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In this talk Microsoft Technical Fellow and C# Chief Architect Anders Hejlsberg gives an overview of the new features in C# 4.0, including dynamic typing, co- and contra-variance, named and optional parameters, and improved COM interoperability. Anders will also discuss some of the ideas that are envisioned for future versions of C#. This session is presented by Anders Hejlsberg during Microsoft DevDays 2010 in The Hague in The Netherlands.

When Sven Groot was in town a while ago we dropped by Erik Meijer's world and got a look at what he and team have been and still are working on (thus there is no out-of-date property of this fun and insightful interview that is off-the-cuff as it gets: deep Channel 9 ). It's great that we were able to put a real live Niner into fire in one of Erik's team meetings. There is a great deal to learn here. Thank you, Sven, for being a real sport! Great stuff in here. Tune in!

F# is Microsoft's first functional programming language to be included as one of Visual Studio's official set of languages. F# is a succinct, efficient, expressive functional/object-oriented programming language under joint development by Microsoft Developer Division and Microsoft Research. During the course of Erik Meijer's fantastic lecture series on functional programming fundamentals several of you asked for examples of specific topics in F#. Well, we listened. Dr. Don Syme is a principal researcher in MSR Cambridge. He has a rich history in programming language research, design, and implementation (C# generics being one of his most recognized implementations), and is the principle creator of F#. Who better to lecture on the topic than Don? This three part series will serve as an introduction to F#, including insights into the rationale behind the history and creation of Microsoft's newest language.

From Nic:   We're piloting a new show idea on Wednesday called Help Desk where we put together a group of Windows trouble shooting gurus and get them to answer your Windows PC issues live on the air...   Any Niners out there have Windows PC issues/questions they need some help with?   Send to ch9live(AT)microsoft(DOT)com or tweet us @ch9live and make sure to watch the show live or check out the broadcast afterwards on demand.

Dr. Cormac Herley spends most of his time thinking about why and how computer users reject security advice (originating from both fellow humans and software security warning prompts). Recently, his paper So Long, and No Thanks for the Externalities: the Rational Rejection of Security Advice by Users, received a fair amount of attention from the general media (Boston Globe, Tech Republic, NPR, etc). The paper also prompted our favorite software renegade, Dr. Erik Meijer, to send me an email simply asking "please set up and E2E with Cormac Herley". I did just that and the following conversation is what happened...

Microsoft Surface is a prime example of how natural user interfaces can change the way we interact with computers. As designers and developers, one challenge with creating natural user interfaces for multi-touch devices such as Microsoft Surface or Windows 7 is getting around the old ways of thinking and old habits for interface design. Joshua Blake from InfoStrat decided to tackle this problem by creating SurfaceCube. SurfaceCube is a simple 3-D puzzle game for Microsoft Surface which he designed to illustrate as many as the Surface Interaction Guidelines as possible. I had the opportunity to sit down with Joshua and discuss SurfaceCube and the thinking behind some really interesting design decisions that makes it stand out as a natural user interface. We also briefly discuss Joshua’s upcoming book about natural user interfaces and multi-touch development, Multitouch on Windows: NUI Development with WPF and Silverlight, due Fall 2010 (since recording this interview, the book titled was updated). As a special offer to Channel 9 readers, you can use the following coupon to order the book through the Manning Early Access Program and read the chapters as Josh writes them. Coupon code channel9y is good for 35% off Multitouch on Windows: NUI Development with WPF and Silverlight when ordered through manning.com, and expires on April 24, 2010.

Andrew Phillips holds the title of Scientist with Microsoft Research Cambridge, and he's working on a method of programming that compiles into DNA. Part of this involves a visual programming language called Stochastic Pi Machine, or SPiM. This system models biological processes to help give researchers feedback on how organisms will react to modifications. The hope is that this can be used to help scientists program for large biological systems using modular components compiled to DNA. Yes, I’m in way over my head here, but I do my best to ask Andrew about the role this will play in medical treatment going forward, what it means to DNA computing, and the ability of back-engineering the genetic code we don’t use now.

Margus Veanes, a Researcher from the RiSE group at Microsoft Research, gives an overview of Rex, a tool that generates matching string from .NET regular expressions. Rex turns regular expressions into symbolic automatons, then gives them to a constraint solver to find matching strings.

In this demo we showcase efforts in MSR to collaborate with external researchers to explore the application of new technologies, specifically Dryad and DryadLINQ, to big data research problems in science. We also highlight our efforts to provide software and services to academics across the world, through the release of Dryad and DryadLINQ free of charge to the research community, along with associated programming guides, user documentation, and code libraries. Dryad is a general-purpose distributed computing engine, more flexible than MapReduce or Hadoop!, that was designed to simplify the task of implementing distributed applications on clusters of Windows computers. DryadLINQ is an abstraction layer which simplifies the process of implementing Dryad-based applications. Microsoft Research is acutely aware of the ubiquity of big data and the challenges this presents. We are offering researchers the tools, resources and collaboration to explore this new area.

There's an interesting video on YouTube from Binary Millenium showing how to make a 3D model out of real objects using Microsoft's Photosynth. It's an interesting idea that, while unofficial, may be a big time saver and a lot of fun for many of you. This will work best if you use a Photosynth that not only has a high rate of 'synthiness' but also lots of points in the point cloud. A point in the point cloud means that a specific feature has been identified in two or more photos, allowing for Photosynth to determine to some degree where in space that point exists. While a good Photosynth might have 100% synthiness, meaning all the pictures are connected, it doesn't necessarily mean there will be lots of points in the point cloud.

When the Arduino Duemilanove microcontroller appeared in 2005, it featured a set of female pin headers exposing most of the pins of the ATmega168 for easy hacking and for connecting accessory boards known as 'Shields'. The purpose of a shield is to provide new plug-and-play functionality to the host microcontroller, such as circuit prototyping, motion control, sensor integration, network and radio communication, or gaming interfaces, without worrying too much about the hardware implementation details. Seven years after the birth of the original Arduino, new shields keep coming out and are being cataloged on http://shieldlist.org/, a testament to the versatility of the design. It is also simple to build a DIY shield when nothing out there will meet your needs or when you want to understand how the shield concept works from the ground up.

In mathematics, computer science, and related subjects, an 'algorithm' is an effective method for solving a problem expressed as a finite sequence of instructions. Algorithms are used for calculation, data processing, and many other fields. (In more advanced or abstract settings, the instructions do not necessarily constitute a finite sequence, or even a sequence; see, for example, "nondeterministic algorithm".) Each algorithm is a list of well-defined instructions for completing a task. Starting from an initial state, the instructions describe a computation that proceeds through a well-defined series of successive states, eventually terminating in a final ending state. The transition from one state to the next is not necessarily deterministic; some algorithms, known as randomized algorithms, incorporate randomness. [source = Bing Reference]

In this session, Don McCrady discusses how C++ programmers can fully utilize multicore in their applications using the Concurrency Runtime (ConcRT), the Parallel Pattern Library (PPL), and the Asynchronous Agents Library that ship with Visual Studio 2010.

We had to cover monads eventually, and there are many great monad tutorials out there (see, for example, here: http://www.haskell.org/haskellwiki/Tutorials#Using_monads). In fact, there are web resources concerned solely with organizing the many monad tutorials available in the wild, and developing new monad tutorials seems to be a popular sport in the Haskell community.Today, Ralf Lämmel's lecture goes back to the roots, essentially revisiting Wadler's "The essence of functional programming"—the 1992 paper that discovered monads and popularized their use in functional programming. Ralf Lämmel's lecture and accompanying code distribution show Wadler's seminal insight: those original scenarios and observations still make sense today. Indeed, Simon Marlow (a Haskell/GHC high priest @ MSR Cambridge) recently noted: "it's still the best monad tutorial" (see http://twitter.com/simonmar/status/21397398061).

Microsoft Technical Fellow and C# creator Anders Hejlsberg explains the new C# and VB.NET asynchronous programming model, available as Async CTP now, which makes async programming much easier for .NET developers.

In case you haven’t realized it, the new trend in computer chip technology is multi-core. This is where most of the speed improvements moving forward will come from on our computers. To take full advantage of this however it is necessary to design your applications using Parallel Programming practices, also known as "parallelism". In today’s episode, we will meet with Stephen Toub, who will share with us some of the overarching concepts associated with parallelism, and some of the ways we are trying to empower developers to develop applications to take advantage of it.

Welcome to the first episode of Cloud Cover!  Join Ryan and Steve as they cover the Windows Azure platform, digging into features, discussing the latest news and announcements, and sharing tips and tricks. Follow and interact with us at @cloudcovershow In this episode: Learn about the Service Management API and how to use PowerShell cmdlets to manage your cloud services. Find out how to get started quickly on the Windows Azure platform. Other topics include: SQL Azure updates! Windows Azure Drives (XDrive).  Hear about some cool new Windows Azure storage management tools. Azure Reader architecture.

Andrew Phillips holds the title of Scientist with Microsoft Research Cambridge, and he's working on a method of programming that compiles into DNA. Part of this involves a visual programming language called Stochastic Pi Machine, or SPiM. This system models biological processes to help give researchers feedback on how organisms will react to modifications. The hope is that this can be used to help scientists program for large biological systems using modular components compiled to DNA. Yes, I’m in way over my head here, but I do my best to ask Andrew about the role this will play in medical treatment going forward, what it means to DNA computing, and the ability of back-engineering the genetic code we don’t use now