How deep the work goes
A family comparing programmes needs to know what level of work the student actually does, because “my child made a chip” can mean anything from colouring in a template to a measured piece of research. We use the four levels below, and we say which weeks reach which level.
| What the student actually does | What it shows | Where Magellan Silicon reaches it |
|---|---|---|
| 1 · Follows a kit completes a given circuit or modifies an example | Knows the tools and the basic flow. A worthwhile introduction, and the level most youth electronics stops at. | Weeks 1–4, as the foundation only |
| 2 · Designs and debugs chooses a function, describes the hardware, simulates, fixes it | Real engineering ability: the student made the design decisions and can explain them. | Weeks 5–8. Every Magellan Silicon student reaches this level with their own project |
| 3 · Investigates poses a question, compares designs, measures performance, power or resources, explains the result | Research and engineering enquiry. This is what science-fair judges and journal reviewers evaluate. | Weeks 9–12 and after the silicon returns; the outcomes pack is built around this level |
| 4 · Fabricates and tests submits the design, receives the chip, measures silicon against simulation | A complete implementation experience. The chip is evidence, and its research value still depends on the originality and verification of levels 2 and 3. | Week 13 and the return of silicon, for every student |
Having a chip in hand is not by itself high-level research; what makes it research is the question, the comparison and the measurement at level 3, which the chip then proves at level 4. Magellan Silicon is built so that every student reaches level 2 with their own design and level 4 with their own silicon, and so that the outcomes pack and the research track take a student as far into level 3 as their work allows.
Who does what: the student, the mentor and the AI
Competitions and journals require that a project be the student’s own work with help disclosed, and admissions readers ask the same question in their own way. The division below is written into the programme and generated into each student’s disclosure statement from the Studio’s records.
| Who | Does | Does not |
|---|---|---|
| The student | Chooses the question; makes every design decision; writes the hardware description or assembles it from verified blocks; runs and reads the simulations; records decisions and failures in the notebook; measures the prototype and the chip; writes the design document and, for competitions, the research plan, abstract and poster. | Receive a design to copy; have documents written for them. |
| The mentor (an engineer from the group’s Taipei team) | Reviews, questions, points out what is missing, signs off the design for fabrication, and is named in the disclosure statement. | Design the student’s circuit or fix it for them. |
| The AI assistant (inside the Magellan Silicon Studio) | Explains concepts and error reports; generates test vectors from the student’s data; runs the tools; asks why before it helps; records every exchange for the disclosure statement. | Design for the student; write competition documents (the 2027 ISEF rules do not allow it, and neither do we). |
What students take away
We describe outcomes at three levels of certainty, and we keep the distinction on every page and in every agreement.
What every student receives. A chip of their own design, with its development board; a working FPGA prototype; an engineering notebook and design documentation; a disclosure statement covering AI and mentor involvement; a public project page; a certificate and a place in the cohort showcase; and continued access to the Magellan Silicon Studio for the next design. Together these make a finished project in the form that science fairs, robotics competitions and student journals expect, and the student can go on to enter them—with the programme’s support through the outcomes pack, or independently.
What the outcomes pack supports. Entry through the student’s regional ISEF-affiliated science fair, or to an open-hardware robotics competition such as WRO Future Innovators or RoboCupJunior Rescue Maze, and submission of the project to a peer-reviewed student journal or an open-hardware conference. We publish each cohort’s participation and acceptance figures once they exist.
The highest goals. For a project that has become real research, the goals we help families aim at are the top awards of the established international research competitions—Regeneron ISEF above all, with Regeneron STS, EUCYS, the Yau Science Award and Davidson Fellows where the student is eligible—and, for the rare mature project, a professional paper at a venue such as FPGA, DAC or ICCAD. No youth chip competition carries the weight of an IMO or IOI gold, and we do not pretend otherwise; these are the recognised targets, and each depends on the student. The highest goals, eligibility and the routes to them ↗
Where the finished project can go next
A completed Magellan Silicon project is not the end of the road; it is the entry ticket. With a working chip, measured data, an engineering notebook and a design document, a student is in a position to take the work on to the competitions, programmes and venues below. Eligibility depends on age, where the student studies and each organiser’s rules, and we map the route with each family before dates are fixed. Full details, eligibility and achievement levels ↗
| Route | Where the project can go | Typical timing |
|---|---|---|
| Research competitions | The regional ISEF-affiliated science fair (TISF, SSEF, the Hong Kong competition, JSEC, US state fairs, CWSF, Jugend forscht and others), leading to Regeneron ISEF; Regeneron STS for US-eligible final-year students; EUCYS by national nomination; the Yau Science Award; Davidson Fellows; the Thermo Fisher Junior Innovators Challenge and 3M Young Scientist Challenge for US middle-school students. | The fair season after the silicon returns |
| Robotics competitions | WRO Future Innovators (any controller, from age 8), WRO Future Engineers and RoboCupJunior Rescue Maze, where the student’s own hardware can be central; FIRST leagues as a sensing or co-processing module. | The next national season |
| Publication | A first paper in a peer-reviewed student journal such as the Journal of Emerging Investigators, or a talk at an open-hardware conference; for the rare mature project, a professional venue such as FPGA, DAC, ICCAD or ICRA. | Three to nine months after the silicon returns |
| Within the group | The Taipei silicon week; the next design on the Studio; later, introductions to GSRP-related internships and the group’s talent network for outstanding participants; co-authorship of MTRI’s research on the programme where a student’s contribution warrants it. | From the following cohort onwards |
Why a chip of their own matters
Most students never enter a research competition at all. Of those who do, almost every engineering project is built on a standard microcontroller, so it competes with thousands of others built the same way. A project that answers its question with a chip the student designed, and that compares a bought controller, an FPGA implementation and the student’s own silicon on measured latency, energy or accuracy, is rare enough to be remembered—and it carries evidence that no kit can provide. Judges at the major fairs reward exactly that: a clear question, alternatives considered, real tests, and a student who understands and can defend every decision.
The same holds in robotics. Most leagues fix the robot’s main controller, so the student’s chip appears there as a sensor or co-processing module that measurably improves the robot; competitions such as WRO Future Innovators allow any controller and reward an original solution to a real problem. Either way, the student can explain every step from idea to silicon, because they took every step. That understanding of how things are made is what remains when the chip is in a drawer—and it is what shapes how a generation of young people will think about the hardware underneath AI.
Alongside school
Magellan Silicon is designed to sit beside a full school programme, not replace it, and it supplies the mentors, tools and fabrication so that a family does not have to assemble those resources itself. The time commitment is about four hours a week for twelve weeks, plus about ten hours for the outcomes pack after the chip returns. No subject is a prerequisite beyond basic programming; the subjects below make the project richer, and the project in turn gives those subjects somewhere to go. A letter describing the programme is available for schools, and we work with a school’s own science or research teacher where one is involved.
| School system | How Magellan Silicon fits | Subjects that support the project (none required) |
|---|---|---|
| A-Level / IB / local systems in Singapore, Hong Kong, Taiwan, Japan | About four hours a week for twelve weeks, online, outside school hours; cohorts timed around examination seasons where possible. | Mathematics, Further Mathematics, Physics, Computer Science; IB Physics and Mathematics AA |
| US and Canadian high schools | Fits a semester; the fair season after the silicon returns aligns with regional fairs in the following spring. | Algebra II / Pre-calculus, Physics, AP Computer Science or Physics C |
| Middle school (ages 12–13) | The same twelve weeks with a smaller project and a mentor who checks pace weekly. | Interest in building things; Scratch or Python or a robotics platform |
What we do not promise
Magellan Silicon does not guarantee awards, publication or admission to any school or university. Competitions and journals require that a project be the student’s own work with mentoring disclosed, and the programme is built to meet that standard rather than to work around it. Fabrication on shared wafers can be delayed; if both booked routes fail, the silicon portion of the fee is refunded or the design is placed on the next run, at the family’s choice. Fees, dates and formats are confirmed for each cohort before enrolment.
What Magellan Silicon is not
- Not a kit. Kits teach assembly; Magellan Silicon teaches design, and the chip that returns contains the student’s own design.
- Not a guarantee. No award, publication or admission is promised; eligibility for every competition depends on age, where the student studies and the organiser’s rules, and we map it before dates are fixed.
- Not a substitute for school science. It is a project that uses what school teaches.
- Not a finance or trading course. The worked example uses market data because it makes latency easy to understand; the rules in it are an input, no claim is made that they make money, and no student trades.
- Not an AI that designs for the student. The assistant explains, checks, records and asks why; the student designs.