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    • 4. 发明申请
    • SIGNAL PROCESSOR AND RADIATION DETECTION DEVICE
    • 信号处理器和辐射检测装置
    • US20160377741A1
    • 2016-12-29
    • US15259835
    • 2016-09-08
    • Kabushiki Kaisha Toshiba
    • Hideyuki FUNAKIShunsuke KIMURAGo KAWATATetsuro ITAKURAMasanori FURUTA
    • G01T1/20G01R19/175
    • G01T1/2018G01R19/175G01T1/17G01T1/171
    • According to an embodiment, a signal processor includes an integrator, a differentiator, a zero cross detector, a pile-up detector, an event interval detector, a counter, and a creator. The integrator is configured to calculate charge of current from a photoelectric converter for an incident radiation. The differentiator is configured to calculate a differential value of the current. The zero cross detector is configured to detect a zero cross of the differential value. The pile-up detector is configured to detect pile-up of the current based on the zero cross. The event interval detector is configured to detect, based on the zero cross and pile-up, an event interval of the radiation entering. The counter is configured to count, based on the charge and pile-up, the respective numbers of events according to the charge and the event interval. The creator is configured to create histograms for the numbers of events.
    • 根据实施例,信号处理器包括积分器,微分器,零交叉检测器,堆积检测器,事件间隔检测器,计数器和创建器。 积分器被配置为从入射辐射的光电转换器计算电流的电荷。 微分器被配置为计算电流的微分值。 零交叉检测器被配置为检测差分值的零交叉。 堆积检测器被配置为基于零交叉检测电流的堆积。 事件间隔检测器被配置为基于零交叉和堆积检测辐射进入的事件间隔。 该计数器被配置为根据费用和事件间隔根据收费和堆积来计算各个事件的数量。 创建者被配置为为事件数创建直方图。
    • 8. 发明申请
    • RADIATION DETECTOR, RADIATION DETECTION APPARATUS, AND METHOD OF MANUFACTURING RADIATION DETECTOR
    • 辐射检测器,辐射检测装置和制造辐射探测器的方法
    • US20160349382A1
    • 2016-12-01
    • US15156586
    • 2016-05-17
    • KABUSHIKI KAISHA TOSHIBA
    • Yasuharu HOSONOKazunori MIYAZAKIGo KAWATAMitsuyoshi KOBAYASHIRei HASEGAWA
    • G01T1/20G01N23/04
    • G01T1/2018G01T1/2002
    • A method of manufacturing a radiation detector according to an embodiment includes: forming a plurality of scintillator array columns, each of the scintillator array columns being formed by preparing a scintillator member that a thickness being smaller than a length and a width, the scintillator member having a first face, a second face, a third face, and a fourth face, and being cut from the third face along the second direction to form at least a groove that penetrates from the first face to the second face but does not reach the fourth face to have an uncut portion near the fourth face; stacking the scintillator array columns in the first direction with a space between each of adjacent two scintillator array columns, and filling a spacer material into the space; inserting a reflector into each space and each groove; and cutting the uncut portion.
    • 根据实施例的制造放射线检测器的方法包括:形成多个闪烁体阵列,每个闪烁体阵列列通过制备厚度小于长度和宽度的闪烁体构件形成,所述闪烁体阵列具有 第一面,第二面,第三面和第四面,并且沿着第二方向从第三面切割成至少一个从第一面到第二面的第二面,但不到达第四面的凹槽 在第四面附近具有未切割部分; 将闪烁体阵列列沿着第一方向堆叠,并在每个相邻的两个闪烁体阵列之间具有间隔,并将间隔物填充到该空间中; 将反射器插入每个空间和每个凹槽中; 并切割未切割部分。
    • 9. 发明申请
    • RADIATION DETECTION DEVICE, RADIATION DETECTION METHOD, AND COMPUTER PROGRAM PRODUCT
    • 辐射检测装置,辐射检测方法和计算机程序产品
    • US20160231441A1
    • 2016-08-11
    • US14963805
    • 2015-12-09
    • KABUSHIKI KAISHA TOSHIBA
    • Keiko FUJIIGo KAWATAYasuharu HOSONOKazunori MIYAZAKIRei HASEGAWA
    • G01T7/00G01T1/36
    • G01T7/005G01T1/2018G01T1/362
    • According to an embodiment, a radiation detection device includes a scintillator layer, a plurality of detectors, a setting unit, an identifier, and a corrector. The scintillator layer is configured to convert radiation into scintillation light. The detectors are arranged along a first surface facing the scintillator layer to detect light. The setting unit is configured to set one of the detectors as a first detector to be corrected. The identifier is configured to identify, out of the detectors, a second detector that detects a synchronization signal synchronizing with a first signal detected by the first detector. The corrector is configured to correct an energy spectrum of light detected by the first detector on the basis of a second signal serving as the synchronization signal in signals detected by the second detector, the first signal, and characteristic X-ray energy of a scintillator raw material constituting the scintillator layer.
    • 根据实施例,放射线检测装置包括闪烁体层,多个检测器,设置单元,标识符和校正器。 闪烁体层被配置为将辐射转换成闪烁光。 检测器沿着面向闪烁体层的第一表面布置以检测光。 设置单元被配置为将一个检测器设置为要校正的第一检测器。 标识符被配置为在检测器之外识别检测与由第一检测器检测到的第一信号同步的同步信号的第二检测器。 校正器被配置为基于由第二检测器检测的信号中的同步信号的第二信号,第一信号和闪烁器原始的特征X射线能量来校正由第一检测器检测到的光的能谱 构成闪烁体层的材料。
    • 10. 发明申请
    • INTEGRATION CIRCUIT
    • 集成电路
    • US20150349753A1
    • 2015-12-03
    • US14720640
    • 2015-05-22
    • KABUSHIKI KAISHA TOSHIBA
    • Tetsuro ITAKURAMasanori FURUTAShunsuke KIMURAHideyuki FUNAKIGo KAWATA
    • H03K3/012
    • G06G7/184H03K4/502H03M1/00H03M1/38H03M1/52
    • An integration circuit according to one embodiment includes a first capacitance element, a capacitance circuit, a comparison circuit, a memory circuit and an operation circuit. The first capacitance element receives a current signal. The capacitance circuit includes a first switch and a second capacitance element, and is connected in parallel to the first capacitance element. The second capacitance element receives a current signal via the first switch. The comparison circuit compares a voltage of the first capacitance element with a reference voltage to obtain a comparison result. The memory circuit stores the comparison result, and opens or closes the first switch based on the comparison result. The operation circuit outputs a residual signal based on a difference between the integrated value obtained by the first capacitance element and the second capacitance element and a value based on the comparison result.
    • 根据一个实施例的积分电路包括第一电容元件,电容电路,比较电路,存储器电路和操作电路。 第一电容元件接收电流信号。 电容电路包括第一开关和第二电容元件,并且并联连接到第一电容元件。 第二电容元件经由第一开关接收电流信号。 比较电路将第一电容元件的电压与参考电压进行比较,以获得比较结果。 存储电路存储比较结果,并且基于比较结果来打开或关闭第一开关。 操作电路基于由第一电容元件获得的积分值与第二电容元件之间的差值和基于比较结果的值输出残差信号。