mhurhangee/ep-ind-claims huggingface dataset:
A method of reconstructing image, characterized in that the method comprises: accessing (S101, S201) a first set of damaged projection data that comprises a plurality of first projection data each corresponding to a respective projection angle of a plurality of projection angles; generating (S102, S202) a first set of reconstructed data by image reconstruction with the first set of projection data; generating (S103, S203) a second set of projection data by projection calculation with the first set of reconstructed data, the second set of projection data comprising a plurality of second projection data each corresponding to a respective projection angle of the plurality of projection angles; generating (S104, S204) a third set of projection data from the first set of projection data and the second set of projection data based on a correlation between respective first projection data and respective second projection data corresponding to each of the plurality of projection angles, wherein the correlation between the first projection data and the second projection data corresponding to the projection angle indicates whether the first projection data corresponding to the projection angle is damaged; if the correlation shows a large difference the first projection data corresponding to the projection angle is replaced with the second projection data, if not the first projection data may be reserved; and generating (S105, S205) a second set of reconstructed data by image reconstruction with the third set of projection data. accessing (S101, S201) a first set of damaged projection data that comprises a plurality of first projection data each corresponding to a respective projection angle of a plurality of projection angles; generating (S102, S202) a first set of reconstructed data by image reconstruction with the first set of projection data; generating (S103, S203) a second set of projection data by projection calculation with the first set of reconstructed data, the second set of projection data comprising a plurality of second projection data each corresponding to a respective projection angle of the plurality of projection angles; generating (S104, S204) a third set of projection data from the first set of projection data and the second set of projection data based on a correlation between respective first projection data and respective second projection data corresponding to each of the plurality of projection angles, wherein the correlation between the first projection data and the second projection data corresponding to the projection angle indicates whether the first projection data corresponding to the projection angle is damaged; if the correlation shows a large difference the first projection data corresponding to the projection angle is replaced with the second projection data, if not the first projection data may be reserved; and generating (S105, S205) a second set of reconstructed data by image reconstruction with the third set of projection data.
Intraoral device comprising: • one or more microsensors • a programmable electronic microcircuit with a series of ports for the connection of a microsensor to each, • means for feeding the electronic microcircuit and • wireless communication means of the data therefrom, all these elements being included inside a watertight and thermally insulated protection element, where said protection element is attached to the surface or inside a support element within the buccal cavity, being the dimensions of the protection element adapted to the size of the support element. • one or more microsensors • a programmable electronic microcircuit with a series of ports for the connection of a microsensor to each, • means for feeding the electronic microcircuit and • wireless communication means of the data therefrom, all these elements being included inside a watertight and thermally insulated protection element, where said protection element is attached to the surface or inside a support element within the buccal cavity, being the dimensions of the protection element adapted to the size of the support element.
A system, comprising: an electron source; a micro-lens array, MLA, configured to receive one or more primary electron beams from the electron source and split the one or more primary electron beams into a plurality of primary electron beamlets; a micro-stigmator array, MSA, comprising a plurality of dodecapole electrostatic stigmators, wherein the MSA is configured to eliminate at least one of fourth-order focusing aberrations or sixth-order focusing aberrations of the plurality of primary electron beamlets; and projection optics (314, 316) configured to receive the plurality of primary electron beamlets and focus the plurality of primary electron beamlets onto a surface of a sample; wherein each dodecapole electrostatic stigmator of the plurality of dodecapole electrostatic stigmators comprises twelve conductive plates, wherein each conductive plate of the twelve conductive plates are separated by a gap angle δ, wherein a first conductive plate, a fourth conductive plate, a seventh conductive plate, and a tenth conductive plate are defined by a plate angle 2 α, wherein α is in the range of 20° ~35°, and wherein a second conductive plate, a third conductive plate, a fifth conductive plate, a sixth conductive plate, an eighth conductive plate, a ninth conductive plate, an eleventh conductive plate, and a twelfth conductive plate are defined by a plate angle β, such that β = 45° - α - ( 3 δ / 2). an electron source; a micro-lens array, MLA, configured to receive one or more primary electron beams from the electron source and split the one or more primary electron beams into a plurality of primary electron beamlets; a micro-stigmator array, MSA, comprising a plurality of dodecapole electrostatic stigmators, wherein the MSA is configured to eliminate at least one of fourth-order focusing aberrations or sixth-order focusing aberrations of the plurality of primary electron beamlets; and projection optics (314, 316) configured to receive the plurality of primary electron beamlets and focus the plurality of primary electron beamlets onto a surface of a sample; wherein each dodecapole electrostatic stigmator of the plurality of dodecapole electrostatic stigmators comprises twelve conductive plates, wherein each conductive plate of the twelve conductive plates are separated by a gap angle δ, wherein a first conductive plate, a fourth conductive plate, a seventh conductive plate, and a tenth conductive plate are defined by a plate angle 2 α, wherein α is in the range of 20° ~35°, and wherein a second conductive plate, a third conductive plate, a fifth conductive plate, a sixth conductive plate, an eighth conductive plate, a ninth conductive plate, an eleventh conductive plate, and a twelfth conductive plate are defined by a plate angle β, such that β = 45° - α - ( 3 δ / 2).
An electrical connector assembly for mating with a mating connector assembly, the connector assembly comprising: a housing having a cable receiving portion and a mating portion, the housing having a first surface and an oppositely facing second surface; the mating portion having a mating projection extending from the first surface in a direction away from the second surface, the mating projection having a circular cross-sectional configuration, the mating projection having an angled wall which extends from the first surface to a mating face, the angled wall being angled relative to a plane of the first surface and a plane of the mating face; the mating face having contacts extending therethrough, the contacts having circular engagement sections arranged concentrically about a center of the mating face; characterized in that the mating portion has one or more metallic members provided on the first surface of the housing, positioned about at least a portion of the circumference of the outside surface of the angled wall, and which are made of material able to provide a magnetic attraction to magnets provided in the mating electrical connector assembly; and in that the electrical connector assembly further comprises a nonconductive coating applied to the angled wall. a housing having a cable receiving portion and a mating portion, the housing having a first surface and an oppositely facing second surface; the mating portion having a mating projection extending from the first surface in a direction away from the second surface, the mating projection having a circular cross-sectional configuration, the mating projection having an angled wall which extends from the first surface to a mating face, the angled wall being angled relative to a plane of the first surface and a plane of the mating face; the mating face having contacts extending therethrough, the contacts having circular engagement sections arranged concentrically about a center of the mating face; characterized in that the mating portion has one or more metallic members provided on the first surface of the housing, positioned about at least a portion of the circumference of the outside surface of the angled wall, and which are made of material able to provide a magnetic attraction to magnets provided in the mating electrical connector assembly; and in that the electrical connector assembly further comprises a nonconductive coating applied to the angled wall.
A neuromodulation system, comprising: a generator; a nerve monitoring assembly configured to detect electroneurogram signals; and a neuromodulation catheter having an elongated shaft with a distal portion and a proximal portion, wherein the distal portion comprises an array of electrodes configured to detect nerve activity from within a blood vessel of a human, and wherein the proximal portion comprises at least one connector (132, 134) operably coupling the electrodes to the generator and to the nerve monitoring assembly, and characterized in that the nerve monitoring assembly is further configured to differentiate the ENG signals from electromyogram signals. a generator; a nerve monitoring assembly configured to detect electroneurogram signals; and a neuromodulation catheter having an elongated shaft with a distal portion and a proximal portion, wherein the distal portion comprises an array of electrodes configured to detect nerve activity from within a blood vessel of a human, and wherein the proximal portion comprises at least one connector (132, 134) operably coupling the electrodes to the generator and to the nerve monitoring assembly, and characterized in that the nerve monitoring assembly is further configured to differentiate the ENG signals from electromyogram signals.
A differential member for a surgical instrument comprising: two or more input units each receiving an input of an amount of rotation motion or translation motion from outside; and an output unit outputting a single rotation motion or translation motion based on a combination of rotation motions or translation motions input to the two or more input units; and a differential control member connecting the two or more input units and the output unit, characterized in that: a rotation motion or translation motion of at least a portion of the differential control member is generated by rotation motions or translation motions input to the two or more input units, wherein the output unit translates or rotates by a sum of or a difference between the rotation motions or translation motions input to the two or more input units, by the rotation motion or translation motion of at least a portion of the differential control member, wherein the two or more input units rotate or translate independently, and wherein the rotation motions or translation motions input to the two or more input units do not interfere with each other. two or more input units each receiving an input of an amount of rotation motion or translation motion from outside; and an output unit outputting a single rotation motion or translation motion based on a combination of rotation motions or translation motions input to the two or more input units; and a differential control member connecting the two or more input units and the output unit, characterized in that: a rotation motion or translation motion of at least a portion of the differential control member is generated by rotation motions or translation motions input to the two or more input units, wherein the output unit translates or rotates by a sum of or a difference between the rotation motions or translation motions input to the two or more input units, by the rotation motion or translation motion of at least a portion of the differential control member, wherein the two or more input units rotate or translate independently, and wherein the rotation motions or translation motions input to the two or more input units do not interfere with each other. a rotation motion or translation motion of at least a portion of the differential control member is generated by rotation motions or translation motions input to the two or more input units, wherein the output unit translates or rotates by a sum of or a difference between the rotation motions or translation motions input to the two or more input units, by the rotation motion or translation motion of at least a portion of the differential control member, wherein the two or more input units rotate or translate independently, and wherein the rotation motions or translation motions input to the two or more input units do not interfere with each other.
A microcontroller system (100; 200; 300) comprising: a master microcontroller unit (102; 202; 302); a plurality of slave microcontroller units (104, 106; 204, 206; 304, 306); and a plurality of general purpose inputs/outputs (108; 208, 216; 308), wherein, in a first state, a first general purpose input/output of the plurality of general purpose inputs/outputs is controlled by the master microcontroller unit and, in a second state, the first general purpose input/output is controlled by a first slave microcontroller unit of the plurality of slave microcontroller units; wherein the master microcontroller unit is arranged to transmit a selection signal which changes the state of the first general purpose input/output; and wherein a subset of the plurality of general purpose inputs/outputs are excluded from control by a subset of the plurality of slave microcontroller units. a master microcontroller unit (102; 202; 302); a plurality of slave microcontroller units (104, 106; 204, 206; 304, 306); and a plurality of general purpose inputs/outputs (108; 208, 216; 308), wherein, in a first state, a first general purpose input/output of the plurality of general purpose inputs/outputs is controlled by the master microcontroller unit and, in a second state, the first general purpose input/output is controlled by a first slave microcontroller unit of the plurality of slave microcontroller units;
Steering system having at least one steering cylinder for generating steering movements and at least one hydraulic pump for the provision of pressure for driving the steering cylinder, wherein the hydraulic pump and the steering cylinder are connected to one another in such a way that the steering movements can be generated directly by controlling the hydraulic pump, wherein the steering system is an auxiliary steering system or an additional steering system, which is used for the active steering of a rear axle, which is steered simultaneously with the main axle of a vehicle, wherein the control of the auxiliary steering is effected electronically through a steering control and a steering transducer is provided, which adopts the steering movement of the main axle, wherein a target steering value is calculated for the auxiliary axle on the basis of the signals of the steering transducer and controlled by activating the hydraulic pump.
A phthalonitrile monomer modified by organosilicon fragments characterized by the following general formula: wherein X is a bivalent aromatic radical, and Y is an organosilicon fragment, characterized in that the organosilicon fragment Y is selected from the group consisting of SiR 1 R 2 and SiR 1 R 2 -O-SiR 1 R 2, wherein R 1 and R 2 are radicals selected from the group consisting of CH 3, C 6 H 5, and HC=CH 2. wherein X is a bivalent aromatic radical, and Y is an organosilicon fragment,
A storage battery, comprising: a container having at least one cell chamber; a lid body made of synthetic resin for covering a top opening of the container, the lid body having on a top surface a recessed portion that is recessed downward and has a bottom surface on which at least one exhaust hole for communicating with the cell chamber is formed, the lid body having positive and negative electrode terminals (4, 4) disposed close to one side of the lid body and respectively at both end portions of said one side in a longitudinal direction, wherein the positive and negative electrode terminals (4, 4) respectively have lower portions embedded in the lid body and upper portions projecting from the lid body; and a lid body cover for closing the recessed portion to form a space; wherein electrode plates are housed in the cell chamber, and the lid body has bushings to which electrode poles extending from the electrode plates are respectively inserted and welded; wherein the bushings are arranged in the space and the space is separated into a space for collecting gas exhausted from the exhaust hole and a space in which the bushings are arranged; characterized in that the lid body cover for closing the recessed portion in the top surface of the lid body has a rib on a back surface and the lid body has a rib provided on the top surface of the lid body in such a manner as to oppose the rib of the lid body cover and surround a part or a whole of the periphery of each of the bushings. a container having at least one cell chamber; a lid body made of synthetic resin for covering a top opening of the container, the lid body having on a top surface a recessed portion that is recessed downward and has a bottom surface on which at least one exhaust hole for communicating with the cell chamber is formed, the lid body having positive and negative electrode terminals (4, 4) disposed close to one side of the lid body and respectively at both end portions of said one side in a longitudinal direction, wherein the positive and negative electrode terminals (4, 4) respectively have lower portions embedded in the lid body and upper portions projecting from the lid body; and a lid body cover for closing the recessed portion to form a space; wherein electrode plates are housed in the cell chamber, and the lid body has bushings to which electrode poles extending from the electrode plates are respectively inserted and welded; wherein the bushings are arranged in the space and the space is separated into a space for collecting gas exhausted from the exhaust hole and a space in which the bushings are arranged; characterized in that the lid body cover for closing the recessed portion in the top surface of the lid body has a rib on a back surface and the lid body has a rib provided on the top surface of the lid body in such a manner as to oppose the rib of the lid body cover and surround a part or a whole of the periphery of each of the bushings.
Method to investigate molecular interactions on and/or in a thin layer arranged on a carrier, by means of reflectometric interference spectroscopy (RifS), consisting of the stages illuminating the thin layer with electromagnetic radiation from at least one radiation source, detecting a part of the beam reflected from the boundary-surfaces of the thin layer by at least one optoelectronic transducer based on an amorphous, nanocrystalline or polycrystalline Si-based semiconductor material which converts the detected radiation into a frequency- and intensity-dependent photocurrent, applying a readout voltage to the optoelectronic transducer to measure the photocurrent, characterised in that the spectral sensitivity of the optoelectronic transducer is varied by changing the readout voltage, so that an essentially constant photocurrent is obtained, and where parameters are derived from the read-out voltage which identify the interactions that are to be examined on and/or in the thin layer. illuminating the thin layer with electromagnetic radiation from at least one radiation source, detecting a part of the beam reflected from the boundary-surfaces of the thin layer by at least one optoelectronic transducer based on an amorphous, nanocrystalline or polycrystalline Si-based semiconductor material which converts the detected radiation into a frequency- and intensity-dependent photocurrent, applying a readout voltage to the optoelectronic transducer to measure the photocurrent,
A polymer emulsion composition, comprising: an acrylic block copolymer including a surfactant copolymerized with the acrylic block copolymer, the surfactant being chemically bound to the polymer chain; the acrylic copolymer including a first segment of controlled molecular weight and position and a second segment of controlled molecular weight and position; the first segment including a monomer having a functional group selected from the group consisting of a self reactive functional group, a reactive functional group, and combinations thereof, wherein the self reactive functional group is selected from the group consisting of silanes, anhydrides, epoxies, alkoxymethylol, and cyclic ethers, and wherein the reactive functional group is selected from the group consisting of acetoacetyl groups, acids, hydroxyls, amines, thiols, (meth)acrylates, benzophenone, acetophenone, acyl phosphine, thioxanthone, and derivatives of benzophenone, acetophenone, acyl phosphine, and thioxanthone. an acrylic block copolymer including a surfactant copolymerized with the acrylic block copolymer, the surfactant being chemically bound to the polymer chain; the acrylic copolymer including a first segment of controlled molecular weight and position and a second segment of controlled molecular weight and position; the first segment including a monomer having a functional group selected from the group consisting of a self reactive functional group, a reactive functional group, and combinations thereof, wherein the self reactive functional group is selected from the group consisting of silanes, anhydrides, epoxies, alkoxymethylol, and cyclic ethers, and wherein the reactive functional group is selected from the group consisting of acetoacetyl groups, acids, hydroxyls, amines, thiols, (meth)acrylates, benzophenone, acetophenone, acyl phosphine, thioxanthone, and derivatives of benzophenone, acetophenone, acyl phosphine, and thioxanthone.