mhurhangee/ep-ind-claims huggingface dataset:
A method for implementing network proxy, comprising: establishing (101, 201) a first connection between a client and a server through a proxy adapter, the client acquiring status information of the server through the first connection; and if the status information of the server acquired by the client shows that the server is in a turn-on state, establishing (102, 202) a second connection between the client and the server, so as to enable the client and the server to transmit a data packet through the second connection; wherein the establishing (102, 202) the second connection between the client and the server comprises: establishing a third connection between the proxy adapter and a proxy server through three times handshake, and establishing a fourth connection between the proxy adapter and a proxy client through three times handshake, so as to form the second connection between the client and the server through the third connection and the fourth connection. establishing (101, 201) a first connection between a client and a server through a proxy adapter, the client acquiring status information of the server through the first connection; and if the status information of the server acquired by the client shows that the server is in a turn-on state, establishing (102, 202) a second connection between the client and the server, so as to enable the client and the server to transmit a data packet through the second connection; establishing a third connection between the proxy adapter and a proxy server through three times handshake, and establishing a fourth connection between the proxy adapter and a proxy client through three times handshake, so as to form the second connection between the client and the server through the third connection and the fourth connection.
Lifting device for lifting an offshore platform along at least one support leg with a plurality of segments connected to one another to form a closed clamping chain, wherein the clamping chain has a circumference and at least one radius, clamping jaws (18, 19) projecting from the segments being arranged at a distance from one another along the circumference and being able to move back and forth in the radial direction, which clamping jaws (18, 19) together form a clamping cross-section of variable size, wherein the clamping jaws (18, 19) are arranged in a movable manner on the segments by means of a self-locking mechanism and the clamping jaws (18, 19) have at least one friction-increasing element on their inner side, characterized by arms (21, 22) which are arranged on the segment inner sides and which are in each case pivotable about an outer axis running in the circumferential direction, on the inner arm ends of which arms there is arranged in each case one of the clamping jaws (18, 19), wherein the clamping cross-section can be varied by pivoting the arms (21, 22).
An exhaust manifold for at least one cylinder in a crankcase of an internal combustion engine comprising a crank head, wherein the engine has at least one cylinder in addition to the at least one cylinder and wherein a turbocharger casing, made in one piece and made of the same material, is incorporated in the exhaust manifold, wherein the at least one additional cylinder is connectible to the exhaust manifold and conveys exhaust gas via a separate pipe (3, 3'), characterised in that the exhaust manifold has at least one cooling-agent duct and is coolable by a cooling agent, wherein the manifold is disposable on a cylinder head of the engine and the coolant duct is supplied with cooling agent by a corresponding coolant duct in the cylinder head and/or via an external coolant line.
A container (22, 122, 222, 322, 422, 522, 622) that has a longitudinal axis and that includes: a body (26, 126, 226, 326, 426, 526, 626) including a base (28, 128, 228, 328, 428, 528, 628) having a primary support surface (48, 148, 648), and a sidewall (30, 130, 230, 330, 430, 530, 630) extending from the base and including a facet having a secondary support surface (58, 158, 258, 358, 458, 558, 658) oriented at a tilt angle that is acute with respect to the axis and obtuse with respect to the primary support surface, the facet also having a recessed portion within the secondary support surface; and a neck finish (34, 134, 234, 334, 434, 534) extending from the body along and coaxial with the longitudinal axis and including a cylindrical outer surface and one or more closure engagement features on the cylindrical outer surface, characterized in that the at least one secondary support surface comprises a plurality of secondary support surfaces around the axis, and in that the finish has a plurality of closure engagement features equal in number to the plurality of flat secondary support surfaces and wherein the closure engagement features are oriented in a predetermined circumferential relationship with a plurality of the secondary support surface. a body (26, 126, 226, 326, 426, 526, 626) including a base (28, 128, 228, 328, 428, 528, 628) having a primary support surface (48, 148, 648), and a sidewall (30, 130, 230, 330, 430, 530, 630) extending from the base and including a facet having a secondary support surface (58, 158, 258, 358, 458, 558, 658) oriented at a tilt angle that is acute with respect to the axis and obtuse with respect to the primary support surface, the facet also having a recessed portion within the secondary support surface; and a neck finish (34, 134, 234, 334, 434, 534) extending from the body along and coaxial with the longitudinal axis and including a cylindrical outer surface and one or more closure engagement features on the cylindrical outer surface, characterized in that the at least one secondary support surface comprises a plurality of secondary support surfaces around the axis, and in that the finish has a plurality of closure engagement features equal in number to the plurality of flat secondary support surfaces and wherein the closure engagement features are oriented in a predetermined circumferential relationship with a plurality of the secondary support surface.
Strap watch intended to be worn by a user, comprising: - a first hand normally indicating the hours, - a second hand normally indicating the minutes, - at least one accelerometer, - an electronic control unit, wherein the electronic control unit is configured so that it normally causes the time to be indicated by the hands, and is further configured to calculate at least a first individual activity amount representative of a physical activity of the user based on information collected by the accelerometer, and is further configured to display said first activity amount by means of a separate additional hand, wherein the additional hand is formed by a specific hand mounted on an axis separate from that of the first and second hands so as to form an additional gauge display, whereby the user can view one or more amounts relating to his or her physical activity on a conventional analog watch interface, wherein the displayed value is a current value as a percentage of a target value to be achieved, wherein the target value is set by the user. - a first hand normally indicating the hours, - a second hand normally indicating the minutes, - at least one accelerometer, - an electronic control unit,
A method for performing timing synchronization in a wireless communication system, the method comprising: transmitting user equipment, UE, capability information comprising an ability of supporting device to device, D2D, communication; receiving resource information allocated by being distinguished for a cellular UE and the D2D UE from an evolved NodeB, eNB; transmitting a synchronization signal, SS, such that if the SS is located in first symbols of a resource block, SS symbols are transmitted earlier than data symbols, and if the SS is located in last symbols of the resource block, the SS symbols are transmitted later than previous data symbols with a different time offset value for each D2D UE; and acquiring synchronization between the D2D UEs (210, 220) by using the synchronization signal, wherein the resource information for the D2D UE is determined by considering the number of the D2D UEs and a cell size of the eNB, has different frequency and time domains for each D2D UE, and comprises the different time offset value, and wherein the different time offset value is defined by considering the cell size of the eNB and timing advance, TA, value of each D2D UE. transmitting user equipment, UE, capability information comprising an ability of supporting device to device, D2D, communication; receiving resource information allocated by being distinguished for a cellular UE and the D2D UE from an evolved NodeB, eNB; transmitting a synchronization signal, SS, such that if the SS is located in first symbols of a resource block, SS symbols are transmitted earlier than data symbols, and if the SS is located in last symbols of the resource block, the SS symbols are transmitted later than previous data symbols with a different time offset value for each D2D UE; and acquiring synchronization between the D2D UEs (210, 220) by using the synchronization signal, wherein the resource information for the D2D UE is determined by considering the number of the D2D UEs and a cell size of the eNB, has different frequency and time domains for each D2D UE, and comprises the different time offset value, and wherein the different time offset value is defined by considering the cell size of the eNB and timing advance, TA, value of each D2D UE.
Frame element for a scaffold, wherein the frame element comprises the following: a) a support head having a threaded spindle; b) a frame tube that may be mounted vertically in the scaffold, said frame tube having a spindle receiving section on a first axial frame tube end, wherein the threaded spindle is in part inserted into the spindle receiving section; c) a spindle nut that is mounted on the threaded spindle, wherein the support head in the mounted state of the frame element introduces its vertical load into the frame tube via the threaded spindle; wherein the spindle receiving section comprises a first spindle positioning groove that reduces the inner diameter of the frame tube, characterised in that the spindle receiving section comprises a second spindle positioning groove that is spaced axially from the first spindle positioning groove and reduces the inner diameter of the frame tube, wherein the second spindle positioning groove reduces the inner diameter of the frame tube precisely as far as the first spindle positioning groove. a) a support head having a threaded spindle; b) a frame tube that may be mounted vertically in the scaffold, said frame tube having a spindle receiving section on a first axial frame tube end, wherein the threaded spindle is in part inserted into the spindle receiving section; c) a spindle nut that is mounted on the threaded spindle, wherein the support head in the mounted state of the frame element introduces its vertical load into the frame tube via the threaded spindle;
Packaging machine for containers to be closed and welded, comprising a welding group of said containers and a transport system of said containers, wherein said welding group is placed in line on said transport system and comprises a sealing press having a frame, which horizontally moves opposing jaws (11, 22), a plurality of servomotors positioned on opposite sides of said frame, and adapted to rotate, by means of respective reducers, relative horizontal pins (8, 28), which are connected, by means of toggle return systems allowing the transformation of a rotary movement into a linear movement, to thrust elements (10, 30) connected to said opposing jaws (11, 22), characterized in that said frame is moved in vertical direction by means of a motor placed below said frame and connected to supporting vertical pins.
Motor vehicle strut comprising: - a helical spring; - a bearing cup for an axial end turn of the spring, which comprises an annular housing in the form of a gutter which is open axially in the direction of the axial end turn of the spring; - a bearing ring for the axial end turn of the spring, which is housed in the annular housing of the cup, at least over an angular sector of the annular housing, and which is secured to the axial end turn of the spring to form a spring /bearing ring subassembly, characterized: - in that at least one inner lateral face (22, 24) of the annular housing comprises at least one rib (23, 25) which cooperates with an associated complementary portion (35, 37) of the bearing ring; - and in that the spring /bearing ring subassembly is elastically fitted into the annular housing of the cup. - a helical spring; - a bearing cup for an axial end turn of the spring, which comprises an annular housing in the form of a gutter which is open axially in the direction of the axial end turn of the spring; - a bearing ring for the axial end turn of the spring, which is housed in the annular housing of the cup, at least over an angular sector of the annular housing, and which is secured to the axial end turn of the spring to form a spring /bearing ring subassembly, characterized: - in that at least one inner lateral face (22, 24) of the annular housing comprises at least one rib (23, 25) which cooperates with an associated complementary portion (35, 37) of the bearing ring; - and in that the spring /bearing ring subassembly is elastically fitted into the annular housing of the cup. - in that at least one inner lateral face (22, 24) of the annular housing comprises at least one rib (23, 25) which cooperates with an associated complementary portion (35, 37) of the bearing ring; - and in that the spring /bearing ring subassembly is elastically fitted into the annular housing of the cup.
A method for preparing an amino-functional polydiorganosiloxane comprising: 1) mixing and heating, at a temperature of 50°C to 150°C, starting materials comprising A) a silanol functional polydiorganosiloxane, B) an aminoalkyl-functional alkoxysilane, where amounts of starting materials A) and B) are such that a molar excess of silanol groups with respect to alkoxy groups is present, and C) 0 to 0.5%, based on combined weights of all starting materials, of an endblocker having triorganosilyl groups; and thereafter 2) adding starting material D) 0.01% to 5%, based on weight of starting material B), of a carboxylic acid having a boiling temperature of 90°C to 150°C and pKa value of 1 to 5; thereby forming a reaction mixture; 3) mixing and heating the reaction mixture to form the reaction product and reduce amount of residual acid to 0 to < 500 ppm, based on the weight of the amino-functional polydiorganosiloxane. 1) mixing and heating, at a temperature of 50°C to 150°C, starting materials comprising A) a silanol functional polydiorganosiloxane, B) an aminoalkyl-functional alkoxysilane, where amounts of starting materials A) and B) are such that a molar excess of silanol groups with respect to alkoxy groups is present, and C) 0 to 0.5%, based on combined weights of all starting materials, of an endblocker having triorganosilyl groups; and thereafter A) a silanol functional polydiorganosiloxane, B) an aminoalkyl-functional alkoxysilane, where amounts of starting materials A) and B) are such that a molar excess of silanol groups with respect to alkoxy groups is present, and C) 0 to 0.5%, based on combined weights of all starting materials, of an endblocker having triorganosilyl groups; and thereafter 2) adding starting material D) 0.01% to 5%, based on weight of starting material B), of a carboxylic acid having a boiling temperature of 90°C to 150°C and pKa value of 1 to 5; thereby forming a reaction mixture; 3) mixing and heating the reaction mixture to form the reaction product and reduce amount of residual acid to 0 to < 500 ppm, based on the weight of the amino-functional polydiorganosiloxane.
Closure cap for fitting onto the neck of a beverage bottle, having an opening in the upper side of the closure cap and a decorative body inserted into the closure cap, having a step, which is arranged in an annularly lifted manner on the upper side of the closure cap, for receiving the decorative body, in which the disc-like decorative body inserted into the closure cap on the inside engages, characterized in that the closure cap has, at least in part, a retaining bead which runs parallel to the upper side of the closure cap and projects into the closure cap, into which a liner plate is inserted which likewise runs parallel to the upper side of the closure cap and the decorative body engaging into the upper side, which fixes at least the decorative bodies in the position in the upper side of the closure cap and rests on the upper side as a closure seal on the bottle neck.
An opto-mechanical deployable telescope (10, 100) comprising: a hub (24, 124); at least one deployable multiple petal primary mirror (12, 112) mounted to the hub (24, 124); a deployment assembly operable to move the at least one primary mirror between a stowed position and a deployed position; wherein the deployment assembly includes a kinematic or semi-kinematic interface (40, 90; 92, 88; 47, 25; 49, 26) between the hub (24, 124) and the at least one primary mirror (12, 112) to hold petals (30, 32, 34, 36) of the at least one primary mirror (12, 112) in alignment relative to each other in the deployed position, each petal (30, 32, 34, 36) of the at least one primary mirror (12, 112) is separately attached to the hub (24, 124) with a hinge connection comprising a hinge member and an aperture of the petal within which the hinge member resides, characterized by a deployment engine assembly (16, 116) operable to power the deployment assembly using stored mechanical energy; and the hinge connection has a gap allowing for a radial movement of the petals (30, 32, 34, 36) with respect to a rotation about the hinge connection when in the deployed position that permits the kinematic or semi-kinematic interface of the deployment assembly rather than the hinge connection to control alignment of the petals (30, 32, 34, 36). a hub (24, 124); at least one deployable multiple petal primary mirror (12, 112) mounted to the hub (24, 124); a deployment assembly operable to move the at least one primary mirror between a stowed position and a deployed position; wherein the deployment assembly includes a kinematic or semi-kinematic interface (40, 90; 92, 88; 47, 25; 49, 26) between the hub (24, 124) and the at least one primary mirror (12, 112) to hold petals (30, 32, 34, 36) of the at least one primary mirror (12, 112) in alignment relative to each other in the deployed position, each petal (30, 32, 34, 36) of the at least one primary mirror (12, 112) is separately attached to the hub (24, 124) with a hinge connection comprising a hinge member and an aperture of the petal within which the hinge member resides, characterized by a deployment engine assembly (16, 116) operable to power the deployment assembly using stored mechanical energy; and the hinge connection has a gap allowing for a radial movement of the petals (30, 32, 34, 36) with respect to a rotation about the hinge connection when in the deployed position that permits the kinematic or semi-kinematic interface of the deployment assembly rather than the hinge connection to control alignment of the petals (30, 32, 34, 36).
A jettisonable emergency exit for a vehicle, comprising an outer peripheral edge that is adapted to be accommodated in an associated frame provided in a vehicle, wherein at least one emergency exit retention means and at least one emergency exit locking device (10, 11) are integrated into said outer peripheral edge, said at least one emergency exit retention means comprising at least one non-retractable pivot finger around which said jettisonable emergency exit is rotatable in an emergency mode, and said at least one emergency exit locking device (10, 11) comprising at least one locking hook (10c, 11d) that is adapted for locking said jettisonable emergency exit in an associated locking position in normal operation mode and for releasing said jettisonable emergency exit in an associated retracted position in said emergency mode, said at least one locking hook (10c, 11d) being retractable from said associated locking position into said associated retracted position by an emergency exit activation means, characterised in said jettisonable emergency exit being adapted for being jettisoned from said associated frame in an outward direction of said vehicle and further characterised in that the emergency exit activation means is an emergency exit activation strap.
A golden finger, comprising a printed circuit board, PCB, surface layer and at least one PCB inner layer, wherein an edge of the PCB in the golden finger adopts a sidewall metallization structure, and the metal foil of the PCB inner layer is connected to the metal foil of the PCB surface layer through the sidewall metallization structure, so that a current-carrying channel of the golden finger passes through the PCB surface layer and the PCB inner layer, wherein the edge of the PCB comprises an edge of the PCB surface layer, an edge of the PCB inner layer, an edge of a PCB pin, and an edge after an interior of the PCB in the golden finger is notched.
Metal-cutting machine for flat material parts, comprising: - a machine frame, - a lower beam having a thereto assigned support surface, which is connected via a sliding surface to the top side of the lower beam, - an upper beam, - at least one machining tool (21, 22, 23) assigned to the lower beam and held on the machine frame, - a control unit for controlling a machining cycle with the machining tools (21, 22, 23), and - a support unit, on which the flat material part to be machined can be placed for a positioning in the machining machine, wherein the support unit is movable out of a parking position, in a direction of extension, between the open machining tools (21, 22, 23) into a loading and removal position and back again, characterized in that the support unit, remote from the beams, is a feed table, on one side resiliently connected about a pivot axis that is pivotable parallel to the beam orientation, wherein a free end of it rests in the parking position on the support surface assigned to the lower beam, wherein the bottom edge of the feed table slides from the support surface over the sliding surface and beyond the top side of the lower beam, and the top side forms the support for the bottom side of the feed table in the loading and removal position for a flat material part. wherein a clamped end of the receiving unit is movable by means of the drive, in the direction of extension, into its loading and removal position, - a drive connected to the support unit, - at least one spring, with which the support unit is connected to the drive, - a machine frame, - a lower beam having a thereto assigned support surface, which is connected via a sliding surface to the top side of the lower beam, - an upper beam, - at least one machining tool (21, 22, 23) assigned to the lower beam and held on the machine frame, - a control unit for controlling a machining cycle with the machining tools (21, 22, 23), and - a support unit, on which the flat material part to be machined can be placed for a positioning in the machining machine, - a drive connected to the support unit, - at least one spring, with which the support unit is connected to the drive,