mhurhangee/patent-ind-claim-en huggingface dataset:
A method for removing a fluorine-containing compound from discharge water, comprising contacting discharge water containing two or more fluorine-containing compounds of formula or : (H-(CF 2 ) m -COO) p M 1 (H-(CF 2 ) n -SO 3 ) q M 2 wherein m is 3-19, n is 4-20, p, q each independently are 1 or 2, and M 1 , M 2 each independently is H; a metal atom; NR b 4 wherein R b each independently is H or a C 1-10 -organic group; or imidazolium, pyridinium or phosphonium, each optionally substituted, with an adsorbent to allow the adsorbent to adsorb the two or more fluorine-containing compounds; wherein the discharge water includes discharge water obtained in a process for producing a fluorine-containing polymer using a hydrocarbon surfactant. m is 3-19, n is 4-20, p, q each independently are 1 or 2, and M 1 , M 2 each independently is H; a metal atom; NR b 4 wherein R b each independently is H or a C 1-10 -organic group; or imidazolium, pyridinium or phosphonium, each optionally substituted, with an adsorbent to allow the adsorbent to adsorb the two or more fluorine-containing compounds; wherein the discharge water includes discharge water obtained in a process for producing a fluorine-containing polymer using a hydrocarbon surfactant.
An array for sequencing a plurality of nucleic acids, comprising: a plurality of double-stranded oligonucleotides attached to said array, each of said plurality of double-stranded oligonucleotides comprising an adaptor, another adaptor, and a variable region between said adaptor and said another adaptor, said adaptor located proximal to said array and attached to said array, said another adaptor located distal to said array, said variable region comprising a barcode, said barcode identifying the spatial position of said each of said plurality of double-stranded oligonucleotides, and said another adaptor comprising a recognition sequence of a topoisomerase I enzyme.
A packet processing method, wherein the method comprises: receiving (S207, S401), by a control device, a first packet sent by a server, wherein the first packet comprises an identifier of a network slice and the identifier of the network slice is used to identify the network slice; determining (S208, S402), by the control device, parameter information of the network slice based on the identifier of the network slice; determining (S209, S403), by the control device based on the parameter information, a forwarding path from a first edge node of a first network to a second edge node of the first network; and adding (S 211, S404), by the control device, a forwarding resource comprised in the forwarding path to a forwarding resource of the network slice, wherein the forwarding path is used to forward a packet carrying the identifier of the network slice; wherein the first packet further comprises location information of a terminal device and after the receiving the first packet, the method further comprises: allocating, by the control device, an Internet Protocol, IP, address to the terminal device based on the location information, the IP address is to be used as a source IP address of a third packet sent by the terminal device. receiving (S207, S401), by a control device, a first packet sent by a server, wherein the first packet comprises an identifier of a network slice and the identifier of the network slice is used to identify the network slice; determining (S208, S402), by the control device, parameter information of the network slice based on the identifier of the network slice; determining (S209, S403), by the control device based on the parameter information, a forwarding path from a first edge node of a first network to a second edge node of the first network; and adding (S 211, S404), by the control device, a forwarding resource comprised in the forwarding path to a forwarding resource of the network slice, wherein the forwarding path is used to forward a packet carrying the identifier of the network slice; wherein the first packet further comprises location information of a terminal device and after the receiving the first packet, the method further comprises: allocating, by the control device, an Internet Protocol, IP, address to the terminal device based on the location information, the IP address is to be used as a source IP address of a third packet sent by the terminal device.
A method of operating an electric cascaded multilevel converter comprising a plurality of rectifiers , wherein each rectifier comprises a H-bridge circuit having two branches each comprising two switches (S) connected in series to each other, wherein the rectifiers are connected in series to each other on an alternating current side of the cascaded multilevel converter so that a total alternating voltage on the alternating current side of the cascaded multilevel converter is equal to the sum of the alternating voltages on alternating current sides of the rectifiers and so that the cascaded multilevel converter has an integer number of converting states, each converting state defining a relation of the total alternating voltage on the alternating current side to a direct voltage on a direct current side of the cascaded multilevel converter, wherein at least one of the converting states can be realized by different switching states of the cascaded multilevel converter and wherein the method is characterized by : - repeatedly producing a level number (L k ) of a multilevel pulse width modulation signal in a level-shifted pulse width modulation process that uses a number of level-shifted carrier signals (cr), wherein the multilevel pulse width modulation signal comprises an integer number of possible signal levels corresponding to the integer number of converting states and wherein the level number (L k ) corresponds to a respective one of the converting states and of the possible signal levels, - outputting the level number (L k ) to a control device for controlling the switches of the rectifiers by generating and outputting corresponding control signals, - during operation of the control device , each time when the level number (L k ) that is output to the control device changes, selecting one of the rectifiers according to a predefined repeating sequence of the rectifiers in operation and performing the required change of the switching state by controlling the selected rectifier . - repeatedly producing a level number (L k ) of a multilevel pulse width modulation signal in a level-shifted pulse width modulation process that uses a number of level-shifted carrier signals (cr), wherein the multilevel pulse width modulation signal comprises an integer number of possible signal levels corresponding to the integer number of converting states and wherein the level number (L k ) corresponds to a respective one of the converting states and of the possible signal levels, - outputting the level number (L k ) to a control device for controlling the switches of the rectifiers by generating and outputting corresponding control signals, - during operation of the control device , each time when the level number (L k ) that is output to the control device changes, selecting one of the rectifiers according to a predefined repeating sequence of the rectifiers in operation and performing the required change of the switching state by controlling the selected rectifier .
An organic electroluminescence device , comprising: a first electrode (EL1); a hole transport region (HTR) disposed on the first electrode (EL1); a first emission layer (EML1) disposed on the hole transport region (HTR), the first emission layer (EMI,1) comprising a first light-emitting host and a first light-emitting dopant; a second emission layer (EML2) disposed directly on the first emission layer (EML1), the second emission layer (EML2) comprising a first electron transport material and a second light-emitting dopant; an electron transport region (ETR) disposed on the second emission layer (EML2), the electron transport region (ETR) comprising a second electron transport material; and a second electrode (EL2) disposed on the electron transport region (ETR), and wherein the first emission layer (EML1) comprises a first sub emission layer (Sub-E1), a second sub emission layer (Sub-E2) and a third emission layer (Sub-E3), which are neighbored on a plane, and the first sub emission layer (Sub-E1) comprises the first light-emitting host and the first light-emitting dopant, wherein the first light-emitting dopant and the second light-emitting dopant are configured to emit lights of the same color, and wherein the first sub emission layer (Sub-E1) is a blue emission layer, the second sub emission layer (Sub-E2) is a green emission layer, and the third sub emission layer (Sub-E3) is a red emission layer, characterized in that : a triplet energy of the first light-emitting host (T1 a ), a triplet energy of the second light-emitting dopant (T1 b ) and a triplet energy of the second electron transport material (T1 c ) satisfy a relation of T1 a < T1 b < T1 c . a first electrode (EL1); a hole transport region (HTR) disposed on the first electrode (EL1); a first emission layer (EML1) disposed on the hole transport region (HTR), the first emission layer (EMI,1) comprising a first light-emitting host and a first light-emitting dopant; a second emission layer (EML2) disposed directly on the first emission layer (EML1), the second emission layer (EML2) comprising a first electron transport material and a second light-emitting dopant; an electron transport region (ETR) disposed on the second emission layer (EML2), the electron transport region (ETR) comprising a second electron transport material; and a second electrode (EL2) disposed on the electron transport region (ETR), and wherein the first emission layer (EML1) comprises a first sub emission layer (Sub-E1), a second sub emission layer (Sub-E2) and a third emission layer (Sub-E3), which are neighbored on a plane, and the first sub emission layer (Sub-E1) comprises the first light-emitting host and the first light-emitting dopant, wherein the first light-emitting dopant and the second light-emitting dopant are configured to emit lights of the same color, and wherein the first sub emission layer (Sub-E1) is a blue emission layer, the second sub emission layer (Sub-E2) is a green emission layer, and the third sub emission layer (Sub-E3) is a red emission layer,
A method of screening a subject comprising: providing a panel of nucleic acid biomarkers for a Pervasive Developmental Disorder (PDD) or a Pervasive Developmental Disorder - Not Otherwise Specified (PDD-NOS) characterised in that the panel comprises at least one low frequency gDNA variation biomarker for each of a plurality of genetic loci, said low frequency gDNA variation biomarkers occurring at a frequency of 0.1% or less in a population of subjects without a diagnosis of the PDD or PDD-NOS who are ethnically matched to the test subject, the genetic loci being selected from the genes in the polynucleotides of SEQ ID NOs 644 to 2417 and 2558 to 2739, and wherein the panel comprises at least 50 low frequency gDNA variation biomarkers, and wherein each gDNA variation biomarker is a CNV encoded by SEQID Nos 1 to 643 or 2418 to 2557, or is a variation that results in a nonsense or frameshift mutation in one of the said genes; assaying a nucleic acid sample obtained from the subject to detect sequence information for the genetic loci; and comparing the panel of nucleic acid biomarkers to the sequence information for the genetic loci in order to detect if low frequency gDNA variation biomarkers in the panel are present in the sequence information. providing a panel of nucleic acid biomarkers for a Pervasive Developmental Disorder (PDD) or a Pervasive Developmental Disorder - Not Otherwise Specified (PDD-NOS) characterised in that the panel comprises at least one low frequency gDNA variation biomarker for each of a plurality of genetic loci, said low frequency gDNA variation biomarkers occurring at a frequency of 0.1% or less in a population of subjects without a diagnosis of the PDD or PDD-NOS who are ethnically matched to the test subject, the genetic loci being selected from the genes in the polynucleotides of SEQ ID NOs 644 to 2417 and 2558 to 2739, and wherein the panel comprises at least 50 low frequency gDNA variation biomarkers, and wherein each gDNA variation biomarker is a CNV encoded by SEQID Nos 1 to 643 or 2418 to 2557, or is a variation that results in a nonsense or frameshift mutation in one of the said genes; assaying a nucleic acid sample obtained from the subject to detect sequence information for the genetic loci; and comparing the panel of nucleic acid biomarkers to the sequence information for the genetic loci in order to detect if low frequency gDNA variation biomarkers in the panel are present in the sequence information.
An antenna device comprising: - an upper half-shell , - a lower antenna base , which is coupled to said half-shell to create an antenna housing, - electronic means , which are arranged inside said antenna housing and are designed to receive/supply an antenna signal, - at least one antenna unit provided with a planar antenna that is arranged inside said antenna housing to receive/supply said antenna signal from/to said electronic means and comprises a spiral-shaped planar portion made of an electrically conductive material, said spiral-shaped planar portion comprises a plurality of approximately coplanar turns substantially set apart from one another, said turns are laid out approximately concentrically on a same surface approximately orthogonal to a first axis (B) and extend on said surface so as to occupy a progressively increasing area, said first axis (B) is approximately orthogonal to said antenna base , said antenna device is characterized in that : said planar antenna further comprises a solid planar portion made of an electrically conductive material that forms a capacitive component, said solid planar portion and said spiral-shaped planar portion being electrically connected to each other so as form an inductive-capacitive component designed to make said planar antenna resonate in one or more frequencies ranging in at least one predetermined frequency band. - an upper half-shell , - a lower antenna base , which is coupled to said half-shell to create an antenna housing, - electronic means , which are arranged inside said antenna housing and are designed to receive/supply an antenna signal, - at least one antenna unit provided with a planar antenna that is arranged inside said antenna housing to receive/supply said antenna signal from/to said electronic means and comprises a spiral-shaped planar portion made of an electrically conductive material,
A mechanical return assembly for a valved-container inhaler comprising: a resilient structure ; a transfer configured to transfer stored potential energy from the resilient structure to a resilient, valved container in the form of a force to thereby release a medicament therefrom; a clutch in a load path of the force between the resilient structure and the transfer , the clutch having a first part and a second part, in which relative rotation of the first and second parts moves the clutch between: a first condition in which load is transferred from the resilient structure to the transfer , and a second condition in which the resilient structure and the transfer can move relative to one another to interrupt the load path and thereby allow the valve container to resile after actuation. a resilient structure ; a transfer configured to transfer stored potential energy from the resilient structure to a resilient, valved container in the form of a force to thereby release a medicament therefrom; a clutch in a load path of the force between the resilient structure and the transfer , the clutch having a first part and a second part, in which relative rotation of the first and second parts moves the clutch between: a first condition in which load is transferred from the resilient structure to the transfer , and a second condition in which the resilient structure and the transfer can move relative to one another to interrupt the load path and thereby allow the valve container to resile after actuation. a first condition in which load is transferred from the resilient structure to the transfer , and a second condition in which the resilient structure and the transfer can move relative to one another to interrupt the load path and thereby allow the valve container to resile after actuation.
System for detecting properties of a material layer or an embedded component of a structure or its substructure ; with - a detection layer , which has electromagnetic radiation reflecting reflection areas (20a-20e) and is set up to be embedded in a structure or its substructure ; and - a detection device , which is set up to emit electromagnetic radiation in the direction of the detection layer and to receive electromagnetic radiation reflected by the reflection areas (20a-20e) of the detection layer ; characterized in that electromagnetic radiation reflecting fibers are arranged in the reflection areas (20a-20e) of the detection layer . - a detection layer , which has electromagnetic radiation reflecting reflection areas (20a-20e) and is set up to be embedded in a structure or its substructure ; and - a detection device , which is set up to emit electromagnetic radiation in the direction of the detection layer and to receive electromagnetic radiation reflected by the reflection areas (20a-20e) of the detection layer ;
A method carried out by a User Equipment, UE, performing a Logical Channel Prioritization, LCP, procedure in a wireless communication system, the method comprising: receiving information on a carrier aggregation configuring with a first cell operating in a licensed band and a second cell operating in a unlicensed band, wherein the first cell and the second cell are served by an e-Node B, eNB; receiving information on two or more logical channels, wherein each of the two or more logical channels has respective logical channel priority for a Logical Channel Prioritization , LCP, procedure; receiving a uplink grant from the first cell or the second cell; performing the LCP procedure for the two or more logical channels in decreasing order of priority when the uplink grant is received from the first cell of the licensed band; and performing the LCP procedure for the two or more logical channels in increasing order of priority when the uplink grant is received from the second cell of the unlicensed band. receiving information on a carrier aggregation configuring with a first cell operating in a licensed band and a second cell operating in a unlicensed band, wherein the first cell and the second cell are served by an e-Node B, eNB; receiving information on two or more logical channels, wherein each of the two or more logical channels has respective logical channel priority for a Logical Channel Prioritization , LCP, procedure; receiving a uplink grant from the first cell or the second cell; performing the LCP procedure for the two or more logical channels in decreasing order of priority when the uplink grant is received from the first cell of the licensed band; and performing the LCP procedure for the two or more logical channels in increasing order of priority when the uplink grant is received from the second cell of the unlicensed band.
A polyacetal resin composition comprising at least: 100 parts by mass of (A) a polyacetal resin; 0.01 parts by mass or more and 1 part by mass or less of (B) a hindered phenol antioxidant; 0.3 parts by mass or more and 5 parts by mass or less of (C) a silicone oil; 0.1 parts by mass or more and 1.0 parts by mass or less of (D) calcium carbonate; and 0.02 parts by mass or more and 0.2 parts by mass or less of (E) a fatty acid, the (D) calcium carbonate being non-surface treated precipitated calcium carbonate having an average particle diameter of 1 um or less, and the (E) fatty acid being a fatty acid having 12 or more and 30 or less carbon atoms. 0.01 parts by mass or more and 1 part by mass or less of (B) a hindered phenol antioxidant; 0.3 parts by mass or more and 5 parts by mass or less of (C) a silicone oil; 0.1 parts by mass or more and 1.0 parts by mass or less of (D) calcium carbonate; and 0.02 parts by mass or more and 0.2 parts by mass or less of (E) a fatty acid, the (D) calcium carbonate being non-surface treated precipitated calcium carbonate having an average particle diameter of 1 um or less, and the (E) fatty acid being a fatty acid having 12 or more and 30 or less carbon atoms.
A pharmaceutical composition comprising a compound that is a peptide or a salt thereof and one or more pharmaceutically acceptable carriers, diluents and/or excipients, wherein the amino acid sequence of the peptide: a. consists of: i. 5 to 10 consecutive amino acids from the amino acid sequence LSSTQAQQSX 1 (SEQ ID NO:34), where X 1 is Y, W, or F; and ii. optionally, an additional aromatic amino acid at the C-terminus of said 5 to 10 consecutive amino acids; and b. does not consist of the amino acid sequence LSSTQAQQSY (SEQ ID NO:1), LSSTQAQQS (SEQ ID NO:2), SSTQAQQSY (SEQ ID NO:3), LSSTQ (SEQ ID NO:4), AQQSY (SEQ ID NO:5), LSSTQAQQSW (SEQ ID NO:6), or LSSTQAQQSF (SEQ ID NO:7). a. consists of: i. 5 to 10 consecutive amino acids from the amino acid sequence LSSTQAQQSX 1 (SEQ ID NO:34), where X 1 is Y, W, or F; and ii. optionally, an additional aromatic amino acid at the C-terminus of said 5 to 10 consecutive amino acids; and i. 5 to 10 consecutive amino acids from the amino acid sequence LSSTQAQQSX 1 (SEQ ID NO:34), where X 1 is Y, W, or F; and ii. optionally, an additional aromatic amino acid at the C-terminus of said 5 to 10 consecutive amino acids; and b. does not consist of the amino acid sequence LSSTQAQQSY (SEQ ID NO:1), LSSTQAQQS (SEQ ID NO:2), SSTQAQQSY (SEQ ID NO:3), LSSTQ (SEQ ID NO:4), AQQSY (SEQ ID NO:5), LSSTQAQQSW (SEQ ID NO:6), or LSSTQAQQSF (SEQ ID NO:7).
Method for outputting at least one condition of at least one seal , comprising: - detecting the condition of the seal with a detection device in the seal ; - generating an identifier depending on the captured condition in a security element of the seal , and outputting of the identifier by means of a display unit attached to the seal ; - reading the output of the identifier by a terminal device ; - in said terminal device , generating identifier data in connection with the selected identifier ; - transmitting the identifier data from the terminal device to a remote data processing unit ; - in the remote data processing unit , processing the identifier data in such a way that a status information about the condition of the seal is generated; - output of the status information to at least one downstream processing unit , in particular a downstream processing unit of a provider (H) of the seal , wherein the identifier is an optically scannable identifier, in particular a barcode or a 2-D code, and that the terminal device contains an image-recording device. - detecting the condition of the seal with a detection device in the seal ; - generating an identifier depending on the captured condition in a security element of the seal , and outputting of the identifier by means of a display unit attached to the seal ; - reading the output of the identifier by a terminal device ; - in said terminal device , generating identifier data in connection with the selected identifier ; - transmitting the identifier data from the terminal device to a remote data processing unit ; - in the remote data processing unit , processing the identifier data in such a way that a status information about the condition of the seal is generated; - output of the status information to at least one downstream processing unit , in particular a downstream processing unit of a provider (H) of the seal ,