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Logic-In-Control-Architecture-Based Reconfigurable VLSI Using Multiple-Valued Differential-Pair Circuits

机译:使用多值差分对电路的基于控制架构的逻辑可重构VLSI

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A fine-grain bit-serial multiple-valued reconfigurable VLSI based on logic-in-control architecture is proposed for effective use of the hardware resources. In logic-in-control architecture, the control circuits can be merged with the arithmetic/logic circuits, where the control and arithmetic/logic circuits are constructed by using one or multiple logic blocks. To implement the control circuit, only one state in a state transition diagram is allocated to one logic block, which leads to reduction of the complexity of interconnections between logic blocks. The fine-grain logic block is implemented based on multiple-valued current-mode circuit technology. In the fine-grain logic block, an arbitrary 3-variable binary function can be programmed by using one multiplexer and two universal literal circuits. Three-variable binary functions are used to implement the control circuit. Moreover, the hardware resources can be utilized to construct a bit-serial adder, because full-adder sum and carry can be realized by programming in the universal literal circuit. Therefore, the logic block can be effectively reconfigured for arithmetic/logic and control circuits. It is made clear that the hardware complexity of the control circuit in the proposed reconfigurable VLSI can be reduced in comparison with that of the control circuit based on a typically sequential circuit in the conventional FPGA and the fine-grain field-programmable VLSI reported until now.
机译:为了有效利用硬件资源,提出了一种基于控制逻辑的细粒度位串行多值可重构VLSI。在控制逻辑中,控制电路可以与算术/逻辑电路合并,其中控制和算术/逻辑电路是通过使用一个或多个逻辑块构成的。为了实现控制电路,在状态转移图中仅将一个状态分配给一个逻辑块,这导致逻辑块之间的互连的复杂性降低。细粒度逻辑块是基于多值电流模式电路技术实现的。在细粒度逻辑块中,可以通过使用一个多路复用器和两个通用文字电路来编程任意的三变量二进制函数。三变量二进制函数用于实现控制电路。此外,由于可以通过在通用文字电路中编程来实现全加法器的求和和进位,因此可以利用硬件资源来构建位串行加法器。因此,可以为算术/逻辑和控制电路有效地重新配置逻辑块。很明显,与基于常规FPGA中典型的顺序电路和迄今为止报道的细粒度现场可编程VLSI的控制电路相比,所建议的可重构VLSI中的控制电路的硬件复杂度可以降低。 。

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