Christian WellsMariaDB is a relational database management system (RDBMS) widely used for its MySQL compatibility, performance, and scalability. To understand its strengths and weaknesses, it’s essential to compare it with other database types: Relational Databases (RDBMS), NoSQL Databases, NewSQL Databases, and In-Memory Databases.
Comparison with Other Relational Databases (RDBMS)
| Feature | MariaDB | MySQL | PostgreSQL | SQLite |
|---|---|---|---|---|
| License | Open-source (GPL v2) | Open-source (GPL, commercial) | Open-source (PostgreSQL license) | Open-source (Public domain) |
| Performance | Faster for read-heavy workloads | Good for both read and write | Robust for complex queries | Lightweight, single-file DB |
| ACID Compliance | Full support | Full support | Full support | Full support |
| Scalability | Scalable with clustering | Scalable with clustering | Scalable for large datasets | Limited to single applications |
| Replication | Master-slave, master-master | Master-slave, Group Replication | Streaming replication | Not supported |
| Stored Procedures | Supported | Supported | Supported | Limited |
| JSON Support | Basic JSON functions | Advanced JSON support | Advanced JSON support | Limited |
| Community | Active, MariaDB Foundation | Large (Oracle-backed) | Large (Community-driven) | Large (Embedded database users) |
- Compared to MySQL, MariaDB offers better performance in read-heavy environments and is more transparent as it’s maintained by the MariaDB Foundation.
- PostgreSQL is more suitable for complex queries and advanced data types, while MariaDB is faster for simpler queries.
- SQLite is lightweight and ideal for embedded systems but lacks the scalability of MariaDB.
Comparison with NoSQL Databases
| Feature | MariaDB | MongoDB (Document) | Redis (Key-Value) | Cassandra (Wide-Column) |
|---|---|---|---|---|
| Data Model | Relational (Structured) | Document-based | Key-Value | Wide-Column |
| Scalability | Vertical & horizontal (limited) | Horizontal | Horizontal | Highly scalable |
| Performance | Fast for structured queries | Fast for unstructured data | Ultra-fast in-memory | Fast writes, scalable reads |
| Schema | Strict schema | Schema-less | Key-value pairs | Flexible schema |
| Transactions (ACID) | Full support | Partial support (MongoDB 4.0+) | Limited | Limited |
| Use Cases | Structured data, business apps | Flexible schema, big data | Caching, real-time analytics | Large-scale distributed systems |
| Query Language | SQL | MongoDB Query Language (MQL) | Key-value commands | CQL (Cassandra Query Language) |
- MongoDB is more flexible for unstructured data, while MariaDB is better for structured data.
- Redis excels in caching and in-memory performance but is not designed for relational data.
- Cassandra is superior for distributed, large-scale systems but lacks ACID compliance.
Comparison with NewSQL Databases
| Feature | MariaDB | CockroachDB | Google Spanner | TiDB |
|---|---|---|---|---|
| Scalability | Moderate (Galera Cluster) | High (Horizontal scaling) | Global scaling | Distributed SQL |
| SQL Compatibility | MySQL-compatible | PostgreSQL-compatible | SQL-like dialect | MySQL-compatible |
| Consistency | Strong consistency | Strong consistency | Strong consistency | Strong consistency |
| Performance | Fast for smaller clusters | Optimized for distributed SQL | Designed for global performance | Optimized for distributed SQL |
| Deployment | On-premises or cloud | Cloud-native or on-premises | Google Cloud only | Cloud-native or on-premises |
- Compared to CockroachDB and Google Spanner, MariaDB is better suited for smaller-scale deployments with less distributed complexity.
- TiDB is more scalable for distributed workloads but might be overkill for smaller applications.
Comparison with In-Memory Databases
| Feature | MariaDB (with Memory Engine) | Redis | Memcached | SAP HANA |
|---|---|---|---|---|
| Performance | Faster with memory engine | Ultra-fast | High-speed caching | High-performance analytics |
| Data Persistence | Persistent | Optional (Ephemeral or persistent) | Ephemeral | Persistent |
| Scalability | Limited compared to Redis | Highly scalable | Scalable | Scalable |
| Use Cases | High-speed queries | Caching, real-time analytics | Simple caching | Real-time analytics, AI/ML |
- Redis and Memcached are faster for caching but lack the relational structure of MariaDB.
- SAP HANA is designed for enterprise-level analytics with higher hardware requirements.
- MariaDB’s Memory Engine is useful for faster queries but doesn’t match Redis’s speed.
- MariaDB is ideal for structured data, transactional applications, and SQL-based systems.
- Compared to MySQL, MariaDB offers better performance, open-source transparency, and community-driven development.
- PostgreSQL is preferred for complex queries and advanced data types, while MongoDB is better for unstructured data.
- For real-time performance, Redis and Memcached outperform MariaDB, but they are limited to specific use cases.
- For distributed, globally scalable systems, CockroachDB, Google Spanner, and Cassandra offer better scalability than MariaDB.
MariaDB remains a solid choice for most traditional database applications, especially on Debian 12, where it is easy to install, configure, and maintain.
Step 1: Set Up a Server Instance
First, create a Debian 12 server instance by following these steps:
Access Shape.Host Dashboard: Log into your Shape.Host account and go to the Dashboard.
Create a New Instance: Click the “Create” button in the upper-right corner.
Choose Server Type: Select “Instances” to configure your server.
Select a Data Center: Choose a location close to your audience for better performance.
Pick a Hosting Plan: Choose a plan that suits your needs, whether Standard or Memory-Optimized.
Set the OS: Select Debian 12 as your operating system.
Finalize and Launch: Choose SSH keys or a password for authentication and click Create Instance.
In Dashboard you will find your Instance IP.
Step 2: Connect to Your Server
Use SSH to connect to your server:
- Linux/macOS:
ssh root@<your_server_ip> - Windows: Use PuTTY, enter your server’s IP, and log in with your credentials.
Step 3: Install MariaDB
Step 3.1: Update the System
Ensure that your system packages are up-to-date:
apt update
Step 3.2: Install MariaDB Server
Install MariaDB using the following command:
apt install mariadb-server
Step 3.3: Verify the Installation
Check the installed version of MariaDB:
mariadb --version
Step 4: Manage MariaDB Service
Step 4.1: Enable MariaDB
Enable MariaDB to start automatically at boot:
systemctl enable mariadb
Step 4.2: Start MariaDB
Start the MariaDB service:
systemctl start mariadb
Step 4.3: Check Service Status
Verify that MariaDB is running:
systemctl status mariadb
Step 5: Secure MariaDB Installation
Run the security script to improve the default security settings:
mysql_secure_installation
Follow the prompts to configure root access, remove anonymous users, disable remote root login, and remove test databases.
Step 6: Access MariaDB
Log in to the MariaDB shell using the root account:
mariadb -u root -p
Enter the root password when prompted.
Step 7: Create a New Database and User
Once logged in, create a new database, user, and grant privileges:
CREATE DATABASE exampledb;
CREATE USER 'andrei_user'@'localhost' IDENTIFIED BY 'secure_password';
GRANT ALL PRIVILEGES ON exampledb.* TO 'andrei_user'@'localhost';
FLUSH PRIVILEGES;
Step 8: Verify Database Creation
List the available databases to verify the creation:
SHOW DATABASES;
exit
For reliable hosting solutions, consider Shape.Host Cloud VPS, optimized for database-driven applications and high-performance workloads.
