1. Overview

TRIZ, a Russian acronym for “Teoriya Resheniya Izobretatelskikh Zadach” (Теория решения изобретательских задач), translates to the “Theory of Inventive Problem Solving.” It is a systematic and human-centered methodology for innovation that provides a logical and data-driven approach to problem-solving. Developed by Soviet inventor and science fiction author Genrich Altshuller and his colleagues starting in 1946, TRIZ is based on the analysis of thousands of patents and the identification of patterns in inventive solutions. The core idea behind TRIZ is that inventive principles are universal and can be applied to solve problems across different fields of science and engineering.

Altshuller’s research revealed that the process of invention is not a random act of genius but follows a set of identifiable patterns and principles. By understanding and applying these principles, individuals and organizations can enhance their creative and inventive capabilities, leading to more effective and breakthrough solutions. TRIZ provides a structured framework for analyzing problems, identifying contradictions, and applying standardized solutions to overcome them.

2. Core Principles

The TRIZ methodology is built upon a foundation of several core principles that guide the problem-solving process. These principles are derived from the extensive analysis of patent data and represent the fundamental concepts of inventive problem-solving.

1. Contradictions: At the heart of TRIZ is the concept of contradictions. An inventive problem is one that contains a contradiction, where improving one parameter of a system leads to the worsening of another. TRIZ identifies two types of contradictions: * Technical Contradictions: These occur when two technical characteristics of a system are in conflict. For example, increasing the strength of a material (a useful function) may also increase its weight (a harmful function). * Physical Contradictions: These occur when a single parameter of a system is required to have opposite values. For example, a container needs to be hot on the inside to cook food but cool on the outside to be handled safely.

2. 40 Inventive Principles: To resolve contradictions, TRIZ offers a set of 40 Inventive Principles. These are generic suggestions for solving inventive problems and are applicable across a wide range of domains. The principles are based on the analysis of how inventors have solved similar problems in the past. Some examples of the 40 principles include: * Segmentation: Dividing a system into independent parts. * Taking Out: Separating an interfering part from a system. * Local Quality: Changing a system’s structure from uniform to non-uniform. * Asymmetry: Changing the shape of an object from symmetrical to asymmetrical.

3. Ideal Final Result (IFR): The IFR is a key concept in TRIZ that encourages problem solvers to envision the ultimate solution to a problem, without considering the constraints of the current system. The IFR is a solution where the desired outcome is achieved with no cost, no harm, and no additional complexity. By focusing on the IFR, problem solvers can break free from conventional thinking and identify more innovative solutions.

4. Laws of Technical System Evolution: TRIZ posits that technical systems evolve according to a set of predictable patterns or laws. These laws describe the natural progression of technical systems over time and can be used to forecast future trends and identify opportunities for innovation. By understanding these laws, organizations can proactively develop new technologies and products that are aligned with the natural evolution of technical systems.

3. Key Practices

The application of TRIZ involves a set of key practices that enable a systematic and structured approach to inventive problem-solving. These practices help problem solvers to analyze problems, identify contradictions, and generate innovative solutions.

1. Problem Formulation and Analysis: The first step in the TRIZ methodology is to clearly define and formulate the problem. This involves identifying the system, its components, and the relationships between them. TRIZ provides several tools for problem analysis, including: * Function Analysis: This involves identifying the useful and harmful functions of a system and its components. * Cause-Effect Chain Analysis: This is a graphical tool for identifying the root causes of a problem. * Su-Field Analysis: This is a modeling technique that represents a problem as a system of two substances and a field.

2. Contradiction Matrix: The Contradiction Matrix is a key tool in TRIZ for resolving technical contradictions. The matrix is a table that lists 39 standard engineering parameters (e.g., weight, strength, temperature) along the rows and columns. The cells of the matrix contain the numbers of the 40 Inventive Principles that are most likely to resolve the contradiction between the corresponding parameters. By identifying the conflicting parameters in a problem, problem solvers can use the Contradiction Matrix to find the most relevant Inventive Principles to apply.

3. 40 Inventive Principles: The 40 Inventive Principles are the heart of TRIZ and provide a set of generic solutions for inventive problems. The principles are based on the analysis of thousands of patents and represent the most common patterns of invention. The principles are not specific to any particular domain and can be applied to a wide range of problems. Some examples of the 40 principles include: * Segmentation: Dividing a system into independent parts. * Taking Out: Separating an interfering part from a system. * Local Quality: Changing a system’s structure from uniform to non-uniform. * Asymmetry: Changing the shape of an object from symmetrical to asymmetrical.

4. Substance-Field (Su-Field) Analysis: Su-Field Analysis is a modeling technique that represents a problem as a system of two substances and a field. The two substances are the tool and the article, and the field is the means by which the tool acts on the article. Su-Field Analysis is used to model problems and to identify standard solutions for improving the system.

5. Laws of Technical System Evolution: The Laws of Technical System Evolution are a set of patterns that describe the natural progression of technical systems over time. These laws can be used to forecast future trends and to identify opportunities for innovation. By understanding these laws, organizations can proactively develop new technologies and products that are aligned with the natural evolution of technical systems.

4. Application Context

TRIZ is a versatile methodology that can be applied to a wide range of problems in various domains. It is particularly effective for solving complex inventive problems that involve contradictions and require breakthrough solutions. The application of TRIZ is not limited to technical or engineering problems but can also be used for management, business, and social problems.

Domains of Application:

• Engineering and Technology: TRIZ was originally developed for solving engineering problems and has been widely used in various engineering disciplines, including mechanical, electrical, and chemical engineering. It has been successfully applied to a wide range of problems, from improving the performance of a machine to developing new technologies.
• Manufacturing: TRIZ has been used in the manufacturing industry to improve processes, reduce costs, and enhance product quality. It has been applied to problems such as optimizing production lines, reducing waste, and improving the design of manufacturing equipment.
• Business and Management: TRIZ has been increasingly used in the business and management fields to solve complex problems and to drive innovation. It has been applied to problems such as developing new business models, improving marketing strategies, and enhancing organizational creativity.
• Software Development: TRIZ has been used in the software development industry to improve the design of software systems, to solve complex algorithmic problems, and to enhance the creativity of software developers.
• Social and Environmental Problems: TRIZ has been applied to a wide range of social and environmental problems, such as improving public transportation systems, reducing pollution, and developing sustainable technologies.

Examples of Companies Using TRIZ:

Many leading companies across various industries have adopted TRIZ as a key methodology for innovation and problem-solving. Some of the companies that have publicly acknowledged their use of TRIZ include:

• Samsung: The South Korean electronics giant has been a major proponent of TRIZ and has integrated it into its innovation processes.
• General Electric (GE): GE has used TRIZ to solve a wide range of engineering and business problems.
• Procter & Gamble (P&G): P&G has used TRIZ to develop new products and to improve its manufacturing processes.
• Intel: The semiconductor giant has used TRIZ to solve complex problems in the design and manufacturing of microprocessors.
• NASA: The US space agency has used TRIZ to solve a wide range of technical challenges in its space exploration missions.

5. Implementation

The implementation of TRIZ involves a systematic and structured process that can be adapted to the specific needs of a problem or organization. The following is a general outline of the steps involved in applying the TRIZ methodology:

1. Define the Problem: The first step is to clearly define the problem and to identify the system, its components, and the relationships between them. This may involve using TRIZ tools such as Function Analysis and Cause-Effect Chain Analysis.

2. Formulate the Contradiction: Once the problem is defined, the next step is to identify the contradiction that is at the heart of the problem. This may be a technical contradiction or a physical contradiction.

3. Select the Inventive Principles: Based on the identified contradiction, the next step is to select the most relevant Inventive Principles to apply. This can be done using the Contradiction Matrix or by brainstorming with a team.

4. Generate Solutions: Once the Inventive Principles are selected, the next step is to generate potential solutions to the problem. This may involve brainstorming, using analogies, or applying other creativity techniques.

5. Evaluate and Select the Best Solution: The final step is to evaluate the potential solutions and to select the best one to implement. This may involve considering factors such as feasibility, cost, and impact.

Organizational Implementation:

The implementation of TRIZ in an organization can be a challenging but rewarding process. It requires a commitment from management, a willingness to invest in training, and a culture that encourages creativity and innovation. The following are some of the key factors for successful organizational implementation of TRIZ:

• Management Support: The support of top management is essential for the successful implementation of TRIZ. Management needs to provide the resources, training, and encouragement that are needed to make TRIZ a part of the organization’s culture.
• Training and Education: It is important to provide training and education on the TRIZ methodology to all employees who are involved in problem-solving and innovation. This will ensure that everyone has a common understanding of the methodology and can apply it effectively.
• Cross-Functional Teams: The use of cross-functional teams is a key success factor for the implementation of TRIZ. By bringing together people with different backgrounds and expertise, organizations can generate more creative and innovative solutions.
• Integration with Existing Processes: TRIZ should be integrated with the organization’s existing problem-solving and innovation processes. This will ensure that it is used consistently and effectively.

6. Evidence & Impact

The effectiveness of TRIZ as a methodology for innovation and problem-solving is supported by a growing body of evidence from both academic research and industrial case studies. Numerous studies have shown that the application of TRIZ can lead to significant improvements in creativity, problem-solving effectiveness, and innovation performance.

Academic Research:

A number of academic studies have investigated the effectiveness of TRIZ in various contexts. For example, a study published in the Journal of Mechanical Design found that TRIZ can significantly improve the ideation effectiveness of engineering students. Another study, published in the journal Computers in Industry, found that TRIZ can be an effective tool for solving complex software design problems.

Industrial Case Studies:

Many companies have reported significant benefits from the application of TRIZ. For example:

• Samsung: The South Korean electronics giant has reported that the use of TRIZ has led to significant improvements in product development and has helped the company to become a leader in innovation.
• BAE Systems: The British aerospace and defense company has used TRIZ to solve a wide range of technical challenges, from improving the design of submarines to developing new military aircraft.
• Mars: The global food company has used TRIZ to solve a complex packaging problem, resulting in a more sustainable and cost-effective solution.
• Sanofi: The French pharmaceutical company has used TRIZ to improve its innovation processes, leading to a significant increase in sales.

Impact on Innovation:

The impact of TRIZ on innovation can be seen in the numerous patents and new products that have been developed using the methodology. By providing a systematic and structured approach to problem-solving, TRIZ can help organizations to overcome creative blocks and to generate more breakthrough ideas. The use of TRIZ can also lead to a more efficient and effective innovation process, as it helps to focus efforts on the most promising areas.

7. Cognitive Era Considerations

In the cognitive era, characterized by the increasing use of artificial intelligence and machine learning, the TRIZ methodology remains highly relevant and can be enhanced by these new technologies. The combination of TRIZ with AI and machine learning can lead to a new level of innovation and problem-solving capabilities.

AI-Powered TRIZ:

AI and machine learning can be used to enhance the TRIZ methodology in several ways:

• Automated Patent Analysis: AI can be used to automate the analysis of patent data, which is the foundation of TRIZ. This can help to identify new inventive principles and to update the existing ones.
• Intelligent Contradiction Matrix: AI can be used to create an intelligent Contradiction Matrix that can learn from past data and provide more accurate and relevant suggestions for solving contradictions.
• AI-Powered Brainstorming: AI can be used to facilitate brainstorming sessions and to generate more creative and diverse ideas.

TRIZ for AI and Machine Learning:

The TRIZ methodology can also be applied to the development of AI and machine learning systems. For example, TRIZ can be used to:

• Identify and solve contradictions in AI algorithms.
• Develop more creative and innovative AI applications.
• Improve the design of AI systems to make them more human-centered.

The Future of TRIZ:

In the cognitive era, the TRIZ methodology is likely to become even more important as a tool for innovation and problem-solving. The combination of TRIZ with AI and machine learning has the potential to create a new paradigm for innovation, where human creativity is augmented by the power of machines.

8. Commons Alignment Assessment

This section provides an assessment of the alignment of the TRIZ methodology with the principles of the Commons.

1. Openness and Transparency: TRIZ is a methodology that is open and transparent. The principles and tools of TRIZ are publicly available and can be used by anyone. There are many books, articles, and websites that provide information on TRIZ, and there are many training courses and workshops that are available to the public.

2. Collaboration and Participation: TRIZ encourages collaboration and participation. The methodology is often used in a team setting, where people with different backgrounds and expertise can work together to solve problems. The use of cross-functional teams is a key success factor for the implementation of TRIZ.

3. Decentralization and Distribution: TRIZ is a decentralized and distributed methodology. It is not controlled by any single organization or individual. The knowledge and tools of TRIZ are distributed among a global community of practitioners.

4. Modularity and Reusability: TRIZ is a modular and reusable methodology. The principles and tools of TRIZ can be used in a variety of combinations to solve different types of problems. The modular nature of TRIZ makes it easy to adapt the methodology to the specific needs of a problem or organization.

5. Sustainability and Resilience: TRIZ can be used to develop more sustainable and resilient systems. The methodology encourages the use of resources in a more efficient and effective way. It also encourages the development of systems that are more adaptable and resilient to change.

6. Social and Ethical Considerations: TRIZ can be used to address social and ethical considerations in the design of new technologies and products. The methodology encourages a human-centered approach to problem-solving and can be used to ensure that new technologies are developed in a way that is beneficial to society.

7. Governance and Decision-Making: TRIZ can be used to improve governance and decision-making processes. The methodology provides a structured and systematic approach to problem-solving that can help organizations to make more informed and effective decisions.

Overall Commons Alignment Score: 3/5

9. Resources & References

• Altshuller, G. (2007). The Innovation Algorithm: TRIZ, systematic innovation and technical creativity. Technical Innovation Center, Inc.
• Altshuller, G. (1984). Creativity as an Exact Science: The Theory of the Solution of Inventive Problems. Gordon and Breach.
• Fey, V., & Rivin, E. I. (2005). Innovation on Demand: New Product Development Using TRIZ. Cambridge University Press.
• Gadd, K. (2011). TRIZ for Engineers: Enabling Inventive Problem Solving. John Wiley & Sons.
• Mann, D. (2007). Hands-On Systematic Innovation for Business and Management. IFR Press.
• TRIZ Journal
• European TRIZ Association (ETRIA)
• Altshuller Institute for TRIZ Studies