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I use SwiftShader to play game require latest graphic card. And this swift software can render it as a shader. How to use it; Copy the file of swift d3d9 and then past it in your game directory.

Easy to use, start the game and enjoy. This demonstration release illustrates SwiftShader's support for level features with a DirectX front end API. SwiftShader Software GPU Toolkit is the world’s fastest And most flexible general-purpose pure software 3D rendering technology.

SwiftShader’s modular architecture is capable of supporting multiple Application programming interfaces, such as DirectX® 9.0, and OpenGL®. ES 2.0, the same APIs that developers are already using for existing Games and applications. This makes it possible to directly integrate. SwiftShader into applications without any changes to source code. SwiftShader technology can also support custom front-end APIs that have Been explicitly built for a specific application. Rendering features available in SwiftShader range from basic fixed Function rendering through to Shader Model 3.0 level capabilities such As advanced shaders, floating point rendering, multi-sample anti-aliasing, And much more. For your knowledge there is no Swiftshader 5.0 or 6.0 or 7 version.

There is only shader model 3.0 version. SwiftShader performs as much as 100 times faster than traditional Software renderers such as Microsoft's Direct3D® Reference Rasterizer. In benchmark tests on a modern CPU, SwiftShader-based renderers can Achieve performance that surpasses integrated graphics hardware – A modern quad-core Core i7 CPU at 3.2 GHz running SwiftShader scores 620 in 3DMark2006. SwiftShader achieves this unprecedented level of Performance by dynamically compiling highly optimized code specific to An application's 3D rendering needs and executing that code across all Available CPU cores in parallel. NOTE: Use of this SwiftShader Demonstration is subject to the enclosed SwiftShader License agreement. Download Swiftshader 3.0 HD Full Version System requirements • X86 CPU, SSE2 support required • Basic 2D video card - no 3D card necessary!

• Microsoft Windows 98SE, Windows 2000, Windows XP, or Windows Vista • Windows 7, Windows 8 and Windows 10 • 128 MB RAM • 10 MB free hard disk space How To Install swiftshader software 3d rendering The SwiftShader DX9 Shader Model 3.0 Demo is packaged as a single DLL File: d3d9.DLL Both 32-bit and 64-bit versions of this DLL are included. These DLL files can be dropped into a directory containing an application That uses Direct3D 9, and SwiftShader will automatically be used in place Of the built-in OS version of Direct3D. Note that some applications may Load the D3D DLL directly from the Windows System32 directory. Such Programs will not work directly with the SwiftShader DX9 Shader Model 3.0 Demo.

In addition to the DLL file, an optional configuration file can be used With SwiftShader. This file, SwiftShader.ini, can be put in the Same directory as the application, and can be used to fine tune performance And quality settings.

The commercial version of SwiftShader includes an API for changing many of these settings programmatically at runtime. You might be interested to read: What will you get from this swift shader 3.0 download: • Swiftshader for windows 7, 8 and 10 32bit • Swiftshader for windows 7, 8 and 10 64 bit This Swiftshader or swift software is Free! You only need to fill your valid email address for confirmation. If you lost the file of this shift shader you still can check your email and get the download link there. This is the latest version of swiftshader for pc.

I am writing a small utility that reports system capabilities. One is the highest shader model supported by the installed graphics card, and I am currently detecting this using and checking the VertexShaderVersion and PixelShaderVersion fields of the D3DCAPS9 structure. HRESULT hrDCaps = poD3D9->GetDeviceCaps(D3DADAPTER_DEFAULT, D3DDEVTYPE_HAL, &oCaps); if (!FAILED(hrDCaps)) { // Pixel and vertex shader model versions. Use the minimum number of each for 'the' shader model version const int iVertexShaderModel = D3DSHADER_VERSION_MAJOR(oCaps.VertexShaderVersion); const int iPixelShaderModel = D3DSHADER_VERSION_MAJOR(oCaps.PixelShaderVersion); However, both these values return shader model 3 even for cards that support higher models.

Here is what GPU-Z returns for the same card, for example: indicates that DX9 will never report more than SM3 even on cards that support a higher model, but doesn't actually mention how to solve it. How do I accurately get the shader model supported by the installed card? That is, the card capabilities, not the installed DirectX driver capabilities. The utility has to run on Windows 2000 and above, and work on systems where a graphics card and even DirectX are not installed. I am currently dynamically loading DX9, so on those systems the check gracefully fails (which is ok.) But I am seeking a similar solution: something that will still run on all systems, and work correctly (detect the SM version) on most systems. Edit - purpose: I am not using this code to dynamically change features of a program, ie select shaders. I am using it to report hardware capabilities as a 'ping' to a server, which is used to we have a good idea of typical hardware that our customers use, which can inform future product decisions.

(For example: how many customers have SM4 or above? How many are using a 64-bit OS? Etc.) This is why either (a) gracefully failing, so we know it failed, or (b) getting an accurate shader model number are the two preferred modes. Edit - answers so far: The answer below by SigTerm suggests instantiating DirectX 11, 10.1, 10, and 9.0c in order, and basing the reported shader model on which version instantiated without failures (shader model 5, 4.1, 4, and DXCAPS in that order.) If possible, I'd appreciate a code example of the DX11 and 10 ways to do this. This may not be a reliable solution. For example, I am running Windows on a VMWare Fusion virtual machine on OSX. The Fusion drivers report DX11 in DxDiag, yet I know from the Fusion tech specs that it.

Still, with this exception, this method seems the best way so far. Version 4 is only supported on Direct3D10. Therefore, D3D9 api won't report it. Use D3D10/D3D11 api to detect higher version. Something that will still run on all systems, and work correctly (detect the SM version) on most systems.

Attempt to initialize D3D10/D3D11 to check functionality, if it fails init D3D9. Use LoadLibrary + GetProcAddress to load D3D10 functions, because if you link with D3D10 using.lib file, your application will fail to start if d3d10 is missing. Manual de dibujo a mano alzada.

Or use OpenGL and try to map capabilities reported by OpenGL to D3D capabilities (probably a very bad idea). Or build GPU database and use that. Where a graphics card and even DirectX are not installed. I think you're asking for the impossible, because shaders are provided by DirectX, and the driver/GPU might not even have a concept of a 'shader model' under the hood. In this case the only way to detect capabilites will be to make GPU database of some sort, detect installed devices, and return answer from database. This won't be relabile, of course. If you need D3D10 features, trying to get a 10 context and checking the featureset is the best way.

OpenGL shader features don't necessarily map to D3D (many older drivers support D3D somewhat better), and keeping a lookup table will cause nothing but problems and false negatives/positives. Trying to create a D3D9/10 context on first-run and checking caps isn't terribly slow and is very reliable. Just make sure not to link your program against D3D10 (or it won't run on systems without it, use LoadLibrary). – Aug 2 '13 at 14:41 •. Thanks SigTerm and @peachykeen. 'version 4 is only supported on Direct3D10.

Therefore, D3D9 api won't report it.' I had put that together from the linked question. How do I 'Use D3D10/D3D11 api to detect higher version'?

(Believe me, I have googled, and there are no results for things like getting capabilities, detecting the shader model, etc with D3D10. Nor can I find anything starting from the D3D10 device create method in MSDN, etc.) Ie, can you either write a method name as a pointer to google from, or even better a code snippet, please? – Aug 5 '13 at 7:55 •.

Imagine not being able to distinguish between a movie playing on your TV and a game running on your PC; where the line between real-time 3D graphics and prerendered cinematic effects is completely blurred. Once again, NVIDIA introduces groundbreaking new hardware technologies in the GeForce 6 Series of graphics processing units (GPUs) that push 3D real-time graphics one step closer to film quality. These newest GPUs provide the hardware brainpower developers need to create stunning, real-time 3D effects in their games and applications, and the hardware muscle to keep your system performing at top speeds. Advanced Technologies The third-generation of the NVIDIA® CineFX™ engine unleashes the power of the latest NVIDIA GPUs and streamlines the creation of complex visual effects. Through the power of the Microsoft® DirectX® 9.0 Shader Model 3.0 and OpenGL® 1.5 APIs, programmers can now develop shader programs utilizing these technologies and techniques: Nalu: from the NVIDIA tech demo • Infinite length shader programs: With CineFX 3.0 there are no hardware-imposed limitations on shader programs. The technology and speed advancements of CineFX 3.0 ensure that longer programs will run blazingly fast. • Dynamic flow control: Additional looping/branching options and new subroutine call/return functions give programmers even more choices for writing efficient shader programs.

• Displacement mapping: CineFX 3.0 allows vertex processing with textures, providing a new level of depth and realism to every component, surface, and character in a scene. Displacement mapping allows developers to make subtle changes in a model’s geometry with very little computational cost.

• Vertex frequency stream divider: Effects can be efficiently applied to multiple characters or objects in a scene, providing individuality where models are otherwise identical. • Multiple Render Target (MRT) technology: MRTs allow for deferred shading, a technique where the lighting of a scene can be done after rendering all of the geometry, eliminating multiple passes through the scene. Photorealistic lighting can be created while avoiding unnecessary processing time for pixels that do not contribute to the visible portions of an image. Advanced Visual Effects With the increased horsepower provided by the CineFX 3.0 engine, developers can create more unique game features and effects than ever before. New effects include subsurface scattering, providing depth and realistic translucence to skin and other surfaces; soft shadows for sophisticated lighting effects; accurately represented environmental and ground shadows; and global illumination for incredibly photorealistic lighting. All of these effects can be combined to create intricate, detailed, true-to-life scenes that completely immerse you in the game environment.

NVIDIA CineFX 3.0 is poised to unleash a new level of programming creativity. With full DirectX 9.0 Shader Model 3.0 support, the newest GeForce GPUs will soon power a new generation of games with unmatched realism, digital worlds with mind-blowing complexity, and lifelike characters that move through cinematic-quality environments. Previously, highly complex effects were not possible without sacrificing performance and precision, because of long shader programs that required many computational passes. Now, with the NVIDIA GeForce 6 Series and its CineFX 3.0 engine, groundbreaking effects can be created without compromising performance.