mhurhangee/patent-ind-claim-en huggingface dataset:
A method of estimating chlorophyll content of a leaf , which method comprises: providing a device , wherein the device comprises: a mobile computing device comprising a digital camera ; and a peripheral removably attached to the mobile computing device, the peripheral comprising a light source aligned with the digital camera when the peripheral is removably attached to the mobile computing device such that the light source may illuminate a lens of the digital camera , wherein the light source is adapted to emit light at least partly absorbable by chlorophyll pigments, chlorophyll a and chlorophyll b, and wherein the peripheral provides for a space between the light source and the digital camera such that the leaf may be interposed between the digital camera and the light source ; capturing (S4) by the digital camera a first image of the light source turned on without the leaf interposed between the digital camera and the light source ; retrieving (S5) exposure data of the first image ; capturing (S8) by the digital camera a second image with the leaf interposed between the digital camera and the turned on light source ; retrieving (S9) exposure data of the second image ; and using a processor, estimating the chlorophyll content of the leaf based on the retrieved exposure data of the first and second images , wherein the processor estimates the chlorophyll content of the leaf based on at least one of exposure time, F-number, and ISO value of the first and second images. providing a device , wherein the device comprises: a mobile computing device comprising a digital camera ; and a peripheral removably attached to the mobile computing device, the peripheral comprising a light source aligned with the digital camera when the peripheral is removably attached to the mobile computing device such that the light source may illuminate a lens of the digital camera , wherein the light source is adapted to emit light at least partly absorbable by chlorophyll pigments, chlorophyll a and chlorophyll b, and wherein the peripheral provides for a space between the light source and the digital camera such that the leaf may be interposed between the digital camera and the light source ; capturing (S4) by the digital camera a first image of the light source turned on without the leaf interposed between the digital camera and the light source ; retrieving (S5) exposure data of the first image ; capturing (S8) by the digital camera a second image with the leaf interposed between the digital camera and the turned on light source ; retrieving (S9) exposure data of the second image ; and using a processor, estimating the chlorophyll content of the leaf based on the retrieved exposure data of the first and second images , wherein the processor estimates the chlorophyll content of the leaf based on at least one of exposure time, F-number, and ISO value of the first and second images.
A method of evaluating dispensation of a fluidic substance on a tray in an automated analysis instrument, the method comprising: capturing, using an image capturing device , an image of at least a portion of the tray , the at least a portion of the tray including a receptacle portion and a surrounding portion around the receptacle portion ; identifying, using at least one computing device , the surrounding portion of the at least a portion of the tray in the image; evaluating color components of the image corresponding to the surrounding portion of the at least a portion of the tray ; the method being characterized by determining whether the fluidic substance is present on the surrounding portion of the at least a portion of the tray based on at least one of the color components. capturing, using an image capturing device , an image of at least a portion of the tray , the at least a portion of the tray including a receptacle portion and a surrounding portion around the receptacle portion ; identifying, using at least one computing device , the surrounding portion of the at least a portion of the tray in the image; evaluating color components of the image corresponding to the surrounding portion of the at least a portion of the tray ; the method being characterized by determining whether the fluidic substance is present on the surrounding portion of the at least a portion of the tray based on at least one of the color components.
A communications device comprising: means for transmitting uplink, UL, data to a source communications node (5-1); means for receiving, from the source communications node (5-1), a message indicating that handover should be performed, the message including a Cell-Radio Network Temporary Identifier, C-RNTI; means for buffering uplink data; means for receiving UL allocation and timing advance, TA, information from a target communications node (5-2); and means for transmitting a message to confirm handover is complete, along with a buffer status report indicating an amount of buffered uplink data, to the target communications node (5-2); and means for transmitting uplink data to the target communications node (5-2) using resources allocated by the target communications node (5-2). means for transmitting uplink, UL, data to a source communications node (5-1); means for receiving, from the source communications node (5-1), a message indicating that handover should be performed, the message including a Cell-Radio Network Temporary Identifier, C-RNTI; means for buffering uplink data; means for receiving UL allocation and timing advance, TA, information from a target communications node (5-2); and means for transmitting a message to confirm handover is complete, along with a buffer status report indicating an amount of buffered uplink data, to the target communications node (5-2); and means for transmitting uplink data to the target communications node (5-2) using resources allocated by the target communications node (5-2).
Actuator for exciting at least one component of a motor vehicle with vibrations, wherein the actuator has the following: - a housing which is configured to be connected to the component, - an electrical coil which is rigidly connected to the housing and is configured to generate a magnetic field when an electrical current flows through it, and - a magnet which is arranged in the housing so as to be movable to a limited extent, - wherein the actuator has at least one first pole plate which is assigned to the magnet, characterized in that the outwardly directed surface of the first pole plate, i.e. facing away from the magnet, is concave, and therefore said surface has a greater thickness at the outer edge than in its centre. - a housing which is configured to be connected to the component, - an electrical coil which is rigidly connected to the housing and is configured to generate a magnetic field when an electrical current flows through it, and - a magnet which is arranged in the housing so as to be movable to a limited extent, - wherein the actuator has at least one first pole plate which is assigned to the magnet, characterized in that the outwardly directed surface of the first pole plate, i.e. facing away from the magnet, is concave, and therefore said surface has a greater thickness at the outer edge than in its centre.
A method of controlling a battery charging capacity of a battery for uninterruptible power supply according to a temperature, the method comprising: a current temperature detection operation (S110) of measuring a current temperature; a maximum charging capacity detection operation (S121) of detecting a maximum charging capacity at which the battery does not become overcharged at the measured temperature from an optimal charging capacity table; a minimum charging capacity detection operation (S122) of detecting a minimum charging capacity at which the battery is capable of providing the minimum output meeting the user's demand at the measured temperature from the optimal charging capacity table; a current charging capacity detection operation (S130) of detecting a current charging capacity of the battery; a charging capacity comparison operation (S140) of comparing the current charging capacity with the detected maximum charging capacity and the detected minimum charging capacity; a charge/discharge determination operation (S150) of determining a charging/discharging of the battery according to a result of the charging capacity comparison operation; and a charge/discharge progress operation (S160) of charging/discharging of the battery according to a result of the charge/discharge determination operation to adjust the charging capacity so that the target charging capacity is within the minimum and the maximum charging capacity and determined by a linear interpolation of a temperature-voltage function. a current temperature detection operation (S110) of measuring a current temperature; a maximum charging capacity detection operation (S121) of detecting a maximum charging capacity at which the battery does not become overcharged at the measured temperature from an optimal charging capacity table; a minimum charging capacity detection operation (S122) of detecting a minimum charging capacity at which the battery is capable of providing the minimum output meeting the user's demand at the measured temperature from the optimal charging capacity table; a current charging capacity detection operation (S130) of detecting a current charging capacity of the battery; a charging capacity comparison operation (S140) of comparing the current charging capacity with the detected maximum charging capacity and the detected minimum charging capacity; a charge/discharge determination operation (S150) of determining a charging/discharging of the battery according to a result of the charging capacity comparison operation; and a charge/discharge progress operation (S160) of charging/discharging of the battery according to a result of the charge/discharge determination operation to adjust the charging capacity so that the target charging capacity is within the minimum and the maximum charging capacity and determined by a linear interpolation of a temperature-voltage function.
A fine resin powder composed of a 4-methyl-1-pentene polymer having an intrinsic viscosity [η] ranging from 1.0 x 10 -2 to less than 5.0 x 10 -1 dl/g as measured in decalin at 135°C, wherein the fine resin powder has a mean particle diameter D 50 ranging from 1.0 x 10 -1 to 5.0 x 10 1 μm as measured according to the method disclosed in the passage of the specification titled "Measurement of particle size distribution".
A miniature circuit breaker, comprising a button mechanism , a circuit breaker housing , and a locking mechanism, wherein the button mechanism is arranged at one end of the circuit breaker housing and is in sliding fit with the circuit breaker housing, the button mechanism comprises a button head , a button body , and a first connecting rod , the button head is located on one side of the button body so that a user operates the button head , the first connecting rod is in transmission fit with the button body ; the button mechanism is drivingly connected with the operating mechanism through the first connecting rod , the operating mechanism is connected with the moving contact ; the locking mechanism comprises a second locking member , the second locking member is pivotally arranged on the circuit breaker housing , and when the button mechanism is pulled out of the circuit breaker housing , the button mechanism drives the second locking member to rotate, so that the second locking member is released from the housing at the assembly position of the circuit breaker; the circuit breaker housing comprises a second opening hole arranged on one side thereof, characterized in that one end of the second locking member is in driving fit with the button mechanism , and the other end of the second locking member passes through the second opening hole and is in limit fit with a housing at an assembly position of the circuit breaker; one end of the first connecting rod is inserted into the button body and is in driving fit with the second locking member , and when the button mechanism is pulled out of the circuit breaker housing , the first connecting rod drives the second locking member to rotate, so that the other end of the second locking member moves towards an inside of the circuit breaker housing , and the second locking member is released from the housing at the assembly position of the circuit breaker. the circuit breaker housing comprises a second opening hole arranged on one side thereof, characterized in that one end of the second locking member is in driving fit with the button mechanism , and the other end of the second locking member passes through the second opening hole and is in limit fit with a housing at an assembly position of the circuit breaker; one end of the first connecting rod is inserted into the button body and is in driving fit with the second locking member , and when the button mechanism is pulled out of the circuit breaker housing , the first connecting rod drives the second locking member to rotate, so that the other end of the second locking member moves towards an inside of the circuit breaker housing , and the second locking member is released from the housing at the assembly position of the circuit breaker.
A personalized skin care system, comprising: a) a dispensing device that includes at least one wall defining an interior space; b) a removable cartridge disposed in the interior space, the removable cartridge containing a skin care active; c) a single-use pod disposed in the interior space, wherein the single-use pod contains a base ingredient and is in fluid communication with the removable cartridge; and wherein the single-use pod comprises a flexible wall portion ; d) a mixing element , wherein the mixing element is configured to mix the active ingredient and the base ingredient together inside the single-use pod without contacting the ingredients, by applying pressure to the flexible wall portion. a) a dispensing device that includes at least one wall defining an interior space; b) a removable cartridge disposed in the interior space, the removable cartridge containing a skin care active; c) a single-use pod disposed in the interior space, wherein the single-use pod contains a base ingredient and is in fluid communication with the removable cartridge; and wherein the single-use pod comprises a flexible wall portion ; d) a mixing element , wherein the mixing element is configured to mix the active ingredient and the base ingredient together inside the single-use pod without contacting the ingredients, by applying pressure to the flexible wall portion.
A flow measurement probe , comprising: an elongate probe comprising an averaging pitot tube element having a plurality of upstream and downstream openings arranged along a length of the elongate probe; and at least one cavity extending through the elongate probe allowing fluid flow therethrough, the at least one cavity positioned between at least two of the plurality of upstream and downstream openings ; and a thermal flow measurement sensor disposed in the at least one cavity and within the elongate probe. an elongate probe comprising an averaging pitot tube element having a plurality of upstream and downstream openings arranged along a length of the elongate probe; and at least one cavity extending through the elongate probe allowing fluid flow therethrough, the at least one cavity positioned between at least two of the plurality of upstream and downstream openings ; and a thermal flow measurement sensor disposed in the at least one cavity and within the elongate probe.
A touch pad structure , comprising: a base ; a guiding component , rotatably disposed on the base ; a touch pad , disposed above the base , the guiding component being located between the base and the touch pad ; and a spring , wherein the spring is disposed between the touch pad and the base , and a switch , wherein the touch pad has an inner surface facing the base , the switch is disposed on the inner surface , a guiding structure is disposed on the inner surface and slidably connected to the guiding component , the touch pad moving toward the base drives the guiding component to rotate relative to the base through the guiding structure , and the touch pad moves along a vertical direction (VD) to trigger the switch, wherein the guiding component surrounds the guiding structure , the guiding component has a first guiding surface facing the guiding structure and a spiral convex portion protruding from the first guiding surface , the guiding structure has a second guiding surface facing the first guiding surface and a spiral concave portion indented from the second guiding surface , and the spiral convex portion is slidably disposed in the spiral concave portion , and wherein the spiral convex portion has two opposite first guiding inclined surfaces , the spiral concave portion has two opposite second guiding inclined surfaces , and the two first guiding inclined surfaces are located between the two second guiding inclined surfaces and respectively contact the two second guiding inclined surfaces . a base ; a guiding component , rotatably disposed on the base ; a touch pad , disposed above the base , the guiding component being located between the base and the touch pad ; and a spring , wherein the spring is disposed between the touch pad and the base , and a switch , wherein the touch pad has an inner surface facing the base , the switch is disposed on the inner surface , a guiding structure is disposed on the inner surface and slidably connected to the guiding component , the touch pad moving toward the base drives the guiding component to rotate relative to the base through the guiding structure , and the touch pad moves along a vertical direction (VD) to trigger the switch, wherein the guiding component surrounds the guiding structure , the guiding component has a first guiding surface facing the guiding structure and a spiral convex portion protruding from the first guiding surface , the guiding structure has a second guiding surface facing the first guiding surface and a spiral concave portion indented from the second guiding surface , and the spiral convex portion is slidably disposed in the spiral concave portion , and wherein the spiral convex portion has two opposite first guiding inclined surfaces , the spiral concave portion has two opposite second guiding inclined surfaces , and the two first guiding inclined surfaces are located between the two second guiding inclined surfaces and respectively contact the two second guiding inclined surfaces .
An apparatus for creating a graphical representation of a chemical structure using a draw-ahead feature, the apparatus comprising: a memory for storing a set of instructions; and a processor for executing the set of instructions, wherein the instructions, when executed, cause the processor to: provide a representation of at least a portion of an in-progress chemical structure for presentation on a graphical display, receive an input corresponding to an amendment to the portion of the in-progress chemical structure, identify, by comparing at least a part of the amended in-progress chemical structure to a set of stored candidate molecular scaffolds, one or more molecular scaffolds from the set of stored candidate molecular scaffolds, wherein each molecular scaffold of the one or more molecular scaffolds is configured to, upon one or both of (i) appending to the amended portion of the in-progress chemical structure and (ii) replacing or partially replacing the amended portion of the in-progress chemical structure, provide a resulting chemical structure or chemical structure fragment that has been previously rendered, provide the one or more molecular scaffolds for presentation on the graphical display as option(s) for selection by a user in creating the graphical representation of the chemical structure; receive an indication of user selection of a first molecular scaffold of the one or more molecular scaffolds provided; and append the first molecular scaffold to the portion of the in-progress chemical structure or replace or partially replace the amended portion of the in-progress chemical structure with the first molecular scaffold. a memory for storing a set of instructions; and a processor for executing the set of instructions, wherein the instructions, when executed, cause the processor to: provide a representation of at least a portion of an in-progress chemical structure for presentation on a graphical display, receive an input corresponding to an amendment to the portion of the in-progress chemical structure, identify, by comparing at least a part of the amended in-progress chemical structure to a set of stored candidate molecular scaffolds, one or more molecular scaffolds from the set of stored candidate molecular scaffolds, wherein each molecular scaffold of the one or more molecular scaffolds is configured to, upon one or both of (i) appending to the amended portion of the in-progress chemical structure and (ii) replacing or partially replacing the amended portion of the in-progress chemical structure, provide a resulting chemical structure or chemical structure fragment that has been previously rendered, provide the one or more molecular scaffolds for presentation on the graphical display as option(s) for selection by a user in creating the graphical representation of the chemical structure; receive an indication of user selection of a first molecular scaffold of the one or more molecular scaffolds provided; and append the first molecular scaffold to the portion of the in-progress chemical structure or replace or partially replace the amended portion of the in-progress chemical structure with the first molecular scaffold.
A method of preparing a diketopiperazine of Formula I (R=ethyl, n=3): comprising: generating an aminoalkyldiketopiperazine having the formula 3,6-bis-(4-amino-butyl)-piperazine-2,5-dione; providing an activated derivative of monoethyl fumarate; reacting the aminoalkyl-diketopiperazine with the activated monoethyl fumarate derivative; wherein the activated derivative is a mixed anhydride, the mixed anhydride resulting from the reaction of monoethyl fumarate and a reagent selected from the group comprising: diphenylphosphoryl azide, pivaloyl chloride, chlorosulfonyl isocyanate, and trifluoroacetic anhydride; and wherein the activated derivative of monoethyl fumarate is reacted with the aminoalkyldiketopiperazine in situ without purification. generating an aminoalkyldiketopiperazine having the formula 3,6-bis-(4-amino-butyl)-piperazine-2,5-dione; providing an activated derivative of monoethyl fumarate; reacting the aminoalkyl-diketopiperazine with the activated monoethyl fumarate derivative; wherein the activated derivative is a mixed anhydride, the mixed anhydride resulting from the reaction of monoethyl fumarate and a reagent selected from the group comprising: diphenylphosphoryl azide, pivaloyl chloride, chlorosulfonyl isocyanate, and trifluoroacetic anhydride; and wherein the activated derivative of monoethyl fumarate is reacted with the aminoalkyldiketopiperazine in situ without purification.