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Breakbulk refers to goods that are transported as individual items rather than in standardised containers or as bulk cargo.
Breakbulk encompasses a wide range of goods, including:
A key characteristic is that breakbulk goods often require custom lifting equipment, special stowage plans, dedicated storage areas, and tailored transportation solutions. Cargo dimensions, weight distribution, lifting points, and sensitivity to environmental factors must be considered during operational planning.
This diversity means that no two transport operations are exactly alike. Each may require individual technical assessments, handling procedures, and risk mitigation measures.
Many industrial products and project cargoes simply cannot be transported in standard containers because their dimensions and weight restrictions cannot be met. Such freight, however, is essential for industries fundamental to economic development, including:
Ports and terminals suitable for handling these goods play a strategic role within national and regional supply chains. In many developing countries, breakbulk cargo volumes are closely linked to economic growth, industrial investment, and large-scale construction projects. In more mature economies, they often support infrastructure renewal, energy transition programs, and specialised manufacturing sectors.
Breakbulk operations bring together various stakeholders from the fields of trade, operations, regulation, and risk management. Due to the unique nature of this logistics sector, continuous and close interaction between specialists in planning, execution, monitoring, and compliance is essential.
Cargo owners and project stakeholders define shipment requirements, including cargo specifications, delivery schedules, and project constraints. They are often represented by project managers who coordinate complex logistics activities on their behalf.
Freight forwarders and logistics providers coordinate the transport chain by arranging multimodal transport, managing documentation, aligning schedules, and serving as the primary communication link between stakeholders.
Transport providers move cargo between production sites, storage locations, and ports using road, rail, or inland waterway transport. Their role is particularly important when handling oversized or heavy cargo that requires specialised equipment, permits, and route planning.
Terminal operators provide the infrastructure and operational capabilities required for cargo reception, storage, yard management, vessel coordination, and intermodal connectivity. They ensure the efficient flow of cargo between inland and maritime transport.
Stevedoring companies perform the physical loading and unloading of vessels, including lifting, securing, lashing, and discharge operations. Their expertise is critical due to the diversity and complexity of breakbulk cargo.
Shipping lines and vessel operators provide maritime transportation and are responsible for stowage planning, voyage execution, onboard cargo safety, and transport documentation such as the Bill of Lading.
Customs authorities and regulatory bodies oversee compliance with trade, safety, environmental, and transportation regulations. Their approval processes can significantly influence shipment timelines.
Engineering and surveying specialists provide technical expertise for lifting operations, route feasibility studies, cargo inspections, and condition surveys. Their assessments support safe handling and claims management.
Insurance providers manage financial risk by providing coverage for cargo damage, loss, liability, and operational disruptions. They play an important role when incidents, claims, or disputes occur.
Equipment and service providers support operations by supplying cranes, lifting gear, transport systems, and maintenance services required for specialised cargo handling.
Consignees are the final recipients of the cargo and coordinate acceptance, final delivery, and project integration at the destination. Their requirements ultimately define the success of the shipment.
Breakbulk operations differ significantly from container terminal activities in several key areas.
Cargo diversity
Breakbulk terminals must accommodate a wide variety of cargo types, each with distinct handling requirements, storage conditions, and transportation constraints.
Lower standardisation
Unlike containers, breakbulk cargo units vary considerably in size, shape, weight, and lifting arrangements. This reduces opportunities for process standardisation and increases operational complexity.
Higher planning requirements
Many breakbulk movements require detailed engineering studies, lift plans, route surveys, and risk assessments before operations can begin.
Greater dependence on skilled personnel
The handling of non-standard cargo often relies heavily on operator experience, technical expertise, and situational decision-making.
Increased safety considerations
Large and heavy cargo units present unique safety challenges related to lifting operations, load stability, equipment utilisation, and personnel protection.
Longer cargo dwell times
Certain project cargoes may remain in terminal storage areas for extended periods while awaiting onward transportation, installation schedules, or project milestones.
These characteristics make operational planning and execution significantly more demanding than in highly standardised container environments.
Breakbulk shipping is the oldest form of maritime trade. Long before containers existed, virtually all cargo was transported as individual units such as barrels, crates, sacks, bundles, and machinery. While this approach supported global trade for centuries, handling was labour-intensive, time-consuming, and prone to inefficiencies.
The introduction of containerisation in the 1950s transformed global logistics by standardising cargo handling and enabling faster, more efficient intermodal transport. As a result, many cargo types migrated to container networks, leading some to predict the decline of conventional breakbulk shipping.
Instead, breakbulk evolved into a specialised logistics segment focused on cargo that cannot be transported economically or practically in standard containers. Today, it plays a vital role in serving industries that depend on oversized, heavy, and project-related cargo, including energy, infrastructure, manufacturing, and construction.
Many industries still rely on the transport of goods that, due to their size, weight, dimensions, or handling requirements, cannot be transported economically or practically in standard containers. Despite some progress, handling breakbulk cargo remains inherently complex and far removed from the standardisation and optimisation possibilities of container operations.
Multipurpose terminals and dedicated breakbulk ports play a crucial role. Many facilities handle a combination of breakbulk cargo, project cargo, bulk goods, and containerised freight. This allows operators to serve a wide range of industries while remaining flexible enough to respond to changing market conditions.
Today's breakbulk cargo market is primarily driven by industrial and project goods. Common categories include steel products, forestry products, machinery, industrial plants, building materials, power generation components, and large infrastructure modules. Wind turbine blades, tower sections, transformers, generators, and heavy production equipment have become particularly important cargo segments in recent years.
The market is closely linked to industrial production, infrastructure investment, energy development, and major construction projects. Therefore, cargo volumes can fluctuate considerably depending on the region and economic cycle. Areas with rapid industrialisation, high energy investment, or infrastructure expansion often generate significant demand for breakbulk cargo transport.
A multitude of economic, industrial, and infrastructural factors influence the demand for breakbulk transport. Since capital-intensive projects are often involved, market developments frequently reflect broader investment trends rather than consumer demand alone.
Infrastructure expansion
This is one of the most important drivers of demand, supported by continued substantial investments from governments and private investors. Goods required for large construction projects, transportation networks, production facilities, and industrial expansions typically do not fit in containers.
The energy sector
Traditional power plant projects, oil and gas projects, and industrial energy infrastructure have long generated significant freight volumes. More recently, the energy transition towards renewable energies has created new opportunities for breakbulk cargo carriers. Wind turbines, offshore energy components, battery manufacturing facilities, and grid infrastructure often require specialised transport and handling solutions.
Cargo dimensions
Industrial plants, modular building elements, and renewable energy components are becoming increasingly larger, heavier, and more complex, placing greater demands on terminals, ships, transport companies, and engineers. This trend reinforces the importance of specialised handling expertise and heavy-lift capacity along the entire logistics chain.
Digitalisation
While the industry has traditionally relied on manual processes and project-based coordination, operators are increasingly using digital tools for planning, asset management, shipment tracking, document management, and operational transparency. Improved data availability and integration with other systems enable companies to make more informed decisions and increase operational efficiency.
Sustainability
Customers, regulators, and investors increasingly expect logistics providers to reduce emissions, improve energy efficiency, and support environmentally responsible business practices. Although breakbulk cargo handling often presents unique operational challenges, many companies are seeking cleaner plant technologies, alternative fuels, and more efficient operations.
Structural challenges
Skills shortages, ageing workforces, increasing regulatory requirements, and ongoing supply chain disruptions continue to impact operational planning and resource availability. Successfully addressing these challenges will be crucial for maintaining service quality and operational stability in the coming years.
The future of breakbulk logistics will be significantly shaped by the industry's adaptability to changing economic conditions, technological developments, and evolving customer demands. Although the sector faces a number of challenges, it also offers potential for long-term growth.
Infrastructure investments are expected to remain a major source of demand, as many countries continue to pursue large-scale projects. The global energy transition could even become one of the most important drivers, for example, with the increasing number of offshore wind farms and energy storage systems.
Full automation is probably not feasible due to the diversity of breakbulk goods, but digital platforms, automation technologies, predictive maintenance systems, and data-driven decision support will improve operational transparency, resource utilisation, and service reliability in this logistics sector as well.
Changes in the nature of the goods being transported, such as their size, will necessitate future investments in specialised vessels and terminal infrastructure. At the same time, efforts must be intensified to address the challenges related to personnel development, regulatory compliance, environmental sustainability, and supply chain resilience in order to keep pace with resource-related and regulatory developments.
Even though breakbulk shipping will never reach the volume of container traffic, it is and will remain an important pillar of global trade and industrial development.
The complexity in the individual stages of breakbulk shipments lies in the necessary coordination between different stakeholders, means of transport, authorities and the respective handling environments.
Pre-voyage: Planning and preparation
The process begins with the development of transport strategies and an assessment of operational requirements. Cargo characteristics, route restrictions, handling methods, and project timelines are analysed to determine the optimal logistics solution. During this phase, stakeholders such as cargo owners, freight forwarders, carriers, and transport service providers collaborate to identify potential challenges.
Pre-carriage: Moving the cargo to the port
The cargo is now transported from its point of origin to the port of departure by road, rail, inland waterway, or a combination of different modes of transport. For oversized or heavy cargo, inland transport may require route inspections, special permits, escort vehicles, or temporary infrastructure modifications. In many cases, overland transport represents one of the most complex segments of the entire shipment.
Port operations: Loading the vessel
At the export port, the cargo is received, inspected, documented, and prepared for loading onto the ship. The aim is to ensure that the handling procedures, stowage, and cargo securing guarantee safe transport throughout the entire journey.
The ocean voyage: At sea
The sea voyage is often the longest leg of the journey. During this time, the responsibility for the cargo lies largely with the ship operator, who must ensure route planning, weather conditions, vessel stability, and cargo security.
Port operations: Unloading the vessel
At the destination port, the process is essentially reversed. The cargo is unloaded from the ship, undergoes the necessary inspections and administrative procedures, and is prepared for onward transport (see also: a breakbulk warehouse as an operational transhipment centre).
On-carriage: Final delivery
The final stage connects the port with the cargo's ultimate destination. Here, too, complex transport arrangements may be required, similar to those for the initial shipment. Once the cargo has been delivered and received by the recipient, the transport cycle is complete.
The breakbulk terminal is the central hub of breakbulk logistics. Here, goods are received, inspected, stored, prepared, loaded, unloaded, and transshipped between different modes of transport.
Long before the cargo reaches the terminal, planning begins to identify potential challenges, allocate resources, and develop handling strategies. Depending on the dimensions and weight requirements, lifting requirements, transport agreements, and storage needs are determined. Based on ship schedules, berth availability, equipment requirements, and storage capacity, sufficient resources are ensured upon the cargo's arrival.
Document review is also a crucial part of the planning process. Cargo manifests, packing lists, lifting instructions, security procedures, and transport permits are typically reviewed before handling operations commence.
The interface between ship and terminal is one of the most critical phases. Loading and unloading operations require precise coordination between terminal personnel, ship crew, stevedores, equipment operators, and experts.
According to a detailed stowage plan that defines the sequence of unloading and loading, equipment deployment, personnel scheduling, transport planning, and port operations are planned and implemented.
During handling, cargo stability, lifting angles, cargo spacing, weather conditions, and equipment performance must be continuously monitored.
The yard fulfils several important functions:
Unlike container yards, breakbulk yards must accommodate widely varying dimensions, weights, and handling requirements. Their planning, therefore, focuses on accessibility, stability, equipment access, security requirements, and efficient cargo retrieval.
Storage space allocation is determined based on factors such as cargo characteristics, expected dwell time, transport schedules, and customer requirements. Additionally, protective measures against weather, corrosion, contamination, or damage must be implemented.
The equipment selected for a specific operation depends on the characteristics of the cargo, operational requirements, terminal infrastructure, and transport methods.
Common equipment categories include:
Cranes
They handle the majority of lifting operations. Mobile harbour cranes, ship cranes, crawler cranes, floating cranes, and gantry cranes are used. The type of crane used depends on lifting capacity, reach, cargo dimensions, and operational conditions.
Self-propelled modular transporters (SPMTs)
SPMTs are frequently used for transporting oversized and extremely heavy goods within terminal facilities. Their modular design allows operators to adapt the axle configuration to the weight and dimensions of the load.
Forklifts
Forklifts with various lifting capacities continue to be widely used for handling smaller cargo loads, palletised goods, steel products, timber, and packaged goods.
Trailers and terminal transport equipment
Terminal tractors, flatbed trailers, multi-axle trailers and heavy transport systems support the handling of goods between ships, storage areas and land-based transport vehicles.
Lifting equipment and slings
Wire rope slings, synthetic lifting straps, shackles, spreader beams, lifting frames and lifting hooks are used to ensure the stability of the load and to protect the goods during the lifting process.
Safety is one of the most important aspects of breakbulk handling. For terminal operators, effective security management is on the one hand a legal and moral obligation, but on the other hand also a crucial factor for operational safety, productivity and economic success.
Handling large, heavy, irregularly shaped, and often valuable goods involves operational risks that differ significantly from those in standardised cargo handling environments. Custom lifting equipment and non-routine tasks are frequently required, necessitating complex coordination between various stakeholders and a project-specific hazard assessment and safety concept.
Risk assessment
Long before handling operations begin, operators start identifying and analysing potential hazards related to the cargo, equipment, work environment, weather conditions, and workflow. These assessments are then translated into appropriate control measures.
Lifting safety management
Safe lifting requires careful planning, verification of equipment capacities and lifting gear, and clear communication among all personnel involved in the operation. Detailed lifting plans are often created for complex or heavy lifting operations to define responsibilities, procedures, and safety precautions.
Personnel protection
In cargo handling, restricted zones are typically established around lifting areas, crane workstations, and other high-risk work areas. These zones prevent unauthorised access and reduce the risk of employees being endangered by suspended loads, moving equipment, or other operational hazards. Personal protective equipment remains an important last line of defence, complementing effective operational safety measures.
Traffic management
A variety of vehicles, including trucks, terminal tractors, forklifts, cranes, and specialised transport systems, operate in what are sometimes quite confined spaces. To reduce the risk of collisions, terminals rely on clearly defined traffic routes, designated pedestrian walkways, speed limits, and effective signage.
Equipment safety
This depends, on the one hand, on cranes, hoists, transport vehicles, and specialised handling equipment being regularly inspected, maintained, and certified in accordance with applicable standards and operating procedures. On the other hand, operators must ensure that the equipment is used only within its design limits and only by trained and authorised personnel.
Safety culture
An effective safety culture goes beyond mere accident prevention. Reporting incidents, near misses, and operational observations provides valuable information that can be used to identify trends, address recurring problems, and improve processes.
Successful safety management is not based on a single procedure or control measure. It is the result of a proactive and systematic approach that integrates risk assessment, operational planning, asset management, personnel protection, and continuous learning into daily terminal operations.
Breakbulk cargo often consists of high-value and project-critical goods that cannot be easily replaced if damaged. Therefore, cargo protection and quality assurance aim not only to prevent physical damage but also to ensure that the cargo arrives at its destination in the expected condition and can continue to fulfill its purpose.
Effective damage prevention begins long before the cargo even starts moving. The various modes of transport, storage locations, and handling teams create numerous opportunities for damage if procedures are not consistently followed. All of these factors must be analysed to protect the cargo from unwanted movement, vibration, moisture, contamination, and environmental influences.
Cargo inspection
The condition of the cargo is typically checked at key transfer points, including arrival at the terminal, unloading, storage (sometimes repeated), loading, and final delivery. These inspections help to identify problems early, establish responsibilities, and document the cargo's condition throughout the entire transport process.
Documentation
Ship surveyors often support quality assurance through independent inspections and the documentation of cargo condition, handling practices, and operational observations. Inspection reports, condition reports, photographs, and handling documentation ensure traceability throughout the entire transport process and help determine when and where damage occurred.
Managing claims and disputes
Despite all precautions taken, cargo damage can still occur. In this case, detailed inspection reports, precise photographs, documentation of the handling process, witness statements, and equipment documentation help to conduct the investigation quickly and transparently.
Measuring cargo quality performance
Many terminals monitor quality-related performance indicators to identify areas for improvement. Common metrics include:
• Frequency of cargo damage
• Damage rates
• Compliance with inspection requirements
• Customer complaints
• Incident investigation closure rate
• Corrective action implementation rate
Performance measurement helps companies evaluate the effectiveness of their quality assurance measures and prioritise improvement initiatives.
Due to the variability of cargo, people remain at the heart of the handling process. While technology supports planning, coordination, and facility management, the handling of special cargo still relies heavily on human expertise.
Breakbulk cargo terminals require a diverse range of skills. Crane operators, riggers, signalers, forklift drivers, foremen, planners, surveyors, and maintenance personnel must work together to execute complex operations safely and efficiently. Many goods require specialised lifting equipment, adapted securing methods, or non-routine handling procedures that demand experience and technical understanding beyond standard handling.
Operational planning and personnel deployment planning are, therefore, key management tasks. Personnel requirements can fluctuate considerably depending on ship schedules, cargo mix, weather conditions, and project activities. Terminal operators must align personnel availability with operational needs and ensure that qualified personnel are assigned to the appropriate tasks. Staff shortages can lead to delays and safety risks, while overstaffing can negatively impact productivity and operating costs.
Essential components of personnel management are therefore training and skills development. Employees must be proficient in operating equipment, the principles of safe cargo handling, lifting, risk management, and emergency procedures. As cargo dimensions and project complexity steadily increase, continuous professional development helps ensure that employees are equipped to meet new operational challenges and evolving industry requirements. Cross-functional skills are particularly advantageous, as they allow for greater flexibility in personnel deployment.
Required skills also include strong communication abilities, as breakbulk handling often involves multiple teams working simultaneously on ships, in yards, warehouses, and at the interfaces with transportation, requiring coordinated and safe operations.
Strong leadership and a positive company culture are equally important. Supervisors and managers play a key role in setting expectations, promoting safe work practices, supporting continuous improvement, and fostering collaboration across the organisation.
The industry faces broader human resources challenges. Many regions are experiencing skills shortages, while experienced employees are reaching retirement age. Attracting, training, and retaining qualified staff has become an increasingly critical priority for terminal operators seeking to maintain operational capability and preserve valuable institutional knowledge.
For many years, breakbulk handling was far less digitised than container logistics. This wasn't due to a lack of innovation, but rather to the nature of the goods themselves. Container terminals benefit from highly standardised units, predictable workflows, and repetitive handling processes that lend themselves to automation and digital control. In contrast, breakbulk cargo varies considerably in size, weight, shape, handling requirements, and transport routes. Each shipment presents unique challenges, making standardisation difficult.
Digitalisation in breakbulk handling often takes a different path. Many terminals use technology to improve transparency, coordination, planning, and decision-making. The goal is not to replace human expertise, but to provide operators, planners, and managers with better information for increasingly complex processes.
The foundation
As with other terminals, Terminal Operating Systems (TOS) form the foundation. Terminal operating systems, planning tools, maintenance systems, freight databases, and customer-facing applications are increasingly networked with them, enabling a more comprehensive overview of terminal activities. This allows operators to overcome isolated processes and manage operations as a networked system. The value of these systems lies not only in the digitisation of information but also in making it accessible to the right people at the right time. Improved information flow reduces uncertainty, enables faster decisions, and helps minimise operational inefficiencies.
Asset transparency
Cranes, transport equipment, loading units, and other critical assets can increasingly be monitored using sensors, tracking technologies, and networked devices. Real-time information enables operators to identify bottlenecks, improve asset utilisation, and respond more effectively to changing operating conditions. At the same time, predictive maintenance solutions help reduce unplanned asset downtime by detecting potential failures before they impact operations.
Mobile workforce applications
One of the most practical, easiest, and fastest ways to implement digitalisation is through the use of mobile apps. These allow personnel to access operational information directly on-site via tablets or smartphones. Instead of relying on paper forms, radio communication, or manual data entry after a task is completed, information can be captured and shared in real time.
Common applications include receiving cargo, inspection reports, damage documentation, inventory control, work assignment management, and digital checklists. Personnel can record the condition of cargo, take photos, confirm completed tasks, and update cargo status directly from the work site. This reduces administrative overhead while improving the accuracy and timeliness of information.
Mobile tools also support communication and coordination between different teams. Stewards, appraisers, supervisors, equipment operators, and planners can work with the same data, reducing misunderstandings and enabling faster responses to changing operational conditions.
Planning and management
Three-dimensional freight models, engineering software, route analysis tools, and simulation technologies support the planning of complex lifting operations, transport movements, and storage layouts. These technologies enable stakeholders to evaluate different scenarios, identify risks early, and optimise operational decisions before the actual work begins.
Data is evolving into a central management tool. While experience remains essential, modern systems provide valuable insights into productivity, performance, load flows, safety, and resource utilisation, enabling more proactive and predictive decision-making. However, technology alone does not guarantee success.
Digital systems require reliable data, effective processes, and qualified personnel who can translate information into concrete actions. In the future, technologies such as artificial intelligence, digital twins, advanced analytics, and IoT platforms are expected to further improve planning, transparency, and operational control.
Breakbulk terminals often suffer from the same problems as container terminals:
In addition, they face the following challenges:
The last two aspects in particular illustrate that transparency is not simply about knowing the location of goods. It's about understanding the current operational situation and making informed decisions. Effective transparency combines three perspectives: knowledge of the cargo itself, knowledge of ongoing activities, and knowledge of how current conditions might affect subsequent operations. Only in this way can terminal operators efficiently and effectively coordinate resources, anticipate delays, and respond to changing conditions.
The major challenge to transparency is the sheer number of transfers. Cargo can be received, inspected, relocated, consolidated, made available for loading, or prepared for inland transport. Each transfer carries the risk of information gaps, especially if updates rely on manual processes or disconnected systems.
Modern digital solutions address this challenge through event-driven transparency. Instead of continuously tracking every movement, terminals establish defined checkpoints where cargo status is verified and updated. Examples include cargo receiving, inspection areas, storage locations, staging areas, and loading areas. Each confirmed transfer generates a new operational event, ensuring that all stakeholders are working with the same up-to-date information. This approach reflects the reality of cargo handling while avoiding the complexity and cost of continuously monitoring every single movement.
The warehouse plays a particularly important role in this transparency framework. Traditionally viewed as a temporary storage space, it increasingly functions as a coordination hub, linking ship operations, yard management, inspections, customs procedures, and inland transport. Accurate information about the location, availability, and status of cargo enables more effective planning and execution of these interconnected activities.
Ultimately, digital transparency is not about eliminating complexity, but about making it manageable. By capturing relevant operational events, integrating information from various systems, and providing a real-time situational awareness picture, terminals can improve coordination, reduce uncertainty, and support more reliable breakbulk operations.
At breakbulk terminals, the same KPIs are measured as at container terminals, including vessel turnaround time, throughput per crane hour, and berth productivity. However, beyond the individual KPI categories, the true value of performance measurement lies in the combination and interpretation of these indicators. Breakbulk handling often requires balancing speed, cost, safety, and resource availability. For example, increasing vessel productivity may require additional personnel or equipment, while cost optimisation measures can compromise operational flexibility. Effective KPI systems are needed to understand these interrelationships and make informed decisions based on operational priorities.
Digital systems are increasingly improving the collection, analysis, and application of KPIs. Real-time data from terminal operating systems, equipment sensors, and planning tools enable a shift from retrospective reporting to continuous performance monitoring. This allows for faster bottleneck identification, more accurate forecasting, and improved operational control.
Ultimately, performance measurement in breakbulk handling is not just about tracking results, but also about enabling better decision-making. Well-designed KPIs provide a structured method for managing complexity, improving transparency, and supporting continuous operational improvement across all aspects of terminal operations.
The economic viability of breakbulk handling, with its diverse nature, is determined less by the volume of goods handled than by the complexity of the individual movements.
Equipment dependency
Breakbulk terminals require a wide range of equipment, including various cranes and transport vehicles, forklifts with different lifting capacities, and specialised lifting frames and spreader systems. The acquisition, maintenance, certification, and replacement of this equipment represent significant investments. Furthermore, equipment utilisation can fluctuate considerably due to project-specific cargo volumes, making it difficult to balance availability with economic efficiency.
Labour and skill-driven cost structures
Breakbulk cargo handling is significantly more labour-intensive than many container handling activities. The non-standard nature of breakbulk cargo requires personnel with highly qualified expertise and operational experience. Training, certifications, skills development, and employee retention measures also contribute to overall personnel costs.
Berth occupancy and yard utilisation
Breakbulk vessels require longer port stays due to slower handling speeds. Breakbulk cargo, due to its dimensions and handling requirements, demands significant storage space. Both can be improved, but the optimisation levels of container handling will never be fully achieved.
Infrastructure
Breakbulk terminals must strike a balance between infrastructure for very heavy cargoes, such as heavy-load quays, reinforced storage areas and heavy-load transport routes, and economic profitability during periods of lower utilisation.
Handling charges and stevedoring revenue
Unlike container terminals, where prices can be largely standardised, breakbulk cargo handling fees reflect the specific requirements of the goods in terms of dimensions, weight, and complexity.
Storage and yard revenue
In addition to the pure use of storage space, long-term storage, project cargo provision, and consolidation activities are additional sources of revenue. For the operator, it is important to carefully weigh long-term storage against sufficient storage capacity for future business.
Value-added services
Terminals that can offer their own engineering studies, lifting planning, use of special equipment, route assessments and project coordination have clear competitive advantages. The same applies to value-added services such as cargo inspections, coordination of surveying work, and packaging and repackaging.
Commercial positioning
Not all ports offer the same services; some focus on:
• Conventional breakbulk cargo in large quantities
• Industrial project cargo
• Heavy cargo handling
• Regional trade flows
• Specialised industries
Economic success here depends on aligning with the needs of target customers. Operators who acquire recognised expertise in specific freight segments can often achieve greater pricing power and more stable business opportunities.
Conclusion: Managing the Exception
While breakbulk cargo has declined significantly in volume since containerisation, its importance for industrial development, infrastructure projects, energy systems, and economic growth remains substantial. Many goods that enable the functioning of modern society—from power plants and industrial machinery to steel products and renewable energy components—simply cannot be transported via standardised logistics networks.
The greatest advantage—diversity—is also the greatest challenge. Cargo dimensions, handling requirements, transport routes, storage needs, and project timelines can vary considerably from shipment to shipment. Therefore, successful breakbulk handling is not based on processing uniform freight flows, but rather on efficiently and securely managing exceptional cases.
As the industry evolves, technology will continuously improve transparency, planning, communication, and decision-making. Digital platforms, mobile workforce applications, asset tracking solutions, and data-driven operational management support terminal and logistics service providers in better managing increasingly complex processes. Technology will complement, rather than replace, the expertise of those who plan, monitor, and execute breakbulk handling.
The future of breakbulk services depends on the industry's ability to successfully combine expertise, operational flexibility, and digital skills. Companies that effectively manage complexity, ensure high safety standards, and offer reliable transparency along the supply chain are best positioned to support the next generation of industrial, infrastructure, and energy projects worldwide.
SPMTs are specialised vehicles for heavy-duty transport. Unlike standard transport vehicles, SPMTs consist of modular axle units that can be combined depending on the size and weight of the load. Thanks to this modular design, they can transport loads from several hundred to several thousand tons.
A characteristic feature is the independent hydraulic suspension and steering of each axle. This allows the transporter to distribute the weight evenly on the ground, adjust its height to uneven terrain, and maneuver with exceptional precision. SPMTs can move laterally and diagonally, rotate on their own axis, or drive in crab steering mode. This makes them ideal for confined terminal areas and complex construction sites.
Because SPMTs are self-propelled, there is no need for external towing vehicles, and they offer greater flexibility in load positioning.
While breakbulk cargo has declined significantly in volume since containerisation, its importance for industrial development, infrastructure projects, energy systems, and economic growth remains substantial. Many goods that enable the functioning of modern society—from power plants and industrial machinery to steel products and renewable energy components—simply cannot be transported via standardised logistics networks.
The greatest advantage—diversity—is also the greatest challenge. Cargo dimensions, handling requirements, transport routes, storage needs, and project timelines can vary considerably from shipment to shipment. Therefore, successful breakbulk handling is not based on processing uniform freight flows, but rather on efficiently and securely managing exceptional cases.
As the industry evolves, technology will continuously improve transparency, planning, communication, and decision-making. Digital platforms, mobile workforce applications, asset tracking solutions, and data-driven operational management support terminal and logistics service providers in better managing increasingly complex processes. Technology will complement, rather than replace, the expertise of those who plan, monitor, and execute breakbulk handling.
The future of breakbulk cargo logistics depends on the industry's ability to successfully combine expertise, operational flexibility, and digital skills. Companies that effectively manage complexity, ensure high safety standards, and offer reliable transparency along the supply chain are best positioned to support the next generation of industrial, infrastructure, and energy projects worldwide.
Customer-facing applications are software tools that customers use directly to interact with a business, such as booking portals, mobile apps, self-service websites, or tracking tools. In logistics, they let customers place orders, check shipment status, download documents, or contact support without calling staff. Their main job is to make the customer experience faster, clearer, and more self-service-oriented. Unlike internal systems, they are designed for external users and often prioritise simplicity, visibility, and reliability. (4)
A spreader beam is a lifting device used with cranes and slings to keep the lifting legs apart and distribute force more evenly across a load. In logistics and port work, it is especially useful for long, wide, or delicate cargo because it reduces crushing pressure and improves stability during lifting. Instead of the beam bending, the load is carried largely through compression in the beam and tension in the slings. Spreader beams are common when handling machinery, steel sections, modules, and some containerised or breakbulk cargo. (5)
References:
(1) https://porteconomicsmanagement.org/pemp/contents/part5/break-bulk/
(2) https://amexpro.com/break-bulk-cargo-handling-procedure/
(3) scribd.com/ document/842162434/5-Conventional-Cargo-Handling
(4) Khosrow-Pour, Mehdi (ed., 2018): Encyclopedia of Information Science and Technology. IGI Global.
(5) Budzik, John (2016): Rigging: A Practical Guide. CRC Press.
Note: This article was partly created with the assistance of artificial intelligence to support drafting.