Deploying an XRP node gives developers and enterprises full control over their interaction with the XRP Ledger, enabling secure, reliable, and independent access to blockchain data and transaction capabilities. Whether you're building decentralized applications, managing enterprise wallets, or validating transactions, running your own rippled node is a foundational step. This comprehensive guide walks you through hardware requirements, installation steps, deployment modes, cluster configuration, and advanced settings—optimized for performance, security, and scalability.
Prerequisites for XRP Node Deployment
Before installing the rippled server software, ensure your system meets the recommended specifications. The XRP Ledger processes thousands of transactions per second, and node performance directly impacts reliability and responsiveness.
Recommended Hardware and Software Configuration
For optimal performance in production environments, use bare metal servers with the following baseline configuration:
- Operating System: Ubuntu 16.04 or later (LTS versions preferred)
- CPU: Intel Xeon 3+ GHz processor with 4 cores and hyper-threading
RAM:
- Testing: 8GB+
- Production: 32GB
- Storage: SSD with high IOPS (Input/Output Operations Per Second)
- Network: Gigabit Ethernet interface in an enterprise-grade data center
💡 Ripple’s performance engineering team has found that bare metal servers deliver maximum throughput. While virtualized environments are supported, they may introduce latency and reduce performance due to hypervisor overhead.
SSD Storage Requirements
The rippled node performs frequent read/write operations. To maintain synchronization with the network:
- SSDs should support over 10,000 IOPS
- Observed peak write loads exceed 7,000 writes per second during stress tests
- Use NuDB (recommended) instead of RocksDB for better SSD optimization and lower memory usage
Network Bandwidth Considerations
- Minimum sustained bandwidth: 2 Mbps upload and download
- Burst capacity: Up to 100 Mbps when serving historical ledger data
- Initial sync may require over 20 Mbps download as the node pulls ledger history
Storage Capacity Planning
- Daily growth estimate: ~12 GB/day with NuDB
- As of early 2025, the full ledger history exceeds 7 TB
- Plan for scalable storage—ideally on dedicated drives separate from OS and logs
RAM Memory Configuration
Memory usage depends on the node_size setting in rippled.cfg:
- Set to
hugein production for maximum performance - Can be reduced during testing to lower memory footprint
- 8GB RAM is sufficient for test nodes; 32GB+ recommended for validators
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Installing the Rippled Service on Ubuntu
Follow these steps to install rippled on Ubuntu systems:
Update package list and install dependencies
sudo apt-get update sudo apt-get install yum-utils alienAdd Ripple’s official RPM repository
sudo rpm -Uvh https://mirrors.ripple.com/ripple-repo-el7.rpmDownload the rippled package
yumdownloader --enablerepo=ripple-stable --releasever=el7 rippledVerify package integrity
sudo rpm --import https://mirrors.ripple.com/rpm/RPM-GPG-KEY-ripple-release && rpm -K rippled*.rpmInstall using alien (converts RPM to DEB)
sudo alien -i --scripts rippled*.rpm && rm rippled*.rpmEnable auto-start at boot
sudo systemctl enable rippled.serviceStart the node
sudo systemctl start rippled.service
After startup, allow several minutes for the node to synchronize with the network. Once synced, it operates as a stock server, capable of submitting transactions and querying ledger data via API.
Updating Rippled on Ubuntu
To upgrade to the latest version:
sudo rpm -Uvh --replacepkgs https://mirrors.ripple.com/ripple-repo-el7.rpm
yumdownloader --enablerepo=ripple-stable --releasever=el7 rippled
rpm -K rippled*.rpm
sudo alien -i --scripts rippled*.rpm
sudo systemctl daemon-reload
sudo service rippled restartRunning Rippled in Different Modes
The rippled service supports multiple operational modes tailored to specific use cases.
1. Stock Server Mode
A stock server follows the XRP Ledger network, maintains a local copy of the ledger, and provides API access.
When to Use This Mode
- You need full control over your node’s availability and workload
- You want to avoid reliance on third-party nodes that may throttle or misrepresent data
- You're building applications requiring consistent API response times
- You plan to run a validator behind a proxy (recommended setup)
⚠️ Connecting to untrusted nodes risks exposure to false transaction confirmations, manipulated exchange paths, or secret key theft.
Running your own node ensures trustless access and avoids resource contention on shared infrastructure.
2. Validator Mode
Validators participate in consensus, helping secure the XRP Ledger by agreeing on transaction order and validity.
Steps to Become a Trusted Validator
- Enable validation on your
ripplednode - Generate and securely store your validation key pair
- Share your public key with other validator operators
- Get added to their trusted validator lists (TVLs)
Only validators included in others’ TVLs influence consensus.
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Ripple Cluster Server Setup
Clustering improves security and efficiency across multiple nodes.
Why Build a Cluster?
- Shared validation reduces redundant cryptographic checks
- Nodes share threat intelligence about malicious clients
- Ensures consistent transaction propagation even under load
Deploying a Cluster
- Note each server’s IP address and peer port (default: 51235)
- Run
rippled validation_createto generate unique seeds and public keys - Edit
rippled.cfgon each node:
[ips_fixed]
192.168.0.1 51235
192.168.0.2 51235
[node_seed]
ssZkdwURFMBXenJPbrpE14b6noJSu
[cluster_nodes]
n9McNsnzzXQPbg96PEUrrQ6z3wrvgtU4M7c97tncMpSoDzaQvPar keynes
n94UE1ukbq6pfZY9j54sv2A1UrEeHZXLbns3xK5CzU9NbNREytaa friedman- Restart all nodes:
systemctl restart rippled - Verify cluster membership using
rippled peers
Production Validator Security Setup
To protect your validator:
- Place it on a private subnet
- Use a stock server as a public-facing proxy
- Configure firewall rules to accept connections only from proxy nodes
- Disable public peer discovery (
[peer_private] = 1)
This architecture shields your validator from DDoS attacks while maintaining network participation.
Domain Verification for Validators
Establish trust by linking your validator to a registered domain:
Retrieve your validator’s public key:
$HOME/opt/ripple/bin/rippled server_info -q | grep pubkey_validator- Sign the key with your domain’s SSL private key using OpenSSL
- Use Ripple’s
validator-keystool to generate a signed domain attestation - Submit verification details via official Ripple forms
Verified domains appear in explorer tools, increasing community trust.
Test Network Setup
Use the XRP Testnet for development:
Modify
rippled.cfg:[ips] r.altnet.rippletest.net 51235- Comment out mainnet validator lists in
validators.txt - Restart the service and verify sync using
server_info
Testnet XRP has no monetary value—ideal for safe experimentation.
Configuring Historical Block Data Storage
Enable History Sharding to store archival ledger data:
- Allocate dedicated SSD space (e.g., 50GB)
Configure
rippled.cfg:[shard_db] type=NuDB path=/var/lib/rippled/db/shards/nudb max_size_gb=50- Restart
rippled - Wait for automatic shard downloads
🔔 Ripple recommends storing history on a separate node—not on validators—to minimize load.
Enabling Public Signing (Use with Caution)
Public signing allows external clients to sign transactions via your node.
Methods enabled:
sign: Sign transactions using secret keys (admin-only by default)sign_for: Support multi-signature workflowssubmit: Broadcast signed transactions
Activation Steps
Edit
rippled.cfg:[signing_support] true- Restart the service
❌ Ripple strongly advises against enabling public signing in production. Untrusted access can lead to key exposure and fund loss.
Standalone Mode for Development and Testing
Run rippled in isolation for debugging:
rippled -a --start --conf=/path/to/rippled.cfgUse cases:
- Testing amendment behavior before mainnet deployment
- Simulating ledger state changes without network interference
You can start from:
- A new genesis ledger (all XRP owned by
rHb9CJAWyB4rj91VRWn96DkukG4bwdtyTh) - A previously synchronized local ledger snapshot
Manually advance ledgers using ledger_accept.
Frequently Asked Questions (FAQ)
Q: What are the core keywords for XRP node deployment?
A: Key terms include XRP node, rippled installation, validator setup, ledger synchronization, NuDB storage, Ripple cluster, standalone mode, and history sharding.
Q: Can I run a validator on a VPS?
A: Technically yes, but bare metal is recommended for stability and performance during consensus rounds.
Q: How long does initial sync take?
A: Depending on hardware and bandwidth, initial synchronization can take 6–24 hours.
Q: Is public signing safe?
A: No—only enable it in isolated test environments. Always prefer client-side signing in production.
Q: Should I store historical shards on my validator?
A: No—Ripple recommends running a separate node for archival storage to reduce validator load.
Q: How do I check if my node is synced?
A: Use rippled server_info and look for "server_state": "full" or "validating".
Command Line Reference
Available Modes
- Daemon mode: Default; connects to network (
rippled) - Standalone mode: Isolated testing (
rippled -a) - Client mode: Query APIs (
rippled -- account_info r...) - Unit tests: Validate build integrity (
rippled -u)
Common Options
--conf: Specify config file path--verbose: Enable detailed logging (deprecated; uselog_levelAPI)--fg: Run in foreground (useful for debugging)
For full details, refer to Ripple’s official CLI documentation.
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