I am pursuing a graduate degree in Organic Chemistry.
Right now, many talented people in my area are headed towards nanotechnology.
What is the equivalent field in modern computer science?
I am pursuing a graduate degree in Organic Chemistry.
Right now, many talented people in my area are headed towards nanotechnology.
What is the equivalent field in modern computer science?
"Strong" artificial intelligence and quantum computing would be my votes for equivalence with nanotechnology.
For me, it's threading. Even relatively "simple" threading is challenging, and if you delve into the realms of lock-free code it gets even hairier. There are certainly threading paradigms which don't raise as many mental headaches (actors, message passing etc) but they tend to come with their own trade-offs.
This is a level of "deep" complexity in my view, but there are other areas of coding which are challenging in different ways. Security, i18n and date/time handling (or pretty much anything related to actual human characteristics) is very finicky, with lots of corner cases to learn and watch out for. This is certainly hard, but in a different way to concurrency.
EDIT: As a response to twk's answer: yes, there are lots of people trying to make concurrency easier. While there are already various platforms which support concurrency well (e.g. Erlang) there's more of a move at the moment to bring simpler concurrency to already-mainstream platforms. From my point of view as a .NET developer (well, an amateur/enthusiast .NET developer anyway; professionally Java at the moment) the Parallel Extensions and Coordination and Concurrency Runtime are the two most interesting recent developments. I don't expect this to make concurrency easy - just feasible for mortals.
I sure hope there are some people out there busy making it easy to use more processor cores automatically. Sure, there is stuff like the Intel Thread Building Blocks or even languages like Erlang, but I hope we see a lot more progress on that front in the next 10 years.
At least locally, the hot field is informatics, especially bioinformatics. Collecting, assembling, associating, and analyzing information from many sources and deriving additional information from the collection represents the strongest connection of computer science to other activities. It's the newest degree that's offered our CS department and is drawing the most graduate students, from many disciplines, into CS classes.
I don't know how mentally challenging it is, but being new there are a lot of ideas out there that haven't been thought of, let alone investigated. Coming up with original ideas is pretty challenging, though the actual programming part behind them probably isn't.
I concur with Jon Skeet that threading/parallel execution is a hot topic and there are opening new fields, or thinking out-of-the-box technologies, like Transactional Memory. It's an open field for new concepts.
Natural language processing (NLP) is another field that should probably be mentioned.
What represents the most mentally challenging form of coding? Embedded firmware development.
Right now, many talented people in my area are headed towards nanotechnology.
What is the equivalent field in modern computer science? Again, Embedded firmware development.
And for any desktop or internet developers, if you don't think embedded coding is far more difficult than any other type of coding then you don't know embedded. I can do anything a desktop or internet programmer can do, but it's very doubtful that most, if any, desktop/internet programmers can do embedded well, or at all.
Case in point, I've got a bug I'm working on right now where after 4 bytes are received successfully on a serial communications port (interrupt driven reception) successive bytes don't cause the UART to generate an interrupt (as they should).
So, Windows and Internet programmers - what would you consider the most likely causes? What would you do? Oh, I forgot, Windows and Internet programmers don't have full and direct access to the hardware - so they've probably never even experienced such a situation. In the embedded development world you can't say "it's the hardware" and leave it at that - you are responsible to make it work by yourself, all the way from the UI down to the power supply (software, firmware, hardware, it's all the responsibility of the embedded developer). This is a greater challenge than any Windows or Internet programmer can encounter.