mhurhangee/patent-ind-claim-en huggingface dataset:
A system for automatically closing a trunk lid of a vehicle, the system comprising: a trunk sensor system configured for detecting items (23-26) in a luggage trunk , a trunk lid actuator for automatic closing of the trunk lid , a control unit connected to the trunk sensor system and to the trunk lid actuator , wherein said control unit is arranged for: statistically determining, based on a set of observations of a trunk interior space by means of the trunk sensor system in connection with termination of a set of vehicle travels, one or more items (23-26) or combination of items (23-26) that are frequently remaining in the luggage trunk after completed travel, while preferably taking into account the one or more items (23-26) stored in the luggage trunk during the travel, detecting opening of the trunk lid , detecting current items (23-26) in the luggage trunk by means of the trunk sensor system , and controlling the trunk lid actuator for automatic closing of the trunk lid when the current items (23-26) correspond to said one or more items (23-26) or combination of items (23-26) that are frequently remaining in the luggage trunk after a journey. a trunk sensor system configured for detecting items (23-26) in a luggage trunk , a trunk lid actuator for automatic closing of the trunk lid , a control unit connected to the trunk sensor system and to the trunk lid actuator , wherein said control unit is arranged for: statistically determining, based on a set of observations of a trunk interior space by means of the trunk sensor system in connection with termination of a set of vehicle travels, one or more items (23-26) or combination of items (23-26) that are frequently remaining in the luggage trunk after completed travel, while preferably taking into account the one or more items (23-26) stored in the luggage trunk during the travel, detecting opening of the trunk lid , detecting current items (23-26) in the luggage trunk by means of the trunk sensor system , and controlling the trunk lid actuator for automatic closing of the trunk lid when the current items (23-26) correspond to said one or more items (23-26) or combination of items (23-26) that are frequently remaining in the luggage trunk after a journey. statistically determining, based on a set of observations of a trunk interior space by means of the trunk sensor system in connection with termination of a set of vehicle travels, one or more items (23-26) or combination of items (23-26) that are frequently remaining in the luggage trunk after completed travel, while preferably taking into account the one or more items (23-26) stored in the luggage trunk during the travel, detecting opening of the trunk lid , detecting current items (23-26) in the luggage trunk by means of the trunk sensor system , and controlling the trunk lid actuator for automatic closing of the trunk lid when the current items (23-26) correspond to said one or more items (23-26) or combination of items (23-26) that are frequently remaining in the luggage trunk after a journey.
A system for the deployment of seismic nodes on the seabed, comprising a deployment cable ; a plurality of seismic nodes directly attached to the deployment cable ; a surface vessel (106; 710; 810) configured to deploy the plurality of seismic nodes in a body of water; at least one underwater vehicle (300; 400; 560; 760; 860; 960) comprising a propulsion system (304; 418) configured to steer and propel the vehicle in a body of water, said deployment cable with said plurality of seismic nodes being configured to be tethered to said surface vessel (106; 710; 810) and deployed into said body of water from said surface vessel (106; 710; 810), characterized in that the underwater vehicle further comprises an automatic tracking system (310; 422; 522, 522b; 610) comprising a node tracking system configured to determine a node position of each of the plurality of seismic nodes, to track the position of each of the plurality of seismic nodes during deployment to the seabed and to monitor a touchdown position of each of the plurality of seismic nodes; and a communications system (330; 410) configured to communicate at least one position of each of the plurality of seismic nodes with the surface vessel, and in that the surface vessel (106; 710; 810) is configured to modify the deployment of the plurality of seismic nodes based on at least one the positions of one or more of the plurality of seismic nodes received from the underwater vehicle. a communications system (330; 410) configured to communicate at least one position of each of the plurality of seismic nodes with the surface vessel, and in that the surface vessel (106; 710; 810) is configured to modify the deployment of the plurality of seismic nodes based on at least one the positions of one or more of the plurality of seismic nodes received from the underwater vehicle.
A method for communication between a target person and a packet reception person , wherein a package is addressed to the target person and accepted by the packet reception person for safekeeping from a delivery agent , the package comprising an identification means ; characterized in that the method comprises the following steps: a. Capturing the identification means using a capture device of a first mobile device associated with the packet reception person , wherein the identification means includes communication information, and the communication information comprises information about establishing a connection to a server device , such that the first mobile device knows the necessary information for communication with the server device ; b. Generating a communication dataset by the first mobile device ; c. Transmitting the communication dataset to the server device based on the communication information; d. Storing the communication dataset in the server device ; e. Querying the server device using a second mobile device associated with the target person ; f. Transmitting the communication dataset to the second mobile device . a. Capturing the identification means using a capture device of a first mobile device associated with the packet reception person , wherein the identification means includes communication information, and the communication information comprises information about establishing a connection to a server device , such that the first mobile device knows the necessary information for communication with the server device ; b. Generating a communication dataset by the first mobile device ; c. Transmitting the communication dataset to the server device based on the communication information; d. Storing the communication dataset in the server device ; e. Querying the server device using a second mobile device associated with the target person ; f. Transmitting the communication dataset to the second mobile device .
A method of distributed fuel control for an aircraft engine comprising: determining, by a controller for distributed fuel control comprising a processor and a tangible, non-transitory memory, a desired fuel pressure differential; directing, by the controller , a torque motor to set a pressure regulator to a position corresponding to the desired fuel pressure differential; determining, by the controller , a sensed fuel pressure differential; characterized in that the fuel pressure differential is based on a diffuser pressure sense signal data and a manifold pressure sense signal data , wherein the manifold pressure sense signal data is a pressure within manifold and the diffuser pressure sense signal data is a pressure within the diffuser; adjusting, by the controller , the torque motor in response to a difference between the sensed fuel pressure differential and the desired fuel pressure differential. determining, by a controller for distributed fuel control comprising a processor and a tangible, non-transitory memory, a desired fuel pressure differential; directing, by the controller , a torque motor to set a pressure regulator to a position corresponding to the desired fuel pressure differential; determining, by the controller , a sensed fuel pressure differential; characterized in that the fuel pressure differential is based on a diffuser pressure sense signal data and a manifold pressure sense signal data , wherein the manifold pressure sense signal data is a pressure within manifold and the diffuser pressure sense signal data is a pressure within the diffuser; adjusting, by the controller , the torque motor in response to a difference between the sensed fuel pressure differential and the desired fuel pressure differential.
A system for the temperature regulation of a building , comprising an interior and a walling facing the interior , as well as a building insulation at least partly surrounding the walling , and an outer shell which closes off the building to the outside, wherein the system further comprises at least one first pipe system which is attached between the building insulation and the outer shell , as well as at least one second pipe system which is attached between the building insulation and the walling , wherein the two pipe systems are connected into a circuit , in which a fluid can circulate, characterised in that the first pipe system is attached in the building insulation in a manner directly adjacent to the outer shell , and/or that the second pipe system is attached in the building insulation in a manner directly adjacent to the walling or in the walling in a manner directly adjacent to the building insulation , so that no walling lies between the pipe systems .
An antimicrobial amino acid sequence which is 18-21 amino acids long and comprises, at its N-terminus, SEQ ID NO: 1 (KWCFRVCYRGICYRRCRD) or SEQ ID NO: 29 (PKWCFRVCYRGICYRRCRD) or a peptide that differs from SEQ ID NO: 1 or SEQ ID NO: 29 by one, two, three, or four amino acids, wherein the amino acids differing from the amino acids of SEQ ID NO: 1 or SEQ ID NO: 29 are independently selected from the group consisting of arginine or glycine at position corresponding to position 1 of SEQ ID NO: 1; phenylalanine or arginine at position corresponding to position 2 of SEQ ID NO: 1; valine or tryptophan at position corresponding to position 4 of SEQ ID NO: 1; tyrosine at position corresponding to position 5 of SEQ ID NO: 1; arginine at position corresponding to position 8 of SEQ ID NO: 1; glycine at position corresponding to position 9 of SEQ ID NO: 1; arginine at position corresponding to position 10 of SEQ ID NO: 1; alanine, phenylalanine, or valine at position corresponding to position 11 of SEQ ID NO: 1; histidine at position corresponding to position 14 of SEQ ID NO: 1; lysine at position corresponding to position 15 of SEQ ID NO: 1; asparagine at position corresponding to position 17 of SEQ ID NO: 1 arginine or glycine at position corresponding to position 1 of SEQ ID NO: 1; phenylalanine or arginine at position corresponding to position 2 of SEQ ID NO: 1; valine or tryptophan at position corresponding to position 4 of SEQ ID NO: 1; tyrosine at position corresponding to position 5 of SEQ ID NO: 1; arginine at position corresponding to position 8 of SEQ ID NO: 1; glycine at position corresponding to position 9 of SEQ ID NO: 1; arginine at position corresponding to position 10 of SEQ ID NO: 1; alanine, phenylalanine, or valine at position corresponding to position 11 of SEQ ID NO: 1; histidine at position corresponding to position 14 of SEQ ID NO: 1; lysine at position corresponding to position 15 of SEQ ID NO: 1; asparagine at position corresponding to position 17 of SEQ ID NO: 1
A method for injecting a depolluting product into a soil, in which: an installation is provided which comprises an auger comprising a hollow core having a longitudinal axis and a helical coil surrounding the hollow core, the auger rotating about the longitudinal axis, the installation further comprising an injection nozzle connected to a device for supplying depolluting product; the auger is screwed into the soil in a substantially vertical direction of introduction; then an auger raising step is carried out during which the auger is unscrewed while injecting the depolluting product into the ground so as to form a helical strip (Z) of depolluting product extending around the longitudinal axis (A). an installation is provided which comprises an auger comprising a hollow core having a longitudinal axis and a helical coil surrounding the hollow core, the auger rotating about the longitudinal axis, the installation further comprising an injection nozzle connected to a device for supplying depolluting product; the auger is screwed into the soil in a substantially vertical direction of introduction; then an auger raising step is carried out during which the auger is unscrewed while injecting the depolluting product into the ground so as to form a helical strip (Z) of depolluting product extending around the longitudinal axis (A).
Bolt comprising a stem having a threaded section (18.1) protruding with respect to a contact face (10.1) of a first part of an assembly in operation, and a nut having an outer peripheral surface , first and second end faces (26.1, 26.2) and a through-hole emerging at the first and second end faces (26.1, 26.2), the first end face (26.1) being oriented towards the contact face (10.1) in operation and comprising at least one hollowed or protruding form , the through-hole comprising at least one first tapped portion configured to cooperate with the threaded section (18.1) of the stem and allowing the nut to be screwed onto the stem , the bolt comprising at least one first washer , inserted between the first end face (26.1) of the nut and the contact face (10.1) in operation, having a first transverse face (38.1) oriented towards the nut and a second transverse face (38.2) oriented towards the contact face (10.1) in operation; characterized in that the first washer is produced from a material configured to occupy a first pasty state allowing it to be shaped to each hollowed or protruding form of the nut when the nut is fitted and a second, solid state, after the hardening of the material, in which the first transverse face (38.1) of the first washer comprises a stud or an imprint cooperating with a hollowed or protruding form of the nut in order to block it in rotation with respect to the first washer and in that the bolt comprises a second washer , inserted between the first washer and the contact face (10.1) of a first part of an assembly in operation, the second washer comprising at least one inner rib (52.1) positioned inside the through-hole of the nut , and being spaced apart a little from the nut , limiting propagation of the material of the first washer in the pasty state.
A thermal break door or window comprising at least one leaf and a stop frame for the leaf , wherein said leaf comprises a leaf frame and at least one glass pane , wherein said stop frame comprises an inner metal stop profile , an outer metal stop profile , at least one profile made of heat insulating material interconnecting between said inner stop profile and said outer stop profile , and said leaf frame comprises an inner metal leaf profile , an outer metal leaf profile , and a leaf profile made of heat insulating material interconnecting between said inner leaf profile and said outer leaf profile , and wherein a first sealing gasket between said outer stop profile and said outer leaf profile , a second sealing gasket , and a third sealing gasket between said inner stop profile and said inner leaf profile are provided, said second sealing gasket being configured and disposed so as to delimit, between said stop frame and said leaf frame , a first air chamber in cooperation with said first sealing gasket and a second air chamber in cooperation with said third sealing gasket , said second sealing gasket being supported by a block which is made of a more rigid material compared thereto and heat insulating, said block having a coupling seat for said second sealing gasket , characterised in that said second sealing gasket is configured and disposed so as to engage with a tooth of said outer leaf profile and said block has teeth for coupling to said outer stop profile.
Insulating packaging for thermal insulation and/or shock absorption, composed of one or a plurality of insulation cores of pressed straw and/or hay and at least one sheathing , characterized in that the insulation core , without any materially-integral connection between the individual blades of hay and/or straw, is configured so as to be dimensionally stable and shape-imparting; wherein the blades of hay and/or straw have a length from 0.5 cm to 50 cm and are present as a mixture of dissimilar lengths, without the fibres contained in the hay and/or straw being solubilized; the insulation core is surrounded completely by a vapour-permeable sheathing which is connected to the insulation core only by way of a form-fit without any additional connection elements; and the density of the insulating packaging is between 40 kg/m 3 and 250 kg/m 3 .
Low-temperature heat utilization arrangement set up for extracting low-temperature heat from process gas (M1) at temperatures below 200°C or below 190°C, wherein the low-temperature heat utilization arrangement is arranged downstream of a hydrogen plant and the process gas (M1) is provided from the hydrogen plant and wherein the low-temperature heat utilization arrangement is set up to provide the process gas (M21, M22) at a lowered intermediate temperature or at an even further lowered final temperature for at least one subsequent process, wherein the process gas (M1) in the low-temperature heat utilization arrangement can be fed to a first unit by means of which the temperature can be lowered to the intermediate temperature; characterized in that the first unit is an ORC unit for energetic conversion of the thermal energy into electrical energy, wherein the ORC unit is coupled to at least one electrical consumer unit or to a line for energy export and wherein the ORC unit is set up for energetic feedback of electrical energy within the low-temperature heat utilization arrangement or to a process in the hydrogen plant upstream of the ORC unit . wherein the process gas (M1) in the low-temperature heat utilization arrangement can be fed to a first unit by means of which the temperature can be lowered to the intermediate temperature; characterized in that the first unit is an ORC unit for energetic conversion of the thermal energy into electrical energy, wherein the ORC unit is coupled to at least one electrical consumer unit or to a line for energy export and wherein the ORC unit is set up for energetic feedback of electrical energy within the low-temperature heat utilization arrangement or to a process in the hydrogen plant upstream of the ORC unit .
Conveyor device for forming a belt conveyor , comprising: - a frame , - at least two rollers supported by the frame ; - a conveyor belt , arranged movable in a length direction of the belt around the at least two rollers ; - a slot , - extending in a width direction of the conveyor belt , and - arranged adjacent to an inwardly facing part of the conveyor belt ; characterised in that - the slot is configured to move a weighing device comprising at least one housing fitting the slot into and configured to remove the weighing device comprising at least one housing fitting the slot from. - a frame , - at least two rollers supported by the frame ; - a conveyor belt , arranged movable in a length direction of the belt around the at least two rollers ; - a slot , - extending in a width direction of the conveyor belt , and - arranged adjacent to an inwardly facing part of the conveyor belt ; - extending in a width direction of the conveyor belt , and - arranged adjacent to an inwardly facing part of the conveyor belt ; - the slot is configured to move a weighing device comprising at least one housing fitting the slot into and configured to remove the weighing device comprising at least one housing fitting the slot from.
A device for actuating a rod of a sucker rod pump assembly, the device comprising; a rod ; a motor ; a counterbalance assembly in communication with the motor , wherein the counterbalance assembly includes a pneumatic containment vessel capable of altering and maintaining counterbalance force by adding or removing an air mass from the containment vessel; and a linear actuator assembly operatively connected to the motor and configured to provide a stroke of the rod , wherein the linear actuator assembly penetrates upper and lower heads in the containment vessel, wherein the linear actuator assembly is comprised of a vertically oriented roller screw and a planetary roller nut , and wherein the motor is configured to effect translatory movement of the planetary roller nut along the roller screw. a rod ; a motor ; a counterbalance assembly in communication with the motor , wherein the counterbalance assembly includes a pneumatic containment vessel capable of altering and maintaining counterbalance force by adding or removing an air mass from the containment vessel; and a linear actuator assembly operatively connected to the motor and configured to provide a stroke of the rod , wherein the linear actuator assembly penetrates upper and lower heads in the containment vessel, wherein the linear actuator assembly is comprised of a vertically oriented roller screw and a planetary roller nut , and wherein the motor is configured to effect translatory movement of the planetary roller nut along the roller screw.
A system having two asynchronous computers (2-i), on each of which at least one application (A) is executed which provides control data (SD) for at least one actuator system , wherein the provided control data (SD) are transmitted from a control-authorized computer (2-i), which assumes a master computer status (M-RS), to the actuator system for the control thereof, wherein the computers (2-i) of the system exchange state data (ZD) and performance data (LD) cyclically with one another via a data interface in a data exchange (DAS), wherein the computers (2-i) each determine, on the basis of the state data (ZD Opp ) and performance data (LD Opp ) obtained from other computers (2-j) in the data exchange (DAS) and on the basis of their own state data (ZD Own ) and performance data (LD Own ), a computer status (RS) to be assumed by the respective computer (2-i) itself as a control-authorized or non-control-authorized computer (2-i), in a master-slave selection (MSA) executed on the computer (2-i), wherein the exchanged state data (ZD) of a computer (2-i) have status data of the computer (2-i) which specify a computer status (RS) of the computer, and wherein the computer status (RS) of a computer (2-i) has: - a master computer status (M-RS) as a control-authorized computer, - a slave computer status (S-RS) as a non-control-authorized computer, and a master intermediate computer status (MI-RS) as a computer which is still control-authorized and wherein each computer (2-i) of the system is assigned an associated time window (ZF) in which the computer (2-i) assumes a master intermediate computer status (MI-RS) in order to avoid a master-master conflict, wherein the assigned time windows (ZF) are different for the various computers (2-i) of the system . - a master computer status (M-RS) as a control-authorized computer, - a slave computer status (S-RS) as a non-control-authorized computer, and