mhurhangee/patent-ind-claim-en huggingface dataset:
A method for the manufacture of a multilevel metal part, said method comprising the steps: a. compacting agglomerated spherical metal powder to a green multilevel preform with a density such that an open porosity exists, wherein the green multilevel preform has at least two different heights in z-direction in a three dimensional Cartesian coordinate system, wherein the ratio between the highest height z h and the lowest height z l (z h /z l ) is at least 1.1, wherein the green multilevel preform fulfils the relation z g = z HVC ⋅ a , for all points in the xy-plane, wherein z g is the variable height in z-direction of the green multilevel preform, wherein z HVC is the variable height in z-direction of the part after high velocity compaction in step (d), and wherein a is a constant related to the compaction ratio. b. debinding the green preform, c. sintering the green preform in an atmosphere comprising hydrogen with a dewpoint not exceeding -40°C. d. compacting the green preform uniaxially along the z-axis with high velocity compaction to a density of at least 95 % TD, e. subjecting the part to densification to a density of at least 99 % TD. a. compacting agglomerated spherical metal powder to a green multilevel preform with a density such that an open porosity exists, wherein the green multilevel preform has at least two different heights in z-direction in a three dimensional Cartesian coordinate system, wherein the ratio between the highest height z h and the lowest height z l (z h /z l ) is at least 1.1, wherein the green multilevel preform fulfils the relation z g = z HVC ⋅ a , for all points in the xy-plane, wherein z g is the variable height in z-direction of the green multilevel preform, wherein z HVC is the variable height in z-direction of the part after high velocity compaction in step (d), and wherein a is a constant related to the compaction ratio. wherein z g is the variable height in z-direction of the green multilevel preform, wherein z HVC is the variable height in z-direction of the part after high velocity compaction in step (d), and wherein a is a constant related to the compaction ratio. b. debinding the green preform, c. sintering the green preform in an atmosphere comprising hydrogen with a dewpoint not exceeding -40°C. d. compacting the green preform uniaxially along the z-axis with high velocity compaction to a density of at least 95 % TD, e. subjecting the part to densification to a density of at least 99 % TD.
A process for hydrocracking and hydroisomerizing a hydrocarbon stream comprising: hydrocracking a hydrocarbon feed stream over a first hydrocracking catalyst bed to provide a hydrocracked stream; hydroisomerizing said hydrocracked stream over a first hydroisomerization catalyst bed to provide a hydroisomerized stream, wherein the hydroisomerization process is conducted at a lower temperature than the hydrocracking process and at a lower temperature than the temperature of the hydrocracked stream; fractionating said hydroisomerized stream in a fractionation section to provide a first fractionated stream; cooling the first fractionated stream in a heat exchanger to inactivate the first hydroisomerization catalyst bed, and providing the first fractionated stream with a supplemental hydrogen stream; and recycling the first fractionated stream to said first hydroisomerization catalyst bed to quench said hydrocracked stream, wherein the first fractionated stream reduces the overall temperature of a combined stream comprising the hydrocracked stream, the supplemental hydrogen stream and the first fractionated stream. hydrocracking a hydrocarbon feed stream over a first hydrocracking catalyst bed to provide a hydrocracked stream; hydroisomerizing said hydrocracked stream over a first hydroisomerization catalyst bed to provide a hydroisomerized stream, wherein the hydroisomerization process is conducted at a lower temperature than the hydrocracking process and at a lower temperature than the temperature of the hydrocracked stream; fractionating said hydroisomerized stream in a fractionation section to provide a first fractionated stream; cooling the first fractionated stream in a heat exchanger to inactivate the first hydroisomerization catalyst bed, and providing the first fractionated stream with a supplemental hydrogen stream; and recycling the first fractionated stream to said first hydroisomerization catalyst bed to quench said hydrocracked stream, wherein the first fractionated stream reduces the overall temperature of a combined stream comprising the hydrocracked stream, the supplemental hydrogen stream and the first fractionated stream.
A frequency envelope vector quantization method, comprising: dividing (S101) N frequency envelopes in a frame into N1 vectors, wherein each vector in the N1 vectors comprises M frequency envelopes, N1, N, and M are positive integers, M is greater than or equal to 2, and N is greater than N1; quantizing (S102) a first vector in the N1 vectors by using a first codebook of a B bits type, to obtain a code word corresponding to the quantized first vector, wherein the first codebook is divided into 2 B1 portions, B is a positive integer greater than or equal to 2, and B1 is a positive integer greater than or equal to 1; determining (S103), according to the code word corresponding to the quantized first vector, that the quantized first vector is associated with the i th portion in the 2 B1 portions of the first codebook, wherein i is a positive integer greater than or equal to 1 and less than or equal to 2 B1 ; using the i th portion of the first codebook as a second codebook, wherein a quantity of bits in the i th portion of the first codebook is B-B1; and quantizing (S105) a second vector in the N1 vectors based on the second codebook. dividing (S101) N frequency envelopes in a frame into N1 vectors, wherein each vector in the N1 vectors comprises M frequency envelopes, N1, N, and M are positive integers, M is greater than or equal to 2, and N is greater than N1; quantizing (S102) a first vector in the N1 vectors by using a first codebook of a B bits type, to obtain a code word corresponding to the quantized first vector, wherein the first codebook is divided into 2 B1 portions, B is a positive integer greater than or equal to 2, and B1 is a positive integer greater than or equal to 1; determining (S103), according to the code word corresponding to the quantized first vector, that the quantized first vector is associated with the i th portion in the 2 B1 portions of the first codebook, wherein i is a positive integer greater than or equal to 1 and less than or equal to 2 B1 ; using the i th portion of the first codebook as a second codebook, wherein a quantity of bits in the i th portion of the first codebook is B-B1; and quantizing (S105) a second vector in the N1 vectors based on the second codebook.
A method performed by a first node , the first node operating in a communications network , the method being for handling provision of an Internet Protocol Multimedia Subsystem, IMS, service in the communications network , wherein the communications network comprises a first slice handling a first IMS service, and a second slice handling a second IMS service, the method comprising: obtaining , from a second node operating in the communications network and storing: a) a first indication of a first routing service instance for a third node comprised in the first slice, the third node handling the first IMS service, and b) a second indication of a second routing service instance for a fourth node comprised in the second slice, the fourth node handling the second IMS service, and routing a request, received from a fifth node operating in another communications network , to one of the third node and the fourth node , wherein: i) with the proviso that the received request is for the first IMS service, the routing is based on the obtained first indication, and ii) with the proviso that the received request is for the second IMS service, the routing is based on the obtained second indication; wherein the first node manages an Interconnection Border Control Function, IBCF, and the second node manages a Network Repository Function, NRF, the third node is a first terminating Interrogating-Call Session Control Function, I-CSCF, and the fourth node is a second terminating I-CSCF. obtaining , from a second node operating in the communications network and storing: a) a first indication of a first routing service instance for a third node comprised in the first slice, the third node handling the first IMS service, and b) a second indication of a second routing service instance for a fourth node comprised in the second slice, the fourth node handling the second IMS service, and a) a first indication of a first routing service instance for a third node comprised in the first slice, the third node handling the first IMS service, and b) a second indication of a second routing service instance for a fourth node comprised in the second slice, the fourth node handling the second IMS service, and routing a request, received from a fifth node operating in another communications network , to one of the third node and the fourth node , wherein: i) with the proviso that the received request is for the first IMS service, the routing is based on the obtained first indication, and ii) with the proviso that the received request is for the second IMS service, the routing is based on the obtained second indication; i) with the proviso that the received request is for the first IMS service, the routing is based on the obtained first indication, and ii) with the proviso that the received request is for the second IMS service, the routing is based on the obtained second indication; wherein the first node manages an Interconnection Border Control Function, IBCF, and the second node manages a Network Repository Function, NRF, the third node is a first terminating Interrogating-Call Session Control Function, I-CSCF, and the fourth node is a second terminating I-CSCF.
An assembly for controlling movement of a movable surface, comprising a horizontal stabiliser trim actuator, HSTA, of an aircraft configured to be engaged with the surface and an assembly for manual control of the HSTA for controlling the position of the moveable surface, the assembly comprising a user-operated trim wheel , and transfer means configured to translate rotation of the trim wheel to movement of the HSTA; the transfer means comprising a first motor and a first resolver connected to the trim wheel and a second motor and a second resolver arranged to communicate with the first motor and the first resolver and to cause corresponding movement of the HSTA; characterised in that : rotation of the trim wheel is detected by the first resolver , via the first motor , and is converted to an angle command, and wherein the second motor receives the angle command and drives the HSTA according to the angle command to cause a corresponding movement of the moveable surface, and wherein the second resolver detects the angular position of the moveable surface and provides an output indicative of mechanical input angle, the assembly further comprising a comparator arranged to compare the angle command with the mechanical input angle to provide a command to the second motor , based on the difference between the angle command and the mechanical input angle, to drive the HSTA responsive to the command; the assembly further comprising means for providing a feedback signal from the second resolver to the first motor indicative of the position of the HSTA, whereby the feedback signal causes corresponding movement of the trim wheel.
An assembly comprising a compressor for a turbomachine , and an air discharge system of the compressor comprising: - a supply line whose one end is connected to the level of the compressor , the supply line being configured to take therefrom an air flow compressed by the compressor , - an expansion device comprising an inlet and an outlet , the inlet being connected to another end of the supply line , wherein said expansion device comprises: • A shell forming a volume (V) between the inlet and the outlet , • A porous material occupying the volume (V), • Means for maintaining the porous material within said shell , wherein the outlet has an open section (S 62 ) allowing the passage of air which is above the open section (S 61 ) of the inlet , characterized in that the porous material is a metal knit or a ceramic knit or a composite material knit. - a supply line whose one end is connected to the level of the compressor , the supply line being configured to take therefrom an air flow compressed by the compressor , - an expansion device comprising an inlet and an outlet , the inlet being connected to another end of the supply line , wherein said expansion device comprises: • A shell forming a volume (V) between the inlet and the outlet , • A porous material occupying the volume (V), • Means for maintaining the porous material within said shell , wherein the outlet has an open section (S 62 ) allowing the passage of air which is above the open section (S 61 ) of the inlet , characterized in that the porous material is a metal knit or a ceramic knit or a composite material knit. • A shell forming a volume (V) between the inlet and the outlet , • A porous material occupying the volume (V), • Means for maintaining the porous material within said shell , wherein the outlet has an open section (S 62 ) allowing the passage of air which is above the open section (S 61 ) of the inlet , characterized in that the porous material is a metal knit or a ceramic knit or a composite material knit.
A method, comprising: receiving, at a session controller, a request from a first communication device for access to a target communication device, the target communication device being communicatively coupled to a foreign service provider network and the first communication device being communicatively coupled to a home service provider network; referencing, by a peer-to-peer interconnect controller, a list of available routes for peer-to-peer communication with the target communication device on the foreign service provider network from a database of available routes; identifying, in the peer-to-peer interconnect controller, separate from the first communication device, a path for communication with the target communication device in response to the list of available routes; and establishing a peer-to-peer communication session from a peering point associated with and separate from the first communication device to the target communication device over the path, by establishing a signaling session directly between a peering point on the foreign service provider network and the peering point on the home service provider network. receiving, at a session controller, a request from a first communication device for access to a target communication device, the target communication device being communicatively coupled to a foreign service provider network and the first communication device being communicatively coupled to a home service provider network; referencing, by a peer-to-peer interconnect controller, a list of available routes for peer-to-peer communication with the target communication device on the foreign service provider network from a database of available routes; identifying, in the peer-to-peer interconnect controller, separate from the first communication device, a path for communication with the target communication device in response to the list of available routes; and establishing a peer-to-peer communication session from a peering point associated with and separate from the first communication device to the target communication device over the path, by establishing a signaling session directly between a peering point on the foreign service provider network and the peering point on the home service provider network.
Arrangement for transferring slaughtered poultry between conveying lines in a poultry processing plant, comprising at least one rotary device for conveying slaughtered poultry in a suspended state along a curved conveying path with a plurality of suspension mounts , each designed to hold a poultry body by both legs, a linear motor conveying device with a guide rail comprising a linear drive, forming a circulating conveying path with a plurality of runners each arranged to be separately controllable and movable along the guide rail by means of the linear drive, and holding elements , designed to accommodate one poultry leg at a time, wherein in each case one of the holding elements is arranged on each of the runners , and wherein the rotary device and the linear motor conveying device are arranged in such a manner that the curved conveying path at least partially overlaps with a curved portion of the circulating conveying path in a transfer region for transferring the slaughtered poultry between the conveying lines. at least one rotary device for conveying slaughtered poultry in a suspended state along a curved conveying path with a plurality of suspension mounts , each designed to hold a poultry body by both legs, a linear motor conveying device with a guide rail comprising a linear drive, forming a circulating conveying path with a plurality of runners each arranged to be separately controllable and movable along the guide rail by means of the linear drive, and holding elements , designed to accommodate one poultry leg at a time, wherein in each case one of the holding elements is arranged on each of the runners , and wherein the rotary device and the linear motor conveying device are arranged in such a manner that the curved conveying path at least partially overlaps with a curved portion of the circulating conveying path in a transfer region for transferring the slaughtered poultry between the conveying lines.
Method of updating software and/or firmware of plural devices of a wind turbine, the plural devices being connected in a communication network to a main computing device , the method comprising: obtaining information regarding a topology of the communication network at the main computing device ; obtaining update packages at the main computing device ; triggering , by the main computing device , updating all devices for which an update package is present in a topology derived order, starting at a periphery and continuing inwards, wherein the topology indicates for each of the plural devices a chain of none, one or more other devices, the number of devices defining a length of the chain, a sequential arrangement of devices defining a device sequence in the chain, via which the main computing device is connected to this device, wherein supplying the respective update packages and/or the triggering updating is performed in an order derived from lengths of chains and/or from device sequences in the chains. obtaining information regarding a topology of the communication network at the main computing device ; obtaining update packages at the main computing device ; triggering , by the main computing device , updating all devices for which an update package is present in a topology derived order, starting at a periphery and continuing inwards, wherein the topology indicates for each of the plural devices a chain of none, one or more other devices, the number of devices defining a length of the chain, a sequential arrangement of devices defining a device sequence in the chain, via which the main computing device is connected to this device, wherein supplying the respective update packages and/or the triggering updating is performed in an order derived from lengths of chains and/or from device sequences in the chains.
A composition comprising a three-dimensional amorphous trivalent network, wherein the network defines a connected network comprising a plurality of vertices which are interconnected by cross members such that each cross member directly connects two vertices and the network comprises a plurality of trihedra, wherein each trihedron comprises a central vertex which is directly connected to three outer vertices such that each trihedron defines three skew angles, a skew angle being the angle between the normal of a plane, comprising the central vertex of the trihedron and two of the outer vertices, and between a cross member which directly connects the central vertex and the remaining outer vertex of the trihedron which does not form the plane and any first and second trihedra comprising one shared cross member and two shared vertices define a dihedral angle which is the angle between the normal to a first plane, defined by a central vertex and two outer vertices of the first trihedron, wherein the two outer vertices which define the first plane do not comprise the second trihedron, and the normal to a second plane, defined by a central vertex and two outer vertices of the second trihedron, wherein the two outer vertices which define the second plane do not comprise the first trihedron, wherein the dihedral angle is greater than or equal to 90°, wherein at least 90% of the skew angles within the network define an angle between 70° and 110° and/or at least 90% of the dihedral angles within the network define an angle between 92° and 155°, and wherein the amorphous trivalent network reduces within a particular frequency range (ω c ±Δω) the number of modes of electromagnetic radiation passing through the network.
A method implemented in a decoder, the method comprising: receiving, by a receiver of the decoder, a bitstream comprising data of one or more sub-pictures partitioned from a picture such that a first sub-picture comprises a sub-picture width that is not an integer multiple of a coding tree unit, CTU, size when the first sub-picture includes a right boundary that coincides with the right boundary of the picture; wherein the bitstream comprises a sequence parameter set, SPS, wherein the SPS comprises a complete set of all sub-picture IDs for the one or more sub-pictures, and the SPS further comprises a sub-picture size and a sub-picture location related to each of the one or more sub-pictures; parsing, by a processor of the decoder, the SPS to obtain the sub-picture ID, the sub-picture size and the sub-picture location for each of the one or more sub-pictures; decoding, by the processor, the one or more sub-pictures to create a video sequence from the bitstream. receiving, by a receiver of the decoder, a bitstream comprising data of one or more sub-pictures partitioned from a picture such that a first sub-picture comprises a sub-picture width that is not an integer multiple of a coding tree unit, CTU, size when the first sub-picture includes a right boundary that coincides with the right boundary of the picture; wherein the bitstream comprises a sequence parameter set, SPS, wherein the SPS comprises a complete set of all sub-picture IDs for the one or more sub-pictures, and the SPS further comprises a sub-picture size and a sub-picture location related to each of the one or more sub-pictures; parsing, by a processor of the decoder, the SPS to obtain the sub-picture ID, the sub-picture size and the sub-picture location for each of the one or more sub-pictures; decoding, by the processor, the one or more sub-pictures to create a video sequence from the bitstream.
A system for negative-pressure therapy, the system comprising: a dressing configured to be positioned adjacent a tissue site ; a piezoelectric pump having at least one inlet and at least one outlet ; and an adapter coupled to the piezoelectric pump and configured to be fluidly coupled to the dressing, the adapter configured to aggregate fluid flow into the at least one inlet, characterized in that the adapter is thermally conductive and configured to conduct heat away from the piezoelectric pump . a dressing configured to be positioned adjacent a tissue site ; a piezoelectric pump having at least one inlet and at least one outlet ; and an adapter coupled to the piezoelectric pump and configured to be fluidly coupled to the dressing, the adapter configured to aggregate fluid flow into the at least one inlet, characterized in that the adapter is thermally conductive and configured to conduct heat away from the piezoelectric pump .