Product Life Cycle Management and Waste Management

TOPIC 10: PRODUCT LIFE CYCLE MANAGEMENT AND WASTE MANAGEMENT

Faculty of Economics and Business Administration Sofia University ‘St. Kliment Ohridski’

SUSTAINABLE AND CIRCULAR ECONOMY

THE PRODUCT LIFE CYCLE

Definition of Product Life Cycle

• Stages of Product Life Cycle:

  • Introduction:

  • Presents the product to customers for the first time.

  • Characteristics:

    • Little to no competition.

    • Results in negative financial outcomes initially.

  • Growth:

  • Focus on differentiating the product from competitors.

  • Characteristics:

    • Growing demand for the product.

    • Increased production levels.

    • Higher revenue generation.

  • Maturity:

  • Aim to innovate the product or expand its market presence.

  • Characteristics:

    • Stable sales figures.

    • Declining production and marketing costs.

    • High profitability.

  • Decline:

  • Decisions to support, discontinue, or revamp the product.

  • Characteristics:

    • Declining market share.

    • Dropping sales numbers.

PRODUCT LIFE CYCLE MANAGEMENT

Definition of Product Life Cycle Management (PLM)

• PLM refers to the process of managing a product throughout its life cycle stages.

Goals of Product Life Cycle Management

• The primary objective is to:

  • Produce a highly profitable product.

  • Ensure the product outperforms competitors.

  • Maintain the product as long as consumer demand and technology allow.

Methods of Product Life Cycle Measurement

• PLM Measurement Methods:

  • Output quality and sales data.

  • Customer feedback and analysis of warranty claims/returns.

  • Competitor analysis to evaluate market standing.

Benefits of Effective PLM

• Potential Benefits:

  • Effective management leads to:

  • Higher product quality and reliability.

  • Faster market distribution and increased sales opportunities.

  • Cost reductions, fewer errors, and minimized waste.

LIFE CYCLE THINKING AND ASSESSMENT

Resource Utilization

• Considerations for effective life cycle thinking include:

  • Use of energy and materials.

  • Recycling and recovery practices.

  • Impact on climate change.

  • Transport and production factors.

  • Land use and storage strategies.

  • The importance of managing toxic pressure and health impacts on the environment.

PLM AS A DRIVER TOWARDS CIRCULARITY

Circular Principles in PLM

• Each phase of PLM can incorporate circular principles for sustainability:

  • Circular Design:

  • Eco-design focusing on low-impact or recovered materials.

  • Allows for product repairs, enhancing longevity.

  • Clean Production:

  • Utilizes clean energy and low-impact inputs.

  • Aims for production processes to emit zero or low carbon.

  • Responsible Distribution and Consumption:

  • Supports circular business models fostering a sharing economy.

  • Encourages consumer behavior changes that lead to reduced consumption.

  • End-of-Life Recovery:

  • Designs products to be reused, refurbished, remanufactured, and ultimately recycled.

Benefits of Implementing Circularity in PLM

• Environmental Benefits:

  • Reduced waste and pollution.

  • Preservation and replenishment of natural resources.

• Economic Benefits:

  • Cost savings and development of new revenue streams.

  • Creation of new business opportunities and partnerships.

  • Increased resilience against supply chain risks.

• Social Benefits:

  • Generation of new jobs.

  • Promotion of healthier lifestyles and environments.

BEST PRACTICES IN CIRCULAR PLM

Questions to Consider

• Should cars be manufactured from lighter or more recyclable materials?

• Is it advisable to continue using old washing machines?

• Should home composting practices be encouraged?

BARRIERS TO THE CIRCULAR ECONOMY

Key Barriers

• Policy and Regulatory Barriers:

  • Lack of harmonized and standardized regulations.

  • Outdated customs classifications and regulations.

• Technological Barriers:

  • Insufficient innovative recycling technology.

• Infrastructure Barriers:

  • Challenges in reverse logistics.

  • Deficiencies in traceability and data for materials.

  • Lack of adequate collection and sorting infrastructure.

• Financial Barriers:

  • Additional premium on the use of circular materials.

  • Upfront investments required for transitioning to circular practices.

• Organizational Barriers:

  • Need for internal buy-in and coordination to implement circular strategies.

• Social Barriers:

  • Challenges around consumer behavior and perception of circularity.

  • Limited scalability of circular practices.

• Measurement Barriers:

  • Difficulty in accounting and measuring progress towards circularity.

  • Lack of information regarding post-use return.

  • Issues arising from contamination of material streams.

OPPORTUNITIES FOR THE CIRCULAR ECONOMY

Categories of Opportunities

• Policy and Regulatory Support:

  • Need for the harmonization of regulations.

• Technological Opportunities:

  • Advances in recycling technologies.

• Infrastructure Opportunities:

  • Enhancements in collection and sorting systems.

• Financial Opportunities:

  • Availability of financial incentives for businesses adopting circular principles.

• Organizational Opportunities:

  • Leadership buy-in essential to drive circular initiatives.

  • Incorporation of technical expertise in policymaking processes.

  • Design for circularity should be prioritized in product development.

• Social Opportunities:

  • Shift in consumer behavior and perception of sustainability.

  • Effective consumer awareness and engagement campaigns.

  • Shared investments among value chain partners aimed at promoting circular economy principles.

  • Implementation of labeling policies to inform consumers about circularity.

SOURCES

• Reference to LCT and LCA for Waste Management: https://eplca.jrc.ec.europa.eu/uploads/waste-waste-LCA-LCT.pdf.

• Source Credit: ICC.