mhurhangee/patent-ind-claim-en huggingface dataset:
An all-terrain vehicle , comprising: a motor ; a controller electrically coupled to the motor ; a cab , a driver seat and a passenger seat being arranged in the cab ; an electronic shifter electrically coupled to the controller and arranged between the driver seat and the passenger seat ; and a parking brake arranged in the cab , characterized in that the parking brake is also arranged between the driver seat and the passenger seat and spaced apart from the electronic shifter ; and the electronic shifter is closer to the driver seat than the parking brake , and the parking brake is located on a rear side of the electronic shifter . a motor ; a controller electrically coupled to the motor ; a cab , a driver seat and a passenger seat being arranged in the cab ; an electronic shifter electrically coupled to the controller and arranged between the driver seat and the passenger seat ; and a parking brake arranged in the cab , characterized in that the parking brake is also arranged between the driver seat and the passenger seat and spaced apart from the electronic shifter ; and the electronic shifter is closer to the driver seat than the parking brake , and the parking brake is located on a rear side of the electronic shifter .
A method of reducing or suppressing slag deposition and/or cleaning deposited slag in an energy production process, the method comprising: adding a slag-reducing composition to the energy production process, wherein the energy production process comprises a potassium-containing solid fuel combustion process, wherein the solid fuel is prepared from biological sources, and wherein the slag-reducing composition comprises (i) an aluminum-containing compound and (ii) a magnesium-containing compound, wherein the aluminum-containing compound and the magnesium-containing compound are added separately or simultaneously to the energy production process.
A system comprising: a container housing an aerosol generating substrate; a product identifying compound associated with the container ; and an electronic article configured to receive the container , the electronic article comprising: control electronics ; an electrochemical sensor switch operably coupled to the control electronics , the electrochemical switch configured to change from a first state to a second state when the product identifying compound interacts with the electrochemical sensor, wherein the electrochemical sensor switch has a different conductivity in the first state than in the second state; and a heater and/or a controllable valve , operably coupled to the control electronics via the electrochemical sensor switch , wherein the control electronics are configured to cause the device to generate an aerosol from the aerosol generating substrate when the electrochemical sensor switch changes from the first state to the second state. a container housing an aerosol generating substrate; a product identifying compound associated with the container ; and an electronic article configured to receive the container , the electronic article comprising: control electronics ; an electrochemical sensor switch operably coupled to the control electronics , the electrochemical switch configured to change from a first state to a second state when the product identifying compound interacts with the electrochemical sensor, wherein the electrochemical sensor switch has a different conductivity in the first state than in the second state; and a heater and/or a controllable valve , operably coupled to the control electronics via the electrochemical sensor switch , control electronics ; an electrochemical sensor switch operably coupled to the control electronics , the electrochemical switch configured to change from a first state to a second state when the product identifying compound interacts with the electrochemical sensor, wherein the electrochemical sensor switch has a different conductivity in the first state than in the second state; and a heater and/or a controllable valve , operably coupled to the control electronics via the electrochemical sensor switch , wherein the control electronics are configured to cause the device to generate an aerosol from the aerosol generating substrate when the electrochemical sensor switch changes from the first state to the second state.
Effector unit for a robot having at least one supporting element arranged at an end member of the robot, having an effector which can be fastened to the supporting element by means of coupling elements engaging into one another in a form-fit and/or force-fit manner, and having a locking mechanism (8; 15) which connects a coupling element of the effector to a coupling element of the supporting element in a detachable and loss-proof manner, in which the supporting element is movably arranged relative to the end member , and in which the coupling elements can be connected in a common axial alignment (AK) which is arranged traverse to the orientation (AT) of the supporting element . characterized in that the coupling elements are arranged and configured such so as to be connected or decoupled by a rotational displacement movement of the robot around the axial alignment (AK) and/or by a translational displacement movement of the robot along the axial alignment (AK).
A validated photonumeric scale for rating the severity of cellulite in an affected area of a human subject, the photonumeric scale comprising: 3 to 10 images showing an affected area of an example patient, the images being organized in different categories representing levels of severity based on a characteristic of cellulite, wherein each image has a different severity rating based on characteristics of cellulite, wherein the characteristics of cellulite comprise the number of dimples and the depth of dimples, the severity rating comprising a numerical value and a description of the number of dimples and the depth of the dimples.
Acupuncture or optical stimulation system comprising: - a mapping module wherein acupuncture application sequences are stored for the pathologies to be treated; - landmarks suitable for being applied to a patient's body to identify characteristic anatomical points of the patient; - a 3D scanning module suitable for performing a 3D scan (S1) of the patient's body; - a data association module configured to associate the 3D scan (S1) made by the 3D scanning module with an acupuncture application sequence (S2) stored in the mapping module , based on a pathology of the patient, so as to identify a certain acupuncture application sequence (S3) applied to the 3D scan (S1); - a projector connected to the data association module and configured to receive said acupuncture application sequence (S3) applied to the 3D scan (S1) and accordingly project a mark on the patient's body in a temporal sequence and in positions of points of the body to be treated; characterised in that , the system further comprises: - an alignment support suitable for being placed on said mark in order to align an application of a needle or of an optical stimulation device on said mark ; - an optical detection module for detecting whether the alignment support is correctly positioned on said mark ; and - an alarm device operatively connected to said optical detection module and configured to inform the operator about a correct positioning of the alignment support on the mark . - a mapping module wherein acupuncture application sequences are stored for the pathologies to be treated; - landmarks suitable for being applied to a patient's body to identify characteristic anatomical points of the patient; - a 3D scanning module suitable for performing a 3D scan (S1) of the patient's body; - a data association module configured to associate the 3D scan (S1) made by the 3D scanning module with an acupuncture application sequence (S2) stored in the mapping module , based on a pathology of the patient, so as to identify a certain acupuncture application sequence (S3) applied to the 3D scan (S1); - a projector connected to the data association module and configured to receive said acupuncture application sequence (S3) applied to the 3D scan (S1) and accordingly project a mark on the patient's body in a temporal sequence and in positions of points of the body to be treated; - an alignment support suitable for being placed on said mark in order to align an application of a needle or of an optical stimulation device on said mark ; - an optical detection module for detecting whether the alignment support is correctly positioned on said mark ; and - an alarm device operatively connected to said optical detection module and configured to inform the operator about a correct positioning of the alignment support on the mark .
A recombinant DNA molecule detectable in a sample containing soybean DNA, wherein the nucleotide sequence of said molecule is: a) SEQ ID NO:10; or b) a nucleotide sequence completely complementary to (a), wherein detecting the presence of such DNA molecule is diagnostic for soybean event MON87751 DNA in said sample. a) SEQ ID NO:10; or b) a nucleotide sequence completely complementary to (a), wherein detecting the presence of such DNA molecule is diagnostic for soybean event MON87751 DNA in said sample.
A method of video encoding comprising: accessing a bin of a syntax element associated with a block in a picture of a video; obtaining a set of contexts associated with a block type of the block, said set of contexts including at least a first context and a second context, said second context being associated with a larger number of block types than the first context and including the block types associated with said first context, the block type of a block being based on at least one of a block size and a block shape of said block; selecting a context for the bin of the syntax element from the set of contexts based at least on a number of occurrences of previously processed blocks having a block type associated to the first context, a second context being selected instead of a first context until a condition on the number of occurrences of previously processed blocks having a block type associated with the first context is fulfilled; and, entropy encoding the bin of the syntax element based on the determined context. accessing a bin of a syntax element associated with a block in a picture of a video; obtaining a set of contexts associated with a block type of the block, said set of contexts including at least a first context and a second context, said second context being associated with a larger number of block types than the first context and including the block types associated with said first context, the block type of a block being based on at least one of a block size and a block shape of said block; selecting a context for the bin of the syntax element from the set of contexts based at least on a number of occurrences of previously processed blocks having a block type associated to the first context, a second context being selected instead of a first context until a condition on the number of occurrences of previously processed blocks having a block type associated with the first context is fulfilled; and, entropy encoding the bin of the syntax element based on the determined context.
Columnar resin particles, each including filaments of a fibrous material, wherein the filaments of the fibrous material are aligned in an axial direction of each of the columnar resin particles, characterized in that the height of the resin particles is 5 μm or greater but 500 μm or less, measured as described in the description.
Method for automatically determining the geometrical dimensions of a tool with a machining region in worm-thread form, in particular of a grinding worm, in a gear cutting machine, wherein at least one parameter of the tool is acquired and/or determined automatically by means of at least one sensor , characterized in that the position of the tool inside the machine, and geometrical main dimensions, such as tool length, tool diameter and/or the number of threads of the tool and/or the gradient direction of the tool are determined, and in that the pitch, the modulus, the diameter, the screw width, the screw flight gradient and/or the V-position of the tool, in particular of the grinding worm , is determined by means of calculatory processing of the acquired and/or determined values.
Automotive lighting unit comprising a substantially basin-shaped rear casing designed to be fixed onto the vehicle body; a front half-shell which is arranged to close the mouth of the rear casing , and is provided with at least one transparent or semi-transparent portion ; and at least a first lighting assembly which emits light on command and is located inside the rear casing so as to be able to backlight said transparent or semi-transparent portion of the front half-shell ; the lighting assembly comprising: at least one light-guide plate made of photoconductive material, which is arranged inside the rear casing with a front sidewall of the plate facing said transparent or semi-transparent portion , and with a rear sidewall of the plate facing the rear casing ; the front sidewall and the rear sidewall connecting the two faces of the light guide plate ; the automotive lighting unit being characterised by additionally comprising: a first oblong light source which is located inside the rear casing at a first segment of said rear sidewall , and is designed to direct the light produced inside the light-guide plate so that said light travels inside the body of the light-guide plate towards said front sidewall ; and a second light source which is located inside the rear casing at a second segment of the rear sidewall complementary to said first segment , and is designed to direct the light produced inside the light-guide plate , so that this light travels inside the body of the light-guide plate toward a first lateral sidewall of the light-guide plate connecting the second segment of the rear sidewall of the light-guide plate to the front sidewall of the same light-guide plate ; the light-guide plate being additionally provided with a transversal groove that extends along one of the two faces of the light-guide plate , from the front sidewall of the light-guide plate toward the rear sidewall of the light-guide plate , so as to be interposed between said first lateral sidewall of the plate and the front sidewall of the plate, and be crossed by the light (r2) reflected by said first lateral sidewall of the light-guide plate towards the front sidewall of the light-guide plate ; said transversal groove being also designed to reflect, far from the front sidewall of the light-guide plate , the light (r3) coming directly from said second light source and directed towards the front sidewall of the light-guide plate .
A computer implemented method of analyzing measurement results of a target system, the method comprising receiving a data sample comprising a plurality of variables representing the measurement results, detecting that the data sample is an anomalous sample using an anomaly detection model, characterized by processing the data sample by separately applying an imputation model to a plurality of selected subsets of variables of the data sample to obtain a plurality of imputed samples, and applying the anomaly detection model to the plurality of imputed samples to obtain respective anomaly scores, determining anomalous variables of the data sample based on results from the processing of the data sample, and outputting the anomalous variables of the data sample for management operations in the target system. receiving a data sample comprising a plurality of variables representing the measurement results, detecting that the data sample is an anomalous sample using an anomaly detection model, characterized by processing the data sample by separately applying an imputation model to a plurality of selected subsets of variables of the data sample to obtain a plurality of imputed samples, and applying the anomaly detection model to the plurality of imputed samples to obtain respective anomaly scores, determining anomalous variables of the data sample based on results from the processing of the data sample, and outputting the anomalous variables of the data sample for management operations in the target system.
A method performed by a network node for enabling Hybrid Automatic Repeat Request, HARQ, transmissions in a device-to-device, D2D, communication between a first and a second wireless device in a wireless telecommunications network , which first and second wireless device are served by the network node in the wireless telecommunications network , the method comprising transmitting information to at least the first and second wireless device indicating transmission resources to be used by at least the first and second wireless device when transmitting an HARQ acknowledgement, A/N, transmission for a received data transmission in the D2D communication, which information is associated with one or more Time-Division Duplexing, TDD, configurations; determining a TDD configuration of the one or more TDD configurations for data transmissions in the D2D communication between the first and the second wireless device ; transmitting the determined TDD configuration to the first and second wireless device ; and after the first wireless device transmits the HARQ A/N transmission on the determined transmission resources to the second wireless device in the D2D communication, transmitting adjustment information for the HARQ A/N transmission to the first and second wireless device , wherein the adjustment information for the HARQ A/N transmission is delay adjustment information to the first and second wireless device based on the determined TDD configuration, wherein the delay adjustment information to the first and second wireless device is further based on a change of the D2D compatible subframes for data transmissions in the D2D communication between the first and second wireless device . transmitting information to at least the first and second wireless device indicating transmission resources to be used by at least the first and second wireless device when transmitting an HARQ acknowledgement, A/N, transmission for a received data transmission in the D2D communication, which information is associated with one or more Time-Division Duplexing, TDD, configurations; determining a TDD configuration of the one or more TDD configurations for data transmissions in the D2D communication between the first and the second wireless device ; transmitting the determined TDD configuration to the first and second wireless device ; and after the first wireless device transmits the HARQ A/N transmission on the determined transmission resources to the second wireless device in the D2D communication, transmitting adjustment information for the HARQ A/N transmission to the first and second wireless device , wherein the adjustment information for the HARQ A/N transmission is delay adjustment information to the first and second wireless device based on the determined TDD configuration, wherein the delay adjustment information to the first and second wireless device is further based on a change of the D2D compatible subframes for data transmissions in the D2D communication between the first and second wireless device .
A steel sheet for hot stamping comprising: a base material; an Al-Si alloy plating layer in which an Al content is 75 mass% or more, a Si content is 3 mass% or more and a total of the Al content and the Si content is 95 mass% or more, the reminder being Fe and an impurity; an Al oxide coating having a thickness of 0 to 20 nm; and a Ni plating layer having a Ni content of more than 90 mass% in this order, wherein the base material has a chemical composition of, by mass%, C: 0.01% or more and less than 0.70%; Si: 0.001% to 1.000%; Mn: 0.40% to 3.00%; sol. Al: 0.0002% to 0.5000%; P: 0.100% or less; S: 0.1000% or less; N: 0.0100% or less; Cu: 0% to 1.00%; Ni: 0% to 1.00%; Nb: 0% to 0.150%; V: 0% to 1.000%; Ti: 0% to 0.150%; Mo: 0% to 1.000%; Cr: 0% to 1.000%; B: 0% to 0.0100%; Ca: 0% to 0.010%; REM: 0% to 0.300%; and a remainder: Fe and an impurity, the Al-Si alloy plating layer has a thickness of 7 to 148 μm, and the Ni plating layer has a thickness of more than 200 nm and 2500 nm or less, the coverage of the Ni plating layer on the Al oxide coating, or in a case where the Al oxide coating is not provided, the coverage of the Ni plating layer on the Al-Si alloy plating layer, is 90% or more, and wherein the Al content, Si content and thickness of the Al-Si alloy plating layer, the thickness of the Al oxide coating, and the Ni content and thickness of the Ni plating layer are measured as described in the description. a base material; an Al-Si alloy plating layer in which an Al content is 75 mass% or more, a Si content is 3 mass% or more and a total of the Al content and the Si content is 95 mass% or more, the reminder being Fe and an impurity; an Al oxide coating having a thickness of 0 to 20 nm; and a Ni plating layer having a Ni content of more than 90 mass% in this order, wherein the base material has a chemical composition of, by mass%, C: 0.01% or more and less than 0.70%; Si: 0.001% to 1.000%; Mn: 0.40% to 3.00%; sol. Al: 0.0002% to 0.5000%; P: 0.100% or less; S: 0.1000% or less; N: 0.0100% or less; Cu: 0% to 1.00%; Ni: 0% to 1.00%; Nb: 0% to 0.150%; V: 0% to 1.000%; Ti: 0% to 0.150%; Mo: 0% to 1.000%; Cr: 0% to 1.000%; B: 0% to 0.0100%; Ca: 0% to 0.010%; REM: 0% to 0.300%; and a remainder: Fe and an impurity, the Al-Si alloy plating layer has a thickness of 7 to 148 μm, and the Ni plating layer has a thickness of more than 200 nm and 2500 nm or less, the coverage of the Ni plating layer on the Al oxide coating, or in a case where the Al oxide coating is not provided, the coverage of the Ni plating layer on the Al-Si alloy plating layer, is 90% or more, and wherein the Al content, Si content and thickness of the Al-Si alloy plating layer, the thickness of the Al oxide coating, and the Ni content and thickness of the Ni plating layer are measured as described in the description.
A method for controlling illumination in a washing treatment chamber of a washing treatment device , the method at least comprising the following steps: on the basis of a trigger signal, initially setting a remaining illumination time and starting illumination in the washing treatment chamber ; characterized in that when the remaining illumination time is less than a remaining time threshold, judging whether it is necessary to prolong the remaining illumination time; and in a situation where it is necessary to prolong the remaining illumination time, prolonging the remaining illumination time, wherein whether it is necessary to prolong the remaining illumination time is comprehensively judged by means of a plurality of sensors, particularly a plurality of sensors of different types, detecting a plurality of parameters, particularly a plurality of types of parameters, wherein the plurality of sensors or the plurality of sensors of different types comprise: at least one first sensor for detecting whether a user is in an operating region of the washing treatment device ; and/or at least one second sensor for detecting whether the user is operating and/or about to operate the washing treatment chamber ; and/or at least one third sensor for detecting the light conditions of the environment of the washing treatment device . on the basis of a trigger signal, initially setting a remaining illumination time and starting illumination in the washing treatment chamber ; characterized in that when the remaining illumination time is less than a remaining time threshold, judging whether it is necessary to prolong the remaining illumination time; and in a situation where it is necessary to prolong the remaining illumination time, prolonging the remaining illumination time, wherein at least one first sensor for detecting whether a user is in an operating region of the washing treatment device ; and/or at least one second sensor for detecting whether the user is operating and/or about to operate the washing treatment chamber ; and/or at least one third sensor for detecting the light conditions of the environment of the washing treatment device .