SCAMPER | Generating New Ideas Through Seven Perspectives

SCAMPER is a creative thinking technique that encourages people to generate new ideas by examining existing products, services, business processes, and concepts from seven different perspectives. Instead of vaguely asking, “Can we come up with something new?”, SCAMPER provides specific questions: “What could we substitute?”, “What could we combine?”, or “What would happen if we reversed the process?”

SCAMPER was developed by educator Bob Eberle in the 1970s, building on the idea-generation checklist introduced by Alex F. Osborn, who is also known for popularizing brainstorming. The technique has been used in product development, service design, business improvement, and education.

Its distinctive feature is that it begins with something that already exists and deliberately changes its components, functions, applications, or relationships. However, answering the seven questions does not guarantee original or valuable ideas. SCAMPER is a structured set of prompts for stimulating creativity, not a comprehensive scientific theory of creative thinking.

The Seven Perspectives of SCAMPER

The name SCAMPER is an acronym representing seven approaches to modifying existing ideas.

LetterPerspectiveKey Question
SSubstituteWhat could be replaced with something else?
CCombineWhat could be combined with something else?
AAdaptWhat ideas or mechanisms from other fields could be applied?
MModify, Magnify, MinifyWhat could be changed in form, size, strength, frequency, or scale?
PPut to Other UsesHow could something be used for a different purpose?
EEliminateWhat could be removed or simplified?
RReverse, RearrangeWhat could be reversed, reordered, or reorganized?

These categories are not mutually exclusive. Replacing a component may also change the overall structure, and adapting a technology from another industry may create an entirely new application.

The purpose is not to classify every idea precisely, but to introduce different questions that encourage exploration.

S: Substitute — Replace an Existing Element

Substitution involves replacing some part of a product, service, or process with an alternative.

Potential substitutions include materials, components, personnel, locations, methods, information sources, energy sources, and technological approaches.

Typical questions include:

  • Could a human task be replaced by a machine or software?
  • Could we use a different material?
  • Could an on-site operation be performed remotely?
  • Could ownership be replaced by access on demand?
  • Could a different technology perform the same function?

For example, replacing face-to-face customer support with AI chat may improve availability and response speed. However, it may also make it harder to understand complex circumstances or capture nonverbal information.

The important question is not simply whether substitution is possible, but what improves and what may be lost when one element is replaced.

C: Combine — Create Value Through Integration

Combination involves bringing together products, functions, technologies, services, or activities to create new value.

Smartphones, for example, integrate communication, photography, information retrieval, location services, and many other functions into a single device. This is an illustration of combination, not a claim that smartphones were invented using SCAMPER.

Useful questions include:

  • Could two functions be integrated into one product?
  • Could multiple operations be completed in a single process?
  • Could different technologies work together to achieve new capabilities?
  • Could a product be combined with a supporting service?
  • Could information from separate systems be integrated?

Combining components is most valuable when integration creates meaningful interactions, reduces duplication, compensates for weaknesses, or makes previously unavailable capabilities possible.

Simply adding more functions can also increase complexity, cost, and maintenance requirements. Successful combination therefore requires examining the relationships among the components rather than merely accumulating features.

A: Adapt — Apply Ideas from Other Fields

Adaptation involves borrowing mechanisms, approaches, or principles from another context and applying them to the problem at hand.

Examples include biomimetics, which draws inspiration from biological mechanisms, and the adaptation of manufacturing practices from one industry to another.

Questions include:

  • How has another industry solved a similar problem?
  • Does nature provide a mechanism with a comparable function?
  • Could a principle from another technological field be applied here?
  • Could a successful business model be adapted to a different market?
  • Are there analogous processes in unrelated systems?

This perspective is closely related to analogical reasoning, Synectics, and cross-domain concept exploration.

However, discovering an interesting analogy does not establish that a technology can be transferred successfully.

The critical issue is the correspondence between the underlying problem, functional relationships, and operating constraints, rather than superficial resemblance.

For example, biological circulation systems and industrial fluid distribution networks may share certain functional principles. Nevertheless, they operate under different conditions involving pressure, flow rates, materials, control mechanisms, and durability.

Adaptation becomes a credible development hypothesis only after these differences have been examined.

M: Modify — Change Form, Scale, or Characteristics

Modification involves changing a product’s shape, size, strength, speed, frequency, structure, or other characteristics.

The original Osborn checklist also included magnification and minimization, which are commonly incorporated into the M category of SCAMPER.

Questions include:

  • Could the product be made smaller or lighter?
  • Could one particular function be strengthened?
  • Could the frequency of a service be changed?
  • What would happen if a process became faster or slower?
  • Could the product be optimized for a specific environment?
  • Would increasing or decreasing capacity create a new application?

Modification is not simply about making something larger or smaller.

Miniaturization, for example, may enable portability and create new usage situations. Conversely, increasing the scale of a system may make it suitable for industrial applications that were previously impractical.

In some cases, quantitative changes can create qualitatively different uses or forms of value.

P: Put to Other Uses — Discover New Applications

This perspective explores alternative applications for existing technologies, products, resources, capabilities, or assets.

It is closely related to Adapt, but the direction of exploration differs.

Adapt typically asks what can be brought into the current problem from another field. Put to Other Uses asks where an existing capability could be applied elsewhere.

Questions include:

  • Could this technology be used in another industry?
  • Could a secondary function become the basis of a new product?
  • Could waste materials or by-products become useful resources?
  • Could existing equipment manufacture something different?
  • Could our organization’s technical strengths solve problems for new customers?

This perspective is particularly relevant to new product development, technological diversification, and exploring new markets for existing capabilities.

However, a new application may introduce different performance requirements, regulations, customers, competitors, and distribution channels.

Technical applicability does not automatically imply commercial viability.

E: Eliminate — Remove Unnecessary Elements

Elimination involves removing or simplifying components, functions, activities, restrictions, or procedures.

Innovation does not always require adding features. Removing unnecessary complexity can improve usability, efficiency, reliability, or affordability.

Questions include:

  • Which functions are genuinely necessary?
  • Could a particular process step be removed?
  • Could data entry requirements be reduced?
  • Could a component be eliminated?
  • Could a low-value service be discontinued?
  • Could the same result be achieved with fewer resources?

For example, if employees repeatedly enter the same information into different systems, eliminating duplicate input may reduce workload and transcription errors.

However, elements that appear unnecessary may perform important functions related to safety, quality assurance, or compliance.

Before eliminating something, it is necessary to understand the role it currently plays.

R: Reverse / Rearrange — Change Order, Direction, or Roles

Reverse and Rearrange involve changing the sequence, arrangement, direction, or division of responsibilities within a system.

Questions include:

  • What would happen if the order of operations were reversed?
  • Could the roles of customers and providers be exchanged?
  • Could a centralized system become decentralized?
  • Could information be collected before rather than after an event?
  • Could components be rearranged to create a different structure?
  • Could a process be initiated by a different participant?

Consider equipment maintenance.

Instead of performing maintenance only after a machine fails, an organization might use operating data to detect warning signs and schedule maintenance before failure.

This is an example of changing the timing and organization of the maintenance process, rather than simply reversing two activities. Implementing predictive maintenance also requires sensors, diagnostic models, and appropriate operational procedures.

SCAMPER provides the question that initiates exploration; it does not supply the complete technical solution.

How to Apply SCAMPER

SCAMPER does not require a rigid procedure, but a practical session can follow six stages.

1. Define the Subject and Objective

Select the product, service, process, or concept to be examined.

Clarify whether the objective is to improve performance, reduce costs, discover new applications, create new customer value, or explore entirely different possibilities.

2. Break the Subject into Components

Identify its relevant elements.

For a product, these might include functions, materials, structures, manufacturing processes, operating environments, customers, and delivery methods.

For a business process, they might include inputs, activities, outputs, personnel, equipment, information flows, and constraints.

SCAMPER can be applied to the entire subject, but applying it to individual components often produces more concrete ideas.

3. Ask Questions from the Seven Perspectives

Apply Substitute, Combine, Adapt, Modify, Put to Other Uses, Eliminate, and Reverse/Rearrange to the selected subject or components.

Not every question will be relevant. Unproductive questions can be skipped, and multiple perspectives can be combined.

4. Record the Ideas

Document each proposal without rejecting it solely because it initially appears difficult to implement.

However, ideas should be described clearly enough to identify what would change and how.

5. Combine and Develop the Proposals

Examine whether individual ideas can reinforce one another.

Apply promising modifications to other components, explore additional combinations, or reformulate the underlying problem.

6. Evaluate and Validate

Assess feasibility, technical requirements, potential customer value, costs, risks, and other relevant criteria.

Promising proposals may require prototypes, experiments, market research, or further technical investigation.

This stage transforms preliminary ideas into development hypotheses that can be examined systematically.

Practical Example: Improving Customer Support Operations

Consider a company seeking to improve a customer support operation that currently relies heavily on telephone inquiries.

SCAMPER could produce the following ideas.

PerspectiveExample Idea
SubstituteReplace some routine inquiries with AI-assisted chat
CombineIntegrate FAQs, inquiry histories, and maintenance information
AdaptApply remote diagnostic methods used in other industries
ModifyChange service hours, response frequency, or communication channels
Put to Other UsesUse support records for product improvement and quality analysis
EliminateRemove repetitive data entry
Reverse / RearrangeDetect potential problems and contact customers proactively

These are hypothetical ideas illustrating the technique, not validated business solutions.

Their implementation would require examining factors such as AI response accuracy, privacy protection, system integration, operational costs, and customer acceptance.

Combining several ideas might also lead to a broader redesign of the service model.

Strengths and Limitations of SCAMPER

SCAMPER’s main advantage is its accessibility. Users do not need extensive training to begin questioning an existing product or process from different perspectives.

When unrestricted brainstorming becomes unproductive, SCAMPER can provide specific directions for continued exploration.

However, the method also has important limitations.

First, SCAMPER begins with an existing subject. It is primarily a technique for modifying or reconsidering something already identified. It does not, by itself, determine which problems deserve attention.

Second, the seven categories do not represent a scientifically complete taxonomy of creativity. There is no reason to assume that all forms of innovation can be explained through these seven operations.

Third, completing the checklist can become an end in itself. Producing one idea for each category does not demonstrate that the relevant possibilities have been explored comprehensively.

Fourth, novelty and usefulness are different properties. An unusual modification may have little technical or commercial value.

The technique is therefore most useful when combined with appropriate problem analysis, technical investigation, and evaluation methods.

How SCAMPER Differs from Other Creativity Techniques

SCAMPER, brainstorming, and Synectics all encourage idea generation, but they emphasize different approaches.

MethodCentral Approach
BrainstormingDefer judgment and generate many ideas
SCAMPERApply systematic modification questions to an existing subject
SynecticsExplore alternative perspectives through analogy
Morphological AnalysisExamine combinations of parameters and alternative configurations

These methods are not mutually exclusive.

For example, SCAMPER may be used to generate modifications, followed by morphological analysis to explore combinations.

Similarly, its Adapt perspective can be extended through analogical reasoning and structure-mapping theory to investigate possible transfers of mechanisms across domains.

SCAMPER in the AI Era — From a Checklist to a Systematic Exploration Process

The seven perspectives of SCAMPER are particularly suitable for use with large language models because each can be expressed as a set of natural-language questions.

An LLM can examine an existing product specification, identify relevant components, and propose modifications from each perspective.

For example, Substitute might generate alternative materials or technologies, Combine might suggest functional integration, and Put to Other Uses might identify potential applications in other industries.

However, simply asking an LLM to “perform SCAMPER analysis” may produce large numbers of generic or superficial ideas.

A more useful approach requires representing the subject, its functions, and its constraints explicitly.

Structuring the Subject

A product can be described in terms of its functions, materials, manufacturing methods, performance characteristics, operating environments, and intended customers.

A business process can be described through inputs, transformations, outputs, personnel, equipment, information flows, and operating constraints.

This makes it possible to specify which SCAMPER operations should be applied to which elements.

Connecting Ideas to Researchable Questions

Suppose Substitute produces the suggestion to replace a particular material. The next step is to identify alternative materials that satisfy the required physical properties.

If Adapt suggests applying a biological circulation mechanism, the system can investigate real technologies involving distribution, transport, and controlled supply.

If Put to Other Uses suggests a different industrial application, the system can abstract the existing technology’s characteristics and search for industries that require similar functions.

In this way, the key development is to translate SCAMPER questions into researchable technical problems and exploration criteria.

Examining the Validity of AI-Generated Proposals

Generated proposals should be evaluated against technical requirements, real-world examples, operating constraints, competing approaches, and available evidence.

Research may involve scientific publications, patents, technical documentation, product information, and experimental results.

An LLM-generated combination of technologies should not be assumed to exist or to be technically feasible simply because its description sounds plausible.

SCAMPER in ThinkNavi

ThinkNavi presents SCAMPER as an established creativity technique while exploring its potential for AI-assisted analytical work.

A possible implementation in ThinkNavi Free would allow users to enter the components of a product, service, or process and record ideas under the seven SCAMPER perspectives.

An LLM-powered edition could extend this approach by generating questions, proposing modifications, exploring technologies and applications across domains, combining ideas, and identifying constraints.

These are potential future capabilities rather than descriptions of features already available.

SCAMPER is not a sophisticated scientific theory of creativity. Nevertheless, it offers a practical framework for asking systematic questions about how existing products, services, and technologies might be changed.

The most valuable contribution of AI is not simply answering all seven SCAMPER questions automatically. It is connecting those questions to structured exploration and turning promising ideas into new, testable hypotheses.

Related Topics

References and Further Reading

Post-it — SCAMPER Method

Alex F. Osborn, Applied Imagination: Principles and Procedures of Creative Thinking, Charles Scribner’s Sons, 1953.

Bob Eberle, SCAMPER: Games for Imagination Development, 1971.

University of Cambridge — Osborn’s Checklist

Mitsubishi UFJ Research and Consulting — SCAMPER Method (Japanese)