Major Specific Prep
04. Major‑Specific Preparation
Tyler, because you are currently exploring interests and have not committed to a specific academic direction yet, the smartest move during your first years of high school is to build a
The committee noted that if creative technology or game development becomes something you enjoy pursuing more seriously later in high school, then stronger preparation in math and computer science will be especially valuable. Even if you ultimately choose a different direction, these subjects build analytical habits and problem‑solving skills that transfer to many fields.
Right now, the goal is not to “lock in” a major. Instead, focus on keeping doors open while discovering what kinds of problems and tools you enjoy working with.
1. Build a Strong Math Progression
Mathematics is the backbone for most technology‑related majors. Colleges like the University of Colorado Boulder and Colorado State University expect students interested in technical fields to arrive comfortable with quantitative reasoning.
You have not provided your current or planned math course sequence. That information will be important to track. As you plan future schedules with your counselor at your high school, consider choosing the most challenging math courses that feel manageable and interesting.
A typical strong progression for technology‑oriented exploration might look like this:
| Grade | Course Direction to Consider | Why It Matters |
|---|---|---|
| 9 | Algebra II or Geometry (depending on placement) | Builds algebraic reasoning used heavily in programming and engineering. |
| 10 | Precalculus or Honors Precalculus | Introduces functions and modeling that appear in physics, graphics, and algorithms. |
| 11 | AP Calculus AB/BC or equivalent | Calculus underpins physics engines, simulations, and many engineering fields. |
| 12 | Advanced math such as Statistics, Multivariable, or Linear Algebra (if offered) | Supports fields like data science, machine learning, and advanced programming. |
If your school offers multiple levels (standard, honors, AP, dual enrollment), consider selecting the most challenging option that allows you to stay curious and confident. The goal is steady growth rather than rushing ahead too quickly.
2. Explore Programming Early
You have not yet provided information about computer science classes or coding experience. If programming is available at your high school, exploring at least one introductory course during the next year or two could be very helpful.
Introductory programming courses often teach languages like Python, Java, or JavaScript. These help develop skills such as:
- Logical problem solving
- Breaking complex tasks into smaller steps
- Debugging and iterative thinking
- Understanding how software systems work
For students who eventually enjoy areas like game design, robotics, artificial intelligence, or app development, early exposure to coding can make advanced classes later in high school much more comfortable.
If your school offers multiple computer science options, you might consider a progression like:
| Stage | Possible Course Types | Skill Development |
|---|---|---|
| Introductory | Computer Science Principles or Intro Programming | Basic coding concepts and computational thinking |
| Intermediate | AP Computer Science A or object‑oriented programming | Structured software development |
| Advanced | Specialized electives (data science, robotics, game programming) | Applying programming to real systems |
If your school does not offer many computer science classes, online learning platforms can supplement your experience. The key is simply trying programming early enough to see whether it excites you.
3. Technical Foundations That Support Game Development or Creative Technology
If you later discover that creative technology or game development interests you, several foundational subjects will become especially useful. Many students imagine game development as mostly art or storytelling, but the underlying systems rely heavily on mathematics and programming.
Areas worth gradually exploring include:
- Algebra and calculus — used for physics simulations, movement systems, and graphics.
- Programming logic — building interactive systems and game mechanics.
- Physics — important for realistic motion and simulation.
- Digital design tools — helpful if visual creativity becomes part of your interests.
You do not need to master all of these right now. Instead, notice which classes or tools make you feel curious enough to keep experimenting.
4. Competitions and Skill‑Building Opportunities
You have not yet provided information about participation in technical competitions or STEM clubs. These experiences can be a fun way to practice skills you learn in class while meeting other students who enjoy similar challenges.
If opportunities exist at your high school or in your community, you might consider exploring:
- Programming competitions
- Robotics teams
- Technology or coding clubs
- Math competitions or math club
The goal is not to collect awards but to experience different types of problem solving. Some students discover they love building robots, while others enjoy writing code or solving mathematical puzzles.
5. Technical Skills That Keep Multiple Majors Open
Because you are currently undecided about your future major, it helps to focus on a set of transferable technical skills. These are useful in many different academic directions and will make your college coursework easier later on.
| Skill Area | Why It Matters | Where You Might Learn It |
|---|---|---|
| Programming | Used in computer science, engineering, research, and data analysis | School CS courses or online platforms |
| Mathematical modeling | Helps explain real‑world systems in science, economics, and technology | Advanced math classes |
| Computational thinking | Breaking complex problems into logical steps | Coding, robotics, or algorithm challenges |
| Data literacy | Understanding patterns and interpreting information | Statistics or data‑focused projects |
Developing these abilities during high school makes it much easier to transition into a wide range of majors once you reach college.
6. Information You Have Not Provided Yet
To refine your preparation plan over time, it would help to know more about:
- Your current math course and the next courses available at your high school
- Whether your school offers computer science or programming classes
- Any STEM clubs, robotics teams, or coding groups you might consider joining
- Whether you have already experimented with coding tools or game engines
As you move through high school, keeping track of these details will make it easier to shape a learning path that matches what you genuinely enjoy.
Monthly Exploration Calendar (Freshman–Sophomore Development)
| Month | Actions | Target Outcome |
|---|---|---|
| September |
• Review your current math placement with a counselor • Look for any coding or STEM clubs at your high school |
Understand the academic pathways available |
| October |
• Try a beginner programming tutorial • Attend a meeting of a math, robotics, or tech club if available |
Initial exposure to coding and technical communities |
| November |
• Explore different programming languages online • Reflect on which subjects in school feel most engaging |
Identify early interests |
| December |
• Speak with a teacher about future math or CS classes • Research technology‑related majors at CU Boulder and CSU |
Better understanding of possible academic paths |
| January |
• Plan next year’s course selections • Consider choosing the most challenging math or programming option available |
Course plan that keeps technical paths open |
| February |
• Try a small coding challenge or puzzle platform • Continue exploring STEM club activities |
Strengthen logical problem‑solving skills |
| March |
• Learn about different areas of technology (software, engineering, game development) • Ask teachers or mentors about their experiences in these fields |
Broaden understanding of possible directions |
| April |
• Reflect on which classes you enjoyed most this year • Start exploring summer learning opportunities in programming or math |
Plan meaningful summer exploration |
| May |
• Finalize next year’s course schedule • Set one skill goal for the summer (coding basics, math enrichment, etc.) |
Clear academic and skill direction |
Tyler, the most important idea at this stage is simple: follow curiosity while building strong fundamentals. By steadily strengthening your math and programming skills, you give yourself the flexibility to explore many different majors over the next few years—including creative technology fields if they end up being something you really enjoy.