mhurhangee/ep-ind-claims huggingface dataset:
Bone anchoring device including an anchoring element having a shaft for anchoring in the bone and a head, a receiving part having a top end and a bottom end, a channel for receiving a rod near the top end and an accommodation space (9a, 9b) for accommodating the head near the bottom end, the accommodation space having an opening towards the bottom end, the opening being sized so as to allow the introduction of the head from the bottom end; a pressure element, the pressure element being located at least partly in the accommodation space and having a flexible portion to clamp the head; wherein the anchoring element is pivotable with respect to the receiving part and can be fixed at an angle by moving the pressure element inside the accommodation space such that the head is locked within the flexible portion of the pressure element; characterized in that the pressure element comprises a first threaded section which is coupled to a second threaded section at the inner wall of the receiving part when the pressure element is inserted into the receiving part to prevent loss of the pressure element from the receiving part, wherein a secured state is obtained by screwing the pressure element through the second threaded section until it is accommodated in the accommodation space (9a, 9b), wherein the height of the first threaded section of the pressure element (8"') in an axial direction is small compared to a height of a substantially cylindrical section provided adjacent a top end of the pressure element.
A mirror comprising: a substrate; a thermal diffusion layer provided on a principal surface of the substrate, the thermal diffusion layer having a higher thermal conductivity than the substrate; and a reflective layer (113, 213) provided on the thermal diffusion layer, the reflective layer (113, 213) having a lower thermal conductivity than the thermal diffusion layer, wherein the reflective layer (113, 213) includes any of gold, molybdenum, and silver, characterized in that the thermal diffusion layer includes at least one of diamond, diamond-like carbon, and graphite, and the substrate includes any of graphite, silicon carbide, and aluminum nitride. a substrate; a thermal diffusion layer provided on a principal surface of the substrate, the thermal diffusion layer having a higher thermal conductivity than the substrate; and a reflective layer (113, 213) provided on the thermal diffusion layer, the reflective layer (113, 213) having a lower thermal conductivity than the thermal diffusion layer,
An apparatus comprising means for performing: - generating a first key based on a first input specific to a mobile device, wherein the first input comprises measurement of mutable code of the mobile device and a unique device secret, - generating a symmetric second key on the basis of the first key and a second input specific to the mobile device, and - generating, as part of an authentication and key agreement based authentication procedure between the mobile device and a mobile communications network, authentication credentials on the basis of the second key for authenticating the mobile device to the mobile communications network. - generating a first key based on a first input specific to a mobile device, wherein the first input comprises measurement of mutable code of the mobile device and a unique device secret, - generating a symmetric second key on the basis of the first key and a second input specific to the mobile device, and - generating, as part of an authentication and key agreement based authentication procedure between the mobile device and a mobile communications network, authentication credentials on the basis of the second key for authenticating the mobile device to the mobile communications network.
A method for processing network communications, comprising: determining that processing of Internet Protocol, IP data packets within a network path that includes at least one router will render a first set of packet filters and a second set of packet filters deployed in the least one router ineffective due to modifications of the IP data packets; determining an intersection of the first set of packet filters and the second set of packet filters; translating the first set of packet filters so that the translated first set of packet filters results in a desired packet classification of modified IP data packets; translating the second set of packet filters based upon the determined intersection of the first and second sets of packet filters so that the translated second set of packet filters results in a desired packet classification of modified IP data packets; and deploying the translated first and second sets of packet filters to the at least one router. determining that processing of Internet Protocol, IP data packets within a network path that includes at least one router will render a first set of packet filters and a second set of packet filters deployed in the least one router ineffective due to modifications of the IP data packets; determining an intersection of the first set of packet filters and the second set of packet filters; translating the first set of packet filters so that the translated first set of packet filters results in a desired packet classification of modified IP data packets; translating the second set of packet filters based upon the determined intersection of the first and second sets of packet filters so that the translated second set of packet filters results in a desired packet classification of modified IP data packets; and deploying the translated first and second sets of packet filters to the at least one router.
A method for transferring a bearer in layered network deployment, the method comprises: determining, by a macro eNB, whether to allow a user equipment to access a Closed Subscriber Group, CSG, local eNB upon determining that a Data Radio Bearer, DRB, of the user equipment needs to be transferred to the CSG local eNB; and initiating, by the macro eNB, a DRB transfer procedure to the CSG local eNB upon determining that the user equipment is allowed to access the CSG local eNB; wherein determining whether to allow the user equipment to access the CSG local eNB comprises: determining, by the macro eNB, whether to allow the user equipment to access the CSG local eNB according to CSG membership status information carried in a measurement report made by the user equipment, or transmitting, by the macro eNB, information about a CSG identifier, and an access mode, of the CSG local eNB to an MME; receiving, by the macro eNB, information about whether to allow the user equipment to access the CSG local eNB, or CSG membership status information of the user equipment, returned by the MME; and determining, by the macro eNB, whether to allow the user equipment to access the CSG local eNB according to the information returned by the MME. determining, by a macro eNB, whether to allow a user equipment to access a Closed Subscriber Group, CSG, local eNB upon determining that a Data Radio Bearer, DRB, of the user equipment needs to be transferred to the CSG local eNB; and initiating, by the macro eNB, a DRB transfer procedure to the CSG local eNB upon determining that the user equipment is allowed to access the CSG local eNB; wherein determining whether to allow the user equipment to access the CSG local eNB comprises: determining, by the macro eNB, whether to allow the user equipment to access the CSG local eNB according to CSG membership status information carried in a measurement report made by the user equipment, or transmitting, by the macro eNB, information about a CSG identifier, and an access mode, of the CSG local eNB to an MME; receiving, by the macro eNB, information about whether to allow the user equipment to access the CSG local eNB, or CSG membership status information of the user equipment, returned by the MME; and determining, by the macro eNB, whether to allow the user equipment to access the CSG local eNB according to the information returned by the MME. determining, by the macro eNB, whether to allow the user equipment to access the CSG local eNB according to CSG membership status information carried in a measurement report made by the user equipment, or transmitting, by the macro eNB, information about a CSG identifier, and an access mode, of the CSG local eNB to an MME; receiving, by the macro eNB, information about whether to allow the user equipment to access the CSG local eNB, or CSG membership status information of the user equipment, returned by the MME; and determining, by the macro eNB, whether to allow the user equipment to access the CSG local eNB according to the information returned by the MME.
An assembly formed by a length of cable tray of wire and a device for electrical connection in which the electrical connection device is a device for making an equipotential connection, comprising an electrically conducting rigid body having at least two accommodations each with a bottom configured to receive a wire (32, 34) characterized in that the accommodations are each provided with a clamping screw for clamping a wire against the bottom of the corresponding accommodation, and in that for each accommodation the body has a base from which extend two branches (8, 10), the bottom of the accommodation being located against the base and the accommodation extending between the two branches (8, 10), in that each branch (8, 10) has an inside face (16, 22) facing opposite the other branch, the two inside faces (16, 22) being tapped so as to be able to receive between them the corresponding clamping screw, and in that a section of a wire of the length of cable tray of wire is disposed in an accommodation between a bottom and a clamping screw.
A gas turbine housing assembly with: a gas turbine housing element; a guide ring with an outer ring; a mantle ring radially facing a walkway grid adjacent the guide ring; and an intermediate ring which engages with a downstream front side an upstream stop (61; 61') fixed to the housing element and with an upstream front side of a radial flange of the intermediate ring a downstream stop fixed to the outer ring in order to secure the guide ring axially to the gas turbine housing element in the direction of flow, wherein a gap (s) is formed in a mounting position between the radial flange and the mantle ring in order to allow for movement of the radial flange radially to the outside; characterized in that the radial flange abuts against the mantle ring in an operating position. a gas turbine housing element; a guide ring with an outer ring; a mantle ring radially facing a walkway grid adjacent the guide ring; and an intermediate ring which engages with a downstream front side an upstream stop (61; 61') fixed to the housing element and with an upstream front side of a radial flange of the intermediate ring a downstream stop fixed to the outer ring in order to secure the guide ring axially to the gas turbine housing element in the direction of flow, wherein a gap (s) is formed in a mounting position between the radial flange and the mantle ring in order to allow for movement of the radial flange radially to the outside; characterized in that the radial flange abuts against the mantle ring in an operating position.
Optical module for projecting a final light beam having a cut-off profile with at least one horizontal section (28A, 28C) and comprising: - a controlled light source emitting an initial beam; - optical cut-off means for transforming the initial beam into an intermediate beam with a cut-off in which the light rays are distributed vertically below said cut-off profile; the optical module comprising: - horizontal optical focusing means for focusing the intermediate cut-off beam to a substantially vertical focus line; - an ouput lens having a vertical focus line which is merged with the focus line for transforming the intermediate cut-off beam into said final beam, characterized in that it comprises a solid block made of a single piece of transparent material comprising: - the optical cut-off means; - the optical focusing means; - the ouput lens. - a controlled light source emitting an initial beam; - optical cut-off means for transforming the initial beam into an intermediate beam with a cut-off in which the light rays are distributed vertically below said cut-off profile; - horizontal optical focusing means for focusing the intermediate cut-off beam to a substantially vertical focus line; - an ouput lens having a vertical focus line which is merged with the focus line for transforming the intermediate cut-off beam into said final beam, - the optical cut-off means; - the optical focusing means; - the ouput lens.
A monitoring unit for an operation of switchgear cabinet devices, in particular a climate control unit, having a detection unit for operating state data of the switchgear cabinet devices, a monitoring device with an evaluation unit, and a display unit for displaying informational data relating to the switchgear cabinet devices to a testing specialist, wherein the evaluation unit has a collecting unit for various physical operating state data over a past time interval which influence the function of the switchgear cabinet device, and an offsetting unit for the operating state data, and wherein the display unit is provided with informational data for the testing specialist, the informational data being derived from the operating state data through offsetting by the offsetting unit already before a malfunction occurs, characterized in that the past time interval extends from a current time point back to a time point of the initial startup of the control cabinet device or of a repsective device component, or to a past maintenance time point, or to to the first occurrence of an abnormal event in which a deviation from a predetermined operating state occurs, wherein the evaluation unit has a comparison unit that determines when at least one predetermined change (ΔZ v) of a particular operating state data type has occurred in comparison to a last stored value or a preset value of the operating state data type, wherein the values of the respective operating state data type are storable in the collecting unit together with an associated time point when the predetermined change (ΔZ v) is exceeded or determined, wherein the evaluation unit is designed such that the change (ΔZ 0) in the operating state data type is determined at preset time intervals (Δt) or by a query at a request of the testing specialist, wherein the offsetting unit is programmed to calculate a graduated service requirement level from the operating state data, and wherein the service requirement levels can be signalled optically and/or acoustically via the display device in different stages of urgency, wherein the operating state data comprise functional data relating to operating processes of the switchgear cabinet devices and environmental data relating to external influencing factors, wherein the functional data comprise vibrations, noise, heat, smoke, performance parameters, a malfunction, runtimes and maintenance work caused by the switchgear cabinet device, and wherein the environmental data comprise ambient temperature, external vibrations, humidity and smoke, and wherein the monitoring device comprises sensors arranged on the switchgear cabinet and in its vicinity for detecting the operating state data with a wireless or wired data transmission interface.
A two-lens optical system (100, 100a, 100b, 100c), comprising: a first lens for use in collimation adjustment, the first lens being configured to move along only an optical axis of light emitted from a light source (5, 5a, 5b, 5c); and a second lens for use in beam steering, the second lens being configured to move along only two axes perpendicular to the optical axis, wherein the light source (5, 5a, 5b, 5c), the first lens, and the second lens are arranged in this order along the optical axis, and characterized in that 2 / √ 3 f ≤ f 2 ≤ 3f, where f = (f 1 f 2)/(f 1 +f 2 -s), where f is an effective focal length of the two-lens optical system (100, 100a, 100b, 100c); f 1 is a focal length of the first lens; f 2 is a focal length of the second lens; and s is a separation between a back principal plane of the first lens and a front principal plane of the second lens. a first lens for use in collimation adjustment, the first lens being configured to move along only an optical axis of light emitted from a light source (5, 5a, 5b, 5c); and a second lens for use in beam steering, the second lens being configured to move along only two axes perpendicular to the optical axis, wherein the light source (5, 5a, 5b, 5c), the first lens, and the second lens are arranged in this order along the optical axis, and characterized in that 2 / √ 3 f ≤ f 2 ≤ 3f, where f = (f 1 f 2)/(f 1 +f 2 -s), where f is an effective focal length of the two-lens optical system (100, 100a, 100b, 100c); f 1 is a focal length of the first lens; f 2 is a focal length of the second lens; and s is a separation between a back principal plane of the first lens and a front principal plane of the second lens.
A transformable aerial vehicle (100, 200), the vehicle comprising: a central body coupled to a payload, wherein the payload comprises an image capturing device; at least two transformable frame assemblies respectively disposed on the central body, each of the at least two transformable frame assemblies having a proximal portion coupled to the central body and a distal portion, and wherein one or more of the at least two transformable frame assemblies includes a support member that is movable relative to the one or more of the at least two transformable frame assemblies; a plurality of propulsion units mounted on the at least two transformable frame assemblies and operable to move the transformable aerial vehicle (100, 200); and an actuation assembly mounted on the central body and configured to transform the at least two transformable frame assemblies between a first configuration and a second configuration, wherein, in the first configuration, the at least two transformable frame assemblies support, by the support member, the transformable aerial vehicle (100, 200) resting on a surface with the payload not contacting the surface; characterized in that in the second configuration, the at least two transformable frame assemblies are moved out of a field of view of the image capturing device in order to provide an unobstructed 360° viewing angle for the image capturing device. a central body coupled to a payload, wherein the payload comprises an image capturing device; at least two transformable frame assemblies respectively disposed on the central body, each of the at least two transformable frame assemblies having a proximal portion coupled to the central body and a distal portion, and wherein one or more of the at least two transformable frame assemblies includes a support member that is movable relative to the one or more of the at least two transformable frame assemblies; a plurality of propulsion units mounted on the at least two transformable frame assemblies and operable to move the transformable aerial vehicle (100, 200); and an actuation assembly mounted on the central body and configured to transform the at least two transformable frame assemblies between a first configuration and a second configuration, wherein, in the first configuration, the at least two transformable frame assemblies support, by the support member, the transformable aerial vehicle (100, 200) resting on a surface with the payload not contacting the surface; characterized in that in the second configuration, the at least two transformable frame assemblies are moved out of a field of view of the image capturing device in order to provide an unobstructed 360° viewing angle for the image capturing device.
A pipe fitting connection device, comprising: a pipe fitting body comprising a core body and a connecting body connected to each other, the connecting body provided with a first matching portion; a positioning sleeve sleeving the core body, one end of the positioning sleeve provided with a second matching portion matching the first matching portion, the positioning sleeve spaced from the core body to form a mounting cavity for mounting a pipe, an outer wall of the positioning sleeve provided with at least two spaced positioning ribs, and two adjacent positioning ribs matching the positioning sleeve to form a clamping groove that matches a caliper tooth; a sealing ring; wherein the outer wall of the core body is provided with a mounting groove for mounting the sealing ring, the mounting groove comprises a first side wall away from the connecting body, and the first side wall is provided with a packing groove; characterized in that the mounting groove further comprises a second side wall adjacent to the connecting body, the second side wall is provided with an anti-slip wall, a radial height of the anti-slip wall is greater than a radial height of the sealing ring. a pipe fitting body comprising a core body and a connecting body connected to each other, the connecting body provided with a first matching portion; a positioning sleeve sleeving the core body, one end of the positioning sleeve provided with a second matching portion matching the first matching portion, the positioning sleeve spaced from the core body to form a mounting cavity for mounting a pipe, an outer wall of the positioning sleeve provided with at least two spaced positioning ribs, and two adjacent positioning ribs matching the positioning sleeve to form a clamping groove that matches a caliper tooth; a sealing ring; wherein the outer wall of the core body is provided with a mounting groove for mounting the sealing ring, the mounting groove comprises a first side wall away from the connecting body, and the first side wall is provided with a packing groove; characterized in that the mounting groove further comprises a second side wall adjacent to the connecting body, the second side wall is provided with an anti-slip wall, a radial height of the anti-slip wall is greater than a radial height of the sealing ring.
A channel indication sending method, wherein the method comprises: receiving, by a first access point, channel information from a second access point, wherein the channel information indicates that an operating channel of the second access point is a first channel, and whether the second access point successfully performs channel availability check, CAC, on the first channel, wherein the second access point is a neighbor of the first access point, and the first channel is a dynamic frequency selection, DFS, channel; and sending, by the first access point on a second channel, a wireless local area network, WLAN, frame to a station associated with the first access point, wherein the second channel is an operating channel of the first access point, and the WLAN frame comprises an indication about the first channel and an indication of whether the second access point successfully performs the CAC on the first channel. receiving, by a first access point, channel information from a second access point, wherein the channel information indicates that an operating channel of the second access point is a first channel, and whether the second access point successfully performs channel availability check, CAC, on the first channel, wherein the second access point is a neighbor of the first access point, and the first channel is a dynamic frequency selection, DFS, channel; and sending, by the first access point on a second channel, a wireless local area network, WLAN, frame to a station associated with the first access point, wherein the second channel is an operating channel of the first access point, and the WLAN frame comprises an indication about the first channel and an indication of whether the second access point successfully performs the CAC on the first channel.