mhurhangee/ep-ind-claims huggingface dataset:
An apparatus comprising: a receiver to be coupled to a data bus, the receiver to receive incoming data; control logic, coupled to the receiver, to determine whether a next data value on the data bus is going to transition from a valid value to a parked state; and encode logic to encode the incoming data based at least in part on the determination of whether the next data value on the bus is going to be transitioning from the valid value to the parked state, wherein the encode logic is to encode the incoming data based at least in part on comparison of: a hamming distance between a present bus value and the next data value, and a weight of the next data value, and wherein the encode logic is to cause an inversion of the next data value at least in part based on comparison of a weight of the next data value and a width of the bus. a receiver to be coupled to a data bus, the receiver to receive incoming data; control logic, coupled to the receiver, to determine whether a next data value on the data bus is going to transition from a valid value to a parked state; and encode logic to encode the incoming data based at least in part on the determination of whether the next data value on the bus is going to be transitioning from the valid value to the parked state, wherein the encode logic is to encode the incoming data based at least in part on comparison of: a hamming distance between a present bus value and the next data value, and a weight of the next data value, and wherein the encode logic is to cause an inversion of the next data value at least in part based on comparison of a weight of the next data value and a width of the bus.
An adaptive excitation vector quantization apparatus that is used in code excited linear prediction speech encoding to generate linear prediction residual vectors of a length m and linear prediction coefficients by dividing a frame of a speech signal of a length n into a plurality of subframes of the length m and performing a linear prediction analysis on the subframes, where n and m are integers, and n is an integral multiple m, the apparatus comprising: an adaptive excitation vector generating section adapted to cut out an adaptive excitation vector of the length n from an adaptive excitation codebook; a target vector forming section adapted to form a target vector of the length n by adding the linear prediction residual vectors of the length m of the plurality of subframes; a synthesis filter adapted to generate m×m impulse response matrixes using the linear prediction coefficients of the plurality of subframes; an impulse response matrix forming section adapted to form a n×n impulse response matrix using the m×m impulse response matrixes; an evaluation measure calculating section adapted to calculate an evaluation measure of adaptive excitation vector quantization per pitch period candidate, using the adaptive excitation vector of the length n, the target vector of the length n and the n×n impulse response matrix; and an evaluation measure comparison section adapted to compare the evaluation measures with respect to the pitch period candidates and to calculate a pitch period of a highest evaluation measure as a quantization result. an adaptive excitation vector generating section adapted to cut out an adaptive excitation vector of the length n from an adaptive excitation codebook; a target vector forming section adapted to form a target vector of the length n by adding the linear prediction residual vectors of the length m of the plurality of subframes; a synthesis filter adapted to generate m×m impulse response matrixes using the linear prediction coefficients of the plurality of subframes; an impulse response matrix forming section adapted to form a n×n impulse response matrix using the m×m impulse response matrixes; an evaluation measure calculating section adapted to calculate an evaluation measure of adaptive excitation vector quantization per pitch period candidate, using the adaptive excitation vector of the length n, the target vector of the length n and the n×n impulse response matrix; and an evaluation measure comparison section adapted to compare the evaluation measures with respect to the pitch period candidates and to calculate a pitch period of a highest evaluation measure as a quantization result.
A bioprosthetic component for an implant, based on a native or possibly already modified biological material, characterised in that, due to a separate stability-increasing treatment of just part of the surface, the surface of the biological material has one or more zones having an increased mechanical stability compared to the mechanical stability before the stability-increasing treatment, and wherein the zones having increased mechanical stability account for a proportion of ≤ 40 % of the surface and the properties of the remaining zones accounting for a proportion of ≥ 60 % of the surface are substantially unaltered before and after the stability-increasing treatment, in each case based on the total surface of the bioprosthetic component as 100 %, wherein the increased mechanical stability is based on a separate stability-increasing treatment of the surface of these zones which is a stability increasing chemical treatment, wherein the increased mechanical stability is based on a separate stability-increasing treatment of the surface of this zone with divinyl sulfone and a mixture of a branched polyethylene amine and divinyl sulfone.
A support grid assembly for use in a vessel including a wall with an inner surface, the support grid assembly (40, 200) comprising: at least one panel including a first wall including a screen (64, 66) configured to support a media, and a second wall configured to be supported by the inner surface of the wall of the vessel, wherein each panel of the at least one panel defines a volume and within the volume are one or more flow control vanes; and a manifold coupled to and in hydraulic communication with the at least one panel and configured to be in hydraulic communication with an inlet or outlet of the vessel, characterized in that the one or more flow control vanes are disposed within the volume to direct flow and control fluid flow distribution through each panel and into the manifold, the one or more flow control vanes are generally parallel to a longitudinal axis of each panel and the one or more flow control vanes including a tapered end that direct fluid flow to the manifold. at least one panel including a first wall including a screen (64, 66) configured to support a media, and a second wall configured to be supported by the inner surface of the wall of the vessel, wherein each panel of the at least one panel defines a volume and within the volume are one or more flow control vanes; and a manifold coupled to and in hydraulic communication with the at least one panel and configured to be in hydraulic communication with an inlet or outlet of the vessel, characterized in that the one or more flow control vanes are disposed within the volume to direct flow and control fluid flow distribution through each panel and into the manifold, the one or more flow control vanes are generally parallel to a longitudinal axis of each panel and the one or more flow control vanes including a tapered end that direct fluid flow to the manifold.
A machine for drag finishing of mechanical workpieces comprising a single rotary head, the single rotary head having an axis of rotation (A-A) and carrying a plurality of rotating workpiece holding elements arranged along a circumference around the axis of rotation (A-A) and wherein each rotating workpiece holding element is adapted to support at least one workpiece to be finished, wherein the machine further comprises a plurality of vats (50,52,54,56) for the containment of finishing media, positioned as a corolla around the axis of rotation (A-A) of the single rotary head, and wherein each rotating workpiece holding element is configured to immerse the workpieces inside the finishing media, wherein at least one vat contains a first type of finishing media and at least one vat contains a second type of finishing media and wherein the machine further comprises a single loading and unloading station and an anthropomorphic robot in the single loading and unloading station.
A transport unit (28, 74, 76, 78) comprising: · at least one passenger transport vehicle (6, 8, 10, 12) and at least one driver vehicle (4, 14, 80, 82) attached to the passenger vehicle (6, 8, 10, 12) and forming a self-contained vehicle set provided with on-board propulsion equipment; and · a set of networks conveying traffic in real time, the set of networks comprising a train bus, first and second gateways, first and second vehicle buses each connected to the train bus via the first and second gateways respectively, and first and second on-board equipment groups comprising pieces of equipment (38, 40, 41; 49, 50, 51) connected solely to the first and second gateways respectively via the first and second vehicle buses respectively; characterized in that at least two vehicles (4, 6, 8, 10, 12, 14, 80, 82) each include at least one piece of equipment (38, 40, 41) of the first equipment group and one piece of equipment (49, 50, 51) of the second equipment group. · at least one passenger transport vehicle (6, 8, 10, 12) and at least one driver vehicle (4, 14, 80, 82) attached to the passenger vehicle (6, 8, 10, 12) and forming a self-contained vehicle set provided with on-board propulsion equipment; and · a set of networks conveying traffic in real time, the set of networks comprising a train bus, first and second gateways, first and second vehicle buses each connected to the train bus via the first and second gateways respectively, and first and second on-board equipment groups comprising pieces of equipment (38, 40, 41; 49, 50, 51) connected solely to the first and second gateways respectively via the first and second vehicle buses respectively;
An ultrasound fusion imaging system for fusing images to account for motion compensation, comprising: an ultrasound imaging probe configured to capture a baseline image and live images of a target area; a live tracking system configured to track the ultrasound imaging probe during capture of the baseline image and the live images, the live tracking system having a coordinate system registered with the baseline image and the live images; and a pose analyzer unit configured to compare field of view differences between the pose of the probe for the baseline image and the pose of the probe for a current view of a live image determined using the live tracking system to generate success parameters representing a measure of overlap between the baseline image and the current view image and a similarity between the poses, and to convey the success parameters to an operator to provide feedback on image acquisition for motion compensation between the baseline image and the current view image, the system further comprising a motion compensation registration unit to register the baseline image with the current view image. an ultrasound imaging probe configured to capture a baseline image and live images of a target area; a live tracking system configured to track the ultrasound imaging probe during capture of the baseline image and the live images, the live tracking system having a coordinate system registered with the baseline image and the live images; and a pose analyzer unit configured to compare field of view differences between the pose of the probe for the baseline image and the pose of the probe for a current view of a live image determined using the live tracking system to generate success parameters representing a measure of overlap between the baseline image and the current view image and a similarity between the poses, and to convey the success parameters to an operator to provide feedback on image acquisition for motion compensation between the baseline image and the current view image,
A computer-executable method to be executed by a SIMD microprocessor having a processing core comprising a plurality of processing elements, wherein the SIMD microprocessor is communicatively coupled to a memory via a data bus, the method comprising: one or more of the plurality of processing elements making, within a first clock cycle, a read request for a particular memory location in the memory; determining the number of read requests for the particular memory location made during the first clock cycle; returning, subsequent to the first clock cycle, to the one or more processing elements: the value of the particular memory location; and a read number value that is indicative of the total number of read requests for the particular memory location during the first clock cycle; determining, at the one or more processing elements the total number of read requests for the particular memory location during the first clock cycle, using the read number value; computing at the one or more processing elements a sum of the returned value of the particular memory location and the total number of read requests for the particular memory location during the first clock cycle; and at least one of the one or more processing elements writing the sum back to the particular memory location. one or more of the plurality of processing elements making, within a first clock cycle, a read request for a particular memory location in the memory; determining the number of read requests for the particular memory location made during the first clock cycle; returning, subsequent to the first clock cycle, to the one or more processing elements: the value of the particular memory location; and a read number value that is indicative of the total number of read requests for the particular memory location during the first clock cycle; the value of the particular memory location; and a read number value that is indicative of the total number of read requests for the particular memory location during the first clock cycle; determining, at the one or more processing elements the total number of read requests for the particular memory location during the first clock cycle, using the read number value; computing at the one or more processing elements a sum of the returned value of the particular memory location and the total number of read requests for the particular memory location during the first clock cycle; and at least one of the one or more processing elements writing the sum back to the particular memory location.
Steering-wheel assembly, comprising a steering wheel having an airbag, wherein the steering-wheel assembly has at least one actuator (4, 5, 6) controllable by a control device for moving the airbag or the steering wheel having the airbag, wherein the control device is designed such that in the event of an imminent deployment of the airbag, the control device controls the actuator (4, 5, 6) in such a manner that the actuator moves the airbag or the steering wheel having the airbag into a position favourable for the deployment of the airbag, characterised in that the airbag is arranged relative to the steering wheel by means of the actuator so as to be rotatable about the rotational axis of the steering wheel in or on the steering wheel.
A hearing aid system comprising a hearing aid with an associated relay device, said hearing aid system being adapted for establishing a conversation group with other hearing aid systems used by different users, said relay device being adapted for wireless communication with said hearing aid and for wireless communication with a second hearing aid system (2, 12; 3, 13; 4, 14; 5, 15), characterized by said relay device being adapted for receiving and indicating information about said other hearing aid systems (2, 12; 3, 13; 4, 14; 5, 15) available for participation in said conversation group, and said relay device comprising means for selection of said second hearing aid system (2, 12; 3, 13; 4, 14; 5, 15) for participation in the conversation group, based on a detected range to said second hearing aid system (2, 12; 3, 13; 4, 14; 5, 15).
An air compressor including a main housing, a cylinder fitted with a piston body having a piston head, an air storage unit defining a first pressure chamber communicating with the cylinder, a motor fitted with a small gear at an axle thereof, and a large gear, the motor and the large gear are mounted to the main housing such that the small gear engages with the large gear, the large gear is provided with a counterweight being fixed with a crankpin, the piston body is pivotally mounted to the crankpin, the motor drives the crankpin to swing in a circle, which allows the piston body to conduct reciprocating motion within the cylinder so as to force the compressed air in an inner space of the cylinder to flow into the air storage unit; said main housing is formed integrally with the cylinder, and said cylinder defines at its top a second pressure chamber that communicates with the inner space thereof, and a valve plug is provided between the cylinder and the air storage unit for controlling the air communication between the first pressure chamber of the air storage unit and the second pressure chamber of the cylinder, and the cylinder has a top wall and an open bottom, a tubular projection being formed on the top wall of the cylinder, a bore of the tubular projection communicating with the inner space of the cylinder, the top of the tubular projection is provided with multiple tabs at regular gaps to define a central space there between, the inner surface of each tab is provided with multiple spaced ribs; further wherein the valve plug has a bottom round portion, a middle round portion, and a top round portion, the bottom portion having a diameter greater than the middle portion, the middle round portion having a diameter greater than the top portion, the valve plug being located in the central space surrounded by the tabs and snugly fitted between the ribs so as to prevent the valve plug from lateral movement under a force, the diameter of the bottom portion being smaller than the diameter of the central space surrounded by the tabs but greater than the diameter of the bore of the tubular projection; and further wherein at least one spring is disposed between the air storage unit and the valve plug, one end of the spring being fitted around the top round portion of the valve plug while urged against the middle round portion or fitted around the middle round portion of the valve plug while urged against the bottom round portion, whereby the compressed air in the inner space of the cylinder will be controlled at a predetermined pressure to enter the first pressure chamber of the air storage unit by way of the gaps between the tabs.
Wind protection for a precision scale, which surrounds a weighing chamber, with at least one side panel, and a suspension guide for the side panel, wherein the suspension guide has a guide rail and a mounting device for the side panel displaceably mounted in the guide rail, wherein the mounting device has a receptacle for the side panel and at least one guide element, which engages in the guide rail and is displaceably mounted in it, wherein the side panel is held with an upper edge in the mounting device of the suspension guide, characterized in that the guide element is arranged offset to the inside outside of a plane with respect to the weighing chamber, said plane being defined by the receptacle of the side panel, and that the mounting device is pivotably mounted in the guide rail about a contact line between guide element and guide rail, wherein the plane of the side panel is arranged offset to the outside to the guide rail with respect to the weighing chamber.
An acoustic structure (22; 60) having an internal thermal regulator, said acoustic structure (22; 60) comprising: a honeycomb (28; 62) comprising a first edge that is to be located closest to a high temperature area and a second edge, said honeycomb (28; 62) comprising a cell (32a, 32b, 32c, 32d) defined by a plurality of walls (30a, 30b, 30c, 30d, 30e) that extend between said first and second edges; a thermally insulating septum (38a, 38b, 38c, 38d; 63) located within said cell (32a, 32b, 32c, 32d) adjacent to the first edge of said honeycomb (28; 62) to provide said internal thermal regulator; and an acoustic damping material (40a, 40b, 40c; 48a, 48b, 48c) located within said cell (32a, 32b, 32c, 32d) between said thermally insulating septum (38a, 38b, 38c, 38d; 63) and said second edge.
Method for monitoring the communication on a communication bus, wherein the communication bus networks a number of electronic stations (151, 152, 153), wherein the messages transmitted via the communication bus are identified with an identifier, it being stipulated for each station (151, 152, 153) which messages with which identifier are allowed to be sent by the station (151, 152, 153), wherein an unambiguity rule prohibiting another station (152, 153) from sending a payload-data message with an identifier that is already reserved for this station applies, and wherein a protocol unit in a station (151, 152, 153) keeps a list of the identifiers of the messages actually sent by the station (151, 152, 153), characterized in that the list is sent to a central monitoring station connected to the communication bus with a message which includes an entry for an identifier of the sending station (151, 152, 153), wherein a superordinate monitoring entity installed in the central monitoring station compares the identifiers recorded in the list with a table in which are recorded the identifiers regarding the identification of the stations (151, 152, 153) and reference lists containing the identifiers assigned to each station (151, 152, 153) which are allowed to be sent in messages from the station (151, 152, 153) sending the list.