mhurhangee/ep-ind-claims huggingface dataset:
A method, comprising: associating a pluggable policy module (116, 126, 136, 326, 412, 414, 524) with an application when executing at a session layer device within a session over Internet Protocol, SoIP, network (140, 440); receiving a policy service request at the session layer device from an endpoint (150, 310, 480) in communication with the session layer device; and defining a session control protocol signal based on a policy value sent to the application from the pluggable policy module (116, 126, 136, 326, 412, 414, 524), the policy value being calculated at the pluggable policy module (116, 126, 136, 326, 412, 414, 524) based on an input value associated with the policy service request, wherein the policy value comprises a call admission control, CAC, value that triggers, in response to the CAC value satisfying a threshold condition, the session layer device to define the session control protocol signal as a request to establish a session between the endpoint (150, 310, 480) and another device. associating a pluggable policy module (116, 126, 136, 326, 412, 414, 524) with an application when executing at a session layer device within a session over Internet Protocol, SoIP, network (140, 440); receiving a policy service request at the session layer device from an endpoint (150, 310, 480) in communication with the session layer device; and defining a session control protocol signal based on a policy value sent to the application from the pluggable policy module (116, 126, 136, 326, 412, 414, 524), the policy value being calculated at the pluggable policy module (116, 126, 136, 326, 412, 414, 524) based on an input value associated with the policy service request,
Method to determine the phosphorus content in a steel bath during the LD process, wherein, after and/or during the process of blowing in oxygen, the bath temperature and the proportion of phosphorus is measured, characterised in that the development of the phosphorus concentration in the steel is determined by analysis of at least the content of CO and CO2 in the exhaust gas and the exhaust gas flow, wherein the phosphorus content is determined from the smoothed carbon burn-up, the measured temperature of the melt, the amount of phosphorus in the converter from the added raw materials at the start of the blowing, the added amount of slag and the basicity of the slag, wherein the calculation is performed according to the formula, P = f dC dt, T, P sum, Sl, Bas,... where:... Concentration of phosphorus in the steel, dC dt... C-burn-up, T... Temperature of the melt, P sum... P-amount in the converter, Sl... Amount of slag, Bas... Basicity of the slag, wherein the phosphorus content is calculated using the following formula: P = k 1 ⋅ ln dC dt + k 2 ⋅ e − k 3 T + k 4 ⋅ P sum Sl + k 5 ⋅ Bas + const or P = k 1 ⋅ ln dC dt + k 2 ⋅ e − k 3 + k 4 dC dt T + k 5 ⋅ P sum Sl + k 6 ⋅ Bas + const Wherein the parameters k 1 -k 6 and const are determined from records of different batches, for which the phosphorus content of the finished steel was measured by chemical analysis, wherein the phosphorus content of the finished steel melt is measured by chemical analysis, and the parameters of the calculation are iteratively adapted with these values using the Gauss method.... Concentration of phosphorus in the steel, dC dt... C-burn-up, T... Temperature of the melt, P sum... P-amount in the converter, Sl... Amount of slag, Bas... Basicity of the slag, wherein the phosphorus content is calculated using the following formula: P = k 1 ⋅ ln dC dt + k 2 ⋅ e − k 3 T + k 4 ⋅ P sum Sl + k 5 ⋅ Bas + const or P = k 1 ⋅ ln dC dt + k 2 ⋅ e − k 3 + k 4 dC dt T + k 5 ⋅ P sum Sl + k 6 ⋅ Bas + const Wherein the parameters k 1 -k 6 and const are determined from records of different batches, for which the phosphorus content of the finished steel was measured by chemical analysis, wherein the phosphorus content of the finished steel melt is measured by chemical analysis, and the parameters of the calculation are iteratively adapted with these values using the Gauss method.
A liquid crystal display device including a liquid crystal display panel having liquid crystal sandwiched between a first substrate and a second substrate having detection electrodes of a touch panel, and having a plurality of pixels arranged in a matrix, wherein the liquid crystal display panel includes: pixel electrodes which are arranged in the plurality of pixels respectively; and a counter electrode which is divided into counter electrodes (CT1-CT20) of a plurality of blocks; characterized by further comprising a counter electrode selector circuit (CTSC) that selects one block of the respective counter electrodes (CT1-CT20) of the plurality of blocks, wherein the counter electrodes (CT1-CT20) of the respective blocks are electrically commonly provided for the respective pixels of a plurality of display lines in series, and wherein a touch panel scanning voltage is applied to the one block of the counter electrodes (CT1-CT20) of the plurality of blocks which is selected by the counter electrode selector circuit (CTSC), while a counter voltage is applied to one or more blocks of the counter electrodes of the plurality of blocks which are not selected by the counter electrode selector circuit (CTSC). pixel electrodes which are arranged in the plurality of pixels respectively; and a counter electrode which is divided into counter electrodes (CT1-CT20) of a plurality of blocks; characterized by further comprising a counter electrode selector circuit (CTSC) that selects one block of the respective counter electrodes (CT1-CT20) of the plurality of blocks, wherein the counter electrodes (CT1-CT20) of the respective blocks are electrically commonly provided for the respective pixels of a plurality of display lines in series, and wherein a touch panel scanning voltage is applied to the one block of the counter electrodes (CT1-CT20) of the plurality of blocks which is selected by the counter electrode selector circuit (CTSC), while a counter voltage is applied to one or more blocks of the counter electrodes of the plurality of blocks which are not selected by the counter electrode selector circuit (CTSC).
A circuit comprising: a processing circuit comprising a plurality of circuit domains, each circuit domain comprising a plurality of transistors and being configured to apply one or more corresponding transistor biasing voltages to said transistors; and a control circuit configured to determine, based on at least a selected accuracy setting of the processing circuit, the level of said one or more transistor biasing voltages to be applied in each of said circuit domains, the control circuit being further configured to cause said transistor biasing voltages to be applied to the circuit domains. a processing circuit comprising a plurality of circuit domains, each circuit domain comprising a plurality of transistors and being configured to apply one or more corresponding transistor biasing voltages to said transistors; and a control circuit configured to determine, based on at least a selected accuracy setting of the processing circuit, the level of said one or more transistor biasing voltages to be applied in each of said circuit domains, the control circuit being further configured to cause said transistor biasing voltages to be applied to the circuit domains.
Apparatus for the production of a container obtained from the blowing of at least one preform inserted into a mold and by blowing inside thereof a pressurized gas, the mold including at least two half-molds, and characterized in that it further comprises: - verifying means for verifying the final status or the value of the final pressure inside of said container inside the mold before the opening of said mold, - controlling means for controlling said verifying means, and - a control unit for controlling said controlling means and said verifying means, the arrangement being such that the opening of the mold occurs only after said control unit receives an enabling signal from said verifying means relevant to the status or the values of the final pressure inside of the container. - verifying means for verifying the final status or the value of the final pressure inside of said container inside the mold before the opening of said mold, - controlling means for controlling said verifying means, and - a control unit for controlling said controlling means and said verifying means,
A water-based composition comprising: an aqueous medium in an amount of 40% by mass or more; fine cellulose fibers having a number-average fiber diameter of 0.5 nm or more and 200 nm or less, and having a carboxy group content of 0.1 mmol/g or more, wherein the carboxy group forms a salt with an alkali metal; and an additive comprising one or more compounds having carbon atoms and nitrogen atom or atoms, wherein a ratio thereof per molecule of the compound (number of carbon atoms/number of nitrogen atoms) is 3 or more and 45 or less, wherein the content of the component is 0.2% by mass or more and 10% by mass or less, and wherein the content of the component is 3 parts by mass or more and 150 parts by mass or less, based on 100 parts by mass of the component, and wherein the water-based composition has a viscosity at 80°C at a rotational speed of 30 rpm of 80 mPa·s or more. an aqueous medium in an amount of 40% by mass or more; fine cellulose fibers having a number-average fiber diameter of 0.5 nm or more and 200 nm or less, and having a carboxy group content of 0.1 mmol/g or more, wherein the carboxy group forms a salt with an alkali metal; and an additive comprising one or more compounds having carbon atoms and nitrogen atom or atoms, wherein a ratio thereof per molecule of the compound (number of carbon atoms/number of nitrogen atoms) is 3 or more and 45 or less, fine cellulose fibers having a number-average fiber diameter of 0.5 nm or more and 200 nm or less, and having a carboxy group content of 0.1 mmol/g or more, wherein the carboxy group forms a salt with an alkali metal; and an additive comprising one or more compounds having carbon atoms and nitrogen atom or atoms, wherein a ratio thereof per molecule of the compound (number of carbon atoms/number of nitrogen atoms) is 3 or more and 45 or less, wherein the content of the component is 0.2% by mass or more and 10% by mass or less, and wherein the content of the component is 3 parts by mass or more and 150 parts by mass or less, based on 100 parts by mass of the component, and wherein the water-based composition has a viscosity at 80°C at a rotational speed of 30 rpm of 80 mPa·s or more.
A roddable multi-valve manifold comprising, a body having top and bottom surfaces, first and second lateral sides and front and rear aspects, first and second fluid conducting roddable bores extending from the top surface to the bottom surface and including first and second pluggable ports located within the terminal ends of the bores at the top surface of the body, first and second outlet passages intersecting the respective first and second fluid conducting bores and extending to the rear aspect of the body, and first and second pressure transducer ports disposed on the rear aspect of the body in communication with the respective first and second outlet passages, first and second valve means carried in the respective first and second lateral sides of the body for selectively blocking the fluid flow in the respective first and second outlet passages; and first and second block valves having distal ends and carried by the front aspect of the body, each of said block valves (50, 52) having a through-port at its distal end where the through-port of each of said block valves (50, 52) is positioned within the respective first and second fluid conducting bores. a body having top and bottom surfaces, first and second lateral sides and front and rear aspects, first and second fluid conducting roddable bores extending from the top surface to the bottom surface and including first and second pluggable ports located within the terminal ends of the bores at the top surface of the body, first and second outlet passages intersecting the respective first and second fluid conducting bores and extending to the rear aspect of the body, and first and second pressure transducer ports disposed on the rear aspect of the body in communication with the respective first and second outlet passages, first and second valve means carried in the respective first and second lateral sides of the body for selectively blocking the fluid flow in the respective first and second outlet passages; and first and second block valves having distal ends and carried by the front aspect of the body, each of said block valves (50, 52) having a through-port at its distal end where the through-port of each of said block valves (50, 52) is positioned within the respective first and second fluid conducting bores.
An industrial tunnel oven for the heat treatment of parts such as motor-vehicle bodies and the like, comprising an outer wall (111, 211, 311) inside which there is defined a tunnel allowing the passage of the parts from an inlet end to an opposite outlet end of the tunnel by means of a conveying line present along the tunnel, hot air being introduced inside the tunnel by means of hot-air inlet openings (118, 218), the outer wall (111, 211, 311) has a cylindrical form, except optionally in a base zone, with an axis parallel to the direction of movement of the parts and there is at least one inner wall (117, 217, 317) which defines between itself and the outer wall (111, 211, 311) at least one interspace (130, 230, 330) for circulation of the hot air entering and/or leaving the tunnel, characterized in that the inner wall (117, 217, 317) extends along the sides of the tunnel along an arc so as to define on its end side edges the said openings (118, 218) as slits defined by the end side edge of the inner wall (117, 217, 317) in the vicinity of the outer wall (111, 211, 311) and extending along the tunnel for introducing hot air into the tunnel and/or openings (124, 224, 324) for evacuation of hot air from the tunnel.
A method for performing a random access procedure by a wireless device operating in a wireless communication system, the method comprising: receiving, from a network, a configuration of physical random access channel, PRACH, resources; triggering the random access procedure; activating a first uplink, UL, bandwidth part, BWP, to be an active UL BWP for the wireless device; activating a first downlink, DL, BWP to be an active DL BWP for the wireless device; based on the PRACH resources for the random access procedure not being configured in the active UL BWP: (i) switching the active UL BWP from the first UL BWP to an initial UL BWP, and (ii) switching the active DL BWP from the first DL BWP to an initial DL BWP; performing a PRACH transmission, to the network, in the active UL BWP which has been switched to the initial UL BWP; and receiving, from the network, a random access response in the active DL BWP which has been switched to the initial DL BWP, in response to the PRACH transmission. receiving, from a network, a configuration of physical random access channel, PRACH, resources; triggering the random access procedure; activating a first uplink, UL, bandwidth part, BWP, to be an active UL BWP for the wireless device; activating a first downlink, DL, BWP to be an active DL BWP for the wireless device; based on the PRACH resources for the random access procedure not being configured in the active UL BWP: (i) switching the active UL BWP from the first UL BWP to an initial UL BWP, and (ii) switching the active DL BWP from the first DL BWP to an initial DL BWP; performing a PRACH transmission, to the network, in the active UL BWP which has been switched to the initial UL BWP; and receiving, from the network, a random access response in the active DL BWP which has been switched to the initial DL BWP, in response to the PRACH transmission.
Process for preparing polycarbonates, comprising the step of reacting bisphenols with a transesterifying reagent in the presence of a catalyst, characterized in that the transesterifying reagent comprises a compound of the general formula: R-X-C -X'-R' where X and X' are each independently S or Se, and R and R' are each independently alkyl or aryl or R and R' together are an alkylene chain. X and X' are each independently S or Se, and R and R' are each independently alkyl or aryl or R and R' together are an alkylene chain.
Method of adjusting a conveyor of preforms, each preform having a format and consisting at least of a body surmounted by an annular collar projecting radially relative to said body, forming a portion under the collar, and including on the top a neck terminated by a rim, said method comprising a preadjustment phase during which preforms with a first format are conveyed along a longitudinal conveying surface and in which: - each preform is supported under its collar by at least one pair of guides defining a lateral support space of said portion under the collar; - the lower part of the body of each preform is guided by at least one pair of rails defining a lower transverse holding gap; - the rim of each preform is guided by at least one top guide defining a maximum height between said guides and the rim; said pair of guides, said pair of rails, said top guide extending along the longitudinal conveying surface; said lateral support space, said lower holding gap and said maximum height being adjusted independently relative to said first format at different adjustment points distributed along the longitudinal conveying surface; - the values of the upper lateral space, of the holding gap and of the maximum height for said first format of preforms are recorded; said method being characterized in that it comprises a starting phase in which the upper lateral space and/or the holding gap and/or the maximum height is or are adjusted automatically in accordance with said recorded values, whereby the conveyor may be used to convey another format of preforms between the preadjustment phase and the starting phase. - each preform is supported under its collar by at least one pair of guides defining a lateral support space of said portion under the collar; - the lower part of the body of each preform is guided by at least one pair of rails defining a lower transverse holding gap; - the rim of each preform is guided by at least one top guide defining a maximum height between said guides and the rim; - the values of the upper lateral space, of the holding gap and of the maximum height for said first format of preforms are recorded;
A method, being executed by a processor, for assessing a function of a patient's heart, comprising: determining a time-based electrical characteristic for a plurality of points corresponding to at least one spatial region of the heart based on electrical measurement data, the electrical measurement data for each of the plurality of points being derived from measurements acquired concurrently during a same time interval and from a non-invasive arrangement of sensors attached to the patient; grouping the plurality of points into at least two subsets of points corresponding to different chambers of the heart based on at least one of a spatial location for each of the plurality of points or the time-based electrical characteristic for each of the plurality of points, wherein each respective subset of plural points represents spatial regions of a given chamber of the heart; and quantifying an indication of synchrony between the different chambers of the heart based on a relative analysis of the determined time-based electrical characteristic for each of the at least two subsets of points acquired concurrently during the same heart beat. determining a time-based electrical characteristic for a plurality of points corresponding to at least one spatial region of the heart based on electrical measurement data, the electrical measurement data for each of the plurality of points being derived from measurements acquired concurrently during a same time interval and from a non-invasive arrangement of sensors attached to the patient; grouping the plurality of points into at least two subsets of points corresponding to different chambers of the heart based on at least one of a spatial location for each of the plurality of points or the time-based electrical characteristic for each of the plurality of points, wherein each respective subset of plural points represents spatial regions of a given chamber of the heart; and quantifying an indication of synchrony between the different chambers of the heart based on a relative analysis of the determined time-based electrical characteristic for each of the at least two subsets of points acquired concurrently during the same heart beat.
A method performed by a first base station (210, 403, 503) in a wireless communication system, the method comprising: transmitting, to a second base station (203, 405, 505) associated with a dual connectivity for a terminal (105, 225, 401, 501), a first message for configuring at least one cell associated with the second base (203, 405, 505) station, the first message including in device coexistence, IDC, related information and discontinuous reception, DRX, related information associated with the terminal (105, 225, 401, 501); receiving, from the second base station (203, 405, 505), a second message as a response to the first message; and transmitting, to the terminal (105, 225, 401, 501), a third message associated with the dual connectivity, based on the second message, wherein the IDC related information includes a frequency affected by an IDC problem and a direction of IDC interference. transmitting, to a second base station (203, 405, 505) associated with a dual connectivity for a terminal (105, 225, 401, 501), a first message for configuring at least one cell associated with the second base (203, 405, 505) station, the first message including in device coexistence, IDC, related information and discontinuous reception, DRX, related information associated with the terminal (105, 225, 401, 501); receiving, from the second base station (203, 405, 505), a second message as a response to the first message; and transmitting, to the terminal (105, 225, 401, 501), a third message associated with the dual connectivity, based on the second message, wherein the IDC related information includes a frequency affected by an IDC problem and a direction of IDC interference.
A planar cladding element for a wall of a building, wherein one or more channels (K100, K102, K102') running from top to bottom - when the cladding element is mounted on the wall - for allowing a heat carrier medium or coolant to be passed through, preferably for air, is/are provided in the cladding element, wherein the at least one channel (K100, K102, K102') - when the cladding element is mounted on the wall - is outwardly open towards the wall at a delimiting face (100, 102) facing the wall, wherein the one or more channels (K100, K102, K102') in relation to a line of symmetry running from top to bottom, which line of symmetry halves the delimiting face (100, 102) facing the wall, is/are arranged in such a way that a greater area of the at least one channel (K100, K102, K102') is included in one half of the delimiting face (100, 102) than in the other half, characterised in that only one half of the delimiting face (100, 102) has at least one channel (K100, K102, K102') running from top to bottom, whereas no channels are provided in the other half of the delimiting face.