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Construction Project Management with BIM 4D/5D Simulation
Master integrated BIM workflow, project scheduling, cost control, and earned value management across real AEC projects in the Middle East. Learn from a certified planning engineer with hands-on experience in international EPCM firms.
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Description
Programme Highlights
End-to-End Project Lifecycle
From 3D bridge model creation through BOQ, scheduling, 4D sequencing, 5D cost simulation, and EVM performance reporting — in one integrated programme.
Industry-Standard Tools
Autodesk Infraworks, Revit, and Navisworks for BIM; Teamsystem CPM and Microsoft Project for scheduling — the exact toolset used by EPCM contractors across the GCC.
CPM + EVM Methodologies
Critical Path Method for schedule control and Earned Value Management for cost-schedule performance tracking — both recognised by PMI and applied on major GCC infrastructure contracts.
GCC Infrastructure Context
All project exercises and workflows reflect real EPCM general contractor practice on infrastructure projects in Saudi Arabia, UAE, and Qatar.
Course Curriculum — 6 Modules
Infrastructure Modelling — 3D Bridge Design & BIM Parameter Setup
The programme opens by building the physical asset that anchors every subsequent module: a detailed concrete bridge model created from scratch in Autodesk Infraworks. Participants work through the Infraworks site modelling environment — terrain import, road and structure alignment, and the bridge design workflow used by civil engineering consultants on GCC infrastructure tenders. The completed Infraworks model is then imported into Autodesk Revit, where structural rebars and reinforcement details are added using Revit's parametric reinforcement environment, with cover parameters and bar schedules configured to ACI 318 and Saudi Building Code concrete durability requirements. BIM parameters are established for every structural element — material grades, concrete strengths, element dimensions, and cost code assignments — that later drive automated quantity extraction, schedule linking, and cost integration in modules 02 through 05. By the end of this module, participants have a fully parametric, information-rich 3D bridge model that functions as the data source for the entire downstream project controls workflow.
Quantity Takeoff & Parametric Data Extraction
Accurate quantity takeoff is the foundation of cost estimation, procurement scheduling, and contract pricing on GCC infrastructure projects — and one of the highest-value outputs of a BIM model when it is properly parametrised. This module covers the complete QTO workflow in Autodesk Navisworks: model import and federation, search set construction for element category grouping, Quantification workbook configuration, and the parameter-to-column mapping that extracts concrete volumes, rebar masses, formwork areas, and structural steel weights directly from the BIM model. Participants configure automated Bills of Quantity (BOQ) with correct WBS-aligned cost code structure, unit rates, and quantity formats matching the BOQ presentation required for Saudi Aramco, NEOM, and general GCC public infrastructure tender submissions. The module addresses the data quality management practices — element classification, property set completeness, and model coordination — that determine whether a BIM-derived BOQ is reliable enough to stand as the contractual quantity basis for a lump-sum or re-measurable infrastructure contract in the GCC procurement environment.
Work Breakdown Structure & Construction Scheduling
Schedule management is the discipline that determines whether a construction project is delivered on time and within its contractual milestone framework — and CPM scheduling is the internationally recognised method that GCC government clients, PMC consultants, and EPCM contractors mandate for infrastructure delivery. This module begins with Work Breakdown Structure (WBS) development: decomposing the bridge project into construction phases (foundations, substructure, superstructure, finishing, and commissioning), work packages aligned with the BOQ from module 02, and control accounts that support earned value measurement in module 06. The WBS is then developed into a full baseline schedule in both Teamsystem Construction and Microsoft Project: activity definition, duration estimation using productivity norms aligned with GCC site conditions, logic linking with finish-to-start, start-to-start, and finish-to-finish relationships, lag and lead assignment, calendar configuration for Saudi working week and public holiday calendars, and critical path identification. The module addresses the schedule baseline approval process, float management, schedule compression techniques (crashing and fast-tracking), and the schedule narrative report format required for PMC and client submissions on GCC public sector infrastructure contracts.
4D Construction Sequencing — Time-Linking the BIM Model
4D BIM — the integration of a 3D model with a time-linked construction schedule — is one of the most powerful communication and validation tools available to construction project managers, and is increasingly required in tender submissions for major GCC infrastructure contracts. This module covers the complete 4D workflow in Autodesk Navisworks: importing the Revit bridge model, linking to the Teamsystem CPM or Microsoft Project schedule via TimeLiner, building task-to-model element links using selection sets and search sets, configuring appearance definitions for pre-construction, construction, and post-construction states, and generating 4D construction sequence animations. The validation capability of 4D is emphasised: using the animated simulation to identify construction sequence conflicts (elements appearing before their predecessors are complete), spatial conflicts (crane reach, formwork stripping sequences), and logistical clashes (access route blockages during specific construction phases) that cannot be identified from a Gantt chart alone. Participants produce a professional 4D animation video suitable for client presentation, PMC review, and contractor pre-construction planning workshops — the deliverable that increasingly differentiates bids on Saudi Vision 2030 programme and UAE infrastructure tenders.
Cost Integration & 5D BIM Simulation
5D BIM extends the 4D time-linked model by adding cost data — creating a simulation environment where the financial impact of every construction activity is visible as it occurs in the project schedule. This module covers the complete 5D workflow: assigning unit costs and resource rates (labour, plant, materials, subcontract) to BIM model elements via Navisworks or a connected cost management platform, configuring cost code mapping aligned with the WBS from module 03, and generating phase-level budget allocation curves (S-curves) that show planned expenditure progression against the construction schedule. Cash flow modelling is covered: applying contract payment terms, retention provisions, and mobilisation advance recovery to produce the cash flow projection that financial controllers and project sponsors require for GCC infrastructure projects financed through government allocations or PPP structures. The 5D simulation enables participants to visualise cost accumulation against construction progress — identifying phases where expenditure acceleration or deceleration creates cash flow risk, and producing the cost-loaded schedule baseline that serves as the reference for earned value measurement in module 06.
Earned Value Management & Project Performance Analysis
Earned Value Management is the internationally recognised framework — mandated by PMI, used by the US Army Corps of Engineers, Saudi Aramco, and NEOM project management offices — for integrating cost, schedule, and scope performance into a single, quantified project status picture. This module applies EVM to the bridge project data built across modules 01 through 05, creating a complete performance measurement environment. Participants calculate the three baseline values — Planned Value (PV), Earned Value (EV), and Actual Cost (AC) — and derive the four primary performance indicators: Schedule Variance (SV), Cost Variance (CV), Schedule Performance Index (SPI), and Cost Performance Index (CPI). Critical Path Analysis is applied to identify the schedule activities that determine project completion date, assess total float consumption, and prioritise recovery actions when SPI falls below 1.0. The module covers performance forecasting: Estimate at Completion (EAC), Estimate to Complete (ETC), and Variance at Completion (VAC) calculations using the standard EVM forecasting methods, and the To-Complete Performance Index (TCPI) that tells project managers the efficiency required to deliver the remaining work within the current budget. Participants produce a professional project performance report and EVM dashboard — the monthly deliverable that project controls engineers submit to clients, PMC consultants, and project sponsors on GCC construction contracts.
Software, Methodologies & Standards
Course Outcome
On completing this course, you will be able to build integrated 3D/4D/5D BIM models, create and manage construction schedules using industry-standard tools, perform quantity takeoff and cost analysis, apply critical path and earned value management techniques, and deliver professional project control reports and dashboards. These skills directly support roles as BIM Coordinator, Project Planner, Scheduler, Planning Engineer, and Project Controls Engineer on complex infrastructure projects across the Middle East construction sector.