mhurhangee/ep-ind-claims huggingface dataset:
Electric wheel hub drive, in particular for small vehicles, comprising an axle extending in an axial direction, an electric motor arranged on the axle, and a wheel element which can be driven by the electric motor, surrounds the electric motor at least partially on the outside, and is rotatably mounted on an axial end of the axle, wherein the axle is hollow at least at the axial end and radially outwardly delimits an interior, wherein a sensor unit for detecting the rotational position or the rotational speed of the wheel element relative to the axle is arranged in the interior, wherein the sensor unit comprises at least one sensor element having a detection region extending in the axial direction and a circuit board, wherein the sensor element at least partially detects an encoder element, which is mounted on the wheel element for conjoint rotation and faces the sensor unit, wherein the electric motor comprises a stator and a rotor, wherein the stator is rotationally fixedly coupled to the axle designed as a hollow axle and the rotor is rotationally fixedly coupled to the wheel element, wherein the axle has at the axial end a radial shoulder on which the circuit board is fixed.
A method, comprising: receiving a request for a location estimate of a mobile terminal, the request including a requested accuracy; requesting location measurements of the mobile terminal in response to the request and determining from the location measurements a location estimate and an associated accuracy; and providing a response indicating the location estimate and including a binary indicator indicating whether the associated accuracy is within the requested accuracy. receiving a request for a location estimate of a mobile terminal, the request including a requested accuracy; requesting location measurements of the mobile terminal in response to the request and determining from the location measurements a location estimate and an associated accuracy; and providing a response indicating the location estimate and including a binary indicator indicating whether the associated accuracy is within the requested accuracy.
A (meth)acrylate copolymer comprising monomeric units derived from polymerizable components comprising: a (meth)acrylate macromer comprising 1) a single (meth)acryloyloxy group and 2) a poly(ethylene oxide) group, polypropylene oxide) group, or poly(ethylene oxide-co-propylene oxide) group, the (meth)acylate macromer having a number average molecular weight no greater than 900 Daltons and present in an amount of at least 5 weight percent based on a total weight of the polymerizable components; an alkyl (meth)acrylate; and a (meth)acrylate-containing carboxylic acid present in an amount no greater than 15 weight percent based on the total weight of the polymerizable components; and a crosslinking agent that is a multifunctional (meth)acrylate monomer, a multifunctional aziridine, or a combination thereof in an amount ranging from 0.1 to 5 weight percent based on a total weight of the polymerizable components; and wherein the (meth)acrylate copolymer has a glass transition temperature no greater than -15°C wherein the glass transition temperature is measured by the method according to the description. a (meth)acrylate macromer comprising 1) a single (meth)acryloyloxy group and 2) a poly(ethylene oxide) group, polypropylene oxide) group, or poly(ethylene oxide-co-propylene oxide) group, the (meth)acylate macromer having a number average molecular weight no greater than 900 Daltons and present in an amount of at least 5 weight percent based on a total weight of the polymerizable components; an alkyl (meth)acrylate; and a (meth)acrylate-containing carboxylic acid present in an amount no greater than 15 weight percent based on the total weight of the polymerizable components; and a crosslinking agent that is a multifunctional (meth)acrylate monomer, a multifunctional aziridine, or a combination thereof in an amount ranging from 0.1 to 5 weight percent based on a total weight of the polymerizable components; and
A luminescent glass comprising a glass matrix, wherein said glass matrix comprises at least two layers of glass parts and at least one layer of a complex part which comprises glass materials and fluorescent powder dispersed in said materials, and said at least one layer of the complex part of glass and fluorescent powder is embedded into each layer of the glass parts; wherein said fluorescent powder is of the silicate series.
A semiconductor substrate production method comprising: a first SiGe layer epitaxial growth step in which a first SiGe layer is formed on a Si substrate by epitaxial growth, wherein a Ge composite ratio gradually increases from 0 to 0.3 in the direction of deposition; and a second SiGe layer epitaxial growth step in which a second SiGe layer is formed on the first SiGe layer by epitaxial growth and wherein the second SiGe layer is grown at the final Ge composition ratio of 0.3 of the first SiGe layer; a heat treatment step in which a heat treatment is performed during the formation of the second SiGe layer at a heat treatment temperature between 800°C and 1100°C that exceeds the temperature of the epitaxial growth of the first and second SiGe layers (2, 3) for 1 to 200 minutes; a polishing step in which irregularities in the surface formed during the heat treatment are removed by polishing following formation of the second SiGe layer; and a strained Si layer forming step in which a strained Si layer is epitaxially grown on the second SiGe layer after the polishing step, wherein the heat treatment step comprises: temporarily interrupting the supply of source gas during the deposition of the second SiGe layer, raising the temperature to the heat treatment temperature for annealing treatment of the partially formed second SiGe layer, and lowering the temperature to the deposition temperature of the second SiGe layer and resuming supply of the source gas to continue deposition. a first SiGe layer epitaxial growth step in which a first SiGe layer is formed on a Si substrate by epitaxial growth, wherein a Ge composite ratio gradually increases from 0 to 0.3 in the direction of deposition; and a second SiGe layer epitaxial growth step in which a second SiGe layer is formed on the first SiGe layer by epitaxial growth and wherein the second SiGe layer is grown at the final Ge composition ratio of 0.3 of the first SiGe layer; a heat treatment step in which a heat treatment is performed during the formation of the second SiGe layer at a heat treatment temperature between 800°C and 1100°C that exceeds the temperature of the epitaxial growth of the first and second SiGe layers (2, 3) for 1 to 200 minutes; a polishing step in which irregularities in the surface formed during the heat treatment are removed by polishing following formation of the second SiGe layer; and a strained Si layer forming step in which a strained Si layer is epitaxially grown on the second SiGe layer after the polishing step, temporarily interrupting the supply of source gas during the deposition of the second SiGe layer, raising the temperature to the heat treatment temperature for annealing treatment of the partially formed second SiGe layer, and lowering the temperature to the deposition temperature of the second SiGe layer and resuming supply of the source gas to continue deposition.
Method to amplify and convert a digital signal in a radio modulated signal for emission in a wireless radio access network, comprising the steps: ▪ clipping and splitting the digital signal using at least one threshold, in a main signal and at least one peak signal, the main signal comprising the clipped digital signal and the peak signal the subtracted part of the digital signal, ▪ converting the main signal and the at least one peak signal in a low energy radio main signal and at least one low energy radio peak signal, ▪ the low energy radio main signal is amplified in a main branch comprising a main amplifier, and the at least one low energy radio peak signal is amplified in at least one corresponding peak branch comprising a peak amplifier, ▪ the output of the main amplifier and the at least one peak amplifier is combined to form the amplified output signal., and wherein the step of clipping and splitting the digital signal comprises at least two cascading steps of clipping and splitting, wherein the main signal or the peak signal of the preceding step is used as input for the following step, to split the digital signal in one main signal and at least two peak signals. ▪ clipping and splitting the digital signal using at least one threshold, in a main signal and at least one peak signal, the main signal comprising the clipped digital signal and the peak signal the subtracted part of the digital signal, ▪ converting the main signal and the at least one peak signal in a low energy radio main signal and at least one low energy radio peak signal, ▪ the low energy radio main signal is amplified in a main branch comprising a main amplifier, and the at least one low energy radio peak signal is amplified in at least one corresponding peak branch comprising a peak amplifier, ▪ the output of the main amplifier and the at least one peak amplifier is combined to form the amplified output signal., and wherein the step of clipping and splitting the digital signal comprises at least two cascading steps of clipping and splitting, wherein the main signal or the peak signal of the preceding step is used as input for the following step, to split the digital signal in one main signal and at least two peak signals.
Device for generating electric power from a source of air or other gas or fluid under pressure, comprising a turbine (22, 34) having an impeller, and an electric generator (12, 24) having a stator provided with stator windings distributed around a cylindrical surface coaxial to the impeller, and a permanent magnet which is rotatable relative to the stator and is drivingly connected for rotation with the impeller, wherein the impeller is housed inside the permanent magnet and wherein the assembly formed by the impeller and by the permanent magnet is housed inside the stator, characterized in that the permanent magnet is made as a single hollow cylindrical body of high magnetic density material with diametrical magnetization.
A moulding unit for forming and cooking meat, comprising one single recipient-shaped bottom die having a concavity facing upwards, destined to contain meat, the moulding unit further comprising one single cover aligned with the mouth of the concavity of the bottom die, which cover is joined to the bottom die and positioned below the bottom die, such as to be able to close the mouth of the bottom die of a further moulding unit which is identical to and positioned below the moulding unit, wherein the moulding unit is fit to be individually handled and fit to be stacked in vertical columns and in horizontal rows, characterized in that the bottom die comprises constraining elements (33, 34, 38, 40) fit to cooperate with constraining elements (33, 34, 38, 40) of an identical moulding unit flanking the moulding unit at a same level thereas, in order to define a bilateral constraint in a horizontal direction between the moulding unit and the flanking moulding unit.
An image file distribution apparatus comprising: (k, n)-threshold secret sharing means for distributing tag information recorded in a tag information recording region of an image file into a plurality of first distributed tag information items, using a (k, n)-threshold secret sharing scheme; (k, L, n)-threshold ramp secret sharing means for distributing image data recorded in an image data recording region of the image file into a plurality of second distributed image data items, using a (k, L, n)-threshold ramp secret sharing scheme; distributed tag information transmission means for transmitting each of the plurality of first distributed tag information items distributed by the (k, n)-threshold secret sharing means to different storage servers; and distributed image data transmission means for transmitting each of the plurality of second distributed image data items distributed by the (k, L, n)-threshold ramp secret sharing means to different storage servers. (k, n)-threshold secret sharing means for distributing tag information recorded in a tag information recording region of an image file into a plurality of first distributed tag information items, using a (k, n)-threshold secret sharing scheme; (k, L, n)-threshold ramp secret sharing means for distributing image data recorded in an image data recording region of the image file into a plurality of second distributed image data items, using a (k, L, n)-threshold ramp secret sharing scheme; distributed tag information transmission means for transmitting each of the plurality of first distributed tag information items distributed by the (k, n)-threshold secret sharing means to different storage servers; and distributed image data transmission means for transmitting each of the plurality of second distributed image data items distributed by the (k, L, n)-threshold ramp secret sharing means to different storage servers.
A method for monitoring a brake which is operated by spring force, wherein a force which is required to load or bias at least one spring of the spring force operated brake is taken into account, wherein the force and/or the time which is required for the at least one spring to reach a limit position is monitored, wherein the limit position is reached in an open position of the brake.
Method for preparing a degradable polymer network comprising: a) preparing a polymer composition by polymerization of monomers obtained from cyclic carbonates at a temperature between 20°C and 200°C; b) adding a cross-linking reagent comprising at least one double or triple C-C bond and/or a cross-linking radical initiator, wherein the cross-linking radical initiator is preferably chosen from the group photo-initiator, thermal initiator, redox-initiator; c) processing the polymer composition into a desired shape; d) crosslinking by irradiating the mixture; wherein the monomers in step (a) are obtained from cyclic carbonates chosen from the group trimethylene carbonate, ethylene carbonate, diethylene glycol-bis- allyl-carbonate, and derivatives thereof. a) preparing a polymer composition by polymerization of monomers obtained from cyclic carbonates at a temperature between 20°C and 200°C; b) adding a cross-linking reagent comprising at least one double or triple C-C bond and/or a cross-linking radical initiator, wherein the cross-linking radical initiator is preferably chosen from the group photo-initiator, thermal initiator, redox-initiator; c) processing the polymer composition into a desired shape; d) crosslinking by irradiating the mixture;
A protein probe reagent comprising, in order from the N-terminus to the C-terminus, the amino acid sequences of: (a) a fluorescent protein I; (b) a peptide capable of terminating protein degradation, which is a degradation-terminating peptide derived from p105, a component of the transcription factor NFκB, wherein the degradation-terminating peptide is a peptide of an amino acid sequence being from the amino acid residues 376-404 of SEQ ID NO: 17, and comprising the amino acid residues 392-404 of SEQ ID NO: 17; (c) a spacer peptide, which is: (i) a peptide of an amino acid sequence being from the amino acid residues 405-440 of SEQ ID NO: 17, and comprising the amino acid residues 405-409 of SEQ ID NO: 17; or (ii) a peptide of the amino acid sequence of SEQ ID NO: 15; (d) a fluorescent protein II; and (e) a protein to be degraded (i.e. a degron protein), wherein the protein to be degraded is a protein degraded by the ubiquitin-proteasome system, and the probe reagent is degraded from the C-terminus but the degradation of the probe reagent is terminated at the degradation-terminating peptide. (a) a fluorescent protein I; (b) a peptide capable of terminating protein degradation, which is a degradation-terminating peptide derived from p105, a component of the transcription factor NFκB, wherein the degradation-terminating peptide is a peptide of an amino acid sequence being from the amino acid residues 376-404 of SEQ ID NO: 17, and comprising the amino acid residues 392-404 of SEQ ID NO: 17; (c) a spacer peptide, which is: (i) a peptide of an amino acid sequence being from the amino acid residues 405-440 of SEQ ID NO: 17, and comprising the amino acid residues 405-409 of SEQ ID NO: 17; or (ii) a peptide of the amino acid sequence of SEQ ID NO: 15; (i) a peptide of an amino acid sequence being from the amino acid residues 405-440 of SEQ ID NO: 17, and comprising the amino acid residues 405-409 of SEQ ID NO: 17; or (ii) a peptide of the amino acid sequence of SEQ ID NO: 15; (d) a fluorescent protein II; and (e) a protein to be degraded (i.e. a degron protein), wherein the protein to be degraded is a protein degraded by the ubiquitin-proteasome system, and the probe reagent is degraded from the C-terminus but the degradation of the probe reagent is terminated at the degradation-terminating peptide.
Tap for tapping beverages, in particular for tapping carbonated beverages, such as beer, with a tap body having a valve body and an outlet spout, an assembly sleeve, which can be releasably connected to the tap body and defines a flow chamber for the flow of the beverage in the direction of the outlet spout, wherein the flow chamber has a portion tapering counter to the flow direction of the beverage, a compensator inserted into the flow chamber and which has a portion tapering counter to the flow direction of the beverage, and an adjusting unit, mounted on the tap body, for axial displacement of the compensator, characterised in that the adjusting unit and the compensator are designed in such a way that the compensator can be connected with positive fit by an axial movement and a subsequent rotation of the compensator to the adjusting unit already assembled on the tap body.
A non-transitory machine readable medium storing instruction executable by a processing resource to: direct a system according to claim 2 to: eject a droplet in a first direction serially from each of a plurality of aligned openings toward a same location of an absorbent wipe material (109, 209); and concurrently transit the absorbent wipe material (109, 209) in a direction of alignment of the plurality of aligned openings; and wherein: the droplet from each of the plurality of aligned openings serially reaches the same location on the absorbent wipe material (109, 209), wherein each successive ejection of a droplet on the same location incrementally increases the wetness of the same location; and each of the plurality of aligned openings is serially wiped concurrently with the droplet being ejected from each of the plurality of aligned openings. eject a droplet in a first direction serially from each of a plurality of aligned openings toward a same location of an absorbent wipe material (109, 209); and concurrently transit the absorbent wipe material (109, 209) in a direction of alignment of the plurality of aligned openings; and wherein: the droplet from each of the plurality of aligned openings serially reaches the same location on the absorbent wipe material (109, 209), wherein each successive ejection of a droplet on the same location incrementally increases the wetness of the same location; and each of the plurality of aligned openings is serially wiped concurrently with the droplet being ejected from each of the plurality of aligned openings. the droplet from each of the plurality of aligned openings serially reaches the same location on the absorbent wipe material (109, 209), wherein each successive ejection of a droplet on the same location incrementally increases the wetness of the same location; and each of the plurality of aligned openings is serially wiped concurrently with the droplet being ejected from each of the plurality of aligned openings.
An information processing program to be executed by a computer of an information processing device for displaying a partial area of a panoramic video on a display device, the information processing program causing the computer to function as: obtaining means (5, S51; S61) for obtaining control data including a time condition relating to time on a playback time axis of the panoramic video and a direction condition relating to a viewing direction corresponding to an area of the panoramic video to be displayed; display control means (5, S52; S62) for displaying, on the display device, an image of the panoramic video in a viewing range corresponding to a viewing direction determined based on an input on a predetermined input device; time condition determination means (5, S53: S63) for determining whether the time condition included in the control data is satisfied for a playback time point of the panoramic video being played on the display device; direction condition determination means (5, S54; S65) for determining whether the direction condition included in the control data is satisfied for the viewing direction determined based on said input; and process performing means (5, S55; S68) for performing a predetermined information process relating to making an output to a user in sync with the panoramic video being played based on a determination result for the time condition and the direction condition. obtaining means (5, S51; S61) for obtaining control data including a time condition relating to time on a playback time axis of the panoramic video and a direction condition relating to a viewing direction corresponding to an area of the panoramic video to be displayed; display control means (5, S52; S62) for displaying, on the display device, an image of the panoramic video in a viewing range corresponding to a viewing direction determined based on an input on a predetermined input device; time condition determination means (5, S53: S63) for determining whether the time condition included in the control data is satisfied for a playback time point of the panoramic video being played on the display device; direction condition determination means (5, S54; S65) for determining whether the direction condition included in the control data is satisfied for the viewing direction determined based on said input; and process performing means (5, S55; S68) for performing a predetermined information process relating to making an output to a user in sync with the panoramic video being played based on a determination result for the time condition and the direction condition.
A polyurethane having a structural unit of formula wherein n R 1 s each independently represent a 1,2-phenylene group or a 1,2-phenylene group having a substituent; (n + 1) R 2 s each independently represent a divalent hydrocarbon group having 3 to 9 carbon atoms; and n represents an integer of 1 to 50; a structural unit of formula wherein R 3 represents a divalent organic group having 6 to 14 carbon atoms; and a structural unit of formula wherein R 3 represents a divalent organic group having 6 to 14 carbon atoms; and R 4 represents a methyl group or an ethyl group. a structural unit of formula wherein n R 1 s each independently represent a 1,2-phenylene group or a 1,2-phenylene group having a substituent; (n + 1) R 2 s each independently represent a divalent hydrocarbon group having 3 to 9 carbon atoms; and n represents an integer of 1 to 50; a structural unit of formula wherein R 3 represents a divalent organic group having 6 to 14 carbon atoms; and a structural unit of formula wherein R 3 represents a divalent organic group having 6 to 14 carbon atoms; and R 4 represents a methyl group or an ethyl group.