mhurhangee/ep-ind-claims huggingface dataset:
A CMOS optical sensor comprising a pixel array comprising P rows and N columns of pixels, P and N integers, wherein the pixels belonging to a same column are connected to a respective column conductor and a readout circuitry coupled to the N column conductors of the pixel array to output a digital pixel value (S i,j) for each pixel in a selected row, characterized in that the readout circuitry comprises: a. N default readout channels (RoC 1 to RoC N), one per respective column conductor (Col j) of the pixel array and M spare readout channels (RoCsp 1 to RoCsp 3), with M<N, b. the N + M readout channels are arranged by groups in a repetitive pattern sequence in a row direction of one default group of n successive default readout channels then one spare group of m successive spare readout channels, n and m, integers, N/n integer greater than 1; and M/m integer greater than 1, and c. N switching circuits SW1, one per column conductor of the pixel array, each switching circuit configured to electrically connect a respective one of the N column conductors to one readout channel of the readout circuitry selected among: a default channel (RoC-D) for said column conductor, a first replacement readout channel on a left side of said default readout conductor (RoC-L), a second replacement readout channel on a right side of said default readout conductor (RoC-R), wherein said readout circuitry is configured to set the first switch circuits SW1 such that, when in a default group (Gn 2) comprises a defective readout channel, one of a left shift coupling pattern or a right shift coupling pattern applies, wherein the left shift coupling pattern selects said first, left, replacement readout channel as a replacement to each of the readout channels of said default group starting from the defective readout channel (RoC 11) down to the first readout channel (RoC 9)of said default group, wherein the right shift coupling pattern selects said second, right, replacement readout channel as a replacement to each of the readout channels in said default group starting from the defective readout channel (RoC 15) up to the nth readout channel (RoC 16) in said default group. a. N default readout channels (RoC 1 to RoC N), one per respective column conductor (Col j) of the pixel array and M spare readout channels (RoCsp 1 to RoCsp 3), with M<N, b. the N + M readout channels are arranged by groups in a repetitive pattern sequence in a row direction of one default group of n successive default readout channels then one spare group of m successive spare readout channels, n and m, integers, N/n integer greater than 1; and M/m integer greater than 1, and c. N switching circuits SW1, one per column conductor of the pixel array, each switching circuit configured to electrically connect a respective one of the N column conductors to one readout channel of the readout circuitry selected among: a default channel (RoC-D) for said column conductor, a first replacement readout channel on a left side of said default readout conductor (RoC-L), a second replacement readout channel on a right side of said default readout conductor (RoC-R),
A method of detecting an extreme temperature event, the method comprising: collecting raw data from a high resolution sensor; identifying in the raw collected data one or more changing data point values by comparing them to an established background model; identifying, in the raw collected data an event based on the one or more changing data point values having reached a determined threshold that indicates with a high level of probability that an event has occurred; determining the distance from the high resolution sensor to the event; determining that the event is an extreme temperature event using the determined distance; and as a result issuing an alert indicating that an extreme temperature event has occurred. collecting raw data from a high resolution sensor; identifying in the raw collected data one or more changing data point values by comparing them to an established background model; identifying, in the raw collected data an event based on the one or more changing data point values having reached a determined threshold that indicates with a high level of probability that an event has occurred; determining the distance from the high resolution sensor to the event; determining that the event is an extreme temperature event using the determined distance; and as a result issuing an alert indicating that an extreme temperature event has occurred.
A correction amount calculation device usable in a board work line including a component mounting machine configured to perform a mounting process of mounting a component on a board on which solder is printed, a reflow furnace configured to heat the board on which the component is mounted and melt the solder to perform soldering, and an appearance inspection machine configured to inspect a mounting position of the component, which is subjected to the soldering, wherein the correction amount calculation device comprises a selection section configured to select a target component in which a movement amount of the component on the board before and after being conveyed to the reflow furnace based on a difference between mounting positions of the component before and after being conveyed to reflow furnace is equal to or less than a predetermined allowable value; and a correction amount calculation section configured to calculate a correction amount for being used in the mounting process of a board product to be produced later, regarding a positional deviation amount of the mounting position of the target component selected by the selection section with respect to a target mounting position. in a board work line including a component mounting machine configured to perform a mounting process of mounting a component on a board on which solder is printed, a reflow furnace configured to heat the board on which the component is mounted and melt the solder to perform soldering, and an appearance inspection machine configured to inspect a mounting position of the component, which is subjected to the soldering, wherein the correction amount calculation device comprises a selection section configured to select a target component in which a movement amount of the component on the board before and after being conveyed to the reflow furnace based on a difference between mounting positions of the component before and after being conveyed to reflow furnace is equal to or less than a predetermined allowable value; and a correction amount calculation section configured to calculate a correction amount for being used in the mounting process of a board product to be produced later, regarding a positional deviation amount of the mounting position of the target component selected by the selection section with respect to a target mounting position.
Cooking system, comprising at least one first hotplate and at least one item of cookware, the first hotplate and the cookware being designed to transmit an electromagnetic signal and/or structure-borne noise signal generated in or on the cookware from the cookware at least to the first hotplate, characterised in that the cookware has an operating element (36, 37) which is designed to trigger the generation of the structure-borne noise signal when actuated, and/or the cookware has an operating element (36, 37) which is designed to generate the electromagnetic signal when actuated by means of a conversion device.
A method of interfacing with a user of a computer system, comprising: providing a tabstrip controller to display different components of an application in a display, wherein in the display the components are displayed at once as a plurality of tabs (21, 22, 23) in a tabstrip, controlling the tabstrip to allow at least one tab (21, 22) to be removed from the tabstrip; controlling the tabstrip to transform the tab (21, 22) removed from the tabstrip into a window (40, 60) in response to a signal provided by a user; controlling the tabstrip to structure the display so that the window (40, 60) is docked at a predetermined location in the display; and storing the display once the at least one tab (21, 22) has been removed from the tabstrip, wherein a user stores a personalized format as a preferred setting for the display so that in subsequent sessions, the display will provide the user's preferred setting; wherein the size of the window (40, 60) is adapted to fill available space, wherein the available space is equally distributed among a number of windows to be disposed at the predetermined location. providing a tabstrip controller to display different components of an application in a display, wherein in the display the components are displayed at once as a plurality of tabs (21, 22, 23) in a tabstrip, controlling the tabstrip to allow at least one tab (21, 22) to be removed from the tabstrip; controlling the tabstrip to transform the tab (21, 22) removed from the tabstrip into a window (40, 60) in response to a signal provided by a user; controlling the tabstrip to structure the display so that the window (40, 60) is docked at a predetermined location in the display; and storing the display once the at least one tab (21, 22) has been removed from the tabstrip, wherein a user stores a personalized format as a preferred setting for the display so that in subsequent sessions, the display will provide the user's preferred setting; wherein the size of the window (40, 60) is adapted to fill available space, wherein the available space is equally distributed among a number of windows to be disposed at the predetermined location.
A system for analyzing data traffic, wherein the system comprises a data processing module, wherein the data processing module comprises a plurality of data processing units, wherein the plurality of data processing units comprise a first data processing unit and a second data processing unit, wherein the data processing units each comprise a data input for receiving a data stream ( s i) and a result output for outputting an analysis result, wherein the first data processing unit is configured to analyze data packets and/or bulks of data packets by means of a first deep packet inspection technique, wherein the second data processing unit is configured to analyze data packets and/or bulks of data packets by means of a second deep packet inspection technique, wherein the first deep packet inspection technique is different from the second deep packet inspection technique, wherein a data stream ( s i) being associated with the first data processing unit and/or the second data processing unit is a bulk of data packets, wherein the system comprises a data distribution circuit, the data distribution circuit being configured to distribute data packets and/or bulks of data packets to be analyzed to the plurality of data processing units, and wherein the data distribution circuit is configured to distribute the data packets and/or bulks of data packets to be analyzed based on analysis results obtained by the individual data processing units, wherein the data distribution circuit is configured to provide conditional connections between the data processing units. wherein the data processing units each comprise a data input for receiving a data stream ( s i) and a result output for outputting an analysis result, wherein the first data processing unit is configured to analyze data packets and/or bulks of data packets by means of a first deep packet inspection technique, wherein the second data processing unit is configured to analyze data packets and/or bulks of data packets by means of a second deep packet inspection technique, wherein the first deep packet inspection technique is different from the second deep packet inspection technique, wherein a data stream ( s i) being associated with the first data processing unit and/or the second data processing unit is a bulk of data packets, wherein the system comprises a data distribution circuit, the data distribution circuit being configured to distribute data packets and/or bulks of data packets to be analyzed to the plurality of data processing units, and wherein the data distribution circuit is configured to distribute the data packets and/or bulks of data packets to be analyzed based on analysis results obtained by the individual data processing units, wherein the data distribution circuit is configured to provide conditional connections between the data processing units.
A support for a modular framework system, the support comprising opposed parallel longitudinal walls defining a longitudinal channel, wherein the support comprises a planar foot from which the opposed parallel longitudinal walls upstand, the channel is divided by lateral walls into a plurality of framework support areas (20, 21, 22) arranged symmetrically in pairs along the channel; and each of at least a first pair of support areas is formed as a socket having a base and an opening, and each socket is provided with a projection extending from the base, the projection having a generally T- or Y-shaped form having a stem aligned with the longitudinal channel and an arm or arms extending laterally between the parallel longitudinal walls.
A liquid pharmaceutical oral solution, which comprises: a) paracetamol in an amount comprised between 85 mg/ml and 120 mg/ml; b) low-weight polyethylene glycol; c) glycerin; d) carboxymethyl cellulose sodium; and e) water, wherein the pharmaceutical oral solution has a weight ratio of low-weight polyethylene glycol plus glycerine to water comprised between 2:1 and 8:1, and a weight ratio of glycerine to low-weight polyethylene glycol comprised between 1:1 and 2:1. a) paracetamol in an amount comprised between 85 mg/ml and 120 mg/ml; b) low-weight polyethylene glycol; c) glycerin; d) carboxymethyl cellulose sodium; and e) water,
A power over Ethernet emergency luminaire having a first power over Ethernet, POE, input and a power over Ethernet port link segment wherein the first power over Ethernet input is connected to the power over Ethernet port link segment, an LED lamp, a power loss monitor and a rechargeable battery pack having a battery charger, characterised in that; the luminaire further comprises; a second POE input (3 10b), a controller, a relaying device having a first input and a second input alternatively switchable to an output, an emergency LED driver connected to the first input of the relaying device, and a normal lighting LED driver connected to the second input of the relaying device; wherein the LED lamp is connected to the output of the relaying device; and the power loss monitor is configured to detect a loss of power from the normal lighting LED driver, and is connected to the controller such that when power is lost at the normal lighting LED driver, the first input of the relaying device is connected to the LED lamp, but when the normal LED driver has power, the second input of the relaying device is connected to the LED lamp, and wherein, the power loss monitor is connected to a first conductor on a first POE data pair of the second POE input, and the power loss monitor is connected to a second conductor on a second data pair of the second POE input, and wherein, the power loss monitor is adapted to detect a voltage differential between a DC voltage on the first conductor and the second conductor. a first power over Ethernet, POE, input and a power over Ethernet port link segment wherein the first power over Ethernet input is connected to the power over Ethernet port link segment, an LED lamp, a power loss monitor and a rechargeable battery pack having a battery charger, characterised in that; the luminaire further comprises; a second POE input (3 10b), a controller, a relaying device having a first input and a second input alternatively switchable to an output, an emergency LED driver connected to the first input of the relaying device, and a normal lighting LED driver connected to the second input of the relaying device; wherein the LED lamp is connected to the output of the relaying device; and the power loss monitor is configured to detect a loss of power from the normal lighting LED driver, and is connected to the controller such that when power is lost at the normal lighting LED driver, the first input of the relaying device is connected to the LED lamp, but when the normal LED driver has power, the second input of the relaying device is connected to the LED lamp, and wherein, the power loss monitor is connected to a first conductor on a first POE data pair of the second POE input, and the power loss monitor is connected to a second conductor on a second data pair of the second POE input, and wherein, the power loss monitor is adapted to detect a voltage differential between a DC voltage on the first conductor and the second conductor.
A method of processing a pipe element having a longitudinal axis using a drive roller and an idler roller, said method comprising determining a diameter of said pipe element by: engaging said pipe element with said drive roller; engaging said idler roller with said pipe element; rotating said pipe element about said longitudinal axis while said pipe element is engaged with said idler roller, said idler roller rotating in response to the pipe element; knowing a diameter or a circumference of a surface of said idler roller engaged with said pipe element; determining a number of revolutions of said idler roller, including fractions thereof, for each revolution of said pipe element; and using said number of revolutions of said idler roller, including said fractions thereof, per revolution of said pipe element to calculate said diameter of said pipe element. engaging said pipe element with said drive roller; engaging said idler roller with said pipe element; rotating said pipe element about said longitudinal axis while said pipe element is engaged with said idler roller, said idler roller rotating in response to the pipe element; knowing a diameter or a circumference of a surface of said idler roller engaged with said pipe element; determining a number of revolutions of said idler roller, including fractions thereof, for each revolution of said pipe element; and using said number of revolutions of said idler roller, including said fractions thereof, per revolution of said pipe element to calculate said diameter of said pipe element.
A method of using a tomosynthesis imaging system and at least one marker, the method comprising: applying a compression paddle to an object to be scanned; performing a tomosynthesis scan on at least a portion of the object; reconstructing at least a portion of the tomosynthesis scan of the object on a display screen, wherein an image of the at least one marker, which has been reprojected or transformed and superimposed on the at least a portion of the reconstruction, is visible; determining a location of a lesion based upon the image of the at least one marker; correlating the location of the lesion in the reconstruction with the at least one marker; and proposing a needle entry point of a biopsy tool using the correlation of the location of the lesion with the at least one marker. applying a compression paddle to an object to be scanned; performing a tomosynthesis scan on at least a portion of the object; reconstructing at least a portion of the tomosynthesis scan of the object on a display screen, wherein an image of the at least one marker, which has been reprojected or transformed and superimposed on the at least a portion of the reconstruction, is visible; determining a location of a lesion based upon the image of the at least one marker; correlating the location of the lesion in the reconstruction with the at least one marker; and proposing a needle entry point of a biopsy tool using the correlation of the location of the lesion with the at least one marker.
A printable liquid supply cartridge comprising: a housing enclosing an internal volume, the housing having a front end to connect to a printer and first and second sides (5, 6) extending from the front end to a rear end; the front end having a printable liquid outlet closer to the bottom than to the top and a gas inlet above the printable liquid outlet, each of the printable liquid outlet and the gas inlet to facilitate insertion of a respective fluid pen therein; a recess in the front end above the gas inlet, the recess being delimited by a first wall having an internal side and an external side that is part of the first side; an I2C data interface comprising electrical connection pads exposed on the internal side of the first wall facing towards the recess; and a rib to support the first wall and to protect the electrical connection pads. a housing enclosing an internal volume, the housing having a front end to connect to a printer and first and second sides (5, 6) extending from the front end to a rear end; the front end having a printable liquid outlet closer to the bottom than to the top and a gas inlet above the printable liquid outlet, each of the printable liquid outlet and the gas inlet to facilitate insertion of a respective fluid pen therein; a recess in the front end above the gas inlet, the recess being delimited by a first wall having an internal side and an external side that is part of the first side; an I2C data interface comprising electrical connection pads exposed on the internal side of the first wall facing towards the recess; and a rib to support the first wall and to protect the electrical connection pads.