mhurhangee/ep-ind-claims huggingface dataset:
Ironing appliance comprising a cordless iron and a charging base on which the iron is placed during the inactive phases of ironing to exchange energy between the charging base and the iron, said iron comprising a water tank and a heating body equipped with a vaporisation chamber for the production of steam, the water tank communicating with the vaporisation chamber by means of a supply circuit, characterised in that said supply circuit comprises blocking means movable between a closed position, in which said blocking means cut off the flow of water through the supply circuit, and an open position in which said blocking means allow water to flow through the supply circuit, and in that the blocking means are moved to the open position by actuating a steam control knob carried by the iron and automatically returned to the closed position by return means when the user releases the steam control knob.
A method for producing distillate fuel boiling range material, comprising: exposing a distillate fuel boiling range feedstock having a sulfur content of 15 wppm or less to a dewaxing catalyst comprising a molecular sieve and a metal hydrogenation component under dewaxing conditions to produce a dewaxed effluent comprising a distillate fuel boiling range product and/or blendstock having a cloud point that is reduced relative to a cloud point of the feedstock by at least 5°C, the dewaxing conditions comprising a total pressure of 200 psig (about 1.4 MPag) or less, a hydrogen partial pressure of 100 psig (about 700 kPag) or less, and a treat gas rate of 100 SCF/bbl (about 17 Nm 3 /m 3) to 5000 SCF/bbl (about 850 Nm 3 /m 3) of a treat gas comprising 5 vol% to 50 vol% H 2.
A pharmaceutical composition, comprising atropine or a pharmaceutically acceptable salt thereof in an amount of 0.001% weight to 0.2% weight, and one or more pharmaceutically acceptable excipients; wherein, the pharmaceutical composition has a pH value of 4.5 to 5.5; the pharmaceutical composition comprises a pH adjusting agent in an amount of 0.05% weight to 5% weight, and the pH adjusting agent is one or more selected from a group consisting of boric acid and borate. the pharmaceutical composition has a pH value of 4.5 to 5.5; the pharmaceutical composition comprises a pH adjusting agent in an amount of 0.05% weight to 5% weight, and the pH adjusting agent is one or more selected from a group consisting of boric acid and borate.
A data processing apparatus, said data processing apparatus comprising: processing circuitry configured to perform data processing operations in response to program code; a data store configured to store data, said data store comprising a plurality of regions including a secure region and a less secure region, the secure region configured to store sensitive data accessible by said processing circuitry when operating in a secure domain and not accessible by said processing circuitry when operating in a less secure domain; said data store comprising a plurality of stacks, including a secure stack in said secure region; the processing circuitry including stack access circuitry configured in response to an event requiring a transition from the secure domain to the less secure domain, to store predetermined processing state to the secure stack; characterised in that; if said event is a first event type, the predetermined processing state stored by the stack access circuitry comprising at least a return address which is stored at a predetermined relative location on the secure stack; if the event is a second event type, the predetermined processing state stored by the stack access circuitry comprising at least a first value which is stored at said predetermined relative location, where said first value is not a valid address for program code; and the processing circuitry further comprising fault checking circuitry configured on receipt of a first event type return from the less secure domain to the secure domain to identify a first fault condition if the data stored in said predetermined relative location is said first value.
An antisense oligomer which is selected from a group consisting of (a) to (c) below, or a pharmaceutically acceptable salt or hydrate thereof: (a) an antisense oligomer comprising a nucleotide sequence of SEQ ID NO: 1 or 2; (b) an antisense oligomer which consists of a nucleotide sequence having deletion, substitution, insertion and/or addition of 1 to 5 nucleotides in the nucleotide sequence of SEQ ID NO: 1 or 2, and has an activity to cause skipping of the 51st exon in the human dystrophin gene; and (c) the antisense oligomer which has a nucleotide sequence having at least 80% identity with a nucleotide sequence of SEQ ID NO: 1 or 2 and has an activity to cause skipping of the 51st exon in the human dystrophin gene. (a) an antisense oligomer comprising a nucleotide sequence of SEQ ID NO: 1 or 2; (b) an antisense oligomer which consists of a nucleotide sequence having deletion, substitution, insertion and/or addition of 1 to 5 nucleotides in the nucleotide sequence of SEQ ID NO: 1 or 2, and has an activity to cause skipping of the 51st exon in the human dystrophin gene; and (c) the antisense oligomer which has a nucleotide sequence having at least 80% identity with a nucleotide sequence of SEQ ID NO: 1 or 2 and has an activity to cause skipping of the 51st exon in the human dystrophin gene.
An iterative detection and decoding method in a Multiple Input Multiple Output, MIMO, system comprising a plurality of MIMO nodes (a, b, c) and a plurality of decoding nodes, comprising the steps of: generating (701, 703, 705) soft decision values by performing a detection of all MIMO nodes; decoding a decoding node among the plurality of decoding nodes using the generated soft decision values to produce a decoding value; re-generating soft decision values by performing a redetection of a MIMO node connected to the decoded decoding node; wherein the decoding step and the re-generating step are performed a number of times equal to a total number of decoding nodes sequentially, and wherein the decoding and re-generating steps are iterated at least one time. generating (701, 703, 705) soft decision values by performing a detection of all MIMO nodes; decoding a decoding node among the plurality of decoding nodes using the generated soft decision values to produce a decoding value; re-generating soft decision values by performing a redetection of a MIMO node connected to the decoded decoding node; wherein the decoding step and the re-generating step are performed a number of times equal to a total number of decoding nodes sequentially, and wherein the decoding and re-generating steps are iterated at least one time.
Method for performing a leak-tightness test on a test object in a foil chamber which has at least one flexible wall region (12, 14), the method comprising the following steps: introducing the test object into the foil chamber, using a gas or gas component contained in the test object as test gas for the leak-tightness test, evacuating the foil chamber to a pressure lower than the test gas pressure within the test object and lower than atmospheric pressure, introducing a carrier gas into the foil chamber into the region outside the test object, and measuring the test gas concentration of the gas mixture that forms in the foil chamber in the region outside the test object. introducing the test object into the foil chamber, using a gas or gas component contained in the test object as test gas for the leak-tightness test, evacuating the foil chamber to a pressure lower than the test gas pressure within the test object and lower than atmospheric pressure, introducing a carrier gas into the foil chamber into the region outside the test object, and measuring the test gas concentration of the gas mixture that forms in the foil chamber in the region outside the test object.
An apparatus comprising: a plurality of inner loops, each for tracking a component of a received signal, and for generating a frequency error estimate and a component signal strength indicator in response thereto; and an outer loop control processor comprising: means for receiving the component signal strength indicator and the frequency error estimate from each of the plurality of inner loops; means for limiting each component signal strength indicator to a maximum signal strength parameter; means for computing a weighted average frequency error over the plurality of frequency error estimates weighted by the respective plurality of limited component signal strength indicators; and means for generating a timing reference control signal in response to the weighted average frequency error. a plurality of inner loops, each for tracking a component of a received signal, and for generating a frequency error estimate and a component signal strength indicator in response thereto; and an outer loop control processor comprising: means for receiving the component signal strength indicator and the frequency error estimate from each of the plurality of inner loops; means for limiting each component signal strength indicator to a maximum signal strength parameter; means for computing a weighted average frequency error over the plurality of frequency error estimates weighted by the respective plurality of limited component signal strength indicators; and means for generating a timing reference control signal in response to the weighted average frequency error. means for receiving the component signal strength indicator and the frequency error estimate from each of the plurality of inner loops; means for limiting each component signal strength indicator to a maximum signal strength parameter; means for computing a weighted average frequency error over the plurality of frequency error estimates weighted by the respective plurality of limited component signal strength indicators; and means for generating a timing reference control signal in response to the weighted average frequency error.
A communication method, wherein the method is used for cell selection, and the method comprises: when a power class of a terminal device is a first power class, determining, by the terminal device, a first offset of the first power class and a second offset of the first power class, wherein the second offset represents a receiver sensitivity temporary offset of the first power class; determining, by the terminal device, a compensation amount of the first power class based on the first offset and the second offset; and determining, by the terminal device based on the second offset and the compensation amount of the first power class, whether to camp on a first cell. when a power class of a terminal device is a first power class, determining, by the terminal device, a first offset of the first power class and a second offset of the first power class, wherein the second offset represents a receiver sensitivity temporary offset of the first power class; determining, by the terminal device, a compensation amount of the first power class based on the first offset and the second offset; and determining, by the terminal device based on the second offset and the compensation amount of the first power class, whether to camp on a first cell.
A biotextile substrate having a mesh sewn therein, the mesh having pores surrounded by corner-lock stitches forming a corner-lock stitch pattern, wherein the corner-lock stitches resist deformation and puncture of the mesh, the corner-lock stitch pattern comprising a first pattern of a first upper thread or yarn and a first lower thread or yarn comprising one or more curves, one or more angles, or a combination of one or more curves and one or more angles, and a second pattern of a second upper thread or yarn and a second lower thread or yarn comprising one or more curves, one or more angles, or a combination of one or more curves and one or more angles; wherein at least one of the one or more curves or the one or more angles of the second pattern overlaps at least one of the one or more curves or the one or more angles of the first pattern in close proximity to a vertex of each of the one or more curves or the one or more angles of the first pattern, and one or more of the overlaps comprises a corner-lock stitch pattern comprising one or more thread interlace points and two or more thread overlays in which the second upper thread and second lower thread envelope the first upper thread and first lower thread.
The use of polyoxyalkyleneamines in enzyme-containing washing or cleaning agents for increasing the stability of enzymes, characterized in that the polyoxyalkyleneamines are selected from the polyoxyalkylene monoamines Jeffamine® M-600 (CAS Number 83713-01-3) and Jeffamine® M-2070 (CAS Number 83713-01-3) and the polyoxyalkylene diamines of the Jeffamine® D series, ED series and EDR series, in particular Jeffamine® EDR-148 (CAS Number 929-59-9) and Jeffamine® ED-600 (CAS Number 65605-36-9).
An apparatus for processing of foodstuff, the apparatus comprising: an element for processing the foodstuff, the element comprising a source element that is arranged to effect a change of a chromatic property of a surface of the foodstuff; a light source (106, 107) for emitting light (108, 109) and positioned to direct the light (108, 109) to the surface of at least the foodstuff, the emitted light (108, 109) having at least two wavelengths or wavelength ranges; a detector positioned to detect at least a portion of the emitted light that is reflected from the surface of the foodstuff, the detector being arranged to generate an output indicative of detected light intensity; a component for identifying a content property of the foodstuff and being arranged to determine a relation between a generated output for one of the at least two wavelengths or wavelength ranges and a generated output for the other or another one of the at least two wavelengths or wavelength ranges and compare the determined relation with predetermined data such that the content property of the foodstuff can be identified; and a controller for controlling the element for processing of the foodstuff using information associated with the identified content property of the foodstuff. an element for processing the foodstuff, the element comprising a source element that is arranged to effect a change of a chromatic property of a surface of the foodstuff; a light source (106, 107) for emitting light (108, 109) and positioned to direct the light (108, 109) to the surface of at least the foodstuff, the emitted light (108, 109) having at least two wavelengths or wavelength ranges; a detector positioned to detect at least a portion of the emitted light that is reflected from the surface of the foodstuff, the detector being arranged to generate an output indicative of detected light intensity; a component for identifying a content property of the foodstuff and being arranged to determine a relation between a generated output for one of the at least two wavelengths or wavelength ranges and a generated output for the other or another one of the at least two wavelengths or wavelength ranges and compare the determined relation with predetermined data such that the content property of the foodstuff can be identified; and a controller for controlling the element for processing of the foodstuff using information associated with the identified content property of the foodstuff.
A bucket for crushing stones and the like comprising: a scoop-shape body defining an inlet for the stone to be crushed and an outlet for the crushed stone, among which a flow direction for the stone is defined; means for crushing stone, the crushing means comprising a first movable jaw and a second fixed jaw housed in the scoop-shape body and facing each other, so that a lower surface of the movable jaw faces an upper surface of the fixed jaw; and driving means of the first movable jaw with regard to the second fixed jaw characterized in that said driving means comprises at least two eccentric shafts (7, 8) which are driven, respectively, by two hydraulic motors (7a,8a) the motion of which is transmitted by belts (7b, 8b); and wherein the motion of the eccentric shafts (7, 8) is synchronised by a central toothed belt; and wherein: (a) the eccentric shafts (7, 8) are securely joined to the movable jaw so that they impart a circular motion on the entire movable jaw which puts a homogeneous pressure on the material to be crushed against the fixed jaw; and (b) the bucket comprises an inclined plate securely joined to the movable jaw in the inlet of the scoop-shaped body of the bucket; (b.1) the inclined plate having an angle of inclination with respect to the movable jaw arranged to direct the material to be crushed towards the jaws (5, 6) of the bucket. a scoop-shape body defining an inlet for the stone to be crushed and an outlet for the crushed stone, among which a flow direction for the stone is defined; means for crushing stone, the crushing means comprising a first movable jaw and a second fixed jaw housed in the scoop-shape body and facing each other, so that a lower surface of the movable jaw faces an upper surface of the fixed jaw; and driving means of the first movable jaw with regard to the second fixed jaw characterized in that (a) the eccentric shafts (7, 8) are securely joined to the movable jaw so that they impart a circular motion on the entire movable jaw which puts a homogeneous pressure on the material to be crushed against the fixed jaw; and (b) the bucket comprises an inclined plate securely joined to the movable jaw in the inlet of the scoop-shaped body of the bucket; (b.1) the inclined plate having an angle of inclination with respect to the movable jaw arranged to direct the material to be crushed towards the jaws (5, 6) of the bucket.
A composite substrate comprising a piezoelectric substrate that is a single-crystal substrate composed of lithium tantalate or lithium niobate, a support substrate that is a single-crystal silicon substrate, and an amorphous layer containing Ar and joining together the piezoelectric substrate and the support substrate, wherein the amorphous layer includes, in order from the piezoelectric substrate toward the support substrate, a first layer, a second layer, and a third layer, the first layer containing a larger amount of a constituent element of the piezoelectric substrate than the second and third layers, the third layer containing a larger amount of a constituent element of the support substrate than the first and second layers, the second layer containing a larger amount of Ar than the first and third layers.
A method of operating an autostereoscopic display, the autostereoscopic display comprising a light source, a time-multiplexed image source, a switchable aperture array and a screen, the method comprising: using the light source and the time-multiplexed image source to time-multiplex display a bit plane portion of an image on the screen for a first period of time, wherein the bit plane portion of the image corresponds to a least significant bit, LSB, portion, and wherein the first period of time corresponds to a period to display the LSB portion; using the switchable aperture array to restrict, to a second period of time, the time for which the LSB portion is visible; wherein the second period of time is less than the first period of time, and varying the length of time by which the switchable aperture array restricts the period of time that the LSB portion is visible to define greyscale levels of image brightness. using the light source and the time-multiplexed image source to time-multiplex display a bit plane portion of an image on the screen for a first period of time, wherein the bit plane portion of the image corresponds to a least significant bit, LSB, portion, and wherein the first period of time corresponds to a period to display the LSB portion; using the switchable aperture array to restrict, to a second period of time, the time for which the LSB portion is visible; wherein the second period of time is less than the first period of time, and varying the length of time by which the switchable aperture array restricts the period of time that the LSB portion is visible to define greyscale levels of image brightness.
A management unit apparatus (600, 700, 800) for a first device (106, 200, 234, 258, 266), the first device being capable of operating in an information flow path of an information delivery system, the apparatus characterised by comprising: record management means (900, 908, 916) for managing a service record (904, 912, 920) corresponding to a service available to a subscriber; security management means (902, 910, 918) arranged to authenticate the first device; and service management means (308, 212, 214) arranged to send service information relating to the available service and first device information to a partner device (106, 200, 234, 258, 266) in the information flow path of the information delivery system. record management means (900, 908, 916) for managing a service record (904, 912, 920) corresponding to a service available to a subscriber; security management means (902, 910, 918) arranged to authenticate the first device; and service management means (308, 212, 214) arranged to send service information relating to the available service and first device information to a partner device (106, 200, 234, 258, 266) in the information flow path of the information delivery system.
An optically active 2-hydroxytetrahydrothienopyridine derivative, wherein said derivative is: -methyl 2-(2-acetoxy-6,7-dihydrothieno[3,2-c]pyridin-5 -yl)-2-(2-chlorophenyl)-acetate or a pharmaceutically acceptable salt thereof.
A method of decoding video data, the method comprising: receive a phase shift value signalled in a picture header; selecting a filter from a filter set for upsampling the first layer video data based on a sum of the phase shift value and a phase calculated based on a spatial aspect ratio between the first layer video data and the second layer video data; upsampling the first layer video data using the selected filter, the upsampled first layer video data having the same spatial resolution as the second layer video data; and decoding the second layer video data based at least on the upsampled first layer video data. receive a phase shift value signalled in a picture header; selecting a filter from a filter set for upsampling the first layer video data based on a sum of the phase shift value and a phase calculated based on a spatial aspect ratio between the first layer video data and the second layer video data; upsampling the first layer video data using the selected filter, the upsampled first layer video data having the same spatial resolution as the second layer video data; and decoding the second layer video data based at least on the upsampled first layer video data.