Abstract: A state control method includes detecting an operation execution event used for requesting to operate on a first object in a first application. The method also includes determining whether a next node of a current node of the first object in a hybrid state machine is a first state node or a first behavior-tree node. Nodes in the hybrid state machine includes at least a state node and a behavior-tree node, and a state change relationship exists among the nodes in the hybrid state machine. The method further includes, when it is determined that the next node is the first state node, performing on the first object an operation in a first state corresponding to the first state node; and, when it is determined that the next node is the first behavior-tree node, performing on the first object an operation in a first behavior-tree corresponding to the first behavior-tree node.

Abstract: The present disclosure discloses a method and an apparatus for distinguishing objects. The method includes: obtaining a plurality of object groups displayed in an image, each object group including at least one target object, and a same resource being configured for target objects in different object groups; setting different mark values for the plurality of object groups, target objects in a same object group having a same mark value; and separately performing pixel correction on pixels of the target objects in each object group according to the mark value of each object group, pixels of the target objects having different mark values being corrected to have different display attributes.

Abstract: A method of spatially imaging a nuclear magnetic resonance (NMR)parameter whose measurement requires the acquisition of spatially localized NMR signals in a sample includes placing the sample in an MRI apparatus with a plurality of MRI detectors each having a spatial sensitivity map; and applying MRI sequences adjusted to be sensitive to the NMR parameter. At least one of the MRI sequences is adjusted so as to substantially fully sample an image k-space of the sample. The remainder of the MRI sequences is adjusted to under-sample the image k-space. The method further includes acquiring image k-space NMR signal datasets; estimating a sensitivity map of each of the MRI detectors using a strategy to suppress unfolding artefacts; and applying the estimated sensitivity maps to at least one of the image k-space NMR signal data sets to reconstruct a spatial image of NMR signals that are sensitive to the NMR parameter.

Abstract: A method of spatially imaging a nuclear magnetic resonance (NMR)parameter whose measurement requires the acquisition of spatially localized NMR signals in a sample includes placing the sample in an MRI apparatus with a plurality of MRI detectors each having a spatial sensitivity map; and applying MRI sequences adjusted to be sensitive to the NMR parameter. At least one of the MRI sequences is adjusted so as to substantially fully sample an image k-space of the sample. The remainder of the MRI sequences is adjusted to under-sample the image k-space. The method further includes acquiring image k-space NMR signal datasets; estimating a sensitivity map of each of the MRI detectors using a strategy to suppress unfolding artefacts; and applying the estimated sensitivity maps to at least one of the image k-space NMR signal data sets to reconstruct a spatial image of NMR signals that are sensitive to the NMR parameter.

Abstract: A state control method includes detecting an operation execution event used for requesting to operate on a first object in a first application. The method also includes determining whether a next node of a current node of the first object in a hybrid state machine is a first state node or a first behavior-tree node. Nodes in the hybrid state machine includes at least a state node and a behavior-tree node, and a state change relationship exists among the nodes in the hybrid state machine. The method further includes, when it is determined that the next node is the first state node, performing on the first object an operation in a first state corresponding to the first state node; and, when it is determined that the next node is the first behavior-tree node, performing on the first object an operation in a first behavior-tree corresponding to the first behavior-tree node.

Abstract: An NMR method and system for acquiring and reconstructing a value of an NMR parameter spatially localized to a compartment of interest including performing a first MM of a portion of a sample with a first MRI pulse sequence using the NMR system and using a set of k-space spatial encoding gradients or coil sensitivity encoding maps to obtain a first magnetic resonance image to identify a compartment of interest; generating a second MRI pulse sequence that encodes the NMR parameter with a subset of the set of k-space spatial encoding gradients or the coil sensitivity encoding maps; applying the second MRI pulse sequence using the NMR system to acquire spatial information relating to the NMR parameter from the compartment of interest; segmenting the first magnetic resonance image into a plurality of compartments that includes the compartment of interest; and reconstructing a value of the NMR parameter in the compartment.

Abstract: The present disclosure discloses a method and an apparatus for distinguishing objects. The method includes: obtaining a plurality of object groups displayed in an image, each object group including at least one target object, and a same resource being configured for target objects in different object groups; setting different mark values for the plurality of object groups, target objects in a same object group having a same mark value; and separately performing pixel correction on pixels of the target objects in each object group according to the mark value of each object group, pixels of the target objects having different mark values being corrected to have different display attributes.

Abstract: An NMR method and system for acquiring and reconstructing a value of an NMR parameter spatially localized to a compartment of interest including performing a first MM of a portion of a sample with a first MRI pulse sequence using the NMR system and using a set of k-space spatial encoding gradients or coil sensitivity encoding maps to obtain a first magnetic resonance image to identify a compartment of interest; generating a second MRI pulse sequence that encodes the NMR parameter with a subset of the set of k-space spatial encoding gradients or the coil sensitivity encoding maps; applying the second MRI pulse sequence using the NMR system to acquire spatial information relating to the NMR parameter from the compartment of interest; segmenting the first magnetic resonance image into a plurality of compartments that includes the compartment of interest; and reconstructing a value of the NMR parameter in the compartment.

Abstract: Disclosed is a test paper for detection of diabetic nephropathy, which includes a water-absorbing filter paper, a glass fiber membrane and a NC membrane, all of which are stacked successively from top to bottom. The test paper has a T1 testing region, a T2 testing region and a T3 reference region arranged along a transverse direction; the NC membrane is coated by urinary microalbumin antibodies in the T1 testing region, is coated by urinary haptoglobin antibodies in the T2 testing region and is coated by mouse anti-human IgG antibodies in the T3 reference region; and the glass fiber membrane is coated by urinary microalbumin labeled with colloidal gold in the T1 testing region, is coated by urinary haptoglobin labeled with colloidal gold in the T2 testing region and is coated by mouse anti-human IgG albumen labeled with colloidal gold in the T3 reference region.

Abstract: A magnetic resonance method for imaging blood volume in parenchyma via magnetic transfer (MT) includes: determining a MT effect of parenchyma; determining a MT effect of tissue; and quantifying the parenchymal blood volume using the difference between the MT effect of parenchyma and the MT effect of tissue. In one embodiment, the parenchymal blood volume is quantified through the following: MTRpar=MTRtissue(1?BV/Vpar), where MTRpar is the magnetization transfer ratio of parenchyma, MTRtissue is the magnetization transfer ratio of tissue, BV is the blood volume, and Vpar is a total parenchymal water volume.

Abstract: A magnetic resonance method for imaging blood volume in parenchyma via magnetic transfer (MT) includes: determining a MT effect of parenchyma; determining a MT effect of tissue; and quantifying the parenchymal blood volume using the difference between the MT effect of parenchyma and the MT effect of tissue. In one embodiment, the parenchymal blood volume is quantified through the following: MTRpar=MTRtissue(1?BV/Vpar), where MTRpar is the magnetization transfer ratio of parenchyma, MTRtissue is the magnetization transfer ratio of tissue, BV is the blood volume, and Vpar is a total parenchymal water volume.

Abstract: Featured is an MRI/NMR methodology or process to detect amide protons of endogenous mobile proteins and peptides via the water signal. Such methods and processes can be used for the purposes of detection of pH effects and labile amide proton content of mobile proteins/peptides or content changes thereto using MRI Also featured are methods whereby assessment of determined pH effects and amide proton content or content changes and related mobile protein and/or peptide content or content changes can be used in connection with diagnosis, program and treatment of brain related disorders and diseases, cardiac disorders and diseases, and cancer and to use such methods for monitoring, detecting and assessing protein and peptide content in vivo and pathologically for any of a number of diseases or disorders of a human body, including but not limited to cancers, ischemia, Alzheimers and Parkinsons.

Abstract: Featured is an MRI/NMR methodology or process to detect amide protons of endogenous mobile proteins and peptides via the water signal. Such methods and processes can be used for the purposes of detection of pH effects and amide proton content or content changes and related mobile protein and peptide content or content changes using MR imaging. Also featured are methods whereby assessment of determined pH effects and amide proton content or content changes and related mobile protein and/or peptide content or content changes can be used in connection with diagnosis, program and treatment of brain related disorders and diseases, cardiac disorders and diseases, and cancer and to use such methods for monitoring, detecting and assessing protein and peptide content in vivo and pathologically for any of a number of diseases or disorders of a human body, including but not limited to cancers, ischemia, Alzheimers and Parkinsons.