mhurhangee/ep-ind-claims huggingface dataset:
A stylus comprising: a mesh structure with a gradiated density profile varying from a first density at a first end of the mesh structure to a second density at a second end of the mesh structure, wherein the first density is higher than the second density and wherein the mesh structure comprises an interconnected metal or interconnected plastic defining interstitial spaces, wherein the mesh structure approximates a tube and the stylus having an elongate body that extends from the first end to the second end and includes a sensing tip at the first end; an electronic component associated with the stylus and positioned proximate the second end of the mesh structure, the electronic component being counterbalanced by the first end of the mesh structure where the density is higher than the second end, wherein the mesh structure defines more interstitial spaces per unit area at the second density than at the first density; or an average size of the interstitial spaces is greater at the second density than at the first density, such that the mesh structure is flexible over its length. a mesh structure with a gradiated density profile varying from a first density at a first end of the mesh structure to a second density at a second end of the mesh structure, wherein the first density is higher than the second density and wherein the mesh structure comprises an interconnected metal or interconnected plastic defining interstitial spaces, wherein the mesh structure approximates a tube and the stylus having an elongate body that extends from the first end to the second end and includes a sensing tip at the first end; an electronic component associated with the stylus and positioned proximate the second end of the mesh structure, the electronic component being counterbalanced by the first end of the mesh structure where the density is higher than the second end, wherein the mesh structure defines more interstitial spaces per unit area at the second density than at the first density; or an average size of the interstitial spaces is greater at the second density than at the first density, such that the mesh structure is flexible over its length.
A home appliance having a body, a flange provided on said body, and a panel connected to said flange and said flange is provided so as to stay behind the panel provided on the front face of the home appliance and extends upwardly from the upper ends of the body at the two sides of the body and said panel comprising a front wall, an upper wall extending towards the body from the two mutual edges of the front wall and a lower wall, wherein the home appliance comprises a support element which fills the clearance left between the flange and the front wall of the panel when the panel is mounted to the flange, wherein the support element comprises a body extending in the direction of the height of the front wall and the support element is rested to a support edge of the flange from one side, and it is rested to a rear face of the front wall from the other side wherein the side of the front wall facing the body is defined as the rear face, wherein in order to provide fixation of the support element on the flange, at least one coupling tab is provided on one of the support edge and the support element and at least one housing is provided on the other one of the support edge and the support element and wherein the housing is a channel provided on the support edge and accordingly, the support element comprises a couple of coupling tabs which are spaced apart from each other and which extend outwardly from the body of the support element, characterized in that each coupling tab is provided with at least one inclined surface each formed at the end of its respective coupling tab as being opposite sides with respect to each other and wherein each coupling tab comprises at least one locking protrusion formed on opposite sides with respect to each other.
A method for synthesizing an oligonucleotide comprising: sequentially condensing and oxidizing a nucleoside phosphoramidite compound in the presence of an acid/azole complex compound using a starting raw material, i.e., hydrophobic group-bonded nucleoside represented by Formula: where R 1 represents an alkylene group having 1 to 12 carbon atoms; R 2 represents an alkylene group having 1 to 22 carbon atoms; R 3 and R 4 each independently represent an alkyl group having 1 to 22 carbon atoms, or R 3 and R 4 represent a divalent group in which they are bonded to each other to form a heterocycle together with adjacent nitrogen atoms and R 2, the heterocycle being represented by Formula: where R 7 represents an alkyl group having 1 to 6 carbon atoms; m represents an integer of 0 or 1; and y represents an integer of 0 to 3; R 5 represents a single bond or an alkylene group having 1 to 22 carbon atoms; R 6 each independently represents an alkyl group having 6 to 30 carbon atoms; n represents an integer of 2 to 6; X represents a hydrogen atom, a hydroxyl group, or a hydroxyl group protected by a protecting group; and Z represents an adenyl group, a guanyl group, a cytosyl group, a thyminyl group, a uracil group, or a derivative of the nucleic acid base having a polar group optionally protected by a protecting group; wherein a condensation reaction is performed by preliminarily dissolving the hydrophobic group-bonded nucleoside or hydrophobic group-bonded oligonucleotide and the nucleoside phosphoramidite compound in a non-polar solvent, and contacting the resulting solution with the acid/azole complex compound or a solution containing the complex compound. where R 7 represents an alkyl group having 1 to 6 carbon atoms; m represents an integer of 0 or 1; and y represents an integer of 0 to 3; R 5 represents a single bond or an alkylene group having 1 to 22 carbon atoms; R 6 each independently represents an alkyl group having 6 to 30 carbon atoms; n represents an integer of 2 to 6; X represents a hydrogen atom, a hydroxyl group, or a hydroxyl group protected by a protecting group; and Z represents an adenyl group, a guanyl group, a cytosyl group, a thyminyl group, a uracil group, or a derivative of the nucleic acid base having a polar group optionally protected by a protecting group; wherein a condensation reaction is performed by preliminarily dissolving the hydrophobic group-bonded nucleoside or hydrophobic group-bonded oligonucleotide and the nucleoside phosphoramidite compound in a non-polar solvent, and contacting the resulting solution with the acid/azole complex compound or a solution containing the complex compound.
Method for controlling an ignition system for an applied-ignition internal combustion engine, comprising a primary voltage generator for generating an ignition spark at a spark gap and a boost converter for maintaining the ignition spark at the same spark gap, comprising the steps of: - transmitting a signal (S CEI) from a motor controller to the ignition system in order to determine a predetermined ignition time for triggering an ignition spark, - transmitting a further signal (S CEI) from the motor controller to the ignition system in order to determine a further predetermined ignition time for triggering a further ignition spark, - transmitting a control signal for influencing the operating mode of the boost converter from the motor controller to the ignition system, characterized in that - the signal (S CEI) and the further signal (S CEI) each comprise a sequence of an identical number of pulses (t1, t2, t3, t4, t5) which are transmitted via an identical channel, in particular an identical electrical line, to a signal input of an evaluation unit of the ignition system, wherein in each case a specific pulse of this sequence determines the predetermined ignition time for triggering of an ignition spark by the primary voltage generator, and in that - some pulses (t4, t5) of the sequence of the signal (S CEI) and some pulses (t1, t2) of the sequence of the further signal (S CEI) are transmitted as control signals (t4, t5, t1, t2) between the specific pulse of the signal (S CEI) and the specific pulse of the further signal (S CEI) for influencing the operating mode of the boost converter by the evaluation unit. - transmitting a signal (S CEI) from a motor controller to the ignition system in order to determine a predetermined ignition time for triggering an ignition spark, - transmitting a further signal (S CEI) from the motor controller to the ignition system in order to determine a further predetermined ignition time for triggering a further ignition spark, - transmitting a control signal for influencing the operating mode of the boost converter from the motor controller to the ignition system, characterized in that - the signal (S CEI) and the further signal (S CEI) each comprise a sequence of an identical number of pulses (t1, t2, t3, t4, t5) which are transmitted via an identical channel, in particular an identical electrical line, to a signal input of an evaluation unit of the ignition system, wherein in each case a specific pulse of this sequence determines the predetermined ignition time for triggering of an ignition spark by the primary voltage generator, and in that - some pulses (t4, t5) of the sequence of the signal (S CEI) and some pulses (t1, t2) of the sequence of the further signal (S CEI) are transmitted as control signals (t4, t5, t1, t2) between the specific pulse of the signal (S CEI) and the specific pulse of the further signal (S CEI) for influencing the operating mode of the boost converter by the evaluation unit.
A method for providing optimized power balanced low thrust transfer orbits utilizing split thruster execution to minimize an electric orbit raising duration of an apparatus, the method comprising: monitoring an electric power balance on the apparatus during each transfer orbit of a plurality of transfer orbits of the electric orbit raising; firing a first thruster in response to the apparatus exiting an eclipse and based on the electric power balance; firing a second thruster at a predetermined time delay after firing the first thruster and based on the electric power balance; ending firing one of the first thruster or the second thruster after a predetermined time duration based on the electric power balance; and ending firing another of the first thruster or the second thruster in response to the apparatus entering a next eclipse. monitoring an electric power balance on the apparatus during each transfer orbit of a plurality of transfer orbits of the electric orbit raising; firing a first thruster in response to the apparatus exiting an eclipse and based on the electric power balance; firing a second thruster at a predetermined time delay after firing the first thruster and based on the electric power balance; ending firing one of the first thruster or the second thruster after a predetermined time duration based on the electric power balance; and ending firing another of the first thruster or the second thruster in response to the apparatus entering a next eclipse.
A sterilizer apparatus, configured to perform a sterilizing process to sterilize a load and comprising a sterilizer chamber, wherein the sterilizer apparatus is configured to inject steam into the sterilizer chamber; a measurement probe comprising a measurement chamber having a fluid connection to the sterilizer chamber; a light source configured to emit light into the measurement chamber; and a light detector configured to detect the light in the measurement chamber and convert the detected light into a detection signal; wherein the measurement chamber comprises an orifice for supply of a dry gas, the orifice and the fluid connection with the sterilizer chamber being on opposite sides of the measurement chamber, and wherein the sterilizer apparatus is configured to automatically blow the dry gas through the orifice into the measurement chamber before or after the sterilizing procedure. a sterilizer chamber, wherein the sterilizer apparatus is configured to inject steam into the sterilizer chamber; a measurement probe comprising a measurement chamber having a fluid connection to the sterilizer chamber; a light source configured to emit light into the measurement chamber; and a light detector configured to detect the light in the measurement chamber and convert the detected light into a detection signal; wherein the measurement chamber comprises an orifice for supply of a dry gas, the orifice and the fluid connection with the sterilizer chamber being on opposite sides of the measurement chamber,
A semi-flexible foam formulation comprising: polyether polyol composition comprising: a first polyether polyol having an average nominal hydroxyl functionality from 2 to 4 and a number average equivalent weight from 120 to 1500, wherein the first polyether polyol includes a polymer chain having from 0 weight percent to 15 weight percent of constitutional units derived from ethylene oxide and 85 weight percent to 100 weight percent of constitutional units derived from propylene oxide; a second polyether polyol having an average nominal hydroxyl functionality from 4 to 8 and a number average equivalent weight from 120 to 800, wherein the second polyether polyol includes a polypropylene oxide polymer chain; and a third polyether polyol having an average nominal hydroxyl functionality from 2 to 4 and a number average equivalent weight from 200 to 500, wherein the third polyether polyol includes a polymer chain having from 30 weight percent to 85 weight percent of constitutional units derived from ethylene oxide and 15 weight percent to 60 weight percent of constitutional units derived from propylene oxide; wherein the polyether polyol composition is from 20 weight percent to 50 weight percent of constitutional units derived from ethylene oxide, the polyether polyol composition has a total average nominal hydroxyl functionality from 3.05 to 4.1, and the polyether polyol composition has a total number average equivalent weight from 250 to 400; and toluene diisocyanate. a first polyether polyol having an average nominal hydroxyl functionality from 2 to 4 and a number average equivalent weight from 120 to 1500, wherein the first polyether polyol includes a polymer chain having from 0 weight percent to 15 weight percent of constitutional units derived from ethylene oxide and 85 weight percent to 100 weight percent of constitutional units derived from propylene oxide; a second polyether polyol having an average nominal hydroxyl functionality from 4 to 8 and a number average equivalent weight from 120 to 800, wherein the second polyether polyol includes a polypropylene oxide polymer chain; and a third polyether polyol having an average nominal hydroxyl functionality from 2 to 4 and a number average equivalent weight from 200 to 500, wherein the third polyether polyol includes a polymer chain having from 30 weight percent to 85 weight percent of constitutional units derived from ethylene oxide and 15 weight percent to 60 weight percent of constitutional units derived from propylene oxide; wherein the polyether polyol composition is from 20 weight percent to 50 weight percent of constitutional units derived from ethylene oxide, the polyether polyol composition has a total average nominal hydroxyl functionality from 3.05 to 4.1, and the polyether polyol composition has a total number average equivalent weight from 250 to 400; and toluene diisocyanate.
A tool bit for an ultrasonic osteotome, comprising: a cutting portion located at a front end of the tool bit for an ultrasonic osteotome, and a connecting portion located at a rear end of the tool bit for an ultrasonic osteotome and connected to the cutting portion; wherein the cutting portion has, at a front end thereof, a grinding part for grinding and a blade for cutting, and the grinding part and the blade are integrally formed, characterized in that the blade comprises a transition part connected to the grinding part and a cutting edge which is connected to the transition part and located on a side opposite to the grinding part. a cutting portion located at a front end of the tool bit for an ultrasonic osteotome, and a connecting portion located at a rear end of the tool bit for an ultrasonic osteotome and connected to the cutting portion; wherein the cutting portion has, at a front end thereof, a grinding part for grinding and a blade for cutting, and the grinding part and the blade are integrally formed, characterized in that the blade comprises a transition part connected to the grinding part and a cutting edge which is connected to the transition part and located on a side opposite to the grinding part.
A method for blurring a virtual object in a video, said video being captured by a device comprising at least one motion sensor, said method being performed by said device, said method comprising: - obtaining an initial image of said video captured by said device at an initial device pose; - obtaining a current image of said video captured by said device at a current device pose; - estimating an apparent motion vector of said virtual object between said initial image and said current image, based on a motion of said device; - blurring said virtual object by filtering at least a part of the current image based on said apparent motion vector; said method being characterized in that said motion of said device is obtained from an angular rate generated by at least one motion sensor of said device, moving from said initial device pose to said current device pose. - obtaining an initial image of said video captured by said device at an initial device pose; - obtaining a current image of said video captured by said device at a current device pose; - estimating an apparent motion vector of said virtual object between said initial image and said current image, based on a motion of said device; - blurring said virtual object by filtering at least a part of the current image based on said apparent motion vector;
Method for estimating a position of a first acoustic linear antenna relatively to a second acoustic linear antenna belonging to a network of towed acoustic linear antennas (20a-20e) on which are arranged a plurality of nodes, the method comprising steps of: (a) setting a first plurality of nodes arranged on said first acoustic linear antennas so that they act as sender nodes (E1-E22) and a second plurality of nodes arranged on said second acoustic linear antenna so that they act as receiver nodes (R1-R22); (b) forming at least a first group of sender nodes each sending a same first acoustic signature; the method characterized in that it further comprises the steps of (c) for each receiver node: * obtaining a propagation duration elapsed between an emission instant of said first acoustic signature and a reception instant of said first acoustic signature received by said receiver node; * establishing a geometrical figure (71, 72, 73) representative of potential positions of a sender node, as a function of the propagation duration obtained for said receiver node and said first acoustic signature; (d) determining (35,36) a set of common points between the geometrical figures established for said receiver nodes; (e) estimating the position of said first acoustic linear antenna relatively to said second acoustic linear antenna as a function of said set of common points. (a) setting a first plurality of nodes arranged on said first acoustic linear antennas so that they act as sender nodes (E1-E22) and a second plurality of nodes arranged on said second acoustic linear antenna so that they act as receiver nodes (R1-R22); (b) forming at least a first group of sender nodes each sending a same first acoustic signature; the method characterized in that it further comprises the steps of (c) for each receiver node: * obtaining a propagation duration elapsed between an emission instant of said first acoustic signature and a reception instant of said first acoustic signature received by said receiver node; * establishing a geometrical figure (71, 72, 73) representative of potential positions of a sender node, as a function of the propagation duration obtained for said receiver node and said first acoustic signature; * obtaining a propagation duration elapsed between an emission instant of said first acoustic signature and a reception instant of said first acoustic signature received by said receiver node; * establishing a geometrical figure (71, 72, 73) representative of potential positions of a sender node, as a function of the propagation duration obtained for said receiver node and said first acoustic signature; (d) determining (35,36) a set of common points between the geometrical figures established for said receiver nodes; (e) estimating the position of said first acoustic linear antenna relatively to said second acoustic linear antenna as a function of said set of common points.
A foaming composition comprising: (a) one or more copolymers of one or more vinylidene aromatic monomers and one or more unsaturated compounds containing nucleophilic groups, the copolymer having on average 0.02 to 3.0 percent by weight of nucleophilic groups pendant from the copolymer; (b) one or more copolymers of one or more vinylidene aromatic monomers and one or more unsaturated compounds having electrophilic groups; and (c) one or more blowing agents. (a) one or more copolymers of one or more vinylidene aromatic monomers and one or more unsaturated compounds containing nucleophilic groups, the copolymer having on average 0.02 to 3.0 percent by weight of nucleophilic groups pendant from the copolymer; (b) one or more copolymers of one or more vinylidene aromatic monomers and one or more unsaturated compounds having electrophilic groups; and (c) one or more blowing agents.
Pharmaceutical medication comprising as active ingredients a steroidal aromatase-inactivator and an antioxidant that is different from the steroidal aromatase-inactivator, for use in prophylaxis or therapy of sex-hormone dependent disease in human, wherein the antioxidant is α-lipoic acid, the sex-hormone dependent disease is estrogen receptor-positive breast cancer, and the medication is applied topically, and wherein the amount of the applied antioxidant is at least 0.5 w/w% of the total composition.