mhurhangee/patent-ind-claim-en huggingface dataset:
A system for digital imaging in an ambient light deficient environment comprising: an imaging sensor comprising an array of pixels arranged in rows and columns for sensing electromagnetic radiation using a rolling reset and read process; an emitter configured to emit a pulse of electromagnetic radiation; a control unit comprising a processor and wherein the control unit is in electrical communication with the imaging sensor and the emitter; and wherein the controller is configured to synchronize the emitter and the imaging sensor so as to produce a plurality of image frames; wherein the emitter is configured to pulse the electromagnetic radiation between readout cycles, such that the maximum available period corresponds to the sum of the blanking time plus any time during which optical black or optically blind (OB) rows are serviced at the start or end of each frame; and wherein the plurality of image frames comprise a luminance frame comprising luminance image data and a chrominance frame comprising chrominance image data that are combined to form a color image. an imaging sensor comprising an array of pixels arranged in rows and columns for sensing electromagnetic radiation using a rolling reset and read process; an emitter configured to emit a pulse of electromagnetic radiation; a control unit comprising a processor and wherein the control unit is in electrical communication with the imaging sensor and the emitter; and wherein the controller is configured to synchronize the emitter and the imaging sensor so as to produce a plurality of image frames; wherein the emitter is configured to pulse the electromagnetic radiation between readout cycles, such that the maximum available period corresponds to the sum of the blanking time plus any time during which optical black or optically blind (OB) rows are serviced at the start or end of each frame; and wherein the plurality of image frames comprise a luminance frame comprising luminance image data and a chrominance frame comprising chrominance image data that are combined to form a color image.
Method for monitoring a component of a control system for a means of transport , having the steps of: - sending (S1) a function call (FA) to the component to perform a function (F) that is used by the component , using defined input data (D); - receiving (S2) a response (A) to the function call (FA) from the component ; - comparing (S3) the response (A) with an expected response (EA); and - performing (S4) an action in response to a result of the comparison (S3); characterized in that the function call (FA) comprises an identifier for the function (F) that is to be performed and an identifier for the input data (D) that are to be processed, and the component calls from a memory on the basis of the identifiers the function (F) that is to be performed and the input data (D) that are to be processed. - sending (S1) a function call (FA) to the component to perform a function (F) that is used by the component , using defined input data (D); - receiving (S2) a response (A) to the function call (FA) from the component ; - comparing (S3) the response (A) with an expected response (EA); and - performing (S4) an action in response to a result of the comparison (S3);
Assembly comprising a current distribution device (D) and a device for holding and for positioning this current distribution device (D) in an electrical panel (C), said distribution device (D) being intended to supply power to rows of electrical switchgear (a, b, c, d) that are mounted on a mounting support (r, s, t, v) in the panel, said distribution device (D) comprising, housed in an insulating casing, one busbar that is intended to convey the neutral and at least one busbar that is intended to convey a phase, said busbars being positioned substantially in parallel with respect to one another, and substantially perpendicularly to the longitudinal direction of the mounting supports (r, s, t, v), each busbar bearing connection elements for connection to a cable or the like, the assembly also including sliding means that are provided partly on the distribution device (D) and partly on at least one support element that can be securely connected to a rail that is attached to the back wall of the panel (C), characterized in that they allow the distribution device (D) to slide with respect to the one or more support elements in a first and a second movement, these two successive movements forming an L, the second movement ending in the passing of a hard point, which locks the distribution device (D) with respect to the panel (C).
A metal diaphragm damper comprising a diaphragm that is disk shaped and has a gas enclosed therein, the diaphragm having a deforming action part in a center and an outer periphery fixing part on an outer periphery, wherein the deforming action part is formed into a shape curved toward an exterior of the diaphragm, a folded part is formed in a connecting portion of the deforming action part and the outer periphery fixing part and is opened to an inner diameter side, the folded part being movable in a radial direction, wherein the metal diaphragm damper further comprises a base member , the diaphragm being fixed to the base member, the gas of a predetermined pressure being enclosed within an enclosed space formed between the diaphragm and the base member, characterized in that the base member has a regulation surface part as a contact surface which extends in a radial direction and with which a curved surface part of the folded part contacts, the curved surface part of the folded part sliding to the outer diameter side in a state of being in contact onto the regulation surface part of the base member.
A glove comprising: a glove body configured to cover a hand of a wearer, wherein the glove body comprises an outermost layer including a matrix resin and cellulose particles and constituting an outer surface of the glove , wherein at least some of the cellulose particles are at least partially exposed from the outer surface and characterized in that the cellulose particles have an average particle size of 17 μm or more and 45 μm or less, the outermost layer includes 4 parts or more and 9 parts or less by mass of the cellulose particles based on 100 parts by mass of the matrix resin. a glove body configured to cover a hand of a wearer, wherein the glove body comprises an outermost layer including a matrix resin and cellulose particles and constituting an outer surface of the glove , wherein at least some of the cellulose particles are at least partially exposed from the outer surface and characterized in that the cellulose particles have an average particle size of 17 μm or more and 45 μm or less, the outermost layer includes 4 parts or more and 9 parts or less by mass of the cellulose particles based on 100 parts by mass of the matrix resin.
Selection element comprising, in a first portion , a stack of amorphous layers, the thickness of each layer in the stack being smaller than or equal to 20 nm, at least one of the layers in the stack comprising a group-16 element, characterized in that the element comprises a second portion crossing at least certain layers of the stack , made of an alloy of at least part of the components of the layers of the stack .
An ice maker comprising: an ice tray for receiving water to form ice; a motor capable of performing forward and backward rotation; an ejector rotating ice formed by the ice tray to discharge the ice from the ice tray, the ejector including a rotary shaft rotatable by being axially connected to the motor and a protrusion pin protruded in a radius direction of the rotary shaft; a heater for selectively supplying heat to the ice tray ; and a first sensor unit for sensing a rotation angle of the protrusion pin , wherein the first sensor unit is controlled to sense a second preset rotation angle of the protrusion pin and the heart is controlled to be turned on at the second preset rotation angle sensed by the first sensor unit , characterised in that the first sensor unit is controlled to sense a preset rotation angle of the protrusion pin after rotation of the protrusion pin from the second present rotation to move the ice before the ice formed by the ice tray is completely discharged from the ice tray , and the heater is controlled to be turned off at the preset rotation angle sensed by the first sensor unit . an ice tray for receiving water to form ice; a motor capable of performing forward and backward rotation; an ejector rotating ice formed by the ice tray to discharge the ice from the ice tray, the ejector including a rotary shaft rotatable by being axially connected to the motor and a protrusion pin protruded in a radius direction of the rotary shaft; a heater for selectively supplying heat to the ice tray ; and a first sensor unit for sensing a rotation angle of the protrusion pin , wherein the first sensor unit is controlled to sense a second preset rotation angle of the protrusion pin and the heart is controlled to be turned on at the second preset rotation angle sensed by the first sensor unit , characterised in that the first sensor unit is controlled to sense a preset rotation angle of the protrusion pin after rotation of the protrusion pin from the second present rotation to move the ice before the ice formed by the ice tray is completely discharged from the ice tray , and the heater is controlled to be turned off at the preset rotation angle sensed by the first sensor unit .
Container having an outwardly protruding opening edge, a snap-on lid connected to this by its overlapping edge in sealingly latched engagement, and having a sealing device, which non-detachably connects it to the container without destruction, wherein, on one hand, the sealing device has a cage ring , such that it surrounds the container below its opening edge, and, on the other hand, a lid part , which partially covers the snap-on lid of the container , wherein the cage ring is connected to the cover part in a hinge-like manner and has latching means (10 - 13) in engagement without destruction in a non-detachable manner on at least one region opposite the hinge connection transverse to the container, said latching means latching the cage ring and the cover part , snapped over this, of the sealing device to each other, such that they inherently enclose the snap-on lid , characterised in that the cage ring is shifted from below onto the container until it makes contact with the opening edge.
An electrical converter assembly comprising: a sensor assembly comprising: a housing comprising a body and a cap pivotally attached with the body; a wire holding portion positioned within the body of the housing; a ferrite/iron core positioned in the housing; a current sensing device positioned in the housing in proximity to the core, the current sensing device in an operative position related to a wire (W) of a towing vehicle, said wire (W) carrying a signal to a lamp of the towing vehicle, and wherein the current sensing device is capable of detecting current flow in the wire (W) and generating a first input signal proportional to and in response to detection of the current flow; an electronic component in communication with the current sensing device to receive the first input signal from the current sensing device, the electronic component capable of generating a second output signal to a towed vehicle in response to the first input signal. a sensor assembly comprising: a housing comprising a body and a cap pivotally attached with the body; a wire holding portion positioned within the body of the housing; a ferrite/iron core positioned in the housing; a housing comprising a body and a cap pivotally attached with the body; a wire holding portion positioned within the body of the housing; a ferrite/iron core positioned in the housing; a current sensing device positioned in the housing in proximity to the core, the current sensing device in an operative position related to a wire (W) of a towing vehicle, said wire (W) carrying a signal to a lamp of the towing vehicle, and wherein the current sensing device is capable of detecting current flow in the wire (W) and generating a first input signal proportional to and in response to detection of the current flow; an electronic component in communication with the current sensing device to receive the first input signal from the current sensing device, the electronic component capable of generating a second output signal to a towed vehicle in response to the first input signal.
System, comprising: - an optical unit (13; 20) with an adjustable refractive power, - a refractive power setting device (14; 22) for setting the refractive power of the optical unit (13; 20) in accordance with a setting value, - a computer program with a program code which, when executed on a computing device , causes optotypes (71A-C) that are observable through the optical unit (13; 20) to be displayed on a display (12; 70), and, on the basis of setting values of the refractive power setting device (14; 22) in different orientations of the preferred direction of the optotypes (71A-C), causes a first value, which specifies a spherical refractive power, a second value, which specifies a cylindrical refractive power, and a third value, which specifies an axis position of the cylindrical refractive power, to be calculated, wherein the calculation is implemented on the basis of two of the setting values at exactly two different orientations of the preferred direction of the optotypes (71A-C), wherein the calculation is additionally implemented on the basis of an information item about an axis position of an eye, wherein the information item about the axis position specifies the axis position of the cylindrical refractive power of the eye. - an optical unit (13; 20) with an adjustable refractive power, - a refractive power setting device (14; 22) for setting the refractive power of the optical unit (13; 20) in accordance with a setting value, - a computer program with a program code which, when executed on a computing device , causes optotypes (71A-C) that are observable through the optical unit (13; 20) to be displayed on a display (12; 70), and,
A heating, ventilation, and air conditioning HVAC system , comprising an air filter to remove airborne molecular contaminants and volatile organic compounds VOCs from air within building spaces, the system comprising: a supportive frame comprising a shape and size configured to orient the HVAC system air filter within the HVAC system of a building; and a composite filter medium retained within the supportive frame and configured to remove the airborne molecular contaminants and volatile organic compounds from air flowing through the HVAC system; wherein the composite filter medium comprises a plurality of layers of cotton gauze with a filter oil composition between two epoxy-coated aluminum wire screens and an electrostatic portion with a central screen that is covered on each side by at least one layer of fibers capable of being electrically polarized; wherein the filter oil composition comprises a first portion comprising paraffinic oil, a second portion comprising polyalphaolefin PAO, and a third portion comprising red dye; and wherein the supportive frame comprises a grate configured to support the composite filter medium, or rigid end supports and recesses configured to orient the filter; wherein each of the at least one layer of fibers of the electrostatic portion being covered by a grounded wire screen , wherein upon positively charging the central screen the at least one layer of fibers polarizes particle contaminants within the air flowing through the HVAC system, thereby causing the contaminants to be electrostatically entrapped within the at least one layer of fibers. a supportive frame comprising a shape and size configured to orient the HVAC system air filter within the HVAC system of a building; and a composite filter medium retained within the supportive frame and configured to remove the airborne molecular contaminants and volatile organic compounds from air flowing through the HVAC system; wherein the composite filter medium comprises a plurality of layers of cotton gauze with a filter oil composition between two epoxy-coated aluminum wire screens and an electrostatic portion with a central screen that is covered on each side by at least one layer of fibers capable of being electrically polarized; wherein the filter oil composition comprises a first portion comprising paraffinic oil, a second portion comprising polyalphaolefin PAO, and a third portion comprising red dye; and wherein the supportive frame comprises a grate configured to support the composite filter medium, or rigid end supports and recesses configured to orient the filter; wherein each of the at least one layer of fibers of the electrostatic portion being covered by a grounded wire screen , wherein upon positively charging the central screen the at least one layer of fibers polarizes particle contaminants within the air flowing through the HVAC system, thereby causing the contaminants to be electrostatically entrapped within the at least one layer of fibers.
A wearable device, comprising: a metallic bezel; characterized by further comprising: a nonmetallic rear cover; wherein an inner surface of the nonmetallic rear cover has a plating layer, and the plating layer and the metallic bezel form a slot antenna. a metallic bezel; characterized by further comprising: a nonmetallic rear cover; wherein an inner surface of the nonmetallic rear cover has a plating layer, and the plating layer and the metallic bezel form a slot antenna. a nonmetallic rear cover; wherein an inner surface of the nonmetallic rear cover has a plating layer, and the plating layer and the metallic bezel form a slot antenna.
A compound according to Formula I or a salt thereof, wherein, R 1 is optionally substituted C 1 -C 12 alkyl (e.g., C 1 -C 12 alkyl optionally further substituted with C 1 -C 12 alkyl or aryl); R 2 is C 1-20 alkyl (e.g., lower alkyl (e.g., C 1-6 alkyl), or C 1-12 alkyl), aryl (e.g., phenyl), arylC 1-2 alkyl (e.g., benzyl), optionally unsaturated alkyl esters (e.g., C(O)-C 1-20 alkyl), or optionally substituted aryl esters (e.g., C(O)-aryl); n is an integer between 0 and 20. R 1 is optionally substituted C 1 -C 12 alkyl (e.g., C 1 -C 12 alkyl optionally further substituted with C 1 -C 12 alkyl or aryl); R 2 is C 1-20 alkyl (e.g., lower alkyl (e.g., C 1-6 alkyl), or C 1-12 alkyl), aryl (e.g., phenyl), arylC 1-2 alkyl (e.g., benzyl), optionally unsaturated alkyl esters (e.g., C(O)-C 1-20 alkyl), or optionally substituted aryl esters (e.g., C(O)-aryl); n is an integer between 0 and 20.
An optoelectronic sensor system for detecting objects in a monitored zone , comprising - a light transmitter for transmitting transmitted light into the monitored zone along a transmitted light path ; - a light receiver for receiving received light from the monitored zone that is remitted along a received light path in the direction of the light receiver from an object to be detected in the monitored zone or from a reflector bounding the monitored zone ; and - an objective arrangement arranged in front of the light transmitter and the light receiver , wherein the transmitted light path and the received light path extend spaced apart from one another at least in respective part sections which face the light transmitter and the light receiver respectively, characterized in that the sensor system comprises at least one deflection element ; in that the objective arrangement has a first objective region and a second objective region at least laterally spaced apart from the first objective region , with the transmitted light path running through the first objective region ; and in that the sensor system has a reception space which is provided between the objective arrangement , on the one hand, and the light transmitter and the light receiver , on the other hand, and in which at least one deflection element can be selectively inserted which is configured to define the received light path such that it runs through the first objective region with the deflection element introduced and through the second objective region with the deflection element not introduced. - a light transmitter for transmitting transmitted light into the monitored zone along a transmitted light path ; - a light receiver for receiving received light from the monitored zone that is remitted along a received light path in the direction of the light receiver from an object to be detected in the monitored zone or from a reflector bounding the monitored zone ; and - an objective arrangement arranged in front of the light transmitter and the light receiver , wherein the transmitted light path and the received light path extend spaced apart from one another at least in respective part sections which face the light transmitter and the light receiver respectively, characterized in that the sensor system comprises at least one deflection element ; in that the objective arrangement has a first objective region and a second objective region at least laterally spaced apart from the first objective region , with the transmitted light path running through the first objective region ; and in that the sensor system has a reception space which is provided between the objective arrangement , on the one hand, and the light transmitter and the light receiver , on the other hand, and in which at least one deflection element can be selectively inserted which is configured to define the received light path such that it runs through the first objective region with the deflection element introduced and through the second objective region with the deflection element not introduced.