mhurhangee/ep-ind-claims huggingface dataset:
A system, comprising: an implantable medical device, comprising: a first coil for receiving a magnetic field for providing power to the implantable medical device; and at least one switch for modulating an impedance of the first coil during receipt of the magnetic field; and an external charger, comprising: a second coil for producing the magnetic field; an alignment detector for receiving an electrical parameter of the second coil, wherein the alignment detector is adapted to assess at least a magnitude of a change in the electrical parameter caused by modulation of the impedance of the first coil, wherein the alignment detector is further adapted to detect a magnitude of the electrical parameter, and wherein the alignment detector is adapted to determine the alignment based upon the magnitude of the change and the magnitude of the electrical parameter; and at least one alignment indicator for indicating the alignment between the external charger and the implantable medical device based upon the determined alignment. an implantable medical device, comprising: a first coil for receiving a magnetic field for providing power to the implantable medical device; and at least one switch for modulating an impedance of the first coil during receipt of the magnetic field; and a first coil for receiving a magnetic field for providing power to the implantable medical device; and at least one switch for modulating an impedance of the first coil during receipt of the magnetic field; and an external charger, comprising: a second coil for producing the magnetic field; an alignment detector for receiving an electrical parameter of the second coil, wherein the alignment detector is adapted to assess at least a magnitude of a change in the electrical parameter caused by modulation of the impedance of the first coil, wherein the alignment detector is further adapted to detect a magnitude of the electrical parameter, and wherein the alignment detector is adapted to determine the alignment based upon the magnitude of the change and the magnitude of the electrical parameter; and at least one alignment indicator for indicating the alignment between the external charger and the implantable medical device based upon the determined alignment. a second coil for producing the magnetic field; an alignment detector for receiving an electrical parameter of the second coil, wherein the alignment detector is adapted to assess at least a magnitude of a change in the electrical parameter caused by modulation of the impedance of the first coil, wherein the alignment detector is further adapted to detect a magnitude of the electrical parameter, and wherein the alignment detector is adapted to determine the alignment based upon the magnitude of the change and the magnitude of the electrical parameter; and at least one alignment indicator for indicating the alignment between the external charger and the implantable medical device based upon the determined alignment.
A display device comprising: a display unit configured to display a screen representing a state of a drive device controlled by a controller; a communicator configured to receive, from the controller, an information model defining a plurality of variables, each variable representing the state of the drive device and being defined in a predetermined standard; a control device configured to generate the screen, the display device being characterised in that the communicator is further configured to receive a display rule relating to the screen from the controller or from an external device, wherein, in the display rule, a kind of a display object visually representing a value of the variable and a display definition relating to display of the display object are associated with each other with respect to a part or all of the plurality of variables defined in the predetermined standard, and wherein the control device is configured to acquire the display object and the display definition corresponding to each variable which is to be displayed and is included in the information model from the display rule, and dispose each of the display objects on the screen according to the corresponding display definition, the display definition including at least one of a display position of the display object displayed on the screen and a display size of the display object. a display unit configured to display a screen representing a state of a drive device controlled by a controller; a communicator configured to receive, from the controller, an information model defining a plurality of variables, each variable representing the state of the drive device and being defined in a predetermined standard; a control device configured to generate the screen, the display device being characterised in that the communicator is further configured to receive a display rule relating to the screen from the controller or from an external device, wherein, in the display rule, a kind of a display object visually representing a value of the variable and a display definition relating to display of the display object are associated with each other with respect to a part or all of the plurality of variables defined in the predetermined standard, and wherein the control device is configured to acquire the display object and the display definition corresponding to each variable which is to be displayed and is included in the information model from the display rule, and dispose each of the display objects on the screen according to the corresponding display definition, the display definition including at least one of a display position of the display object displayed on the screen and a display size of the display object.
System for positioning an object in a zone of interest which has a restricted zone, the system comprising an assembly of pseudolites which are distributed in the restricted zone, the pseudolites having a spreading code which corresponds to the spreading code of a satellite which belongs to an arrangement of satellites of a satellite navigation system and transmitting positioning signals characterised by their temporal desynchronisation and their apparent Doppler frequency, and the object comprising a receiver which is capable of acquiring the positioning signals, characterised in that it comprises a server comprising means for configuring the temporal desynchronisation and/or the apparent Doppler frequency of the positioning signals transmitted by the pseudolites so that there is no ambiguity relating to the location of the correlation peaks (P1, P2, P3, P4, P5) in the matrix of ambiguities defined by the delay and the apparent Doppler frequency of the positioning signals acquired by the receiver.
A database system, comprising a plurality of computing nodes (101,..., 106), a job manager, and a component manager, wherein at least one component is deployed on each computing node, and each component is configured to implement a subfunction of a database management system; the component manager is configured to determine at least one execution path, wherein the execution path indicates a plurality of components (101,..., 106) that are to be executed sequentially; and the job manager is configured to: receive a query submitted by a client; invoke the plurality of components (101,..., 106) in response to the query based on the execution path determined by the component manager, to process the query to obtain a query result; and return the processing result to the client, characterized in that the plurality of components (101,..., 106) are a plurality of microservice components, and the plurality of microservice components (101,..., 106) comprise a parser service, an optimizer service, an executor service, and a storage engine service. the component manager is configured to determine at least one execution path, wherein the execution path indicates a plurality of components (101,..., 106) that are to be executed sequentially; and the job manager is configured to: receive a query submitted by a client; invoke the plurality of components (101,..., 106) in response to the query based on the execution path determined by the component manager, to process the query to obtain a query result; and return the processing result to the client, characterized in that the plurality of components (101,..., 106) are a plurality of microservice components, and the plurality of microservice components (101,..., 106) comprise a parser service, an optimizer service, an executor service, and a storage engine service.
A method comprising: establishing a secure channel with a trusted party in a cloud via an untrusted cloud service provider; sending a trust request including a client public key to the trusted party via the secure channel without disclosing the client public key to the provider; receiving, as a response to said trust request, a trusted party public key from the trusted party via the secure channel without disclosing the trusted party public key to the provider; sending encrypted data to the trusted party via the secure channel through the provider for processing by the trusted party separately from the provider, the encrypted data including a first session key, encrypted using the trusted party public key, and the client public key, private data, and a nonce, all encrypted together using the first session key; and receiving encrypted results of said processing from the trusted party via said secure channel through the provider, the encrypted results including a second session key, encrypted using the client public key, and the results of said processing, and the said nonce, both encrypted together using the second session key. establishing a secure channel with a trusted party in a cloud via an untrusted cloud service provider; sending a trust request including a client public key to the trusted party via the secure channel without disclosing the client public key to the provider; receiving, as a response to said trust request, a trusted party public key from the trusted party via the secure channel without disclosing the trusted party public key to the provider; sending encrypted data to the trusted party via the secure channel through the provider for processing by the trusted party separately from the provider, the encrypted data including a first session key, encrypted using the trusted party public key, and the client public key, private data, and a nonce, all encrypted together using the first session key; and receiving encrypted results of said processing from the trusted party via said secure channel through the provider, the encrypted results including a second session key, encrypted using the client public key, and the results of said processing, and the said nonce, both encrypted together using the second session key.
A method of preparing a hydroquinone derivative with heptadecatrienyl side chain, comprising: (a) subjecting activating 1,4-dimethoxybenzene with n-butyl lithium in tetrahydrofuran, and then reacting with 1,10-dibromodecane at room temperature to obtain a compound of a compound of formula (b) reacting the compound of formula with boron tribromide to obtain a compound of formula (c) reacting the compound of formula with acetic anhydride in pyridine to obtain a compound of formula (d) reacting the compound of formula with sodium iodide to obtain a compound of formula (e) the compound of formula treated with sodium bicarbonate in dimethyl sulfoxide and benzene at 90°C reflux for 4 h, and extracted with 0.1N HCl and saturated sodium chloride, after water removal with saturated sodium sulfate to obtain a compound of formula f) subjecting the compound of formula and heptadien-1-triphenylphosphonium iodide to a Wittig reaction compound of formula (g) reacting the compound of formula with sodium methoxide in methanol at room temperature to obtain a compound of formula. (a) subjecting activating 1,4-dimethoxybenzene with n-butyl lithium in tetrahydrofuran, and then reacting with 1,10-dibromodecane at room temperature to obtain a compound of a compound of formula (b) reacting the compound of formula with boron tribromide to obtain a compound of formula (c) reacting the compound of formula with acetic anhydride in pyridine to obtain a compound of formula (d) reacting the compound of formula with sodium iodide to obtain a compound of formula (e) the compound of formula treated with sodium bicarbonate in dimethyl sulfoxide and benzene at 90°C reflux for 4 h, and extracted with 0.1N HCl and saturated sodium chloride, after water removal with saturated sodium sulfate to obtain a compound of formula f) subjecting the compound of formula and heptadien-1-triphenylphosphonium iodide to a Wittig reaction compound of formula (g) reacting the compound of formula with sodium methoxide in methanol at room temperature to obtain a compound of formula.
A compaction device, comprising at least one traveling drum rotatable about a drum shaft, coupled vibration exciters (30a,30b) generating an oscillation torque about the drum shaft, said vibration exciters having unbalanced masses rotating out of phase by 180 degrees in the same direction of rotation, and having a drive shaft (5a,5b) running coaxial to the drum shaft for driving the vibration exciters (30a, 30b), characterized in that the drum with the drive shaft (5a;5b) is divided at least once and that each drum part (2a,2b) comprises at least two coupled vibration exciters (30a,30b) mounted in the drum at a distance from the drum shaft, wherein the vibration exciters of one drum part are coupled to the vibration exciters of another drum part in such a manner that the vibration exciters (30a,30b) of all drum parts (2a,2b) oscillate in synchronism also in case of a turning of the drum parts (2a,2b) relative to each other.
Method for treating textiles in a washing machine comprising a suds container for receiving washing liquid and a drum rotatably mounted in the suds container for receiving the textiles, in which method a washing programme having a total running time of at least 110 minutes is started, a washing liquid that contains rejuvenating agent is fed to the suds container and the textiles in the drum are washed in the washing liquid containing rejuvenating agent, characterised in that the washing liquid is formed from water and a detergent, the detergent containing 2.5 to 10.0 wt.% cellulase as a rejuvenating agent.
Method for operating a frontal headlight device of a vehicle, in which an image of an environmental region in direction of travel in front of the vehicle is captured by means of a camera of the vehicle, and the headlight device is switched to a glare shield mode by means of an electronic control device of the vehicle depending on whether a light source of a further vehicle is identified in the image, whereby the further vehicle is detected and a relative position of the further vehicle in direction of travel relative to the vehicle is determined based on sensor data of at least one object detection device (8 to 17) disposed on the vehicle, wherein switching of the headlight device to the glare shield mode is also performed considering the relative position of the vehicle and the further vehicle in direction of travel by means of the control device and characterized in that, after the light source of the further vehicle has exited the field of view of the camera, the turned on glare shield mode is maintained if it is determined based on the sensor data of the object detection device (8 to 17) that the vehicle passes the further vehicle. is captured by means of a camera of the vehicle, and the headlight device is switched to a glare shield mode by means of an electronic control device of the vehicle depending on whether a light source of a further vehicle is identified in the image, whereby the further vehicle is detected and a relative position of the further vehicle in direction of travel relative to the vehicle is determined based on sensor data of at least one object detection device (8 to 17) disposed on the vehicle, wherein switching of the headlight device to the glare shield mode is also performed considering the relative position of the vehicle and the further vehicle in direction of travel by means of the control device
Scaffolding comprising, a scaffold structure, assembled next to yet spaced from an adjacent face of a building structure with a gap therebetween, comprising: a. a plurality of standards extending vertically adjacent the structure, b. horizontal ledgers extending between standards and tying the standards in a fixed interrelationship, and c. a platform supported from the standards and/or the ledgers thereby to be conferred a vertical support in a substantially horizontal disposition; and a guard, as a lateral extension to the platform, configured to hinge or otherwise articulate downwardly from the scaffold structure to bear onto the face of the building structure to at least partially span across the gap, the scaffolding being characterized in that the guard comprises a panel having a flexible lip that extends in a manner engaging the face of the building in a compliant manner to prevent objects from falling beyond the guard at said face. a. a plurality of standards extending vertically adjacent the structure, b. horizontal ledgers extending between standards and tying the standards in a fixed interrelationship, and c. a platform supported from the standards and/or the ledgers thereby to be conferred a vertical support in a substantially horizontal disposition; and
A fluid-control device, comprising a stack of wafers in which flow components (10, 10A-F) are provided as micro-electro-mechanical systems - MEMS, said flow components (10, 10A-F) being selected from at least one of fluid-control components (11, 11F) and fluid-monitor components, wherein a first said flow component is encircled, in a main plane of said stack of wafers, by a second said flow component, characterized in that at least said first and second flow components (10A-B) comprise a respective deformable membrane (32, 38).
A flue gas treatment device, comprising: a sorbent polymer composite substrate comprising a high surface area support, and a tri-halide halogen source adjacent said sorbent polymer composite substrate, said tri-halide halogen source comprising a compound with a formula: N(R 1 R 2 R 3 R 4)X, wherein X= I 3 -, BrI 2 -, Br 2 I -, or Br 3 - and wherein R 1, R 2, R 3 and R 4 are selected from the group consisting of a hydrocarbon having from 1 to 18 carbon atoms, preferably from 4 to 6 carbon atoms, where the hydrocarbon is an alkyl. a sorbent polymer composite substrate comprising a high surface area support, and a tri-halide halogen source adjacent said sorbent polymer composite substrate, said tri-halide halogen source comprising a compound with a formula: N(R 1 R 2 R 3 R 4)X, wherein X= I 3 -, BrI 2 -, Br 2 I -, or Br 3 - and wherein R 1, R 2, R 3 and R 4 are selected from the group consisting of a hydrocarbon having from 1 to 18 carbon atoms, preferably from 4 to 6 carbon atoms, where the hydrocarbon is an alkyl.
A touch panel comprising: a flat region (210, 210a, 210b) in which first sensing cells are arranged; and a curved region (220, 220a, 220b) in which second sensing cells (350, 350a, 350b) are arranged differently from the first sensing cells in terms of at least one of an arrangement pattern and a shape, and characterized in that arrangement distances (d21, d22, d23) between the second sensing cells (350, 350a, 350b) differ from each other according to a curve degree of the curved region along the curved region (220, 220a, 220b). a flat region (210, 210a, 210b) in which first sensing cells are arranged; and a curved region (220, 220a, 220b) in which second sensing cells (350, 350a, 350b) are arranged differently from the first sensing cells in terms of at least one of an arrangement pattern and a shape, and characterized in that arrangement distances (d21, d22, d23) between the second sensing cells (350, 350a, 350b) differ from each other according to a curve degree of the curved region along the curved region (220, 220a, 220b).
Method for analyzing heat input in an installation, in particular a building, equipped with energy-using equipment (16.1... 16.7), characterized in that for an assembly of multiple identified items of equipment (16.1, 16.4, 16.5) contributing to the heat balance of the building among the items of energy-using equipment (16.1... 16.7), an energy value is measured in real time for each of the identified items of equipment (16.1, 16.4, 16.5) and the quantity of heat supplied to the installation or extracted from the installation by each of the identified items of equipment (16.1, 16.4, 16.5) is estimated as a function of at least the value of energy consumed and one or more thermal characterization parameters associated with each of the identified items of equipment (16.1, 16.4, 16.5), wherein the method comprises a learning step, wherein each of the identified items of equipment is associated with the thermal characterization parameter(s), via a human-machine configuration or self-learning interface, wherein the one or more thermal characterization parameters comprise(s) a thermal efficiency parameter and a thermal delay parameter, wherein the delay may be in advance or late.