mhurhangee/ep-ind-claims huggingface dataset:
Moulding device of a container starting with a parison in plastic material, comprising: two half-moulds (4a, 4b) which may be joined to define at least one housing cavity of the parison; supply means of a blowing fluid having a pressure higher than the atmospheric pressure; a blowing nozzle applicable on the neck of said parison, characterised in that it comprises a plasma generator having an inlet receiving the blowing fluid from said supply means and an outlet enabled to supply plasma at pressure higher than the atmospheric pressure to said blowing nozzle, so that said plasma is blown into the parison placed in said housing cavity to mould it at least partially and to decontaminate it. two half-moulds (4a, 4b) which may be joined to define at least one housing cavity of the parison; supply means of a blowing fluid having a pressure higher than the atmospheric pressure; a blowing nozzle applicable on the neck of said parison, characterised in that it comprises a plasma generator having an inlet receiving the blowing fluid from said supply means and an outlet enabled to supply plasma at pressure higher than the atmospheric pressure to said blowing nozzle, so that said plasma is blown into the parison placed in said housing cavity to mould it at least partially and to decontaminate it.
A method for user equipment, UE, in a mobile communication system the method comprising: receiving (1A-3), at the UE, a Non Access Stratum, NAS, protocol response message with a network provided Voice over IP Multimedia, IM, Core Network, CN, Subsystem, VoIMS, indicator, wherein the UE has a UE usage setting, the UE usage setting being (1A-7, 1B-5) one of a preference of the UE for voice service, a preference of the UE for data service or Data Only (72, 73) meaning that the UE requires only data services and can accept that there is no voice service, wherein the NAS protocol response message is an accept message; and in the event of the VoIMS indicator indicating that VoIMS is supported, attempting IMS registration and in the event of IMS registration failure, responsive to the UE usage setting indicating UE preference for voice service, upon NAS indication to select specific radio access technologies, RATs, selecting (1A-9) by the UE a RAT from the specific RATs and disabling, by the UE, evolved universal mobile telecommunications system terrestrial radio access, E-UTRA, cell reselection and cell selection. receiving (1A-3), at the UE, a Non Access Stratum, NAS, protocol response message with a network provided Voice over IP Multimedia, IM, Core Network, CN, Subsystem, VoIMS, indicator, wherein the UE has a UE usage setting, the UE usage setting being (1A-7, 1B-5) one of a preference of the UE for voice service, a preference of the UE for data service or Data Only (72, 73) meaning that the UE requires only data services and can accept that there is no voice service, wherein the NAS protocol response message is an accept message; and in the event of the VoIMS indicator indicating that VoIMS is supported, attempting IMS registration and in the event of IMS registration failure, responsive to the UE usage setting indicating UE preference for voice service, upon NAS indication to select specific radio access technologies, RATs, selecting (1A-9) by the UE a RAT from the specific RATs and disabling, by the UE, evolved universal mobile telecommunications system terrestrial radio access, E-UTRA, cell reselection and cell selection.
A clock synchronization packet sending method, wherein the method comprises: sending, by a first device, a first FlexE instance at a first physical layer, PHY, wherein the first FlexE instance comprises a clock synchronization packet; and sending, by the first device, a second FlexE instance at a second PHY, wherein the second FlexE instance comprises a clock synchronization packet, and the first PHY and the second PHY are comprised in a same FlexE group, wherein the first device comprises a first clock device, and when the first PHY and the second PHY are in a normal state, one of the clock synchronization packet comprised in the first FlexE instance and the clock synchronization packet comprised in the second FlexE instance is a packet used by the first clock device to perform clock synchronization on a second clock device, wherein the other of the clock synchronization packet comprised in the second FlexE instance and the clock synchronization packet comprised in the first FlexE instance is a packet used by the first clock device to perform clock synchronization on a third clock device; wherein a second device comprises the second clock device and the third clock device sending, by a first device, a first FlexE instance at a first physical layer, PHY, wherein the first FlexE instance comprises a clock synchronization packet; and sending, by the first device, a second FlexE instance at a second PHY, wherein the second FlexE instance comprises a clock synchronization packet, and the first PHY and the second PHY are comprised in a same FlexE group, wherein the first device comprises a first clock device, and when the first PHY and the second PHY are in a normal state, one of the clock synchronization packet comprised in the first FlexE instance and the clock synchronization packet comprised in the second FlexE instance is a packet used by the first clock device to perform clock synchronization on a second clock device, wherein the other of the clock synchronization packet comprised in the second FlexE instance and the clock synchronization packet comprised in the first FlexE instance is a packet used by the first clock device to perform clock synchronization on a third clock device; wherein a second device comprises the second clock device and the third clock device
Process for the fluorination of haloolefins comprising reacting elemental fluorine in the presence of anhydrous HF with a haloolefin of formula CXR 1 =CYR 2, wherein: R 1 is selected from the group consisting of F, Cl, Br, I, R f1, OR f1; R 2 is selected from the group consisting of H, F, Cl, Br, I, R f2, OR f2; X is selected from the group consisting of H, F, Cl, Br, I; Y is selected from the group consisting of H, F, Cl, Br, I; and R f1 and R f2, equal to or different from each other, are independently selected from a straight-chain or branched C 1 -C 20 fluoroalkyl or a C 1 -C 20 fluorooxyalkyl comprising one or more than one catenary oxygen atoms; and R f1 and R f2 may be comprised in a fluorinated cycloalkyl structure wherein fluorine and the haloolefin, in separate feeds, are continuously fed to a reaction vessel containing anhydrous HF as sole reaction medium.
An article of footwear (10; 10a) comprising: an upper (100; 100a) including an instep region at an anterior end of an ankle opening, a heel counter at a posterior end of the ankle opening (1 04), and a quarter region extending between the instep region and the heel counter; a sole structure attached to the upper (100; 100a); a heel strap (128; 128a) disposed at the heel counter of the upper (100; 100a); a cable lock disposed within the sole structure; and a tensioning system (300; 300a) including a tensioning element having a heel portion extending from the cable lock to the heel strap (128; 128a), and a control element extending from the cable lock to an exterior surface of the upper (100; 100a), the control element operable to move the tensioning element between a first position and a second position, wherein the instep region includes a lace independently operable to selectively draw a medial side of the upper (100; 100a) and a lateral side of the upper (100; 100a) toward one another to adjust the fit of the instep region. an upper (100; 100a) including an instep region at an anterior end of an ankle opening, a heel counter at a posterior end of the ankle opening (1 04), and a quarter region extending between the instep region and the heel counter; a sole structure attached to the upper (100; 100a); a heel strap (128; 128a) disposed at the heel counter of the upper (100; 100a); a cable lock disposed within the sole structure; and a tensioning system (300; 300a) including a tensioning element having a heel portion extending from the cable lock to the heel strap (128; 128a), and a control element extending from the cable lock to an exterior surface of the upper (100; 100a), the control element operable to move the tensioning element between a first position and a second position, wherein the instep region includes a lace independently operable to selectively draw a medial side of the upper (100; 100a) and a lateral side of the upper (100; 100a) toward one another to adjust the fit of the instep region.
A method for the recovery of oil or other hydrocarbon deposits from a subterranean formation, said method comprising the steps of: a) Providing production water, said production water is brought to the surface during oil and gas production and has a first salinity; b) Processing said production water by dilution to form an aqueous fluid having a salinity lower than said first salinity; c) Injecting said formed aqueous fluid into the subterranean formation sequentially either prior to and / or subsequent to the injection of a second fluid comprising carbon dioxide into said formation; and, d) Collecting hydrocarbons displaced by the injected fluids, wherein the method further comprising the step of combusting a fraction of the recovered oil and / or hydrocarbon deposits, and wherein water condensed from the products of combustion of said recovered oil and / or hydrocarbon deposits is used in step b) to dilute said production water. a) Providing production water, said production water is brought to the surface during oil and gas production and has a first salinity; b) Processing said production water by dilution to form an aqueous fluid having a salinity lower than said first salinity; c) Injecting said formed aqueous fluid into the subterranean formation sequentially either prior to and / or subsequent to the injection of a second fluid comprising carbon dioxide into said formation; and, d) Collecting hydrocarbons displaced by the injected fluids,
A method for determining application dependency paths in a data center having a plurality of servers and a plurality of different applications, each of the applications having a plurality of components, one or more of the components being shared with one or more of the other applications, the method comprising the steps of: capturing application traffic volume data on the servers; generating an application traffic matrix of all the components of the applications based on the application traffic volume data; estimating the number of the applications in the data center from the traffic matrix; and decomposing the traffic matrix into a first matrix and a second matrix using the estimated number of applications, the first matrix representing a set of the components belonging to each of the applications and the second matrix representing the amount of traffic generated by each application over time. capturing application traffic volume data on the servers; generating an application traffic matrix of all the components of the applications based on the application traffic volume data; estimating the number of the applications in the data center from the traffic matrix; and decomposing the traffic matrix into a first matrix and a second matrix using the estimated number of applications, the first matrix representing a set of the components belonging to each of the applications and the second matrix representing the amount of traffic generated by each application over time.
Driving device for driving a fastening element into a base material, the driving device comprising a power unit and a driving element, formed in particular as a piston, which is driven by the power unit from a starting position into a setting position, in order to drive a fastening element into the base material, the driving device comprising an apparatus comprising a control element, which stops in a stopping position during a recurring sequence of movements, a control device, which is intended for controlling stopping of the control element in the stopping position by means of at least one control parameter, characterized by a detection device for detecting an actual stopping position of the control element at the time of a stopping of the control element, the control device being suitable for forming a difference between the actual stopping position and a desired stopping position of the control element and adapting the control parameter for a subsequent sequence of movements of the control element if the difference exceeds a predetermined desired value, the control element returning the driving element from the setting position into the starting position, characterized in that the driving device also comprises a clutch device with an open state and a closed state, the clutch device temporarily arresting the driving element in the starting position in a closed state of the clutch device, and a detection device for detecting a transition of the clutch device from the open state into the closed state, the control unit being configured for calculating a distance covered by the control element between a transition of the clutch device from the open state into the closed state and a stopping of the control element, in order to detect the actual stopping position of the control element.
An axle mount for utility or commercial vehicles, comprising a carrier unit and a protective unit, wherein the carrier unit has a first fastening region for the fixing of a utility vehicle axle thereto and has, arranged adjacent to said fastening region, a receiving region for receiving or accommodating chassis systems, wherein the protective unit is arranged on the carrier unit such that the receiving region is enclosed transversely with respect to an axial direction by the carrier unit and by the protective unit, in such a way that the ingress of foreign bodies or foreign matter into the receiving region is prevented or obstructed, characterized in that the protective unit is positively and frictionally fixed at the carrier unit.
A method for wireless communication at a user equipment, UE, comprising: receiving (210; 1605; 1705) a downlink, DL, signal from a base station on a plurality of DL beams, wherein each DL beam of the plurality of DL beams are transmitted in different symbols of a random access subframe, each symbol associated with a different beam direction; identifying a nature of beam correspondence between one or more receive beams at the UE and one or more transmit beams at the UE, wherein the nature of beam correspondence is identified by determining whether there is full correspondence, partial correspondence, or no correspondence; identifying (215; 1610; 1710) a selected DL beam from the plurality of DL beams for communications from the base station to the UE; and transmitting (225; 1615; 1715), for a number of symbols of a corresponding random access subframe, wherein each symbol of the corresponding random access subframe is associated with a corresponding beam direction of the base station, a random access channel, RACH, message to the base station using at least one of a frequency resource or a RACH waveform selected based at least in part on the symbol of the subframe of the DL signal of the selected DL beam, wherein the number of symbols of the corresponding random access subframe is determined based on whether there is full correspondence, partial correspondence, or no correspondence. receiving (210; 1605; 1705) a downlink, DL, signal from a base station on a plurality of DL beams, wherein each DL beam of the plurality of DL beams are transmitted in different symbols of a random access subframe, each symbol associated with a different beam direction; identifying a nature of beam correspondence between one or more receive beams at the UE and one or more transmit beams at the UE, wherein the nature of beam correspondence is identified by determining whether there is full correspondence, partial correspondence, or no correspondence; identifying (215; 1610; 1710) a selected DL beam from the plurality of DL beams for communications from the base station to the UE; and transmitting (225; 1615; 1715), for a number of symbols of a corresponding random access subframe, wherein each symbol of the corresponding random access subframe is associated with a corresponding beam direction of the base station, a random access channel, RACH, message to the base station using at least one of a frequency resource or a RACH waveform selected based at least in part on the symbol of the subframe of the DL signal of the selected DL beam, wherein the number of symbols of the corresponding random access subframe is determined based on whether there is full correspondence, partial correspondence, or no correspondence.
A gymnastics or physical exercise apparatus with at least one vertical pole provided with transverse bores, and with at least one mount (16; 96; 116) for detachable and height-adjustable attachment of at least one exercise element (14; 78, 88; 118) to the pole, wherein the mount (16; 96; 116) comprises a retaining portion (40; 98; 120) having two parallel legs (48; 100; 130) and two bolts, wherein in the two legs (48, 100; 130) of the retaining portion (40; 98; 120) at least two pairs of aligned hook openings (50, 50; 106, 106; 124, 124) are cut out, wherein the upper hook opening (50; 106; 124) of each leg (48; 100; 130) extends obliquely upwards towards its rounded inner end (56; 108; 126), wherein, after fastening the mount (16; 96) to the pole, the retaining portion (40; 98; 120) is hooked to the upper of the two bolts that extend through the upper pair of hook openings (50; 106; 124) and is secured with the lower bolt that extends through a transverse bore of the pole located below it and the lower pair of hook openings (50; 106; 124), characterized in that the lower hook opening (50; 106; 124) of each leg (48; 100; 130) extends obliquely downwards towards its rounded inner end (56; 108; 126).
A replacement mitral valve configured to self-expand from a constrained configuration to an expanded configuration, comprising: an anchor assembly comprising a ventricular anchor (4, 2304, 3104, 3204, 3704), an annular central portion (3, 3203), and an atrial anchor (2, 1902, 2302, 2402, 3102, 3202, 3702), the anchor assembly configured to expand from the constrained configuration to the expanded configuration in which the ventricular anchor and the atrial anchor are flared radially outward relative to the central portion, the anchor assembly in the expanded configuration configured to compress native cardiac tissue between the ventricular anchor and the atrial anchor; an annular strut frame (304, 1000, 1100, 1805, 2500, 2802, 3100, 3215) disposed radially within the anchor assembly and attached to the anchor assembly in the constrained and expanded configurations with a plurality of couplers, the annular strut frame flared radially outward to form a funnel shape on an atrial side of the strut frame; and a plurality of replacement leaflets secured to the annular strut frame. an anchor assembly comprising a ventricular anchor (4, 2304, 3104, 3204, 3704), an annular central portion (3, 3203), and an atrial anchor (2, 1902, 2302, 2402, 3102, 3202, 3702), the anchor assembly configured to expand from the constrained configuration to the expanded configuration in which the ventricular anchor and the atrial anchor are flared radially outward relative to the central portion, the anchor assembly in the expanded configuration configured to compress native cardiac tissue between the ventricular anchor and the atrial anchor; an annular strut frame (304, 1000, 1100, 1805, 2500, 2802, 3100, 3215) disposed radially within the anchor assembly and attached to the anchor assembly in the constrained and expanded configurations with a plurality of couplers, the annular strut frame flared radially outward to form a funnel shape on an atrial side of the strut frame; and a plurality of replacement leaflets secured to the annular strut frame.
A post-process apparatus comprising: a first operation portion that accepts a sheet conveyed from an image forming apparatus and performs a first operation based on a job involved with the sheet; a second operation portion that accepts a sheet manually inserted into the post-process apparatus and performs a second operation different from the first operation; and a control unit that determines timing to perform the second operation in accordance with a condition of the first operation performed, wherein the second operation is an operation on the manually inserted sheet, characterised in that the second operation portion is movable through a prescribed path based on a command from the control unit and the second operation portion is temporarily held at a prescribed position on the prescribed path when the second operation portion performs the second operation, and when the second operation is performed while the image forming apparatus and the post-process apparatus are not operating, the control unit controls holding power to hold the second operation portion at the prescribed position to be stronger than while the image forming apparatus and the post-process apparatus are operating. a first operation portion that accepts a sheet conveyed from an image forming apparatus and performs a first operation based on a job involved with the sheet; a second operation portion that accepts a sheet manually inserted into the post-process apparatus and performs a second operation different from the first operation; and a control unit that determines timing to perform the second operation in accordance with a condition of the first operation performed, wherein the second operation is an operation on the manually inserted sheet, characterised in that the second operation portion is movable through a prescribed path based on a command from the control unit and the second operation portion is temporarily held at a prescribed position on the prescribed path when the second operation portion performs the second operation, and when the second operation is performed while the image forming apparatus and the post-process apparatus are not operating, the control unit controls holding power to hold the second operation portion at the prescribed position to be stronger than while the image forming apparatus and the post-process apparatus are operating.
A foundation for structures, with a combination of pile-like support elements and a load distribution layer which is arranged above said support elements and has an incorporated three-dimensional matrix-like structure or honeycomb structure, wherein a compensation layer is provided below the load distribution layer, characterized in that the support elements extend into the compensation layer, with any differences in height which exist between the support elements being compensated by the compensation layer, and wherein a nonwoven fabric is provided on or in the compensation layer.