mhurhangee/patent-ind-claim-en huggingface dataset:
A method of monitoring deterioration of a rotor tip clearance arrangement comprising steps to: a) at a first time instance, measure rotor speed; b) alter a position of a tip clearance control actuator comprising a cooling flow valve by an increment to reduce the rotor tip clearance ; c) iterate steps a) and b) and calculate a change of the rotor speed between pairs of iterations; d) identify a knee point where the change in the rotor speed changes discontinuously and record the corresponding tip clearance control actuator position as a calibrated position ; e) at a second time instance, measure rotor speed; f) alter a position of the tip clearance control actuator by an increment to reduce the rotor tip clearance ; g) iterate steps e) and f) and calculate a change of the rotor speed between pairs of iterations; h) identify a knee point where the change in the rotor speed changes discontinuously and record the corresponding tip clearance control actuator position as a calibrated position ; and i) compare the calibration position at the second time instance to the calibration position at the first time instance to determine deterioration of the rotor tip clearance arrangement . a) at a first time instance, measure rotor speed; b) alter a position of a tip clearance control actuator comprising a cooling flow valve by an increment to reduce the rotor tip clearance ; c) iterate steps a) and b) and calculate a change of the rotor speed between pairs of iterations; d) identify a knee point where the change in the rotor speed changes discontinuously and record the corresponding tip clearance control actuator position as a calibrated position ; e) at a second time instance, measure rotor speed; f) alter a position of the tip clearance control actuator by an increment to reduce the rotor tip clearance ; g) iterate steps e) and f) and calculate a change of the rotor speed between pairs of iterations; h) identify a knee point where the change in the rotor speed changes discontinuously and record the corresponding tip clearance control actuator position as a calibrated position ; and i) compare the calibration position at the second time instance to the calibration position at the first time instance to determine deterioration of the rotor tip clearance arrangement .
A device for preventing and/or treating axial myopia of the eye, having: - at least one band that is configured for being placed on the sclera from the outside, or adjacent to the sclera , - one or more radiation sources for generating electromagnetic radiation that is generated in the band or coupleable into the band in order to be radiated into the sclera , wherein the band is configured for being laid equatorially around the eye, characterized in that the band is made of a fabric composed of either optical fibers or a mixture of textile fibers and optical fibers . - at least one band that is configured for being placed on the sclera from the outside, or adjacent to the sclera , - one or more radiation sources for generating electromagnetic radiation that is generated in the band or coupleable into the band in order to be radiated into the sclera ,
A computer-implemented method of operating a leader server in a leader server-follower server log replication configuration, the method comprising: storing a current master state of a system and maintaining a master log relating to the current master state, wherein the master log comprises a plurality of log entries each having a respective log index, wherein each log entry indicates a respective change to the master state of the system; performing a log compaction procedure to remove from the master log any log entry for which the respective change to the master state of the system has been overridden by a change to the master state in a subsequent log entry; storing a compaction index that is the highest log index of the log entries removed in the log compaction procedure; storing an override index that is the highest log index of the log entries for which the respective change to the master state overrode a change to the master state by an earlier log entry; and sending the compaction index and the override index to one or more follower servers that are to store a replica of the master log relating to the current master state. storing a current master state of a system and maintaining a master log relating to the current master state, wherein the master log comprises a plurality of log entries each having a respective log index, wherein each log entry indicates a respective change to the master state of the system; performing a log compaction procedure to remove from the master log any log entry for which the respective change to the master state of the system has been overridden by a change to the master state in a subsequent log entry; storing a compaction index that is the highest log index of the log entries removed in the log compaction procedure; storing an override index that is the highest log index of the log entries for which the respective change to the master state overrode a change to the master state by an earlier log entry; and sending the compaction index and the override index to one or more follower servers that are to store a replica of the master log relating to the current master state.
A hybrid thermosiphon system comprising: a thermosiphon pipe mountable along a ground surface , the pipe including a tail section extending below the ground surface and into an active frost layer when the pipe is mounted; a condenser in fluid communication with the thermosiphon pipe; an evaporator coupled to the pipe and positioned between the condenser and the ground surface; and a refrigeration system in fluid communication with the evaporator, the refrigeration system operable to cool and deliver a refrigerant to the evaporator, wherein when an ambient air temperature is less than a threshold temperature, the thermosiphon pipe, condenser, evaporator, and refrigerant cooperate to cool the active frost layer and maintain a frozen state thereof without the refrigeration system cooling the refrigerant, and wherein when the ambient air temperature exceeds the threshold temperature, the refrigeration system cools the refrigerant prior to delivery to the evaporator, characterised in that the hybrid thermosiphon system further comprises: an insulated shell coupled to the thermosiphon pipe and surrounding the evaporator, the insulated shell including separate shell sections removably coupled to one another to enclose the evaporator, wherein the evaporator and the insulated shell are configured to be installed onto the thermosiphon pipe below a position of the condenser without need for modification of the thermosiphon pipe. a thermosiphon pipe mountable along a ground surface , the pipe including a tail section extending below the ground surface and into an active frost layer when the pipe is mounted; a condenser in fluid communication with the thermosiphon pipe; an evaporator coupled to the pipe and positioned between the condenser and the ground surface; and a refrigeration system in fluid communication with the evaporator, the refrigeration system operable to cool and deliver a refrigerant to the evaporator, wherein when an ambient air temperature is less than a threshold temperature, the thermosiphon pipe, condenser, evaporator, and refrigerant cooperate to cool the active frost layer and maintain a frozen state thereof without the refrigeration system cooling the refrigerant, and wherein when the ambient air temperature exceeds the threshold temperature, the refrigeration system cools the refrigerant prior to delivery to the evaporator, characterised in that the hybrid thermosiphon system further comprises: an insulated shell coupled to the thermosiphon pipe and surrounding the evaporator, the insulated shell including separate shell sections removably coupled to one another to enclose the evaporator, wherein the evaporator and the insulated shell are configured to be installed onto the thermosiphon pipe below a position of the condenser without need for modification of the thermosiphon pipe.
An information processing apparatus comprising: at least one processor including hardware, wherein the at least one processor is configured to predict a first amount of movement of a head-mounted display between a first time and a second time, the amount of movement defined in six degrees of freedom of the head-mounted display , by using, for predicting, images captured of a periphery of the head-mounted display respectively at the first time and the second time, derive a covariance matrix representing a degree of reliability of the predicted first amount of movement such that the higher the degree of reliability is, the smaller the covariance matrix, predict a second amount of movement of the head-mounted display between the first time and the second time, by using sensor data acquired by a posture sensor incorporated in the head-mounted display between the first time and the second time, generate a display image to be displayed on a display different from the head-mounted display , and determine whether or not to generate a display image including a pattern providing a still image, according to a difference between the first amount of movement and the second amount of movement and the degree of reliability of the first amount of movement as represented by the covariance matrix, the pattern enabling to extract feature points effective for tracking. at least one processor including hardware, wherein the at least one processor is configured to predict a first amount of movement of a head-mounted display between a first time and a second time, the amount of movement defined in six degrees of freedom of the head-mounted display , by using, for predicting, images captured of a periphery of the head-mounted display respectively at the first time and the second time, derive a covariance matrix representing a degree of reliability of the predicted first amount of movement such that the higher the degree of reliability is, the smaller the covariance matrix, predict a second amount of movement of the head-mounted display between the first time and the second time, by using sensor data acquired by a posture sensor incorporated in the head-mounted display between the first time and the second time, generate a display image to be displayed on a display different from the head-mounted display , and determine whether or not to generate a display image including a pattern providing a still image, according to a difference between the first amount of movement and the second amount of movement and the degree of reliability of the first amount of movement as represented by the covariance matrix, the pattern enabling to extract feature points effective for tracking.
Energy converter for converting flow energy of a streaming medium into electrical energy, comprising a turbine with a turbine shaft , a pivoted rotatably mounted turbine shaft center hub and several of turbine blades , each with having a first end (6.1) fixed to the turbine shaft center hub , for converting the flow energy of the medium into rotational energy of rotation off the turbine and an electrical generator for converting rotational energy of rotation of the turbine into electrical energy, in wherein the generator has a substantially ring-shaped stator which comprises a metal core and at least one electrical coil with windings which are wound around the metal core , and has a rotor formed by several of permanent magnets attached to the turbine , the turbine shaft is arranged along an axis of symmetry of the stator and the turbine blades each extend from the turbine center shaft hub to the stator , characterized in that the metal core and the windings of all coils are completely casted into a first casting compound , which also forms the outer surface of the stator , and the permanent magnets are arranged in an essentially circular turbine casing which is attached to the second ends (6.2) of the turbine blades facing the stator , in which the turbine casing consists of a second casting compound into which the permanent magnets are completely casted.
A method for specifically determining the degree of progressive chronic hepatitis and liver fibrosis from a blood sample, the method comprising: (a) adsorbing to a solid body a monoclonal antibody AGP601 specific to α-1 acid glycoprotein produced by a fused cell line deposited with the accession number KCTC13998BP; (b) adding a blood sample containing the asialo α-1 acid glycoprotein to the solid body to which the monoclonal antibody AGP601 against the α-1 acid glycoprotein is absorbed in step (a) to bind the asialo α-1 acid glycoprotein to the monoclonal antibody AGP601; (c) adding and binding an HRP-RCA II conjugate which is a conjugate of ricinus communis agglutinin II (RCA II) and horseradish peroxidase (HRP) as proteins binding specifically to asialo α-1 acid glycoprotein to the asialo α-1 acid glycoprotein bound to the monoclonal antibody AGP601 subjected to step (b); and (d) measuring and analyzing a concentration of the asialo α-1 acid glycoprotein; wherein the blood sample is a blood collected from patients suspected of progressive chronic hepatitis and liver fibrosis. (a) adsorbing to a solid body a monoclonal antibody AGP601 specific to α-1 acid glycoprotein produced by a fused cell line deposited with the accession number KCTC13998BP; (b) adding a blood sample containing the asialo α-1 acid glycoprotein to the solid body to which the monoclonal antibody AGP601 against the α-1 acid glycoprotein is absorbed in step (a) to bind the asialo α-1 acid glycoprotein to the monoclonal antibody AGP601; (c) adding and binding an HRP-RCA II conjugate which is a conjugate of ricinus communis agglutinin II (RCA II) and horseradish peroxidase (HRP) as proteins binding specifically to asialo α-1 acid glycoprotein to the asialo α-1 acid glycoprotein bound to the monoclonal antibody AGP601 subjected to step (b); and (d) measuring and analyzing a concentration of the asialo α-1 acid glycoprotein;
A haptic feedback module for a catheter control handle utilized in a non-robotic interventional medical procedure, the haptic feedback module comprising: a housing configured to be releasably secured to the catheter control handle ; and a number of transducers (44-46) disposed at least partially within the housing , wherein the transducers are operable to provide haptic feedback in response to signals received from a computer system ; the haptic feedback module being characterized by : a wireless transceiver disposed within the housing and configured to wirelessly connect the transducers to the computer system to receive the signals provided by the computer system . a housing configured to be releasably secured to the catheter control handle ; and a number of transducers (44-46) disposed at least partially within the housing , wherein the transducers are operable to provide haptic feedback in response to signals received from a computer system ; the haptic feedback module being characterized by : a wireless transceiver disposed within the housing and configured to wirelessly connect the transducers to the computer system to receive the signals provided by the computer system .
A method of a first user equipment, in the following also referred to as UE, configured to perform one or more sidelink transmissions on a plurality of carriers and configured with a first number of carriers corresponding to a maximum number of carriers that the first UE is able to at least one of use concurrently or transmit on concurrently, the method comprising: receiving a first sidelink transmission on a first carrier of the plurality of carriers ; deriving a first slot for transmitting a first Physical Sidelink Feedback Channel, in the following also referred to as PSFCH, based upon a first resource associated with the first sidelink transmission ; receiving a second sidelink transmission on a second carrier of the plurality of carriers ; deriving a second slot for transmitting a second PSFCH based upon a second resource associated with the second sidelink transmission, wherein at least a part of the first slot overlaps with at least a part of the second slot in the time domain ; and responsive to determining that a number of carriers of a second plurality of carriers associated with derived transmissions of a plurality of PSFCHs exceeds the first number of carriers, prioritizing the first PSFCH or the second PSFCH based upon a rule, wherein: the plurality of PSFCHs comprises the first PSFCH and the second PSFCH; and a plurality of slots for transmitting the derived transmissions of the plurality of PSFCHs are at least partially overlapped in the time domain . receiving a first sidelink transmission on a first carrier of the plurality of carriers ; deriving a first slot for transmitting a first Physical Sidelink Feedback Channel, in the following also referred to as PSFCH, based upon a first resource associated with the first sidelink transmission ; receiving a second sidelink transmission on a second carrier of the plurality of carriers ; deriving a second slot for transmitting a second PSFCH based upon a second resource associated with the second sidelink transmission, wherein at least a part of the first slot overlaps with at least a part of the second slot in the time domain ; and responsive to determining that a number of carriers of a second plurality of carriers associated with derived transmissions of a plurality of PSFCHs exceeds the first number of carriers, prioritizing the first PSFCH or the second PSFCH based upon a rule, wherein: the plurality of PSFCHs comprises the first PSFCH and the second PSFCH; and a plurality of slots for transmitting the derived transmissions of the plurality of PSFCHs are at least partially overlapped in the time domain . the plurality of PSFCHs comprises the first PSFCH and the second PSFCH; and a plurality of slots for transmitting the derived transmissions of the plurality of PSFCHs are at least partially overlapped in the time domain .
A wind turbine , comprising: a tower ; a nacelle disposed on the tower and including a nacelle roof ; a rotor including a hub and at least one wind turbine blade , the rotor operatively coupled to a generator ; and a helihoist affixed to the nacelle roof , the helihoist having a platform with a first working surface, wherein the platform is configured to be expandable to form a second working surface, wherein the second working surface is greater than the first working surface, characterized in that the helihoist further comprises: a sidewall surrounding at least a portion of the first working surface; and a sidewall structure movable between a first operative position and a second operative position, the sidewall structure surrounding at least a portion of the second working surface when in the second operative position. a tower ; a nacelle disposed on the tower and including a nacelle roof ; a rotor including a hub and at least one wind turbine blade , the rotor operatively coupled to a generator ; and a sidewall surrounding at least a portion of the first working surface; and a sidewall structure movable between a first operative position and a second operative position, the sidewall structure surrounding at least a portion of the second working surface when in the second operative position.
A method for wireless communication, comprising: transmitting , by a network node to a wireless device, a configuration comprising A orthogonal code sequences for a sounding reference signal, SRS, (SRS) resource, wherein each of the A orthogonal code sequences is configured for L adjacent SRS symbols within the SRS resource, wherein L is a length of each of the A orthogonal code sequences, wherein L and A are positive integers, and wherein the configuration further comprises B indications of whether basic SRS sequences of L, R or N SRS symbols within the SRS resource are repeated, wherein N is a number of SRS symbols in the SRS resource, wherein R is a repetition factor, wherein R, N and B are positive integers, and wherein B≤ A; and receiving, by the network node from the network device, the SRS that is generated based on the configuration information. transmitting , by a network node to a wireless device, a configuration comprising A orthogonal code sequences for a sounding reference signal, SRS, (SRS) resource, wherein each of the A orthogonal code sequences is configured for L adjacent SRS symbols within the SRS resource, wherein L is a length of each of the A orthogonal code sequences, wherein L and A are positive integers, and wherein the configuration further comprises B indications of whether basic SRS sequences of L, R or N SRS symbols within the SRS resource are repeated, wherein N is a number of SRS symbols in the SRS resource, wherein R is a repetition factor, wherein R, N and B are positive integers, and wherein B≤ A; and receiving, by the network node from the network device, the SRS that is generated based on the configuration information.
An FGF-18 compound for use in the treatment of a subject having a cartilage disorder, characterized in that the subject presents: a level of CTX-II below or equal to 350 ± 2SD ng/mmol and/or a level of ProC2 below or equal to 4.2 ± 2SD ng/ml, in a sample from said subject; and a joint space width (JSW) lower than or equal to 3.5 ± 2SD mm. a level of CTX-II below or equal to 350 ± 2SD ng/mmol and/or a level of ProC2 below or equal to 4.2 ± 2SD ng/ml, in a sample from said subject; and a joint space width (JSW) lower than or equal to 3.5 ± 2SD mm.
Appliance for cooking food under pressure, comprising a vessel and a lid intended to form with said vessel a cooking enclosure, said lid comprising a top wall having a substantially circular or oval peripheral contour from which an annular skirt extends, said appliance also comprising a seal interposed between the lid and the vessel , as well as a leakage orifice formed through the lid facing the seal , said appliance being characterised in that said top wall locally forms a indented portion through which said leakage orifice is formed, said indented portion delimiting a cavity that said seal covers as long as the pressure in the chamber does not exceed a safety threshold, so as to form locally between the seal and the indented portion an intermediate chamber while preventing the inside of the enclosure from communicating with the outside through the leakage orifice , said seal at least partially uncovering said cavity as soon as the pressure in the enclosure exceeds said safety threshold, thus to make the inside of the enclosure communicate, through the leakage orifice and the intermediate chamber , with the outside in order to cause the pressure in the enclosure to drop.