Design for disassembly (DfD) is a product design approach that makes a product easy to take apart, so its parts can be repaired, replaced, reused or recycled instead of thrown away. It works through choices made at the drawing board: modular parts, reversible fasteners, fewer and labelled materials, and accessible components. It is a building block of the circular economy, which the Ellen MacArthur Foundation describes as driven by design.
Group functions into self-contained modules, such as a battery, a screen or a camera, that can be swapped without touching the rest.
02
Reversible joints
Prefer screws, clips and snap fits over glue and welds, and keep the number of tool types low so a repair needs one screwdriver, not a lab.
03
Simple, marked materials
Use fewer material types, avoid bonding incompatible ones together, and label parts so recyclers can sort them into clean streams.
04
Access and instructions
Place the parts that fail most often where they can be reached first, and publish repair guides and spare parts.
Where you see it today
EU repair rules for phones
EU ecodesign rules for smartphones and slate tablets apply from 20 June 2025. They include rules on disassembly and repair, oblige producers to keep critical spare parts available for 7 years after a model stops being sold in the EU, and add a repairability class to the energy label (European Commission, 2025).
Replaceable batteries by law
The EU Batteries Regulation, in force since 17 August 2023, sets removability and replaceability requirements for portable batteries built into products (European Commission, 2023). Designers now have to plan how a user reaches the battery.
Robots that take products apart
Apple introduced Daisy in April 2018, a robot that disassembles iPhones to recover materials that traditional recyclers cannot (Apple, 2018). Robotic and AI-guided disassembly works best when products are designed to be taken apart in a predictable order.
AI data center hardware
Microsoft said in August 2020 that it would build Circular Centers to reuse and repurpose servers and hardware from its data centers (Microsoft, 2020). As AI drives rapid server turnover, hardware that comes apart cleanly keeps more value in the loop.
Design for disassembly in practice
Modularity
Design choiceSelf-contained, swappable modules
ExamplePhones sold with replaceable battery, screen and camera modules
Reversible fasteners
Design choiceScrews and clips instead of glue
ExampleA battery held by screws, not adhesive
Material simplicity
Design choiceFewer, compatible, marked materials
ExamplePlastic parts stamped with their resin type
Accessibility
Design choiceWear parts reachable first
ExampleA back cover that opens without removing the screen
Information
Design choiceRepair guides and spare parts
ExampleProducer-published parts lists and manuals
How to use it
List the parts most likely to fail and design them to be reached and replaced first.
Replace glued or welded joints with screws or clips wherever the strength allows, and standardise screw types.
Cut the number of material types and mark each plastic part so recyclers can sort it.
Check your products against the EU smartphone, battery and ecodesign rules early, before tooling is fixed.
Time a teardown of your own product and set a target to make the next version faster to take apart.
The Business Engineer lens
As AI hardware cycles shorten and critical materials become a supply-chain risk, the value left inside used devices and servers is a strategic asset. The Business Engineer treats design for disassembly as a cost and supply decision made at the drawing board, not as a recycling afterthought.
A product design approach that makes a product easy to take apart, so parts can be repaired, reused or recycled instead of discarded.
What are the main principles of design for disassembly?
Modular parts, reversible fasteners such as screws and clips, fewer and clearly marked materials, accessible wear parts, and published repair information.
EU rules now require repair and disassembly features in phones and replaceable portable batteries, and companies want to recover materials and parts from used devices and servers.
How does design for disassembly relate to the circular economy?
The circular economy aims to keep products and materials in use at their highest value; products that come apart easily make repair, reuse and recycling practical.
The complete explainer, cleaned up and reformatted for mobile.
Design for disassembly (DfD) is an approach to product design that emphasizes the ease of taking a product apart for maintenance, repair, recycling, or disposal at the end of its lifecycle. This sustainable designstrategy aims to maximize the recovery of valuable materials, reduce waste, and minimize the environmental impact of products.
What is Design for Disassembly?
Design for Disassembly (DfD) is a designstrategy aimed at facilitating the easy and cost-effective disassembly of products for repair, refurbishment, recycling, or disposal. The primary goal of DfD is to minimize waste and maximize resource recovery by designing products in a way that allows components to be easily separated and reclaimed.
Key Characteristics of Design for Disassembly
Ease of Disassembly: Products are designed to be easily disassembled using simple tools and techniques.
Material Recovery: Focus on maximizing the recovery of materials and components for reuse or recycling.
Sustainability: Promotes sustainable product life cycles by reducing waste and conserving resources.
Modularity: Emphasizes the use of modular components that can be independently replaced or upgraded.
Importance of Understanding Design for Disassembly
Understanding and implementing Design for Disassembly is crucial for enhancing sustainability, reducing environmental impact, and promoting circular economy practices.
Enhancing Sustainability
Resource Conservation: Conserves natural resources by enabling the reuse and recycling of materials.
Waste Reduction: Reduces waste generation by facilitating the recovery of valuable materials.
Reducing Environmental Impact
Lower Emissions: Reduces greenhouse gas emissions by minimizing the need for new raw materials.
Pollution Prevention: Prevents pollution by avoiding the disposal of hazardous materials in landfills.
Promoting Circular Economy
Circular Design: Supports circular economy principles by designing products with end-of-life considerations.
Product Lifecycle: Extends product lifecycle through repair, refurbishment, and recycling.
Components of Design for Disassembly
Design for Disassembly involves several key components that contribute to its effectiveness in promoting sustainability and resource recovery.
1. Modular Design
Interchangeable Parts: Use of modular components that can be easily replaced or upgraded.
Standardization: Standardizing components to simplify disassembly and reassembly.
2. Material Selection
Recyclable Materials: Selecting materials that can be easily recycled or repurposed.
Non-Toxic Materials: Avoiding the use of hazardous materials that complicate recycling and disposal.
3. Fastening Techniques
Reversible Fasteners: Using fasteners that can be easily removed without damaging components.
Minimal Adhesives: Reducing the use of adhesives that hinder disassembly and material separation.
4. Simplified Construction
Ease of Access: Designing products with easy access to components for disassembly and repair.
Clear Labeling: Labeling components and materials to facilitate identification and sorting.
5. End-of-Life Considerations
Disassembly Instructions: Providing clear instructions for disassembling the product at the end of its life.
Recovery Planning: Planning for the recovery and recycling of materials and components.
Implementation Methods for Design for Disassembly
Several methods can be used to implement Design for Disassembly effectively, each offering different strategies and tools.
1. Product Design and Development
Design Principles: Incorporating DfD principles into the early stages of product design and development.
Collaborative Design: Collaborating with engineers, designers, and recyclers to ensure disassemblability.
2. Material and Component Selection
Sustainable Materials: Selecting sustainable and recyclable materials that facilitate easy disassembly.
Component Standardization: Standardizing components to simplify the disassembly process.
3. Prototyping and Testing
Prototype Development: Developing prototypes to test the disassembly process and identify potential issues.
Iterative Testing: Conducting iterative testing and refinement to optimize disassembly.
4. Documentation and Instructions
Disassembly Manuals: Creating detailed manuals and guides for disassembling the product.
Clear Labeling: Labeling components and materials for easy identification during disassembly.
5. Training and Education
Employee Training: Training employees on DfD principles and techniques.
Consumer Education: Educating consumers on the benefits of DfD and how to disassemble products.
Benefits of Design for Disassembly
Implementing Design for Disassembly offers numerous benefits, including enhanced sustainability, reduced environmental impact, and economic advantages.
Enhanced Sustainability
Resource Efficiency: Maximizes resource efficiency by enabling the reuse and recycling of materials.
Waste Minimization: Reduces waste generation by facilitating material recovery and recycling.
Reduced Environmental Impact
Lower Emissions: Decreases greenhouse gas emissions by reducing the need for new raw materials.
Pollution Reduction: Prevents pollution by avoiding the disposal of hazardous materials in landfills.
Economic Advantages
Cost Savings: Reduces costs associated with raw material procurement and waste disposal.
Value Recovery: Recovers value from end-of-life products through recycling and reuse.
Improved Product Lifecycle
Extended Lifespan: Extends the lifespan of products through repair, refurbishment, and upgrading.
Consumer Satisfaction: Enhances consumer satisfaction by providing easy repair and maintenance options.
Challenges of Implementing Design for Disassembly
Despite its benefits, implementing Design for Disassembly presents several challenges that need to be managed for successful adoption.
Design Complexity
Initial Design Effort: Requires significant initial effort and resources to redesign products for disassembly.
Component Integration: Ensuring that components are easily integrated and disassembled without compromising functionality.
Material Selection
Material Availability: Limited availability of suitable materials that meet DfD criteria.
Cost Considerations: Balancing material costs with sustainability goals.
Market Acceptance
Consumer Awareness: Educating consumers on the benefits of DfD and encouraging acceptance.
Industry Adoption: Encouraging industry-wide adoption of DfD principles and standards.
Regulatory Compliance
Regulatory Requirements: Ensuring compliance with regulatory requirements related to product design and recycling.
Standardization: Developing industry standards for DfD to ensure consistency and compatibility.
Best Practices for Implementing Design for Disassembly
Implementing best practices can help effectively manage and overcome challenges, maximizing the benefits of Design for Disassembly.
Incorporate DfD Early in Design
Early Integration: Integrate DfD principles early in the product design and development process.
Cross-Functional Collaboration: Collaborate with engineers, designers, and recyclers to ensure disassemblability.
Select Appropriate Materials
Sustainable Materials: Choose materials that are recyclable, non-toxic, and easy to disassemble.
Material Testing: Conduct testing to ensure materials meet DfD requirements.
Use Reversible Fasteners
Easy Removal: Use fasteners that can be easily removed without damaging components.
Minimal Adhesives: Limit the use of adhesives to simplify disassembly and material separation.
Provide Clear Documentation
Disassembly Guides: Create detailed disassembly guides and manuals for end-of-life processing.
Component Labeling: Label components and materials for easy identification during disassembly.
Educate and Train Stakeholders
Employee Training: Train employees on DfD principles and techniques to ensure proper implementation.
Consumer Education: Educate consumers on the benefits of DfD and how to disassemble products.
Future Trends in Design for Disassembly
Several trends are likely to shape the future of Design for Disassembly and its applications.
Digital Transformation
Digital Design Tools: Leveraging digital design tools to optimize product designs for disassembly.
Smart Materials: Developing smart materials that facilitate easier disassembly and recycling.
Circular Economy Integration
Circular Design: Integrating DfD principles into broader circular economy strategies.
Lifecycle Assessment: Conducting lifecycle assessments to evaluate the environmental impact of products.
Regulatory Support
Government Incentives: Encouraging government policies and incentives to promote DfD practices.
Standardization: Developing industry standards for DfD to ensure consistency and compatibility.
Consumer Demand
Sustainable Products: Increasing consumer demand for sustainable products designed for disassembly.
Product Transparency: Enhancing product transparency by providing information on disassemblability and recyclability.
Technological Advancements
Automation: Using automation and robotics to improve the disassembly process.
Material Innovation: Innovating new materials that are easier to disassemble and recycle.
Conclusion
Design for Disassembly (DfD) is a strategic approach to product design that emphasizes creating products that can be easily and efficiently disassembled at the end of their life cycle. By understanding the key components, implementation methods, benefits, and challenges of DfD, organizations can develop effective strategies to enhance sustainability, reduce environmental impact, and promote circular economy practices. Implementing best practices such as incorporating DfD early in the design process, selecting appropriate materials, using reversible fasteners, providing clear documentation, and educating stakeholders can help maximize the benefits of DfD.
In a functional organizational structure, groups and teams are organized based on function. Therefore, this organization follows a top-down structure, where most decision flows from top management to bottom. Thus, the bottom of the organization mostly follows the strategy detailed by the top of the organization.
In a flat organizational structure, there is little to no middle management between employees and executives. Therefore it reduces the space between employees and executives to enable an effective communication flow within the organization, thus being faster and leaner.
OpenAI is an artificial intelligence research laboratory that transitioned into a for-profit organization in 2019. The corporate structure is organized around two entities: OpenAI, Inc., which is a single-member Delaware LLC controlled by OpenAI non-profit, And OpenAI LP, which is a capped, for-profit organization. The OpenAI LP is governed by the board of OpenAI, Inc (the foundation), which acts as a General Partner. At the same time, Limited Partners comprise employees of the LP, some of the board members, and other investors like Reid Hoffmanโs charitable foundation, Khosla Ventures, and Microsoft, the leading investor in the LP.
Airbnb follows a holacracy model, or a sort of flat organizational structure, where teams are organized for projects, to move quickly and iterate fast, thus keeping a lean and flexible approach. Airbnb also moved to a hybrid model where employees can work from anywhere and meet on a quarterly basis to plan ahead, and connect to each other.
The Amazon organizational structure is predominantly hierarchical with elements of function-based structure and geographic divisions. While Amazon started as a lean, flat organization in its early years, it transitioned into a hierarchical organization with its jobs and functions clearly defined as it scaled.
The Coca-Cola Company has a somewhat complex matrix organizational structure with geographic divisions, product divisions, business-type units, and functional groups.
Costco has a matrix organizational structure, which can simply be defined as any structure that combines two or more different types. In this case, a predominant functional structure exists with a more secondary divisional structure.
Costcoโs geographic divisions reflect its strong presence in the United States combined with its expanding global presence. There are six divisions in the country alone to reflect its standing as the source of most company revenue.
Compared to competitor Walmart, for example, Costco takes more a decentralized approach to management, decision-making, and autonomy. This allows the companyโs stores and divisions to more flexibly respond to local market conditions.
Dell has a functional organizational structure with some degree of decentralization. This means functional departments share information, contribute ideas to the success of the organization and have some degree of decision-making power.
eBay was until recently a multi-divisional (M-form) organization with semi-autonomous units grouped according to the services they provided. Today, eBay has a single division called Marketplace, which includes eBay and its international iterations.
Facebook is characterized by a multi-faceted matrix organizational structure. The company utilizes a flat organizational structure in combination with corporate function-based teams and product-based or geographic divisions. The flat organization structure is organized around the leadership of Mark Zuckerberg, and the key executives around him. On the other hand, the function-based teams are based on the main corporate functions (like HR, product management, investor relations, and so on).
Goldman Sachs has a hierarchical structure with a clear chain of command and defined career advancement process. The structure is also underpinned by business-type divisions and function-based groups.
Google (Alphabet) has a cross-functional (team-based) organizational structure known as a matrix structure with some degree of flatness. Over the years, as the company scaled and it became a tech giant, its organizational structure is morphing more into a centralized organization.
IBM has an organizational structure characterized by product-based divisions, enabling its strategy to develop innovative and competitive products in multiple markets. IBM is also characterized by function-based segments that support product development and innovation for each product-based division, which include Global Markets, Integrated Supply Chain, Research, Development, and Intellectual Property.
McDonaldโs has a divisional organizational structure where each division โ based on geographical location โ is assigned operational responsibilities and strategic objectives. The main geographical divisions are the US, internationally operated markets, and international developmental licensed markets. And on the other hand, the hierarchical leadership structure is organized around regional and functional divisions.
McKinsey & Company has a decentralized organizational structure with mostly self-managing offices, committees, and employees. There are also functional groups and geographic divisions with proprietary names.
Microsoft has a product-type divisional organizational structure based on functions and engineering groups. As the company scaled over time it also became more hierarchical, however still keeping its hybrid approach between functions, engineering groups, and management.
Nestlรฉ has a geographical divisional structure with operations segmented into five key regions. For many years, Swiss multinational food and drink company Nestlรฉ had a complex and decentralized matrix organizational structure where its numerous brands and subsidiaries were free to operate autonomously.
Nike has a matrix organizational structure incorporating geographic divisions. Nike’s matrix structure is also present at the regional and sub-regional levels. Managerial responsibility is segmented according to business unit (apparel, footwear, and equipment) and function (human resources, finance, marketing, sales, and operations).
Patagonia has a particular organizational structure, where its founder, Chouinard, disposed of the company’s ownership in the hands of two non-profits. The Patagonia Purpose Trust, holding 100% of the voting stocks, is in charge of defining the company’s strategic direction. And the Holdfast Collective, a non-profit, holds 100% of non-voting stocks, aiming to re-invest the brand’s dividends into environmental causes.
Samsung has a product-type divisional organizational structure where products determine how resources and business operations are categorized. The main resources around which Samsung’s corporate structure is organized are consumer electronics, IT, and device solutions. In addition, Samsung leadership functions are organized around a few career levels grades, based on experience (assistant, professional, senior professional, and principal professional).
Sony has a matrix organizational structure primarily based on function-based groups and product/business divisions. The structure also incorporates geographical divisions. In 2021, Sony announced the overhauling of its organizational structure, changing its name from Sony Corporation to Sony Group Corporation to better identify itself as the headquarters of the Sony group of companies skewing the company toward product divisions.
Starbucks follows a matrix organizational structure with a combination of vertical and horizontal structures. It is characterized by multiple, overlapping chains of command and divisions.
Tesla is characterized by a functional organizational structure with aspects of a hierarchical structure. Tesla does employ functional centers that cover all business activities, including finance, sales, marketing, technology, engineering, design, and the offices of the CEO and chairperson. Tesla’s headquarters in Austin, Texas, decide the strategic direction of the company, with international operations given little autonomy.
Toyota has a divisional organizational structure where business operations are centered around the market, product, and geographic groups. Therefore, Toyota organizes its corporate structure around global hierarchies (most strategic decisions come from Japan’s headquarter), product-based divisions (where the organization is broken down, based on each product line), and geographical divisions (according to the geographical areas under management).
Walmart has a hybrid hierarchical-functional organizational structure, otherwise referred to as a matrix structure that combines multiple approaches. On the one hand, Walmart follows a hierarchical structure, where the CEO (John Furner since 1 February 2026) is the only employee without a direct superior, and directives are sent from top-level management. On the other hand, the function-based structure of Walmart is used to categorize employees according to their particular skills and experience.
Gennaro Cuofano is a CRO and tech executive who has worked in AI since late 2015, starting with bringing NLP, natural-language generation, voice and chatbot products to the marketing industry. His background is in law and finance: he holds a Master's degree in Law and an International MBA with an emphasis on corporate finance (LUISS Business School and the University of San Diego, 2012), and worked as a financial analyst at a real-estate investment firm in San Diego and as an assistant controller. His work focuses on business model strategy, business engineering and, more broadly, structural analysis: how companies make money, read from their own filings. He created FourWeekMBA and leads research there and at The Business Engineer, his newsletter on AI and business strategy, with over 95,000 subscribers and more than 1,000 published analyses. His writing has also appeared on Entrepreneur (for example, How to Digitize a Family Business in Europe) and HackerNoon. Find him on LinkedIn and Substack. See how we source.
