Model Card for FRIDA GGUF
FRIDA is a full-scale finetuned general text embedding model inspired by denoising architecture based on T5. The model is based on the encoder part of FRED-T5 model and continues research of text embedding models (ruMTEB, ru-en-RoSBERTa). It has been pre-trained on a Russian-English dataset and fine-tuned for improved performance on the target task.
For more model details please refer to our technical report [TODO].
Usage
The model can be used as is with prefixes. It is recommended to use CLS pooling. The choice of prefix and pooling depends on the task.
We use the following basic rules to choose a prefix:
"search_query: "and"search_document: "prefixes are for answer or relevant paragraph retrieval"paraphrase: "prefix is for symmetric paraphrasing related tasks (STS, paraphrase mining, deduplication)"categorize: "prefix is for asymmetric matching of document title and body (e.g. news, scientific papers, social posts)"categorize_sentiment: "prefix is for any tasks that rely on sentiment features (e.g. hate, toxic, emotion)"categorize_topic: "prefix is intended for tasks where you need to group texts by topic"categorize_entailment: "prefix is for textual entailment task (NLI)
To better tailor the model to your needs, you can fine-tune it with relevant high-quality Russian and English datasets.
Below are examples of texts encoding using the Transformers and SentenceTransformers libraries.
Ollama
ollama pull evilfreelancer/FRIDA:f16
import json
import requests
import numpy as np
OLLAMA_HOST = "http://localhost:11434"
MODEL_NAME = "evilfreelancer/FRIDA:f16"
def get_embedding(text):
payload = {
"model": MODEL_NAME,
"input": text
}
response = requests.post(
f"{OLLAMA_HOST}/api/embed",
data=json.dumps(payload, ensure_ascii=False),
headers={"Content-Type": "application/x-www-form-urlencoded"}
)
response.raise_for_status()
return np.array(response.json()["embeddings"][0])
def normalize(vectors):
vectors = np.atleast_2d(vectors)
norms = np.linalg.norm(vectors, axis=1, keepdims=True)
norms[norms == 0] = 1.0
return vectors / norms
def cosine_diag_similarity(a, b):
return np.sum(a * b, axis=1)
inputs = [
#
"paraphrase: В Ярославской области разрешили работу бань, но без посетителей",
"categorize_entailment: Женщину доставили в больницу за ее жизнь сейчас борются врачи.",
"search_query: Сколько программистов нужно, чтобы вкрутить лампочку?",
#
"paraphrase: Ярославским баням разрешили работать без посетителей",
"categorize_entailment: Женщину спасают врачи.",
"search_document: Чтобы вкрутить лампочку нужно три программиста.",
]
size = int(len(inputs)/2)
embeddings = normalize(np.array([get_embedding(text) for text in inputs]))
sim_scores = cosine_diag_similarity(embeddings[:size], embeddings[size:])
print(sim_scores.tolist())
Authors
- SaluteDevices AI for B2C RnD Team.
- Artem Snegirev: HF profile, Github;
- Anna Maksimova HF profile;
- Aleksandr Abramov: HF profile, Github, Kaggle Competitions Master
- Pavel Rykov: HF profile, Github - creator of GGUF version
Citation
@misc{TODO
}
Limitations
The model is designed to process texts in Russian, the quality in English is unknown. Maximum input text length is limited to 512 tokens.