mhurhangee/ep-ind-claims huggingface dataset:
A method for distributing application or higher layer communications network signaling entity operational status information among session initiation protocol, SIP, entities, the method comprising: at a first SIP entity separate from an application or higher layer communications network signaling entity with which the first SIP entity communicates: determining operational status information for the application or higher layer communications network signaling entity; identifying at least one second SIP entity to receive the operational status information; and distributing the operational status information to the at least one second SIP entity, wherein the first entity, the at least one second SIP entity, and the application or higher layer communications network signaling entity are associated with network nodes separate from subscriber communication terminals; the method further comprising, at the at least one second SIP entity, in response to receiving the operational status information regarding the application or higher layer communications network signaling entity, testing communication with the application or higher layer communications network signaling entity. determining operational status information for the application or higher layer communications network signaling entity; identifying at least one second SIP entity to receive the operational status information; and distributing the operational status information to the at least one second SIP entity, wherein the first entity, the at least one second SIP entity, and the application or higher layer communications network signaling entity are associated with network nodes separate from subscriber communication terminals; the method further comprising, at the at least one second SIP entity, in response to receiving the operational status information regarding the application or higher layer communications network signaling entity, testing communication with the application or higher layer communications network signaling entity.
A method of sorbing carbon dioxide on a porous polymeric sorbent, the method comprising: providing the porous polymeric sorbent, wherein the porous polymeric sorbent has a BET specific surface area equal to at least 300 m 2 /gram, the porous polymeric sorbent comprising (a) 8 to 52 weight percent of a first monomeric unit of Formula; (b) 48 to 85 weight percent of a second monomeric unit of Formula; and (c) 0 to 20 weight percent of a third monomeric unit of Formula wherein R 1 is hydrogen or alkyl; and exposing the porous polymeric sorbent to a gas mixture comprising carbon dioxide; and sorbing carbon dioxide on the porous polymeric sorbent. providing the porous polymeric sorbent, wherein the porous polymeric sorbent has a BET specific surface area equal to at least 300 m 2 /gram, the porous polymeric sorbent comprising (a) 8 to 52 weight percent of a first monomeric unit of Formula; (b) 48 to 85 weight percent of a second monomeric unit of Formula; and (c) 0 to 20 weight percent of a third monomeric unit of Formula wherein R 1 is hydrogen or alkyl; and (a) 8 to 52 weight percent of a first monomeric unit of Formula; (b) 48 to 85 weight percent of a second monomeric unit of Formula; and (c) 0 to 20 weight percent of a third monomeric unit of Formula wherein R 1 is hydrogen or alkyl; and exposing the porous polymeric sorbent to a gas mixture comprising carbon dioxide; and sorbing carbon dioxide on the porous polymeric sorbent.
A DC-power system for powering a vessel, comprising: a main DC bus, a power generating unit arranged (P1, P2, P3, P4) to feed the main DC bus, a disconnector arranged between the main DC bus and the power generating unit (P1, P2, P3, P4) for isolating the power generating unit (P1, P2, P3, P4) from the main DC bus in case of a main DC bus fault, wherein when a fault has occurred in the DC power system, the power generating unit can limit its output voltage and current to a level that permits the disconnector to operate within its rating, and a drive unit (D1, D2) arranged to be fed by the main DC bus, wherein the drive unit (D1, D2) comprises a drive unit bus system, converter units (I1, I2, I3) connected to the drive unit bus system, and fuses arranged between the drive unit bus system and the converter units (I1, I2, I3) for protecting the converter units (I1, I2, I3) in case of a drive unit fault, wherein the drive unit (D1, D2) comprises a first type of input unit arranged between the main DC bus and the drive unit bus system, and wherein the first type of input unit comprises a disconnector for disconnecting the drive unit (D1, D2) from the main DC bus in case of a drive unit fault. a main DC bus, a power generating unit arranged (P1, P2, P3, P4) to feed the main DC bus, a disconnector arranged between the main DC bus and the power generating unit (P1, P2, P3, P4) for isolating the power generating unit (P1, P2, P3, P4) from the main DC bus in case of a main DC bus fault, wherein when a fault has occurred in the DC power system, the power generating unit can limit its output voltage and current to a level that permits the disconnector to operate within its rating, and a drive unit (D1, D2) arranged to be fed by the main DC bus, wherein the drive unit (D1, D2) comprises a drive unit bus system, converter units (I1, I2, I3) connected to the drive unit bus system, and fuses arranged between the drive unit bus system and the converter units (I1, I2, I3) for protecting the converter units (I1, I2, I3) in case of a drive unit fault, wherein the drive unit (D1, D2) comprises a first type of input unit arranged between the main DC bus and the drive unit bus system, and wherein the first type of input unit comprises a disconnector for disconnecting the drive unit (D1, D2) from the main DC bus in case of a drive unit fault.
A mounting device for executing a mounting process of mounting a component on a board, the mounting device comprising: a mounting head that includes at least one pickup section (24,25) for picking up the component and being configured to move the picked up component; a storage section which is configured to store at least a first correction value, being determined at a first position on XYZ axes on which the mounting head works, and a second correction value determined at a second position different from the first position; and a control section configured to execute the mounting process by using the first correction value and/or the second correction value stored in the storage section, characterized in that the mounting head has a first elevation position as the first position where the pickup section (24,25) is elevated on a Z-axis and a second elevation position as the second position where the pickup section (24,25) is elevated at a position different from the first elevation position, and the storage section being configured to store a first elevation correction value corresponding to a combination of the first elevation position and the pickup section (24,25) and serving as the first correction value for position correction of the component and a second elevation correction value corresponding to a combination of the second elevation position and the pickup section (24,25) and serving as the second correction value for position correction of the component. a mounting head that includes at least one pickup section (24,25) for picking up the component and being configured to move the picked up component; a storage section which is configured to store at least a first correction value, being determined at a first position on XYZ axes on which the mounting head works, and a second correction value determined at a second position different from the first position; and a control section configured to execute the mounting process by using the first correction value and/or the second correction value stored in the storage section, characterized in that the mounting head has a first elevation position as the first position where the pickup section (24,25) is elevated on a Z-axis and a second elevation position as the second position where the pickup section (24,25) is elevated at a position different from the first elevation position, and the storage section being configured to store a first elevation correction value corresponding to a combination of the first elevation position and the pickup section (24,25) and serving as the first correction value for position correction of the component and a second elevation correction value corresponding to a combination of the second elevation position and the pickup section (24,25) and serving as the second correction value for position correction of the component.
A rotary position sensor comprising: a first structure and a second structure, the first structure being rotatably coupled to the second structure by means of a bearing having a rotation axis; a dipole magnet attached to the first structure with a direction of magnetic moment perpendicular to the rotation axis; and a sensing unit attached to the second structure and configured to measure the absolute position of the dipole magnet's rotation angle, wherein the first structure comprises a structural alignment characteristic which is detectable on the outside of the rotary position sensor, wherein the dipole magnet is attached to the first structure in such a way that the position of the structural alignment characteristic and the direction of the magnetic moment of the dipole magnet have a predefined relative angle with respect to the rotation axis. a first structure and a second structure, the first structure being rotatably coupled to the second structure by means of a bearing having a rotation axis; a dipole magnet attached to the first structure with a direction of magnetic moment perpendicular to the rotation axis; and a sensing unit attached to the second structure and configured to measure the absolute position of the dipole magnet's rotation angle, wherein the first structure comprises a structural alignment characteristic which is detectable on the outside of the rotary position sensor, wherein the dipole magnet is attached to the first structure in such a way that the position of the structural alignment characteristic and the direction of the magnetic moment of the dipole magnet have a predefined relative angle with respect to the rotation axis.
A plastic bottle for containing a product under pressure, the plastic bottle comprising: (a) a rounded base at a bottom end of the bottle, the rounded base being convex towards the outside of the bottle; (b) a body extending about an axis of the bottle from the base towards a top end of the bottle; and (c) a finish at the top end of the bottle, the finish extending about the axis of the bottle, wherein the plastic bottle is configured such that the product can be dispensed as an aerosol, and characterised by the base being thickest at a position adjacent to the axis of the bottle, with the thickness decreasing at a rate of 3.8 mm per mm along the base from the axis of the bottle. (a) a rounded base at a bottom end of the bottle, the rounded base being convex towards the outside of the bottle; (b) a body extending about an axis of the bottle from the base towards a top end of the bottle; and (c) a finish at the top end of the bottle, the finish extending about the axis of the bottle, wherein the plastic bottle is configured such that the product can be dispensed as an aerosol, and characterised by the base being thickest at a position adjacent to the axis of the bottle, with the thickness decreasing at a rate of 3.8 mm per mm along the base from the axis of the bottle.
Method for dynamically activating ANDSF policies in a 3GPP access network, characterized in the steps of: defining ANDSF rules and structuring ANDSF policies, each including one or more of said ANDSF rules, into sets, each of the sets forming an ANDSF policy set, defining for each ANDSF policy set a set identifier - ANDSF Set-ID - and inserting each ANDSF Set-ID into the respective ANDSF policy set, preconfiguring ANDSF policy sets in a targeted UE by providing any of said ANDSF policy sets from an ANDSF server to the UE in non-real time before it is to be used by the UE, when one of the ANDSF policy sets should become active at the targeted UE, indicating to the targeted UE in real time or quasi real-time which of the ANDSF policy sets to apply by conveying the respective one of said ANDSF Set-IDs to the targeted UE via the 3GPP control plane, using the ANDSF Set-ID by the UE logic in order to dynamically activate the respective ANDSF policy set. defining ANDSF rules and structuring ANDSF policies, each including one or more of said ANDSF rules, into sets, each of the sets forming an ANDSF policy set, defining for each ANDSF policy set a set identifier - ANDSF Set-ID - and inserting each ANDSF Set-ID into the respective ANDSF policy set, preconfiguring ANDSF policy sets in a targeted UE by providing any of said ANDSF policy sets from an ANDSF server to the UE in non-real time before it is to be used by the UE, when one of the ANDSF policy sets should become active at the targeted UE, indicating to the targeted UE in real time or quasi real-time which of the ANDSF policy sets to apply by conveying the respective one of said ANDSF Set-IDs to the targeted UE via the 3GPP control plane, using the ANDSF Set-ID by the UE logic in order to dynamically activate the respective ANDSF policy set.
A method of amplifying an input signal (Vint+, Vin-) to generate an output signal (Vout+, Vout-) comprising amplifying the input signal in multiple stages using a common bias current to generate the output signal, wherein amplifying, the input signal in multiple stages comprises applying a first transconductance gain to a first voltage signal related to the input signal to generate a first current signal, wherein amplifying the input signal in multiple stages further comprises: applying a current gain to the first current signal to generate a second current signal; applying the second current signal through a load (Lload 1, Lload 2) to generate a second voltage signal related to the output signal; and applying a negative conductance (M7,M8,Igm) across the load. applying a current gain to the first current signal to generate a second current signal; applying the second current signal through a load (Lload 1, Lload 2) to generate a second voltage signal related to the output signal; and applying a negative conductance (M7,M8,Igm) across the load.
A reinforced concrete component having a concrete component and at least one reinforcing layer arranged within the concrete component, wherein the concrete layer has a plurality of reinforcing rods that are arranged adjacent to and spaced apart from one another, the reinforcing rods are connected to one another via at least one structural connecting element and the structural connecting element is arranged at an angle between 70□ and 110□ to the longitudinal extension of the reinforcing rods, and, in a region of the concrete component stressed primarily on pressure, the reinforcing layer has a direction that corresponds to the direction of the load transfer, wherein the concrete component is free of stirrups so that the reinforcing layer is not wrapped in stirrups, and the structural connecting element has a first end and a second end spaced apart from the first end, and the first end and/or the second end each has an end cap. the concrete layer has a plurality of reinforcing rods that are arranged adjacent to and spaced apart from one another, the reinforcing rods are connected to one another via at least one structural connecting element and the structural connecting element is arranged at an angle between 70□ and 110□ to the longitudinal extension of the reinforcing rods, and, in a region of the concrete component stressed primarily on pressure, the reinforcing layer has a direction that corresponds to the direction of the load transfer, wherein the concrete component is free of stirrups so that the reinforcing layer is not wrapped in stirrups, and the structural connecting element has a first end and a second end spaced apart from the first end, and the first end and/or the second end each has an end cap.
A method for determining a safety-critical state in a cyber-physical system, CPS,, the method being performed by a safety component of the CPS and comprising: obtaining combined sensor data from a plurality of sensors (410, 424) available in the CPS, the combined sensor data being indicative of a current state of the CPS; obtaining at least one intent-based safety policy, wherein an intent-based safety policy corresponds to a safety policy indicative of a predefined safety-related intent concerning an operational state of the CPS; and checking the combined sensor data against the at least one intent-based safety policy to determine whether or not the CPS is in a safety-critical state and characterized in that checking the combined sensor data against the at least one intent-based safety policy is triggered by a new sensor measurement of a sensor (410, 424) of the plurality of sensors (410, 424). obtaining combined sensor data from a plurality of sensors (410, 424) available in the CPS, the combined sensor data being indicative of a current state of the CPS; obtaining at least one intent-based safety policy, wherein an intent-based safety policy corresponds to a safety policy indicative of a predefined safety-related intent concerning an operational state of the CPS; and checking the combined sensor data against the at least one intent-based safety policy to determine whether or not the CPS is in a safety-critical state and characterized in that checking the combined sensor data against the at least one intent-based safety policy is triggered by a new sensor measurement of a sensor (410, 424) of the plurality of sensors (410, 424).
A material for a photovoltaic device comprising: an electron donating organic material having a structure represented by the general formula: wherein each of R 1 and R 2 that may be the same or different represents an optionally substituted aryl group, where said aryl group is chosen from a phenyl group, a naphthyl group, a biphenyl group, a phenanthryl group, an anthryl group, a terphenyl group, a pyrenyl group, a fluorenyl group and a perylenyl group; provided that when a substituent is present, the substituent is an alkyl group having 1 to 3 carbon atoms, an alkoxy group having 1 to 3 carbon atoms, a heteroaryl group, or halogen; each of R 3 through R 14 that may be the same or different represents hydrogen, an alkyl group, an alkoxy group, an aryl group, an heteroaryl group, or halogen; each of R 15 and R 16 that may be the same or different represents an alkyl group having 6 or more carbon atoms; X represents carbon, nitrogen or silicon; in the case where X is nitrogen, no R 16 exists; and n represents a range from 10 or more to 1000 or less.
A method of limiting the number of simultaneous sessions in a wireless local area network, WLAN, the method comprising: determining whether subscriber terminal information has been changed between an old session and a new session; maintaining the old session if said subscriber terminal information has not changed; and characterized by: establishing and authenticating the new session and then disconnecting the old session if said subscriber terminal information has changed. determining whether subscriber terminal information has been changed between an old session and a new session; maintaining the old session if said subscriber terminal information has not changed; and characterized by: establishing and authenticating the new session and then disconnecting the old session if said subscriber terminal information has changed.
Method for recording reference data describing at least one object and/or a specified environment around the or an object, with the aforementioned reference data being provided for comparison with data which has been captured by at least one vehicle-mounted assistance system and which describes at least one object and/or a specified environment around the object or an object, wherein the reference data is captured from a bird's-eye view by at least one image capture device, wherein the reference data is captured from a recording position in or on a structure, wherein the reference data is captured by means of an image capture device mounted in or on a mounting device, wherein the mounting device is placed in or on the structure, specifically a building, characterised in that, a mounting device is used, which comprises specifically a roll-shaped movement means movably mounted on a basic framework relative to a substrate and at least one pivotably mounted support arm relative to the basic framework with at least one support section forming a mounting point for the image capture device, wherein at least one support element, specifically in the form of a pedestal or comprising a pedestal, is attached to the support arm, which is used to support the support arm pivoted relative to the basic framework on the substrate.
Fitting for a liquid gas bottle comprising a gas tap for gas withdrawal and an opening for refilling the liquid gas bottle, wherein the opening for refilling the liquid gas bottle is connected in a gas-conducting manner to a hose-shaped or tubular line of the fitting, which can extent into the liquid gas bottle by at least 300 mm, preferably at least 400 mm, comprising an opening at the bottom side of the fitting adjacent to the hose-shaped or tubular line, which can be connected to the gas tap in a gas-conducting manner, wherein the hose-shaped or tubular line protrudes relative to the opening, specifically by at least 200 mm, particularly preferred by at least 300 mm, wherein the opening for refilling the liquid gas bottle is arranged at the upper side of the fitting, wherein the gas tap protrudes sidewards from the fitting, wherein the gas tap can be opened and closed by a handwheel, wherein the opening for refilling the liquid gas bottle can be opened and closed by a valve, wherein the valve comprises a valve body, which is pressed to its closed valve position by a biased spring, wherein there is a closing element, in particular in the shape of a hollow cylindrical section, which, if the valve body is moved in its opened position, interrupts a gas-conducting connection between the gas tap and the opening at the bottom side of the fitting, in which the gas of a connected liquid gas bottle can flow into.