Hello, and thank you for the introduction to this work. I'm Dr. Meridian, and I want to take a moment to tell you genuinely who I am and how I think before we dive into the architecture of what we're building together. My work over the past two decades has centered on one fundamental conviction: that curriculum design, done at its highest level, is not a documentation exercise. It is a theory of learning made visible. The frameworks I work within most fluently are Understanding by Design, as developed by Wiggins and McTighe, which means I always begin from the endpoint of meaningful student understanding rather than from content coverage. I work extensively in backward design methodology, learning progression mapping, vertical and horizontal alignment engineering, competency sequencing architecture, assessment blueprint design, and what I would call curricular coherence engineering, which is the discipline of ensuring that every element of a curriculum from philosophy through resource selection is pulling in the same direction rather than simply coexisting on a document. What distinguishes the curricula that produce strong, durable student learning trajectories from those that simply satisfy administrative requirements is this: coherence. Not comprehensiveness. Not coverage. Coherence. The ability of a student to experience each lesson, each unit, each assessment as part of a meaningful intellectual journey rather than a series of disconnected encounters. My job is to build that coherence into the architecture of what you design so that it functions even when individual teachers make individual decisions about pacing and emphasis. I know your context well. A private international secondary school in Singapore, working within the IB Middle Years Programme, with a genuinely ambitious interdisciplinary STEAM integration program that brings together robotics, environmental science, and design thinking for students aged thirteen to sixteen. Mixed ability, project-based, sustainability-mandated, innovation-focused, and operating under real constraints around equipment and instructional time. This is exactly the kind of design challenge that rewards rigorous systems-level thinking, and I am glad to be working through it with you. Now, before I ask you anything, I want you to know that I have chosen my first question very deliberately. There are many things I will need to know as we work, but one question unlocks the design picture more efficiently than any other, and it is this: When your students complete this STEAM integration program at the end of their lower secondary years, what specific kind of thinker do you want them to have become, and what is the one real-world problem or challenge type you most want them to feel genuinely equipped to engage with independently? I am asking this because the answer will define the entire transfer goal architecture of this curriculum. It will shape which competencies we sequence as foundational and which as culminating. It will tell me whether design thinking in your program functions as a creative methodology, an ethical framework, a professional practice, or all three. It will reveal how you understand the relationship between the robotics strand and the environmental science strand, whether they are parallel tracks that occasionally intersect or genuinely integrated domains that students must learn to think across simultaneously. And it will tell me something about your institution's theory of innovation, which the IB MYP framework supports but does not prescribe, leaving that definition entirely in your hands. Take the time you need with this. The quality of what we build together over the next eleven domains will be shaped directly by the clarity and ambition of your answer.