mhurhangee/ep-ind-claims huggingface dataset:
A method to execute a first recipe and an auxiliary recipe in a process control system, the method comprising: executing the first recipe, execution of the first recipe including reserving process control equipment necessary to complete the first recipe; and before completion of execution of the first recipe: identifying the auxiliary recipe; determining whether the first recipe has reached an entry point at which the auxiliary recipe can be executed; and executing the auxiliary recipe in response to determining that the first recipe has reached the entry point characterized in that identifying the auxiliary recipe comprises receiving, via a user interface, a user-selection of one of a plurality of auxiliary recipes stored in an auxiliary recipe database, and executing the auxiliary recipe comprises pausing execution of the first recipe without releasing the reserved process control equipment, executing one or more operations not specified by the first recipe using the reserved process control equipment, and resuming execution of the first recipe using the reserved process control equipment upon completion of the auxiliary recipe. executing the first recipe, execution of the first recipe including reserving process control equipment necessary to complete the first recipe; and before completion of execution of the first recipe: identifying the auxiliary recipe; determining whether the first recipe has reached an entry point at which the auxiliary recipe can be executed; and executing the auxiliary recipe in response to determining that the first recipe has reached the entry point characterized in that identifying the auxiliary recipe comprises receiving, via a user interface, a user-selection of one of a plurality of auxiliary recipes stored in an auxiliary recipe database, and executing the auxiliary recipe comprises pausing execution of the first recipe without releasing the reserved process control equipment, executing one or more operations not specified by the first recipe using the reserved process control equipment, and resuming execution of the first recipe using the reserved process control equipment upon completion of the auxiliary recipe. identifying the auxiliary recipe; determining whether the first recipe has reached an entry point at which the auxiliary recipe can be executed; and executing the auxiliary recipe in response to determining that the first recipe has reached the entry point characterized in that identifying the auxiliary recipe comprises receiving, via a user interface, a user-selection of one of a plurality of auxiliary recipes stored in an auxiliary recipe database, and executing the auxiliary recipe comprises pausing execution of the first recipe without releasing the reserved process control equipment, executing one or more operations not specified by the first recipe using the reserved process control equipment, and resuming execution of the first recipe using the reserved process control equipment upon completion of the auxiliary recipe.
A method for producing a coated lithium-nickel composite oxide particles, comprising: forming surface coats by bringing a cyclic siloxane into contact with surfaces of nickel-based lithium-nickel composite oxide particles by gas-phase contact wherein the cyclic siloxane is 2,4,6,8-tetramethylcyclotetrasiloxane of the following Formula: wherein an organic ether compound having an unsaturated bond at one end is added to a residual hydrogen atom after the gas-phase contact, and wherein, the lithium-nickel composite oxide is represented by the following Formula, Li x Ni (1-y-z) M y N z O 2 ··· wherein x is a value of from 0.80 to 1.10, y is a value of from 0.01 to 0.20, z is a value of from 0.01 to 0.15, and 1-y-z is a value exceeding 0.65, and M represents at least one element selected from Co or Mn, and N represents at least one element selected from Al, In or Sn. wherein an organic ether compound having an unsaturated bond at one end is added to a residual hydrogen atom after the gas-phase contact, and wherein, the lithium-nickel composite oxide is represented by the following Formula, Li x Ni (1-y-z) M y N z O 2 ··· wherein x is a value of from 0.80 to 1.10, y is a value of from 0.01 to 0.20, z is a value of from 0.01 to 0.15, and 1-y-z is a value exceeding 0.65, and M represents at least one element selected from Co or Mn, and N represents at least one element selected from Al, In or Sn.
Method for producing urea-ammonium nitrate, the method comprising: a) reacting CO 2 and ammonia under urea forming conditions in a high pressure urea synthesis section to produce a first urea solution comprising urea, water, ammonium carbamate and a first gas stream, b) subjecting said first urea solution to dissociation in a dissociation section thereby decomposing ammonium carbamate into a second gas stream and a second urea solution, c) subjecting the second urea solution obtained under b) to one or more concentration steps to produce a concentrated third urea solution, d) subjecting the first gas stream obtained under a) to partial condensation in at least one condensation section to form a liquid stream comprising ammonium carbamate and a third gas stream, e) recycling the liquid stream comprising ammonium carbamate to the high pressure urea synthesis section, f) subjecting the third gas stream, optionally together with fresh ammonia, to neutralization with nitric acid in a neutralization section to produce an aqueous stream comprising ammonium nitrate, and g) combining said aqueous stream comprising ammonium nitrate produced under f) and said concentrated third urea solution produced under c) to produce UAN. a) reacting CO 2 and ammonia under urea forming conditions in a high pressure urea synthesis section to produce a first urea solution comprising urea, water, ammonium carbamate and a first gas stream, b) subjecting said first urea solution to dissociation in a dissociation section thereby decomposing ammonium carbamate into a second gas stream and a second urea solution, c) subjecting the second urea solution obtained under b) to one or more concentration steps to produce a concentrated third urea solution, d) subjecting the first gas stream obtained under a) to partial condensation in at least one condensation section to form a liquid stream comprising ammonium carbamate and a third gas stream, e) recycling the liquid stream comprising ammonium carbamate to the high pressure urea synthesis section, f) subjecting the third gas stream, optionally together with fresh ammonia, to neutralization with nitric acid in a neutralization section to produce an aqueous stream comprising ammonium nitrate, and g) combining said aqueous stream comprising ammonium nitrate produced under f) and said concentrated third urea solution produced under c) to produce UAN.
An ergonomic bridle for equines composed of a band, said band being formed in turn by lateral pieces connected by means of any joining element to an upper bridge and a frontal bridge; pieces in the shape of crescents, which incorporate, at the ends thereof, a belt for the joining to a bit are provided connected to the lateral pieces by means of any joining element; a nasal band which is connected to a throatband, said throatband being formed by two curved belts which in use are joined to each other at the area of the lower maxilla of the equine, wherein the crescents are located on the cheeks and have a curved shape, characterized in that the crescents are rigid.
A separator for a non-aqueous secondary battery, the separator comprising: a porous substrate including a polyolefin microporous film; and a porous layer that is provided on only one side of the porous substrate, and that contains a resin having at least one bonding group selected from the group consisting of an amide bond, an imide bond, and a sulfonyl bond, wherein, in the porous substrate, an absolute value of a difference between a temperature of an endothermic peak observed at from 120°C to 145°C in a temperature raising process 1, and a temperature of an endothermic peak observed at from 120°C to 145°C in a temperature raising process 2, is 1.50°C or higher in differential scanning calorimetry measurement when the temperature raising process 1 of continuously raising the temperature from 30°C to 200°C at a temperature change rate of 5°C/min in a nitrogen atmosphere, and the temperature raising process 2 of lowering the temperature from 200°C to 30°C and raising the temperature from 30°C to 200°C, are performed, as described in the description. a porous substrate including a polyolefin microporous film; and a porous layer that is provided on only one side of the porous substrate, and that contains a resin having at least one bonding group selected from the group consisting of an amide bond, an imide bond, and a sulfonyl bond, wherein, in the porous substrate, an absolute value of a difference between a temperature of an endothermic peak observed at from 120°C to 145°C in a temperature raising process 1, and a temperature of an endothermic peak observed at from 120°C to 145°C in a temperature raising process 2, is 1.50°C or higher in differential scanning calorimetry measurement when the temperature raising process 1 of continuously raising the temperature from 30°C to 200°C at a temperature change rate of 5°C/min in a nitrogen atmosphere, and the temperature raising process 2 of lowering the temperature from 200°C to 30°C and raising the temperature from 30°C to 200°C, are performed, as described in the description.
A gas turbine engine comprising: a control and diagnostic system including: a main transceiver mounted proximate the gas turbine engine, the main transceiver generating and receiving radio frequency waves corresponding to information for control and monitoring of engine operation; a wave guide assembly comprising a tubular housing defining an exterior surface and an internal cavity extending between distal ends, and at least one wave guide within the internal cavity defining a wave propagation passage for at least one wave form signal, at least one conductor within the internal cavity separate from the wave guide, wherein the at least one wave guide within the internal cavity defines a transmission pathway for the at least one wave form signal; and at least one remote transceiver (75a,75b) attached to an end of the wave guide assembly and in communication with the main transceiver through a wave form signal communicated through the at least one wave guide. a control and diagnostic system including: a main transceiver mounted proximate the gas turbine engine, the main transceiver generating and receiving radio frequency waves corresponding to information for control and monitoring of engine operation; a wave guide assembly comprising a tubular housing defining an exterior surface and an internal cavity extending between distal ends, and at least one wave guide within the internal cavity defining a wave propagation passage for at least one wave form signal, at least one conductor within the internal cavity separate from the wave guide, wherein the at least one wave guide within the internal cavity defines a transmission pathway for the at least one wave form signal; and a main transceiver mounted proximate the gas turbine engine, the main transceiver generating and receiving radio frequency waves corresponding to information for control and monitoring of engine operation; a wave guide assembly comprising a tubular housing defining an exterior surface and an internal cavity extending between distal ends, and at least one wave guide within the internal cavity defining a wave propagation passage for at least one wave form signal, at least one conductor within the internal cavity separate from the wave guide, wherein the at least one wave guide within the internal cavity defines a transmission pathway for the at least one wave form signal; and at least one remote transceiver (75a,75b) attached to an end of the wave guide assembly and in communication with the main transceiver through a wave form signal communicated through the at least one wave guide.
A loading tool to facilitate engaging a stent end with proximal apices on a stent retaining member comprising: a loading body having a passage extending from a first end to a second end and a slot that extends through the loading body from the passage to an outer surface of the tubular loading body, the slot extending from the second end toward the first end, wherein a stent retaining member comprising a plurality of stent-engaging members is positionable at least partially within the passage of the loading body and the slot of the loading body is rotatable around the stent retaining member such that each of the apices of the stent end to be engaged on one of the stent engaging members is movable from outside the passage to inside the passage through the slot, to engage the stent retaining member. a loading body having a passage extending from a first end to a second end and a slot that extends through the loading body from the passage to an outer surface of the tubular loading body, the slot extending from the second end toward the first end, wherein a stent retaining member comprising a plurality of stent-engaging members is positionable at least partially within the passage of the loading body and the slot of the loading body is rotatable around the stent retaining member such that each of the apices of the stent end to be engaged on one of the stent engaging members is movable from outside the passage to inside the passage through the slot, to engage the stent retaining member.
A video decoding apparatus comprising: an acquisition module configured to acquire available blocks having motion vectors from decoded blocks adjacent to a to-be-decoded block and the number of the available blocks; a selection information decoding module configured to select a code table from a plurality of code tables depending on the number of the available blocks, and to decode selection information specifying one available block from the available blocks using the selected code table, the selected code table including the same number of indexes as the number of the available blocks and code words corresponding to the indexes; a selection module configured to select one available block from the available blocks according to the selection information; and an image decoding module to decode the to-be-decoded block by using a motion vector of the selected block. an acquisition module configured to acquire available blocks having motion vectors from decoded blocks adjacent to a to-be-decoded block and the number of the available blocks; a selection information decoding module configured to select a code table from a plurality of code tables depending on the number of the available blocks, and to decode selection information specifying one available block from the available blocks using the selected code table, the selected code table including the same number of indexes as the number of the available blocks and code words corresponding to the indexes; a selection module configured to select one available block from the available blocks according to the selection information; and an image decoding module to decode the to-be-decoded block by using a motion vector of the selected block.
Arrangement for a motor vehicle, comprising a cradle connected to side rails by means of at least one horn at the front, the horn being attached to a side rail elbow via a fastening means, said characterized in that the said fastening means has as its main axis an axis perpendicular to the side rail elbow.
Power transmission assembly, in particular multiplate clutch or friction brake, in which a plate carrier, with at least one plate which is fixed rotationally conjointly to said plate carrier and which has an external toothing, has, on a cylinder section, axial grooves and axial webs distributed in an alternating manner over the circumference at the plate side and, on one side, is connected by means of a driver disc, which is spaced apart in an axial direction from the plates, to a hub, wherein, for the transmission of a torque, a rotationally conjoint connection exists between driver disc and the plate carrier by means of a spline toothing, and wherein, in addition, means are provided for the axial fixing of the driver disc to the plate carrier, characterized in that the means (19, 53, 65) for the axial fixing are designed such that axial forces exerted by the driver disc on the plate carrier act exclusively on that region of the plate carrier which extends axially from the driver disc in the direction of plates, wherein the means (19, 53, 65) for the axial fixing engage behind the driver disc on the side averted from the plates.
Absorption cooling system, for vehicles with heat engines, comprising a high-pressure circuit, provided with a separator/condenser assembly, a low-pressure circuit, provided with an evaporator/ absorber assembly, characterized in that the high-pressure circuit comprises, at the condenser of said separator/condenser assembly, a condenser water circulation and cooling loop comprising a tapping on the condenser, a cooling air/water exchanger, a condenser circulation pump and a spray nozzle means feeding back to the condenser.
Gas-blast circuit-breaker with an arc zone arranged between a first contact and a second contact and connected to a hot gas reservoir volume via a feed channel, wherein the hot gas reservoir volume is connected to a variable compression volume by means of an overflow channel, and with a wall incorporating at least one outflow opening (20a, 20b, 20c, 20d, 20e, 20f, 20g, 20h) which delimits the compression volume, characterized in that the outflow opening (20a, 20b, 20c, 20d, 20e, 20f, 20g, 20h) is permanently open, at least in the contacting state of the contacts (4, 5).
A probe assembly comprising: a modular device comprising an array of elements for detecting external signals or emitting energy, the modular device including a device array having at least one of electrical contacts or optical fiber ends, wherein the array of elements is communicatively coupled to the device array; and a cable assembly for communicatively coupling the modular device to a computing system and transmit data signals therethrough, the cable assembly comprising an array connector having a connector body that includes a mating side and channels extending through the mating side and the connector body, the cable assembly including a plurality of communication lines disposed within corresponding channels of the connector body, the communication lines including at least one of wire conductors or optical fibers, the communication lines having respective end faces that are positioned proximate to the mating side to form a terminal array, the terminal array being aligned with and coupled to the device array of the modular device; wherein the connector body includes a plurality of substrate layers that are stacked side-by-side and have respective mating edges that form the mating side, the substrate layers forming a plurality of interfaces in which each interface is defined between adjacent substrate layers, wherein the adjacent substrate layers define the channels therebetween. a modular device comprising an array of elements for detecting external signals or emitting energy, the modular device including a device array having at least one of electrical contacts or optical fiber ends, wherein the array of elements is communicatively coupled to the device array; and a cable assembly for communicatively coupling the modular device to a computing system and transmit data signals therethrough, the cable assembly comprising an array connector having a connector body that includes a mating side and channels extending through the mating side and the connector body, the cable assembly including a plurality of communication lines disposed within corresponding channels of the connector body, the communication lines including at least one of wire conductors or optical fibers, the communication lines having respective end faces that are positioned proximate to the mating side to form a terminal array, the terminal array being aligned with and coupled to the device array of the modular device; wherein the connector body includes a plurality of substrate layers that are stacked side-by-side and have respective mating edges that form the mating side, the substrate layers forming a plurality of interfaces in which each interface is defined between adjacent substrate layers, wherein the adjacent substrate layers define the channels therebetween.
A valve trim (106;800;1000) for a pressure reduction valve containing a plurality of high hydraulic flow resistance flowpaths therethrough, each flowpath comprising at least two inlets (208, 209;808,809) and at least one impingement zone (210;410;410b;510;710,710b), said impingement zone (210;410;410b;510;710,710b;810) having two zone inlets (211,212) in communication with the flowpath inlets and arranged substantially 180 degrees to one another, characterised in that, the impingement zone has two zone outlets (213,214; 413,413b) substantially perpendicular to the zone inlets such that flow entering the two zone inlets mutually impinges on itself creating an area of high energy loss, and thereafter separates and exits through the zone outlets (213,214;413,413b).
A computer-implemented method for operating an autonomous driving vehicle, the method comprising: perceiving a driving environment surrounding an autonomous driving vehicle, including perceiving an initial set of obstacles (513,515,517,519) within a first lane in which the ADV is driving; identifying a first set of one or more obstacles as a subset from the initial set of obstacles (513,515,517,519) based on a first set of predetermined criteria; expanding a dimension of each obstacle in the first set of obstacles to a width of the first lane to prevent the ADV from nudging any obstacle in the first set of obstacles; and planning a trajectory for the ADV in view of the expanded obstacles in the first set to control the ADV to navigate through the first lane, without considering remaining obstacles in the initial set; characterised in that the method further comprises: in response to the ADV switching from the first lane to a second lane, identifying a second set of obstacles therein based on a second set of predetermined criteria; and expanding each of the obstacles in the second set of obstacles to a width of the second lane. perceiving a driving environment surrounding an autonomous driving vehicle, including perceiving an initial set of obstacles (513,515,517,519) within a first lane in which the ADV is driving; identifying a first set of one or more obstacles as a subset from the initial set of obstacles (513,515,517,519) based on a first set of predetermined criteria; expanding a dimension of each obstacle in the first set of obstacles to a width of the first lane to prevent the ADV from nudging any obstacle in the first set of obstacles; and planning a trajectory for the ADV in view of the expanded obstacles in the first set to control the ADV to navigate through the first lane, without considering remaining obstacles in the initial set; characterised in that the method further comprises: in response to the ADV switching from the first lane to a second lane, identifying a second set of obstacles therein based on a second set of predetermined criteria; and expanding each of the obstacles in the second set of obstacles to a width of the second lane. in response to the ADV switching from the first lane to a second lane, identifying a second set of obstacles therein based on a second set of predetermined criteria; and expanding each of the obstacles in the second set of obstacles to a width of the second lane.