Top 10 similar words or synonyms for fmul

imul    0.742979

fmad    0.737714

fmac    0.706031

fsub    0.703686

pxor    0.695116

mul    0.686580

madd    0.668860

dmul    0.653971

fdivr    0.650573

mulx    0.650088

Top 30 analogous words or synonyms for fmul

Article Example
FPS AP-120B Similarly the multiplier, a three-stage unit, required one FMUL DX,DY to begin a multiplication, followed by two more FMUL instructions to produce the result. Careful programming of the pipeline allowed the production of one result per cycle, with each calculation taking three cycles in itself.
Intel 8087 The 8087 had 45,000 transistors and was manufactured as a 3 μm depletion load HMOS circuit. It worked in tandem with the 8086 or 8088 and introduced about 60 new instructions. Most 8087 assembly mnemonics begin with F, such as FADD, FMUL, FCOM and so on, making them easily distinguishable from 8086 instructions. The binary encodings for all 8087 instructions begin with the bit pattern 11011, decimal 27, the same as the ASCII character ESC although in the higher order bits of a byte; similar instruction prefixes are also sometimes referred to as "escape codes". The instruction mnemonic assigned by Intel for these coprocessor instructions is "ESC".
X87 There are instructions to push, calculate, and pop values on top of this stack; monadic operations (FSQRT, FPTAN etc.) then implicitly address the topmost ST(0) while dyadic operations (FADD, FMUL, FCOM, etc.) implicitly address ST(0) and ST(1). The non-strict stack-model also allows dyadic operations to use ST(0) together with a direct "memory operand" or with an "explicitly" specified stack-register, ST("x"), in a role similar to a traditional accumulator (a combined destination and left operand). This can also be reversed on an instruction-by-instruction basis with ST(0) as the unmodified operand and ST("x") as the "destination". Furthermore, the contents in ST(0) can be exchanged with another stack register using an instruction called FXCH ST("x").
Intel 8087 The x87 family does not use a directly addressable register set such as the main registers of the x86 processors; instead, the x87 registers form an eight-level deep stack structure ranging from st0 to st7, where st0 is the top. The x87 instructions operate by pushing, calculating, and popping values on this stack. However, dyadic operations such as FADD, FMUL, FCMP, and so on may either "implicitly" use the topmost st0 and st1, or may use st0 together with an "explicit" memory operand or register; the st0 register may thus be used as an accumulator (i.e. as a combined destination and left operand) and can also be exchanged with any of the eight stack registers using an instruction called FXCH stX (codes D9C8..D9CF). This makes the x87 stack usable as seven freely addressable registers plus an accumulator. This is especially applicable on superscalar x86 processors (Pentium of 1993 and later) where these exchange instructions are optimized down to a zero clock penalty.