mhurhangee/ep-ind-claims huggingface dataset:
An adhesive composition comprising: a) an isobutylene copolymer having pendent alkoxysilane groups, and b) a tackifier wherein the copolymer is of the formula; wherein a is at least 20, and at least one of b and c are at least one, or the copolymer is of the formula; wherein a is at least 20, d is at least one, and R 7 is H or CH 3, and wherein the -Q-Z moiety is of the formula -R 1 -X 1 -R 2 -⁅Si(OR 3)x(R 3) 3-x] q where R 1 is a multivalent alkylene or arylene group, X 1 is -S- or -NR 4 -, where R 4 is H or C 1 - C 4 alkyl; R 2 is a multivalent saturated or unsaturated alkylene or arylene, each R 3 is an alkyl group or aryl group, x is 1 to 3, and q is 1 or 2. R 1 is a multivalent alkylene or arylene group, X 1 is -S- or -NR 4 -, where R 4 is H or C 1 - C 4 alkyl; R 2 is a multivalent saturated or unsaturated alkylene or arylene, each R 3 is an alkyl group or aryl group, x is 1 to 3, and q is 1 or 2.
A system for performing autonomous agriculture within an agriculture production environment, the system comprising: one or more agriculture pods (200, 620) comprising (a) one or more plants in a multi-tiered plant tower sitting on a riser and (b) one or more sensor modules for monitoring the plants; a stationary robot system (120, 300, 615) configured to: collect sensor data from the sensor modules, perform one or more farming operations using at least one movable robotic arm of the stationary robot system (120, 300, 615) on the plants according to an operation schedule based on the collected sensor data, generate a set of instructions for transporting the agriculture pods within the agriculture production environment, and communicate the set of instructions to the agriculture pods (200, 620); and one or more mobile robots (110, 625) configured to transport the agriculture pods (200, 620) between the stationary robot system (120, 300, 615) and one or more other locations within the agriculture production environment according to the set of instructions. one or more agriculture pods (200, 620) comprising (a) one or more plants in a multi-tiered plant tower sitting on a riser and (b) one or more sensor modules for monitoring the plants; a stationary robot system (120, 300, 615) configured to: collect sensor data from the sensor modules, perform one or more farming operations using at least one movable robotic arm of the stationary robot system (120, 300, 615) on the plants according to an operation schedule based on the collected sensor data, generate a set of instructions for transporting the agriculture pods within the agriculture production environment, and communicate the set of instructions to the agriculture pods (200, 620); and collect sensor data from the sensor modules, perform one or more farming operations using at least one movable robotic arm of the stationary robot system (120, 300, 615) on the plants according to an operation schedule based on the collected sensor data, generate a set of instructions for transporting the agriculture pods within the agriculture production environment, and communicate the set of instructions to the agriculture pods (200, 620); and one or more mobile robots (110, 625) configured to transport the agriculture pods (200, 620) between the stationary robot system (120, 300, 615) and one or more other locations within the agriculture production environment according to the set of instructions.
A controller configured to cause an automotive headlamp apparatus to perform a first mode for swiveling lamp units such that a light distribution pattern created by the lamp units follows the travelling direction of a vehicle, and a second mode for swiveling the lamp units such that a shielded area created in the light distribution pattern follows a forward vehicle, wherein the controller switches the first mode and the second mode in response to curve information, wherein the controller causes the automotive headlamp to perform the first mode when it is determined that the road is a curved road based on the curve information, and to perform the second mode when it is determined that the road is a straight road based on the curve information.
A cardiopulmonary function evaluating apparatus comprising: an electrocardiogram measuring unit which is configured to measure an electrocardiogram of a subject; a photoplethysmogram detecting unit which is configured to detect a photoplethysmogram of the subject; a heart rate calculating unit which is configured to calculate a heart rate of the subject based on the electrocardiogram; a PWTT calculating unit which is configured to calculate a pulse wave transmission time (PWTT) of the subject based on the electrocardiogram and the photoplethysmogram; an SV calculating unit which is configured to continuously calculate a stroke volume of the subjec in one training exercise, based on the heart rate and the pulse wave transmission time (PWTT); a storage unit; and an outputting unit which is configured to output a state related to the stroke volume of the subject based on the stroke volume that is calculated by the SV calculating unit, said state including a temporal change of the stroke volume, wherein the outputting unit is configured to output a temporal change of the stroke volume that is calculated by the SV calculating unit in one exercise, in real time, in a form of a graph the SV calculating unit is configured to cause a plurality of temporal changes of the stroke volume in the exercise to be stored in the storage unit, and the outputting unit is configured to superimposedly display a plurality of graphs based on the plurality of temporal changes of the stroke volume which are calculated by the SV calculating unit. an electrocardiogram measuring unit which is configured to measure an electrocardiogram of a subject; a photoplethysmogram detecting unit which is configured to detect a photoplethysmogram of the subject; a heart rate calculating unit which is configured to calculate a heart rate of the subject based on the electrocardiogram; a PWTT calculating unit which is configured to calculate a pulse wave transmission time (PWTT) of the subject based on the electrocardiogram and the photoplethysmogram; an SV calculating unit which is configured to continuously calculate a stroke volume of the subjec in one training exercise, based on the heart rate and the pulse wave transmission time (PWTT); a storage unit; and an outputting unit which is configured to output a state related to the stroke volume of the subject based on the stroke volume that is calculated by the SV calculating unit, said state including a temporal change of the stroke volume, wherein the outputting unit is configured to output a temporal change of the stroke volume that is calculated by the SV calculating unit in one exercise, in real time, in a form of a graph the SV calculating unit is configured to cause a plurality of temporal changes of the stroke volume in the exercise to be stored in the storage unit, and the outputting unit is configured to superimposedly display a plurality of graphs based on the plurality of temporal changes of the stroke volume which are calculated by the SV calculating unit.
An integrated system (PARIS) for releasing in emergency the persons trapped in a vehicle, comprising a central processing unit, the input of which is connected to the sensors (D1, D2,... Dn), and the output of which is connected to at least three executive systems activated in a sequence: a system of automatic opening of the locks and the door bolts and blocking them in open position, comprising at least one first actuator located inside the door to deflect an interior door handle and open the lock and/or the bolt coupled to the interior door handle through a tension member, a system of automatic deflecting the doors and locking them in open position, comprising at least one second actuator with a housing located outside the door to deflect the door on the hinges in the door opening, and a system of automatic cutting of the seat belts, comprising at least one actuator for cutting a safety belt, except of a belt securing a child seat.
A method for nanocrystal modification, comprising: providing a first nanocrystal having a first size and a first shape; forming a reaction mixture that includes the nanocrystal, at least one ligand capable of selectively interacting with at least one of atoms on one or more faces of the nanocrystal or with ions removed from the nanocrystal, at least one solvent, and an inert gas atmosphere, to provide non-uniform dissolution of ions from selected crystal faces to modify the shape of the nanocrystal; and selectively dissolving the nanocrystal in the reaction mixture to modify the shape of the nanocrystal, wherein the dissolving is conducted for a period of time of at least 1 minute at a reaction temperature in a range from about room-temperature to 240°C so as to produce at least a second nanocrystal having a second shape; wherein the nanocrystal comprises at least one of cadmium selenide, cadmium chalcogenide, lead chalcogenide, lead selenide, zinc chalcogenide, mercury chalcogenide, oxides, phosphides, nitrides, or arsenides of gold, silver, cobalt, platinum, nickel, iron, or copper; wherein the ligand includes at least one of an alkyl carboxylic acid, an alkyl phosphine, an alkyl phosphonic acid, or an alkyl sulfide, and the ligand has an aliphatic chain that includes at least four carbon atoms. providing a first nanocrystal having a first size and a first shape; forming a reaction mixture that includes the nanocrystal, at least one ligand capable of selectively interacting with at least one of atoms on one or more faces of the nanocrystal or with ions removed from the nanocrystal, at least one solvent, and an inert gas atmosphere, to provide non-uniform dissolution of ions from selected crystal faces to modify the shape of the nanocrystal; and selectively dissolving the nanocrystal in the reaction mixture to modify the shape of the nanocrystal, wherein the dissolving is conducted for a period of time of at least 1 minute at a reaction temperature in a range from about room-temperature to 240°C so as to produce at least a second nanocrystal having a second shape; wherein the nanocrystal comprises at least one of cadmium selenide, cadmium chalcogenide, lead chalcogenide, lead selenide, zinc chalcogenide, mercury chalcogenide, oxides, phosphides, nitrides, or arsenides of gold, silver, cobalt, platinum, nickel, iron, or copper; wherein the ligand includes at least one of an alkyl carboxylic acid, an alkyl phosphine, an alkyl phosphonic acid, or an alkyl sulfide, and the ligand has an aliphatic chain that includes at least four carbon atoms.
A holder for an aerosol generating article having a heat source, the holder comprising: a body having a first end and a second end and passage extending from the first end to the second end, wherein the body is configured to receive the aerosol generating article into the passage; and a sleeve having a tubular body defining a first end and a second end, the tubular body comprising (i) a ventilation region comprising one or more holes through the tubular body in proximity to the second end, and (ii) an extinguishment region downstream of the ventilation region; wherein the sleeve is movable over the body between (i) a retracted position, (ii) an extinguishment position, and (iii) a use position between the retracted position and the extinguishment position, wherein the second end of the sleeve is closer to the first end of the body when the sleeve is in the retracted position relative to when the sleeve is in the extinguishment position, wherein the ventilation region is configured to be aligned with the heat source of the aerosol generating article when the sleeve is in the use position, and wherein the extinguishment region is configured to be aligned with the heat source of the aerosol generating article when the sleeve is in the extinguishment position. a body having a first end and a second end and passage extending from the first end to the second end, wherein the body is configured to receive the aerosol generating article into the passage; and a sleeve having a tubular body defining a first end and a second end, the tubular body comprising (i) a ventilation region comprising one or more holes through the tubular body in proximity to the second end, and (ii) an extinguishment region downstream of the ventilation region; wherein the sleeve is movable over the body between (i) a retracted position, (ii) an extinguishment position, and (iii) a use position between the retracted position and the extinguishment position, wherein the second end of the sleeve is closer to the first end of the body when the sleeve is in the retracted position relative to when the sleeve is in the extinguishment position, wherein the ventilation region is configured to be aligned with the heat source of the aerosol generating article when the sleeve is in the use position, and wherein the extinguishment region is configured to be aligned with the heat source of the aerosol generating article when the sleeve is in the extinguishment position.
A composition for synthesizing bimetallic nanoparticles, characterized in that it comprises a first organometallic precursor and a second organometallic precursor and an ionic liquid solution containing the said first and second precursors, the first and second organometallic precursors being chosen so as to have different decomposition rates.
A method for activating a desired communication mode of an ID communication partner device (2, 2') from a group of possible communication modes, which group comprises at least a first mode and a second mode, wherein the ID communication partner device (2, 2') and at least one other ID communication partner device are brought into a communication connection and wherein a carrier signal is output by the at least one other ID communication partner device (4, 2'), which carrier signal is received by the ID communication partner device (2, 2'), and wherein the carrier signal is repeatedly modulated with at least one mode activation signal by means of the at least one other ID communication partner device, and wherein the presence of the mode activation signal is recognized by the ID communication partner device (2, 2'), giving a recognition result signal, and wherein, as a function of the recognition result signal, the desired communication mode of the ID communication partner device (2,2') is activated, wherein the at least one mode activation signal is formed by at least one sinusoidal signal and the carrier signal is modulated using the at least one sinusoidal signal, wherein one of the ID communication partner device (2, 2') and the other ID communication partner device (4, 2') is designed as a data carrier, and the other one is designed as a communication station, wherein either a TTF mode or an RTF mode is activated in the ID communication partner device (2, 2').
Apparatus for energy recovery, designed as a device arranged submerged in free-flowing water, for generating electrical energy, in whose casing there is arranged an axial throughflow duct with, arranged at the cross section constriction thereof, a propeller of a propeller turbine driving a generator, wherein the casing arranged downstream of the propeller is designed as an annular casing which widens in the manner of a diffuser, wherein the casing is designed as a short diffuser, wherein connection elements (15, 16) connect the short diffuser to a downstream, flow-guiding generator housing, wherein the generator housing is arranged in a free space of the flowing water downstream of a plane of the outlet opening of the short diffuser, characterized in that, proceeding from a mounting region of the propeller and as a function of a length (L G), starting at the mounting region, of the generator housing, the latter has an increasing casing diameter.
A composition comprising an oil of lubricating viscosity and a compound represented by formula wherein x is 0 or 1 and R 1 is a hydrocarbyl group containing 4 to 18 carbon atoms.
Device (10, 10') for measuring a length change (ΔL), comprising a first fastening element (11, 11'), a second fastening element (12, 12'), and at least one length element that is arranged between the two fastening elements (11, 11', 12, 12') and has a first end, a second end and a length along a length direction, wherein a force acting in parallel with the length direction leads to a length change (ΔL) of the length element, characterised in that a lever element having a first end, a second end and a fulcrum is arranged transversely to the length direction, wherein the lever element comprises a first lever arm of a first length (a) between the fulcrum and a first lever arm end, and a second lever arm of a second length (b) between the fulcrum and a second lever arm end, wherein the second length (b) is greater than the first length (a), wherein the length element is arranged with its first end pivotably on the first lever arm end of the first lever arm, and wherein the second lever arm end of the second lever arm is connected to an material measure, wherein the device comprises a scanning element which detects the movement of the material measure.
A system for sending a message in a mobile communication environment, the system comprising: a mobile terminal configured to send a message and a destination number associated with the message; and a server configured to receive the message and send the received message to an Internet server (30, 50); wherein the server is further configured to prestore mapping information associating at least one destination number to at least one Internet server address information, and the server is configured to check, based on the prestored mapping information, whether or not the Internet server corresponding to the destination number is registered when the message is received from the mobile terminal, and to send the received message to a registered Internet server corresponding to the destination number, wherein the Internet server (30, 50) is further configured to post the received message when receiving the message from the server, to set a message access authentication number received together with the message as a password of the posted message, and to send a mobile terminal of the destination number a notification message that a new message has been posted when the message is received from the server, and wherein the notification message includes the password of the posted message. a mobile terminal configured to send a message and a destination number associated with the message; and a server configured to receive the message and send the received message to an Internet server (30, 50); wherein the server is further configured to prestore mapping information associating at least one destination number to at least one Internet server address information, and the server is configured to check, based on the prestored mapping information, whether or not the Internet server corresponding to the destination number is registered when the message is received from the mobile terminal, and to send the received message to a registered Internet server corresponding to the destination number, wherein the Internet server (30, 50) is further configured to post the received message when receiving the message from the server, to set a message access authentication number received together with the message as a password of the posted message, and to send a mobile terminal of the destination number a notification message that a new message has been posted when the message is received from the server, and wherein the notification message includes the password of the posted message.
A method performed by a server node (102, 200, 500, 600) for establishing a monitoring function monitoring performance metrics of data traffic of a first task container (104, 204) in a virtual environment, the method comprising: - instantiating a first monitoring container (108, 202) adapted to execute the monitoring function, when a task of the first task container has started; - upon start of the task of the first task container (104, 204), receiving, from a container management, an instantiation message to instantiate the monitoring function in the monitoring container; - instantiating the monitoring function in the first monitoring container, based on reception of the instantiation message; - attaching the first monitoring container to a virtual switch (110, 206) being attached to the first task container, configuring the virtual switch to mirror data traffic addressed to or originating within the first task container, and mirroring said data traffic addressed to or originating within the first task container, to the first monitoring container; and - executing the monitoring function in the first monitoring container monitoring the performance metrics of the data traffic being mirrored. - instantiating a first monitoring container (108, 202) adapted to execute the monitoring function, when a task of the first task container has started; - upon start of the task of the first task container (104, 204), receiving, from a container management, an instantiation message to instantiate the monitoring function in the monitoring container; - instantiating the monitoring function in the first monitoring container, based on reception of the instantiation message; - attaching the first monitoring container to a virtual switch (110, 206) being attached to the first task container, configuring the virtual switch to mirror data traffic addressed to or originating within the first task container, and mirroring said data traffic addressed to or originating within the first task container, to the first monitoring container; and - executing the monitoring function in the first monitoring container monitoring the performance metrics of the data traffic being mirrored.