mhurhangee/ep-ind-claims huggingface dataset:
An image sensor, comprising: - a semiconductor substrate comprising a first continuous portion and a second continuous portion, the first and second continuous portions (110, 120) being non-overlapping; - a multitude of photodiodes (112a, 112b, 112h; 541, 542, 543) disposed in the first portion of the semiconductor substrate, the photodiodes each comprising the semiconductor substrate (101, 211, 212) having a first conductivity type, a doped well region disposed in the semiconductor substrate having a second conductivity type opposite the first conductivity type and facing a surface of the semiconductor substrate, a doped surface region disposed in the semiconductor substrate having the first conductivity type and a doping concentration higher than the semiconductor substrate and surrounding the doped well region; - analog-to-digital converters (121a, 121b, 121h) disposed in the second portion of the semiconductor substrate, each one of the analog-to-digital converters associated to one of the multitude of photodiodes in a one-to-one relation; and - electrical connections (113a, 113b), each one of the electrical connections connected to one of the multitude of photodiodes and to an associated one of the analog-to-digital converters. - a semiconductor substrate comprising a first continuous portion and a second continuous portion, the first and second continuous portions (110, 120) being non-overlapping; - a multitude of photodiodes (112a, 112b, 112h; 541, 542, 543) disposed in the first portion of the semiconductor substrate, the photodiodes each comprising the semiconductor substrate (101, 211, 212) having a first conductivity type, a doped well region disposed in the semiconductor substrate having a second conductivity type opposite the first conductivity type and facing a surface of the semiconductor substrate, a doped surface region disposed in the semiconductor substrate having the first conductivity type and a doping concentration higher than the semiconductor substrate and surrounding the doped well region; - analog-to-digital converters (121a, 121b, 121h) disposed in the second portion of the semiconductor substrate, each one of the analog-to-digital converters associated to one of the multitude of photodiodes in a one-to-one relation; and - electrical connections (113a, 113b), each one of the electrical connections connected to one of the multitude of photodiodes and to an associated one of the analog-to-digital converters.
An equipment enclosure (1, 100, 101, 401) for electromagnetically isolating an electronic device (13a-f, 130a-f, 413), the equipment enclosure comprising: a conductive housing (3, 31); and a plurality of conductive sheets (5, 51), each sheet including an aperture, wherein the sheets are stacked in a spaced-apart relationship within the housing, thereby defining a plurality of electromagnetically-isolated cavities (9, 90) each within a respective Faraday cage formed by the conductive housing and the conductive sheets, and wherein the apertures form a channel (11, 210a/b, 417) that extends through the enclosure providing a route for connections between the cavities, characterised in that: first and second internal connectors (15, 150a-d, 415) pass through the channel in the enclosure for connecting at least two electro-magnetically isolated components, and wherein the first and second connectors provide different levels of shielding, and wherein the first connector connects components that require a first level of shielding and the second connector connects components that require a second, different level of shielding. a conductive housing (3, 31); and a plurality of conductive sheets (5, 51), each sheet including an aperture, wherein the sheets are stacked in a spaced-apart relationship within the housing, thereby defining a plurality of electromagnetically-isolated cavities (9, 90) each within a respective Faraday cage formed by the conductive housing and the conductive sheets, and wherein the apertures form a channel (11, 210a/b, 417) that extends through the enclosure providing a route for connections between the cavities, first and second internal connectors (15, 150a-d, 415) pass through the channel in the enclosure for connecting at least two electro-magnetically isolated components, and wherein the first and second connectors provide different levels of shielding, and wherein the first connector connects components that require a first level of shielding and the second connector connects components that require a second, different level of shielding.
Light module for a motor vehicle headlamp, comprising light sources, optical elements (2, 3, 4) each designed to guide light rays emitted by a light source, and a mounting bracket against which the optical elements and the light sources are arranged, the optical elements comprising a first optical element associated with a first light source, a second optical element associated with a second light source and a third optical element associated with a third light source, wherein the first optical element comprises means for holding the second optical element and the third optical element on the fixing support, and characterized in that each of the optical elements comprises an optical guiding portion, configured for guiding the light rays emitted by the corresponding light source and laterally extended by fins, the fins of the first optical element being configured to carry said holding means, the optical guiding portion of the first optical element being arranged between the second optical element and the third optical element.
A chuck device (1;101) having at least two jaws (25;125) for gripping an object, and an adjustment mechanism configured to adjust the rotational centre of the gripped object relative to a cutting position; characterised in that: adjustment of the rotational centre of the gripped object takes place whilst the object is stationary and adjustment is in a single plane that is perpendicular to the rotational axis of the gripped object, wherein the adjustment mechanism comprises first and second adjusting devices configured to adjust the rotational centre of the gripped object in the plane perpendicular to the rotational axis of the gripped object, wherein the first adjusting device (12;112) is configured to move the gripped object translationally in the plane perpendicular to the axis of the gripped object, and wherein the second adjusting device (20;120) is configured to move the gripped object in an arcuate path in the plane perpendicular to the axis of the gripped object about a pivot, wherein the pivot is offset from the axis of the gripped object.
Method to transmit messages between a plurality of user equipment, the method comprising receiving, by a relay and from a transmitting user equipment, a message and a notification data field, determining, by the relay, a set of user equipment without direct communication capabilities with the transmitting user equipment, transmitting, by the relay, the message to the set of user equipment.
A projection screen, comprising: a first substrate panel and a second substrate panel, wherein each of the first substrate panel and the second substrate panel have at least a first seaming edge and a first mounting edge, further wherein the first seaming edge of the first substrate panel is joined together with the first seaming edge of the second substrate panel to form a seam; a first mounting patch attached to at least the first substrate panel, wherein the first mounting patch has at least one strain relief element in the form of a notch or a slit, wherein the strain relief element spacing from any other strain relief element reduces strain when at least the first substrate panel is curved about an axis, wherein the strain relief element spacing is such that the first mounting patch distributes a mechanical load across at least the first substrate panel so that the strain lines in the first substrate panel are optically approximately at or around a just noticeable difference, further wherein the first mounting patch has a first edge that approximately aligns with at least the mounting edge of the first substrate panel. a first substrate panel and a second substrate panel, wherein each of the first substrate panel and the second substrate panel have at least a first seaming edge and a first mounting edge, further wherein the first seaming edge of the first substrate panel is joined together with the first seaming edge of the second substrate panel to form a seam; a first mounting patch attached to at least the first substrate panel, wherein the first mounting patch has at least one strain relief element in the form of a notch or a slit, wherein the strain relief element spacing from any other strain relief element reduces strain when at least the first substrate panel is curved about an axis, wherein the strain relief element spacing is such that the first mounting patch distributes a mechanical load across at least the first substrate panel so that the strain lines in the first substrate panel are optically approximately at or around a just noticeable difference, further wherein the first mounting patch has a first edge that approximately aligns with at least the mounting edge of the first substrate panel.
A rubber composition for a tire, comprising: silica; a silane coupling agent; and at least one selected from the group consisting of a hydroxy acid, itaconic acid, and a salt thereof, each of which has an average particle size of not more than 300 μm, wherein the hydroxy acid is at least one selected from the group consisting of lactic acid, malic acid, tartaric acid, citric acid, cerebronic acid, tartronic acid, hydroxybutyric acid, leucic acid, glycolic acid, pantoic acid, salicylic acid and benzilic acid. silica; a silane coupling agent; and at least one selected from the group consisting of a hydroxy acid, itaconic acid, and a salt thereof, each of which has an average particle size of not more than 300 μm, wherein the hydroxy acid is at least one selected from the group consisting of lactic acid, malic acid, tartaric acid, citric acid, cerebronic acid, tartronic acid, hydroxybutyric acid, leucic acid, glycolic acid, pantoic acid, salicylic acid and benzilic acid.
A method for producing a chitosan-arginine compound of formula: where m is 0.02-0.50; q is 0.50-0.01; s is 1; and p+q+m=1; and the percentage degree of functionalisation is m/(1-q)•100%; wherein X is selected from the group consisting of: wherein the method comprises the steps of: a) reacting a compound of formula with a coupling agent and an activating agent, to provide a compound of formula b) reacting the compound of formula with a compound of formula to provide a compound of formula and dialysing the compound of formula with a 5000 Da molecular weight cut off; and c) reacting the compound of formula with a strong acid, to provide the compound of formula. a) reacting a compound of formula with a coupling agent and an activating agent, to provide a compound of formula b) reacting the compound of formula with a compound of formula to provide a compound of formula and dialysing the compound of formula with a 5000 Da molecular weight cut off; and c) reacting the compound of formula with a strong acid, to provide the compound of formula.
A foveated rendering system for modifying content to be displayed, the system comprising: a user profile obtaining unit operable to obtain a user profile, comprising information about head motion and eye motion for a user; a user profile analysis unit operable to determine characteristics of one or more groups of users in dependence upon obtained user profiles, the groups being identified according to shared head motion and eye motion characteristics between user profiles; and a foveated rendering unit operable to apply a foveated rendering process to the content to be displayed in dependence upon the characteristics determined by the user profile analysis unit so as to generate a processed content to be displayed for each group, wherein the foveated rendering unit is operable to apply a further foveated rendering process to the processed content in dependence upon the obtained user profile information. a user profile obtaining unit operable to obtain a user profile, comprising information about head motion and eye motion for a user; a user profile analysis unit operable to determine characteristics of one or more groups of users in dependence upon obtained user profiles, the groups being identified according to shared head motion and eye motion characteristics between user profiles; and a foveated rendering unit operable to apply a foveated rendering process to the content to be displayed in dependence upon the characteristics determined by the user profile analysis unit so as to generate a processed content to be displayed for each group, wherein the foveated rendering unit is operable to apply a further foveated rendering process to the processed content in dependence upon the obtained user profile information.
A method of updating an image on a bi-stable display, comprising: determining a current state of a pixel of the bi-stable display; determining a desired state of the pixel of the bi-stable display, the desired state being white or black; storing a plurality of waveforms in a framebuffer, one waveform for each pixel, each waveform comprising a predetermined number of bit pairs; updating, during a number of frame periods, the pixel by applying a determined control signal to the pixel to drive the pixel from the current state to the desired state, by applying, during each frame period, a voltage represented by a corresponding bit pair of the waveform for said pixel; wherein the updating for each pixel occurs independently of the other pixels of the bi-stable display; characterized by determining, while the pixel is being driven to a desired final state, whether the desired final state has been changed, and, if the desired final state has been changed, converting, in the framebuffer, only the remaining bit pairs of the respective waveform for the driven pixel according to the new desired state. determining a current state of a pixel of the bi-stable display; determining a desired state of the pixel of the bi-stable display, the desired state being white or black; storing a plurality of waveforms in a framebuffer, one waveform for each pixel, each waveform comprising a predetermined number of bit pairs; updating, during a number of frame periods, the pixel by applying a determined control signal to the pixel to drive the pixel from the current state to the desired state, by applying, during each frame period, a voltage represented by a corresponding bit pair of the waveform for said pixel; wherein the updating for each pixel occurs independently of the other pixels of the bi-stable display; characterized by determining, while the pixel is being driven to a desired final state, whether the desired final state has been changed, and, if the desired final state has been changed, converting, in the framebuffer, only the remaining bit pairs of the respective waveform for the driven pixel according to the new desired state.
A vehicular visual recognition device comprising: an imaging section that is provided at a rear of a vehicle and that is configured to capture images rearward of a vehicle; a display section that is configured to display an image captured by the imaging section; characterized by an optical mirror (22, 24) that is provided at a display face side of the display section, that is configured to transmit the captured image being displayed when the display section is in a display state, and that is configured to reflect light from rearward of the vehicle when the display section is in a non-display state; and a controller that is configured to control the display section so as to switch the display state of the display section in accordance with a predetermined signal. an imaging section that is provided at a rear of a vehicle and that is configured to capture images rearward of a vehicle; a display section that is configured to display an image captured by the imaging section; characterized by an optical mirror (22, 24) that is provided at a display face side of the display section, that is configured to transmit the captured image being displayed when the display section is in a display state, and that is configured to reflect light from rearward of the vehicle when the display section is in a non-display state; and a controller that is configured to control the display section so as to switch the display state of the display section in accordance with a predetermined signal.
A T-cell epitope composition comprising at least one isolated T-cell polypeptide which engages and activates pre-existing natural Treg cells consisting of an amino acid sequence comprising one or more conserved amino acid substitutions of a sequence selected from any of: SEQ ID NOS: 6 to 22.
A method implemented by a computer system for managing blood loss of a patient, comprising: accessing an image of a physical sample; extracting a feature from an area of the image corresponding to the physical sample; estimating a blood volume indicator of the physical sample based on the extracted feature; estimating a patient blood loss based on the blood volume indicator; estimating a euvolemic patient hemoglobin concentration based on an estimated patient blood volume and the estimated patient blood loss; accessing a measured patient hemoglobin concentration; and generating a volemic status indicator based on a comparison between the measured patient hemoglobin concentration and the estimated euvolemic patient hemoglobin. accessing an image of a physical sample; extracting a feature from an area of the image corresponding to the physical sample; estimating a blood volume indicator of the physical sample based on the extracted feature; estimating a patient blood loss based on the blood volume indicator; estimating a euvolemic patient hemoglobin concentration based on an estimated patient blood volume and the estimated patient blood loss; accessing a measured patient hemoglobin concentration; and generating a volemic status indicator based on a comparison between the measured patient hemoglobin concentration and the estimated euvolemic patient hemoglobin.
A heat exchanger assembly comprising: a heat exchanger including a housing; a power electronics module mounted to a surface of the housing of the heat exchanger, wherein the power electronics module is thermally coupled to the heat exchanger at a heat sink interface; a thermal interface material arranged between the heat sink interface and the surface of the housing of the heat exchanger; and a gasket arranged between the heat sink interface and the surface of the housing of the heat exchanger; wherein the power electronics module is mounted to a vertically oriented surface of the housing; wherein the gasket surrounds at least a portion of the thermal interface material; and wherein the gasket defines a boundary that restricts movement of the thermal interface material relative to the heat sink interface and the surface of the housing of the heat exchanger; characterized in that: the surface of the heat exchanger has a gasket groove formed therein, the gasket being arranged within the gasket groove. a heat exchanger including a housing; a power electronics module mounted to a surface of the housing of the heat exchanger, wherein the power electronics module is thermally coupled to the heat exchanger at a heat sink interface; a thermal interface material arranged between the heat sink interface and the surface of the housing of the heat exchanger; and a gasket arranged between the heat sink interface and the surface of the housing of the heat exchanger; wherein the power electronics module is mounted to a vertically oriented surface of the housing; wherein the gasket surrounds at least a portion of the thermal interface material; and wherein the gasket defines a boundary that restricts movement of the thermal interface material relative to the heat sink interface and the surface of the housing of the heat exchanger; characterized in that: the surface of the heat exchanger has a gasket groove formed therein, the gasket being arranged within the gasket groove.
A process comprising the steps of a) reading an identifier forming part of a hemodialyzer, hemofilter, or ultrafilter with a portable communication device; b) accessing an editable dataset assigned to the hemodialyzer, hemofilter, or ultrafilter via the identifier with the portable communication device, the editable dataset being present in the memory of a RFID chip or NFC chip forming part of the hemodialyzer, hemofilter, or ultrafilter; c) reading data from the editable dataset and writing data to the editable dataset with the portable communication device; d) accessing at least one remote computer or computer network of the manufacturer of the hemodialyzer, hemofilter, or ultrafilter with the portable communication device and sending data previously read from the editable dataset to the at least one remote computer or computer network and writing data previously received from the at least one remote computer or computer network to the editable dataset; wherein the data previously received is used to block use of the hemodialyzer, hemofilter, or ultrafilter, in case the manufacturer of the hemodialyzer, hemofilter, or ultrafilter has detected a problem with the hemodialyzer, hemofilter, or ultrafilter, or in case storage conditions of the hemodialyzer, hemofilter, or ultrafilter, or environmental parameters have been outside the allowable limitations. a) reading an identifier forming part of a hemodialyzer, hemofilter, or ultrafilter with a portable communication device; b) accessing an editable dataset assigned to the hemodialyzer, hemofilter, or ultrafilter via the identifier with the portable communication device, the editable dataset being present in the memory of a RFID chip or NFC chip forming part of the hemodialyzer, hemofilter, or ultrafilter; c) reading data from the editable dataset and writing data to the editable dataset with the portable communication device; d) accessing at least one remote computer or computer network of the manufacturer of the hemodialyzer, hemofilter, or ultrafilter with the portable communication device and sending data previously read from the editable dataset to the at least one remote computer or computer network and writing data previously received from the at least one remote computer or computer network to the editable dataset; wherein the data previously received is used to block use of the hemodialyzer, hemofilter, or ultrafilter, in case the manufacturer of the hemodialyzer, hemofilter, or ultrafilter has detected a problem with the hemodialyzer, hemofilter, or ultrafilter, or in case storage conditions of the hemodialyzer, hemofilter, or ultrafilter, or environmental parameters have been outside the allowable limitations.
Control method for operating a heat recovery steam generator having a flue gas channel in which an evaporator, having at least two evaporator heating surfaces (4', 4'') arranged successively in the flue gas channel and at least one intermediate heating surface arranged between the evaporator heating surfaces (4', 4''), is provided, a characteristic value characteristic of the heat absorption in the evaporator and in the intermediate heating surface being determined for the evaporator heating surfaces (4', 4''), characterized in that, additionally for the at least one intermediate heating surface, an additional characteristic value for the heat absorption of the intermediate heating surface is determined, and this additional characteristic value is subtracted from the characteristic value characteristic of the heat absorption in the evaporator and in the intermediate heating surface.