mhurhangee/patent-ind-claim-en huggingface dataset:
An air-conditioning apparatus comprising: a compressor , a first heat exchanger , an expansion unit and a second heat exchanger connected, by a pipe , in a refrigerant circuit through which refrigerant flows, the first heat exchanger including a radiator fin , a plurality of tubes extending through the radiator fin and through which the refrigerant flows, and a side plate provided at end portions of the plurality of tubes , and having a plurality of holes formed thereon, through which the plurality of tubes are extended, characterized in that on the side plate , between the holes corresponding to the plurality of tubes to be connected, different markings corresponding to respective types of connection members connecting the plurality of tubes are provided. a compressor , a first heat exchanger , an expansion unit and a second heat exchanger connected, by a pipe , in a refrigerant circuit through which refrigerant flows, the first heat exchanger including a radiator fin , a plurality of tubes extending through the radiator fin and through which the refrigerant flows, and a side plate provided at end portions of the plurality of tubes , and having a plurality of holes formed thereon, through which the plurality of tubes are extended, characterized in that on the side plate , between the holes corresponding to the plurality of tubes to be connected, different markings corresponding to respective types of connection members connecting the plurality of tubes are provided.
A machining aggregate with a body , with a receiving element connected to the body which serves to receive the machining aggregate in a machining plant, with a first tool receptacle which serves to receive a tool which serves to machine a workpiece , with a second tool receptacle which serves to receive a tool which serves to machine a workpiece , with a longitudinal direction of the body of the machining aggregate , with at least two planes which are arranged perpendicular to the longitudinal direction of the body of the machining aggregate , wherein the first tool receptacle is arranged in the first plane and the second tool receptacle is arranged in the second plane and the two planes are spaced apart from one another in the longitudinal direction , wherein the body has a circumferential direction and the first tool receptacle is arranged in the circumferential direction of the body offset at 90° from the second tool receptacle and wherein the machining aggregate has a drive and the drive is arranged in the body or on the body of the machining aggregate , wherein the drive provides the energy required for the machining of the workpiece with the tool received in a tool receptacle and the drive is associated with a plurality of tool receptacles and drives a plurality of tools.
A gas mass flow sensor comprising: an ambient temperature sensor partially surrounded by a first housing , a flow sensing device including a temperature-sensitive resistive element surrounded by a thermally conductive shell , wherein the flow sensing device is partially surrounded by a second housing , wherein the second housing partially surrounding the thermally conductive shell comprises flow guidance elements coupled to the second housing and positioned to provide a flow path focused on a leading surface of the thermally conductive shell , wherein the leading surface is oriented substantially orthogonal to a direction of a gas flow, and a thermal insulator positioned on a non-leading surface of the shell so that heat transfer from the thermally conductive shell is focused through the leading surface of the thermally conductive shell . an ambient temperature sensor partially surrounded by a first housing , a flow sensing device including a temperature-sensitive resistive element surrounded by a thermally conductive shell , wherein the flow sensing device is partially surrounded by a second housing , wherein the second housing partially surrounding the thermally conductive shell comprises flow guidance elements coupled to the second housing and positioned to provide a flow path focused on a leading surface of the thermally conductive shell , wherein the leading surface is oriented substantially orthogonal to a direction of a gas flow, and a thermal insulator positioned on a non-leading surface of the shell so that heat transfer from the thermally conductive shell is focused through the leading surface of the thermally conductive shell .
A combustor assembly, comprising a burner and a combustor accommodating the burner , the combustor defining an opening facing upwards, wherein the combustor further comprises a front support and a rear support , and the front support and the rear support cooperatively clamp the front side and the rear side of the burner ; the front support comprises a first base plate extending up and down, and a first limit plate connecting to an upper end of the first base plate and extending backwards, and the rear support comprises a second base plate extending up and down and a second limit plate connecting to an upper end of the second base plate and extending forwards, wherein the front support further comprises a support plate for supporting the burner , the lower end of the first base plate connects to the support plate , the bottom surface of the support plate defines a leg located at a bottom wall of the combustor , and the support plate defines a first air inlet hole ; and the first limit plate defines a first cooling hole , and/or, the second limit plate defines a second cooling hole ; wherein the rear support further comprises a third limit plate abutting the rear side of the burner , the lower end of the second base plate connects to the third limit plate , the third limit plate is defined above the support plate , and the third limit plate defines a third cooling hole located at the adjoiner of the third limit plate and the second base plate .
Thermal energy storage apparatus comprising at least one hollow tube comprising an inner cavity and two ends, wherein each end provides a through opening , at least one basic module placed inside said inner cavity of said at least one hollow tube , wherein said at least one basic module comprises at least one slab and at least one pair of spacer bars , characterized in that at least one through channel adapted for the passage of a heat transfer fluid from one end to the other of said two ends of said at least one hollow tube , wherein said pair of spacer bars are arranged parallel to each other and are arranged parallel with respect to a longitudinal axis (L) passing along a longitudinal direction of said at least one hollow tube . at least one hollow tube comprising an inner cavity and two ends, wherein each end provides a through opening , at least one basic module placed inside said inner cavity of said at least one hollow tube , wherein said at least one basic module comprises at least one slab and at least one pair of spacer bars , characterized in that at least one through channel adapted for the passage of a heat transfer fluid from one end to the other of said two ends of said at least one hollow tube , wherein said pair of spacer bars are arranged parallel to each other and are arranged parallel with respect to a longitudinal axis (L) passing along a longitudinal direction of said at least one hollow tube .
A computer-implemented method, comprising: generating , by a machine learning model, a simulated attack message, the simulated attack message including a plurality of potentially malicious elements in different spatial regions, the simulated attack message being configured for annotation by users as part of cybersecurity training; sending , via a communication interface , the simulated attack message to an enterprise user device ; causing the enterprise user device to prompt a user to identify one or more potentially malicious elements in the simulated attack message with one or more annotation tools; receiving , from the enterprise user device , user selections annotating selected elements of the plurality of potentially malicious elements of the simulated attack message that the user indicates as being potentially malicious; identifying one or more training areas for a user based on the user selections received from the enterprise user device ; generating a customized training module specific to the identified one or more training areas; sending the customized training module to the enterprise user device , wherein sending the customized training module to the enterprise user device causes the enterprise user device to display the customized training module; computing a frequency with which each element of the plurality of elements is correctly selected by users; and updating the machine learning model used in generating the simulated attack message based on the computed frequency with which each element of the plurality of elements is correctly selected by users. generating , by a machine learning model, a simulated attack message, the simulated attack message including a plurality of potentially malicious elements in different spatial regions, the simulated attack message being configured for annotation by users as part of cybersecurity training; sending , via a communication interface , the simulated attack message to an enterprise user device ; causing the enterprise user device to prompt a user to identify one or more potentially malicious elements in the simulated attack message with one or more annotation tools; receiving , from the enterprise user device , user selections annotating selected elements of the plurality of potentially malicious elements of the simulated attack message that the user indicates as being potentially malicious; identifying one or more training areas for a user based on the user selections received from the enterprise user device ; generating a customized training module specific to the identified one or more training areas; sending the customized training module to the enterprise user device , wherein sending the customized training module to the enterprise user device causes the enterprise user device to display the customized training module; computing a frequency with which each element of the plurality of elements is correctly selected by users; and updating the machine learning model used in generating the simulated attack message based on the computed frequency with which each element of the plurality of elements is correctly selected by users.
Tamper-evident coupling system comprising: - at least one first base portion of sheet material, - at least one second base portion of sheet material, - at least a first coupling portion carried by the first base portion , - at least one second coupling portion carried by the second base portion and configured for cooperating with said first coupling portion , said second coupling portion facing, optionally at least partially contacting, the second base portion , the first and the second coupling portions being configured for defining at least one arming condition in which said first and second coupling portions are stably engaged with each other, wherein at least one between the first and the second coupling portions comprises at least one weakening element configured for defining, on at least one of said first and second coupling portions , at least one removable portion , said removable portion being configured for separating from the coupling system upon a first disengagement condition of said first and second coupling portions following said arming condition for preventing a subsequent coupling of said first and second coupling portions , characterized by the fact that the coupling system comprises at least one through opening defined on the second base portion configured for enabling to display - through the through opening itself and at least during the arming condition of the coupling system - at least part of the weakening element . - at least one first base portion of sheet material, - at least one second base portion of sheet material, - at least a first coupling portion carried by the first base portion , - at least one second coupling portion carried by the second base portion and configured for cooperating with said first coupling portion , said second coupling portion facing, optionally at least partially contacting, the second base portion , the first and the second coupling portions being configured for defining at least one arming condition in which said first and second coupling portions are stably engaged with each other, wherein at least one between the first and the second coupling portions comprises at least one weakening element configured for defining, on at least one of said first and second coupling portions , at least one removable portion , said removable portion being configured for separating from the coupling system upon a first disengagement condition of said first and second coupling portions following said arming condition for preventing a subsequent coupling of said first and second coupling portions , characterized by the fact that the coupling system comprises at least one through opening defined on the second base portion configured for enabling to display - through the through opening itself and at least during the arming condition of the coupling system - at least part of the weakening element .
A first user equipment for wireless communication, comprising: at least one memory ; and at least one processor coupled with the at least one memory and configured to cause the first user equipment to: determine whether system information used by the first user equipment is scheduled to be transmitted; characterized by the processor being further configured to cause the first user equipment to: in response to the system information not being scheduled to be transmitted, determine whether the system information is requested by a second user equipment, by checking a common radio network temporary identifier for an indication that the system information is requested by the second user equipment; and in response to the system information being requested by the second user equipment, receive the system information in response to the system information being transmitted to the second user equipment. at least one memory ; and at least one processor coupled with the at least one memory and configured to cause the first user equipment to: determine whether system information used by the first user equipment is scheduled to be transmitted; characterized by the processor being further configured to cause the first user equipment to: in response to the system information not being scheduled to be transmitted, determine whether the system information is requested by a second user equipment, by checking a common radio network temporary identifier for an indication that the system information is requested by the second user equipment; and in response to the system information being requested by the second user equipment, receive the system information in response to the system information being transmitted to the second user equipment. in response to the system information not being scheduled to be transmitted, determine whether the system information is requested by a second user equipment, by checking a common radio network temporary identifier for an indication that the system information is requested by the second user equipment; and in response to the system information being requested by the second user equipment, receive the system information in response to the system information being transmitted to the second user equipment.
A method of energy efficient wireless communication among a plurality of communications devices, comprising: obtaining a signal pattern that defines resources for use by each of the plurality of communication devices in transmitting or receiving a first set of reference signals with a first density and a first periodicity and a second set of reference signals with a second density and a second periodicity, wherein the first density is less than the second density and the first periodicity provides a shorter maximum duration without signal present than the second periodicity and wherein the second set of reference signals comprises a signal burst ; and transmitting or receiving reference signals among the plurality of communications devices based on the signal pattern.
A device for jointly delivering plastic particles and a liquid to a cleaning device to remove impurities from the plastic particles, characterized by a delivery funnel whose inlet is connected to a supply for the plastic particles, and whose outlet is connected via a supply line to an inlet of the cleaning device , wherein at least one delivery nozzle connected to a liquid supply is arranged on the delivery funnel and through which at least one liquid jet is discharged into the delivery funnel , wherein the at least one delivery nozzle is arranged such that a mixture occurs in the delivery funnel of the plastic particles supplied to the delivery funnel with the liquid.
A system for producing a three-dimensional object from a fluid medium configured to solidify when subjected to prescribed light stimulation, the system comprising a plurality of image processing units , each of the plurality of image processing units comprising: at least one light emitting source configured to emit light; at least one mirror system for reflecting light emitted by the at least one light emitting source, wherein the at least one mirror system comprises a manipulating system for adjusting a direction of the emitted light and a control system for controlling the manipulating system; and at least one optical element configured to manipulate the emitted light and to project the emitted light onto an area of a surface of the fluid medium to form an image on the surface, wherein the plurality of image processing units are configured to form a corresponding plurality of images on the surface, wherein the plurality of image processing units are arranged in a grid pattern on a scanning table , wherein the scanning table is configured to be movable at least in a lateral direction relative to the surface, and wherein each of the plurality of images overlaps with at least one other of the plurality of images. at least one light emitting source configured to emit light; at least one mirror system for reflecting light emitted by the at least one light emitting source, wherein the at least one mirror system comprises a manipulating system for adjusting a direction of the emitted light and a control system for controlling the manipulating system; and at least one optical element configured to manipulate the emitted light and to project the emitted light onto an area of a surface of the fluid medium to form an image on the surface, wherein the plurality of image processing units are configured to form a corresponding plurality of images on the surface, wherein the plurality of image processing units are arranged in a grid pattern on a scanning table , wherein the scanning table is configured to be movable at least in a lateral direction relative to the surface, and wherein each of the plurality of images overlaps with at least one other of the plurality of images.
Miniaturised deburring and/or chamfering tool with a cylindrical guide sleeve in which a blade holder base body is arranged to be replaceable and has at least one receiving slot for receiving and guiding at least one lamellar blade arranged there and designed to be flexible along its longitudinal axis, which on its free front end has a cutting head with a deburring or chamfering blade arranged there, wherein in the guide sleeve is arranged a coolant channel which guides a coolant in the direction of the blade holder base body , wherein the blade holder base body is arranged in the coolant channel and a coolant flows around and/or through it at least partly in longitudinal direction, characterised in that the coolant flows around the blade in the receiving slot on at least two opposite sides, wherein on the front end of the guide sleeve is arranged a coolant sleeve for guiding a coolant which has an end-face side passage opening for discharge of the coolant.
An aircraft pressurized air system, comprising: a compressor that receives and compresses outside air; an air cycle machine that receives compressed air from the compressor and directs conditioned air to an aircraft pressurized zone; and a contaminant sensor configured to be disposed along an air flow path between the compressor and the aircraft pressurized zone, characterized by the contaminant sensor comprising an optical guide , a metal organic framework on an exterior surface of the optical guide in operative fluid communication with air from the air flow path, a light source in communication with the optical guide at a first end of the optical guide, and a light detector in communication with the optical guide at a second end of the optical guide; and wherein the optical guide comprises a fiber optic element including a core comprising an optical material with a first refractive index, said metal organic framework on a first exterior surface portion of the core, and a cladding optically coupled to a second exterior surface portion of the core, said cladding comprising an optical material with a second refractive index lower than the first refractive index and configured to reflect light from the core at an interface between the core and the cladding. a compressor that receives and compresses outside air; an air cycle machine that receives compressed air from the compressor and directs conditioned air to an aircraft pressurized zone; and a contaminant sensor configured to be disposed along an air flow path between the compressor and the aircraft pressurized zone, characterized by the contaminant sensor comprising an optical guide , a metal organic framework on an exterior surface of the optical guide in operative fluid communication with air from the air flow path, a light source in communication with the optical guide at a first end of the optical guide, and a light detector in communication with the optical guide at a second end of the optical guide; and wherein the optical guide comprises a fiber optic element including a core comprising an optical material with a first refractive index, said metal organic framework on a first exterior surface portion of the core, and a cladding optically coupled to a second exterior surface portion of the core, said cladding comprising an optical material with a second refractive index lower than the first refractive index and configured to reflect light from the core at an interface between the core and the cladding.