value by applying a corrected temperature value, corresponding to a difference between a ratio, calculated by the image processing unit , and a reference ratio, corresponding to the reference emissivity ratio, to a temperature value, measured by the temperature measurement unit , wherein, when an amount of the slag is greater as compared with the molten iron in the blast furnace tap hole , the correction unit generates the corrected temperature value so that the final temperature value is higher.
Supplementary support assembly for a workpiece support assembly of a semi-stationary machine tool , in particular a machine saw, wherein a workpiece support body of the workpiece support assembly has a base supporting surface which is substantially horizontal during use for supporting a workpiece (W1, W2) for machining, in particular for sawing (SX) by a tool of the machine tool , wherein the supplementary support assembly has a supplementary supporting surface and a support body with support body mounting means for detachable mounting on the workpiece support assembly , wherein, when the supplementary support assembly is mounted on the workpiece support assembly , the supplementary supporting surface is at least substantially aligned with the base supporting surface , wherein it has a supporting body which is mounted by means of a support body bearing comprising a sliding bearing and/or a pivoting bearing on the support body to be movable between at least two different positions relative to the base supporting surface and can be detachably fixed on the support body in the relative positions by means of supporting body fixing means , wherein the supporting body comprises the supplementary supporting surface and/or forms a mounting base for a transverse stop body which can be detachably mounted on the supporting body by means of stop body fixing means and has at least one transverse stop face which is at an angle to the supplementary supporting surface , particularly at a right angle thereto characterised in that the supporting body fixing means are at least partially formed by the stop body fixing means .