What does the Construction Management in Infrastructure Asset Management course cover?
Construction Management in Infrastructure Asset Management is covered here in 8 modules: Strategic Asset Planning and Lifecycle Integration, Regulatory Compliance and Permitting Coordination, Design-Build and Contractual Delivery Models and 5 more. The outline lists 48 specific topics, opening with selecting between rehabilitation, replacement, or deferred maintenance for aging bridges based on condition assessments and funding constraints.
How do you approach Construction Management in Infrastructure Asset Management step by step?
The work is sequenced in 8 stages. It starts with Strategic Asset Planning and Lifecycle Integration, moves through Regulatory Compliance and Permitting Coordination and Design-Build and Contractual Delivery Models, and ends at Sustainability and Resilience Integration. Each stage carries its own topic list, so the sequence is followed rather than summarised.
What is in Module 1 of the Construction Management in Infrastructure Asset Management course?
Module 1 is Strategic Asset Planning and Lifecycle Integration. It works through selecting between rehabilitation, replacement, or deferred maintenance for aging bridges based on condition assessments and funding constraints., aligning construction project timelines with long-term capital improvement plans to avoid premature asset deterioration., integrating lifecycle cost analysis into procurement decisions for tunnel ventilation systems to evaluate 30-year operational impacts. and 3 more.
How is the Construction Management in Infrastructure Asset Management course delivered?
The Construction Management in Infrastructure Asset Management course is fully self-paced with immediate online access after enrolment. Access does not expire and future updates are included at no cost. It can be taken on any device, and a certificate of completion is issued by The Art of Service when you finish.
How much does the Construction Management in Infrastructure Asset Management course cost?
The Construction Management in Infrastructure Asset Management course is $249 as a one time payment. There is no subscription, no per seat licence and no hidden fee. Enrolment carries a 30 day satisfied or refunded guarantee, so it can be assessed in full before you commit.
Closely related courses: Infrastructure Asset Management in Infrastructure Asset, Asset Renewal in Infrastructure Asset Management, Asset Allocation in Infrastructure Asset Management, Asset Relocation in Infrastructure Asset Management.
More answers: what you get with every course, refund policy, all help answers.
This curriculum spans the technical, contractual, and coordination challenges typical of multi-phase infrastructure programs, matching the rigor of advisory engagements for major capital projects involving lifecycle planning, regulatory navigation, and digital asset integration.
Module 1: Strategic Asset Planning and Lifecycle Integration
- Selecting between rehabilitation, replacement, or deferred maintenance for aging bridges based on condition assessments and funding constraints.
- Aligning construction project timelines with long-term capital improvement plans to avoid premature asset deterioration.
- Integrating lifecycle cost analysis into procurement decisions for tunnel ventilation systems to evaluate 30-year operational impacts.
- Coordinating with utility providers to synchronize underground infrastructure upgrades during roadway reconstruction projects.
- Establishing performance thresholds for pavement condition index (PCI) to trigger preventative maintenance interventions.
- Developing asset criticality rankings to prioritize construction spending on high-consequence infrastructure such as emergency response routes.
Module 2: Regulatory Compliance and Permitting Coordination
- Negotiating with environmental agencies on stormwater management plans for highway expansion projects crossing protected wetlands.
- Resolving conflicting jurisdictional requirements when constructing pipelines across municipal, state, and federal boundaries.
- Updating erosion and sediment control plans in response to real-time weather events during earthwork operations.
- Documenting compliance with Americans with Disabilities Act (ADA) standards during pedestrian infrastructure retrofits.
- Managing changes to project scope due to newly discovered cultural resources during excavation.
- Securing right-of-way easements from private landowners for linear infrastructure with minimal project delays.
Module 3: Design-Build and Contractual Delivery Models
- Structuring performance-based specifications for wastewater treatment plant construction to transfer operational risk to the contractor.
- Resolving disputes over design assumptions when geotechnical reports differ from actual site conditions during foundation work.
- Managing interface responsibilities between separate design-build teams on a multi-contract transit corridor project.
- Enforcing liquidated damages clauses when tunnel boring machine progress falls below guaranteed advance rates.
- Validating contractor-submitted value engineering proposals without compromising long-term asset durability.
- Administering change order requests due to unforeseen utility conflicts in dense urban environments.
Module 4: Construction Quality Assurance and Field Oversight
- Implementing third-party material testing protocols for high-strength concrete used in seismic-resistant bridge piers.
- Conducting weld inspection audits on steel truss fabrication to meet AWS D1.5 structural standards.
- Responding to non-conformance reports for improper backfill compaction in pipeline trenches.
- Verifying alignment of embedded conduit systems with future maintenance access requirements.
- Coordinating independent assurance reviews for critical path activities in dam rehabilitation projects.
- Enforcing tolerances for rail track geometry during slab track installation to ensure long-term ride quality.
Module 5: Risk Management and Contingency Planning
- Activating alternate material sourcing strategies when global supply chain disruptions delay precast concrete deliveries.
- Revising construction sequencing due to unexpected groundwater inflow during cut-and-cover subway station excavation.
- Assessing liability exposure when adjacent structures experience settlement from deep foundation work.
- Implementing real-time monitoring systems for slope stability during hillside road construction.
- Updating force majeure protocols for construction sites in wildfire-prone regions.
- Establishing escalation clauses in contracts to manage inflation-driven cost increases for long-duration projects.
Module 6: Digital Engineering and Asset Information Management
- Validating Level of Detail (LOD) 400 BIM models for mechanical systems in a new transit maintenance facility.
- Integrating as-built point cloud data into asset management systems after tunnel lining installation.
- Standardizing COBie data handover from contractors to ensure compatibility with existing CMMS platforms.
- Using drone-based photogrammetry to verify earthwork quantities and update digital terrain models.
- Enforcing model federation protocols across civil, structural, and MEP disciplines on a major interchange project.
- Securing geospatial data collected during utility locating to prevent unauthorized access or misuse.
Module 7: Operational Readiness and Post-Construction Transition
- Conducting dry-run operations for traffic signal phasing before opening a reconstructed intersection to public use.
- Transferring warranty documentation and maintenance manuals for specialized pumping equipment to operations teams.
- Validating emergency response access and egress routes on a newly constructed highway segment.
- Training maintenance crews on inspection procedures for cathodic protection systems in newly installed pipelines.
- Reconciling final as-built drawings with field-verified conditions for inclusion in the asset registry.
- Establishing baseline structural health monitoring data immediately after completion of a cable-stayed bridge.
Module 8: Sustainability and Resilience Integration
- Specifying recycled asphalt pavement (RAP) content in road resurfacing to meet sustainability targets without compromising performance.
- Designing stormwater retention basins with adaptive capacity for projected rainfall intensity increases over 50 years.
- Conducting life cycle assessments (LCA) for alternative culvert materials considering carbon embodied in manufacturing and transport.
- Implementing construction waste tracking systems to meet diversion rate requirements in public contracts.
- Hardening electrical control systems in coastal infrastructure against salt spray and storm surge exposure.
- Coordinating with transit agencies to integrate solar canopy structures over parking facilities without disrupting operations.