mhurhangee/ep-ind-claims huggingface dataset:
A method of programming non-volatile storage, comprising: performing one stage of a multi-stage programming process on a plurality of non-volatile storage elements (100, 102, 104, 106), the multi-stage programming process programs the plurality of non-volatile storage elements (100, 102, 104, 106) to one or more final target conditions (A, B, C), the one stage includes programming the non-volatile storage elements (100, 102, 104, 106) to one or more first interim target conditions using a first set of program pulses, performing the one stage includes identifying a program pulse associated with achieving a particular result (Vvstart), characterised by performing one or more sending operations for one or more alternative results (Vvstart-2, Vvstart-3) for the non-volatile storage elements (100, 102, 104, 106), storing an indication based on a first alternative result (Vvstart-2) of the one or more alternative results and the identified program pulse if the sensing operation determines that greater than a predetermined number of the non-volatile storage elements (100, 102, 104, 106), achieved the first alternative result (Vvstart-2), and storing the indication based on the identified program pulse if the sensing operation does not determine that greater than said predetermined number of non-volatile storage elements (100, 102, 104, 106) achieved the one or more alternative results (Vvstart-2, Vvstart-3); and performing an additional stage of the multi-stage programming process including applying a second set of program pulses having an initial pulse with a magnitude set based on the stored indication. performing one stage of a multi-stage programming process on a plurality of non-volatile storage elements (100, 102, 104, 106), the multi-stage programming process programs the plurality of non-volatile storage elements (100, 102, 104, 106) to one or more final target conditions (A, B, C), the one stage includes programming the non-volatile storage elements (100, 102, 104, 106) to one or more first interim target conditions using a first set of program pulses, performing the one stage includes identifying a program pulse associated with achieving a particular result (Vvstart), characterised by performing one or more sending operations for one or more alternative results (Vvstart-2, Vvstart-3) for the non-volatile storage elements (100, 102, 104, 106), storing an indication based on a first alternative result (Vvstart-2) of the one or more alternative results and the identified program pulse if the sensing operation determines that greater than a predetermined number of the non-volatile storage elements (100, 102, 104, 106), achieved the first alternative result (Vvstart-2), and storing the indication based on the identified program pulse if the sensing operation does not determine that greater than said predetermined number of non-volatile storage elements (100, 102, 104, 106) achieved the one or more alternative results (Vvstart-2, Vvstart-3); and performing an additional stage of the multi-stage programming process including applying a second set of program pulses having an initial pulse with a magnitude set based on the stored indication.
A method of calibrating a Viterbi detector, said Viterbi detector comprising at least one noise predictive filter, said method comprising: (a) obtaining noise samples in a training phase, based on wich at least one tap coefficient for the at least one noise predictive filter is generated, (b) averaging said noise samples; (c) estimating entries of a 3-by-3 conditional noise matrix C [ k] using the averaged noise samples, the 3-by-3 conditional noise matrix C [ k] defined by C ij k = E n i − 3 n j − 3 | NRZ condition k; wherein - E is an expectation value, - n are said averaged noise samples, - NRZ is the non-return to zero, and - k = b 1- q + 2b 2- q +... + 2 q -1 b 0, wherein b 1- q... b -1 b 0 is a bit string synchronized with said averaged noise samples n, and q is the number of data bits; and (d) calculating at least one tap of said at least one noise predictive filter based on the estimated entries. (a) obtaining noise samples in a training phase, based on wich at least one tap coefficient for the at least one noise predictive filter is generated, (b) averaging said noise samples; (c) estimating entries of a 3-by-3 conditional noise matrix C [ k] using the averaged noise samples, the 3-by-3 conditional noise matrix C [ k] defined by C ij k = E n i − 3 n j − 3 | NRZ condition k; wherein - E is an expectation value, - n are said averaged noise samples, - NRZ is the non-return to zero, and - k = b 1- q + 2b 2- q +... + 2 q -1 b 0, wherein b 1- q... b -1 b 0 is a bit string synchronized with said averaged noise samples n, and q is the number of data bits; and - E is an expectation value, - n are said averaged noise samples, - NRZ is the non-return to zero, and - k = b 1- q + 2b 2- q +... + 2 q -1 b 0, wherein b 1- q... b -1 b 0 is a bit string synchronized with said averaged noise samples n, and q is the number of data bits; and (d) calculating at least one tap of said at least one noise predictive filter based on the estimated entries.
An apparatus configured to process a lightfield image of a scene, wherein the apparatus comprises a memory to store data representative of the lightfield image and a processor, the apparatus being characterized in that the processor is configured to: - obtain a first focal stack comprising a plurality of first images (1001A to 1007A) each representative of the scene, a different depth value of a plurality of depth values being associated with each first image, said first images (1001A to 1007A) being generated from a first set of pixels of said lightfield image; - obtain a second focal stack comprising a plurality of second images (1001B to 1007B) each representative of the scene, a different depth value of said plurality of depth values being associated with each second image, said second images (1001A to 1007A) being generated from a second set of pixels of said lightfield image, the second set being different from the first set; and - for each pair of a plurality of pairs of first and second images having a same associated depth value, associate a depth information with pixels of said each pair having as disparity value a value close to 0, said depth information corresponding to said depth value of said each pair. - obtain a first focal stack comprising a plurality of first images (1001A to 1007A) each representative of the scene, a different depth value of a plurality of depth values being associated with each first image, said first images (1001A to 1007A) being generated from a first set of pixels of said lightfield image; - obtain a second focal stack comprising a plurality of second images (1001B to 1007B) each representative of the scene, a different depth value of said plurality of depth values being associated with each second image, said second images (1001A to 1007A) being generated from a second set of pixels of said lightfield image, the second set being different from the first set; and - for each pair of a plurality of pairs of first and second images having a same associated depth value, associate a depth information with pixels of said each pair having as disparity value a value close to 0, said depth information corresponding to said depth value of said each pair.
Adhesive mat for the imaging of the distribution of agricultural material for spreading, wherein the adhesive mat comprises a collecting region which is delimited at least on one side at least in part by an edge region, wherein the edge region comprises a through-opening and/or a handle, and wherein the edge region is designed in one part with the collecting region and is structured so as to be raised in relation to the collecting region, and wherein the collecting region comprises a plurality of nub-like elevations which are arranged in a grid on the collecting region. wherein the edge region comprises a through-opening and/or a handle, and wherein the edge region is designed in one part with the collecting region and is structured so as to be raised in relation to the collecting region, and wherein the collecting region comprises a plurality of nub-like elevations which are arranged in a grid on the collecting region.
A drug for use in cancer therapy, comprising a combination of an Axl inhibitor and an anti-PD-1 antibody, the Axl inhibitor being N-{5-[(6,7-dimethoxy-4-quinolinyl)oxy]-2-pyridinyl}-2,5-dioxo-1-phenyl-1,2,5,6,7,8-hexahydro-3-quinolinecarboxamide, a salt thereof, a solvate thereof, an N-oxide thereof, or a prodrug thereof.
An optical processing head (100, 300) comprising: a first optical element (101, 301) that is a planoconvex lens having a convex surface on a downstream side and converts light (111, 311) emitted by a light source into first parallel light (112, 312); a second optical element (102, 302) that is a planoconcave lens having a concave surface on a downstream side, arranged downstream of said first optical element (101, 301) and converts the first parallel light (112, 312) into first divergent light (113, 313), and movable along an optical axis; a third optical element (103, 303) that is a planoconvex lens having a convex surface on a downstream side and is arranged downstream of said second optical element (102, 302) and converts the first divergent light (113, 313) into second parallel light (114, 314); and a fourth optical element (104, 304) that is a planoconvex lens having a convex surface on an upstream side, is arranged downstream of said third optical element (103, 303) and converts the second parallel light (114, 314) into convergent light (115, 315) which is condensed toward a processing surface characterized in that letting f1 be a focal length of said first optical element (101, 301), f3 be a focal length of said third optical element (103, 303), f4 be a focal length of said fourth optical element (104, 304), and m be an enlargement magnification of the optical processing head (100, 300), f 3 ≤ 3 f 4 2 m 2 f 1 + f 4 is satisfied. a first optical element (101, 301) that is a planoconvex lens having a convex surface on a downstream side and converts light (111, 311) emitted by a light source into first parallel light (112, 312); a second optical element (102, 302) that is a planoconcave lens having a concave surface on a downstream side, arranged downstream of said first optical element (101, 301) and converts the first parallel light (112, 312) into first divergent light (113, 313), and movable along an optical axis; a third optical element (103, 303) that is a planoconvex lens having a convex surface on a downstream side and is arranged downstream of said second optical element (102, 302) and converts the first divergent light (113, 313) into second parallel light (114, 314); and a fourth optical element (104, 304) that is a planoconvex lens having a convex surface on an upstream side, is arranged downstream of said third optical element (103, 303) and converts the second parallel light (114, 314) into convergent light (115, 315) which is condensed toward a processing surface characterized in that letting f1 be a focal length of said first optical element (101, 301), f3 be a focal length of said third optical element (103, 303), f4 be a focal length of said fourth optical element (104, 304), and m be an enlargement magnification of the optical processing head (100, 300),
Motor vehicle driving style estimating system comprising: a measuring apparatus of a motion quantity (v(t); v gps (t)) of the motor vehicle; a processing apparatus connected to the measuring apparatus and configured to: define a value of a space (S th) corresponding to a measuring path; calculate, based on the motion quantity, an estimate of an energy (Eu(t)) consumed by the motor vehicle along the measuring path defined by the space value (S th); calculate an energy reference ( E REF (t)) associated to a reference behavior of the motor vehicle along the measuring path defined by the space value (S th); characterized in that the processing apparatus is further configured to calculate an indication of the driving style dependent on a difference between the consumed energy (Eu(t)) and the reference energy ( E REF (t)) along the measuring path defined by the space value (S th) and on the space value (S th). a measuring apparatus of a motion quantity (v(t); v gps (t)) of the motor vehicle; a processing apparatus connected to the measuring apparatus and configured to: define a value of a space (S th) corresponding to a measuring path; calculate, based on the motion quantity, an estimate of an energy (Eu(t)) consumed by the motor vehicle along the measuring path defined by the space value (S th); calculate an energy reference ( E REF (t)) associated to a reference behavior of the motor vehicle along the measuring path defined by the space value (S th); characterized in that the processing apparatus is further configured to calculate an indication of the driving style dependent on a difference between the consumed energy (Eu(t)) and the reference energy ( E REF (t)) along the measuring path defined by the space value (S th) and on the space value (S th). define a value of a space (S th) corresponding to a measuring path; calculate, based on the motion quantity, an estimate of an energy (Eu(t)) consumed by the motor vehicle along the measuring path defined by the space value (S th); calculate an energy reference ( E REF (t)) associated to a reference behavior of the motor vehicle along the measuring path defined by the space value (S th); characterized in that the processing apparatus is further configured to calculate an indication of the driving style dependent on a difference between the consumed energy (Eu(t)) and the reference energy ( E REF (t)) along the measuring path defined by the space value (S th) and on the space value (S th).
A double-walled chamber for the UV disinfection of liquids comprising: (i) an inlet connection; (ii) an outlet connection; (iii) an outer pipe which encloses an inner pipe in which at least one UV radiation source is disposed and at whose ends there is a sealing cover (20, 21) in which there can also be an outlet and/or inlet opening, characterized in that: (a) the entrance of the liquid into the inner pipe with the radiation devices occurs through the intermediate space between the outer and inner pipe, through a circular ring of round inlet openings provided at the inlet end of the inner pipe, (b) the outer pipe has a circular cross-section, and (c) the inner pipe has a non-circular cross-section.
Planar element having an obverse and a reverse and comprising a heating layer and a contacting layer, the heating layer being composed of an intrinsically heatable self-adhesive which is designed as a conductor which heats up when an electric current is passed through, and the contacting layer being designed as an at least substantially two-dimensionally extended contacting element which is perforated by cutouts, and having a first side face and a second side face, the contacting layer via the first side face being in contact with the heating layer and being in electrically conducting communication therewith, characterized in that the second side face of the contacting layer forms the obverse of the planar element, in that the cutouts in the contacting element are designed with passage through the thickness of the contacting element and are present in adhesive-free form at least in the region of the second side face, and in that the first side face of the contacting layer is embedded at least partly in the intrinsically heatable self-adhesive. the heating layer being composed of an intrinsically heatable self-adhesive which is designed as a conductor which heats up when an electric current is passed through, and the contacting layer being designed as an at least substantially two-dimensionally extended contacting element which is perforated by cutouts, and having a first side face and a second side face, the contacting layer via the first side face being in contact with the heating layer and being in electrically conducting communication therewith,
Electrical connector having a housing portion which has two guiding channels which are spaced apart from each other, the electrical connector further having two elongate contact elements, wherein the contact elements are substantially rigid pins having a degree of resilience, wherein through each guiding channel one contact element extends, the electrical connector further having a splay member which is movable relative to the housing portion and which has two splay faces which face the contact elements, wherein the two splay faces at an end facing away from the guiding channels have a larger spacing from each other than the guiding channels, and wherein the splay member tapers in the direction towards the guiding channels, characterized in that the splay member at the end facing away from the guiding channels has retention channels through which the contact elements protrude, and wherein the retention channels are tunnel-like shaped.
On-load tap-changer for uninterrupted diverter switch operation between different winding taps of a tapped transformer, comprising: - a on-load tap-changer plate, - a selector, - a diverter switch, where: - the selector and the diverter switch are mounted on the on-load tap-changer plate, - the diverter switch comprises a vacuum interrupter and a bridge switch, characterized in that - the diverter switch comprises a transition resistor - the selector comprises a first selector arm (5.1), a second selector arm (5.2) and a change-over selector, - the first selector arm (5.1) is mounted on the first side of the on-load tap-changer plate and the second selector arm (5.2) and the change-over selector are mounted on the second, opposite side of the on-load tap-changer plate. - a on-load tap-changer plate, - a selector, - a diverter switch, - the selector and the diverter switch are mounted on the on-load tap-changer plate, - the diverter switch comprises a vacuum interrupter and a bridge switch, characterized in that - the diverter switch comprises a transition resistor - the selector comprises a first selector arm (5.1), a second selector arm (5.2) and a change-over selector, - the first selector arm (5.1) is mounted on the first side of the on-load tap-changer plate and the second selector arm (5.2) and the change-over selector are mounted on the second, opposite side of the on-load tap-changer plate.
Motor vehicle pump arrangement, with a pumping unit and a mounting arrangement for mounting the pumping unit to a corresponding motor vehicle mounting structure, the mounting arrangement comprising - a ring-shaped vibration-decoupling body radially surrounding and supporting the pumping unit and being attachable to the motor vehicle mounting structure, the motor vehicle pump arrangement being characterised in that the mounting arrangement further comprises - a clip retainer being attached to the vibration-decoupling body and axially retaining the pumping unit, the clip retainer comprising • a retainer frame extending in a transversal pumping unit plane and being axially supported by the vibration-decoupling body, and • at least two retainer arms axially projecting from the retainer frame, engaging a corresponding engagement step of the pumping unit and axially retaining the pumping unit. a pumping unit and a mounting arrangement for mounting the pumping unit to a corresponding motor vehicle mounting structure, the mounting arrangement comprising - a ring-shaped vibration-decoupling body radially surrounding and supporting the pumping unit and being attachable to the motor vehicle mounting structure, the motor vehicle pump arrangement being characterised in that the mounting arrangement further comprises - a clip retainer being attached to the vibration-decoupling body and axially retaining the pumping unit, the clip retainer comprising • a retainer frame extending in a transversal pumping unit plane and being axially supported by the vibration-decoupling body, and • at least two retainer arms axially projecting from the retainer frame, engaging a corresponding engagement step of the pumping unit and axially retaining the pumping unit. - a ring-shaped vibration-decoupling body radially surrounding and supporting the pumping unit and being attachable to the motor vehicle mounting structure, the motor vehicle pump arrangement being characterised in that the mounting arrangement further comprises - a clip retainer being attached to the vibration-decoupling body and axially retaining the pumping unit, the clip retainer comprising • a retainer frame extending in a transversal pumping unit plane and being axially supported by the vibration-decoupling body, and • at least two retainer arms axially projecting from the retainer frame, engaging a corresponding engagement step of the pumping unit and axially retaining the pumping unit. • a retainer frame extending in a transversal pumping unit plane and being axially supported by the vibration-decoupling body, and • at least two retainer arms axially projecting from the retainer frame, engaging a corresponding engagement step of the pumping unit and axially retaining the pumping unit.
System for locating trains along the tracks of a railway network for an architecture for automatic control of trains, comprising: - on the ground, a plurality of mats disposed one following the other along the track, each mat comprising a control circuit and a transmitting antenna which is connected to the control circuit, the transmitting antenna being configured in order to define, over the totality of the mat, a plurality of induction loops according to the direction of the track, the control circuit being able to apply, at the input of the transmitting antenna, a signal for supplying with current integrating an identifier (Id) of said mat; and - on board each train authorised to travel on the track, a receiving antenna which is able to generate a receiving signal correlated to the supply signal of the transmitting antenna, and an onboard calculator connected to the receiving antenna which is able to analyse the receiving signal so as to extract therefrom the identifier of the mat perpendicular to which said receiving antenna is situated and to count a number of induction loops detected since the last change of identifier, said identifier and said number of detected induction loops making it possible to determine the momentary position of the train. - on the ground, a plurality of mats disposed one following the other along the track, each mat comprising a control circuit and a transmitting antenna which is connected to the control circuit, the transmitting antenna being configured in order to define, over the totality of the mat, a plurality of induction loops according to the direction of the track, the control circuit being able to apply, at the input of the transmitting antenna, a signal for supplying with current integrating an identifier (Id) of said mat; and - on board each train authorised to travel on the track, a receiving antenna which is able to generate a receiving signal correlated to the supply signal of the transmitting antenna, and an onboard calculator connected to the receiving antenna which is able to analyse the receiving signal so as to extract therefrom the identifier of the mat perpendicular to which said receiving antenna is situated and to count a number of induction loops detected since the last change of identifier, said identifier and said number of detected induction loops making it possible to determine the momentary position of the train.
An animal feeder comprising a hopper assembly comprising a hopper assembly shell configured to contain feed, a pusher plate coupled to a screw extending the length of the hopper assembly shell that vertically drives said pusher plate within said hopper assembly shell, characterized by an outer shell assembly comprising a bounce plate and feed tube, and in that said outer shell assembly is detachably connected to said hopper assembly.