mhurhangee/patent-ind-claim-en huggingface dataset:
A plasma processing apparatus comprising: a balun including a first input terminal supplied with high frequency, a second input terminal which is grounded, a first output terminal , and a second output terminal ; a vacuum container ; a first electrode insulated from the vacuum container and electrically connected to the first output terminal; and a second electrode insulated from the vacuum container and electrically connected to the second output terminal; the first output terminal and the first electrode are electrically connected to each other via a blocking capacitor , characterized in that the second electrode has a tubular shape and is arranged to surround an entire circumference of the first electrode, the first electrode and the second electrode being arranged to form a coaxial structure, and the second output terminal and the second electrode are electrically connected to each other not through a capacitor, the second electrode being grounded via the balun . a balun including a first input terminal supplied with high frequency, a second input terminal which is grounded, a first output terminal , and a second output terminal ; a vacuum container ; a first electrode insulated from the vacuum container and electrically connected to the first output terminal; and a second electrode insulated from the vacuum container and electrically connected to the second output terminal; the first output terminal and the first electrode are electrically connected to each other via a blocking capacitor , characterized in that the second electrode has a tubular shape and is arranged to surround an entire circumference of the first electrode, the first electrode and the second electrode being arranged to form a coaxial structure, and the second output terminal and the second electrode are electrically connected to each other not through a capacitor, the second electrode being grounded via the balun .
Guide assembly for sliding doors , in particular for furniture, comprising a guide rail along which at least two sliding doors are movably held, wherein each sliding door is movable via at least one guide part of the guide assembly on the guide rail , and the two sliding doors are coupled to a control cable of the guide assembly via the guide parts , wherein the control cable is movably held substantially parallel to the guide rail via at least two deflecting rollers arranged on opposite sides, whereby for fixing the control cable on one of the guide parts a holder is provided which is fixable to the guide part and is provided at the at least one fastening means (31, 31', 31") for the control cable, which is movably fixed to the holder and is supported at least on a stop of the holder , characterized in that the fastening means is pivotably mounted on the holder whereby through the stop and an undercut at the holder an interlocking safety is provided against pivoting through the force of the control cable .
A fabricating method of a resistive random access memory structure , comprising: providing a substrate , wherein a first transistor is disposed on the substrate , the first transistor comprises a first gate structure , a first source and a first drain , a first drain contact plug contacts the first drain , and an interlayer dielectric layer covers the substrate and the first transistor ; forming a metal interlayer dielectric layer covering the interlayer dielectric layer ; performing a first patterning process to etch the metal interlayer dielectric layer to form a first trench , and wherein the first drain contact plug is exposed through the first trench ; forming a metal oxide material layer and a top electrode material layer in sequence to fill in the first trench and cover the metal interlayer dielectric layer ; performing a second patterning process to pattern the metal oxide material layer and the top electrode material layer to form a metal oxide layer and a top electrode , wherein the top electrode , the metal oxide layer and the first drain contact plug form a resistive random access memory, RRAM, ; forming a metal layer filling in the first trench and covering the metal interlayer dielectric layer and the RRAM ; and performing a planarization process to remove the metal oxide layer , the top electrode and the metal layer outside of the first trench . providing a substrate , wherein a first transistor is disposed on the substrate , the first transistor comprises a first gate structure , a first source and a first drain , a first drain contact plug contacts the first drain , and an interlayer dielectric layer covers the substrate and the first transistor ; forming a metal interlayer dielectric layer covering the interlayer dielectric layer ; performing a first patterning process to etch the metal interlayer dielectric layer to form a first trench , and wherein the first drain contact plug is exposed through the first trench ; forming a metal oxide material layer and a top electrode material layer in sequence to fill in the first trench and cover the metal interlayer dielectric layer ; performing a second patterning process to pattern the metal oxide material layer and the top electrode material layer to form a metal oxide layer and a top electrode , wherein the top electrode , the metal oxide layer and the first drain contact plug form a resistive random access memory, RRAM, ; forming a metal layer filling in the first trench and covering the metal interlayer dielectric layer and the RRAM ; and performing a planarization process to remove the metal oxide layer , the top electrode and the metal layer outside of the first trench .
Video rear-view device for a motor vehicle , comprising: - at least one image capture means configured to capture images of part of the environment outside the motor vehicle , and - display means for displaying at least some of said images, representing an observation area of said environment , characterized in that the rear-view device comprises: - measuring means for measuring the gaze direction of the driver , and - displacement means for displacing the observation area displayed by the display means , configured to displace the observation area displayed by the display means only when the measuring means detect that the gaze direction of the driver is directed at the display means . - at least one image capture means configured to capture images of part of the environment outside the motor vehicle , and - display means for displaying at least some of said images, representing an observation area of said environment , - measuring means for measuring the gaze direction of the driver , and - displacement means for displacing the observation area displayed by the display means , configured to displace the observation area displayed by the display means only when the measuring means detect that the gaze direction of the driver is directed at the display means .
A method for producing an endotoxin detecting agent, comprising a step of artificially expressing a protein using a cDNA, and collecting the expressed recombinant protein as a solution fraction containing the expressed recombinant protein, wherein the cDNA encodes any one of the following: (A) a recombinant protein expressed as containing the amino acid sequence represented by SEQ ID NO: 2 or 4; (B) a recombinant protein expressed as containing an amino acid sequence having a 95% or more identity with the amino acid sequence represented by SEQ ID NO: 2 or 4, and has factor C activity; and (C) a recombinant protein that is encoded by a DNA containing a base sequence having a 95% or more identity with the base sequence represented by SEQ ID NO: 1 or 3, and has factor C activity, and wherein the solution fraction containing the expressed recombinant protein is a culture solution, or a culture supernatant. wherein the cDNA encodes any one of the following: (A) a recombinant protein expressed as containing the amino acid sequence represented by SEQ ID NO: 2 or 4; (B) a recombinant protein expressed as containing an amino acid sequence having a 95% or more identity with the amino acid sequence represented by SEQ ID NO: 2 or 4, and has factor C activity; and (C) a recombinant protein that is encoded by a DNA containing a base sequence having a 95% or more identity with the base sequence represented by SEQ ID NO: 1 or 3, and has factor C activity, and (A) a recombinant protein expressed as containing the amino acid sequence represented by SEQ ID NO: 2 or 4; (B) a recombinant protein expressed as containing an amino acid sequence having a 95% or more identity with the amino acid sequence represented by SEQ ID NO: 2 or 4, and has factor C activity; and (C) a recombinant protein that is encoded by a DNA containing a base sequence having a 95% or more identity with the base sequence represented by SEQ ID NO: 1 or 3, and has factor C activity, and wherein the solution fraction containing the expressed recombinant protein is a culture solution, or a culture supernatant.
A component monitoring system for monitoring a component of a conveyance system comprising a conveyance apparatus , the component monitoring system comprising: a camera configured to capture a sequence images of the component , the sequence of images being motion data ; a processor configured to determine an evaluation summary of the component in response to at least the motion data ; and a microphone configured to detect sound data of the component , wherein the evaluation summary is determined in response to the motion data and the sound data ; and characterised in that an abnormality is determined in the evaluation summary by linking the sound data with the motion data that occurred at a similar moment in time. a camera configured to capture a sequence images of the component , the sequence of images being motion data ; a processor configured to determine an evaluation summary of the component in response to at least the motion data ; and a microphone configured to detect sound data of the component , wherein the evaluation summary is determined in response to the motion data and the sound data ; and characterised in that an abnormality is determined in the evaluation summary by linking the sound data with the motion data that occurred at a similar moment in time.
A method for generating a non-invasive measure of blood vessel rigidity for a subject, the method comprising: obtaining 2D ultrasound data of a blood vessel from a first measurement location, wherein the 2D ultrasound data provides information relating to a movement of the blood vessel; obtaining 3D ultrasound data of the blood vessel from the first measurement location, wherein the 3D ultrasound data provides information representative of a 3D geometry of the blood vessel, wherein the 2D ultrasound data and 3D ultrasound data are obtained from two separate ultrasound data acquisitions performed at said first measurement location; determining a motion of the blood vessel based on the movement of the blood vessel from the 2D ultrasound data; obtaining a non-invasive pressure measurement from the subject; providing the determined motion of the blood vessel, the 3D geometry of the blood vessel and the non-invasive pressure measurement to a biomechanical model; and generating a measure of rigidity based on the biomechanical model. obtaining 2D ultrasound data of a blood vessel from a first measurement location, wherein the 2D ultrasound data provides information relating to a movement of the blood vessel; obtaining 3D ultrasound data of the blood vessel from the first measurement location, wherein the 3D ultrasound data provides information representative of a 3D geometry of the blood vessel, wherein the 2D ultrasound data and 3D ultrasound data are obtained from two separate ultrasound data acquisitions performed at said first measurement location; determining a motion of the blood vessel based on the movement of the blood vessel from the 2D ultrasound data; obtaining a non-invasive pressure measurement from the subject; providing the determined motion of the blood vessel, the 3D geometry of the blood vessel and the non-invasive pressure measurement to a biomechanical model; and generating a measure of rigidity based on the biomechanical model.
A controller for use in a switched mode power converter, comprising: a comparator coupled to compare an output sense signal representative of an output of the switched mode power converter to a target output value for the output of the power converter; a clock coupled to generate a clock signal having a clock frequency that varies in response to a difference between the output sense signal and the target output value; and a request control configured to generate a request signal that includes request events that are generated in response to the comparison of the output sense signal and the target output value and indicate that a power switch of the switched mode power converter should be turned on, wherein the request events occur at a request frequency that is responsive to an output of the comparator and the clock signal to control an operational state of the power switch of the switched mode power converter, wherein a speed at which the request control updates the request frequency of the request signal to regulate the output of the power converter is responsive to the clock frequency of the clock signal. a comparator coupled to compare an output sense signal representative of an output of the switched mode power converter to a target output value for the output of the power converter; a clock coupled to generate a clock signal having a clock frequency that varies in response to a difference between the output sense signal and the target output value; and a request control configured to generate a request signal that includes request events that are generated in response to the comparison of the output sense signal and the target output value and indicate that a power switch of the switched mode power converter should be turned on, wherein the request events occur at a request frequency that is responsive to an output of the comparator and the clock signal to control an operational state of the power switch of the switched mode power converter, wherein a speed at which the request control updates the request frequency of the request signal to regulate the output of the power converter is responsive to the clock frequency of the clock signal.
Controllable local grid transformer , having: - a transformer winding on the side of the local grid voltage, wherein an end region of the transformer winding has at least two first taps and the other end of the transformer winding is connected to a second output terminal for the local grid voltage, - a connecting line between each of the taps and a first output terminal for the local grid voltage, wherein a contactor (16a, b, c) is arranged in each of the connecting lines, - exactly one second tap in the end region of the transformer winding that is connected to the first output terminal via exactly one bypass contactor , - a current-limiting element in series with the bypass contactor , wherein the bypass contactor is from the AC3 or AC4 class. - a transformer winding on the side of the local grid voltage, wherein an end region of the transformer winding has at least two first taps and the other end of the transformer winding is connected to a second output terminal for the local grid voltage, - a connecting line between each of the taps and a first output terminal for the local grid voltage, wherein a contactor (16a, b, c) is arranged in each of the connecting lines, - exactly one second tap in the end region of the transformer winding that is connected to the first output terminal via exactly one bypass contactor , - a current-limiting element in series with the bypass contactor ,
A computer-implemented method of blocking the short wavelengths in a LED-type light source c comprising the steps of: (a) establishing a maximum and a minimum limit as a percentage of reduction of the emission of light in the LED-type light source in the range of short wavelengths comprised between 380 nm and 500 nm for the following parameters: (a.1) age of the user of LED-type light source, separation distance to the LED-type light source, size of the LED-type light source, exposure time to the LED light source by the user, ambient lighting of the place where the user interacts with the LED type light source, the type of electronic device that includes the LED type light source, the LED type light source emission intensity and the possible retinal and/or corneal disease state of said user; and (b) calculate the maximum and minimum threshold for reducing the emissions in the range between 380 nm and 500 nm of the LED type light source without reducing the intensity or amount of light emitted by the LED type light source wherein the calculation is made by forming the sum of the maximum and minimum limits of at least two parameters established in the step (a); and (c) selectively reducing between the maximum and minimum threshold calculated in the step (b), the emissions between 380 nm and 500 nm of the LEDs contained in at least a part of the LED-type light source, without completely blocking passage of wavelengths within the range of the short wavelengths between 380 nm and 500 nm; and wherein the overall reduction is made in a range between a 1% and a 99% of the LED type emission between 380 nm and 500 nm. (a) establishing a maximum and a minimum limit as a percentage of reduction of the emission of light in the LED-type light source in the range of short wavelengths comprised between 380 nm and 500 nm for the following parameters: (a.1) age of the user of LED-type light source, separation distance to the LED-type light source, size of the LED-type light source, exposure time to the LED light source by the user, ambient lighting of the place where the user interacts with the LED type light source, the type of electronic device that includes the LED type light source, the LED type light source emission intensity and the possible retinal and/or corneal disease state of said user; and (b) calculate the maximum and minimum threshold for reducing the emissions in the range between 380 nm and 500 nm of the LED type light source without reducing the intensity or amount of light emitted by the LED type light source wherein the calculation is made by forming the sum of the maximum and minimum limits of at least two parameters established in the step (a); and (c) selectively reducing between the maximum and minimum threshold calculated in the step (b), the emissions between 380 nm and 500 nm of the LEDs contained in at least a part of the LED-type light source, without completely blocking passage of wavelengths within the range of the short wavelengths between 380 nm and 500 nm; and wherein the overall reduction is made in a range between a 1% and a 99% of the LED type emission between 380 nm and 500 nm.
A maximum data burst volume, MDBV, determining method, comprising: obtaining, by a policy control network element, service feature information; obtaining, by the policy control network element, an updated segment packet delay budget; and determining, by the policy control network element, an updated policy and charging control, PCC, rule based on the updated segment packet delay budget and the service feature information, wherein the updated PCC rule comprises an updated MDBV, and the service feature information comprises one or more of the following: a service periodicity, a burst arrival time, a packet arrival time, and a packet size. obtaining, by a policy control network element, service feature information; obtaining, by the policy control network element, an updated segment packet delay budget; and determining, by the policy control network element, an updated policy and charging control, PCC, rule based on the updated segment packet delay budget and the service feature information, wherein the updated PCC rule comprises an updated MDBV, and the service feature information comprises one or more of the following: a service periodicity, a burst arrival time, a packet arrival time, and a packet size.
Method for displaying secondary signal devices for a driver of a railway vehicle during a journey by the railway vehicle , wherein an actual distance (D A , D A > D W ) of the railway vehicle with respect to the secondary signal device is ascertained from a current vehicle position (P 1 ) of the railway vehicle and an already known signal position (P 2 ) of a secondary signal device and if the actual distance (D A ) is not reached (D A ≤ D W ) with respect to a predetermined actual warning distance (D W ) of the railway vehicle with respect to the secondary signal device , a proximity of the railway vehicle with respect to the secondary signal device is displayed to the driver, wherein the secondary signal device should be observed by the driver, whereas a primary, that is to say safety-relevant and prioritized, signal device must be observed by the driver. an actual distance (D A , D A > D W ) of the railway vehicle with respect to the secondary signal device is ascertained from a current vehicle position (P 1 ) of the railway vehicle and an already known signal position (P 2 ) of a secondary signal device and if the actual distance (D A ) is not reached (D A ≤ D W ) with respect to a predetermined actual warning distance (D W ) of the railway vehicle with respect to the secondary signal device , a proximity of the railway vehicle with respect to the secondary signal device is displayed to the driver, wherein the secondary signal device should be observed by the driver, whereas a primary, that is to say safety-relevant and prioritized, signal device must be observed by the driver.
A method of prediction mode selection for coding a block of a depth map, the method comprising: obtaining (210; 310; 5810; 510) an ordered list of coding modes, wherein the ordered list of coding modes comprises a plurality of coding modes each of which is capable of being used for coding of the block; obtaining (210; 310; 5810; 510) a plurality of depth modeling modes, DMMs, each of which is capable of being used for coding of the block; determining (220; 320; 420; 520) whether a DMM of the plurality of DMMs is to be added into the ordered list of coding modes in accordance with a decision condition; and updating (230; 330; 440; 540) the ordered list of coding modes in the case that the DMM is added into the ordered list of coding modes, characterized in that the decision condition is based on whether the first and/or the second mode in the ordered list of coding modes is a flat coding mode, which is any of the following: a planar mode, and a DC mode; and in the case that the first and/or the second coding mode in the ordered list of coding modes is a flat coding mode, the DMM is excluded to be added into the ordered list of coding modes. obtaining (210; 310; 5810; 510) an ordered list of coding modes, wherein the ordered list of coding modes comprises a plurality of coding modes each of which is capable of being used for coding of the block; obtaining (210; 310; 5810; 510) a plurality of depth modeling modes, DMMs, each of which is capable of being used for coding of the block; determining (220; 320; 420; 520) whether a DMM of the plurality of DMMs is to be added into the ordered list of coding modes in accordance with a decision condition; and updating (230; 330; 440; 540) the ordered list of coding modes in the case that the DMM is added into the ordered list of coding modes, characterized in that the decision condition is based on whether the first and/or the second mode in the ordered list of coding modes is a flat coding mode, which is any of the following: a planar mode, and a DC mode; and in the case that the first and/or the second coding mode in the ordered list of coding modes is a flat coding mode, the DMM is excluded to be added into the ordered list of coding modes.