mhurhangee/patent-ind-claim-en huggingface dataset:
An aspiration device for providing decompressed natural gas and compressed air to a natural gas engine, the aspiration device comprising: a turbine assembly comprising, a turbine housing , at least one turbine enclosed within the turbine housing, a compressed natural gas inlet in the turbine housing and a decompressed natural gas outlet in the turbine housing; a compressor assembly comprising, a compressor housing , at least one compressor enclosed within the compressor housing, an air inlet in the compressor housing and a hot compressed air outlet in the compressor housing; a drive system mechanically connecting the at least one turbine to the at least one compressor, the aspiration device characterised by further comprising: a charge air intercooler jacket encasing the turbine housing , the charge air intercooler jacket comprises a hot compressed air inlet and a cooled compressed air outlet ; and a transfer tube connecting the hot compressed air outlet to the hot compressed air inlet. a turbine assembly comprising, a turbine housing , at least one turbine enclosed within the turbine housing, a compressed natural gas inlet in the turbine housing and a decompressed natural gas outlet in the turbine housing; a compressor assembly comprising, a compressor housing , at least one compressor enclosed within the compressor housing, an air inlet in the compressor housing and a hot compressed air outlet in the compressor housing; a drive system mechanically connecting the at least one turbine to the at least one compressor, the aspiration device characterised by further comprising: a charge air intercooler jacket encasing the turbine housing , the charge air intercooler jacket comprises a hot compressed air inlet and a cooled compressed air outlet ; and a transfer tube connecting the hot compressed air outlet to the hot compressed air inlet. a charge air intercooler jacket encasing the turbine housing , the charge air intercooler jacket comprises a hot compressed air inlet and a cooled compressed air outlet ; and a transfer tube connecting the hot compressed air outlet to the hot compressed air inlet.
A control unit for a climate control system for a vehicle, comprising; a monitoring module arranged to monitor at least one demand representative of an environmental parameter change within the vehicle and/or at least one active user input relating to an environmental parameter within a vehicle; storage means for storing a control policy for configuring at least one climate control element; a feedback module configured to receive the at least one demand from the monitoring module and to receive a simulated control policy from a simulation module; wherein the feedback module is configured to update the control policy, based on the simulated control policy, in response to receiving the at least one demand; and, an implementation module for controlling said at least one climate control element in accordance with said control policy.
A burst mode ammonia based cooling system , comprising: at least one sorber comprising a complex compound sorbent configured to absorb and desorb ammonia; at least one heat source thermally connected to the at least one sorber ; one or more condensers in fluid communication with the at least one sorber ; one or more an evaporators in fluid communication with the at least one sorber ; and a burst mode controller configured to activate a valve to provide a burst of heat absorption at the evaporator , where the absorption period of the complex compound is between 5 seconds and 300 seconds and the desorption period is between 180 seconds and 15 minutes, and wherein the absorption period is divided into a plurality of pulse periods with a rest between each pulse period. at least one sorber comprising a complex compound sorbent configured to absorb and desorb ammonia; at least one heat source thermally connected to the at least one sorber ; one or more condensers in fluid communication with the at least one sorber ; one or more an evaporators in fluid communication with the at least one sorber ; and a burst mode controller configured to activate a valve to provide a burst of heat absorption at the evaporator , where the absorption period of the complex compound is between 5 seconds and 300 seconds and the desorption period is between 180 seconds and 15 minutes, and wherein the absorption period is divided into a plurality of pulse periods with a rest between each pulse period.
A composition comprising two or more compounds of the general formula (I), wherein R is unsubstituted branched C 13 -alkyl and has an average number of branching in the range from 0.9 to 3.5, G 1 is selected from monosaccharides with 5 or 6 carbon atoms; x is in the range of from 1 to 10 and refers to average values, and wherein the two or more compounds differ in R and/or G 1 and/or x.
A method for receiving an acquisition signal in a wireless communication system , comprising detecting a plurality of symbols of an acquisition signal transmitted on a number of subcarriers that is less than all of a bandwidth of a subset of a plurality of carriers available for communication, the acquisition signal associated with timing information for an access terminal to communicate with a base station, the subset comprising more than one carrier of the plurality of carriers and less than all the carriers of the plurality of carriers, wherein each carrier corresponds to a substantially non-overlapping portion of an available bandwidth in the wireless communication system or in a sector of the wireless communication system ; and determining a future carrier of the plurality of carriers on which information will be communicated to the access terminal by an access point based at least in part on a carrier on which the acquisition signal is detected.
A method of transmission scheduling for one or more process devices (P1, P2, P3, P4), capable of wireless communication in an industrial application, IA, the method implemented by a radio control unit and comprising: determining with respect to the industrial application ,IA, whether a licensed shared access spectrum, LSA spectrum, is available; assigning to the one or more process devices (P1, P2, P3, P4), based on a traffic type of the data to be transmitted by the one or more process devices (P1, P2, P3, P4), an access spectrum within the LSA spectrum; and transmitting an assignment message assigning the access spectrum, the assignment message indicating to the one or more process devices (P1, P2, P3, P4) whether the licensed shared access spectrum is available. determining with respect to the industrial application ,IA, whether a licensed shared access spectrum, LSA spectrum, is available; assigning to the one or more process devices (P1, P2, P3, P4), based on a traffic type of the data to be transmitted by the one or more process devices (P1, P2, P3, P4), an access spectrum within the LSA spectrum; and transmitting an assignment message assigning the access spectrum, the assignment message indicating to the one or more process devices (P1, P2, P3, P4) whether the licensed shared access spectrum is available.
A heating medium utilizing apparatus utilizing heating medium heated by a heating device, the heating medium utilizing apparatus comprising: an internal pipe through which the heating medium or fluid that has been heat-exchanged with the heating medium flows; and a connection part provided at a tip portion of the internal pipe to be connected to an external pipe connected to the heating device or another external equipment, the connection part formed by carrying out a pipe expanding process to expand a pipe diameter and a pipe shrinking process to shrink the pipe diameter on the tip portion characterized in that the tip portion of the connection part is provided with an opening so that the opening directs upwardly, and the connection part is formed by, after expanding the pipe diameter of the tip portion by the pipe expanding process, carrying out the pipe shrinking process only on a part of an upper part of the tip portion on which the pipe expanding process has been carried out. an internal pipe through which the heating medium or fluid that has been heat-exchanged with the heating medium flows; and a connection part provided at a tip portion of the internal pipe to be connected to an external pipe connected to the heating device or another external equipment, the connection part formed by carrying out a pipe expanding process to expand a pipe diameter and a pipe shrinking process to shrink the pipe diameter on the tip portion characterized in that the tip portion of the connection part is provided with an opening so that the opening directs upwardly, and the connection part is formed by, after expanding the pipe diameter of the tip portion by the pipe expanding process, carrying out the pipe shrinking process only on a part of an upper part of the tip portion on which the pipe expanding process has been carried out.
A surface (S) identification device for the autonomous movement of a moving vehicle at a distance from that surface (S), the surface identification device comprising: a) a surface detection head defining a coordinate system (L) fixed to the detection head with an origin (E) at the center of the detection head , an axis of advance (Xe), a drift axis (Ye), an ascent axis (Ze), the detection head including at least one measure sensor for a quantity (w) depending on the distance (D surface ) of the center (E) of the detection head from the surface (S), each sensor covering a detection zone (ZV) centered on a line of sight (ZC); b) means for orienting the detection zone (ZV) for each sensor by rotating the detection zone around (ZV) the drift axis (Ye); and c) a controller suitable for receiving and processing the signals from each sensor and controlling the system for orienting the detection zone (ZV) based on said signals, characterized in that the controller is configured for estimating the direction of the perpendicular (N) to the surface (S) in said coordinate system (L) based on said signals, and reorienting, by means of said orientation means , the line of sight (ZC) of the detection zone of each sensor into a direction separated by a determined reorientation angle (γ) from the direction of said perpendicular (N). a) a surface detection head defining a coordinate system (L) fixed to the detection head with an origin (E) at the center of the detection head , an axis of advance (Xe), a drift axis (Ye), an ascent axis (Ze), the detection head including at least one measure sensor for a quantity (w) depending on the distance (D surface ) of the center (E) of the detection head from the surface (S), each sensor covering a detection zone (ZV) centered on a line of sight (ZC); b) means for orienting the detection zone (ZV) for each sensor by rotating the detection zone around (ZV) the drift axis (Ye); and c) a controller suitable for receiving and processing the signals from each sensor and controlling the system for orienting the detection zone (ZV) based on said signals,
A polycrystalline nickel-base superalloy having the following composition: 14.75 - 26.5 wt.% cobalt; 4.1 - 4.65 wt. % aluminium; 1.1 - 1.9 wt. % titanium ; 3.85 - 6.3 wt. % tantalum; 1.2 - 2.55 wt. % niobium; not more than 0.07 wt. % boron; not more than 0.06 wt. % carbon; not more than 14.0 wt. % chromium; not more than 1.0 wt. % iron; not more than 1.0 wt. % manganese; not more than 4.2 wt. % molybdenum; not more than 0.5 wt. % silicon; not more than 4.9 wt. % tungsten; not more than 0.1 wt. % zirconium; not more than 60 ppm phosphorus; not more than 20 ppm sulphur; the balance being nickel and incidental impurities; the superalloy comprising: a gamma matrix phase including cobalt; a gamma prime phase including aluminium, titanium, tantalum, and niobium; the overall concentration in the alloy of aluminium, titanium, tantalum, and niobium being from 13 to 14 atomic percent; the atomic ratio of aluminium to titanium being from 4.625:1 to 6.333:1. 14.75 - 26.5 wt.% cobalt; 4.1 - 4.65 wt. % aluminium; 1.1 - 1.9 wt. % titanium ; 3.85 - 6.3 wt. % tantalum; 1.2 - 2.55 wt. % niobium; not more than 0.07 wt. % boron; not more than 0.06 wt. % carbon; not more than 14.0 wt. % chromium; not more than 1.0 wt. % iron; not more than 1.0 wt. % manganese; not more than 4.2 wt. % molybdenum; not more than 0.5 wt. % silicon; not more than 4.9 wt. % tungsten; not more than 0.1 wt. % zirconium; not more than 60 ppm phosphorus; not more than 20 ppm sulphur; the balance being nickel and incidental impurities; a gamma matrix phase including cobalt; a gamma prime phase including aluminium, titanium, tantalum, and niobium; the overall concentration in the alloy of aluminium, titanium, tantalum, and niobium being from 13 to 14 atomic percent; the atomic ratio of aluminium to titanium being from 4.625:1 to 6.333:1.
A method performed by a user equipment, UE, characterized by comprising: receiving configuration information from a first network side device, wherein the configuration information includes a tracking area or a tracking area list, entering an intermediate state according to the configuration information, wherein the UE stores context information during the intermediate state, the context information of the UE includes an identifier of the UE, wherein the intermediate state is different from an idle state and a connected state, performing cell reselection within an area of the tracking area or the tracking area list, without notifying a network side device. receiving configuration information from a first network side device, wherein the configuration information includes a tracking area or a tracking area list, entering an intermediate state according to the configuration information, wherein the UE stores context information during the intermediate state, the context information of the UE includes an identifier of the UE, wherein the intermediate state is different from an idle state and a connected state, performing cell reselection within an area of the tracking area or the tracking area list, without notifying a network side device.
A crosspoint switch comprising: a plurality of optical-to-electrical converting means for converting received optical signals into input electrical signals; a plurality of electrical-to-optical converting means for converting input electrical signals into optical signals; and micro-electromechanical systems, MEMS, switching elements array means for selectively directing the input electrical signals from any one of the plurality of optical-to-electrical converting means to any one of the plurality of electrical-to-optical converting means for converting the input electrical signals directed by the switching means into optical signals, wherein the optical signals received from input optical fibers are first converted into the input electrical signals and routed electrically by the MEMS switching elements array means . a plurality of optical-to-electrical converting means for converting received optical signals into input electrical signals; a plurality of electrical-to-optical converting means for converting input electrical signals into optical signals; and micro-electromechanical systems, MEMS, switching elements array means for selectively directing the input electrical signals from any one of the plurality of optical-to-electrical converting means to any one of the plurality of electrical-to-optical converting means for converting the input electrical signals directed by the switching means into optical signals, wherein the optical signals received from input optical fibers are first converted into the input electrical signals and routed electrically by the MEMS switching elements array means .
A magnetic stack for a magnetic device, the magnetic stack comprising: a seed layer ; a compensation magnet or first magnetic hard layer provided on the seed layer ; a decoupling layer provided on the compensation magnet or first magnetic hard layer ; a barrier layer provided on the decoupling layer ; a magnetic free layer provided on the decoupling layer ; a tunnel barrier layer provided on the magnetic free layer ; a magnetic reference layer provided on the tunnel barrier layer , the magnetic reference layer being a -textured layer; a spacer provided on the magnetic reference layer , the spacer comprising a first texture breaking layer provided on the magnetic reference layer , a magnetic bridge layer provided on the first texture breaking layer , and a second texture breaking layer provided on the magnetic bridge layer ; a second magnetic hard layer provided on the spacer , the second magnetic hard layer being a -textured layer; and a cap layer provided on the second magnetic hard layer , wherein the magnetic reference layer and the second magnetic hard layer are magnetically coupled across the spacer through direct exchange interaction. a seed layer ; a compensation magnet or first magnetic hard layer provided on the seed layer ; a decoupling layer provided on the compensation magnet or first magnetic hard layer ; a barrier layer provided on the decoupling layer ; a magnetic free layer provided on the decoupling layer ; a tunnel barrier layer provided on the magnetic free layer ; a magnetic reference layer provided on the tunnel barrier layer , the magnetic reference layer being a -textured layer; a spacer provided on the magnetic reference layer , the spacer comprising a first texture breaking layer provided on the magnetic reference layer , a magnetic bridge layer provided on the first texture breaking layer , and a second texture breaking layer provided on the magnetic bridge layer ; a first texture breaking layer provided on the magnetic reference layer , a magnetic bridge layer provided on the first texture breaking layer , and a second texture breaking layer provided on the magnetic bridge layer ; a second magnetic hard layer provided on the spacer , the second magnetic hard layer being a -textured layer; and a cap layer provided on the second magnetic hard layer , wherein the magnetic reference layer and the second magnetic hard layer are magnetically coupled across the spacer through direct exchange interaction.
A tack welding method for tack welding edges of an open pipe or tube prepared in a production process for a large-diameter welded steel pipe or tube, the tack welding method comprising performing gas metal arc welding of the edges of the open pipe or tube using a solid welding wire , characterized in that the solid welding wire has a diameter of 4.8 mm or greater and, in performing gas metal arc welding of the edges of the open pipe or tube with a welding current of 1000 A or greater and a distance of 25 mm or greater between a bottom portion of a groove formed at the edges of the open pipe or tube and a lower end of a contact tip to which the welding wire is attached.
An austenitic alloy comprising, in weight percentages based on total alloy weight: up to 0.05 carbon; 2.0 to 8.0 manganese; 0.1 to 1.0 silicon; 18.0 to 26.0 chromium; 19.0 to 37.0 nickel; 3.0 to 7.0 molybdenum; 0.5 to 2.0 copper; 0.1 to 0.55 nitrogen; 0.2 to 3.0 tungsten; 1.0 to 3.5 cobalt; up to 0.6 titanium; a combined weight percentage of niobium and tantalum no greater than 0.3; up to 0.2 vanadium; up to 0.1 aluminium; up to 0.05 boron; up to 0.05 phosphorus; up to 0.05 sulfur; a combined weight percentage of cerium and lanthanum no greater than 0.1; up to 0.5 weight percent ruthenium; up to 0.6 weight percent zirconium; balance iron, trace elements and incidental impurities.
Equipment for taking a bent pipe that has been expelled from a pipe bending machine, the equipment comprising a mechanical arm operated by first means controlled by at least one first electronic device provided with at least one container located at an end of the arm wherein the first device is electronically programmable and the arm is programmable with at least three degrees of freedom wherein the mechanical arm is programmable with at least three degree of freedom for displacing the container from the idle position to the bent pipe taking the one while occupying as little volumes as possible and the container is provided with at least one second device that is configured and arranged for facilitating the unloading of the bent pipe into the container from the pipe bending machine and characterised in that the second device consists of a inclined plane with a polyurethane surface which makes the bent pipe slowly slip into the container and the container is provided with second means that has been configured and arranged to slide by an inclined plane the bent pipe for unloading the bent pipe from the container .
An ultraviolet- and infrared-absorbing composition comprising: an absorber formed by a phosphonic acid represented by the following formula (a) and copper ion, the absorber being dispersed in the ultraviolet- and infrared-absorbing composition: wherein R 11 is a phenyl group, a nitrophenyl group, a hydroxyphenyl group, or a halogenated phenyl group in which at least one hydrogen atom of a phenyl group is substituted by a halogen atom; a phosphoric acid ester allowing the absorber to be dispersed; a matrix resin; and an alkoxysilane monomer. an absorber formed by a phosphonic acid represented by the following formula (a) and copper ion, the absorber being dispersed in the ultraviolet- and infrared-absorbing composition: wherein R 11 is a phenyl group, a nitrophenyl group, a hydroxyphenyl group, or a halogenated phenyl group in which at least one hydrogen atom of a phenyl group is substituted by a halogen atom; a phosphoric acid ester allowing the absorber to be dispersed; a matrix resin; and an alkoxysilane monomer.
A method of controlling an Autonomous Vehicle ,AV, comprising the steps of: detecting a fault in a first AV (110-1); in response to detecting said fault, transmitting a communication for alerting an AV of the fault , wherein said communication is a device-to-device wireless communication for cellular communication; receiving said communication at a second AV (110-2); the second AV generating a response to said communication and sending the response to the first AV; identifying, at the first AV and in dependence upon the response as received by the first AV, the second AV as being capable of retrieving at least part of the first AV and delivering said at least part to an intended destination , the at least part of the AV being the first AV or a payload of the first AV; and instructing the second AV to perform the retrieving and delivering . detecting a fault in a first AV (110-1); in response to detecting said fault, transmitting a communication for alerting an AV of the fault , wherein said communication is a device-to-device wireless communication for cellular communication; receiving said communication at a second AV (110-2); the second AV generating a response to said communication and sending the response to the first AV; identifying, at the first AV and in dependence upon the response as received by the first AV, the second AV as being capable of retrieving at least part of the first AV and delivering said at least part to an intended destination , the at least part of the AV being the first AV or a payload of the first AV; and instructing the second AV to perform the retrieving and delivering .