mhurhangee/ep-ind-claims huggingface dataset:
A method for processing packets using a network functions virtualization, NFV, backplane within a network device, the method comprising: configuring the NFV backplane within the network device by establishing, by processing circuitry of a forwarding microchip of the network device, a respective logical connection between each of a plurality of virtual ports (612A, 612N) of the forwarding microchip and each of a plurality of virtual ports (608A, 608N), configured for respective software-implemented virtual network functions, VNFs, (208A, 208N) executing on the network device, wherein establishing the respective logical connection comprises assigning, by the processing circuitry, a Virtual Local Area Network, VLAN, identifier to pairs of the plurality of virtual ports of the forwarding microchip and the plurality of virtual ports configured for the respective software-implemented VNFs; receiving, by the processing circuitry, a packet via one or more physical ports (210A, 210B, 210C, 210N) of the forwarding microchip; processing, by the processing circuitry, the packet to identify a virtual port of the forwarding microchip corresponding to the packet; adding, by the processing circuitry, an outer VLAN tag to the packet corresponding to the identified virtual port; and forwarding, by the processing circuitry and via the identified virtual port of the forwarding microchip, the packet to a Network Interface Controller, NIC, of the network device for forwarding to the virtual port configured for the respective software-implemented VNFs corresponding to the same VLAN identifier as the identified virtual port of the forwarding microchip. configuring the NFV backplane within the network device by establishing, by processing circuitry of a forwarding microchip of the network device, a respective logical connection between each of a plurality of virtual ports (612A, 612N) of the forwarding microchip and each of a plurality of virtual ports (608A, 608N), configured for respective software-implemented virtual network functions, VNFs, (208A, 208N) executing on the network device, wherein establishing the respective logical connection comprises assigning, by the processing circuitry, a Virtual Local Area Network, VLAN, identifier to pairs of the plurality of virtual ports of the forwarding microchip and the plurality of virtual ports configured for the respective software-implemented VNFs; receiving, by the processing circuitry, a packet via one or more physical ports (210A, 210B, 210C, 210N) of the forwarding microchip; processing, by the processing circuitry, the packet to identify a virtual port of the forwarding microchip corresponding to the packet; adding, by the processing circuitry, an outer VLAN tag to the packet corresponding to the identified virtual port; and forwarding, by the processing circuitry and via the identified virtual port of the forwarding microchip, the packet to a Network Interface Controller, NIC, of the network device for forwarding to the virtual port configured for the respective software-implemented VNFs corresponding to the same VLAN identifier as the identified virtual port of the forwarding microchip.
A method of controlling and enhancing the nucleation of product in a freeze dryer, comprising: maintaining the product at a predetermined temperature and pressure in a chamber of the freeze dryer; creating a predetermined volume of ice fog having a predetermined pressure that is greater than that of the product chamber; and rapidly conveying the ice fog into the product chamber for even distribution therein to create uniform and rapid nucleation of the product in different areas of the product chamber; characterised in that said predetermined volume of ice fog is created in a condenser chamber separate from the product chamber and connected thereto by a vapor port, said ice fog being conveyed into the product chamber through said vapor port. maintaining the product at a predetermined temperature and pressure in a chamber of the freeze dryer; creating a predetermined volume of ice fog having a predetermined pressure that is greater than that of the product chamber; and rapidly conveying the ice fog into the product chamber for even distribution therein to create uniform and rapid nucleation of the product in different areas of the product chamber; characterised in that said predetermined volume of ice fog is created in a condenser chamber separate from the product chamber and connected thereto by a vapor port, said ice fog being conveyed into the product chamber through said vapor port.
An articulated levelling foot, comprising a ground plate which has, on the plate side which faces away from the ground, a receiving space with the geometry of a partial sphere, preferably with dimensions which slightly exceed a semi-sphere, and with a threaded rod which has, on one end of it, a partial sphere which can be introduced into the receiving space, wherein the partial sphere of the threaded rod can be received in a fitting manner in the receiving space, wherein the threaded rod is a conventional screw bolt with a hexagonal head and wherein the sphere that can be introduced into the receiving space consists of two parts which can be plugged into one another, e.g. halves (half shells), which enclose the hexagonal head in a torsionally stiff manner, wherein the geometry of the partial sphere of the threaded rod axially exceeds that of the receiving space in the direction of the threaded shaft.
A moving image coding device for dividing an image into macroblocks MBs and coding the MBs, comprising: a plurality of MB line parallel processing units (105, 106) for processing the MBs arranged in a horizontal direction as an MB line, with respect to each of the MB lines of the image, each MB line parallel processing unit including two MB parallel processing units (13073, 13074), wherein each MB parallel processing unit (13073, 13074) is configured to perform motion detection, prediction, quantization, and deblocking filtering, to code the image with respect to each of the MBs and to write the resulting MB information in a storage unit in the processing order of the MBs; and a coding unit (109, 110) that is configured to read out the MB information stored in the storage unit in a raster order and to perform CABAC/CAVLC coding of the MBs; characterized in that the plurality of MB line parallel processing units are configured to perform a quad-parallel process by a first MB parallel processing unit and a second MB parallel processing unit in a first MB line parallel processing unit, and a first MB parallel processing unit and a second MB parallel processing unit in a second MB line parallel processing unit; wherein the processing time for 4 MBs is indicated as a basic slot, and at most a half of the duration of the basic slot is offset for the parallel processing, and information of peripheral MBs required for performing the quad-parallel process is determined within the half slot. a plurality of MB line parallel processing units (105, 106) for processing the MBs arranged in a horizontal direction as an MB line, with respect to each of the MB lines of the image, each MB line parallel processing unit including two MB parallel processing units (13073, 13074), wherein each MB parallel processing unit (13073, 13074) is configured to perform motion detection, prediction, quantization, and deblocking filtering, to code the image with respect to each of the MBs and to write the resulting MB information in a storage unit in the processing order of the MBs; and a coding unit (109, 110) that is configured to read out the MB information stored in the storage unit in a raster order and to perform CABAC/CAVLC coding of the MBs; characterized in that the plurality of MB line parallel processing units are configured to perform a quad-parallel process by a first MB parallel processing unit and a second MB parallel processing unit in a first MB line parallel processing unit, and a first MB parallel processing unit and a second MB parallel processing unit in a second MB line parallel processing unit; wherein the processing time for 4 MBs is indicated as a basic slot, and at most a half of the duration of the basic slot is offset for the parallel processing, and information of peripheral MBs required for performing the quad-parallel process is determined within the half slot.
A surface laser remelting treatment method for aluminum alloy of a vehicle wheel hub, characterized in that the method comprises: cleaning the surface to be treated of the aluminum alloy, wherein the step of cleaning the surface to be treated of the aluminum alloy comprises: polishing the surface to be treated to remove the aluminum oxide layer on the surface; spraying isolating light absorbing agent on the surface to be treated which has been cleaned, wherein the step of spraying isolating light absorbing agent on the surface to be treated which has been cleaned comprises: spraying one or more of phosphate, titanium oxide, zirconium oxide, graphite and carbon black on the surface to be treated which has been cleaned with a thickness of 0.15-0.25 mm; and using a laser to scan the surface to be treated which has been sprayed with the isolating light absorbing agent to perform remelting, wherein the step of using a laser to scan the surface to be treated which has been sprayed with the isolating light absorbing agent to perform remelting comprises: remelting the surface to be treated by a laser with a power of 3-8 kW, a rectangular spot having a side length of 1.5-2 cm, and a scanning rate of 7-30 mm/s. cleaning the surface to be treated of the aluminum alloy, wherein the step of cleaning the surface to be treated of the aluminum alloy comprises: polishing the surface to be treated to remove the aluminum oxide layer on the surface; spraying isolating light absorbing agent on the surface to be treated which has been cleaned, wherein the step of spraying isolating light absorbing agent on the surface to be treated which has been cleaned comprises: spraying one or more of phosphate, titanium oxide, zirconium oxide, graphite and carbon black on the surface to be treated which has been cleaned with a thickness of 0.15-0.25 mm; and using a laser to scan the surface to be treated which has been sprayed with the isolating light absorbing agent to perform remelting, wherein the step of using a laser to scan the surface to be treated which has been sprayed with the isolating light absorbing agent to perform remelting comprises: remelting the surface to be treated by a laser with a power of 3-8 kW, a rectangular spot having a side length of 1.5-2 cm, and a scanning rate of 7-30 mm/s.
A method of processing seismic data, comprising: - inputting seismic data (D S,G [t]) including, for each of a plurality of shots at respective source locations, seismic traces recorded at a plurality of receiver locations; - applying a depth migration process to the seismic data to obtain a first set of migrated data including, for each shot, first migrated values (M S [x,y,z]) respectively associated with a plurality of subsurface positions; - computing offset-modulated data (D' S,G [t]) by multiplying the seismic data in each seismic trace by a horizontal offset between the source and receiver locations for said seismic trace; - applying the depth migration process to the offset-modulated data to obtain a second set of migrated data including, for each shot, second migrated values (M' S [x,y,z]) respectively associated with the plurality of subsurface positions; - for each shot, estimating offset values (ĥ S [x,y,z]) respectively associated with at least some of the subsurface positions, by a division process applied to the first and second sets of migrated data; and - estimating a common image gather at a horizontal position, comprising respective migrated values (R x,y [z,h]) for parameter pairs each including a depth parameter and an offset parameter, wherein the migrated value for a parameter pair in the common image gather at said horizontal position is a first migrated value of the first set of migrated data associated with a subsurface position determined by said horizontal position and the depth parameter of said parameter pair for a shot such that the estimated offset value associated with said subsurface position is the offset parameter of said parameter pair. - inputting seismic data (D S,G [t]) including, for each of a plurality of shots at respective source locations, seismic traces recorded at a plurality of receiver locations; - applying a depth migration process to the seismic data to obtain a first set of migrated data including, for each shot, first migrated values (M S [x,y,z]) respectively associated with a plurality of subsurface positions; - computing offset-modulated data (D' S,G [t]) by multiplying the seismic data in each seismic trace by a horizontal offset between the source and receiver locations for said seismic trace; - applying the depth migration process to the offset-modulated data to obtain a second set of migrated data including, for each shot, second migrated values (M' S [x,y,z]) respectively associated with the plurality of subsurface positions; - for each shot, estimating offset values (ĥ S [x,y,z]) respectively associated with at least some of the subsurface positions, by a division process applied to the first and second sets of migrated data; and - estimating a common image gather at a horizontal position, comprising respective migrated values (R x,y [z,h]) for parameter pairs each including a depth parameter and an offset parameter,
A method for generating a freeroom for a mast element in a ground, where the method comprises the steps: a) drilling a first annular recess into the ground using a drill rig having a first slot drill mounted thereto, the first slot drill being replaceable and having a first diameter, b) drilling a second annular recess in the ground using the drill rig having a second slot drill mounted thereto instead of the first slot drill, the second slot drill being replaceable and having a second diameter smaller than the first diameter; - the first annular recess having the first diameter and a first depth; - the second annular recess having the second diameter and a second depth which is larger than the first depth; and - after drilling the recesses (10, 20) the second recess being located within the first recess, the second annular recess being arranged to receive the mast element and surround a first core (20K1) of the ground and being surrounded by the first annular recess; and - there is, defined between the first annular recess and the second annular recess, a second core (20K2) which can be removed to generate the freeroom, wherein the method comprises a further step of generating the freeroom by removing the second core (20K2). a) drilling a first annular recess into the ground using a drill rig having a first slot drill mounted thereto, the first slot drill being replaceable and having a first diameter, b) drilling a second annular recess in the ground using the drill rig having a second slot drill mounted thereto instead of the first slot drill, the second slot drill being replaceable and having a second diameter smaller than the first diameter; - the first annular recess having the first diameter and a first depth; - the second annular recess having the second diameter and a second depth which is larger than the first depth; and - after drilling the recesses (10, 20) the second recess being located within the first recess, the second annular recess being arranged to receive the mast element and surround a first core (20K1) of the ground and being surrounded by the first annular recess; and - there is, defined between the first annular recess and the second annular recess, a second core (20K2) which can be removed to generate the freeroom, - the first annular recess having the first diameter and a first depth; - the second annular recess having the second diameter and a second depth which is larger than the first depth; and - after drilling the recesses (10, 20) the second recess being located within the first recess, the second annular recess being arranged to receive the mast element and surround a first core (20K1) of the ground and being surrounded by the first annular recess; and - there is, defined between the first annular recess and the second annular recess, a second core (20K2) which can be removed to generate the freeroom,
Under-saddle comprising a flexible base which defines a pair of base surfaces (4, 4') separated through a relative thickness of the flexible base, and a plurality of separation elements (8, 8', 10, 10') which extend from at least one (4, 4') of said surfaces to distance the flexible base from an opposite abutment surface (12, 12') in contact with said elements, where the separation elements (8, 8', 10, 10') are reciprocally distributed in such a way that at least a pair of them delimits with said base surface (4; 4') and with said abutment surface (12, 12') an aeration chamber or duct open on at least one side; said under-saddle being characterized in that the separation elements (8, 8', 10, 10') are at least partially composed of a polymer (micro-) injected onto or into the flexible base.
A notification method of a status change of an image processing apparatus delivered from a management apparatus that manages the image processing apparatus to a client apparatus via a network, the method comprising: an instruction step of instructing, using printer information and RSS feed information obtained by the management apparatus, a driver agent in the client apparatus to install, in the client apparatus, a printer driver for the image processing apparatus distributed from the management apparatus and to register, with a RSS reader in the client apparatus, RSS feeds including update information of the image processing apparatus that are delivered from the management apparatus to the client apparatus; an installation step of installing, by the driver agent of the client apparatus, the printer driver obtained from the management apparatus; a registration step of registering, by the RSS reader of the client apparatus, the RSS feeds; a generating step (S1007, S1008) of, when a change occurs in the status of the image processing apparatus, generating the update information in which the status change is written; and a notifying step of notifying the client apparatus of the status change of the image processing apparatus by providing the RSS feeds for delivering the update information generated in the generating step. an instruction step of instructing, using printer information and RSS feed information obtained by the management apparatus, a driver agent in the client apparatus to install, in the client apparatus, a printer driver for the image processing apparatus distributed from the management apparatus and to register, with a RSS reader in the client apparatus, RSS feeds including update information of the image processing apparatus that are delivered from the management apparatus to the client apparatus; an installation step of installing, by the driver agent of the client apparatus, the printer driver obtained from the management apparatus; a registration step of registering, by the RSS reader of the client apparatus, the RSS feeds; a generating step (S1007, S1008) of, when a change occurs in the status of the image processing apparatus, generating the update information in which the status change is written; and a notifying step of notifying the client apparatus of the status change of the image processing apparatus by providing the RSS feeds for delivering the update information generated in the generating step.
A workout equipment comprising a frame, a movable arm pivotally connected to the frame, the movable arm having a first end, a second end, a first guide and a second guide, at least one movable load unit supported by said first and second guides (20a, 20b) of said movable arm and load transfer means configured to move said load unit along said movable arm said load transfer means comprising a threaded rod having a first end and a second end, which threaded rod is parallel to said first and second guides (20a, 20b) and said load unit has a threaded aperture through which the threaded rod projects and a locking device for locking the load unit steplessly on the first and second guides (20a, 20b), characterized in that said load unit comprises a row of weight plates connected together to a single unit with connecting bars, the opposing sides of the weight plates having slots, which form a three-sided channel on the opposing sides of the load unit extending through the whole load unit, the first guide is placed into the first channel and the second guide is placed into the second channel the outer dimensions of the first and second guides being slightly smaller than the dimensions of the channel and there is a slide bearing in both ends of the channel.
A method of wireless communication, comprising: performing a first transmission using a first set of resources in a first bandwidth; and performing, subsequent to the first transmission, a second transmission using a second set of resources in a second bandwidth, wherein the first bandwidth is greater than the second bandwidth, wherein the first set of resources is identified by a first value, wherein the second set of resources is identified by a second value, wherein a bit representation of the first value is a zero-padded version of a bit representation of the second value, and wherein the bit representation of the second value is zero-padded characterised by the second value being zero-padded on a most significant bit, MSB, or a least significant bit, LSB, wherein whether zero-padding is performed on the MSB or the LSB in the bit representation of the second value is based on an indication bit. performing a first transmission using a first set of resources in a first bandwidth; and performing, subsequent to the first transmission, a second transmission using a second set of resources in a second bandwidth, wherein the first bandwidth is greater than the second bandwidth, wherein the first set of resources is identified by a first value, wherein the second set of resources is identified by a second value, wherein a bit representation of the first value is a zero-padded version of a bit representation of the second value, and wherein the bit representation of the second value is zero-padded characterised by the second value being zero-padded on a most significant bit, MSB, or a least significant bit, LSB, wherein whether zero-padding is performed on the MSB or the LSB in the bit representation of the second value is based on an indication bit.
An unsaturated polyester resin composition for lamp reflectors comprising (a) an unsaturated polyester resin, (b) a diallyl phthalate monomer or prepolymer, (c) a radically polymerizable unsaturated monomer other than the diallyl phthalate monomer, (d) a polystyrene and/or a styrene-vinyl acetate block copolymer, and (e) a styrene-diene block copolymer and/or a hydrogenated or modified styrene-diene block copolymer, characterized in that the composition comprises from 20 to 60 parts by weight of (b) and (c), and from 13 to 34 parts by weight of (d) and (e) based on 100 parts by weight of (a), (b), (c), (d) and (e), and the ratio by weight of (b) to (c) is 5:95 to 25:75, and the ratio by weight of (d) to (e) is 20:80 to 80:20.