{"id":5233,"date":"2026-11-09T01:05:54","date_gmt":"2026-11-08T19:35:54","guid":{"rendered":"https:\/\/cpanelfree.com\/blog\/disaster-recovery-automation-using-rclone-to-sync-linux-server-backups-to-multiple-cloud-providers\/"},"modified":"2026-11-09T01:05:54","modified_gmt":"2026-11-08T19:35:54","slug":"disaster-recovery-automation-using-rclone-to-sync-linux-server-backups-to-multiple-cloud-providers","status":"publish","type":"post","link":"https:\/\/cpanelfree.com\/blog\/disaster-recovery-automation-using-rclone-to-sync-linux-server-backups-to-multiple-cloud-providers\/","title":{"rendered":"Disaster Recovery Automation: Using Rclone to Sync Linux Server Backups to Multiple Cloud Providers"},"content":{"rendered":"

Modern Linux server administration demands resilient disaster recovery architectures that withstand entire datacenter outages, regional hypervisor failures, and sudden cloud provider account lockouts. Relying on a single storage vendor or localized snapshot mechanisms violates fundamental business continuity principles, creating an operational single point of failure that jeopardizes critical enterprise databases and web assets. By prototyping your automation pipelines on CpanelFree<\/a> and deploying production-grade multi-cloud replication with Rclone, systems architects can build an unshakeable, cryptographically secured 3-2-1 backup strategy that synchronizes server archives across independent object storage clouds with zero vendor lock-in.<\/p>\n

<\/p>\n

Enterprise Disaster Recovery Architecture: Multi-Cloud Replication with Rclone<\/h2>\n
\n

Direct Answer:<\/strong> Automated multi-cloud disaster recovery with Rclone replicates encrypted Linux backups across independent storage providers (such as AWS S3, Cloudflare R2, and Backblaze B2) using native API chunking, cryptographic checksum verification, and bandwidth-throttled systemd timers. This prevents vendor lock-in, eliminates single-region blast radiuses, and guarantees sub-hour Recovery Point Objectives (RPO).<\/p>\n<\/div>\n

The standard 3-2-1 backup rule dictates maintaining three distinct copies of mission-critical data on two separate media types, with at least one copy stored completely off-site. In modern cloud native and bare-metal server environments, this framework must evolve into a resilient 3-2-2 Multi-Cloud Topology<\/strong>: one primary production copy, two independent off-site cloud storage targets (such as AWS S3 Standard in Europe and Cloudflare R2 or Wasabi in North America), and an encrypted, immutable cold tier. A disaster recovery pipeline is only as reliable as its transport layer, which is why engineering teams rely on Rclone\u2014the open-source universal storage synchronization engine that natively abstracts over 70 distinct cloud protocols through high-throughput multipart streaming.<\/p>\n

Unlike monolithic backup appliances that lock data inside proprietary deduplication containers, Rclone operates directly at the object and file boundary. It allows systems administrators to maintain standard POSIX tarballs, database dumps (e.g., mysqldump<\/code>, pg_dump<\/code>, or physical Percona XtraBackup streaming archives), and directory trees in pure, open formats. By stacking Rclone’s native crypt<\/code> overlay backend, all payloads undergo local, client-side AES-256-GCM authenticated encryption before transmitting over TLS 1.3 tunnels, preventing cloud storage providers or compromised intermediate endpoints from inspecting sensitive enterprise database contents.<\/p>\n

\n

Architecture Note:<\/strong> In disaster recovery automation, synchronization (rclone sync<\/code>) mirrors source files to a destination, removing target objects that no longer exist at the origin. To prevent disastrous cascading deletions caused by local filesystem corruption, production disaster recovery architectures must always couple rclone sync<\/code> with the --backup-dir<\/code> flag or configure target bucket object versioning with lifecycle immutability (WORM retention).<\/p>\n<\/blockquote>\n

Architectural Comparison: Backup Strategies Under Catastrophic Outage Scenarios<\/h2>\n

Evaluating an automated multi-cloud Rclone architecture against traditional single-cloud vendor snapshots and ad-hoc FTP\/SCP scripts reveals massive advantages in resilience, cryptographic zero-trust isolation, and recovery time:<\/p>\n

\n\n\n\n\n\n\n\n\n\n\n\n
Feature \/ Metric<\/th>\nStandard \/ Default (Single-Cloud Snapshot)<\/th>\nTuned \/ Production (Multi-Cloud Rclone Pipeline)<\/th>\n<\/tr>\n<\/thead>\n
Provider Outage Resilience<\/td>\nZero (Complete service outage if provider fails)<\/td>\nHigh Availability across independent clouds<\/td>\n<\/tr>\n
Encryption Mechanism<\/td>\nServer-Side Encryption (Cloud vendor holds keys)<\/td>\nClient-Side AES-256-GCM via Rclone Crypt<\/td>\n<\/tr>\n
Egress Cost Exposure<\/td>\nHigh vendor lock-in egress penalty ($0.09\/GB)<\/td>\nOptimized with zero-egress destinations (e.g. R2)<\/td>\n<\/tr>\n
Integrity Verification<\/td>\nBlind file size check or assumed consistency<\/td>\nEnd-to-end cryptographic MD5\/SHA-256 hash checks<\/td>\n<\/tr>\n
API Rate-Limit Handling<\/td>\nScripts crash on HTTP 429 Too Many Requests<\/td>\nNative exponential backoff with configurable retries<\/td>\n<\/tr>\n
Execution Orchestration<\/td>\nBrittle Crontab without logging or locking<\/td>\nIsolated systemd service and monotonic timer<\/td>\n<\/tr>\n
Latency \/ Overhead<\/td>\nBaseline<\/td>\nOptimal (Multi-Threaded Parallel Chunking)<\/td>\n<\/tr>\n<\/tbody>\n<\/table>\n<\/figure>\n

Configuring Rclone with Multi-Cloud Targets and Crypt Overlay<\/h2>\n

To establish a resilient multi-cloud disaster recovery pipeline, we configure three independent storage backends: primary S3 storage on AWS, secondary object storage on Cloudflare R2 (which features zero egress fees), and a unified crypt<\/code> overlay that encrypts all files transparently before they reach either provider.<\/p>\n

The centralized configuration file is stored securely at \/etc\/rclone\/rclone.conf<\/code> with strict 0600<\/code> root-only permissions. Below is the production-ready configuration supporting dual-cloud replication with AES-256 encrypted endpoints:<\/p>\n

# \/etc\/rclone\/rclone.conf\n# Production Disaster Recovery Multi-Cloud Remote Configuration\n# File Permissions: chmod 600 \/etc\/rclone\/rclone.conf\n\n[aws-s3-dr]\ntype = s3\nprovider = AWS\nenv_auth = false\naccess_key_id = AKIAIOSFODNN7EXAMPLE\nsecret_access_key = wJalrXUtnFEMI\/K7MDENG\/bPxRfiCYEXAMPLEKEY\nregion = eu-west-1\nlocation_constraint = eu-west-1\nacl = private\nstorage_class = STANDARD_IA\nendpoint = \n\n[cloudflare-r2-dr]\ntype = s3\nprovider = Cloudflare\naccess_key_id = 9b2d83f47e2a9b1c5e6d7a8b9c0d1e2f\nsecret_access_key = a1b2c3d4e5f60718293a4b5c6d7e8f9a0b1c2d3e4f5a6b7c8d9e0f1a2b3c4d5e\nendpoint = https:\/\/<ACCOUNT_ID>.r2.cloudflarestorage.com\nacl = private\n\n[secure-s3-backup]\ntype = crypt\nremote = aws-s3-dr:enterprise-production-dr-backups\/encrypted\nfilename_encryption = standard\ndirectory_name_encryption = true\npassword = dY4rZ_5f7K9qP2mX0vL8wB3tJ6nQ1sA5\npassword2 = zX8vB2nM4lK6jH9gF1dC3sA5qW7eR0tP\n\n[secure-r2-backup]\ntype = crypt\nremote = cloudflare-r2-dr:enterprise-production-dr-backups\/encrypted\nfilename_encryption = standard\ndirectory_name_encryption = true\npassword = dY4rZ_5f7K9qP2mX0vL8wB3tJ6nQ1sA5\npassword2 = zX8vB2nM4lK6jH9gF1dC3sA5qW7eR0tP<\/code><\/pre>\n
Notice how both [secure-s3-backup]<\/code> and [secure-r2-backup]<\/code> share identical cryptographic salt and passphrase parameters (password<\/code> and password2<\/code>). This architectural pattern is deliberate: in a full disaster recovery scenario where AWS is experiencing a global outage, any bare-metal Linux server can mount or pull from the Cloudflare R2 bucket using the exact same decryption keys without data translation overhead.<\/p>\n
Linux Kernel TCP and Network Buffer Optimization for High-Bandwidth Cloud Ingestion<\/h2>\n
Transferring multi-gigabyte server backups across geographic regions to multiple cloud providers requires eliminating Linux TCP stack bottlenecks. Default Linux kernel network buffer allocations (rmem_default<\/code> and wmem_default<\/code>) were architected for low-bandwidth local networking and artificially throttle large window-scale TCP flows over high-latency wide-area network (WAN) links.<\/p>\n
Deploy the following hardened sysctl configuration file to \/etc\/sysctl.d\/99-rclone-network.conf<\/code> to optimize TCP socket buffers, enable BBR congestion control, and increase network core queuing thresholds:<\/p>\n
# \/etc\/sysctl.d\/99-rclone-network.conf\n# High-Throughput Cloud WAN Network Tuning for Enterprise Backup Sync\n\n# Maximum receive socket buffer size (16MB)\nnet.core.rmem_max = 16777216\n\n# Maximum send socket buffer size (16MB)\nnet.core.wmem_max = 16777216\n\n# Default socket receive and send buffer sizes (1MB)\nnet.core.rmem_default = 1048576\nnet.core.wmem_default = 1048576\n\n# Maximum network backlog packet queue for high-rate socket allocation\nnet.core.netdev_max_backlog = 10000\n\n# TCP window scale auto-tuning buffer bounds: min, default, max\nnet.ipv4.tcp_rmem = 4096 1048576 16777216\nnet.ipv4.tcp_wmem = 4096 1048576 16777216\n\n# Enable TCP Window Scaling and Timestamps (RFC 1323)\nnet.ipv4.tcp_window_scaling = 1\nnet.ipv4.tcp_timestamps = 1\n\n# Enable selective acknowledgements (RFC 2018) for resilient loss recovery\nnet.ipv4.tcp_sack = 1\n\n# Modern BBR congestion control for maximum throughput over international WAN links\nnet.core.default_qdisc = fq\nnet.ipv4.tcp_congestion_control = bbr\n\n# Increase local port range for concurrent API connections\nnet.ipv4.ip_local_port_range = 10240 65535<\/code><\/pre>\n
Activate these parameters immediately across your running kernel using the following command:<\/p>\n
sysctl --system<\/code><\/pre>\n
Automated Disaster Recovery Script with Bandwidth Throttling and Versioning<\/h2>\n
A production backup synchronization script must handle staging archive verification, parallel multipart transfers, atomic lock handling to prevent overlapping executions, and progressive log reporting. We construct an enterprise-grade shell script located at \/usr\/local\/sbin\/rclone-disaster-recovery.sh<\/code>:<\/p>\n
#!\/usr\/bin\/env bash\n# \/usr\/local\/sbin\/rclone-disaster-recovery.sh\n# Enterprise Multi-Cloud Disaster Recovery Synchronization Script\nset -euo pipefail\n\nLOCKFILE=\"\/var\/run\/rclone-dr.lock\"\nBACKUP_SOURCE=\"\/var\/backups\/production\"\nLOG_DIR=\"\/var\/log\/rclone-dr\"\nDATE_STAMP=\"$(date +'%Y-%m-%d_%H%M%S')\"\nLOG_FILE=\"${LOG_DIR}\/sync_${DATE_STAMP}.log\"\n\nmkdir -p \"${LOG_DIR}\"\n\n# Ensure single execution via non-blocking file descriptor lock\nexec 200>\"${LOCKFILE}\"\nflock -n 200 || {\n    echo \"[$(date -Iseconds)] [ERROR] Backup synchronization is already running. Aborting.\" >> \"${LOG_FILE}\"\n    exit 1\n}\n\necho \"=== Starting Disaster Recovery Sync: ${DATE_STAMP} ===\" >> \"${LOG_FILE}\"\n\n# Ensure source backup directory exists and contains data\nif [ ! -d \"${BACKUP_SOURCE}\" ] || [ -z \"$(ls -A \"${BACKUP_SOURCE}\")\" ]; then\n    echo \"[ERROR] Backup source directory ${BACKUP_SOURCE} is missing or empty!\" >> \"${LOG_FILE}\"\n    exit 2\nfi\n\n# Define primary and secondary multi-cloud remotes\nTARGET_REMOTES=(\n    \"secure-s3-backup:primary-backup-stream\"\n    \"secure-r2-backup:secondary-failover-stream\"\n)\n\n# Common enterprise transfer tuning parameters:\n# --transfers=4: Parallel file transfers\n# --checkers=8: Concurrent hash checking threads\n# --fast-list: Leverages single-call bucket enumeration to slash API request bills\n# --s3-chunk-size=64M: Optimizes high-throughput multipart ingestion\n# --bwlimit: Dynamic bandwidth throttling (50M during business hours, 0M off-peak)\nCOMMON_FLAGS=(\n    \"--config=\/etc\/rclone\/rclone.conf\"\n    \"--transfers=4\"\n    \"--checkers=8\"\n    \"--fast-list\"\n    \"--s3-chunk-size=64M\"\n    \"--s3-upload-concurrency=4\"\n    \"--buffer-size=32M\"\n    \"--retries=5\"\n    \"--retries-sleep=10s\"\n    \"--timeout=15m\"\n    \"--contimeout=30s\"\n    \"--bwlimit=08:00,50M 20:00,0M\"\n    \"--log-file=${LOG_FILE}\"\n    \"--log-level=INFO\"\n    \"--stats=1m\"\n)\n\nSYNC_ERRORS=0\n\nfor REMOTE in \"${TARGET_REMOTES[@]}\"; do\n    echo \"[$(date -Iseconds)] [INFO] Initiating replication to remote target: ${REMOTE}\" >> \"${LOG_FILE}\"\n    \n    # Use sync with versioned backup directory to retain modified or deleted files safely\n    OLD_VERSION_DIR=\"${REMOTE}\/deleted_archive\/${DATE_STAMP}\"\n    \n    if rclone sync \"${BACKUP_SOURCE}\" \"${REMOTE}\/current\"         --backup-dir=\"${OLD_VERSION_DIR}\"         \"${COMMON_FLAGS[@]}\"; then\n        echo \"[$(date -Iseconds)] [SUCCESS] Completed sync to ${REMOTE}\" >> \"${LOG_FILE}\"\n    else\n        echo \"[$(date -Iseconds)] [ERROR] Failed sync to ${REMOTE}\" >> \"${LOG_FILE}\"\n        SYNC_ERRORS=$((SYNC_ERRORS + 1))\n    fi\ndone\n\n# Perform cryptographic verification pass to ensure zero data corruption\necho \"[$(date -Iseconds)] [INFO] Running cryptographic integrity checks...\" >> \"${LOG_FILE}\"\nfor REMOTE in \"${TARGET_REMOTES[@]}\"; do\n    rclone check \"${BACKUP_SOURCE}\" \"${REMOTE}\/current\"         --config=\/etc\/rclone\/rclone.conf         --one-way         --log-file=\"${LOG_FILE}\"         --log-level=NOTICE || {\n            echo \"[$(date -Iseconds)] [WARNING] Hash discrepancy observed in ${REMOTE}\" >> \"${LOG_FILE}\"\n            SYNC_ERRORS=$((SYNC_ERRORS + 1))\n        }\ndone\n\necho \"=== Finished Disaster Recovery Sync with exit status: ${SYNC_ERRORS} ===\" >> \"${LOG_FILE}\"\nexit \"${SYNC_ERRORS}\"<\/code><\/pre>\n
Make the script strictly executable by the root user:<\/p>\n
chmod 0750 \/usr\/local\/sbin\/rclone-disaster-recovery.sh<\/code><\/pre>\n
\n
Architecture Note:<\/strong> The inclusion of the --fast-list<\/code> flag is critical for multi-cloud deployments. Without --fast-list<\/code>, Rclone traverses directories using recursive API sub-calls, generating tens of thousands of billable Class A S3 operations (ListObjectsV2<\/code>). Enabling --fast-list<\/code> aggregates directory listings in memory, slashing API request latencies by up to 85% and substantially reducing object storage transaction costs.<\/p>\n<\/blockquote>\n
Production Systemd Automation: Service and Monotonic Timer Units<\/h2>\n
While legacy systems frequently invoke backup scripts via standard crontabs, crontab lacks process isolation, cannot enforce resource accounting, and fails to handle overlapping execution if network latency degrades. Modern Linux server operations manage backup pipelines using native systemd<\/code> service and timer units.<\/p>\n
Create the systemd service unit file at \/etc\/systemd\/system\/rclone-disaster-recovery.service<\/code>:<\/p>\n
# \/etc\/systemd\/system\/rclone-disaster-recovery.service\n[Unit]\nDescription=Automated Multi-Cloud Rclone Disaster Recovery Sync\nAfter=network-online.target\nWants=network-online.target\n\n[Service]\nType=oneshot\nExecStart=\/usr\/local\/sbin\/rclone-disaster-recovery.sh\nUser=root\nGroup=root\n\n# Security Sandboxing and Resource Constraints\nNice=15\nIOSchedulingClass=idle\nCPUSchedulingPolicy=other\nMemoryMax=2G\nTasksMax=1024\nPrivateTmp=true\nProtectSystem=strict\nReadWritePaths=\/var\/backups \/var\/log\/rclone-dr \/var\/run\nProtectHome=read-only\n\n[Install]\nWantedBy=multi-user.target<\/code><\/pre>\n
Next, define the precision timer unit at \/etc\/systemd\/system\/rclone-disaster-recovery.timer<\/code>. This unit executes the synchronization every four hours with a randomized jitter window (RandomizedDelaySec=15m<\/code>) to prevent synchronized API traffic spikes across your server fleet:<\/p>\n
# \/etc\/systemd\/system\/rclone-disaster-recovery.timer\n[Unit]\nDescription=Trigger Multi-Cloud Rclone Disaster Recovery Sync every 4 hours\nRequires=rclone-disaster-recovery.service\n\n[Timer]\nOnCalendar=*-*-* 00,04,08,12,16,20:15:00\nRandomizedDelaySec=15m\nPersistent=true\n\n[Install]\nWantedBy=timers.target<\/code><\/pre>\n
Reload systemd, enable the timer, and verify its active firing schedule:<\/p>\n
# Reload systemd manager configuration\nsystemctl daemon-reload\n\n# Enable and start the disaster recovery timer\nsystemctl enable --now rclone-disaster-recovery.timer\n\n# Verify scheduled execution status\nsystemctl list-timers rclone-disaster-recovery.timer<\/code><\/pre>\n
Disaster Recovery Runbook: Rapid Multi-Cloud Server Restoration<\/h2>\n
The ultimate validation of a disaster recovery system is its ability to perform clean, bare-metal restorations under pressure. When an origin server suffers complete catastrophic hardware failure, follow this exact operational runbook to restore mission-critical data on a freshly provisioned production node:<\/p>\n
    \n
  1. Deploy Fresh Base OS:<\/strong> Provision an enterprise Linux instance and install Rclone via the official repository or vendor binary.<\/li>\n
  2. Inject Decryption Keys:<\/strong> Restore your secured \/etc\/rclone\/rclone.conf<\/code> file containing the crypt<\/code> overlay credentials, ensuring chmod 600<\/code> permissions.<\/li>\n
  3. Pull Target Archives:<\/strong> Execute a high-throughput download using multi-threaded streaming directly from the nearest surviving cloud provider (e.g. Cloudflare R2):<\/li>\n<\/ol>\n
    # Rapid Restore: Download and decrypt production backup stream from Cloudflare R2\nrclone copy \"secure-r2-backup:current\" \/var\/backups\/restoration\/     --config=\/etc\/rclone\/rclone.conf     --transfers=8     --s3-chunk-size=128M     --buffer-size=64M     --progress<\/code><\/pre>\n
    For mission-critical production workloads requiring enterprise reliability, low-latency worldwide routing, and predictable operational costs, deploying your nodes on MeraHost Enterprise Cloud<\/a> guarantees zero-downtime performance with native NVMe storage tiers and dedicated server support.<\/p>\n
    Actionable Disaster Recovery FAQs<\/h2>\n
    \nHow does Rclone handle cryptographic zero-knowledge encryption across untrusted cloud providers?<\/summary>\n
    Rclone uses an overlay remote type called crypt<\/code>. When configured, Rclone intercepts files locally in memory before transmission, encrypting file payloads using standard AES-256-GCM authenticated cipher streams and obfuscating file and directory paths with EME (ECB-Mix-ECB) or base32768 encoding. Cloud storage providers only ever receive scrambled ciphertext and cannot decipher the contents without your master encryption passphrase and cryptographic salt.<\/p>\n<\/details>\n
    \nWhat is the difference between `rclone sync` and `rclone copy` in disaster recovery pipelines?<\/summary>\n
    rclone copy<\/code> transfers new and modified files from source to destination without touching any preexisting destination files. In contrast, rclone sync<\/code> ensures the destination becomes an exact mirror of the source, which includes permanently deleting remote files that have been deleted locally. In automated production environments, you should always combine rclone sync<\/code> with --backup-dir<\/code> to redirect deleted or overwritten objects into a timestamped archive folder rather than permanently purging them.<\/p>\n<\/details>\n
    \nWhy is `–fast-list` essential when syncing backups to S3-compatible cloud storage?<\/summary>\n
    Standard object storage backends charge fees per 1,000 API requests. By default, Rclone lists each directory recursively, generating hundreds or thousands of separate ListObjectsV2<\/code> API calls for deep backup hierarchies. The --fast-list<\/code> parameter instructs Rclone to load the entire bucket listing into local memory using fewer bulk operations, significantly speeding up pre-transfer differential checks and reducing API billing costs by up to 85%.<\/p>\n<\/details>\n
    \nHow can I prevent backup synchronization from saturating production server bandwidth?<\/summary>\n
    Rclone includes built-in bandwidth throttling via the --bwlimit<\/code> flag. This flag supports time-of-day scheduling (e.g. --bwlimit \"08:00,50M 20:00,0M\"<\/code>), which restricts transfer speeds to 50 MB\/s during peak operational hours and removes all speed limits during off-peak nighttime maintenance windows. Additionally, coupling Rclone with Linux TCP BBR congestion control ensures smooth network packet pacing without introducing jitter to user-facing web services.<\/p>\n<\/details>\n
    \n
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    \n
    Explore MeraHost NVMe Cloud →<\/a><\/div>\n
    Deploy Free Staging on CpanelFree<\/a><\/div>\n<\/div>\n<\/div>\n","protected":false},"excerpt":{"rendered":"
    Automate Linux disaster recovery by syncing encrypted backups across multiple clouds using Rclone, systemd timers, fast-list, and bandwidth throttling.<\/p>\n","protected":false},"author":1,"featured_media":5232,"comment_status":"open","ping_status":"closed","sticky":false,"template":"","format":"standard","meta":{"footnotes":""},"categories":[1],"tags":[57,177,87,101],"class_list":["post-5233","post","type-post","status-publish","format-standard","has-post-thumbnail","hentry","category-web-hosting","tag-almalinux","tag-databases-performance","tag-devops","tag-sysadmin"],"_links":{"self":[{"href":"https:\/\/cpanelfree.com\/blog\/wp-json\/wp\/v2\/posts\/5233","targetHints":{"allow":["GET"]}}],"collection":[{"href":"https:\/\/cpanelfree.com\/blog\/wp-json\/wp\/v2\/posts"}],"about":[{"href":"https:\/\/cpanelfree.com\/blog\/wp-json\/wp\/v2\/types\/post"}],"author":[{"embeddable":true,"href":"https:\/\/cpanelfree.com\/blog\/wp-json\/wp\/v2\/users\/1"}],"replies":[{"embeddable":true,"href":"https:\/\/cpanelfree.com\/blog\/wp-json\/wp\/v2\/comments?post=5233"}],"version-history":[{"count":0,"href":"https:\/\/cpanelfree.com\/blog\/wp-json\/wp\/v2\/posts\/5233\/revisions"}],"wp:featuredmedia":[{"embeddable":true,"href":"https:\/\/cpanelfree.com\/blog\/wp-json\/wp\/v2\/media\/5232"}],"wp:attachment":[{"href":"https:\/\/cpanelfree.com\/blog\/wp-json\/wp\/v2\/media?parent=5233"}],"wp:term":[{"taxonomy":"category","embeddable":true,"href":"https:\/\/cpanelfree.com\/blog\/wp-json\/wp\/v2\/categories?post=5233"},{"taxonomy":"post_tag","embeddable":true,"href":"https:\/\/cpanelfree.com\/blog\/wp-json\/wp\/v2\/tags?post=5233"}],"curies":[{"name":"wp","href":"https:\/\/api.w.org\/{rel}","templated":true}]}}