- RAGLAB is a modular, research-oriented open-source framework for Retrieval-Augmented Generation (RAG) algorithms. It offers reproductions of 6 existing RAG algorithms and a comprehensive evaluation system with 10 benchmark datasets, enabling fair comparisons between RAG algorithms and easy expansion for efficient development of new algorithms, datasets, and evaluation metrics.
- Comprehensive RAG Ecosystem: Supports the entire RAG pipeline from data collection and training to auto-evaluation.
- Advanced Algorithm Implementations: Reproduces 6 state-of-the-art RAG algorithms, with an easy-to-extend framework for developing new algorithms.
- Fair Comparison Platform: Provides benchmark results for 6 algorithms across 5 task types and 10 datasets.
- Efficient Retriever Client: Offers local API for parallel access and caching, with average latency under 1 second.
- Versatile Generator Support: Compatible with 70B+ models, VLLM, and quantization techniques.
- Flexible Instruction Lab: Customizable instruction templates for various RAG scenarios.
-
dev environment:pytorch:2.0.1-py3.10-cuda11.8.0-devel-ubuntu22.04
-
create environment from yml file
cd raglab-exp conda env create -f environment.yml
-
install flash-attn, en_core_web_sm, punkt manually
pip install flash-attn==2.2 python -m spacy download en_core_web_sm python -m nltk.downloader punkt
- raglab need llama2-7b, llama3-8b, colbertv2.0, selfrag_llama2_7b
cd raglab-exp mkdir model cd model mkdir output_models mkdir Llama-2-7b-hf huggingface-cli download meta-llama/Llama-2-7b-hf --local-dir Llama-2-7b-hf/ mkdir Meta-Llama-3-8B huggingface-cli download meta-llama/Meta-Llama-3-8B --local-dir Meta-Llama-3-8B/ mkdir Meta-Llama-3-70B huggingface-cli download meta-llama/Meta-Llama-3-70B --local-dir Meta-Llama-3-70B/ mkdir selfrag_llama2_7b huggingface-cli download selfrag/selfrag_llama2_7b --local-dir selfrag_llama2_7b/ mkdir colbertv2.0 huggingface-cli download colbert-ir/colbertv2.0 --local-dir colbertv2.0/
- 10-samples test is aimed at validating the environment
- run colbert embedding process enwiki-20230401-10samples.tsv
- Change root path for variables:
checkpoint
,index_dbPath
,collection
in wiki2023-10samples_tsv-2-colbert_embedding.py. In file paths, colbert encounters many issues when using relative paths to generate embeddings. Therefore, the current version of raglab uses absolute paths.
# change root path checkpoint = '/your_root_path/raglab-exp/model/colbertv2.0' index_dbPath = '/your_root_path/raglab-exp/data/retrieval/colbertv2.0_embedding/wiki2023-10samples' collection = '/your_root_path/raglab-exp/data/retrieval/colbertv2.0_passages/wiki2023-10samples/enwiki-20230401-10samples.tsv'
- run
cd raglab-exp sh run/wiki2023_preprocess/2-wiki2023-10samples_tsv-2-colbert_embedding.sh
- Change root path for variables:
- Embedding precess will take around 15mins in first time.
- The first time colbert processes embeddings, it takes a relatively long time because it needs to recompile the
torch_extensions
. However, calling the processed embeddings does not require a long time. If there are no errors and the retrieved text can be printed, it indicates that the environment is correct.
- test selfrag base on 10-samples embedding
- After processing with colbert embeddings, you can start running the algorithms in raglab. All algorithms integrated in raglab include two modes:
interact
andevaluation
. The test stage demonstrates ininteract
mode, just for fun 🤗. - Modify the
index_dbPath
andtext_dbPath
in config file:selfrag_reproduction-interact-short_form-adaptive_retrieval.yamlindex_dbPath: /your_root_path/raglab-exp/data/retrieval/colbertv2.0_embedding/wiki2023-10samples text_dbPath: /your_root_path/raglab-exp/data/retrieval/colbertv2.0_passages/wiki2023-10samples/enwiki-20230401-10samples.tsv
- run selfrag (short form & adaptive retrieval) interact mode test 10-samples embedding
cd raglab-exp sh run/rag_inference/3-selfrag_reproduction-interact-short_form-adaptive_retrieval.sh
- Congratulations!!!Now you have already know how to run raglab 🌈
- In raglab, each algorithm has 10 queries built-in in interact mode which are sampled from benchmark
- you can download the colbert embdding wiki2023 as raglab database(40Gb)
cd /raglab-exp/data/retrieval/colbertv2.0_embedding
gdown --id xxxxxx
# unzip commend for
- modify the path in meta.json file
- embedding whole wiki2023 to vector need 22 hours, so we recommend download prepared embedding
- current version of raglab use wiki2023 as database
- we get source wiki2023 get from factscore
- method1: url for download wiki2023:google_drive
- method2: install throuth gdown
cd raglab-exp/data/retrieval/colbertv2.0_passages mkdir wiki2023 pip install gdown gdown --id 1mekls6OGOKLmt7gYtHs0WGf5oTamTNat
- If the 10-samples test is passed successfully, you can proceed with processing wiki2023.
- preprocess
.db -> .tsv
(Colbert can only read files in .tsv format.)cd raglab-exp sh run/wiki2023_preprocess/3-wiki2023_db-2-tsv.sh
.tsv -> embedding
- remember to change the root path of
checkpoint
,index_dbPath
andcollection
# change root path checkpoint = '/your_root_path/raglab-exp/model/colbertv2.0' index_dbPath = '/your_root_path/raglab-exp/data/retrieval/colbertv2.0_embedding/wiki2023-10samples' collection = '/your_root_path/raglab-exp/data/retrieval/colbertv2.0_passages/wiki2023-10samples/enwiki-20230401-10samples.tsv'
- run bash script
cd raglab-exp sh run/wiki2023_preprocess/4-wiki2023_tsv-2-colbert_embedding.sh
- This section is a tutorial on using wiki2018
- Directly download wiki2018 raw database using wget
cd raglab-exp/data/retrieval/colbertv2.0_passages/wiki2018
wget https://dl.fbaipublicfiles.com/dpr/wikipedia_split/psgs_w100.tsv.gz
cd raglab-exp
sh run/wiki2018_preprocess/1-wiki2018_tsv_2_tsv.sh
- Change the path
cd /raglab-exp/data/retrieval/colbertv2.0_embedding/wiki2018/indexes/wiki2018
vim metadata.json
- You only need to modify two paths in the metadata.json file. Here, simply delete the original paths and copy the following paths. Other parameters do not need to be modified.
"collection": "/home/ec2-user/SageMaker/raglab-exp/data/retrieval/colbertv2.0_passages/wiki2018/wiki2018.tsv",
"experiment": "/home/ec2-user/SageMaker/raglab-exp/data/retrieval/colbertv2.0_embedding/wiki2018",
- After modification, you can directly start the colbert server. For experimental startup method, refer to the last section of the readme: Inference experiments.
- The inference experiments require running hundreds of scripts in parallel. If each script loads the wiki2023 database separately, not only does it require a large amount of RAM, but loading the wiki2023 database each time also takes a considerable amount of time, which is a significant waste of computing resources. Therefore, RagLab has designed colbert server & colbert api to address the problem of multi-task parallel retrieval. By runnging local colbert server, tasks can call the colbert api to obtain retrieval results, greatly reducing the inference time for multiple tasks.
- Attention: colbert_server need atleast 60GB ram
cd raglab-exp sh run/colbert_server/colbert_server.sh
- open another terminal test your ColBERT server
cd raglab-exp
sh run/colbert_server/ask_api.sh
- ColBERT server started successfully!!! 🌈
- inference experiments require running hundreds of scripts in parallel, the automatic gpu scheduler needs to be used to automatically allocate GPUs for different bash scripts in Parallel.
- install
simple_gpu_scheduler
pip install simple_gpu_scheduler
- run hundreds of experiments in one line 😎
cd raglab-exp simple_gpu_scheduler --gpus 0,1,2,3,4,5,6,7 < auto_gpu_scheduling_scripts/auto_run_scripts-jeff.py
- how to write your_script.txt?
- here is an example
# auto_inference_selfreg-7b.txt sh run/rag_inference/selfrag_reproduction/selfrag_reproduction-evaluation-short_form-PubHealth-adaptive_retrieval-pregiven_passages.sh sh run/rag_inference/selfrag_reproduction/selfrag_reproduction-evaluation-short_form-PubHealth-always_retrieval-pregiven_passages.sh
- The base models for raglab baseline and selfrag use llama3-instruction-8b. Since selfrag was further fine-tuned on additional data during the fine-tuning stage, in order to make a fair comparison, the baseline model also needs to be fine-tuned.
- we get the train data from selfrag
- google drive url
- download through gdown
cd raglab-exp/data/train_data/ gdown --id 10G_FozUV4u27EX0NjwVe-3YMUMeTwuLk
- The 10-samples train dataset has been processed, please directly start the bash script to begin testing.
- Note: The test script only uses one GPU
- full weight requires 80GB VRam GPU
cd raglab-exp sh run/rag_train/script_finetune-llama3-baseline-full_weight-10samples.sh
- LoRA (Low-Rank Adaptation) requires at least 26GB of VRAM
cd raglab-exp sh run/rag_train/script_finetune-llama3-baseline-Lora-10samples.sh
- Congratulations!!!You can now start fine-tuning the baseline and selfrag-8b🤖
- full weight finetune
cd raglab-exp sh run/rag_train/script_finetune-selfrag_8b-full_weight.sh
- lora finetune
cd raglab-exp sh run/rag_train/script_finetune-selfrag_8b-Lora.sh
- preprocess train data. Train data for baseline model need remove special tokens.
cd raglab-exp sh run/traindataset_preprocess/selfrag_traindata-remove_special_tokens.sh
- then you will get baseline train_data without special token and passages (Q: what is specal token? Anawer: special tokens is a concept proposed by SelfRAG)
- full weight finetune llama3-8b-baseline ues processed data
sh run/rag_train/script_finetune-llama3-baseline-full_weight.sh
- lora finetune llama3-8b-baseline
cd raglab-exp sh run/rag_train/script_finetune-llama3-baseline-Lora.sh
- preprocess train data. Train data for baseline model need remove special tokens.
cd raglab-exp sh run/traindataset_preprocess/selfrag_traindata-remove_special_tokens.sh
- lora finetune llama3-70b-baseline ues processed data
sh run/rag_train/script_finetune-llama3-70B-baseline-Lora.sh
- preprocess train data. Train data for baseline model need remove special tokens.
cd raglab-exp sh run/traindataset_preprocess/selfrag_traindata-remove_special_tokens.sh
- 8bit QLora finetune llama3-70B
sh run/rag_train/script_finetune-llama3-70B-baseline-QLora-8bit.sh
- 4bit QLora fintune llama3-70B
sh run/rag_train/script_finetune-llama3-70B-baseline-QLora-4bit.sh
- 8bit Qlora finetune slefrag 70B
sh run/rag_train/script_finetune-selfrag_llama3-70b-QLora-8bit.sh
- 4bit Qlora finetune slefrag 70B
sh run/rag_train/script_finetune-selfrag_llama3-70b-QLora-4bit.sh
raglab-exp is licensed under the MIT License.