The following DLL report was generated by automatic DLL script that scanned and loaded all DLL files in the system32 directory of Windows 7, extracted the information. Oracle Technology Network for Java Developers | Oracle Technology Network. Wikipedia"6. 4- bit" redirects here. For 6. 4- bit images in computer graphics, see Deep color. In computer architecture, 6. Also, 6. 4- bit computer architectures for central processing units (CPUs) and arithmetic logic units (ALUs) are those that are based on processor registers, address buses, or data buses of that size. From the software perspective, 6. However, not all 6. ARMv. 8, for example, support only 4. The term 6. 4- bit describes a generation of computers in which 6. CPUs, and by extension the software that runs on them. CPUs have been used in supercomputers since the 1. Cray- 1, 1. 97. 5) and in reduced instruction set computing (RISC) based workstations and servers since the early 1. MIPSR4. 00. 0, R8. In computer architecture, 64-bit computing is the use of processors that have datapath widths, integer size, and memory address widths of 64 bits (eight octets). A web site about system administration tasks. Windows, Unix, SQL, VMware, Openview, Linux resources, technical articles, tips, tricks and solutions. · Answers to frequently asked questions about the GUID Partition Table (GPT). Since the introduction of the personal computer, the data storage area on a. R1. 00. 00, the DECAlpha, the Sun. Ultra. SPARC, and the IBMRS6. POWER3 and later POWERmicroprocessors. In 2. 00. 3, 6. 4- bit CPUs were introduced to the (formerly 3. Power. PC G5; and in 2. ARM architecture targeting smartphones and tablet computers, first sold on September 2. Phone 5. S powered by the ARMv. AApple A7system on a chip (So. C). A 6. 4- bit register can store 2. The range of integer values that can be stored in 6. With the two most common representations, the range is 0 through 1. Hence, a processor with 6. With no further qualification, a 6. However, a CPU might have external data buses or address buses with different sizes from the registers, even larger (the 3. Pentium had a 6. 4- bit data bus, for instance[2]). The term may also refer to the size of low- level data types, such as 6. Architectural implications[edit]Processor registers are typically divided into several groups: integer, floating- point, single instruction, multiple data (SIMD), control, and often special registers for address arithmetic which may have various uses and names such as address, index, or base registers. However, in modern designs, these functions are often performed by more general purpose integer registers. In most processors, only integer or address- registers can be used to address data in memory; the other types of registers cannot. The size of these registers therefore normally limits the amount of directly addressable memory, even if there are registers, such as floating- point registers, that are wider. Most high performance 3. ARM architecture (ARM) and 3. MIPS architecture (MIPS) CPUs) have integrated floating point hardware, which is often, but not always, based on 6. For example, although the x. In contrast, the 6. Alpha family uses a 6. History[edit]Many computer instruction sets are designed so that a single integer register can store the memory address to any location in the computer's physical or virtual memory. Therefore, the total number of addresses to memory is often determined by the width of these registers. The IBMSystem/3. 60 of the 1. Mi. B [1. 6 × 1. 02. DECVAX, became common in the 1. Motorola 6. 80. 00 family and the 3. Intel 8. 03. 86, appeared in the mid- 1. A 3. 2- bit address register meant that 2. Gi. B of random- access memory (RAM), could be referenced. When these architectures were devised, 4 GB of memory was so far beyond the typical amounts (4 MB) in installations, that this was considered to be enough headroom for addressing. Some supercomputer architectures of the 1. Cray- 1,[3] used registers up to 6. In the mid- 1. 98. Intel i. 86. 0[4] development began culminating in a (too late[5] for Windows NT) 1. However, 3. 2 bits remained the norm until the early 1. RAM approaching 4 GB, and the use of virtual memory spaces exceeding the 4 GB ceiling became desirable for handling certain types of problems. In response, MIPS and DEC developed 6. By the mid- 1. 99. HAL Computer Systems, Sun Microsystems, IBM, Silicon Graphics, and Hewlett Packard had developed 6. A notable exception to this trend were mainframes from IBM, which then used 3. IBM mainframes did not include 6. During the 1. 99. Notably, the Nintendo 6. Play. Station 2 had 6. High- end printers, network equipment, and industrial computers, also used 6. Quantum Effect Devices. R5. 00. 0.[citation needed] 6. Apple's Macintosh lines switched to Power. PC 9. 70 processors (termed G5 by Apple), and AMD released its first 6. Limits of processors[edit]In principle, a 6. Ei. Bs (1. 6 × 1. However, not all instruction sets, and not all processors implementing those instruction sets, support a full 6. The x. 86- 6. 4 architecture (as of 2. These limits allow memory sizes of 2. Ti. B (2. 56 × 1. Pi. B (4 × 1. 02. A PC cannot currently contain 4 pebibytes of memory (due to the physical size of the memory chips), but AMD envisioned large servers, shared memory clusters, and other uses of physical address space that might approach this in the foreseeable future. Thus the 5. 2- bit physical address provides ample room for expansion while not incurring the cost of implementing full 6. Similarly, the 4. Gi. B (4 × 1. 02. The Power ISA v. 3. The Oracle SPARC Architecture 2. The ARM AArch. 64 Virtual Memory System Architecture allows 4. IBM delivers the IBM 7. Stretchsupercomputer, which uses 6. Control Data Corporation launches the CDC Star- 1. CDC systems were based on a 6. International Computers Limited launches the ICL 2. Series with 3. 2- bit, 6. The architecture has survived through a succession of ICL and Fujitsu machines. The latest is the Fujitsu Supernova, which emulates the original environment on 6. Intel processors. Cray Research delivers the first Cray- 1 supercomputer, which is based on a 6. Cray vector supercomputers. Elxsi launches the Elxsi 6. The Elxsi architecture has 6. Intel introduces the Intel i. RISC) processor. Marketed as a "6. Bit Microprocessor", it had essentially a 3. D graphics unit capable of 6. MIPS Computer Systems produces the first 6. R4. 00. 0, which implements the MIPS III architecture, the third revision of its MIPS architecture.[1. The CPU is used in SGI graphics workstations starting with the IRIS Crimson. Kendall Square Research deliver their first KSR1 supercomputer, based on a proprietary 6. RISC processor architecture running OSF/1. Digital Equipment Corporation (DEC) introduces the pure 6. Alpha architecture which was born from the Prism project.[1. Atari introduces the Atari Jaguarvideo game console, which includes some 6. Intel announces plans for the 6. IA- 6. 4 architecture (jointly developed with Hewlett- Packard) as a successor to its 3. IA- 3. 2 processors. A 1. 99. 8 to 1. 99. Sun launches a 6. SPARC processor, the Ultra. SPARC.[1. 7]Fujitsu- owned HAL Computer Systems launches workstations based on a 6. CPU, HAL's independently designed first- generation SPARC6. IBM releases the A1. A3. 0 microprocessors, the first 6. Power. PC AS processors.[1. IBM also releases a 6. AS/4. 00 system upgrade, which can convert the operating system, database and applications. Nintendo introduces the Nintendo 6. MIPS R4. 00. 0. HP releases the first implementation of its 6. PA- RISC 2. 0 architecture, the PA- 8. IBM releases the POWER3 line of full- 6. Power. PC/POWER processors.[2. Intel releases the instruction set for the IA- 6. AMD publicly discloses its set of 6. IA- 3. 2, called x. AMD6. 4). 2. 00. 0IBM ships its first 6. Architecturemainframe, the z. Series z. 90. 0. z/Architecture is a 6. ESA/3. 90 architecture, a descendant of the 3. System/3. 60 architecture. Intel ships its IA- 6. Now branded Itanium and targeting high- end servers, sales fail to meet expectations. AMD introduces its Opteron and Athlon 6. AMD6. 4 architecture which is the first x. Apple also ships the 6. G5" Power. PC 9. 70 CPU produced by IBM. Intel maintains that its Itanium chips would remain its only 6. Intel, reacting to the market success of AMD, admits it has been developing a clone of the AMD6. IA- 3. 2e (later renamed EM6. T, then yet again renamed to Intel 6. Intel ships updated versions of its Xeon and Pentium 4 processor families supporting the new 6. VIA Technologies announces the Isaiah 6. Sony, IBM, and Toshiba begin manufacturing the 6. Cell processor for use in the Play. Station 3, servers, workstations, and other appliances. Intel released Core 2 Duo as the first mainstream x. Prior 6. 4- bit extension processor lines were not widely available in the consumer retail market (most of 6. Pentium 4/D were OEM), 6. Pentium 4, Pentium D, and Celeron were not into mass production until late 2. Core 2 debuted. AMD released their first 6. ARM Holdings announces ARMv. A, the first 6. 4- bit version of the ARM architecture.[2. ARM Holdings announced their Cortex- A5. Cortex- A5. 7 cores on 3. October 2. 01. 2.[1][2. Apple announces the i. Phone 5. S, the first 6.
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