Table of Contents
1. Principle of data annotation
2. Methods of data annotation
2.1 Entity recognition
3.2 Sentiment Analysis
2.3 Relationship extraction
3. Example description
3.1 Entity Recognition
3.3 Relation Extraction
Summary
Home Technology peripherals AI Improving data annotation methods for large language models (LLM)

Improving data annotation methods for large language models (LLM)

Jan 22, 2024 pm 05:45 PM
machine learning Artificial neural networks

Improving data annotation methods for large language models (LLM)

Fine-tuning of a large-scale language model (LLM) is the process of retraining a pre-trained model using domain-specific data to adapt it to a specific task or domain. Data annotation plays a crucial role in the fine-tuning process and involves labeling data with specific information that the model needs to understand.

1. Principle of data annotation

Data annotation is to help the machine learning model better understand and process the data by adding metadata, such as labels, tags, etc., to the data. For the fine-tuning of large language models, the principle of data annotation is to provide guiding information to help the model better understand the language and context of a specific domain. Common data annotation methods include entity recognition, sentiment analysis, and relationship extraction.

2. Methods of data annotation

2.1 Entity recognition

Entity recognition is an information extraction technology whose purpose is to identify named entities and other types of entities from text entity. By annotating text, the model is able to understand and extract entity information.

Method of entity identification

BIO notation is a method used to mark the location of entities. Among them, B represents the beginning of the entity, I represents the interior of the entity, and O represents the non-entity. For example, "B-PER" represents the beginning of a person's name, "I-PER" represents the interior of a person's name, and "O" represents a non-entity. This method can help us identify entities in text, classify and analyze them.

②Entity category tag: In addition to location tags, specific tags can also be used to indicate the category of entities, such as "LOC" for location and "ORG" for organization.

2.2 Sentiment Analysis

The goal of sentiment analysis is to identify the author's emotional tendency from the text, which usually includes positive, negative and neutral emotions. The principle is to mark the emotional tendencies in the text so that the model can understand the emotional color behind the text. Through sentiment analysis, we can gain a deeper understanding of the emotional connotation of text.

Methods of sentiment analysis

①Emotional label: By marking the emotional tendency of the text, such as "positive" (positive), "negative" (negative), "neutral" (neutral), etc. .

②Emotional intensity mark: Sometimes the intensity of emotion can also be marked, such as "strongly positive", "strongly negative", "neutral", etc.

2.3 Relationship extraction

Relationship extraction refers to extracting the relationships between entities from text to help the model understand the connections and functions between entities. The principle is to annotate the associations between entities in the text so that the model can understand these relationships and thereby better perform information extraction and reasoning.

Methods for relationship extraction

①Relationship tags: Use specific tags to represent relationships between entities, such as "subject-object", "member-organization", etc. These tags can help the model understand the different types of relationships between entities so that it can be better applied to specific tasks.

The above data annotation method plays an important role in fine-tuning large language models. These methods provide the model with rich information, allowing it to better understand text data, thereby improving the performance and effectiveness of the model in domain-specific tasks.

3. Example description

Suppose we have a pre-trained language model and we want to fine-tune it for a question and answer task in the medical field. We need to annotate data from the medical domain so that the model can better understand the medical-related context.

3.1 Entity Recognition

We can annotate entities in medical texts, such as diseases, drugs, medical terms, etc. For example, for the sentence "Patient is hospitalized for heart disease", we can use BIO notation to label "Heart disease" as the "Disease" category.

3.2 Sentiment Analysis

In the medical field, sentiment analysis may be used to analyze patients’ emotional tendencies toward treatment plans, doctor attitudes, etc. For example, for the sentence "The patient is anxious about surgical treatment", we can label "anxiety" as "negative emotion".

3.3 Relation Extraction

In medical Q&A, it is crucial to identify the relationship between questions and answers. For example, for the question "What symptoms might indicate that a patient has diabetes?" we could label the relationship between "symptoms" and "diabetes".

Summary

Data annotation can provide the model with more contextual information through entity recognition, sentiment analysis, relationship extraction and other methods, allowing it to better understand the language and context of a specific domain. . This labeled data can help the model perform specific tasks more accurately. Through effective data annotation, the fine-tuned model can better adapt to the needs of specific fields and improve its performance and effectiveness in practical applications.

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