Abstract: A non-invasive body information measurement apparatus, in which a blood glucose level is corrected using a blood glucose level measured with an invasive blood glucose measurement apparatus, wherein in a calibration period, measurement of body information is performed at a plurality of luminous energy levels, a plurality of estimated blood glucose levels are calculated from a plurality of characteristic quantities calculated at the various luminous energy levels and from blood glucose levels measured with an invasive blood glucose measurement apparatus, and at the end of the calibration period, the blood glucose levels measured with the invasive blood glucose measurement apparatus are compared with a plurality of estimated blood glucose levels, and in a normal measurement period a light source is controlled so that measurement is performed at a luminous energy level corresponding to the estimated blood glucose level that satisfies the targeted accuracy.

Abstract: A blood glucose measurement system in which a blood glucose level measured with an invasive blood glucose measurement apparatus 101 is used to calibrate a blood glucose level measured with a non-invasive blood glucose measurement apparatus 102, comprising a controller that outputs an invasive actuation signal that starts the detection of a characteristic quantity in the body with the invasive blood glucose measurement apparatus, and a blood sampling component for collecting blood from the body on the basis of the invasive actuation signal, wherein measurement with the invasive blood glucose measurement apparatus is begun when the amount of change in the estimated blood glucose level has reached or exceeded a non-invasive blood glucose threshold.

Abstract: A non-invasive body information measurement apparatus, in which a blood glucose level is corrected using a blood glucose level measured with an invasive blood glucose measurement apparatus, wherein in a calibration period, measurement of body information is performed at a plurality of luminous energy levels, a plurality of estimated blood glucose levels are calculated from a plurality of characteristic quantities calculated at the various luminous energy levels and from blood glucose levels measured with an invasive blood glucose measurement apparatus, and at the end of the calibration period, the blood glucose levels measured with the invasive blood glucose measurement apparatus are compared with a plurality of estimated blood glucose levels, and in a normal measurement period a light source is controlled so that measurement is performed at a luminous energy level corresponding to the estimated blood glucose level that satisfies the targeted accuracy.

Abstract: A blood glucose measurement system in which a blood glucose level measured with an invasive blood glucose measurement apparatus 101 is used to calibrate a blood glucose level measured with a non-invasive blood glucose measurement apparatus 102, comprising a controller that outputs an invasive actuation signal that starts the detection of a characteristic quantity in the body with the invasive blood glucose measurement apparatus, and a blood sampling component for collecting blood from the body on the basis of the invasive actuation signal, wherein measurement with the invasive blood glucose measurement apparatus is begun when the amount of change in the estimated blood glucose level has reached or exceeded a non-invasive blood glucose threshold.

Abstract: It is an object of the present invention to provide a memory controller which prevents successive access to the same bank of SDRAM and improves processing time. A memory controller (105) of the present invention is a memory controller for controlling memory which has a plurality of banks and can make successive access in bank split mode. The memory controller (105) controls the priority of a plurality of blocks in such a way that memory access requests from blocks (804, 805, and 806), which make access to SDRAM (808) via the memory controller (105), are caused to access the different banks of the SDRAM (808).