How Ports Use Berth Planning Software?
- Adib Ahasan
- Feb 10
- 10 min read
Shipping delays cost money. When a container ship sits waiting for a berth, fuel burns, schedules slip, and everyone down the supply chain feels it. That's why port berth planning matters more than most people realize.
Think of berth planning as the port's version of air traffic control. It decides which ship goes where, when it arrives, and how long it stays. Get it right, and vessels move smoothly. Get it wrong, and the whole port backs up like rush hour traffic.
What Actually Happens in Berth Planning
Port managers face a daily puzzle. They need to fit dozens of arriving ships into a limited number of berths. Each ship has different sizes, cargo types, and schedules.
The process involves three main decisions:
Where to position each vessel along the quay
What time slot to assign
Which cranes and equipment to allocate
This isn't simple scheduling. A container ship can be 400 meters long and need 15 meters of water depth. Put it in the wrong spot, and it might block other vessels or ground itself.
A 2024 study of a Malaysian container port found that optimized berth allocation reduced vessel turnaround time by 38.54% compared to first-come-first-serve scheduling.
That means ships spend less time in port and more time moving cargo. For shipping companies, that translates directly to lower costs and better service.
Why Berth Planning Is So Difficult
Here's the problem. Ships don't always arrive on time.
Studies show that 70-80% of vessel trips hit delays at least once. A ship delayed three days in Los Angeles arrives three days late to every port after that.
When your berth plan assumes a ship arrives Tuesday morning but it shows up Thursday afternoon, everything falls apart.
Other challenges include:
Equipment constraints. Each ship needs a specific number of cranes based on its size and contract. If those cranes are busy elsewhere, the ship waits.
Water depth limits. Some berths can't handle deep-draft vessels, especially during low tide. Hamburg port deals with this constantly.
Cargo type requirements. Container ships need different equipment than oil tankers or bulk carriers. You can't just swap them around.
Weather and breakdowns. A broken crane or a storm can disrupt carefully planned schedules in minutes.
Port operators call this the "berth allocation problem." Computer scientists classify it as NP-complete, which is a fancy way of saying there's no quick formula that works every time.
You need sophisticated software and experienced planners working together.

The Technology That Makes It Work
Modern ports don't use spreadsheets anymore. They run on specialized software systems that handle the complexity.
Terminal Operating Systems form the foundation. Navis N4 is the market leader, used at 560+ terminals worldwide.
It handles everything from berth scheduling to crane assignments. Other major players include Tideworks and TBA Group's systems.
These platforms connect to real-time ship tracking. They pull data from AIS transponders that show exactly where each vessel is and how fast it's moving. That helps predict actual arrival times instead of relying on outdated estimates.
Port Community Systems takes it further. They link shipping lines, terminal operators, pilots, tugboat operators, and customs into one network.
When a carrier updates a ship's ETA, everyone sees it immediately. Portbase in the Netherlands connects 3,200 companies this way.
AI and machine learning are changing the game now. Windward Maritime AI predicts arrival times with 87% accuracy up to 10 days ahead. That's better than most shipping companies' own estimates.
Modern solutions like marineM Berth Planner combine these capabilities into a single platform built specifically for port operations.
Key features include:
Automated berth allocation: Intelligent algorithms assign vessels to optimal berths based on operational constraints, removing manual guesswork.
Constraint-driven planning: The system considers vessel size, draft, cargo type, and tidal restrictions to ensure every plan is operationally feasible.
Scenario simulation & comparison: Planners can create and compare multiple "what-if" scenarios to test vessel delays, weather disruptions, or priority arrivals before making decisions.
Interactive Gantt chart: Visual berth timelines with drag-and-drop editing let planners adjust schedules in real time and instantly see the impact.
Conflict detection & alerts: The system automatically identifies berth clashes, overlaps, and rule violations before they happen.
Real-time schedule adjustments: Plans adapt quickly to delays, early arrivals, weather events, or operational changes as they occur.
Integration-ready architecture: Seamlessly connects with VTS, PCS, TOS, AIS, and other existing port systems for unified data flow.
Performance insights: Track berth occupancy, turnaround time, and planning efficiency with built-in analytics.
Improving berth utilization through better prediction means less wasted time and better resource planning. When systems integrate all stakeholders onto a single platform, coordination becomes effortless.
The marine terminal berth scheduling software market hit $1.24 billion in 2024 and is predicted to hit $4.15 billion by 2033. That's a lot of money going into solving one problem.
But the returns justify it. Rotterdam's digital platform increased berth efficiency from 91% to 95%, which might sound small until you calculate the extra millions in revenue that represents.

How Top Ports Handle the Coordination
Getting a ship into berth requires more people than you'd think.
First, the pilot boards the vessel offshore. Every major port requires local pilots who know the specific channels, currents, and hazards. They need at least two hours' advance notice.
Tugboats meet the ship at the same time. Large vessels can't maneuver into tight berth spaces alone. Tugs push and pull them into position.
Advanced ports use optimization software to assign tugs efficiently based on which ones are available and where they're needed next.
Harbor control monitors everything by radar and radio. They coordinate traffic to prevent ships from interfering with each other. It's like conducting an orchestra where every instrument weighs thousands of tons.
Customs gets involved before the ship even arrives. U.S. ports require cargo manifests 24 hours before departure from the origin port. That gives border patrol time to flag high-risk shipments.
Terminal operators prepare the berth. They position cranes, clear yard space for incoming containers, and schedule truck appointments for pickup. All of this syncs with the berth plan.
When everyone uses the same digital platform, this coordination becomes manageable. Singapore's digitalPORT@SG system saves shipping companies roughly 100,000 man-hours per year just by eliminating duplicate data entry and phone calls.
Real Examples From Leading Ports
Shanghai Yangshan Phase 4 opened in 2017 as one of the most automated terminals on Earth. It runs 16 gantry cranes, 88 automatic stacking cranes, and 130 self-driving vehicles. The system reduced labor needs from 700 workers to 100 remote operators.
The terminal's AI-powered berth planning handles 6.3 million TEU annually. It processes 5,800+ algorithms and 1,670+ business scenarios to decide optimal berthing positions. The result? Ships move faster through the port with fewer delays.
Singapore implemented AI-based ETA forecasting that cut idle anchorage time by 30%. Ships don't sit offshore burning fuel while waiting for a berth. The system predicts when berths will open up and adjusts arrival speeds accordingly.
Rotterdam built a complete digital twin of the port. This virtual copy lets planners test different scenarios before making real decisions. They can simulate what happens if a major ship arrives late or if equipment breaks down. During the Suez Canal blockage, they used it to model congestion scenarios and adjust schedules proactively.
The port's PortXchange Synchronizer reduced idle time at departure from 19 minutes to 12 minutes. That might not sound like much, but multiply it across thousands of vessel visits per year, and it adds up fast.
What Performance Actually Looks Like
Ports track specific metrics to measure berth planning success.
Berth occupancy rate shows how much time berths stay in use. The sweet spot is 65-75%. Push it to 80% or higher, and waiting times explode. Below 65% means you're not using capacity efficiently.
Vessel waiting time measures hours from arrival to first mooring line. Good ports keep this under two hours. Anything over four hours signals problems.
Turnaround time counts the full cycle from arrival to departure. Container ships should finish in under 24 hours at efficient terminals. Bulk carriers and tankers take longer depending on cargo volume.
Crane productivity matters because cranes determine how fast cargo moves. Top terminals achieve 35-40 container moves per hour per crane. Average terminals do 25-30.
The World Bank tracks 400+ ports globally using ship movement data. East and Southeast Asian ports consistently rank highest.
They invest heavily in automation and digital systems. European ports follow, driven by strict environmental regulations that push efficiency improvements.
Regional patterns show clear differences.
Export-focused ports score better than import-heavy ones because they control more variables in the shipping schedule.
Island ports struggle more than mainland facilities because they can't redistribute cargo via road or rail when congestion hits.

How Ship Size Changes Everything
A small feeder ship carrying 1,000 containers needs maybe 150 meters of quay space. An ultra-large container vessel carrying 24,000 containers needs 500+ meters plus safety clearance.
Length overall (LOA) determines space requirements. The rule adds 10% to the ship's length for safe positioning. But mega-ships create another problem. When they occupy a berth, they might block access to adjacent berths depending on layout.
Draft matters just as much. These huge vessels need 15-16 meters of water depth. Not every berth has it. Tidal ports face even tighter constraints. A ship might only have a six-hour window when the tide is high enough.
The Port of Virginia spent heavily deepening channels to 55 feet and building four berths specifically for ultra-large vessels. Without that investment, they couldn't serve the biggest container ships, and that business would go elsewhere.
Cargo type adds another layer. Container terminals need ship-to-shore cranes and reefer power for refrigerated boxes. Bulk terminals need conveyor systems. Tankers need pumping stations. Ro-ro vessels carrying cars need ramps instead of cranes.
You can't just slot any ship into any berth. The berth needs the right depth, length, and equipment. Good planning software tracks all these specifications and only suggests valid matches.
Connecting Berth Plans to Everything Else
Berth planning sits at the center of port operations. Every other system depends on it.
Yard management starts with berth assignments. If you know a container ship arrives Tuesday at Berth 5, you position export containers in the nearby yard blocks. That minimizes truck and crane travel distance. Integrated optimization that considers berth and yard together cuts costs by 14-22% compared to planning them separately.
Equipment scheduling follows berth plans. Cranes, reach stackers, and terminal tractors all get assigned based on which ships are where. When a berth plan changes, equipment schedules need updating across the terminal.
Gate operations sync with vessel schedules. Terminals set truck appointment times based on when cargo will be ready. If a ship arrives late, trucks sitting at the gate waiting to pick up containers waste time and money. Smart appointment systems adjust dynamically as berth plans change.
Rail operations matter more as ports try to reduce truck congestion. The Port of Los Angeles moves 35% of containers by rail. On-dock rail terminals can load trains directly from ship cranes within 24 hours. But this only works if berth planners coordinate with rail schedulers so trains arrive when cargo is ready.
Everything connects. Change one piece, and you affect the whole system. That's why modern ports invest in integrated software platforms instead of separate tools for each function.
Where This Technology Is Headed
The smart port market will grow from $5.35 billion in 2026 to $12.82 billion by 2031. That's a 19.12% growth rate.
Several trends are driving this:
Autonomous systems. AI is moving from prediction to decision-making. Instead of suggesting berth assignments to human planners, systems will make those decisions independently for routine situations. Humans will only handle exceptions.
5G networks. Faster wireless enables real-time control of cranes and vehicles. Operators can remotely manage equipment from control centers instead of crane cabs.
Green priorities. Environmental regulations are pushing ports to optimize schedules to reduce emissions. Better berth planning means ships spend less time idling in port or at anchorage burning fuel. Digital twins helped one port cut CO2 emissions by 77% through optimized scheduling.
Predictive maintenance. Sensors on cranes and other equipment feed data into planning systems. If a crane shows signs of impending failure, the system can adjust berth plans before the breakdown happens.
Asia-Pacific leads with 34.5% of smart port revenue in 2024. China's massive automation push and Singapore's Tuas mega-port development drive growth.
The Middle East and Africa show the fastest expansion at 22.1% annual growth as new ports get built with modern technology from day one.
Europe's progress comes from strict EU regulations on emissions and digitalization. Ports must meet carbon targets, which forces efficiency improvements, including better berth planning.
Why This Matters Beyond Ports
Maritime transport moves 80% of global trade. When ports run efficiently, supply chains work better. When ports get congested, everyone downstream feels it.
The 2021-2022 supply chain crisis showed what happens when port systems overload. Ships waited weeks for berths. Containers piled up in yards. Store shelves emptied because goods couldn't move through the bottleneck.
Better berth planning helps prevent that. It's not the only factor, but it's foundational. You can't run an efficient port without figuring out how to fit ships into berths effectively.
For shipping companies, better planning means lower costs. Less waiting time means less fuel burned and faster cargo delivery. That savings flows through to everyone who buys products that moved through those ports.
For port cities, efficiency reduces congestion and emissions. Fewer ships sitting at anchorage means cleaner air. Fewer trucks waiting at gates means less traffic on local roads.
The technology exists now. Ports that invest in modern berth planning systems see measurable results. Rotterdam, Singapore, and Shanghai prove it works at scale.
The Bottom Line
Berth planning sounds technical and boring. But it's one of those behind-the-scenes systems that makes modern life possible.
Every time you buy something shipped from overseas, berth planning touched that product. The faster ports move ships through berths, the faster goods reach stores and the lower prices stay.
The ports making the biggest investments in digital berth planning systems are pulling ahead. They handle more ships with less waiting time. They adapt faster when problems hit. They cost less to run and produce fewer emissions.
Smaller ports and developing regions face challenges catching up. The technology costs money. Training staff takes time. But the alternative is falling behind in global competitiveness.
Looking ahead, expect berth planning to become even more automated. AI systems will handle routine decisions. Digital twins will let planners test scenarios instantly. Real-time data from thousands of sensors will feed predictive models.
The ships keep getting bigger. Global trade keeps growing. Ports that master berth planning will thrive. Those that don't will struggle to keep up.
Ready to see how better port operations can transform your supply chain? Get in touch with our team to learn about modern berth planning solutions.
