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graphite-project logographite-web

A highly scalable real-time graphing system

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Quick Overview

Graphite-web is the web application component of Graphite, a highly scalable real-time graphing system. It provides a Django-based web interface for rendering graphs and dashboards, as well as a powerful API for data manipulation and retrieval. Graphite-web is designed to work in conjunction with other Graphite components to store and visualize time-series data.

Pros

  • Highly customizable and flexible graphing capabilities
  • Robust API for data manipulation and integration with other tools
  • Scalable architecture suitable for handling large volumes of time-series data
  • Active community and extensive documentation

Cons

  • Steep learning curve for advanced features and configurations
  • Can be resource-intensive for large-scale deployments
  • UI may feel outdated compared to more modern visualization tools
  • Setup and configuration can be complex for beginners

Code Examples

  1. Rendering a simple graph using the API:
import requests

url = "http://graphite.example.com/render"
params = {
    "target": "server.cpu.usage",
    "from": "-1hour",
    "format": "png"
}
response = requests.get(url, params=params)
with open("cpu_usage.png", "wb") as f:
    f.write(response.content)
  1. Querying data using the Graphite API:
import requests
import json

url = "http://graphite.example.com/render"
params = {
    "target": "summarize(server.cpu.usage, '1hour', 'avg')",
    "from": "-1day",
    "format": "json"
}
response = requests.get(url, params=params)
data = json.loads(response.text)
print(data)
  1. Creating a custom dashboard using the web interface:
from django.shortcuts import render
from graphite.dashboard.models import Dashboard

def custom_dashboard(request):
    dashboard = Dashboard.objects.create(name="Custom Dashboard")
    dashboard.widgets.create(
        name="CPU Usage",
        graph_params="target=server.cpu.usage&from=-1hour"
    )
    dashboard.widgets.create(
        name="Memory Usage",
        graph_params="target=server.memory.usage&from=-1hour"
    )
    return render(request, "dashboard.html", {"dashboard": dashboard})

Getting Started

To get started with Graphite-web:

  1. Install Graphite-web and its dependencies:

    pip install graphite-web
    
  2. Configure your settings in local_settings.py:

    SECRET_KEY = 'your_secret_key_here'
    ALLOWED_HOSTS = ['*']
    TIME_ZONE = 'UTC'
    
  3. Initialize the database:

    graphite-manage migrate
    
  4. Start the development server:

    graphite-manage runserver
    
  5. Access the web interface at http://localhost:8000

For production deployments, additional configuration and setup of other Graphite components (such as Carbon and Whisper) is recommended.

Competitor Comparisons

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The open and composable observability and data visualization platform. Visualize metrics, logs, and traces from multiple sources like Prometheus, Loki, Elasticsearch, InfluxDB, Postgres and many more.

Pros of Grafana

  • More versatile and supports multiple data sources beyond just Graphite
  • Offers a more modern and user-friendly interface with advanced visualization options
  • Provides built-in alerting and notification features

Cons of Grafana

  • Steeper learning curve due to more complex features and configuration options
  • Requires more system resources to run compared to Graphite-web

Code Comparison

Grafana (TypeScript):

export class DashboardModel {
  id: number;
  uid: string;
  title: string;
  tags: string[];
  // ... more properties and methods
}

Graphite-web (Python):

class Dashboard(models.Model):
    name = models.CharField(max_length=128)
    slug = models.SlugField(max_length=128, unique=True)
    owners = models.ManyToManyField(User)
    # ... more fields and methods

The code snippets show how each project defines a dashboard model. Grafana uses TypeScript with a class-based approach, while Graphite-web uses Python with Django's ORM. Grafana's model appears more focused on frontend representation, while Graphite-web's model is designed for database storage and relationships.

The Prometheus monitoring system and time series database.

Pros of Prometheus

  • Built-in alerting and query language (PromQL) for more advanced monitoring capabilities
  • Pull-based architecture allows for better scalability and easier service discovery
  • More robust multi-dimensional data model for flexible and powerful metrics

Cons of Prometheus

  • Steeper learning curve due to its more complex architecture and query language
  • Less suitable for long-term data storage compared to Graphite's whisper database
  • Requires additional components (e.g., Alertmanager) for a complete monitoring stack

Code Comparison

Prometheus query example:

http_requests_total{status!~"4.."}

Graphite query example:

stats.counters.http_requests.status.{200,300}.count

Both examples show querying HTTP request metrics, but Prometheus uses labels for more flexible filtering, while Graphite relies on a hierarchical naming structure.

Summary

Prometheus offers a more powerful and scalable monitoring solution with built-in alerting and a flexible data model. However, it comes with a steeper learning curve and may require additional components. Graphite is simpler to set up and use, with better long-term storage capabilities, but lacks some of the advanced features and scalability of Prometheus. The choice between the two depends on specific monitoring needs and infrastructure complexity.

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Pros of InfluxDB

  • Built-in time series functionality with better performance for time-based queries
  • Flexible data model supporting tags and fields, allowing for more efficient querying
  • Native clustering support for high availability and horizontal scalability

Cons of InfluxDB

  • Steeper learning curve due to its unique query language (InfluxQL or Flux)
  • Less mature ecosystem compared to Graphite's extensive tooling and integrations
  • Potential higher resource consumption, especially for write-heavy workloads

Code Comparison

Graphite-web query example:

target = 'summarize(servers.*.cpu.usage, "1hour", "avg")'
start_time = '-24h'
end_time = 'now'
data = graphite.render(target, start_time, end_time)

InfluxDB query example (using InfluxQL):

SELECT mean("usage") FROM "cpu"
WHERE time >= now() - 24h
GROUP BY time(1h), "server"

Both examples show querying CPU usage data for the last 24 hours, aggregated hourly. InfluxDB's query is more SQL-like, while Graphite uses its own function-based syntax. InfluxDB's query demonstrates the use of tags ("server") for grouping, which is a key feature of its data model.

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Pros of netdata

  • Real-time monitoring with per-second granularity
  • Lightweight and efficient, with low system resource usage
  • Extensive out-of-the-box metrics collection for various systems and applications

Cons of netdata

  • Limited long-term data storage capabilities
  • Less flexible for custom data aggregation and complex queries

Code Comparison

netdata configuration example:

[global]
  update every = 1
  memory mode = ram
  history = 3600

Graphite-web configuration example:

DATABASES = {
    'default': {
        'NAME': '/opt/graphite/storage/graphite.db',
        'ENGINE': 'django.db.backends.sqlite3',
        'USER': '',
        'PASSWORD': '',
        'HOST': '',
        'PORT': ''
    }
}

netdata focuses on simplicity and real-time monitoring, while Graphite-web offers more flexibility for data storage and querying. netdata's configuration is typically more straightforward, emphasizing performance and immediate data collection. Graphite-web's configuration allows for more customization in terms of data storage and backend options.

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Pros of Kibana

  • More comprehensive data visualization and analytics capabilities
  • Seamless integration with Elasticsearch for powerful full-text search
  • Robust user interface with customizable dashboards and real-time updates

Cons of Kibana

  • Steeper learning curve and more complex setup compared to Graphite
  • Higher resource requirements, especially for large-scale deployments
  • Less focused on time-series data, which is Graphite's specialty

Code Comparison

Kibana (JavaScript):

const visualization = {
  type: 'line',
  params: {
    addLegend: true,
    addTooltip: true,
    drawLinesBetweenPoints: true,
    showCircles: true,
  },
};

Graphite (Python):

graph = {
    'target': 'summarize(stats.counters.app.requests, "1hour", "sum")',
    'title': 'Hourly Request Count',
    'vtitle': 'Requests/hour',
    'from': '-24hours',
    'width': 800,
    'height': 400,
}

Both examples demonstrate how to configure a basic line graph visualization, showcasing the different approaches and syntax used by each project.

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README

Graphite-Web

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Overview

Graphite consists of three major components:

  1. Graphite-Web, a Django-based web application that renders graphs and dashboards
  2. The Carbon metric processing daemons
  3. The Whisper time-series database library

Graphite Components

Installation, Configuration and Usage

Please refer to the instructions at readthedocs.

License

Graphite-Web is licensed under version 2.0 of the Apache License. See the LICENSE file for details.