COURSE OBJECTIVES:

• Interpret the fundamental principles and legal implications of the latest ACI 318 building code requirements.
• Apply correct load combinations and strength reduction factors to ensure structural reliability in concrete design.
• Design reinforced concrete beams and slabs for flexure and shear in strict accordance with ACI specifications.
• Calculate development lengths and implement precise reinforcement detailing to prevent structural bond failures.
• Evaluate the requirements for serviceability, including deflection control and crack width limitations under service loads.
• Implement seismic design provisions for structures located in regions of high or moderate cyclonic and earthquake risk.
• Analyze the behavior of slender columns and apply the moment magnifier method for accurate structural assessment.
• Specify the correct concrete mixtures and additives required to meet ACI durability standards for harsh environments.
• Execute rigorous quality control procedures during the construction phase to verify compliance with design specifications.
• Manage the transition between different versions of the ACI code and understand the impact of recent technical updates.
• Assess existing concrete structures for compliance and determine necessary retrofitting strategies based on code mandates.
• Prepare professional structural reports and documentation that satisfy the scrutiny of regulatory and municipal authorities.

TARGET AUDIENCE:

This course is designed for structural engineers, civil engineers, project managers, construction inspectors, and design consultants who are responsible for the design, supervision, or quality assurance of reinforced concrete structures. It is also highly beneficial for government regulators and municipal engineers tasked with enforcing building codes and approving structural plans.

COURSE OBJECTIVES:

• Differentiate between various fiber types and polymer resins based on their mechanical and thermal properties.
• Analyze the anisotropic and orthotropic behavior of composite laminates using classical lamination theory.
• Design externally bonded FRP systems for the flexural strengthening of reinforced concrete beams and slabs.
• Apply ACI 440.2R guidelines for the shear enhancement of structural elements using FRP wraps and anchors.
• Evaluate the effectiveness of FRP jackets for the seismic retrofitting and axial confinement of reinforced concrete columns.
• Implement rigorous surface preparation protocols to ensure optimal bond integrity between composites and substrates.
• Select appropriate manufacturing and installation methods, such as hand lay-up, pultrusion, and filament winding.
• Perform non-destructive testing and quality assurance inspections for FRP installations, including pull-off tests.
• Predict the long-term durability and creep rupture behavior of composite materials under sustained loads.
• Develop specialized repair strategies for masonry and timber structures using fiber-reinforced polymers.
• Calculate the environmental reduction factors required to adjust the design strength of FRP in various exposure conditions.
• Compare the life cycle costs of FRP-based solutions against traditional repair methods to support procurement decisions.

TARGET AUDIENCE:

This course is intended for structural and materials engineers, bridge designers, retrofitting specialists, and project managers involved in infrastructure rehabilitation. It is also highly relevant for quality control technicians and researchers seeking to stay at the forefront of advanced construction materials technology.

COURSE OBJECTIVES:

COURSE OBJECTIVES:

• Analyze the chemical phases of cement hydration and their impact on microstructure.
• Evaluate the role of the Interfacial Transition Zone (ITZ) in determining concrete strength.
• Implement advanced non-destructive testing (NDT) techniques for structural assessment.
• Predict the long-term effects of creep and drying shrinkage on structural stability.
• Assess the fire resistance of concrete and the mechanisms of explosive spalling.
• Apply fracture mechanics principles to understand crack propagation in concrete.
• Utilize petrographic analysis to diagnose material failures and chemical attacks.
• Implement nanotechnology solutions, such as nano-silica, to enhance concrete properties.
• Design concrete structures for extreme durability in marine and industrial environments.
• Evaluate the performance of recycled aggregate concrete and geopolymers.
• Model the service life of concrete structures using advanced software and empirical data.
• Manage the quality and consistency of high-performance concrete on large-scale projects.

TARGET AUDIENCE:

This course is intended for materials engineers, structural designers, research and development specialists, and senior quality control managers. It is also highly relevant for forensic engineers involved in structural failure investigations and academics seeking a deep dive into modern concrete science.

COURSE OBJECTIVES:

• Design high-performance building envelopes that optimize thermal and acoustic insulation.
• Evaluate the structural and environmental performance of glass curtain wall systems.
• Implement rainscreen technology to manage moisture and prevent façade degradation.
• Select interior and exterior finishes based on durability, fire safety, and VOC limits.
• Integrate sustainable landscape elements like green roofs and vertical gardens.
• Analyze the building envelope for thermal bridging using specialized software tools.
• Coordinate the interface between structural frames and architectural cladding systems.
• Apply Universal Design principles to both interior finishes and outdoor landscapes.
• Specify high-performance coatings and sealants for extreme weather protection.
• Manage the installation and quality control of complex architectural stone and metalwork.
• Evaluate the life cycle impact and carbon footprint of architectural materials.
• Develop integrated maintenance plans for building skins and landscaped areas.

TARGET AUDIENCE:

This course is intended for architects, civil engineers, façade consultants, interior designers, and project managers. It is also highly relevant for facility managers and developers who wish to understand the technical complexities of architectural system maintenance and integration.

COURSE OBJECTIVES:

• Construct high-accuracy Digital Terrain Models (DTM) from diverse survey data.
• Design complex site grading using Feature Lines and Grading Groups.
• Optimize earthwork volumes through automated Cut and Fill balancing.
• Integrate Retention and Detention Pond design into the site grading model.
• Build dynamic Pipe Networks for storm and sanitary sewer systems.
• Create automated Plan and Profile sheets for municipal and construction use.
• Utilize Grading Optimization (GO) to solve complex site design challenges.
• Manage multi-user project environments using Data Shortcuts.
• Analyze surface drainage patterns and watershed areas within the model.
• Generate precise quantity take-off reports for asphalt, concrete, and soil.
• Visualize 3D site models for stakeholder and client presentations.
• Troubleshoot surface errors and resolve complex grading intersections.

TARGET AUDIENCE:

This course is designed for civil engineers, land surveyors, site designers, and CAD managers who specialize in land development and site infrastructure. It is also highly valuable for project engineers responsible for grading plans and earthwork calculations.

COURSE OBJECTIVES:

• Design a cost-effective site investigation program tailored to project risks.
• Execute advanced in-situ tests, including CPTu, DMT, and Pressuremeter.
• Interpret Standard Penetration Test (SPT) data with the correct correction factors.
• Analyze soil and rock samples using advanced laboratory testing protocols.
• Utilize geophysical methods like Seismic Refraction and GPR for site characterization.
• Derive fundamental design parameters for strength, settlement, and seepage.
• Manage groundwater monitoring and piezometer installation programs.
• Identify problematic soils, including expansive, collapsible, and liquefiable layers.
• Prepare professional Geotechnical Baseline Reports (GBR) for contract management.
• Apply GIS and digital data management to geotechnical site characterization.
• Evaluate the impact of environmental contamination on geotechnical properties.
• Supervise drilling and sampling operations to ensure high-quality data recovery.

TARGET AUDIENCE:

This course is intended for geotechnical engineers, civil engineers, engineering geologists, and project managers. It is also highly relevant for quality assurance inspectors and consultants responsible for foundation design and site risk assessment.

COURSE OBJECTIVES:

After completion of this course, the participants will be able to:

• Analyze the electrochemical mechanisms of corrosion in petrochemical environments.
• Select appropriate materials (Carbon Steel, Stainless, CRA) for specific process fluids.
• Design and evaluate Cathodic Protection (CP) systems for pipelines and tanks.
• Specify high-performance coating systems based on ISO 12944 and NACE standards.
• Implement corrosion monitoring techniques including coupons and ER probes.
• Identify and mitigate Stress Corrosion Cracking (SCC) and Hydrogen Damage.
• Evaluate the role of chemical inhibitors in protecting internal surfaces.
• Manage Microbiologically Influenced Corrosion (MIC) in water-handling systems.
• Apply NACE and API codes for material selection in sour (H2S) service.
• Conduct life cycle cost analysis for corrosion-resistant material alternatives.
• Perform failure analysis to determine the root cause of corroded components.
• Develop a Risk-Based Inspection (RBI) program for corrosion-prone assets.

TARGET AUDIENCE:

This course is intended for materials engineers, corrosion specialists, mechanical engineers, and maintenance managers working in the oil, gas, and petrochemical sectors. It is also highly relevant for design engineers and project managers responsible for asset integrity and material procurement.

COURSE OBJECTIVES:

After completion of this course, the participants will be able to:

• Select the optimal piling system (Bored, Driven, CFA) based on site conditions.
• Manage the installation of Bored Piles using dry, casing, and slurry methods.
• Optimize the use of Bentonite and Polymer slurries for borehole stability.
• Supervise the execution of Continuous Flight Auger (CFA) piling operations.
• Execute precise Driven Piling using hydraulic hammers and vibration monitoring.
• Manage the Tremie Concrete placement process to prevent pile defects.
• Interpret Pile Integrity Testing (PIT) and Cross-hole Sonic Logging (CSL) results.
• Conduct and analyze Static and Dynamic (PDA) Pile Load Tests.
• Troubleshoot common piling issues such as necking, bulging, and soft toes.
• Implement safety protocols for heavy piling machinery and deep excavations.
• Ensure compliance with international piling standards and specifications.
• Coordinate piling activities with the wider foundation and basement construction.

TARGET AUDIENCE:

This course is intended for civil and geotechnical engineers, piling supervisors, project managers, and quality assurance inspectors. It is also highly relevant for consultants and client representatives responsible for the oversight of deep foundation construction projects.

• Identify the primary chemical and physical drivers of concrete deterioration in various climates.
• Analyze the process of carbonation and its effect on the alkalinity of the concrete matrix.
• Evaluate chloride diffusion models to predict the initiation of reinforcement corrosion.
• Distinguish between internal and external sulfate attack and their expansion mechanisms.
• Implement effective strategies for managing Alkali-Silica Reaction (ASR) in existing structures.
• Utilize electrochemical monitoring techniques to assess the rate of active corrosion.
• Select appropriate surface treatments and coatings based on environmental exposure classes.
• Design high-performance concrete mixes with supplementary cementitious materials for durability.
• Evaluate the effectiveness of cathodic protection and sacrificial anodes in repair projects.
• Conduct comprehensive petrographic analysis to diagnose complex material failures.
• Specify hydrophobic treatments to reduce moisture and contaminant permeability.
• Develop long-term maintenance and monitoring plans based on deterioration modeling.

TARGET AUDIENCE:

This course is intended for structural engineers, materials scientists, asset integrity managers, and civil engineering consultants. It is also highly relevant for quality assurance professionals and maintenance supervisors responsible for the longevity of infrastructure in marine and industrial environments.

COURSE OBJECTIVES:

After completion of this course, the participants will be able to:

• Master the Smart Plant 3D interface for structural modeling and navigation.
• Create intelligent 3D models of steel structures using parametric member placement.
• Design complex concrete foundations and slabs integrated with industrial equipment.
• Manage structural catalogs and specifications within the SP3D database.
• Execute multi-disciplinary clash detection and resolution workflows.
• Extract automated 2D structural drawings and bills of materials (BOM).
• Synchronize SP3D models with structural analysis software for design validation.
• Utilize the "Physical versus Analytical" modeling concepts in SP3D.
• Implement data-centric workflows to support Digital Twin functionality.
• Coordinate structural design with piping and electrical tray layouts.
• Manage structural revisions and version control within the SP3D environment.
• Generate high-quality visualizations and reports for stakeholder review.

TARGET AUDIENCE:

This course is designed for structural engineers, 3D modelers, BIM managers, and design coordinators working in the oil, gas, and power industries. It is also highly relevant for project managers who oversee the delivery of digital twins and integrated plant models.

COURSE OBJECTIVES:

After completion of this course, the participants will be able to:

• Supervise the erection of reinforced concrete and structural steel frames.
• Manage site logistics including material storage and equipment positioning.
• Design and oversee temporary works such as shoring and scaffolding.
• Implement rigorous safety protocols for heavy lifting and crane operations.
• Coordinate multi-disciplinary trades for seamless building integration.
• Execute precise site surveying and setting-out procedures.
• Manage the quality control of concrete pours and structural connections.
• Monitor project progress using Gantt charts and digital tracking tools.
• Resolve field technical queries and Requests for Information (RFI).
• Conduct comprehensive risk assessments for high-risk erection activities.
• Lead effective site meetings and manage subcontractor performance.
• Oversee the final commissioning and snagging process for handover.

TARGET AUDIENCE:

This course is intended for site engineers, construction supervisors, project coordinators, and site managers. It is also highly relevant for safety officers and quality inspectors who wish to gain a deeper understanding of the technical aspects of building erection and field leadership.

• Classify soils into Types A, B, and C according to geotechnical stability.
• Perform manual soil tests including plasticity, dry strength, and thumb penetration.
• Design safe sloping and benching configurations for different soil profiles.
• Evaluate the structural capacity of trench shields and hydraulic shoring systems.
• Calculate lateral earth pressures acting on temporary excavation supports.
• Identify and mitigate hazards related to underground utility strikes.
• Implement atmospheric testing and ventilation protocols for deep trenches.
• Manage water intrusion and dewatering systems to maintain soil integrity.
• Execute rigorous daily inspections of excavations and protective systems.
• Develop comprehensive emergency rescue plans for excavation incidents.
• Coordinate safe access and egress points within trenching operations.
• Lead site safety briefings and "Competent Person" responsibilities on-site.

TARGET AUDIENCE:

This course is intended for site engineers, safety officers, construction managers, and geotechnical technicians. It is also highly relevant for project supervisors and consultants responsible for overseeing deep excavation and utility installation projects.

COURSE OBJECTIVES:

• Define the systematic stages of a forensic engineering investigation.
• Distinguish between structural collapse, serviceability failure, and distress.
• Utilize Non-Destructive Testing (NDT) for in-situ material evaluation.
• Interpret crack patterns to identify underlying structural mechanisms.
• Conduct forensic analysis of concrete, steel, and masonry structures.
• Perform structural modeling to verify the causes of failure or overload.
• Manage the collection and preservation of physical evidence for legal use.
• Design effective rehabilitation plans using advanced repair materials.
• Implement structural strengthening techniques including CFRP and steel jackets.
• Prepare comprehensive forensic engineering reports and expert testimony.
• Evaluate the impact of environmental factors on structural degradation.
• Lead rehabilitation projects that balance cost, safety, and durability.

TARGET AUDIENCE:

This course is intended for structural engineers, civil engineers, building inspectors, and loss adjusters. It is also highly relevant for consultants and project managers involved in the repair, retrofitting, and legal assessment of distressed infrastructure.

COURSE OBJECTIVES:

• Analyze specialized load combinations for industrial equipment foundations.
• Design block foundations for pumps, compressors, and rotating machinery.
• Implement dynamic analysis to control vibration and prevent resonance.
• Design large-diameter mat foundations for storage tanks (API 650).
• Evaluate and mitigate differential settlement in heavy equipment bases.
• Design pipe support foundations including sleepers, T-posts, and anchors.
• Select and specify industrial grouting systems for equipment mounting.
• Analyze soil-structure interaction using the Winkler spring model.
• Design anchor bolt systems for high-tension and shear applications.
• Implement soil improvement strategies for heavy industrial sites.
• Calculate seismic and wind loads for tall vertical vessels and equipment.
• Supervise the construction and leveling of precision foundation systems.

TARGET AUDIENCE:

This course is intended for structural engineers, civil engineers, and geotechnical specialists working in the oil, gas, power, and manufacturing sectors. It is also highly relevant for project managers and maintenance engineers responsible for equipment installation and plant expansion.

COURSE OBJECTIVES:

• Interpret geotechnical investigation data for foundation design parameters.
• Design shallow foundations, including isolated, combined, and strip footings.
• Calculate bearing capacity and settlement for cohesive and granular soils.
• Design raft (mat) foundations using the modulus of subgrade reaction.
• Select appropriate piling systems (Bored, Driven, CFA) for deep foundations.
• Design pile groups and analyze load distribution and efficiency.
• Implement soil-structure interaction using elastic spring models.
• Design foundations to resist lateral loads and overturning moments.
• Account for the effects of groundwater and buoyancy on foundation design.
• Evaluate foundation performance on expansive and collapsible soils.
• Apply seismic design principles to onshore foundation systems.
• Utilize software tools for the integrated analysis of foundations and structures.

TARGET AUDIENCE:

This course is intended for structural engineers, civil engineers, and geotechnical specialists involved in the design and construction of onshore infrastructure. It is also valuable for project managers and consultants who need a technical understanding of foundation engineering for residential, commercial, and industrial projects.

COURSE OBJECTIVES:

• Interpret borehole logs and Standard Penetration Test (SPT) data.
• Derive shear strength and stiffness parameters from CPT and CPTu data.
• Apply soil mechanics principles to determine effective stress profiles.
• Calculate primary and secondary consolidation parameters from Oedometer tests.
• Analyze Triaxial test results (UU, CU, CD) for drained and undrained strength.
• Utilize Pressuremeter (PMT) data for in-situ soil stiffness determination.
• Correlate index properties with engineering performance parameters.
• Identify and account for soil anisotropy and stress history (OCR).
• Evaluate the reliability and uncertainty of geotechnical datasets.
• Synthesize field and lab data into a Geotechnical Interpretive Report.
• Model groundwater conditions and pore water pressure distributions.
• Utilize statistical tools for geotechnical data correlation and validation.

TARGET AUDIENCE:

This course is intended for geotechnical engineers, civil engineers, and engineering geologists. It is also highly relevant for project managers and consultants responsible for reviewing geotechnical reports and approving design parameters for infrastructure and building projects.

• Design and manage the complete GIS project lifecycle.
• Develop robust Geodatabase schemas and spatial data models.
• Implement Quality Assurance (QA) and Quality Control (QC) for spatial data.
• Utilize advanced spatial analytics for site selection and route optimization.
• Manage GIS integration with BIM, CAD, and Enterprise Asset Management.
• Deploy web-GIS solutions for real-time data sharing and collaboration.
• Apply Spatial Statistics to identify trends, patterns, and outliers.
• Manage GIS project budgets, timelines, and multi-disciplinary teams.
• Utilize Remote Sensing and LiDAR data for high-accuracy terrain modeling.
• Ensure compliance with ISO and OGC standards for spatial metadata.
• Analyze spatial risk and vulnerability for infrastructure planning.
• Develop strategic GIS roadmaps for digital transformation in engineering.

TARGET AUDIENCE:

This course is intended for GIS managers, project managers, urban planners, civil engineers, and data scientists. It is also highly relevant for IT professionals and government officials responsible for the implementation of spatial data infrastructure and smart city initiatives.

COURSE OBJECTIVES:

• Design high-performance concrete mixes optimized for durability.
• Evaluate the effectiveness of different SCMs in reducing permeability.
• Select and specify hydrophobic impregnations for moisture control.
• Implement crystalline waterproofing systems for below-grade structures.
• Evaluate high-build coatings for protection against chemical aggression.
• Design cathodic protection systems for reinforcement in marine environments.
• Utilize NDT methods to verify the integrity of concrete protection.
• Perform life cycle cost analysis for different durability strategies.
• Manage the application and quality control of specialized coatings.
• Analyze the impact of crack control on long-term durability.
• Implement migrating corrosion inhibitors (MCI) for existing structures.
• Develop integrated durability plans for high-profile infrastructure projects.

TARGET AUDIENCE:

This course is intended for structural engineers, materials specialists, bridge engineers, and asset managers. It is also highly relevant for quality control managers and consultants responsible for the design and maintenance of concrete infrastructure in aggressive environments.

COURSE OBJECTIVES:

• Design navigational channels based on vessel dimensions and hydrodynamics.
• Analyze sediment transport and siltation in maritime and riverine environments.
• Select appropriate dredging equipment for diverse soil and water conditions.
• Manage environmental impacts and disposal of dredged material.
• Design berthing and mooring systems for various vessel types.
• Calculate berthing energy and specify appropriate fendering systems.
• Analyze mooring line forces and bollard requirements for extreme weather.
• Utilize hydrodynamic modeling for wave transformation and current analysis.
• Design hydraulic structures for channel stabilization and scour protection.
• Evaluate the impact of climate change and sea-level rise on channel design.
• Implement hydrographic surveying for channel maintenance and monitoring.
• Develop integrated dredging and maintenance plans for port authorities.

TARGET AUDIENCE:

This course is intended for hydraulic engineers, civil engineers specializing in maritime works, port engineers, and dredging consultants. It is also highly relevant for maritime planners and government officials responsible for the development and maintenance of national waterways and harbour infrastructure.

After completion of this course, the participants will be able to:

• Analyze wave and current forces acting on marine structures.
• Design stable and efficient port layouts based on vessel logistics.
• Evaluate geotechnical properties of marine soils for foundation design.
• Design quay walls using gravity, sheet pile, and diaphragm methods.
• Engineer breakwaters and coastal protection systems for harbor tranquility.
• Determine the berthing and mooring forces for diverse vessel sizes.
• Select and design appropriate fendering and bollard systems.
• Calculate the structural requirements for heavy-duty port pavements.
• Implement corrosion protection strategies for steel and concrete in seawater.
• Integrate environmental impact assessments into waterfront design.
• Apply modern software tools for hydrodynamic and structural modeling.
• Develop maintenance and inspection plans for marine infrastructure assets.

TARGET AUDIENCE:

This course is intended for civil and structural engineers, coastal engineers, port authorities, and infrastructure project managers. It is also suitable for consultants and contractors involved in marine construction and waterfront development.

COURSE OBJECTIVES:

• Apply ACI and ASTM standards to concrete construction inspection.
• Verify concrete mix designs and batching plant compliance.
• Inspect complex reinforcement cages for size, spacing, and cleanliness.
• Oversee the installation and integrity of formwork and shoring systems.
• Manage fresh concrete testing, including slump, air content, and temperature.
• Supervise concrete placement to prevent segregation and honeycombing.
• Oversight of vibration and compaction to ensure maximum density.
• Implement and verify curing regimes for various environmental conditions.
• Inspect post-tensioning ducting and monitor stressing operations.
• Utilize NDT methods like Schmidt Hammer and UPV for quality verification.
• Manage the documentation of inspection results and NCR workflows.
• Ensure compliance with tolerances for structural dimensions and finishing.

TARGET AUDIENCE:

This course is intended for civil inspectors, quality control (QC) engineers, site engineers, and owners' representatives. It is also highly relevant for project managers and consultants responsible for the quality assurance and structural integrity of reinforced concrete infrastructure.

COURSE OBJECTIVES:

• Design structural steel members for tension, compression, and bending.
• Analyze and design Moment and Shear connections per AISC/Eurocode.
• Master the principles of steelwork detailing and shop drawing review.
• Select appropriate steel grades and sections for diverse loading.
• Design bracing systems for lateral stability and seismic resistance.
• Evaluate and design composite steel-concrete floor systems.
• Inspect weld quality and interpret Welding Procedure Specifications (WPS).
• Supervise the installation of high-strength friction grip (HSFG) bolts.
• Utilize NDT methods like MPI and UT for steelwork inspection.
• Manage tolerances and alignment during site erection of steel frames.
• Specify and inspect corrosion protection and fireproofing systems.
• Manage the quality documentation for steel fabrication and handover.

TARGET AUDIENCE:

This course is intended for structural engineers, steelwork designers, fabrication managers, and site engineers. It is also highly relevant for quality inspectors and consultants involved in the design and execution of steel-framed industrial buildings, bridges, and commercial towers.

COURSE OBJECTIVES:

After completion of this course, the participants will be able to:

• Analyze the physics of blast wave propagation and overpressure.
• Quantify blast threats using VCE, BLEVE, and TNT equivalence.
• Apply ASCE "Design of Blast-Resistant Buildings in Petrochemical Facilities."
• Perform dynamic structural analysis using SDOF modeling techniques.
• Determine dynamic material properties and strength increase factors.
• Design reinforced concrete walls and slabs for impulsive loading.
• Engineer blast-resistant structural steel frames and connections.
• Specify and verify blast-rated doors, windows, and HVAC dampers.
• Evaluate the ductility and deformation limits for various protection levels.
• Implement site layout strategies for blast overpressure mitigation.
• Analyze the impact of fragment and projectile penetration on structures.
• Lead the structural design of critical control rooms and substations.

TARGET AUDIENCE:

This course is intended for structural engineers, safety engineers, and facility designers working in the oil, gas, and petrochemical sectors. It is also highly relevant for project managers and integrity specialists responsible for the protective design of critical infrastructure.

COURSE OBJECTIVES:

After completion of this course, the participants will be able to:

• Apply strategic asset management principles to real estate portfolios.
• Develop and manage comprehensive property operating budgets.
• Master the legal aspects of leasing, renewals, and terminations.
• Implement effective tenant relationship and retention programs.
• Supervise the physical maintenance and lifecycle of building assets.
• Utilize PropTech and management software for operational efficiency.
• Conduct thorough market analysis for property positioning and pricing.
• Manage service providers through robust SLAs and performance audits.
• Implement sustainability and energy-saving initiatives in properties.
• Execute risk management and insurance strategies for real estate.
• Lead the marketing and leasing process for vacant spaces.
• Ensure compliance with local property laws and safety regulations.

TARGET AUDIENCE:

This course is intended for property managers, real estate asset managers, facility directors, and property developers. It is also highly relevant for investment analysts and legal professionals involved in the management and operation of diverse real estate portfolios.

COURSE OBJECTIVES:

• Apply probabilistic concepts to structural and geotechnical design.
• Quantify uncertainty in material strength and environmental loading.
• Calculate the Reliability Index and Probability of Failure.
• Perform First-Order Reliability Method (FORM) calculations.
• Utilize Monte Carlo Simulation for complex reliability problems.
• Calibrate partial safety factors for Limit State Design (LSD).
• Analyze system reliability for series and parallel configurations.
• Evaluate the reliability of aging structures and infrastructure.
• Perform risk-informed decision analysis for engineering projects.
• Integrate reliability data into life-cycle cost assessments.
• Use reliability analysis to optimize structural maintenance schedules.
• Apply RBD principles to seismic and fatigue design problems.

TARGET AUDIENCE:

This course is intended for structural engineers, geotechnical engineers, and researchers involved in the design and assessment of complex infrastructure. It is also highly relevant for code-development professionals and asset managers who require a deeper understanding of safety margins and risk.

COURSE OBJECTIVES:

• Analyze the dynamic characteristics (period, frequency, mode shapes) of RC structures.
• Model seismic ground motion using Response Spectra and Time-History data.
• Perform Linear and Non-Linear Dynamic Analysis for industrial assets.
• Design RC members for high ductility and seismic energy dissipation.
• Execute Soil-Structure Interaction (SSI) analysis for heavy foundations.
• Design vibrating equipment foundations to avoid resonance.
• Apply seismic detailing per ACI 318 Chapter 18 and Eurocode 8.
• Evaluate the impact of liquid sloshing in industrial RC tanks.
• Design and specify base isolation and supplemental damping systems.
• Perform seismic vulnerability assessments of existing industrial plants.
• Analyze the dynamic response of tall RC structures (Chimneys/Towers).
• Utilize Finite Element Analysis (FEA) for complex dynamic simulations.

TARGET AUDIENCE:

This course is intended for structural engineers, civil engineering consultants, and lead designers working in seismic regions or industrial sectors. It is also highly relevant for technical managers responsible for the integrity of power plants, refineries, and manufacturing facilities.

COURSE OBJECTIVES:

• Apply optimization techniques to facility management and maintenance.
• Implement data-driven Predictive Maintenance (PdM) strategies.
• Optimize maintenance schedules using Reliability-Centered Maintenance (RCM).
• Utilize IoT and Smart Building data for operational decision-making.
• Conduct comprehensive energy audits and implement optimization plans.
• Manage space and occupancy for maximum facility utilization.
• Optimize the supply chain and spare parts inventory management.
• Develop and monitor advanced KPIs for facility performance.
• Implement Lean and Six Sigma principles in facility operations.
• Structure and manage performance-based maintenance contracts.
• Evaluate the Life Cycle Cost (LCC) and ROI of optimization initiatives.
• Lead digital transformation projects within the facility management sector.

TARGET AUDIENCE:

This course is intended for facility directors, asset managers, senior operations managers, and maintenance consultants. It is also highly relevant for technical leads and financial controllers responsible for the performance and cost-optimization of large-scale commercial and industrial facilities.

After completion of this course, the participants will be able to:

• Formulate a long-term strategic maintenance plan for complex building portfolios.
• Align maintenance operations with the organization’s core business objectives.
• Develop comprehensive maintenance policies and standard operating procedures.
• Execute multi-year CAPEX forecasting and budget prioritization.
• Evaluate and select the most effective maintenance delivery models (In-house vs. Outsourced).
• Implement ISO 55001 principles for strategic asset management.
• Utilize predictive data and analytics to forecast building system lifecycles.
• Integrate energy efficiency and sustainability into the maintenance strategy.
• Conduct strategic risk assessments for critical building infrastructure.
• Design Key Performance Indicators (KPIs) to measure strategic success.
• Lead organizational change and build a proactive maintenance culture.
• Manage high-level stakeholder reporting and financial accountability.

TARGET AUDIENCE:

This course is intended for facility directors, maintenance managers, estate managers, and senior building engineers. It is also highly relevant for asset managers, property developers, and executive leaders responsible for the strategic oversight of large-scale building portfolios and infrastructure.

COURSE OBJECTIVES:

• Evaluate the structural feasibility of adaptive reuse projects.
• Perform structural assessments of legacy concrete, steel, and masonry.
• Design structural interventions for changing building functions and loads.
• Apply CFRP and FRP technologies for structural strengthening.
• Implement section enlargement and steel jacketing for columns and beams.
• Manage the structural impact of adding new floors or extensions.
• Execute seismic retrofitting of older buildings to modern codes.
• Design temporary shoring and bracing systems for restructuring.
• Address soil-structure interaction and foundation upgrades for reuse.
• Navigate the regulatory and code requirements for repurposed buildings.
• Integrate modern MEP services into existing structural frames.
• Lead multi-disciplinary teams through the complexities of restructuring.

TARGET AUDIENCE:

This course is intended for structural engineers, architects, project managers, and conservation specialists. It is also highly relevant for developers and government planning officials involved in urban renewal, heritage preservation, and the sustainable repurposing of existing real estate.

COURSE OBJECTIVES:

• Evaluate the engineering properties of problematic soils and determine improvement needs.
• Select appropriate ground modification techniques based on site-specific constraints.
• Design and supervise deep dynamic compaction and rapid impact compaction projects.
• Implement vibro-compaction and vibro-replacement (stone columns) strategies.
• Analyze the performance of vertical drains and preloading for soft clay consolidation.
• Master chemical stabilization techniques using lime, cement, and fly ash.
• Design sophisticated grouting programs for seepage control and strengthening.
• Utilize geo-synthetics for soil reinforcement, filtration, and drainage.
• Mitigate soil liquefaction risks through advanced ground modification.
• Implement dewatering systems and groundwater control in deep excavations.
• Verify soil improvement effectiveness through CPT, SPT, and load testing.
• Lead the technical procurement and oversight of ground modification contractors.

TARGET AUDIENCE:

This course is intended for geotechnical engineers, civil engineering consultants, and project managers involved in large-scale infrastructure and land reclamation. It is also highly relevant for site supervisors and quality control specialists responsible for verifying ground improvement performance.

COURSE OBJECTIVES:

• Navigate the LEED rating system and credit categories for certification.
• Implement the Green Building Commissioning (Cx) process effectively.
• Define Owner’s Project Requirements (OPR) and Basis of Design (BOD).
• Analyze energy modeling data for LEED Energy and Atmosphere credits.
• Implement water conservation strategies for indoor and outdoor use.
• Execute sustainable site selection and development techniques.
• Manage the selection and documentation of green building materials.
• Optimize indoor environmental quality (IEQ) for occupant wellness.
• Conduct functional performance testing (FPT) for complex MEP systems.
• Manage the LEED documentation and submittal process via LEED Online.
• Implement building-level energy and water metering systems.
• Lead integrated design teams to achieve high-performance building goals.

TARGET AUDIENCE:

This course is intended for architects, MEP engineers, sustainability consultants, and project managers. It is also highly relevant for facility managers and commissioning providers who wish to specialize in green building certification and performance verification.

• Interpret complex engineering drawings across civil, mechanical, and electrical disciplines.
• Master the use of international codes and standards (ASME, ISO, API, BS).
• Navigate the hierarchy of technical documentation: Laws, Codes, Standards, and Specs.
• Understand the principles of Geometric Dimensioning and Tolerancing (GD and T).
• Interpret Piping and Instrumentation Diagrams (P and ID) and Isometric drawings.
• Implement a robust Document Control system for revision tracking.
• Manage the transition from Design Drawings to "As-Built" documentation.
• Utilize Common Data Environments (CDE) for information exchange.
• Verify the compliance of technical drawings with local and global regulations.
• Audit technical documentation for clarity, completeness, and accuracy.
• Manage the security and archival of sensitive engineering data.
• Lead the standardization of documentation processes within an organization.

TARGET AUDIENCE:

This course is intended for project engineers, designers, document controllers, and site supervisors. It is also highly relevant for quality assurance managers and legal professionals who must interpret technical documentation for compliance and dispute resolution.

COURSE OBJECTIVES:

• Apply international conservation principles and charters to heritage projects.
• Assess the structural reliability of historical masonry, timber, and stone.
• Identify deterioration mechanisms specific to ancient building materials.
• Utilize NDT and monitoring technologies for heritage site evaluation.
• Design sensitive structural stabilization and underpinning solutions.
• Execute seismic retrofitting of historical buildings without losing authenticity.
• Implement moisture control and stone consolidation techniques.
• Manage the integration of modern services into heritage structures.
• Utilize 3D Laser Scanning and HBIM for conservation documentation.
• Navigate the regulatory and planning frameworks for heritage sites.
• Manage the risks associated with urban development near historical sites.
• Lead multi-disciplinary conservation teams and stakeholder engagement.

TARGET AUDIENCE:

This course is intended for conservation architects, structural engineers, urban planners, and heritage managers. It is also highly relevant for government officials and developers working in historical city centers where preservation is a regulatory requirement.