Applications
Rolling admissions
Applications were accepted until courses filled.
Robotics High School Course
Build, wire and program autonomous robots through hands-on challenges, specialist visits and a team project in a focused pre-college engineering course.

Build, wire and program autonomous robots through hands-on challenges, specialist visits and a team project in a focused pre-college engineering course.

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Current status
Applications open
Eligibility
Grades 9-12; 3.0 GPA
Age range / Year group
Ages 14-18
Location / Region
San Luis Obispo, California
Cost
$2,998; $5,398
Duration
Two weeks
Format
In-person
Application deadline
Rolling · Next cycle not announced yet. These dates are from the latest verified cycle and should be used as a reference only.
Save programAccommodation: Shared campus dormitories
Meals: Residential full board
Certificate / Outcome: 3 CEUs plus certificate
Latest verified cycle: 2026
Sessions / cadence: 9 x 3-hour classes
Assessment style: Practical team project
Main output: Autonomous robot demonstration
A practical pre-college course covering the electronics, mechanics and programming behind autonomous robots.
Students build and wire robots, integrate motors and sensors, troubleshoot systems and complete daily hands-on challenges.
The experience suits students who want concentrated engineering practice and a realistic introduction to robotics careers and university campus life.
The Robotics High School Course is a focused Summer Springboard experience delivered in partnership with Cal Poly Extended Education. It introduces the electronics, mechanics and programming that allow autonomous machines to sense, move and respond.
Students learn through practical construction, wiring, coding and testing rather than lectures alone. Daily challenges lead toward a team-built autonomous robot, supported by visits exploring agricultural mechatronics, computer vision, AI and commercial robotics.
The course combines electronics, programming and mechanical assembly in one integrated robotics experience.
Nine three-hour classes provide substantial time for practical building, testing and debugging.
The final autonomous robot project gives students a concrete way to demonstrate applied learning.
Visits to the agricultural mechatronics lab and TRIC Robotics connect course concepts with real applications.
Cal Poly professor Dr. Bo Liu brings expertise in robotics, automation and AI for precision agriculture.
High school students who enjoy building, coding and solving practical engineering problems, including beginners seeking a structured introduction to autonomous systems.
You want a broad multi-subject summer experience or prefer theory without extended hands-on teamwork, testing and debugging.
It can be worthwhile for students who want enough time to move beyond simple robot assembly and understand how electronics, sensors, motors and code work together. The final project, specialist visits and named faculty expertise give the course a coherent academic focus.
The limitation is that this is a concentrated experience with substantial tuition, especially for residential attendance. Its value therefore depends on whether a student genuinely wants robotics depth and will use the project, credentials and career insight afterward.
A practical overview of cost, accommodation, meals, dates and provider details to review before deciding.
Cost and what is included
$2,998; $5,398; includes Residential: academic program and excursions, Residential: lodging and all meals, Residential: evening and weekend activities, Commuter: academic program and excursions, Commuter: weekday lunch and college-readiness workshops, Both options: orientation and college tours.
Accommodation
Shared campus dormitories
Meals
Residential full board
Provider details
Review the Summer Springboard provider page and official sources before making a final decision.
Dates and logistics
Two weeks; San Luis Obispo, California.
What to check before committing
Confirm current dates, payment terms, travel arrangements, cancellation rules and what is included with the provider.
Compare this program with similar options before deciding on dates, cost, format and fit.
Compare with similar programsEffort level
Moderate to high.
Best started
Begin planning two to three months before the anticipated application window, allowing time for forms, travel, payment and any international documentation.
Main challenge
Integrating mechanical, electronic and software components into one reliable autonomous system.
Refresh basic programming ideas such as variables, conditions and input/output.
Practice explaining technical problems clearly so your team can test fixes methodically.
Prepare for shared campus life, long structured days and practical collaboration.
Students progress from core electronic and programming concepts to an integrated autonomous machine, testing each subsystem through practical challenges.
Learn voltage, current, breadboarding and safe wiring fundamentals.
Program digital and analog inputs, PWM and timing controls.
Connect motors, motor drivers and sensors to the robot.
Build and tune the chassis, locomotion and odometry systems.
Test sensor-actuator loops and debug hardware and software faults.
Design and demonstrate a team robot that navigates and makes decisions independently.
Visit robotics and agricultural mechatronics facilities for real-world context.
Next cycle not announced yet. These dates are from the latest verified cycle and should be used as a reference only.
Applications
Rolling admissions
Applications were accepted until courses filled.
General admission
16 May 2026
Final deadline for the verified 2026 cycle.
Session 2
19-31 July 2026
The published Robotics course session.
| Milestone | Date | Timezone | Status | |
|---|---|---|---|---|
Applications | Rolling admissions | Local | Reference date | |
General admission | 16 May 2026 | Local | Reference date | |
Session 2 | 19-31 July 2026 | Local | Reference date |
Students in Grades 9-12
Minimum 3.0 GPA or local equivalent
At least completed Grade 8 before the program
Students entering high school in fall may enroll
Spring high school graduates may enroll
International students must demonstrate English proficiency
Applicants must meet essential eligibility criteria
Program tuition
$2,998; $5,398 — Commuter and all-inclusive residential options.
Funding or discounts
What's included
Residential: academic program and excursions, Residential: lodging and all meals, Residential: evening and weekend activities, Commuter: academic program and excursions, Commuter: weekday lunch and college-readiness workshops, Both options: orientation and college tours
Create the application account using a parent’s name, email and date of birth.
Verify the email address, set a password and complete the parent profile.
Add the participating student and start a new application.
Select Cal Poly, the preferred session, Robotics and the tuition type.
Pay the application fee and deposit to reserve a place, or complete the full application immediately.
Complete the medical questionnaire and student-answered application questions.
Submit all required forms and await the decision by email.
The program covers the following focus areas.
Electronics and microcontrollers
Learn voltage, current, breadboarding, wiring safety and embedded control foundations.
Robot programming
Control hardware using digital and analog input/output, PWM and timing.
Motors and sensors
Integrate motors, drivers and sensors into responsive autonomous control systems.
Movement and navigation
Explore locomotion, odometry, path execution and foundational robot navigation.
Integration and debugging
Assemble complete systems and isolate hardware or software faults safely.
Curriculum may be adjusted based on participant interests and current developments.
A typical day during the program.
Robotics classes run Monday-Friday in week one and Monday-Thursday in week two.
Students join an academic excursion or recreational activity.
College-readiness or personal-development workshops follow the main activity.
Residential students take part in clubs and scheduled evening activities.
The named instructor is Dr. Bo Liu, a professor in Cal Poly’s BioResource and Agricultural Engineering Department. His work spans mechatronics, robotics, automation, AI and precision-agriculture applications.
Cal Poly faculty teach the partnership program and provide access to facilities used by Cal Poly students.
Residential students share dorm rooms with roommates and use common bathrooms.
After completing this program, participants often pursue:
Use the autonomous robot project as evidence of practical engineering exploration.
Add three Cal Poly Continuing Education Units to appropriate applications or résumés.
Receive a Summer Springboard certificate of completion.
Receive a participation letter describing course activities, projects and excursions.
Explore future study in robotics, mechatronics, automation or agricultural engineering.
The CEUs represent supervised contact hours but do not count toward a degree.
The course takes place at Cal Poly SLO in San Luis Obispo, between California’s coast and rolling hills. Students use a large university campus shaped by Cal Poly’s practical Learn by Doing approach, with residential and commuter ways to participate.
Course-specific and recreational excursions may visit locations around California’s Central Coast.
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Sean works at the intersection of academic enrichment, program quality and university preparation, with expertise in evaluating pre-university experiences for ambitious secondary school students.
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