mhurhangee/patent-ind-claim-en huggingface dataset:
A battery module , comprising: a plurality of battery cells ; a plurality of cell tubes configured to accommodate the plurality of battery cells within the plurality of cell tubes so that individual of the plurality of battery cells are positioned within individual of the plurality of cell tubes, each battery cell having a first electric pole and a second electric pole, a first conductive plate consisting of a printed circuit board and comprising a first conductive layer and an isolating layer , said isolating layer comprising at least one blind hole for wire-bonding said conductive layer . a plurality of battery cells ; a plurality of cell tubes configured to accommodate the plurality of battery cells within the plurality of cell tubes so that individual of the plurality of battery cells are positioned within individual of the plurality of cell tubes, each battery cell having a first electric pole and a second electric pole, a first conductive plate consisting of a printed circuit board and comprising a first conductive layer and an isolating layer , said isolating layer comprising at least one blind hole for wire-bonding said conductive layer .
A cooker hood , comprising a cooker hood body , and further comprising: a communications component , a control component , and an image display component that are disposed in the cooker hood body , wherein the control component is configured to obtain, by using the communications component , a surveillance picture taken by at least one surveillance device; and the image display component is configured to present the surveillance picture to a user; characterized in that the cooker hood further comprises a projection component , configured to present the surveillance picture to the user by means of projection and further configured to present an operation interface of the at least one surveillance device to the user by means of projection, wherein the projection component comprises: an input perception component , configured to obtain an operation of the user for the operation interface to determine a user instruction, and wherein the control component further is configured to send in response to the user instruction, a control instruction to the at least one surveillance device by using the communications component , so as to adjust a shooting angle of the at least one surveillance device. a communications component , a control component , and an image display component that are disposed in the cooker hood body , wherein the control component is configured to obtain, by using the communications component , a surveillance picture taken by at least one surveillance device; and the image display component is configured to present the surveillance picture to a user; a projection component , configured to present the surveillance picture to the user by means of projection and further configured to present an operation interface of the at least one surveillance device to the user by means of projection, wherein the projection component comprises: an input perception component , configured to obtain an operation of the user for the operation interface to determine a user instruction, and wherein the control component further is configured to send in response to the user instruction, a control instruction to the at least one surveillance device by using the communications component , so as to adjust a shooting angle of the at least one surveillance device. an input perception component , configured to obtain an operation of the user for the operation interface to determine a user instruction, and wherein the control component further is configured to send in response to the user instruction, a control instruction to the at least one surveillance device by using the communications component , so as to adjust a shooting angle of the at least one surveillance device.
A computer implemented method for motion compensation in video data using neural networks, the method comprising the steps of: receiving one or more input blocks of video data from an input frame of video data and a plurality of reference blocks of video data selected from one or more reference frames of video data using a motion estimation process; inputting the plurality of reference blocks of video data into one or more pre-trained neural networks , wherein the one or more pre-trained neural networks are configured to transform the plurality of reference blocks of video data into a predicted block of video data; transforming, by the one or more pre-trained neural networks, the input plurality of reference blocks of video data into the predicted block of video data; outputting the predicted block of video data from the one or more pre-trained neural networks ; and calculating one or more residual blocks of video data from predicted block of video data and the one or more input blocks of video data. receiving one or more input blocks of video data from an input frame of video data and a plurality of reference blocks of video data selected from one or more reference frames of video data using a motion estimation process; inputting the plurality of reference blocks of video data into one or more pre-trained neural networks , wherein the one or more pre-trained neural networks are configured to transform the plurality of reference blocks of video data into a predicted block of video data; transforming, by the one or more pre-trained neural networks, the input plurality of reference blocks of video data into the predicted block of video data; outputting the predicted block of video data from the one or more pre-trained neural networks ; and calculating one or more residual blocks of video data from predicted block of video data and the one or more input blocks of video data.
A fluid damper comprising: a damper housing having a first fluid volume and a second fluid volume ; a damping piston reciprocatingly disposed within said damper housing and separating said first fluid volume from said second fluid volume, said damping piston having damping piston valving coupled thereto; a piston fluid pathway between said first fluid volume and said second fluid volume through said damping piston, said piston fluid pathway passing through said damping piston valving and permitting fluid communication between said first fluid volume and said second fluid volume when a pressure in one of said first fluid volume and the second fluid volume exceeds a threshold value of said damping piston valving; a fluid accumulator having a pressurizable gas volume and an accumulator fluid volume isolated from one another by a separation member; a first fluid pathway extending solely between said first fluid volume and said accumulator fluid volume; a second fluid pathway extending solely between said second fluid volume and said accumulator fluid volume; and a flow control valve disposed in at least one of said first fluid pathway and said second fluid pathway, said flow control valve having a non-zero threshold value, said flow control valve comprising: a first adjustable valve , said first adjustable valve disposed in said first fluid pathway said first adjustable valve having a selectable threshold value which exceeds said threshold value of said damping piston valving; and a second adjustable valve , said second adjustable valve disposed in said second fluid pathway; characterized in that said fluid damper comprises a third fluid pathway fluidically coupling said first fluid volume and said second fluid volume to enable fluid flow around said damping piston without passing through said fluid accumulator, and a third adjustable valve disposed in said third fluid pathway, said third adjustable valve comprising an externally adjustable interface for controlling the third fluid pathway.
A method for determining the impedance of a plurality of channels, the method comprising the steps of: a) providing an apparatus for testing the impedance comprising a plurality of channels having a plurality of first channels and a plurality of second channels, at least one reference channel, a signal generator connected to the plurality of channels, a reference signal generator connected to the reference channel, at least one amplifier connected to each of the plurality of channels and the reference channel and at least one filter arrangement connected to an output of the at least one amplifier to filter the signal from the at least one amplifier; b) applying an input signal from the reference signal generator to the reference channel; c) applying a first input signal to the plurality of first channels; d) simultaneously applying a second input signal to the plurality of second channels such that the second input signal has a phase opposite of the first input signal and the frequency of the first and second input signals is different from the frequency of the input signal; e) measuring the output from the at least one filter arrangement and determining the impedance of the reference channel; and f) measuring the output from the at least one filter arrangement connected therewith and determining the impedance of the plurality of first channels and the plurality of second channels. a) providing an apparatus for testing the impedance comprising a plurality of channels having a plurality of first channels and a plurality of second channels, at least one reference channel, a signal generator connected to the plurality of channels, a reference signal generator connected to the reference channel, at least one amplifier connected to each of the plurality of channels and the reference channel and at least one filter arrangement connected to an output of the at least one amplifier to filter the signal from the at least one amplifier; b) applying an input signal from the reference signal generator to the reference channel; c) applying a first input signal to the plurality of first channels; d) simultaneously applying a second input signal to the plurality of second channels such that the second input signal has a phase opposite of the first input signal and the frequency of the first and second input signals is different from the frequency of the input signal; e) measuring the output from the at least one filter arrangement and determining the impedance of the reference channel; and f) measuring the output from the at least one filter arrangement connected therewith and determining the impedance of the plurality of first channels and the plurality of second channels.
A method implemented by a computing device to efficiently distribute a processing workload between a set of processing cores comprising: assigning thread policies to individual threads, the thread policies specifying criteria for allocation of threads between heterogeneous cores of a processing system ; tracking performance metrics for the processing system ; applying a power management policy to selectively activate and deactivate the heterogeneous cores for a subsequent time period, based on analysis of the performance metrics at a first frequency; ascertaining a subset of the heterogeneous cores selected as active for thread scheduling according to the applied power management policy; and allocating threads on a thread-by-thread basis among the subset of the heterogeneous cores and in accordance with the thread policies assigned to the individual threads at a second frequency that is higher than the first frequency. assigning thread policies to individual threads, the thread policies specifying criteria for allocation of threads between heterogeneous cores of a processing system ; tracking performance metrics for the processing system ; applying a power management policy to selectively activate and deactivate the heterogeneous cores for a subsequent time period, based on analysis of the performance metrics at a first frequency; ascertaining a subset of the heterogeneous cores selected as active for thread scheduling according to the applied power management policy; and allocating threads on a thread-by-thread basis among the subset of the heterogeneous cores and in accordance with the thread policies assigned to the individual threads at a second frequency that is higher than the first frequency.
A method of wireless communications, comprising: obtaining different sets of samples for at least one data signal and at least one reference signal; spreading the different sets of samples for the at least one data signal and the at least one reference signal using separate discrete Fourier transform, DFT, processing blocks, wherein the spreading includes skipping DFT processing for reference signals having a Zadoff-Chu, ZC, sequence; interlacing the spreaded sets of samples by assigning the spreaded sets of samples from each of the separate DFT processing blocks to non-consecutive, equally spaced apart tones; and transmitting the at least one data signal and the at least one reference signal on the assigned tones in an orthogonal frequency division multiplexed, OFDM, symbol. obtaining different sets of samples for at least one data signal and at least one reference signal; spreading the different sets of samples for the at least one data signal and the at least one reference signal using separate discrete Fourier transform, DFT, processing blocks, wherein the spreading includes skipping DFT processing for reference signals having a Zadoff-Chu, ZC, sequence; interlacing the spreaded sets of samples by assigning the spreaded sets of samples from each of the separate DFT processing blocks to non-consecutive, equally spaced apart tones; and transmitting the at least one data signal and the at least one reference signal on the assigned tones in an orthogonal frequency division multiplexed, OFDM, symbol.
Machining centre for timepiece components in medium-sized production runs, including a fixed base , on which are coaxially superposed several stages , at least one of which is movable relative to said fixed base , and wherein each said stage movable relative to said fixed base can be position indexed with respect to said fixed base , each said stage including, on the periphery thereof, a plurality of distinct stations arranged at a constant angular pitch, said stations including machining units and/or grippers whose movements are controlled by control means , said machining centre including a plurality of machining locations each formed by a combination of said stations from two adjacent said stages , each said machining location combining, on the one hand, at least one said machining unit of a said station of one of said adjacent stages , and on the other hand, at least one gripper of another said station of the other of said adjacent stages , and wherein each relative movement between two indexing positions of two said stages is able to change the composition of each of said machining locations , said machining centre including , among said stages , at least a first stage and a second stage which are superposed and adjacent, wherein at least one of said first stage and second stage is movable relative to said fixed base , said first stage and said second stage being arranged such that, in any relative indexing position of said first stage with respect to said second stage , each said machining location formed in this indexing operation includes at least one said machining unit belonging to one of said adjacent first stage and second stage , and at least one said gripper belonging to the other of said adjacent first stage and second stage , characterized in that each said gripper has at least one rotational degree of freedom relative to the stage that carries said gripper, and in that at least one said station includes both at least one said machining unit and at least one said gripper .
A replaceable milling drum (32; 232) for an earth working machine such as a road milling machine, recycler, stabilizer, or surface miner, which extends between a drive axial end and a retention axial end (32b; 232b) located oppositely from the drive axial end and is embodied to radially externally surround a drive configuration (46; 246) of the earth working machine in the operationally mounted state, the milling drum (32; 132; 232) being retainable in its operational position, against axial displacement, by a central bolt arrangement (78; 278), accessible in the region of its retention axial end (32b; 232b), having a bolt axis collinear with the central apparatus axis (R) of the milling drum (32; 232), characterized in that a bearing stem (74a; 74a'; 274a) is located in a region closer to the retention axial end (32b; 232b) than to the drive axial end being provided, which stem protrudes from a protrusion structure (74; 74'; 274) carrying it and extends in an axial direction taperingly in a direction away from the drive axial end , the bearing stem (74a; 74a'; 274a) comprising at least two cylindrical bearing surfaces (74g, 74h; 74g', 74h') at an axial distance from one another with respect to the central apparatus axis (R), which, with the milling drum (32; 232) in the operational state, are surrounded with zero clearance by hollow-cylindrical counterpart bearing surfaces of an earth working machine-side non-locating bearing (76; 276), the cylindrical bearing surface (74g; 74g') located axially farther from the protrusion structure (74; 74'; 274) having a smaller diameter than the cylindrical bearing surface (74h; 74h') located axially closer to the protrusion structure (74; 74'; 274), and/or in that the milling drum (32; 232) comprises, at a region located closer to the retention axial end (32b; 132b; 232b) than to the drive axial end , a centering recess (74b; 74b'; 274), embodied for positive centering engagement and connected rigidly to the milling drum (32; 132; 232), which tapers in a direction away from the drive axial end , the centering recess (74b; 74b'; 274) being embodied with an opening angle (γ, δ) that decreases in steps along its taper.
An augmented reality device, comprising a micro display and an augmented reality element , wherein the micro display is configured to emit light carrying display content, the light at the same time comprises a first light portion in a first polarization state and a second light portion in a second polarization state after emitting from the micro display and before entering the augmented reality element ; the augmented reality element is configured to convert the first light portion from the first polarization state into the second polarization state, to convert the second light portion from the second polarization state into the first polarization state, and to couple out the first light portion in the second polarization state and the second light portion in the first polarization state; and the first polarization state is perpendicular to the second polarization state. the micro display is configured to emit light carrying display content, the light at the same time comprises a first light portion in a first polarization state and a second light portion in a second polarization state after emitting from the micro display and before entering the augmented reality element ; the augmented reality element is configured to convert the first light portion from the first polarization state into the second polarization state, to convert the second light portion from the second polarization state into the first polarization state, and to couple out the first light portion in the second polarization state and the second light portion in the first polarization state; and the first polarization state is perpendicular to the second polarization state.
An HCBI polynucleic acid comprising: (a) a nucleotide sequence depicted in Figure 5 (SEQ ID NO: 72); (b) a nucleotide sequence having at least 90% identity to a nucleotide sequence of (a); (c) a nucleotide sequence being complementary to a nucleotide sequence of (a) or (b); or (d) a nucleotide sequence which is redundant as a result of the degeneracy of the genetic code compared to any of the above-given nucleotide sequences. (a) a nucleotide sequence depicted in Figure 5 (SEQ ID NO: 72); (b) a nucleotide sequence having at least 90% identity to a nucleotide sequence of (a); (c) a nucleotide sequence being complementary to a nucleotide sequence of (a) or (b); or (d) a nucleotide sequence which is redundant as a result of the degeneracy of the genetic code compared to any of the above-given nucleotide sequences.
An equipment for the continuous cleaning of a moving strip (S) comprising: - a tank containing an aqueous solution , - at least a roll for guiding said strip into said tank , - at least an ultrasound emitting mean , - means for feeding said aqueous solution inside said tank , - means for emptying the tank , - means for controlling the power of the at least one ultrasound emitting mean , - a wire (W) connecting said means for controlling the power of the at least one ultrasound emitting mean and the at least one ultrasound emitting mean , characterised by further comprising: - means for estimating the aqueous level in said tank , - means for calculating , for each ultrasound emitting means , its distance to the aqueous solution level, - at least an impermeable closable opening on at least a lateral side of said tank through which the at least one ultrasound emitting mean can be introduced. - a tank containing an aqueous solution , - at least a roll for guiding said strip into said tank , - at least an ultrasound emitting mean , - means for feeding said aqueous solution inside said tank , - means for emptying the tank , - means for controlling the power of the at least one ultrasound emitting mean , - a wire (W) connecting said means for controlling the power of the at least one ultrasound emitting mean and the at least one ultrasound emitting mean , - means for estimating the aqueous level in said tank , - means for calculating , for each ultrasound emitting means , its distance to the aqueous solution level, - at least an impermeable closable opening on at least a lateral side of said tank through which the at least one ultrasound emitting mean can be introduced.
A low temperature storage system storing objects at low temperatures, comprising: a low temperature storage vessel having a storage area for stored objects, and an opening ; and a transport mechanism for loading and unloading stored objects to and from said low temperature storage vessel , said transport mechanism including a reciprocating part that has a holding part holding the stored objects and that is capable of reciprocating along a transfer direction, and guide unit for guiding said reciprocating part along the transfer direction, characterized in that said guide unit including an in-vessel guide fixedly placed inside said low temperature storage vessel , and an extendable and contractable guide configured to be able to extend and contract along said transfer direction, said extendable and contractable guide being provided independently of said in-vessel guide so as to be connectable to said in-vessel guide . a low temperature storage vessel having a storage area for stored objects, and an opening ; and a transport mechanism for loading and unloading stored objects to and from said low temperature storage vessel , said transport mechanism including a reciprocating part that has a holding part holding the stored objects and that is capable of reciprocating along a transfer direction, and guide unit for guiding said reciprocating part along the transfer direction, said guide unit including an in-vessel guide fixedly placed inside said low temperature storage vessel , and an extendable and contractable guide configured to be able to extend and contract along said transfer direction, said extendable and contractable guide being provided independently of said in-vessel guide so as to be connectable to said in-vessel guide .