mhurhangee/ep-ind-claims huggingface dataset:
Apparatus for determining a measurement value for the oscillations of an oscillator having a plurality of phase outputs (14a,..., 14e) that have occurred in a reference interval, comprising: a first counter connected to a predetermined phase output of the oscillator and whose count is incremented at a predetermined change of state of the predetermined phase output; an evaluation means connected to the plurality of phase outputs (14a,..., 14e) and the first counter, wherein the evaluation means is implemented to determine, at the end of the reference interval, a relative phase value of the oscillator in relation to the phase value associated with the predetermined phase output; and to determine the measurement value by using the count at the end of the reference interval and by using the relative phase value; and characterised by further comprising: a second counter connected to a second predetermined phase output of the oscillator and that is incremented at a second predetermined change of state of the second predetermined phase output; wherein the evaluation means is further connected to the second counter and implemented to determine a second count of the second counter at the end of the reference interval. a first counter connected to a predetermined phase output of the oscillator and whose count is incremented at a predetermined change of state of the predetermined phase output; an evaluation means connected to the plurality of phase outputs (14a,..., 14e) and the first counter, wherein the evaluation means is implemented to determine, at the end of the reference interval, a relative phase value of the oscillator in relation to the phase value associated with the predetermined phase output; and to determine the measurement value by using the count at the end of the reference interval and by using the relative phase value; and characterised by further comprising: a second counter connected to a second predetermined phase output of the oscillator and that is incremented at a second predetermined change of state of the second predetermined phase output; wherein the evaluation means is further connected to the second counter and implemented to determine a second count of the second counter at the end of the reference interval. a second counter connected to a second predetermined phase output of the oscillator and that is incremented at a second predetermined change of state of the second predetermined phase output; wherein the evaluation means is further connected to the second counter and implemented to determine a second count of the second counter at the end of the reference interval.
A piezoelectric assembly, comprising: a vibrating member made of a piezoelectric material, the vibrating member including two or more piezoelectric elements stacked in sequence, where a size of at least one of the piezoelectric elements is smaller in size than any remaining one of the piezoelectric elements to form a stepped structure, and each of the piezoelectric elements is provided with two or more piezoelectric layers of a same size; and a signal line connected to the vibrating member, characterized, in that the vibrating member is provided with an escape portion adapted to a screen body of a screen component, the escape portion being configured into a hole-shaped space or a notch-shaped space. a vibrating member made of a piezoelectric material, the vibrating member including two or more piezoelectric elements stacked in sequence, where a size of at least one of the piezoelectric elements is smaller in size than any remaining one of the piezoelectric elements to form a stepped structure, and each of the piezoelectric elements is provided with two or more piezoelectric layers of a same size; and a signal line connected to the vibrating member, characterized, in that the vibrating member is provided with an escape portion adapted to a screen body of a screen component, the escape portion being configured into a hole-shaped space or a notch-shaped space.
A structure comprising double-helical oligo RNA, represented by the following Structural Formula: Structural Formula 1 A-X-R-Y-B wherein A is a hydrophilic material, B is a hydrophobic material, X and Y are each independently a simple covalent bond or a linker-mediated covalent bond, and R is CTGF-specific siRNA, wherein the hydrophilic material has the structure represented by the following Structural Formula or Structural Formula: Structural Formula 5 (A' m -J) n Structural Formula 6 (J-A' m) n wherein A' is a hydrophilic material monomer, J is a linker for connecting between m hydrophilic material monomers, or a linker for connecting between m hydrophilic material monomers with siRNA, m is an integer of 1 to 15, n is an integer of 1 to 10, the hydrophilic material monomer A' is a compound selected from the group consisting of compounds to, and the linker J is selected from the group consisting of PO 3 -, SO 3 and CO 2. Compound Compound Compound G is O, S or NH wherein A is a hydrophilic material, B is a hydrophobic material, X and Y are each independently a simple covalent bond or a linker-mediated covalent bond, and R is CTGF-specific siRNA, wherein the hydrophilic material has the structure represented by the following Structural Formula or Structural Formula: Structural Formula 5 (A' m -J) n Structural Formula 6 (J-A' m) n wherein A' is a hydrophilic material monomer, J is a linker for connecting between m hydrophilic material monomers, or a linker for connecting between m hydrophilic material monomers with siRNA, m is an integer of 1 to 15, n is an integer of 1 to 10, the hydrophilic material monomer A' is a compound selected from the group consisting of compounds to, and the linker J is selected from the group consisting of PO 3 -, SO 3 and CO 2. Compound Compound Compound G is O, S or NH wherein A' is a hydrophilic material monomer, J is a linker for connecting between m hydrophilic material monomers, or a linker for connecting between m hydrophilic material monomers with siRNA, m is an integer of 1 to 15, n is an integer of 1 to 10, the hydrophilic material monomer A' is a compound selected from the group consisting of compounds to, and the linker J is selected from the group consisting of PO 3 -, SO 3 and CO 2. Compound Compound Compound G is O, S or NH
A peptide which comprises an amino acid sequence consisting of 16 to 18 amino acid residues represented by the following formula IV and is capable of binding to human IgA: (X 3)-C-L-X-Y-(X 1-3)-G-(X 2)-V-C-(X 3) wherein each X independently represents an arbitrary amino acid residue other than cysteine; C represents a cysteine residue; L represents a leucine residue; Y represents a tyrosine residue; G represents a glycine residue; and V represents a valine residue; and wherein the 1st to 18th amino acid residues counted from the N terminus in the case that the number of amino acid residues of the peptide is regarded as 18 amino acid residues, are respectively 1st amino acid residue = Q, H, K, R, S, or P, 2nd amino acid residue = M, K, R, L, V, A, or D, 3rd amino acid residue = R, L, M, or V, 4th amino acid residue = C, 5th amino acid residue = L, 6th amino acid residue = S, H, Q, T, K, R, N, or A, 7th amino acid residue = Y, 8th amino acid residue = K or R, 9th amino acid residue = an arbitrary amino acid residue other than C or deleted, 10th amino acid residue = an arbitrary amino acid residue other than C or deleted, 11th amino acid residue = G, 12th amino acid residue = R, S, T, or K, 13th amino acid residue = R, M, K, E, N, or P, 14th amino acid residue = V, 15th amino acid residue = C, 16th amino acid residue = L, F, V, or I, 17th amino acid residue = W, L, R, E, T, S, Q, P, or A, and 18th amino acid residue = L, I, Y, A, or V. 1st amino acid residue = Q, H, K, R, S, or P, 2nd amino acid residue = M, K, R, L, V, A, or D, 3rd amino acid residue = R, L, M, or V, 4th amino acid residue = C, 5th amino acid residue = L, 6th amino acid residue = S, H, Q, T, K, R, N, or A, 7th amino acid residue = Y, 8th amino acid residue = K or R, 9th amino acid residue = an arbitrary amino acid residue other than C or deleted, 10th amino acid residue = an arbitrary amino acid residue other than C or deleted, 11th amino acid residue = G, 12th amino acid residue = R, S, T, or K, 13th amino acid residue = R, M, K, E, N, or P, 14th amino acid residue = V, 15th amino acid residue = C, 16th amino acid residue = L, F, V, or I, 17th amino acid residue = W, L, R, E, T, S, Q, P, or A, and 18th amino acid residue = L, I, Y, A, or V.
A method for producing a modified LCAT protein comprising the step of culturing a host cell transformed or transfected with a polynucleotide encoding the modified LCAT protein under conditions that permit expression of the modified LCAT protein, the modified LCAT protein selected from the group consisting of a modified LCAT protein having a modification to the mature LCAT amino acid sequence set forth in SEQ ID NO: 1 or SEQ ID NO: 2 consisting of a substitution at amino acid residue C31 selected from the group consisting of C31I, C31M, C31F, C31V, C31W, C31Y, C31R and C31H, the modified LCAT protein further comprising an immunoglobulin constant region, a modified LCAT protein having a modification to the mature LCAT amino acid sequence set forth in SEQ ID NO: 1 or SEQ ID NO: 2, consisting of a substitution at amino acid residue C31 selected from the group consisting of C31I, C31M, C31 F, C31V, C31W, C31Y, C31 R and C31 H, and an additional substitution at an amino acid residue position selected from the group consisting of F1, L4, N5, V28, P29, G30, L32, G33 and N34, the modified LCAT protein further comprising an immunoglobulin constant region, a modified LCAT protein having a modification to the mature LCAT amino acid sequence set forth in SEQ ID NO: 1 or SEQ ID NO: 2 consisting of a substitution at amino acid residue C31 selected from the group consisting of C31I, C31M, C31F, C31V, C31W, C31Y, C31 R and C31 H, and an additional substitution at an amino acid residue position selected from the group consisting of F1, L4, N5, V28, P29, G30, L32, G33 and N34, the additional substitution selected from the group consisting of F1A, L4F, N5E, N5Q, N5D, N5A, V28A, V28I, V28C, V28T, V28R, P29G, P29F, P29T, G30A, G30I, L32A, L32I, L32M, L32F, L32C, L32W, L32Y, L32T, L32S, L32N, L32H, L32E, G33I, G33M, G33F, G33S, G33H, N34A, N34C, N34S and N34R, the modified LCAT protein further comprising an immunoglobulin constant region, and a modified LCAT protein having a modification to the mature LCAT amino acid sequence set forth in SEQ ID NO: 1 or SEQ ID NO: 2 consisting of a C31Y substitution at amino acid residue C31 and an additional substitution selected from the group consisting of F1 S, F1W, L4F, L4M, N5D, L4K, N34S, L32F, and L32H, the modified LCAT protein further comprising an immunoglobulin constant region, and the host cell is a Chinese hamster ovary cell.
A magnetic oscillator made up of at least one nanopillar and means for injecting a power supply current through the nanopillar, the nanopillar including at least one pattern comprising first and second layers made from a ferromagnetic material (6, 10), separated from each other by an intermediate layer made from a non-magnetic material, characterised in that the first ferromagnetic layer is prepared such that its residual magnetic configuration, for a zero amplitude of the outside magnetic field and a zero intensity of the power supply current, corresponds to a first vortex, in that the second ferromagnetic layer is prepared such that its residual magnetic configuration, for a zero amplitude of the outside magnetic field and a zero intensity of the power supply current, corresponds to a second vortex, the component outside the plane of a layer of the magnetic configuration of that layer corresponding to the polarity of the vortex, in that the component, outside the plane of the first layer, of the remnant magnetic configuration of the first layer is opposite to the component, outside the plane of the second layer, of the remanent magnetic configuration of the second layer, and in that the intermediate layer is capable of allowing magnetic coupling between the magnetic configurations of the first and second layers, even for a zero intensity of the power supply current and a zero amplitude of the outside magnetic field, such that oscillations of the magnetic configuration appear for any non-zero intensity of the power supply current.
An intraluminal medical treatment device configured to treat a targeted treatment site within a lumen, comprising: an elongated generally tubular outer member comprising an expandable proximal portion, an expandable distal portion, and a central portion, wherein the central portion has a lesser expandability than the proximal portion and the distal portion, the outer member being formed by a plurality of elongated struts that extend longitudinally from the proximal portion to the distal portion, wherein the struts curve, taper, and/or bend to form the proximal portion and the distal portion with greater expanded diameters than the central portion; at least one membrane (420a, 420b) coupled to the outer member, wherein the outer member and the at least one membrane at least partially define a housing area extending around the central portion of the outer member and positioned longitudinally between the expanded proximal portion and the expanded distal portion of the outer member. an elongated generally tubular outer member comprising an expandable proximal portion, an expandable distal portion, and a central portion, wherein the central portion has a lesser expandability than the proximal portion and the distal portion, the outer member being formed by a plurality of elongated struts that extend longitudinally from the proximal portion to the distal portion, wherein the struts curve, taper, and/or bend to form the proximal portion and the distal portion with greater expanded diameters than the central portion; at least one membrane (420a, 420b) coupled to the outer member, wherein the outer member and the at least one membrane at least partially define a housing area extending around the central portion of the outer member and positioned longitudinally between the expanded proximal portion and the expanded distal portion of the outer member.
A mixing device for use in a carbonator for mixing a non-carbonated beverage with CO 2 gas for producing carbonated beverage, the mixing device comprising a mixing channel, an inlet to the mixing channel and an outlet for carbonated beverage from the mixing channel, wherein the mixing channel extends in a main direction, along which main direction the beverage is adapted to flow, and wherein the mixing channel comprises wide channel sections and narrow channel sections along the main direction, characterized in that the mixing channel has an elongated cross section seen in a direction perpendicular to the main direction, wherein at least a first delimiting surface of the mixing channel is provided with protrusions extending at least partially along the first delimiting surface in a second direction having a directional component perpendicular to the main direction across the mixing channel and protruding towards a second delimiting surface of the mixing channel to form the narrow channel sections.
A combination of: - an antisense oligonucleotide comprising a sequence which is complementary to a part of human dystrophin pre-mRNA exon 51 and said oligonucleotide is represented by SEQ ID NO:204 and - an adjunct compound for reducing inflammation, wherein this compound comprises a steroid, said combination being for use as a medicament, for alleviating one or more symptom(s) of Duchenne Muscular Dystrophy in said individual. - an antisense oligonucleotide comprising a sequence which is complementary to a part of human dystrophin pre-mRNA exon 51 and said oligonucleotide is represented by SEQ ID NO:204 and - an adjunct compound for reducing inflammation, wherein this compound comprises a steroid, said combination being for use as a medicament, for alleviating one or more symptom(s) of Duchenne Muscular Dystrophy in said individual.
A method for producing a furniture panel, comprising a material panel, both panel surfaces of which are coated with a panel coating having a surface design and to the at least one narrow face of which at least one edge strip is fastened as a narrow face coating, wherein the edge strip is produced by coextrusion and has a central portion and, on both sides next to the central portion, two outer portions adjoining the panel coatings, wherein the outer portions have an outer design corresponding to at least one surface design, wherein the central portion has a central design which differs from the outer design, wherein the central portion and the outer portions are made of colored, non-transparent plastics, wherein the central portion has a width of at least 10 mm and the outer portion, before fastening the edge strip to the material panel, has a width of less than 6 mm, wherein the edge strip, after fastening to the material panel, is adapted to the thickness of the coated material panel by machining and the edge strip is thereby reduced in such a manner that the outer portions each have a width of less than 3 mm. wherein the edge strip is produced by coextrusion and has a central portion and, on both sides next to the central portion, two outer portions adjoining the panel coatings, wherein the outer portions have an outer design corresponding to at least one surface design, wherein the central portion has a central design which differs from the outer design, wherein the central portion and the outer portions are made of colored, non-transparent plastics, wherein the central portion has a width of at least 10 mm and the outer portion, before fastening the edge strip to the material panel, has a width of less than 6 mm, wherein the edge strip, after fastening to the material panel, is adapted to the thickness of the coated material panel by machining and the edge strip is thereby reduced in such a manner that the outer portions each have a width of less than 3 mm.
An ultra-high strength steel of present invention characterised in that the said steel comprises in weight percentage: carbon in the proportion of 0.1 to 0.25%, manganese in the proportion of 1.2 to 2.5%, silicon in the proportion of 0.5 to 1.7 %, chromium in the proportion of 0.8 to 1.4 %, molybdenum in the proportion of 0.05 to 0.1%, niobium in the proportion of 0.05 to 0.10%, titanium in the proportion of 0.01 to 0.035%, and the residual elements less than 0.4%, wherein the residual elements are: nickel in the proportion of less than 0.4%, vanadium in the proportion of less than 0.1%, sulphur in the proportion of less than 0.03%, phosphorus in the proportion of less than 0.02%, wherein the steel further comprises in weight percentage: aluminium in the proportion of less than 0.02%, boron less than 30 ppm, oxygen in an amount of less than 15 ppm, and balance iron and any unavoidable impurities. carbon in the proportion of 0.1 to 0.25%, manganese in the proportion of 1.2 to 2.5%, silicon in the proportion of 0.5 to 1.7 %, chromium in the proportion of 0.8 to 1.4 %, molybdenum in the proportion of 0.05 to 0.1%, niobium in the proportion of 0.05 to 0.10%, titanium in the proportion of 0.01 to 0.035%, and the residual elements less than 0.4%, wherein the residual elements are: nickel in the proportion of less than 0.4%, vanadium in the proportion of less than 0.1%, sulphur in the proportion of less than 0.03%, phosphorus in the proportion of less than 0.02%, nickel in the proportion of less than 0.4%, vanadium in the proportion of less than 0.1%, sulphur in the proportion of less than 0.03%, phosphorus in the proportion of less than 0.02%, wherein the steel further comprises in weight percentage: aluminium in the proportion of less than 0.02%, boron less than 30 ppm, oxygen in an amount of less than 15 ppm, and balance iron and any unavoidable impurities. aluminium in the proportion of less than 0.02%, boron less than 30 ppm, oxygen in an amount of less than 15 ppm, and balance iron and any unavoidable impurities.
A communication method, comprising: reserving, by a terminal device, a first scheduling-free resource after a secondary serving cell of the terminal device is deactivated, wherein the first scheduling-free resource belongs to the secondary serving cell; sending, by the terminal device after the secondary serving cell is activated, data to a network device on the first scheduling-free resource, wherein the data is transmitted by using a first hybrid automatic repeat request, HARQ, process; receiving, by the terminal device, downlink control information, DCI, from the network device, wherein the DCI comprises HARQ feedback information, the HARQ feedback information is generated based on a decoding result of the data, the DCI further comprises first indication information, and the first indication information is used to indicate the first HARQ process; and processing, by the terminal device, data of the first HARQ process based on the HARQ feedback information. reserving, by a terminal device, a first scheduling-free resource after a secondary serving cell of the terminal device is deactivated, wherein the first scheduling-free resource belongs to the secondary serving cell; sending, by the terminal device after the secondary serving cell is activated, data to a network device on the first scheduling-free resource, wherein the data is transmitted by using a first hybrid automatic repeat request, HARQ, process; receiving, by the terminal device, downlink control information, DCI, from the network device, wherein the DCI comprises HARQ feedback information, the HARQ feedback information is generated based on a decoding result of the data, the DCI further comprises first indication information, and the first indication information is used to indicate the first HARQ process; and processing, by the terminal device, data of the first HARQ process based on the HARQ feedback information.
A hardware device, comprising: - an off-bit pool and an on-bit pool arranged to receive a digital value, and to convert the digital value into a first quantity of off-bits and a second quantity of on-bits; and - a packet generator arranged to generate a packet having alternating sets of consecutive off-bits and consecutive on-bits, the packet formed by iteratively selecting a subset of off-bits from the first quantity of off-bits and a subset of on-bits from the second quantity of on-bits and appending the subset of off-bits and the subset of on-bits to the packet, until at least one of the first quantity of off-bits and the second quantity of on-bits is less than a preselected minimum threshold quantity of bits. - an off-bit pool and an on-bit pool arranged to receive a digital value, and to convert the digital value into a first quantity of off-bits and a second quantity of on-bits; and - a packet generator arranged to generate a packet having alternating sets of consecutive off-bits and consecutive on-bits, the packet formed by iteratively selecting a subset of off-bits from the first quantity of off-bits and a subset of on-bits from the second quantity of on-bits and appending the subset of off-bits and the subset of on-bits to the packet, until at least one of the first quantity of off-bits and the second quantity of on-bits is less than a preselected minimum threshold quantity of bits.