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Robotics education for every classroom

The future feels
different when
you build it.

SwayForm provides classroom-ready humanoid robotics systems for schools, STEM programs, and engineering labs. Students get to learn real robotics without prior experience through structured learning materials and hands-on problem solving.

Mission Statement Contact
40 structured labs
|
5 preloaded demos
|
4 skill levels
|
No background required
SwayForm humanoid robot
40+ labs included
Classroom-ready
Vision sensing
No cloud needed
40
Structured labs
Labs
5
Preloaded demos
Demos
4
Skill levels
Levels
15+
Students per unit
Per unit
2026
Pilot availability
Pilot
Learning preview video coming soon.
Learning Experience Preview

See what hands-on robotics learning can feel like.

SwayForm is built around the moment students stop watching technology and start controlling it. This preview shows the kind of hands-on learning the platform is designed for.

Concept preview. Final classroom footage will be added as pilot programs develop.

The Robot

More than just a humanoid robot.

SwayForm is designed with real, beginner experiences in mind. We provide structured labs, real sensing, and curriculum support every step of the way. Students connect code to physical motion from day one.

Code that works immediately

Students write code and watch joints move in real time. If the code fails, the robot shows it and students troubleshoot on their own — a lesson no screen can replicate.

Tools engineers use

The software foundation being taught is the same one used in professional robotics and research. What students build transfers directly to the field.

40 labs, fully structured

From day one to fully student-authored programs. Each lab has starter code, step-by-step guides, and a debug checklist. No curriculum to build from scratch.

SwayForm robot detail
40
Structured labs
5
Preloaded demos
4
Skill levels
What I cannot create, I do not understand.
Richard Feynman

Students understand robotics on a deeper level when their code moves real hardware. Rather than only observing concepts on a screen, students must transform their designs into a working system — revealing both the strengths and limitations of their understanding.

Why it matters

Schools that build, build better futures.

AI and robotics are no longer niche fields. Programs that give students hands-on experience with real systems are giving students a serious advantage.

01

The gap between knowing and doing is real

Students can read about ROS 2 and servo control without understanding any of it. The moment their code causes a physical robot to respond — or fail — is when real understanding forms.

02

Physical debugging teaches differently

When a simulation breaks, students restart it. When a robot breaks, students have to figure out whether the problem is in the code, the wiring, the calibration, or the mechanical limits. That diagnostic process is what engineers actually do.

03

AI and robotics are becoming workforce skills

These are not electives anymore. Hands-on experience with real hardware and real middleware gives students a meaningful head start in fields that are hiring and changing fast.

The learning process

Students don't just learn robotics.
They see it respond.

Every lab follows the same cycle. Students run something that already works, then take it apart and rebuild it their own way.

01
Run the demo
Watch the robot respond to preloaded code
02
Read the code
Understand why the robot did what it did
03
Modify it
Change a parameter, observe the difference
04
Debug it
Diagnose when something goes wrong
05
Build their own
Write a new behavior from scratch
Flexible by design

One robot is enough to start.

SwayForm adapts to the program — weekly club, semester course, or advanced student team. One unit supports meaningful learning from day one.

One robot

Robotics club

Students rotate roles each session — driver, coder, observer, debugger. One robot supports an active after-school team of 10–15 students without anyone sitting idle.

  • Rotating roles keeps everyone engaged
  • Weekly labs with clear goals
  • End-of-term demo showcase
One robot in the room

Classroom station

Used as a shared lab station, live demo platform, or rotating group project. One unit supports a full class with structured time slots.

  • Groups work while others plan or review
  • Live demo as a teaching tool
  • Structured rubrics and team roles included
Student-led

Independent exploration

Advanced students work independently. The platform, Learning Hub, and lab structure guide them — no robotics expert required.

  • Full SSH and terminal access
  • Open ROS 2 authoring — no restrictions
  • Documented hardware interfaces
Instructor-guided

Structured labs

Teachers run the full curriculum without building anything from scratch. Labs come with learning objectives, starter code, step-by-step guides, rubrics, and debug checklists.

  • 40 pre-built lab modules
  • Instructor notes and session guides
  • No robotics background required to start
Preloaded demos

Five programs ready on day one

These are not showpiece animations. They are starter programs students can inspect, modify, and rebuild. Every SwayForm unit is built to run all five from day one.

Run the demo → Watch the robot respond → Open the source code → Modify the behavior → Build your own version
01

Wave

A smooth arm wave sequence. The first demo students run — and the first code they modify.

Start here
02

Greet

Head turn, arm raise, and spoken output — all triggered by a single ROS 2 message.

Topics + audio
03

Face Track

The robot finds a face and follows it. Students discover how vision shapes real-time decisions.

Vision pipeline
04

Proximity

The robot adjusts behavior based on how close someone is. Students explore how sensors drive reactions.

Sensor + state
05

Present

A presentation command triggers a matching gesture and spoken callout. Students combine motion and audio in one behavior.

Full behavior
See the full lab and demo guide →
Learning path

40 labs. Four levels. One coherent path.

Every level builds directly on the last. Students can enter at any level, but most find value in starting at Level 1 even if they already know Python.

Level 1 — Control
Drive the hardware
SSH in, write joint commands, author motion sequences. First contact with real hardware.
10 labs · 5 preloaded demos
Level 2 — React
Add sensors
Build reactive behaviors that respond to distance, IMU, and face detection in real time.
10 labs · varied difficulty
Level 3 — Perceive
Build vision systems
OpenCV pipelines, depth-based tracking, state machine design, and multi-sensor integration.
10 labs · project track begins
Level 4 — Create
Author full systems
Fully student-written programs, multi-node architecture, and a live demo showcase.
10 labs · final showcase
See the full lab library →
Why SwayForm

Not every robotics experience teaches the same thing.

Screen-only learning and basic kits both have value. But the type of understanding they build is genuinely different from working with a real system.

Option A
Screen-only learning

Simulations, tutorials, coding platforms. Easy to access and scale. No setup required.

Zero setup, widely accessible
Safe for unlimited experimentation
No physical limits, wiring, or calibration
Sensor noise and real failure modes absent
Students miss the diagnostic process
No connection between code and physical motion
Option B
Basic robotics kits

Assembly-based kits, line followers, arm kits. Good introduction to hardware concepts.

Hands-on physical experience
Teaches assembly and basic circuits
Usually limited to specific pre-defined tasks
No real perception or vision pipeline
No professional middleware (ROS 2)
Students outgrow them quickly
SwayForm
Real humanoid platform

A humanoid robot platform with 40 structured labs, real sensing, and curriculum — ready for classroom use.

Real physical consequences of code choices
Industry-standard robotics software (ROS 2) — skills that transfer
Vision, audio, depth, and IMU in one system
40-lab structured curriculum included
Students debug real wiring and sensor noise
Scales from beginner to advanced system design
Common questions

Questions we get asked.

Who is SwayForm designed for?
High school engineering programs, community college robotics courses, student clubs, STEM labs, and any educational setting where students can work with real hardware regularly. It is not a consumer product.
Does one robot support a whole class?
Yes. One unit can support a club of up to 15 students with rotating roles, or a classroom where groups take turns. Programs can add more units later when they are ready to scale.
What background do instructors need?
Comfort with a Linux terminal is enough to start. No prior ROS 2 or robotics experience required — lab materials cover every concept in the order students encounter it.
Does it need internet access?
The robot is designed to run locally for classroom use. No cloud connection is needed once the system is set up.
What comes with the unit?
Ubuntu, ROS 2, all drivers, and five demo programs pre-installed. Lab materials, setup documentation, and direct support included. Currently in pilot development — broader availability targeted for Fall 2026.
Is SwayForm available to order now?
We are currently working with pilot programs and finishing hardware revision 2. Fall 2026 is the target for broader availability. Submit an interest form and we will keep you updated on timing.
Can the labs fit into an existing course?
Yes. The four levels are modular. Programs can start at any level, use selected labs as part of an existing syllabus, or run all 40 in order. All materials are available for instructor adaptation.
What happens if a component breaks?
Every component is a standard off-the-shelf part with a documented replacement procedure. No proprietary connectors. SwayForm provides a repair guide, replacement parts, and direct support.
Explore SwayForm

Everything the platform offers.

From hardware reference to structured curriculum to program information — each section is built to be technically useful.

Hardware

The Robot

21 degrees of freedom, Intel D435i depth camera, Raspberry Pi 5, ROS 2. Interactive anatomy, joint reference table, servo specs, and wiring architecture.

Explore the robot → Curriculum

Learning Path

40 structured labs across four skill levels — from first SSH connection to multi-node ROS 2 systems with sensor feedback loops and autonomous behaviors.

View the curriculum → Mission

Mission Statement

Why SwayForm Robotics exists, what kind of education it is designed to support, and who the platform is built for.

Read our mission → Programs

Contact & Demos

Request a demo unit or express pilot interest for your school, college program, robotics club, or STEM lab. Follow-up within five business days.

Get in touch →
Fall 2026 Pilot

SwayForm is in active pilot development.

We are working with a small set of early programs as we finalize hardware revision 2 and prepare for broader availability in Fall 2026.

  • Full robot control — students program real movement from day one
  • 5 preloaded demo programs, ready to run and modify
  • 40 structured labs from basic control to full system design
  • Runs locally — no cloud subscription required
Explore the platform
Bring it to your program

Get in touch.

Running a robotics club, engineering class, or lab program? Fill this out and we will follow up within five business days.