mhurhangee/patent-ind-claim-en huggingface dataset:
A computer-implemented method for processing magnetic resonance (MR) relaxometry data of a visceral tissue of a subject, comprising: a) obtaining a measurement of T1 relaxometry data of a subject's visceral tissue for extracellular fluid from a bSSFP signal measured by a T1 mapping method using a MR system having a static magnetic field; b) determining by means of measurements fat content of the subject's visceral tissue, iron content of the subject's visceral tissue and off-resonance frequencies of the MR system, wherein the off-resonance frequencies of the MR system represent deviations from the central frequency of the MR system and are proportional to the inhomogeneity of the static magnetic field of the MR system; c) comparing the bSSFP signal from the T1 mapping method of the subject's visceral tissue of Step (a) to simulated bSSFP signals of the subject's visceral tissue for different fractions of extracellular fluid for the determined fat content, iron content and off-resonance frequencies, the simulated bSSFP signals having been obtained by simulating the T1 mapping method; and d) determining a corrected value of T1 from the T1 mapping method simulated for zero fat content and a normal iron content, and preferably for zero off-resonance frequency, for the subject's visceral tissue for the fraction of extracellular fluid corresponding to the simulated bSSFP signal having the highest level of similarity among the simulated bSSFP signals to the measured bSSFP signal. a) obtaining a measurement of T1 relaxometry data of a subject's visceral tissue for extracellular fluid from a bSSFP signal measured by a T1 mapping method using a MR system having a static magnetic field; b) determining by means of measurements fat content of the subject's visceral tissue, iron content of the subject's visceral tissue and off-resonance frequencies of the MR system, wherein the off-resonance frequencies of the MR system represent deviations from the central frequency of the MR system and are proportional to the inhomogeneity of the static magnetic field of the MR system; c) comparing the bSSFP signal from the T1 mapping method of the subject's visceral tissue of Step (a) to simulated bSSFP signals of the subject's visceral tissue for different fractions of extracellular fluid for the determined fat content, iron content and off-resonance frequencies, the simulated bSSFP signals having been obtained by simulating the T1 mapping method; and d) determining a corrected value of T1 from the T1 mapping method simulated for zero fat content and a normal iron content, and preferably for zero off-resonance frequency, for the subject's visceral tissue for the fraction of extracellular fluid corresponding to the simulated bSSFP signal having the highest level of similarity among the simulated bSSFP signals to the measured bSSFP signal.
A bioactive bone graft substitute comprising a silicate based material which is a silicate network having a porous structure wherein one or more calcium cations are incorporated into the silicate network and wherein the density of the bone graft substitute is less than 1.1 g/cm 3 and the average pore diameter of the bone graft substitute is from about 1 to about 99 nm.
Method for assembling rollers in a cage for retaining said rollers in a roller bearing, the method providing a cage comprising two rings which are spaced apart axially and a plurality of bridges extending between said rings so as to form between two adjacent bridges and a segment of each of said rings a cell in which a roller is intended to be retained being able to rotate about its own axis, said bridges each having an external structure which projects radially, said method providing driving said cage in rotation and successively arranging a roller radially to face a cell and circumferentially interfering with an external structure of a bridge delimiting said cell in order to drive said roller in rotation through a stroke in which the roller is pushed radially into said cell, said method being characterised in that the cage is driven in rotation in a direction (S) in which the external structures have an inverted L-shaped geometry formed by an external wall of the bridge and a projection extending radially from said external wall, the rollers being driven in rotation by the front face of the projection of an external structure which is ahead in the direction of rotation (S) with respect to the external wall of said external structure.
A voltage-source converter, VSC, control system comprising an active damper, AD, a direct-voltage controller, DVC, and an alternating-voltage controller, AVC, the VSC control system being configured to control a VSC, wherein: - the AVC is configured to regulate, using an integrator, an ac-bus voltage of the VSC by calculating a q component of a current reference vector for the VSC; - the DVC is configured to regulate, using an integrator, a dc-bus voltage of the VSC by calculating a d component of the current reference vector; - the AD is configured to amplify a vectoral difference between the ac-bus voltage and a corresponding reference, and to add the q component of the amplified vectoral difference to the q component of the current reference vector, characterized in that the AD is further configured to add the q component of the amplified vectoral difference to an input of the integrator of the AVC. - the AVC is configured to regulate, using an integrator, an ac-bus voltage of the VSC by calculating a q component of a current reference vector for the VSC; - the DVC is configured to regulate, using an integrator, a dc-bus voltage of the VSC by calculating a d component of the current reference vector; - the AD is configured to amplify a vectoral difference between the ac-bus voltage and a corresponding reference, and to add the q component of the amplified vectoral difference to the q component of the current reference vector, characterized in that the AD is further configured to add the q component of the amplified vectoral difference to an input of the integrator of the AVC.
A wall comprising a load-bearing structure and one or more panels hooked to said load-bearing structure ; said wall being characterized in that each of said panels comprises horizontal grooves ; said load-bearing structure having hook-shaped members formed therein, said hook-shaped members engaging said horizontal grooves ; said wall comprising a layer of structural plaster which incorporates said load-bearing structure and is connected to said panels ; each of said panels being an insulating panel; said panels being mutually adjacent with continuity in order to form a uniform external surface; characterized in that said load-bearing structure comprising a plurality of uprights which are mounted on guides and a plurality of bars which cross said uprights horizontally; and in that each panel comprising additional grooves adapted to receive said structural plaster . each of said panels being an insulating panel; said panels being mutually adjacent with continuity in order to form a uniform external surface; characterized in that said load-bearing structure comprising a plurality of uprights which are mounted on guides and a plurality of bars which cross said uprights horizontally; and in that each panel comprising additional grooves adapted to receive said structural plaster .
A method of operating an amusement ride , comprising: receiving user information from one or more users at the amusement ride using one or more sensors , wherein the user information comprises at least one of user gestures and user sounds; determining whether the user information meets at least one criterion ; and controlling the amusement ride based on the determination, characterized in that : the amusement ride comprises a first tower including a first passenger seating area and a second tower including a second passenger seating area , the first passenger seating area and the second passenger seating area facing each other; the user information comprises first user information and second user information , the first user information received from one or more users in the first passenger seating area and the second user information received from one or more users in the second passenger seating area, the first user information and second user information each comprising at least one of user gestures and user sounds; and the first user information is determined to meet the at least one criterion when one or more of the user gestures or user sounds of the first user information respectively exceed the one or more of the user gestures or the user sounds of the second user information; and wherein the amusement ride is controlled to move the first passenger seating area prior to moving the second passenger seating area in response to the determination. the amusement ride comprises a first tower including a first passenger seating area and a second tower including a second passenger seating area , the first passenger seating area and the second passenger seating area facing each other; the user information comprises first user information and second user information , the first user information received from one or more users in the first passenger seating area and the second user information received from one or more users in the second passenger seating area, the first user information and second user information each comprising at least one of user gestures and user sounds; and the first user information is determined to meet the at least one criterion when one or more of the user gestures or user sounds of the first user information respectively exceed the one or more of the user gestures or the user sounds of the second user information; and wherein the amusement ride is controlled to move the first passenger seating area prior to moving the second passenger seating area in response to the determination.
A method implemented by a user terminal of receiving downlink retransmission from a base station over a shared downlink traffic channel, said method comprising: - transmitting a negative acknowledgement message to said base station to indicate that a previous downlink transmission from said base station was unsuccessful; and - transmitting an uplink message to said base station which is in response to a successfully received uplink scheduling grant; and wherein: the negative acknowledgment message and the uplink message are transmitted with aligned timing. - transmitting a negative acknowledgement message to said base station to indicate that a previous downlink transmission from said base station was unsuccessful; and - transmitting an uplink message to said base station which is in response to a successfully received uplink scheduling grant;
An ostomy pouch comprising: a body side wall and a distal wall joined along their peripheral edges to define a cavity therebetween for collecting body waste; an inlet opening defined in the body side wall configured to receive a stoma; and an outer layer attached to and covering the distal wall, wherein the outer layer comprises a flap characterised in that the flap is formed by a cutout of the outer layer, wherein the cutout aligns with the inlet opening and defines a viewing window for the stoma, and wherein the flap includes a tab configured to secure the flap in a closed position. a body side wall and a distal wall joined along their peripheral edges to define a cavity therebetween for collecting body waste; an inlet opening defined in the body side wall configured to receive a stoma; and an outer layer attached to and covering the distal wall, wherein the outer layer comprises a flap characterised in that the flap is formed by a cutout of the outer layer, wherein the cutout aligns with the inlet opening and defines a viewing window for the stoma, and wherein the flap includes a tab configured to secure the flap in a closed position.
A method of evaluating performance of a hydrostatic transmission system having a primary pump , a hydraulic motor , and a charge pump fluidically connected via a closed hydraulic fluid circuit , the method comprising: defining an initial charge pressure of the charge pump at a defined operating position of the primary pump ; controlling the primary pump with a transmission controller to operate at the defined operating position; sensing a current charge pressure from the charge pump when the primary pump is operating at the defined operating position with a charge pressure sensor ; calculating a pressure difference between the initial charge pressure of the charge pump and the current charge pressure of the charge pump with the transmission controller ; and correlating the pressure difference to a system state of health of the hydrostatic transmission system with the transmission controller . defining an initial charge pressure of the charge pump at a defined operating position of the primary pump ; controlling the primary pump with a transmission controller to operate at the defined operating position; sensing a current charge pressure from the charge pump when the primary pump is operating at the defined operating position with a charge pressure sensor ; calculating a pressure difference between the initial charge pressure of the charge pump and the current charge pressure of the charge pump with the transmission controller ; and correlating the pressure difference to a system state of health of the hydrostatic transmission system with the transmission controller .
A drive structure of a desktop robotic arm, comprising a base and a turntable , wherein the base is internally provided with a turntable drive motor and a turntable drive shaft , the turntable drive motor is drive-connected to the turntable drive shaft , the turntable drive shaft is drive-connected to the turntable , the turntable is provided with an upper arm drive motor and a forearm drive motor , and the turntable drive motor , the upper arm drive motor and the forearm drive motor are all servo motors; the turntable comprises a foundation , and the upper arm drive motor and the forearm drive motor are arranged on a back side of the foundation ; an upper arm deceleration assembly , which is drive-connected to the upper arm drive motor ; and a forearm deceleration assembly , which is drive-connected to the forearm drive motor ; characterized in that the servo motors are all servo motors with absolute value encoders, the upper arm deceleration assembly comprises an upper arm primary synchronous belt wheel and an upper arm secondary synchronous belt wheel arranged between the foundation and the upper arm primary synchronous belt wheel , and the forearm deceleration assembly comprises a forearm primary synchronous belt wheel and a forearm secondary synchronous belt wheel arranged between the foundation and the forearm primary synchronous belt wheel . the base is internally provided with a turntable drive motor and a turntable drive shaft , the turntable drive motor is drive-connected to the turntable drive shaft , the turntable drive shaft is drive-connected to the turntable , the turntable is provided with an upper arm drive motor and a forearm drive motor , and the turntable drive motor , the upper arm drive motor and the forearm drive motor are all servo motors; the turntable comprises a foundation , and the upper arm drive motor and the forearm drive motor are arranged on a back side of the foundation ; an upper arm deceleration assembly , which is drive-connected to the upper arm drive motor ; and a forearm deceleration assembly , which is drive-connected to the forearm drive motor ; characterized in that the servo motors are all servo motors with absolute value encoders, the upper arm deceleration assembly comprises an upper arm primary synchronous belt wheel and an upper arm secondary synchronous belt wheel arranged between the foundation and the upper arm primary synchronous belt wheel , and the forearm deceleration assembly comprises a forearm primary synchronous belt wheel and a forearm secondary synchronous belt wheel arranged between the foundation and the forearm primary synchronous belt wheel .
A vacuum cracking method for power battery, comprising the following steps: feeding waste power batteries from a feed hopper to enter a roller press for rolling treatment to obtain a crushed material; transporting the crushed material to the cracking unit for preheating, then heating and cracking the crushed material under an inert atmosphere or vacuum to obtain cracked gas, solid cracked products and non-crackable products; and transporting the solid cracked products and the non-crackable products to a pyrolysis unit for pyrolysis at an aerobic atmosphere to obtain pyrolysis gas and non-pyrolysis products, wherein the pyrolysis gas is mainly composed of carbon dioxide and water vapor, and the said non-pyrolysis products are mainly cathode material powder, anode material powder, copper powder, iron powder, aluminum powder and oxides of copper, iron and aluminum. feeding waste power batteries from a feed hopper to enter a roller press for rolling treatment to obtain a crushed material; transporting the crushed material to the cracking unit for preheating, then heating and cracking the crushed material under an inert atmosphere or vacuum to obtain cracked gas, solid cracked products and non-crackable products; and transporting the solid cracked products and the non-crackable products to a pyrolysis unit for pyrolysis at an aerobic atmosphere to obtain pyrolysis gas and non-pyrolysis products, wherein the pyrolysis gas is mainly composed of carbon dioxide and water vapor, and the said non-pyrolysis products are mainly cathode material powder, anode material powder, copper powder, iron powder, aluminum powder and oxides of copper, iron and aluminum.
An adjuvant comprising a protein complex composed of hemagglutinin (HA) subcomponents HA1, HA2 and HA3 of botulinum toxin, wherein the subcomponent HA1 is: (a) a protein which comprises a sequence of amino acids at positions 7 to 294 of the amino acid sequence shown in SEQ ID NO: 1; the subcomponent HA2 is: (c) a protein which comprises a sequence of amino acids at positions 2 to 146 of the amino acid sequence shown in SEQ ID NO: 2; the subcomponent HA3 is: (e) a protein which comprises an amino acid sequence including a substitution of at least one or more amino acids among leucine at position 473, methionine at position 508, and lysine at position 607 with alanine, with respect to a sequence of amino acids at positions 19 to 626 of the amino acid sequence shown in SEQ ID NO: 3 or an adjuvant comprising a protein complex composed of hemagglutinin (HA) subcomponents HA1, HA2 and HA3 of botulinum toxin, wherein the subcomponent HA1 is: (g) a protein which comprises a sequence of amino acids at positions 6 to 293 of the amino acid sequence shown in SEQ ID NO: 15; the subcomponent HA2 is: (i) a protein which comprises a sequence of amino acids at positions 2 to 146 of the amino acid sequence shown in SEQ ID NO: 16; the subcomponent HA3 is: (k) a protein which comprises an amino acid sequence including a substitution of at least one or more amino acids among leucine at position 473, methionine at position 508, and lysine at position 607 with alanine, with respect to a sequence of amino acids at positions 20 to 626 of the amino acid sequence shown in SEQ ID NO: 17. (a) a protein which comprises a sequence of amino acids at positions 7 to 294 of the amino acid sequence shown in SEQ ID NO: 1;
An eye surgery apparatus having imaging optics for generating the image of a patient's eye , and having a device for determining the azimuthal orientation of a patient's eye with respect to a reference which is fixed with respect to the patient's eye , said device having a visual display device for displaying a section of an observation image of the patient's eye , which is captured by the imaging optics and contains at least one segment of the sclera, said section being composed of pixels , and a section of a reference image of the patient's eye , which is composed of pixels and contains this segment of the sclera, whereby said device has a computer unit having a computer program for calculating the center of the limbus and/or of the iris of the observation image of the patient's eye , as captured by the imaging optics , and of the reference image , the visual display device displaying the pixels of the observation image of the patient's eye , as captured by the imaging optics , with polar coordinates in a polar coordinate system , the center of which coincides with the calculated center of the circular structure of the limbus and/or of the iris of the patient's eye , and displaying the pixels of the reference image of the patient's eye with polar coordinates in a polar coordinate system , the center of which corresponds to the calculated center of the circular structure of the limbus of the patient's eye on which the reference image is based, said visual display device being configured to simultaneously display the pixels of the observation image of the patient's eye , as captured by the imaging optics , as a first image strip , and the pixels of the reference image of the patient's eye in a second image strip , said device having an input interface which makes it possible for an observer to move the displayed section of the captured observation image of the patient's eye relative to the displayed section of the reference image , and containing a measuring system which can be used to determine an azimuthal orientation of the observation image relative to the reference image , whose orientation is changed during the relative movement, characterized by said first and second image strips being displayed parallel to one another in an adjoining manner.
An attack code detection device comprising: a learning unit configured to generate a model which has learned, using a known malicious data series including a Return Oriented Programming ,ROP, code, as learning data that a feature of a byte sequence is a component of a data series, and that a feature of a byte sequence is a component of an ROP code; a detection unit configured to detect the ROP code included in an inspection target unknown data series, based on the model; and a malignancy determination unit configured to determine, using a detection result of the detection unit , whether the inspection target unknown data series is a malicious data series that is configured to execute an attack using ROP wherein, based on the model, the detection unit is configured to obtain a component of a data series included in a byte sequence forming the inspection target unknown data series, or a component of the ROP code, and is configured to detect the ROP code included in the inspection target unknown data series. a learning unit configured to generate a model which has learned, using a known malicious data series including a Return Oriented Programming ,ROP, code, as learning data that a feature of a byte sequence is a component of a data series, and that a feature of a byte sequence is a component of an ROP code; a detection unit configured to detect the ROP code included in an inspection target unknown data series, based on the model; and a malignancy determination unit configured to determine, using a detection result of the detection unit , whether the inspection target unknown data series is a malicious data series that is configured to execute an attack using ROP wherein, based on the model, the detection unit is configured to obtain a component of a data series included in a byte sequence forming the inspection target unknown data series, or a component of the ROP code, and is configured to detect the ROP code included in the inspection target unknown data series.