mhurhangee/patent-ind-claim-en huggingface dataset:
Method for sealing and inflating inflatable articles, in particular for sealing and inflating motor vehicle tyres, wherein, by means of a compressor which is driven preferably by means of an electric motor, a sealing and pumping pressure is generated, wherein, by means of the sealing and pumping pressure, via a valve and distributor device for sealant and compressed gas and via compressed-air and sealant hoses between valve and distributor device and an entry valve or an inlet nozzle of the inflatable article, a sealant situated in a sealant vessel connected to the valve and distributor device is conveyed into the inflatable article and, at the same time, the inflatable article is sealed and inflated to a predefined operating pressure, characterized in that , in or downstream of the entry valve/the inlet nozzle, the sealant is at least partially atomized to form an aerosol by virtue of the sealant or the sealant-air mixture being converted, in the entry valve or in the inlet nozzle, into a turbulent flow with a Reynolds number R e ≥ 2300, wherein the Reynolds number satisfies the following equation/inequation: R e = 2 D p ρ η 0 2 ⋅ e 2 K T 0 + ΔT ≥ 2300 , which comprises the following parameters: T 0 : ambient temperature, D : characteristic diameter of the entry valve or of the inlet nozzle, ΔT : difference between the temperature in the entry valve or in the inlet nozzle and the ambient temperature, p : conveying pressure of the sealant or sealant-air mixture, p : density of the sealant or sealant-air mixture, η 0 intrinsic viscosity of the sealant or sealant-air mixture, κ characteristic temperature of the sealant or sealant-air mixture. characterized in that , in or downstream of the entry valve/the inlet nozzle, the sealant is at least partially atomized to form an aerosol by virtue of the sealant or the sealant-air mixture being converted, in the entry valve or in the inlet nozzle, into a turbulent flow with a Reynolds number R e ≥ 2300, wherein the Reynolds number satisfies the following equation/inequation: R e = 2 D p ρ η 0 2 ⋅ e 2 K T 0 + ΔT ≥ 2300 , which comprises the following parameters: T 0 : ambient temperature, D : characteristic diameter of the entry valve or of the inlet nozzle, ΔT : difference between the temperature in the entry valve or in the inlet nozzle and the ambient temperature, p : conveying pressure of the sealant or sealant-air mixture, p : density of the sealant or sealant-air mixture, η 0 intrinsic viscosity of the sealant or sealant-air mixture, κ characteristic temperature of the sealant or sealant-air mixture. T 0 : ambient temperature, D : characteristic diameter of the entry valve or of the inlet nozzle, ΔT : difference between the temperature in the entry valve or in the inlet nozzle and the ambient temperature, p : conveying pressure of the sealant or sealant-air mixture, p : density of the sealant or sealant-air mixture, η 0 intrinsic viscosity of the sealant or sealant-air mixture, κ characteristic temperature of the sealant or sealant-air mixture.
A workpiece supporting device to be provided for a shape measuring device which measures a shape of a workpiece , the workpiece supporting device comprising: a horizontal table ; three first fulcrums provided on an upper surface of the table ; first arms swingably supported by the respective first fulcrums , each of the first arms swingably supported at a central part in a longitudinal direction of the first arm by the first fulcrum ; and a plurality of first contacting parts swingably provided on an upper surface of the first arm for each first fulcrum and distributed from the first fulcrum in different directions, the first contacting parts configured to come into contact with the workpiece , characterized in that each of the first arms is retractable in the longitudinal direction of each first arm . a horizontal table ; three first fulcrums provided on an upper surface of the table ; first arms swingably supported by the respective first fulcrums , each of the first arms swingably supported at a central part in a longitudinal direction of the first arm by the first fulcrum ; and a plurality of first contacting parts swingably provided on an upper surface of the first arm for each first fulcrum and distributed from the first fulcrum in different directions, the first contacting parts configured to come into contact with the workpiece , characterized in that each of the first arms is retractable in the longitudinal direction of each first arm .
An implant storage container comprising: an implant body ; a holding block connected to the implant body ; a cover storing the implant body and connected to the holding block ; and a sealing member configured to seal a boundary between the holding block and the cover to maintain a vacuum state inside the cover , characterized in that the sealing member includes a recoverable elastic material, through which, the sealing member forms an air circulation path temporarily when a hole for air circulation is passed by a sharp object having a small diameter such as a needle to exhaust the internal air of the cover , wherein the sealing member achieves recovery in which the air circulation path is elastically closed after the internal air is exhausted. an implant body ; a holding block connected to the implant body ; a cover storing the implant body and connected to the holding block ; and a sealing member configured to seal a boundary between the holding block and the cover to maintain a vacuum state inside the cover , characterized in that the sealing member includes a recoverable elastic material, through which, the sealing member forms an air circulation path temporarily when a hole for air circulation is passed by a sharp object having a small diameter such as a needle to exhaust the internal air of the cover , wherein the sealing member achieves recovery in which the air circulation path is elastically closed after the internal air is exhausted.
A system for treating a fluid, comprising: - a container arranged to receive an amount of a fluid; - a first UV light source contained within the container, the first UV light source being a non-mercury field emission based UV light source; - a second UV light source contained within the container, the second UV light being a mercury based UV light source; and - an electrical power supply operatively associated with the first UV light source and the second UV light source, the electrical power supply arranged to provide electrical power to the first UV light source and the second UV light source for treating the amount of the fluid received within the container using the first UV light source and the second UV light source, wherein: - the first UV light source is adapted to emit light within the ultraviolet C (UVC) spectrum with a wavelength range having an upper range limit being higher compared to light emitted from the mercury based second UV light source, wherein the wavelength range for the first UV light source is between 240 nm and 320 nm, - the first UV light source comprises a light converting material arranged to receive electrons and to emit UV light, the light converting material selected to be at least one of LaPO 4 :Pr 3+ , LuPO 3 :Pr 3+ , Lu 2 Si 2 O 7 :Pr 3+ , YBO 3 :Pr 3+ or YPO 4 :Bi 3+ , and - the second UV light source comprises a Low-Pressure HG-lamp configured to emit UV light having a predominately narrow peak around 254 nm. - a container arranged to receive an amount of a fluid; - a first UV light source contained within the container, the first UV light source being a non-mercury field emission based UV light source; - a second UV light source contained within the container, the second UV light being a mercury based UV light source; and - an electrical power supply operatively associated with the first UV light source and the second UV light source, the electrical power supply arranged to provide electrical power to the first UV light source and the second UV light source for treating the amount of the fluid received within the container using the first UV light source and the second UV light source, - the first UV light source is adapted to emit light within the ultraviolet C (UVC) spectrum with a wavelength range having an upper range limit being higher compared to light emitted from the mercury based second UV light source, wherein the wavelength range for the first UV light source is between 240 nm and 320 nm, - the first UV light source comprises a light converting material arranged to receive electrons and to emit UV light, the light converting material selected to be at least one of LaPO 4 :Pr 3+ , LuPO 3 :Pr 3+ , Lu 2 Si 2 O 7 :Pr 3+ , YBO 3 :Pr 3+ or YPO 4 :Bi 3+ , and - the second UV light source comprises a Low-Pressure HG-lamp configured to emit UV light having a predominately narrow peak around 254 nm.
An electrical device comprising an electrical apparatus including a gas insulation, in particular a gas-insulated transformer or gas-insulated reactor, comprising a housing enclosing an interior space , at least a portion of which interior space defining an insulation space containing a dielectric insulation fluid comprising an organofluorine compound, and an electrical component being arranged in the insulation space and being surrounded by the insulation fluid, said electrical component comprising at least one winding , characterized by the electrical device further comprising an electrical connector for bringing the electrical apparatus from a non-operational state to an operational state by connecting one or more of the at least one winding to a power grid, wherein the device further comprises an auxiliary power source which is connectable to one or more of the at least one winding when the electrical apparatus is in the non-operational state.
A processing method, wherein the method comprises: receiving , by a first terminal device, first indication information from a network device, wherein the first indication information is first indication information that is sent to at least one terminal device comprising the first terminal device and the first indication information comprises at least one field used to indicate transmission types in at least one time unit on N bandwidth parts, BPs, the N BPs are N BPs in Q BPs configured by the network device for the first terminal device, the Q BPs are located on one frequency domain resource, Q is an integer greater than or equal to 1, N is a positive integer less than or equal to Q, and different transmission types are formed by various combinations of symbols in different transmission directions; and characterised by receiving , by the first terminal device, second indication information from the network device, wherein the second indication information is second indication information that is sent to the first terminal device and the second indication information is used to indicate an index relationship between at least one of the N BPs and the at least one field in the first indication information; and determining , by the first terminal device based on the index relationship and the first indication information, a field corresponding to at least one of the N BPs, and determining the transmission types in the at least one time unit on the at least one BP based on the determined field. receiving , by a first terminal device, first indication information from a network device, wherein the first indication information is first indication information that is sent to at least one terminal device comprising the first terminal device and the first indication information comprises at least one field used to indicate transmission types in at least one time unit on N bandwidth parts, BPs, the N BPs are N BPs in Q BPs configured by the network device for the first terminal device, the Q BPs are located on one frequency domain resource, Q is an integer greater than or equal to 1, N is a positive integer less than or equal to Q, and different transmission types are formed by various combinations of symbols in different transmission directions; and characterised by receiving , by the first terminal device, second indication information from the network device, wherein the second indication information is second indication information that is sent to the first terminal device and the second indication information is used to indicate an index relationship between at least one of the N BPs and the at least one field in the first indication information; and determining , by the first terminal device based on the index relationship and the first indication information, a field corresponding to at least one of the N BPs, and determining the transmission types in the at least one time unit on the at least one BP based on the determined field.
A polymer suitable for a viscosity modifier in lubricating oil compositions, the polymer comprising: 88 to 96 mole percent of alkyl (meth)acrylate monomer units including at least short chain alkyl (meth)acrylate monomer units with an alkyl chain length of 1 to 4 carbons and long chain alkyl (meth)acrylate monomer units with an alkyl chain length of 12 to 20 carbons, wherein an alkyl molar ratio of the long chain alkyl (meth)acrylate monomer units to the short chain alkyl (meth)acrylate monomer units is greater than 2.0 and less than 5.5; and 0.1 to 6 mole percent of 2-hydroxyethyl (meth)acrylate monomer units; wherein the polymer has a weight average molecular weight of at least 100 kg/mole. 88 to 96 mole percent of alkyl (meth)acrylate monomer units including at least short chain alkyl (meth)acrylate monomer units with an alkyl chain length of 1 to 4 carbons and long chain alkyl (meth)acrylate monomer units with an alkyl chain length of 12 to 20 carbons, wherein an alkyl molar ratio of the long chain alkyl (meth)acrylate monomer units to the short chain alkyl (meth)acrylate monomer units is greater than 2.0 and less than 5.5; and 0.1 to 6 mole percent of 2-hydroxyethyl (meth)acrylate monomer units;
A paper making machine comprising a forming section in which a fibrous web (W) can be formed; a drying section in which a formed fibrous web (W) can be dried; and a reel-up on which a dried fibrous web (W) can be wound into a roll , and wherein a machine direction (MD) is defined as the direction from the forming section toward the reel-up and wherein the paper making machine is arranged to carry a fibrous web (W) in the machine direction (MD) along a predetermined path (P), the paper making machine having at least one water jet cutting device arranged to cut the fibrous web (W) that is moving in the machine direction (MD) such that the fibrous web (W) is divided into at least one waste part and a remaining part and wherein the paper making machine is arranged to direct the at least one waste part away from the predetermined path (P) and to convey the remaining part further in the machine direction (MD) along the predetermined path (P), and wherein the paper making machine further comprises a blowing device arranged to blow gas or air in the area of the at least one water jet cutting device , the blowing device being arranged to blow gas or air against the water jet cutting device in a direction toward the remaining part of the fibrous web such that fiber particles that have been released by the cutting action of the water jet cutting device are blown onto the surface of the remaining part of the fibrous web (W) and follow the remaining part of the fibrous web along the predetermined path (P), the blowing device having a nozzle with an exit opening through which the air or gas is ejected in a stream and which nozzle is oriented at an angle (α) to the machine direction (MD) such that the stream of air or gas that is blown out of the exit opening is directed in its entirety at an angle to the machine direction (MD), characterised in that the nozzle of the blowing device is designed to a create a circular cylindrical or cone-shaped stream of air or gas toward the water jet cutting device .
A wireless transceiver apparatus , comprising: a metal carrier and an antenna unit , wherein the antenna unit comprises a feeding structure and a radiation patch ; a groove is disposed on the metal carrier , and the antenna unit is disposed in the groove; and the radiation patch is fed by using the feeding structure , and the radiation patch is grounded, wherein the groove is located on a corner of the metal carrier , wherein: a slot exists between the feeding structure and the radiation patch , and the feeding structure performs coupling feeding on the radiation patch by using the slot, and wherein the antenna unit further comprises: a parasitic structure , wherein the parasitic structure is located on a surface parallel to a bottom surface of the groove, and the parasitic structure is grounded. a metal carrier and an antenna unit , wherein the antenna unit comprises a feeding structure and a radiation patch ; a groove is disposed on the metal carrier , and the antenna unit is disposed in the groove; and the radiation patch is fed by using the feeding structure , and the radiation patch is grounded, wherein the groove is located on a corner of the metal carrier , wherein: a slot exists between the feeding structure and the radiation patch , and the feeding structure performs coupling feeding on the radiation patch by using the slot, and wherein the antenna unit further comprises: a parasitic structure , wherein the parasitic structure is located on a surface parallel to a bottom surface of the groove, and the parasitic structure is grounded. a slot exists between the feeding structure and the radiation patch , and the feeding structure performs coupling feeding on the radiation patch by using the slot, and wherein the antenna unit further comprises: a parasitic structure , wherein the parasitic structure is located on a surface parallel to a bottom surface of the groove, and the parasitic structure is grounded.
A luminaire comprising: a first receiver configured to receive, via a first communication medium, a message from a user device , for triggering onset of a factory reset time-out period of the luminaire ; and a second receiver configured to receive, via a second, different communication medium having a limited physical transmission range, a command from the user device comprising a factory reset code, FRC, the second wireless communication medium selected from a) infrared, b) coded light, c) radio, or d) near-field communication; and a controller configured to: determine if the command comprising the FRC is received within the factory reset time-out period; and implement a factory reset of the luminaire , if the command comprising the FRC is determined to be received from the user device within the factory reset time-out period. a first receiver configured to receive, via a first communication medium, a message from a user device , for triggering onset of a factory reset time-out period of the luminaire ; and a second receiver configured to receive, via a second, different communication medium having a limited physical transmission range, a command from the user device comprising a factory reset code, FRC, the second wireless communication medium selected from a) infrared, b) coded light, c) radio, or d) near-field communication; and a controller configured to: determine if the command comprising the FRC is received within the factory reset time-out period; and implement a factory reset of the luminaire , if the command comprising the FRC is determined to be received from the user device within the factory reset time-out period. determine if the command comprising the FRC is received within the factory reset time-out period; and implement a factory reset of the luminaire , if the command comprising the FRC is determined to be received from the user device within the factory reset time-out period.
A production method for a pneumatic tire , comprising: a first step (S1) of vulcanizing a green tire to mold a vulcanized tire; a second step (S2) of forming a sealant layer containing a viscous sealing agent on an inner side in a tire radial direction of a tread portion of the vulcanized tire; and a third step (S3) of forming a cover layer covering the sealant layer , on an inner peripheral surface of the sealant layer , wherein the third step (S3) includes a step (S31) of generating a mixture by mixing powder containing carbon black, and a step (S32) of applying or spraying the mixture to the inner peripheral surface. a first step (S1) of vulcanizing a green tire to mold a vulcanized tire; a second step (S2) of forming a sealant layer containing a viscous sealing agent on an inner side in a tire radial direction of a tread portion of the vulcanized tire; and a third step (S3) of forming a cover layer covering the sealant layer , on an inner peripheral surface of the sealant layer , wherein the third step (S3) includes a step (S31) of generating a mixture by mixing powder containing carbon black, and a step (S32) of applying or spraying the mixture to the inner peripheral surface.
An air conditioner having a blower, the blower comprising: a fan having a hub and at least one blade extending outward from the hub ; a motor to connect to the hub and rotatably drive the hub ; a shroud configured to surround outer portions of the at least one blade so that the fan rotates along an inner circumferential surface of the shroud ; and at least one actuator installed in the shroud and configured to form an airflow along the inner circumferential surface of the shroud , wherein the at least one actuator includes a first electrode (provided on the inner circumferential surface of the shroud , a second electrode embedded in the shroud , and a dielectric disposed between the first electrode and the second electrode , wherein the first electrode extends obliquely with respect to a direction of a rotation axis of the hub and extends in parallel with an outer peripheral end of the blade . a fan having a hub and at least one blade extending outward from the hub ; a motor to connect to the hub and rotatably drive the hub ; a shroud configured to surround outer portions of the at least one blade so that the fan rotates along an inner circumferential surface of the shroud ; and at least one actuator installed in the shroud and configured to form an airflow along the inner circumferential surface of the shroud , wherein the at least one actuator includes a first electrode (provided on the inner circumferential surface of the shroud , a second electrode embedded in the shroud , and a dielectric disposed between the first electrode and the second electrode , wherein the first electrode extends obliquely with respect to a direction of a rotation axis of the hub and extends in parallel with an outer peripheral end of the blade .
An anatomy simulator , comprising: a guide body having one or more faces; a first simulator socket forming a recess in a first face of the one or more faces, wherein: the first simulator socket is configured to receive a first plate ; and the first simulator socket includes a first base portion ; a bore extending from the base portion of the first simulator socket to an interior of the anatomy simulator, wherein the bore is configured to receive an alignment mechanism; wherein the first base portion is angled at a first angle with respect to the first face; characterised in that the first face includes simulator indicia configured to provide alphanumerical information identifying the first angle. a guide body having one or more faces; a first simulator socket forming a recess in a first face of the one or more faces, wherein: the first simulator socket is configured to receive a first plate ; and the first simulator socket includes a first base portion ; the first simulator socket is configured to receive a first plate ; and the first simulator socket includes a first base portion ; a bore extending from the base portion of the first simulator socket to an interior of the anatomy simulator, wherein the bore is configured to receive an alignment mechanism; wherein the first base portion is angled at a first angle with respect to the first face; characterised in that the first face includes simulator indicia configured to provide alphanumerical information identifying the first angle.