tractor-beam: A Python repository from Prismadic

tractor-beam

high-efficiency text & file scraper with smart tracking

~ client/server networking for building language model datasets fast ~

💾 Installation

pip install llm-tractor-beam

python3 setup.py install

🛸 Tutorial

examples

🌈 `tractor.Beam()`

The Beam class serves as the core engine of a highly configurable, modular library designed for parallel processing and automation of tasks such as web scraping, data downloading, processing, and storage. This class leverages various components and lower-level functions to orchestrate complex workflows. Here's an in-depth look at its roles and interactions with other components:

⚙️ Initialization and Configuration

Note

Upon initialization, the Beam class loads and verifies the configuration using the Config class. It checks if the configuration adheres to the expected structure and format, indicating the system's readiness to execute tasks as defined by the user.

Job Processing and Workflow Management

Job Processing: The process_job and _runner methods are central to executing tasks defined in the configuration. These methods handle the execution flow of each job, including data downloading (Abduct class), data recording (Visits class), and data processing (Focus class). This showcases the class's ability to manage diverse tasks sequentially, ensuring each step is completed before moving to the next.
Parallel and Delayed Execution: The go method orchestrates the execution of all jobs, allowing for parallel processing to optimize resource utilization. It uses Python's multiprocessing to distribute tasks across available CPU cores, enhancing efficiency, especially for CPU-bound tasks. Additionally, it supports delayed execution for specific jobs, enabling time-controlled or periodic task execution.
Resource Management: By leveraging the Pool class from multiprocessing for parallel execution, the Beam class efficiently manages system resources. It calculates the optimal number of processes based on the number of available CPU cores and the number of jobs, ensuring a balance between performance and resource usage.

📝 `utils.Config()`

The Config class is responsible for loading, parsing, saving, and manipulating configuration data. It can load configuration from a file or a dictionary, parse the configuration data into a structured format, save the configuration to a file, unbox the configuration by creating a project directory, create a new project directory with a configuration file, and destroy a project directory.

Example Usage

# Load configuration from a file
config = Config('config.json')
config.load_conf('config.json')

# Load configuration from a dictionary
config_dict = {
    "role": "watcher",
    "settings": {
        "name": "my_project",
        "proj_dir": "/path/to/project",
        "jobs": [
            {
                "url": "https://example.com",
                "types": ["type1", "type2"],
                "beacon": "beacon1",
                "delay": 1.5,
                "custom": {
                    "func": "my_function",
                    "headers": {"header1": "value1"},
                    "types": ["type3", "type4"]
                }
            }
        ]
    }
}
config.load_conf(config_dict)

# Save the configuration to a file
config.save()

# Unbox the configuration by creating a project directory
config.unbox()

# Create a new project directory with a configuration file
config.create()

# Destroy a project directory
config.destroy(confirm="my_project")

Code Analysis

Main functionalities

Load configuration from a file or a dictionary
Parse the configuration data into a structured format
Save the configuration to a file
Unbox the configuration by creating a project directory
Create a new project directory with a configuration file
Destroy a project directory

Methods

__init__(self, conf: Union[str, dict, None] = None): Initializes a new instance of the Config class and loads the configuration.
load_conf(self, conf): Loads the configuration from a file or a dictionary.
parse_conf(self, conf_dict: Dict[str, Any]) -> Schema: Parses the configuration data into a structured format.
save(self): Saves the configuration to a file.
unbox(self, overwrite: bool = False): Unboxes the configuration by creating a project directory.
create(self, config: dict = None): Creates a new project directory with a configuration file.
destroy(self, confirm: str = None): Destroys a project directory.

Fields

conf: The parsed configuration data.
conf.settings: The settings of the configuration.
conf.settings.name: The name of the configuration.
conf.settings.proj_dir: The project directory of the configuration.
conf.settings.jobs: The list of jobs in the configuration.
conf.settings.jobs.url: The URL of a job.
conf.settings.jobs.types: The types of a job.
conf.settings.jobs.beacon: The beacon of a job.
conf.settings.jobs.delay: The delay of a job.
conf.settings.jobs.custom: The custom job data of a job.
conf.settings.jobs.custom.func: The function of a custom job.
conf.settings.jobs.custom.headers: The headers of a custom job.
conf.settings.jobs.custom.types: The types of a custom job.

🧮 `utils.BeamState()`

The BeamState class is responsible for managing the state of a beam in a laser system. It includes information about the host system, as well as the states of different components such as abduction, focus, and visit.

Example Usage

# Create an instance of BeamState
beam = BeamState()

# Update the abduction state
abduct_state = AbductState(conf={"param": "value"})
beam.abduct_state_update(abduct_state)

# Update the focus state
focus_state = FocusState(conf={"param": "value"})
beam.focus_state_update(focus_state)

# Update the visit state
record_state = RecordState(conf={"param": "value"})
beam.record_state_update(record_state)

# Update the host state
beam.host_state_update()

# Access the current state of the beam
current_state = beam.states

Code Analysis

Main functionalities

Get information about the host system, including platform, CPU usage, memory usage, disk usage, network I/O, etc.
Update and retrieve the states of different components such as abduction, focus, and visit.
Keep track of the history of host states.

Methods

__init__(): Initializes the BeamState class by setting the initial host info and states.
get_host_info(): Retrieves the current host information and returns a HostInfo object.
abduct_state_update(state): Updates the abduction state by appending a new AbductState object to the abduct list in states.
focus_state_update(state): Updates the focus state by appending a new FocusState object to the focus list in states.
record_state_update(state): Updates the visit state by appending a new RecordState object to the visit list in states.
host_state_update(): Updates the host state by appending a new HostInfo object to the host_info list.

Fields

host_info: A list of HostInfo objects that represent the history of host states.
states: An instance of the States class that contains the states of different components such as abduction, focus, and visit.

📝 `abduct.Abduct()`

The Abduct class is responsible for downloading files from a given URL or a list of URLs. It can handle both simple URLs and URLs with recursion. It also supports the option to overwrite existing files.

Example Usage

# Initialize the Abduct class
abduct = Abduct(conf=conf, job=job)

# Download files from a single URL
abduct.download()

# Download files from a single URL and overwrite existing files
abduct.download(o=True)

# Download files from a single URL and specify a custom file name
abduct.download(f="custom_file_name")

# Download files from a URL with recursion
abduct.download(types=["pdf", "docx"])

# Download files from a URL with recursion and overwrite existing files
abduct.download(types=["pdf", "docx"], o=True)

Code Analysis

Main functionalities

Initialize the Abduct class with a configuration and a job object.
Download files from a single URL or a list of URLs.
Handle URLs with recursion and filter files by their types.
Overwrite existing files if specified.

Methods

__init__(self, conf: dict = None, job: Job = None): Initializes the Abduct class with a configuration and a job object. It prints an info message if the configuration is loaded successfully.
_fetch_to_write(self, attachment, headers, attachment_path, file_name, block_size, o=False): Downloads a file from a given URL and writes it to the specified path. It appends the file information to the state.data list.
download(self, o: bool=False, f: str=None): Downloads files from a URL or a list of URLs. It handles both simple URLs and URLs with recursion. It can overwrite existing files if specified. It returns the state object.

Fields

state: An instance of the AbductState class that stores the current state of the Abduct class.
state.conf: A dictionary that represents the configuration.
state.job: An instance of the Job class that represents the current job.
state.data: A list of dictionaries that stores the information of downloaded files. Each dictionary contains the file name and its path.

📡 `abduct.beacons.*`

"beacons" play a crucial role in a highly customizable and modular system designed for web scraping, downloading, and processing data from various sources. These beacons, represented by modules like the Stream class, are key to achieving flexibility and modularity in the system. The structure and functionality of the "beacons" can be documented as follows:

Role of Beacons

Modularity:

Beacons act as interchangeable modules within the system. Each beacon corresponds to a specific source or type of data (e.g., financial filings, news articles) and encapsulates the logic necessary for fetching, parsing, and processing data from that source. This modularity allows users to easily extend the system's capabilities by adding new beacons for different sources without altering the core functionality.

Customizability:

Beacons are designed to be customizable, allowing users to specify parameters and behaviors specific to the data source they target. This is evident in the Stream class, where the fetch method can be tailored to parse and retrieve data according to the unique structure of each source.

Tip

The Helpers class within a beacon further aids in bespoke processing and manipulating the fetched data

Uniform Interface:

Despite their differences in implementation, all beacons share a common interface, exemplified by the mandatory inclusion of a Stream class with consistent functions. This uniformity ensures that the main system can interact with any beacon in a predictable manner, facilitating ease of integration and use.

Enhanced Functionality through Helpers:

While the presence of a Stream class is mandatory for basic operations, the inclusion of a Helpers class within a beacon provides additional utility functions that are specific to the data or operations related to that beacon. This structure offers an extended layer of customization, enabling complex data manipulation and processing tasks that are tailored to the beacon's specific use case.

Integration with the Main System:

Beacons are seamlessly integrated into the main system, as demonstrated by the use of importlib for dynamic module loading and the structured approach to passing configurations and job details to beacons. This integration allows the system to leverage the unique capabilities of each beacon while maintaining a cohesive workflow.

Conclusion

The "beacons" in this system embody the principles of modularity, customizability, and extensibility, serving as specialized modules that can be dynamically integrated to add or modify the system's data processing capabilities. By adhering to a consistent interface while allowing for beacon-specific customizations, the system achieves a balance between uniformity and flexibility, enabling it to cater to a wide range of data sources and processing requirements. This architecture not only enhances the system's utility and adaptability but also facilitates ease of maintenance and expansion, making it a robust solution for customizable and modular data processing tasks.

🔍 `laser.Focus()`

The Focus class is responsible for processing files by reading their contents, detecting the encoding, and performing specific actions based on the file type. It uses the Strip class to sanitize and extract text content from XML or HTML documents. The processed data is then written to a file using the writeme function.

Example Usage

# Initialize a Focus object with a configuration and job
focus = Focus(conf=conf, job=job)

# Process a list of files
data = [{'path': 'file1.xml'}, {'path': 'file2.html'}]
result = focus.process(data)

# Destroy a file
focus.destroy(confirm='file1.xml')

Code Analysis

Main functionalities

Initialize a Focus object with a configuration and job
Process files by reading their contents, detecting the encoding, and extracting text content
Write the processed data to a file
Destroy a file if the confirmation matches the file name

Methods

__init__(self, conf: dict = None, job: Job = None): Initializes a Focus object with a configuration and job. Prints an initialization message.
process(self, data: dict = None): Processes a list of files by reading their contents, detecting the encoding, and extracting text content. Writes the processed data to a file. Returns the updated state of the Focus object.
destroy(self, confirm: str = None): Removes a file if the confirmation matches the file name. Prints a message indicating whether the file was successfully destroyed or not.

Fields

state: An instance of the FocusState class that stores the configuration and job information.
state.conf: A dictionary representing the configuration.
state.job: An instance of the Job class representing the job information.
state.data: A list of dictionaries representing the processed data. Each dictionary contains the path of the file and the path of the cleaned file.

📝 `visit.Visit()`

The Visit class is responsible for creating and managing records in a CSV file. It has methods for initializing the class, creating a new CSV file, seeking specific records, and writing records to the CSV file.

Example Usage

# Initialize the Visit class
visit = Visit(conf=conf, job=job)

# Create a new CSV file
visit.create(data=data)

# Seek specific records
visit.seek(line=2)

# Write records to the CSV file
visit.write()

Code Analysis

Main functionalities

The main functionalities of the Visit class are:

Initializing the class with a configuration and job object
Creating a new CSV file with headers and data
Seeking specific records in the CSV file
Writing records to the CSV file

Methods

The Visit class has the following methods:

__init__(self, conf: dict = None, job: Job = None): Initializes the class with a configuration and job object.
create(self, data: dict = None, o: bool = False): Creates a new CSV file with headers and data.
seek(self, line: str | int = None, all: bool = False): Seeks specific records in the CSV file.
write(self, o: bool = False, ts: bool = True, v: bool = False): Writes records to the CSV file.

Fields

The Visit class has the following fields:

headers: A list to store the headers of the CSV file.
state: An instance of the RecordState class that stores the configuration, job, and data of the visit.

Prismadic/tractor-beam

tractor-beam

💾 Installation

🛸 Tutorial

🌈 tractor.Beam()

⚙️ Initialization and Configuration

Job Processing and Workflow Management

📝 utils.Config()

Example Usage

Code Analysis

Main functionalities

Methods

Fields

🧮 utils.BeamState()

Example Usage

Code Analysis

Main functionalities

Methods

Fields

📝 abduct.Abduct()

Example Usage

Code Analysis

Main functionalities

Methods

Fields

📡 abduct.beacons.*

Role of Beacons

Modularity:

Customizability:

Uniform Interface:

Enhanced Functionality through Helpers:

Integration with the Main System:

Conclusion

🔍 laser.Focus()

Example Usage

Code Analysis

Main functionalities

Methods

Fields

📝 visit.Visit()

Example Usage

Code Analysis

Main functionalities

Methods

Fields

🌈 `tractor.Beam()`

📝 `utils.Config()`

🧮 `utils.BeamState()`

📝 `abduct.Abduct()`

📡 `abduct.beacons.*`

🔍 `laser.Focus()`

📝 `visit.Visit()`