mhurhangee/patent-ind-claim-en huggingface dataset:
Back orthosis for stabilizing a patient's back, comprising: a back member having a stabilizing body and supporting the back, a hip strap assembly connected to the back member for attaching said orthosis close to the patient's hips, and a shoulder strap assembly having at least two shoulder pull straps , wherein each shoulder pull strap , when being attached to the patient, is guided from the back member to the hip strap assembly over a shoulder of the patient and through at least one deflection member arranged on the back member , and can be coupled or is coupled to the hip strap assembly , wherein the two shoulder pull straps comprise two portions, wherein the two shoulder pull straps further comprise at least one upper shoulder strap portion that extends from the back member over the shoulders, and at least one lower shoulder strap portion that extends from the upper shoulder strap portion to the hip strap assembly via the deflection member arranged on the back member , and wherein the at least one upper shoulder strap portion of one of the two shoulder pull straps and the at least one lower shoulder strap portion of said shoulder pull strap are connectable to one another via a connecting member so that the length of at least one of the shoulder pull straps is adjustable, and wherein the shoulder strap assembly is connected to the hip strap assembly via at least one guide member , characterized in that the guide member is a deflection buckle allowing to adjust the length of the lower shoulder strap portion , and that the position of the deflection member relative to the back member is variable. a back member having a stabilizing body and supporting the back, a hip strap assembly connected to the back member for attaching said orthosis close to the patient's hips, and a shoulder strap assembly having at least two shoulder pull straps , wherein each shoulder pull strap , when being attached to the patient, is guided from the back member to the hip strap assembly over a shoulder of the patient and through at least one deflection member arranged on the back member , and can be coupled or is coupled to the hip strap assembly , wherein the two shoulder pull straps comprise two portions, wherein the two shoulder pull straps further comprise at least one upper shoulder strap portion that extends from the back member over the shoulders, and at least one lower shoulder strap portion that extends from the upper shoulder strap portion to the hip strap assembly via the deflection member arranged on the back member , and wherein the at least one upper shoulder strap portion of one of the two shoulder pull straps and the at least one lower shoulder strap portion of said shoulder pull strap are connectable to one another via a connecting member so that the length of at least one of the shoulder pull straps is adjustable, and wherein the shoulder strap assembly is connected to the hip strap assembly via at least one guide member , characterized in that the guide member is a deflection buckle allowing to adjust the length of the lower shoulder strap portion , and that the position of the deflection member relative to the back member is variable.
An apparatus comprising: a power gate controllable by a control signal, the power gate coupled to a first power supply rail and a second power supply rail, wherein the second power supply rail is coupled to a computing platform ; logic to generate the control signal to turn on or off the power gate according to a match between a first biometric data stored in memory and a second biometric data sensed by a biometric sensor ; a DC-DC converter to receive a first power on the first power supply rail and to generate a third power on a third power supply rail; and a power control switch to provide one of the third power or a fourth power on a fourth power supply rail to a fifth power supply rail; wherein the fourth power supply rail is coupled to an alternate power source ; and wherein the fifth power supply rail is to provide power to the biometric sensor , the logic and the memory . a power gate controllable by a control signal, the power gate coupled to a first power supply rail and a second power supply rail, wherein the second power supply rail is coupled to a computing platform ; logic to generate the control signal to turn on or off the power gate according to a match between a first biometric data stored in memory and a second biometric data sensed by a biometric sensor ; a DC-DC converter to receive a first power on the first power supply rail and to generate a third power on a third power supply rail; and a power control switch to provide one of the third power or a fourth power on a fourth power supply rail to a fifth power supply rail; wherein the fourth power supply rail is coupled to an alternate power source ; and wherein the fifth power supply rail is to provide power to the biometric sensor , the logic and the memory .
A polyrotaxane monomer (A) having a composite molecular structure comprising: cyclic molecules, and an axial molecule that threads through the rings of the cyclic molecules and has a bulky group at both ends thereof so as not to dethread the rings, wherein: the polyrotaxane monomer has a water content of 5000 ppm or less, which is measured according to a Karl Fischer method, a side chain is introduced into at least a part of the cyclic molecules, and a polymerizable functional group is introduced into the side chain. cyclic molecules, and an axial molecule that threads through the rings of the cyclic molecules and has a bulky group at both ends thereof so as not to dethread the rings, wherein: the polyrotaxane monomer has a water content of 5000 ppm or less, which is measured according to a Karl Fischer method, a side chain is introduced into at least a part of the cyclic molecules, and a polymerizable functional group is introduced into the side chain. the polyrotaxane monomer has a water content of 5000 ppm or less, which is measured according to a Karl Fischer method, a side chain is introduced into at least a part of the cyclic molecules, and a polymerizable functional group is introduced into the side chain.
A method for performing a quantitative Next-Generation Sequencing (NGS) assay, comprising: providing a sample including one or more unknown nucleic acids to be sequenced, wherein each unknown nucleic acid in the sample has a concentration of about 10 2 -10 7 copies/ml; adding to the sample a known quantity of an internal quantification standard; preparing the sample including the internal quantification standard for sequencing; sequencing the unknown nucleic acids and the internal quantification standard in the sample to generate a sequencing data; counting the number of sequencing reads in the sequencing data set originating from the unknown nucleic acid(s) and the internal quantification standard; and normalizing the sequencing data set by NORM = No. of Sequencing Reads * (F / Observed No. of Sequencing Reads Originating from the Internal Quantification Standard) and calculating an input quantity (IQT) of the unknown nucleic acid in the by IQT = Normalized No. of unknown nucleic acid sequencing reads originating from the unknown nucleic acid * (Input Quantity of internal quantification standard / F), wherein 'F' is a fixed minimum expected number of the internal quantification standard sequencing reads. providing a sample including one or more unknown nucleic acids to be sequenced, wherein each unknown nucleic acid in the sample has a concentration of about 10 2 -10 7 copies/ml; adding to the sample a known quantity of an internal quantification standard; preparing the sample including the internal quantification standard for sequencing; sequencing the unknown nucleic acids and the internal quantification standard in the sample to generate a sequencing data; counting the number of sequencing reads in the sequencing data set originating from the unknown nucleic acid(s) and the internal quantification standard; and normalizing the sequencing data set by NORM = No. of Sequencing Reads * (F / Observed No. of Sequencing Reads Originating from the Internal Quantification Standard) and calculating an input quantity (IQT) of the unknown nucleic acid in the by IQT = Normalized No. of unknown nucleic acid sequencing reads originating from the unknown nucleic acid * (Input Quantity of internal quantification standard / F), wherein 'F' is a fixed minimum expected number of the internal quantification standard sequencing reads.
A system, comprising: at least one processor and a memory ; a verification module configured to: receive a container including a signature data object component and a compressed archive component , the compressed archive component including a compressed archive (108, 210-226), the signature data object component including a signature data object having a cryptographic signature of the compressed archive; update offsets in the compressed archive to their original values as they were before the offsets have been adjusted to reflect the size of the signature data object; and verify authenticity of the compressed archive by performing cryptographic verification on the compressed archive and the cryptographic signature of the signature data object without decompressing the compressed archive. at least one processor and a memory ; a verification module configured to: receive a container including a signature data object component and a compressed archive component , the compressed archive component including a compressed archive (108, 210-226), the signature data object component including a signature data object having a cryptographic signature of the compressed archive; update offsets in the compressed archive to their original values as they were before the offsets have been adjusted to reflect the size of the signature data object; and verify authenticity of the compressed archive by performing cryptographic verification on the compressed archive and the cryptographic signature of the signature data object without decompressing the compressed archive. receive a container including a signature data object component and a compressed archive component , the compressed archive component including a compressed archive (108, 210-226), the signature data object component including a signature data object having a cryptographic signature of the compressed archive; update offsets in the compressed archive to their original values as they were before the offsets have been adjusted to reflect the size of the signature data object; and verify authenticity of the compressed archive by performing cryptographic verification on the compressed archive and the cryptographic signature of the signature data object without decompressing the compressed archive.
A method for increasing the stability of phytase in a granule composition, the method comprising introducing at least 10 millimolal phytic acid to said composition, wherein (a) the granule comprises phytase and phytic acid sprayed onto a solid support; and/or (b) the granule is a multi-layered granule and the phytase and phytic acid are incorporated into the same layer of said multi-layered granule; the method further comprising admixing the granule with at least one food or animal feed ingredient and pelleting the resulting admixture with steam treatment; wherein said phytic acid is selected from inositol hexaphosphate, inositol pentaphosphate, inositol tetraphosphate, inositol triphosphate, inositol diphosphate and inositol monophosphate, or salts or mixtures thereof; and wherein the recovered activity of the phytase after steam pelleting is at least 15%, at least 17%, at least 19%, at least 20%, at least 23%, at least 25%, at least 27%, at least 30%, at least 32%, at least 35%, at least 40%, at least 42%, or at least 45% higher than the recovered activity of a control phytase not stabilized by phytic acid at a concentration of at least 10 millimolal. (a) the granule comprises phytase and phytic acid sprayed onto a solid support; and/or (b) the granule is a multi-layered granule and the phytase and phytic acid are incorporated into the same layer of said multi-layered granule;
Nucleic acid molecule comprising immunoglobulin genes or parts of the immunoglobulin genes, wherein, the nucleic acid molecule comprises an IgG gene (Igy), an IgG switch region (Sy) and an IgM gene (IgHCμ) and an IgM switch region (Sμ), wherein, the IgM gene and the IgG gene do not have a CH1 function, wherein the IgHCμ comprises an IgM CH2 exon, an IgM CH3 exon, an IgM CH4 exon, intron sequences between the IgM CH2 exon and the IgM CH3 exon, and between the IgM CH3 exon and the IgM CH4 exon, a PolyA sequence, a TM1, a TM2 and a further PolyA signal sequence, all derived from mouse, the nucleic acid molecule comprises all or parts of V-regions of human IgH heavy chain, all or parts of D-regions of human IgH, and all or parts of J-regions of human IgH, characterized in that the Igy includes human Hinge exon, CH2 exon, CH3 exon, and sequences therebetween and the nucleic acid molecule comprises an IgH heavy chain 5'-enhancer from mouse and the Sμ, the Sγ and the IgHCμ are derived from mouse and wherein a structure of the nucleic acid molecule contains V-regions of human IgH heavy chain, D-regions of human IgH genes; and J-regions of human IgH gene, then they are linked to 5'-enhancer (5'-En) of mouse immunoglobulin (IgH) gene, mouse IgM switch region (Sμ) sequences, and mouse IgM CH2, CH3, CH4 and PolyA sequence, mouse TM1 and TM2 of IgM sequences, and a further mouse PolyA sequence, next linked with mouse Igy switch region (Sy) sequences, followed by Hinge, CH2 and CH3 sequences of human Igy, followed by a mouse PolyA sequence, mouse TM1 and TM2 sequences, and a further mouse PolyA sequence, finally linked with mouse 3'- locus control region (LCR) of mouse heavy chain IgH. characterized in that the Igy includes human Hinge exon, CH2 exon, CH3 exon, and sequences therebetween and the nucleic acid molecule comprises an IgH heavy chain 5'-enhancer from mouse and the Sμ, the Sγ and the IgHCμ are derived from mouse and wherein a structure of the nucleic acid molecule contains V-regions of human IgH heavy chain, D-regions of human IgH genes; and J-regions of human IgH gene, then they are linked to 5'-enhancer (5'-En) of mouse immunoglobulin (IgH) gene, mouse IgM switch region (Sμ) sequences, and mouse IgM CH2, CH3, CH4 and PolyA sequence, mouse TM1 and TM2 of IgM sequences, and a further mouse PolyA sequence, next linked with mouse Igy switch region (Sy) sequences, followed by Hinge, CH2 and CH3 sequences of human Igy, followed by a mouse PolyA sequence, mouse TM1 and TM2 sequences, and a further mouse PolyA sequence, finally linked with mouse 3'- locus control region (LCR) of mouse heavy chain IgH.
Secondary assembly intended for a torque limiter dual mass flywheel , said secondary assembly comprising: - a secondary hub of axis X ∘ comprising a first secondary hub bearing surface able to accept an outer ring of a rolling bearing of axis X, or ∘ shaped in such a way as to define an external raceway of axis X, respectively, the said secondary hub having passing substantially axially through it at least one opening positioned radially on the outside of the said bearing surface or of the said external raceway, respectively, - a secondary flywheel mounted for rotation about the axis X on the secondary hub, and - a torque limiter comprising ∘ a first coupling member rigidly attached to the secondary flywheel, and ∘ a second coupling member coupled to the first coupling member, the said first and second coupling members being uncoupled only under the effect of a differential torque in excess of an activation threshold torque, the secondary flywheel having passing substantially axially through it a hole that is configured to allow direct access to the said at least one opening, characterized in that the secondary hub is able to move in terms of rotation with respect to the secondary flywheel under the action of a repositioning torque lower than the activation threshold torque of the torque limiter. - a secondary hub of axis X ∘ comprising a first secondary hub bearing surface able to accept an outer ring of a rolling bearing of axis X, or ∘ shaped in such a way as to define an external raceway of axis X, respectively, the said secondary hub having passing substantially axially through it at least one opening positioned radially on the outside of the said bearing surface or of the said external raceway, respectively, ∘ comprising a first secondary hub bearing surface able to accept an outer ring of a rolling bearing of axis X, or ∘ shaped in such a way as to define an external raceway of axis X, respectively, - a secondary flywheel mounted for rotation about the axis X on the secondary hub, and - a torque limiter comprising ∘ a first coupling member rigidly attached to the secondary flywheel, and ∘ a second coupling member coupled to the first coupling member, the said first and second coupling members being uncoupled only under the effect of a differential torque in excess of an activation threshold torque, the secondary flywheel having passing substantially axially through it a hole that is configured to allow direct access to the said at least one opening, characterized in that the secondary hub is able to move in terms of rotation with respect to the secondary flywheel under the action of a repositioning torque lower than the activation threshold torque of the torque limiter. ∘ a first coupling member rigidly attached to the secondary flywheel, and ∘ a second coupling member coupled to the first coupling member,
A method of making an integrated circuit medical device, comprising the steps of: a. depositing a layer of an electrically conductive material onto a releasable substrate; b. forming an electrically conductive framework support member from the deposited layer of electrically conductive material; c. forming a plurality of slots passing through the framework support member and to the releasable substrate thereby defining a plurality of circuit traces in the framework support member bounded by the plurality of slots; and d. coating a dielectric layer onto the framework support member and the plurality of circuit traces thereby filling the plurality of slots and binding the plurality of circuit traces to the framework support member and electrically isolating the plurality of circuit traces from the framework support member. a. depositing a layer of an electrically conductive material onto a releasable substrate; b. forming an electrically conductive framework support member from the deposited layer of electrically conductive material; c. forming a plurality of slots passing through the framework support member and to the releasable substrate thereby defining a plurality of circuit traces in the framework support member bounded by the plurality of slots; and d. coating a dielectric layer onto the framework support member and the plurality of circuit traces thereby filling the plurality of slots and binding the plurality of circuit traces to the framework support member and electrically isolating the plurality of circuit traces from the framework support member.
A method of determining a status of a floating roof of a storage tank using a radar level gauge system arranged above the floating roof , the radar level gauge system including a transceiver , an antenna arrangement , and processing circuitry , characterized in that: the radar level gauge system is controllable to selectively evaluate reflected energy traveling towards the antenna arrangement in each propagation direction of a plurality of different propagation directions, the method comprising the steps of: radiating , by the radar level gauge system, an electromagnetic transmit signal (S T ) towards a first target area on the floating roof ; receiving , by the radar level gauge system, an electromagnetic reflection signal (S R ) resulting from reflection of the transmit signal (S T ) at the floating roof ; selectively evaluating , by the radar level gauge system based on the reflection signal (S R ), reflected energy traveling from the floating roof towards the antenna arrangement in each propagation direction of the plurality of different propagation directions, comprising determining, for each propagation direction in the plurality of propagation directions based on the electromagnetic reflection signal resulting from reflection of the transmit signal at the target area, a measure indicative of an amount of reflected energy traveling from the first target area towards the antenna arrangement; estimating an inclination (α 1 ) of the first target area based on the measure; and determining the status of the floating roof based on the estimated inclination. radiating , by the radar level gauge system, an electromagnetic transmit signal (S T ) towards a first target area on the floating roof ; receiving , by the radar level gauge system, an electromagnetic reflection signal (S R ) resulting from reflection of the transmit signal (S T ) at the floating roof ; selectively evaluating , by the radar level gauge system based on the reflection signal (S R ), reflected energy traveling from the floating roof towards the antenna arrangement in each propagation direction of the plurality of different propagation directions, comprising determining, for each propagation direction in the plurality of propagation directions based on the electromagnetic reflection signal resulting from reflection of the transmit signal at the target area, a measure indicative of an amount of reflected energy traveling from the first target area towards the antenna arrangement; estimating an inclination (α 1 ) of the first target area based on the measure; and determining the status of the floating roof based on the estimated inclination.
Reinforcing element comprising a single strand of high-modulus textile monofilaments and a single strand of low-modulus textile monofilaments which are wound one around the other in a direction D3 with a twist R3, by a high-modulus strand of textile monofilaments is a strand having a so-called final modulus strictly higher than 25 cN/tex and by a low-modulus strand of textile monofilaments is a strand having a so-called final modulus less than or equal to 25 cN/tex, the strand of high-modulus textile monofilaments having a residual twist R1 in the direction D1, the strand of low-modulus textile monofilaments having a residual twist R2 in the direction D2, the residual twists R1 and R2 being such that: - R1>R2 when R2 is greater than or equal to 2.5% of the twist R3; - R1 is greater than or equal to 2.5% of the twist R3 when R2 is strictly below 2.5% of the twist R3; in which R3 ranges from 200 to 450 twists per metre and the ratio R1/R3 ranges from 0.05 to 0.45. - R1>R2 when R2 is greater than or equal to 2.5% of the twist R3; - R1 is greater than or equal to 2.5% of the twist R3 when R2 is strictly below 2.5% of the twist R3;
A device for manufacturing an uneven-thickness film comprising a first roller and a second roller for molding the uneven-thickness film, characterized in that the first roller comprises a column-shaped portion and a disc-shaped portion , and the second roller comprises a truncated-cone-shaped portion and a disc-shaped small-diameter portion that smoothly connects with the truncated-cone-shaped portion on its smaller-diameter face side , wherein the diameter of the disc-shaped portion of the first roller is larger than the diameter of the column-shaped portion of the first roller , the disc-shaped portion of the first roller opposing the small-diameter portion of the second roller .