[[abstract]]In recent years, computer applications have increased in the computational complexity. The speed requirement forces designers of general-purpose microprocessors to pay particular attention to implement the floating point unit (FPU). Anew floating-point division architecture that complies with the IEEE 754-1985 standard is proposed in this paper. This architecture is based on the New Svoboda-Tung (NST) division algorithm and radix-8MROR (maximally redundant optimally recoded) signed digit number system. In NST division, the dividend and divisor must be prescaled. For the divider implementation, a signed digit adder with carry free characteristic is proposed for addition and subtraction, and this adder can improve the cycle time s...
Includes bibliographical references (page 143)This project details the theory and hardware implement...
A new implementation for minimally redundant radix-4 SRT division with the recurrence in the signed-...
ISBN: 0818669055The digit-recurrence division relies on a sequence of addition/subtraction and shift...
[[abstract]]A new floating-point division architecture that complies with the IEEE 754-1985 standard...
[[abstract]]A novel floating-point division architecture with IEEE 754-1985 standard is proposed in ...
Almost all recent microprocessors and DSP chips perform addition, subtraction, multiplication and di...
We present a radix-8 divider that uses an over-redundant digit set for the quotient in order to obta...
[[abstract]]A carry-free subtractive division algorithm is proposed in this paper. In the convention...
ISBN: 0818669055The development of a new general radix-b division algorithm, based on the Svoboda-Tu...
The speed of SRT-type dividers is mainly determined by the complexity of the quotient-digit selectio...
The paper presents a general theory for developing new Svoboda-Tung (or simply NST) division algorit...
The speed of a divider based on a digit-recurrence algorithm depends mainly on the latency of the qu...
Abstract: The hardware organization of the high-radix SRT division is categorized into two classes w...
This paper presents the design of a radix-4, 32-bit integer divider which uses a recursive, non-rest...
A new implementation for minimally redundant radix-4 SRT division with the recurrence in the signed-...
Includes bibliographical references (page 143)This project details the theory and hardware implement...
A new implementation for minimally redundant radix-4 SRT division with the recurrence in the signed-...
ISBN: 0818669055The digit-recurrence division relies on a sequence of addition/subtraction and shift...
[[abstract]]A new floating-point division architecture that complies with the IEEE 754-1985 standard...
[[abstract]]A novel floating-point division architecture with IEEE 754-1985 standard is proposed in ...
Almost all recent microprocessors and DSP chips perform addition, subtraction, multiplication and di...
We present a radix-8 divider that uses an over-redundant digit set for the quotient in order to obta...
[[abstract]]A carry-free subtractive division algorithm is proposed in this paper. In the convention...
ISBN: 0818669055The development of a new general radix-b division algorithm, based on the Svoboda-Tu...
The speed of SRT-type dividers is mainly determined by the complexity of the quotient-digit selectio...
The paper presents a general theory for developing new Svoboda-Tung (or simply NST) division algorit...
The speed of a divider based on a digit-recurrence algorithm depends mainly on the latency of the qu...
Abstract: The hardware organization of the high-radix SRT division is categorized into two classes w...
This paper presents the design of a radix-4, 32-bit integer divider which uses a recursive, non-rest...
A new implementation for minimally redundant radix-4 SRT division with the recurrence in the signed-...
Includes bibliographical references (page 143)This project details the theory and hardware implement...
A new implementation for minimally redundant radix-4 SRT division with the recurrence in the signed-...
ISBN: 0818669055The digit-recurrence division relies on a sequence of addition/subtraction and shift...