mhurhangee/ep-ind-claims huggingface dataset:
A pipe machining system configured to machine a pipe, comprising: a positioning apparatus comprising a body, a plurality of coupling members provided on the body, each coupling member having a foot configured to engage the pipe and each coupling member including a driven member coupled to the foot; a pipe machining apparatus configured to be mounted to the pipe and to perform a cutting operation on the pipe; and a plurality of adjustment members coupled to the positioning apparatus and to the pipe machining apparatus, each adjustment member including a driven member and being configured to move the pipe machining apparatus relative to the positioning apparatus and relative to the pipe; a position tracking apparatus configured to identify a position of the pipe machining apparatus; and a controller in communication with the position tracking apparatus, the plurality of coupling members and the plurality of adjustment members for receiving data from the position tracking apparatus, from the plurality of coupling members and from the plurality of adjustment members and for transmitting data to each driven member (68, 68') to cause the driven member (68, 68') to selectively act. a positioning apparatus comprising a body, a plurality of coupling members provided on the body, each coupling member having a foot configured to engage the pipe and each coupling member including a driven member coupled to the foot; a pipe machining apparatus configured to be mounted to the pipe and to perform a cutting operation on the pipe; and a plurality of adjustment members coupled to the positioning apparatus and to the pipe machining apparatus, each adjustment member including a driven member and being configured to move the pipe machining apparatus relative to the positioning apparatus and relative to the pipe; a position tracking apparatus configured to identify a position of the pipe machining apparatus; and a controller in communication with the position tracking apparatus, the plurality of coupling members and the plurality of adjustment members for receiving data from the position tracking apparatus, from the plurality of coupling members and from the plurality of adjustment members and for transmitting data to each driven member (68, 68') to cause the driven member (68, 68') to selectively act.
A method implemented by a network traffic management system comprising one or more network traffic management apparatuses, server devices, or client devices, the method comprising: intercepting a multipath protocol request from a requesting host for a connection to a service, the multipath protocol request intercepted by an intermediary server; selecting a target host different than the intermediary server to provide the service; sending a multipath protocol packet from the intermediary server to the requesting host, the multipath protocol packet adding a subflow of the connection using an address of the target host, the subflow enabling a path between the requesting host and the target host that does not traverse the intermediary server; characterized in that the method further comprises splitting a network flow on the connection between the subflow that does not traverse the intermediary server and a subflow that traverses the intermediary server. intercepting a multipath protocol request from a requesting host for a connection to a service, the multipath protocol request intercepted by an intermediary server; selecting a target host different than the intermediary server to provide the service; sending a multipath protocol packet from the intermediary server to the requesting host, the multipath protocol packet adding a subflow of the connection using an address of the target host, the subflow enabling a path between the requesting host and the target host that does not traverse the intermediary server; characterized in that the method further comprises splitting a network flow on the connection between the subflow that does not traverse the intermediary server and a subflow that traverses the intermediary server.
Vapor extractor device with a vapor extractor hood that can be retracted and extended by means of a drive motor, characterised in that the vapor extractor device is set up to switch from a high-speed mode into a slow-speed mode, in which the vapor extractor hood drives more slowly, by reducing a drive speed of the drive motor when the vapor extractor hood is retracted if a first predetermined retraction position is reached.
Rotation head for a packaging machine, in particular for small-sized confectionery products 1, comprising a plurality of pairs of holding jaws and a plurality of divisible folding channels, each pair of holding jaws having assigned thereto a divisible folding channel, characterized in that the divisible folding channel, which moves during operation from an open position into a closed position, is arranged to be longitudinally movable on the rotation head radially with respect to the axis of rotation of the rotation head for exerting a folding movement.
An exhaust passage of an internal combustion engine with a catalyst structure provided therein, the catalyst structure comprising: a base member which is formed by combining wire-shaped members, wherein the wire-shaped members do not include any wire-shaped member which is arranged to be orthogonal to a flow direction of an exhaust gas, said flow direction of the exhaust gas being a direction parallel to a central axis of the catalyst structure, and the wire-shaped members include wire-shaped members which are arranged obliquely with respect to the flow direction of the exhaust gas, and wherein the base member is provided with a plurality of inclined portions at which the wire-shaped members are arranged obliquely with respect to the flow direction of the exhaust gas, characterized in that the base member is provided with: intersecting portions at each of which the plurality of inclined portions intersect at both ends of each of the inclined portions, wherein: the plurality of inclined portions are arranged radially around a center of the intersecting portion on an upstream side and a downstream side in the flow direction of the exhaust gas at each of the intersecting portions. a base member which is formed by combining wire-shaped members, wherein the wire-shaped members do not include any wire-shaped member which is arranged to be orthogonal to a flow direction of an exhaust gas, said flow direction of the exhaust gas being a direction parallel to a central axis of the catalyst structure, and the wire-shaped members include wire-shaped members which are arranged obliquely with respect to the flow direction of the exhaust gas, and wherein the base member is provided with a plurality of inclined portions at which the wire-shaped members are arranged obliquely with respect to the flow direction of the exhaust gas, characterized in that the base member is provided with: intersecting portions at each of which the plurality of inclined portions intersect at both ends of each of the inclined portions, wherein: the plurality of inclined portions are arranged radially around a center of the intersecting portion on an upstream side and a downstream side in the flow direction of the exhaust gas at each of the intersecting portions.
A method for extending automated penetration testing of a target network comprising, the steps of: a. computing, by an automated system, a scenario, wherein the step of computing the scenario comprises the steps of: i. translating a workspace having at least one target computer in the target network to a planning definition language; ii. translating penetration modules available in a penetration testing framework to a planning definition language; and iii. defining a goal in the target network and translating the goal into a planning definition language; b. building, by the automated system, a knowledge base with information regarding the target network, properties of hosts in the network, parameters and running history of modules in the penetration testing framework; and c. running, by the automated system, an attack plan solver module, wherein the attack plan solver module performs the steps of: i. running an attack planner using a new scenario as input, wherein the new scenario is an optimized scenario produced based on the scenario and the information in the knowledge base, to produce at least one attack plan that achieves the goal; and ii. executing actions defined in the at least one attack plan against the target network from the penetration testing framework. a. computing, by an automated system, a scenario, wherein the step of computing the scenario comprises the steps of: i. translating a workspace having at least one target computer in the target network to a planning definition language; ii. translating penetration modules available in a penetration testing framework to a planning definition language; and iii. defining a goal in the target network and translating the goal into a planning definition language; i. translating a workspace having at least one target computer in the target network to a planning definition language; ii. translating penetration modules available in a penetration testing framework to a planning definition language; and iii. defining a goal in the target network and translating the goal into a planning definition language; b. building, by the automated system, a knowledge base with information regarding the target network, properties of hosts in the network, parameters and running history of modules in the penetration testing framework; and c. running, by the automated system, an attack plan solver module, wherein the attack plan solver module performs the steps of: i. running an attack planner using a new scenario as input, wherein the new scenario is an optimized scenario produced based on the scenario and the information in the knowledge base, to produce at least one attack plan that achieves the goal; and ii. executing actions defined in the at least one attack plan against the target network from the penetration testing framework. i. running an attack planner using a new scenario as input, wherein the new scenario is an optimized scenario produced based on the scenario and the information in the knowledge base, to produce at least one attack plan that achieves the goal; and ii. executing actions defined in the at least one attack plan against the target network from the penetration testing framework.
A method for providing an anti-scatter grid for a radiographic imaging device, the method comprising: forming, by an additive manufacturing process, a grid pattern in accordance with a product specification of the anti-scatter grid to be provided; and forming, by an additive manufacturing process, a number of structural modifications in or at the grid pattern in a manner making the number of structural modifications image-based recognizable when the anti-scatter grid is viewed according to its intended use in a viewing direction from a radiation source of the radiographic imaging device, and in a unique identification pattern creating a unique identifier to make the anti-scatter grid to be provided identifiable among one or more others. forming, by an additive manufacturing process, a grid pattern in accordance with a product specification of the anti-scatter grid to be provided; and forming, by an additive manufacturing process, a number of structural modifications in or at the grid pattern in a manner making the number of structural modifications image-based recognizable when the anti-scatter grid is viewed according to its intended use in a viewing direction from a radiation source of the radiographic imaging device, and in a unique identification pattern creating a unique identifier to make the anti-scatter grid to be provided identifiable among one or more others.
A seating monitoring system, comprising: at least one sensor (105; 306; 513) associated with at least one seat (102; 507); the sensor(s) (105; 306; 513) configured to communicate with at least one control circuit (108; 302; 506); and wherein the control circuit (108; 302; 506) is configured to determine the occupancy states of the seats (102; 507) using input from the associated sensors (105; 306; 513), characterized in that the control circuit is further configured to adjust the determination of the occupancy state of each of the passenger seats according to a measured altitude input. at least one sensor (105; 306; 513) associated with at least one seat (102; 507); the sensor(s) (105; 306; 513) configured to communicate with at least one control circuit (108; 302; 506); and wherein the control circuit (108; 302; 506) is configured to determine the occupancy states of the seats (102; 507) using input from the associated sensors (105; 306; 513), characterized in that the control circuit is further configured to adjust the determination of the occupancy state of each of the passenger seats according to a measured altitude input.
A control method for an electronic cigarette, the electronic cigarette defining an airflow channel inside and having a heating assembly, the method comprising the steps of: sensing a pressure or pressure difference in the airflow channel to generate a corresponding electrical signal; generating a corresponding control signal according to the electrical signal; and characterised by comprising the step of generating a corresponding output power according to the control signal and outputting the output power to the heating assembly.
Method for enriching IgA from an IgA-comprising composition, comprising the following steps: (a) loading the composition onto an anion exchanger under conditions that allow the IgA to bind; (b) applying an alkaline elution solution comprising a substance selected from the group consisting of tartaric acid or tartrate, oxalic acid or oxalate, malonic acid or malonate, maleic acid or maleate, and citric acid or citrate; (c) optionally applying an acidic elution solution that comprises a strong competitor for the anion exchanger wherein the strong competitor for the anion exchanger is selected from citrate, benzenesulfonic acid, benzoic acid and salts of hydrogen sulfates or mixtures thereof, wherein protein eluted during step (b) is enriched for monomeric IgA. (a) loading the composition onto an anion exchanger under conditions that allow the IgA to bind; (b) applying an alkaline elution solution comprising a substance selected from the group consisting of tartaric acid or tartrate, oxalic acid or oxalate, malonic acid or malonate, maleic acid or maleate, and citric acid or citrate; (c) optionally applying an acidic elution solution that comprises a strong competitor for the anion exchanger wherein the strong competitor for the anion exchanger is selected from citrate, benzenesulfonic acid, benzoic acid and salts of hydrogen sulfates or mixtures thereof,
A coupler for optical communication comprising: a first optical waveguide of a first semiconductor material formed from a first semiconductor layer; a second optical waveguide of a second semiconductor material and formed from a second semiconductor layer formed over the first semiconductor layer; wherein the first optical waveguide is formed over the second optical waveguide, the first optical waveguide having a first end to optically couple to a first external device and second end, the second end having a taper with a tip at the second end; wherein the second optical waveguide is optically coupled to the taper of the first optical waveguide, the second optical waveguide having a first end and a second end, the second end having a taper with a tip at the second end; and a third optical waveguide of a third semiconductor material and formed over the second optical waveguide, the third optical waveguide being optically coupled to the taper of the second optical waveguide, the third optical waveguide having a larger cross-sectional area than the first and the second optical waveguides (103,107) to optically couple to a second external device having a larger cross-sectional area than the first external device, wherein the first, second and third semiconductor layers are different layers. a first optical waveguide of a first semiconductor material formed from a first semiconductor layer; a second optical waveguide of a second semiconductor material and formed from a second semiconductor layer formed over the first semiconductor layer; wherein the first optical waveguide is formed over the second optical waveguide, the first optical waveguide having a first end to optically couple to a first external device and second end, the second end having a taper with a tip at the second end; wherein the second optical waveguide is optically coupled to the taper of the first optical waveguide, the second optical waveguide having a first end and a second end, the second end having a taper with a tip at the second end; and a third optical waveguide of a third semiconductor material and formed over the second optical waveguide, the third optical waveguide being optically coupled to the taper of the second optical waveguide, the third optical waveguide having a larger cross-sectional area than the first and the second optical waveguides (103,107) to optically couple to a second external device having a larger cross-sectional area than the first external device,
Steel flat product comprising a core layer made of a steel of in wt.%: C: 0.3-0.5%, Si: 0.150-0.350%, Mn: 1.100-1.400% Al: 0.020-0.050%, Cr: 0.100-0.500%, Ti: 0.020-0.040% B: 0.002-0.004% residual iron and unavoidable impurities due to production, wherein these impurities comprise P: up to 0.020%, S: up to 0.003%, Cu: up to 0.100%, Mo: up to 0.050%, N: up to 0.007%, Ni: up to 0.100%, Nb: up to 0.003%, V: up to 0.010%, Sn: up to 0.030%, Ca: up to 0.005%, and having a tensile strength of more than 1500 MPa in the state obtained after hot press hardening, as well as a cover layer firmly bonded to the core layer consisting of a steel of in wt.-%: C: up to 0.09%, Si: up to 0.7%, Mn: 0.10-1.9% Al: up to 0.06%, Cr: up to 0.4%, Nb: up to 0.025%, Ti: up to 0.13% residual iron and unavoidable impurities due to production, wherein the impurities comprise P: up to 0.025%, S: up to 0.015%, Cu: up to 0.15%, Mo: up to 0.05%, N: up to 0.006%, Ni: up to 0.15%, V: up to 0.02%, B: up to 0.001%, Sn: up to 0.04%, and Ca: up to 0.003%, wherein the flat steel product in the region of the cover layer in the state obtained after hot press hardening has a tensile strength equal to at most half the tensile strength of the steel of the core layer in the fully hardened state, and whose elongation A80 corresponds to at least 1.5 times the elongation A80 of the core layer in the completely hardened state, and wherein the core layer occupies 60 - < 80% of the thickness of the steel flat product. C: 0.3-0.5%, Si: 0.150-0.350%, Mn: 1.100-1.400% Al: 0.020-0.050%, Cr: 0.100-0.500%, Ti: 0.020-0.040% B: 0.002-0.004% C: up to 0.09%, Si: up to 0.7%, Mn: 0.10-1.9% Al: up to 0.06%, Cr: up to 0.4%, Nb: up to 0.025%, Ti: up to 0.13%
A method of encoding data representative of a haptic effect, the haptic effect being associated with an immersive content, wherein the method being performed by a processor comprises: obtaining a first information representative of whether the haptic effect depends on an orientation of a body model in relation to the immersive content, the body model being representative of at least a part of a body of a user; obtaining a second information identifying at least a first part of the body model targeted by the haptic effect; obtaining a third information representative of a reference orientation of the body model in relation to the immersive content, wherein the reference orientation corresponds to a position of the body model corresponding to the first part of the body model targeted by the haptic effect; obtaining identification of the body model associated with a type of haptic effect to be rendered on the user; encoding the first information, the second information, and the identification into a bitstream; encoding the third information into the bitstream if the first information indicates that the haptic effect depends on the orientation of the body model; and transmitting the bitstream. obtaining a first information representative of whether the haptic effect depends on an orientation of a body model in relation to the immersive content, the body model being representative of at least a part of a body of a user; obtaining a second information identifying at least a first part of the body model targeted by the haptic effect; obtaining a third information representative of a reference orientation of the body model in relation to the immersive content, wherein the reference orientation corresponds to a position of the body model corresponding to the first part of the body model targeted by the haptic effect; obtaining identification of the body model associated with a type of haptic effect to be rendered on the user; encoding the first information, the second information, and the identification into a bitstream; encoding the third information into the bitstream if the first information indicates that the haptic effect depends on the orientation of the body model; and transmitting the bitstream.
Concealed-type support arrangement for brackets, consoles, shelves, and the like, comprising a longitudinal mounting bracket (202, 302) adapted to be attached to a wall, a transverse support arm (203, 304) capable of being inserted in a receptacle provided in a shelf (204, 305), adjustment means for adjusting the position of said support arm (203, 304) relative to said mounting bracket (202, 302), characterized in that it further comprises a movable member (205, 306) accommodated in a housing body (206, 307) defined by said mounting bracket (202, 302), and provided with a threaded bore (207, 308) to rotatably engage a corresponding threaded portion (208, 309) of said support arm (203, 304), coupling means (209, 310) adapted to block, i.e. firmly retain said support arm (203, 304) in the bracket (202, 302) transversally relative thereto, a threaded member engaging said movable member (205, 306) and adapted to cooperate with said housing body (206, 307) or a first longitudinally extending serration provided on said movable member cooperating with a second longitudinally extending serration provided inside said housing body, to guide, i.e. displace said movable member (205, 306) longitudinally within said housing body (206, 307) so as to adjust the longitudinal position of the arm (203, 304) along the bracket (202, 302), guide means (211, 313) provided in said housing body (206, 307) and adapted to cooperate with said movable member (205, 306), said arm (203, 304), through said threaded portion (208, 309) thereof, is adapted to cause said movable member (205, 306) to slide transversally along said guide means (211, 313) so that said movable member (205, 306) is rotated about a longitudinal axis, thereby adjusting the inclination of the support arm (203, 304) relative to the mounting bracket (202, 302).
Tooth wheel having a compensating function for compensating, by use of a divided toothing, tooth flank play in a meshing engagement with a second toothed wheel, said toothed wheel having at least one split along which a first toothed wheel half comprising a first section of the divided toothing and a second toothed wheel half comprising a second section of the divided toothing are arranged so as to be able to rotate relative to one another, the toothed wheel halves (4, 5) being provided to be arrested relative to one another by means of an anti-rotation system which is characterized in that the activated anti-rotation system, prevents mutual rotation of the toothed wheel halves (4, 5) wherein, when said anti-rotation system is activated, the first and the second section (6, 7) of the divided toothing are arranged relative to each other in a flush manner whereas, when the anti-rotation system is not activated, said first and said second section (6, 7) of the divided toothing are arranged to be offset to one another, both sections (6, 7) being tensioned relative to one another by means of a resilient element, and the inactive anti-rotation system remaining in the toothed wheel while said toothed wheel is in operation.