Introduction
Road infrastructure is fundamental to economic development, regional connectivity, trade facilitation, and access to essential services. However, increasing traffic volumes, aging infrastructure, inadequate maintenance, and changing climatic conditions continue to threaten the performance and sustainability of road networks. The Road Construction, Maintenance, Rehabilitation and Stormwater Drainage Training Course provides participants with comprehensive technical knowledge and practical skills to plan, construct, maintain, rehabilitate, and manage resilient road infrastructure while improving operational efficiency and long-term asset performance.
Effective road construction requires an integrated understanding of geometric design, pavement engineering, construction materials, geotechnical conditions, traffic loading, and quality assurance procedures. Poor construction practices, inappropriate material selection, inadequate compaction, and insufficient drainage provisions can significantly reduce pavement service life and increase maintenance costs. This training programme examines modern road construction methodologies, engineering standards, construction supervision practices, and emerging technologies that improve structural integrity, construction productivity, environmental performance, and overall project delivery.
Road maintenance and rehabilitation are essential components of sustainable infrastructure management, particularly where limited public resources must support expanding transportation networks. Road authorities increasingly require systematic approaches to pavement condition assessment, defect identification, maintenance prioritization, rehabilitation design, and lifecycle cost optimization. Participants will explore preventive, routine, periodic, and emergency maintenance strategies, together with pavement strengthening techniques, rehabilitation technologies, and evidence-based decision-making tools that extend infrastructure service life while minimizing disruptions to road users.
Stormwater drainage is a critical determinant of road durability, traffic safety, environmental protection, and climate resilience. Inadequate surface and subsurface drainage can accelerate pavement deterioration, undermine road foundations, cause erosion, damage bridges and culverts, and contribute to severe flooding in urban and rural environments. This course provides practical guidance on hydrological analysis, hydraulic design, roadside drainage systems, culvert sizing, stormwater conveyance, flood mitigation, erosion control, and sustainable drainage solutions that protect road assets under increasingly variable rainfall conditions.
The programme also addresses emerging developments transforming the road infrastructure sector, including Building Information Modelling (BIM), Geographic Information Systems (GIS), artificial intelligence, drone-based inspections, digital twins, intelligent compaction, recycled pavement materials, low-carbon construction technologies, and climate-adaptive infrastructure planning. Participants will examine how these innovations support more accurate infrastructure assessments, predictive maintenance, efficient resource allocation, real-time construction monitoring, and environmentally responsible road development. Special attention is given to nature-based drainage solutions, circular construction practices, and resilience against extreme weather events.
Through technical presentations, practical engineering exercises, case studies, group discussions, field-based examples, and applied design activities, participants will strengthen their ability to address real-world road infrastructure challenges. The training emphasizes the integration of construction quality, pavement performance, maintenance planning, rehabilitation engineering, and stormwater management within a unified infrastructure asset management framework. By the end of the programme, participants will be better equipped to deliver durable, safe, cost-effective, environmentally sustainable, and climate-resilient road infrastructure projects.
Duration
10 days
Who Should Attend?
This training course is designed for professionals involved in road infrastructure planning, construction, maintenance, rehabilitation, drainage engineering, and transportation asset management.
- Road and Highway Engineers
- Civil and Infrastructure Engineers
- Transportation and Traffic Engineers
- Road Construction Project Managers
- Highway Maintenance Engineers and Supervisors
- Pavement Design and Rehabilitation Specialists
- Stormwater Drainage and Hydraulic Engineers
- Hydrologists and Water Resources Engineers
- Geotechnical and Materials Engineers
- Road Construction Contractors and Site Engineers
- Municipal Infrastructure and Public Works Officers
- Road Authority and Highway Agency Officials
- Urban Planning and Infrastructure Development Professionals
- Construction Quality Assurance and Quality Control Officers
- Infrastructure Asset Management Specialists
- Environmental and Climate Resilience Professionals
- Road Safety Engineers and Transport Planners
- Construction Consultants and Resident Engineers
- Infrastructure Procurement and Contract Management Officers
- Development Project Engineers and Technical Advisors
- GIS, Surveying, and Infrastructure Mapping Specialists
- Engineering Technicians and Infrastructure Inspectors
Course Objectives
Upon successful completion of the training, participants will be able to:
· Apply integrated road infrastructure engineering principles to plan, design, construct, maintain, and rehabilitate road networks while ensuring structural reliability, operational safety, cost efficiency, and long-term sustainability.
· Evaluate road construction materials and pavement engineering requirements by assessing soil properties, aggregate characteristics, asphalt mixtures, concrete performance, traffic loading, and environmental conditions affecting pavement durability.
· Implement effective road construction methodologies and quality management procedures covering site preparation, earthworks, subgrade improvement, pavement layer construction, compaction, material testing, construction supervision, and compliance monitoring.
· Conduct systematic road condition assessments and pavement deterioration investigations using visual inspections, pavement distress surveys, structural evaluation techniques, digital monitoring technologies, and performance indicators to identify maintenance and rehabilitation requirements.
· Develop comprehensive road maintenance management strategies that integrate routine, preventive, periodic, corrective, and emergency maintenance activities with condition-based prioritization, budget optimization, and measurable service performance targets.
· Design and evaluate appropriate pavement rehabilitation interventions including asphalt overlays, pavement recycling, stabilization, strengthening, reconstruction, and surface restoration based on engineering assessments and lifecycle cost considerations.
· Apply hydrological and hydraulic engineering principles to stormwater drainage design through rainfall analysis, runoff estimation, drainage catchment assessment, hydraulic capacity calculations, culvert sizing, and appropriate stormwater conveyance system selection.
· Plan and manage resilient roadside and subsurface drainage infrastructure incorporating side drains, cross drains, culverts, channels, infiltration systems, erosion protection measures, and sustainable drainage solutions to minimize water-related road damage.
· Integrate climate change adaptation and flood resilience into road infrastructure development by evaluating extreme rainfall scenarios, flood vulnerability, changing drainage design assumptions, nature-based solutions, and infrastructure risk reduction measures.
· Utilize modern digital technologies for road infrastructure management including GIS, BIM, drone inspections, remote sensing, digital twins, artificial intelligence, predictive analytics, and digital asset management systems to improve technical decisions.
· Strengthen road project supervision, contract administration, and financial management capabilities through effective scheduling, cost estimation, risk management, contractor performance monitoring, quality assurance, environmental safeguards, and regulatory compliance.
· Develop integrated road construction, rehabilitation, and drainage improvement plans that combine technical assessments, engineering design, maintenance programming, climate resilience, financial feasibility, stakeholder coordination, and sustainable infrastructure performance.
Comprehensive Course Outline
Module 1: Fundamentals of Road Infrastructure Engineering and Asset Management
- Overview of road infrastructure systems, functional classifications, engineering components, and their contribution to economic connectivity and sustainable transportation development.
- Fundamental principles of road planning, construction, maintenance, rehabilitation, and stormwater drainage within integrated infrastructure management frameworks.
- Road infrastructure performance requirements, design service life, structural reliability, road user safety, and engineering considerations for different traffic environments.
- Introduction to infrastructure asset management standards, lifecycle planning, performance-based decision-making, and institutional responsibilities for sustainable road network development.
Module 2: Road Planning, Route Selection, and Geometric Design
- Road corridor identification, feasibility investigations, route alignment selection, and evaluation of environmental, social, geotechnical, and economic constraints.
- Horizontal and vertical geometric design principles covering design speed, curve radii, gradients, stopping sight distances, and safe road alignment development.
- Road cross-section design incorporating carriageways, shoulders, medians, pedestrian facilities, cycling infrastructure, roadside drainage, and utility corridors.
- Application of digital terrain models, GIS mapping, traffic forecasts, and modern road design software to optimize route selection and infrastructure layouts.
Module 3: Geotechnical Investigations, Earthworks, and Subgrade Engineering
- Planning and execution of geotechnical site investigations, soil sampling, laboratory testing, and evaluation of ground conditions affecting road construction.
- Soil classification, bearing capacity assessment, California Bearing Ratio testing, moisture-density relationships, and interpretation of geotechnical engineering results.
- Earthworks construction practices covering excavation, embankment formation, cut-and-fill operations, soil compaction, slope stability, and erosion prevention.
- Subgrade improvement techniques using mechanical stabilization, lime, cement, geosynthetics, and alternative treatment methods for weak or problematic soils.
Module 4: Road Construction Materials, Testing, and Quality Control
- Engineering properties and selection criteria for aggregates, bituminous binders, asphalt mixtures, cement, concrete, stabilized materials, and pavement construction products.
- Laboratory and field testing procedures for material grading, strength, durability, density, moisture content, binder properties, and construction specification compliance.
- Quality assurance and quality control systems covering material approval, inspection and test plans, sampling frequencies, acceptance criteria, and corrective actions.
- Sustainable construction material innovations including recycled aggregates, reclaimed asphalt pavement, industrial by-products, and low-carbon pavement technologies.
Module 5: Flexible Pavement Design and Asphalt Road Construction
- Flexible pavement structural principles, traffic load characterization, pavement layer functions, mechanistic-empirical design approaches, and structural thickness determination.
- Asphalt mix design, binder selection, aggregate gradation, temperature control, asphalt production, transportation, laying, and compaction requirements.
- Construction procedures for granular subbase, base courses, prime coats, tack coats, asphalt binder courses, and wearing surfaces with appropriate quality verification.
- Common asphalt pavement construction defects, segregation, inadequate compaction, temperature-related problems, premature distress, and practical prevention strategies.
Module 6: Rigid Pavement Design and Concrete Road Construction
- Rigid pavement structural behavior, concrete slab design principles, load transfer mechanisms, foundation support requirements, and traffic loading considerations.
- Concrete pavement material selection, mix proportioning, reinforcement arrangements, joint design, dowel bars, tie bars, and durability enhancement techniques.
- Construction methods for concrete road pavements including batching, placement, vibration, finishing, curing, joint cutting, and surface texture development.
- Assessment and prevention of concrete pavement failures such as cracking, faulting, pumping, joint deterioration, slab settlement, and premature surface distress.
Module 7: Road Construction Methods, Equipment, and Site Supervision
- Construction sequencing from site mobilization and clearing through earthworks, pavement construction, drainage installation, road furniture, and final commissioning.
- Selection, operation, productivity monitoring, and maintenance of road construction equipment including graders, excavators, rollers, pavers, and asphalt plants.
- Construction site supervision procedures covering method statements, daily progress reporting, workmanship inspections, technical documentation, and contractor coordination.
- Modern construction productivity innovations including GPS-guided machinery, automated grading, intelligent compaction systems, and digital construction monitoring platforms.
Module 8: Road Condition Assessment and Pavement Performance Evaluation
- Identification and classification of pavement deterioration mechanisms including fatigue cracking, rutting, potholes, ravelling, deformation, settlement, and moisture damage.
- Pavement condition survey methods using visual inspections, standardized distress measurements, roughness assessments, skid resistance testing, and structural investigations.
- Application of pavement evaluation technologies including Falling Weight Deflectometers, Ground Penetrating Radar, laser profilers, and automated pavement inspection systems.
- Interpretation of pavement condition indicators, deterioration trends, remaining service life estimates, and engineering evidence for maintenance and rehabilitation decisions.
Module 9: Routine, Preventive, and Periodic Road Maintenance
- Development of routine road maintenance programmes covering pothole repairs, crack sealing, shoulder maintenance, vegetation management, and drainage cleaning.
- Preventive pavement preservation techniques including fog seals, slurry seals, microsurfacing, chip seals, thin overlays, and localized surface treatments.
- Periodic maintenance planning for pavement resurfacing, road marking renewal, shoulder restoration, culvert rehabilitation, and roadside safety improvements.
- Maintenance scheduling, workforce planning, equipment allocation, performance monitoring, and prioritization of interventions under constrained infrastructure budgets.
Module 10: Pavement Rehabilitation, Strengthening, and Reconstruction
- Engineering investigations to determine pavement rehabilitation needs, structural deficiencies, root causes of deterioration, and appropriate intervention thresholds.
- Rehabilitation techniques including asphalt overlays, milling and replacement, full-depth reclamation, cold recycling, hot recycling, and pavement stabilization.
- Structural strengthening strategies for heavily trafficked roads using improved pavement materials, geosynthetic reinforcement, and enhanced foundation treatments.
- Comparative assessment of rehabilitation alternatives through lifecycle costing, constructability analysis, traffic disruption evaluation, and long-term performance forecasting.
Module 11: Hydrology and Stormwater Runoff Analysis for Road Drainage
- Fundamental hydrological processes influencing road drainage including precipitation, infiltration, evaporation, catchment response, surface runoff, and groundwater interactions.
- Rainfall data interpretation, intensity-duration-frequency analysis, design storm selection, return periods, and assessment of extreme precipitation scenarios.
- Stormwater runoff estimation using the Rational Method, runoff coefficients, time of concentration, hydrograph concepts, and catchment delineation procedures.
- Application of hydrological modelling tools and GIS-based catchment analysis to evaluate runoff volumes, peak discharges, flood risks, and drainage infrastructure requirements.
Module 12: Hydraulic Design of Roadside Drains, Culverts, and Cross-Drainage Structures
- Hydraulic design principles for open channels, roadside drains, lined ditches, trapezoidal channels, and stormwater conveyance systems using appropriate flow equations.
- Culvert design and sizing covering inlet and outlet control, headwater levels, flow capacity, hydraulic losses, sediment movement, and structural considerations.
- Design and placement of cross-drainage infrastructure including pipe culverts, box culverts, causeways, drainage crossings, and road embankment protection works.
- Hydraulic performance verification, drainage network integration, inlet and outlet protection, and prevention of overtopping, blockage, erosion, and backwater effects.
Module 13: Urban Stormwater Drainage and Sustainable Drainage Systems
- Urban stormwater management challenges arising from increasing impervious surfaces, rapid development, inadequate drainage capacity, and changing rainfall patterns.
- Planning and design of urban road drainage systems including kerb inlets, catch basins, manholes, storm sewers, detention facilities, and outfall structures.
- Sustainable drainage systems incorporating permeable pavements, bioswales, rain gardens, infiltration trenches, retention ponds, and green infrastructure corridors.
- Integration of nature-based solutions, urban flood management, water quality improvement, and stormwater harvesting into resilient transportation infrastructure planning.
Module 14: Subsurface Drainage, Erosion Control, and Slope Protection
- Assessment of groundwater movement, pavement moisture infiltration, capillary rise, and subsurface water conditions affecting road foundation performance.
- Design and installation of subsurface drainage systems including perforated pipes, filter layers, drainage blankets, interceptor drains, and geocomposite drains.
- Roadside erosion control measures involving riprap protection, gabions, check dams, energy dissipators, vegetation establishment, and channel stabilization.
- Engineering approaches to embankment protection, slope drainage, landslide risk reduction, scour prevention, and stabilization of vulnerable road corridors.
Module 15: Climate-Resilient Road Infrastructure and Disaster Risk Reduction
- Assessment of climate-related threats to road infrastructure including extreme rainfall, flash flooding, prolonged inundation, rising temperatures, and slope instability.
- Climate-informed road and drainage design incorporating updated rainfall projections, flood vulnerability assessments, resilience standards, and adaptive design strategies.
- Disaster preparedness and emergency road maintenance planning covering flood response, washout repairs, emergency access restoration, and post-disaster damage assessments.
- Development of climate-resilient infrastructure investment strategies using risk-based prioritization, nature-based protection measures, and adaptation financing approaches.
Module 16: Digital Technologies, AI, and Emerging Innovations in Road Infrastructure
- Application of GIS, remote sensing, satellite imagery, and drone-based surveys for road inventory development, pavement inspections, drainage mapping, and flood risk assessment.
- Use of Building Information Modelling and digital twins to integrate road design, construction documentation, drainage assets, maintenance records, and lifecycle management.
- Artificial intelligence and machine learning applications for automated pavement distress detection, predictive maintenance, asset deterioration forecasting, and investment prioritization.
- Emerging technologies including connected infrastructure sensors, smart drainage monitoring, low-carbon asphalt, recycled pavement materials, and data-driven construction quality systems.
Module 17: Integrated Road Project Management, Contract Administration, and Practical Applications
- Road construction and rehabilitation project planning covering work breakdown structures, scheduling, cost estimation, procurement strategies, and resource management.
- Contract administration, technical specifications, measurement of works, payment certification, variation management, claims prevention, and contractor performance evaluation.
- Environmental, social, health, and safety management covering traffic control, construction hazards, community engagement, environmental compliance, and sustainable construction practices.
- Practical capstone exercise integrating road condition assessment, pavement rehabilitation selection, stormwater drainage improvement, lifecycle costing, and climate resilience planning.
Tailor-Made Course
This course can also be tailor-made to meet organization requirement. For further inquiries, please contact us on: Email: training@upskilldevelopment.com Tel: +254 721 331 808
Training Venue
The training will be held at our Upskill Training Centre. We also offer training for a group at requested location all over the world. The course fee covers the course tuition, training materials, two break refreshments, and buffet lunch.
Visa application, travel expenses, airport transfers, dinners, accommodation, insurance, and other personal expenses are catered by the participant
Certification
Participants will be issued with Upskill certificate upon completion of this course.
Airport Pickup and Accommodation
Airport pickup and accommodation is arranged upon request. For booking contact our Training Coordinator through Email: training@upskilldevelopment.com, +254 721 331 808
Terms of Payment
Unless otherwise agreed between the two parties’ payment of the course fee should be done 3 working days before commencement of the training so as to enable us to prepare better.
