Alpaca
Alpaca - Training LLMs to follow instructions
@kaggle.thedevastator_alpaca_instructions_word_level_classification
Alpaca - Training LLMs to follow instructions
@kaggle.thedevastator_alpaca_instructions_word_level_classification
By Huggingface Hub [source]
This dataset, TokenBender: 122k Alpaca-Style Instructions Word-Level Classification Towards Accurate Natural Language Understanding, provides a comprehensive collection of 122K Alpaca-style instructions with their associated input, text and output for word-level classification. It enables natural language understanding research to be done conveniently as it contains entries from diverse areas such as programming code instructions and gaming instructions that are written in varying levels of complexity. With the help of this dataset, developers aiming to apply natural language processing techniques for machines may gain insight into how to improve the accuracy and facilitate the comprehension of human language commands. By using this dataset, one may develop advanced algorithms such as neural networks or decision trees that can quickly understand commands in foreign languages and bridge the gap between machines and humans for different practical purposes
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This dataset contains 122k Alpaca-Style Instructions with their corresponding input, text, and output for word-level classification. It is a valuable resource to those who wish to gain insight into natural language understanding through data science approaches. This guide will provide some tips on how to use this dataset in order to maximize accuracy and gain a better understanding of natural language.
Preprocessing: Cleaning the data is an essential step when dealing with any sort of text data which includes the Alpaca instructions dataset. This involves removing stopwords like articles, pronouns, etc., normalizing words such as capitalization or lemmatization, filtering for relevant terms based on context or key problems you are trying to solve; and finally tokenizing the remaining text into appropriate individual pieces that can be provided as input features for different models β SentencePiece is perfect for this sort of task.
Feature extraction: After preprocessing your text data itβs time to extract insightful features from it utilizing techniques like Bag-of-Words (BOW), Term Frequency - Inverse Document Frequency (TF-IDF) Vectorizer etc., which might help you better understand the context behind each instruction sentence/word within the corpus. Additionally embedding techniques using word2vec/GloVe might also serve useful in extracting semantic information from these instructions while helping build classifiers successful at predicting word level categories related tasks (Semantic segmentation).
Model selection: Depending on your problem setup AI architectures like Support vector machines(SVMs)/Conditional Random Fields(CRFs)/ Attention Based Models should work well in tackling these types of tasks related towards NLP analysis at both sentence or shallow representation form levels (Part Of Speech tagging). If learning what words are used together efficiently matters more than all other options then selecting an RNN model such as LSTM or GRU might do wonders; they are similarly effective but faster modelling approach due its recursive structure that allows you store context information more effectively compared BOWs or TFIDF Vectors spaces separately built up during feature engineering processing periods per individual supervised training tasks points instead across all!
Evaluating Results: After choosing the best algorithm model fit analysis performance measures such as F1 scores should enable easier tracking end goal results adjustments if needed precision/recall levels are declining significantly past certain number values threshold points compared lower task confirming holding out uncategorized sample documents versus larger ID test portion splits train tests datasets subsets collected
- Developing an AI-based algorithm capable of accurately understanding the meaning of natural language instructions.
- Using this dataset for training and testing machine learning models to classify specific words and phrases within natural language instructions.
- Training a deep learning model to generate visual components based on the given input, text, and output values from this dataset
If you use this dataset in your research, please credit the original authors.
Data Source
License: CC0 1.0 Universal (CC0 1.0) - Public Domain Dedication
No Copyright - You can copy, modify, distribute and perform the work, even for commercial purposes, all without asking permission. See Other Information.
File: train.csv
Column name | Description |
---|---|
Instruction | The Alpaca-Style instruction that corresponds to the user's input. (Text) |
If you use this dataset in your research, please credit the original authors.
If you use this dataset in your research, please credit Huggingface Hub.
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