The early MIPS V architectures were 32-bit; 64-bit versions were developed later.
| FactSnippet No. 1,665,731 |
The early MIPS V architectures were 32-bit; 64-bit versions were developed later.
| FactSnippet No. 1,665,731 |
In March 2021, MIPS V announced that the development of the MIPS V architecture had ended as the company is making the transition to RISC-V.
| FactSnippet No. 1,665,732 |
MIPS V III was eventually implemented by a number of embedded microprocessors.
| FactSnippet No. 1,665,733 |
MIPS V was completed by the integer-only MDMX extension to provide a complete system for improving the performance of 3D graphics applications.
| FactSnippet No. 1,665,734 |
When MIPS V Technologies was spun-out of Silicon Graphics in 1998, it refocused on the embedded market.
| FactSnippet No. 1,665,735 |
MIPS V is a modular architecture supporting up to four coprocessors.
| FactSnippet No. 1,665,738 |
MIPS V I has instructions that load and store 8-bit bytes, 16-bit halfwords, and 32-bit words.
| FactSnippet No. 1,665,739 |
Since MIPS V I is a 32-bit architecture, loading quantities fewer than 32 bits requires the datum to be either sign-extended or zero-extended to 32 bits.
| FactSnippet No. 1,665,740 |
MIPS V I requires all memory accesses to be aligned to their natural word boundaries, otherwise an exception is signaled.
| FactSnippet No. 1,665,741 |
MIPS V I has instructions to perform bitwise logical AND, OR, XOR, and NOR.
| FactSnippet No. 1,665,742 |
MIPS V I has instructions to perform left and right logical shifts and right arithmetic shifts.
| FactSnippet No. 1,665,743 |
MIPS V I has instructions for signed and unsigned integer multiplication and division.
| FactSnippet No. 1,665,744 |
MIPS V I has two instructions for software to signal an exception: System Call and Breakpoint.
| FactSnippet No. 1,665,745 |
MIPS V II removed the load delay slot and added several sets of instructions.
| FactSnippet No. 1,665,746 |
MIPS V III is a backwards-compatible extension of MIPS V II that added support for 64-bit memory addressing and integer operations.
| FactSnippet No. 1,665,747 |
MIPS V III added a supervisor privilege level in between the existing kernel and user privilege levels.
| FactSnippet No. 1,665,748 |
MIPS V III removed the Coprocessor 3 support instructions, and reused its opcodes for the new doubleword instructions.
| FactSnippet No. 1,665,749 |
MIPS V IV was designed to mainly improve floating-point performance.
| FactSnippet No. 1,665,750 |
MIPS V IV added several new FP arithmetic instructions for both single- and double-precision FPNs: fused-multiply add or subtract, reciprocal, and reciprocal square-root.
| FactSnippet No. 1,665,751 |
MIPS V added a new data type, the Paired Single, which consisted of two single-precision floating-point numbers stored in the existing 64-bit floating-point registers.
| FactSnippet No. 1,665,752 |
MIPS V has had several calling conventions, especially on the 32-bit platform.
| FactSnippet No. 1,665,753 |
MIPS V EABI is supported by GCC but not LLVM, and neither supports NUBI.
| FactSnippet No. 1,665,754 |
MIPS V processors are used in embedded systems such as residential gateways and routers.
| FactSnippet No. 1,665,755 |
MIPS V processors used to be popular in supercomputers during the 1990s, but all such systems have dropped off the TOP500 list.
| FactSnippet No. 1,665,756 |
Sample MIPS V-based platforms include both bare metal environments and platforms for booting unmodified Linux binary images.
| FactSnippet No. 1,665,757 |
MARS is another GUI-based MIPS V emulator designed for use in education, specifically for use with Hennessy's Computer Organization and Design.
| FactSnippet No. 1,665,758 |
WebMIPS V is a browser-based MIPS V simulator with visual representation of a generic, pipelined processor.
| FactSnippet No. 1,665,759 |