Abstract: A medical simulation system includes a biological response inputting section that receives input of biological response information indicating an actual biological response of biological body, a biological model generating section that generates a biological model for reproduction of simulated response simulating the actual biological response, a pathologic condition characteristics acquiring section that acquires pathologic condition characteristics information indicating characteristics of pathologic condition of the biological body based on the generated biological model, and an outputting section that outputs the biological response information and the pathologic condition characteristics information.

Abstract: With an object to seek parameters of a biological model corresponding to individual patients, the present invention provides a biological simulation system comprises an internal parameter set generating section which generates internal parameter sets constituting a biological model, and a biological model computing section computing output of a biological model which emulates a biological response of a biological organ based on the generated internal parameter set, wherein the internal parameter set generating section comprises a means for automatically generating a plurality of different internal parameter sets, and a selecting means which determines an approximation between a biological model output calculated applying the automatically generated internal parameter set and an actual biological response corresponding to said output and which selects an appropriate internal parameter set from a plurality of the generated internal parameter sets.

Abstract: A simulation system for simulating functions of biological organs, comprising a biological model in which the functions of the biological organs are expressed by mathematical models. The biological model comprises a hepatic metabolism model block having specified input and output relating to hepatic function for simulating the hepatic function. The system further comprises arithmetic means for calculating an output value by using measurable status variables of a liver based on input value to the hepatic metabolism model block.

Abstract: With an object to seek parameters of a biological model corresponding to individual patents, the present invention provides a biological simulation system comprises an internal parameter set generating section which generates internal parameter sets constituting a biological model, a biological model computing section computing output of a biological model which emulates a biological response of a biological organ based on the generated internal parameter set, and a template database having a plurality of combinations of a reference output value of the biological model and an internal parameter set corresponding to the reference output value, wherein the internal parameter set generating section comprises a database referring means which selects a reference output approximate to an actual biological response from said template database and which selects an internal parameter set corresponding to the selected reference output value.

Abstract: A treatment effect prediction system, comprising: a processor; and a memory, under control of the processor, including instructions enabling the processor to carry out operations comprising: determining a patient pathological condition information, which represents a feature of pathological condition of a patient, based on diagnostic data of the patient; accessing a database of stored pathological condition information and corresponding treatment effects occurring when predetermined treatment is provided; and retrieving, from the database, a specific treatment effect corresponding to the one of the stored pathological condition information that is similar to the patient pathological condition information, is disclosed. A treatment effect prediction method and a computer program product thereof are also disclosed.

Abstract: A system for computer simulation of object material concentration in a living body using a biological simulation model configured by a blocks readily corresponding to organs of a living body is provided. The functions of organs in a living body related to the object material are described using the biological simulation model to simulate the change over time in the object material concentration in a living body using a computer. The blocks are mutually linked so as to enable the transference of data among blocks. A computer-readable storage medium is also disclosed.

Abstract: A diagnostic support system for diabetes including an input device used for inputting diagnostic data including clinical testing data; a biological model having parameters and which represents a organ function related to diabetes as a numerical model; an predicting means for predicting parameter values suited for a patient based on the diagnostic data and the biological model; a pathological condition analyzing means for analyzing a diabetic pathological condition of a patient based on the parameter values predicted by the predicting means; a diagnostic support information generating means for generating diagnostic support information based on the analyzed pathological condition; and a diagnostic support information outputting means for outputting information obtained by the diagnostic support information generating means. A computer-readable storage medium is also disclosed.

Abstract: To provide a gene examination method for predicting the onset risk of glaucoma based on the relation between a glaucoma-associated gene and the onset of glaucoma, the onset of glaucoma in future is predicted by using as an indication mutations in the gene region involving the code region and/or the upstream region of a glaucoma-associated gene. In the base sequence represented by SEQ ID NO:1, mutation(s) in at least one of the following positions are detected, i.e., the 194-, 199-, 324-, 1051-, 1084-, 1627-, 1685-, 1756-, 1853-, 2830-, 3371-, 4037- and 4364-positions.

Abstract: A diagnosis support system for diabetes has: a diagnostic data input unit for entering diagnostic data including the clinical testing data and clinical findings of the patient; a pathophysiologic condition pattern analyzing unit for analyzing the pathophysiologic condition of diabetes of the patient by comparing the diagnostic data and a predetermined criteria of analysis; a diagnosis support information generating unit for generating diagnosis support information based on the diagnostic data and diagnostic criteria of determination determined by each analyzed pathophysiologic condition, and a diagnosis support information output unit for supplying information obtained by the pathophysiologic condition pattern analyzing unit and the diagnostic information generating unit.

Abstract: Future onset of glaucoma is predicted using as a marker, mutation of base(s) in a coding region of a glaucoma-related gene(OPTN gene).

Abstract: The purpose is to fix a portion of a living body, which is an object of measurement, stably without strain and to acquire accurate inspection results with good reproducibility.

Abstract: A noninvasive blood analyzer is provided which comprises: a light source for illuminating a part of tissues of a living body including a blood vessel; an image pickup section for picking up an image of the illuminated blood vessel and tissues; and an analyzing section for analyzing the picked image; the analyzing section including an extracting section for extracting image density distribution across the blood vessel in the image as an image density profile, a quantifying section for quantifying configurational characteristics of the image density profile, a computing section for computing the concentration of a blood constituent on the basis of the quantified characteristics, and an outputting section for outputting a computation result. The blood analyzer can measure the concentration of blood hemoglobin and the hematocrit in real time with an improved repeatability without blood sampling.

Abstract: A non-invasive blood analyzer includes a light source unit for irradiating a portion of a living body, the portion including a blood vessel, and includes an image capturing unit for capturing an image of the irradiated portion. An analyzing unit is included for setting an analysis region in the captured image and analyzing a blood vessel portion in the set analysis region. The image capturing unit captures images of the irradiated portion of the living body a plurality of times and the analyzing unit specifies analysis regions including the same blood vessel portions with respect to the captured images. The analyzing unit determines these regions based upon a position of a feature in sequential images and calculates at least one of blood vessel width, blood component concentration and blood component concentration ratio with respect to the blood vessel portion in each specified analysis region.

Abstract: A non-invasive blood analyzer is intended to capture images of a prescribed volume of blood in a blood vessel in a non-invasive manner and with a good contrast without collecting blood from a living body. The non-invasive blood analyzer includes a light application device for illuminating a detection region of vessels contained in a part of a living body, an image capturing device for capturing images of the detection region illuminated by the light application device, and an analyzer for analyzing blood components contained in the detection region by processing the images captured by the image capturing device. The image capturing device includes an object lens for converging the reflected light from the detection region. The light application device illuminates the detection region at an incident angle larger than an aperture angle of the object lens with respect to the detection region to provide dark-field illumination.

Abstract: An apparatus for analyzing blood includes an image capturing device for capturing an image including at least one object blood cell and an analyzer for analyzing the captured image as an image F(x, y) in an x-y coordinate system. The analyzer includes an edge calculator for calculating an edge intensity distribution E(x, y) representing an outline of the image F(x, y); a weight memory for storing in advance a weight distribution W(i, j) corresponding to an average outline of the object cell; an assessment value calculator for obtaining an assessment value C (x, y) at each point (x, y) by calculating a degree of correspondence between the edge intensity distribution E (x, y) and the weight distribution W(i, j) for each point (x, y); and an extractor for extracting a point (x, y) at which the assessment value C(x, y) is larger than a predetermined value, thereby determining that the object blood cell is present at the point (x, y). The apparatus is useful as a device for identifying the object blood cell.