mhurhangee/ep-ind-claims huggingface dataset:
A computer-implemented method for autonomous vehicle operation, the method comprising: receiving, by a computing system, a plurality of event signals from at least a first autonomous vehicle that is traversing a path; determining, by the computing system, whether the event signals are indicative of an obstacle in a portion of the path; receiving, by the computing system from at least a second autonomous vehicle, at least one characteristic of the obstacle captured by at least one sensor of the second autonomous vehicle; determining, by the computing system and based on the characteristic of the obstacle, at least one task to clear the obstacle from the portion of the path; and transmitting, by the computing system, the task to at least a third autonomous vehicle, wherein the plurality of event signals indicate at least one of: (i) decreased speed of the first autonomous vehicle while traversing the path; (ii) increased congestion of vehicles or humans in the path; (iii) deviation of the first autonomous vehicle from the path; or (iv) collision with the obstacle. receiving, by a computing system, a plurality of event signals from at least a first autonomous vehicle that is traversing a path; determining, by the computing system, whether the event signals are indicative of an obstacle in a portion of the path; receiving, by the computing system from at least a second autonomous vehicle, at least one characteristic of the obstacle captured by at least one sensor of the second autonomous vehicle; determining, by the computing system and based on the characteristic of the obstacle, at least one task to clear the obstacle from the portion of the path; and transmitting, by the computing system, the task to at least a third autonomous vehicle, wherein the plurality of event signals indicate at least one of: (i) decreased speed of the first autonomous vehicle while traversing the path; (ii) increased congestion of vehicles or humans in the path; (iii) deviation of the first autonomous vehicle from the path; or (iv) collision with the obstacle. (i) decreased speed of the first autonomous vehicle while traversing the path; (ii) increased congestion of vehicles or humans in the path; (iii) deviation of the first autonomous vehicle from the path; or (iv) collision with the obstacle.
A computer-implemented method comprising: associating a device identifier with an active medium access control, MAC, address of a connected device connected to a customer-premises equipment, CPE, wherein the CPE is configured to implement a local area network, LAN, for a data communication of the connected device; and passing the device identifier to a service in the CPE using a communication mechanism, wherein the CPE is configured to implement a platform for the service, and wherein the communication mechanism is configured to operate in the CPE. associating a device identifier with an active medium access control, MAC, address of a connected device connected to a customer-premises equipment, CPE, wherein the CPE is configured to implement a local area network, LAN, for a data communication of the connected device; and passing the device identifier to a service in the CPE using a communication mechanism, wherein the CPE is configured to implement a platform for the service, and wherein the communication mechanism is configured to operate in the CPE.
A radial vibration damper press-fittable into a hollow shaft comprising: a first inertia member and a second inertia member fixedly connected to one another to define an annular channel having a radially facing, open side; a spring damper material seated in the annular channel in axial compression between the first inertia member and the second inertia member; wherein the spring damper material is an annular body comprising a first rib protruding therefrom compressed by contact with the first inertia member and a second rib protruding therefrom compressed by contact with the second inertia member, the first and second ribs extending axially from opposite sides of said spring damper material, the annular body further comprising a main body between said first and second ribs including a stiffness portion, more proximate to an inner surface of said main body, and a compressible portion, more proximate to the radially facing open side of the annular channel, said stiffness portion enabling the compressible portion to be compressed against an inner surface of said hollow shaft, wherein the spring damper material has a compressible portion thereof protruding from the annular channel through the radially facing, open side beyond the outer diameter of the first and second inertia members for contact in compression against an inner surface of the hollow shaft. wherein, the compressible portion defines a gap between the shaft and the first and second inertia members. a first inertia member and a second inertia member fixedly connected to one another to define an annular channel having a radially facing, open side; a spring damper material seated in the annular channel in axial compression between the first inertia member and the second inertia member; wherein the spring damper material is an annular body comprising a first rib protruding therefrom compressed by contact with the first inertia member and a second rib protruding therefrom compressed by contact with the second inertia member, the first and second ribs extending axially from opposite sides of said spring damper material, the annular body further comprising a main body between said first and second ribs including a stiffness portion, more proximate to an inner surface of said main body, and a compressible portion, more proximate to the radially facing open side of the annular channel, said stiffness portion enabling the compressible portion to be compressed against an inner surface of said hollow shaft, wherein the spring damper material has a compressible portion thereof protruding from the annular channel through the radially facing, open side beyond the outer diameter of the first and second inertia members for contact in compression against an inner surface of the hollow shaft. wherein, the compressible portion defines a gap between the shaft and the first and second inertia members.
A method for the adapted illumination of an object with light by means of a coherent bundle of optical fibers, comprising at least the following method steps: a. determining a system function reflecting the transmission characteristics between the proximal fiber end and the distal fiber end of the bundle of optical fibers; b. arranging a phase mask (5, 5'), which corrects transmission disturbances caused at least by the bundle of optical fibers, on at least one of the fiber ends of the bundle of optical fibers, the phase mask (5, 5') being designed in such a way that at least the inverse of the system function is impressed on the light emitted by an illumination system and to be transmitted by means of the bundle of optical fibers; c. adapted illumination of the object by proximal illumination of the bundle of optical fibers provided with the phase mask (5, 5') with light, characterized in that the phase mask is form-fitting arranged on at least one of the fibre ends of the bundle of optical fibres by means of subtractive manufacturing by removing at least one individual fibre and/or by means of additive manufacturing by extending at least one individual fibre. a. determining a system function reflecting the transmission characteristics between the proximal fiber end and the distal fiber end of the bundle of optical fibers; b. arranging a phase mask (5, 5'), which corrects transmission disturbances caused at least by the bundle of optical fibers, on at least one of the fiber ends of the bundle of optical fibers, the phase mask (5, 5') being designed in such a way that at least the inverse of the system function is impressed on the light emitted by an illumination system and to be transmitted by means of the bundle of optical fibers; c. adapted illumination of the object by proximal illumination of the bundle of optical fibers provided with the phase mask (5, 5') with light,
A method for waterproofing underground structures comprising: - a step of injecting an expanding compound adjacent to the surface directed toward the outside of an underground structure to be waterproofed in order to form at least two confinement portions; - a step of injecting a diffusing compound intended to harden adjacent to the surface directed toward the outside of said underground structure and at a completion region that is delimited by said at least two confinement portions. - a step of injecting an expanding compound adjacent to the surface directed toward the outside of an underground structure to be waterproofed in order to form at least two confinement portions; - a step of injecting a diffusing compound intended to harden adjacent to the surface directed toward the outside of said underground structure and at a completion region that is delimited by said at least two confinement portions.
A system for providing reduced pressure to a tissue site, the system comprising: a delivery lumen fluidly coupled to the tissue site; a reduced-pressure source fluidly coupled to the delivery lumen; a first measurement lumen fluidly coupled to the tissue site; a first pressure sensor fluidly coupled to the first measurement lumen; a first valve fluidly coupled to the first measurement lumen; a second measurement lumen fluidly coupled to the tissue site; a second pressure sensor fluidly coupled to the second measurement lumen; a second valve fluidly coupled to the second measurement lumen; and a controller coupled to the reduced-pressure source, the first pressure sensor, the first valve, the second pressure sensor, and the second valve, the controller configured to: receive data from the first pressure sensor and the second pressure sensor indicative of pressure at the tissue site; compare data from the first pressure sensor and the second pressure sensor, open the first valve if a response time of the first pressure sensor is greater than a response time of the second pressure sensor; and operate the reduced-pressure source based on the data from the second pressure sensor if the response time of the first pressure sensor is greater than the response time of the second pressure sensor. a delivery lumen fluidly coupled to the tissue site; a reduced-pressure source fluidly coupled to the delivery lumen; a first measurement lumen fluidly coupled to the tissue site; a first pressure sensor fluidly coupled to the first measurement lumen; a first valve fluidly coupled to the first measurement lumen; a second measurement lumen fluidly coupled to the tissue site; a second pressure sensor fluidly coupled to the second measurement lumen; a second valve fluidly coupled to the second measurement lumen; and a controller coupled to the reduced-pressure source, the first pressure sensor, the first valve, the second pressure sensor, and the second valve, the controller configured to: receive data from the first pressure sensor and the second pressure sensor indicative of pressure at the tissue site; compare data from the first pressure sensor and the second pressure sensor, open the first valve if a response time of the first pressure sensor is greater than a response time of the second pressure sensor; and operate the reduced-pressure source based on the data from the second pressure sensor if the response time of the first pressure sensor is greater than the response time of the second pressure sensor. receive data from the first pressure sensor and the second pressure sensor indicative of pressure at the tissue site; compare data from the first pressure sensor and the second pressure sensor, open the first valve if a response time of the first pressure sensor is greater than a response time of the second pressure sensor; and operate the reduced-pressure source based on the data from the second pressure sensor if the response time of the first pressure sensor is greater than the response time of the second pressure sensor.
A rail vehicle with a machine for profiling and distributing ballast of a track with bedding shoulders, having a frame supported on on-track undercarriages and lateral ballast pick-up devices adjustably fastened to the frame, wherein each ballast pick-up device is actuated by a conveyor drive, wherein the machine is designed in such a way that, in an inoperative position, the upper contours of the machine are arranged below a delimiting plane which slopes downward in the working direction and limits a field of vision of a driver's cabin of a rail vehicle coupled to the machine at the rear end thereof, characterized in that the respective ballast pick-up device comprises a screw conveyor and is adjustable about a pivot axis extending orthogonally to the associated bedding shoulder by means of a pivot drive.
Monitoring apparatus for at least one ignition circuit for personal protection means for a vehicle, wherein the at least one ignition circuit is designed to activate the personal protection means when an ignition voltage exceeding a voltage threshold value and/or an ignition current exceeding a current threshold value is applied, wherein the monitoring apparatus has a control device and a voltage source connected by means of a voltage source terminal (VH_lim) of the control device, wherein the control device is connected to a first supply terminal (ZK1+) of the ignition circuit by means of a high-side ignition circuit terminal and to a second supply terminal (ZK1-) of the ignition circuit by means of a low-side ignition circuit terminal, characterized in that the monitoring apparatus is designed in such a way that a no-load voltage of a high-side current source of the control device, which high-side current source is arranged between the voltage source terminal (VH_lim) and the high-side ignition circuit terminal, corresponds at least to the voltage threshold value, in particular in such a way that the no-load voltage corresponds at least to a maximum ignition voltage of the ignition circuit.
Method for the construction of a total dental prosthesis, wherein the shapes of upper and lower jaw bases are taken with plastic material using standard impression trays (2, 4) or individualized impression trays (12, 14), which have been produced in a manner individually adapted to the patient's jaw on the basis of prior acquisition of the shapes using standard impression trays or by acquiring the shapes by digital scanning and/or phototechnical acquisition, when taking the shapes of the upper and lower jaw bases, the position of the occlusal plane relative to the upper and lower jaw bases is acquired with a bite fork by alignment parallel to the bipupillar line and the Camper plane and is digitally stored, the shapes of the upper and lower jaw bases taken in the plastic material are digitized and stored as a digital prosthesis model in a data-processing device, the upper and lower jaw prosthesis bases are produced from dental materials according to the digital prosthesis model by ablative or constructive methods, characterized in that when taking the shapes of the upper and lower jaw bases with plastic material, a suitable one of a prepared set of upper or lower standard front dental arches is selected and fastened in the desired position on the impression tray with the upper or lower jaw base impressed therein in the plastic material, in order to form a starting point for the digital prosthesis model, the shapes of the upper and lower jaw bases taken in the plastic material in the impression trays with the standard front dental arch fastened on the impression tray are digitized by scanning in a registered bite position and are stored, from a database, which contains digital front dental arch shape data for all standard front dental arches and further dental arches, the standard front dental arch shape data describing the selected standard front dental arch are called up and are integrated with the data of the associated jaw base in the digital prosthesis model, in such a way that the position of the digital standard front dental arch shape data relative to the digitized jaw base data corresponds as well as possible to the position of the standard front dental arch, fastened on the impression tray, relative to the impressed jaw base.
A method of processing data comprising encoded video data, the method comprising: transmitting data over a network at a first bit rate, R 0; identifying a reduction in a network link rate of the network from a first network link rate to a second network link rate, R 1; implementing a reduction in the transmission bit rate; characterised by in response to identifying the reduction in the network link rate, determining a recovery bit rate, R u, at which to transmit the data over the network by determining R u = (1-f u) x R 1, where undershoot factor, f u =(R 0 -R 1)/R 0, wherein the recovery bit rate is less than the second network link rate; determining a buffering duration based on a difference between a time of the identification of the reduction in the network link rate and an estimated actual time of the reduction in the network link rate; determining a recovery rate duration during which to transmit the data at the recovery bit rate based on the buffering duration, a magnitude of the reduction in the network link rate, R 0 -R 1, and the undershoot factor, f u; and wherein implementing a reduction in the transmission bit rate further comprises implementing a reduction in the transmission bit rate to the recovery bit rate for the determined recovery rate duration by performing rate control to reduce the bit rate of the data to the recovery bit rate for the determined recovery rate duration. transmitting data over a network at a first bit rate, R 0; identifying a reduction in a network link rate of the network from a first network link rate to a second network link rate, R 1; implementing a reduction in the transmission bit rate; characterised by in response to identifying the reduction in the network link rate, determining a recovery bit rate, R u, at which to transmit the data over the network by determining R u = (1-f u) x R 1, where undershoot factor, f u =(R 0 -R 1)/R 0, wherein the recovery bit rate is less than the second network link rate; determining a buffering duration based on a difference between a time of the identification of the reduction in the network link rate and an estimated actual time of the reduction in the network link rate; determining a recovery rate duration during which to transmit the data at the recovery bit rate based on the buffering duration, a magnitude of the reduction in the network link rate, R 0 -R 1, and the undershoot factor, f u; and wherein implementing a reduction in the transmission bit rate further comprises implementing a reduction in the transmission bit rate to the recovery bit rate for the determined recovery rate duration by performing rate control to reduce the bit rate of the data to the recovery bit rate for the determined recovery rate duration.
A reception device, comprising: a data processing unit that is configured to acquire access information of a service worker of a specific data management type from signaling data, which is metadata transmitted from a transmission device, selectively acquire the service worker of the specific data management type from service workers corresponding to a plurality of data management types using the acquired access information, and use the service worker of the specific data management type, wherein service workers are data management programs used in the reception device and have different data management types, wherein each service worker is corresponding to a broadcast program or a broadcast content provided by the transmission device to the reception device as a management program of an application provided from the transmission device to the reception device, and wherein the application is also corresponding to the broadcast program or the broadcast content. a data processing unit that is configured to acquire access information of a service worker of a specific data management type from signaling data, which is metadata transmitted from a transmission device, selectively acquire the service worker of the specific data management type from service workers corresponding to a plurality of data management types using the acquired access information, and use the service worker of the specific data management type, wherein service workers are data management programs used in the reception device and have different data management types, wherein each service worker is corresponding to a broadcast program or a broadcast content provided by the transmission device to the reception device as a management program of an application provided from the transmission device to the reception device, and wherein the application is also corresponding to the broadcast program or the broadcast content.
Device: for establishing a non-destructive deformation of a conduit having a cross-section having a cross-section dimension and an inner surface, the device comprising: - An elongated body having a body centre axis, a leading end and a trailing end, the body being arranged to be transported through the conduit with the leading end leading; and - A first deformation module provided at a first position of the body, the first deformation module comprising at least two deformation members (122, 126), protruding from the elongated body and defining a first deformation circle; wherein the deformation members (122, 126) are arranged for exercising forces to the inner surface of the conduit resulting in non-destructive deformation of the cross-section of the conduit. - An elongated body having a body centre axis, a leading end and a trailing end, the body being arranged to be transported through the conduit with the leading end leading; and - A first deformation module provided at a first position of the body, the first deformation module comprising at least two deformation members (122, 126), protruding from the elongated body and defining a first deformation circle;