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|Transistors||36M 150nm (RV250)|
36M 150nm (RV280)
60M 150nm (RV200)
60M 150nm (R200)
|Entry-level||9200 SE, 9250|
Shader Model 1.4
|Predecessor||Radeon 7000 series|
|Successor||Radeon 9000 series|
Radeon X300 series
Radeon X500 series
Radeon X600 series
|CPU supported||Pentium M, Pentium 4-M|
|Socket supported||Socket 478, Socket 479|
|Desktop / mobile chipsets|
|Performance segment||9100 Pro IGP|
|Mainstream segment||9000/9100 IGP|
|Value segment||9000 Pro IGP|
|Release date(s)||June 23, 2003|
May 5, 2004 (9000/9100 Pro IGP)
|Predecessor||Radeon R100 series|
|Successor||Radeon R300 series|
The R200 is the second generation of GPUs used in Radeon graphics cards and developed by ATI Technologies. This GPU features 3D acceleration based upon Microsoft Direct3D 8.1 and OpenGL 1.3, a major improvement in features and performance compared to the preceding Radeon R100 design. The GPU also includes 2D GUI acceleration, video acceleration, and multiple display outputs. 'R200' refers to the development codename of the initially released GPU of the generation. It is the basis for a variety of other succeeding products.
R200's 3D hardware consists of 4 pixel pipelines, each with 2 texture sampling units. It has 2 vertex shader units and a legacy Direct3D 7 TCL unit, marketed as Charisma Engine II. It is ATI's first GPU with programmable pixel and vertex processors, called Pixel Tapestry II and compliant with Direct3D 8.1. R200 has advanced memory bandwidth saving and overdraw reduction hardware called HyperZ II that consists of occlusion culling (hierarchical Z), fast z-buffer clear, and z-buffer compression. The GPU is capable of dual display output (HydraVision) and is equipped with a video decoding engine (Video Immersion II) with adaptive hardware deinterlacing, temporal filtering, motion compensation, and iDCT.
Royal R200 Software Free
R200 introduced pixel shader version 1.4 (PS1.4), a significant enhancement to prior PS1.x specifications. Notable instructions include 'phase', 'texcrd', and 'texld'. The phase instruction allows a shader program to operate on two separate 'phases' (2 passes through the hardware), effectively doubling the maximum number of texture addressing and arithmetic instructions, and potentially allowing the number of passes required for an effect to be reduced. This allows not only more complicated effects, but can also provide a speed boost by utilizing the hardware more efficiently. The 'texcrd' instruction moves the texture coordinate values of a texture into the destination register, while the 'texld' instruction will load the texture at the coordinates specified in the source register to the destination register.
Compared to R100's 2x3 pixel pipeline architecture, R200's 4x2 design is more robust despite losing one texture unit per pipeline. Each pipeline can now address a total of 6 texture layers per pass. Free instant play games online. The chip achieves this by using a method known as 'loop-back'. Increasing the number of textures accessed per pass reduces the number of times the card is forced into multi-pass rendering.
The texture filtering capabilities of R200 are also improved over its predecessor. For anisotropic filtering, Radeon 8500 uses a technique similar to that used in R100, but improved with trilinear filtering and some other refinements. However, it is still highly angle-dependent and the driver sometimes forces bilinear filtering for speed. NVIDIA's GeForce4 Ti series offered a more accurate anisotropic implementation, but with a greater performance impact.
R200 has ATI's first implementation of a hardware-accelerated tessellation engine (a.k.a. higher order surfaces), called Truform, which can automatically increase the geometric complexity of 3D models. The technology requires developer support and is not practical for all scenarios. It can undesirably round-out models. As a result of very limited adoption, ATI dropped TruForm support from its future hardware.
Pixel Shader 1.1
Pixel Shader 1.4
|Max. Texture Inputs||4||6|
|Max. Program Length||12 instructions|
(up to 4 texture sampling, 8 color blending)
(up to 6 texture sampling, 8 texture addressing, 8 color blending)
|Instruction Set||13 address operations, 8 color operations||12 address / color operations|
|Texture Addressing Modes||40||virtually unlimited|
Radeon 8500's biggest initial disappointment was its early driver releases. At launch, the card's performance was below expectations and it had numerous software flaws that caused problems with games. The chip's anti-aliasing support was only functional in Direct3D and was very slow. To dampen excitement for 8500, competitor nVidia released their Detonator4 driver package on the same day as most web sites previewed the Radeon 8500. nVidia's drivers were of better quality, and they also further boosted the GeForce3's performance.
Several hardware review sites noted anomalies in actual game tests with the Radeon 8500. For example, ATI was detecting the executable 'Quake3.exe' and forcing the texture filtering quality to a much lower level than normally produced by the card, presumably in order to improve performance. HardOCP was the first hardware review web site to bring the issue to the community, and proved its existence by renaming all instances of 'Quake' in the executable to 'Quack.' The result was improved image quality, but lower performance.
Royal R200 Software Update
However, even with the Detonator4 drivers, the Radeon 8500 was able to outperform the GeForce3 (which the 8500 was intended to compete against) and in some circumstances its faster revision, the Ti500, the higher clocked derivative Nvidia had rolled out in response to the R200 project. Later, driver updates helped to further close the performance gap between the 8500 and the Ti500, while the 8500 was also significantly less expensive and offered additional multimedia features such as dual-monitor support. Though the GeForce3 Ti200 did become the first DirectX 8.0 card to offer 128 MiB of video memory, instead of the common 64 MiB norm for high-end cards of the time, it turned out that the GeForce3's limitations prevented it from taking full advantage of it, while the Radeon 8500 was able to more successfully exploit that potential.
In early 2002, to compete with the cheaper GeForce3 Ti200 and GeForce4 MX 460, ATI launched the slower-clocked 8500 LE (later re-released as the 9100) which became popular with OEMs and enthusiasts due to its lower price, and overclockability to 8500 levels. Though the GeForce4 Ti4600 took the performance crown, it was a top line solution that was priced almost double that of the Radeon 8500 (MSRP of $350–399 versus US$199), so it didn't offer direct competition. With the delayed release of the potentially competitive GeForce4 Ti4200, plus ATI's initiative in rolling out 128 MiB versions of the 8500/LE kept the R200 line popular among the mid-high performance niche market. The greater features of the All-In-Wonder (AIW) Radeon 8500 DV and the AIW Radeon 8500 128 MB proved superior to Nvidia's Personal Cinema equivalents which used the faster GeForce 3 Ti500 and GeForce4 Ti4200.
Over the years the dominant market position of GeForce 3/4 meant that not many games targeted the superior DX8.1 PS 1.4 feature level of the R200, but those that did could see significant performance gains over DX8, as certain operations could be processed in one instead of multiple passes. In these cases the Radeon 8500 may even compete with the newer GeForce4 series running a DX8 codepath. An example for such a game with multiple codepaths is Half-Life 2.
Radeon 8500 came with support for TruForm, an early implementation of Tessellation.
Radeon 8500/8500 LE/9100
ATI's first R200-based card was the Radeon 8500, launched in October 2001. In early 2002, ATI launched the Radeon 8500 LE (re-released later as the Radeon 9100), an identical chip with a lower clock speed and slower memory. Whereas the full 8500 was clocked at 275 MHz core and 275 MHz RAM, the 8500LE was clocked more conservatively at 250 MHz for the core and 200 or 250 MHz for the RAM. Both video cards were first released in 64 MBDDR SDRAM configurations; the later 128 MB Radeon 8500 boards received a small performance boost resulting from a memory interleave mode.
In November 2001 was the release of the All-In-Wonder Radeon 8500 DV, with 64 MB and a slower clock speed like the 8500 LE. In 2002, three 128 MB cards were rolled out, the Radeon 8500, 8500 LE, and the All-In-Wonder Radeon 8500 128 MB, which was clocked at full 8500 speeds but had fewer video-related features than the AIW 8500 DV. ATI claimed that the lower clock speed for the 8500DV was due to the FireWire interface.
In late 2002, the Radeon 9100 was announced to satisfy strong market demand for products based on the R200 architecture.
Radeon 8500 XT (canceled)
An updated chip, the Radeon 8500 XT (R250) was planned for a mid-2002 release, to compete against the GeForce4 Ti line, particularly the top line Ti4600 (which retailed for an MSRP of $350–399 USD). Prerelease information touted a 300 MHz core and RAM clock speed for the 'R250' chip.
A Radeon 8500 running at 300 MHz clock speeds would have hardly defeated the GeForce4 Ti4600, let alone a newer card from NVIDIA. At best it could have been a better performing mid-range solution than the lower-complexity Radeon 9000 (RV250, see below), but it would also have cost more to produce and would have been poorly suited to the Radeon 9000's dual laptop/desktop roles due to die size and power draw. Notably, overclockers found that Radeon 8500 and Radeon 9000 could not reliably overclock to 300 MHz without additional voltage, so undoubtedly R250 would have had similar issues because of its greater complexity and equivalent manufacturing technology, and this would have resulted in poor chip yields, and thus, higher costs.
ATI, perhaps mindful of what had happened to 3dfx when they took focus off their 'Rampage' processor, abandoned the R250 refresh in favor of finishing off their next-generation DirectX 9.0 card which was released as the Radeon 9700. This proved to be a wise move, as it enabled ATI to take the lead in development for the first time instead of trailing NVIDIA. The new Radeon 9700 flagship, with its next-generation architecture giving it unprecedented features and performance, would have been superior to any R250 refresh, and it easily took the performance crown from the Ti4600.
The Radeon 9000 (RV250) was launched alongside the Radeon 9700. The 9000 succeeded the Radeon 7500 (RV200) in the mainstream market segment, with the latter being moved to the budget segment. This chip was a significant redesign of R200 to reduce cost and power usage. Among hardware removed is one of the two texture units, the 'TruForm' function, Hierarchical-Z, the DirectX 7 TCL unit and one of the two vertex shaders. In games, the Radeon 9000 performs similarly to the GeForce4 MX 440. Its main advantage over the MX 440 was that it had a full DirectX 8.1 vertex and pixel shader implementation. While the 9000 was not quite as fast as the 8500LE or the Nvidia GeForce3 Ti200, the 8500LE and Ti200 were to be discontinued, though the former was reintroduced due to strong market demand.
A later revision of the 9000 was the Radeon 9200 (RV280) released April 16, 2003, which aside from supporting AGP 8X, was identical. There was also a cheaper version, the 9200SE, which had a 20% lower clock speed and only had a 64-bit memory bus. Another board, called the Radeon 9250 was launched in July 2004, being simply a slightly lower-clocked RV280.
ATI had re-branded its products in 2001, intending the 7xxx series to indicate DirectX 7.0 capabilities, 8xxx for DirectX 8.1, and so on. However, in naming the Radeon 9000/9200, which only had DirectX 8.1 rendering features, ATI advertised them as 'DirectX 9.0 compatible' while the truly DirectX 9.0-spec Radeon 9700 was 'DirectX 9.0 compliant'.
The Mobility Radeon 9000 was launched in early summer 2002 and was the first DirectX 8 laptop chip. It outperformed the DirectX 7-based nVidia GeForce 2 Go and was more feature-rich than the GeForce 4 Go.
A Mobility Radeon 9200 later followed as well, derived from the desktop 9200. The Mobility Radeon 9200 was also used in many Apple laptops, including the Apple iBook G4.
Unix-related operating systems
The open source drivers from X.org/Mesa support almost all features provided by the R200 hardware. They are shipped by default on most BSDs and Linux systems. Newer ATI Catalyst drivers do not offer support for any R500 or older architecture product.
The PowerPC-based Mac mini and iBook G4, which run on Mac OS X, were supplied with Radeon 9200 GPUs; the final Power Mac G4 'Mirrored Drive Door' systems had the 9000 and 9000 Pro cards available as a BTO option.
This series of Radeon graphics cards is supported by AMD under Microsoft Windows operating systems including Windows XP (except x64), Windows 2000, Windows Me, and Windows 98. Other operating systems may have support in the form of a generic driver that lacks complete support for the hardware. Driver development for the R200 line ended with the Catalyst 6.11 drivers for Windows XP.
Classic Mac OS
The Radeon 9250 was the final ATI card to officially support Mac OS 9.
The R200 series of Radeon graphics cards is supported by the Amiga operating system, Release 4 and higher. 2D graphics are fully supported by all cards in the family, with 3D acceleration support for the 9000, 9200, and 9250-series of cards.
The R200 series of Radeon graphics cards is supported by MorphOS
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- ^Bennett, Kyle. Optimizing or Cheating Radeon 8500 Drivers, Hard OCP, October 23, 2001.
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- ^'ATI introduces 'new' Radeon 9100'. The Tech Report. 2002-12-06. Retrieved 2019-11-09.
- ^Gavrichenkov, Ilya (January 13, 2002). 'ATI Radeon 8500 Extreme Overclocking Experience'. Articles: Graphics. X-bit labs LLC. Archived from the original on 2013-09-21. Retrieved September 20, 2013.
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- ^'Radeon Feature'. xorg. X.Org Foundation. Retrieved September 20, 2013.
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- 'ATI Radeon 8500 64 MB Review (Part 2)' by Dave Baumann, Beyond3D.Com, April 4, 2002, retrieved January 14, 2006
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- 'ATI R200 Chip Details' by Beyond3D, retrieved August 30, 2010
- 'ATI RV250 Chip Details' by Beyond3D, retrieved August 30, 2010
- 'ATI RV280 Chip Details' by Beyond3D, retrieved August 30, 2010