Using the TRIZ Method for Creative Problem Solving

During the conflict and problems time in an organization, projects, at times, seem to be blocked from moving forward. At this crucial time, innovative and creative solutions are required to help the project survive through this difficult time. Problem-solving methods and tools are considered predefined ways that can be used to organize thoughts to carry on the production process. These methods can be used in various professional, educational and personal domains.

Many creative problem-solving methods have been discussed here before such as reverse brainstorming, mind mapping, SCAMPER and more. However, these methods depend on team discussion and creative thinking based on the team experience and creative ability. While the unrestricted nature of these methods contributes to creative and innovative thinking, the results may be unpredictable and not relevant to a given project. The results of each discussion may not be viable in further parts of the project. Even in an innovative project, a coherent problem solving matrix should be applied in the time of conflict and problems, when there is limited time for open discussions.

TRIZ is one of the problem solving methods that depend on previous experience and logic/research rather than unpredictable thinking. TRIZ argues that we should stand on the shoulder of giants while solving problems. Years of research conducted by thousands of engineers to reach innovative solutions for repeated problems should be considered as one of the essential tools to solve problems. If a problem exists while a specific problem has been solved in another project, this experience can save time, effort, and cost instead of starting from scratch.

Brief History of TRIZ

TRIZ is a Russian acronym for the term “theory of the resolution of invention-related tasks”. was developed during the era of 1946 – 1985 in the USSR by Russian inventor and author, Genrich Altshuller and his colleagues.. TRIZ depends on studied patterns of problems and solutions. More than three million patents have been used to discover these patterns in order to solve future problems based on a previous literature. TRIZ has been first introduced in “On the psychology of inventive creation” published in 1956 in Issues in Psychology journal. The theory has been widely used in different project management systems and Six Sigma processes.

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Understanding TRIZ

Generally, the theory is based on the hypothesis that “Somebody, sometime, somewhere has already solved your problem or one similar to it. Creativity means finding that solution and adapting it to the current problem.”

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This hypothesis builds a universal connection to the current problem or similar one which was solved in a different domain such as different place or industry. The principle of this historical solution can be imported and implemented in the existing problem. Based on researching this hypothesis, the main findings have been discovered –these findings represent the basics of TRIZ theory:

  1. Problems and solutions are repeated across industries and sciences. By classifying the “contradictions” (see later) in each problem, you can predict good creative solutions to that problem.
  2. Patterns of technical evolution tend to be repeated across industries and sciences.
  3. Creative innovations often use scientific effects outside the field where they were developed.
TRIZ method
TRIZ method for solving problems.
  • Identify the current project problem
  • Compare the problem to an existing TRIZ general problem as discussed later
  • Identify the TRIZ solution for the general problem
  • Use the suggested solution to determine the project problem

Eliminate Contradictions

The figure above suggests that there is a fundamental contradiction is the reason behind any problem, eliminating this contradiction contributes to finding the solution for the problem. The contradictions in the TRIZ method are categorized based on its nature into technical and physical contradictions as following:

Technical contradictions

The technical contradictions which exist in the system prevent it from reaching a specific goal or to achieve the desired solution. In other words, when the team aims to achieve a goal, another contradiction in the siesta halts process. For example:

  • Creative designs are good, but it consumes project time
  • There is a profitable project, but the company lacks the finance to support it
  • The mobile phone wide coverage is good, but the transmission tower are bad for health.

Physical contradictions

The physical contradictions occurs when the project or system has opposite requirements. So, the same part of the system is having two opposite needs such as the following:

  • An advertising campaign should address both men and women at the same time.
  • The interface design should be simple to navigate and full of functions at the same time.
  • The creative team has to have time to think, but the brainstorming time is limited.

The TRIZ method aims to element the above contradictions in order to solve problems. Technical contradictions can be solved through 39 elimination principles, while physical contradictions can be solved through four principles by looking to the supersystem, subsystems, separation of time and space. In order to evaluate these contradiction, an evaluation method is used. Accelerate Innovation with TRIZ by Valeri Souchkov provides more detailed information about run an evaluation for TRIZ contradictions and understand its weight.

TRIZ 40 Principles

Many solutions and methods have been implemented via the TRIZ method to solve problems. The most commonly used is the TRIZ 40 principles. These principles are used to eliminate contradictions and suggest general solutions in steps two and three of the TRIZ flow discussed earlier in this article. Based on the TRIZ journal, the 40 principles include the following:

  1. Segmentation
  2. Taking out
  3. Local Quality
  4. Asymmetry
  5. Merging
  6. Universality
  7. “Nested doll”
  8. Anti-weight
  9. Preliminary anti-action
  10. Preliminary action
  11. Beforehand cushioning
  12. Equipotentiality
  13. The other way around
  14. Spheroidality
  15. Dynamics
  16. Partial or excessive actions
  17. Another dimension
  18. Mechanical vibration
  19. Periodic action
  20. Continuity of useful action
  21. Skipping
  22. “Blessing in disguise”
  23. Feedback
  24. ‘Intermediary’
  25. Self-service
  26. Copying
  27. Cheap short-living
  28. Mechanics substitution
  29. Pneumatics and hydraulics
  30. Flexible shells and thin films
  31. Porous materials
  32. Color changes
  33. Homogeneity
  34. Discarding and recovering
  35. Parameter changes
  36. Phase transitions
  37. Thermal expansion
  38. Strong oxidants
  39. Inert atmosphere
  40. Composite material films

Each of the above principles represent a solution for generic problems such as the following:

Principle 17 “Another dimension”:

This principle suggests to change the object orientation or tilt. This principle contributed to solving the squeezable ketchup bottles problem as it was hard to squeeze the ketchup when the bottles were standing on an ordinary orientation. In order to solve this problem, the bottles were designed to stand on their lids.

Principle 2 “Taking out”:

This principle suggests to separate the interfering part causing the problem from the object. For example, the noisy compressor can be separated from the interior of the building and placed outside the building.

Principle 7 “Nested Doll”:

This principle refers to making one part pass through a cavity in the other. For example, designing the door sensors to count the number of consumers getting inside an outside the building.

trip method example
Putting the noise air compressor outside the building follows principle 2 “Taking out”. (Source triz.co.uk)

Conclusion

The TRIZ method for problem solving is able to provide a predicable way to solve problems based on previous knowledge and principles. This prediction ability qualifies it to be used in times of crisis. While most of the existing problem solving methods depend on team meetings and discussion, this method loads the project with time, effort, and cost. Therefore, the discussion-based methods can be replaced with a TRIZ method during a critical time and solves the need to solve problems quickly without further team discussions. This method can help managers to take decisions based on the 40 principles and reach predicable results.

Intensive practice should be applied in order to understand each principle and evaluate the current problems. TRIZ Journal provides full information about the method and how to practice it. Below are more resources that can provide more in-depth research about the method:

Jani, M. (2013) An Overview of TRIZ Problem-Solving Methodology and its Applications. IOSR Journal of Computer Engineering (IOSR-JCE). 13(2) p. 83-92.
Livotov, P. (2008). TRIZ and innovation management. [accessed 1.6. 15]
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Dr Rafiq Elmansy

As an academic and author, I've had the privilege of shaping the design landscape. I teach design at the University of Leeds and am the Programme Leader for the MA Design, focusing on design thinking, design for health, and behavioural design. I've developed and taught several innovative programmes at Wrexham Glyndwr University, Northumbria University, and The American University in Cairo. I'm also a published book author and the proud founder of Designorate.com, a platform that has been instrumental in fostering design innovation. My expertise in design has been recognised by prestigious organizations. I'm a fellow of the Higher Education Academy (HEA), the Design Research Society (FDRS), and an Adobe Education Leader. Over the course of 20 years, I've had the privilege of working with esteemed clients such as the UN, World Bank, Adobe, and Schneider, contributing to their design strategies. For more than 12 years, I collaborated closely with the Adobe team, playing a key role in the development of many Adobe applications.

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