mhurhangee/patent-ind-claim-en huggingface dataset:
A vehicle comprising: an engine ; a first electric power generation device including a rotating electric machine connected to a crankshaft of the engine, the first electric power generation device being configured to produce an accessory voltage according to a first instruction voltage, using torque that the rotating electric machine receives from the crankshaft and characterised by a second electric power generation device configured to produce the accessory voltage according to a second instruction voltage using a voltage source different from the rotating electric machine without using the torque of the crankshaft, wherein the accessory voltage is set in accordance with a higher voltage out of the first instruction voltage and the second instruction voltage; and an electric control unit configured to execute crank position stop control for stopping a crank of the engine at a target position when the engine is stopped by controlling the first electric power generation device such that a current is circulated in the first electric power generation device and the rotating electric machine generates braking torque, wherein the electric control unit is configured to execute the crank position stop control in a state in which the second instruction voltage is equal to or higher than the first instruction voltage. an engine ; a first electric power generation device including a rotating electric machine connected to a crankshaft of the engine, the first electric power generation device being configured to produce an accessory voltage according to a first instruction voltage, using torque that the rotating electric machine receives from the crankshaft and characterised by a second electric power generation device configured to produce the accessory voltage according to a second instruction voltage using a voltage source different from the rotating electric machine without using the torque of the crankshaft, wherein the accessory voltage is set in accordance with a higher voltage out of the first instruction voltage and the second instruction voltage; and an electric control unit configured to execute crank position stop control for stopping a crank of the engine at a target position when the engine is stopped by controlling the first electric power generation device such that a current is circulated in the first electric power generation device and the rotating electric machine generates braking torque, wherein the electric control unit is configured to execute the crank position stop control in a state in which the second instruction voltage is equal to or higher than the first instruction voltage.
A damping system for a mounting for a cabin , in particular of an agricultural vehicle, having at least two bearings , wherein each bearing has a respective first damping means for damping a vertical movement, wherein each bearing has in particular precisely one lower connecting element and one upper connecting element for connection to a cabin , wherein the lower and the upper connecting element of a bearing are respectively connected together so as to be movable relative to each other by means of the first damping means , and in that at least one connecting element of a bearing has a second damping means for damping vibrations, wherein the second damping means is disposed on a substantially flat mounting surface disposed on the underside of the lower connecting element , wherein the bearing has an adapter plate for connection to a chassis , wherein the adapter plate is disposed on the underside of the lower connecting element by means of fastening means , characterized in that the second damping element is disposed between the lower connecting element and the adapter plate , wherein the second damping means is constructed from multiple parts and has a plurality of damping elements , each of which is associated with a fastening means .
A method for transmitting a dataset (S1) stored in a first format in a source data store to a destination data store requiring a different format meeting a specified schema, wherein the dataset (S1) comprises a finite collection of data records, the method comprising: splitting the dataset (S1) into a plurality of data chunks (S1C1, S1C2, S1C3, S1CN) in the source data store , wherein the plurality of data chunks (S1C1, S1C2, S1C3, S1CN) are in the first format and are of a fixed size and wherein each data chunk (S1C1, S1C2, S1C3, S1CN) of the plurality of data chunks (S1C1, S1C2, S1C3, S1CN) comprises a memory fragment of the dataset (S1); extracting the plurality of data chunks (S1C1, S1C2, S1C3, S1CN) from the source data store ; performing at least one upsert operation on each of the plurality of data chunks (S1C1, S1C2, S1C3, S1CN), the at least one upsert operation comprising converting the first format to a schema compatible with a destination data store ; executing a first attempt to transfer the upserted data chunks to the destination data store ; determining that at least one of the upserted data chunks has failed to transfer to the destination data store ; storing the at least one failed data chunk in a failed chunk retry data store ; performing the at least one upsert operation on the at least one failed data chunk; and executing a second attempt to transfer the at least one failed data chunk to the destination data store . splitting the dataset (S1) into a plurality of data chunks (S1C1, S1C2, S1C3, S1CN) in the source data store , wherein the plurality of data chunks (S1C1, S1C2, S1C3, S1CN) are in the first format and are of a fixed size and wherein each data chunk (S1C1, S1C2, S1C3, S1CN) of the plurality of data chunks (S1C1, S1C2, S1C3, S1CN) comprises a memory fragment of the dataset (S1); extracting the plurality of data chunks (S1C1, S1C2, S1C3, S1CN) from the source data store ; performing at least one upsert operation on each of the plurality of data chunks (S1C1, S1C2, S1C3, S1CN), the at least one upsert operation comprising converting the first format to a schema compatible with a destination data store ; executing a first attempt to transfer the upserted data chunks to the destination data store ; determining that at least one of the upserted data chunks has failed to transfer to the destination data store ; storing the at least one failed data chunk in a failed chunk retry data store ; performing the at least one upsert operation on the at least one failed data chunk; and executing a second attempt to transfer the at least one failed data chunk to the destination data store .
A device for the alignment of a first wafer with a second wafer with the following features: - a device of the acquisition of position and/or strain maps of the first and/or second wafer as well as for ascertaining local alignment errors which have occurred due to the strain and/or distortion of the first wafer with respect to the second wafer during the joining of the first wafer with the second wafer, - at least one supporting device for supporting and holding wafers with: a) a holding surface , b) holding means for holding the wafer on the holding surface and c) compensation means for the active, at least partial compensation, controllable by temperature and/or shape, of local and/or global distortions of the wafer for the in-situ correction of the alignment errors during the contacting and bonding of the wafers, - alignment means for the alignment of wafers using compensation by the compensation means, - checking means for checking the alignment success and means for self-calibration by means of the acquired data. - a device of the acquisition of position and/or strain maps of the first and/or second wafer as well as for ascertaining local alignment errors which have occurred due to the strain and/or distortion of the first wafer with respect to the second wafer during the joining of the first wafer with the second wafer, - at least one supporting device for supporting and holding wafers with: a) a holding surface , b) holding means for holding the wafer on the holding surface and c) compensation means for the active, at least partial compensation, controllable by temperature and/or shape, of local and/or global distortions of the wafer for the in-situ correction of the alignment errors during the contacting and bonding of the wafers, a) a holding surface , b) holding means for holding the wafer on the holding surface and c) compensation means for the active, at least partial compensation, controllable by temperature and/or shape, of local and/or global distortions of the wafer for the in-situ correction of the alignment errors during the contacting and bonding of the wafers, - alignment means for the alignment of wafers using compensation by the compensation means, - checking means for checking the alignment success and means for self-calibration by means of the acquired data.
A method for routing Diameter messages, the method comprising: determining, by a Diameter node comprising at least one processor , a Diameter Routing Message Priority, DRMP, priority value for a Diameter message; characterised by marking, by the Diameter node, each of one or more Internet protocol, IP, packets carrying the Diameter message with an IP quality of service, QoS, value for the Diameter message based on the DRMP priority value; sending, by the Diameter node, the one or more IP packets carrying the Diameter message to a destination Diameter node by way of an IP router on a data communications network providing quality of service using IP QoS values; and determining a subscriber identifier for a telecommunications network associated with the Diameter message and determining the IP QoS value for the Diameter message by mapping the DRMP priority value to the IP QoS value using a mapping, supplied by an operator of an LTE and/or IMS network, for a service plan for the subscriber identifier. determining, by a Diameter node comprising at least one processor , a Diameter Routing Message Priority, DRMP, priority value for a Diameter message; characterised by marking, by the Diameter node, each of one or more Internet protocol, IP, packets carrying the Diameter message with an IP quality of service, QoS, value for the Diameter message based on the DRMP priority value; sending, by the Diameter node, the one or more IP packets carrying the Diameter message to a destination Diameter node by way of an IP router on a data communications network providing quality of service using IP QoS values; and determining a subscriber identifier for a telecommunications network associated with the Diameter message and determining the IP QoS value for the Diameter message by mapping the DRMP priority value to the IP QoS value using a mapping, supplied by an operator of an LTE and/or IMS network, for a service plan for the subscriber identifier.
A metal-ligand complex of formula (I): wherein: M is a hafnium in a formal oxidation state of +3 or +4; n is an integer from 1 to 5; each X independently is a monodentate ligand that is neutral, monoanionic, or dianionic; or two X are taken together to form a bidentate ligand that is neutral, monoanionic, or dianionic; X and n are chosen in such a way that the metal-ligand complex of formula (I) is, in aggregate, neutral; R 1 is (C 1 -C 40 )hydrocarbyl, (C 1 -C 40 )heterohydrocarbyl, (C 1 -C 40 )hydrocarby1-O-, or halogen atom; each of R 2 to R 6 independently is a hydrogen atom, (C 1 -C 40 )hydrocarbyl, (C 1 -C 40 )heterohydrocarbyl, (C 1 -C 40 )hydrocarbyl-O-, or halogen atom; R 7 is a (C 1 -C 40 )hydrocarbyl or (C 1 -C 40 )heterohydrocarbyl; or one X, when a monodentate ligand, is taken together with any one of R 1 to R 7 in such a way so that the metal-ligand complex of formula (I) contains a tridentate ligand; each of the aforementioned hydrocarbyl and heterohydrocarbyl independently is unsubstituted or substituted with one or more substituents R s ; and each R S independently is a halogen atom, polyfluoro, perfluoro, unsubstituted (C 1 -C 18 )alkyl, F 3 C-, FCH 2 O-, F 2 HCO-, F 3 CO-, R 3 Si-, RO-, RS-, RS(O)-, RS(O) 2 -, R 2 P-, R 2 N-, R 2 C=N-, NC-, RC(O)O-, ROC(O)-, RC(O)N(R)-, or R 2 NC(O)-, wherein each R independently is an unsubstituted (C 1 -C 18 )alkyl. M is a hafnium in a formal oxidation state of +3 or +4; n is an integer from 1 to 5; each X independently is a monodentate ligand that is neutral, monoanionic, or dianionic; or two X are taken together to form a bidentate ligand that is neutral, monoanionic, or dianionic; X and n are chosen in such a way that the metal-ligand complex of formula (I) is, in aggregate, neutral; R 1 is (C 1 -C 40 )hydrocarbyl, (C 1 -C 40 )heterohydrocarbyl, (C 1 -C 40 )hydrocarby1-O-, or halogen atom; each of R 2 to R 6 independently is a hydrogen atom, (C 1 -C 40 )hydrocarbyl, (C 1 -C 40 )heterohydrocarbyl, (C 1 -C 40 )hydrocarbyl-O-, or halogen atom; R 7 is a (C 1 -C 40 )hydrocarbyl or (C 1 -C 40 )heterohydrocarbyl; or one X, when a monodentate ligand, is taken together with any one of R 1 to R 7 in such a way so that the metal-ligand complex of formula (I) contains a tridentate ligand; each of the aforementioned hydrocarbyl and heterohydrocarbyl independently is unsubstituted or substituted with one or more substituents R s ; and each R S independently is a halogen atom, polyfluoro, perfluoro, unsubstituted (C 1 -C 18 )alkyl, F 3 C-, FCH 2 O-, F 2 HCO-, F 3 CO-, R 3 Si-, RO-, RS-, RS(O)-, RS(O) 2 -, R 2 P-, R 2 N-, R 2 C=N-, NC-, RC(O)O-, ROC(O)-, RC(O)N(R)-, or R 2 NC(O)-, wherein each R independently is an unsubstituted (C 1 -C 18 )alkyl.
A thin film transistor substrate, comprising: a plurality of pixel areas (PA) disposed in a matrix manner on a substrate (SUB), each pixel area including an aperture area (AP) and a non-aperture area (NP); a first color filter (CF) and a second color filter (CF) stacked at the non-aperture area on the substrate; an overcoat layer (OC) disposed on the first color filter and the second color filter; a semiconductor layer (A) disposed at the non-aperture area and on the overcoat layer; a gate insulating layer (GI) and a gate electrode (G) stacked on a middle portion of the semiconductor layer; a third color filter (CF) at the non-aperture area on the semiconductor layer and the gate electrode; and a source electrode (S) and a drain electrode (D) disposed on the third color filter. a plurality of pixel areas (PA) disposed in a matrix manner on a substrate (SUB), each pixel area including an aperture area (AP) and a non-aperture area (NP); a first color filter (CF) and a second color filter (CF) stacked at the non-aperture area on the substrate; an overcoat layer (OC) disposed on the first color filter and the second color filter; a semiconductor layer (A) disposed at the non-aperture area and on the overcoat layer; a gate insulating layer (GI) and a gate electrode (G) stacked on a middle portion of the semiconductor layer; a third color filter (CF) at the non-aperture area on the semiconductor layer and the gate electrode; and a source electrode (S) and a drain electrode (D) disposed on the third color filter.
A molding element for a mold used for manufacturing a tread of a tire having a plurality of contacting elements delimited by a plurality of grooves , the molding element having a molding surface for forming a contact face of the contacting elements intended to come into contact with ground during rolling and a groove forming rib portion for forming the groove between adjacent contacting elements comprising two opposed rib side faces for forming two opposed groove side faces and a rib top face connecting two rib side faces for forming a groove bottom , the groove forming rib portion comprising at least one space of a depth Ls opening to at least one of the rib side faces and/or to the rib top face and an insert being received in the space for forming a portion of the groove and a closing device in the groove , the molding element being characterized in that the insert comprises at least two slits , at least one slit opening to one of insert side faces for forming at least one second flexible fence and another slit opening to an insert top face for forming a first flexible fence , wherein the insert is received in the space together with at least one spacer , the insert and the spacer before being received into the space having a total thickness Li , wherein the spacer has at least two surfaces intended to be in contact with the insert and/or a face of the groove forming rib portion defining the space , and wherein the spacer has no communication with the slits in the insert for forming the first flexible fence and the second flexible fence of the closing device .
A method of reporting channel information by a station, STA, in a wireless local area network, WLAN, system, the method comprising: receiving a null data packet announcement, NDP-A, frame from a first access point, AP; upon determining that the NDP-A frame is for joint transmission of a plurality of APs, measuring a channel for the first AP which has transmitted the NDP-A frame and a channel for at least one second AP channel which has not transmitted the NDP-A frame; transmitting channel information for the plurality of APs, which has been acquired based on a result of the channel measurement, to the first AP; and wherein if the NDP-A frame is for the joint transmission, the STA acquires the channel information for the plurality of APs through a plurality of null data packet, NDP, frames received from the plurality of APs after receiving the NDP-A frame one time, wherein the plurality of NDP frames are received simultaneously from the plurality of APs after a short inter-frame space, SIFS, from the NDP-A reception, wherein the NDP-A frame comprises at least one of an STA information field including an identifier of the STA, a joint transmission indicator including information on whether the NDP-A frame is for the joint transmission of the plurality of APs, an antenna configuration field, and a number of spatial streams, wherein the antenna configuration field comprises the number of transmission antennas for all of the plurality of APs, and the number of spatial streams includes the number of spatial streams for all of the plurality of APs. receiving a null data packet announcement, NDP-A, frame from a first access point, AP; upon determining that the NDP-A frame is for joint transmission of a plurality of APs, measuring a channel for the first AP which has transmitted the NDP-A frame and a channel for at least one second AP channel which has not transmitted the NDP-A frame; transmitting channel information for the plurality of APs, which has been acquired based on a result of the channel measurement, to the first AP; and wherein if the NDP-A frame is for the joint transmission, the STA acquires the channel information for the plurality of APs through a plurality of null data packet, NDP, frames received from the plurality of APs after receiving the NDP-A frame one time, wherein the plurality of NDP frames are received simultaneously from the plurality of APs after a short inter-frame space, SIFS, from the NDP-A reception, wherein the NDP-A frame comprises at least one of an STA information field including an identifier of the STA, a joint transmission indicator including information on whether the NDP-A frame is for the joint transmission of the plurality of APs, an antenna configuration field, and a number of spatial streams, wherein the antenna configuration field comprises the number of transmission antennas for all of the plurality of APs, and the number of spatial streams includes the number of spatial streams for all of the plurality of APs.
A method of controlling a primary device to perform an activity comprising: concurrently detecting multiple unique device identifiers (UDIDs) in proximity of the primary device by detecting the multiple UDIDs in a particular order defined by a user-configurable activity association list on the primary device; determining that the multiple UDIDs are associated with the primary device activity; performing the activity when the UDIDs are detected in the particular order and while the concurrent detection of the multiple UDIDs persists; and stopping the activity when the concurrent detection of the multiple UDIDs stops. concurrently detecting multiple unique device identifiers (UDIDs) in proximity of the primary device by detecting the multiple UDIDs in a particular order defined by a user-configurable activity association list on the primary device; determining that the multiple UDIDs are associated with the primary device activity; performing the activity when the UDIDs are detected in the particular order and while the concurrent detection of the multiple UDIDs persists; and stopping the activity when the concurrent detection of the multiple UDIDs stops.
A head assembly for a crash test dummy comprising: a skull ; and a head skin disposed over said skull ; characterized in that the head assembly further comprises a facial insert disposed between said skull and said head skin and having a plurality of defined cell structures to achieve a biomechanical response that provides for evaluation of potential head injuries during vehicle crash testing. a skull ; and a head skin disposed over said skull ; characterized in that the head assembly further comprises a facial insert disposed between said skull and said head skin and having a plurality of defined cell structures to achieve a biomechanical response that provides for evaluation of potential head injuries during vehicle crash testing.
Method for manufacturing lamella packets for rotors and/or stators of electric motors or generators, in which lamellae are punched out of an electric strip by means of a punching tool located in a punching device , wherein the punching device is connected to a controller , which is used to control the punching stroke, wherein an adhesive is applied to at least one side of the lamella, and the lamellae are stacked into a lamella packet, wherein the adhesive is supplied to a valve tappet of a valve of an application unit from a storage tank via a feed line , wherein the valve tappet is used to apply the adhesive, and wherein the feed line extends up to the valve tappet, wherein the lamellae lying one on top of the other in the lamella stack are connected with each other by the adhesive, characterized in that the adhesive used is an adhesive that can be activated with light of a required wavelength coming from a radiation source, wherein the adhesive is irradiated with this light immediately before exiting the application unit , and activated with this light, wherein the radiation source is designed with a maximum exposure path in relation to the longitudinal direction of the feed line , wherein the feed line is permeable to the radiation emitted by the radiation source in the area of this exposure path , wherein the exposure path can be shortened by putting an aperture that is impermeable to the radiation emanating from the radiation source between the feed line and the radiation source , so that the radiation falls on the adhesive only in the area not covered by the aperture , wherein the aperture is displaceable.
A nanolipogel comprising a polymeric matrix core formed from one or more polymers or copolymers and a lipid shell; wherein the polymeric matrix core has at least one host molecule dispersed therein or covalently bound thereto, which host molecule is reversibly associated with a first active agent; and wherein the nanolipogel includes at least one additional active agent which is encapsulated within, dispersed within or associated with the surface of the nanolipogel; for controlled release of said first active agent and said at least one additional active agent from the nanolipogel. a polymeric matrix core formed from one or more polymers or copolymers and a lipid shell; wherein the polymeric matrix core has at least one host molecule dispersed therein or covalently bound thereto, which host molecule is reversibly associated with a first active agent; and wherein the nanolipogel includes at least one additional active agent which is encapsulated within, dispersed within or associated with the surface of the nanolipogel; for controlled release of said first active agent and said at least one additional active agent from the nanolipogel.