mhurhangee/patent-ind-claim-en huggingface dataset:
A toilet cover, comprising a top cover and a toilet seat , two sides of the bottom portion of the top cover are respectively disposed with a top cover shaft sleeve (1.1), the center of the bottom portion of the toilet seat is disposed with a sleeve (2.1); wherein the sleeve (2.1) is disposed with two quick release units, each quick release unit comprises a joint , a damper and a lock catch , a support base having an insert pin, which insert pin is insertable to each respective joint , each lock catch is inserted to a respective joint from one end of said respective joint to lock and unlock to a respective insert pin of a respective support base; each damper is disposed at the other end of a respective joint , and each damper is able to insert to a respective shaft sleeve of the top cover and retract to the sleeve from the respective shaft sleeve; each lock catch is linked to a respective damper ; each shaft sleeve of the top cover is disposed with a button , the button can move along the axis of the shaft sleeve of the top cover to push the damper to move in the sleeve.
A method for detecting and locating a fault in a thermal solar field including: - a piping into which a coolant circulates, the pipe including a plurality of conduits (121-125) in junction with a supply channel fitted with a supply pump and an outlet channel for the coolant fitted with a first temperature sensor , - a set of solar sensors arranged in rows (111-115), each row of solar sensors being disposed so as to heat the coolant circulating in one of the conduits, said method including the following operations of: - stagnating of the coolant inside each solar sensor for a predetermined time period, the supply pump being stopped, - at the end of the predetermined time period, starting the supply pump at a first flow rate so that the coolant inside the solar sensors circulates to the temperature sensor , - recording , as curves, coolant temperature variations measured by the temperature sensor , and - analysing obtained curves by comparing said curves with a reference curve and determining the existence of a fault and its location. - a piping into which a coolant circulates, the pipe including a plurality of conduits (121-125) in junction with a supply channel fitted with a supply pump and an outlet channel for the coolant fitted with a first temperature sensor , - a set of solar sensors arranged in rows (111-115), each row of solar sensors being disposed so as to heat the coolant circulating in one of the conduits, - stagnating of the coolant inside each solar sensor for a predetermined time period, the supply pump being stopped, - at the end of the predetermined time period, starting the supply pump at a first flow rate so that the coolant inside the solar sensors circulates to the temperature sensor , - recording , as curves, coolant temperature variations measured by the temperature sensor , and - analysing obtained curves by comparing said curves with a reference curve and determining the existence of a fault and its location.
Use of a stabilising composition to stabilise a polyolefin or a hot melt adhesive, the stabilising composition comprising: a. at least one antioxidant comprising one or more of: i. a phenolic antioxidant; ii. a phosphite antioxidant; iii. a sulphur-containing antioxidant; and iv. an aminic antioxidant; and b. at least one buffering agent, wherein the buffering agent has the capacity to buffer in aqueous solution at a pH range from 4 to 8, and wherein the buffering agent is a solid at a temperature of 50°C or lower. a. at least one antioxidant comprising one or more of: i. a phenolic antioxidant; ii. a phosphite antioxidant; iii. a sulphur-containing antioxidant; and iv. an aminic antioxidant; and i. a phenolic antioxidant; ii. a phosphite antioxidant; iii. a sulphur-containing antioxidant; and iv. an aminic antioxidant; and b. at least one buffering agent, wherein the buffering agent has the capacity to buffer in aqueous solution at a pH range from 4 to 8, and wherein the buffering agent is a solid at a temperature of 50°C or lower.
A contact adhesive composition, comprising a first chloroprene rubber having a 100% increased Shore A hardness in no more than 2 hours when crystallizing at -10°C, a second chloroprene rubber having a 100% increased Shore A hardness in more than 2 hours when crystallizing at -10°C, a solvent, optionally an adhesion promoter, optionally a tackifier resin, wherein the weight ratio of the first chloroprene rubber to the second chloroprene rubber is no less than 1.6. a first chloroprene rubber having a 100% increased Shore A hardness in no more than 2 hours when crystallizing at -10°C, a second chloroprene rubber having a 100% increased Shore A hardness in more than 2 hours when crystallizing at -10°C, a solvent, optionally an adhesion promoter, optionally a tackifier resin, wherein the weight ratio of the first chloroprene rubber to the second chloroprene rubber is no less than 1.6.
Steering system for a vehicle, comprising a steering wheel hub connected or connectable with a steering wheel , the steering wheel hub being rotatable about an axis of rotation (A); a steering system support column including an off-axis section having a first longitudinal axis (L1) that is off-set, and preferably parallel, to the axis of rotation (A) and characterized by the steering system support column further including an aligned section having a second longitudinal axis (L2) that corresponds to the axis of rotation (A), wherein the steering wheel hub is rotatably mounted on the aligned section , while the off-axis section is axially spaced from the steering wheel hub ; and by the steering system further comprising: a torque feedback device including an electric machine having a rotor and a stator , the rotor being attached to the steering wheel hub so as to be rotatable with the steering wheel hub about the axis of rotation (A), and the stator being non-rotatably fixed to the aligned section of the steering system support column , wherein the rotor is an outer rotor and the stator is an inner stator. a steering wheel hub connected or connectable with a steering wheel , the steering wheel hub being rotatable about an axis of rotation (A); a steering system support column including an off-axis section having a first longitudinal axis (L1) that is off-set, and preferably parallel, to the axis of rotation (A) and characterized by the steering system support column further including an aligned section having a second longitudinal axis (L2) that corresponds to the axis of rotation (A), wherein the steering wheel hub is rotatably mounted on the aligned section , while the off-axis section is axially spaced from the steering wheel hub ; and by the steering system further comprising: a torque feedback device including an electric machine having a rotor and a stator , the rotor being attached to the steering wheel hub so as to be rotatable with the steering wheel hub about the axis of rotation (A), and the stator being non-rotatably fixed to the aligned section of the steering system support column , wherein the rotor is an outer rotor and the stator is an inner stator.
An insert system comprising a. an insert comprising i. a base and ii. an outer skirt extending from 1. the base , thereby forming a chamber , 2. said outer skirt being provided with a first inner skirt surface and a first outer skirt surface ; and b. a panel comprising i. a core structure and ii. a first cover sheet that at least partially covers the core structure ; 1. the first cover sheet defining a first outer panel surface and 2. having an opening ; characterized by c. at least one piston arranged in the opening and beneath the first outer panel surface d. wherein the piston during mounting of the insert sweeps into the chamber to discharge an adhesive agent from the chamber into the core structure via at least one pathway (P1, P2). a. an insert comprising i. a base and ii. an outer skirt extending from 1. the base , thereby forming a chamber , 2. said outer skirt being provided with a first inner skirt surface and a first outer skirt surface ; and i. a base and ii. an outer skirt extending from 1. the base , thereby forming a chamber , 2. said outer skirt being provided with a first inner skirt surface and a first outer skirt surface ; and 1. the base , thereby forming a chamber , 2. said outer skirt being provided with a first inner skirt surface and a first outer skirt surface ; and b. a panel comprising i. a core structure and ii. a first cover sheet that at least partially covers the core structure ; 1. the first cover sheet defining a first outer panel surface and 2. having an opening ; characterized by i. a core structure and ii. a first cover sheet that at least partially covers the core structure ; 1. the first cover sheet defining a first outer panel surface and 2. having an opening ; characterized by 1. the first cover sheet defining a first outer panel surface and 2. having an opening ; characterized by c. at least one piston arranged in the opening and beneath the first outer panel surface d. wherein the piston during mounting of the insert sweeps into the chamber to discharge an adhesive agent from the chamber into the core structure via at least one pathway (P1, P2).
A method for manufacturing a battery cell , comprising: a) manufacturing an electrode assembly by interposing a separator formed with a plurality of pores between a cathode and an anode ; b) impregnating the electrode assembly manufactured in the step a) into a mixed liquid to allow the mixed liquid enter the plurality of pores , the mixed liquid including an electrolyte solution component in the liquefied monomer and / or oligomer state and a polymerization initiator ; c) thereafter, impregnating the electrode assembly in a battery case along with a liquefied electrolyte solution and then sealing the battery case ; and d) polymerizing or curing the electrolyte solution component in the monomer and / or oligomer state so as to form a gelled electrolyte inserted into a pore of the separator but maintaining a liquefied electrolyte solution within the batterey case . a) manufacturing an electrode assembly by interposing a separator formed with a plurality of pores between a cathode and an anode ; b) impregnating the electrode assembly manufactured in the step a) into a mixed liquid to allow the mixed liquid enter the plurality of pores , the mixed liquid including an electrolyte solution component in the liquefied monomer and / or oligomer state and a polymerization initiator ; c) thereafter, impregnating the electrode assembly in a battery case along with a liquefied electrolyte solution and then sealing the battery case ; and d) polymerizing or curing the electrolyte solution component in the monomer and / or oligomer state so as to form a gelled electrolyte inserted into a pore of the separator but maintaining a liquefied electrolyte solution within the batterey case .
A device for positioning over and applying electromagnetic energy to a body organ, the device comprising: a support structure forming a contoured shape, where an interior space of the contoured shape is adapted for placement over the body organ; a dome structure located within the interior space of the contoured shape and spaced from the support structure, the dome structure comprising a plurality of openings ; a plurality of projection assemblies each having a central projection element surrounded by at least two auxiliary projection elements, where each projection element and each of the plurality of auxiliary projection elements comprises a distal portion having an illumination source configured to direct the electromagnetic energy to the body organ, where the distal portion is flexible to accommodate bending upon a shift in the support structure; wherein each projection element extends through an opening of the plurality of openings of the dome structure; and each of the plurality of projection assemblies having a biasing element allowing each of the projection assemblies to be moveably coupled to the support structure to cause the distal portion and illumination source of the projection element to extend into the interior space of the contoured shape, where the biasing element permits proximal movement of the projection element upon engaging a surface of the body organ to permit the projection elements of the plurality of projection assemblies to independently conform to the body organ and permitting the illumination source to remain adjacent to the surface of the body organ. a support structure forming a contoured shape, where an interior space of the contoured shape is adapted for placement over the body organ; a dome structure located within the interior space of the contoured shape and spaced from the support structure, the dome structure comprising a plurality of openings ; a plurality of projection assemblies each having a central projection element surrounded by at least two auxiliary projection elements, where each projection element and each of the plurality of auxiliary projection elements comprises a distal portion having an illumination source configured to direct the electromagnetic energy to the body organ, where the distal portion is flexible to accommodate bending upon a shift in the support structure; wherein each projection element extends through an opening of the plurality of openings of the dome structure; and each of the plurality of projection assemblies having a biasing element allowing each of the projection assemblies to be moveably coupled to the support structure to cause the distal portion and illumination source of the projection element to extend into the interior space of the contoured shape, where the biasing element permits proximal movement of the projection element upon engaging a surface of the body organ to permit the projection elements of the plurality of projection assemblies to independently conform to the body organ and permitting the illumination source to remain adjacent to the surface of the body organ.
A method of applying a protective layer to an outer surface of a wind turbine rotor blade , which protective layer comprises an elastomer sheet, which method comprises the steps of - preparing a protective layer for application to the outer surface of the rotor blade ; - applying a thermolatent adhesive layer to the inside surface of the protective layer and/or to the outer surface of the rotor blade ; - providing an air exit channel between the rotor blade and the protective layer ; - attaching the protective layer to the outer surface of the rotor blade along the leading edge (LE); - extracting air (X) through the air exit channel ; and - heating the thermolatent adhesive layer to completely fill the interface between the protective layer and the rotor blade . - preparing a protective layer for application to the outer surface of the rotor blade ; - applying a thermolatent adhesive layer to the inside surface of the protective layer and/or to the outer surface of the rotor blade ; - providing an air exit channel between the rotor blade and the protective layer ; - attaching the protective layer to the outer surface of the rotor blade along the leading edge (LE); - extracting air (X) through the air exit channel ; and - heating the thermolatent adhesive layer to completely fill the interface between the protective layer and the rotor blade .
A processor of a user equipment, UE, configured to perform operations comprising: receiving broadcast information from a public land mobile network, PLMN, including at least a PLMN identifier, ID; attempting a registration with the PLMN by sending a registration request to the PLMN, wherein the processor is configured to receive the broadcast information from a base station and to attempt the registration via the base station that is operated by the PLMN, the base station being deployed in a non-terrestrial network, NTN, arrangement including a non-terrestrial component configured to provide services tc the UE via a service link; receiving , from the PLMN, a message including a cause code indicating the PLMN is not allowed to operate at a current UE location and further including a set of attributes indicating further conditions wherein the registration with the PLMN is not allowed; wherein the set of attributes indicates geographical information defining an area within which the UE should not attempt the further registration attempts with the PLMN; and avoiding further registration attempts with the PLMN when the further conditions are met, wherein the processor is configured to determine whether the further conditions are met by, at least, comparing a UE location against the geographical information. receiving broadcast information from a public land mobile network, PLMN, including at least a PLMN identifier, ID; attempting a registration with the PLMN by sending a registration request to the PLMN, wherein the processor is configured to receive the broadcast information from a base station and to attempt the registration via the base station that is operated by the PLMN, the base station being deployed in a non-terrestrial network, NTN, arrangement including a non-terrestrial component configured to provide services tc the UE via a service link; receiving , from the PLMN, a message including a cause code indicating the PLMN is not allowed to operate at a current UE location and further including a set of attributes indicating further conditions wherein the registration with the PLMN is not allowed; wherein the set of attributes indicates geographical information defining an area within which the UE should not attempt the further registration attempts with the PLMN; and avoiding further registration attempts with the PLMN when the further conditions are met, wherein the processor is configured to determine whether the further conditions are met by, at least, comparing a UE location against the geographical information.
A method for transmitting data, characterized in that , the method comprises: determining (S301), by a first device, a transmission message comprising transmission data, and a security context identifier of an inactive terminal device, wherein the inactive terminal device is in an inactive state in which the terminal device is connected with a core network but is not allocated a Cell-Radio Network Temporary Identifier, C-RNTI, to be used directly for air-interface transmission; and transmitting (S302), by the first device, the transmission message comprising the transmission data and the security context identifier of the inactive terminal device to a second device; wherein the security context identifier of the inactive terminal device is used for the second device (S303) to match the security context identifier of the inactive terminal device with a security context identifier of at least one local terminal device, and to decide whether to activate security of the inactive terminal device according to a matching result; and wherein the first device is the inactive terminal device and the second device is a base station; or the second device is the inactive terminal device and the first device is the base station. determining (S301), by a first device, a transmission message comprising transmission data, and a security context identifier of an inactive terminal device, wherein the inactive terminal device is in an inactive state in which the terminal device is connected with a core network but is not allocated a Cell-Radio Network Temporary Identifier, C-RNTI, to be used directly for air-interface transmission; and transmitting (S302), by the first device, the transmission message comprising the transmission data and the security context identifier of the inactive terminal device to a second device; wherein the security context identifier of the inactive terminal device is used for the second device (S303) to match the security context identifier of the inactive terminal device with a security context identifier of at least one local terminal device, and to decide whether to activate security of the inactive terminal device according to a matching result; and wherein the first device is the inactive terminal device and the second device is a base station; or the second device is the inactive terminal device and the first device is the base station.
A vibration device , comprising: - a first machine frame ; - a machine table coupled to the first machine frame in such a way that it is displaceable relative to the first machine frame at least in a main direction of movement ; - a first eccentric mass which is rotatably mounted on the machine table , wherein the first eccentric mass is coupled to a first drive motor ; - a second eccentric mass which is rotatably mounted on the machine table , wherein the second eccentric mass is coupled to a second drive motor , characterized in that the first eccentric mass and the second eccentric mass are arranged on the machine table such that they are displaceable relative to the machine table in the main direction of movement , wherein the first eccentric mass and the second eccentric mass are coupled to one another by means of a coupling device in such a way that a displacement of the first eccentric mass with respect to the main direction of movement leads to a displacement of the second eccentric mass in the opposite direction. - a first machine frame ; - a machine table coupled to the first machine frame in such a way that it is displaceable relative to the first machine frame at least in a main direction of movement ; - a first eccentric mass which is rotatably mounted on the machine table , wherein the first eccentric mass is coupled to a first drive motor ; - a second eccentric mass which is rotatably mounted on the machine table , wherein the second eccentric mass is coupled to a second drive motor , characterized in that the first eccentric mass and the second eccentric mass are arranged on the machine table such that they are displaceable relative to the machine table in the main direction of movement , wherein the first eccentric mass and the second eccentric mass are coupled to one another by means of a coupling device in such a way that a displacement of the first eccentric mass with respect to the main direction of movement leads to a displacement of the second eccentric mass in the opposite direction.
An interlayer film for laminated glass, comprising a thermoplastic resin and a plasticizer, having one end and the other end being at the opposite side of the one end , having two or more uniform thickness parts where the thickness is uniform in a direction connecting the one end and the other end , and having one or more thickness increasing part where the thickness is made to increase in the direction connecting the one end and the other end , the thickness of the other end being larger than the thickness of the one end , the thickness in the uniform thickness part positioned nearest to the other end side being larger than the thickness in the uniform thickness part positioned nearest to the one end side and a ratio of the thickness in the uniform thickness part positioned nearest to the other end side to the thickness in the uniform thickness part positioned nearest to the one end side being 1.3 or more, and a ratio of a distance occupied by the uniform thickness part positioned nearest to the one end side to a distance occupied by the uniform thickness part positioned nearest to the other end side being 0.8 or less.