A transformer-based method for zero and few-shot biomedical NER
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Re: A transformer-based method for zero and few-shot biomedical NER
#2Re: A transformer-based method for zero and few-shot biomedical NER
#3This paper is extremely similar in domain (same corpus, etc - but that's not surprising since everyone uses these) but they're leaning heavily on the pretraining allowing capabilities towards few and zero shot, which is already well understood. Ultimately I think it's a good resource to use for the code, and if the API ends up being easier to change some of the internals on compared to the many options out there such as scispacy, or any of the pipelines used to achieve Pubtator, then it's a welcome addition.
My assessment is that this is a useful alternative where there are many solutions, but mostly an engineering product, and quite far away from any scientific contribution.
Re: A transformer-based method for zero and few-shot biomedical NER
#4Does anybody know of major efforts to use cutting edge LLMs to read through medical/scientific literature and come up with new insights from it? Preferably open source, but closed projects as well. Of course, there are copyright issues and you might run into the tension between paid journals and open access science. The technical challenges would be interesting, though, and this seems like an incredible use case for…
So clearly you need to have some very good hardware to process all of it.
However, compare that with some of the simpler encoder models that have far fewer params that are targeted for specific tasks. These systems can plow through 10^5 or 10^6 tokens per second. So now that 16 years is a week.
This is why small models that are task specific are so important. They make much more possible in reasonable time frames and reduce CO2 emissions by orders of magnitude. Along the same lines of "why use an LLM to extract everywhere the string 'Starbucks4{:digit:}' appears in text when you can use a regex?". You can get the output in a few seconds on billions of articles with a DB, whereas an LLM would take more than a decade.
Re: A transformer-based method for zero and few-shot biomedical NER
#5Does anybody know of major efforts to use cutting edge LLMs to read through medical/scientific literature and come up with new insights from it? Preferably open source, but closed projects as well. Of course, there are copyright issues and you might run into the tension between paid journals and open access science. The technical challenges would be interesting, though, and this seems like an incredible use case for…
There are plenty of examples of encoders , like this paper, that are being applied to read through all literature, but using an LLM directly (typically referring to the decoder) is not really necessarily useful or efficient (for typical tasks done in the field). It's far more efficient to use smaller models for these tasks, because, for example, if you have 60 million articles with ~2000 tokens, and your system can p…
:-P
Re: A transformer-based method for zero and few-shot biomedical NER
#6Does anybody know of major efforts to use cutting edge LLMs to read through medical/scientific literature and come up with new insights from it? Preferably open source, but closed projects as well. Of course, there are copyright issues and you might run into the tension between paid journals and open access science. The technical challenges would be interesting, though, and this seems like an incredible use case for…
Re: A transformer-based method for zero and few-shot biomedical NER
#7Does anybody know of major efforts to use cutting edge LLMs to read through medical/scientific literature and come up with new insights from it? Preferably open source, but closed projects as well. Of course, there are copyright issues and you might run into the tension between paid journals and open access science. The technical challenges would be interesting, though, and this seems like an incredible use case for…
There are plenty of examples of encoders , like this paper, that are being applied to read through all literature, but using an LLM directly (typically referring to the decoder) is not really necessarily useful or efficient (for typical tasks done in the field). It's far more efficient to use smaller models for these tasks, because, for example, if you have 60 million articles with ~2000 tokens, and your system can p…
Re: A transformer-based method for zero and few-shot biomedical NER
#8Re: A transformer-based method for zero and few-shot biomedical NER
#9Does anybody know of major efforts to use cutting edge LLMs to read through medical/scientific literature and come up with new insights from it? Preferably open source, but closed projects as well. Of course, there are copyright issues and you might run into the tension between paid journals and open access science. The technical challenges would be interesting, though, and this seems like an incredible use case for…
Re: A transformer-based method for zero and few-shot biomedical NER
#10Earlier quoted context omitted.
There are plenty of examples of encoders , like this paper, that are being applied to read through all literature, but using an LLM directly (typically referring to the decoder) is not really necessarily useful or efficient (for typical tasks done in the field). It's far more efficient to use smaller models for these tasks, because, for example, if you have 60 million articles with ~2000 tokens, and your system can p…
I've also got remarkably good results pushing regular expressions to the max to perform "NER", while other more fancy (ML) solutions failed. So don't rule them out.
There's always tradeoffs. Regex is fast, linear CRFs are quite fast too. Simple LSTMs are fast-ish, as well as BERT-like systems, can offer a decent tradeoff in speed/performance. LLMs are much slower, and need some type of distill step by step to get anything very useful out (for task specific model).
Ultimately, you're right in that regexes along with other older techniques should be understood and weighed for what is the optimal solution for the task.