mhurhangee/patent-ind-claim-en huggingface dataset:
A method of operating a receiver, the method comprising: calculating an explicit channel matrix by channel estimation of a channel between a transmitter and the receiver; processing the explicit channel matrix by at least one of the following functions: an upper triangular matrix of a covariance of the explicit channel matrix, and eigen vectors of the covariance, and, thus, obtaining a processed explicit channel matrix; vectorizing the processed explicit channel matrix to obtain an explicit feedback vector; generating feedback information based on the explicit feedback vector and a predefined codebook, and wherein the generated feedback information comprises information associated with a direction of the explicit feedback vector and information associated with a quality of the explicit feedback vector. calculating an explicit channel matrix by channel estimation of a channel between a transmitter and the receiver; processing the explicit channel matrix by at least one of the following functions: an upper triangular matrix of a covariance of the explicit channel matrix, and eigen vectors of the covariance, and, thus, obtaining a processed explicit channel matrix; vectorizing the processed explicit channel matrix to obtain an explicit feedback vector; generating feedback information based on the explicit feedback vector and a predefined codebook, and wherein the generated feedback information comprises information associated with a direction of the explicit feedback vector and information associated with a quality of the explicit feedback vector.
An outsole for an article of footwear , the outsole comprising: a sole foundation , the sole foundation having a first surface and an opposing second surface, the first surface configured as a ground-contacting surface; and a plurality of tread projections , each of the plurality of tread projections having a sidewall surface and a tread projection distal surface , the sidewall surface extending between the sole foundation first surface and the tread projection distal surface forming a distal surface offset distance , the distal surface having a first area , wherein each tread projection in the plurality of tread projections includes a single extension member , the extension member being comprised of a proximal portion and a distal portion , the extension member having an extension member length extending from a tread projection distal surface to an extension member distal end , the extension member having a cross sectional area perpendicular to the extension member length that is a second area , the first area being at least three times the area of the second area , wherein the extension member is at least twice as long as it is wide, and wherein the dimensions of the extension member allow for flexibility that enables the extension member to be pushed against at least a portion of the tread projection distal surface . a sole foundation , the sole foundation having a first surface and an opposing second surface, the first surface configured as a ground-contacting surface; and a plurality of tread projections , each of the plurality of tread projections having a sidewall surface and a tread projection distal surface , the sidewall surface extending between the sole foundation first surface and the tread projection distal surface forming a distal surface offset distance , the distal surface having a first area , wherein each tread projection in the plurality of tread projections includes a single extension member , the extension member being comprised of a proximal portion and a distal portion , the extension member having an extension member length extending from a tread projection distal surface to an extension member distal end , the extension member having a cross sectional area perpendicular to the extension member length that is a second area , the first area being at least three times the area of the second area , wherein the extension member is at least twice as long as it is wide, and wherein the dimensions of the extension member allow for flexibility that enables the extension member to be pushed against at least a portion of the tread projection distal surface .
An ex vivo method for unbiased identification of the location of a double strand break (DSB) in DNA of a cell or tissue which comprises: - ligating a linker to the DSB to create a linker-DSB conjugate, wherein the linker comprises a site for linear amplification and a unique molecular identifier (UMI) sequence for encoding each linker-DSB ligation event; - producing a polynucleotide complementary to the linker-DSB conjugate by linear amplification, wherein the linear amplification is in vitro transcription, and wherein the complementary polynucleotide comprises a sequence of the DNA of the cell adjacent to the DSB; - sequencing the complementary polynucleotide, identifying the sequence of the DNA of the cell or tissue adjacent to the DSB and identifying the sequence of the associated UMI and thereby identifying the location of the DSB in the DNA of the cell or tissue. - ligating a linker to the DSB to create a linker-DSB conjugate, wherein the linker comprises a site for linear amplification and a unique molecular identifier (UMI) sequence for encoding each linker-DSB ligation event; - producing a polynucleotide complementary to the linker-DSB conjugate by linear amplification, wherein the linear amplification is in vitro transcription, and wherein the complementary polynucleotide comprises a sequence of the DNA of the cell adjacent to the DSB; - sequencing the complementary polynucleotide, identifying the sequence of the DNA of the cell or tissue adjacent to the DSB and identifying the sequence of the associated UMI and thereby identifying the location of the DSB in the DNA of the cell or tissue.
Spores of Clostridium ghonii MW-DCG-HNCv-18 for use in the treatment of non-small cell lung carcinoma.
A process for the preparation of a poly(D,L lactide-co-glycolide) polymer microspheres of octreotide acetate, comprising: a. dissolving octreotide acetate in at least one organic solvent miscible in water, and optionally containing also water, to form a water phase; b. forming an oil-in-water or water-in-oil-water emulsion in a suitable oil phase comprising an organic solution of the poly(D,L lactide-co-glycolide) polymer, the solution being non-miscible with the water phase wherein said organic solution of the poly(D,L lactide-co-glycolide) polymer is cooled down to 5°C or below; c. evaporating the at least one organic solvent used in step (a) from the emulsion to form the microspheres by controlling the temperature during the evaporation step and increasing the temperature during the evaporation step with a rate of 0.1°C/min to 1°C/min; wherein the in-vivo and in-vitro release characteristics of octreotide acetate from the microspheres is controlled by selection of the rate of increasing the temperature during the evaporation step. a. dissolving octreotide acetate in at least one organic solvent miscible in water, and optionally containing also water, to form a water phase; b. forming an oil-in-water or water-in-oil-water emulsion in a suitable oil phase comprising an organic solution of the poly(D,L lactide-co-glycolide) polymer, the solution being non-miscible with the water phase wherein said organic solution of the poly(D,L lactide-co-glycolide) polymer is cooled down to 5°C or below; c. evaporating the at least one organic solvent used in step (a) from the emulsion to form the microspheres by controlling the temperature during the evaporation step and increasing the temperature during the evaporation step with a rate of 0.1°C/min to 1°C/min;
A system device for operation in a network of multiple such system devices, comprising: an execution unit for autonomously operating a lighting device, building technology, signaling technology and/or sensor technology, wherein the autonomous operation is according to a program stored in the system device; and a wireless interface for receiving instructions, wherein the instructions cause a change of the program to another program from a selection of programs, wherein the selection of programs is installed on the system device, characterised in that the programs of the selection are invariant or are only variant by a wired interface of the system device. an execution unit for autonomously operating a lighting device, building technology, signaling technology and/or sensor technology, wherein the autonomous operation is according to a program stored in the system device; and a wireless interface for receiving instructions, wherein the instructions cause a change of the program to another program from a selection of programs, wherein the selection of programs is installed on the system device, characterised in that the programs of the selection are invariant or are only variant by a wired interface of the system device.
5-O-desmethyl-omeprazole or a therapeutically acceptable salt, prodrug or isomer thereof, for use in treating and/or preventing a disease associated with D-amino acid oxidase (DAAO) inhibition in a subject through inhibiting DAAO by 5-O-desmethyl-omeprazole or a therapeutically acceptable salt, prodrug or isomer thereof, wherein the disease associated with DAAO inhibition is selected from symptom domains of schizophrenia and schizoaffective disorder, depression, Tourette Syndrome, Post-traumatic stress disorder (PTSD), Obsessive-compulsive disorder (OCD), schizophrenia, mild cognitive impairment (MCI), Alzheimer's disease, Parkinson's disease, dementia, loss of memory and/or cognition associated with neurodegenerative diseases and loss of neuronal function characteristic of neurodegenerative diseases, pain, ataxia and convulsion.
A solar module having a solar module laminate which has two side edges, a top edge and a bottom edge as solar module laminate edges, wherein a frame profile that extends in an extension direction (E) is fixed to at least one of the side edges and/or to the top edge and/or to the bottom edge of the solar module laminate , said frame profile having, in cross section, an outer edge and a U-shaped receiving portion with an upper U-shaped limb and a lower U-shaped limb for receiving one of the solar module laminate edges, wherein the upper U-shaped limb and the lower U-shaped limb of the frame profile are glued and/or jammed in sections or completely with the solar module laminate edges of the solar module laminate , characterized in that the frame profile is constructed integrally from a metal strip which forms the outer edge of the frame profile with an edge plane, wherein the upper U-shaped limb is formed as a folded edge of the entire metal strip out of the edge plane and the lower U-shaped limb is configured as metal supporting portions that are arranged alongside one another in the extension direction (E) and in a manner spaced apart from one another, said metal supporting portions being bent out of the edge plane of the metal strip towards the upper U-shaped limb as integral parts of the metal strip.
A knitted component for an upper of an article of footwear , the knitted component comprising: a first layer , a second layer , a raised structure formed by the second layer, the raised structure extending away from the first layer, the raised structure including a length extending along a heel-to-toe direction when the knitted component is incorporated into the article of footwear, the raised structure including a width along a lateral-to-medial direction when the knitted component is incorporated into the article of footwear, wherein the length is greater than the width, wherein the first layer is at least partially formed from a first yarn having a first shrinkage rate and wherein the second layer is at least partially formed by a second yarn having a second shrinkage rate, and wherein the shrinkage rate of the first yarn is greater than the shrinkage rate of the second yarn when subjected to heat. a first layer , a second layer , a raised structure formed by the second layer, the raised structure extending away from the first layer, the raised structure including a length extending along a heel-to-toe direction when the knitted component is incorporated into the article of footwear, the raised structure including a width along a lateral-to-medial direction when the knitted component is incorporated into the article of footwear, wherein the length is greater than the width, wherein the first layer is at least partially formed from a first yarn having a first shrinkage rate and wherein the second layer is at least partially formed by a second yarn having a second shrinkage rate, and wherein the shrinkage rate of the first yarn is greater than the shrinkage rate of the second yarn when subjected to heat.
A socket electrical contact comprising a body having a. a base ; and b. at least two tines extending from the base , each tine containing two opposing edges , a contact surface , and an exterior surface , and each of the edges of each tine defining a length from the base to a tip of each tine , respectively, wherein the lengths of the two opposing edges of each tine are different, such that at least two slots defined between the at least two tines have different lengths, wherein the base contains a seam , characterized in that , on each tine , the shorter edge is closer to the seam than the longer edge . a. a base ; and b. at least two tines extending from the base , each tine containing two opposing edges , a contact surface , and an exterior surface , and each of the edges of each tine defining a length from the base to a tip of each tine , respectively, wherein the lengths of the two opposing edges of each tine are different, such that at least two slots defined between the at least two tines have different lengths, wherein the base contains a seam , characterized in that , on each tine , the shorter edge is closer to the seam than the longer edge .
A photoelectric conversion element , comprising an anode , a cathode , an active layer provided between the anode and the cathode , and a hole transport layer provided between the anode and the active layer , wherein the active layer includes a p-type semiconductor material and an n-type semiconductor material, and an energy gap between an LUMO of the n-type semiconductor material contained in the active layer and a HOMO of a hole transport material contained in the hole transport layer is less than 0.9 eV, characterized in that the p-type semiconductor material is a polymer compound having an absorption peak wavelength of 900 nm or higher, wherein the absorption peak wavelength is the wavelength of the absorption peak with the highest absorption among the absorption peaks of the absorption spectrum. wherein the active layer includes a p-type semiconductor material and an n-type semiconductor material, and an energy gap between an LUMO of the n-type semiconductor material contained in the active layer and a HOMO of a hole transport material contained in the hole transport layer is less than 0.9 eV, characterized in that the p-type semiconductor material is a polymer compound having an absorption peak wavelength of 900 nm or higher, wherein the absorption peak wavelength is the wavelength of the absorption peak with the highest absorption among the absorption peaks of the absorption spectrum.
Calixarene compound according to formula (I): wherein: - R 1 represents a linear or branched C (1-16) alkyl group ; - R 2 represents an hydrogen atom or a methyl group ; - R 3 is identical to R 1 or R 2 group ; - R 4 represents a saccharide residue, in which hydroxyl groups are not protected ; - R 5 is identical to R 4 , or is absent ; - L is a linker, which is selected from the group consisting of 1,2,3-triazole function, amide function, thiourea function, or is absent; - Z is identical to L or absent ; - 0 ≤ x 1 ≤ 3 , wherein x 1 is an integer; - 0 ≤ y 1 ≤ 3 , wherein y 1 is an integer; - x 2 is identical to x 1 or equal to 0 ; - y 2 is identical to y 1 or equal to 0 ; - X = O, S or is absent; - Y is identical to X or is absent. - R 1 represents a linear or branched C (1-16) alkyl group ; - R 2 represents an hydrogen atom or a methyl group ; - R 3 is identical to R 1 or R 2 group ; - R 4 represents a saccharide residue, in which hydroxyl groups are not protected ; - R 5 is identical to R 4 , or is absent ; - L is a linker, which is selected from the group consisting of 1,2,3-triazole function, amide function, thiourea function, or is absent; - Z is identical to L or absent ; - 0 ≤ x 1 ≤ 3 , wherein x 1 is an integer; - 0 ≤ y 1 ≤ 3 , wherein y 1 is an integer; - x 2 is identical to x 1 or equal to 0 ; - y 2 is identical to y 1 or equal to 0 ; - X = O, S or is absent; - Y is identical to X or is absent.
A rabies virus vector genome comprising a gene encoding a replication modulator protein, wherein the replication modulator protein comprises a viral protein moiety which is required for replication of the viral genome, the replication modulator protein being capable of adopting a targeted configuration displaying a degron, and an untargeted configuration which does not display the degron, and wherein the viral protein moiety is an N (nucleoprotein) protein.
Rubber compound for preparing pneumatic tyre parts comprising at least one cross-linkable unsaturated chain polymer base, a filler, a vulcanization system and one or more antioxidant agents; said compound being characterized in that said antioxidant agents comprise functionalized lignin with -OR groups, wherein R is a terpene group with a total number of carbon atoms of between 6 and 16; said -OR groups resulting from the 10 to 60% functionalization of the lignin phenolic hydroxyl groups.
An integrated test method for testing the operation of an electrical power converter controlling a three-phase electric motor configured to actuate a thrust reverser of an aircraft turbojet, the electrical power converter being powered by an electrical power supply network of the aircraft and being controlled by means of field-oriented control using a current setpoint defined from an in-phase current component and a quadratic current component, the method comprising the following steps: a) receiving an order to initiate the integrated test; b) controlling the electrical power converter using a current setpoint defined from a non-zero in-phase component (I d_cons ) and a zero quadratic component (I q_cons ); c) measuring the currents delivered on each of the three outlet phases of the electrical power converter ; d) determining in-phase and quadratic components (I d , I q ) of the three phase currents measured in the preceding step; e) comparing the in-phase and quadratic components (I d , I q ) of the measured current with the in-phase and quadratic components (I d_cons , I q_cons ) of the current setpoint; and f) sending a notification to the crew of the aircraft concerning the malfunctioning or the functioning of the thrust reverser as a function of the result of said comparison. a) receiving an order to initiate the integrated test; b) controlling the electrical power converter using a current setpoint defined from a non-zero in-phase component (I d_cons ) and a zero quadratic component (I q_cons ); c) measuring the currents delivered on each of the three outlet phases of the electrical power converter ; d) determining in-phase and quadratic components (I d , I q ) of the three phase currents measured in the preceding step; e) comparing the in-phase and quadratic components (I d , I q ) of the measured current with the in-phase and quadratic components (I d_cons , I q_cons ) of the current setpoint; and f) sending a notification to the crew of the aircraft concerning the malfunctioning or the functioning of the thrust reverser as a function of the result of said comparison.
Gas sensor for detecting a component of a measurement gas, with a ceramic sensor element , which is fixed in a housing , and with a double-walled protective tube having an outer protective sleeve and an inner protective sleeve , wherein the inner protective sleeve encloses a gas space into which the sensor element protrudes with a measurement-gas-side section in the direction of a longitudinal axis of the gas sensor, and wherein an annular space is formed between the outer and the inner protective sleeve , wherein the outer protective sleeve has a lateral surface having at least one opening formed as a swirling element , through which measurement gas enters the annular space with rotation about a longitudinal axis of the gas sensor , wherein the inner protective sleeve has at least one opening which is aligned, in particular aligned in a functionally optimized manner, with a sensitive region of the sensor element and through which measurement gas from the annular space enters the gas space and, when it passes through the opening , the measurement gas is deflected in the longitudinal direction to the sensor element as a result of the alignment of the opening , characterized in that the at least one opening of the inner protective sleeve is formed as a further swirling element , which is oriented oppositely in the circumferential direction to the swirling element of the outer protective sleeve .
Method of producing a reconstituted electronic device comprising, between a first face and a second face, a plurality of vias , each via comprising a series of metal tracks comprised between 2 substrates , each metal track having a first lateral contact and a second lateral contact , each via comprising a first side and a second side (3") opposite to the first, said first lateral contacts projecting beyond or being flush with, the first side, said second lateral contacts projecting beyond or being flush with, the second side, each via interconnecting the first and second faces, said method comprising: a) positioning of a frame on a reference surface of a support or of an adhesive surface , this frame delimiting zones in each of which one or more vias can be positioned b) the positioning of the second side (3', 3") of each via on said reference surface , so that each of said substrates is placed perpendicular to said reference surface, which defines the first face of the reconstituted electronic device and the positioning of at least one component horizontally on said reference surface ; c) then the encapsulation of the vias and of said component with an encapsulant to fill the spaces between the frame, said component and said vias and maintain said vias, said component and the support or the adhesive surface so that the lateral contacts located on the first side of each via are flush with the second face of the reconstituted electronic device. a) positioning of a frame on a reference surface of a support or of an adhesive surface , this frame delimiting zones in each of which one or more vias can be positioned b) the positioning of the second side (3', 3") of each via on said reference surface , so that each of said substrates is placed perpendicular to said reference surface, which defines the first face of the reconstituted electronic device and the positioning of at least one component horizontally on said reference surface ; c) then the encapsulation of the vias and of said component with an encapsulant to fill the spaces between the frame, said component and said vias and maintain said vias, said component and the support or the adhesive surface so that the lateral contacts located on the first side of each via are flush with the second face of the reconstituted electronic device.