Advanced Battery Recycling Facility Project Management Course

Course Introduction

The Advanced Battery Recycling Facility Project Management Course provides comprehensive knowledge and practical guidance for planning, developing, implementing, and managing advanced battery recycling facilities. As electric vehicle adoption, renewable energy storage, consumer electronics, and industrial electrification expand, the volume of end-of-life batteries requiring safe and efficient processing continues to grow. Battery recycling facilities play a critical role in recovering valuable materials, reducing dependence on primary mineral extraction, and supporting circular economy objectives. This course examines the technical, financial, environmental, regulatory, and operational considerations involved in developing modern battery recycling infrastructure, covering the project lifecycle from initial feasibility studies and technology selection to facility construction, commissioning, and operational optimization.

Successful battery recycling projects require coordinated planning across chemical processing, mechanical engineering, electrical systems, materials recovery, environmental management, and industrial safety. This course explores the characteristics of lithium-ion, nickel-metal hydride, lead-acid, and other battery chemistries, emphasizing how battery composition influences collection, sorting, discharging, dismantling, and material recovery processes. Participants will learn how to evaluate facility locations, estimate feedstock availability, determine processing capacity, assess technology requirements, and coordinate equipment integration. The training also examines collaboration among project managers, process engineers, environmental specialists, equipment manufacturers, logistics providers, waste management companies, regulators, investors, and downstream material purchasers to establish practical and compliant recycling projects.

Financial feasibility and investment planning are central to the development of commercially viable battery recycling facilities. The course examines capital expenditure estimation, operating cost forecasting, revenue projections, financing strategies, cash flow management, and investment appraisal. Participants will assess cost drivers such as land acquisition, building construction, fire protection systems, battery storage infrastructure, shredding equipment, separation technologies, chemical processing systems, wastewater treatment, emissions control, and laboratory facilities. Additional attention is given to feedstock contracts, recovered material pricing, energy consumption, labor requirements, consumables, equipment maintenance, and market volatility. By evaluating these factors together, participants can prepare realistic business cases, compare alternative recycling technologies, assess investment risks, and strengthen financial decision-making throughout the project lifecycle.

Engineering coordination and construction management are essential for delivering reliable battery recycling infrastructure. This course examines process flow design, equipment layout, material handling systems, thermal management, ventilation, electrical distribution, fire suppression, containment systems, and integration of mechanical, chemical, and environmental treatment processes. Participants will explore the planning of pretreatment operations, mechanical separation, hydrometallurgical recovery, pyrometallurgical processing, and emerging direct recycling technologies. The training also addresses equipment specifications, construction sequencing, contractor management, installation interfaces, utility requirements, commissioning schedules, and performance acceptance criteria. Particular attention is given to process hazards, thermal runaway prevention, hazardous material handling, worker protection, and emergency preparedness in facilities processing damaged, defective, or end-of-life batteries.

Environmental protection, regulatory compliance, and occupational safety are critical throughout battery recycling project development. The course explores hazardous material classification, battery transport requirements, chemical storage, air emissions, wastewater treatment, solid residue management, spill prevention, and the safe handling of recovered materials. Participants will examine environmental impact assessments, permitting requirements, waste traceability, occupational exposure controls, emergency response procedures, and applicable battery recycling regulations in relevant jurisdictions. Emerging challenges such as evolving battery chemistries, black mass classification, critical mineral supply security, extended producer responsibility, battery passports, and increasingly stringent recycling and recycled-content requirements are also considered. These issues help project teams anticipate compliance obligations, reduce environmental risks, protect workers and surrounding communities, and align facility development with responsible resource recovery principles.

The course concludes by integrating project governance, process engineering, financial planning, procurement, construction, environmental management, and operational readiness into a comprehensive battery recycling project management framework. Participants will examine work breakdown structures, integrated project schedules, risk registers, quality assurance plans, supplier coordination, commissioning procedures, production ramp-up strategies, and performance monitoring systems. Practical project scenarios will help learners assess technology choices, identify critical dependencies, manage stakeholder expectations, and respond to implementation challenges involving cost overruns, feedstock uncertainty, equipment delays, and regulatory changes. By completing the training, participants will be better equipped to contribute to feasibility studies, prepare project execution plans, coordinate multidisciplinary teams, supervise facility development, and support the delivery of safe, efficient, economically sustainable, and environmentally responsible battery recycling operations.

Duration

5 days

Who Should Attend

• Project managers responsible for planning, coordinating, implementing, or supervising advanced battery recycling facilities and critical mineral recovery infrastructure projects.

• Chemical and process engineers involved in designing recycling process flows, material separation systems, chemical recovery operations, and industrial treatment facilities.

• Mechanical and electrical engineers responsible for equipment integration, material handling, power distribution, ventilation, thermal management, and industrial automation systems.

• Environmental engineers and sustainability professionals involved in waste management, emissions control, wastewater treatment, environmental permitting, and circular economy initiatives.

• Battery manufacturing and electric vehicle industry professionals seeking to understand end-of-life battery management, recycling infrastructure, material recovery, and reverse supply chain development.

• Renewable energy and energy storage professionals responsible for planning battery collection, recycling partnerships, and end-of-life management strategies for storage systems.

• Construction managers and industrial project supervisors coordinating building works, process equipment installation, contractor activities, commissioning, and construction schedules.

• Procurement and supply chain professionals responsible for sourcing recycling equipment, processing technologies, safety systems, engineering services, and critical facility components.

• Financial analysts, investment officers, and project finance professionals evaluating facility capital requirements, operating costs, investment returns, recovered material revenues, and commercial risks.

• Health, safety, and environmental officers responsible for battery handling procedures, chemical exposure controls, fire prevention, emergency preparedness, and occupational risk management.

• Waste management operators and recycling business owners seeking to establish or expand industrial battery collection, pretreatment, recycling, and recovered material processing operations.

• Regulatory personnel and government officials involved in hazardous waste management, industrial permitting, environmental compliance, battery stewardship, and critical mineral policy.

• Materials scientists and metallurgical specialists interested in lithium, nickel, cobalt, manganese, copper, graphite, and other materials recovered from spent batteries.

• Quality assurance professionals and laboratory specialists responsible for material characterization, recovered product specifications, process verification, and compliance documentation.

• Consultants, researchers, entrepreneurs, and investors seeking structured knowledge of advanced battery recycling technology, facility development, project governance, and sustainable resource recovery.

Course Objectives

• Develop a comprehensive understanding of advanced battery recycling technologies, facility components, battery chemistries, recovery processes, and project lifecycle requirements from concept development to operational handover.

• Evaluate potential facility locations using feedstock availability, transport infrastructure, utility capacity, environmental constraints, industrial zoning, workforce requirements, and access to downstream material markets.

• Prepare feasibility studies integrating processing capacity, technology selection, material recovery yields, capital expenditure, operating costs, market assumptions, and commercial viability.

• Coordinate process engineering and facility design requirements involving battery pretreatment, mechanical separation, chemical recovery, ventilation, fire protection, wastewater treatment, and materials handling.

• Develop realistic project schedules, resource plans, procurement milestones, construction sequences, commissioning activities, and production ramp-up strategies for complex recycling facilities.

• Apply financial planning, cost estimation, cash flow forecasting, investment appraisal, sensitivity analysis, and scenario modelling to improve project budgeting and investment decisions.

• Identify and manage technical, financial, environmental, regulatory, logistical, supply chain, and operational risks through structured risk registers and appropriate mitigation measures.

• Integrate hazardous material management, fire prevention, worker protection, emissions control, wastewater treatment, and regulatory compliance into project planning and execution.

• Establish quality assurance procedures, equipment acceptance criteria, process validation, commissioning protocols, material traceability, and operational readiness standards for recycling facilities.

• Evaluate emerging recycling technologies, battery passport systems, digital process monitoring, critical mineral recovery innovations, and circular economy strategies to support long-term facility competitiveness.

Comprehensive Course Outline

Module 1: Fundamentals of Advanced Battery Recycling

• Overview of battery recycling principles, industry development, circular economy objectives, critical mineral recovery, and the role of recycling facilities in sustainable energy supply chains.

• Examination of lithium-ion, lead-acid, nickel-metal hydride, sodium-ion, and emerging battery chemistries, including their material compositions and recycling implications.

• Comparison of mechanical pretreatment, pyrometallurgical recovery, hydrometallurgical processing, and direct recycling technologies based on recovery potential, cost, complexity, and environmental performance.

• Definition of project scope, facility objectives, production targets, stakeholder responsibilities, governance arrangements, development phases, and key implementation milestones.

Module 2: Feedstock Assessment and Facility Feasibility

• Assessment of battery waste availability, collection networks, electric vehicle retirement forecasts, industrial battery returns, and supply agreements supporting long-term facility utilization.

• Evaluation of feedstock composition, chemistry variability, state of charge, damage conditions, contamination risks, and the implications for sorting and processing requirements.

• Selection of facility locations based on industrial zoning, road and rail access, electricity supply, water availability, emergency services, workforce availability, and downstream customer proximity.

• Preparation of feasibility studies integrating feedstock forecasts, technology options, preliminary engineering, material recovery assumptions, environmental constraints, and investment estimates.

Module 3: Process Engineering and Recycling Technology Selection

• Development of process flow diagrams covering battery inspection, identification, safe discharge, dismantling, size reduction, separation, material recovery, and residue management.

• Evaluation of shredding, crushing, screening, magnetic separation, density separation, and other mechanical processes used to produce intermediate recycling materials.

• Assessment of hydrometallurgical leaching, purification, precipitation, solvent extraction, and related chemical processes for recovering valuable battery materials.

• Comparison of pyrometallurgical recovery, direct cathode recycling, emerging low-impact processes, and integrated treatment approaches for different battery chemistries.

Module 4: Facility Design, Infrastructure, and Engineering Integration

• Planning of industrial layouts, processing zones, battery storage areas, equipment foundations, material flow routes, laboratories, maintenance areas, and product dispatch facilities.

• Coordination of electrical distribution, ventilation, thermal management, fire detection, suppression systems, emergency isolation, and process control infrastructure.

• Design considerations for chemical storage, containment systems, wastewater treatment, emissions control, dust management, and safe handling of hazardous process materials.

• Management of multidisciplinary engineering reviews, equipment specifications, technical submittals, constructability assessments, design changes, and interface coordination.

Module 5: Financial Feasibility and Investment Planning

• Estimation of capital expenditure for land, buildings, recycling machinery, fire protection, utilities, laboratory equipment, environmental controls, and installation services.

• Forecasting of operating costs associated with feedstock procurement, transportation, electricity, water, chemicals, labor, maintenance, consumables, and residue disposal.

• Evaluation of revenue streams from recovered lithium, nickel, cobalt, copper, aluminium, graphite, and other marketable products, subject to process capability and product specifications.

• Application of net present value, internal rate of return, payback period, sensitivity analysis, and scenario planning to evaluate financial feasibility and investment uncertainty.

Module 6: Procurement, Contracts, and Supply Chain Management

• Development of procurement strategies, technical specifications, tender documents, supplier qualification criteria, equipment evaluation frameworks, and purchasing schedules.

• Assessment of recycling technology providers, machinery manufacturers, engineering contractors, environmental equipment suppliers, and specialist fire protection system vendors.

• Planning of battery collection logistics, hazardous material transport, inbound inspection, secure storage, recovered product handling, and downstream customer distribution.

• Administration of procurement contracts, delivery milestones, warranties, supplier performance, change orders, technical documentation, and contingency arrangements for supply disruptions.

Module 7: Construction Management and Project Execution

• Preparation of work breakdown structures, integrated project schedules, resource allocation plans, construction packages, milestone frameworks, and project reporting procedures.

• Coordination of civil works, structural construction, equipment foundations, processing line installation, electrical works, instrumentation, and environmental treatment infrastructure.

• Management of contractor interfaces, installation sequencing, heavy equipment lifting, factory acceptance testing, site acceptance testing, and construction quality verification.

• Control of schedule delays, budget variations, design changes, equipment delivery constraints, commissioning dependencies, and construction risks affecting project completion.

Module 8: Environmental Management, Process Safety, and Regulatory Compliance

• Identification and management of risks involving thermal runaway, battery fires, toxic emissions, chemical exposure, hazardous residues, dust, and potentially reactive materials.

• Development of battery receiving and storage procedures, state-of-charge management where applicable, damaged battery isolation, emergency response, and incident investigation plans.

• Planning of air emission controls, wastewater treatment, spill containment, solid residue management, environmental monitoring, and pollution prevention measures.

• Assessment of applicable environmental permits, waste transport rules, hazardous materials requirements, worker safety regulations, battery stewardship obligations, and traceability requirements.

Module 9: Commissioning, Quality Assurance, and Operational Readiness

• Development of commissioning plans for mechanical equipment, electrical systems, process controls, safety interlocks, ventilation, fire protection, and environmental treatment systems.

• Establishment of process validation procedures covering throughput, material recovery yield, product purity, equipment availability, energy consumption, and waste generation.

• Implementation of quality management systems, laboratory testing, recovered material specifications, process documentation, material traceability, and corrective action procedures.

• Preparation of operating manuals, preventive maintenance schedules, workforce training, spare parts registers, emergency procedures, and formal facility handover documentation.

Module 10: Emerging Technologies and Circular Battery Economy

• Examination of direct recycling, advanced hydrometallurgy, improved material separation, low-impact recovery methods, and technologies for processing new battery chemistries.

• Evaluation of digital monitoring, artificial intelligence, predictive maintenance, process automation, digital twins, and data analytics for improving facility productivity and reliability.

• Assessment of battery passports, extended producer responsibility, recycled-content requirements, reverse logistics, product traceability, and evolving battery sustainability frameworks.

• Development of strategies for critical mineral recovery, lifecycle assessment, energy efficiency, responsible residue management, recycling market resilience, and circular economy integration

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.