mhurhangee/ep-ind-claims huggingface dataset:
A coaxial two-wheel vehicle including step portions (11L, 11R) on which feet of the passenger are placed and an operating portion capable of operating at least back-and-forth movements, to move with a passenger riding thereon characterized in that coaxial two-wheel vehicle comprises: a control device that executes a getting-off assist control to increase an inclination angle of each of the step portions with respect to a direction in which the passenger gets off the vehicle, when the passenger gets off the vehicle. a control device that executes a getting-off assist control to increase an inclination angle of each of the step portions with respect to a direction in which the passenger gets off the vehicle, when the passenger gets off the vehicle.
Locking device for a motor vehicle comprising: - a housing and a worm wheel cover - a blocking bolt for locking a steering wheel shaft in a steering wheel column, - in which the blocking bolt is movable between a first and a second position, - in which in the first position the blocking bolt is in blocking engagement with the steering wheel shaft, - in which in the second position the blocking bolt is disengaged from the steering wheel shaft and - in which a drive is provided moving the blocking bolt from the first into the second position wherein - a latching element for latching the blocking bolt and - mechanical activation means configured to activate the latching element comprising a trigger element are provided, wherein the latching element is a pin and an opening is provided in the blocking bolt for engagement with the pin and wherein the trigger element is provided to hold back the pin in an unlatched position against the pushing force of a pushing element and wherein the mechanical activation means activate the latching element if the housing and/or the worm wheel cover is manipulated, characterised in that the latching element is forced by the pushing element to move from the unlatched position to a latched position with the blocking bolt by movement of the trigger element in at least one of at least two different trigger directions (10, 11). - a housing and a worm wheel cover - a blocking bolt for locking a steering wheel shaft in a steering wheel column, - in which the blocking bolt is movable between a first and a second position, - in which in the first position the blocking bolt is in blocking engagement with the steering wheel shaft, - in which in the second position the blocking bolt is disengaged from the steering wheel shaft and - in which a drive is provided moving the blocking bolt from the first into the second position wherein - a latching element for latching the blocking bolt and - mechanical activation means configured to activate the latching element comprising a trigger element are provided,
An information display system for displaying scheduling information in regard of at least one resource in a scheduling system, said scheduling system comprising a scheduling server and wherein scheduling of said resource is controlled by said scheduling server, said information display system comprising at least one display device adapted to be, in use, associated with a first resource of said scheduling system for displaying scheduling information with regard to said first resource, said display device including means for, in use with a scheduling system, receiving and displaying scheduling information, said information display system further including a second entity, being different from said display device, characterized in that said display device and said second entity are adapted for exchanging data between said display device and said second entity by means of electronic mail (e-mail) messages.
A method for producing a drought tolerant plant or photosynthetic organism comprising: applying at least one treatment of an effective amount of trimethylamine N-oxide (TMAO), Trimethylamine N-oxide di-hydrate or N,N-Dimethyldecylamine N-oxide (DDAO) to a plant, plant part, photosynthetic organism or seed, wherein the effective amount of the TMAO, TMAO di-hydrate or DDAO is from 0.1 to 10 g per liter for spray or irrigation, or wherein the at least one treatment is a seed treatment and the effective amount of the TMAO, TMAO di-hydrate or DDAO is from 0.1 g to 1000 g per 100 kg of seed; and growing said plant, plant part, photosynthetic organism or seed, wherein a drought tolerant plant or photosynthetic organism is produced. applying at least one treatment of an effective amount of trimethylamine N-oxide (TMAO), Trimethylamine N-oxide di-hydrate or N,N-Dimethyldecylamine N-oxide (DDAO) to a plant, plant part, photosynthetic organism or seed, wherein the effective amount of the TMAO, TMAO di-hydrate or DDAO is from 0.1 to 10 g per liter for spray or irrigation, or wherein the at least one treatment is a seed treatment and the effective amount of the TMAO, TMAO di-hydrate or DDAO is from 0.1 g to 1000 g per 100 kg of seed; and growing said plant, plant part, photosynthetic organism or seed, wherein a drought tolerant plant or photosynthetic organism is produced.
Cable bushing for sealing and electrically contacting an exhaust-gas sensor, comprising a metal protective sleeve and comprising at least one connection cable, which is led out of the metal protective sleeve on at least one end face of the metal protective sleeve, characterized in that at least one cross section of the space located between the metal protective sleeve and the at least one connection cable is filled with a thermoplastically processable fluoropolymer-containing material, wherein an altogether material-bonded sealing takes place between the connection cable and the metal protective sleeve indirectly by the thermoplastically processable fluoropolymer-containing material.
A preparation method of a flame-retardant polyester fiber, comprising performing an esterification reaction of terephthalic acid, unsaturated dibasic acid and ethylene glycol; after the esterification reaction, adding a flame retardant 2-carboxyethylphenyl phosphinic acid; obtaining the polyester by polycondensation under a catalysis of a mixture of magnesium ethylene glycol and antimony ethylene glycol; preparing the polyester sections after granulation; obtaining the flame-retardant polyester fiber by metering, extrusion, cooling, oiling, stretching, heat setting, winding and UV irradiation on the polyester sections; wherein the formula of magnesium ethylene glycol is Mg(OCH 2 CH 2 OH 2) 2; wherein in said mixture of magnesium glycol and antimony ethylene glycol, a mass ratio of magnesium ethylene glycol to antimony ethylene glycol is 2 to 3:1.
A seed disc, comprising: a motor including a substantially stationary inner member and a rotatable outer member; and a substantially circular member operative attached to the motor such that rotation of the outer member rotates the circular member, characterized in that the circular member, the outer member, and the inner member are coaxial with one another. a motor including a substantially stationary inner member and a rotatable outer member; and a substantially circular member operative attached to the motor such that rotation of the outer member rotates the circular member, characterized in that the circular member, the outer member, and the inner member are coaxial with one another.
A method of making a microelectronic package comprising the steps of: positioning a sheet bearing a plurality of traces over an assemblage of a package substrate with conductive elements and a microelectronic element overlying the package substrate and electrically connected to the conductive elements so that portions of at least some of the traces extend over the microelectronic element and so that a surface of the sheet bearing the traces faces toward the package substrate; introducing a flowable composition between the sheet and the package substrate and around the microelectronic element so that the flowable composition partially surrounds the traces; curing the composition to form an overmold covering the microelectronic element and having a shape at least partially defined by the sheet; and removing the sheet so as to leave the traces extending over one or more surfaces of the overmold facing away from the package substrate, wherein the step of positioning the sheet includes positioning a first portion of the sheet and first portions of the traces on the first portion of the sheet extending over the microelectronic element and positioning a second portion of the sheet so that the second portion of the sheet and second portions of the traces on the second portion of the sheet extend from the first portion of the sheet toward the package substrate. positioning a sheet bearing a plurality of traces over an assemblage of a package substrate with conductive elements and a microelectronic element overlying the package substrate and electrically connected to the conductive elements so that portions of at least some of the traces extend over the microelectronic element and so that a surface of the sheet bearing the traces faces toward the package substrate; introducing a flowable composition between the sheet and the package substrate and around the microelectronic element so that the flowable composition partially surrounds the traces; curing the composition to form an overmold covering the microelectronic element and having a shape at least partially defined by the sheet; and removing the sheet so as to leave the traces extending over one or more surfaces of the overmold facing away from the package substrate, wherein the step of positioning the sheet includes positioning a first portion of the sheet and first portions of the traces on the first portion of the sheet extending over the microelectronic element and positioning a second portion of the sheet so that the second portion of the sheet and second portions of the traces on the second portion of the sheet extend from the first portion of the sheet toward the package substrate.
A continuous-loading sample processing system comprising: a sample input adapted to receive at least one sample container rack manually provided by a user; a consumable input (108, 112, 114) adapted to receive one or more unused consumable supplies manually provided by a user; a waste output adapted to receive used consumable supplies; an automated processing center, adapted to perform the concurrent processing of a plurality of sample containers of differing formats held by the at least one sample container rack, comprising: an uncapping and recapping station adapted to concurrently remove the caps from a plurality of sample containers and concurrently replace the caps on the plurality of sample containers provided in the at least one sample container rack, a multi-channel pipettor adapted to concurrently remove a specimen from a plurality of sample containers and transfer each specimen to an output vessel, and a sample output adapted to receive at least one output vessel and present the at least one output vessel to a user for manual removal. a sample input adapted to receive at least one sample container rack manually provided by a user; a consumable input (108, 112, 114) adapted to receive one or more unused consumable supplies manually provided by a user; a waste output adapted to receive used consumable supplies; an automated processing center, adapted to perform the concurrent processing of a plurality of sample containers of differing formats held by the at least one sample container rack, comprising: an uncapping and recapping station adapted to concurrently remove the caps from a plurality of sample containers and concurrently replace the caps on the plurality of sample containers provided in the at least one sample container rack, a multi-channel pipettor adapted to concurrently remove a specimen from a plurality of sample containers and transfer each specimen to an output vessel, and a sample output adapted to receive at least one output vessel and present the at least one output vessel to a user for manual removal. an uncapping and recapping station adapted to concurrently remove the caps from a plurality of sample containers and concurrently replace the caps on the plurality of sample containers provided in the at least one sample container rack, a multi-channel pipettor adapted to concurrently remove a specimen from a plurality of sample containers and transfer each specimen to an output vessel, and a sample output adapted to receive at least one output vessel and present the at least one output vessel to a user for manual removal.
Method for decentralised water heating via at least one heat transfer station (W1, W2), comprising a heat exchanger with primary-side connection to a heating circuit with flow and return line (2, 3), a cold water connection and a warm water connection (5, 5') to a consumer on the secondary side, having a hot water reservoir to be charged in particular via a solar circuit and to which the heating circuit is connected by a pump, and having a control apparatus which is configured to evaluate a flow temperature in the heating circuit and to process it to form an actuating signal for a mixer, the flow temperature in the heating circuit being regulated via the mixer, characterized in that the heat exchanger is a plate heat exchanger, in that the heating circuit has a proportional controller (6, 6') for setting the primary-side hot water volume to the warm water consumed volume recorded on the secondary side, and in that in addition the cold water temperature and the hot water temperature in the hot water reservoir in the heating circuit are measured, evaluated and processed in the control apparatus to form an actuating signal for the mixer.
A method for producing 2-halogenated benzoic acids comprising: reacting benzoic acids represented by Formula in Formula, R 1 and R 4 are hydrogen atoms, and one or two of R 2 and R 3 are an alkyl group having the carbon number of 1 to 18 and/or an alkoxy group having the carbon number of 1 to 18, while any of R 2 and R 3 other than the alkyl group having the carbon number of 1 to 18 or the alkoxy group having the carbon number of 1 to 18 is a hydrogen atom, with a halogenating agent selected from a group consisting of iodine, chlorine, bromine, bromine chloride (BrCl) and iodine bromide (IBr), by adding an aqueous solution of an alkaline compound, wherein the amount of the halogenating agent is 0.5 to 10 equivalents to one equivalent of the benzoic acid, and the amount of the alkaline compound is 0.2 equivalents or more to one equivalent of the benzoic acid and further 0.5 equivalents or more to one equivalent of the halogenating agent to be used.
A method of autonomously controlling movement of a plurality of delivery vehicles, comprising: generating, by a processor, a plurality of different routing passes for a set of orders to be delivered by the plurality of delivery vehicles according to a routing plan specifying a plurality of stops for each delivery vehicle to deliver the orders, each routing pass including a set of parameters having different values, using one or more business rules that describe a set of allowed values for one or more of the parameters; executing, by the processor, each of the plurality of routing passes on a routing platform configured to generate a routing plan for the plurality of delivery vehicles corresponding to a single routing pass for the set of orders, wherein executing each of the plurality of routing passes on the routing platform comprises concurrently executing multiple routing passes; applying, by the processor, a comparison rule set that assigns a score to each routing plan corresponding to a respective one of the plurality of routing passes; selecting, by the processor, one of the plurality of routing passes based on the score of the corresponding routing plan; and dispatching the selected routing pass via the routing platform for the set of orders. generating, by a processor, a plurality of different routing passes for a set of orders to be delivered by the plurality of delivery vehicles according to a routing plan specifying a plurality of stops for each delivery vehicle to deliver the orders, each routing pass including a set of parameters having different values, using one or more business rules that describe a set of allowed values for one or more of the parameters; executing, by the processor, each of the plurality of routing passes on a routing platform configured to generate a routing plan for the plurality of delivery vehicles corresponding to a single routing pass for the set of orders, wherein executing each of the plurality of routing passes on the routing platform comprises concurrently executing multiple routing passes; applying, by the processor, a comparison rule set that assigns a score to each routing plan corresponding to a respective one of the plurality of routing passes; selecting, by the processor, one of the plurality of routing passes based on the score of the corresponding routing plan; and dispatching the selected routing pass via the routing platform for the set of orders.
An uplink transmit power control method, wherein the method comprises: receiving, by a terminal device, control signaling sent by a radio access network device; learning, by the terminal device based on the control signaling, of a slot of power control information required by the terminal device to send an uplink physical channel; obtaining, by the terminal device in the slot of the power control information required for sending the uplink physical channel, the power control information required for sending the uplink physical channel, wherein the control signaling comprises indication information, the indication information comprises slot offset information, and the slot offset information is used to indicate an offset between the slot of the power control information required by the terminal device to send an uplink physical channel and a slot scheduled to the terminal device to send the uplink physical channel based on the power control information; and the learning, by the terminal device based on the control signaling, of the slot of power control information required by the terminal device to send the uplink physical channel comprises: learning, by the terminal device based on the slot offset information comprised in the control signaling, of the slot of the power control information required by the terminal device to send the uplink physical channel. receiving, by a terminal device, control signaling sent by a radio access network device; learning, by the terminal device based on the control signaling, of a slot of power control information required by the terminal device to send an uplink physical channel; obtaining, by the terminal device in the slot of the power control information required for sending the uplink physical channel, the power control information required for sending the uplink physical channel, wherein the control signaling comprises indication information, the indication information comprises slot offset information, and the slot offset information is used to indicate an offset between the slot of the power control information required by the terminal device to send an uplink physical channel and a slot scheduled to the terminal device to send the uplink physical channel based on the power control information; and the learning, by the terminal device based on the control signaling, of the slot of power control information required by the terminal device to send the uplink physical channel comprises: learning, by the terminal device based on the slot offset information comprised in the control signaling, of the slot of the power control information required by the terminal device to send the uplink physical channel.
A relay apparatus for relaying packets between first devices and a second device, the relay apparatus being connected, via a network, to one or a plurality of base relay apparatuses arranged within a base network, the first devices having a communication function within the base network and the second device having a communication function outside of the base network, the relay apparatus comprising: a communication unit configured to transmit and receive a packet; and a relay processing unit configured to relay the received packet to the base relay apparatus in accordance with a downstream conversion rule, wherein upon receipt of the packet addressed to a virtual Internet Protocol, IP, address assigned to each of the first devices from a second device; the relay processing unit configured to identify an IP address of the base relay apparatus that accommodates the first device, to which the virtual IP address is assigned, on the basis of the virtual IP address, a protocol type of the received packet and the downstream conversion rule, and also to identify a reception port number of the base relay apparatus, on the basis of the virtual IP address, the protocol type of the received packet and the downstream conversion rule; and the relay processing unit configured to rewrite the packet header of the received packet with the identified IP address and the identified reception port number of the base relay apparatus and to relay the received packet to the identified base relay apparatus, wherein the identified base relay apparatus identifies a transfer destination and a protocol type on the basis of identified reception port number which is assigned to a target first device. a communication unit configured to transmit and receive a packet; and a relay processing unit configured to relay the received packet to the base relay apparatus in accordance with a downstream conversion rule, wherein upon receipt of the packet addressed to a virtual Internet Protocol, IP, address assigned to each of the first devices from a second device; the relay processing unit configured to identify an IP address of the base relay apparatus that accommodates the first device, to which the virtual IP address is assigned, on the basis of the virtual IP address, a protocol type of the received packet and the downstream conversion rule, and also to identify a reception port number of the base relay apparatus, on the basis of the virtual IP address, the protocol type of the received packet and the downstream conversion rule; and the relay processing unit configured to rewrite the packet header of the received packet with the identified IP address and the identified reception port number of the base relay apparatus and to relay the received packet to the identified base relay apparatus, wherein the identified base relay apparatus identifies a transfer destination and a protocol type on the basis of identified reception port number which is assigned to a target first device.
A flange connection between a first duct and a second duct of an engine, comprising a first flange located on one end of said first duct, a second flange located on one end of said second duct and connecting means (32, 33) for axially tightening the first and second abutting flanges (11, 21), characterized in that the flange connection comprises first sealing means for radially sealing said flange connection and interface means (50, 60) configured to be mounted on said first flange and to come into contact with the abutting face of said second flange, said interface means (50, 60) comprising second sealing means for axially sealing said flange connection.