mhurhangee/ep-ind-claims huggingface dataset:
A system configured to detect sensor faults, the system comprising: a processor; and a memory comprising computer-executable instructions that, when executed by the processor, cause the processor to perform operations, the operations comprising: monitoring outputs of a volumetric sensor and a light curtain sensor; determining whether the outputs of the volumetric sensor and the light curtain sensor follow an expected pattern; and based at least in part on determining that the outputs of the volumetric sensor and the light curtain sensor do not follow the expected pattern, wherein the expected pattern includes a maximum elapsed time between an output from a first one of the volumetric sensor and the light curtain sensor and an output from a second one of the volumetric sensor and the light curtain sensor: identifying that the volumetric sensor or the light curtain sensor is not following the expected pattern; and transmitting a notification indicating that the volumetric sensor or the light curtain sensor is exhibiting unexpected behaviour. a processor; and a memory comprising computer-executable instructions that, when executed by the processor, cause the processor to perform operations, the operations comprising: monitoring outputs of a volumetric sensor and a light curtain sensor; determining whether the outputs of the volumetric sensor and the light curtain sensor follow an expected pattern; and based at least in part on determining that the outputs of the volumetric sensor and the light curtain sensor do not follow the expected pattern, wherein the expected pattern includes a maximum elapsed time between an output from a first one of the volumetric sensor and the light curtain sensor and an output from a second one of the volumetric sensor and the light curtain sensor: identifying that the volumetric sensor or the light curtain sensor is not following the expected pattern; and transmitting a notification indicating that the volumetric sensor or the light curtain sensor is exhibiting unexpected behaviour. monitoring outputs of a volumetric sensor and a light curtain sensor; determining whether the outputs of the volumetric sensor and the light curtain sensor follow an expected pattern; and based at least in part on determining that the outputs of the volumetric sensor and the light curtain sensor do not follow the expected pattern, wherein the expected pattern includes a maximum elapsed time between an output from a first one of the volumetric sensor and the light curtain sensor and an output from a second one of the volumetric sensor and the light curtain sensor: identifying that the volumetric sensor or the light curtain sensor is not following the expected pattern; and transmitting a notification indicating that the volumetric sensor or the light curtain sensor is exhibiting unexpected behaviour. identifying that the volumetric sensor or the light curtain sensor is not following the expected pattern; and transmitting a notification indicating that the volumetric sensor or the light curtain sensor is exhibiting unexpected behaviour.
A method of processing an Automatic Repeat Request, ARQ, transmission, the method comprising: - requesting a retransmission of a transport block, wherein the transport block includes at least one first code block and one second code block different from the at least one first code block, each of the at least one first code block and the at least one second code block being independently protected by an error-detecting code, in response to an error-detecting code indicating an error in the transport block as received in at least one previous transmission; - receiving the retransmission of the transport block; and - detecting modulation symbols using channel or noise estimation based on at least a part of the received retransmission and information from the at least one previous transmission, wherein the information results from re-encoding the at least one second code block previously decoded based on the at least one previous transmission, if the error-detecting code protecting the at least one second code block as received in the at least one previous transmission indicates no error; - deriving from the detected modulation symbols of the retransmission the at least one first code block; and - decoding the derived at least one first code block. - requesting a retransmission of a transport block, wherein the transport block includes at least one first code block and one second code block different from the at least one first code block, each of the at least one first code block and the at least one second code block being independently protected by an error-detecting code, in response to an error-detecting code indicating an error in the transport block as received in at least one previous transmission; - receiving the retransmission of the transport block; and - detecting modulation symbols using channel or noise estimation based on at least a part of the received retransmission and information from the at least one previous transmission, wherein the information results from re-encoding the at least one second code block previously decoded based on the at least one previous transmission, if the error-detecting code protecting the at least one second code block as received in the at least one previous transmission indicates no error; - deriving from the detected modulation symbols of the retransmission the at least one first code block; and - decoding the derived at least one first code block.
A low-dusting gypsum board comprising: a set gypsum core disposed between two cover sheets; the set gypsum core comprising a gypsum crystal matrix having a pore size distribution comprising (i) water voids having a pore size less than 5 microns in diameter, (ii) air voids having a pore size less than 50 microns in diameter in an amount of about 50 % of the total voids, (iii) air voids having a pore size from about 50 microns to 100 microns in diameter in an amount of about 30 % of the total voids, and (iv) air voids having a pore size greater than 100 microns in diameter in an amount of about 20% of the total voids, wherein the set gypsum core has a total void volume from about 80% to about 92% and wherein the voids are measured using scanning electron photomicrograph imaging; the air voids having an average pore size of less than 100 microns in diameter; and the board, when at a thickness of about 1,27 cm (1/2 inch), having a density from about 160 kg/m 3 (10 pcf) to about 481 kg/m 3 (30 pcf). a set gypsum core disposed between two cover sheets; the set gypsum core comprising a gypsum crystal matrix having a pore size distribution comprising (i) water voids having a pore size less than 5 microns in diameter, (ii) air voids having a pore size less than 50 microns in diameter in an amount of about 50 % of the total voids, (iii) air voids having a pore size from about 50 microns to 100 microns in diameter in an amount of about 30 % of the total voids, and (iv) air voids having a pore size greater than 100 microns in diameter in an amount of about 20% of the total voids, wherein the set gypsum core has a total void volume from about 80% to about 92% and wherein the voids are measured using scanning electron photomicrograph imaging; the air voids having an average pore size of less than 100 microns in diameter; and the board, when at a thickness of about 1,27 cm (1/2 inch), having a density from about 160 kg/m 3 (10 pcf) to about 481 kg/m 3 (30 pcf).
A method for monitoring a degree of coking at dynamic seals of a turbine engine comprising: - a gas generator, comprising a rotary shaft and an injection wheel mounted on said shaft, the wheel being adapted for spraying fuel by centrifugation, - an injection manifold, adapted for conveying fuel as far as the injection wheel, - dynamic seals adapted for ensuring a seal between the injection wheel and the injection manifold, and - a starter, adapted for driving into rotation the shaft of the gas generator during a starting phase of the turbine engine, the method being characterized in that it comprises the steps of: - measuring, during an initiation phase of the rotation of the shaft of the gas generator by the starter upon starting the turbine engine, a current flowing through the starter and a voltage on the terminals of the starter, - determining, from the measured current and voltage, the degree of coking at the dynamic seals. - a gas generator, comprising a rotary shaft and an injection wheel mounted on said shaft, the wheel being adapted for spraying fuel by centrifugation, - an injection manifold, adapted for conveying fuel as far as the injection wheel, - dynamic seals adapted for ensuring a seal between the injection wheel and the injection manifold, and - a starter, adapted for driving into rotation the shaft of the gas generator during a starting phase of the turbine engine, - measuring, during an initiation phase of the rotation of the shaft of the gas generator by the starter upon starting the turbine engine, a current flowing through the starter and a voltage on the terminals of the starter, - determining, from the measured current and voltage, the degree of coking at the dynamic seals.
An apparatus comprising: a liquid directing sample container comprising; a well comprising: sides having a non-circular profile, the profile of the sides defining an interior angle, adjacent to a discharge port of the well, that is smaller than other interior angles of the profile to wick liquid towards the discharge port; and a floor, wherein the floor is sloped downward towards the discharge port. sides having a non-circular profile, the profile of the sides defining an interior angle, adjacent to a discharge port of the well, that is smaller than other interior angles of the profile to wick liquid towards the discharge port; and a floor, wherein the floor is sloped downward towards the discharge port.
A system for displaying a combined image data from a plurality of sources on a head-mounted see-through display "HMSTD" (100, 160) defining a line of sight "LOS", the system comprising: a tracker configured to track the LOS of the HMSTD; a display controller configured to display on the HMSTD a first display area comprising a synthetic image data (150, 165) conformal to a scene viewed from the HMSTD; a trigger mechanism configured to select a desired point being a point within the scene which intersects the LOS of the HMSTD at a time of a triggering event, wherein said display controller is configured to receive said desired point and to display a second display area on said HMSTD, wherein the second display area is positioned relative to said desired point, and wherein said display controller is further configured to at least partially remove the synthetic image data in the second display area, generating thereby a hole in the synthetic image data conformal with the scene such that the scene may be viewed directly. a tracker configured to track the LOS of the HMSTD; a display controller configured to display on the HMSTD a first display area comprising a synthetic image data (150, 165) conformal to a scene viewed from the HMSTD; a trigger mechanism configured to select a desired point being a point within the scene which intersects the LOS of the HMSTD at a time of a triggering event, wherein said display controller is configured to receive said desired point and to display a second display area on said HMSTD, wherein the second display area is positioned relative to said desired point, and wherein said display controller is further configured to at least partially remove the synthetic image data in the second display area, generating thereby a hole in the synthetic image data conformal with the scene such that the scene may be viewed directly.
A data replication method, wherein the method is applied to a storage system comprising at least a first storage device and a second storage device, and comprises: determining, by a first storage system, replication information, wherein the replication information is used to indicate data that needs to be replicated by the first storage system to a second storage system in a current replication task, the first storage device and the second storage device that are in the first storage system store same data; determining, by the first storage system, first replication sub-information and second replication sub-information according to the replication information, wherein the first replication sub-information is used to indicate data that needs to be replicated by the first storage device to the second storage system in the current replication task, the second replication sub-information is used to indicate data that needs to be replicated by the second storage device to the second storage system in the current replication task, and the data indicated by the first replication sub-information is different from the data indicated by the second replication sub-information; replicating, by the first storage device to the second storage system according to the first replication sub-information, the data that needs to be replicated by the first storage device to the second storage system; and replicating, by the second storage device to the second storage system according to the second replication sub-information, the data that needs to be replicated by the second storage device to the second storage system. determining, by a first storage system, replication information, wherein the replication information is used to indicate data that needs to be replicated by the first storage system to a second storage system in a current replication task, the first storage device and the second storage device that are in the first storage system store same data; determining, by the first storage system, first replication sub-information and second replication sub-information according to the replication information, wherein the first replication sub-information is used to indicate data that needs to be replicated by the first storage device to the second storage system in the current replication task, the second replication sub-information is used to indicate data that needs to be replicated by the second storage device to the second storage system in the current replication task, and the data indicated by the first replication sub-information is different from the data indicated by the second replication sub-information; replicating, by the first storage device to the second storage system according to the first replication sub-information, the data that needs to be replicated by the first storage device to the second storage system; and replicating, by the second storage device to the second storage system according to the second replication sub-information, the data that needs to be replicated by the second storage device to the second storage system.
A method of treating tissue comprising: providing tissue, optionally selected from cortical bone, cancellous bone and soft tissue; optionally adding a bioactive agent to the tissue; dehydrating the tissue with a CO 2 miscible solvent; placing the tissue in a chamber; filling the chamber with CO 2; heating the tissue in the absence of oxygen, wherein the absence of oxygen comprises an inert atmosphere of CO 2, by raising a temperature and pressure of the chamber to 31.1°C and 7.584 MPa (1100 psi); raising the temperature above 31.1°C and 7.584 MPa (1100 psi); and releasing the CO 2. providing tissue, optionally selected from cortical bone, cancellous bone and soft tissue; optionally adding a bioactive agent to the tissue; dehydrating the tissue with a CO 2 miscible solvent; placing the tissue in a chamber; filling the chamber with CO 2; heating the tissue in the absence of oxygen, wherein the absence of oxygen comprises an inert atmosphere of CO 2, by raising a temperature and pressure of the chamber to 31.1°C and 7.584 MPa (1100 psi); raising the temperature above 31.1°C and 7.584 MPa (1100 psi); and releasing the CO 2.
A containment assembly for a turbo fan engine, comprising a casing arranged in use around a rotatable fan, to form a duct for the fan, the containment assembly comprising at least one liner element disposed on an interior surface between the casing and blades of a rotatable fan, the liner element comprising a body portion mounted in a recess in the casing and a wall portion arranged to form part of an inner wall of the duct, the wall portion and the body portion being attached and defining a containment cavity therebetween for containment of a detached fan blade fragment in use, the assembly characterised in that the wall portion comprises a moveable portion mounted pivotally on the body portion so that, in use, a fan blade fragment contacting the moveable portion will pivotally displace it causing the blade fragment to move into and be contained within the containment cavity.
A high voltage winding for a single electrical phase of a high voltage electromagnetic induction device, wherein the high voltage winding comprises: a first winding part, and a second winding part, wherein the first winding part comprises: - a first conductor, - a first solid electrical insulator circumferentially enclosing the first conductor, and - a first semi-conductive sheath circumferentially enclosing the first solid electrical insulator, wherein the first semi-conductive sheath is earthed or connected to an electric potential that is lower than a rated voltage of the high voltage winding, and wherein the second winding part comprises: - a second conductor, and - a second solid electrical insulator circumferentially enclosing the second conductor and forming an outermost layer of the second winding part. a first winding part, and a second winding part, wherein the first winding part comprises: - a first conductor, - a first solid electrical insulator circumferentially enclosing the first conductor, and - a first semi-conductive sheath circumferentially enclosing the first solid electrical insulator, wherein the first semi-conductive sheath is earthed or connected to an electric potential that is lower than a rated voltage of the high voltage winding, and - a first conductor, - a first solid electrical insulator circumferentially enclosing the first conductor, and - a first semi-conductive sheath circumferentially enclosing the first solid electrical insulator, wherein the first semi-conductive sheath is earthed or connected to an electric potential that is lower than a rated voltage of the high voltage winding, and wherein the second winding part comprises: - a second conductor, and - a second solid electrical insulator circumferentially enclosing the second conductor and forming an outermost layer of the second winding part. - a second conductor, and - a second solid electrical insulator circumferentially enclosing the second conductor and forming an outermost layer of the second winding part.
A directional coupler comprising: a dielectric substrate; a main line having a suspended line structure formed on a front surface of the dielectric substrate; a microstrip structure comprising a sub-line formed on the front surface or a rear surface of the dielectric substrate, the sub-line being placed with a predetermined gap from the main line in the plan view of the dielectric substrate; and an opening provided between the main line and the sub-line through the dielectric substrate, characterized by the microstrip structure further comprising a ground surface of the sub-line that is formed on the surface of the dielectric substrate opposite to the one on which the sub-line is formed, in a manner that the ground surface is superposed on the sub-line. a dielectric substrate; a main line having a suspended line structure formed on a front surface of the dielectric substrate; a microstrip structure comprising a sub-line formed on the front surface or a rear surface of the dielectric substrate, the sub-line being placed with a predetermined gap from the main line in the plan view of the dielectric substrate; and an opening provided between the main line and the sub-line through the dielectric substrate, characterized by the microstrip structure further comprising a ground surface of the sub-line that is formed on the surface of the dielectric substrate opposite to the one on which the sub-line is formed, in a manner that the ground surface is superposed on the sub-line.
A terminal apparatus to which at least two component carriers, CCs, are configured, the terminal apparatus comprising: a receiving section configured to receive a downlink control channel, transmitted on a control channel element, CCE, in a search space comprised of a plurality of CCEs, wherein the downlink control channel includes resource assignment information indicating a resource allocated to the terminal apparatus in a component carrier n, CCn, out of the configured CCs; and a transmitting section configured to transmit an ACK/NACK signal on an uplink control channel, an index of which is associated with a CCE number of the CCE on which the downlink control channel is transmitted, characterized in that the search space, in which the downlink control channel including the resource assignment information indicating the resource allocated in the CCn is transmitted, is comprised of the plurality of CCEs depending on the value of n, and a CCE number that defines an end position of the search space for the CCn and a CCE number that defines a start position of another search space for a component carrier n+1, CCn+1, are consecutive, and the search space is different from the other search space. a receiving section configured to receive a downlink control channel, transmitted on a control channel element, CCE, in a search space comprised of a plurality of CCEs, wherein the downlink control channel includes resource assignment information indicating a resource allocated to the terminal apparatus in a component carrier n, CCn, out of the configured CCs; and a transmitting section configured to transmit an ACK/NACK signal on an uplink control channel, an index of which is associated with a CCE number of the CCE on which the downlink control channel is transmitted, characterized in that the search space, in which the downlink control channel including the resource assignment information indicating the resource allocated in the CCn is transmitted, is comprised of the plurality of CCEs depending on the value of n, and a CCE number that defines an end position of the search space for the CCn and a CCE number that defines a start position of another search space for a component carrier n+1, CCn+1, are consecutive, and the search space is different from the other search space.