mhurhangee/patent-ind-claim-en huggingface dataset:
A communication method comprising: initiating, by a base station that connects to a communication terminal , a procedure for adding another base station that connects to the communication terminal using an unlicensed spectrum for forming dual connectivity or communication aggregation; and sending, from the base station , a Radio Access Technology, RAT, type on the unlicensed spectrum used for connecting to the communication terminal by said other base station , to a mobility management apparatus . initiating, by a base station that connects to a communication terminal , a procedure for adding another base station that connects to the communication terminal using an unlicensed spectrum for forming dual connectivity or communication aggregation; and sending, from the base station , a Radio Access Technology, RAT, type on the unlicensed spectrum used for connecting to the communication terminal by said other base station , to a mobility management apparatus .
Haircutter for trimming and styling hair, in particular hair on a head, having at least one grip and at least one blade head connected with the grip , wherein at least one longitudinal face of the blade head comprises at least one working section disposed thereat, which is recessed from an alignment line of the longitudinal face , and wherein at least one haircutting blade comprising at least one cutting edge can be accommodated and disposed in the blade head , so that its cutting edge is at least partially exposed in the working section , not protruding beyond the alignment line , wherein the blade head comprises at least one guiding device having at least one placing surface for the hair to be trimmed, and wherein the placing surface is at least partially disposed at an angle between 16° and 26° to the plane of the haircutting blade that can be accommodated in the blade head , so that the hair to be trimmed lies at a defined angle to the cutting edge when the placing surface is placed against the hair, characterized in that the placing surface comprises at least one first placing section at an angle of 15° to 29°, and at least one second placing section lying behind, transverse to the longitudinal blade head axis and showing an angle of 12° to 18°, and that the first placing section is disposed closer to the exposed cutting edge than is the second placing section , and that the first placing section shows a larger angle than does the second placing section . and wherein at least one haircutting blade comprising at least one cutting edge can be accommodated and disposed in the blade head , so that its cutting edge is at least partially exposed in the working section , not protruding beyond the alignment line , wherein the blade head comprises at least one guiding device having at least one placing surface for the hair to be trimmed, and wherein the placing surface is at least partially disposed at an angle between 16° and 26° to the plane of the haircutting blade that can be accommodated in the blade head , so that the hair to be trimmed lies at a defined angle to the cutting edge when the placing surface is placed against the hair, characterized in that the placing surface comprises at least one first placing section at an angle of 15° to 29°, and at least one second placing section lying behind, transverse to the longitudinal blade head axis and showing an angle of 12° to 18°, and that the first placing section is disposed closer to the exposed cutting edge than is the second placing section , and that the first placing section shows a larger angle than does the second placing section .
A light emitting package structure , comprising: a substrate including a first joint area ; a cover element including a second joint area and disposed on the substrate , wherein an accommodation space is formed between the cover element and the substrate ; a light emitting unit disposed on the substrate and accommodated in the accommodation space ; and a sealant being a thermosetting adhesive and provided between the first joint area and the second joint area , and bonded to the first joint area and the second joint area , wherein the sealant has an outer profile , and at least one side of the outer profile forms a recess portion recessed toward the accommodation space and being in an arc-shape, the light emitting package structure being characterised in that a depth (d) of the recess portion is greater than or equal to a quarter of a width of the first joint area or the second joint area . a substrate including a first joint area ; a cover element including a second joint area and disposed on the substrate , wherein an accommodation space is formed between the cover element and the substrate ; a light emitting unit disposed on the substrate and accommodated in the accommodation space ; and a sealant being a thermosetting adhesive and provided between the first joint area and the second joint area , and bonded to the first joint area and the second joint area , wherein the sealant has an outer profile , and at least one side of the outer profile forms a recess portion recessed toward the accommodation space and being in an arc-shape, the light emitting package structure being characterised in that a depth (d) of the recess portion is greater than or equal to a quarter of a width of the first joint area or the second joint area .
A method for assembling an airfoil with a boundary structure , the boundary structure for forming part of a flow path when installed in a gas turbine engine, at least one of the airfoil and the boundary structure being formed from a composite material, the method comprising: inserting the airfoil defining a cutout into an opening defined by the boundary structure , the boundary structure defining a cutout , wherein when the airfoil is inserted into the opening , a locking ring is received within the cutout defined by the boundary structure and the cutout defined by the airfoil ; and pressing the airfoil against the boundary structure such that the locking ring forms a seal between the airfoil and the boundary structure . inserting the airfoil defining a cutout into an opening defined by the boundary structure , the boundary structure defining a cutout , wherein when the airfoil is inserted into the opening , a locking ring is received within the cutout defined by the boundary structure and the cutout defined by the airfoil ; and pressing the airfoil against the boundary structure such that the locking ring forms a seal between the airfoil and the boundary structure .
A display panel (DP), comprising: an emission element (OLED, DP-OLED) which is configured to output a source light and includes a first electrode (AE), an emission layer (EML) disposed on the first electrode (AE), and a second electrode (CE) disposed on the emission layer (EML); a pixel definition layer (PDL), in which a first opening (OP) exposing at least a portion of the first electrode (AE) is defined; a first light-conversion pattern (CCL-GS, CCL-RS) disposed on the pixel definition layer (PDL) and not overlapping with and beside the first opening (OP) in a plan view, wherein an outer side of the first light conversion pattern (CCL-GS, CCL-RS) faces away from the first opening (OP); a first light-blocking pattern (LSP1, LSP10) disposed on the outer side of the first light-conversion pattern (CCL-GS, CCL-RS) in a plan view; and a second light-conversion pattern (CCL-GU, CCL-RU) disposed on the emission element (OLED, DP-OLED) and which overlaps with the emission element (OLED, DP-OLED) in the plan view, wherein the first light-conversion pattern (CCL-GS, CCL-RS) and the second light-conversion pattern (CCL-GU, CCL-RU) are spaced apart from each other or form an interface therebetween. an emission element (OLED, DP-OLED) which is configured to output a source light and includes a first electrode (AE), an emission layer (EML) disposed on the first electrode (AE), and a second electrode (CE) disposed on the emission layer (EML); a pixel definition layer (PDL), in which a first opening (OP) exposing at least a portion of the first electrode (AE) is defined; a first light-conversion pattern (CCL-GS, CCL-RS) disposed on the pixel definition layer (PDL) and not overlapping with and beside the first opening (OP) in a plan view, wherein an outer side of the first light conversion pattern (CCL-GS, CCL-RS) faces away from the first opening (OP); a first light-blocking pattern (LSP1, LSP10) disposed on the outer side of the first light-conversion pattern (CCL-GS, CCL-RS) in a plan view; and a second light-conversion pattern (CCL-GU, CCL-RU) disposed on the emission element (OLED, DP-OLED) and which overlaps with the emission element (OLED, DP-OLED) in the plan view, wherein the first light-conversion pattern (CCL-GS, CCL-RS) and the second light-conversion pattern (CCL-GU, CCL-RU) are spaced apart from each other or form an interface therebetween.
A fire suppression system comprising: a centralized controller ; and a plurality of modules interconnected with the centralized controller , the plurality of modules including at least one module having: a housing ; a printed circuit board disposed within the housing ; a microprocessor mounted to the printed circuit board ; characterized in that the system further comprises a component coupled to the microprocessor , the component having an operative surface ; and a gasket member disposed about the component and having a gasket face to form a seal about the operative surface , wherein the component is at least one thermopile for detecting a fire. a centralized controller ; and a plurality of modules interconnected with the centralized controller , the plurality of modules including at least one module having: a housing ; a printed circuit board disposed within the housing ; a microprocessor mounted to the printed circuit board ; characterized in that the system further comprises a component coupled to the microprocessor , the component having an operative surface ; and a gasket member disposed about the component and having a gasket face to form a seal about the operative surface , wherein the component is at least one thermopile for detecting a fire. a housing ; a printed circuit board disposed within the housing ; a microprocessor mounted to the printed circuit board ; characterized in that the system further comprises a component coupled to the microprocessor , the component having an operative surface ; and a gasket member disposed about the component and having a gasket face to form a seal about the operative surface , wherein the component is at least one thermopile for detecting a fire.
A method for producing planar microparticles with functionalized surface, said method comprising the following stages: a) preparing a structuration layer of a microparticle starting material on top of a substrate that serves as a support; b) shaping the microparticles in the structuration layer by means of a microelectronic lithography technique that shapes the geometry and lateral dimensions, and an etching technique with which the thickness of the microparticles is defined; c) forming a foot in the upper part of the substrate that is found under the structuration layer in order to support each microparticle, by means of etching techniques; d) chemically functionalizing the surface of the microparticles that are supported upon the substrate by the feet, by means of one or more molecular components; and e) breaking the feet that support the microparticles by applying mechanical breaking loads, in order to separate said microparticles from the substrate and individualize them. a) preparing a structuration layer of a microparticle starting material on top of a substrate that serves as a support; b) shaping the microparticles in the structuration layer by means of a microelectronic lithography technique that shapes the geometry and lateral dimensions, and an etching technique with which the thickness of the microparticles is defined; c) forming a foot in the upper part of the substrate that is found under the structuration layer in order to support each microparticle, by means of etching techniques; d) chemically functionalizing the surface of the microparticles that are supported upon the substrate by the feet, by means of one or more molecular components; and e) breaking the feet that support the microparticles by applying mechanical breaking loads, in order to separate said microparticles from the substrate and individualize them.
Method for transmitting sensor data from multiple sensors to a satellite , comprising the following steps: - communicating available registration time slots by the satellite to all sensors within radio range that are eligible for sensor data transmission, - selecting in each case one of the communicated registration time slots by each of the above-mentioned sensors , - transmitting a registration message by means of the respective sensor to the satellite in the selected registration time slot, wherein the registration message contains a system-wide unique identifier of the sensor , - storing the identifier of the sensor and the current position of the satellite at which the satellite is located when the registration message is received, by means of the satellite , - confirming a completed registration to the corresponding sensor by the satellite , - sending in each case a request message to each registered sensor by means of the satellite for requesting sensor data, wherein the request message contains a reception period during which the satellite is ready to receive the sensor data of the corresponding sensor , wherein the specification of the reception period chosen by the satellite is based on the registration time slot chosen by the respective sensor , wherein alternatively the satellite sends a common request message to a plurality of sensors , in which it specifies a separate reception period for each of the plurality of sensors for receiving the sensor data, and - sending the sensor data to the satellite by the respective sensor within the reception period specified for it in the request message. - communicating available registration time slots by the satellite to all sensors within radio range that are eligible for sensor data transmission, - selecting in each case one of the communicated registration time slots by each of the above-mentioned sensors , - transmitting a registration message by means of the respective sensor to the satellite in the selected registration time slot, wherein the registration message contains a system-wide unique identifier of the sensor , - storing the identifier of the sensor and the current position of the satellite at which the satellite is located when the registration message is received, by means of the satellite , - confirming a completed registration to the corresponding sensor by the satellite , - sending in each case a request message to each registered sensor by means of the satellite for requesting sensor data, wherein the request message contains a reception period during which the satellite is ready to receive the sensor data of the corresponding sensor , wherein the specification of the reception period chosen by the satellite is based on the registration time slot chosen by the respective sensor , wherein alternatively the satellite sends a common request message to a plurality of sensors , in which it specifies a separate reception period for each of the plurality of sensors for receiving the sensor data, and - sending the sensor data to the satellite by the respective sensor within the reception period specified for it in the request message.
A method for increasing the bit-depth of a video display system using a pulsed lamp as a light source , comprising: illuminating a spatial light modulator with a light output of the light source ; receiving a signal indicating the light output provided to the spatial light modulator by the light source should be changed from a first level to a second level during a time period, the second level being a reduced level; changing the light output of the light source from about the first level to about the second level during the time period in response to the signal, and displaying a least significant bit on the spatial light modulator during the time period; and characterized by : decreasing a speed of a master clock controlling the spatial light modulator in response to the light output of the light source deviating below the second level during the time period. illuminating a spatial light modulator with a light output of the light source ; receiving a signal indicating the light output provided to the spatial light modulator by the light source should be changed from a first level to a second level during a time period, the second level being a reduced level; changing the light output of the light source from about the first level to about the second level during the time period in response to the signal, and displaying a least significant bit on the spatial light modulator during the time period; and characterized by : decreasing a speed of a master clock controlling the spatial light modulator in response to the light output of the light source deviating below the second level during the time period.
A shield for protecting a display surface, the shield comprising: a rigid base layer having a shape that corresponds to the display surface; a first adhesive layer applied to a lower surface of the shield, the first adhesive configured to removably attach the shield to the display surface; and an outer layer applied to an upper surface of the shield, the outer layer comprising a flexible film material; and a second adhesive layer adhering the outer layer to the base layer; wherein the shield is configured to attach to the display surface with the outer layer facing away from the display surface, wherein the rigid base layer is formed from a material that comprises glass, and wherein the outer layer is configured to extend across and cover the display surface. a rigid base layer having a shape that corresponds to the display surface; a first adhesive layer applied to a lower surface of the shield, the first adhesive configured to removably attach the shield to the display surface; and an outer layer applied to an upper surface of the shield, the outer layer comprising a flexible film material; and a second adhesive layer adhering the outer layer to the base layer; wherein the shield is configured to attach to the display surface with the outer layer facing away from the display surface, wherein the rigid base layer is formed from a material that comprises glass, and wherein the outer layer is configured to extend across and cover the display surface.
A transverse flux reciprocating motor comprising: a stator having at least one magnet coil wound thereon; at least one magnet coupled to an outer circumferential surface or an inner circumferential surface of the stator and having different magnetic poles arranged in an orthogonal direction of flux generated by the magnet coil , which is an axial direction; and a mover formed of a magnetic material and reciprocating with respect to the stator in the axial direction, in which flux generated by the magnet coil and flux generated by the magnet increase, wherein the stator includes a yoke part forming a magnetic path and teeth parts extending from the yoke part in a radial direction to surround the mover , and wherein the yoke part is formed such that the magnet coil is provided at only one side of the teeth parts , and the magnet coil is wound on the yoke part , and wherein the yoke part and the teeth parts are separated, the magnet coil forms a cavity , and the yoke part is inserted into the cavity of the magnet coil and then is connected to the teeth parts . a stator having at least one magnet coil wound thereon; at least one magnet coupled to an outer circumferential surface or an inner circumferential surface of the stator and having different magnetic poles arranged in an orthogonal direction of flux generated by the magnet coil , which is an axial direction; and a mover formed of a magnetic material and reciprocating with respect to the stator in the axial direction, in which flux generated by the magnet coil and flux generated by the magnet increase, wherein the stator includes a yoke part forming a magnetic path and teeth parts extending from the yoke part in a radial direction to surround the mover , and wherein the yoke part is formed such that the magnet coil is provided at only one side of the teeth parts , and the magnet coil is wound on the yoke part , and wherein the yoke part and the teeth parts are separated, the magnet coil forms a cavity , and the yoke part is inserted into the cavity of the magnet coil and then is connected to the teeth parts .
Pantograph-type lifting system comprising: - a base ; - a platform connected to the base by means of a pair of levers, each comprising a first lever and a second lever mutually hinged in a fulcrum placed in an intermediate position with respect to said levers , said first lever having a lower end hinged to the base in a fixed spot, and an upper end sliding connected to the platform , said second lever having a lower end sliding connected to the base , and an upper end hinged to the platform in a fixed spot; - a chain-type actuating system of the levers comprising at least one chain meshed with a first toothed pulley and with a second toothed pulley rotatable connected to the respective levers , said chain-type actuating system being configured to transfer the motion from motor means to the levers through said toothed pulleys in order to approach or move away the ends of the levers with a scissors-like movement to lift or lower the platform , characterized in that the chain meshed with the toothed pulleys comprises a first end connected to a fixed spot and a second end connected to a tensioner connected to the base and comprising elastic means configured to keep the chain tensioned when the rotary motion of the toothed pulleys , and the consequent advancement of the chain , cause an approach or away movement of the ends of the levers with a scissors-like movement, to lift or lower the platform . - a base ; - a platform connected to the base by means of a pair of levers, each comprising a first lever and a second lever mutually hinged in a fulcrum placed in an intermediate position with respect to said levers , said first lever having a lower end hinged to the base in a fixed spot, and an upper end sliding connected to the platform , said second lever having a lower end sliding connected to the base , and an upper end hinged to the platform in a fixed spot; - a chain-type actuating system of the levers comprising at least one chain meshed with a first toothed pulley and with a second toothed pulley rotatable connected to the respective levers , said chain-type actuating system being configured to transfer the motion from motor means to the levers through said toothed pulleys in order to approach or move away the ends of the levers with a scissors-like movement to lift or lower the platform ,