This screencast demonstrates a C++ AMP sample app: Cartoonizer. You can find pointers to information about the sample including where to get the Visual Studio code from the corresponding blog post.

To learn more please visit the C++ AMP blog, and we encourage C++ AMP questions in the Parallel Computing in C++ and Native Code MSDN forum.

This screencast demonstrates one of our C++ AMP sample apps: NBody. You can learn more about the sample and download the Visual Studio project with all the code from the corresponding blog post.

To learn more please visit the C++ AMP blog, and we encourage C++ AMP questions in the Parallel Computing in C++ and Native Code MSDN forum.

This screencast demonstrates one of our C++ AMP sample apps: Morph. You can learn more about the sample and download the Visual Studio project with all the code from the corresponding blog post.

To learn more please visit the C++ AMP blog, and we encourage C++ AMP questions in the Parallel Computing in C++ and Native Code MSDN forum.

This screencast assumes knowledge of the C++ AMP API, e.g. that you totally understand the matrix multiplication implementation in C++ AMP. So if you satisfy that prerequisite, watch this screencast on what features are available in Visual Studio 2012 for debugging C++ AMP code.

To learn more please visit the C++ AMP blog, and we encourage C++ AMP questions in the Parallel Computing in C++ and Native Code MSDN forum.

This screencast assumes knowledge of the C++ AMP API, i.e. the simple model and the tiled model, and here we look at a common algorithm (matrix multiplication) and convert it from serial on the CPU, to run on the GPU, first with the simple model and then tiled.

To learn more please visit the C++ AMP blog, and we encourage C++ AMP questions in the Parallel Computing in C++ and Native Code MSDN forum.

This screencast assumes no knowledge of C++ AMP and introduces the core API from scratch. You'll see parallel_for_each, extent, index, restrict(amp), array_view, and accelerator. I will explain these concepts through a "hello world" code example in a step-by-step manner.

To learn more please visit the C++ AMP blog, and we encourage C++ AMP questions in the Parallel Computing in C++ and Native Code MSDN forum.

This screencast is a companion to my MSDN Magazine article that you can read online: Introduction to Tiling in C++ AMP. You will be introduced to the tiled_extent class, the tiled_index class, the tile_barrier class, and the tile_static storage class.

To learn more please visit the C++ AMP blog, and we encourage C++ AMP questions in the Parallel Computing in C++ and Native Code MSDN forum.

This screencast is one part of a 4-part series accompanying my MSDN Magazine article that you can read online: A Code-Based Introduction to C++ AMP.

Please watch first the screencasts that precede this part, and then follow the links below to watch the screencasts that follow it.

1. Setup code - C++ AMP - msdn mag companion part 1
2. array_view, extent, index - C++ AMP - msdn mag companion part 2
3. parallel_for_each - C++ AMP - msdn mag companion part 3
4. accelerator - C++ AMP - msdn mag companion part 4

To learn more please visit the C++ AMP blog, and we encourage C++ AMP questions in the Parallel Computing in C++ and Native Code MSDN forum.

This screencast is one part of a 4-part series accompanying my MSDN Magazine article that you can read online: A Code-Based Introduction to C++ AMP.

Please watch first the screencasts that precede this part, and then follow the links below to watch the screencasts that follow it.

1. Setup code - C++ AMP - msdn mag companion part 1
2. array_view, extent, index - C++ AMP - msdn mag companion part 2
3. parallel_for_each - C++ AMP - msdn mag companion part 3
4. accelerator - C++ AMP - msdn mag companion part 4

To learn more please visit the C++ AMP blog, and we encourage C++ AMP questions in the Parallel Computing in C++ and Native Code MSDN forum.

This screencast is one part of a 4-part series accompanying my MSDN Magazine article that you can read online: A Code-Based Introduction to C++ AMP.

Please watch first the screencasts that precede this part, and then follow the links below to watch the screencasts that follow it.

1. Setup code - C++ AMP - msdn mag companion part 1
2. array_view, extent, index - C++ AMP - msdn mag companion part 2
3. parallel_for_each - C++ AMP - msdn mag companion part 3
4. accelerator - C++ AMP - msdn mag companion part 4

To learn more please visit the C++ AMP blog, and we encourage C++ AMP questions in the Parallel Computing in C++ and Native Code MSDN forum.

This screencast is one part of a 4-part series accompanying my MSDN Magazine article that you can read online: A Code-Based Introduction to C++ AMP.

Please watch first the screencasts that precede this part, and then follow the links below to watch the screencasts that follow it.

1. Setup code - C++ AMP - msdn mag companion part 1
2. array_view, extent, index - C++ AMP - msdn mag companion part 2
3. parallel_for_each - C++ AMP - msdn mag companion part 3
4. accelerator - C++ AMP - msdn mag companion part 4

To learn more please visit the C++ AMP blog, and we encourage C++ AMP questions in the Parallel Computing in C++ and Native Code MSDN forum.

Here, we meet the members of the C++ AMP test team;  the engineers who write C++ AMP test cases to push the technology to its limits, ensure that features work as intended, find bugs, make sure the technology is ready for prime time before it gets in your hands.

In Old School C9 fashion, we start off in an office - of team leader Jerry Higgins in this case - and then walk around the building to meet the C++ AMP  test team members in their native habitat (offices).

Meet Jerry Higgins, Joe Mayo, Bharath Mysore Nanjundappa, Pavan Marella, Kevin Gao, Lukasz Mendakiewicz, Daniel Griffing, Hasibur Rahman, Pooja Nagpal, and Tamer Afify. Come take a hallway tour with us.

Enjoy!

See Part 1 - Daniel Moth: AMP Overview
See Part 2 - Yossi Levanoni: AMP Architecture and Design
See Part 3 - The AMP Development Team Roundtable

Continuing with our four part series, we meet one of the architects of C++ AMP, Yossi Levanoni. You've met him before on C9. In this conversation, we go deeper into the design of C++ AMP (including exploring what led to some of the design decisions) and, of course, Yossi draws diagrams on the whiteboard like all architects must! You'll learn quite a bit about how C++ AMP works and why. Thanks for spending time with us, Yossi, and I'm sorry for mangling your last name!

See Part 1 - Daniel Moth: Overview
See Part 3 - The AMP Development Team Roundtable
See Part 4 - The AMP Test Team Hallway Office Tour

PMs are responsible for documenting the vision, building the execution plans to turn the vision into a real project, manage the project to completion, ship the result of the project and to attract and work with customers to help them understand what the product means for them and why it matters to their business. It's quite a job. Daniel is one part of a team of engineers that consists of program management (Daniel), architecture (Yossi Levanoni is one of the architects of AMP and you'll meet him (again) in one these interviews), development (you'll meet the AMP dev team soon, round-table style), and test (you'll meet the AMP test team soon, hallway-tour style).

So, tell us what C++ AMP is and why it matters, Daniel. Give us some context and history. What's going on here? What's next?

Tune in and meet the people behind the restrict(ion)s, kernels, etc. It's GPGPU time on C9. Enjoy.

See Part 2 - Yossi Levanoni: AMP Architecture and Design
See Part 3 - The AMP Development Team Roundtable
See Part 4 - The AMP Test Team Hallway Office Tour

• A Quick explanation of the Direct3D graphics pipeline
• Vertex and geometry shader overview
• Binding resources and views for use by graphics stages
• Visualizing 2D array data
• Visualizing particle data (geometry shader)
• Visualizing other data (histogram, waveform, and so on)
• Example of Particle Simulation Compute with Rendering
• Example of Ocean Simulation Rendering using FFT for Compute

The demos used in this lecture are available from NVIDIA's DirectCompute SDK Code Samples page.

For more information on DirectCompute, download the PDC 2009 DirectCompute HOL, watch the DirectCompute Roundtable discussion, see the full DirectCompute lecture series, and download the slides for this lecture.

This lecture explains how DirectCompute can be employed to create solutions simulating physical systems such as fluid and cloth systems. It also covers how to employ some of the libraries powered by DirectCompute and how to integrate these libraries into your application. 

After completing the lecture, you will be able to understand the underlying algorithms of some of the physics systems written in DirectCompute, as well as how to make use of the libraries that implement them, such as Bullet.

For more information on DirectCompute, download the PDC 2009 DirectCompute HOL, watch the DirectCompute Roundtable discussion, see the full DirectCompute lecture series, and download the slides for this lecture.

He also gives an example problem, scan/reduction, and then goes through various optimizations for that problem.

For more information on DirectCompute, download the PDC 2009 DirectCompute HOL, watch the DirectCompute Roundtable discussion, see the full DirectCompute lecture series, and download the slides for this lecture.

• Instantiating a DirectCompute Device
• Writing and compiling DirectCompute Code
• Executing code on the GPU
• Retrieving resulting data from the GPU and passing it to the CPU

The Roundtable discussion for DirectCompute can be found here, the full DirectCompute lecture series is here, and the slides for this lecture are available from here.

·         DirectCompute 110: Memory Patterns

Eric Young (Manager of Developer Technology, NVIDIA Corporation)
Chas Boyd (Program Manager Architect  Windows Graphics,  Microsoft Corporation)
Justin Hensley (Senior MTS, AMD Office of CTO, ATI/AMD)

The first demo can be found here: Video Stabilization.
The second demo can be found here:  DirectCompute FFT Sample (Color Grid Wide).
For more information about DirectX, check the DirectX Developer Center and the Windows Developer Center.

You can also download the Direct X SDK.

The DirectCompute lecture series will receive updates from June 14th through July 5th, so keep checking back on the link.

The following videos continue the series:
DirectCompute 101: Introduction
DirectCompute 110: Memory Patterns