mhurhangee/ep-ind-claims huggingface dataset:
A computer-implemented method operable on a device in a content delivery, CD, network, said device comprising hardware including storage comprising at least one first class of storage and at least one second class of storage, said first class of storage being faster than said second class of storage, wherein a first portion of said first class of storage is allocated for log data, and a second portion of said second class of storage is allocated for log data, the method comprising: A) obtaining, from at least one component or service on said device, log event data items, each item of log event data being produced by a corresponding at least one component or service on said device, each log event data item having a corresponding priority of at least two priorities; B) determining if a connection to at least one external location is lost, and, B1) when it is determined in step B that said connection is not lost, sending at least some of said log event data items to said at least one external location, and, B2) when it is determined in step B that said connection is lost, selectively storing at least some of said log event data items in said storage, wherein said storing is based on priority of said log event data items, and said storing is based on priority-based rules that comprise priority-based allotments of said first class of storage. A) obtaining, from at least one component or service on said device, log event data items, each item of log event data being produced by a corresponding at least one component or service on said device, each log event data item having a corresponding priority of at least two priorities; B) determining if a connection to at least one external location is lost, and, B1) when it is determined in step B that said connection is not lost, sending at least some of said log event data items to said at least one external location, and, B2) when it is determined in step B that said connection is lost, selectively storing at least some of said log event data items in said storage, wherein said storing is based on priority of said log event data items, and said storing is based on priority-based rules that comprise priority-based allotments of said first class of storage. B1) when it is determined in step B that said connection is not lost, sending at least some of said log event data items to said at least one external location, and, B2) when it is determined in step B that said connection is lost, selectively storing at least some of said log event data items in said storage, wherein said storing is based on priority of said log event data items, and said storing is based on priority-based rules that comprise priority-based allotments of said first class of storage.
A computer-implemented method for identifying errors introduced during encoding, at a system comprising a parallel encoding engine and a verification generator, the method comprising: decoding aggregate encoded data derived from source data to generate aggregate decoded data, wherein the aggregate encoded data is derived from the source data by separately encoding a plurality of chunks of the source data to generate a plurality of encoded chunks of the source data, wherein each chunk included in the plurality of chunks of the source data is encoded by a separate computer instance included in a plurality of compute instances; generating frame difference data derived from the aggregate decoded data, by determining, for each decoded frame included in a plurality of decoded frames of the aggregate decoded data, a difference between a characteristic of the decoded frame and a characteristic of an adjacent decoded frame that resides adjacent to the decoded frame in the plurality of decoded frames, wherein a plurality of source frames of the source data corresponds to the plurality of decoded frames of the aggregate decoded data; performing at least one phase correlation operation on frame difference data derived from the source data and the frame difference data derived from the aggregate decoded data to generate phase correlation values; and detecting a low phase correlation error included in the aggregate encoded data based on the phase correlation values. decoding aggregate encoded data derived from source data to generate aggregate decoded data, wherein the aggregate encoded data is derived from the source data by separately encoding a plurality of chunks of the source data to generate a plurality of encoded chunks of the source data, wherein each chunk included in the plurality of chunks of the source data is encoded by a separate computer instance included in a plurality of compute instances; generating frame difference data derived from the aggregate decoded data, by determining, for each decoded frame included in a plurality of decoded frames of the aggregate decoded data, a difference between a characteristic of the decoded frame and a characteristic of an adjacent decoded frame that resides adjacent to the decoded frame in the plurality of decoded frames, wherein a plurality of source frames of the source data corresponds to the plurality of decoded frames of the aggregate decoded data; performing at least one phase correlation operation on frame difference data derived from the source data and the frame difference data derived from the aggregate decoded data to generate phase correlation values; and detecting a low phase correlation error included in the aggregate encoded data based on the phase correlation values.
A measurement system comprising: a nanopore device (300, 400, 500) comprising: an insulating substrate (310, 410, 510) comprising one or more fluid channels (308, 408, 508) formed into a surface (312, 412) of the insulating substrate; a cover (350, 450, 550) comprising a center hole (354, 454) and a plurality of outer holes (352, 452, 456, 458); and a membrane layer (330, 430, 530) positioned between the insulating substrate and the cover, a first surface (314, 414) of the membrane layer bonded to the surface of the substrate, the membrane layer comprising: one or more nanopores (334, 434, 534) that each fluidically connects one of the fluid channels of the insulating substrate to the center hole of the cover; and a plurality of holes (332, 432), wherein each hole in the membrane layer is substantially aligned with one of the plurality of outer holes of the cover. an insulating substrate (310, 410, 510) comprising one or more fluid channels (308, 408, 508) formed into a surface (312, 412) of the insulating substrate; a cover (350, 450, 550) comprising a center hole (354, 454) and a plurality of outer holes (352, 452, 456, 458); and a membrane layer (330, 430, 530) positioned between the insulating substrate and the cover, a first surface (314, 414) of the membrane layer bonded to the surface of the substrate, the membrane layer comprising: one or more nanopores (334, 434, 534) that each fluidically connects one of the fluid channels of the insulating substrate to the center hole of the cover; and a plurality of holes (332, 432), wherein each hole in the membrane layer is substantially aligned with one of the plurality of outer holes of the cover. one or more nanopores (334, 434, 534) that each fluidically connects one of the fluid channels of the insulating substrate to the center hole of the cover; and a plurality of holes (332, 432), wherein each hole in the membrane layer is substantially aligned with one of the plurality of outer holes of the cover.
A freeze dried pellet for a recombinase polymerase amplification process of DNA amplification of a target nucleic acid molecule, comprising: (a) a recombinase; (b) a recombinase loading protein; (c) a single stranded DNA binding protein; (d) a strand displacing DNA polymerase; (e) trehalose; (f) a crowding agent, wherein the crowding agent is polyethylene glycol; (g) a first primer; and optionally (h) a second primer, wherein: (i) Potassium Acetate is not present in said pellet; and (ii) TRIS buffer is present in said pellet and wherein the concentration of said TRIS buffer is 25 mM or less. (a) a recombinase; (b) a recombinase loading protein; (c) a single stranded DNA binding protein; (d) a strand displacing DNA polymerase; (e) trehalose; (f) a crowding agent, wherein the crowding agent is polyethylene glycol; (g) a first primer; and optionally (h) a second primer, (i) Potassium Acetate is not present in said pellet; and (ii) TRIS buffer is present in said pellet and wherein the concentration of said TRIS buffer is 25 mM or less.
A muscle relaxation monitoring apparatus comprising a calibration processing section for performing a calibration process that electrically stimulates a nerve which is an observation portion of a subject, by a predetermined stimulation current value at a predetermined stimulation timing, and that acquires a stimulation current value of a supramaximal stimulation exceeding a maximal stimulation of the subject, based on an amplitude peak value of an electric signal that is based on a stimulation response of a muscle of the subject due to the electrical stimulation, characterized in that the calibration processing section is configured to: perform the calibration process while using a first stimulation timing that is preset as the stimulation timing when the subject is in an awake state; and perform the calibration process while using a second stimulation timing that is longer in period than the first stimulation timing as the stimulation timing when the subject is in a muscle relaxation state. perform the calibration process while using a first stimulation timing that is preset as the stimulation timing when the subject is in an awake state; and perform the calibration process while using a second stimulation timing that is longer in period than the first stimulation timing as the stimulation timing when the subject is in a muscle relaxation state.
Bone cement comprising microcapsules containing rifampicin, rifabutin, rifapentine, rifalazil and any combination thereof wherein the bone cement is an acrylic-based bone cement with a polymethylmethacrylate base and wherein the microcapsules are formed by alginate and are obtained by ionic gelification.
A method for automatically operating a continuous mining machine, the method comprising: automatically operating at least one actuator (171, 172) to position a platform supporting a cutterhead at a predetermined starting position; characterised in that the method further comprises: automatically operating the at least one actuator (171, 172) to advance the platform toward a cutting face until the cutterhead contacts the cutting face and at least one indicator of a physical force between the cutterhead and the cutting face exceeds a predetermined value; and automatically saving at least one coordinate of the cutting face to a computer-readable medium, the at least one coordinate based on a parameter of the at least one actuator (171, 172) when the indicator exceeds the predetermined value. automatically operating at least one actuator (171, 172) to position a platform supporting a cutterhead at a predetermined starting position; characterised in that the method further comprises: automatically operating the at least one actuator (171, 172) to advance the platform toward a cutting face until the cutterhead contacts the cutting face and at least one indicator of a physical force between the cutterhead and the cutting face exceeds a predetermined value; and automatically saving at least one coordinate of the cutting face to a computer-readable medium, the at least one coordinate based on a parameter of the at least one actuator (171, 172) when the indicator exceeds the predetermined value. automatically operating the at least one actuator (171, 172) to advance the platform toward a cutting face until the cutterhead contacts the cutting face and at least one indicator of a physical force between the cutterhead and the cutting face exceeds a predetermined value; and automatically saving at least one coordinate of the cutting face to a computer-readable medium, the at least one coordinate based on a parameter of the at least one actuator (171, 172) when the indicator exceeds the predetermined value.
A well access system for a well having a bore containing a fluid, including: a tree for connecting to a tree connector, the tree comprising a bore and an annulus bore; a first cap positionable within the bore of the tree, characterized in that the first cap comprises: a sealable interface to accept a second cap; a first bore in fluid communication with a production bore via a production line; a second bore in fluid communication with the annulus bore via an annulus flow line; and wherein the second cap is configured to be accepted by the sealable interface and when sealed to the first cap is capable of providing a barrier against a release of the fluid external to the well. a tree for connecting to a tree connector, the tree comprising a bore and an annulus bore; a first cap positionable within the bore of the tree, characterized in that the first cap comprises: a sealable interface to accept a second cap; a first bore in fluid communication with a production bore via a production line; a second bore in fluid communication with the annulus bore via an annulus flow line; and wherein the second cap is configured to be accepted by the sealable interface and when sealed to the first cap is capable of providing a barrier against a release of the fluid external to the well. a sealable interface to accept a second cap; a first bore in fluid communication with a production bore via a production line; a second bore in fluid communication with the annulus bore via an annulus flow line; and wherein the second cap is configured to be accepted by the sealable interface and when sealed to the first cap is capable of providing a barrier against a release of the fluid external to the well.
Circuit arrangement for an electrical system (2, 2a, 2b, 2c) of a motor vehicle, wherein the circuit arrangement (14, 18, 20) comprises at least one absorption circuit (16, 16a, 16b, 16c, 16d, 16e, 16f, 16g, 16h) and the electrical system (2, 2a, 2b, 2c) has a power electronics and at least one component connected thereto, wherein the power electronics comprises at least one part which must be clocked during operation of the power electronics at a clock frequency, wherein the at least one part is connected to the at least one component via at least one line (11, 11a, 11b, 11c, 11d, 11e, 11f), wherein the at least one line (11, 11a, 11b, 11c, 11d, 11e, 11f) has at least one inductance (24, 24a, 24b, 24c, 24d, 24e, 24f, 24g, 24h), wherein the at least one line (11, 11a, 11b, 11c, 11d, 11e, 11f) is assigned to the at least one absorption circuit (16, 16a, 16b, 16c, 16d, 16e, 16f, 16g, 16h) with an inductance (24, 24a, 24b, 24c, 24d, 24e, 24f, 24g, 24h) and a capacity, wherein the inductance (24, 24a, 24b, 24c, 24d, 24e, 24f, 24g, 24h) of the at least one absorption circuit (16, 16a, 16b, 16c, 16d, 16e, 16f, 16g, 16h) is coupled to the at least one inductance (24, 24a, 24b, 24c, 24d, 24e, 24f, 24g, 24h) of the at least one line (11, 11a, 11b, 11c, 11d, 11e, 11f).
A method for determining an amount of product in product formation (14, 80), wherein the product is being depleted from or added to the product formation (14, 80) in a continuous or periodic manner, the method comprising: at defined intervals, projecting a mark (74, 104) with a light source imager onto an aspect of the product formation (14, 80) that changes as the amount of product is depleted or added to the product formation (14, 80); taking a digital image of the aspect of the product formation (14, 80) that captures the projected mark (74, 104), and transmitting the digital image to a digital imager processor; with the digital image processor, analyzing a feature of the projected mark (74, 104) that changes as the product formation (14, 80) decreases or increases in size as the product is dispensed or added; and comparing the analyzed feature with a predetermined value of the feature at a predefined size of the product formation (14, 80) to determine an actual amount of the product on the product formation (14, 80), or amount of product depleted from or added to the product formation (14, 80). at defined intervals, projecting a mark (74, 104) with a light source imager onto an aspect of the product formation (14, 80) that changes as the amount of product is depleted or added to the product formation (14, 80); taking a digital image of the aspect of the product formation (14, 80) that captures the projected mark (74, 104), and transmitting the digital image to a digital imager processor; with the digital image processor, analyzing a feature of the projected mark (74, 104) that changes as the product formation (14, 80) decreases or increases in size as the product is dispensed or added; and comparing the analyzed feature with a predetermined value of the feature at a predefined size of the product formation (14, 80) to determine an actual amount of the product on the product formation (14, 80), or amount of product depleted from or added to the product formation (14, 80).
A method of notifying of service information changes resulting from changes of a state of a first user equipment, UE, UE-A, in a wireless communication system, the method comprising: establishing a connection with a second UE, UE-B, and receiving a service via the connection; updating, upon generation of an event to UE-A triggering by UE-A a change in the state of UE-A during the service, an available service list for UE-A, UE-ASL-A, being supported in UE-A in response to the state change; sending the updated UE-ASL-A to UE-B; receiving an available service list for UE-B, UE-ASL-B, from UE-B responding to the updated UE-ASL-A; comparing the updated UE-ASL-A with UE-ASL-B and updating a list of common available services, ASL, according to the comparison result; and notifying a user of the updated ASL, while maintaining the connection. establishing a connection with a second UE, UE-B, and receiving a service via the connection; updating, upon generation of an event to UE-A triggering by UE-A a change in the state of UE-A during the service, an available service list for UE-A, UE-ASL-A, being supported in UE-A in response to the state change; sending the updated UE-ASL-A to UE-B; receiving an available service list for UE-B, UE-ASL-B, from UE-B responding to the updated UE-ASL-A; comparing the updated UE-ASL-A with UE-ASL-B and updating a list of common available services, ASL, according to the comparison result; and notifying a user of the updated ASL, while maintaining the connection.
Rope safety catch for a lift system having a safety rope, having - a housing with a safety rope inlet and a safety rope outlet, - a clamping device arranged in the housing, said device being configured to be brought from a release position, in which the safety rope is movable relative to the clamping device into a clamping position in which the clamping device engages the safety rope, and - a trigger device arranged in the housing, said device being configured to detect the speed of the safety rope extending between the safety rope inlet and the safety rope outlet, and which is operatively coupled to the clamping device such that upon exceeding a predetermined speed of the safety rope, the clamping device is transitioned from the release position into the clamping position, characterized in that the trigger device comprises a movable actuating element which is adapted to be actuated from outside of the housing, said element being coupled to the trigger device for a force-transmission such that the actuation of the actuating element causes a movement of the trigger device, and the speed detected by the trigger device increases depending on the actuation speed of the actuating element. - a housing with a safety rope inlet and a safety rope outlet, - a clamping device arranged in the housing, said device being configured to be brought from a release position, in which the safety rope is movable relative to the clamping device into a clamping position in which the clamping device engages the safety rope, and - a trigger device arranged in the housing, said device being configured to detect the speed of the safety rope extending between the safety rope inlet and the safety rope outlet, and which is operatively coupled to the clamping device such that upon exceeding a predetermined speed of the safety rope, the clamping device is transitioned from the release position into the clamping position,
A method for manufacturing a prosthetic component for replacing a part of a bone of a shoulder joint in a subject, the method comprising: forming the prosthetic component to include a base surface and an opposed articular surface wherein a width of the base surface is a predetermined percentage of a length of a neutral face plate line, the length of the neutral face plate line determined by (i) obtaining an image of the bone of the joint, (ii) orienting on the image a reference angle from a body of the bone to create the neutral face plate line, wherein the neutral face plate line corresponds to a width of a flat neutral face plate formed by removing a portion of the bone during arthroplasty and that extends from a first border of the bone to an opposite second border of the bone, and (iii) measuring the length of the neutral face plate line.
Method of removing glycidyl esters from a vegetable oil, which is palm oil or a palm oil olein, having a glycidyl ester content of at least 0.5 ppm, the method comprising contacting the oil with from 0.5 % to 5 % by weight of the oil of an acid-activated bleaching earth and deodorising the oil after it has been treated with the bleaching earth at a temperature of from 180 to 195°C for a time of from 1 to 4 hours to form a product having a content of glycidyl esters of less than 0.5 ppm.