mhurhangee/ep-ind-claims huggingface dataset:
An optical sensor for detecting objects within a monitoring area, having sensor components and electronic components which are arranged in at least one housing (2a, 2b) in which at least one printed circuit board accommodating sensor components and/or electronic components is mounted, characterised in that in that the printed circuit board is mounted free of play in a receptacle of the housing (2a, 2b), in that elements on the printed circuit board are deformed when the printed circuit board is brought into a desired position in the receptacle, the elements on the printed circuit board being deformable in the receptacle in such a way that they are mounted free of play in the receptacle.
Monitoring system for automatically estimating and monitoring the correct alignment of tracks of a track-type vehicle, said track-type vehicle comprising an undercarriage and two tracks, each one of said track comprising a chain comprising a plurality of chain links and articulated joints; the monitoring system comprising: - at least one undercarriage sensor fixable on said undercarriage; - at least one chain sensor fixable on said chain of each one of said two tracks; - a processor configured for combining the detections of said sensors ( 11, 12) in order to determine the alignment direction of the tracks and for comparing said determined alignment direction with a reference alignment direction, whereby the monitoring system comprises at least two undercarriage sensors allowing monitoring of the tracks and configured for detecting the position of the chain sensor by triangulation. - at least one undercarriage sensor fixable on said undercarriage; - at least one chain sensor fixable on said chain of each one of said two tracks; - a processor configured for combining the detections of said sensors ( 11, 12) in order to determine the alignment direction of the tracks and for comparing said determined alignment direction with a reference alignment direction,
An axial flow compressor for a gas turbine engine comprising: a high pressure compressor section having a core flow path, an aft stage, and a forward stage; a diffuser in fluid communication with the core flow path coupled to the aft stage; a plenum coupled to the diffuser; and a pre-swirl nozzle coupled to the plenum, an exit of the pre-swirl nozzle being directed at a rotor disk of the aft stage and configured to impart a swirl to a cooling fluid, characterized by: the diffuser comprising an airfoil disposed within the core flow path, wherein the airfoil comprises apertures proximate a trailing edge of the airfoil, and the apertures are in fluid communication with the plenum. a high pressure compressor section having a core flow path, an aft stage, and a forward stage; a diffuser in fluid communication with the core flow path coupled to the aft stage; a plenum coupled to the diffuser; and a pre-swirl nozzle coupled to the plenum, an exit of the pre-swirl nozzle being directed at a rotor disk of the aft stage and configured to impart a swirl to a cooling fluid, characterized by: the diffuser comprising an airfoil disposed within the core flow path, wherein the airfoil comprises apertures proximate a trailing edge of the airfoil, and the apertures are in fluid communication with the plenum.
A method, comprising: acquiring, by an X-ray detector comprising a plurality of bins, imaging data corresponding to a plurality of divergent X-rays passing through an object; assigning a single functional form to the plurality of divergent X-rays; determining, via a homographic transform, weights of interaction between a plurality of distribution samples and said plurality of X-ray detector bins based on the single functional form; reconstructing an image based on the weights of interaction and said imaging data; wherein the single functional form is resampled to obtain a desired level of precisior and wherein resampling the single functional form comprises expanding the single functional form with a set of one-dimensional basis functions. acquiring, by an X-ray detector comprising a plurality of bins, imaging data corresponding to a plurality of divergent X-rays passing through an object; assigning a single functional form to the plurality of divergent X-rays; determining, via a homographic transform, weights of interaction between a plurality of distribution samples and said plurality of X-ray detector bins based on the single functional form; reconstructing an image based on the weights of interaction and said imaging data; wherein the single functional form is resampled to obtain a desired level of precisior and wherein resampling the single functional form comprises expanding the single functional form with a set of one-dimensional basis functions.
A method for determining a radio link coverage problem, comprising: obtaining, by a communications apparatus, downlink measurement data and uplink measurement data, wherein the downlink measurement data is used to reflect a downlink situation, and the uplink measurement data is used to reflect an uplink situation; correlating (S110, S550), by the communications apparatus, the downlink measurement data and the uplink measurement data; and determining (S120, S560), by the communications apparatus, a radio link coverage problem according to the correlated downlink measurement data and uplink measurement data, wherein the method is characterized in that: the correlating (S110, S550) of the downlink measurement data and the uplink measurement data comprises: correlating the downlink measurement data and the uplink measurement data by using a time window; or correlating the downlink measurement data and the uplink measurement data by using a time window and a user equipment identifier; or correlating the downlink measurement data and the uplink measurement data by using a time window and a cell identifier, wherein a location of the time window is determined according to time of a radio link key event, and a size of the time window is determined according to an allowable range for time correlation. obtaining, by a communications apparatus, downlink measurement data and uplink measurement data, wherein the downlink measurement data is used to reflect a downlink situation, and the uplink measurement data is used to reflect an uplink situation; correlating (S110, S550), by the communications apparatus, the downlink measurement data and the uplink measurement data; and determining (S120, S560), by the communications apparatus, a radio link coverage problem according to the correlated downlink measurement data and uplink measurement data, wherein the method is characterized in that: the correlating (S110, S550) of the downlink measurement data and the uplink measurement data comprises: correlating the downlink measurement data and the uplink measurement data by using a time window; or correlating the downlink measurement data and the uplink measurement data by using a time window and a user equipment identifier; or correlating the downlink measurement data and the uplink measurement data by using a time window and a cell identifier, wherein a location of the time window is determined according to time of a radio link key event, and a size of the time window is determined according to an allowable range for time correlation. correlating the downlink measurement data and the uplink measurement data by using a time window; or correlating the downlink measurement data and the uplink measurement data by using a time window and a user equipment identifier; or correlating the downlink measurement data and the uplink measurement data by using a time window and a cell identifier, wherein a location of the time window is determined according to time of a radio link key event, and a size of the time window is determined according to an allowable range for time correlation.
A method for the production of a graphene layer structure, the method comprising: providing a substrate on a heated susceptor in a reaction chamber, the chamber having a plurality of cooled inlets arranged so that, in use, the inlets are distributed across the substrate and have a constant separation from the substrate, rotating the heated susceptor at a rotation rate of at least 300 rpm, supplying a flow comprising a precursor compound through the inlets and into the reaction chamber to thereby decompose the precursor compound and form graphene on the substrate, wherein the inlets are cooled to less than 100°C, preferably 50 to 60°C, and the susceptor is heated to a temperature of at least 50°C in excess of a decomposition temperature of the precursor, wherein the substrate provides a crystalline surface upon which the graphene is produced, wherein the constant separation is at least 12 cm and preferably from 12 to 20 cm, and wherein the precursor compound comprises an organic compound comprising at least one heteroatom. providing a substrate on a heated susceptor in a reaction chamber, the chamber having a plurality of cooled inlets arranged so that, in use, the inlets are distributed across the substrate and have a constant separation from the substrate, rotating the heated susceptor at a rotation rate of at least 300 rpm, supplying a flow comprising a precursor compound through the inlets and into the reaction chamber to thereby decompose the precursor compound and form graphene on the substrate, wherein the inlets are cooled to less than 100°C, preferably 50 to 60°C, and the susceptor is heated to a temperature of at least 50°C in excess of a decomposition temperature of the precursor, wherein the substrate provides a crystalline surface upon which the graphene is produced, wherein the constant separation is at least 12 cm and preferably from 12 to 20 cm, and wherein the precursor compound comprises an organic compound comprising at least one heteroatom.
A method for monitoring downlink control information, DCI, in a wireless communication system by a user equipment, UE, the method comprising: generating UE blind decoding, BD, capability information informing capability of the UE, the UE BD capability information indicating a number of times the UE can perform BD on a downlink, DL, control channel in one subframe; transmitting the UE BD capability information to a base station, BS; receiving physical downlink control channel, PDCCH, candidate information related to PDCCH candidate reduction; receiving one or more resource blocks; and monitoring PDCCH candidates out of a total value K of number of candidates to detect the DCI in the one or more resource blocks based on the PDCCH candidate information, wherein each of the PDCCH candidates comprises at least one control channel element, CCE, and the PDCCH candidates are indexed from 0, and wherein the UE monitors the PDCCH candidates having consecutive PDCCH index values from a lowest PDCCH index value out of the K candidates based on the PDCCH candidate information. generating UE blind decoding, BD, capability information informing capability of the UE, the UE BD capability information indicating a number of times the UE can perform BD on a downlink, DL, control channel in one subframe; transmitting the UE BD capability information to a base station, BS; receiving physical downlink control channel, PDCCH, candidate information related to PDCCH candidate reduction; receiving one or more resource blocks; and monitoring PDCCH candidates out of a total value K of number of candidates to detect the DCI in the one or more resource blocks based on the PDCCH candidate information, wherein each of the PDCCH candidates comprises at least one control channel element, CCE, and the PDCCH candidates are indexed from 0, and wherein the UE monitors the PDCCH candidates having consecutive PDCCH index values from a lowest PDCCH index value out of the K candidates based on the PDCCH candidate information.
- Hydraulic arrangement for connecting a tractor hydraulic brake circuit to a trailer hydraulic brake circuit, said hydraulic arrangement comprising a coupler stage fluidly connecting a source of fluid in pressure to trailer braking hydraulic circuit and a trailer brake valve fluidly connecting said tractor hydraulic brake circuit and said trailer hydraulic brake circuit, said hydraulic arrangement is characterized in comprising a selection pilot stage fluidly connected to said source of fluid in pressure and being fluidly connectable to said trailer hydraulic brake circuit via at least a connector (110, 111) and a selection stage fluidly connected to said selection pilot stage and to said trailer brake valve, said selection stage being configured to impart an actuation signal to said trailer brake valve in function of an hydraulic signal coming from said selection pilot stage.
The use of a composition for removing impurities from a circulating water system, wherein said composition comprises: (a) an aqueous solution of a cationic starch; (b) a polybasic metal salt; (c) a polymer solution containing at least 0.1% hydroxyl functionality, and (d) water, wherein the components (a), (b) and (c) are all contained in a single liquid concentrate, and wherein the composition has been prepared by providing the required amount of cationic starch; adjusting the pH of the cationic starch solution to a value of 5.5 to 6.0; adding the required amount of the polymer solution and subsequently the required amount of the polybasic metal salt while mixing until a uniform composition has been formed; and wherein the composition is comprised of: 1 to 60 % cationic starch, 5 to 75 % polybasic metal salt, and 0.1 to 20% polymer.
A method for manufacturing a sheet-shaped body in which a powder particle layer is sandwiched between a base sheet to which a bonding agent is applied and a covering sheet so as to be bonded into an integral body, comprising the steps of: shifting the base sheet being held on a receiving and transferring roller face; transferring the powder particle layer on the base sheet while shifting the powder particle layer held on a temporary receiving roller face; and bonding the base sheet, the powder particle layer and the covering sheet into an integral form while shifting the covering sheet in a held state on a contact-bond fixing roller face, wherein a shifting speed of the powder particle layer is made slower than those of the base sheet and the covering sheet. shifting the base sheet being held on a receiving and transferring roller face; transferring the powder particle layer on the base sheet while shifting the powder particle layer held on a temporary receiving roller face; and bonding the base sheet, the powder particle layer and the covering sheet into an integral form while shifting the covering sheet in a held state on a contact-bond fixing roller face, wherein a shifting speed of the powder particle layer is made slower than those of the base sheet and the covering sheet.
A method for choosing an enhanced dedicated channel transport format combination, for a High Speed Uplink Packet Packet Access, HSUPA, system, comprising: a media access control, MAC, layer determining a maximum available transmit power, wherein, the maximum available transmit power is a smaller one of a granted power and a maximum transmit power allowed by an enhanced physical uplink channel, E-PUCH, wherein the granted power is a sum of a granted power of a hybrid auto repeat request, HARQ, process and a HARQ power offset attribute value of a scheduling or a non-scheduling group; according to the following formula, the MAC layer calculating a code rate corresponding to the maximum available transmit power: A = A 0 + P − P 0 / P 1 − P 0 * A 1 − A 0; wherein P is a transmit power, A is a code rate corresponding to P, P0 is a maximum value in all reference powers less than P, P1 is a minimum value in all reference powers greater than P, A0 is a reference code rate corresponding to P0, and A1 is a reference code rate corresponding to P1; the MAC layer determining a final code rate and final transmit power according to the calculated code rate; and the MAC layer choosing an enhanced dedicated channel transport format combination (E-TFC) according to the determined final transmit power. a media access control, MAC, layer determining a maximum available transmit power, wherein, the maximum available transmit power is a smaller one of a granted power and a maximum transmit power allowed by an enhanced physical uplink channel, E-PUCH, wherein the granted power is a sum of a granted power of a hybrid auto repeat request, HARQ, process and a HARQ power offset attribute value of a scheduling or a non-scheduling group; according to the following formula, the MAC layer calculating a code rate corresponding to the maximum available transmit power: A = A 0 + P − P 0 / P 1 − P 0 * A 1 − A 0; wherein P is a transmit power, A is a code rate corresponding to P, P0 is a maximum value in all reference powers less than P, P1 is a minimum value in all reference powers greater than P, A0 is a reference code rate corresponding to P0, and A1 is a reference code rate corresponding to P1; the MAC layer determining a final code rate and final transmit power according to the calculated code rate; and the MAC layer choosing an enhanced dedicated channel transport format combination (E-TFC) according to the determined final transmit power.
A high-efficiency lawn maintenance tool comprising: a frame; a deck attached to the frame; a plurality of ground engaging members attached to the frame; a power source attached to one of the frame and the deck, wherein the power source is connected to a drive shaft that passes through the deck, the power source is a battery-powered electric motor; a high-efficiency blade system attached to the drive shaft; and the high-efficiency lawn maintenance tool further comprises a controller electrically connected to the power source, characterized in that the controller is configured to provide an infinitely variable power source speed, and to correlate a load on the blade system and the power to the power source by varying the power to the power source independent of an operator's control thereby to slow the power source if the controller senses a small load on the blade system. a frame; a deck attached to the frame; a plurality of ground engaging members attached to the frame; a power source attached to one of the frame and the deck, wherein the power source is connected to a drive shaft that passes through the deck, the power source is a battery-powered electric motor; a high-efficiency blade system attached to the drive shaft; and the high-efficiency lawn maintenance tool further comprises a controller electrically connected to the power source, characterized in that the controller is configured to provide an infinitely variable power source speed, and to correlate a load on the blade system and the power to the power source by varying the power to the power source independent of an operator's control thereby to slow the power source if the controller senses a small load on the blade system.
A tyre comprising a tread portion whose position when mounted on a vehicle is specified, wherein the tread portion comprises an outer shoulder main groove extending continuously in a tyre circumferential direction, an outer crown main groove extending adjacently to the outer shoulder main groove and continuously in the tyre circumferential direction, an inner crown main groove extending adjacently to the outer crown main groove and continuously in the tyre circumferential direction, an outer crown land region defined between the outer shoulder main groove and the outer crown main groove, and a center crown land region defined between the outer crown main groove and the inner crown main groove, the outer crown land region is provided with first outer crown sipes each completely crossing the outer crown land region and second outer crown sipes each extending from the outer crown main groove toward the outer shoulder main groove and terminating within the outer crown land region, and the center crown land region is provided with first center crown sipes each completely crossing the center crown land region, and second center crown sipes each extending from the inner crown main groove toward the outer crown main groove and terminating within the center crown land region, characterized in that the tyre has an asymmetric pattern with respect to a tyre equator (c), and each of the second outer crown sipes is arranged so as to be smoothly continuous with a respective one of the first center crown sipes with the outer crown main groove therebetween, wherein a sipe being provided at a position so as to be smoothly continuous with another sipe means that a minimum separation distance in the tyre circumferential direction between a first region obtained by virtually extending one of the sipes and a second region obtained by virtually extending the other one of the sipes is less than 1.0 mm, or wherein the first region and the second region at least partially intersect with each other.
Thermoplastic olefin elastomer expanded beads, having an average aspect ratio of 1.10 or less and an average circularity of 0.985 or more, wherein the average aspect ratio and the average circularity are determined as described in the specification, and comprising 5 to 60% by weight of a fraction insoluble in hot xylene, determined as described in the specification.
A method for designating a reputation related to a call source on a communication medium, comprising: upon a first user of said communication medium reporting a first call as a spam call, storing call source information relating to a source of said first call in a spam caller identity information repository; and maintaining said spam caller identity information repository comprising, upon a second user of said communication medium reporting a subsequent call as a spam call wherein call source information relating to a source of said subsequent spam call matches said call source information corresponding to said first call: corroborating said call source information corresponding to said first call and said subsequent call; based on said corroborating, designating said call source as a proven spam call source; monitoring the designated spam call source; upon the designated spam call source initiating a second subsequent call, monitoring the second subsequent call for a characteristic related to spam calls; upon detecting said spam call characteristic, identifying the second subsequent call as a spam call; and deterring the second subsequent call from being routed to a callee. upon a first user of said communication medium reporting a first call as a spam call, storing call source information relating to a source of said first call in a spam caller identity information repository; and maintaining said spam caller identity information repository comprising, upon a second user of said communication medium reporting a subsequent call as a spam call wherein call source information relating to a source of said subsequent spam call matches said call source information corresponding to said first call: corroborating said call source information corresponding to said first call and said subsequent call; based on said corroborating, designating said call source as a proven spam call source; monitoring the designated spam call source; upon the designated spam call source initiating a second subsequent call, monitoring the second subsequent call for a characteristic related to spam calls; upon detecting said spam call characteristic, identifying the second subsequent call as a spam call; and deterring the second subsequent call from being routed to a callee. corroborating said call source information corresponding to said first call and said subsequent call; based on said corroborating, designating said call source as a proven spam call source; monitoring the designated spam call source; upon the designated spam call source initiating a second subsequent call, monitoring the second subsequent call for a characteristic related to spam calls; upon detecting said spam call characteristic, identifying the second subsequent call as a spam call; and deterring the second subsequent call from being routed to a callee.