mhurhangee/ep-ind-claims huggingface dataset:
A computer-implemented method for implementing communications between a Management Controller (102; 202; 302; 702; 902; 1002) and a Network Controller (104; 204; 304; 704; 904), the method comprising: establishing Internet Protocol connectivity between the MC (102; 202; 302; 702; 902; 1002) and the NC (104; 204; 304; 704; 904) using Network Controller Sideband Interface (NC-SI) control packets (438; 646; 648; 738), wherein establishing IP connectivity between the MC (102; 202; 302; 702; 902; 1002) and the NC (104; 204; 304; 704; 904) using NC-SI control packets (438; 646; 648; 738) involves at least one of 1) passing an IP address from the MC (102; 202; 302; 702; 902; 1002) to the NC (104; 204; 304; 704; 904) via an NC-SI control packet (438; 646; 648; 738), and 2) utilizing the NC-SI control packets (438; 646; 648; 738) to trigger IPv6 stateless autoconfiguration functionality between the MC (102; 202; 302; 702; 902; 1002) and the NC (104s; 204; 304; 704; 904); communicating between the MC (102; 202; 302; 702; 902; 1002) and the NC (104; 204; 304; 704; 904) via an NC-SI (110; 210; 910; 1010) and the established IP connectivity, wherein communicating between the MC and the NC involves NC-SI local pass-through packets that are communicated between an IP address of the MC and an IP address of the NC. establishing Internet Protocol connectivity between the MC (102; 202; 302; 702; 902; 1002) and the NC (104; 204; 304; 704; 904) using Network Controller Sideband Interface (NC-SI) control packets (438; 646; 648; 738), wherein establishing IP connectivity between the MC (102; 202; 302; 702; 902; 1002) and the NC (104; 204; 304; 704; 904) using NC-SI control packets (438; 646; 648; 738) involves at least one of 1) passing an IP address from the MC (102; 202; 302; 702; 902; 1002) to the NC (104; 204; 304; 704; 904) via an NC-SI control packet (438; 646; 648; 738), and 2) utilizing the NC-SI control packets (438; 646; 648; 738) to trigger IPv6 stateless autoconfiguration functionality between the MC (102; 202; 302; 702; 902; 1002) and the NC (104s; 204; 304; 704; 904); communicating between the MC (102; 202; 302; 702; 902; 1002) and the NC (104; 204; 304; 704; 904) via an NC-SI (110; 210; 910; 1010) and the established IP connectivity, wherein communicating between the MC and the NC involves NC-SI local pass-through packets that are communicated between an IP address of the MC and an IP address of the NC.
A computer-implemented method for selecting a planned route for a vehicle, the method comprising: receiving (S21, S33) at least one location to be visited by the vehicle; receiving (S22, S34) information relating to an amount of solar radiation that can be received by the vehicle in a road network including a starting location and the received at least one location to be visited by the vehicle; analysing (S23, S35) the received information to determine the amount of solar radiation that can be received by the vehicle in the road network; identifying a planned route starting from the starting location and including the at least one location to be visited by the vehicle based on the analysis; identifying (S36, S37) a shortest route starting from the starting location and including the at least one location to be visited by the vehicle; characterised by comparing the planned route against the shortest route by comparing an amount of electrical power required to navigate the vehicle along the planned route with an amount of electrical power required to navigate the vehicle along the shortest route; and automatically adjusting the planned route based on the comparison of the planned route and the shortest route. receiving (S21, S33) at least one location to be visited by the vehicle; receiving (S22, S34) information relating to an amount of solar radiation that can be received by the vehicle in a road network including a starting location and the received at least one location to be visited by the vehicle; analysing (S23, S35) the received information to determine the amount of solar radiation that can be received by the vehicle in the road network; identifying a planned route starting from the starting location and including the at least one location to be visited by the vehicle based on the analysis; identifying (S36, S37) a shortest route starting from the starting location and including the at least one location to be visited by the vehicle; characterised by comparing the planned route against the shortest route by comparing an amount of electrical power required to navigate the vehicle along the planned route with an amount of electrical power required to navigate the vehicle along the shortest route; and automatically adjusting the planned route based on the comparison of the planned route and the shortest route.
A bi-angle pliable tape for use in forming a composite laminate structure, the bi-angle pliable tape consisting of: a longitudinal axis extending in a unidirectional machine direction and corresponding to a primary axis of the bi-angle pliable tape; a first ply comprising fibers extending in a first orientation, the first orientation being offset relative to the longitudinal axis at a first angle of less than 30°; and a second ply comprising fibers extending in a second orientation, the second orientation being opposite to the first orientation relative to the unidirectional machine direction and the primary axis of the bi-angle pliable tape, wherein the first ply and the second ply are secured substantially adjacently relative to one another by one or more yarns so as to provide a non-crimped configuration such that the bi-angle tape defines a pliable structure, the one or more yarns being oriented substantially in a transverse direction relative to the primary axis of the bi-angle pliable tape, the pliable structure being configured to permit relative movement of the first and second plies relative to one another upon subjection to a load or force capable of introducing scissoring into the configuration. a longitudinal axis extending in a unidirectional machine direction and corresponding to a primary axis of the bi-angle pliable tape; a first ply comprising fibers extending in a first orientation, the first orientation being offset relative to the longitudinal axis at a first angle of less than 30°; and a second ply comprising fibers extending in a second orientation, the second orientation being opposite to the first orientation relative to the unidirectional machine direction and the primary axis of the bi-angle pliable tape,
A baling machine comprising: a frame; a baling chamber for creating a bale; a wrap material bay for storing wrap material to be fed into the baling chamber; and a transfer device (115; 315) for transferring a bale wrap material supply roll to the wrap material bay, the transfer device comprising: an arm (132; 332) having a first end and a second end, the arm comprising a first member and a second member, the first member being pivotally attached to the second member; characterized in that it further comprises a pivot (134; 334, 335) positioned at the first end of the arm (132; 332), the pivot (134; 334, 335) being secured to the baling machine; and a lifting device positioned on the arm, wherein the lifting device is configured to be attached to a bale wrap material supply roll. a frame; a baling chamber for creating a bale; a wrap material bay for storing wrap material to be fed into the baling chamber; and a transfer device (115; 315) for transferring a bale wrap material supply roll to the wrap material bay, the transfer device comprising: an arm (132; 332) having a first end and a second end, the arm comprising a first member and a second member, the first member being pivotally attached to the second member; characterized in that it further comprises a pivot (134; 334, 335) positioned at the first end of the arm (132; 332), the pivot (134; 334, 335) being secured to the baling machine; and a lifting device positioned on the arm, wherein the lifting device is configured to be attached to a bale wrap material supply roll. an arm (132; 332) having a first end and a second end, the arm comprising a first member and a second member, the first member being pivotally attached to the second member; characterized in that it further comprises a pivot (134; 334, 335) positioned at the first end of the arm (132; 332), the pivot (134; 334, 335) being secured to the baling machine; and a lifting device positioned on the arm, wherein the lifting device is configured to be attached to a bale wrap material supply roll.
Apparatus (11, 111, 311, 411) configured to capture a first image and to project a second image, the apparatus comprising: - a support (13, 113, 213, 313, 413), - a first mirror (131, 331) configured to capture a first image (24a, 124a) of a work region (23, 123, 223) and reflect said image to a camera, the first mirror (131, 331) being mounted on the support (13, 113, 213, 313, 413), - a projector (17, 317) configured to project, or a second mirror (237, 437) configured to reflect and project, a second image on the work region (23, 123, 223), the projector (17, 317) or the second mirror (237, 437) being mounted on the support (13, 113, 213, 313, 413), - characterized in that the support (13, 113, 213, 313, 413) is configured to receive a multimedia tablet or the like (27, 327) that is provided with a camera, the first mirror (131, 331) being movable so as to come to be opposite the camera of the multimedia tablet or the like (27, 327). - a support (13, 113, 213, 313, 413), - a first mirror (131, 331) configured to capture a first image (24a, 124a) of a work region (23, 123, 223) and reflect said image to a camera, the first mirror (131, 331) being mounted on the support (13, 113, 213, 313, 413), - a projector (17, 317) configured to project, or a second mirror (237, 437) configured to reflect and project, a second image on the work region (23, 123, 223), the projector (17, 317) or the second mirror (237, 437) being mounted on the support (13, 113, 213, 313, 413), - characterized in that the support (13, 113, 213, 313, 413) is configured to receive a multimedia tablet or the like (27, 327) that is provided with a camera, the first mirror (131, 331) being movable so as to come to be opposite the camera of the multimedia tablet or the like (27, 327).
Method for providing increased exhaust temperature and lowered emissions at engine part loads amounting to 25% or less of the maximum engine load in a diesel engine, said engine comprising at least one cylinder with a reciprocating piston, has a variable compression volume, VCR, and at least one exhaust valve and at least one intake valve, the intake valve being provided with variable valve timing, VVT, wherein an engine control system, based on the current need for engine power, determines when the intake valve is to open and close, and to which size the compression volume is to be adjusted for the temperature in the exhaust gas at evacuation to be sufficiently high for the intended cleaning function of the present exhaust aftertreatment, characterized in that the engine control system, using the functions for VVT and VCR, at engine loads amounting to 25% or less of said maximum engine load, controls the cylinder pressure during the working stroke to reach or fall below the present atmospheric pressure before the piston reaches the bottom dead center, wherein the intake valve is opened when said cylinder pressure reaches or falls below said present atmospheric pressure to introduce air to be mixed with combustion gases.
An endoscope comprising: an insertion part to be inserted into a subject; a distal end surface provided at a distal end of the insertion part; an observation window provided on the distal end surface to observe an interior of the subject; a nozzle provided on the distal end surface to jet a fluid toward the observation window; and a plurality of protective projections (62,64,66,92,94) disposed at an outer peripheral part of the distal end surface and provided to project forward of the observation window; wherein, in all combinations of imaginary planes capable of coming into contact with the plurality of protective projections from a front side, the imaginary planes are disposed forward of the observation window, the imaginary planes are disposed at the same height as the nozzle or forward of the nozzle; the observation window and at least a portion of the nozzle are included within an outer ring region surrounded by the plurality of protective projections, in plan view of the distal end surface; wherein the distal end surface has a first surface on which the nozzle is disposed and a second surface which is provided at a projecting part projecting forward from the first surface and on which the observation window is disposed; and characterised in that the plurality of protective projections include a first protective projection provided on the second surface, and in that any said protective projection is disposed at a position offset to one side of an imaginary straight line connecting a center of the nozzle and a center of the observation window. an insertion part to be inserted into a subject; a distal end surface provided at a distal end of the insertion part; an observation window provided on the distal end surface to observe an interior of the subject; a nozzle provided on the distal end surface to jet a fluid toward the observation window; and a plurality of protective projections (62,64,66,92,94) disposed at an outer peripheral part of the distal end surface and provided to project forward of the observation window; wherein, in all combinations of imaginary planes capable of coming into contact with the plurality of protective projections from a front side, the imaginary planes are disposed forward of the observation window, the imaginary planes are disposed at the same height as the nozzle or forward of the nozzle; the observation window and at least a portion of the nozzle are included within an outer ring region surrounded by the plurality of protective projections, in plan view of the distal end surface; wherein the distal end surface has a first surface on which the nozzle is disposed and a second surface which is provided at a projecting part projecting forward from the first surface and on which the observation window is disposed; and characterised in that the plurality of protective projections include a first protective projection provided on the second surface, and in that any said protective projection is disposed at a position offset to one side of an imaginary straight line connecting a center of the nozzle and a center of the observation window.
A method for changing an application in a BGP, Border Gateway Protocol, session, said session being established between a first router and a second router, and an application being enabled in said session; the method comprising: when changing an application, the first router changing a local capability value stored on a memory of the first router to a value which supports the changed application and changing an address family to correspond with the changed application wherein changing the application comprises adding a new application, and characterized in that the method further comprises: the first router sending route information corresponding to the changed application to the second router, the first router sending a Refresh message to the second router; the Refresh message requesting the second router to resend route information of a designated address corresponding to the changed application; and the first router receiving the route information corresponding to the changed application from the second router. the first router receiving a Refresh message from the second router; and the first router resending route information of a designated address corresponding to the changed application to the second router. when changing an application, the first router changing a local capability value stored on a memory of the first router to a value which supports the changed application and changing an address family to correspond with the changed application wherein changing the application comprises adding a new application, and characterized in that the method further comprises: the first router sending route information corresponding to the changed application to the second router, the first router sending a Refresh message to the second router; the Refresh message requesting the second router to resend route information of a designated address corresponding to the changed application; and the first router receiving the route information corresponding to the changed application from the second router. the first router receiving a Refresh message from the second router; and the first router resending route information of a designated address corresponding to the changed application to the second router. the first router sending route information corresponding to the changed application to the second router, the first router sending a Refresh message to the second router; the Refresh message requesting the second router to resend route information of a designated address corresponding to the changed application; and the first router receiving the route information corresponding to the changed application from the second router. the first router receiving a Refresh message from the second router; and the first router resending route information of a designated address corresponding to the changed application to the second router.
An apparatus, comprising: (a) a shaft assembly, wherein the shaft assembly defines a longitudinal axis; (b) an end effector positioned at a distal end of the shaft assembly, wherein a portion of the end effector is offset from the longitudinal axis; and (c) a sensor, wherein the sensor is configured to generate a signal in response to a magnetic field, wherein the signal is configured to indicate a position of the end effector within three-dimensional space, wherein the sensor is coaxially positioned about the longitudinal axis; and wherein the shaft assembly defines a lumen, wherein the end effector defines an opening in communication with the lumen; and characterised in that the distance and positioning between the sensor and the end effector are constant; and wherein the opening is positioned on the longitudinal axis. (a) a shaft assembly, wherein the shaft assembly defines a longitudinal axis; (b) an end effector positioned at a distal end of the shaft assembly, wherein a portion of the end effector is offset from the longitudinal axis; and (c) a sensor, wherein the sensor is configured to generate a signal in response to a magnetic field, wherein the signal is configured to indicate a position of the end effector within three-dimensional space, wherein the sensor is coaxially positioned about the longitudinal axis; and wherein the shaft assembly defines a lumen, wherein the end effector defines an opening in communication with the lumen; and characterised in that the distance and positioning between the sensor and the end effector are constant; and wherein the opening is positioned on the longitudinal axis. characterised in that the distance and positioning between the sensor and the end effector are constant; and wherein the opening is positioned on the longitudinal axis.
Coating composition, particularly for coating metallic or vitreous surfaces, comprising at least one silicate, at least one component having anti-adhesive properties, selected from the group of graphite, graphite compounds and metal sulfides, and at least one metal carbide, wherein the silicate is obtainable by a process comprising the hydrolysis and polycondensation of one or more silanes of the general formula R n SiX 4-n where the groups X are the same or different hydrolysable groups or hydroxyl groups, the radicals R are the same or different from one another and are hydrogen, alkyl, alkenyl and alkynyl groups having up to 12 carbon atoms and aryl, aralkyl and alkaryl groups having 6 to 10 carbon atoms and n is 0, 1 or 2, with the proviso that at least one silane where n = 1 or 2 is used, or oligomers derived therefrom, in the presence of a) at least one compound from the group of the oxides and hydroxides of the alkali metals and alkaline earth metals and optionally b) added nanoscale SiO 2 particles, in which the at least one compound from the group of the oxides and hydroxides of the alkali metals and alkaline earth metals comprises at least one oxide or hydroxide of Li, Na, K, Mg, Ca and/or Ba, in which the alkali metal or alkaline earth metal oxide or hydroxide is used in an amount such that the atom ratio Si:alkali metal or alkaline earth metal is in the range from 20:1 to 7:1. where the groups X are the same or different hydrolysable groups or hydroxyl groups, the radicals R are the same or different from one another and are hydrogen, alkyl, alkenyl and alkynyl groups having up to 12 carbon atoms and aryl, aralkyl and alkaryl groups having 6 to 10 carbon atoms and n is 0, 1 or 2, with the proviso that at least one silane where n = 1 or 2 is used, or oligomers derived therefrom, in the presence of a) at least one compound from the group of the oxides and hydroxides of the alkali metals and alkaline earth metals and optionally b) added nanoscale SiO 2 particles, a) at least one compound from the group of the oxides and hydroxides of the alkali metals and alkaline earth metals and optionally b) added nanoscale SiO 2 particles, in which the at least one compound from the group of the oxides and hydroxides of the alkali metals and alkaline earth metals comprises at least one oxide or hydroxide of Li, Na, K, Mg, Ca and/or Ba, in which the alkali metal or alkaline earth metal oxide or hydroxide is used in an amount such that the atom ratio Si:alkali metal or alkaline earth metal is in the range from 20:1 to 7:1.
A device for carrying out sample preparation for an analysis apparatus, in particular a chromatograph, comprising a sample vessel which can be closed by a self-sealing cover and comprises a sample compartment for receiving a substance to be examined, and comprising a holder which comprises a heating wire coil and into which the sample vessel with its sample compartment can be inserted in order to heat the substance to be examined, wherein the holder provided is a module container which can be closed with a closure cap and in the interior of which the sample vessel is inserted as an insertable container, comprising a power supply for the heating wire coil, characterized in that the power supply is based on a constant current control which is controlled proportionally by pulse width modulation, and in that the heating wire coil is integrated into the lower part of the module container, wherein the heating wire coil is connected to metal ring electrodes (21, 22) which are arranged on the bottom of the module container.
A method, comprising: measuring a temperature of a region of a dewar near a bottom of the dewar; determining whether the temperature of the region of the dewar near the bottom of the dewar is at or above a target temperature; and adding a liquid cryogen to the dewar if the temperature of the region of the dewar near the bottom of the dewar is at or above the target temperature, characterized in the further step of, after adding the liquid cryogen to the dewar, reducing a gas pressure in the dewar to solidify the cryogen. measuring a temperature of a region of a dewar near a bottom of the dewar; determining whether the temperature of the region of the dewar near the bottom of the dewar is at or above a target temperature; and adding a liquid cryogen to the dewar if the temperature of the region of the dewar near the bottom of the dewar is at or above the target temperature, characterized in the further step of, after adding the liquid cryogen to the dewar, reducing a gas pressure in the dewar to solidify the cryogen.