Top Related Projects
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.
The Prometheus monitoring system and time series database.
Scalable datastore for metrics, events, and real-time analytics
Architected for speed. Automated for easy. Monitoring and troubleshooting, transformed!
Your window into the Elastic Stack
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- UI may feel outdated compared to more modern visualization tools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
- 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)
- 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)
- 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:
-
Install Graphite-web and its dependencies:
pip install graphite-web
-
Configure your settings in
local_settings.py
:SECRET_KEY = 'your_secret_key_here' ALLOWED_HOSTS = ['*'] TIME_ZONE = 'UTC'
-
Initialize the database:
graphite-manage migrate
-
Start the development server:
graphite-manage runserver
-
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
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.
Scalable datastore for metrics, events, and real-time analytics
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.
Architected for speed. Automated for easy. Monitoring and troubleshooting, transformed!
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.
Your window into the Elastic Stack
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.
Convert designs to code with AI
Introducing Visual Copilot: A new AI model to turn Figma designs to high quality code using your components.
Try Visual CopilotREADME
Graphite-Web
Overview
Graphite consists of three major components:
- Graphite-Web, a Django-based web application that renders graphs and dashboards
- The Carbon metric processing daemons
- The Whisper time-series database library
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.
Top Related Projects
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.
The Prometheus monitoring system and time series database.
Scalable datastore for metrics, events, and real-time analytics
Architected for speed. Automated for easy. Monitoring and troubleshooting, transformed!
Your window into the Elastic Stack
Convert designs to code with AI
Introducing Visual Copilot: A new AI model to turn Figma designs to high quality code using your components.
Try Visual Copilot