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    • 1. 发明授权
    • Binary data converter
    • 二进制数据转换器
    • US5216424A
    • 1993-06-01
    • US707145
    • 1991-05-31
    • Hiroyuki KounoSumitaka TakeuchiKeisuke Okada
    • Hiroyuki KounoSumitaka TakeuchiKeisuke Okada
    • G06F7/38G06F7/48H03M7/04
    • H03M7/04G06F7/48
    • A binary data converter is adapted to convert a positive binary data into a negative binary data represented by a complement on two and vice verse. The conversion is effected as follows. A least significant bit of an inputted binary data is outputted as the least significant bit of the converted binary date as it is. With respect to bit signal other than the least significant bit, respective input bit signals less significant than the corresponding input bit signal are ORed. Depending on the result thereof, inverted or non-inverted signals of the corresponding input bit signals are outputted as the bit signals of the converted binary data. Therefore, carry delay is not generated, and thus the operation speed can be increased. Further, the simple circuit structures can reduce the number of required elements.
    • 二进制数据转换器适于将正二进制数据转换成由二进制补码表示的负二进制数据。 转换如下进行。 输入的二进制数据的最低有效位作为转换的二进制日期的最低有效位被原样输出。 对于除了最低有效位之外的位信号,相对于相应的输入位信号而言,相对于输入位信号的有效值为“或”。 根据其结果,相应的输入位信号的反相或非反转信号作为转换的二进制数据的位信号被输出。 因此,不产生进位延迟,能够提高运转速度。 此外,简单的电路结构可以减少所需元件的数量。
    • 2. 发明授权
    • A/D converter comprising encoder portion having function of multiplying
analogue input by digital input
    • A / D转换器包括具有通过数字输入将模拟输入相乘的编码器部分
    • US4903027A
    • 1990-02-20
    • US159405
    • 1988-02-11
    • Sumitaka TakeuchiKeisuke Okada
    • Sumitaka TakeuchiKeisuke Okada
    • H03M1/14G06J1/00H03M1/36
    • G06J1/00H03M1/365
    • An A/D converter of a serial-parallel comparison type has both multiplying functions of an analog input data and a digital input data. The analog input data V.sub.X is converted into a digital code I.sub.c corresponding to two more significant digits, by a first parallel comparing portion and a first determining circuit, and converted into a digital code I.sub.f corresponding to two less significant digits by a second parallel comparing portion and a second determining circuit. The digital codes I.sub.c and I.sub.f are alternately applied to a control circuit by a first selector circuit. Two more significant bits R.sub.c and two less significant bits R.sub.f of a 4-bit digital input data are respectively applied to a control signal generating circuit by a second selector circuit. Multiplications of R.sub.c I.sub.c, RfIc, R.sub.c I.sub.f and R.sub.f I.sub.f are serially performed within the time period of one conversion by the control signal generating circuit and the control circuit. The multiplied results are shifted four bits, two bits, two bits and 0 bits, respectively, and then, added to each other. As a result, the product of the analogue input data and the digital input data is calculated.
    • 并行比较型的A / D转换器具有模拟输入数据和数字输入数据的乘法功能。 通过第一并行比较部分和第一确定电路将模拟输入数据VX转换成对应于两个有效数字的数字代码Ic,并且被转换成数字代码如果对应于由第二并行比较部分的两个较低有效数字 和第二确定电路。 数字代码Ic和If由第一选择器电路交替地施加到控制电路。 4位数字输入数据的两个有效位Rc和两个较低有效位Rf由第二选择器电路分别施加到控制信号发生电路。 RcIc,RfIc,RcIf和RfIf的乘法在控制信号发生电路和控制电路的一次转换的时间段内连续执行。 相乘的结果分别移位四位,两位,两位和0位,然后相加。 结果,计算模拟输入数据和数字输入数据的乘积。
    • 6. 发明授权
    • Digital multiplier
    • 数字乘法器
    • US5253194A
    • 1993-10-12
    • US866708
    • 1992-04-10
    • Sumitaka TakeuchiKeisuke Okada
    • Sumitaka TakeuchiKeisuke Okada
    • G06F7/533G06F7/52G06F7/523G06F7/53
    • G06F7/53
    • A decode circuit decodes digital signals X1 and X0 as multiplicand to output decoded signals A0-A3. One of these decoded signals A3-A0 is set to be logic 1 in accordance with a value of a multiplicand. A logical operation circuit includes a plurality of operation circuits. Each logical operation circuit performs an independent operation for obtaining a logical value of each bit of the digital signal which is a multiplication result, based on the decoded signals A0-A3 and the digital signals R1 and R0 as a multiplier. Therefore, a result of an operation of a certain bit does not affect results of operations of other bits, so that the logical operation of each bit can be conducted without waiting termination of the logical operations of other bits, which enables high-speed multiplications.
    • 解码电路将数字信号X1和X0解码为被乘数,以输出解码信号A​​0-A3。 根据被乘数的值将这些解码信号A​​3-A0中的一个设置为逻辑1。 逻辑运算电路包括多个运算电路。 每个逻辑运算电路基于解码信号A​​0-A3和数字信号R1和R0作为乘法器执行用于获得作为乘法结果的数字信号的每个比特的逻辑值的独立操作。 因此,某位的操作结果不影响其他位的操作结果,从而可以在不等待终止其他位的逻辑运算的情况下进行每个位的逻辑运算,从而实现高速乘法运算。
    • 8. 发明申请
    • PLASMA DISPLAY PANEL
    • 等离子显示面板
    • US20110089827A1
    • 2011-04-21
    • US12991867
    • 2009-05-15
    • Hiroto YanagawaHiroyuki YamakitaKiyoshi HishimotodaniKeisuke Okada
    • Hiroto YanagawaHiroyuki YamakitaKiyoshi HishimotodaniKeisuke Okada
    • H01J17/49H01J9/24
    • H01J11/12H01J9/02H01J11/24H01J11/32H01J2211/245H01J2211/323
    • The present invention provides a PDP especially having a high definition or super high definition cell structure and realizing excellent image display performance by obtaining light-emitting efficiency as favorable as or more favorable than conventional PDPs while suppressing discharge voltage rise.Therefore, strip-shaped display electrodes 4 and 5 of a PDP 1 are respectively composed of a combination of a transparent electrode 41 and a bus electrode 42 and a combination of a transparent electrode 51 and a bus electrode 52. An electrode gap d between electrodes 41 and 51 falls in a range of 5 μm to 60 μm. A ratio of a total surface area of the electrodes 41 and 51 to a total surface area of discharge cells falls in a range of 0.6 to 0.92. Thus, a discharge start length is larger than the electrode gap d. A product of a total pressure P of a discharge gas and the electrode gap d falls in a range of 13.33 Pa·cm to 133.3 Pa·cm. The discharge gas consists of xenon of 100%. The total pressure P of the discharge gas falls in a range of 2.0 kPa to 53.3 kPa. Thus, a start point of discharge is longer than electrode gap d.
    • 本发明提供了一种特别是具有高清晰度或超高分辨率单元结构的PDP,并且通过在抑制放电电压上升的同时获得优于常规PDP的发光效率而实现优异的图像显示性能。 因此,PDP1的带状显示电极4和5分别由透明电极41和总线电极42的组合以及透明电极51和总线电极52的组合构成。电极间的电极间隙d 41和51落在5μm至60μm的范围内。 电极41和51的总表面积与放电单元的总表面积的比率落在0.6至0.92的范围内。 因此,放电开始长度大于电极间隙d。 放电气体的总压力P与电极间隙d的乘积在13.33Pa·cm〜133.3Pa·cm的范围内。 放电气体由100%的氙组成。 排出气体的总压力P在2.0kPa〜53.3kPa的范围内。 因此,放电的起始点比电极间隙d长。