mhurhangee/ep-ind-claims huggingface dataset:
A method of applying a protective coating to an ink marked media sheet in a print engine, the sheet being ink marked on both surfaces, the method comprising: (a) disposing a plurality of nozzles in a vertical array for discharge; (b) disposing an ink marked media sheet from the engine proximate the array and discharging a gelatinous coating material from the nozzles of that array onto a marked surface of the media sheet; (c) moving the coated sheet to a position vertically displaced from the array in (b) and irradiating the coating with radiant energy from a source of radiant energy and effecting curing of that coating; (d) using an inverter to invert the ink marked media sheet; (e) moving the marked media sheet to a position proximate the array and discharging a gelatinous coating material from the nozzles of that array onto an opposite marked surface of the media sheet; (f) moving the coated sheet to a position vertically displaced from the array in (e) and irradiating the coating on the opposite marked surface with radiant energy from the source of radiant energy and effecting curing of that coating; and after that, (g) moving the coated media sheet to a discharge path for the print engine. (a) disposing a plurality of nozzles in a vertical array for discharge; (b) disposing an ink marked media sheet from the engine proximate the array and discharging a gelatinous coating material from the nozzles of that array onto a marked surface of the media sheet; (c) moving the coated sheet to a position vertically displaced from the array in (b) and irradiating the coating with radiant energy from a source of radiant energy and effecting curing of that coating; (d) using an inverter to invert the ink marked media sheet; (e) moving the marked media sheet to a position proximate the array and discharging a gelatinous coating material from the nozzles of that array onto an opposite marked surface of the media sheet; (f) moving the coated sheet to a position vertically displaced from the array in (e) and irradiating the coating on the opposite marked surface with radiant energy from the source of radiant energy and effecting curing of that coating; and after that, (g) moving the coated media sheet to a discharge path for the print engine.
A neuromodulation catheter (102, 602), comprising: a handle (110, 610); an elongated shaft (108, 608) attached to the handle, the shaft having a distal portion (108b, 608b) and a proximal portion (108a, 608a), wherein at least the distal portion is configured to be moved within a lumen of a blood vessel of a human patient; an array of contacts (124, 624, 724, 824, 924, 1024, 1124) at the distal portion of the shaft, wherein the contacts are configured to detect analog neural signals from nerves along the blood vessel while the contacts are within the blood vessel; and a digitizer (128, 628, 728, 828, 928, 1028, 1128) at the handle or the shaft, wherein the digitizer is configured to receive the analog neural signals from the contacts, digitize the analog neural signals into digital neural signals, and transmit the digital neural signals to a read/write module external to the patient, characterized in that the digitizer is at the handle, wherein the digitizer is configured to be detachable from the handle for reuse with other neuromodulation catheters. a handle (110, 610); an elongated shaft (108, 608) attached to the handle, the shaft having a distal portion (108b, 608b) and a proximal portion (108a, 608a), wherein at least the distal portion is configured to be moved within a lumen of a blood vessel of a human patient; an array of contacts (124, 624, 724, 824, 924, 1024, 1124) at the distal portion of the shaft, wherein the contacts are configured to detect analog neural signals from nerves along the blood vessel while the contacts are within the blood vessel; and a digitizer (128, 628, 728, 828, 928, 1028, 1128) at the handle or the shaft, wherein the digitizer is configured to receive the analog neural signals from the contacts, digitize the analog neural signals into digital neural signals, and transmit the digital neural signals to a read/write module external to the patient, characterized in that the digitizer is at the handle, wherein the digitizer is configured to be detachable from the handle for reuse with other neuromodulation catheters.
A method of power management (300, 400, 500) for a processor system, the processor system including a processor coupled to a memory wherein the memory comprises a plurality of memory banks (110_1, 110_2, 110_3, 110_4), the memory further comprising a region configurable as a heap region, wherein the processor is operable to execute instructions comprising one or more cryptographic operations; and wherein the method comprises: allocating at least one memory bank to the heap region dependent on a predetermined memory size required for execution of at least one cryptographic operation; allocating at least one further memory bank to the heap region; and switching from a first operating mode to a second operating mode by: setting the at least one memory bank to an active state; setting the at least one further memory bank to an active state; and switching from the second operating mode to the first operating mode by: setting the at least one memory bank to a retention state wherein a memory bank in a retention state cannot be read but data in the memory bank are retained; setting the at least one further memory bank to a power-down state. allocating at least one memory bank to the heap region dependent on a predetermined memory size required for execution of at least one cryptographic operation; allocating at least one further memory bank to the heap region; and switching from a first operating mode to a second operating mode by: setting the at least one memory bank to an active state; setting the at least one further memory bank to an active state; and setting the at least one memory bank to an active state; setting the at least one further memory bank to an active state; and switching from the second operating mode to the first operating mode by: setting the at least one memory bank to a retention state wherein a memory bank in a retention state cannot be read but data in the memory bank are retained; setting the at least one further memory bank to a power-down state. setting the at least one memory bank to a retention state wherein a memory bank in a retention state cannot be read but data in the memory bank are retained; setting the at least one further memory bank to a power-down state.
A top plate for a cooking device comprising: a glass substrate; and a layered coating made of a Si film and a silicon nitride film which are formed on the glass substrate, wherein where t 1 represents the thickness of the Si film and t 2 represents the thickness of the silicon nitride film, (t 1, t 2) in a graph showing the relation between the thickness t 1 of the Si film and the thickness t 2 of the silicon nitride film is within the bounds X defined by connecting Points A1 to A36 shown in the following TABLE 1 in this order with straight lines: [TABLE 1] Point t 1 (nm) t 2 (nm) A1 196.9 625 A2 196.9 600 A3 193.75 593.5 A4 175 543.75 A5 150 506.25 A6 125 493.75 A7 112.5 487.5 A8 100 512.5 A9 90 512.5 A10 80 537.5 A11 75 550 A12 75 575 A13 80 587.5 A14 100 587.5 A15 107.5 600 A16 107.5 625 A17 90 662.5 A18 80 662.5 A19 75 675 A20 75 700 A21 85 725 A22 100 737.5 A23 112.5 737.5 A24 118.75 750 A25 100 787.5 A26 83.75 800 A27 75 825 A28 75 850 A29 80 862.5 A30 90 862.5 A31 100 881.25 A32 112.5 837.5 A33 125 806.25 A34 150 756.25 A35 175 681.25 A36 193.75 631.25
A method of storing data items in a network of interconnected computer system nodes, the method comprising: directing a plurality of unique data items to computer memory of respective computer system nodes (14, 16, 18, 20, 22) that are interconnected in a network configuration; and continuously forwarding each of the unique data items, independent of each other, from one computer memory to another computer memory among the computer system nodes (14, 16, 18, 20, 22) in the network to thereby store the data items on the network without storing on any fixed physical storage medium in the network, wherein a fixed physical storage medium includes a disk drive or a CD drive. directing a plurality of unique data items to computer memory of respective computer system nodes (14, 16, 18, 20, 22) that are interconnected in a network configuration; and continuously forwarding each of the unique data items, independent of each other, from one computer memory to another computer memory among the computer system nodes (14, 16, 18, 20, 22) in the network to thereby store the data items on the network without storing on any fixed physical storage medium in the network, wherein a fixed physical storage medium includes a disk drive or a CD drive.
An additive organopolysiloxane composition comprising: a branched organopolysiloxane polymer having the following general formula: (R 1 3-x R 2 x SiO 1/2) a (R 1 2-y R 2 y SiO 2/2) b (SiO 4/2) c wherein each R 1 independently is a substituted or unsubstituted hydrocarbyl group; each R 2 independently is an aliphatically unsaturated group; x is from 0 to 3, y is from 0 to 2, with the proviso that x and y are not simultaneously 0; 0 <a≤ 0.3, 0.4≤b≤0.97, and 0<c≤0.3, with the proviso that a+b+c=1; wherein said branched organopolysiloxane polymer has an average of at least three R 2 groups per molecule; and a silicone resin having the following general formula: (R 1 3-z R 2 z SiO 1/2) d (SiO 4/2) e wherein each R 1 and R 2 is independently selected and defined above; 0.2≤d≤0.7, 0.3≤e≤0.8, with the proviso that d+e=1; wherein z is from 0 to 3 with the proviso that said silicone resin includes a content of R 2 of from 1.5 to 7.0 weight percent (wt.%) based on the total weight of said silicone resin; wherein said additive organopolysiloxane composition has a content of aliphatically unsaturated groups of from 1.5 to 7.0 wt.%. a branched organopolysiloxane polymer having the following general formula: (R 1 3-x R 2 x SiO 1/2) a (R 1 2-y R 2 y SiO 2/2) b (SiO 4/2) c wherein each R 1 independently is a substituted or unsubstituted hydrocarbyl group; each R 2 independently is an aliphatically unsaturated group; x is from 0 to 3, y is from 0 to 2, with the proviso that x and y are not simultaneously 0; 0 <a≤ 0.3, 0.4≤b≤0.97, and 0<c≤0.3, with the proviso that a+b+c=1; wherein said branched organopolysiloxane polymer has an average of at least three R 2 groups per molecule; and a silicone resin having the following general formula: (R 1 3-z R 2 z SiO 1/2) d (SiO 4/2) e wherein each R 1 and R 2 is independently selected and defined above; 0.2≤d≤0.7, 0.3≤e≤0.8, with the proviso that d+e=1; wherein z is from 0 to 3 with the proviso that said silicone resin includes a content of R 2 of from 1.5 to 7.0 weight percent (wt.%) based on the total weight of said silicone resin; wherein said additive organopolysiloxane composition has a content of aliphatically unsaturated groups of from 1.5 to 7.0 wt.%. wherein each R 1 and R 2 is independently selected and defined above; 0.2≤d≤0.7, 0.3≤e≤0.8, with the proviso that d+e=1; wherein z is from 0 to 3 with the proviso that said silicone resin includes a content of R 2 of from 1.5 to 7.0 weight percent (wt.%) based on the total weight of said silicone resin; wherein said additive organopolysiloxane composition has a content of aliphatically unsaturated groups of from 1.5 to 7.0 wt.%.
An electronic circuit for deciphering between an AC and a DC input signal comprising: an AC filter receiving an input signal and coupled to a first leg, the AC filter permitting an AC signal to pass to the first leg and preventing a DC signal from passing to the first leg; and a DC filter receiving the input signal and coupled to a second leg, the DC filter permitting a DC signal to pass to the second leg and preventing at least part of an AC signal from passing to the second leg; wherein a DC signal passing to the second leg causes the second leg to produce a second output for indicating a DC input signal, and an AC signal passing to the first leg causes the first leg to produce a first output for indicating an AC input signal characterized in that said AC signal passing to the first leg causes a lock out circuit to prevent the second leg from producing the second output. an AC filter receiving an input signal and coupled to a first leg, the AC filter permitting an AC signal to pass to the first leg and preventing a DC signal from passing to the first leg; and a DC filter receiving the input signal and coupled to a second leg, the DC filter permitting a DC signal to pass to the second leg and preventing at least part of an AC signal from passing to the second leg; wherein a DC signal passing to the second leg causes the second leg to produce a second output for indicating a DC input signal, and an AC signal passing to the first leg causes the first leg to produce a first output for indicating an AC input signal characterized in that said AC signal passing to the first leg causes a lock out circuit to prevent the second leg from producing the second output.
A method for weed management in a plantation field, the method comprising: - collecting image data of the plantation field after being applied with a primary weed control technique at a field scale; - recognizing items (12a, 12b, 12c) indicative of an occurrence of a weed in the collected image data; - generating a weed pressure map indicative of a distribution of a weed pressure in the plantation field based on the recognized items; - determining one or a plurality of target areas (14a, 14b, 14c) for weed management in the generated weed pressure map, if the weed pressure of the one or the plurality of target areas exceeds a predetermined threshold and outputting a treatment control signal indicative of the one or the plurality of determined target areas, which when transmitted causes an activation of at least one weed treatment device to apply at least one secondary weed control technique to the one or the plurality of determined target areas, wherein the at least one secondary weed control technique is different from the primary weed control technique. - collecting image data of the plantation field after being applied with a primary weed control technique at a field scale; - recognizing items (12a, 12b, 12c) indicative of an occurrence of a weed in the collected image data; - generating a weed pressure map indicative of a distribution of a weed pressure in the plantation field based on the recognized items; - determining one or a plurality of target areas (14a, 14b, 14c) for weed management in the generated weed pressure map, if the weed pressure of the one or the plurality of target areas exceeds a predetermined threshold and outputting a treatment control signal indicative of the one or the plurality of determined target areas, which when transmitted causes an activation of at least one weed treatment device to apply at least one secondary weed control technique to the one or the plurality of determined target areas, wherein the at least one secondary weed control technique is different from the primary weed control technique.
An engine component comprising: a gaspath wall for forming an inner wall or a portion of an inner wall for an annular flow path, the gaspath wall defining a radially outward facing gaspath surface and an opposed non-gaspath surface; and one of a turbomachine vane and a turbomachine blade extending radially outward therefrom, wherein the gaspath surface defines a non-axisymmetric contour with respective points of minimum and maximum radii for each axial position, and characterised in that the non-gaspath surface defines an axisymmetric contour wherein each axial position on the axisymmetric contour defines a circle offset from the respective point of minimum radius of the gaspath surface by a minimum wall thickness, wherein the minimum wall thickness varies along an engine centerline; wherein the respective points of minimum and maximum radii for each axial position define respective curves that diverge; at a first axial position and converge at a second axial position defined along the axial dimension partially converge at a third axial position defined along the axial dimension and interposed between the first and second axial positions and re-diverge at a fourth axial position defined along the axial dimension and interposed between the third and second axial positions. a gaspath wall for forming an inner wall or a portion of an inner wall for an annular flow path, the gaspath wall defining a radially outward facing gaspath surface and an opposed non-gaspath surface; and one of a turbomachine vane and a turbomachine blade extending radially outward therefrom, wherein the gaspath surface defines a non-axisymmetric contour with respective points of minimum and maximum radii for each axial position, and characterised in that the non-gaspath surface defines an axisymmetric contour wherein each axial position on the axisymmetric contour defines a circle offset from the respective point of minimum radius of the gaspath surface by a minimum wall thickness, wherein the minimum wall thickness varies along an engine centerline; wherein the respective points of minimum and maximum radii for each axial position define respective curves that diverge; at a first axial position and converge at a second axial position defined along the axial dimension partially converge at a third axial position defined along the axial dimension and interposed between the first and second axial positions and re-diverge at a fourth axial position defined along the axial dimension and interposed between the third and second axial positions.
An in vitro method for screening or identifying a test substance that is an inhibitor or activator of an endogenous protein that harbors a mutation that renders said protein (theramutein) resistant to a drug that is known to inhibit or activate in a therapeutically effective manner its non-mutated counterpart (prototheramutein), which is capable of eliciting a detectable phenoresponse, which comprises: a) incubating a first cell which expresses the theramutein at a substantially constant level with test substances; b) incubating a second cell which expresses the corresponding prototheramutein at a substantially constant level with a known inhibitor or activator of the prototheramutein; c) comparing a phenoresponse of the second cell to the known inhibitor or activator of the prototheramutein to the phenoresponse of the first cell to the test substances; and d) determining that the phenoresponse of the first cell is inhibited or activated to at least the same degree as the phenoresponse of the second cell is inhibited or activated by the known inhibitor or activator of the prototheramutein, thereby identifying a substance as an inhibitor or an activator of the theramutein. a) incubating a first cell which expresses the theramutein at a substantially constant level with test substances; b) incubating a second cell which expresses the corresponding prototheramutein at a substantially constant level with a known inhibitor or activator of the prototheramutein; c) comparing a phenoresponse of the second cell to the known inhibitor or activator of the prototheramutein to the phenoresponse of the first cell to the test substances; and d) determining that the phenoresponse of the first cell is inhibited or activated to at least the same degree as the phenoresponse of the second cell is inhibited or activated by the known inhibitor or activator of the prototheramutein, thereby identifying a substance as an inhibitor or an activator of the theramutein.
A microcontroller device comprising a plurality of slave modules, wherein at least one of said slave modules is a processor, said microcontroller device further comprising one or more peripheral systems connected to at least one of said slave modules, and a resource supply module wherein the processor and the one or more peripheral systems are each arranged to generate a signal when they require power and/or a clock signal and wherein said signals stimulate the resource supply module to supply the requested resource, characterised in that the device further comprises two master modules (4a, 4b) each connected to a plurality of slave modules, a first of the master modules being connected to the resource supply module, and a second of the master modules being connected to the first master module such that request signals from peripherals connected to the second master module are passed to the first master module via a master-master interface (14, 16).
Master brake cylinder assembly for a motor vehicle brake system, comprising: - at least one piston which is displaceable along an extension axis and, conjointly with a housing assembly, delimits a pressure chamber; - a force input member which is displaceable as a function of a brake-pedal activation and for conjoint displacement is coupled, or able to be coupled, to the piston; - an elongate position encoder element which is displaceable as a function of an activation of the force input member; - a detection unit which is configured for detecting a displacement of the position encoder element; and - a receptacle region which is configured for receiving the position encoder element at least in portions, characterized in that a first end of the position encoder element is disposed in a first housing region of the master brake cylinder assembly, and the detection unit is disposed in a second housing region of the master brake cylinder assembly, wherein the receptacle region interconnects the first housing region and the second housing region; and wherein the master brake cylinder assembly furthermore comprises at least one first seal assembly (72, 94) which is disposed in the receptacle region as well as in a fluid path between the first housing region and the second housing region. - at least one piston which is displaceable along an extension axis and, conjointly with a housing assembly, delimits a pressure chamber; - a force input member which is displaceable as a function of a brake-pedal activation and for conjoint displacement is coupled, or able to be coupled, to the piston; - an elongate position encoder element which is displaceable as a function of an activation of the force input member; - a detection unit which is configured for detecting a displacement of the position encoder element; and - a receptacle region which is configured for receiving the position encoder element at least in portions,