mhurhangee/ep-ind-claims huggingface dataset:
A method of configuring a host computing device (114, 150, 200) in a process control plant to automatically perform an action or a set of actions to control a process, the method comprising: providing a field device including a setpoint and coupled to a remote terminal unit, RTU; generating, at the host computing device, a workflow template, that includes a sequence of one or more steps to be performed by the host computing device, wherein said generating includes user selection of at least some of the one or more steps from a set of predetermined steps corresponding to actions executable by the host computing device; creating, at the host computing device, an instance of the workflow template; generating, at the host computing device, a trigger condition to automatically trigger the instance of the workflow template; detecting the trigger condition; and executing, at the host computing device, the sequence of the one or more steps in response to detecting the trigger condition, wherein the one or more steps in the workflow template enable the host computing device to communicate with the RTU for enabling communication between the host computing device and the field device, and enable the host computing device to adjust the setpoint of the field device coupled to the RTU in response to determining, based on data received from the RTU, a change in a process parameter associated with the field device, wherein the one or more steps in the workflow template further enable the host computing device to download a configuration profile from the host computing device to the RTU in response to detecting that the RTU has lost configuration. providing a field device including a setpoint and coupled to a remote terminal unit, RTU; generating, at the host computing device, a workflow template, that includes a sequence of one or more steps to be performed by the host computing device, wherein said generating includes user selection of at least some of the one or more steps from a set of predetermined steps corresponding to actions executable by the host computing device; creating, at the host computing device, an instance of the workflow template; generating, at the host computing device, a trigger condition to automatically trigger the instance of the workflow template; detecting the trigger condition; and executing, at the host computing device, the sequence of the one or more steps in response to detecting the trigger condition, wherein the one or more steps in the workflow template enable the host computing device to communicate with the RTU for enabling communication between the host computing device and the field device, and enable the host computing device to adjust the setpoint of the field device coupled to the RTU in response to determining, based on data received from the RTU, a change in a process parameter associated with the field device, wherein the one or more steps in the workflow template further enable the host computing device to download a configuration profile from the host computing device to the RTU in response to detecting that the RTU has lost configuration.
A compound of the Formula or a pharmaceutically acceptable salt, stereoisomer, hydrate, or solvate thereof wherein, R 1 is phenyl optionally substituted with one or more substituents independently selected from linear or branched C 1-4 alkyl, hydroxyl, and - SO 3 H, R 2 is independently selected from halogen, -NCS, -SCN, N 3, and -OOCCH 3, and -OS(CH 3) 2, R is (CH 2) y, wherein y is 1 - 3, R 3 is independently one or more substituents selected from hydrogen, and - O(CH 2 CH 2 O) x R 4, provided that at least one R 3 is not hydrogen, wherein x is 1 -3, R 4 is independently selected from hydrogen, -CH 2 CH 2 OH, and -CH 2 CH 2 R 5, a folic acid group, a monosaccharide group, a disaccharide group, and a fatty acid group, R 5 is C 1-4 alkoxy. R 1 is phenyl optionally substituted with one or more substituents independently selected from linear or branched C 1-4 alkyl, hydroxyl, and - SO 3 H, R 2 is independently selected from halogen, -NCS, -SCN, N 3, and -OOCCH 3, and -OS(CH 3) 2, R is (CH 2) y, wherein y is 1 - 3, R 3 is independently one or more substituents selected from hydrogen, and - O(CH 2 CH 2 O) x R 4, provided that at least one R 3 is not hydrogen, wherein x is 1 -3, R 4 is independently selected from hydrogen, -CH 2 CH 2 OH, and -CH 2 CH 2 R 5, a folic acid group, a monosaccharide group, a disaccharide group, and a fatty acid group, R 5 is C 1-4 alkoxy.
A method for handling a service request in a third generation partnership project, 3GPP, network, wherein the method is performed by a selection node, the method comprising: initiating transmission of a first message towards at least a first Network Function, NF, node via a first Service Communication Proxy, SCP, node, wherein the first message is a status request; receiving, from the first SCP node, a second message indicating the status of the first NF node; and determining whether or not to initiate transmission of a first request, for the provision of a first service, via the first SCP node to the first NF node, the determination of whether or not to initiate transmission of the first request to the first NF node being made based on the status of the first NF node indicated by the second message. initiating transmission of a first message towards at least a first Network Function, NF, node via a first Service Communication Proxy, SCP, node, wherein the first message is a status request; receiving, from the first SCP node, a second message indicating the status of the first NF node; and determining whether or not to initiate transmission of a first request, for the provision of a first service, via the first SCP node to the first NF node, the determination of whether or not to initiate transmission of the first request to the first NF node being made based on the status of the first NF node indicated by the second message.
Method for the self-assembled production of a topographically surface structured cellulose element wherein in a first step a mold with on one side a first surface which is in a complementary manner topographically surface structured and which is permeable to oxygen is provided, wherein a liquid growth medium containing cellulose producing bacteria is provided, and wherein the mold is placed to form a liquid/air interface of the liquid growth medium such that the side of the mold with the first surface is in direct contact with the liquid growth medium, and with an opposite side is facing air or a specifically provided oxygen containing gas surrounding, allowing for said bacteria to produce and deposit cellulose on said first surface and developing on the interface therewith a topographically surface structured surface complementary thereto, until a contiguous cellulose layer with a thickness of the element of at least 0.3mm is formed; and wherein in a second step the element is removed from said mold. a mold with on one side a first surface which is in a complementary manner topographically surface structured and which is permeable to oxygen is provided, wherein a liquid growth medium containing cellulose producing bacteria is provided, and wherein the mold is placed to form a liquid/air interface of the liquid growth medium such that the side of the mold with the first surface is in direct contact with the liquid growth medium, and with an opposite side is facing air or a specifically provided oxygen containing gas surrounding, allowing for said bacteria to produce and deposit cellulose on said first surface and developing on the interface therewith a topographically surface structured surface complementary thereto, until a contiguous cellulose layer with a thickness of the element of at least 0.3mm is formed;
A method of making an article resistant to oxygen and moisture vapor transmission comprising the steps of providing a pre-existing metalized polymer film having a metal layer in direct contact with a polymer layer, shredding the pre-existing metalized polymer film to a particulate form, forming the shredded pre-existing metalized polymer film into pellets, crystallising the pellets of pre-existing metalized polymer film, blending the pellets of the crystallised pre-existing metalized polymer film with particles of a virgin polymer to form a mixture comprising 0.1 wt% to 95 wt% of the pre-existing metalized polymer and a complementary amount of virgin polymer, melt processing the mixture to form a reclaimed composition comprising metal particles uniformly dispersed in a polymeric matrix, and forming the reclaimed composition into an article resistant to oxygen and moisture vapor transmission. providing a pre-existing metalized polymer film having a metal layer in direct contact with a polymer layer, shredding the pre-existing metalized polymer film to a particulate form, forming the shredded pre-existing metalized polymer film into pellets, crystallising the pellets of pre-existing metalized polymer film, blending the pellets of the crystallised pre-existing metalized polymer film with particles of a virgin polymer to form a mixture comprising 0.1 wt% to 95 wt% of the pre-existing metalized polymer and a complementary amount of virgin polymer, melt processing the mixture to form a reclaimed composition comprising metal particles uniformly dispersed in a polymeric matrix, and forming the reclaimed composition into an article resistant to oxygen and moisture vapor transmission.
A device for decoding a video bitstream, the device includes a circuitry configured to: obtain, from the bitstream, a syntax element; wherein the syntax element is log2_diff_max_bt_min_qt_size; obtain information for a minimum size in luma samples of a luma leaf block resulting from quadtree splitting, MinQtSizeY; determine a maximum size in luma samples of a luma root block that can be split using a binary tree splitting, MaxBtSizeY, based on the information for MinQtSizeY and the obtained syntax element; determine whether binary splitting is allowed to be applied to a picture block based on the MaxBtSizeY; and obtain a coding block of the picture block based on the result of the determining; wherein the MaxBtSizeY equals the MinQtSizeY left shifted according to a value of the syntax element; wherein the circuitry is configured to determine the MaxBtSizeY considering that its lower limit is the MinQtSizeY. obtain, from the bitstream, a syntax element; wherein the syntax element is log2_diff_max_bt_min_qt_size; obtain information for a minimum size in luma samples of a luma leaf block resulting from quadtree splitting, MinQtSizeY; determine a maximum size in luma samples of a luma root block that can be split using a binary tree splitting, MaxBtSizeY, based on the information for MinQtSizeY and the obtained syntax element; determine whether binary splitting is allowed to be applied to a picture block based on the MaxBtSizeY; and obtain a coding block of the picture block based on the result of the determining; wherein the MaxBtSizeY equals the MinQtSizeY left shifted according to a value of the syntax element; wherein the circuitry is configured to determine the MaxBtSizeY considering that its lower limit is the MinQtSizeY.
A gas hob comprising a top plate; a first grate supported by the top plate such that surrounding vertically aligned a first burner and a wok burner having a first distance (a) between the centers, respectively and a second grate provided on the top plate side-by-side to the first grate surrounding a second burner horizontally aligned with the first burner and a third burner having a second distance (b) between the centers which is smaller than the first distance (a) aligned vertically therewith characterized by a lower support arm extending from the second grate to the radial center of the third burner and intermediate arm distance (x) between a first support arm extending from first grate to the wok burner on the same horizontal axis with the lower support arm and a second support arm disposed below and parallel to the first support arm at a predetermined intermediate arm distance (x) which is given by the formula: x = 2 a − b
A continuous process for heating a plurality of articles in a microwave heating system, said process comprising: (a) thermalizing said articles in a thermalization zone to thereby provide a plurality of thermalized articles having a substantially uniform temperature; (b) heating said thermalized articles in a microwave heating zone; and (c) cooling the heated articles in a quench zone, wherein said articles are passed through each of said thermalization zone, said microwave heating zone, and said quench zone via one or more conveyance systems, wherein said microwave heating system has an overall production rate of at least 20 packages per minute per convey line; and characterized in that said heating of step (b) thereby increases the average temperature of each article by at least 50°C, wherein at least a portion of said heating is carried out at a heating rate of at least 25°C per minute, and the heating of step (b) includes discharging microwave energy into a microwave chamber of said microwave heating zone via at least one launcher, wherein said launcher includes a microwave inlet and first and second spaced apart launch openings (938a, 938b, 938c), and wherein said launcher includes at least one dividing septum (940a, 940b) disposed between said microwave inlet and said launch openings (938a, 938b, 938c), wherein said dividing septum (940a, 940b) at least partially defines said first and second launch openings (938a, 938b, 938c), and wherein said discharging includes discharging a portion of said microwave energy into said microwave chamber via each of said first and second launch openings (938a, 938b, 938c). (a) thermalizing said articles in a thermalization zone to thereby provide a plurality of thermalized articles having a substantially uniform temperature; (b) heating said thermalized articles in a microwave heating zone; and (c) cooling the heated articles in a quench zone,
An optical wavelength conversion member comprising a ceramic sintered body having a fluorescent phase containing fluorescent crystal grains as a main component and a translucent phase containing translucent crystal grains as a main component, wherein the crystal grains of the fluorescent phase have a composition represented by formula A 3 B 5 O 12:Ce, and each of the element A and the element B is at least one element selected from the following element groups: A: Sc, Y, and lanthanoids (except for Ce), and B: Al and Ga; and the following relations are satisfied: 0.3 ≤ a < 34 and 300 μm < y < 1,050 μm, wherein a represents the ratio of the area of the translucent phase to the area of the fluorescent phase in a cross section of the optical wavelength conversion member, and y represents the interfacial length of the fluorescent phase in a unit area of 500 μm 2; characterized in that the Ce content of the compound represented by formula A 3 B 5 O 12:Ce is 0.1 mol% to 0.3 mol% relative to the element A of the compound. the crystal grains of the fluorescent phase have a composition represented by formula A 3 B 5 O 12:Ce, and each of the element A and the element B is at least one element selected from the following element groups: A: Sc, Y, and lanthanoids (except for Ce), and B: Al and Ga; and A: Sc, Y, and lanthanoids (except for Ce), and B: Al and Ga; and the following relations are satisfied: 0.3 ≤ a < 34 and 300 μm < y < 1,050 μm, wherein a represents the ratio of the area of the translucent phase to the area of the fluorescent phase in a cross section of the optical wavelength conversion member, and y represents the interfacial length of the fluorescent phase in a unit area of 500 μm 2; characterized in that the Ce content of the compound represented by formula A 3 B 5 O 12:Ce is 0.1 mol% to 0.3 mol% relative to the element A of the compound.
A guide wire holder for accommodating and holding a medical guide wire in place and for being affixed to a medical device, in particular on an endoscope, the guide wire holder comprising an affixation part, through which the guide wire is capable of being passed, and a guide wire carrier connected with the affixation part and projecting away from same, the guide wire carrier allowing for holding the guide wire in place by a guide wire accommodation device (5, 6, 9), which comprises a first guide wire deflection element deflecting and tensing the guide wire at a distance from the affixation part in a direction leading away from its pass-through direction in the affixation part, from which guide wire deflection element at further distances from the affixation part extend an additional guide wire deflection element and a yet further guide wire deflection element, characterized in that the guide wire carrier contains two carrier arms (3a, 3b) connected with one another, the guide wire accommodation device of the guide wire carrier as first guide wire deflection element comprises a deflection or tensing bracket rising on a flat initial region and being open on one side, which allows for deflecting the guide wire at a distance from the affixation part in a direction leading away from its pass-through direction in the affixation part and in this connection for tensing the guide wire, the guide wire accommodation device of the guide wire carrier at a further distance from the affixation part as additional guide wire deflection element comprises a guide wire contact surface between the two carrier arms (3a, 3b) on or close to the side of the guide wire carrier facing away from the affixation part, on which the guide wire is guidable along a guide track (at 9a), by which in the region of the respective guide wire contact surface a friction resistance is capable of being exerted on the guide wire guided over the named side of the guide wire carrier, and in that the two carrier arms (3a, 3b) of the guide wire carrier on their ends that lie farthest from a contact location on the affixation part as yet further guide wire deflection element each have an open offset region, in which the guide wire is deflectable at an angle out of its guide track on or close to the named side of the guide wire carrier around one of the carrier arms (3a, 3b).
An automotive vehicle comprising: - a 12 volt battery system, wherein the 12 volt battery system comprises: - a first battery electrically coupled between a positive terminal and a negative terminal of the 12 volt battery system, wherein the first battery comprises a first battery chemistry; - a second battery electrically coupled between the positive terminal and the negative terminal of the 12 volt battery system in parallel with the first battery, wherein the second battery comprises a second battery chemistry that has a higher charge acceptance rate than the first battery chemistry; and - an alternator electrically coupled to the positive terminal and the negative terminal of the 12 volt battery system; and characterized by - a control unit communicatively coupled to the alternator, wherein the control unit is programmed to, while the automotive vehicle is accelerating or cruising, micro-cycle the 12 volt battery system by: - instructing the alternator to output electrical power used to charge the 12 volt battery system when a first state of charge of the first battery is depleted to a lower state of charge threshold; and - instructing the alternator to cease outputting electrical power to the 12 volt battery system when the first state of charge of the first battery is charged up to an upper state of charge threshold. - a 12 volt battery system, wherein the 12 volt battery system comprises: - a first battery electrically coupled between a positive terminal and a negative terminal of the 12 volt battery system, wherein the first battery comprises a first battery chemistry; - a second battery electrically coupled between the positive terminal and the negative terminal of the 12 volt battery system in parallel with the first battery, wherein the second battery comprises a second battery chemistry that has a higher charge acceptance rate than the first battery chemistry; and - a first battery electrically coupled between a positive terminal and a negative terminal of the 12 volt battery system, wherein the first battery comprises a first battery chemistry; - a second battery electrically coupled between the positive terminal and the negative terminal of the 12 volt battery system in parallel with the first battery, wherein the second battery comprises a second battery chemistry that has a higher charge acceptance rate than the first battery chemistry; and - an alternator electrically coupled to the positive terminal and the negative terminal of the 12 volt battery system; and characterized by - a control unit communicatively coupled to the alternator, wherein the control unit is programmed to, while the automotive vehicle is accelerating or cruising, micro-cycle the 12 volt battery system by: - instructing the alternator to output electrical power used to charge the 12 volt battery system when a first state of charge of the first battery is depleted to a lower state of charge threshold; and - instructing the alternator to cease outputting electrical power to the 12 volt battery system when the first state of charge of the first battery is charged up to an upper state of charge threshold.
An end cap clip lock for improved alignment of a first and second associated trim components (128, 130) to one another and to an associated vehicle body, the end cap clip lock comprising: a clip having a first nose portion configured for receipt in the first associated vehicle trim component, and dimensioned for receipt between the second associated trim component and the associated vehicle body, characterised by a second nose portion disposed in parallel relation to the first nose portion and positioned to engage an external surface of the first associated vehicle trim component and to guide the clip lock, the clip lock further including a second, snap portion that interconnects with the associated vehicle body to hold the clip and the second associated vehicle trim component thereto.
A method for performing a non-access stratum, NAS, security procedure in wireless communications, the method comprising: receiving, at a wireless transmit/receive unit, WTRU, a NAS message that comprises a NAS sequence number, NAS SN, and a protocol header; performing an integrity check on the NAS message by using a COUNT value as an input to an integrity algorithm, wherein the COUNT value comprises a NAS SN, and a NAS HFN that may be a counter that increments by one per a pre-determined number of NAS SN increments; in response to the received NAS message failing the integrity check, discarding the NAS message; and in response to the received NAS message clearing the integrity check, processing the NAS message. receiving, at a wireless transmit/receive unit, WTRU, a NAS message that comprises a NAS sequence number, NAS SN, and a protocol header; performing an integrity check on the NAS message by using a COUNT value as an input to an integrity algorithm, wherein the COUNT value comprises a NAS SN, and a NAS HFN that may be a counter that increments by one per a pre-determined number of NAS SN increments; in response to the received NAS message failing the integrity check, discarding the NAS message; and in response to the received NAS message clearing the integrity check, processing the NAS message.