mhurhangee/ep-ind-claims huggingface dataset:
A task processing method, wherein the method comprises: receiving a task request, wherein the task request is used to indicate to process a task related to an application program; obtaining a quality of service class corresponding to the task based on the task request; when a first subtask corresponding to the task request is processed by using a first thread, configuring a quality of service class of the first thread as the quality of service class of the task; and processing the first subtask corresponding to the first thread based on a processing sequence corresponding to the quality of service class of the first thread; wherein the processing the first subtask corresponding to the first thread based on a processing sequence corresponding to the quality of service class of the first thread comprises: inserting the first subtask into a processing queue before other subtasks having a quality of service class lower than that of the first thread or not having a quality of service class, and processing the first subtask according to the order in the processing queue. receiving a task request, wherein the task request is used to indicate to process a task related to an application program; obtaining a quality of service class corresponding to the task based on the task request; when a first subtask corresponding to the task request is processed by using a first thread, configuring a quality of service class of the first thread as the quality of service class of the task; and processing the first subtask corresponding to the first thread based on a processing sequence corresponding to the quality of service class of the first thread; wherein the processing the first subtask corresponding to the first thread based on a processing sequence corresponding to the quality of service class of the first thread comprises: inserting the first subtask into a processing queue before other subtasks having a quality of service class lower than that of the first thread or not having a quality of service class, and processing the first subtask according to the order in the processing queue.
A method for producing modified milk, comprising: a step of treating a raw material milk of raw milk, milk sterilized at 75°C or more for 15 minutes or more or milk sterilized at 72°C to 75°C for 15 seconds to reduce an inhibitor of a protein deamidating enzyme; and a step of further treating the raw material milk with a protein deamidating enzyme, wherein the treating to reduce an inhibitor of a protein deamidating enzyme is an addition of a calcium chelating agent to the raw material milk by 0.2 to 1.0 g per 100 g of the raw material milk, or wherein the treating to reduce an inhibitor of a protein deamidating enzyme is an addition of an alkaline material to the raw material milk by 0.01 to 0.5 g per 100 g of the raw material milk, or wherein the treating to reduce an inhibitor of a protein deamidating enzyme is an addition of a reducing material to the raw material milk by 0.0001 to 0.1 g per 100 g of the raw material milk or an addition of yeast extract containing a reducing agent by 0.0001 to 0.1 g per 100 g of the raw material milk or wherein the treating to reduce an inhibitor of a protein deamidating enzyme is a removal of a low molecule fraction, a molecular weight of which is 10,000 or less, from the raw material milk, wherein the protein deamidating enzyme possesses a function to act on amide group in a protein directly and cut a peptide bonding and deamidate the protein without linking.
A computer implemented method for removing ghost markers (M4, M5) from a measured set of medical markers, wherein the measured set of markers represents the positions of real markers (M1, M2, M3) and the positions of ghost markers (M4, M5), characterized in comprising the steps of: - calculating all possible minimal marker sets, wherein a minimal marker set is a subset of the measured set and a minimal marker set consists of the smallest possible number of markers which would cause the measured set to be measured; - calculating the smallest extent of each minimal marker set, wherein the smallest extent is the smallest extent among the extents in three orthogonal directions; and - selecting the minimal marker set having the smallest out of the smallest extents as a marker set without ghost markers. - calculating all possible minimal marker sets, wherein a minimal marker set is a subset of the measured set and a minimal marker set consists of the smallest possible number of markers which would cause the measured set to be measured; - calculating the smallest extent of each minimal marker set, wherein the smallest extent is the smallest extent among the extents in three orthogonal directions; and - selecting the minimal marker set having the smallest out of the smallest extents as a marker set without ghost markers.
A method for controlling a continuously variable transmission, the method controlling in/out of oil to/from a primary oil chamber by using an oil pump provided in an oil passage between the primary oil chamber and a secondary oil chamber, the method comprising: a current command value calculation step of calculating a current command value (I*) for the oil pump in accordance with an engine torque and a speed ratio; a pump control step of driving the oil pump by using the current command value (I*) to control a piston position of the primary oil chamber; and a current limiting step of limiting the current command value (I*) to a lower-limit current (I_lim) at which belt slip does not occur when an oil pressure in the primary oil chamber falls below a lower-limit oil pressure (Ppri_n) in the primary oil chamber at which the belt slip does not occur, wherein the current limiting step includes predicting a predicted oil pressure (Ppri_e) in the primary oil chamber when the oil pump is activated with the current command value (I*) and limiting the current command value (I*) to the lower-limit current (I_lim) when the predicted oil pressure (Ppri_e) falls below the lower-limit oil pressure (Ppri_n), and the predicted oil pressure (Ppri_e) is calculated based on an oil pressure in the secondary oil chamber and a between-before-and-after differential pressure generated before and after the oil pump in which a current of the current command value (I*) flows. a current command value calculation step of calculating a current command value (I*) for the oil pump in accordance with an engine torque and a speed ratio; a pump control step of driving the oil pump by using the current command value (I*) to control a piston position of the primary oil chamber; and a current limiting step of limiting the current command value (I*) to a lower-limit current (I_lim) at which belt slip does not occur when an oil pressure in the primary oil chamber falls below a lower-limit oil pressure (Ppri_n) in the primary oil chamber at which the belt slip does not occur, wherein the current limiting step includes predicting a predicted oil pressure (Ppri_e) in the primary oil chamber when the oil pump is activated with the current command value (I*) and limiting the current command value (I*) to the lower-limit current (I_lim) when the predicted oil pressure (Ppri_e) falls below the lower-limit oil pressure (Ppri_n), and the predicted oil pressure (Ppri_e) is calculated based on an oil pressure in the secondary oil chamber and a between-before-and-after differential pressure generated before and after the oil pump in which a current of the current command value (I*) flows.
A Koepe hoist, comprising: a friction drum, wherein at least one limit groove is formed in a circumferential direction of the friction drum, a corner formed by a side surface and a bottom surface of the limit groove has an angle of 110° to 150° and is rounded off; a main shaft device passing through the friction drum and being fixed with the friction drum; a driving device connected to the friction drum to drive the friction drum to rotate; a braking mechanism connected to the friction drum to drive the friction drum to decelerate or stop rotating; and at least one hoisting composite belt, wherein each hoisting composite belt comprises: a polymer composite layer, and a plurality of steel or fiber ropes embedded in the polymer composite layer, characterized in that each hoisting composite belt further comprises at least one positioning steel wire perpendicular to the plurality of steel or fiber ropes and fixedly connected with each of the plurality of steel or fiber ropes, wherein the at least one positioning steel wire is fixed to each steel or fiber rope in a winding manner and/or by a rope clamping. a friction drum, wherein at least one limit groove is formed in a circumferential direction of the friction drum, a corner formed by a side surface and a bottom surface of the limit groove has an angle of 110° to 150° and is rounded off; a main shaft device passing through the friction drum and being fixed with the friction drum; a driving device connected to the friction drum to drive the friction drum to rotate; a braking mechanism connected to the friction drum to drive the friction drum to decelerate or stop rotating; and at least one hoisting composite belt, wherein each hoisting composite belt comprises: a polymer composite layer, and a plurality of steel or fiber ropes embedded in the polymer composite layer, a polymer composite layer, and a plurality of steel or fiber ropes embedded in the polymer composite layer, characterized in that each hoisting composite belt further comprises at least one positioning steel wire perpendicular to the plurality of steel or fiber ropes and fixedly connected with each of the plurality of steel or fiber ropes, wherein the at least one positioning steel wire is fixed to each steel or fiber rope in a winding manner and/or by a rope clamping.
A work vehicle including an engine that is mounted on a vehicle body, a straight-traveling system transmission path including a first stepless transmission device, and a turning system transmission path including a second stepless transmission device, the work vehicle being configured to combine an output of the straight-traveling system transmission path and an output of the turning system transmission path to drive left and right traveling units, the work vehicle comprising: a control section that controls the output of the straight-traveling system transmission path and the output of the turning system transmission path in cooperation with each other; and a transmission operation tool that specifies the output of the straight-traveling system transmission path; characterized by a detector that detects the output of the straight-traveling system transmission path, wherein the control section selects one of an instruction value from the transmission operation tool and an actually measured value from the detector to set the output of the turning system transmission path. a control section that controls the output of the straight-traveling system transmission path and the output of the turning system transmission path in cooperation with each other; and a transmission operation tool that specifies the output of the straight-traveling system transmission path; a detector that detects the output of the straight-traveling system transmission path, wherein the control section selects one of an instruction value from the transmission operation tool and an actually measured value from the detector to set the output of the turning system transmission path.
A fluid management system configured to be used in a biopsy apparatus that utilizes a biopsy probe having a sample basket configured to receive a biopsy tissue sample, comprising: a vacuum source; a non-disposable vacuum path having a proximal end and a distal end, said proximal end being fixedly coupled to said vacuum source in fluid communication therewith, said non-disposable vacuum path including a first one-way valve configured and arranged to permit a negative pressure fluid flow toward said vacuum source and to prevent a positive pressure fluid flow away from said vacuum source toward said distal end of said non-disposable vacuum path; a disposable vacuum path temporarily coupled in fluid communication with said vacuum source via said non-disposable vacuum path, said disposable vacuum path having a first end and a second end, said first end being configured for removable attachment to said distal end of said non-disposable vacuum path and said second end being coupled in fluid communication with said sample basket, said disposable vacuum path including a second one-way valve configured and arranged to permit the negative pressure fluid flow toward said vacuum source from said sample basket and to redundantly prevent the positive pressure fluid flow away from said distal end of said non-disposable vacuum path toward said sample basket, a vacuum source; a non-disposable vacuum path having a proximal end and a distal end, said proximal end being fixedly coupled to said vacuum source in fluid communication therewith, said non-disposable vacuum path including a first one-way valve configured and arranged to permit a negative pressure fluid flow toward said vacuum source and to prevent a positive pressure fluid flow away from said vacuum source toward said distal end of said non-disposable vacuum path; a disposable vacuum path temporarily coupled in fluid communication with said vacuum source via said non-disposable vacuum path, said disposable vacuum path having a first end and a second end, said first end being configured for removable attachment to said distal end of said non-disposable vacuum path and said second end being coupled in fluid communication with said sample basket, said disposable vacuum path including a second one-way valve configured and arranged to permit the negative pressure fluid flow toward said vacuum source from said sample basket and to redundantly prevent the positive pressure fluid flow away from said distal end of said non-disposable vacuum path toward said sample basket,
A method for wireless communication performed by a user equipment, UE, comprising: identifying a set of transmission configuration indication, TCI, states that indicate quasi co-location, QCL, relationships between antenna ports used for communicating with a base station; receiving, from the base station, downlink control information, DCI, indicating an update to a subset of the set of TCI states, the updated subset of the set of TCI states indicating updated QCL relationships between the antenna ports used for communicating with the base station; determining whether to transmit an indication as to whether the DCI was received, the determining being based at least in part on properties associated with the subset of the set of TCI states being updated; and transmitting, to the base station, the indication as to whether the DCI was received based at least in part on the determining, or refraining from transmitting, to the base station, the indication as to whether the DCI was received based at least in part on the determining; and communicating with the base station based at least in part on the updated subset of the set of TCI states. identifying a set of transmission configuration indication, TCI, states that indicate quasi co-location, QCL, relationships between antenna ports used for communicating with a base station; receiving, from the base station, downlink control information, DCI, indicating an update to a subset of the set of TCI states, the updated subset of the set of TCI states indicating updated QCL relationships between the antenna ports used for communicating with the base station; determining whether to transmit an indication as to whether the DCI was received, the determining being based at least in part on properties associated with the subset of the set of TCI states being updated; and transmitting, to the base station, the indication as to whether the DCI was received based at least in part on the determining, or refraining from transmitting, to the base station, the indication as to whether the DCI was received based at least in part on the determining; and communicating with the base station based at least in part on the updated subset of the set of TCI states.
A method of identification of E. coli pathogenic to birds (APEC), characterized in that: a) DNA is isolated from the tested sample of biological material, b) in the sample of isolated DNA, the presence of virulence genes: iroC and hlyF and the gene encoding the serotype 078 are checked, c) the presence of at least one gene among virulence genes or the gene encoding the O78 serotype is the indicative of the APEC strain in the tested sample. a) DNA is isolated from the tested sample of biological material, b) in the sample of isolated DNA, the presence of virulence genes: iroC and hlyF and the gene encoding the serotype 078 are checked, c) the presence of at least one gene among virulence genes or the gene encoding the O78 serotype is the indicative of the APEC strain in the tested sample.
A computer-implemented method, comprising: detecting a program merge of program A and program B into code base O, wherein program A includes modifications made to code base O 116, program B includes modifications made to code base O, wherein program A, program B, and code base O differ; characterized in that it further comprises: generating an edit-aware input sequence representing similarities and/or differences between a tokenized representation of program A relative to a tokenized representation of code base O and a tokenized representation of program B relative to a tokenized representation of code base O, wherein the edit-aware input sequence is an aligned and linearized representation of a three-way merge as a single variable-length input sequence; and processing the edit-aware input sequence using a sequence-to-sequence machine learning model that translates the edit-aware input sequence into an output sequence, the output sequence representing a merge resolution that includes lines of program A, lines of program B, and/or lines of code base O without a merge conflict. generating an edit-aware input sequence representing similarities and/or differences between a tokenized representation of program A relative to a tokenized representation of code base O and a tokenized representation of program B relative to a tokenized representation of code base O, wherein the edit-aware input sequence is an aligned and linearized representation of a three-way merge as a single variable-length input sequence; and processing the edit-aware input sequence using a sequence-to-sequence machine learning model that translates the edit-aware input sequence into an output sequence, the output sequence representing a merge resolution that includes lines of program A, lines of program B, and/or lines of code base O without a merge conflict.
Machine for packaging one or more products into containers, comprising a plurality of workstations adapted to carry out a sequence of packaging steps and an intermittent-rotation carousel which comprises a plurality of gripping members for said containers and is arranged to position the containers in sequence through said workstations, wherein said carousel is arranged with a horizontal axis of rotation and the gripping members are counter-rotating in a synchronous manner relative to the carousel so as to maintain a constant orientation of the containers, preferably in a vertical position, characterized in that the carousel comprises a plurality of radially arranged arms, each of said arms bearing one of said gripping members, and wherein each of the gripping members has a body which is hinged to a respective arm of the carousel and is connected to a transmission, wherein said transmission is configured to rotate the body relative to the arm, said rotation of the body being opposite and synchronised with respect to the rotation of the carousel about its axis. wherein said carousel is arranged with a horizontal axis of rotation and the gripping members are counter-rotating in a synchronous manner relative to the carousel so as to maintain a constant orientation of the containers, preferably in a vertical position, characterized in that the carousel comprises a plurality of radially arranged arms, each of said arms bearing one of said gripping members, and wherein each of the gripping members has a body which is hinged to a respective arm of the carousel and is connected to a transmission, wherein said transmission is configured to rotate the body relative to the arm, said rotation of the body being opposite and synchronised with respect to the rotation of the carousel about its axis.
An emergency vehicle comprising: a deck (38, 138); a patient support (10, 210), such as an ambulance cot, comprising: a base; a patient support surface (50, 50a) supported by said base; an electrically powered device; a rechargeable power supply for powering said electrically powered device; characterized in that the patient support further comprises a receiving coil electrically coupled to said rechargeable power supply that is inductively coupled with a transmitting coil (18a, 20a, 218a) located in the emergency vehicle, said transmitting coil (18a, 20a, 218a) being electrically coupled to an external power supply (16, 16a) external of said patient support (10, 210) and inductively coupled with said receiving coil; said transmitting coil (18a, 20a, 218a) and said external power supply (16, 16a) being mounted in the emergency vehicle, such as an ambulance, and said transmitting coil (18a, 20a, 218a) transmitting power wirelessly to said receiving coil when said receiving coil is in close proximity to said transmitting coil (18a, 20a, 218a) and said transmitting coil (18a, 20a, 218a) is powered by said external power supply (16, 16a), wherein said receiving coil recharges said rechargeable power supply when said patient support (10, 210) is in the emergency vehicle and said receiving coil is inductively coupled to the transmitting coil (18a, 20a, 218a). a deck (38, 138); a patient support (10, 210), such as an ambulance cot, comprising: a base; a patient support surface (50, 50a) supported by said base; an electrically powered device; a rechargeable power supply for powering said electrically powered device; a base; a patient support surface (50, 50a) supported by said base; an electrically powered device; a rechargeable power supply for powering said electrically powered device; characterized in that the patient support further comprises a receiving coil electrically coupled to said rechargeable power supply that is inductively coupled with a transmitting coil (18a, 20a, 218a) located in the emergency vehicle, said transmitting coil (18a, 20a, 218a) being electrically coupled to an external power supply (16, 16a) external of said patient support (10, 210) and inductively coupled with said receiving coil;