mhurhangee/patent-ind-claim-en huggingface dataset:
A method implemented in a network node , the method comprising: transmitting (S134) within a medium access control, MAC, control element, CE, message, to a wireless device, WD , an indication of a plurality K j of Transmission Configuration Indication, TCI, states that are mapped to a single codepoint, j, in a downlink control information, DCI, Transmission Configuration Indication, TCI, field, K j and j being integers; and transmitting (S136) within the MAC CE message, to the wireless device , the number K j of TCI states being mapped to the codepoint j and for each codepoint j in the plurality of codepoints, the number K j of TCI states has a value from a plurality of possible values. transmitting (S134) within a medium access control, MAC, control element, CE, message, to a wireless device, WD , an indication of a plurality K j of Transmission Configuration Indication, TCI, states that are mapped to a single codepoint, j, in a downlink control information, DCI, Transmission Configuration Indication, TCI, field, K j and j being integers; and transmitting (S136) within the MAC CE message, to the wireless device , the number K j of TCI states being mapped to the codepoint j and for each codepoint j in the plurality of codepoints, the number K j of TCI states has a value from a plurality of possible values.
A system, comprising: a movable circuit ; a plurality of extension modules coupled to the movable circuit , wherein each extension module of the plurality of extension modules comprises a respective walking segment , and wherein each extension module of the plurality of extension modules is configured to extend the respective walking segment away from the movable circuit ; and a controller configured to activate a set of extension modules of the plurality of extension modules to adjust a position of corresponding walking segments based on a position of a vehicle , wherein the corresponding walking segments are configured to substantially abut a surface of the vehicle to facilitate loading and unloading of passengers from the vehicle . a movable circuit ; a plurality of extension modules coupled to the movable circuit , wherein each extension module of the plurality of extension modules comprises a respective walking segment , and wherein each extension module of the plurality of extension modules is configured to extend the respective walking segment away from the movable circuit ; and a controller configured to activate a set of extension modules of the plurality of extension modules to adjust a position of corresponding walking segments based on a position of a vehicle , wherein the corresponding walking segments are configured to substantially abut a surface of the vehicle to facilitate loading and unloading of passengers from the vehicle .
A system comprising an AGV (Automated Guided Vehicle), an article , and a load carrier for transporting the article by the AGV, wherein the load carrier comprises a chassis on which wheels are mounted, a frame configured such that the article fits on the frame , characterized in that the load carrier further comprises a lift device being arranged to raise and lower the frame , which is arranged at the chassis , between a position in which the frame is close to, or at, a ground position and a raised position, wherein the load carrier is configured to allow the AGV to drive under the frame when the frame is in its raised position, wherein the AGV is configured to, when the frame is at the raised position, to lift the entire load carrier , including the article which is arranged on the frame , for further transport to a next destination.
A seal assembly for a turbine, the seal assembly comprising: a first seal portion comprising a plurality of seal bodies stacked to be spaced apart from each other; and a second seal portion comprising a plurality of seal bodies stacked to be spaced apart from each other, wherein ends of the seal bodies of the first seal portion are inserted between the seal bodies of the second seal portion such that each of the seal bodies of the first seal portion and each of the seal bodies of the second seal portion are stacked alternately and at least partially overlap each other to form an overlapping portion (O); characterized in that : at least one among the seal bodies has a thickness different from a thickness of another one among the seal bodies . a first seal portion comprising a plurality of seal bodies stacked to be spaced apart from each other; and a second seal portion comprising a plurality of seal bodies stacked to be spaced apart from each other, wherein ends of the seal bodies of the first seal portion are inserted between the seal bodies of the second seal portion such that each of the seal bodies of the first seal portion and each of the seal bodies of the second seal portion are stacked alternately and at least partially overlap each other to form an overlapping portion (O);
A SUR1 antagonist that blocks the NC Ca-ATP channel for use in (a) the prevention or treatment of neural cell swelling in the brain of a subject; (b) the alleviation of the negative effects of traumatic brain injury or cerebral ischemia stemming from neural cell swelling in a subject; (c) treating neural cell swelling in the brain of a subject having central or peripheral nervous system damage; or (d) treating neural cell swelling in the brain of a subject having bleeding in the brain.
A pharmaceutical composition comprising a substantially purified cyanogenic compound complexed with sodium thiosulfate or potassium thiosulfate, wherein the cyanogenic compound is a cyanogenic glycoside, cyanohydrin, or cyanolipid or a pharmaceutically acceptable salt, solvate, or hydrate thereof.
Boron nitride agglomerates comprising hexagonal boron nitride primary particles, wherein the hexagonal boron nitride primary particles are joined to one another by means of an inorganic binding phase, and wherein the binding phase comprises at least one nitride and/or oxynitride of the elements aluminum, silicon, and titanium.
A method for receiving a physical downlink control channel comprising: determining , by a terminal, a Physical Downlink Control Channel, PDCCH, or an enhanced Physical Downlink Control Channel, ePDCCH, to carry Downlink Control Information, DCI, in a radio frame in an unlicensed frequency band according to each candidate temporal position in a set of candidate temporal positions, and a set of candidate PDCCH or ePDCCH resource positions corresponding to each candidate temporal position, wherein each candidate temporal position specifies a start time at which a base station is able to transmit the PDCCH or ePDCCH in the radio frame; and receiving , by the terminal, the DCI in the determined PDCCH or ePDCCH; wherein determining, by the terminal, the PDCCH or ePDCCH to carry the DCI, in the radio frame according to each candidate temporal position, and the set of candidate PDCCH or ePDCCH resource positions corresponding to each candidate temporal position comprises: detecting, by the terminal, blindly at each candidate PDCCH or ePDCCH resource position in each set of candidate PDCCH or ePDCCH resource positions to determine the PDCCH or ePDCCH to carry the DCI, in the radio frame. determining , by a terminal, a Physical Downlink Control Channel, PDCCH, or an enhanced Physical Downlink Control Channel, ePDCCH, to carry Downlink Control Information, DCI, in a radio frame in an unlicensed frequency band according to each candidate temporal position in a set of candidate temporal positions, and a set of candidate PDCCH or ePDCCH resource positions corresponding to each candidate temporal position, wherein each candidate temporal position specifies a start time at which a base station is able to transmit the PDCCH or ePDCCH in the radio frame; and receiving , by the terminal, the DCI in the determined PDCCH or ePDCCH; wherein determining, by the terminal, the PDCCH or ePDCCH to carry the DCI, in the radio frame according to each candidate temporal position, and the set of candidate PDCCH or ePDCCH resource positions corresponding to each candidate temporal position comprises: detecting, by the terminal, blindly at each candidate PDCCH or ePDCCH resource position in each set of candidate PDCCH or ePDCCH resource positions to determine the PDCCH or ePDCCH to carry the DCI, in the radio frame.
A liquid polymerizable composition comprising: - a chain-growth polymerization dispersing monomer comprising one or two C=C bond(s), - inorganic nanoparticles dispersed therein; wherein said polymerizable composition further comprises a step-growth polymerization monomer system comprising a polyene monomer and a polythiol monomer. - a chain-growth polymerization dispersing monomer comprising one or two C=C bond(s), - inorganic nanoparticles dispersed therein;
A method for producing a replication defective virus in culture comprising: a. providing a cell comprising a nucleic acid encoding at least one recombinant protein, wherein the recombinant protein is required for replication of a replication defective virus and wherein the cell is a mammalian or avian cell; b. introducing a herpes simplex virus infected cell polypeptide zero ("ICPO") to the cell, thereby increasing the expression of the recombinant protein; c. introducing a replication defective virus to the cell, wherein the recombinant protein complements the replication defective virus in trans; and d. isolating the replication defective virus; wherein ICPO is introduced by transduction with a viral vector selected from retrovirus, lentivirus, adenovirus, and adeno-associated virus vectors. a. providing a cell comprising a nucleic acid encoding at least one recombinant protein, wherein the recombinant protein is required for replication of a replication defective virus and wherein the cell is a mammalian or avian cell; b. introducing a herpes simplex virus infected cell polypeptide zero ("ICPO") to the cell, thereby increasing the expression of the recombinant protein; c. introducing a replication defective virus to the cell, wherein the recombinant protein complements the replication defective virus in trans; and d. isolating the replication defective virus;
A compound as represented by formula (I), and a pharmaceutically acceptable salt thereof, wherein, R is H, formyl, aliphatic acyl, substituted or unsubstituted aromatic formyl, tetrahydropyranyl or trialkylsilicyl.
An exhaust aftertreatment unit for cleaning exhaust gases, the exhaust aftertreatment unit comprising: - an emission reducing module being a diesel particulate filter, DPF , and/or a diesel oxidation catalyst, DOC , - a selective catalyst reduction, SCR, catalyst , - an electrical heating element arranged upstream of the emission reducing module, - a casing housing at least the emission reducing module and the electrical heating element, and - a service lid removably arranged to cover a service opening of the casing through which the emission reducing module may be accessed, characterised in that the electrical heating element is arranged on an opposite side of the emission reducing module compared to the service lid, is removably arranged relative the casing and is arranged accessible upon removal of the service lid and the emission reducing module. - an emission reducing module being a diesel particulate filter, DPF , and/or a diesel oxidation catalyst, DOC , - a selective catalyst reduction, SCR, catalyst , - an electrical heating element arranged upstream of the emission reducing module, - a casing housing at least the emission reducing module and the electrical heating element, and - a service lid removably arranged to cover a service opening of the casing through which the emission reducing module may be accessed,
A computer-assisted medical device comprising: a first articulated arm , the first articulated arm configured to be coupled to an end effector , and having a first joint set and a second joint set; and a control unit , when coupled to the first articulated arm and a surgical table , is configured to: configure one or more joints in the first joint set to a floating mode; maintain an imaging coordinate frame in fixed relationship to a table top of the surgical table based on motion data received from the surgical table ; detect movement of the first joint set caused by a movement of a patient into which the end effector is inserted, the movement of the patient being due to a movement of the surgical table on which the patient is located; drive the second joint set based on the movement of the surgical table ; receive, from a user manipulating an input control , an instrument motion command to move the end effector while the surgical table is moving, the instrument motion command being relative to the imaging coordinate frame ; and move the end effector based on the instrument motion command. a first articulated arm , the first articulated arm configured to be coupled to an end effector , and having a first joint set and a second joint set; and a control unit , when coupled to the first articulated arm and a surgical table , is configured to: configure one or more joints in the first joint set to a floating mode; maintain an imaging coordinate frame in fixed relationship to a table top of the surgical table based on motion data received from the surgical table ; detect movement of the first joint set caused by a movement of a patient into which the end effector is inserted, the movement of the patient being due to a movement of the surgical table on which the patient is located; drive the second joint set based on the movement of the surgical table ; receive, from a user manipulating an input control , an instrument motion command to move the end effector while the surgical table is moving, the instrument motion command being relative to the imaging coordinate frame ; and move the end effector based on the instrument motion command. configure one or more joints in the first joint set to a floating mode; maintain an imaging coordinate frame in fixed relationship to a table top of the surgical table based on motion data received from the surgical table ; detect movement of the first joint set caused by a movement of a patient into which the end effector is inserted, the movement of the patient being due to a movement of the surgical table on which the patient is located; drive the second joint set based on the movement of the surgical table ; receive, from a user manipulating an input control , an instrument motion command to move the end effector while the surgical table is moving, the instrument motion command being relative to the imaging coordinate frame ; and move the end effector based on the instrument motion command.
A method comprising: in a system in which a cloud provider is configured to provide Software-as-a-Service offerings to multiple organizations, each organization to operate a distinct Infrastructure-as-a-Service, IaaS, platform and being associated with at least one distinct organization domain associated with the organization: deploying to each IaaS platform a cluster of software services, including communication services, operated by the cloud provider, each cluster being uniquely associated with the organization that operates that IaaS platform; provisioning users that belong to each organization on the cluster associated with that organization, wherein the provisioning includes storing user information for each user only on the associated cluster; and enabling users provisioned on different clusters to communicate with each other as if the users were part of a centralized cloud communication service by creating a globally accessible domain-to-cluster map to map each cluster to the organization domain uniquely associated therewith; and storing in each cluster a locally accessible user-to-cluster map to map that cluster to each user provisioned on that cluster. in a system in which a cloud provider is configured to provide Software-as-a-Service offerings to multiple organizations, each organization to operate a distinct Infrastructure-as-a-Service, IaaS, platform and being associated with at least one distinct organization domain associated with the organization: deploying to each IaaS platform a cluster of software services, including communication services, operated by the cloud provider, each cluster being uniquely associated with the organization that operates that IaaS platform; provisioning users that belong to each organization on the cluster associated with that organization, wherein the provisioning includes storing user information for each user only on the associated cluster; and enabling users provisioned on different clusters to communicate with each other as if the users were part of a centralized cloud communication service by deploying to each IaaS platform a cluster of software services, including communication services, operated by the cloud provider, each cluster being uniquely associated with the organization that operates that IaaS platform; provisioning users that belong to each organization on the cluster associated with that organization, wherein the provisioning includes storing user information for each user only on the associated cluster; and enabling users provisioned on different clusters to communicate with each other as if the users were part of a centralized cloud communication service by creating a globally accessible domain-to-cluster map to map each cluster to the organization domain uniquely associated therewith; and storing in each cluster a locally accessible user-to-cluster map to map that cluster to each user provisioned on that cluster.
Protector to mask floors, walls or other surfaces during painting or other surface treatment tasks, which comprises a protective element intended to mask and protect a surface , and at least one fixing element that enables the protector to be secured to the surface and which extends in a first direction, wherein - the protective element comprises a set of at least two sheets that are connected to the fixing element at a first peripheral side of said sheets and that have an opposing second peripheral side which remains free, - the sheets are arranged in parallel, and the sheets are arranged one on top of the other in a second direction when the fixing element is secured to the surface , and - the sheets are individually separable from the fixing element , characterised in that : - only one sheet is free of a pre-cut area , whereby this sheet is the one laid between the surface and the rest of the sheets when the fixing element is secured to this surface and the rest of the sheets have a pre-cut area which is located in an area adjacent to the first peripheral side and extends in said first direction. - the protective element comprises a set of at least two sheets that are connected to the fixing element at a first peripheral side of said sheets and that have an opposing second peripheral side which remains free, - the sheets are arranged in parallel, and the sheets are arranged one on top of the other in a second direction when the fixing element is secured to the surface , and - the sheets are individually separable from the fixing element , - only one sheet is free of a pre-cut area , whereby this sheet is the one laid between the surface and the rest of the sheets when the fixing element is secured to this surface and the rest of the sheets have a pre-cut area which is located in an area adjacent to the first peripheral side and extends in said first direction.
A protein having affinity for an immunoglobulin and having two or more domains represented by SEQ ID NOS: 4 to 6, wherein in an amino acid sequence of at least one domain of the domains, one or more lysines are included, and, when a sequence of 6 amino acid residues in total including one amino acid residue on the C-terminal side and 5 amino acid residues on the N-terminal side at a site where two domains are ligated is defined as a ligation site sequence, the C-terminal lysine and lysine at position 4 in at least one of the ligation site sequences are deleted or substituted.
A method for a station, STA, of a plurality of STAs, to receive a radio frame from an access point, AP, in a wireless local area network, WLAN, system, the method comprising: receiving, at the STA, the radio frame including a signaling field and a data field, the signaling field including a first signaling field, SIG A field, including common control information and a second signaling field, SIG B field, including user specific control information, and the second signaling field further including data transmission resource allocation information of each of the plurality of STAs; and processing, at the STA, the received radio frame, wherein, if the radio frame is received with a bandwidth of 80 MHz or 160 MHz, a first one of the data transmission resource allocation information received through a first 20 MHz band is independently configured from a second one of the data transmission resource allocation information received through a second 20 MHz band, wherein the first 20 MHz band and the second 20 MHz band are two contiguous 20 MHz bands, wherein the second signaling field received through a specific 20 MHz band includes data transmission resource allocation information for data received through the specific 20 MHz band, and wherein the second signaling field received through the specific 20 MHz band further includes data transmission resource allocation information for data received through another 20 MHz band which is non-contiguous to the specific 20 MHz band, if the radio frame is received with the bandwidth of 80 MHz or 160 MHz. receiving, at the STA, the radio frame including a signaling field and a data field, the signaling field including a first signaling field, SIG A field, including common control information and a second signaling field, SIG B field, including user specific control information, and the second signaling field further including data transmission resource allocation information of each of the plurality of STAs; and processing, at the STA, the received radio frame, wherein, if the radio frame is received with a bandwidth of 80 MHz or 160 MHz, a first one of the data transmission resource allocation information received through a first 20 MHz band is independently configured from a second one of the data transmission resource allocation information received through a second 20 MHz band, wherein the first 20 MHz band and the second 20 MHz band are two contiguous 20 MHz bands, wherein the second signaling field received through a specific 20 MHz band includes data transmission resource allocation information for data received through the specific 20 MHz band, and wherein the second signaling field received through the specific 20 MHz band further includes data transmission resource allocation information for data received through another 20 MHz band which is non-contiguous to the specific 20 MHz band, if the radio frame is received with the bandwidth of 80 MHz or 160 MHz.