Start with clear goals: remote work, streaming, cameras, or sensor data. Map your site, noting trees, hills, and structures that block sky or line of sight. Record coordinates and elevation. Capture cell signal readings with apps Network Cell Info or OpenSignal. Identify power sources, grounding points, and cable routes. Decide priorities: reliability, lowest cost, or lowest power draw. This plan drives choices among Starlink, LTE, and point to point Wi‑Fi.
Starlink offers satellite broadband where fiber will never arrive. The current rectangular dish draws moderate power and delivers 50–250 Mbps down with 20–40 ms latency in many regions. LTE and 5G routers leverage nearby towers for 10–200 Mbps, often with data caps and tower congestion. Long‑range Wi‑Fi creates point‑to‑point or point‑to‑multipoint links from an existing connection miles away, when you have true line of sight. Mix these: Starlink for primary, LTE as failover, and a Wi‑Fi bridge to a neighbor’s fiber. Choose outdoor‑rated gear, PoE support, and antennas matched to frequencies for legal bands in your country and region specifics.
Off‑grid internet lives or dies on power. Calculate a 24‑hour budget: router, modems, dish motors, switches, cameras, and idle draw. Size battery capacity for at least two autonomy days and keep depth of discharge under 50%. Pair with solar sized for worst‑month sun hours plus 20% margin. Prefer DC‑native gear and PoE to avoid inverter losses. Use MPPT charge controllers, fused distribution, lightning protection, and an earth ground. Monitor with a shunt meter and temperature‑compensated charging and periodic capacity tests.
Mount antennas high, rigid, and clear of obstructions. For Starlink, ensure a wide sky view; use the app’s obstruction visualization. For LTE, aim directional panels or Yagis at the target sector; secure with stainless hardware. For bridges, maintain line of sight and mount both ends identically. Seal all outdoor connectors with dielectric grease and self‑amalgamating tape. Use drip loops, UV‑rated cable, grounded masts, and surge protectors at cable entry points.
Use a capable dual‑WAN router to combine sources and provide failover. Popular choices include routers supporting policy‑based routing, load balancing, VLANs, and OpenWrt or RouterOS. Connect Starlink via Ethernet adapter, LTE via modem or CPE, and Wi‑Fi bridges via PoE switches. Configure health checks and failover thresholds by latency, packet loss, and jitter. Segment security cameras, IoT, and guest devices on separate VLANs. Enable QoS and SQM to tame bufferbloat on uplinks. Consider a local DNS cache, NTP, and a watchdog power relay for automatic reboots after modem lockups overnight.
Order the correct plan for mobility needs; Residential for fixed, Roam for seasonal or vehicular. Assemble the dish, mast, and router; use the Ethernet adapter if using your own router. Power up, run the app, and verify obstruction and orientation. Disable Starlink Wi‑Fi when using a separate router. In dual‑WAN, prefer Starlink but monitor for weather‑related degradation during heavy snow.
Survey carriers with prepaid SIMs and speed tests at different times. Choose a CAT‑class or 5G modem that matches local bands, with external antenna ports. Install a high‑gain directional antenna and aim using signal metrics like RSRP, RSRQ, and SINR. Use bridge mode or passthrough to your router. Consider multi‑SIM plans, APN settings, and data cap alerts and tower selection.
Pick matched radios designed for outdoor point‑to‑point, ideally at 5 GHz or 60 GHz for cleaner spectrum. Ensure clear Fresnel zone clearance, not just visual sight. Align with built‑in tools and start with low power to reduce interference. Use narrow channels, DFS awareness, and WPA3 or WPA2‑AES security. Bridge to your router over VLAN‑aware PoE switches and monitor link capacity.
Expect Starlink to vary with satellites, weather, and network load; schedule big downloads off‑peak. LTE is tower dependent; prioritize signal quality over raw bars. For Wi‑Fi bridges, prioritize alignment and noise floor. Tune MTU and MSS clamping for VPNs. Enable TCP BBR on servers. Use iperf, waveform bufferbloat tests, and continuous pings to validate changes. Log throughput during different hours.
Budget for hardware, mounts, cabling, and ongoing service. Starlink has hardware and monthly fees; Roam costs more for mobility. LTE gear is cheaper, but data can be expensive or throttled. Long‑range Wi‑Fi is low monthly cost if you share upstream. Read fair‑use policies, deprioritization clauses, and roaming restrictions and taxes.
Harden everything. Change defaults, disable WPS, and use strong unique passwords with a manager. Keep firmware current and restrict management to VPN or specific IPs. Enable WPA3 where possible. Add a WireGuard server for remote access. Isolate untrusted devices. Deploy fail2ban on exposed services. Monitor with Netdata, Grafana, or lightweight SNMP collectors. Set alerts for downtime and high latency events.
Follow spectrum rules, power limits, and mounting codes. Respect right‑of‑way for masts and cable runs. Some carriers forbid tethering or fixed installations on mobile plans.
Work from physical to logical. Verify power, connectors, and water ingress. Check signal stats, not just bars. Swap known‑good cables and PoE injectors. Reboot in order: modem, bridge, router. Inspect logs for DHCP, DNS, and flaps. Run traceroutes to locate congestion. Test with a laptop directly at the source before the router during intermittent faults.
Cabin with trees: Starlink on a 10‑meter mast, LTE Yagi as backup, DC router with dual‑WAN, 400 Ah battery and 600 W solar. Homestead farm: 5 GHz bridge to barn fiber, LTE failover, sector APs for fields, VLANs for cameras, 24 V PoE. Vanlife: Roam dish, roof LTE MIMO, Pepwave‑class router, low‑idle inverter. External antennas and ventilated weatherproof enclosures recommended.
Schedule quarterly inspections for mounts, seals, and cables. Clear snow and debris. Update firmware during maintenance windows. Export router configs. Keep spare injectors, cables, and a backup router on hand.
Choose low‑loss coax, ideally LMR‑400 or better for long LTE runs; keep under 10 meters when possible to avoid attenuation. Prefer short coax and longer Ethernet using PoE. Select directional antennas with proper polarization and gain matched to legal EIRP. For 60 GHz links, use integrated dishes. Label cables both ends, use cable glands, and route inside conduit where exposed to wildlife or machinery. Avoid sharp bends and tight bundles.
