mhurhangee/patent-ind-claim-en huggingface dataset:
A method of manufacturing an array substrate, comprising steps of: forming a display area and a non-display area on a substrate, a circuit bonding area being arranged within the non-display area; forming an alignment film in the display area through a patterning process; coating a first resin layer on a surface of the substrate on which the alignment film has been formed; forming a photoresist layer on a surface of the first resin layer; forming, through a single masking and exposing process and a single development process, a first full coverage area of the photoresist layer and a first full removal area of the photoresist layer, the first full coverage area of the photoresist layer corresponding to a transparent protection layer to be formed and the first full removal area of the photoresist layer corresponding to a circuit bonding area and a pattern of the alignment film; etching a portion of the first resin layer corresponding to the first removal area of the photoresist layer; peeling off the photoresist in the first full coverage area of the photoresist layer, so that a remaining portion of the first resin layer forms the transparent protection layer; and forming, through a rubbing-imprinting process, a plurality of lines having the same orientation on a surface of the alignment film, for an ordered arrangement of liquid crystal molecules, wherein a surface height of the transparent protection layer is lower than or equal to a surface height of the alignment film. forming a display area and a non-display area on a substrate, a circuit bonding area being arranged within the non-display area; forming an alignment film in the display area through a patterning process; coating a first resin layer on a surface of the substrate on which the alignment film has been formed; forming a photoresist layer on a surface of the first resin layer; forming, through a single masking and exposing process and a single development process, a first full coverage area of the photoresist layer and a first full removal area of the photoresist layer, the first full coverage area of the photoresist layer corresponding to a transparent protection layer to be formed and the first full removal area of the photoresist layer corresponding to a circuit bonding area and a pattern of the alignment film; etching a portion of the first resin layer corresponding to the first removal area of the photoresist layer; peeling off the photoresist in the first full coverage area of the photoresist layer, so that a remaining portion of the first resin layer forms the transparent protection layer; and forming, through a rubbing-imprinting process, a plurality of lines having the same orientation on a surface of the alignment film, for an ordered arrangement of liquid crystal molecules, wherein a surface height of the transparent protection layer is lower than or equal to a surface height of the alignment film.
Method for automatic speed control of orbital shaker devices to determine one of at least two stacked orbital shaker devices operating in an out of balance condition, the method comprising the steps of: a) Starting the first orbital shaker device ; and b) Accelerating the first orbital shaker device ; and c) Determining a vibration level of the first orbital shaker device ; and d) Automatically decreasing a speed of the first orbital shaker device if the vibration level determined in step c) exceeds a predefined first threshold; wherein the steps a) to d) are additionally executed for a second orbital shaker device independently from the first orbital shaker device . a) Starting the first orbital shaker device ; and b) Accelerating the first orbital shaker device ; and c) Determining a vibration level of the first orbital shaker device ; and d) Automatically decreasing a speed of the first orbital shaker device if the vibration level determined in step c) exceeds a predefined first threshold;
A method of mowing multiple areas, the method comprising: training a robotic mower to mow at least two areas separated by a space , including moving the robotic mower about the areas while storing data indicative of location of boundaries of each area relative to boundary markers ; training the robotic mower to move across the space separating the areas , including: moving the robotic mower to a traversal launch point of a first of the areas ; storing data indicative of location of the traversal launch point ; moving the robotic mower to a traversal landing point of a second of the areas ; and storing data indicative of location of the traversal landing point ; training a bypass route that allows the robotic mower to bypass lawn areas that are not to be mowed in a mowing operation; and then initiating a mowing operation causing the robotic mower to autonomously and in sequence: mow the first of the areas ; move to the traversal launch point ; move from the traversal launch point across the space to the traversal landing point ; and then mow the second of the areas ; the method further comprising returning the robotic mower to a charging station using the learned bypass route. training a robotic mower to mow at least two areas separated by a space , including moving the robotic mower about the areas while storing data indicative of location of boundaries of each area relative to boundary markers ; training the robotic mower to move across the space separating the areas , including: moving the robotic mower to a traversal launch point of a first of the areas ; storing data indicative of location of the traversal launch point ; moving the robotic mower to a traversal landing point of a second of the areas ; and storing data indicative of location of the traversal landing point ; moving the robotic mower to a traversal launch point of a first of the areas ; storing data indicative of location of the traversal launch point ; moving the robotic mower to a traversal landing point of a second of the areas ; and storing data indicative of location of the traversal landing point ; training a bypass route that allows the robotic mower to bypass lawn areas that are not to be mowed in a mowing operation; and then initiating a mowing operation causing the robotic mower to autonomously and in sequence: mow the first of the areas ; move to the traversal launch point ; move from the traversal launch point across the space to the traversal landing point ; and then mow the second of the areas ; the method further comprising returning the robotic mower to a charging station using the learned bypass route. mow the first of the areas ; move to the traversal launch point ; move from the traversal launch point across the space to the traversal landing point ; and then mow the second of the areas ; the method further comprising returning the robotic mower to a charging station using the learned bypass route.
A pharmaceutical composition comprising a combination of a guanylate cyclase C (GUCY2C) agonist and a short-chain fatty acid and/or a salt and/or a prodrug thereof in a therapeutically effective amount and one or more pharmaceutically acceptable excipients, wherein the short-chain fatty acid and/or a salt and/or a prodrug thereof is selected from the group consisting of butyric acid, butyrate preferably sodium butyrate, and butyric acid ester, preferably tributyrin.
A pulse-induction displacement transducer comprising at least one coil component , at least one target, and pulse induction circuitry constructed and arranged to cause a pulse of electrical current to pass through the said at least one coil component which pulse ends abruptly, and subsequently to measure the electrical current passing through the said at least one coil component , or the voltage across it, at a time when any electrical current through or voltage across the said at least one coil component would have died away in the absence of the target , so as to provide an indication of the relative position between the target and the said at least one coil component , wherein said at least one coil component comprises a first terminal portion , a first coil part connected to the said first terminal portion and wound in one sense and, in series with the said first coil part , a second coil part wound in the opposite sense, the said second coil part being connected to a second terminal portion , and the said pulse induction circuitry being connected across the said first terminal portion and the said second terminal portion , the two coil parts (104, 106; 152, 164) being arranged without overlap between them, so that neither will adversely affect the contribution made by the other to the output of the pulse-induction circuitry .
A rotor having a plurality of magnetic poles, the rotor comprising a rotor core comprising: a step-skew structure with two or more stages; a plurality of protrusions formed on at least a step-skew boundary side; and a tubular non-magnetic ring mounted on outer peripheries of the plurality of magnetic poles so as to cover the step-skew boundary, the non-magnetic ring comprising a plurality of inner diameter bulging portions , each of the plurality of magnetic poles and each of the plurality of protrusions being brought into abutment against the corresponding inner diameter bulging portions ; wherein the protrusions are provided only on the step-skew boundary side. a step-skew structure with two or more stages; a plurality of protrusions formed on at least a step-skew boundary side; and a tubular non-magnetic ring mounted on outer peripheries of the plurality of magnetic poles so as to cover the step-skew boundary, the non-magnetic ring comprising a plurality of inner diameter bulging portions , each of the plurality of magnetic poles and each of the plurality of protrusions being brought into abutment against the corresponding inner diameter bulging portions ; wherein the protrusions are provided only on the step-skew boundary side.
Apparatus for monitoring the degree of opening of the cervix in a female mammal, the apparatus comprising an inflatable first balloon configured for locating in the cervix , a pressure sensing means for monitoring a pressure indicative of the pressure of a compressible inflating medium in the first balloon , and a means for determining the degree of opening of the cervix from the pressure of the inflating medium monitored by the pressure sensing means , and for producing a signal indicative of the degree of opening of the cervix .
A method for preparing R-T-B sintered magnets, said method comprising the steps of: Introducing a carrier gas, a reactive gas, and a cooling gas into a plasma torch gun and passing a Dy and/or Tb powder driven by the carrier gas through the plasma torch gun thereby heating and melting the Dy and/or Tb powder under the action of high temperature of the plasma torch to generate spherical droplets which are deposited as a metal film on a surface of an R-T-B-M sintered basal diffusion magnet of R 2 T 14 B type, wherein R is at least one element selected from the rare earth elements including Sc and Y, T is at least one element selected from Fe and Co, B is boron, and M is at least one element selected from Ti, Zr, Hf, V, Nb, Ta, Mn, Ni, Cu, Ag, Zn, Zr, Al, Ga, In, C, Si, Ge, Sn, Pb, N, P, Bi, S, Sb, and O, and wherein a weight percentage of said elements is: 25% ≤ R ≤ 40%, 0 ≤ M ≤ 4%, 0.8% ≤ B ≤ 1.5%, and the residue is T.
Method for correcting a manipulator parameter, wherein a manipulator is controlled at least on the basis of the manipulator parameter, comprising: - determining a temporal change in the manipulator parameter; - calculating an over-compensation based on at least the temporal change of the manipulator parameter, and - correcting the manipulator parameter based on the overcompensation. - determining a temporal change in the manipulator parameter; - calculating an over-compensation based on at least the temporal change of the manipulator parameter, and - correcting the manipulator parameter based on the overcompensation.
A method of detecting the presence and/or measuring the levels of glutamine in a sample obtained from a subject, by tandem mass spectrometry, said method comprising the following steps: (i) extracting said glutamine from the sample with an extraction solution; (ii) providing, before or after the step (i), a solution comprising a stable-isotope labeled lysine internal standard of known concentration, (iii) ionizing said glutamine and said stable-isotope labeled lysine internal standard to generate ions, (iv) acquiring the mass to charge (m/z) ratio of said one or more ions in the mass spectrum in the Multiple Reaction Monitoring (MRM) mode, and (v) determining the sum of glutamine and lysine in MRM mode, (vi) detecting and quantifying the amount of glutamine with stable-isotope labeled lysine internal standard, wherein said ionizing step (iii) is performed by delivering said extracted metabolites and standards to an ion source of the mass spectrometer by liquid chromatography system. (i) extracting said glutamine from the sample with an extraction solution; (ii) providing, before or after the step (i), a solution comprising a stable-isotope labeled lysine internal standard of known concentration, (iii) ionizing said glutamine and said stable-isotope labeled lysine internal standard to generate ions, (iv) acquiring the mass to charge (m/z) ratio of said one or more ions in the mass spectrum in the Multiple Reaction Monitoring (MRM) mode, and (v) determining the sum of glutamine and lysine in MRM mode, (vi) detecting and quantifying the amount of glutamine with stable-isotope labeled lysine internal standard,
An interosseous cage able of being positioned against at least one bone portion (O1) for osteosynthesis between this bone portion and another bone portion, said cage comprising at least: a body delimited by two opposite faces , • at least one substantially flat blade defining a cutting plane , said blade having at least one cutting wire edge for its penetration into said bone portion (O1), • means for rotatably mounting said blade with respect to said body , said rotation being able to take place about a rotation axis so that at least a portion of the cutting wire edge is able to penetrate into said bone portion (O1), and • at least one counter-blade also having a cutting wire edge, said counter-blade being secured in projecting manner on one of the two faces of said blade , characterised in that the at least one counter-blade is obtained by a deformation of said blade in the form of a corrugation produced in a plane substantially perpendicular to the cutting plane and containing said rotation axis . • at least one substantially flat blade defining a cutting plane , said blade having at least one cutting wire edge for its penetration into said bone portion (O1), • means for rotatably mounting said blade with respect to said body , said rotation being able to take place about a rotation axis so that at least a portion of the cutting wire edge is able to penetrate into said bone portion (O1), and • at least one counter-blade also having a cutting wire edge, said counter-blade being secured in projecting manner on one of the two faces of said blade ,
An information transmission method, wherein the method comprises: receiving (S110) first information, wherein the first information is used to instruct user equipment, UE to send second information; and obtaining (S120) a parameter value, wherein the parameter value is used to indicate a time domain interval between a first time domain resource and a second time domain resource, the first time domain resource is a time domain resource in which the first information is located, the second time domain resource is a time domain resource in which the second information is located, duration of the second time domain resource is not longer than one subframe, and an interval between the second time domain resource and the first time domain resource is shorter than four subframes; and determining (S130) the second time domain resource based on the parameter value, and sending the second information on the second time domain resource wherein the obtaining (S120) a parameter value comprises: obtaining indication information, wherein the indication information corresponds to the parameter value; and determining the parameter value according to the indication information; wherein the indication information is duration of the second time domain resource. receiving (S110) first information, wherein the first information is used to instruct user equipment, UE to send second information; and obtaining (S120) a parameter value, wherein the parameter value is used to indicate a time domain interval between a first time domain resource and a second time domain resource, the first time domain resource is a time domain resource in which the first information is located, the second time domain resource is a time domain resource in which the second information is located, duration of the second time domain resource is not longer than one subframe, and an interval between the second time domain resource and the first time domain resource is shorter than four subframes; and determining (S130) the second time domain resource based on the parameter value, and sending the second information on the second time domain resource wherein the obtaining (S120) a parameter value comprises: obtaining indication information, wherein the indication information corresponds to the parameter value; and determining the parameter value according to the indication information; wherein the indication information is duration of the second time domain resource. obtaining indication information, wherein the indication information corresponds to the parameter value; and determining the parameter value according to the indication information; wherein the indication information is duration of the second time domain resource.
A headgear assembly for a mask system, comprising: a two-dimensional first headgear section ; and a two-dimensional second headgear section , wherein the two-dimensional first and second headgear sections are attached to one another to form a three-dimensional anatomically-shaped headgear assembly; wherein the first headgear section includes top strap portions that couple the first headgear section to a frame, and the second headgear section includes bottom strap portions that couple the second headgear section to the frame; wherein the top strap portions are configured to extend above the patient's ears and the bottom strap portions are configured to extend below the patient's ears. a two-dimensional first headgear section ; and a two-dimensional second headgear section , wherein the two-dimensional first and second headgear sections are attached to one another to form a three-dimensional anatomically-shaped headgear assembly; wherein the first headgear section includes top strap portions that couple the first headgear section to a frame, and the second headgear section includes bottom strap portions that couple the second headgear section to the frame; wherein the top strap portions are configured to extend above the patient's ears and the bottom strap portions are configured to extend below the patient's ears.
A method of averting unsanctioned access to a network on-board a vehicle, the network being an on-board network, and the method comprising: detecting, at a computing device and based on a presence of a wireless signal generated by a transceiver that is on-board the vehicle and fixedly connected to the vehicle, that the computing device is on-board the vehicle; detecting, at the computing device, one or more externally generated stimuli or conditions, the one or more externally generated stimuli or conditions excluding a response to a challenge issued at a user interface of the computing device and including a first set of values generated over time by one or more spatial positioning sensors that are excluded from the computing device and that are disposed on-board the vehicle; determining whether or not the one or more externally generated stimuli or conditions are indicative of the computing device being at least one of operated, held, or carried by one or more persons who are on-board the vehicle, including comparing the first set of values with a second set of values generated over time by one or more spatial positioning sensors included in the computing device; and granting access of the computing device to the on-board network, the granting based on a determination that the one or more externally generated stimuli or conditions are indicative of the computing device being at least one of operated, held, or carried by the one or more persons who are on-board the vehicle, the determination including a determination, based on the comparison, of a difference between the first set of values and the second set of values over time. detecting, at a computing device and based on a presence of a wireless signal generated by a transceiver that is on-board the vehicle and fixedly connected to the vehicle, that the computing device is on-board the vehicle; detecting, at the computing device, one or more externally generated stimuli or conditions, the one or more externally generated stimuli or conditions excluding a response to a challenge issued at a user interface of the computing device and including a first set of values generated over time by one or more spatial positioning sensors that are excluded from the computing device and that are disposed on-board the vehicle; determining whether or not the one or more externally generated stimuli or conditions are indicative of the computing device being at least one of operated, held, or carried by one or more persons who are on-board the vehicle, including comparing the first set of values with a second set of values generated over time by one or more spatial positioning sensors included in the computing device; and granting access of the computing device to the on-board network, the granting based on a determination that the one or more externally generated stimuli or conditions are indicative of the computing device being at least one of operated, held, or carried by the one or more persons who are on-board the vehicle, the determination including a determination, based on the comparison, of a difference between the first set of values and the second set of values over time.