mhurhangee/patent-ind-claim-en huggingface dataset:
A fan lamp, comprising a base , a first light source module and a fan ; wherein the base comprises a first side and a second side which are away from each other, a fan groove is formed at the first side, and a first light source setting area is arranged at the second side, an air outlet duct is further arranged on the base and communicated with the fan groove and the second side, and an opening , at the second side, of the air outlet duct surrounds the first light source setting area ; and the light source module is arranged in the first light source setting area , and the fan is arranged in the fan groove , wherein the base further includes a power supply cavity , the power supply cavity protrudes out of the first side, the fan groove is arranged around the power supply cavity , and the power supply cavity exceeds a groove of the fan groove , and wherein a plurality of fans are provided, and the fan groove is divided into a plurality of independent fan sub-grooves , each of the plurality of fan sub-grooves is provided with one of the plurality of fans , and the air outlet duct extends to each of the plurality of fan sub-grooves . wherein the base comprises a first side and a second side which are away from each other, a fan groove is formed at the first side, and a first light source setting area is arranged at the second side, an air outlet duct is further arranged on the base and communicated with the fan groove and the second side, and an opening , at the second side, of the air outlet duct surrounds the first light source setting area ; and the light source module is arranged in the first light source setting area , and the fan is arranged in the fan groove , wherein the base further includes a power supply cavity , the power supply cavity protrudes out of the first side, the fan groove is arranged around the power supply cavity , and the power supply cavity exceeds a groove of the fan groove , and wherein a plurality of fans are provided, and the fan groove is divided into a plurality of independent fan sub-grooves , each of the plurality of fan sub-grooves is provided with one of the plurality of fans , and the air outlet duct extends to each of the plurality of fan sub-grooves .
A method for intrusion detection, the method comprising: receiving, by a processor, internet of things (IoT) device data from each of a plurality of IoT devices, wherein the IoT device data comprises operational data and non-operational data associated with each of the plurality of IoT devices; building a security model for the plurality of IoT devices based at least in part on the IoT device data, wherein the security model comprises one or more IoT device data ranges; monitoring the plurality of IoT devices to identify a potential intrusion in any of the plurality of IoT devices based at least in part on the IoT device data exceeding any of the one or more IoT device data ranges; identifying a first device in the plurality of IoT devices where the potential intrusion occurred; analyzing one or more characteristics of the potential intrusion to determine that the potential intrusion is an intrusion event; analyzing the intrusion event to determine whether the intrusion event is a known event or an unknown event; employing, in the first device, a first security measure based on a determination that the intrusion event is a known intrusion event; and employing, in the first device, a second security measure based on a determination that the intrusion event is an unknown intrusion event. receiving, by a processor, internet of things (IoT) device data from each of a plurality of IoT devices, wherein the IoT device data comprises operational data and non-operational data associated with each of the plurality of IoT devices; building a security model for the plurality of IoT devices based at least in part on the IoT device data, wherein the security model comprises one or more IoT device data ranges; monitoring the plurality of IoT devices to identify a potential intrusion in any of the plurality of IoT devices based at least in part on the IoT device data exceeding any of the one or more IoT device data ranges; identifying a first device in the plurality of IoT devices where the potential intrusion occurred; analyzing one or more characteristics of the potential intrusion to determine that the potential intrusion is an intrusion event; analyzing the intrusion event to determine whether the intrusion event is a known event or an unknown event; employing, in the first device, a first security measure based on a determination that the intrusion event is a known intrusion event; and employing, in the first device, a second security measure based on a determination that the intrusion event is an unknown intrusion event.
A pump-valve integrated mechanism comprises an air pump driven by a power source, wherein the air pump is connected to a valve base , a main air channel is provided inside the valve base , the main air channel of the valve base is connected to the air pump , and the main air channel is provided with a decompression structure ; the main air channel is connected to an air inflation structure, the air inflation structure comprises a branch air channel and an air nozzle , an inner end of the branch air channel is connected to the main air channel , an outer end of the branch air channel is connected to the air nozzle , a check valve is provided inside the branch air channel , a section of the branch air channel between the check valve and the air nozzle is provided with an air deflation hole ; and an electromagnetic valve is provided between the air nozzle , the air deflation hole , and the check valve ; during air inflation, the electromagnetic valve controls the check valve to become connected to the air nozzle , and the air deflation hole is closed; during air deflation, the electromagnetic valve controls the air nozzle to become connected to the air deflation hole , and the check valve is closed; characterized in that the valve base is provided on a side of the air pump , the main air channel of the valve base is connected to the air pump through a U-shaped air pipe , and at least two air inflation structures are provided. wherein the air pump is connected to a valve base , a main air channel is provided inside the valve base , the main air channel of the valve base is connected to the air pump , and the main air channel is provided with a decompression structure ; the main air channel is connected to an air inflation structure, the air inflation structure comprises a branch air channel and an air nozzle , an inner end of the branch air channel is connected to the main air channel , an outer end of the branch air channel is connected to the air nozzle , a check valve is provided inside the branch air channel , a section of the branch air channel between the check valve and the air nozzle is provided with an air deflation hole ; and an electromagnetic valve is provided between the air nozzle , the air deflation hole , and the check valve ; during air inflation, the electromagnetic valve controls the check valve to become connected to the air nozzle , and the air deflation hole is closed; during air deflation, the electromagnetic valve controls the air nozzle to become connected to the air deflation hole , and the check valve is closed; characterized in that the valve base is provided on a side of the air pump , the main air channel of the valve base is connected to the air pump through a U-shaped air pipe , and at least two air inflation structures are provided.
A thermal management system for an aircraft, the thermal management system comprising a first gas turbine engine , one or more first electric machines rotatably coupled to the first gas turbine engine , a first thermal bus , a first heat exchanger , and one or more first ancillary systems ; wherein the first thermal bus comprises a first heat transfer fluid , the first heat transfer fluid being in fluid communication, in a closed loop flow sequence, between the first gas turbine engine , the or each first electric machine , and the first heat exchanger , such that waste heat energy generated by at least one of the first gas turbine engine , and the or each first electric machine , is transferred to the first heat transfer fluid , and wherein the first heat exchanger is configured to direct a first proportion of the flow of the first heat transfer fluid through a first heat dissipation portion in which a first proportion Q A of the waste heat energy from the first heat transfer fluid is transferred to a first dissipation medium in dependence on a temperature of the first dissipation medium and a mass flow rate of the first dissipation medium, and a second proportion of the flow of the first heat transfer fluid through a second heat dissipation portion in which a second proportion Q B of the waste heat energy from the first heat transfer fluid is transferred to a second dissipation medium in dependence on a temperature of the second dissipation medium and a mass flow rate of the second dissipation medium. wherein the first thermal bus comprises a first heat transfer fluid , the first heat transfer fluid being in fluid communication, in a closed loop flow sequence, between the first gas turbine engine , the or each first electric machine , and the first heat exchanger , such that waste heat energy generated by at least one of the first gas turbine engine , and the or each first electric machine , is transferred to the first heat transfer fluid , and wherein the first heat exchanger is configured to direct a first proportion of the flow of the first heat transfer fluid through a first heat dissipation portion in which a first proportion Q A of the waste heat energy from the first heat transfer fluid is transferred to a first dissipation medium in dependence on a temperature of the first dissipation medium and a mass flow rate of the first dissipation medium, and a second proportion of the flow of the first heat transfer fluid through a second heat dissipation portion in which a second proportion Q B of the waste heat energy from the first heat transfer fluid is transferred to a second dissipation medium in dependence on a temperature of the second dissipation medium and a mass flow rate of the second dissipation medium.
A method of detecting a leak in a hydraulic cylinder of a rotor blade pitch system (2, SA, SB, SC) of a wind turbine (WT1, WT2, ..., WTn) comprising a plurality of rotor blades, which method comprises the steps of - selecting one of the pitch systems (SA, SB, SC) to undergo a functionality test; - actuating a fluid pump (P ABC ) to move the pistons of the hydraulic cylinders of the pitch systems (SA, SB, SC) to their outermost positions; - monitoring the hydraulic cylinder pressure levels (A data , B data , C data ) of the non-selected pitch systems (SB, SC) while performing the functionality test on the selected pitch system (SA); and - analysing the monitored hydraulic cylinder pressure levels (A data , B data , C data ) of the pitch systems (SA, SB, SC) to detect a drop in pressure in a pitch cylinder of a non-selected pitch system (SB). - selecting one of the pitch systems (SA, SB, SC) to undergo a functionality test; - actuating a fluid pump (P ABC ) to move the pistons of the hydraulic cylinders of the pitch systems (SA, SB, SC) to their outermost positions; - monitoring the hydraulic cylinder pressure levels (A data , B data , C data ) of the non-selected pitch systems (SB, SC) while performing the functionality test on the selected pitch system (SA); and - analysing the monitored hydraulic cylinder pressure levels (A data , B data , C data ) of the pitch systems (SA, SB, SC) to detect a drop in pressure in a pitch cylinder of a non-selected pitch system (SB).
A backlight module, comprising: a backplane having a light reflecting surface ; a light source layer disposed on the light reflecting surface , wherein the light source layer has at least one point light source ; a light mixing component disposed on the light source layer in a one-to-one correspondence with the at least one point light source ; and a light guide layer disposed on the at least one light mixing component, wherein each light mixing component comprises a light reflecting layer configured to reflect some light rays emitted by a corresponding point light source , and a light transmission layer configured to transmit a light ray reflected by the light reflecting layer and then reflected again by the light reflecting surface , wherein a light diffusion structure is disposed on at least one of a light input surface and a light output surface of the light transmission layer , wherein the light diffusion structure is a concave-convex structure disposed on the light input surface or the light output surface, and wherein the light transmission layer is a plurality of gluing layers disposed between the light guide layer and the light source layer , and the plurality of gluing layers are arranged at intervals in a direction parallel to the plane of the backlight module to form an air layer between adjacent gluing layers; and the light reflecting layer is the air layer. a backplane having a light reflecting surface ; a light source layer disposed on the light reflecting surface , wherein the light source layer has at least one point light source ; a light mixing component disposed on the light source layer in a one-to-one correspondence with the at least one point light source ; and a light guide layer disposed on the at least one light mixing component, wherein each light mixing component comprises a light reflecting layer configured to reflect some light rays emitted by a corresponding point light source , and a light transmission layer configured to transmit a light ray reflected by the light reflecting layer and then reflected again by the light reflecting surface , wherein a light diffusion structure is disposed on at least one of a light input surface and a light output surface of the light transmission layer , wherein the light diffusion structure is a concave-convex structure disposed on the light input surface or the light output surface, and wherein the light transmission layer is a plurality of gluing layers disposed between the light guide layer and the light source layer , and the plurality of gluing layers are arranged at intervals in a direction parallel to the plane of the backlight module to form an air layer between adjacent gluing layers; and the light reflecting layer is the air layer.
An aqueous coating composition comprising a dispersed acrylate binder polymer, an alkali-soluble acrylic polymer with a weight averaged molecular weight, as determined according to ISO 16014, of at most 200,000 g/mole and an acid value, determined by ISO 2114, in the range of from 20 to 150 mg KOH/g polymer, and a dispersed oxidatively drying resin, wherein the weight content of the oxidatively drying resin is lower than the weight content of the alkali-soluble acrylic polymer and wherein the weight content of the acrylate binder polymer is higher than the weight content of the alkali-soluble acrylic polymer, wherein the solid content of the coating composition is in the range of from 28 to 55 wt %, and the content of inorganic solid particles is in the range of from 8 to 40 wt %, based on the total weight of the coating composition.
A sensor mount structure comprising: a base member that is attached to a vehicle upper side of an inner surface of a front windshield glass ; a sensor device including a device body to which a first sensor and a second sensor that detect surroundings information for a vehicle are attached, and a common electronic board to which both the first sensor and the second sensor are electrically connected; and a support member that together with the device body is fastened to the base member and supports an interior mirror , wherein: the first sensor and the second sensor are attached to the device body in a state in which the first sensor and the second sensor are side-by-side in a vehicle width direction; the second sensor is disposed at a lower position than the first sensor ; the electronic board is disposed in a forward-tilting orientation at a vehicle lower side of the first sensor and the second sensor ; characterized in that a rear face of the first sensor and a rear face of the second sensor are disposed at the same position as each other in a vehicle front-rear direction. a base member that is attached to a vehicle upper side of an inner surface of a front windshield glass ; a sensor device including a device body to which a first sensor and a second sensor that detect surroundings information for a vehicle are attached, and a common electronic board to which both the first sensor and the second sensor are electrically connected; and a support member that together with the device body is fastened to the base member and supports an interior mirror , wherein: the first sensor and the second sensor are attached to the device body in a state in which the first sensor and the second sensor are side-by-side in a vehicle width direction; the second sensor is disposed at a lower position than the first sensor ; the electronic board is disposed in a forward-tilting orientation at a vehicle lower side of the first sensor and the second sensor ; characterized in that a rear face of the first sensor and a rear face of the second sensor are disposed at the same position as each other in a vehicle front-rear direction. the first sensor and the second sensor are attached to the device body in a state in which the first sensor and the second sensor are side-by-side in a vehicle width direction; the second sensor is disposed at a lower position than the first sensor ; the electronic board is disposed in a forward-tilting orientation at a vehicle lower side of the first sensor and the second sensor ; characterized in that a rear face of the first sensor and a rear face of the second sensor are disposed at the same position as each other in a vehicle front-rear direction.
An electronic device comprising: a housing including a front surface , a back surface opposite to the front surface , and a side surface surrounding a space between the front surface and the back surface and made of a metallic material; at least one antenna array disposed within the housing and configured to direct a millimeter wave signal toward an inside of the electronic device ; a wireless communication circuit electrically connected to the at least one antenna array and configured to communicate by using the millimeter wave signal; and a reflecting member arranged such that the millimeter wave signal radiated from the at least one antenna array and directed toward the inside of the electronic device is reflected toward an outside of the electronic device along a direction that avoids the side surface of the housing . a housing including a front surface , a back surface opposite to the front surface , and a side surface surrounding a space between the front surface and the back surface and made of a metallic material; at least one antenna array disposed within the housing and configured to direct a millimeter wave signal toward an inside of the electronic device ; a wireless communication circuit electrically connected to the at least one antenna array and configured to communicate by using the millimeter wave signal; and a reflecting member arranged such that the millimeter wave signal radiated from the at least one antenna array and directed toward the inside of the electronic device is reflected toward an outside of the electronic device along a direction that avoids the side surface of the housing .
A method for handling multiple resource conflicts, comprising: in response to that a media access control, MAC, entity is configured with a target priority comparison manner, the target priority comparison manner comprising a comparison of priority based on a logical channel or based on a physical channel, for each uplink grant: performing a comparison between a priority of the uplink grant and a priority of a compared resource , wherein the compared resource is a resource that overlaps or partially overlaps or has a transmission conflict with the uplink grant, and that is not or is not yet a de-prioritized uplink resource. in response to that a media access control, MAC, entity is configured with a target priority comparison manner, the target priority comparison manner comprising a comparison of priority based on a logical channel or based on a physical channel, for each uplink grant: performing a comparison between a priority of the uplink grant and a priority of a compared resource , wherein the compared resource is a resource that overlaps or partially overlaps or has a transmission conflict with the uplink grant, and that is not or is not yet a de-prioritized uplink resource.
A labeling machine comprising a conveyor for moving the containers to be labeled along an advancement path and at least one labeling assembly arranged along said advancement path and provided with labeling means adapted to apply at least one respective label to the containers that transit on said conveyor , said labeling means comprising at least one adhesive application assembly designed to supply adhesive to the labels before their transfer to the containers , wherein it comprises at least one extraction hood which is mounted on said labeling assembly and characterized in that the at least one extraction hood can move on command, with respect to said labeling assembly , between an active position, in which it is arranged above said adhesive application assembly , and an inactive position, in which it is arranged at least partially outside of the work area of said labeling means .