B2.1 / The Design Process

Guiding Question: How do designers approach problem-solving?

MYP Design Cycle - IBO.org

Design Process - UK National Curriculum

The Design Process - FedericoViola

2.1.1 - Design thinking process

IB Diploma Design Thinking Process

The Design Thinking Model in the DP comprises five specific stages:

Empathize: Understanding user needs.

Defining the project: Formulating the problem.

Ideation and modelling: Generating and testing ideas.

Designing a solution: Refining the final proposal.

Presenting a solution: Final disclosure of the redesigned product

This method encourages you to move back and forth, revisit and repeat stages as needed, fostering flexibility and responsiveness to new insights or changes in project requirements. The iterative nature of the process enables continual refinement and improvement of the intended solution.

This model is based heavily on the 'D-School' design thinking model developed by Stanford University.

The DP Design Thinking Process - IBO.org

Design Thinking process - Hassio Planter Design School, Stanford University

2.1.2 - Empathise

Empathy Mapping

The empathize stage is the foundation of the design thinking process, prioritizing a deep understanding of the problem from the perspective of the intended users. By engaging in active listening, observation, and immersion, designers can uncover user motivations, needs, and "pain points" that might not be immediately obvious. This stage ensures that the design process is rooted in human experience rather than assumptions.

2.1.2 - Research

Research is an ongoing activity throughout the design process, critical to identifying design opportunities, understanding user needs, and generating feasible, real-world solutions to problems.

The Role of Research in the Design Process

Research is a continuous and essential part of the design process... It helps designers uncover opportunities, gain a deep understanding of user needs, and develop practical, real-world solutions. By collecting and analyzing data, designers can make informed decisions that enhance usability, functionality, and overall user satisfaction.

Effective research ensures that design solutions are not based on assumptions but on real user behaviors, preferences, and challenges. It helps identify pain points, market gaps, and emerging trends.
Research also plays a key role in testing and refining ideas, ensuring that the final design is... practical, efficient, and aligned with user expectations.
Additionally, research supports iterative design, where findings from user testing and feedback loops help improve and optimize prototypes.

Qualitative vs. Quantitative Data

Qualitative Data – Focuses on descriptive insights, such as user emotions, preferences, and experiences. Collected through interviews, observations, and open-ended survey questions, it helps designers understand motivations and pain points.

Quantitative Data – is numerical information that helps designers make data-driven decisions by identifying trends, measuring effectiveness, and validating design choices. It includes statistics, user metrics, and performance measurements.

2.1.3/4 - Primary & Secondary Research

Primary Research

Primary Research Methods

Designers utilize primary research to collect first-hand data that is specifically relevant to their design context.

User Observations and Interviews: These methods allow designers to see how users interact with their environment and listen to their personal accounts of the challenges they face.
Surveys and Focus Groups: These tools gather qualitative and quantitative data from a wider audience to identify common desires and patterns of behavior.
Product Analysis: This involves examining existing products to gain insight into their function, performance, and features, helping to determine why current designs succeed or fail.

Secondary Research

Secondary Research Methods

Designers rely on various external repositories to gather credible data. According to the syllabus, these sources include:

Internet-based research: Exploring digital archives and websites.
Government data and statistics: Using official records on demographics, safety standards, or environmental impact.
University research: Leveraging academic studies and scientific papers.
Literature searches: Consulting books, journals, and previous design publications.

Using Research Data:

Establish User Requirements & Design Specifications.
Develop a Persona.
Suggest Further Development.

2.1.5 - Personae

When empathising with the user, designers develop a persona used to represent a group of end-users they are solving the problem for.

The Role of Empathy and Personas

When designing user-centered solutions, designers empathize with users by conducting research to understand their needs, challenges, and experiences.
A key tool in this process is the persona, a fictional character representing a specific user group.
Personas help designers keep real users in mind when developing products, ensuring that solutions are tailored to actual needs rather than assumptions.
By understanding user experiences, interactions, and expectations, designers can create meaningful, user-friendly, and effective products that truly address real-world problems.

Archetypes

In the study of User-Centered Design, an archetype is defined as a specialized model that categorizes users based on shared behavioral patterns, motivations, and mental models rather than demographic commonalities. Unlike traditional personas, which often rely on specific personal attributes like age or geographic location, archetypes distill the diverse user base into foundational types governed by their interaction goals. By focusing on these psychographic drivers—such as the "Information Seeker" or the "Efficiency Expert"—product designers can identify universal pain points and functional requirements that transcend individual identities. Consequently, archetypes serve as a more robust framework for making objective design decisions, ensuring that the product’s architecture directly supports the cognitive processes and intended outcomes of the user.

Behavioral Consistency: Archetypes focus on how users interact with a system and why, providing a stable foundation for UX strategy.
Demographic Neutrality: By removing specific traits like "22-year-old student," designers avoid subconscious bias and focus on functional utility.
Design Rationale: In a professional context, archetypes provide the logical "bridge" between user research and the final interface, justifying why certain features are prioritized over others.

2.1.6 - Mapping user journeys

'Watchmen' - Alan Moore & Dave Gibbons 1987

Storyboards

Designers engage in user observation, mapping the user’s journey as they carry out a task. They use a storyboard to identify the steps in the design process and design opportunities.

Designers use user observations to map the users journey, tracking how people interact with products and environments while completing a task. This process helps identify pain points, moments of frustration, inefficiency, or difficulty that present opportunities for design improvements.

A storyboard visually represents the user's experience step by step, helping designers understand how users interact with a product or service. It typically includes scenes that depict each stage of a task, illustrating the actions users take and the decisions they make along the way. By mapping out these interactions, designers can identify moments where users face challenges or obstacles. These challenges could include confusion, frustration, or inefficiencies in the process. Additionally, the storyboard helps highlight potential areas for design improvements, ensuring that solutions align with real user needs.

By analyzing a storyboard, designers can pinpoint specific issues that hinder the user experience. These may include complex or confusing steps that require simplification, inefficient processes that could be streamlined, or physical and cognitive strain that users experience while interacting with a product. Identifying these pain points creates opportunities for design enhancements, such as improving usability, reducing effort, or introducing new features that better meet user needs. This process ensures that designs are practical, user-friendly, and effective in solving real-world problems.

Elements of a storyboard:

A comic-style storyboard.
A user journey flow with descriptions.

2.1.7 - Product Analysis

Product analysis is a key tool used by designers to evaluate the functions, performance, and features of existing products. By studying how a product works, its strengths, and its weaknesses, designers gain valuable insights that can inform new designs, improve existing solutions, or inspire innovation.

Design teams must be able to analyze a range of products, focusing on how they solve specific problems or highlight areas for improvement.

This involves examining factors such as:

Usability
Materials
Manufacturing processes
Ergonomics
Aesthetics
Sustainability

By identifying what works well and what doesn’t, designers can develop more effective, user-centered solutions that address real-world challenges.

Methods of Product Analysis

Designers use a variety of methods to gain insights into functionality, performance, and user experience:

Comparative Analysis: Evaluating multiple similar products to identify strengths, weaknesses, and unique features.
User Testing: Observing real users interacting with a product to assess usability, ergonomics, and pain points.
SWOT Analysis: Identifying a product's Strengths, Weaknesses, Opportunities, and Threats to guide improvements.
Life Cycle Analysis: Examining the environmental impact of a product from production to disposal.
Material and Manufacturing Analysis: Assessing the materials and processes used to determine durability, cost, and sustainability.
Ergonomic Assessment: Studying how comfortable and efficient a product is for users.
Failure Analysis: Testing how and why a product fails under different conditions to improve reliability.
Trend Analysis: Looking at market trends and user preferences to anticipate future design needs.
Reverse Engineering: Taking apart a product to understand its internal structure, components, and design choices.