mhurhangee/patent-ind-claim-en huggingface dataset:
A method for tracking human targets, the method comprising: receiving data from a radar sensor of a radar ; processing the received data to detect human targets; identifying a first geometric feature of a first detected human target at a first time step, the first detected human target being associated to a first track, wherein identifying the first geometric feature comprises: performing a first empirical mode decomposition, EMD, on received data of the first time step associated with the first detected human target, identifying first intrinsic mode functions, IMFs, from the first EMD that are higher than a predetermined threshold, and sorting the first IMFs; identifying a second geometric feature of a second detected human target at a second time step, wherein identifying the second geometric feature comprises: performing second EMD on received data of the second time step associated with the second detected human target, identifying second IMFs from the second EMD that are higher than the predetermined threshold, and sorting the second IMFs; determining an error value based on the first and second geometric features, wherein determining the error value comprises determining a mean square error based on the sorted first and second IMFs; and associating the second detected human target to the first track based on the error value. receiving data from a radar sensor of a radar ; processing the received data to detect human targets; identifying a first geometric feature of a first detected human target at a first time step, the first detected human target being associated to a first track, wherein identifying the first geometric feature comprises: performing a first empirical mode decomposition, EMD, on received data of the first time step associated with the first detected human target, identifying first intrinsic mode functions, IMFs, from the first EMD that are higher than a predetermined threshold, and sorting the first IMFs; performing a first empirical mode decomposition, EMD, on received data of the first time step associated with the first detected human target, identifying first intrinsic mode functions, IMFs, from the first EMD that are higher than a predetermined threshold, and sorting the first IMFs; identifying a second geometric feature of a second detected human target at a second time step, wherein identifying the second geometric feature comprises: performing second EMD on received data of the second time step associated with the second detected human target, identifying second IMFs from the second EMD that are higher than the predetermined threshold, and sorting the second IMFs; performing second EMD on received data of the second time step associated with the second detected human target, identifying second IMFs from the second EMD that are higher than the predetermined threshold, and sorting the second IMFs; determining an error value based on the first and second geometric features, wherein determining the error value comprises determining a mean square error based on the sorted first and second IMFs; and associating the second detected human target to the first track based on the error value.
A process of increasing syngas production during an upgradation process of petroleum residual oil containing high concentration of concarbon and heavy metals, the process comprising: a) cracking the fluidized petroleum residual oil in Riser; b) separating cracked products from spent upgrading agent using stripper; c) introducing separated spent upgrading agent from a Riser to a Reformer along with steam, hydrocarbon and air or oxygen containing gases for production of syngas; d) burning of residual coke present on partially rejuvenated upgrading agent obtained from the Reformer in a Combustor; e) introducing rejuvenated upgrading agent from the Combustor, and a hydrocarbon in presence of steam and air or oxygen containing gases to an Auxiliary Reformer having cerium, nickel and rhodium based reforming catalyst of select size and shape for enhancing the hydrocarbon reactions for production of additional syngas; and f) circulating rejuvenated upgrading agent from the Auxiliary Reformer to the Riser; wherein, the rejuvenated upgrading material and the partially rejuvenated upgrading agent is a porous fluidizable micro spherical solid particles belonging to Geldart Group A classification; and wherein, the Riser is operated at an outlet temperature of 550°C to 650°C; the Reformer is operated at a temperature of 700°C to 850°C and pressure of 2-30 atm; the Combustor is operated at a temperature in the range of 750°C to 950°C; the Auxiliary Reformer is operated at a temperature range of 650°C to 750°C; and the temperature of the Auxiliary Reformer is maintained at least 50°C to 300°C below that of the combustor and 50°C to 100°C above the temperature of the Riser. a) cracking the fluidized petroleum residual oil in Riser; b) separating cracked products from spent upgrading agent using stripper; c) introducing separated spent upgrading agent from a Riser to a Reformer along with steam, hydrocarbon and air or oxygen containing gases for production of syngas; d) burning of residual coke present on partially rejuvenated upgrading agent obtained from the Reformer in a Combustor; e) introducing rejuvenated upgrading agent from the Combustor, and a hydrocarbon in presence of steam and air or oxygen containing gases to an Auxiliary Reformer having cerium, nickel and rhodium based reforming catalyst of select size and shape for enhancing the hydrocarbon reactions for production of additional syngas; and f) circulating rejuvenated upgrading agent from the Auxiliary Reformer to the Riser; wherein, the rejuvenated upgrading material and the partially rejuvenated upgrading agent is a porous fluidizable micro spherical solid particles belonging to Geldart Group A classification; and wherein, the Riser is operated at an outlet temperature of 550°C to 650°C; the Reformer is operated at a temperature of 700°C to 850°C and pressure of 2-30 atm; the Combustor is operated at a temperature in the range of 750°C to 950°C; the Auxiliary Reformer is operated at a temperature range of 650°C to 750°C; and the temperature of the Auxiliary Reformer is maintained at least 50°C to 300°C below that of the combustor and 50°C to 100°C above the temperature of the Riser.
A method for producing titanium powder containing a solid-soluted nitrogen, comprising the step of: heating titanium powder comprised of titanium particles in a nitrogen-containing atmosphere to dissolve nitrogen atoms and form a solid solution of the nitrogen atom in a matrix of the titanium particles, wherein pure Ti powder is used as a raw material, preferably with an average grain size of 28 μm, purity > 95%, and wherein the condition for forming the solid solution of the nitrogen atom is either (a) or (b) in the following: (a) nitrogen gas flow rate: 5L/min heating temperature: 500 - 600° C heating time: 60 min. - 120 min. nitrogen content of the titanium particle: 0.129 - 0.479 mass% (b) nitrogen gas flow rate: 3L/min heating temperature: 600° C heating time: 10 min. - 60 min. nitrogen content of the titanium particle: 0.225 - 0.518 mass% (a) nitrogen gas flow rate: 5L/min heating temperature: 500 - 600° C heating time: 60 min. - 120 min. nitrogen content of the titanium particle: 0.129 - 0.479 mass% nitrogen gas flow rate: 5L/min heating temperature: 500 - 600° C heating time: 60 min. - 120 min. nitrogen content of the titanium particle: 0.129 - 0.479 mass% (b) nitrogen gas flow rate: 3L/min heating temperature: 600° C heating time: 10 min. - 60 min. nitrogen content of the titanium particle: 0.225 - 0.518 mass% nitrogen gas flow rate: 3L/min heating temperature: 600° C heating time: 10 min. - 60 min. nitrogen content of the titanium particle: 0.225 - 0.518 mass%
A garage with four outer walls arranged substantially at right angles to one another, wherein a garage door opening is arranged in a first outer wall and wherein in the first outer wall and/or in a third outer wall opposite the first outer wall and/or in an outer wall adjacent to the first outer wall at least one opening region is provided, which is or are coupled to at least one closing element and is/are closable by said closing element(s), wherein the at least one closing element is to be opened from the outside or by remote control, characterized in that in an interior space of the garage a shelf is arranged, wherein the shelf comprises at least one shelf side which is oriented towards an inner side of the garage , wherein the shelf side facing the inner side at least partially faces or overlaps the opening region and wherein the shelf can be accessed from the outside via this opening region .
Cell frame for an electrolysis or fuel cell block, comprising - an accommodation opening configured for selective accommodating of an electrolysis or fuel cell membrane or of a plate impermeable to media, - a plurality of collector duct openings configured for media supply and media discharge through the cell frame , - a distributor duct structure configured for media supply from a respective supplying collector duct opening to an associated half space adjacent to the accommodation opening and for media discharge from said half space to an associated discharging collector duct opening , and - a sealing structure configured for sealing the cell frame to the exterior and/or the accommodation opening and/or the collector duct openings , characterized in that - the distributor duct structure is composed of a groove duct structure formed only on a first main side of the cell frame and a plurality of through bores extending between the groove duct structure and the associated half space with a directional component parallel to a cell frame plane (Ez), and - the sealing structure is formed only on a second main side opposite to the first main side of the cell frame . - an accommodation opening configured for selective accommodating of an electrolysis or fuel cell membrane or of a plate impermeable to media, - a plurality of collector duct openings configured for media supply and media discharge through the cell frame , - a distributor duct structure configured for media supply from a respective supplying collector duct opening to an associated half space adjacent to the accommodation opening and for media discharge from said half space to an associated discharging collector duct opening , and - a sealing structure configured for sealing the cell frame to the exterior and/or the accommodation opening and/or the collector duct openings , - the distributor duct structure is composed of a groove duct structure formed only on a first main side of the cell frame and a plurality of through bores extending between the groove duct structure and the associated half space with a directional component parallel to a cell frame plane (Ez), and - the sealing structure is formed only on a second main side opposite to the first main side of the cell frame .
Vertebral anchoring system comprising two anchoring components which each have a pedicle element for engagement in a vertebral pedicle and are connected to each other by a linking element which is a flexible band , the pedicle elements being screws, each anchoring component having a head for fixing to a rod , and the fixing head comprising a body which is in the shape of a cup, traversed laterally by the rod perpendicularly with respect to the pedicle screw , and is provided with an internal thread in its upper part , for fixing the rod by way of a compression screw , characterized in that the head is rigidly connected to a ring and in that the ring is provided with means for adjustably blocking the flexible band under tension with respect to the head and comprises a first through-orifice which can be clipped by deformation onto the upper periphery of the fixing head, a second lateral through-orifice for passage of the band , and a third orifice for insertion of the means for blocking the band in the ring , and in that it has two rods corresponding to said fixing heads.
Apparatus for assembling/disassembling a mobile crane boom comprising - a support device that is attached or attachable to the mobile crane and/or to a transport vehicle and on which the boom can be placed and fixed; - a roller cart on which the boom can be placed and that is movably stored or storable on the transport vehicle ; and characterized by - a guide mechanism that is attached or attachable to the transport vehicle and by means of which the roller cart is actively movable in parallel with the longitudinal axis of the boom and the boom is thereby displaceable, wherein the guide mechanism comprises a drive unit that is movable along a guide device, with the drive unit preferably being arranged on the roller cart . - a support device that is attached or attachable to the mobile crane and/or to a transport vehicle and on which the boom can be placed and fixed; - a roller cart on which the boom can be placed and that is movably stored or storable on the transport vehicle ; and characterized by - a guide mechanism that is attached or attachable to the transport vehicle and by means of which the roller cart is actively movable in parallel with the longitudinal axis of the boom and the boom is thereby displaceable, wherein the guide mechanism comprises a drive unit that is movable along a guide device, with the drive unit preferably being arranged on the roller cart .
A method for operating a chemical plant, wherein the chemical plant has a steam turbine with a shaft and with a first pressure turbine stage as well as a second pressure turbine stage , the first pressure turbine stage and second pressure turbine stage respectively being disposed on the shaft and respectively connected in series for the purposes of the steam process, wherein steam for driving the steam turbine is obtained from a reactor plant , the reactor plant producing a hydrogen-containing material from a carbon-containing energy carrier stream , wherein the steam is heated in a superheating step before being supplied to the second pressure turbine stage , wherein the steam turbine has a third pressure turbine stage disposed on the shaft which is connected for the purposes of the steam process between the first pressure turbine stage and the second pressure turbine stage and wherein the steam passes through the superheating step after it exits the third pressure turbine stage , characterized in that the steam is heated to a temperature above the saturation temperature and in that the reactor plant produces ammonia.
A water craft fin to be removably secured to a water craft fin plug having distinct front and rear open cavities and a bridge section therebetween, the front open cavity of the fin plug having a front cavity fin engagement means comprising a protrusion in a front end of the front open cavity and a first recess between the protrusion and a base surface of the front open cavity ; and the rear open cavity of the fin plug having a resiliently protruding ring-shaped member extending into the rear open cavity from an elongate side surface of the rear open cavity ; the water craft fin comprising: a base portion having a front tab and a rear tab adapted to be received in the front open cavity and the rear open cavity respectively; the front tab includes a nose section at a front portion of the tab which is adapted to engage with the first recess and the protrusion so as to be retained by the front cavity fin engagement means ; and the rear tab includes a side surface which is partially recessed at a forward location of the rear tab side surface , adapted to at least partially receive the resiliently protruding ring-shaped member of the rear cavity ; whereby at fin insertion the front tab engages with the front cavity fin engagement means and the fin pivots to insert the rear tab into the rear cavity and engage with the resiliently protruding ring-shaped member such that the fin is removably secured to the fin plug by the fin engagement means and the resiliently protruding ring-shaped member . the front open cavity of the fin plug having a front cavity fin engagement means comprising a protrusion in a front end of the front open cavity and a first recess between the protrusion and a base surface of the front open cavity ; and the rear open cavity of the fin plug having a resiliently protruding ring-shaped member extending into the rear open cavity from an elongate side surface of the rear open cavity ; the water craft fin comprising: a base portion having a front tab and a rear tab adapted to be received in the front open cavity and the rear open cavity respectively; the front tab includes a nose section at a front portion of the tab which is adapted to engage with the first recess and the protrusion so as to be retained by the front cavity fin engagement means ; and the rear tab includes a side surface which is partially recessed at a forward location of the rear tab side surface , adapted to at least partially receive the resiliently protruding ring-shaped member of the rear cavity ;
A method, in a wireless device, for operating in a wireless communications network, the method comprising: operating in a dormant mode, wherein operating in the dormant mode comprises intermittently activating receiver circuitry to monitor and/or measure signals; and while in dormant mode and while the receiver circuitry is activated: performing a measurement on each of a plurality of resources from a predetermined set of resources or demodulating and decoding information from each of a plurality of resources from a predetermined set of resources, where the resources in the predetermined set of resources are each defined by one or more of a beam, a timing, and a frequency; evaluating the measurement or the demodulated and decoded information for each of the plurality of resources against a predetermined criterion; discontinuing the performing and evaluating of measurements or discontinuing the demodulating and decoding and evaluation of information, in response to determining that the predetermined criterion is met, such that one or more resources in the predetermined set of resources are neither measured nor demodulated and decoded; and deactivating the activated receiver circuitry, further in response to determining that the predetermined criterion is met; and wherein the method being further characterised by determining, prior to said performing or demodulating and decoding, and prior to said evaluating, discontinuing, and deactivating, a priority order for the predetermined set of resources, from highest to lowest, wherein said performing or demodulating and decoding is done according to the priority order, from highest to lowest. performing a measurement on each of a plurality of resources from a predetermined set of resources or demodulating and decoding information from each of a plurality of resources from a predetermined set of resources, where the resources in the predetermined set of resources are each defined by one or more of a beam, a timing, and a frequency; evaluating the measurement or the demodulated and decoded information for each of the plurality of resources against a predetermined criterion; discontinuing the performing and evaluating of measurements or discontinuing the demodulating and decoding and evaluation of information, in response to determining that the predetermined criterion is met, such that one or more resources in the predetermined set of resources are neither measured nor demodulated and decoded; and deactivating the activated receiver circuitry, further in response to determining that the predetermined criterion is met; and wherein the method being further characterised by determining, prior to said performing or demodulating and decoding, and prior to said evaluating, discontinuing, and deactivating, a priority order for the predetermined set of resources, from highest to lowest, wherein said performing or demodulating and decoding is done according to the priority order, from highest to lowest.
Process for the production of a housing for an electrochemical element, comprising the following steps: a) molding of a metallic housing structure , b) applying an insulation foil by adhesive bonding to at least one external area (S, B) of the housing structure , and c) applying another insulation foil by adhesive bonding to the insulation foil previously applied by adhesive bonding, wherein the insulation foil used in step b) or c) comprises a layer system made of at least one base layer and of at least one adhesive layer , characterized in that the at least one base layer and/or the at least one adhesive layer comprises at least one additive configured to increase thermal conductivity. a) molding of a metallic housing structure , b) applying an insulation foil by adhesive bonding to at least one external area (S, B) of the housing structure , and c) applying another insulation foil by adhesive bonding to the insulation foil previously applied by adhesive bonding,
An electrical connection system comprising a primary connection device and a secondary connection device arranged to be connected together, the primary connection device including a shielded cover and primary conductive contacts that extend at least in part inside the shielded cover, the secondary connection device including a secondary electric circuit card presenting a secondary ground surface , secondary conductive contacts that extend from an implantation surface of the secondary circuit card, which implantation surface is surrounded by the secondary ground surface, and a compliant conductive material fastened on the secondary ground surface, the electrical connection system being arranged in such a manner that, when the primary connection device and the secondary connection device are connected together, the primary conductive contacts are electrically connected to the secondary conductive contacts inside the shielded cover and the shielded cover extends over the compliant conductive material while compressing it.
A communication method, comprising: 1.1 obtaining , by a session management function entity, parameter information; 1.2 determining , by the session management function entity, an access technology type for a protocol data unit, PDU, session of a terminal device based on the parameter information during a protocol data unit, PDU, session establishment; and 1.3 sending , by the session management function entity, indication information to an access and mobility management function entity, wherein the indication information is used to indicate the access technology type of the PDU session. 1.1 obtaining , by a session management function entity, parameter information; 1.2 determining , by the session management function entity, an access technology type for a protocol data unit, PDU, session of a terminal device based on the parameter information during a protocol data unit, PDU, session establishment; and 1.3 sending , by the session management function entity, indication information to an access and mobility management function entity, wherein the indication information is used to indicate the access technology type of the PDU session.