M. Kameyama, Takao Matsumoto, Hideki Egami, T. Higuchi
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引用次数: 7
摘要
提出了一种用于高速逆运动学计算的大规模集成电路。他们证明了逆运动学解可以用二维矢量旋转和弧切运算来描述,并且这些运算可以通过坐标旋转数字计算机(CORDIC)算法有效地计算出来。该芯片采用1.5 μ m CMOS门阵列技术制作,芯片上的运算单元设计基于CORDIC算法。处理机充分采用流水线,使处理率提高到100%。由此产生的紧凑的逆运动学处理器由上述芯片和一些存储程序和数据的芯片组成。该处理器可用于各种机械手
Implementation of a high performance LSI for inverse kinematics computation
The authors present an LSI (large-scale integrated) circuit for high-speed inverse kinematics computation. They demonstrate that inverse kinematic solutions can be described by two-dimensional vector rotations and arc tangent operations and that these operations can be efficiently computed by the coordinate rotation digital computer (CORDIC) algorithms. The chip is fabricated using 1.5- mu m CMOS gate array technology, and the design of the arithmetic unit on the chip is based on the CORDIC algorithms. Pipelining is fully used in the processor to enhance the operating ration up to 100%. The resulting compact inverse kinematics processor is composed of the above chip and a few memory chips for program and data. The processor can be used for various kinds of manipulators.<>