mhurhangee/patent-ind-claim-en huggingface dataset:
A method for data synchronization between a host side and a Field Programmable Gate Array, FPGA, accelerator, comprising: reading and writing a first address space at the host side mapped by a Base Address Register, Bar, space to establish a memory synchronization communication link between the host side and the FPGA accelerator; by the host side, reading first state information from the first address space in which the first state information comprises a previous data frame number and a present data frame number, and performing a reliability check on the memory synchronization communication link by judging whether a difference between the previous data frame number and the present data frame number is within a preset threshold; in response to detection of data migration from the host side to a preset memory space, generating second state information according to the first state information in the first address space, and writing the second state information to a second address space, (S201) wherein the first address space and the second address space are different address spaces at the host side mapped by the Bar space, and the second state information comprises the present data frame number and a next data frame number; and in response to detection of the second state information in the second address space, calling Direct Memory Access, DMA, to migrate data in the preset memory space to a memory space of the FPGA accelerator, and copying the second state information to the first address space, so as to implement synchronization (S202). reading and writing a first address space at the host side mapped by a Base Address Register, Bar, space to establish a memory synchronization communication link between the host side and the FPGA accelerator; by the host side, reading first state information from the first address space in which the first state information comprises a previous data frame number and a present data frame number, and performing a reliability check on the memory synchronization communication link by judging whether a difference between the previous data frame number and the present data frame number is within a preset threshold; in response to detection of data migration from the host side to a preset memory space, generating second state information according to the first state information in the first address space, and writing the second state information to a second address space, (S201) wherein the first address space and the second address space are different address spaces at the host side mapped by the Bar space, and the second state information comprises the present data frame number and a next data frame number; and in response to detection of the second state information in the second address space, calling Direct Memory Access, DMA, to migrate data in the preset memory space to a memory space of the FPGA accelerator, and copying the second state information to the first address space, so as to implement synchronization (S202).
An inspection method of an object (O) by ultrasound transmission, wherein a scanning of said object by an ultrasound beam and measurement of the amplitude of the ultrasound beam transmitted via said object (O) are carried out, said measurement comprising conversion of the ultrasound beam into an electrical signal, the application of an amplification gain to said signal and measurement of the amplitude of said signal, to deduce therefrom a mapping in which each point of a projection surface of said object according to the direction of exposure is associated to the amplitude of the ultrasound beam transmitted to said point via said object, the method comprising the steps consisting of: - carrying out said scanning and said amplitude measurement on a reference piece having a geometry identical to the object to be inspected, to deduce therefrom a mapping of said piece associating to each point of the scanning the transmitted amplitude at said point, the amplification gain applied for the amplitude measurement being a predetermined reference gain (G ref ), - determining , at each point of the mapping of the reference piece, gain corrections to be made to the reference gain (G ref ) at each of the corresponding points of the scanning to obtain a constant amplitude of the ultrasound beam (A c ) transmitted via the reference piece for all the points of the mapping, - carrying out said scanning and said amplitude measurement on the object to be inspected (O), by applying to the different points of the scanning an amplification gain (G c ) corresponding to the reference gain (G ref ) corrected from the gain corrections previously determined. - carrying out said scanning and said amplitude measurement on a reference piece having a geometry identical to the object to be inspected, to deduce therefrom a mapping of said piece associating to each point of the scanning the transmitted amplitude at said point, the amplification gain applied for the amplitude measurement being a predetermined reference gain (G ref ), - determining , at each point of the mapping of the reference piece, gain corrections to be made to the reference gain (G ref ) at each of the corresponding points of the scanning to obtain a constant amplitude of the ultrasound beam (A c ) transmitted via the reference piece for all the points of the mapping, - carrying out said scanning and said amplitude measurement on the object to be inspected (O), by applying to the different points of the scanning an amplification gain (G c ) corresponding to the reference gain (G ref ) corrected from the gain corrections previously determined.
A pool pump , characterized in comprising: a housing comprising an end cover disposed at an upper part of said housing ; and a control panel disposed on said housing, with a control unit connected to said control panel , characterised in that the control unit is connected to the control panel to form a capacitive touch control, wherein a plurality of recesses are formed on an inner side surface of said control panel , a plurality of electrically conductive components are disposed on said control unit , and said electrically conductive components are received in said recesses , and wherein said electrically conductive component is a sensing spring, one end of said sensing spring is connected to said respective recess, and the other end of said sensing spring is connected to said control unit , so that said control panel forms said capacitive touch control. a housing comprising an end cover disposed at an upper part of said housing ; and a control panel disposed on said housing, with a control unit connected to said control panel , characterised in that the control unit is connected to the control panel to form a capacitive touch control, wherein a plurality of recesses are formed on an inner side surface of said control panel , a plurality of electrically conductive components are disposed on said control unit , and said electrically conductive components are received in said recesses , and wherein said electrically conductive component is a sensing spring, one end of said sensing spring is connected to said respective recess, and the other end of said sensing spring is connected to said control unit , so that said control panel forms said capacitive touch control.
Pocket filter assembly for removing contaminations from an air or gas flow, the assembly comprising a frame structure comprising four peripheral frame portions and having a number of filter pocket openings , the assembly further comprising a number of filter pockets (6a, 6b ... 6j) corresponding to the number of filter pocket openings, each filter pocket comprising a mouth , a bottom end and a filter wall connecting the bottom end to the mouth, wherein the mouth of each filter pocket is sealingly secured to a corresponding filter pocket opening of the frame structure, characterised in that a first filter pocket of the number of filter pockets, arranged closest to a first peripheral frame portion of the frame structure, comprises a grip member integrally formed with or in, or attached to, the filter wall and/or bottom end of the first filter pocket said bottom end extending longitudinally in a direction substantially perpendicular to the direction of flow through the pocket filter assembly, and said grip member being arranged substantially midway between the first and the second longitudinal ends of the bottom end, and in that the pocket filter assembly is configured to enable the user to grip the grip member and pull the filter pocket comprising the grip member towards him, thereby folding and holding the folded filter pockets against the frame structure.
A method, comprising: receiving from a first terminal, at a second terminal, at least one of a downlink modulation and coding combination, ModCod, and receive signal metrics ; in response to receiving the at least one of a downlink ModCod and receive signal metrics, the second terminal inserting into a header of a packet a field indicating a downlink ModCod to be used by a regenerative satellite when transmitting on a downlink to the first terminal, wherein the packet destination is the first terminal ; and after inserting the field indicating the downlink ModCod into the header of the packet, transmitting, on an uplink, the packet from the second terminal to a regenerative satellite . receiving from a first terminal, at a second terminal, at least one of a downlink modulation and coding combination, ModCod, and receive signal metrics ; in response to receiving the at least one of a downlink ModCod and receive signal metrics, the second terminal inserting into a header of a packet a field indicating a downlink ModCod to be used by a regenerative satellite when transmitting on a downlink to the first terminal, wherein the packet destination is the first terminal ; and after inserting the field indicating the downlink ModCod into the header of the packet, transmitting, on an uplink, the packet from the second terminal to a regenerative satellite .
A method for separating neutral and polar lipids from an oil of biological material characterized in fractionating the lipids using a mixture of a polar solvent comprising at least one carbon atom, water and an additional substance selected from the group consisting of: mono-, di- and oligosaccharides comprising from 3 to 10 monosaccharide units, said mixture containing at least 25 wt% of said polar solvent, said additional substance is present in an amount of at least 0.1 wt% calculated on the total weight of solvent, water and additional substance, wherein at least a part of said additional substance may be derived from the oil and dissolves in the mixture of solvent and water at the fractionation of the oil, wherein at least two liquid fractions having different densities are formed, wherein one fraction is rich in polar lipids and another fraction is rich in neutral lipids.
A method by a first network apparatus configured to operate an Open Shortest Path First, OSPF, routing protocol in a network, comprising: receiving , from a second network apparatus, an OSPF hello message comprising an attestation token, wherein the attestation token is for proving that the second network apparatus is in a known safe state; determining that the attestation token is valid for the second network apparatus at a current time; establishing , in response to the determination, an adjacency to the second network apparatus; computing , based at least on the attestation token, a trust level for a first link from the first network apparatus to the second network apparatus and a trust level for first prefixes associated with the first link; and sending , to neighboring network apparatuses, a Link State Advertisement, LSA, comprising the trust level for the first link and the trust level for the first prefixes, wherein the LSA is flooded to one or more network apparatuses in the network, and wherein the trust level for the first link and the trust level for the prefixes are used by the network apparatuses in the network to compute a routing table of the network. receiving , from a second network apparatus, an OSPF hello message comprising an attestation token, wherein the attestation token is for proving that the second network apparatus is in a known safe state; determining that the attestation token is valid for the second network apparatus at a current time; establishing , in response to the determination, an adjacency to the second network apparatus; computing , based at least on the attestation token, a trust level for a first link from the first network apparatus to the second network apparatus and a trust level for first prefixes associated with the first link; and sending , to neighboring network apparatuses, a Link State Advertisement, LSA, comprising the trust level for the first link and the trust level for the first prefixes, wherein the LSA is flooded to one or more network apparatuses in the network, and wherein the trust level for the first link and the trust level for the prefixes are used by the network apparatuses in the network to compute a routing table of the network.
Bezel for a timepiece made from a first material, comprising a groove , in which a communication circuit is arranged, characterised in that said communication circuit is over-moulded with a polymer material filling said groove, said bezel further comprising a dial train element enabling indication of the minutes, wherein this dial train element comprises a strip made from a second material, this strip having areas of excess thickness forming index numbers , the communication circuit being covered by a first over-moulding , on which the dial train element is positioned, a second over-moulding being arranged on the dial train element, and the first and second over-mouldings being arranged so that the areas of excess thickness are flush with the surface of the second over-moulding .
An electric device control method for controlling an electric device that includes an internal combustion engine that is rotatably supported relative to a drive shaft of a vehicle, a first electric motor configured to receive a driving force of the internal combustion engine to carry out power generation, and a second electric motor connected to the drive shaft, comprising: setting a rotational speed of the internal combustion engine to increase as a vehicle speed of the vehicle increases while the power generation is carried out by the first electric motor ; characterized in that where the driving force required by the second electric motor becomes zero or negative while the first electric motor is carrying out power generation by the driving force of the internal combustion engine , stopping the internal combustion engine where the vehicle speed is greater than or equal to a first threshold value (V1), and continuing the power generation where the vehicle speed is less than the first threshold value (V1). setting a rotational speed of the internal combustion engine to increase as a vehicle speed of the vehicle increases while the power generation is carried out by the first electric motor ; characterized in that where the driving force required by the second electric motor becomes zero or negative while the first electric motor is carrying out power generation by the driving force of the internal combustion engine , stopping the internal combustion engine where the vehicle speed is greater than or equal to a first threshold value (V1), and continuing the power generation where the vehicle speed is less than the first threshold value (V1).
Method for producing a sensor module , in particular an at least largely media-proof sensor module , for use in aggressive environments, wherein at least one sensor element is applied to a circuit carrier , wherein at least one leadframe is electrically conductively connected to the circuit carrier , wherein the leadframe and the circuit carrier are at least partly enveloped with an at least largely media-resistant insulating encapsulation , wherein at least one conductor track is provided on the circuit carrier , characterized in that the leadframe and/or the circuit carrier have/has at least one adhesion-promoting surface , and in that the conductor track has one or more of the following adhesion-promoting surfaces : Ag; Ni/Ag; Ni/Pd; Ni/Pd/Au; Cu; an organic surface protection, wherein the leadframe has one or more of the following adhesion-promoting surfaces : Ag; electrochemically deposited Ag; Ni/Ag; Ni/Pd; Ni/Pd/Au, wherein a transfer moulding method is used for applying the insulating encapsulation , wherein at least one soldering location is provided on the circuit carrier , wherein a soldering resist is applied on the circuit carrier around the soldering location , wherein the soldering resist is applied as a frame around the soldering location .
A remote-control unit having an input transducer , an output transducer , and a processor adapted for setting a volume of an output from the output transducer , the remote-control unit is adapted for controlling a hearing assistive device by sending a control signal with instructions on an audio carrier, wherein the processor is adapted for: - activating the input transducer for receiving environmental sound, - analyzing the environmental sound, characterized in that the processor furthermore is adapted for: - determining and setting the volume of the output from the output transducer based on the environmental sound, and - outputting the control signal with instructions on the audio carrier at the set volume via the output transducer . - activating the input transducer for receiving environmental sound, - analyzing the environmental sound, - determining and setting the volume of the output from the output transducer based on the environmental sound, and - outputting the control signal with instructions on the audio carrier at the set volume via the output transducer .
A biopotential electrode for transferring electrical signals with a subject comprising: an external electrical conductor ; a membrane ; and a conductive medium positioned in communication with a portion of said electrical conductor and a portion of said membrane ; wherein electrical potentials are coupled from said subject across said membrane into said conductive medium and then transferred from said subject to said electrical conductor , characterised in that the conductive medium is hydrophilic for aiding in keeping the surface of the membrane dry and the membrane permits exchange of ions between the subject's body and the conductive medium while at the same time being sufficiently restrictive to block moisture such that the exterior face of the membrane presents a dry surface to the skin of the subject's body. an external electrical conductor ; a membrane ; and a conductive medium positioned in communication with a portion of said electrical conductor and a portion of said membrane ; wherein electrical potentials are coupled from said subject across said membrane into said conductive medium and then transferred from said subject to said electrical conductor , characterised in that the conductive medium is hydrophilic for aiding in keeping the surface of the membrane dry and the membrane permits exchange of ions between the subject's body and the conductive medium while at the same time being sufficiently restrictive to block moisture such that the exterior face of the membrane presents a dry surface to the skin of the subject's body.
A method for determining safe vehicle trajectories for a vehicle equipped with sensors for monitoring the surrounding environment, taking into account sensing limitations; comprising the steps of: detecting observable obstacles ; determining unobservable areas ; adding virtual obstacles in unobservable areas ; associating each observable obstacle and each virtual obstacle with one or more hypotheses for what could be concealed outside of the an observed area in which it is possible to detect obstacles , referred to as hypothetical events, and assigning an occurrence probability to each combination of obstacle and events; and characterized in that it comprises the further steps of: determining safe vehicle trajectories based on both observable obstacles and virtual obstacles and the occurrence probability of each combination of obstacle and events, and such that, should a low-probability hypothetical event occur, a first margin is applied, and such that, should a high-probability hypothetical event occur, a second margin is applied, where the first margin is smaller than the second margin, the first and second margins being either physical margins to an obstacle or margins in terms of vehicle dynamics, and wherein physical margins to an obstacle are distances from a safe vehicle trajectory to the obstacle , and margins in terms of vehicle dynamics are margins in one or more of vehicle longitudinal-, lateral- and yaw-acceleration levels required for following a safe vehicle trajectory. detecting observable obstacles ; determining unobservable areas ; adding virtual obstacles in unobservable areas ; associating each observable obstacle and each virtual obstacle with one or more hypotheses for what could be concealed outside of the an observed area in which it is possible to detect obstacles , referred to as hypothetical events, and assigning an occurrence probability to each combination of obstacle and events; and characterized in that it comprises the further steps of: determining safe vehicle trajectories based on both observable obstacles and virtual obstacles and the occurrence probability of each combination of obstacle and events, and such that, should a low-probability hypothetical event occur, a first margin is applied, and such that, should a high-probability hypothetical event occur, a second margin is applied, where the first margin is smaller than the second margin, the first and second margins being either physical margins to an obstacle or margins in terms of vehicle dynamics, and wherein physical margins to an obstacle are distances from a safe vehicle trajectory to the obstacle , and margins in terms of vehicle dynamics are margins in one or more of vehicle longitudinal-, lateral- and yaw-acceleration levels required for following a safe vehicle trajectory.