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Port, Inland Waterway & Coastal Infrastructure Projects Construction Management Certification
Language: ENGLISH
Instructors: BHADANIS CONSTRUCTION PROJECTS PLANNING AND MANAGEMENT TRAINING INSTITUTE FOR CIVIL ENGINEERS & MANAGERS
Validity Period: 365 days
Why this course?
This professional certification course is designed to equip civil engineers, project managers, and construction professionals with in-depth technical and managerial knowledge required for planning, designing, executing, and maintaining port, harbor, inland waterway, and coastal infrastructure projects. It covers every stage of project development—from feasibility analysis and site investigation to design, construction, quality control, environmental compliance, and sustainability—guided by real-world industry practices and standards followed in major Indian and GCC maritime developments.
Port and coastal infrastructure form the backbone of international trade and maritime logistics. As global demand for efficient cargo movement, sustainable port facilities, and resilient coastal systems grows, the need for technically skilled professionals in port and waterway construction management has become vital. This course provides a comprehensive, practice-oriented framework that brings together engineering fundamentals, construction techniques, environmental management, and project execution strategies specific to marine and inland waterway projects.
Participants will gain a practical understanding of how to plan, design, and implement complex port and marine infrastructure projects—from breakwaters and jetties to dredging, reclamation, and coastal protection systems. The program blends civil, geotechnical, hydraulic, and construction management aspects, ensuring that learners develop the interdisciplinary competence needed for real project challenges.
This opening module familiarizes participants with the fundamentals of port, harbor, and inland waterway systems. It covers their functional classifications—cargo ports, container terminals, fishing harbors, naval bases, and marinas—and their essential components like quays, berths, breakwaters, and storage yards. The module also introduces the major regulatory frameworks, including international maritime conventions and Indian standards under organizations like IWAI, INCOIS, and Maritime Boards. Learners will understand how planning, design, and operation integrate within the broader logistics and trade ecosystem.
Before any construction begins, thorough site investigation determines the project’s viability. This module teaches how to conduct hydrographic surveys, soil sampling, and geotechnical testing for underwater and coastal zones. Participants will learn how environmental and socio-economic assessments shape feasibility studies. Real examples illustrate how data interpretation leads to sound preliminary designs that ensure cost-effectiveness and sustainability in later stages of construction.
Planning a port involves optimizing functionality, safety, and long-term expansion possibilities. This module explains the principles of master planning, berth arrangement, navigation channel alignment, and turning basin design. Engineers will understand how to balance water depth, tidal effects, vessel traffic, and cargo type in determining port layouts. Capacity planning, throughput analysis, and efficient terminal zoning are covered using simple tabular examples to help visualize real planning processes.
This technical module focuses on the structural components of ports—breakwaters, jetties, quays, dolphins, and retaining walls. Learners will explore the design criteria for stability, wave force analysis, and material selection for harsh marine conditions. Methods like the use of caissons, pile foundations, and diaphragm walls are explained with practical reasoning for when and where each system is suitable. The module emphasizes construction safety, durability, and maintenance in marine environments.
Dredging plays a critical role in maintaining navigational depths and creating new port basins. This module explains the types of dredgers—cutter suction, hopper, backhoe, and grab dredgers—and their selection based on soil type and project scale. The process of dredging, spoil transportation, and controlled reclamation is covered in step-by-step detail. The module also stresses monitoring sediment dispersion, environmental mitigation, and maintaining quality throughout the operation.
India and many developing regions are now investing heavily in inland water transport to reduce logistics costs. This module focuses on channel design, navigation locks, terminals, and jetty construction in rivers and canals. Learners will study river training works, bank protection systems, and maintenance strategies to ensure navigability. Real case studies from IWAI projects demonstrate practical challenges in executing inland waterway projects in varying terrains.
Erosion, sedimentation, and storm surges threaten coastal assets. This module introduces coastal morphology, sediment transport dynamics, and causes of erosion. Engineers will learn to design groynes, sea walls, and artificial beaches to protect coastlines. It also introduces integrated coastal zone management—an approach that combines engineering, environmental, and social measures to ensure long-term shoreline stability.
The strength of marine structures depends heavily on subsoil characteristics. This module discusses investigation methods like cone penetration tests, borehole sampling, and in-situ testing below seabed levels. Participants will understand how to design pile and caisson foundations suited to marine loads and ground conditions. Ground improvement techniques such as vibro-compaction, stone columns, and geotextile reinforcement are covered with practical applications in coastal reclamation zones.
Durability is critical in the marine environment due to corrosion and constant exposure to water and salt. This module outlines the selection of marine-grade concrete, protective coatings, anti-corrosion reinforcement, and the use of steel, rock, and composite materials. Participants will learn about underwater concreting, tremie methods, and sequencing techniques that ensure safety and stability during construction.
Ports are complex systems requiring utilities and support infrastructure. This module describes the planning and design of internal roads, stormwater drainage, firefighting systems, and utility services like power, lighting, and communications. Storage yards, warehouses, cold storage, and cargo handling systems are explained to help participants understand how civil and mechanical works integrate to support efficient port operations.
Construction of marine projects relies on specialized equipment. This module introduces marine cranes, barges, dredgers, jack-up platforms, and piling rigs. Participants will learn how to select, operate, and maintain this equipment safely. The module also covers equipment logistics, calibration, and preventive maintenance procedures, ensuring efficient site execution.
Marine construction has significant environmental implications. This module provides guidance on conducting Environmental Impact Assessments (EIA) and implementing mitigation measures. Learners will study topics such as marine ecology preservation, water quality control, sediment management, and the use of eco-friendly construction materials. The concept of sustainable port development—focusing on energy efficiency, waste minimization, and green shore protection—is introduced in practical terms.
Effective financial and contractual management ensures project success. This module teaches how to prepare Bills of Quantities (BOQs), estimate costs for dredging, piling, and reclamation works, and manage contingencies. It also familiarizes learners with international contract formats like FIDIC and EPC, explaining clauses related to risk sharing, payment, and dispute resolution. The module helps engineers and managers interpret contractual obligations clearly, preventing cost overruns and claims.
Construction of ports and coastal structures requires meticulous sequencing, time management, and coordination among multiple agencies. This module introduces scheduling techniques, resource planning, and logistics management. It also covers quality control measures—inspection, testing, and material verification—during various stages of marine construction. Health, Safety, and Environmental (HSE) management practices are emphasized, aligning with Indian and GCC construction safety standards.
The final module brings together lessons from successful port and waterway projects worldwide. Learners will study case studies from India (e.g., Mumbai Port, Vizhinjam Port, and IWAI terminals) and GCC regions (e.g., Jebel Ali, Khalifa Port, and Sohar Port). It highlights emerging trends such as deep-water port expansion, green port initiatives, and integration of inland and coastal logistics networks. The module concludes with discussions on capacity building, skill enhancement, and long-term career growth opportunities in this specialized sector.
Civil engineers and construction managers working on marine or coastal projects
Project engineers and planners involved in infrastructure and logistics development
Professionals seeking to move into the port, shipping, or waterway sectors
Government and public sector engineers involved in IWAI, port trusts, or coastal protection projects
EPC contractors, consultants, and site engineers handling marine and dredging works
By completing this certification, participants will be able to:
Plan and design complete port and coastal infrastructure layouts
Conduct site investigations and interpret hydrographic and geotechnical data
Execute marine construction works with an understanding of materials, stability, and sequencing
Manage dredging, reclamation, and shoreline protection projects
Prepare realistic cost estimates and manage contracts under FIDIC or EPC conditions
Apply HSE and quality assurance systems during execution
Incorporate environmental and sustainability considerations in every phase of project development
The course adopts a hands-on, construction-focused approach. Each module is developed using real project scenarios, practical examples, tabular data interpretation, and site-based reasoning. Participants are encouraged to think like construction managers—balancing design feasibility, cost, schedule, and quality within environmental and safety limits.
By the end of the program, learners will have gained not just theoretical understanding but also the managerial insight required to lead and execute complex maritime and inland waterway projects effectively.
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