Sustainable Construction Management Training Course

Duration 10 days 18 modules · 65 contact hours
Level Intermediate Certificate on completion
Who attends Construction Managers, Project Managers and others
Fee from USD 2,200 KSh 190,000 for Kenyan organisations
Where 52 cities + online See dates by city
Next start 16 Nov 2026 Course code SD-CM-132

Before you join: Participants should have practical experience of construction projects, such as site supervision, project management, commercial management, design coordination or environmental management.

Dates & prices

Two start dates a month in every city, and live online on weekdays or weekends. Fees are per participant; classroom fees include tuition, materials, lunch and refreshments, and the certificate.

Suggest a date or city

Showing the next six months. Later dates, other cities and private deliveries for your team are available on request.

Course overview

Construction projects face tighter carbon targets, resource constraints, planning conditions, client reporting demands and scrutiny of site impacts. Managers must make defensible choices on design options, procurement, logistics, waste, energy, water and social value while protecting cost, programme, safety and quality. Sustainable construction management requires more than selecting green products; it requires measurable requirements, accountable controls and reliable evidence from mobilisation through handover.

This course equips participants to plan, manage and verify sustainability performance on building and infrastructure projects. Participants work with whole-life carbon assessment, environmental management systems, responsible procurement, circular economy principles, construction logistics, biodiversity protection, water management and waste controls. They learn to translate client requirements and rating-system targets into package requirements, supplier evidence, site plans, performance indicators and reporting routines. The course also addresses cost planning, programme interfaces, risk registers, change control and assurance.

Instructor-led teaching combines concise technical briefings with cases from commercial buildings, public infrastructure and major refurbishment projects. Participants assess realistic project information, review supplier submissions, interpret carbon and environmental data, and prepare management documentation for their own project context. They leave with a structured Sustainable Construction Management Plan, supported by carbon, procurement, waste, logistics, monitoring and reporting tools that can be adapted for live schemes.

The course is suited to professionals responsible for construction delivery, client requirements, environmental performance or project assurance. It is particularly useful where organisations need consistent site controls and credible evidence for investors, regulators, public-sector clients, certification schemes or internal sustainability commitments.

What you will be able to do

  • Develop a Sustainable Construction Management Plan with measurable project controls
  • Calculate whole-life carbon stages using EN 15978 life-cycle modules
  • Specify responsible procurement requirements and evaluate supplier sustainability evidence
  • Implement ISO 14001-aligned environmental controls for construction site activities
  • Prepare waste, water, logistics and pollution prevention management plans
  • Assess embodied-carbon, circularity and material-selection options using whole-life cost criteria
  • Design sustainability dashboards, inspection routines and corrective-action registers
  • Present a project sustainability delivery strategy supported by auditable evidence

Benefits of attending

For you

  • Produce credible sustainability plans for live construction projects
  • Assess supplier claims and environmental evidence with greater confidence
  • Discuss carbon, circularity and site impacts using recognised project terminology
  • Manage sustainability actions without separating them from cost and programme controls
  • Build a portfolio-quality project sustainability delivery pack

For your organisation

  • Improved evidence for client, planning-condition and certification requirements
  • Reduced material waste, disposal costs and avoidable site resource consumption
  • More consistent subcontractor environmental controls and corrective-action follow-up
  • Earlier identification of carbon, pollution and community-impact risks
  • Stronger project reporting for sustainability commitments and assurance reviews

Course modules

18 modules over 10 days

Participants can define project sustainability priorities and convert them into managed delivery objectives.

  • Sustainability value drivers: carbon, resource efficiency, health, biodiversity and social value
  • Project life-cycle decisions from feasibility through construction, handover and operation
  • Client brief requirements translated into measurable delivery objectives and accountabilities
  • Triple bottom line assessed alongside cost, programme, quality and safety
  • Stakeholder mapping for clients, designers, contractors, communities and regulators
  • Materiality assessment prioritising significant impacts, risks and project opportunities

Participants can establish governance arrangements for sustainability requirements and project decisions.

  • EN 15978 life-cycle modules and project reporting boundaries
  • ISO 14001 environmental management system principles applied to construction projects
  • BREEAM credits interpreted as design, procurement and site delivery requirements
  • Responsibility assignment matrix for client, designer, contractor and subcontractor actions
  • Sustainability clauses embedded within employer's requirements and work packages
  • Design-stage gateways used to confirm evidence, approvals and change decisions

Participants can identify significant environmental aspects and establish proportionate project controls.

  • Site environmental baseline covering receptors, constraints, permits and sensitive locations
  • Aspect-impact register scored by likelihood, consequence, control effectiveness and priority
  • Construction environmental management plan structure, ownership and approval process
  • Legal register tracking permits, consent conditions, monitoring and reporting duties
  • Pre-construction surveys for ecology, contamination, drainage and heritage constraints
  • Environmental risk register linked to method statements and inspection schedules

Participants can prepare a practical whole-life carbon strategy for a construction project.

  • Whole-life carbon stages A1-A5, B modules, C modules and Module D
  • Carbon baseline assembled from quantities, environmental product declarations and assumptions
  • Embodied-carbon hotspots identified within structure, envelope, finishes and services
  • Construction-stage emissions calculated for transport, plant, energy and temporary works
  • Carbon reduction hierarchy applied before offsetting residual project emissions
  • Carbon register records assumptions, design changes, actions and approval decisions

Participants can evaluate material and design choices against carbon, cost and performance criteria.

  • Option appraisal comparing retained structures, new build and adaptive reuse
  • Material passports record composition, disassembly potential and recovery routes
  • Environmental product declarations checked for product scope, data quality and validity
  • Low-carbon concrete specifications address cement replacement, strength and curing requirements
  • Steel reuse assessed through traceability, testing, fabrication and liability evidence
  • Whole-life cost analysis compares capital cost, maintenance, replacement and end-of-life value

Participants can create waste prevention and resource recovery controls for site delivery.

  • Waste hierarchy applied to design, procurement, storage, installation and demolition
  • Site waste management plan assigns streams, targets, records and responsibilities
  • Pre-demolition audit identifies salvageable materials, hazardous items and recovery routes
  • Segregation layouts support timber, metal, plasterboard, plastics and inert materials
  • Take-back schemes evaluated for packaging, pallets, fixtures and surplus materials
  • Waste data reconciled using transfer notes, weights, destinations and recovery percentages

Participants can plan water efficiency and pollution controls for construction activities.

  • Water balance identifies demand, sources, reuse opportunities and discharge points
  • Construction water management plan covers metering, targets, leaks and responsibilities
  • Sustainable drainage measures protect receiving waters during temporary works
  • Silt control uses settlement tanks, filter media, check dams and inspections
  • Concrete washout procedures prevent alkaline runoff and drainage contamination
  • Spill response plans define containment equipment, reporting and remediation actions

Participants can reduce energy and fuel use through planned site management measures.

  • Site energy baseline separates cabins, lighting, plant, lifts and temporary power
  • Energy action plan sets meter ownership, targets, reviews and corrective actions
  • Plant selection compares electric, hybrid, diesel and renewable fuel options
  • Idle-time controls use telematics, shutdown procedures and operator briefings
  • Temporary works design reduces material consumption, rework and repeat installations
  • Generator sizing matches load profiles, battery storage and demand management

Participants can embed sustainability requirements into purchasing and subcontract management.

  • Procurement plan identifies sustainability risks by package, supplier and delivery stage
  • Prequalification questions test environmental controls, carbon data and ethical sourcing
  • Tender evaluation matrix weights price, quality, carbon, circularity and social value
  • Supplier code of conduct addresses labour standards, sourcing and environmental requirements
  • Chain-of-custody evidence verified for timber, aggregates and responsible materials
  • Subcontract order clauses define data submissions, targets, inspections and remedies

Participants can integrate sustainability actions with project budgets, schedules and change control.

  • Cost plan identifies sustainability allowances, savings, risks and contingency requirements
  • Value engineering distinguishes genuine optimisation from removal of performance requirements
  • Programme logic links surveys, approvals, procurement lead times and installation activities
  • Change-control forms assess carbon, waste, environmental and social value consequences
  • Life-cycle cost comparisons support investment decisions beyond initial capital expenditure
  • Early contractor involvement tests buildability, sequencing and low-impact delivery options

Participants can prepare logistics controls that reduce transport impacts and local disruption.

  • Construction logistics plan maps delivery routes, booking systems and consolidation opportunities
  • Vehicle management controls engine idling, emissions standards and driver conduct
  • Freight consolidation reduces part-load deliveries, congestion and packaging waste
  • Dust management combines source suppression, monitoring, cleaning and weather controls
  • Noise and vibration plans define limits, monitoring locations and notification procedures
  • Community liaison protocols manage complaints, access constraints and construction notices

Participants can manage ecological and community commitments during construction delivery.

  • Ecological constraints plan identifies protected species, habitats and seasonal restrictions
  • Biodiversity net gain commitments translated into construction protection measures
  • Tree protection zones managed through fencing, access controls and inspections
  • Soil management plans separate stripping, storage, testing and reuse requirements
  • Community benefits plan records local employment, training and supplier commitments
  • Grievance mechanisms document stakeholder concerns, responses, escalation and closure

Participants can operate an ISO 14001-aligned environmental management system on a project.

  • Environmental policy translated into project objectives, procedures and behavioural expectations
  • Operational control procedures cover high-risk activities and subcontractor interfaces
  • Toolbox talks communicate environmental risks, controls and reporting routes
  • Inspection checklists test storage, drainage, waste, noise and housekeeping conditions
  • Nonconformity process records findings, root causes, actions and verification
  • Management review evaluates performance trends, resources, risks and improvement priorities

Participants can build reliable sustainability data collection and reporting arrangements.

  • Key performance indicators defined with formulas, owners, sources and reporting frequency
  • Data quality checks test completeness, consistency, traceability and unusual variances
  • Carbon dashboard tracks baseline, forecast, actual emissions and reduction actions
  • Waste dashboard reports quantities, recovery rates, contamination and disposal costs
  • Environmental inspection trends identify recurring failures and priority interventions
  • Monthly sustainability report combines progress, evidence, risks and corrective actions

Participants can prepare project evidence for internal audits, client reviews and certification assessments.

  • Audit plan defines scope, criteria, sampling methods, interviews and reporting
  • Evidence register links requirements, documents, photographs, records and approvals
  • Internal audit findings classified by severity, cause, action owner and deadline
  • BREEAM evidence tracker monitors credits, responsibilities, submissions and assessor queries
  • Document control protects revision status, retention periods and approval traceability
  • Close-out reviews confirm corrective-action effectiveness before formal verification

Participants can account for climate-related risks in construction planning and site controls.

  • Climate risk assessment considers heat, rainfall, flooding, wind and supply disruption
  • Weather contingency plans define triggers, responsibilities, communications and recovery actions
  • Flood response procedures protect materials, plant, workers and nearby receptors
  • Heat-stress controls integrate work scheduling, welfare provisions and supervision
  • Material supply risk assessed for carbon constraints, scarcity and transport disruption
  • Risk treatment plans assign preventative controls, contingency measures and residual ratings

Participants can organise people, controls and decisions required to deliver project sustainability targets.

  • Sustainability implementation roadmap sequences actions from mobilisation through project closeout
  • RACI matrix allocates accountable, responsible, consulted and informed project roles
  • Subcontractor induction includes environmental rules, targets, reporting and consequences
  • Behavioural observations identify barriers to consistent environmental control implementation
  • Meeting cadence connects design reviews, procurement decisions, site actions and reporting
  • Escalation protocols resolve target conflicts involving cost, programme and compliance

Participants can build, review and present a complete Sustainable Construction Management Plan for a defined project.

  • Project brief analysed for sustainability requirements, constraints, stakeholders and priorities
  • Materiality matrix selects significant carbon, resource, ecological and community impacts
  • Whole-life carbon strategy sets baseline, reduction actions, owners and evidence sources
  • Procurement, waste, water and logistics controls integrated into delivery documentation
  • Performance dashboard defines indicators, data sources, thresholds and reporting cadence
  • Peer review tests plan feasibility, evidence quality, risks and corrective actions

Exercises and examples are adapted to each cohort's sectors and roles.

What you take back to work

  1. Sustainable Construction Management Plan template
  2. Whole-life carbon baseline and reduction register
  3. Sustainable procurement evaluation matrix
  4. Construction environmental inspection checklist
  5. Waste, water and logistics control plan
  6. Sustainability performance dashboard template

Who should attend

  • Construction Managers — responsible for translating sustainability commitments into site controls
  • Project Managers — accountable for cost, programme and sustainability delivery trade-offs
  • Site Managers — managing waste, logistics, pollution prevention and subcontractor compliance
  • Environmental Managers — establishing project controls, inspections and evidence records
  • Quantity Surveyors — assessing carbon, material and whole-life cost implications
  • Client Representatives — setting requirements and verifying contractor sustainability performance

Skills and tools covered

Whole-life carbon managementSustainable procurementEnvironmental site controlsCircular materials planningSustainability performance reportingConstruction impact assurance

Tools and standards

EN 15978, ISO 14001, ISO 14064-1, BREEAM

How the course runs

Training methodology

The course uses short instructor briefings, worked project examples, facilitated group analysis and practical document reviews. Participants interpret drawings, specifications, bills of quantities, supplier data and site records to make sustainability decisions under realistic cost and programme constraints. Cases cover building, refurbishment and infrastructure delivery. Teams prepare selected elements of a sustainability management pack, test decisions through scenario-based discussions, and receive structured feedback. Individual application planning connects each method to participants' current or upcoming projects.

Requirements and prerequisites

Participants should have practical experience of construction projects, such as site supervision, project management, commercial management, design coordination or environmental management. They should understand basic construction sequences, common contract roles, site documentation and the relationship between design, procurement and delivery. Familiarity with sustainability terms such as carbon, waste and environmental impacts is helpful but not essential. No prior carbon-accounting qualification, environmental certification, specialist design software or detailed knowledge of BREEAM is required. The course explains the standards, calculations and management documents used.

A typical training day

08:30 – 10:30First session
10:30 – 10:45Refreshment break
10:45 – 12:30Second session
12:30 – 13:30Lunch and networking
13:30 – 15:00Third session
15:00 – 15:15Refreshment break
15:15 – 16:30Workshop and daily review

Live online deliveries follow the same structure in East Africa Time, with shorter screen blocks and longer breaks.

What the fee includes

  • Instruction by a practitioner facilitator
  • Full course workbook and materials
  • Exercise files, templates and case studies
  • Refreshments and lunch on classroom deliveries
  • Certificate of completion
  • Post-course application plan

Frequently asked questions

Participants need practical familiarity with construction projects and common project roles. Prior specialist knowledge of carbon accounting, environmental certification or BREEAM is not required.

Bring a laptop if possible, along with a non-confidential project brief, sustainability requirement or site challenge. Course materials and worked case information are provided.

It is intended for construction, project, site, environmental and commercial professionals who influence project delivery. Client representatives responsible for setting or assuring sustainability requirements will also benefit.

This course focuses on managing sustainability during procurement, mobilisation, construction, monitoring and handover. It addresses how site teams and project managers turn design commitments into controlled delivery and evidence.

Participants develop plans, registers, checklists and reporting structures that can be adapted to their project. The methods support immediate work on carbon, materials, waste, environmental controls and supplier management.

Each day runs from 08:30 to 16:30 and provides about 6.5 contact hours. The first week establishes core controls and working documents; the second week develops assurance, data, risk and implementation planning before the capstone presentation.

Questions about this course?

Ask about dates, fees, group bookings or running it for your team. Our training team replies by email.