mhurhangee/ep-ind-claims huggingface dataset:
A 360-degree magnetic rotary position sensor system comprising in combination an AMR sensor having a maximum of 180 degrees absolute angle range, a first and a second lateral Hall sensor (101, 102), both providing a non-ambiguous angle direction over 360 degrees absolute angle range, a signal processing circuit and a magnet providing a magnetic field with three components (X-Y-Z) and with a rotation axis whereas the rotation axis is positioned above a center of the AMR sensor and intersects the AMR sensor perpendicular; the AMR sensor and the Hall sensors (101, 102) lay in one plane, whereas the AMR sensor has a zero angle measurement position indicating a signal value of zero and detecting the horizontal components X and Y of the magnetic field and the first Hall sensor is placed relative to the zero angle measurement position in a range from 0° < phase shift < 90° counterclockwise measuring a signal which is phase shifted with increasing angle relative to the zero angle measurement position of the AMR sensor and the second Hall sensor is placed relative to the zero angle measurement position in a range from 0° < phase shift < 90° clockwise measuring a signal which is phase shifted with decreasing angle relative to the zero angle measurement position of the AMR sensor, resulting in an angle between 0° and < 180° defined between the first Hall sensor, an intersection point of the rotation axis with the AMR sensor and the second Hall sensor, whereas the signal processing is designed performable in analog and/or digital and whereas an error detection is provided by using the sensor system signals of the AMR sensor and the two Hall sensors.
Polymer particles having an average diameter from 100 nm to 10 μm, where each particle comprises: (a) a core; and (b) lobes comprising at least 15 wt% polymerized residues of at least one C 3 -C 6 carboxylic acid monomer.
An OLED display motherboard, comprising: a base substrate having a display region and a non-display region surrounding the display region; an interlayer dielectric layer located on the base substrate and located within the display region and the non-display region; a TFT and an OLED device located within the display region of the base substrate on the interlayer dielectric layer; at least two crack stop slits located within the non-display region of the base substrate and penetrating through the interlayer dielectric layer, an extending direction of the crack stop slits being the same as an extending direction of an edge of the display region of the base substrate, and adjacent crack stop slits being separated by a crack stop slit step, and the crack stop slit step being formed by a portion of the interlayer dielectric layer; and an encapsulation layer, wherein the encapsulation layer covers the crack stop slits and the OLED device but does not cover the crack stop slit step, wherein a portion, located on a side away from the display region of the crack stop slit furthest from the display region, of the encapsulation layer has a non-uniform thickness. a base substrate having a display region and a non-display region surrounding the display region; an interlayer dielectric layer located on the base substrate and located within the display region and the non-display region; a TFT and an OLED device located within the display region of the base substrate on the interlayer dielectric layer; at least two crack stop slits located within the non-display region of the base substrate and penetrating through the interlayer dielectric layer, an extending direction of the crack stop slits being the same as an extending direction of an edge of the display region of the base substrate, and adjacent crack stop slits being separated by a crack stop slit step, and the crack stop slit step being formed by a portion of the interlayer dielectric layer; and an encapsulation layer, wherein the encapsulation layer covers the crack stop slits and the OLED device but does not cover the crack stop slit step, wherein a portion, located on a side away from the display region of the crack stop slit furthest from the display region, of the encapsulation layer has a non-uniform thickness.
A microwave resonator, comprising a chamber made of metal material configured to contain electrons of a plasma confined in a B-minimum magnetic field generated within the chamber, said chamber comprising a first and a second end face (101a, 101b) and extending along a central axis (z) between said first and second end face, and a microwave launching device configured for the injection of microwaves into said chamber, wherein, at the first end face, said chamber has a cross section of multi-lobed shape tapering toward the second end face, wherein, at the second end face, said chamber has a cross section of multi-lobed shape identical to the shape of the cross section of the first end face and rotated by 180° relative to the first end face about the central axis (z), the cross section of the second end face tapering towards the first end face, and wherein, at an intermediate plane, the shape of the cross section of the first end face merges with the shape of the cross section of the second end face, characterized in that the microwave resonator is configured to have a shape that follows the shape of the last iso-density surface of the electrons, wherein said microwave launching device comprises a waveguide arranged on a side wall of said chamber and extending along said central axis, said waveguide having an array of diffractive apertures interposed between the waveguide and the chamber and facing the inside of said chamber. a chamber made of metal material configured to contain electrons of a plasma confined in a B-minimum magnetic field generated within the chamber, said chamber comprising a first and a second end face (101a, 101b) and extending along a central axis (z) between said first and second end face, and a microwave launching device configured for the injection of microwaves into said chamber, wherein, at the first end face, said chamber has a cross section of multi-lobed shape tapering toward the second end face, wherein, at the second end face, said chamber has a cross section of multi-lobed shape identical to the shape of the cross section of the first end face and rotated by 180° relative to the first end face about the central axis (z), the cross section of the second end face tapering towards the first end face, and wherein, at an intermediate plane, the shape of the cross section of the first end face merges with the shape of the cross section of the second end face, characterized in that the microwave resonator is configured to have a shape that follows the shape of the last iso-density surface of the electrons, wherein said microwave launching device comprises a waveguide arranged on a side wall of said chamber and extending along said central axis, said waveguide having an array of diffractive apertures interposed between the waveguide and the chamber and facing the inside of said chamber.
A method for preparing a 6-aminohexyl lactoside-NOTA conjugate, comprising: brominating perbenzoylated lactose with hydrobromic acid; glycosylating 6-azidohexanol to obtain a precursor; and deprotecting the precursor in two steps to obtain 6-aminohexyl lactoside, and conjugating 6-aminohexyl lactoside to p-NCS-benzyl-NODA-GA in triethyl amine as an alkaline solvent, to obtain a 6-aminohexyl lactoside-p-NCS-benzyl-NODA GA conjugate. brominating perbenzoylated lactose with hydrobromic acid; glycosylating 6-azidohexanol to obtain a precursor; and deprotecting the precursor in two steps to obtain 6-aminohexyl lactoside, and conjugating 6-aminohexyl lactoside to p-NCS-benzyl-NODA-GA in triethyl amine as an alkaline solvent, to obtain a 6-aminohexyl lactoside-p-NCS-benzyl-NODA GA conjugate.
Method for producing a rolling bearing ring, characterized by the following steps: - producing a bearing ring in an initial state - hardening the bearing ring - grinding the bearing ring to a predetermined rough grinding dimension - rolling the race of the bearing ring by means of a rolling element with a predetermined rolling force, feed rate and diameter - removing material from the treated surface with a layer thickness which is greater than the depth of the maximum residual compressive stress introduced by the rolling. - producing a bearing ring in an initial state - hardening the bearing ring - grinding the bearing ring to a predetermined rough grinding dimension - rolling the race of the bearing ring by means of a rolling element with a predetermined rolling force, feed rate and diameter - removing material from the treated surface with a layer thickness which is greater than the depth of the maximum residual compressive stress introduced by the rolling.
A combination of at least two compounds selected from baclofen, acamprosate, cinacalcet, mexiletine, sulfisoxazole, and torasemide, or salt(s) or sustained release formulation(s) thereof, for use for improving memory and/or a mental function impairment selected from the group consisting of learning, language, calculating and/or pathological reading difficulties in a subject suffering from a psychiatric disorder selected from depression, psychotic disorders such as autism or schizophrenia, attention deficit hyperactivity disorders, anxiety, or obsessional compulsive disorders.
Commercial vehicle trailer comprising a control unit which is designed independently of an electronic brake control means and is connected to a plurality of sensor units (20, 28, 32) for recording data or actuator units for controlling by means of data, at least two different wired interfaces (18, 26, 30) being provided on the control unit for coupling the sensor units (20, 28, 32) or actuator units, which interfaces allow data to be transmitted using protocols of different complexity, the control unit being connected to the electronic brake control means and characterized in that sensor units (20, 28, 32) which forward chassis data to the control unit are connected directly to the control unit independently of the electronic brake control means.
An optical measurement device, comprising: a light source, configured to emit light (L1, L2); a light reception portion, configured to detect a light reception amount of reflected light reflected on a target; a measurement portion, configured to measure a distance from the optical measurement device to the target based on the light reception amount of the reflected light; and a detection portion, configured to detect a portion of the target in which the light reception amount per unit time of the reflected light is smaller than a threshold value, characterized in that the light reception amount per unit time is obtained by dividing the light reception amount by an exposure time, and the measurement portion is configured not to measure the distance when the portion of the target is detected by the detection portion. a light source, configured to emit light (L1, L2); a light reception portion, configured to detect a light reception amount of reflected light reflected on a target; a measurement portion, configured to measure a distance from the optical measurement device to the target based on the light reception amount of the reflected light; and a detection portion, configured to detect a portion of the target in which the light reception amount per unit time of the reflected light is smaller than a threshold value, characterized in that the light reception amount per unit time is obtained by dividing the light reception amount by an exposure time, and the measurement portion is configured not to measure the distance when the portion of the target is detected by the detection portion.
A cathode active material for secondary batteries for reducing deintercalation of oxygen from a crystal structure at a high voltage of 4.3V to 4.6V through incorporation of excessive lithium in a cation layer composed of a transition metal, the cathode active material being represented by Formula 1: (1-x)Li(Li a M' b M 1-a-b)O 2 * xLi 2 M"O 3 wherein 0 < x < 0.3; 0 < a < 0.2; 0 ≤ b ≤ 0.2; M is Ni and Mn; M' is a transition metal excluding Ni and Mn; and M" is at least one element selected from Mn, Sn and Ti, characterized in that the material of Formula 1 is a composite or solid solution of Li(Li a M' b M 1-a-b)O 2 with a layered crystal structure and of Li 2 M"O 3 with a layered crystal structure, and wherein oxygen of Formula 1 is substituted in a predetermined amount by other anion. 0 < x < 0.3; 0 < a < 0.2; 0 ≤ b ≤ 0.2; M is Ni and Mn; M' is a transition metal excluding Ni and Mn; and M" is at least one element selected from Mn, Sn and Ti,
A fluid ejection device of a printhead, the fluid ejection device comprising: a number of nozzles configured to eject an amount of fluid; a first field-effect transistor, FET, configured to activate a first fluidic operation component, the first fluidic operation component being an ejector; and a second FET configured to activate a second fluidic operation component, the second fluidic operation component being a fluid transport component; wherein: the FETs are selected from the group consisting of a high-side switch FET, a low-side switch FET, and a hybrid FET; and characterized in that: the first FET and the second FET are different types of FET selected from the group. a number of nozzles configured to eject an amount of fluid; a first field-effect transistor, FET, configured to activate a first fluidic operation component, the first fluidic operation component being an ejector; and a second FET configured to activate a second fluidic operation component, the second fluidic operation component being a fluid transport component; wherein: the FETs are selected from the group consisting of a high-side switch FET, a low-side switch FET, and a hybrid FET; and
A method of reclaiming clean sand and active clay from foundry waste comprising: providing dust and sand from a molding process in a foundry, wherein the dust and sand comprise clay including active clay and dead clay; rinsing a slurry comprising the dust and sand to remove clay from the sand and dust, wherein the rinsing comprises rinsing the slurry at least one time, wherein the clay is separated as a first clay slurry; removing additional clay from the rinsed slurry by shaking the rinsed slurry on a shaker table, wherein the additional clay is separated as a second clay slurry, wherein a clean sand slurry is removed from an end of the shaker table; allowing the dead clay to separate as solids from the first and second clay slurry to form an active clay slurry; recycling the active clay slurry to a muller in a foundry; and recycling clean sand from the clean sand slurry to the foundry. providing dust and sand from a molding process in a foundry, wherein the dust and sand comprise clay including active clay and dead clay; rinsing a slurry comprising the dust and sand to remove clay from the sand and dust, wherein the rinsing comprises rinsing the slurry at least one time, wherein the clay is separated as a first clay slurry; removing additional clay from the rinsed slurry by shaking the rinsed slurry on a shaker table, wherein the additional clay is separated as a second clay slurry, wherein a clean sand slurry is removed from an end of the shaker table; allowing the dead clay to separate as solids from the first and second clay slurry to form an active clay slurry; recycling the active clay slurry to a muller in a foundry; and recycling clean sand from the clean sand slurry to the foundry.
A particle-optical arrangement comprising: at least one multi-aperture plate having a plurality of apertures formed therein, each for manipulating particles of a charged particle beamlet passing therethrough, wherein the apertures are arranged in a pattern; wherein the multi-aperture plate comprises a plurality of conductive layer portions (362 0, 362 1, 362 2) arranged substantially in a single plane, wherein plural apertures are formed in each of the plural conductive layer portions, and wherein a resistant gap is formed between adjacent conductive layer portions; and wherein the plural conductive layer portions comprise a plurality of ring-shaped conductive layer portions (362 1, 362 2) symmetrically arranged with respect to a center of the pattern; characterized in that a radial width of the ring-shaped conductive layer portions (362 1, 362 2) decreases with an increasing distance from the center of the pattern. at least one multi-aperture plate having a plurality of apertures formed therein, each for manipulating particles of a charged particle beamlet passing therethrough, wherein the apertures are arranged in a pattern; wherein the multi-aperture plate comprises a plurality of conductive layer portions (362 0, 362 1, 362 2) arranged substantially in a single plane, wherein plural apertures are formed in each of the plural conductive layer portions, and wherein a resistant gap is formed between adjacent conductive layer portions; and wherein the plural conductive layer portions comprise a plurality of ring-shaped conductive layer portions (362 1, 362 2) symmetrically arranged with respect to a center of the pattern; characterized in that a radial width of the ring-shaped conductive layer portions (362 1, 362 2) decreases with an increasing distance from the center of the pattern.
A medical instrument (18, 218) comprising a medical guidewire (10, 210) including a working portion (14, 214) which is that portion of the medical guidewire that is extendable beyond a distal end of the medical instrument (18, 218), wherein the working portion (14, 214) is extendable as a loop-track beyond the distal end (16, 216) of the medical instrument (18, 218) and has a maximum loop-track length when so extended, and characterized in that the working portion includes a tapered portion, tapering from a proximal end having a first cross-sectional diameter to a distal end having a second, smaller cross-sectional diameter, which extends for over fifty percent of the maximum loop-track length of the working portion (14, 214).
A fitting (10;42;60) for use with a nut with an internal locking mechanism, the fitting comprising: a first tubular portion (12;44;62) with a first end and a first outer diameter for connecting to a first object; a second tubular portion (14;46;64) with a second end and a second outer diameter for connecting to a second object; and a transition portion (16;52;70) connecting the first tubular portion and the second tubular portion for fluid communication between the first tubular portion and the second tubular portion; and characterised by a plurality of pockets (24;48;65) spaced circumferentially around the second tubular portion to engage the internal locking mechanism of the nut, wherein each of the plurality of pockets extends radially into the second tubular portion and has a perimeter on all sides of each of the plurality of pockets at the second outer diameter. a first tubular portion (12;44;62) with a first end and a first outer diameter for connecting to a first object; a second tubular portion (14;46;64) with a second end and a second outer diameter for connecting to a second object; and a transition portion (16;52;70) connecting the first tubular portion and the second tubular portion for fluid communication between the first tubular portion and the second tubular portion; and characterised by a plurality of pockets (24;48;65) spaced circumferentially around the second tubular portion to engage the internal locking mechanism of the nut, wherein each of the plurality of pockets extends radially into the second tubular portion and has a perimeter on all sides of each of the plurality of pockets at the second outer diameter.
An operating method of a video display apparatus, comprising: pairing with a first terminal device; receiving an uncompressed audio-visual content; displaying the uncompressed audio-visual content; characterized by, extracting characteristic information from the uncompressed audio-visual content; transmitting a first query including the characteristic information, to a fingerprint server; obtaining a response corresponding to the characteristic information including content information; wherein if the response does not include an enhanced service address or enhanced service but includes an address of an enhanced service address providing server; transmitting a second query including the content information using the address of the enhanced service address providing server; acquiring enhanced service information on an available enhanced service for the audio-visual content corresponding to the second query, wherein the enhanced service information includes an address of an available enhanced service and a start time of the available enhanced service; and transmitting the address of the available enhanced service and the start time of the available enhanced service, to the first terminal device. pairing with a first terminal device; receiving an uncompressed audio-visual content; displaying the uncompressed audio-visual content;
A steering control apparatus including control processing circuits configured to control driving of a motor that is a source of power for turning a steered wheel of a vehicle so that the power is applied to a steering mechanism, the steering control apparatus being configured such that a plurality of communication lines (C1, C2) for communicating control information are connected to each of the control processing circuits (310, 320), the control information being necessary for the control processing circuits to control the driving of the motor, the steering control apparatus comprising: a selection switching circuit configured such that its selection state is switchable to set use of a value (ADAS1*, ADAS2*) of the control information communicated via any one of the plurality of communication lines (C1, C2) as an input value (ADAS *) for the control of the driving of the motor; and an input value limiting circuit configured to set, when a selected input value (ADAS *) that is the input value obtained after the selection state of the selection switching circuit is switched deviates from an allowable range defined in advance, use of a limit value (Rg*) generated as a value that falls within the allowable range for the control of the driving of the motor in place of the selected input value (ADAS *), characterized in that the allowable range is based on a value of the control information (ADAS(N-1)*) that is used for the control of the driving of the motor last time and is set by a limiting threshold (Gth) defined in advance in accordance with a vehicle speed of the vehicle after the selection state of the selection switching circuit is switched. a selection switching circuit configured such that its selection state is switchable to set use of a value (ADAS1*, ADAS2*) of the control information communicated via any one of the plurality of communication lines (C1, C2) as an input value (ADAS *) for the control of the driving of the motor; and an input value limiting circuit configured to set, when a selected input value (ADAS *) that is the input value obtained after the selection state of the selection switching circuit is switched deviates from an allowable range defined in advance, use of a limit value (Rg*) generated as a value that falls within the allowable range for the control of the driving of the motor in place of the selected input value (ADAS *), characterized in that the allowable range is based on a value of the control information (ADAS(N-1)*) that is used for the control of the driving of the motor last time and is set by a limiting threshold (Gth) defined in advance in accordance with a vehicle speed of the vehicle after the selection state of the selection switching circuit is switched.