mhurhangee/ep-ind-claims huggingface dataset:
Device for treating paper webs or plies, comprising a couple of overlapped rolls (2,3) for compressing a paper web or ply passing between them, each of said rolls (2,3) featuring a fixed central shaft (20,300) supported by a corresponding holder (10,83) at its ends, on which shaft a tubular jacket is fitted, with the interposition of low-friction connecting members (21,310) which are positioned on opposite sides with respect to the center line of the fixed central shaft axis, so that said tubular jacket, which is destined to come into contact with the paper webs or plies to be treated, is free to rotate about its longitudinal axis, wherein said rolls (2,3) are respectively a steel roll or engraved roll and a rubber roll for embossing units and said engraved roll is operated by a corresponding motor which is mounted on a support capable of sliding along a horizontal guide.
A user apparatus for use in a mobile communication network that supports a plurality of radio access technologies, comprising: a reception unit configured, when an origination request transmitted to the mobile communication network from the user apparatus that uses a first radio access technology is rejected, to receive an origination rejection signal including a timer value and an operation instruction from the mobile communication network; and an operation control unit configured to perform inhibition of re-origination based on the timer value included in the origination rejection signal that is received by the reception unit, wherein, in a case where the user apparatus changes a using radio access technology from the first radio access technology to a second radio access technology, the operation control unit determines whether to inhibit re-origination based on the operation instruction included in the origination rejection signal, and wherein the operation instruction is: a radio access technology dependent instruction to cause to perform re-origination inhibition operation depending on a radio access technology that the user apparatus uses, or a radio access technology independent instruction to cause to perform re-origination inhibition operation independently of a radio access technology that the user apparatus uses. a reception unit configured, when an origination request transmitted to the mobile communication network from the user apparatus that uses a first radio access technology is rejected, to receive an origination rejection signal including a timer value and an operation instruction from the mobile communication network; and an operation control unit configured to perform inhibition of re-origination based on the timer value included in the origination rejection signal that is received by the reception unit, wherein, in a case where the user apparatus changes a using radio access technology from the first radio access technology to a second radio access technology, the operation control unit determines whether to inhibit re-origination based on the operation instruction included in the origination rejection signal, and wherein the operation instruction is: a radio access technology dependent instruction to cause to perform re-origination inhibition operation depending on a radio access technology that the user apparatus uses, or a radio access technology independent instruction to cause to perform re-origination inhibition operation independently of a radio access technology that the user apparatus uses. a radio access technology dependent instruction to cause to perform re-origination inhibition operation depending on a radio access technology that the user apparatus uses, or a radio access technology independent instruction to cause to perform re-origination inhibition operation independently of a radio access technology that the user apparatus uses.
A brewing unit for the preparation of a beverage, comprising a support structure which is stationary in operation and in which a brewing zone is defined where a hydraulically operated piercing and liquid-supplying device (23, 34, 35) is mounted movable between a retracted rest position and an extracted working position, and an associated movable drawer which forms a receptacle adapted to receive a capsule containing a substance for the preparation of a beverage and is insertable into and extractable from said support structure to place a capsule in the brewing zone with a top wall of the capsule facing said piercing and liquid-supplying device (23, 34, 35) and to allow an exhausted capsule to be ejected after the beverage has been dispensed and a new capsule has been loaded; wherein the piercing and liquid-supplying device (23, 34, 35) comprises a plurality of points for piercing said top wall of a capsule placed in the brewing zone and a conduit for supplying a flow of pressurized liquid to a brewing chamber adjacent and above the top wall of the capsule and thereafter inside the capsule through holes pierced by the points in the top wall of the capsule; wherein the brewing unit is configured in such a manner that when the drawer is inserted into the support structure with a capsule positioned in the receptacle, the top wall of the capsule lies essentially in a plane inclined to the horizontal plane, and wherein in the drawer there is defined a discharge channel adapted to be put into fluid communication with the region above the top wall of the capsule when, after the beverage has been prepared and dispensed, the piercing and liquid-supplying device (23, 34, 35) moves from the extracted work position to the retracted rest position, to allow pouring of the remaining liquid from said region to the discharge channel, characterized in that the discharge channel of the drawer has an outlet passage which, when the drawer is inserted in the work position into the support structure, is adapted to be put into fluid communication with a discharge conduit arranged in said support structure by the return of the piercing and liquid-supplying device (23, 34, 35) to the retracted rest position.
A wireless communications method, comprising: sending, by a terminal, a first uplink message, wherein the first uplink message comprises identification information of a first signal, and the first signal comprises a channel state information reference signal, CSI-RS, or a synchronization signal block; determining, by the terminal, a first control resource set, CORESET, according to a correspondence between the first signal and the first CORESET; and receiving, by the terminal, a first response message, responding to the first uplink message, on the first CORESET, wherein the method further comprises: receiving, by the terminal, first indication information, wherein the first indication information is used to indicate the correspondence. sending, by a terminal, a first uplink message, wherein the first uplink message comprises identification information of a first signal, and the first signal comprises a channel state information reference signal, CSI-RS, or a synchronization signal block; determining, by the terminal, a first control resource set, CORESET, according to a correspondence between the first signal and the first CORESET; and receiving, by the terminal, a first response message, responding to the first uplink message, on the first CORESET, wherein the method further comprises: receiving, by the terminal, first indication information, wherein the first indication information is used to indicate the correspondence.
A scapholunate stabilisation implant which is formed by a plate of oblong shape and made of a material having a capacity for elastic deformation, the ends of which are provided with at least one hole permitting the passage of fixing screws, characterised in that the central part of the plate has an opening delimited by two opposite sides (5 or 5'), a spring connecting two distant points of said sides (5 or 5'), said spring being disposed along the diagonal of said opening.
A glass furnace regenerator comprising opposed pairs of side and end walls (16, 18), wherein at least one of the side and end walls of the regenerator comprises an interlocking plurality of refractory blocks (12, 14), each having a dimension of about 650 mm or greater and a weight of more than 22.68 kilograms and wherein the refractory blocks (12, 14) are self-supporting and load-bearing one-piece pre-cast structures of a refractory material, wherein the refractory blocks have an air permeability of between about 5×10 -15 m 2 to about 5×10 -14 m 2, and wherein the refractory blocks (12, 14) comprise longitudinally adjacent integral interior and exterior block regions adjacent an interior and exterior of the regenerator, the interior and exterior block regions being formed of dissimilar precast refractory material having respective thermal conductivity properties that differ by at least about 10% so as to establish a gradient of thermal insulation properties from the interior block region to the exterior block region. the refractory blocks (12, 14) are self-supporting and load-bearing one-piece pre-cast structures of a refractory material, wherein the refractory blocks have an air permeability of between about 5×10 -15 m 2 to about 5×10 -14 m 2, and wherein the refractory blocks (12, 14) comprise longitudinally adjacent integral interior and exterior block regions adjacent an interior and exterior of the regenerator, the interior and exterior block regions being formed of dissimilar precast refractory material having respective thermal conductivity properties that differ by at least about 10% so as to establish a gradient of thermal insulation properties from the interior block region to the exterior block region.
System for detecting tire pressure loss in at least one of a plurality of tires (12a, 12b, 12c, 12d) of a vehicle, comprising: - a sensor (22, 22a, 22b, 22c, 22d), the sensor being -- arranged at the vehicle remotely from the tires, -- mechanically coupled at least indirectly to a chassis of the vehicle, and -- configured to detect a property indicative of tilting spatial movement of the chassis; - a processing unit, the processing unit being -- communicatively coupled with the sensor, -- configured to receive sensor signals from the sensor, the sensor signals being indicative of tilting spatial movement of the chassis, wherein the sensor signals comprises (i) a reference reading from the sensor collected responsive to the detection of a standstill of the vehicle and (ii) a detection reading from the sensor collected responsive to the detection of ignition of the vehicle, and -- configured to detect a tire pressure based on the sensor signals, wherein the processing unit is configured to detect a tire pressure loss responsive to the sensor signals indicating a tilting spatial movement of the chassis towards the at least one tire based on a comparison of the detection reading with the reference reading. - a sensor (22, 22a, 22b, 22c, 22d), the sensor being -- arranged at the vehicle remotely from the tires, -- mechanically coupled at least indirectly to a chassis of the vehicle, and -- configured to detect a property indicative of tilting spatial movement of the chassis; -- arranged at the vehicle remotely from the tires, -- mechanically coupled at least indirectly to a chassis of the vehicle, and -- configured to detect a property indicative of tilting spatial movement of the chassis; - a processing unit, the processing unit being -- communicatively coupled with the sensor, -- configured to receive sensor signals from the sensor, the sensor signals being indicative of tilting spatial movement of the chassis, wherein the sensor signals comprises (i) a reference reading from the sensor collected responsive to the detection of a standstill of the vehicle and (ii) a detection reading from the sensor collected responsive to the detection of ignition of the vehicle, and -- configured to detect a tire pressure based on the sensor signals, -- communicatively coupled with the sensor, -- configured to receive sensor signals from the sensor, the sensor signals being indicative of tilting spatial movement of the chassis, wherein the sensor signals comprises (i) a reference reading from the sensor collected responsive to the detection of a standstill of the vehicle and (ii) a detection reading from the sensor collected responsive to the detection of ignition of the vehicle, and -- configured to detect a tire pressure based on the sensor signals,
A method of operating a fuel cell system on a by-product gas, comprising the steps of: producing a purified gas stream and a residual stream from said by-product gas by separating said by-product gas into the purified gas stream and the residual stream; feeding said purified gas stream to a fuel reformer configured to transform said purified gas stream to produce a reformate stream; feeding said residual gas stream to a combustor configured to burn said residual stream to provide heat energy; feeding said reformate stream to a solid oxide fuel cell stack producing an anode tail gas; wherein said purified gas stream comprises a higher concentration of fuel constituents and a lower concentration of contaminants than said residual gas stream; and wherein said by-product gas is produced by a process selected from a group consisting of bio-degradation of organic matter, pyrolysis of organic material, partial oxidation of organic materials, and gasification of fossil fuel; and characterised in that said step of separating said by-product gas into a purified gas stream and a residual stream is performed prior to feeding said purified gas stream and said residual stream to said fuel cell system. producing a purified gas stream and a residual stream from said by-product gas by separating said by-product gas into the purified gas stream and the residual stream; feeding said purified gas stream to a fuel reformer configured to transform said purified gas stream to produce a reformate stream; feeding said residual gas stream to a combustor configured to burn said residual stream to provide heat energy; feeding said reformate stream to a solid oxide fuel cell stack producing an anode tail gas; wherein said purified gas stream comprises a higher concentration of fuel constituents and a lower concentration of contaminants than said residual gas stream; and wherein said by-product gas is produced by a process selected from a group consisting of bio-degradation of organic matter, pyrolysis of organic material, partial oxidation of organic materials, and gasification of fossil fuel; and characterised in that said step of separating said by-product gas into a purified gas stream and a residual stream is performed prior to feeding said purified gas stream and said residual stream to said fuel cell system.
A communication terminal comprising a receiver configured to receive pilot signal samples via a plurality of communication channels and to determine an interference matrix ( Γ) which includes, for each pilot signal sample, interference information representing an amount of interference included in the pilot signal sample; and a channel estimator configured to determine a channel autocorrelation matrix ( R h) for the plurality of communication channels and to determine a linear transformation which diagonalizes or triagonalizes the autocorrelation matrix ( R h); to transform the interference matrix ( Γ) by the transformation and to reduce the transformed interference matrix by discarding components corresponding to predetermined eigenvectors of the autocorrelation matrix ( R h); to determine filter weights for the signal samples based on the reduced interference matrix; and to determine channel estimates by filtering the pilot signal samples using the determined filter weights. to determine a channel autocorrelation matrix ( R h) for the plurality of communication channels and to determine a linear transformation which diagonalizes or triagonalizes the autocorrelation matrix ( R h); to transform the interference matrix ( Γ) by the transformation and to reduce the transformed interference matrix by discarding components corresponding to predetermined eigenvectors of the autocorrelation matrix ( R h); to determine filter weights for the signal samples based on the reduced interference matrix; and to determine channel estimates by filtering the pilot signal samples using the determined filter weights.
A refrigerator comprising: a storage compartment formed in a cabinet of the refrigerator by a fixed insulation wall, the storage compartment being provided with an access opening; a door rotatably provided to the cabinet and arranged to open and close the access opening; at least one drawer provided in the storage compartment; at least one shelf provided in the storage compartment, the at least one shelf being positioned at an upper side of the drawer; and a camera fixed to a ceiling of the storage compartment between a front edge of the shelf and the access opening, wherein the camera is arranged to photograph both a region for storing of food provided in an external space of the drawer in the storage compartment and a region provided in an internal space of the drawer for storing of food. a storage compartment formed in a cabinet of the refrigerator by a fixed insulation wall, the storage compartment being provided with an access opening; a door rotatably provided to the cabinet and arranged to open and close the access opening; at least one drawer provided in the storage compartment; at least one shelf provided in the storage compartment, the at least one shelf being positioned at an upper side of the drawer; and a camera fixed to a ceiling of the storage compartment between a front edge of the shelf and the access opening, wherein the camera is arranged to photograph both a region for storing of food provided in an external space of the drawer in the storage compartment and a region provided in an internal space of the drawer for storing of food.
A vibration assembly (118, 318, 418, 518) for a downhole tool positionable in a subterranean formation, the vibration assembly (118, 318, 418, 518) comprising: a vibration race (944, 1044) positioned in the downhole tool, the vibration race (944, 1044) having a non-planar engagement surface (450b, 850b, 950, 1050) comprising a plurality of valleys (962, 1062), a plurality of ramps (964, 1064a, 1064b), and a plurality of flat peaks (960, 1060), wherein each flat peak (960, 1060) is positioned between a pair of the plurality of ramps (964, 1064a, 1064b); an additional race (242, 342, 442, 944, 1044, 1142) positioned in the downhole tool a distance from the vibration race (944, 1044), the additional race (242, 342, 442, 944, 1044, 1142) having another engagement surface (450a, 450b, 850b, 950, 1050, 1250, 1350) facing the non-planar engagement surface (450b, 850b, 950, 1050) of the vibration race (944, 1044); and rollers (248, 448, 1148, 1248, 1348) rollably engageable with the non-planar engagement surface (450b, 850b, 950, 1050) and the another engagement surface (450a, 450b, 850b, 950, 1050, 1250, 1350) to vary the distance between the vibration race (944, 1044) and the additional race (242, 342, 442, 944, 1044, 1142) whereby axial movement is provided in the downhole tool. a vibration race (944, 1044) positioned in the downhole tool, the vibration race (944, 1044) having a non-planar engagement surface (450b, 850b, 950, 1050) comprising a plurality of valleys (962, 1062), a plurality of ramps (964, 1064a, 1064b), and a plurality of flat peaks (960, 1060), wherein each flat peak (960, 1060) is positioned between a pair of the plurality of ramps (964, 1064a, 1064b); an additional race (242, 342, 442, 944, 1044, 1142) positioned in the downhole tool a distance from the vibration race (944, 1044), the additional race (242, 342, 442, 944, 1044, 1142) having another engagement surface (450a, 450b, 850b, 950, 1050, 1250, 1350) facing the non-planar engagement surface (450b, 850b, 950, 1050) of the vibration race (944, 1044); and rollers (248, 448, 1148, 1248, 1348) rollably engageable with the non-planar engagement surface (450b, 850b, 950, 1050) and the another engagement surface (450a, 450b, 850b, 950, 1050, 1250, 1350) to vary the distance between the vibration race (944, 1044) and the additional race (242, 342, 442, 944, 1044, 1142) whereby axial movement is provided in the downhole tool.
A multibaseline method of performing proton resonance frequency, PRF, MRI thermometry, the method comprising the steps of: acquiring a plurality of PRF baseline images of an imaging region at different stages during a cycle of periodic motion of the imaging region, each baseline image corresponding to a PRF phase background at one of the stages during the periodic cycle of motion of the imaging region; performing a thermal treatment, thereby heating a subregion within the imaging region; acquiring a PRF treatment image of the imaging region subsequent to a temperature change of the heated subregion caused by the thermal treatment; characterised in that the method further comprises: estimating a phase background of the imaging region by separating the phase of the treatment image into an estimated phase background and a temperature-induced phase shift by numerically fitting an image model to the treatment image, the image model comprising (i) a weighted combination of the plurality of the PRF baseline images and (ii) a phase factor for extending the phase surrounding the heated subregion smoothly into the heated subregion, the phase factor being a function of a weighted set of spatially smooth basis functions and the temperature induced phase shift; and estimating a temperature distribution of the heated sub region from the temperature induced phase shift. acquiring a plurality of PRF baseline images of an imaging region at different stages during a cycle of periodic motion of the imaging region, each baseline image corresponding to a PRF phase background at one of the stages during the periodic cycle of motion of the imaging region; performing a thermal treatment, thereby heating a subregion within the imaging region; acquiring a PRF treatment image of the imaging region subsequent to a temperature change of the heated subregion caused by the thermal treatment; characterised in that the method further comprises: estimating a phase background of the imaging region by separating the phase of the treatment image into an estimated phase background and a temperature-induced phase shift by numerically fitting an image model to the treatment image, the image model comprising (i) a weighted combination of the plurality of the PRF baseline images and (ii) a phase factor for extending the phase surrounding the heated subregion smoothly into the heated subregion, the phase factor being a function of a weighted set of spatially smooth basis functions and the temperature induced phase shift; and estimating a temperature distribution of the heated sub region from the temperature induced phase shift.