mhurhangee/patent-ind-claim-en huggingface dataset:
A User Equipment, UE , comprising: a wireless transceiver , configured to perform wireless transmission and reception; and a controller , configured to select a Public Land Mobile Network, PLMN, in a PLMN change via the wireless transceiver , determine whether the UE has a Non-Access Stratum, NAS, security context for which a null ciphering algorithm or a weak confidentiality ciphering algorithm is adopted, wherein the controller is further configured to: in response to selecting the PLMN change and the UE having the NAS security context for which the null ciphering algorithm or the weak confidentiality ciphering algorithm being adopted, send an initial NAS message comprising only cleartext Information Elements, lEs, that can be sent unciphered to the selected PLMN via the wireless transceiver . a wireless transceiver , configured to perform wireless transmission and reception; and a controller , configured to select a Public Land Mobile Network, PLMN, in a PLMN change via the wireless transceiver , determine whether the UE has a Non-Access Stratum, NAS, security context for which a null ciphering algorithm or a weak confidentiality ciphering algorithm is adopted, wherein the controller is further configured to: in response to selecting the PLMN change and the UE having the NAS security context for which the null ciphering algorithm or the weak confidentiality ciphering algorithm being adopted, send an initial NAS message comprising only cleartext Information Elements, lEs, that can be sent unciphered to the selected PLMN via the wireless transceiver .
A monoclonal antibody reactive with a fragment of collagen type VII alpha 1 comprising an N- or C-terminal neo-epitope formed by protease cleavage of Collagen type VII alpha 1: wherein said monoclonal antibody binds to the N-terminal neo-epitope, wherein the N-terminal neo-epitope is comprised in the amino acid sequence H 2 N-EAPRVRAQHR (SEQ ID NO: 4), and does not bind to the elongated amino acid sequence H 2 N-XEAPRVRAQHR (SEQ ID NO: 6), wherein X is one or more amino acids of the sequence of collagen type VII alpha 1; or wherein said monoclonal antibody binds to the C-terminal neo-epitope, wherein the C-terminal neo-epitope is comprised in the amino acid sequence GPPGPPGRLV-COOH (SEQ ID NO: 1), and does not bind the elongated amino acid sequence GPPGPPGRLVX-COOH (SEQ ID NO: 3), wherein X is one or more amino acids of the sequence of collagen type VII alpha 1. wherein said monoclonal antibody binds to the N-terminal neo-epitope, wherein the N-terminal neo-epitope is comprised in the amino acid sequence H 2 N-EAPRVRAQHR (SEQ ID NO: 4), and does not bind to the elongated amino acid sequence H 2 N-XEAPRVRAQHR (SEQ ID NO: 6), wherein X is one or more amino acids of the sequence of collagen type VII alpha 1; or wherein said monoclonal antibody binds to the C-terminal neo-epitope, wherein the C-terminal neo-epitope is comprised in the amino acid sequence GPPGPPGRLV-COOH (SEQ ID NO: 1), and does not bind the elongated amino acid sequence GPPGPPGRLVX-COOH (SEQ ID NO: 3), wherein X is one or more amino acids of the sequence of collagen type VII alpha 1.
A method of controlling a combine harvester , the method comprising: receiving grain flow sensor signals from a plurality of grain flow sensors provided underneath and adjacent to a crop transfer surface of a straw walker section of the combine harvester , the grain flow sensors being distributed over a length of the straw walker section , based on the received grain flow sensor signals, determining a current load on the straw walker section , and based on the current load, adjusting an aggressiveness setting of a threshing and separation section of the combine harvester , characterised in that the method further comprises: determining that the current load is above an upper threshold and wherein the adjusting of the aggressiveness setting of the threshing and separation section of the combine harvester comprises reducing a rotational speed of a threshing drum , a beater and/or a separation drum , and/or increasing a threshing gap between the threshing drum and a cooperating threshing grate and/or a separation gap between the separation drum and a cooperating separation grate . receiving grain flow sensor signals from a plurality of grain flow sensors provided underneath and adjacent to a crop transfer surface of a straw walker section of the combine harvester , the grain flow sensors being distributed over a length of the straw walker section , based on the received grain flow sensor signals, determining a current load on the straw walker section , and based on the current load, adjusting an aggressiveness setting of a threshing and separation section of the combine harvester , characterised in that the method further comprises: determining that the current load is above an upper threshold and wherein the adjusting of the aggressiveness setting of the threshing and separation section of the combine harvester comprises reducing a rotational speed of a threshing drum , a beater and/or a separation drum , and/or increasing a threshing gap between the threshing drum and a cooperating threshing grate and/or a separation gap between the separation drum and a cooperating separation grate . determining that the current load is above an upper threshold and wherein the adjusting of the aggressiveness setting of the threshing and separation section of the combine harvester comprises reducing a rotational speed of a threshing drum , a beater and/or a separation drum , and/or increasing a threshing gap between the threshing drum and a cooperating threshing grate and/or a separation gap between the separation drum and a cooperating separation grate .
An automatic screw machine having a stationary spindle mounted on a stationary head in axially-spaced relation to a rotatable spindle mounted on an indexable head , and a quick-change mechanism operatively associated with said stationary spindle , said quick-change mechanism including: a frusto-conical first surface on said stationary spindle ; a tool holder adapted to hold a tool and having a frusto-conical second surface , said first and second surfaces being so configured and arranged as to urge said tool holder to move radially toward a concentric position with respect to a longitudinal axis of said stationary spindle when said tool holder is moved axially to engage said stationary spindle ; and a multiple-lead threaded connection between said tool holder and said stationary spindle such that said tool holder may be quickly locked into mating engagement with said stationary spindle by relative rotation therebetween through a short angular distance of less than one revolution of said tool holder relative to said stationary spindle . a frusto-conical first surface on said stationary spindle ; a tool holder adapted to hold a tool and having a frusto-conical second surface , said first and second surfaces being so configured and arranged as to urge said tool holder to move radially toward a concentric position with respect to a longitudinal axis of said stationary spindle when said tool holder is moved axially to engage said stationary spindle ; and a multiple-lead threaded connection between said tool holder and said stationary spindle such that said tool holder may be quickly locked into mating engagement with said stationary spindle by relative rotation therebetween through a short angular distance of less than one revolution of said tool holder relative to said stationary spindle .
A battery module , comprising: at least one battery cell ; a casing configured to surround the battery cell and having at least one opening formed therein; and a thermal interface material (TIM, 300) interposed between the casing and the battery cell and exposed out of the casing through the opening of the casing , wherein the opening is provided in plural, wherein a support portion is provided to the casing to be located between any one opening and another opening adjacent thereto, and wherein a contact portion of the support portion in contact with the thermal interface material is rounded. at least one battery cell ; a casing configured to surround the battery cell and having at least one opening formed therein; and a thermal interface material (TIM, 300) interposed between the casing and the battery cell and exposed out of the casing through the opening of the casing , wherein the opening is provided in plural, wherein a support portion is provided to the casing to be located between any one opening and another opening adjacent thereto, and wherein a contact portion of the support portion in contact with the thermal interface material is rounded.
A pharmaceutical composition comprising at least one antibody and at least one mesenchymal stromal cell-derived protein, wherein the antibody targets one or more of the cytokines selected from the group consisting of macrophage colony-stimulating factor (M-CSF), Interleukin-1beta (IL-1β), CCL-1 (I-309) and CCL24 (Eotaxin-2); wherein the mesenchymal stromal cell-derived protein is selected from the group consisting of PGE2 (prostaglandin E2), OPG, CCL7 (MCP-2), CCL8 (MCP-3), CCL20 (MIP-3α), CXCL5 (ENA-78), IL-10 and CXCL6 (GCP-2), and wherein the pharmaceutical composition is as shown in the table below: Composition C2a CXCL5; anti-CCL1; anti-IL1b; anti-M-CSF; anti-CCL24 C3a CCL8; CCL7; OPG; IL-10; anti-CCL24 C4a CCL8; CCL7; OPG; IL-10; CXCL5; anti-CCL1; anti-IL1b; anti-M-CSF C5a CCL20; CXCL6; OPG; IL-10; anti-IL1b; anti-M-CSF C6a CCL20; CXCL6; OPG; IL-10; CXCL5; anti-CCL1; anti-CCL24 C7a CCL20; CXCL6; CCL8; CCL7; anti-IL1b; anti-M-CSF; anti-CCL24 C8a CCL20; CXCL6; CCL8; CCL7; CXCL5; anti-CCL1 C9a PGE2; CXCL6; CCL7; IL-10; anti-CCL1; anti-M-CSF C10a PGE2; CXCL6; CCL7; IL-10; CXCL5; anti-IL1b; anti-CCL24 C11a PGE2; CXCL6; CCL8; OPG; anti-CCL1; anti-M-CSF; anti-CCL24 C12a PGE2; CXCL6; CCL8; OPG; CXCL5; anti-IL1b C13a PGE2; CCL20; CCL7; OPG; anti-CCL1; anti-IL1b C14a PGE2; CCL20; CCL7; OPG; CXCL5; anti-M-CSF; anti-CCL24 C15a PGE2; CCL20; CCL8; IL-10; anti-CCL1; anti-IL1b; anti-CCL24 C16a PGE2; CCL20; CCL8; IL-10; CXCL5; anti-M-CSF C17a CXCL5; CXCL6; anti-CCL1; CCL20 C18a IL-10; OPG; anti-CCL1; CCL20 C20a anti-CCL24; OPG; CXCL6; CCL20 C21a anti-CCL24; OPG; CXCL5; anti-CCL1 C22a anti-CCL24; IL-10; CXCL6; anti-CCL1 C23a anti-CCL24; IL-10; CXCL5; CCL20 C29a anti-CCL1; OPG C30a anti-CCL1; CXCL5 C31a anti-CCL24; OPG C32a anti-CCL24; CXCL5 C34a anti-CCL1; anti-CCL24; OPG C35a anti-CCL1; anti-CCL24; CXCL5 C36a anti-CCL1; OPG; CXCL5 C37a anti-CCL24; OPG; CXCL5 C38a anti-CCL1; anti-CCL24; OPG; CXCL5
Writing instrument , comprising a main body equipped with a writing tip , the writing tip being supplied with ink from a free ink reservoir , the reservoir being equipped with a pressure regulating device for regulating the pressure within the reservoir , the pressure regulating device comprising at least one microfluidic valve , characterized in that the at least one microfluidic valve is arranged in a gas circuit between the interior and the exterior of the reservoir .
A composition comprising: a polyacrylate-polysilane block copolymer of structure (I) and an organic polymer which is different from the block copolymer of formula (I): wherein m and n independent of one another, are integers ranging from 2 to 4000; p is an integer ranging from 0 to 5; q is an integer ranging from 1 to 5; R 1 represents hydrogen, straight-chain or branched alkyl group having 1 to 4 carbon atoms; R 2 represents hydrogen, straight-chain or branched alkyl group having 1 to 18 carbon atoms; R 3 represents hydrogen, hydroxyl group, straight-chain or branched alkyl group having 1 to 4 carbon atoms, or an C 6 -C 14 -aryl group; L is a single bond or a bivalent group -NH-, -C(O)NH-, -NHC(O)NH-, -OC(O)NH- or -CH 2 -; R 4 , R 5 and R 6 independent of one another, represent hydrogen, straight-chain or branched alkyl group having 1 to 8 carbon atoms or a polydimethylsiloxane residue, provided at least one of groups R 4 , R 5 and R 6 represents a polydimethylsiloxane residue; and R 7 represents hydrogen or methyl group, wherein polydimethylsiloxane has the formula (II) wherein x ranges from 6.5 to 4054 such that a number average molecular weight in a range of about 500 g/mole to about 300,000 g/mole results. m and n independent of one another, are integers ranging from 2 to 4000; p is an integer ranging from 0 to 5; q is an integer ranging from 1 to 5; R 1 represents hydrogen, straight-chain or branched alkyl group having 1 to 4 carbon atoms; R 2 represents hydrogen, straight-chain or branched alkyl group having 1 to 18 carbon atoms; R 3 represents hydrogen, hydroxyl group, straight-chain or branched alkyl group having 1 to 4 carbon atoms, or an C 6 -C 14 -aryl group; L is a single bond or a bivalent group -NH-, -C(O)NH-, -NHC(O)NH-, -OC(O)NH- or -CH 2 -; R 4 , R 5 and R 6 independent of one another, represent hydrogen, straight-chain or branched alkyl group having 1 to 8 carbon atoms or a polydimethylsiloxane residue, provided at least one of groups R 4 , R 5 and R 6 represents a polydimethylsiloxane residue; and R 7 represents hydrogen or methyl group,
An analysis device comprising: an optical scanning unit configured to optically scan a surface of a substrate to which analytes in which particles for labeling the analytes are bound, are fixed, by using laser light having a wavelength longer than a diameter of the particle ; and a pulse detector configured to detect a pulse wave and a pulse width (Ta) of the pulse wave included in a detection signal (D1, D2) obtained from the optical scanning unit when the optical scanning unit scans the substrate , characterized in that the analysis device further comprises a counting unit configured to determine that two particles are bound to one analyte , when the pulse detector detects two consecutive pulse waves each having a pulse width (Ta) less than a first reference value (T2), which is a width preliminary determined based on a first pulse width (T1) of one pulse wave among the two consecutive pulse waves, in a detection signal (D1, D2), and detects that a pulse interval (Tb) between the two pulse waves is less than a threshold (T6), and configured to count the number of analytes as one when it is determined that two particles are bound to one analyte . an optical scanning unit configured to optically scan a surface of a substrate to which analytes in which particles for labeling the analytes are bound, are fixed, by using laser light having a wavelength longer than a diameter of the particle ; and a pulse detector configured to detect a pulse wave and a pulse width (Ta) of the pulse wave included in a detection signal (D1, D2) obtained from the optical scanning unit when the optical scanning unit scans the substrate , characterized in that the analysis device further comprises a counting unit configured to determine that two particles are bound to one analyte , when the pulse detector detects two consecutive pulse waves each having a pulse width (Ta) less than a first reference value (T2), which is a width preliminary determined based on a first pulse width (T1) of one pulse wave among the two consecutive pulse waves, in a detection signal (D1, D2), and detects that a pulse interval (Tb) between the two pulse waves is less than a threshold (T6), and configured to count the number of analytes as one when it is determined that two particles are bound to one analyte .
A computer-implemented method for estimating respiratory parameters, said respiratory parameters including a lung volume, of a subject using a range imaging sensor (Sri), wherein said method comprises: - receiving a set of acquisitions derived from a range imaging sensor (Sri), said set of acquisitions comprising at least one raw image and a reference surface image of at least one portion of a torso of the subject , wherein each point of the raw image represents a distance between the range imaging sensor (Sri) and the subject and wherein the reference surface image comprises depth values; - generating a surface image of at least one portion of a surface of the torso of the subject by surface interpolation of the raw image ; - estimating a respiratory signal as a function of time by: • calculating, for each generated surface image, the differences between the depth values in a given region of interest (ROI) defined on the torso of the subject, at a given time, and the depth values of said reference surface image, and • calculating the spatial average of the obtained differences in said given ROI; - estimating a lung volume as a function of time by multiplying the respiratory signal by a surface of the region of interest , and - providing as output said lung volume. - receiving a set of acquisitions derived from a range imaging sensor (Sri), said set of acquisitions comprising at least one raw image and a reference surface image of at least one portion of a torso of the subject , wherein each point of the raw image represents a distance between the range imaging sensor (Sri) and the subject and wherein the reference surface image comprises depth values; - generating a surface image of at least one portion of a surface of the torso of the subject by surface interpolation of the raw image ; - estimating a respiratory signal as a function of time by: • calculating, for each generated surface image, the differences between the depth values in a given region of interest (ROI) defined on the torso of the subject, at a given time, and the depth values of said reference surface image, and • calculating the spatial average of the obtained differences in said given ROI; • calculating, for each generated surface image, the differences between the depth values in a given region of interest (ROI) defined on the torso of the subject, at a given time, and the depth values of said reference surface image, and • calculating the spatial average of the obtained differences in said given ROI; - estimating a lung volume as a function of time by multiplying the respiratory signal by a surface of the region of interest , and - providing as output said lung volume.
An information processing apparatus , comprising: an operation unit configured to receive an operation input according to an operation of a user; and characterized in : a phrase acquiring unit configured to acquire a predetermined number of phrases, as candidates for a phrase to be sent in a message, in the case where the operation unit determines to attach a picture to the message on the basis of the operation input, from a plurality of phrases classified within one or more categories respectively corresponding to a picture chosen as a candidate for an image to be attached to the message or, in the case where the message is a reply message to a received message and a picture is attached to the received message, from a plurality of phrases classified within one or more categories respectively corresponding to a picture attached to the received message, among a plurality of categories into which the phrases are classified; and an option creating unit configured to create options for prompting a selection of the phrase to be sent from the predetermined number of phrases acquired by the phrase acquiring unit, and to exhibit the options at a predetermined timing. a phrase acquiring unit configured to acquire a predetermined number of phrases, as candidates for a phrase to be sent in a message, in the case where the operation unit determines to attach a picture to the message on the basis of the operation input, from a plurality of phrases classified within one or more categories respectively corresponding to a picture chosen as a candidate for an image to be attached to the message or, in the case where the message is a reply message to a received message and a picture is attached to the received message, from a plurality of phrases classified within one or more categories respectively corresponding to a picture attached to the received message, among a plurality of categories into which the phrases are classified; and an option creating unit configured to create options for prompting a selection of the phrase to be sent from the predetermined number of phrases acquired by the phrase acquiring unit, and to exhibit the options at a predetermined timing.
A cured product formed from a partial discharge-resistant electrical insulating resin composition comprising boehmite alumina and a resin, wherein the cured product comprises boehmite alumina and the resin, and the resin is at least one resin selected from the group consisting of polyvinyl formal resin, polyurethane resin, polyamide resin, polyester resin, polyimide resin, polyamide-imide resin, polyetherimide resin, and polyester-imide resin.
A modified acrylic resin cured product (C) obtained by treating the surface of a cured product (X) composed of an acrylic resin with a compound (A) comprising, in the molecule, one or more of anionic hydrophilic groups forming an ion pair with an onium ion of an amino silicone, and one or more of groups selected from the group consisting of groups containing a polymerizable carbon-carbon double bond, amino groups, mercapto groups, and hydroxyl groups.
A use of a polypeptide comprising one or more sequences of IgLON5 or a variant thereof for the diagnosis of a disease, wherein the sequence of IgLON5 is the sequence according to SEQ ID NO 1, and wherein the variant thereof binds to an autoantibody to IgLON5, and wherein antibodies from a subject are contacted with said polypeptide or said variant thereof to form a complex comprising said polypeptide and an autoantibody binding to IgLON5 or the variant thereof, and wherein the disease is a neurodegenerative disease associated with the emergence of autoantibodies binding to IgLON5 or the variant thereof.
Safety architecture for a machine work cell comprising: a barrier separating a work cell area for positioning machines that are automated manufacturing positioning machines from a personnel area for personnel that maintain the positioning machines in the work cell area; a control system communicating with the positioning machines and controlling movements and functioning of the positioning machines; characterized in that it further comprises an opening through the barrier, the opening providing personnel in the personnel area access through the opening to a positioning machine in the work cell area that has been controlled to move to a position adjacent the opening and then controlled to be immobile and nonfunctioning while other positioning machines in the work cell area are mobile and functioning, and the opening being a cart and end effector opening through the barrier ; and a tooling opening through the barrier , the tooling opening providing personnel in the personnel area access to a tool changing location in the work cell area through the tooling opening, or a test coupon opening through the barrier , the test coupon opening providing personnel in the personnel area access to a test coupon location in the work cell area through the test coupon opening. a barrier separating a work cell area for positioning machines that are automated manufacturing positioning machines from a personnel area for personnel that maintain the positioning machines in the work cell area; a control system communicating with the positioning machines and controlling movements and functioning of the positioning machines; characterized in that it further comprises an opening through the barrier, the opening providing personnel in the personnel area access through the opening to a positioning machine in the work cell area that has been controlled to move to a position adjacent the opening and then controlled to be immobile and nonfunctioning while other positioning machines in the work cell area are mobile and functioning, and the opening being a cart and end effector opening through the barrier ; and a tooling opening through the barrier , the tooling opening providing personnel in the personnel area access to a tool changing location in the work cell area through the tooling opening, or a test coupon opening through the barrier , the test coupon opening providing personnel in the personnel area access to a test coupon location in the work cell area through the test coupon opening.