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The AIDE Model

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A Four-Phase Adaptive Spiral for Instructional Design

AIDE Model: A Four-Phase Adaptive Spiral for Instructional Design

The AIDE Model

A Four-Phase Adaptive Spiral for Instructional Design

An evolving framework that synthesizes systematic analysis, iterative prototyping, real-world deployment, and reflective evaluation into a continuous spiral of improvement.

Continuous Evolution & Deepening Understanding

Analyze & Align

Comprehensive foundation building through systematic analysis and strategic alignment

Iterative Design

Rapid prototyping and continuous feedback cycles for tangible solutions

Develop & Deploy

Full-scale implementation in authentic, naturalistic learning environments

Evaluate & Evolve

Comprehensive assessment leading to refined design principles and theoretical growth

Conceptual Overview

Core Characteristics

Spiral Structure

Visualized as an evolving spiral, each cycle builds upon the previous one, leading to progressively enhanced solutions and deeper understanding.

Iterative Nature

Each phase involves cycles of development, feedback, and revision, ensuring continuous improvement throughout the process.

Fractal Quality

Each macro-phase can incorporate micro-cycles of other established models like SAM or PIE, applied tactically as needed.

Primary Purpose

“To facilitate the creation of effective and contextually relevant instructional interventions through continuous evolution and deepening comprehension.”

Emphasizes that instructional design is not a one-time event but an ongoing process of discovery and improvement

Dual focus on solution evolution and knowledge deepening ensures evidence-based understanding

Generates refined design principles that contribute to broader instructional design knowledge

The Four Macro-Phases

Phase 1: Analyze & Align

The foundational phase that establishes a robust and comprehensive understanding of the instructional problem, context, and objectives.

Synthesizes systematic needs analysis with deep contextual inquiry
Ensures alignment with strategic goals
Produces Comprehensive Analysis Document

Phase 2: Iterative Design & Prototyping

The creative and cyclical phase that translates foundational understanding into tangible and testable design solutions.

Adopts rapid prototyping from SAM
Continuous feedback from users and stakeholders
Yields Functional Prototype(s) and Design Rationale

Phase 3: Develop & Deploy

The realization phase where validated prototypes become full-scale interventions implemented in authentic contexts.

Non-negotiable requirement: Deployment in naturalistic settings
Enhances ecological validity through real-world testing
Produces Deployed Intervention and Initial Field Data

Phase 4: Evaluate & Evolve

The culminating phase for reflective assessment, theoretical advancement, and continuous improvement.

Integrates formative and summative evaluation
Moves beyond traditional evaluation to “Evolve”
Generates Refined Design Principles for broader knowledge

Detailed Breakdown of Each Macro-Phase

1

Analyze & Align: Building a Comprehensive Foundation

Synthesis Approach

Combines systematic analysis techniques from ADDIE (learners, objectives, content, constraints) with rich contextual inquiry from Plomp and DBR.

Key Activities:
  • Comprehensive literature reviews
  • Development of initial theoretical framework
  • Intensive collaboration with practitioners and stakeholders

The “Align” Component

A critical addition that compels designers to ensure the identified instructional problem and learning objectives are directly aligned with overarching strategic goals.

Strategic Alignment

Primary Output: Comprehensive Analysis Document

Includes contextualized problem definition, literature review, theoretical framework, learner profiles, and measurable, strategically aligned learning objectives.

2

Iterative Design & Prototyping: Translating Analysis into Tangible Solutions

SAM Integration

Directly adopts rapid prototyping and iterative design cycles from the Successive Approximation Model (SAM), overcoming limitations of traditional linear models.

Design Elements Maintained:
  • Storyboarding for learning flow visualization
  • UI/UX design considerations
  • Thoughtful media and strategy selection

Continuous Feedback Loop

Each prototype iteration is systematically evaluated by users and stakeholders, with feedback informing subsequent refinements.

Low-fidelity
Wireframes
High-fidelity

Primary Output: Functional Prototype(s) & Design Rationale

Validated prototypes ranging from low to high fidelity, accompanied by documentation of key design decisions and reasoning.

3

Develop & Deploy: Realizing and Implementing the Design

Naturalistic Setting Requirement

Non-negotiable Principle

Deployment must occur in naturalistic settings, inherited from Design-Based Research (DBR) and Plomp, ensuring ecological validity and practical relevance.

PIE Framework Integration

Utilizes the PIE model’s implementation framework considering activities before, during, and after learning sessions.

Production & Rollout

Production Process

Project management, resource allocation, quality assurance

Authentic Implementation

Target audience usage in actual learning environments

Primary Output: Deployed Full-Scale Intervention & Initial Field Data

Final, fully functional product used by target audience in authentic environments, plus initial performance metrics and observations.

4

Evaluate & Evolve: Reflective Assessment and Theoretical Growth

Beyond Traditional Evaluation

Integrates formative and summative evaluation from ADDIE with comprehensive continuous evaluation from Hannafin & Peck.

The “Evolve” Objective

Moves beyond “Did it work?” to “Why did it work (or not)? What broader lessons can we learn?”

DBR-Influenced Reflection

Embodies the reflective and theory-building aspirations of Design-Based Research, using evaluation data to generate new theoretical insights.

Theory Generation

Cyclical Feedback Mechanism

Findings provide direct, actionable feedback to all preceding phases, informing and refining the next iteration of the AIDE spiral.

Analyze & Align
Iterative Design
Develop & Deploy
Next Cycle

Primary Output: Comprehensive Evaluation Report & Refined Design Principles

Detailed analysis of quantitative and qualitative data, plus generalized, theoretically grounded insights that guide future projects and contribute to broader knowledge.

Visual Representation: AIDE Model Flowchart

Overall Spiral Structure

The AIDE model is visualized as a spiral, signifying continuous development and deepening understanding with each iteration.

Each turn represents one complete cycle through four phases
Outward movement symbolizes progress and refinement
Not merely repetitive but progressive and expansive

Fractal Micro-Cycles

Each macro-phase can contain micro-cycles of other instructional design models, applied tactically according to needs.

Examples:

SAM cycles within Iterative Design phase
PIE cycles within Develop & Deploy phase
Adaptive cycles responsive to project needs

AIDE Model Spiral Flowchart

graph TD A[Analyze & Align
Comprehensive Foundation] –> B[Iterative Design & Prototyping
Rapid Cycles & Feedback] B –> C[Develop & Deploy
Real-World Implementation] C –> D[Evaluate & Evolve
Reflective Assessment] D –> A A –> A1[Learner Analysis
Context Inquiry
Strategic Alignment] B –> B1[Prototype V1
User Feedback
Prototype V2] C –> C1[Naturalistic
Setting
Field Data] D –> D1[Why It Worked
Design Principles
Theory Building] style A fill:#9CAF88,stroke:#7D8471,stroke-width:3px,color:#2C3E50,font-weight:600 style B fill:#C17B5A,stroke:#A05C3B,stroke-width:3px,color:#FFFFFF,font-weight:600 style C fill:#2C3E50,stroke:#1A252F,stroke-width:3px,color:#FFFFFF,font-weight:600 style D fill:#7D8471,stroke:#5C6451,stroke-width:3px,color:#FFFFFF,font-weight:600 style A1 fill:#F8F6F0,stroke:#9CAF88,stroke-width:2px,color:#2C3E50,font-weight:500 style B1 fill:#F8F6F0,stroke:#C17B5A,stroke-width:2px,color:#2C3E50,font-weight:500 style C1 fill:#F8F6F0,stroke:#2C3E50,stroke-width:2px,color:#2C3E50,font-weight:500 style D1 fill:#F8F6F0,stroke:#7D8471,stroke-width:2px,color:#2C3E50,font-weight:500 classDef default font-size:13px,font-family:Inter

Use the controls to zoom and drag to explore different parts of the diagram

Spiral Progression Visualization

A&A
ID&P
D&D
E&E

Analyze & Align

Comprehensive foundation building

Iterative Design

Rapid prototyping cycles

Develop & Deploy

Real-world implementation

Evaluate & Evolve

Theory building & principles

Synthesis of Influential Models within AIDE

The AIDE model is a sophisticated synthesis of established principles and practices from several influential instructional design and research models. It selectively integrates and adapts elements to create a comprehensive, flexible, and contextually responsive framework.

ADDIE

Systematic needs analysis, development structure, formative & summative evaluation components.

Analysis Phase Foundation
Evaluation Framework

Plomp & DBR

Deep contextual inquiry, naturalistic deployment, theory-building through reflective practice.

Contextual Understanding
Theory Generation

SAM

Rapid prototyping, iterative design cycles, continuous user feedback integration.

Iterative Prototyping
User-Centered Design

Hannafin & Peck

Comprehensive and continuous evaluation philosophy throughout the design process.

Continuous Assessment
Process Evaluation

PIE

Implementation framework and macro-cycle of improvement for continuous learning.

Implementation Structure
Macro-Cycle Improvement

Synthesis

AIDE combines systematic rigor, iterative agility, and deep contextual inquiry into a unified framework.

Comprehensive Approach
Adaptive Flexibility

How AIDE Integrates These Models

Structural Foundation from ADDIE

Maintains the comprehensive phases of analysis, development, and evaluation while transforming the linear process into a dynamic spiral that allows for greater flexibility and responsiveness.

Research Depth from Plomp & DBR

Incorporates the methodological rigor of design-based research, emphasizing real-world context, theoretical framework development, and the generation of design principles that contribute to broader knowledge.

Agile Process from SAM

Integrates rapid prototyping and iterative development cycles to overcome the potential slowness and abstraction of traditional models, ensuring user feedback is continuously incorporated.

Continuous Improvement Framework

Combines Hannafin & Peck’s evaluation focus with PIE’s implementation framework to create a comprehensive cycle of assessment, implementation, and refinement that drives ongoing improvement.

Outputs and Outcomes of the AIDE Process

The AIDE model produces a series of tangible outputs at each stage, serving as critical inputs for subsequent phases or iterations. These outputs embody the model’s commitment to continuous refinement and deepening understanding.

Key Outputs by Phase

Macro-Phase Key Outputs Description of Outputs
1

Analyze & Align

Comprehensive Analysis Document

A detailed document including contextualized problem definition, literature review, initial theoretical framework, learner profiles, and strategically aligned learning objectives. Forms the foundational blueprint.

2

Iterative Design & Prototyping

Functional Prototype(s)
Design Rationale

One or more prototypes (low to high fidelity) validated through user feedback. Design rationale documenting key decisions and reasoning, ensuring transparency and traceability.

3

Develop & Deploy

Deployed Full-Scale Intervention
Initial Field Data

Final, fully functional instructional product implemented in authentic learning environment. Initial data collected during deployment, including user feedback and performance metrics.

4

Evaluate & Evolve

Comprehensive Evaluation Report
Refined Design Principles

Detailed report analyzing quantitative and qualitative data on intervention effectiveness. Generalized, theoretically grounded design principles derived from the entire cycle.

Immediate Outcomes

Effective Instructional Intervention

Contextually relevant solution built on comprehensive analysis and iterative refinement

Evidence-Based Design

Decisions grounded in empirical data and continuous user feedback

Documented Process

Transparent rationale and comprehensive documentation for future reference

Long-term Impact

Refined Design Principles

Generalized insights that guide future projects and contribute to broader knowledge

Enhanced Understanding

Deeper comprehension of instructional context and theoretical foundations

Continuous Improvement

Systematic feedback loop enabling ongoing enhancement of design practice

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