Compare GEO, MEO and LEO satellite constellations against latency, coverage and cost requirements.
Information & Communications Technology
Satellite Broadband Network Planning for Remote and Maritime Sites
Plan satellite broadband links for remote, offshore and maritime sites, covering GEO and LEO constellation choice, VSAT sizing and terminal stabilisation.
🗓️Duration5 training days
📚Content4 modules · 8 sessions
🎓On completionAccredited attendance certificate
About the programme
Course Overview
Connecting a drilling platform, a research station or a vessel mid-ocean rules out fibre and often rules out cellular coverage entirely, leaving satellite as the only realistic broadband path, yet satellite links behave nothing like terrestrial connections once latency, weather and terminal motion are factored in. This course teaches satellite broadband network planning for remote, offshore and maritime environments, starting with the trade-offs between geostationary, medium earth orbit and low earth orbit constellations for latency, coverage and cost. Participants calculate VSAT link budgets accounting for rain fade, antenna size and elevation angle, and design stabilised terminal configurations that maintain a lock on a moving vessel or platform. Sessions cover hybrid architectures that blend satellite with cellular or terrestrial backhaul for cost and resilience, bandwidth management for shared remote-site connections, and the regulatory and licensing steps needed to operate terminals across multiple jurisdictions or on the high seas. The course closes with failover and network monitoring design for sites where a lost connection cannot simply be fixed by a local technician.
Expected Learning Outcomes
Calculate VSAT link budgets accounting for rain fade, antenna gain and elevation angle constraints.
Design stabilised terminal configurations suitable for vessels, platforms and moving assets.
Architect hybrid satellite and terrestrial backhaul solutions for cost efficiency and resilience.
Plan bandwidth allocation and traffic shaping for shared connections at remote or maritime sites.
Navigate cross-border licensing and regulatory requirements for satellite terminal operation.
Design failover and monitoring architectures for sites without local on-site technical support.
Who Should Attend
Network engineers designing connectivity for remote, offshore or maritime operations.
Maritime IT managers responsible for vessel communications systems.
Energy and mining sector connectivity planners serving remote extraction sites.
Satellite service provider engineers supporting enterprise and government customers.
Humanitarian and NGO logistics staff planning connectivity for disaster response sites.
Telecom regulatory and licensing specialists handling cross-border satellite operations.
Course Modules
Select any module to see its sessions and points.
01Constellation Selection and Link Budget Design
2 sessions · 8 points
Session 1Comparing GEO, MEO and LEO Constellations
- Compare latency, coverage footprint and handover behaviour across GEO, MEO and LEO constellations.
- Evaluate constellation choice against application requirements such as voice, video and bulk data transfer.
- Assess terminal cost, power consumption and complexity differences between constellation types.
- Match constellation options to operational profiles such as fixed platforms versus moving vessels.
Session 2VSAT Link Budget Calculation and Rain Fade Mitigation
- Calculate uplink and downlink budgets accounting for antenna gain, transmit power and free space loss.
- Model rain fade margins appropriate to the operating region and required availability target.
- Select antenna size and modulation scheme trade-offs to meet budget while controlling terminal cost.
- Plan adaptive coding and modulation strategies that maintain service during degraded conditions.
02Terminal Design for Moving and Remote Platforms
2 sessions · 8 points
Session 1Stabilised Terminal Configuration for Vessels and Platforms
- Design stabilised antenna platforms that maintain satellite lock during vessel motion and platform vibration.
- Configure automatic beam switching for terminals moving between satellite coverage areas.
- Assess power, weatherproofing and mounting requirements for offshore and maritime installations.
- Plan commissioning and pointing procedures for terminals installed at remote or hard-to-access sites.
Session 2Hybrid Satellite and Terrestrial Backhaul Architecture
- Design hybrid architectures that route traffic over cellular or terrestrial links when available.
- Configure automatic failover between satellite and terrestrial paths based on link quality.
- Balance cost by directing latency-sensitive and bulk traffic to the most appropriate path.
- Plan edge caching and local breakout to reduce satellite bandwidth consumption at the remote site.
03Bandwidth Management and Regulatory Compliance
2 sessions · 8 points
Session 1Bandwidth Allocation and Traffic Shaping for Shared Sites
- Design bandwidth allocation policies that share limited satellite capacity fairly across users.
- Apply traffic shaping and prioritisation to protect operational and safety-critical applications.
- Set usage monitoring and alerting to prevent unexpected overage charges on metered plans.
- Plan quality of service policies for voice, video conferencing and bulk file transfer over satellite.
Session 2Cross-Border Licensing and Spectrum Compliance
- Identify licensing requirements for operating satellite terminals across multiple jurisdictions.
- Manage spectrum coordination and landing rights for terminals crossing national boundaries at sea.
- Document compliance evidence required by regulators and satellite service providers.
- Plan for licensing lead times when scheduling deployment of new remote or maritime sites.
04Resilience, Monitoring and Support
2 sessions · 8 points
Session 1Failover and Redundancy Design for Unattended Sites
- Design redundant terminal and modem configurations for sites without local technical staff.
- Plan remote reset and reconfiguration capabilities that reduce dependence on site visits.
- Assess spare parts and logistics planning for hardware failures at hard-to-reach locations.
- Define recovery time objectives appropriate to safety-critical and operational connectivity.
Session 2Remote Network Monitoring and Incident Response
- Configure remote monitoring to track link quality, terminal health and bandwidth usage in real time.
- Set alerting thresholds appropriate to intermittent and high-latency satellite connections.
- Plan incident response procedures for sites reachable only by satellite phone or radio.
- Review historical performance data to plan capacity upgrades before service degrades further.
What the participant receives
4 course modules
A structured syllabus
8 training sessions
across 5 days
32 detailed points
Applied, detailed content
Accredited attendance certificate
On completing the programme
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