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I'm a co-creator of SWE-bench:

1. SWE-bench Verified is now saturated at 93.9% (congrats Anthropic), but anyone who hasn't reached that number yet still has more room for growth.

2. SWE-bench Multilingual and SWE-bench Multimodal (which we'll open source in the next month) are still unsatured.

3. All benchmarks and benchmark paradigms eventually become saturated. That's why the SWE-bench team has worked hard on building the next stage of benchmarks, and we have a few that are already out, for example https://codeclash.ai/ or https://algotune.io/ . And we'll have more to say soon :)

This is a good way to benchmark models. We [the SWE-bench team] took the meta-version of this and implemented it as a new benchmark called CodeClash -

We have agents implement agents that play games against each other- so Claude isn't playing against GPT, but an agent written by Claude plays poker against an agent written by GPT, and this really tough task leads to very interesting findings on AI for coding.

https://codeclash.ai/

[SWE-bench co-author here] It seems like they run this test on a subset of 50 tasks, and that they only run the test once per day. So a lot of the movement in accuracy could be attributed to that. I would run on 300 tasks and I'd run the test suite 5 or 10 times per day and average that score. Lots of variance in the score can come from random stuff like even Anthropic's servers being overloaded.

There are certain tasks, like improving a given program for speed, for instance, where in theory the model can continue to make progress with a very clear reward signal for a very long time.

Yup, this will absolutely be a big driver of gains in AI for coding in the near future. We actually built a benchmark based on this exact principle: https://algotune.io/

[I'm on the SWE-bench team] Multiple people have looked into this, for example right in that thread: https://github.com/SWE-bench/SWE-bench/issues/465#issuecomme...

This issue had affected a tiny fraction of existing agents in a tiny fraction of their runs. And we've now issued a fix.

This is a natural part of running a benchmark, I'm sure tiny things like this will keep on getting discovered and we'll keep on fixing them. This doesn't change the overall picture or trends at all.

[I'm one of the co-creators of SWE-bench] The team managed to improve on the already very strong o3 results on SWE-bench, but it's interesting that we're just seeing an improvement of a few percentage points. I wonder if getting to 85% from 75% on Verified is going to take as long as it took to get from 20% to 75%.

so if some prediction task requires long range dependencies you might expect one of the less-penalized heads to end up specializing Exactly. You have heads that focus on content nearby and ones that focus on stuff that is far away.

I wonder what would happen if the penalty for one head is zero? (The paper suggests this might've been tried and just made things worse, but unclear) Yup, this is something we tried. Making one of the heads zero doesn't improve or degrade performance.

I must admit that this is a wonderfully elegant (and interpretable) way to do this... much more intuitive (to me at least, a wannabe practitioner) than all of the trig-based embeddings.

Thanks so much!!

(I wrote ALiBi) You can read the paper here https://arxiv.org/abs/2108.12409

While intuitively it does seem like ALiBi would make it hard for the model to attend to things that are far away, in many scenarios we've tested with different models trained on different datasets, ALiBi always performs better than sinusoidal, rotary, and other embedding types, even when we're not using it to extrapolate to longer sequence lengths.

These findings have been confirmed by others, including by the BLOOM open source LM project.

Thats awesome, I wasn't aware of this. I slightly disagree with Greg though about the "one main resource". While the DL book is amazing, its not really aimed at newbies, and so I think CS231n is a much better starting point. For example, for a beginner I think the way backprop is explained in Stanford's course is better than the explanation in the book.

Lots of people have heard about deep learning but dont really know where to start. When I was starting a year or so ago I was in the same place. I just took the resources that I used to learn about the field and put them all in one place. As far as I know, this hasnt been done before. Im not trying to provide any new insights into deep learning.