mhurhangee/patent-ind-claim-en huggingface dataset:
A method for flicker reduction in a multi-imager environment, the method comprising: producing , using a near-field illuminator source, a near-field illumination associated with at least one near-field illumination pulse; exposing a near-field image sensor during a first near-field illumination pulse of the at least one near-field illumination pulse; generating a near-field image based on an exposure of the near-field image sensor; exposing a far-field image sensor such that an exposure of the far-field image sensor is not during any of the at least one near-field illumination pulse; generating a far-field image based on the exposure of the far-field image sensor; detecting an illuminator switch event; deactivating the near-field illuminator source; and producing , using a far-field illuminator source, a far-field illumination associated with at least one far-field illumination pulse. producing , using a near-field illuminator source, a near-field illumination associated with at least one near-field illumination pulse; exposing a near-field image sensor during a first near-field illumination pulse of the at least one near-field illumination pulse; generating a near-field image based on an exposure of the near-field image sensor; exposing a far-field image sensor such that an exposure of the far-field image sensor is not during any of the at least one near-field illumination pulse; generating a far-field image based on the exposure of the far-field image sensor; detecting an illuminator switch event; deactivating the near-field illuminator source; and producing , using a far-field illuminator source, a far-field illumination associated with at least one far-field illumination pulse.
Foot lever assembly for a vehicle, with a bearing block , a foot lever , a bearing element by means of which the foot lever is mounted on the bearing block pivotable about a foot lever axis , which lies in a first bearing element position (P1) of the bearing element on a circle or arc around a bearing location provided on the foot lever , a coupling member mounted at the bearing location on the foot lever for actuating a vehicle component , and an adjusting device connected to the bearing block by means of which the bearing element can be displaced relative to the bearing block from the first bearing element position (P1) into a second bearing element position (P2) in which the foot lever axis lies on the circle or circular arc, wherein a guide defining a movement path for the bearing element is provided on the bearing block by means of which the bearing element is guided displaceably along the movement path from the first bearing element position (P1) to the second bearing element position (P2), and wherein the guide provided on the bearing block is formed by at least one recess which is provided in the bearing block and extends along the movement path and into which the bearing element engages, wherein the first bearing element position (P1) is defined by a first end of the recess and the second bearing element position (P2) is defined by a second end of the recess , characterised in that the recess comprises a straight main section, in which the second end of the recess lies, and a curved end section adjacent thereto, in which the first end of the recess lies.
Insect trap which is black on its outside at least in certain areas, characterized in that the insect trap bears a black coating on its outside at least in certain areas and in that the black coating is light-transmissive above a certain temperature.
A block for producing personalised root post flanges for dental implantology to be screwed onto a dental implant comprising: - A cylindrical body (CC) with an axial axis (e), - A connection base (B1) on the bottom part of the cylindrical body with an inner channel to connect to the dental implant, and an axial axis coinciding with said of the cylindrical body (CC), - An inner machining (AT) which determines the seat of the fixing screw head for the screwing between the block and the dental implant, - A gripping protrusion (C1) to fasten the block to the support of a machine and enable its external machining, characterised in that it comprises a blind vertical channel section (A1) after the seat of the fixing screw head (AT), the axis of the blind channel section (A1) coinciding with the axial axis (e) of the cylindrical body (CC). - A cylindrical body (CC) with an axial axis (e), - A connection base (B1) on the bottom part of the cylindrical body with an inner channel to connect to the dental implant, and an axial axis coinciding with said of the cylindrical body (CC), - An inner machining (AT) which determines the seat of the fixing screw head for the screwing between the block and the dental implant, - A gripping protrusion (C1) to fasten the block to the support of a machine and enable its external machining,
A system comprising: an electrocardiogram (ECG) acquiring system ; at least one hardware processor ; and a non-transitory computer-readable storage medium having stored thereon program instructions, the program instructions executable by the at least one hardware processor to receive , from the ECG acquiring system, data segments representing human cardiac activity, wherein the program instructions are characterized by : recording a baseline signal, comprising a plurality of data segments over a first period; calculating a difference in Shannon entropies between every two or more consecutive heartbeat intervals of the baseline signal, to obtain from each of said data segments a first value representing distribution of modified Shannon entropy ; acquiring a real-time segment representing cardiac activity in a patient over a second period, shorter than the first period; calculating a second value representing distribution of modified Shannon entropy of the real-time segment; calculating a difference between said first and second values; and indicating an atrial fibrillation (AF) event in said patient when the calculated difference is above a predetermined threshold. recording a baseline signal, comprising a plurality of data segments over a first period; calculating a difference in Shannon entropies between every two or more consecutive heartbeat intervals of the baseline signal, to obtain from each of said data segments a first value representing distribution of modified Shannon entropy ; acquiring a real-time segment representing cardiac activity in a patient over a second period, shorter than the first period; calculating a second value representing distribution of modified Shannon entropy of the real-time segment; calculating a difference between said first and second values; and indicating an atrial fibrillation (AF) event in said patient when the calculated difference is above a predetermined threshold.
A fastener painting system for painting a head (H) of a fastener (F), the system comprising: a cup for covering the head (H) of the fastener (F) by contacting an edge of the cup with a surface of an object (O), the cup having a cavity for being filled up with paint (P); a supply system configured to store the paint (P) and supply the paint (P) into the cavity of the cup ; a liquid discharging system configured to discharge surplus paint (EP) in the cavity out of the cup ; and a moving mechanism configured to change a position of the cup relative to the object (O); wherein the cup has: a supply port for supplying the paint (P) into the cavity ; a vent for discharging air in the cavity out; and a liquid discharging port for discharging the surplus paint (EP) out of the cavity . a cup for covering the head (H) of the fastener (F) by contacting an edge of the cup with a surface of an object (O), the cup having a cavity for being filled up with paint (P); a supply system configured to store the paint (P) and supply the paint (P) into the cavity of the cup ; a liquid discharging system configured to discharge surplus paint (EP) in the cavity out of the cup ; and a moving mechanism configured to change a position of the cup relative to the object (O); wherein the cup has: a supply port for supplying the paint (P) into the cavity ; a vent for discharging air in the cavity out; and a liquid discharging port for discharging the surplus paint (EP) out of the cavity . a supply port for supplying the paint (P) into the cavity ; a vent for discharging air in the cavity out; and a liquid discharging port for discharging the surplus paint (EP) out of the cavity .
A composition comprising a) from 17 to 70 parts by weight of one or more block co-polymers having one or more polyamide blocks and one or more polyether blocks; and b) from 30 to 83 parts by weight of one or more co-polyamides; wherein the total parts by weight of the components a) and b) is 100 and wherein components a) and b) are present in a molar ratio a) to b) of 2:1 to 1:6; and wherein the composition additionally comprises c) a curable composition containing one or more epoxy functional materials. a) from 17 to 70 parts by weight of one or more block co-polymers having one or more polyamide blocks and one or more polyether blocks; and b) from 30 to 83 parts by weight of one or more co-polyamides; wherein the total parts by weight of the components a) and b) is 100 and wherein components a) and b) are present in a molar ratio a) to b) of 2:1 to 1:6; and wherein the composition additionally comprises c) a curable composition containing one or more epoxy functional materials.
An inhaler comprising a pressurised inhaler reservoir of an inhalable composition including a propellant, a heater to selectively volatilise at least some components of the composition, and a power source arranged to selectively supply electrical power to the heater when a user inhales from the inhaler, the power source being arranged to heat the heater to a temperature that will volatilise some, but not all of the components of the composition, wherein the heater is made of a conductive material and has an internal pathway along its central axis for the passage of the composition; and the heater being powered by an inhaler capacitor .
A biosensor for base calling, comprising: a sampling device , the sampling device including a sample surface having an array of pixel areas that can each hold more than one cluster during a base calling cycle, and a solid-state imager having an array of sensors , each sensor configured to generate pixel signals in each base calling cycle, each pixel signal representing light gathered in one base calling cycle from one or more clusters (1102A, 1104A, 306A-B) in a corresponding pixel area of the sample surface ; and a signal processor configured for connection to the sampling device and, when connected to the sampling device , configured to receive and process the pixel signals from the sensors for base calling in a base calling cycle, and to use the pixel signals from fewer sensors than a number of clusters (1102A, 1104A, 306A-B) base called in the base calling cycle, characterized in that the signal processor is configured to use and process the pixel signals from the fewer sensors including at least one pixel signal representing light simultaneously gathered from at least two clusters (1102A, 1104A, 306A-B) in the corresponding pixel area . a sampling device , the sampling device including a sample surface having an array of pixel areas that can each hold more than one cluster during a base calling cycle, and a solid-state imager having an array of sensors , each sensor configured to generate pixel signals in each base calling cycle, each pixel signal representing light gathered in one base calling cycle from one or more clusters (1102A, 1104A, 306A-B) in a corresponding pixel area of the sample surface ; and a signal processor configured for connection to the sampling device and, when connected to the sampling device , configured to receive and process the pixel signals from the sensors for base calling in a base calling cycle, and to use the pixel signals from fewer sensors than a number of clusters (1102A, 1104A, 306A-B) base called in the base calling cycle, characterized in that the signal processor is configured to use and process the pixel signals from the fewer sensors including at least one pixel signal representing light simultaneously gathered from at least two clusters (1102A, 1104A, 306A-B) in the corresponding pixel area .
A tyre comprising a tread portion comprising an outer shoulder main groove extending continuously in a tyre circumferential direction on a side closest to an outer tread edge (To) when a position of the tread portion mounted on a vehicle is specified and an outer shoulder land region formed on an outer side in a tyre axial direction of the outer shoulder main groove , wherein the outer shoulder land region includes an outer region (As) which is a region of 10% of a tread width (TW) axially outward from the outer tread edge (To), a middle region (Am) which is a region of 10% of the tread width (TW) axially inward from the outer tread edge (To), and an inner region (Ai) extending from the middle region (Am) to the outer shoulder main groove , and a tread edge region (At) which is a region of 10% of the tread width (TW) with the tread edge (To, Ti) being a center thereof in the tyre axial direction, the outer shoulder land region is provided with a plurality of outer shoulder sipes having components in the tyre axial direction, wherein the plurality of outer shoulder sipes includes edge sipes having one end in the tread edge region (At) that are first edge sipes having one end arranged on an inner side in the tyre axial direction of the tread edge (To) and extending axially outwardly therefrom, and in each of the outer region (As), the middle region (Am), and the inner region (Ai), when a ratio of a total opening area of the outer shoulder sipes included in the respective region (As, Am, Ai) to a total area of a ground contacting surface of the respective region (As, Am, Ai) is defined as a sipe ratio (R), the sipe ratio (Rm) of the middle region (Am) is smaller than the sipe ratio (Rs) of the outer region (As) and the sipe ratio (Ri) of the inner region (Ai), characterized in that the plurality of outer shoulder sipes includes a main sipe crossing the entire middle region (Am) of the outer shoulder land region .
A method, comprising: trimming the sensitivity of a magnetic field sensor having a first magnetic field sensing element within an IC package , the trimming comprising using a curve for normalized sensitivity of the first magnetic field sensing element derived from first and second curves, wherein the first curve corresponds to a measured sensitivity of a coil versus an external field having a first polarity, obtained by applying a first plurality of currents through the coil in a first direction at a first time to produce a magnetic field affecting the first magnetic field sensing element and measuring corresponding outputs of the first magnetic field sensing element, the second curve corresponds to a measured sensitivity of the coil versus the external field having the first polarity, obtained by applying a second plurality of currents through the coil in a second direction opposite to the first direction at a second time to produce a magnetic field affecting the first magnetic field sensing element and measuring corresponding outputs of the first magnetic field sensing element, and the curve for normalized sensitivity of the first magnetic field sensing element corresponds to an average of the first and second curves. trimming the sensitivity of a magnetic field sensor having a first magnetic field sensing element within an IC package , the trimming comprising using a curve for normalized sensitivity of the first magnetic field sensing element derived from first and second curves, wherein the first curve corresponds to a measured sensitivity of a coil versus an external field having a first polarity, obtained by applying a first plurality of currents through the coil in a first direction at a first time to produce a magnetic field affecting the first magnetic field sensing element and measuring corresponding outputs of the first magnetic field sensing element, the second curve corresponds to a measured sensitivity of the coil versus the external field having the first polarity, obtained by applying a second plurality of currents through the coil in a second direction opposite to the first direction at a second time to produce a magnetic field affecting the first magnetic field sensing element and measuring corresponding outputs of the first magnetic field sensing element, and the curve for normalized sensitivity of the first magnetic field sensing element corresponds to an average of the first and second curves.
An apparatus for deductively determining an image capture resolution, comprising: means for operating an imaging device in a preview mode at a default resolution to obtain an image of a scene; means for classifying one or more regions of interest in the image of the scene as foreground regions of interest based on a size of the region of interest, wherein the size of each region of interest is based on a pixel area of each region of interest; means for determining a scene-dependent resolution setting based on the sizes of the one or more foreground regions of interest, the scene-dependent resolution setting being higher or lower than the default resolution, wherein the scene-dependent resolution setting is: higher than the default resolution if the pixel area of a foreground region of interest is less than a specified percentage of the total field of view of the imaging device; and lower than the default resolution if the pixel area of the foreground region is not less than the specified percentage of the total field of view of the imaging device; means for adjusting the image capture resolution for the imaging device to the scene-dependent resolution setting; and means for capturing an image of the scene at the scene-dependent resolution setting. means for operating an imaging device in a preview mode at a default resolution to obtain an image of a scene; means for classifying one or more regions of interest in the image of the scene as foreground regions of interest based on a size of the region of interest, wherein the size of each region of interest is based on a pixel area of each region of interest; means for determining a scene-dependent resolution setting based on the sizes of the one or more foreground regions of interest, the scene-dependent resolution setting being higher or lower than the default resolution, wherein the scene-dependent resolution setting is: higher than the default resolution if the pixel area of a foreground region of interest is less than a specified percentage of the total field of view of the imaging device; and lower than the default resolution if the pixel area of the foreground region is not less than the specified percentage of the total field of view of the imaging device; higher than the default resolution if the pixel area of a foreground region of interest is less than a specified percentage of the total field of view of the imaging device; and lower than the default resolution if the pixel area of the foreground region is not less than the specified percentage of the total field of view of the imaging device; means for adjusting the image capture resolution for the imaging device to the scene-dependent resolution setting; and means for capturing an image of the scene at the scene-dependent resolution setting.
An image forming apparatus comprising: an apparatus main body formed with an opening; an image forming unit configured to form an image on a sheet; a plurality of storage portions each configured to store the sheet with the image formed thereon by the image forming unit inside the apparatus main body; a sheet moving unit configured to move the sheet stored in each of the plurality of storage portions, and stop the sheet being in an exposure state that a back part of the sheet including a back edge of the sheet in a moving direction is inside the apparatus main body and a front part of the sheet including a front edge in the moving direction is exposed to the outside of the apparatus main body through the opening; an attribute information adding unit configured to add attribute information to print information corresponding to a sheet to be stored in the storage portion; and a memory unit configured to store the attribute information added by the attribute information adding unit, wherein the sheet moving unit is configured to move a first sheet stored in a first storage portion and a second sheet stored in a second storage portion, the first sheet and the second sheet corresponding to the same predetermined information contained in the attribute information stored in the memory unit, and to stop the first sheet and the second sheet in the exposure state, wherein the front part of the first sheet and the front part of the second sheet are exposed outside the main body through the same opening. an apparatus main body formed with an opening; an image forming unit configured to form an image on a sheet; a plurality of storage portions each configured to store the sheet with the image formed thereon by the image forming unit inside the apparatus main body; a sheet moving unit configured to move the sheet stored in each of the plurality of storage portions, and stop the sheet being in an exposure state that a back part of the sheet including a back edge of the sheet in a moving direction is inside the apparatus main body and a front part of the sheet including a front edge in the moving direction is exposed to the outside of the apparatus main body through the opening; an attribute information adding unit configured to add attribute information to print information corresponding to a sheet to be stored in the storage portion; and a memory unit configured to store the attribute information added by the attribute information adding unit, wherein the sheet moving unit is configured to move a first sheet stored in a first storage portion and a second sheet stored in a second storage portion, the first sheet and the second sheet corresponding to the same predetermined information contained in the attribute information stored in the memory unit, and to stop the first sheet and the second sheet in the exposure state, wherein the front part of the first sheet and the front part of the second sheet are exposed outside the main body through the same opening.