Audience: New dog trainers
Responsibilities: Instructional Design, eLearning Development, Visual Design, Prompt Engineering, AI-Assisted Prototyping, AI Simulation Design
Tools Used: Articulate Storyline 360 (Standard and AI), Devlin.ai, ChatGPT, Magnific
Project Overview
The Foundations of Dog Training simulation is an AI-powered prototype designed to help emerging dog trainers practice foundational training techniques before working with a live dog. Through a dynamic voice-based interaction with Max, an energetic rescue puppy, learners apply newly acquired skills in a low-stakes environment while receiving real-time coaching from an AI-powered training supervisor.
The goal of this project was to explore how conversational AI can be used to create immersive, repeatable practice experiences for skill development—particularly in scenarios where live practice may be impractical, unpredictable, or carry some degree of risk. By combining voice interaction, adaptive feedback, and simulation design, this prototype demonstrates how AI can support experiential learning in a more personalized and scalable way.
The Challenge
Dog training requires learners to develop practical, performance-based decision-making skills in situations that can be unpredictable and, at times, carry some degree of risk. Traditional eLearning approaches, such as static multiple-choice scenarios, may be useful for knowledge checks but often fall short in replicating the dynamic nature of live training interactions.
The challenge was to create an authentic, low-stakes practice experience that allowed emerging dog trainers to apply foundational techniques, receive immediate coaching, and build confidence before working with a live dog. This project explores how conversational AI and simulation design can provide a scalable, repeatable alternative to in-person practice.
To create an engaging and believable practice experience, I intentionally designed this simulation to feel more like a live training interaction than a traditional eLearning scenario. These design decisions were informed by both instructional design principles and the technical opportunities and constraints of combining conversational AI with Articulate Storyline.
Because dog training is highly interactive, unpredictable, and performance-based, a static branching scenario would have felt limiting and less authentic. Instead, I explored how voice-enabled AI could create a more dynamic practice environment where learners make real-time decisions, receive immediate coaching, and experience varied responses based on their actions.
Through iterative testing and prompt refinement, I shaped the simulation’s coaching behavior, interaction flow, feedback logic, and visual state changes to support a low-stakes but engaging learning experience. The following design decisions highlight how the experience was structured to balance realism, learner support, and technical feasibility.
An AI-powered voice-based conversation creates a dynamic, personalized experience for every learner.
I originally designed this project as a text-based simulation but later transitioned it to a voice-based experience to create a more authentic practice environment. Because dog training relies heavily on verbal communication and real-time decision-making, speaking commands aloud felt much closer to the experience of working with a live dog than typing responses into a chat window.
My goal was to create a simulation that felt dynamic and realistic while acknowledging the limitations of a digital environment. Although learners are not interacting with a real dog, they are required to think on their feet, practice newly learned training techniques, and make decisions in the moment without the pressure or risks associated with working with a live animal.
To further enhance the experience, learner feedback and performance scoring are also AI-powered. Rather than receiving static right-or-wrong responses, learners receive feedback tailored to the specific strategies they used during their interaction with Max. This creates a more personalized experience and encourages reflection, refinement, and repeated practice.
AI Tools Used:
Devlin.ai was used to create the voice-enabled simulation, AI coaching experience, and adaptive feedback system.
By incorporating conversational AI, I was able to create a more immersive practice experience that allows learners to safely build confidence and apply foundational dog training skills before working with a real dog.
AI coach integrated into the simulation to provide real-time guidance and feedback.
Rather than leaving learners to figure things out entirely on their own, I designed the simulation to include an AI-powered training supervisor who provides guidance throughout the experience. Katie, the training supervisor, serves as a coach who helps learners reflect on their decisions while maintaining a supportive and encouraging tone.
Through prompt engineering and iterative testing, I designed Katie's feedback to reinforce effective training strategies while gently discouraging less effective ones. A key design decision was ensuring that Katie never simply tells learners the correct answer. Instead, she provides hints, observations, and encouragement that help learners think through their next steps and arrive at solutions independently.
This coaching approach mirrors the type of support a novice trainer might receive from an experienced supervisor in a real-world training environment. By combining guided practice with learner autonomy, the simulation encourages active problem-solving while still providing the support needed to build confidence and skill.
Max's visual states provide visual feedback that reinforces the impact of learner choices.
To make the experience feel more engaging and responsive, I designed multiple visual states for Max that change throughout the simulation based on learner interactions. As learners attempt to train Max, his expressions and behavior shift to reflect what is happening in the conversation, creating the sense that they are interacting with a living, responsive animal rather than a static character.
This design decision was intended to provide learners with immediate visual feedback and reinforce the impact of their choices. Just as a real dog responds to its environment and a trainer's actions, Max's behavior changes based on the learner's approach. These visual cues help communicate whether the learner is gaining Max's attention, losing his focus, or successfully building toward the desired behavior.
How I accomplished this:
Used Articulate Storyline object states, variables, and triggers to manage Max's visual state changes
Used Devlin.ai to change the Storyline variables that triggered changes in Max's visual and behavioral state
Iteratively refined state-selection logic to ensure Max's behavior remained aligned with the AI coach's narrative feedback
By combining AI-driven behavior logic with Storyline's visual state management, I was able to create a more immersive and believable simulation experience that reinforces learner decisions in real time.
A behind-the-scenes look at the prompt engineering used to shape the experience.
Creating a believable and instructionally effective AI-powered simulation required extensive prompt engineering, testing, and refinement. Rather than treating the AI as a standalone chatbot, I approached the prompting process as a design challenge—carefully shaping how the training supervisor provided guidance, how Max responded to learner actions, and how performance was evaluated throughout the experience.
Throughout development, I defined how the AI coach should communicate, what behaviors should be encouraged or discouraged, how feedback should be delivered, and when the simulation should conclude. A key design goal was ensuring that learners received enough support to remain successful without having the AI simply tell them what to do. This required careful prompt design to balance coaching, learner autonomy, and meaningful practice.
Iteration played a critical role in refining the experience. Through repeated testing, I adjusted how Max's visual states were selected, how coaching feedback aligned with learner actions, how scoring was calculated, and how the simulation progressed toward completion. These refinements helped ensure that the AI's responses remained consistent with both the instructional goals and the visual experience presented to the learner.
This iterative process allowed me to create a more cohesive and believable simulation in which coaching, feedback, visual behavior, and performance evaluation work together to support authentic skill practice.
Results and Takeaways
This AI-powered voice-based simulation successfully demonstrated how conversational AI can be integrated with traditional eLearning tools to create more dynamic and authentic practice experiences. By combining voice interaction, adaptive coaching, visual feedback, and performance evaluation, the project explored new possibilities for creating low-stakes environments where learners can practice performance-based skills before applying them in real-world situations.
User testing and iterative refinement played a critical role throughout development. Feedback from instructional designers, eLearning developers, and other professionals helped shape the experience, leading to several key improvements—including the decision to transition from a text-based simulation to a voice-based interaction. These iterations resulted in a more immersive and realistic learning experience.
The final project received positive feedback from both learners and instructional design professionals and was later featured by instructional design leader Devlin Peck as an example of AI-enhanced learning design. Devlin had this to say about the experience:
🌟Insight/🧠What I Learned
Authenticity drives engagement: Voice interaction created a more realistic practice environment than a text-based experience alone.
AI requires intentional design: Effective simulations depend as much on prompt engineering, testing, and refinement as they do on the technology itself.
Visual feedback reinforces learning: Dynamic character states helped make learner decisions feel more meaningful and immediate.
Focused scope improves outcomes: Narrowing the simulation to a single measurable objective created a stronger demo experience while preserving opportunities for future expansion.