Final admission deadline
17 May 2026
Latest verified general application deadline
Biomedical Engineering High School Course
A hands-on biomedical engineering course where high school students design prototypes and explore medical devices, biomaterials, anatomy, and healthcare innovation.

A hands-on biomedical engineering course where high school students design prototypes and explore medical devices, biomaterials, anatomy, and healthcare innovation.

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Current status
Closed
Eligibility
Grades 9-12; 3.0 GPA
Age range / Year group
Ages 14-18
Location / Region
Atlanta; Durham
Cost
$2,998-$5,798 + $250
Duration
Two weeks
Format
In-person
Accommodation: Residential and commuter options
Meals: All meals or weekday lunch
Certificate / Outcome: Certificate and recommendation letter
Main output: Basic biomedical prototype
Campus experience: Classes, excursions, workshops, activities
This is a practical introduction to biomedical engineering, combining engineering, medicine, technology, and life sciences through interactive teaching and lab-style work.
Students investigate medical devices and emerging research, then collaborate on design challenges that can culminate in a basic prototype such as a prosthetic hand.
It suits students who want to test biomedical engineering before university and prefer applied projects, career exploration, and campus-based learning over lecture-only study.
The Biomedical Engineering High School Course is a Summer Springboard pre-college experience focused on the intersection of engineering, medicine, technology, and life sciences. Students explore how engineering principles can address practical healthcare problems.
Interactive lectures, lab-style workshops, experiments, and collaborative projects connect theory with medical technology. Students may design a prototype such as a prosthetic hand while investigating anatomy, biomaterials, implantable devices, regenerative medicine, research ethics, and biomedical careers.
The course turns biomedical engineering into a tangible design experience through prototype building and hands-on problem-solving.
Its curriculum connects engineering with anatomy, biomaterials, medical devices, computer science, and emerging healthcare technology.
Students examine both technical innovation and ethical considerations, giving the subject more depth than a general STEM taster.
Campus life, academic excursions, college-readiness workshops, and social activities create a broader pre-college experience.
Published learning outcomes clearly describe the capabilities students should develop.
Students curious about engineering, medicine, life sciences, or medical technology who want practical design work and an introduction to biomedical careers.
You want university credit, a narrowly theoretical course, or a low-cost non-residential option without additional application charges.
This course can be worthwhile for a student seriously testing biomedical engineering because it combines subject exploration with prototype work, current research, and career context. The defined learning outcomes also give students useful prompts for later reflection in applications or interviews.
The main limitation is value for money: tuition, the mandatory course supplement, deposit, application fee, and possible travel make this a substantial commitment. It should be chosen for the curriculum and practical experience, not simply for the university campus name, and it does not carry college credit at these campuses.
A practical overview of cost, accommodation, meals, dates and provider details to review before deciding.
Cost and what is included
$2,998-$5,798 + $250; includes Residential tuition includes the academic course, lodging, all meals, excursions, and weekend excursions., Commuter tuition includes the academic course, lunch, excursions, and weekday programming from 9:00am to 5:00pm., All students receive a completion certificate and a professor-completed recommendation letter..
Accommodation
Residential and commuter options
Meals
All meals or weekday lunch
Provider details
Review the Summer Springboard provider page and official sources before making a final decision.
Dates and logistics
Two weeks; Atlanta; Durham.
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 academic and personal commitment.
Best started
Begin six to eight weeks before the next application deadline to compare campuses, plan costs, gather forms, and arrange travel if needed.
Main challenge
Moving between engineering, biology, chemistry, mathematics, and computer science concepts while building a workable prototype.
Review the admissions criteria and discuss any support or accommodation needs early.
Refresh core biology, mathematics, and basic engineering concepts before the session.
Prepare questions about biomedical careers and examples of healthcare problems you would like to solve.
Useful if
You enjoy applied STEM work and can contribute responsibly to group projects.
Students move from biomedical engineering fundamentals to applied design, using lectures, workshops, experiments, and collaborative projects to investigate healthcare technology.
Explore how engineering, mathematics, chemistry, computer science, and biology interact in healthcare.
Study anatomy, biomaterials, medical devices, tissue engineering, and regenerative medicine.
Analyze implantable devices and emerging technologies such as wearable sensors and 3D-printed biological structures.
Apply design and problem-solving methods to healthcare challenges.
Collaborate to design and build a basic biomedical prototype.
Discuss current research, ethical questions, and possible career pathways.
Join campus enrichment, academic excursions, and college-readiness activities.
Next cycle not announced yet. These dates are from the latest verified cycle and should be used as a reference only.
Final admission deadline
17 May 2026
Latest verified general application deadline
Georgia Tech session
14-26 June 2026
Two-week Atlanta course
Duke Session 1
28 June-10 July 2026
Two-week Durham course
Duke Session 2
12-24 July 2026
Two-week Durham course
| Milestone | Date | Timezone | Status | |
|---|---|---|---|---|
Final admission deadline | 17 May 2026 | Local | Reference date | |
Georgia Tech session | 14-26 June 2026 | Local | Reference date | |
Duke Session 1 | 28 June-10 July 2026 | Local | Reference date | |
Duke Session 2 | 12-24 July 2026 | Local | Reference date |
Students in Grades 9-12
Students entering high school may apply
Recent high school graduates may apply
Minimum 3.0 GPA or local equivalent
International applicants must demonstrate English proficiency
Applicants must satisfy essential eligibility criteria
Program tuition
$2,998-$5,798 — Varies by campus and residential choice
Funding or discounts
What's included
Residential tuition includes the academic course, lodging, all meals, excursions, and weekend excursions., Commuter tuition includes the academic course, lunch, excursions, and weekday programming from 9:00am to 5:00pm., All students receive a completion certificate and a professor-completed recommendation letter.
Open the Summer Springboard application portal and enter basic contact information.
Confirm the verification email and complete the account details.
Create a new application from the dashboard.
Select the campus, session, Biomedical Engineering course, and tuition type.
Enter the student information with the student present.
Pay the $600 deposit and application fee, then submit the completed application.
Complete any additional enrollment and pre-departure forms after acceptance.
The program covers the following focus areas.
Biomedical design
Apply engineering design and problem-solving to healthcare challenges.
Anatomy and biomaterials
Examine human anatomy, material properties, and medical device functions.
Medical technology
Explore prosthetics, pacemakers, artificial joints, and wearable devices.
Regenerative medicine
Investigate tissue engineering, stem-cell technologies, and 3D-printed organs.
Research and ethics
Analyze current research, innovation trends, ethics, and biomedical careers.
Curriculum may be adjusted based on participant interests and current developments.
A typical day during the program.
Students take part in college-style, hands-on subject learning.
Students eat together in a campus dining hall.
Activities can include excursions, recreation, college readiness, or personal development.
Dinner, clubs, social activities, and dorm checks structure the evening.
The Georgia Tech course lists Dr. Tara Urner, a biomedical engineering postdoctoral researcher working on wearable optical sensors for monitoring brain health. Duke recruits instructors from colleges, universities, and professional settings based on subject expertise and their ability to challenge and engage students.
The named Duke instructor had not been announced in the latest verified information.
Room configuration differs by campus; residential students should review their assigned campus information before travel.
After completing this program, participants often pursue:
Use the prototype experience as evidence of applied subject exploration.
Reflect on biomedical engineering careers and possible university pathways.
Build understanding across engineering, medicine, biology, and technology.
Receive a completion certificate after finishing the program.
Receive a professor-completed recommendation letter.
The Duke and Georgia Tech courses do not award college credit.
Verified course sessions have run on the Georgia Tech campus in Atlanta and the Duke University campus in Durham. Both settings combine university facilities with city and regional excursions, while residential students live and dine on campus.
Summer Springboard states that its programs are not run by Duke University or Georgia Tech.
Compare these related programs if you want a different balance of engineering depth, medical exploration, location, or cost.
University-style engineering study across core disciplines
Best for
Students comparing biomedical engineering with other engineering pathways
Medical and healthcare exploration with leadership practice
Best for
Students more interested in medicine than device engineering
Medical subject exploration in a university setting
Best for
Older students testing medicine as a university subject
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Content reviewed by
Co-founder, Succeed | Founder, Immerse Education (2012–2026)
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.
Succeed uses official provider information where available, but keeps this public page focused on comparison and planning inside Succeed.
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We use source material to verify core facts, then show older cycle dates as reference when a current cycle is not available. Always check current application instructions before applying.