mhurhangee/patent-ind-claim-en huggingface dataset:
A composition for laminates, comprising: (a) an epichlorohydrin polymer; (b) a compound having a vinyl group; (c) at least one compound selected from the group consisting of a 1,8-diazabicyclo(5.4.0)undecene-7 salt, a 1,5-diazabicyclo(4.3.0)-nonene-5 salt, 1,8-diazabicyclo(5.4.0)undecene-7 and 1, 5-diazabicyclo(4.3.0)-nonene-5; and (d) a metal salt hydrate, wherein the metal salt hydrate (d) is a hydrate of an acetic acid salt or a sulfuric acid salt of a metal selected from aluminum, sodium, calcium, zinc, manganese, lanthanum, titanium, zirconium, iron, cobalt, nickel, magnesium and copper.
An oxygen reduction catalyst comprising titanium, carbon, nitrogen, and oxygen as constituent elements, wherein 0.1<x≤7, 0.01<y≤2, and 0.05<z≤1.5 are met when a ratio of the number of atoms of each of the constituent elements (titanium: carbon: nitrogen: oxygen) is represented by 1: x: y: z; in XRD measurement using a Cu-Kα ray, peaks are each present in at least regions A and B among regions A to D which occupy 2θ ranges described below: A: 42° to 43°, B: 36.5° to 37°, C: 25° to 26°, and D: 27° to 28°; and each of maximum peak intensities IA, IB, IC, and ID in the regions A to D satisfies both relationships described in expressions and described below: I A > I B and 0.3 ≤ I A / I A + I C + I D ≤ 1 A: 42° to 43°, B: 36.5° to 37°, C: 25° to 26°, and D: 27° to 28°; and
A method of preparing a cDNA library from a plurality of single cells, the method comprising the steps of: (i) releasing mRNA from each single cell to provide a plurality of individual mRNA samples, wherein the mRNA in each individual mRNA sample is from a single cell; (ii) synthesizing a first strand of cDNA from the mRNA in each individual mRNA sample with a first strand cDNA synthesis primer (CDS) comprising a 5' amplification primer sequence (APS) and an RNA complementary sequence (RCS) that is at least partially complementary to one or more mRNA in an individual mRNA sample, and incorporating a distinct tag or a distinct combination of tags into each individual cDNA sample to provide a plurality of tagged cDNA samples, wherein the cDNA in each tagged cDNA sample is complementary to mRNA from a single cell; (iii) pooling the tagged cDNA samples; (iv) amplifying the pooled cDNA samples to generate a cDNA library comprising double-stranded cDNA; and (v) purifying the tagged cDNA samples. (i) releasing mRNA from each single cell to provide a plurality of individual mRNA samples, wherein the mRNA in each individual mRNA sample is from a single cell; (ii) synthesizing a first strand of cDNA from the mRNA in each individual mRNA sample with a first strand cDNA synthesis primer (CDS) comprising a 5' amplification primer sequence (APS) and an RNA complementary sequence (RCS) that is at least partially complementary to one or more mRNA in an individual mRNA sample, and incorporating a distinct tag or a distinct combination of tags into each individual cDNA sample to provide a plurality of tagged cDNA samples, wherein the cDNA in each tagged cDNA sample is complementary to mRNA from a single cell; (iii) pooling the tagged cDNA samples; (iv) amplifying the pooled cDNA samples to generate a cDNA library comprising double-stranded cDNA; and (v) purifying the tagged cDNA samples.
A method of wireless communication by a user equipment, UE , comprising: receiving (606; 1002), via a physical broadcast channel, PBCH , a message that includes RACH information associated with a base station , wherein the RACH information is a subset of RACH parameters associated with the base station, the subset of RACH parameters including at least one of a beam sweep periodicity, a RACH preamble index, a RACH configuration, a RACH format, a RACH frequency, a base station transmit power, or a RACH power ramping step; characterized in : receiving (1006; 1008), via the PBCH, an indication that indicates a second periodicity with which a full list of RACH parameters is to be transmitted via an extended PBCH, ePBCH, wherein a first periodicity with which the RACH information is to be transmitted via the PBCH is shorter than the second periodicity; determining whether the second periodicity has a time duration greater than a threshold: and determining to transmit a RACH message to the base station during a RACH procedure based on the received RACH information, without waiting for the full list of RACH parameters, when the second periodicity has a time duration greater than the threshold. receiving (606; 1002), via a physical broadcast channel, PBCH , a message that includes RACH information associated with a base station , wherein the RACH information is a subset of RACH parameters associated with the base station, the subset of RACH parameters including at least one of a beam sweep periodicity, a RACH preamble index, a RACH configuration, a RACH format, a RACH frequency, a base station transmit power, or a RACH power ramping step; characterized in : receiving (1006; 1008), via the PBCH, an indication that indicates a second periodicity with which a full list of RACH parameters is to be transmitted via an extended PBCH, ePBCH, wherein a first periodicity with which the RACH information is to be transmitted via the PBCH is shorter than the second periodicity; determining whether the second periodicity has a time duration greater than a threshold: and determining to transmit a RACH message to the base station during a RACH procedure based on the received RACH information, without waiting for the full list of RACH parameters, when the second periodicity has a time duration greater than the threshold. receiving (1006; 1008), via the PBCH, an indication that indicates a second periodicity with which a full list of RACH parameters is to be transmitted via an extended PBCH, ePBCH, wherein a first periodicity with which the RACH information is to be transmitted via the PBCH is shorter than the second periodicity; determining whether the second periodicity has a time duration greater than a threshold: and determining to transmit a RACH message to the base station during a RACH procedure based on the received RACH information, without waiting for the full list of RACH parameters, when the second periodicity has a time duration greater than the threshold.
A continuous fermentation process for the production of a protein comprising culturing a population of reduced genome bacteria cells comprising an inducible expression vector encoding a protein in at least two successive fermentors, each configured as an independent continuous flow chemostat, said fermentors comprising a first fermentor comprising culture medium wherein said cells are cultured under uninduced conditions and a second successive continuous fermentor for producing the protein comprising culture medium comprising inducer and further comprising an amount of said culture medium from said first fermentor sufficient to inoculate said second fermentor, wherein said cells are cultured under suitable conditions to produce the protein for a period of at least two weeks, and wherein the protein is recovered from said second fermentor, wherein the reduced genome bacteria cells are genetically engineered to lack transposable genetic elements.
A computer-based method for backward-compatible encoding of 3D video content, the method comprising: providing an original first view image of a scene at a first dynamic range ; providing an original tapestry image at the first dynamic range ; generating a first view image at a second dynamic range , wherein the first dynamic range is higher than the second dynamic range; predicting , by a computer and based on the original first view image , a first view image at the first dynamic range from the first view image at the second dynamic range, thereby obtaining a predicted first view image ; providing, by a computer, a first displacement map , wherein the first displacement map comprises distance information between the original first view image at the first dynamic range and the original tapestry image at the first dynamic range ; applying an inverse displacement operation to the predicted first view image , thereby obtaining a predicted tapestry image , wherein the inverse displacement operation comprises shifting pixels from a position in the predicted first view image to a position in the predicted tapestry image based on the first displacement map ; interpolating unfilled pixels in the predicted tapestry image ; and calculating a difference between the original tapestry image and the predicted tapestry image , thereby obtaining a residual , the method further comprising encoding the first view image at the second dynamic range , the first displacement map , and the residual . providing an original first view image of a scene at a first dynamic range ; providing an original tapestry image at the first dynamic range ; generating a first view image at a second dynamic range , wherein the first dynamic range is higher than the second dynamic range; predicting , by a computer and based on the original first view image , a first view image at the first dynamic range from the first view image at the second dynamic range, thereby obtaining a predicted first view image ; providing, by a computer, a first displacement map , wherein the first displacement map comprises distance information between the original first view image at the first dynamic range and the original tapestry image at the first dynamic range ; applying an inverse displacement operation to the predicted first view image , thereby obtaining a predicted tapestry image , wherein the inverse displacement operation comprises shifting pixels from a position in the predicted first view image to a position in the predicted tapestry image based on the first displacement map ; interpolating unfilled pixels in the predicted tapestry image ; and calculating a difference between the original tapestry image and the predicted tapestry image , thereby obtaining a residual , the method further comprising encoding the first view image at the second dynamic range , the first displacement map , and the residual .
A compound of formula in the form of any one of its stereoisomers, regioisomers or a mixture thereof.
A computer-implemented method for determining computed tomography (CT) scan parameters for performing a CT scan of an anatomical target region of a patient , the method comprising: - Determining , based on optical imaging data depicting the patient , an initial set of attenuation curves associated with the anatomical target region of the patient ; - Determining an initial set of the CT scan parameters based on the initial set of attenuation curves ; and - Performing the CT scan starting with the initial set of the CT scan parameters ; wherein said determining of the initial set of attenuation curves associated with the anatomical target region of the patient comprises: - Obtaining at least one instance of the optical imaging data ; - applying a first trained machine-learning algorithm to the at least one instance of the optical imaging data ; - generating , by the first trained machine-learning algorithm , at least one latent vector representing the at least one instance of the optical imaging data ; - applying a second trained machine-learning algorithm to the at least one latent vector ; - generating , by the second trained machine-learning algorithm , the initial set of the attenuation curves . - Determining , based on optical imaging data depicting the patient , an initial set of attenuation curves associated with the anatomical target region of the patient ; - Determining an initial set of the CT scan parameters based on the initial set of attenuation curves ; and - Performing the CT scan starting with the initial set of the CT scan parameters ; - Obtaining at least one instance of the optical imaging data ; - applying a first trained machine-learning algorithm to the at least one instance of the optical imaging data ; - generating , by the first trained machine-learning algorithm , at least one latent vector representing the at least one instance of the optical imaging data ; - applying a second trained machine-learning algorithm to the at least one latent vector ; - generating , by the second trained machine-learning algorithm , the initial set of the attenuation curves .
A configuration method, applied to a terminal in a communications system, in which a master node and a secondary node jointly provide a service for the terminal , and the method comprises: receiving (S530) configuration information for a signaling radio bearer, SRB, of a secondary node from a master node , wherein the SRB is used to transmit a radio resource control, RRC, message between the secondary node and the terminal ; and configuring (S540) the SRB by using the configuration information for the SRB; sending (S550, S570) a result of configuring the SRB; receiving (S910) a downlink RRC message of the secondary node on a first path; and sending (S920) an uplink RRC message to the secondary node on a second path, wherein the uplink RRC message is a response message for the downlink RRC message, wherein when the first path is that the downlink RRC message is received by the terminal from the secondary node via the master node , the second path is that the uplink RRC message is sent to the secondary node via the master node , and when the first path is that the downlink RRC message is received by the terminal from the secondary node directly, the second path is that the uplink RRC message is sent to the secondary node directly. receiving (S530) configuration information for a signaling radio bearer, SRB, of a secondary node from a master node , wherein the SRB is used to transmit a radio resource control, RRC, message between the secondary node and the terminal ; and configuring (S540) the SRB by using the configuration information for the SRB; sending (S550, S570) a result of configuring the SRB; receiving (S910) a downlink RRC message of the secondary node on a first path; and sending (S920) an uplink RRC message to the secondary node on a second path, wherein the uplink RRC message is a response message for the downlink RRC message, wherein when the first path is that the downlink RRC message is received by the terminal from the secondary node via the master node , the second path is that the uplink RRC message is sent to the secondary node via the master node , and when the first path is that the downlink RRC message is received by the terminal from the secondary node directly, the second path is that the uplink RRC message is sent to the secondary node directly.
A cushioning pad for cushioning a user's knee when kneeling on a surface, the cushioning pad comprising: an upper surface which is for contact with the user's knee, a bottom surface which, in use, is nearest to the surface being knelt on, a structure defining longitudinal first passageways with their longitudinal axes arranged to be positioned, in use, so that they intersect with the surface being knelt on, and a sheet member , characterised in that the sheet member is positioned centrally within the structure , the sheet member being convex relative to the upper surface so that the apex of the arc of the sheet member faces the upper surface and in that the sheet member is made of thermoplastic elastomer, whereby the sheet member acts as a leaf spring. an upper surface which is for contact with the user's knee, a bottom surface which, in use, is nearest to the surface being knelt on, a structure defining longitudinal first passageways with their longitudinal axes arranged to be positioned, in use, so that they intersect with the surface being knelt on, and a sheet member , characterised in that the sheet member is positioned centrally within the structure , the sheet member being convex relative to the upper surface so that the apex of the arc of the sheet member faces the upper surface and in that the sheet member is made of thermoplastic elastomer, whereby the sheet member acts as a leaf spring.
An electronic device , comprising: a Universal Serial Bus, USB, interface comprising at least one AC coupling capacitor ; and at least one electrostatic discharge, ESD, protection device comprising an ESD protection component configured to limit a voltage applied to the USB interface ; and at least one discharge resistor (244, 244.1, 244.2) connected in parallel to the ESD protection component and configured to discharge the AC coupling capacitor of the USB interface for AC coupling, wherein the ESD protection component and the discharge resistor (244, 244.1, 244.2) are incorporated in a single electronic component ; wherein the USB interface comprises a USB router and a USB receptacle for coupling the USB router to an external device, wherein the USB router is connected to the USB receptacle via at least one data line wherein the AC coupling capacitor is arranged in the data line between the USB router and the USB receptacle , wherein the single electronic component is coupled between the data line and ground potential , and wherein the single electronic component is placed on a printed circuit board, PCB, carrying the USB router and the AC coupling capacitor . a Universal Serial Bus, USB, interface comprising at least one AC coupling capacitor ; and at least one electrostatic discharge, ESD, protection device comprising an ESD protection component configured to limit a voltage applied to the USB interface ; and at least one discharge resistor (244, 244.1, 244.2) connected in parallel to the ESD protection component and configured to discharge the AC coupling capacitor of the USB interface for AC coupling, wherein the ESD protection component and the discharge resistor (244, 244.1, 244.2) are incorporated in a single electronic component ; wherein the USB interface comprises a USB router and a USB receptacle for coupling the USB router to an external device, an ESD protection component configured to limit a voltage applied to the USB interface ; and at least one discharge resistor (244, 244.1, 244.2) connected in parallel to the ESD protection component and configured to discharge the AC coupling capacitor of the USB interface for AC coupling, wherein the ESD protection component and the discharge resistor (244, 244.1, 244.2) are incorporated in a single electronic component ; wherein the USB interface comprises a USB router and a USB receptacle for coupling the USB router to an external device, wherein the USB router is connected to the USB receptacle via at least one data line wherein the AC coupling capacitor is arranged in the data line between the USB router and the USB receptacle , wherein the single electronic component is coupled between the data line and ground potential , and wherein the single electronic component is placed on a printed circuit board, PCB, carrying the USB router and the AC coupling capacitor .
A bone repair composition, comprising: a) cancellous bone chips, wherein the cancellous bone chips comprise viable osteogenic cells; and b) devitalized periosteum, comprising one or more biologically active angiogenic growth factor(s), whereby the bone repair composition mediates angiogenesis, wherein: the periosteum is obtainable by or is prepared by processing in the presence of a physiologic solution, whereby the periosteum retains biologically active angiogenic growth factors in an amount sufficient for the bone repair composition to mediate angiogenesis; the periosteum and resulting bone repair composition are not immunogenic; and the composition exhibits angiogenic activity, and one or more of osteoinductive, osteoconductive and osteogenic activity. a) cancellous bone chips, wherein the cancellous bone chips comprise viable osteogenic cells; and b) devitalized periosteum, comprising one or more biologically active angiogenic growth factor(s), whereby the bone repair composition mediates angiogenesis, wherein: the periosteum is obtainable by or is prepared by processing in the presence of a physiologic solution, whereby the periosteum retains biologically active angiogenic growth factors in an amount sufficient for the bone repair composition to mediate angiogenesis; the periosteum and resulting bone repair composition are not immunogenic; and the composition exhibits angiogenic activity, and one or more of osteoinductive, osteoconductive and osteogenic activity. the periosteum is obtainable by or is prepared by processing in the presence of a physiologic solution, whereby the periosteum retains biologically active angiogenic growth factors in an amount sufficient for the bone repair composition to mediate angiogenesis; the periosteum and resulting bone repair composition are not immunogenic; and the composition exhibits angiogenic activity, and one or more of osteoinductive, osteoconductive and osteogenic activity.
A motor comprising: a rotary shaft ; a rotor including a hole in which the rotary shaft is disposed; a stator disposed on an outer side of the rotor ; a commutator including a hole in which the rotary shaft is disposed; and brushes configured to be in contact with the commutator , wherein the stator includes magnets having six poles; wherein the number of brushes is two; wherein the rotor includes slots; characterized by the fact that the number of the slots of the rotor is thirteen, the plurality of brushes are located to have an angular interval of 63° to 66° in a circumferential direction of the rotary shaft , and a width of the brush in the circumferential direction is a length of an arc of the brush corresponding to 22° to 26° about a center of the rotary shaft a rotary shaft ; a rotor including a hole in which the rotary shaft is disposed; a stator disposed on an outer side of the rotor ; a commutator including a hole in which the rotary shaft is disposed; and brushes configured to be in contact with the commutator , wherein the stator includes magnets having six poles; wherein the number of brushes is two; wherein the rotor includes slots; characterized by the fact that the number of the slots of the rotor is thirteen, the plurality of brushes are located to have an angular interval of 63° to 66° in a circumferential direction of the rotary shaft , and a width of the brush in the circumferential direction is a length of an arc of the brush corresponding to 22° to 26° about a center of the rotary shaft