mhurhangee/patent-ind-claim-en huggingface dataset:
A method of thermo-chemical energy storage by carrying out reversible chemical reactions for storing heat energy in the form of chemical energy in one or more ammine complexes of transition metal salts of the formula [Me(NH 3 ) n ]X, wherein Me is at least one transition metal ion, X is one or more counterions in an amount sufficient for charge equalization of the complex, and n is the number of NH 3 ligands coordinated to the respective transition metal salt, by using the following chemical equilibrium: [Me(NH 3 ) n ]X + ΔH R MeX + n NH 3 , characterized in that said heat storage is performed by endothermic cleavage of the NH 3 ligands from the ammine complex and/or that the heat release is performed by exothermic loading of the transition metal salt with the NH 3 ligands in at least two steps at different temperatures, with the proviso that the number n of NH 3 ligands coordinated to the transition metal salt is at least 2.
A balanced regulating valve with integrated actuation means for regulation of a medium, such as an inert gas, where the regulating valve comprises a valve housing , composed of at least two valve housing parts, wherein there is an inlet opening for an inlet pressure, and an outlet opening for an outlet pressure, where furthermore there is in the valve housing an inlet opening for a pilot pressure, where the regulating valve furthermore comprises at least one spring element and one valve piston movable between a closed and an open position, where the valve piston , via a valve seat with a first area having a first diameter D1, in the closed position closes off the inlet opening , and where the inlet pressure acts on said first area on the valve piston in opposite direction to said spring element , where the valve piston furthermore comprises a seat seal and a bore , such that the inlet pressure further acts through said bore on a second area , having a second diameter D2, in the same direction as said spring element , and where said valve seat seal and only one additional sealing element between said valve piston and said valve housing are arranged at the inlet pressure side, characterized in that the valve piston further comprises a third ring formed area defined between a third diameter D3 and a fourth diameter D4, and where D4 >D3>D1,on which third ring formed area the outlet pressure acts on the valve piston in opposite direction to the pilot pressure supplied to the pilot pressure inlet opening and where the valve actuation means are integrated in the valve housing .
A system for heating aerosolizable material to volatilise at least one component of said aerosolizable material to generate a flow of aerosol for inhalation by a user, the system comprising: an article comprising a body of aerosolizable material and a ventilation region to enable a flow of air into the article , wherein the ventilation region is between a proximal end and the aerosolizable material , in a cooling segment ; and an apparatus in which the aerosolizable material of the article can be heated, the apparatus comprising: a housing into which the article can be inserted to be heated; an opening in the housing to allow air to flow into the housing when the user draws on the apparatus or the article ; and an airflow control arrangement configured to, in use, when the article is inserted in the housing , control the amount of airflow through the opening in the housing in order to control the amount of airflow passing into the article through the ventilation region . an article comprising a body of aerosolizable material and a ventilation region to enable a flow of air into the article , wherein the ventilation region is between a proximal end and the aerosolizable material , in a cooling segment ; and an apparatus in which the aerosolizable material of the article can be heated, the apparatus comprising: a housing into which the article can be inserted to be heated; an opening in the housing to allow air to flow into the housing when the user draws on the apparatus or the article ; and an airflow control arrangement configured to, in use, when the article is inserted in the housing , control the amount of airflow through the opening in the housing in order to control the amount of airflow passing into the article through the ventilation region . a housing into which the article can be inserted to be heated; an opening in the housing to allow air to flow into the housing when the user draws on the apparatus or the article ; and an airflow control arrangement configured to, in use, when the article is inserted in the housing , control the amount of airflow through the opening in the housing in order to control the amount of airflow passing into the article through the ventilation region .
A slot antenna for use in a radar for detecting an object located in vicinity of a vehicle, the slot antenna comprising a substrate integrated waveguide (SIW) having a plurality of bent slots formed therein, wherein the SIW comprises: a first bent slot formed such that a center thereof is positioned at a point spaced apart from a short-circuit surface by one half a guided wavelength in a length direction of the SIW ; and a second bent slot formed such that a center thereof is positioned at a point spaced apart from the center of the first bent slot by the guided wavelength in the length direction of the SIW . a first bent slot formed such that a center thereof is positioned at a point spaced apart from a short-circuit surface by one half a guided wavelength in a length direction of the SIW ; and a second bent slot formed such that a center thereof is positioned at a point spaced apart from the center of the first bent slot by the guided wavelength in the length direction of the SIW .
A method performed by a mobile small station , wherein the mobile small station includes a mobile cell base station connected to a core network through a wireless backhaul offered by a macro station , the method comprising: providing a wide area network connection via the mobile small station to act as a relay for a small station moving network ; obtaining measurement information from mobile small stations in the small station moving network , and wherein the measurement information comprises signal strength over time of a signal of the macro station measured by the mobile small stations; exchanging measurement information with other mobile small stations in the small station moving network ; comparing exchanged measurement information from multiple mobile small stations to determine a speed of the mobile small stations moving network and an order of the mobile small stations with respect to the direction of movement in the small station moving network ; detecting a potential necessity to perform a handover prior to degradation of communications between a current mobile small station and the macro station ; defining an optimum point in time for the handover, wherein the optimum point in time for the handover is defined as a point in time when a signal from a current relay is decreasing while a signal from a potential new relay is increasing, and such signals are equal at a given point in time, wherein one or more of the mobile small stations in the small station moving network act as a potential new relay; and handing over relay responsibilities to the potential new relay. obtaining measurement information from mobile small stations in the small station moving network , and wherein the measurement information comprises signal strength over time of a signal of the macro station measured by the mobile small stations; exchanging measurement information with other mobile small stations in the small station moving network ; comparing exchanged measurement information from multiple mobile small stations to determine a speed of the mobile small stations moving network and an order of the mobile small stations with respect to the direction of movement in the small station moving network ; detecting a potential necessity to perform a handover prior to degradation of communications between a current mobile small station and the macro station ; defining an optimum point in time for the handover, wherein the optimum point in time for the handover is defined as a point in time when a signal from a current relay is decreasing while a signal from a potential new relay is increasing, and such signals are equal at a given point in time, wherein one or more of the mobile small stations in the small station moving network act as a potential new relay;
A system for data enrichment on insulated appliances, the system comprising: an appliance for performing knowledge mining in a disconnected state, wherein the appliance is operative to: ingest data of a first type from a first data source coupled to the appliance; enrich at least a first portion of the ingested data, when in the disconnected state, with at least one of the cognitive functions of the plurality of containerized cognitive functions ; identify at least a second portion of the ingested data for enrichment by a cognitive function that is not within the plurality of containerized cognitive functions; store the enriched data in an index ; determine whether the enriched data corresponds to any data items within a watch list ; triage the ingested data and the enriched data in the index for uploading comprising prioritizing enriched data corresponding to items within the watch list ; upload the triaged data when reconnected to a network ; and import an updated plurality of containerized cognitive functions when reconnected. an appliance for performing knowledge mining in a disconnected state, wherein the appliance is operative to: ingest data of a first type from a first data source coupled to the appliance; enrich at least a first portion of the ingested data, when in the disconnected state, with at least one of the cognitive functions of the plurality of containerized cognitive functions ; identify at least a second portion of the ingested data for enrichment by a cognitive function that is not within the plurality of containerized cognitive functions; store the enriched data in an index ; ingest data of a first type from a first data source coupled to the appliance; enrich at least a first portion of the ingested data, when in the disconnected state, with at least one of the cognitive functions of the plurality of containerized cognitive functions ; identify at least a second portion of the ingested data for enrichment by a cognitive function that is not within the plurality of containerized cognitive functions; store the enriched data in an index ; determine whether the enriched data corresponds to any data items within a watch list ; triage the ingested data and the enriched data in the index for uploading comprising prioritizing enriched data corresponding to items within the watch list ; upload the triaged data when reconnected to a network ; and import an updated plurality of containerized cognitive functions when reconnected. upload the triaged data when reconnected to a network ; and import an updated plurality of containerized cognitive functions when reconnected.
A method of estimating an influx profile (q i ) for at least one well fluid (oil, gas, water) to a producing petroleum well with two or more influx zones or influx locations to a production flow (F); analysing collected samples (c), the samples (c) previously collected by: - arranging new or selecting existing tracer sources with distinct tracer materials in known levels of the well, each of said tracer sources arranged at or immediately downstream of and exposed to the fluids in a corresponding influx zone ; - and wherein each said tracer sources has an even leak out rate (q t41 , qt42, q t43 ...) to said well fluid; - the samples being collected at a location downstream of the tracer sources at known sampling times (t) after inducing a transient in the production rate of the entire production flow or for at least one of the influx zones, thereby changing the local exposure times of the tracer sources to the fluid; wherein analysing the collected samples (c) comprises: analysing the collected samples (c) for concentration and type of tracer material from said possible tracer sources ; and - based on the analysed concentrations and type of tracer materials in the samples as a function of the sampling times, calculating said influx profile (q i ). analysing collected samples (c), the samples (c) previously collected by: - arranging new or selecting existing tracer sources with distinct tracer materials in known levels of the well, each of said tracer sources arranged at or immediately downstream of and exposed to the fluids in a corresponding influx zone ; - and wherein each said tracer sources has an even leak out rate (q t41 , qt42, q t43 ...) to said well fluid; - the samples being collected at a location downstream of the tracer sources at known sampling times (t) after inducing a transient in the production rate of the entire production flow or for at least one of the influx zones, thereby changing the local exposure times of the tracer sources to the fluid; - arranging new or selecting existing tracer sources with distinct tracer materials in known levels of the well, each of said tracer sources arranged at or immediately downstream of and exposed to the fluids in a corresponding influx zone ; - and wherein each said tracer sources has an even leak out rate (q t41 , qt42, q t43 ...) to said well fluid; - the samples being collected at a location downstream of the tracer sources at known sampling times (t) after inducing a transient in the production rate of the entire production flow or for at least one of the influx zones, thereby changing the local exposure times of the tracer sources to the fluid; wherein analysing the collected samples (c) comprises: analysing the collected samples (c) for concentration and type of tracer material from said possible tracer sources ; and - based on the analysed concentrations and type of tracer materials in the samples as a function of the sampling times, calculating said influx profile (q i ). - based on the analysed concentrations and type of tracer materials in the samples as a function of the sampling times, calculating said influx profile (q i ).
A method for production of a low pressure liquid carbon dioxide (CO 2 ) stream, the method comprising: providing a high pressure CO 2 containing stream at a pressure of 60 bar (6 MPa) or greater; dividing the high pressure CO 2 containing stream into a bulk portion and a cooling portion; expanding the cooling portion of the high pressure CO 2 containing stream to reduce the temperature thereof to 0 °C or less; cooling the bulk portion of the high pressure CO 2 containing stream to a temperature of 5 °C or less by passing the bulk portion of the high pressure CO 2 containing stream through a heat exchanger against the expanded cooling portion of the high pressure CO 2 containing stream; and expanding the cooled, bulk portion of the high pressure CO 2 containing stream to a pressure that is 30 bar (3 MPa) or less but is greater than the triple point pressure of CO 2 so as to form the low pressure liquid CO 2 stream. providing a high pressure CO 2 containing stream at a pressure of 60 bar (6 MPa) or greater; dividing the high pressure CO 2 containing stream into a bulk portion and a cooling portion; expanding the cooling portion of the high pressure CO 2 containing stream to reduce the temperature thereof to 0 °C or less; cooling the bulk portion of the high pressure CO 2 containing stream to a temperature of 5 °C or less by passing the bulk portion of the high pressure CO 2 containing stream through a heat exchanger against the expanded cooling portion of the high pressure CO 2 containing stream; and expanding the cooled, bulk portion of the high pressure CO 2 containing stream to a pressure that is 30 bar (3 MPa) or less but is greater than the triple point pressure of CO 2 so as to form the low pressure liquid CO 2 stream.
A method for monitoring signals in an integrated circuit, comprising: monitoring a probed signal of monitored circuitry implemented within the integrated circuit using a logic analyzer circuit also implemented within the integrated circuit ; detecting state changes in the probed signal using the logic analyzer circuit ; the method is characterised by : generating , within the logic analyzer circuit , a file specifying time stamped state changes of the probed signal; providing the file to a processor within the integrated circuit, wherein the processor is configured to execute program code configured to read the file; generating, using the processor, a waveform view of the monitored signal from the file ; and outputting the waveform view to an external system via a video output port implemented in the integrated circuit. monitoring a probed signal of monitored circuitry implemented within the integrated circuit using a logic analyzer circuit also implemented within the integrated circuit ; detecting state changes in the probed signal using the logic analyzer circuit ; the method is characterised by : generating , within the logic analyzer circuit , a file specifying time stamped state changes of the probed signal; providing the file to a processor within the integrated circuit, wherein the processor is configured to execute program code configured to read the file; generating, using the processor, a waveform view of the monitored signal from the file ; and outputting the waveform view to an external system via a video output port implemented in the integrated circuit. generating , within the logic analyzer circuit , a file specifying time stamped state changes of the probed signal; providing the file to a processor within the integrated circuit, wherein the processor is configured to execute program code configured to read the file; generating, using the processor, a waveform view of the monitored signal from the file ; and outputting the waveform view to an external system via a video output port implemented in the integrated circuit.
A roller brush assembly, comprising: a roller brush device , comprising a roller brush housing and a roller brush rotatably connected in the roller brush housing , one side of the roller brush housing being provided with a swing arm ; a lifting drive motor (30, c); and a lifting transmission assembly, connected to the lifting drive motor (30, c) and driven by the lifting drive motor (30, c) to drive the swing arm to swing, allowing the roller brush device to be lifted; characterized in that , the roller brush device is capable of backswing downward by its own gravity when the lifting drive motor (30, c) drives the lifting transmission assembly to make a reverse movement. a roller brush device , comprising a roller brush housing and a roller brush rotatably connected in the roller brush housing , one side of the roller brush housing being provided with a swing arm ; a lifting drive motor (30, c); and a lifting transmission assembly, connected to the lifting drive motor (30, c) and driven by the lifting drive motor (30, c) to drive the swing arm to swing, allowing the roller brush device to be lifted; characterized in that , the roller brush device is capable of backswing downward by its own gravity when the lifting drive motor (30, c) drives the lifting transmission assembly to make a reverse movement.
A terminal comprising: a receiving section configured to receive a higher layer parameter indicating whether group hopping of a sequence used in an uplink control channel is to be enabled or disabled; a control section configured to determine a group number, u, based on a slot number and a frequency hopping index, if the higher layer parameter indicates enable, as u = f gh + f ss mod 30 wherein ƒ gh = ∑ m = 0 7 2 m c 8 2 n s μ + n hop + m mod 30 f ss = n ID mod 30 where c(i) is a pseudo-random sequence n s μ is the slot number n hop is the frequency hopping index n ID is a certain index; and a transmitting section configured to transmit the uplink control channel, to which the sequence corresponding to the group number is applied. a receiving section configured to receive a higher layer parameter indicating whether group hopping of a sequence used in an uplink control channel is to be enabled or disabled; a control section configured to determine a group number, u, based on a slot number and a frequency hopping index, if the higher layer parameter indicates enable, as u = f gh + f ss mod 30 wherein ƒ gh = ∑ m = 0 7 2 m c 8 2 n s μ + n hop + m mod 30 f ss = n ID mod 30 where c(i) is a pseudo-random sequence n s μ is the slot number n hop is the frequency hopping index n ID is a certain index; and c(i) is a pseudo-random sequence n s μ is the slot number n hop is the frequency hopping index n ID is a certain index; a transmitting section configured to transmit the uplink control channel, to which the sequence corresponding to the group number is applied.
A nonaqueous electrolyte battery comprising: a positive electrode; a negative electrode having an operating potential of 0.7 V or more with respect to a potential of metallic lithium; a separator disposed between the positive electrode and the negative electrode, the separator being made of a fiber-made nonwoven fabric having a tortuosity of 1.8 to 3 and a vacancy of 40% to 60%; and a nonaqueous electrolyte, wherein the operating potential, the tortuosity and the vacancy are measured as described in the specification. a positive electrode; a negative electrode having an operating potential of 0.7 V or more with respect to a potential of metallic lithium; a separator disposed between the positive electrode and the negative electrode, the separator being made of a fiber-made nonwoven fabric having a tortuosity of 1.8 to 3 and a vacancy of 40% to 60%; and a nonaqueous electrolyte, wherein the operating potential, the tortuosity and the vacancy are measured as described in the specification.
A process for screening polymer from a polymer-lean vapor stream, whereby the process comprises the steps of: A) separating an effluent stream (a) comprising the polymer and a first mixture of hydrocarbons into a polymer-rich stream (b) and the polymer-lean vapor stream (c); B) spraying a condensed vapor composition stream (d) comprising a condensed vapor composition comprising a second mixture of hydrocarbons into the polymer-lean vapor stream (c) ; C) screening the polymer-lean vapor stream (c) to obtain a screened condensed vapor composition stream (f) comprising the polymer and the condensed vapor composition. A) separating an effluent stream (a) comprising the polymer and a first mixture of hydrocarbons into a polymer-rich stream (b) and the polymer-lean vapor stream (c); B) spraying a condensed vapor composition stream (d) comprising a condensed vapor composition comprising a second mixture of hydrocarbons into the polymer-lean vapor stream (c) ; C) screening the polymer-lean vapor stream (c) to obtain a screened condensed vapor composition stream (f) comprising the polymer and the condensed vapor composition.