mhurhangee/patent-ind-claim-en huggingface dataset:
A controller for a lighting system that is controllable by at least a first user and a second user, different from the first user, the controller being configured to: detect adjustment of a setting of the lighting system by a first user across a first dimming and/or color range; and control an adjustability of the lighting system by a second user as a function of the adjustment of the setting of the lighting system by the first user, such that the second user can set a setting across a second dimming and/or color range, smaller than the first dimming and/or color range; characterized by wherein the controller is configured to control the adjustability of the lighting system by the second user such that the adjustability of the lighting system by the second user is dependent on a time when the first user adjusted the setting of the light system . detect adjustment of a setting of the lighting system by a first user across a first dimming and/or color range; and control an adjustability of the lighting system by a second user as a function of the adjustment of the setting of the lighting system by the first user, such that the second user can set a setting across a second dimming and/or color range, smaller than the first dimming and/or color range; characterized by wherein the controller is configured to control the adjustability of the lighting system by the second user such that the adjustability of the lighting system by the second user is dependent on a time when the first user adjusted the setting of the light system .
A mobile telecommunications network including: a network core operable to provide core network functions; and a radio access network having radio means for wireless communication with mobile terminals registered with the telecommunications network, and control means operable to host a plurality of applications for use by users of the mobile terminals , each application having respective capabilities; wherein the control means includes a client function and the network core includes a director function operable to communicate with the client function ; wherein the control means is operable to exchange information with the network core , the information comprising the capabilities of the applications hosted by the control means ; and wherein the director function is operable to provide the client function with respective policy data which specifies how requests relating to respective ones of the mobile terminals are handled by the control means , which policy data is dependent upon the capabilities of the applications hosted by the control means . a network core operable to provide core network functions; and a radio access network having radio means for wireless communication with mobile terminals registered with the telecommunications network, and control means operable to host a plurality of applications for use by users of the mobile terminals , each application having respective capabilities; radio means for wireless communication with mobile terminals registered with the telecommunications network, and control means operable to host a plurality of applications for use by users of the mobile terminals , each application having respective capabilities; wherein the control means includes a client function and the network core includes a director function operable to communicate with the client function ; wherein the control means is operable to exchange information with the network core , the information comprising the capabilities of the applications hosted by the control means ; and wherein the director function is operable to provide the client function with respective policy data which specifies how requests relating to respective ones of the mobile terminals are handled by the control means , which policy data is dependent upon the capabilities of the applications hosted by the control means .
A method for data transmission by a terminal device using a determined transport block size, TBS, comprising: determining , by a terminal device, number of resource elements, REs, for a physical sidelink shared channel, PSSCH, in a second resource according to a first resource used for transmitting a physical sidelink control channel, PSCCH, wherein the second resource is indicated by the PSCCH and used for transmitting the PSSCH, the first resource at least partially overlaps with the second resource, and the REs for the PSSCH do not comprise REs in the first resource; and determining , by the terminal device, the TBS, for the PSSCH according to the number of the REs for the PSSCH comprising: determining, by the terminal device, number of information bits according to the number of the REs for the PSSCH; and determining, by the terminal device, the TBS according to the number of the information bits, wherein the number of the information bits satisfies N info = N RE × R × Q m × v , N RE represents the number of the REs for the PSSCH, R represents a transmission bit rate, Q m represents a modulation order, and v represents number of transmission layers; wherein determining, by the terminal device, the TBS according to the number of the information bits comprises: obtaining, by the terminal device, quantified number of information bits by quantifying the number of the information bits; and determining, by the terminal device, the TBS according to the quantified number of the information bits. determining , by a terminal device, number of resource elements, REs, for a physical sidelink shared channel, PSSCH, in a second resource according to a first resource used for transmitting a physical sidelink control channel, PSCCH, wherein the second resource is indicated by the PSCCH and used for transmitting the PSSCH, the first resource at least partially overlaps with the second resource, and the REs for the PSSCH do not comprise REs in the first resource; and determining , by the terminal device, the TBS, for the PSSCH according to the number of the REs for the PSSCH comprising: determining, by the terminal device, number of information bits according to the number of the REs for the PSSCH; and determining, by the terminal device, the TBS according to the number of the information bits, wherein the number of the information bits satisfies N info = N RE × R × Q m × v , N RE represents the number of the REs for the PSSCH, R represents a transmission bit rate, Q m represents a modulation order, and v represents number of transmission layers; wherein determining, by the terminal device, the TBS according to the number of the information bits comprises: obtaining, by the terminal device, quantified number of information bits by quantifying the number of the information bits; and determining, by the terminal device, the TBS according to the quantified number of the information bits. obtaining, by the terminal device, quantified number of information bits by quantifying the number of the information bits; and determining, by the terminal device, the TBS according to the quantified number of the information bits.
Spinning-mill machine with a multiple number of cross-winding devices arranged next to each other and on two machine sides located in the longitudinal direction of the spinning-mill machine , each of which is provided for winding yarn onto sleeves, whereas the cross-winding devices are collected into a multiple number of sections (5.1 to 5.5), with a multiple number of sleeve stacks (7.1 to 7.4) for the stockpiling of empty sleeves and with several sleeve transport devices (6.1 to 6.4) arranged along the cross-winding devices for supplying the cross-winding devices with empty sleeves from the sleeve stack (7.1 to 7.4), characterized in that multiple sleeve stacks (7.1 to 7.4) are arranged on each machine side, and each sleeve stack (7.1 to 7.4) is allocated with its own stationary sleeve transport device (6.1 to 6.4), wherein each of the sleeve transport devices (6.1 to 6.4) extends along the cross-winding devices of one machine side. with a multiple number of cross-winding devices arranged next to each other and on two machine sides located in the longitudinal direction of the spinning-mill machine , each of which is provided for winding yarn onto sleeves, whereas the cross-winding devices are collected into a multiple number of sections (5.1 to 5.5), with a multiple number of sleeve stacks (7.1 to 7.4) for the stockpiling of empty sleeves and with several sleeve transport devices (6.1 to 6.4) arranged along the cross-winding devices for supplying the cross-winding devices with empty sleeves from the sleeve stack (7.1 to 7.4), characterized in that multiple sleeve stacks (7.1 to 7.4) are arranged on each machine side, and each sleeve stack (7.1 to 7.4) is allocated with its own stationary sleeve transport device (6.1 to 6.4), wherein each of the sleeve transport devices (6.1 to 6.4) extends along the cross-winding devices of one machine side.
A congestion flow identification method, comprising: obtaining , by a network device, a queue length of a non-congestion flow queue, wherein the non-congestion flow queue comprises a data packet or description information of the data packet; determining , by the network device, a target output port of a target data packet when the queue length of the non-congestion flow queue is greater than or equal to a first threshold, wherein the target data packet is a data packet waiting to enter the non-congestion flow queue or a next data packet waiting to be output from the non-congestion flow queue; and when utilization of the target output port is greater than or equal to a second threshold , determining , by the network device, that a flow corresponding to the target data packet is a congestion flow. obtaining , by a network device, a queue length of a non-congestion flow queue, wherein the non-congestion flow queue comprises a data packet or description information of the data packet; determining , by the network device, a target output port of a target data packet when the queue length of the non-congestion flow queue is greater than or equal to a first threshold, wherein the target data packet is a data packet waiting to enter the non-congestion flow queue or a next data packet waiting to be output from the non-congestion flow queue; and when utilization of the target output port is greater than or equal to a second threshold , determining , by the network device, that a flow corresponding to the target data packet is a congestion flow.
A wire processing system , comprising: a first wire ; a second wire ; and a tray having at least one tray surface configured to sequentially receive the first wire and the second wire from a wire feed system of a wire processing machine ; the tray surface having a surface feature configured to provide a wire-to-surface coefficient of friction between the tray surface and the first wire higher than a wire-to-wire coefficient of friction between the first wire and the second wire laying on top of the first wire ; and the wire-to-surface coefficient of friction reducing movement of at least a portion of the first wire relative to the tray surface during movement of the second wire relative to the first wire . a first wire ; a second wire ; and a tray having at least one tray surface configured to sequentially receive the first wire and the second wire from a wire feed system of a wire processing machine ; the tray surface having a surface feature configured to provide a wire-to-surface coefficient of friction between the tray surface and the first wire higher than a wire-to-wire coefficient of friction between the first wire and the second wire laying on top of the first wire ; and the wire-to-surface coefficient of friction reducing movement of at least a portion of the first wire relative to the tray surface during movement of the second wire relative to the first wire .
A method of monitoring the usage of an internal combustion engine comprising: performing an engine monitoring routine using a local monitoring device directly attached to an internal combustion engine including: generating a plurality of data points representative of the crankcase pressure of the internal combustion engine using a pressure sensor of the local monitoring device ; processing the generated data points to determine a first value representative of a firing frequency of the internal combustion engine characterized by generating an aggregated summary of the internal combustion engine usage based on the first value; and transmitting identification data for the local monitoring device and the aggregated summary from the local monitoring device to a remote application, wherein the remote application processes the transmitted aggregated summary based on the transmitted identification data to determine engine speed usage data for the internal combustion engine . performing an engine monitoring routine using a local monitoring device directly attached to an internal combustion engine including: generating a plurality of data points representative of the crankcase pressure of the internal combustion engine using a pressure sensor of the local monitoring device ; processing the generated data points to determine a first value representative of a firing frequency of the internal combustion engine characterized by generating an aggregated summary of the internal combustion engine usage based on the first value; and transmitting identification data for the local monitoring device and the aggregated summary from the local monitoring device to a remote application, generating a plurality of data points representative of the crankcase pressure of the internal combustion engine using a pressure sensor of the local monitoring device ; processing the generated data points to determine a first value representative of a firing frequency of the internal combustion engine characterized by generating an aggregated summary of the internal combustion engine usage based on the first value; and transmitting identification data for the local monitoring device and the aggregated summary from the local monitoring device to a remote application, wherein the remote application processes the transmitted aggregated summary based on the transmitted identification data to determine engine speed usage data for the internal combustion engine .
A method for storing energy in lye by desorption of water vapour from poor lye and absorption of water vapour into rich lye, wherein lye cycles are combined with primary and secondary aqueous heat carrier circuits (1.4, 2.2), such that - on the one hand, the heat required for the desorption is recuperatively transferred (1.1) from a primary heat carrier circuit (1.4) to the lye (1.1) and the dissipated heat is replaced in the heat carrier circuit by recuperative heat supply and/or in that the water vapour (1.24) resulting from the desorption of the lye is compressed (1.10) and incorporated into the heat carrier circuit by condensation (1.5) or the vapour from the desorption is condensed for the purpose of evaporating an external heat pump working medium, and - on the other hand, the heat generated during absorption is transferred from the lye to a secondary aqueous heat carrier circuit (2.2) and water bound into the heat carrier is removed from it by flash evaporation (2.3) via saturated vapour, wherein the technical work required for the compression (1.10) of the desorption vapour (1.24) is provided by conversion of electrical energy and the technical work capacity of the saturated vapour from the flash evaporation (2.3) produced during absorption is utilized for electrical energy production via an expansion machine , the vapour required for the absorption is taken from a first expansion machine , fed to the absorption process stage and incorporated into the lye, and the vapour extracted after the expansion machine is dried by recuperative heat transfer (7.1) before it is fed to the absorption . - on the one hand, the heat required for the desorption is recuperatively transferred (1.1) from a primary heat carrier circuit (1.4) to the lye (1.1) and the dissipated heat is replaced in the heat carrier circuit by recuperative heat supply and/or in that the water vapour (1.24) resulting from the desorption of the lye is compressed (1.10) and incorporated into the heat carrier circuit by condensation (1.5) or the vapour from the desorption is condensed for the purpose of evaporating an external heat pump working medium, and - on the other hand, the heat generated during absorption is transferred from the lye to a secondary aqueous heat carrier circuit (2.2) and water bound into the heat carrier is removed from it by flash evaporation (2.3) via saturated vapour,
Device for handling coins, having a first receiving container and at least one second receiving container for storing coins , and having a sorting unit for feeding coins to the first receiving container and to the second receiving container , wherein the sorting unit comprises a positionally fixed support element and a transport element which is driven in a direction of circulation (P2) and which is moved relative to a support surface of the support element , the support element has, in the support surface , a first opening , having a first width directed transversely to the direction of circulation (P2), and a second opening , arranged after the first opening as seen in the direction of circulation (P2) and having a second width directed transversely to the direction of circulation (P2), the first width is smaller than the second width, the transport element transports the coins , lying on the support surface , along a transport path of the sorting unit such that the coins , in a manner dependent on their diameter, are fed through the first opening to the first receiving container or through the second opening to the second receiving container , wherein the transport path is delimited by the transport element and the support surface , and wherein a coin , when transported along the transport path , slides with a first side on the support surface , and wherein the transport element comprises a contact region, which, when the coin is transported along the transport path , makes contact with a second side, opposite the first side, of the coin and transports the coin in the direction of circulation (P2) via this contact, characterized in that the transport element comprises a multiplicity of pin- or web-like positioning elements which keep the coins , when transported along the transport path , in a preset orientation on the transport element , wherein the preset orientation is preset such that the centre points of the transported coins are moved over the centre points of the openings .
A glass-polymer laminate structure comprising: a flexible glass substrate having a thickness of no more than 0.3 mm; a polymer layer laminated to a surface of the flexible glass substrate; and an adhesive layer that laminates the polymer layer to the flexible glass substrate characterised in that the polymer layer has a coefficient of thermal expansion (CTE) that is at least 2 times a CTE of the flexible glass substrate, or has a CTE that is at least 3 ppm/°C greater than a CTE of the flexible glass substrate, and in that the adhesive layer is heat activated at an activation temperature of greater than 50° C such that the polymer layer is laminated to the surface of the flexible glass substrate after the polymer layer has been thermally expanded, and cooled at a rate of 1-2° C/minute or less down to room temperature to provide the flexible glass substrate with the compressive stress of at least 30 MPa across a thickness of the flexible glass substrate. a flexible glass substrate having a thickness of no more than 0.3 mm; a polymer layer laminated to a surface of the flexible glass substrate; and an adhesive layer that laminates the polymer layer to the flexible glass substrate characterised in that the polymer layer has a coefficient of thermal expansion (CTE) that is at least 2 times a CTE of the flexible glass substrate, or has a CTE that is at least 3 ppm/°C greater than a CTE of the flexible glass substrate, and in that the adhesive layer is heat activated at an activation temperature of greater than 50° C such that the polymer layer is laminated to the surface of the flexible glass substrate after the polymer layer has been thermally expanded, and cooled at a rate of 1-2° C/minute or less down to room temperature to provide the flexible glass substrate with the compressive stress of at least 30 MPa across a thickness of the flexible glass substrate.
A method of screening for a Cas9 molecule/guide RNA (gRNA) molecule complex for administration to a subject, the method comprising: (a) generating a plurality of samples, each sample comprising a Cas9 molecule/gRNA molecule complex generated by combining a Cas9 molecule and one of a plurality of gRNA molecules; (b) detecting a melting temperature (T m ) value of the Cas9 molecule/gRNA molecule complex in each of the plurality of samples; and (c) selecting at least one sample from the plurality of samples based on one or more of (i) a comparison of the T m values in the plurality of samples to a T m value of a reference Cas9 molecule, a reference Cas9 molecule/gRNA molecule complex or a pre-determined threshold T m value, or (ii) a relative ordering of the T m values of the plurality of samples. (a) generating a plurality of samples, each sample comprising a Cas9 molecule/gRNA molecule complex generated by combining a Cas9 molecule and one of a plurality of gRNA molecules; (b) detecting a melting temperature (T m ) value of the Cas9 molecule/gRNA molecule complex in each of the plurality of samples; and (c) selecting at least one sample from the plurality of samples based on one or more of (i) a comparison of the T m values in the plurality of samples to a T m value of a reference Cas9 molecule, a reference Cas9 molecule/gRNA molecule complex or a pre-determined threshold T m value, or (ii) a relative ordering of the T m values of the plurality of samples.
A radio frequency, RF, communication device comprising: an RF spectral sensor configured to sense a dynamically changing RF spectral environment; RF circuitry having at least one settable parameter ; and a controller cooperating with the RF spectral sensor and RF circuitry to dynamically set the at least one settable parameter thereby affecting power consumption and RF communication performance by using an artificial intelligence, AI, model based upon the power consumption and the RF communication performance in the dynamically changing RF spectral environment, and wherein the controller is configured to periodically sample the RF spectral sensor ; and wherein the AI model includes a plurality of spectral environment classifications. an RF spectral sensor configured to sense a dynamically changing RF spectral environment; RF circuitry having at least one settable parameter ; and a controller cooperating with the RF spectral sensor and RF circuitry to dynamically set the at least one settable parameter thereby affecting power consumption and RF communication performance by using an artificial intelligence, AI, model based upon the power consumption and the RF communication performance in the dynamically changing RF spectral environment, and wherein the controller is configured to periodically sample the RF spectral sensor ; and wherein the AI model includes a plurality of spectral environment classifications.