mhurhangee/ep-ind-claims huggingface dataset:
A device for producing sound and vibration for a user to hear and feel via surface contact, which comprises a damper mass plate and an inertial actuator attached thereto, which inertial actuator comprises a damper mass, which is via a primary suspension supported in a springing manner on the inertial actuator to be moving substantially in one linear direction, which inertial actuator comprises a power source for the damper mass, which device comprises a secondary suspension and a mechanical limiter, which secondary suspension is attached to the mechanical limiter, characterized in that the secondary suspension is a non-linear, elastic spring structure, which circles the inertial actuator's outer contours at a distance and is supported on the surface of the inertial actuator's damper mass substantially on the outer contours of the damper mass, that the mechanical limiter is placed to circle the inertial actuator externally at a distance from the inertial actuator's outer surface centrally or eccentrically, that the mechanical limiter comprises several support shafts, which are placed on the outer contours at a distance from each other, and that the device further comprises a mechanically dampened resonator, which is arranged to protect the device's inertial actuator from hits and/or pressure load directed onto it, which mechanical dampened resonator is equipped with a divided reaction mass adapted to improve the vibration characteristics of the device.
Cosmetic gel preparation comprising a) ethanol b) one or more UV filters, c) hydroxypropyl cellulose having a molecular weight of less than 1000 kg/mol, measured by size exclusion chromatography, wherein the preparation is free from 3-(4-methylbenzylidene)camphor and 2-hydroxy-4-methoxybenzophenone (oxybenzone). a) ethanol b) one or more UV filters, c) hydroxypropyl cellulose having a molecular weight of less than 1000 kg/mol, measured by size exclusion chromatography,
A method of operating a wireless communication network to hand-in inbound User Equipment, UE, from a source communication network to a non-Third Generation Partnership Project, non-3GPP, access node, the method comprising: a Network Exposure Function, NEF, receiving inbound UE context from the source communication network when the source communication network identifies that the UE is handing over to the non-3GPP access node; an Access and Mobility Management Function, AMF, detecting when the inbound UE attaches to the non-3GPP access node to hand-in from the source communication network, wherein the UE attaches to the non-3GPP access node and registers with AMF over non-3GPP access node, and in response, transferring a UE context request for the inbound UE to the NEF; the NEF transferring the inbound UE context to the AMF in response to the UE context request; and the AMF receiving the inbound UE context and transferring network signaling to one or more network functions to serve the inbound UE based on the inbound UE context. a Network Exposure Function, NEF, receiving inbound UE context from the source communication network when the source communication network identifies that the UE is handing over to the non-3GPP access node; an Access and Mobility Management Function, AMF, detecting when the inbound UE attaches to the non-3GPP access node to hand-in from the source communication network, wherein the UE attaches to the non-3GPP access node and registers with AMF over non-3GPP access node, and in response, transferring a UE context request for the inbound UE to the NEF; the NEF transferring the inbound UE context to the AMF in response to the UE context request; and the AMF receiving the inbound UE context and transferring network signaling to one or more network functions to serve the inbound UE based on the inbound UE context.
A wearable electronic input device, comprising: circuitry configured to detect an input event from acceleration data received in the wearable electronic input device and a distance estimation from the input device to a first electronic device based on the strength of a received wireless signal and, according to the detected input: send operation content from the wearable electronic input device to the first electronic device via a direct wireless link; designate a first screen of the first electronic device as a screen-to-be-controlled; designate a second electronic device via a movement of the wearable input device in a depth direction of the screen display of the second electronic device; and combine the first screen of the first electronic device onto a second screen of a second electronic device. circuitry configured to detect an input event from acceleration data received in the wearable electronic input device and a distance estimation from the input device to a first electronic device based on the strength of a received wireless signal and, according to the detected input: send operation content from the wearable electronic input device to the first electronic device via a direct wireless link; designate a first screen of the first electronic device as a screen-to-be-controlled; designate a second electronic device via a movement of the wearable input device in a depth direction of the screen display of the second electronic device; and combine the first screen of the first electronic device onto a second screen of a second electronic device. detect an input event from acceleration data received in the wearable electronic input device and a distance estimation from the input device to a first electronic device based on the strength of a received wireless signal and, according to the detected input: send operation content from the wearable electronic input device to the first electronic device via a direct wireless link; designate a first screen of the first electronic device as a screen-to-be-controlled; designate a second electronic device via a movement of the wearable input device in a depth direction of the screen display of the second electronic device; and combine the first screen of the first electronic device onto a second screen of a second electronic device. send operation content from the wearable electronic input device to the first electronic device via a direct wireless link; designate a first screen of the first electronic device as a screen-to-be-controlled; designate a second electronic device via a movement of the wearable input device in a depth direction of the screen display of the second electronic device; and combine the first screen of the first electronic device onto a second screen of a second electronic device.
A door handle assembly for a motor vehicle, including a handle mount that can be installed on the vehicle, a handle rotatably supported on the handle mount for opening a door or hatch of the motor vehicle, and a coupling device rotatably supported on the handle mount, through which an actuation of the handle can be transferred to a locking assembly on the vehicle, wherein a hinged element connects the coupling device and the handle to one another such that they can pivot, wherein the hinged element moveably supports an actuating means which, in the operating position, can be moved in a translatory manner between an installation position and an operating position through rotation thereof and which is supported on the coupling device such that it can move toward it and is engaged with the handle, and which, in the installation position, bears on a blocking surface of the coupling device that blocks a rotation of the actuating means, and is disengaged from the handle, wherein the actuation means is formed as a screw, the head top of which has a toothing which, in the installation position, is operatively connected with the blocking surface, wherein the actuating means arranges the hinged element such that, in the installation position, it is rotationally fixed with respect to the coupling device.
A method for imparting the sensory characteristics of a more matured distilled spirit to a distilled spirit, the steps being comprised of: introducing a distilled spirit having an alcohol content of 40% to 57% to a container; adding wood chips at a ratio of 10 to 120 grams per 750 mL of the raw distilled spirit to the container; sealing the container; and increasing an internal pressure of the container to a maximum of 68.9 to 137.9 kPa (10 psi to 20 psi) such that when a maximum predetermined pressure is achieved within the container, the pressure is then released and the internal pressure is reduced back to a predetermined lower pressure, wherein the increasing step is performed more than once; and filtering the distilled spirit from the wood chips in the container; wherein the total process time of the method is less than 24 hours. introducing a distilled spirit having an alcohol content of 40% to 57% to a container; adding wood chips at a ratio of 10 to 120 grams per 750 mL of the raw distilled spirit to the container; sealing the container; and increasing an internal pressure of the container to a maximum of 68.9 to 137.9 kPa (10 psi to 20 psi) such that when a maximum predetermined pressure is achieved within the container, the pressure is then released and the internal pressure is reduced back to a predetermined lower pressure, wherein the increasing step is performed more than once; and filtering the distilled spirit from the wood chips in the container; wherein the total process time of the method is less than 24 hours.
An intraluminal imaging system, comprising: a patient interface module PIM in communication with an intraluminal device comprising an ultrasound imaging component, a wireless router via a signal link, and a computing device in wireless communication with the wireless router, wherein the PIM comprises: a processing component configured to: receive an ultrasound echo signal from the ultrasound imaging component; and determine image data based on at least the ultrasound echo signal; and a power and communication component configured to: receive power from the signal link; and transmit, to the computing device via the signal link and the wireless router, the image data, and to provide the power received from the signal link to the ultrasound imaging component of the intraluminal device and/or to the processing component. a processing component configured to: receive an ultrasound echo signal from the ultrasound imaging component; and determine image data based on at least the ultrasound echo signal; and receive an ultrasound echo signal from the ultrasound imaging component; and determine image data based on at least the ultrasound echo signal; and a power and communication component configured to: receive power from the signal link; and transmit, to the computing device via the signal link and the wireless router, the image data, and to provide the power received from the signal link to the ultrasound imaging component of the intraluminal device and/or to the processing component. receive power from the signal link; and transmit, to the computing device via the signal link and the wireless router, the image data, and to provide the power received from the signal link to the ultrasound imaging component of the intraluminal device and/or to the processing component.
Device for locating biological objects of at least a given size between 1 μm and 100 μm on a accommodating surface, including: - a fluid cavity, - fluid connection means (6.1, 6.2) configured to make to introduce liquid and biological objects into the fluid cavity, - a plate provided with said accommodating surface having properties of adhesion vis-à-vis biological objects, said plate being suspended in the fluid cavity, - means for making the plate vibrate in at least one stationary mode, said at least one actuator being configured to act on the plate, and - a control unit configured to control the at least one actuator so that the plate vibrates in a stationary mode with a wavelength λ of between 3 times and 20 times the given size of the biological objects. - a fluid cavity, - fluid connection means (6.1, 6.2) configured to make to introduce liquid and biological objects into the fluid cavity, - a plate provided with said accommodating surface having properties of adhesion vis-à-vis biological objects, said plate being suspended in the fluid cavity, - means for making the plate vibrate in at least one stationary mode, said at least one actuator being configured to act on the plate, and - a control unit configured to control the at least one actuator so that the plate vibrates in a stationary mode with a wavelength λ of between 3 times and 20 times the given size of the biological objects.
An electronic balance comprising: a balance main body including a weighing mechanism connected to a weighing pan; a windshield having a door capable of opening and closing by sliding, and configured to form configured to form a weighing chamber by covering the weighing pan; and an actuator configured to open and close the door, wherein the actuator includes a double-acting type air cylinder having two ports (44,46) serving as air intake ports; an air pump to be connected to the two ports (44,46); and two valves respectively interposed between the air pump and the two ports (44,46) and configured to make the ports (44,46) communicate with and shut off from the atmosphere; characterized in that the electronic balance further comprising: a control device configured to control the two valves to make the two ports (44,46) communicate with the atmosphere when the air pump is stopped, wherein the all valves are configured to open and communicate with the atmosphere when the air pump stops, and after the door is automatically opened/closed, air is released to the atmosphere, and the load on the door is eliminated, and it becomes possible to smoothly manually move the door and to be stopped at an arbitrary position. a balance main body including a weighing mechanism connected to a weighing pan; a windshield having a door capable of opening and closing by sliding, and configured to form configured to form a weighing chamber by covering the weighing pan; and an actuator configured to open and close the door, wherein the actuator includes a double-acting type air cylinder having two ports (44,46) serving as air intake ports; an air pump to be connected to the two ports (44,46); and two valves respectively interposed between the air pump and the two ports (44,46) and configured to make the ports (44,46) communicate with and shut off from the atmosphere; characterized in that the electronic balance further comprising: a control device configured to control the two valves to make the two ports (44,46) communicate with the atmosphere when the air pump is stopped, wherein the all valves are configured to open and communicate with the atmosphere when the air pump stops, and after the door is automatically opened/closed, air is released to the atmosphere, and the load on the door is eliminated, and it becomes possible to smoothly manually move the door and to be stopped at an arbitrary position.
Wind turbine tower, - wherein the tower comprises a chamber in its interior, - wherein the chamber comprises an electrical arrangement that emits waste heat, and the chamber separates the electrical arrangement from the rest of the tower, - wherein the wind turbine tower comprises a dehumidifying system, - wherein a first tube connects the interior of the chamber to the exterior of the tower, to allow air from the exterior of the tower to flow into the chamber, - wherein a second tube connects the interior of the chamber to the exterior of the tower, to allow air from inside the chamber to flow to the exterior of the tower, characterized in that - a valve is arranged in the second tube to open a passage between the second tube and the interior of the tower to allow air from the chamber to flow into the tower. - wherein the tower comprises a chamber in its interior, - wherein the chamber comprises an electrical arrangement that emits waste heat, and the chamber separates the electrical arrangement from the rest of the tower, - wherein the wind turbine tower comprises a dehumidifying system, - wherein a first tube connects the interior of the chamber to the exterior of the tower, to allow air from the exterior of the tower to flow into the chamber, - wherein a second tube connects the interior of the chamber to the exterior of the tower, to allow air from inside the chamber to flow to the exterior of the tower, - a valve is arranged in the second tube to open a passage between the second tube and the interior of the tower to allow air from the chamber to flow into the tower.
Method for producing a circuit board assembly, wherein said method comprises the following steps: - providing at least one flexible circuit board comprising conductive regions; - providing a casting tool, preferably an injection molding or die casting tool, which comprises at least one receptacle for the at least one flexible circuit board and at least one casting cavity for forming a heat sink; - inserting the flexible circuit board into the receptacle of the casting tool; and - introducing plastic into the casting tool so that the heat sink is formed directly on at least one side of the inserted flexible circuit board; - wherein at least a portion of the conductive regions for thermally contacting the flexible circuit board are provided continuously from the front side to the rear side of the flexible circuit board comprising the heat sink in order to be in direct contact with the heat sink; - wherein the conductive regions are strip conductors and/or electrical contacts and are configured continuously from the front side to the rear side of the flexible circuit board and the strip conductors and/or the electrical contacts are in direct contact with the formed heat sink. - providing at least one flexible circuit board comprising conductive regions; - providing a casting tool, preferably an injection molding or die casting tool, which comprises at least one receptacle for the at least one flexible circuit board and at least one casting cavity for forming a heat sink; - inserting the flexible circuit board into the receptacle of the casting tool; and - introducing plastic into the casting tool so that the heat sink is formed directly on at least one side of the inserted flexible circuit board; - wherein at least a portion of the conductive regions for thermally contacting the flexible circuit board are provided continuously from the front side to the rear side of the flexible circuit board comprising the heat sink in order to be in direct contact with the heat sink; - wherein the conductive regions are strip conductors and/or electrical contacts and are configured continuously from the front side to the rear side of the flexible circuit board and the strip conductors and/or the electrical contacts are in direct contact with the formed heat sink.
Welding assembly comprising a support part, made of a laser radiation-absorbent material and having at least one first joining surface (1.1), and an attachment part, having a longitudinal axis and at least one collar piece (2.1) consisting of a laser radiation-transparent material having a second joining surface (2.2) with a fixed end (2.2.1) and a free end (2.2.2) and being arranged on a peripheral surface of the attachment part parallel to the longitudinal axis, wherein the at least one first joining surface (1.1) and the at least one second joining surface (2.2) form a joining region, by which the attachment part is welded to the support part, thereby forming a welded joint, and the attachment part includes at least one pressing surface, by means of which a pressing force acting on the joining region is introduced during the production of the welding assembly, wherein the at least one collar piece (2.1) is flexible and a receiving mandrel can be placed on or inserted into the attachment part in the direction of the longitudinal axis in order to receive the attachment part, move it toward the support part, position it on the support part and press it onto said support part by the at least one pressing surface, characterized in that, prior to joining, the second joining surface (2.2) exhibits a surface contour with respect to an imaginary reference point located on the longitudinal axis and within the first joining surface (1.1), which surface contour, with respect to the same reference point, has a deviation from the surface contour of the first joining surface (1.1) that increases or decreases constantly from the fixed end (2.2.1) to the free end (2.2.2).
A sealing device for a rotary fluid machine, comprising: a housing that rotatably accommodates a rotary shaft having a plurality of impellers; a plurality of guide parts (31; 331; 431) that are mounted on an inner surface of the housing, between the plurality of impellers, that extend along at least one of a radial direction and an axial direction of the rotary shaft, and that impart flow velocity components in the rotation direction of the rotary shaft to fluid passing through therebetween; a partition part (32; 332) that connects other ends of the plurality of guide parts (31; 331; 431) opposite to ends thereof mounted on the housing and that serves as a partition between spaces between the plurality of guide parts (31; 331; 431) and an outside space; a first seal part that is an annular protrusion extending in the radial direction, that forms a first gap with respect to the rotary shaft or the housing, and that blocks fluid flowing toward the plurality of guide parts (31; 331; 431); and a second seal part (33; 333; 533) that is an annular protrusion, that forms a second gap with respect to the rotary shaft or the partition part (32, 332), and that blocks fluid flowing through the outside space characterized in that the outside space is between the impeller and the plurality of guide parts (31; 331; 431). a housing that rotatably accommodates a rotary shaft having a plurality of impellers; a plurality of guide parts (31; 331; 431) that are mounted on an inner surface of the housing, between the plurality of impellers, that extend along at least one of a radial direction and an axial direction of the rotary shaft, and that impart flow velocity components in the rotation direction of the rotary shaft to fluid passing through therebetween; a partition part (32; 332) that connects other ends of the plurality of guide parts (31; 331; 431) opposite to ends thereof mounted on the housing and that serves as a partition between spaces between the plurality of guide parts (31; 331; 431) and an outside space; a first seal part that is an annular protrusion extending in the radial direction, that forms a first gap with respect to the rotary shaft or the housing, and that blocks fluid flowing toward the plurality of guide parts (31; 331; 431); and a second seal part (33; 333; 533) that is an annular protrusion, that forms a second gap with respect to the rotary shaft or the partition part (32, 332), and that blocks fluid flowing through the outside space characterized in that the outside space is between the impeller and the plurality of guide parts (31; 331; 431).