mhurhangee/ep-ind-claims huggingface dataset:
Lock assembly (101, 1, 201, 301) for locking a door with respect to a door frame, wherein the lock assembly (101, 1, 201, 301) comprises a housing (202, 2) and a front plate with a latch opening (30, 31) at the side of the housing (202, 2) that is arranged to face the door frame when the door is locked, wherein the lock assembly (101, 1, 201, 301) comprises a latch (104, 204, 304, 4) that is movable between an extended position in which the latch (104, 204, 304, 4) extends at least partially outside the housing (202, 2) through the latch opening (30, 31) in an extension direction and a retracted position in which the latch (104, 204, 304, 4) is retracted within the housing (202, 2) in a retraction direction opposite to the extension direction, wherein the lock assembly (101, 1, 201, 301) is provided with a biasing element (105, 205, 305, 5) that is operationally coupled to the latch (104, 204, 304, 4) for biasing the latch (104, 204, 304, 4) with a biasing force (B, B1) in the extension direction from the retracted position towards the extended position and a retaining element (206, 306, 5) that is arranged to retain the latch (104, 204, 304, 4) in the retracted position with a retaining force, wherein the lock assembly (101, 1, 201, 301) further comprises an actuator element with a first magnet (207, 307, 7), wherein the first magnet (207, 307, 7) has a first magnetic field that extends out of the housing (202, 2) at the side of the front plate, wherein the first magnet (207, 307, 7) is movable from a first position to a second position when the first magnet (207, 307, 7) is attracted to a magnetic material in the door frame opposite to the front plate within the first magnetic field, wherein the actuator element is operationally coupled to the latch (104, 204, 304, 4) to convert the movement of the first magnet (207, 307, 7) from the first position to the second position into a displacement of the latch (104, 204, 304, 4) in the extension direction from the retracted position into a release position between the retracted position and the extended position in which the biasing force (B, B1) exceeds the retaining force.
A graphene core particle comprising at least two pristine graphene nanosheets having a pristine graphene nanosheet surface stacked over one another to form a pristine graphene aggregate, and a coating layer covering at least 50 % of a pristine graphene nanosheet surface, said coating layer comprising an organic and/or inorganic compound, wherein the organic and/or inorganic compound has a solubility in water of at least 10 grams per liter H 2 O at 25 degrees C and is able to be covalently linked to, or in water electrostatically stably attached to, pristine graphene, wherein the organic and/or inorganic compound is attached to a pristine graphene nanosheet to form said coating layer, wherein the pristine graphene of the at least two pristine graphene nanosheets has a carbon content of at least 99%, an oxygen content of less than 1% and is pure, such that the pristine graphene is free of foreign substances and impurities, wherein the pristine graphene nanosheet and/or the organic and/or inorganic compound of the coating layer is configured to present a functional group capable of binding a corresponding functional group in an aqueous solution. at least two pristine graphene nanosheets having a pristine graphene nanosheet surface stacked over one another to form a pristine graphene aggregate, and a coating layer covering at least 50 % of a pristine graphene nanosheet surface, said coating layer comprising an organic and/or inorganic compound, wherein the organic and/or inorganic compound has a solubility in water of at least 10 grams per liter H 2 O at 25 degrees C and is able to be covalently linked to, or in water electrostatically stably attached to, pristine graphene, wherein the organic and/or inorganic compound is attached to a pristine graphene nanosheet to form said coating layer, wherein the pristine graphene of the at least two pristine graphene nanosheets has a carbon content of at least 99%, an oxygen content of less than 1% and is pure, such that the pristine graphene is free of foreign substances and impurities, wherein the pristine graphene nanosheet and/or the organic and/or inorganic compound of the coating layer is configured to present a functional group capable of binding a corresponding functional group in an aqueous solution.
Framework construction kit, comprising: at least one rotary joint comprising a socket rod having a socket rod flange with an at least partly spheroid concave bearing surface at a first end, a housing nut encircling the socket rod and having a threaded wrenching head, and a ball rod having an at least partly spheroid convex bearing surface and threaded side walls around the bearing surface, wherein the diameter of the threaded side walls of the ball rod corresponds to a diameter of the threaded wrenching head of the housing nut; and at least one interconnection strut connected to a second end of the socket rod of the at least one rotary joint or connected to the ball rod, wherein the at least one interconnection strut comprises a trussed beam having a plurality of substantially longitudinally running chord members (21, 22) and a plurality of web members spanning between the chord members (21, 22). at least one rotary joint comprising a socket rod having a socket rod flange with an at least partly spheroid concave bearing surface at a first end, a housing nut encircling the socket rod and having a threaded wrenching head, and a ball rod having an at least partly spheroid convex bearing surface and threaded side walls around the bearing surface, wherein the diameter of the threaded side walls of the ball rod corresponds to a diameter of the threaded wrenching head of the housing nut; and at least one interconnection strut connected to a second end of the socket rod of the at least one rotary joint or connected to the ball rod, wherein the at least one interconnection strut comprises a trussed beam having a plurality of substantially longitudinally running chord members (21, 22) and a plurality of web members spanning between the chord members (21, 22).
Self-service grain mill with reduced environmental impact, comprising, in a cabinet provided with a front wall, - a hopper, situated above, for feeding grains to be ground, - a pair of grinding wheels (13, 14), one of which is moved by a gearmotor, both placed inside a casing of the grinding wheels which communicates at the top with the hopper through a feeding duct for feeding the grains and has a bottom with a passage opening, - a compartment communicating at the top with the casing of the grinding wheels through a discharge tract connected to said passage opening for unloading flour, the compartment being open in the front wall of the cabinet for positioning a bag to collect the flour, and - a vibrating device acting on the casing of the grinding wheels, characterized in that said casing of the grinding wheels is positioned inside a container having sound-absorbing walls. - a hopper, situated above, for feeding grains to be ground, - a pair of grinding wheels (13, 14), one of which is moved by a gearmotor, both placed inside a casing of the grinding wheels which communicates at the top with the hopper through a feeding duct for feeding the grains and has a bottom with a passage opening, - a compartment communicating at the top with the casing of the grinding wheels through a discharge tract connected to said passage opening for unloading flour, the compartment being open in the front wall of the cabinet for positioning a bag to collect the flour, and - a vibrating device acting on the casing of the grinding wheels,
An eccentric screw pump with a rotor and with a stator (6; 6') surrounding the rotor, the stator comprising at least one elastomeric stator portion and a pressure chamber formed on a radial outer side of said elastomeric stator portion (6; 6'), the radial outer side facing away from said rotor, characterized in that said pressure chamber is connected to a pressure region of the eccentric screw pump, i. e. to a region of a flow path for the fluid pumped by the pump having an increased pressure, via at least one pressure channel in a manner such that the at least one elastomeric stator portion (6; 6') is subjected to a pressure produced by the eccentric screw pump, effecting a radial force between the elastomeric portion (6; 6') of the stator and the rotor inside the stator.
A computer-implemented method comprising: receive, at a first entity operating asynchronous from a second entity, an input from a user interface manipulation of content, a first portion of the content presented in an application interface through which the UI manipulation is made; determine, at the first entity based on the input and bounds of the content, a position in the content at which a second portion of the content is associated, display of the second portion of the content in the application interface being responsive to the UI manipulation; and provide the position to a third entity having access to pre-rendered content prepared by the second entity, the pre-rendered content including at least the second portion of the content effective to enable the third entity to display, based on the position, the second portion of the content in the application interface in response to the UI manipulation; wherein providing the position after receiving the input is performed at a faster rate than a refresh rate of a display used for displaying the content; receive, at a first entity operating asynchronous from a second entity, an input from a user interface manipulation of content, a first portion of the content presented in an application interface through which the UI manipulation is made; determine, at the first entity based on the input and bounds of the content, a position in the content at which a second portion of the content is associated, display of the second portion of the content in the application interface being responsive to the UI manipulation; and provide the position to a third entity having access to pre-rendered content prepared by the second entity, the pre-rendered content including at least the second portion of the content effective to enable the third entity to display, based on the position, the second portion of the content in the application interface in response to the UI manipulation; wherein providing the position after receiving the input is performed at a faster rate than a refresh rate of a display used for displaying the content;
A method for an Unmanned Aerial Vehicle, UAV, broadcasting geolocation information of the UAV, comprising: determining, by the UAV, current geolocation of the UAV by communicating with a geolocation service and utilizing the geolocation service to geolocate the UAV; preparing, by the UAV, a radio frame that includes geolocation information identifying the current geolocation of the UAV, wherein the prepared radio frame is for a radio protocol of a 3rd Generation Partnership Project radio protocol; preparing, by the UAV, optional information associated with the UAV for inclusion in the radio frame; determining whether other vehicles are detected, wherein only in the affirmative, waypoint information is added to the optional information in the radio frame transmitting, by the UAV, the radio frame that includes the geolocation information, and the optional information to broadcast the current geolocation of the UAV. determining, by the UAV, current geolocation of the UAV by communicating with a geolocation service and utilizing the geolocation service to geolocate the UAV; preparing, by the UAV, a radio frame that includes geolocation information identifying the current geolocation of the UAV, wherein the prepared radio frame is for a radio protocol of a 3rd Generation Partnership Project radio protocol; preparing, by the UAV, optional information associated with the UAV for inclusion in the radio frame; determining whether other vehicles are detected, wherein only in the affirmative, waypoint information is added to the optional information in the radio frame transmitting, by the UAV, the radio frame that includes the geolocation information, and the optional information to broadcast the current geolocation of the UAV.
A first network node arranged to communicate with a second network node, the first and second network nodes being connected by a first path and a second path, the first path using a first communications network and the second path using a second communications network, and whereby the first network node has a first mode and a second mode of operation, such that in a first mode traffic between the first and second network nodes is transmitted over the first path and not the second path, and in a second mode traffic between the first and second network nodes is transmitted over the first path and the second path, wherein the network node comprises a mode selector arranged to select the second mode of operation when the demanded amount of traffic between the first and second network nodes exceeds a threshold value for a period of time; wherein the demanded value of traffic is determined as the rate of input traffic received by the first network node for transmission to the second network node, the threshold value for the demanded amount of traffic is determined to be a percentage of the bandwidth available on the first path, and the bandwidth available on the first path is periodically measured and the threshold value recalculated after a measurement is taken.
An ink for use in a three-dimensional printing system comprising: 10-60 wt. % oligomeric curable material; 30-80 wt. % monomeric curable material; and 10-35 wt. % self-curable light-sensitive oligomer, based on the total weight of the ink, wherein the self-curable light-sensitive oligomer comprises one or more labile moieties; and wherein the ink when cured has a cytotoxicity grade below 2 when measured according to ANSI/AAMI/ISO 10993-5:2009. 10-60 wt. % oligomeric curable material; 30-80 wt. % monomeric curable material; and 10-35 wt. % self-curable light-sensitive oligomer, based on the total weight of the ink, wherein the self-curable light-sensitive oligomer comprises one or more labile moieties; and wherein the ink when cured has a cytotoxicity grade below 2 when measured according to ANSI/AAMI/ISO 10993-5:2009.
A permanent-magnet rotor for an electronically commutated DC motor, with a shaft, a laminated rotor core (3, 3') borne by the shaft, which core, close to its periphery, has rectangular recesses, which are closed over their full extent and are tangentially extending, for receiving flat permanent-magnet plates (5, 5', 5"), in each case at least one permanent-magnet plate (5, 5', 5") is received in each recess, the permanent-magnet plates (5, 5', 5") are held without play in a non-positive connection by spring elements (6, 6', 6"), the recesses in the tangential direction have free spaces (7, 7') adjoining the permanent-magnet plates (5, 5', 5"), which free spaces extend over the major part of the side faces of the permanent-magnet plates (5, 5', 5"), and the laminated rotor core (3, 3') consists substantially of a radially outer ring region and a radially inner core region, wherein the ring region is to a great extent defined by the recesses and the free spaces (7, 7') and is in one piece with the core region via thin radial lands, the spring elements (6, 6', 6") are received individually in part of the free spaces which adjoin the permanent-magnet plates (5, 5', 5") in the tangential direction, the spring force of the spring elements (6, 6', 6") acts predominantly tangentially on side faces of the permanent-magnet plates (5, 5', 5") and the spring elements (6, 6', 6") on one hand lie against the side faces of a permanent-magnet plate (5, 5', 5"), characterised by the combination of the following features: a) the spring elements (6, 6', 6") consist of magnetically non-conductive material, b) the spring elements (6, 6', 6") on the other hand lie against one of the lands or against a side face of a further permanent-magnet plate (5, 5', 5"), and c) the permanent-magnet plates (5, 5', 5") on their end located opposite the spring elements (6, 6', 6") are held by the spring elements (6, 6', 6") in a position which is without play in the radial direction. a) the spring elements (6, 6', 6") consist of magnetically non-conductive material, b) the spring elements (6, 6', 6") on the other hand lie against one of the lands or against a side face of a further permanent-magnet plate (5, 5', 5"), and c) the permanent-magnet plates (5, 5', 5") on their end located opposite the spring elements (6, 6', 6") are held by the spring elements (6, 6', 6") in a position which is without play in the radial direction.
A device for transmitting control signals to a node of a building automation network, the device comprising: - a connector for connecting to a port of a computer device, - a signal input for receiving use signals from a pointing device (102, 302), - a signal output for forwarding said use signals to said connector, - a controller, - a signals pickup block (208, 301, 401) for monitoring reception of use signals at the signal input, and - a wireless transmitter for transmitting said control signals; characterized in that the device is configured to forward the use signals received at said signal input transparently to said signal output such that the use signals received at said signal input are passed to said signal output as such, and said controller is configured to make said wireless transmitter transmit said control signals in response to said signals pickup block (208, 301, 401) indicating reception of the use signals at said signal input. - a connector for connecting to a port of a computer device, - a signal input for receiving use signals from a pointing device (102, 302), - a signal output for forwarding said use signals to said connector, - a controller, - a signals pickup block (208, 301, 401) for monitoring reception of use signals at the signal input, and - a wireless transmitter for transmitting said control signals;
A mop for a cleaner, the mop comprising: a floor cleaning part configured to come into contact with a floor surface when the mop is mounted at the cleaner performing a cleaning operation; a lateral cleaning part protruding outward along a periphery of the floor cleaning part and disposed to be inclined toward the floor surface when the mop is mounted at the cleaner performing the cleaning operation, and a coupling part having a ring shape and disposed to surround the floor cleaning part, and plurality of cleaning members each provided in the form of a loop, characterized in that the lateral cleaning part comprises: a base member having a ring shape and stacked on one side of the coupling part; and wherein the plurality of cleaning members are fastened along a periphery of the base member. a floor cleaning part configured to come into contact with a floor surface when the mop is mounted at the cleaner performing a cleaning operation; a lateral cleaning part protruding outward along a periphery of the floor cleaning part and disposed to be inclined toward the floor surface when the mop is mounted at the cleaner performing the cleaning operation, and a coupling part having a ring shape and disposed to surround the floor cleaning part, and plurality of cleaning members each provided in the form of a loop, characterized in that the lateral cleaning part comprises: a base member having a ring shape and stacked on one side of the coupling part; and wherein the plurality of cleaning members are fastened along a periphery of the base member. a base member having a ring shape and stacked on one side of the coupling part; and wherein the plurality of cleaning members are fastened along a periphery of the base member.
A nozzle arrangement that produces a series of fast pulsed discharges of fluid in quick succession, the nozzle arrangement being connected to a source of pressurized fluid, characterised in that the nozzle arrangement comprises a nozzle body with an inlet for the pressurized fluid into a chamber with a downstream wall with an outlet hole in said chamber wall wherein a prodder moves between a sealed and unsealed position in said outlet hole of the chamber wall and wherein a sprung plunger that is upstream of and connected to said prodder and has a annular seal that forms a seal between said plunger and the chamber creating a mobile chamber wall upstream of the downstream wall in said chamber, simultaneously moves between a downstream and an upstream position as the chamber fills with the fluid and then returns to a downstream position as the prodder returns from an unsealed position to a sealed position while the fluid is discharged.
A multi-lens camera system for improving image spatial resolution comprising: a first lens configured to direct light collected from a field of view onto a first image sensor portion, the collected light comprising light from a first portion of the field of view that is magnified by the first lens according to a first geometric distortion function; a second lens configured to direct light collected from the field of view onto a second image sensor portion, the collected light comprising light from a second portion of the field of view that is magnified by the second lens according to second geometric distortion function wherein the first lens and the second lens are configured to have higher magnification at different areas of the field of view; and an image sensor comprising the first image sensor portion and the second image sensor portion and configured to capture light incident upon the first image sensor portion and the second information sensor portion to form the first and second image portions; and; means configured to combine luminance information from the magnified light from the first portion of the field of view and luminance information from the magnified light from the second portion of the field of view to form combined luminance information for the final image, by comparing the sharpness of each of said different areas in the first and second image portions and choosing the sharpest one as the source of luminance for the final image. a first lens configured to direct light collected from a field of view onto a first image sensor portion, the collected light comprising light from a first portion of the field of view that is magnified by the first lens according to a first geometric distortion function; a second lens configured to direct light collected from the field of view onto a second image sensor portion, the collected light comprising light from a second portion of the field of view that is magnified by the second lens according to second geometric distortion function wherein the first lens and the second lens are configured to have higher magnification at different areas of the field of view; and an image sensor comprising the first image sensor portion and the second image sensor portion and configured to capture light incident upon the first image sensor portion and the second information sensor portion to form the first and second image portions; and; means configured to combine luminance information from the magnified light from the first portion of the field of view and luminance information from the magnified light from the second portion of the field of view to form combined luminance information for the final image, by comparing the sharpness of each of said different areas in the first and second image portions and choosing the sharpest one as the source of luminance for the final image.