Waste-to-Value and Resource Recovery Project Management Course

Course Introduction

Waste-to-value and resource recovery initiatives are becoming increasingly important for sustainable industrial development, environmental protection, circular economy growth, and resource efficiency. Rather than treating waste solely as a disposal problem, these initiatives transform discarded materials into useful products, recovered resources, energy, and new revenue streams. The Waste-to-Value and Resource Recovery Project Management Course equips professionals with practical tools to identify opportunities, assess technical and commercial feasibility, mobilize financing, manage implementation, and monitor the performance of projects that recover value from municipal, agricultural, industrial, commercial, and construction waste streams. The programme emphasizes commercially viable solutions that reduce environmental impacts while strengthening operational efficiency and resource security.

The course examines the principles of the circular economy, waste hierarchy, resource efficiency, industrial symbiosis, and sustainable materials management. Participants explore organic waste valorization, composting, anaerobic digestion, recycling, plastics recovery, waste-derived fuels, construction material recovery, wastewater resource recovery, and selected industrial by-product applications. Particular attention is given to understanding waste composition, identifying recoverable materials, evaluating local supply chains, assessing market demand, and selecting technologies appropriate to the available waste streams and operating conditions. Participants learn how to distinguish technically attractive concepts from projects that can operate reliably, comply with regulations, generate sustainable revenues, and deliver measurable environmental benefits.

Effective waste-to-value projects require structured feasibility studies and integrated implementation planning. Participants learn to assess feedstock availability, waste collection systems, material quality, contamination levels, site suitability, processing capacity, utilities, logistics, and offtake arrangements. The course covers business case preparation, technology selection, process design coordination, capital and operating cost estimation, implementation scheduling, procurement, and commissioning. Participants also examine critical dependencies between waste generators, collection contractors, sorting facilities, processing operators, regulators, communities, and end-product buyers. These competencies help organizations anticipate supply interruptions, avoid unsuitable technology investments, establish realistic project schedules, and develop delivery plans that reflect both technical requirements and commercial realities.

Financial viability is central to resource recovery project success. The programme examines revenue models based on recovered materials, recycled products, compost, biogas, renewable energy, recovered water, industrial by-products, and other marketable outputs where technically and legally appropriate. Participants learn to assess capital expenditure, operating costs, working capital, tipping fees, product pricing, demand forecasts, financing requirements, and sensitivity to commodity price fluctuations. The course also explores grants, green finance, public-private partnerships, concessional lending, producer responsibility mechanisms, and blended financing structures. Participants develop skills in investment appraisal, procurement oversight, contract management, financial controls, and performance monitoring to strengthen bankability, reduce implementation risks, and support long-term commercial sustainability.

Environmental compliance, occupational safety, and community acceptance are essential to responsible resource recovery. Participants examine waste classification, hazardous material interfaces, environmental impact assessment, pollution prevention, emissions management, wastewater controls, worker protection, and applicable regulatory obligations. The programme addresses risks associated with contaminated feedstock, fire, odour, leachate, process failure, unsafe handling, market volatility, and inadequate waste traceability. It also explores environmental performance measurement, lifecycle assessment, greenhouse gas accounting, material flow analysis, and safeguards against misleading recycling or sustainability claims. Digital technologies, sensors, process automation, data analytics, and responsible artificial intelligence applications are considered as tools for improving plant reliability, resource tracking, maintenance planning, and operational decision-making.

The course concludes by strengthening participants’ ability to manage waste-to-value projects across their complete lifecycle, from opportunity identification and investment approval to commissioning, operations, and continuous improvement. Participants learn to establish clear governance structures, manage multidisciplinary delivery teams, track project costs and milestones, evaluate recovered resource yields, and implement corrective actions when performance falls below expectations. The programme also examines emerging developments in extended producer responsibility, recycled-content markets, industrial symbiosis, advanced recycling, bio-based materials, and digital traceability. By the end of the programme, participants will be better equipped to develop resource recovery projects that combine sound engineering, credible business models, environmental compliance, and measurable circular economy outcomes.

Duration

10 days

Who Should Attend

• Project managers responsible for developing and implementing waste-to-value and resource recovery initiatives.

• Municipal waste management officials overseeing collection, sorting, treatment, recycling, and disposal improvement programmes.

• Circular economy specialists developing resource efficiency strategies and waste valorization business models.

• Environmental engineers and consultants conducting feasibility studies, environmental assessments, and waste treatment planning.

• Recycling and materials recovery facility managers responsible for plant development, operations, and performance improvement.

• Industrial sustainability managers seeking to recover by-products and reduce waste generation across production processes.

• Entrepreneurs and investors evaluating commercial opportunities in recycling, organic waste processing, and resource recovery.

• Renewable energy professionals developing biogas, waste-to-energy, and energy recovery projects where appropriate.

• Agricultural and agribusiness professionals exploring composting, organic residue utilization, and agricultural by-product recovery.

• Construction and demolition waste specialists managing material recovery, reuse, recycling, and secondary construction products.

• Wastewater and sanitation professionals involved in water reuse, sludge management, and resource recovery from treatment systems.

• Procurement and supply chain professionals sourcing recovery technologies, processing equipment, and waste management services.

• Finance professionals assessing project economics, investment risks, financing structures, and revenue sustainability.

• Government regulators and policymakers responsible for waste management, recycling, circular economy, and environmental compliance.

• Development agencies and donor-funded programme teams supporting sustainable waste management and green enterprise development.

• Environmental, health, and safety professionals overseeing pollution prevention, worker protection, and operational risk management.

• Monitoring, evaluation, and sustainability reporting professionals tracking resource recovery and environmental performance.

• Industrial park and special economic zone managers coordinating shared waste recovery and industrial symbiosis initiatives.

• Technology providers and technical specialists developing sorting, processing, automation, and resource tracking solutions.

• Auditors, compliance officers, and contract managers responsible for financial accountability, regulatory documentation, and project assurance.

Course Objectives

• Explain circular economy principles, waste hierarchy approaches, and the commercial and environmental rationale for waste-to-value project development.

• Identify resource recovery opportunities by analyzing waste composition, material flows, feedstock availability, contamination, and potential end markets.

• Conduct technical, financial, environmental, and operational feasibility assessments to determine the suitability of waste recovery technologies and business models.

• Develop project concepts, business cases, implementation strategies, and measurable performance targets for resource recovery initiatives.

• Prepare integrated project plans covering scope, schedules, budgets, procurement, staffing, stakeholder responsibilities, and implementation dependencies.

• Evaluate technology alternatives for recycling, composting, anaerobic digestion, material recovery, and other suitable waste valorization processes.

• Assess capital expenditure, operating costs, revenue streams, market demand, financing options, and investment risks affecting project bankability.

• Design reliable feedstock supply arrangements, logistics systems, offtake agreements, and quality specifications for recovered products.

• Apply environmental safeguards, regulatory compliance requirements, occupational safety practices, and pollution prevention controls throughout project delivery.

• Establish monitoring and evaluation systems for material recovery rates, product quality, operating efficiency, financial performance, and environmental outcomes.

• Apply digital monitoring, process automation, data analytics, and responsible artificial intelligence tools to strengthen resource tracking and operational performance.

• Develop governance, risk management, audit readiness, commissioning, handover, and continuous improvement arrangements that support sustainable project operations.

Comprehensive Course Outline

Module 1: Waste-to-Value Fundamentals and Circular Economy Principles

• Principles of the circular economy, waste hierarchy, resource efficiency, and sustainable materials management.

• Differences between waste prevention, reuse, recycling, biological treatment, energy recovery, and final disposal.

• Overview of waste-to-value opportunities across municipal, industrial, agricultural, commercial, and construction sectors.

• Relationships between resource recovery, environmental protection, job creation, industrial competitiveness, and climate objectives.

Module 2: Waste Stream Assessment and Resource Recovery Opportunity Identification

• Assessment of waste quantities, composition, seasonal variations, contamination levels, and recoverable material characteristics.

• Application of waste audits, material flow analysis, sampling techniques, and feedstock quality assessments.

• Identification of resource recovery opportunities based on local waste generation patterns, infrastructure, and market demand.

• Prioritization of project opportunities using technical feasibility, environmental benefits, commercial potential, and implementation readiness.

Module 3: Feasibility Studies, Business Cases and Project Appraisal

• Technical, financial, environmental, social, and institutional feasibility assessment for waste-to-value investments.

• Evaluation of site suitability, feedstock availability, utilities, transport access, processing capacity, and infrastructure requirements.

• Preparation of project concepts, business cases, cost-benefit assessments, and investment decision documentation.

• Assessment of technology risks, regulatory requirements, market constraints, and implementation dependencies before approval.

Module 4: Technology Selection and Resource Recovery Process Design

• Comparison of sorting, mechanical recycling, composting, anaerobic digestion, thermal treatment, and other recovery technologies.

• Assessment of technology maturity, throughput capacity, energy requirements, maintenance needs, and operating conditions.

• Selection of process configurations based on feedstock characteristics, product specifications, environmental performance, and local capabilities.

• Integration of process flow diagrams, equipment specifications, plant layouts, utilities, and operational control requirements into project planning.

Module 5: Recycling Systems and Materials Recovery Facilities

• Planning material recovery facilities for paper, cardboard, metals, glass, plastics, and other suitable recyclable materials.

• Design considerations for waste reception, sorting, separation, baling, storage, quality control, and outbound logistics.

• Evaluation of contamination management, material yield, processing efficiency, product grading, and recycling market requirements.

• Development of facility layouts, equipment procurement plans, operational staffing arrangements, and maintenance strategies.

Module 6: Organic Waste Valorization and Bio-Based Resource Recovery

• Assessment of food waste, agricultural residues, market waste, green waste, and other biodegradable feedstocks.

• Planning composting systems, anaerobic digestion facilities, biogas recovery, and suitable organic by-product processing.

• Evaluation of feedstock preparation, process stability, contamination control, digestate quality, and compost product requirements.

• Assessment of product markets, biological process risks, odour management, and sustainable utilization of recovered outputs.

Module 7: Waste-to-Energy and Industrial By-Product Recovery

• Evaluation of appropriate waste-derived fuels, biogas utilization, and energy recovery options within applicable regulatory frameworks.

• Assessment of feedstock suitability, calorific value, energy conversion efficiency, emissions controls, and residual material management.

• Identification of industrial by-product recovery opportunities through reuse, material substitution, and process integration.

• Evaluation of lifecycle impacts, technology limitations, air pollution risks, and alternatives to energy recovery higher in the waste hierarchy.

Module 8: Construction, Demolition and Industrial Materials Recovery

• Assessment of construction and demolition waste streams, including concrete, masonry, metals, timber, glass, and excavated materials.

• Planning for segregation, deconstruction, crushing, screening, material reuse, and production of suitable secondary aggregates.

• Evaluation of recovered product quality, technical specifications, contamination risks, and acceptance in construction markets.

• Development of logistics, procurement requirements, material traceability, and waste minimization controls for construction projects.

Module 9: Project Planning, Scheduling and Delivery Management

• Development of work breakdown structures, integrated project schedules, resource plans, and implementation milestones.

• Coordination of engineering, procurement, construction, installation, permitting, feedstock supply, and commissioning activities.

• Application of critical path analysis, progress reporting, change control, and schedule risk management techniques.

• Establishment of project governance, responsibility matrices, decision gates, escalation protocols, and delivery performance controls.

Module 10: Financial Modelling, Investment Appraisal and Project Financing

• Estimation of capital expenditure, operating costs, maintenance budgets, working capital, and lifecycle replacement requirements.

• Evaluation of revenue from recovered materials, recycled products, energy, compost, service fees, and other suitable outputs.

• Application of cash-flow forecasting, break-even analysis, sensitivity testing, and investment return assessment under market uncertainty.

• Assessment of public-private partnerships, green finance, grants, concessional finance, producer responsibility funding, and blended capital structures.

Module 11: Feedstock Supply Chains, Procurement and Commercial Agreements

• Development of waste sourcing strategies, collection arrangements, aggregation networks, and reliable feedstock supply contracts.

• Preparation of procurement specifications for sorting equipment, processing machinery, vehicles, monitoring systems, and technical services.

• Negotiation and management of offtake agreements, product quality standards, pricing arrangements, and delivery obligations.

• Management of supplier performance, contract variations, logistics risks, traceability requirements, and commercial dispute resolution.

Module 12: Environmental Compliance, Occupational Safety and Risk Management

• Assessment of environmental permits, waste classification rules, environmental impact assessment, and applicable operating requirements.

• Management of worker safety, machinery hazards, fire risk, hazardous waste interfaces, dust, odour, leachate, and wastewater.

• Development of environmental and social risk registers, emergency response plans, incident reporting, and corrective action procedures.

• Application of pollution prevention, resource efficiency, environmental monitoring, and regulatory compliance assurance throughout implementation.

Module 13: Digitalization, Automation and Intelligent Resource Recovery

• Application of sensors, weighing systems, optical sorting, process automation, and digital plant monitoring technologies.

• Use of data analytics and artificial intelligence for sorting optimization, predictive maintenance, process control, and performance forecasting.

• Development of digital material tracking, waste traceability, product quality records, and operational performance dashboards.

• Management of cybersecurity, data governance, system integration, human oversight, and technology lifecycle risks.

Module 14: Monitoring, Evaluation, Lifecycle Assessment and Impact Reporting

• Development of indicators for waste diversion, material recovery rates, processing efficiency, product quality, and financial performance.

• Application of lifecycle assessment and greenhouse gas accounting to evaluate environmental benefits and potential trade-offs.

• Measurement of energy and water consumption, residual waste generation, emissions, and other operational environmental impacts.

• Preparation of monitoring reports, evidence-based sustainability claims, management dashboards, and corrective action plans.

Module 15: Market Development, Circular Business Models and Emerging Trends

• Assessment of market demand, pricing, quality expectations, and commercial opportunities for recovered materials and secondary products.

• Development of circular business models, industrial symbiosis arrangements, extended producer responsibility partnerships, and resource exchange networks.

• Evaluation of recycled-content markets, bio-based materials, advanced recycling, and emerging resource recovery innovations.

• Management of greenwashing risks, product traceability, market uncertainty, and responsible claims concerning environmental performance.

Module 16: Commissioning, Operational Handover and Long-Term Sustainability

• Preparation of commissioning plans, performance testing procedures, operational readiness reviews, and acceptance criteria.

• Development of standard operating procedures, maintenance schedules, staffing plans, training arrangements, and safety controls.

• Establishment of performance dashboards, financial reporting, audit-ready records, and continuous improvement processes.

• Preparation of handover documentation, sustainability plans, lessons learned, expansion strategies, and long-term operational financing arrangements.

Training Approach

This course will be delivered by our skilled trainers who have vast knowledge and experience as expert professionals in the fields. The course is taught in English and through a mix of theory, practical activities, group discussion and case studies. Course manuals and additional training materials will be provided to the participants upon completion of the training.

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 a discount of 10% to 50%) at requested location all over the world. The Onsite course fee covers the course tuition, training materials, two break refreshments, buffet lunch, airport transfers, Upskill gift package, and guided tour.

Visa application, travel expenses, 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.