13 definitions Flashcards
user-centered design
Emphasizes involving end-users throughout the process to ensure systems and products are tailored to needs, preferences, and capabilities. Iteratively to create user-friendly and effective designs
visibility and feedback
Systems should provide clear and timely feedback to users about their actions, helping them understand the system’s response. Visible indicators, auditory cues, and tactile feedback all contribute to improving user interactions
consistency and standardization
Consistent design elements and standardized interfaces help users quickly
learn and operate new systems. Familiarity with common design patterns reduces cognitive load and minimizes errors
Simplicity and minamilism
Design should prioritize simplicity and minimize complexity. Unnecessary features, options, or steps can confuse users and hinder usability. Keeping interfaces and interactions straightforward enhances user performance.
error management
Design systems that prevent, detect, and recover from errors. This includes designing error messages that are clear and informative, as well as implementing safeguards to prevent catastrophic mistakes.
affordances and signifiers
Affordances are cues in design that suggest how an object can be used. Signifiers are indicators that guide users on how to interact with a system. Effective use of affordances and signifiers improves user understanding
human machine interaction
Design interactions that align with human cognitive and physical capabilities.
Consider factors such as memory limitations, attention span, reaction times, and motor skills when creating interfaces and interactions
workload management
Design systems that distribute cognitive and physical workload effectively. Avoid
overwhelming users with too much information or complex tasks, and provide breaks and opportunities for recovery when needed
task analysis
Break down tasks into subtasks and analyze the steps required to complete them. This helps in
identifying potential bottlenecks, inefficiencies, and areas where human factors can be optimized
physical ergnomics
Consider anthropometric data (body measurements), biomechanics, and ergonomic
principles when designing physical environments, tools, and equipment. This ensures comfort, safety, and efficiency in various settings
cognitive ergonomics
Address mental workload, decision-making, attention, memory, and learning capabilities of users when designing cognitive tasks and systems. Present information in ways that are intuitive and support mental processes
human reliability
Design systems with redundancies and fail-safes to mitigate human errors, especially in safety-critical industries like aviation and healthcare
aesthetics and emotion
Consider the emotional impact of design on users. Aesthetically pleasing designs can enhance user satisfaction and overall experience