Best for
University instructors, bootcamps, robotics clubs, K-12 STEM programs, and lab managers planning repeatable hands-on learning with real hardware.
Teach robotics with curriculum-ready hardware and structured learning paths
SVRC provides the hardware, documentation, and curriculum framework that lets you focus on teaching instead of troubleshooting equipment. Academic pricing, grant support, and classroom-tested platforms available.
What this page is: a starting point for educators who need teaching-friendly robotics paths, classroom-ready hardware, lab safety guidance, and a cleaner curriculum sequence.
What matters most
Hardware students can actually bring up safely, documentation easy enough to follow independently, and public troubleshooting when something breaks mid-lab.
How to use it
Start with Robotics Academy, decide which platform fits your class, then contact SVRC for academic pricing and teaching support.
Recommended next links: Robotics Academy, OpenArm 101, For Students, Forum, and Contact.
Why SVRC
Why SVRC for education
Most robotics education programs fail because of equipment problems, not curriculum gaps. The robot arrives, bringup takes 3 weeks instead of 3 hours, documentation is incomplete, a servo breaks, and there is no spare. SVRC solves this by providing classroom-tested hardware with complete documentation, fast setup, and a support path that works at academic timescales.
90% cheaper than research-grade alternatives
The OpenArm 101 costs $4,500 — compared to $20,000+ for a Franka Emika Panda or $25,000+ for a Universal Robots UR3e. With academic pricing (20% off), a classroom set of 5 OpenArm units costs $18,000 — less than a single Franka. You get ROS2 compatibility, 6-DOF manipulation, and 500g payload at a price that fits lab budgets.
Under 4 hours from unboxing to first teleoperation
Every SVRC platform ships with step-by-step bringup documentation. A student with basic Linux experience can go from unboxing to a working ROS2 teleoperation session in a single lab period. No pneumatics, no high-voltage, no special tooling required. Compare this to multi-day setup for industrial arms.
Complete, public documentation
Assembly guides, firmware setup, ROS2 integration, camera calibration, and data collection workflows — all published on the Developer Wiki and searchable by students. When something breaks, students can search the Forum for solutions from other institutions before filing a support request.
Spare parts and fast repair
SVRC stocks replacement servos, cables, and gripper assemblies for all platforms. A servo replacement takes under 30 minutes with our guide. If you need it faster, ship the unit to Mountain View for same-day assessment, or to Allston for East Coast turnaround. No more waiting 6 weeks for a replacement part from an overseas vendor.
Academic Pricing
Academic discount program
SVRC offers structured discounts for accredited educational institutions. Pricing applies to all hardware purchases and leases.
University and research institutions: 20% off
Available to accredited colleges, universities, and research institutions worldwide. Applies to all SVRC hardware: OpenArm 101 drops to $3,600, DK1 to $9,600, Unitree G1 to $12,800. Verification requires a purchase order from the institution or an email from a faculty .edu address. No minimum order quantity.
K-12 schools and programs: 30% off
Available to accredited K-12 schools, after-school STEM programs, and youth robotics organizations. OpenArm 101 drops to $3,150 per unit. Bulk orders of 5+ units receive an additional 10% volume discount (stackable). Contact us with your program details and we will issue a custom quote.
Classroom sets
A typical classroom set includes 5 OpenArm 101 units, a shared spare parts kit, and a semester license for the SVRC Data Platform. At university academic pricing: $18,000 for 5 units + spare kit (vs $22,500 retail). We can configure the set for your specific course requirements — different end-effectors, camera mounts, or sensor packages.
How to apply
Email contact@roboticscenter.ai with: (1) your institution name and accreditation, (2) your role (faculty, lab manager, department head), (3) what you want to order, and (4) your timeline. We respond within 1 business day with a formal quote. We accept institutional POs, credit cards, and wire transfers.
Classroom Platform
OpenArm 101 as your classroom robot
The OpenArm 101 is a 6-DOF robotic arm designed for research and education. At $4,500 ($3,600 with academic pricing), it is the most affordable ROS2-native research arm available. Here is why it works for classrooms:
Open-source everything
Hardware CAD files, firmware, ROS2 drivers, and data collection tools are all open-source. Students can study the full stack from mechanical design to control software. There are no proprietary black boxes, no license keys, and no vendor lock-in. This matters for teaching — students need to understand the system, not just use it.
ROS2-native from day one
OpenArm 101 publishes standard ROS2 message types for joint states, control commands, and camera feeds. Students learn the same ROS2 patterns used in industry and research — MoveIt2 for motion planning, rosbag for data recording, tf2 for coordinate transforms. Skills transfer directly to any ROS2-compatible robot.
Safe for supervised student use
500g payload, tabletop form factor, no pneumatics, no high-voltage. Emergency stop is software-accessible via Ctrl-C and optionally via a physical button. Joint limits are enforced in firmware. A 60cm workspace exclusion zone is all you need. OpenArm 101 is safer than running a kitchen mixer in a dorm room.
Franka alternative at 1/5 the cost
Many university robotics courses use the Franka Emika Panda ($20,000+) because it was the first good research arm with a ROS interface. OpenArm 101 offers 6-DOF manipulation, ROS2 integration, and data collection capability at $4,500. For courses focused on imitation learning, data collection, and robot learning, OpenArm is the better fit at 1/4 the cost.
Course Integration
How courses integrate SVRC hardware
SVRC hardware is used in robotics courses ranging from introductory undergraduate labs to advanced graduate seminars. Here are three representative integration patterns:
Intro to Robotics (Undergraduate)
Hardware: OpenArm 101. Duration: 15-week semester. Topics: forward/inverse kinematics, joint control, workspace analysis, basic teleoperation, and a final pick-and-place project. Students work in pairs, one arm per team. The course follows SVRC Academy layers A (Hardware) and B (Software). Learning outcomes: students can operate a robot arm, write ROS2 nodes, collect demonstration data, and evaluate task performance.
Robot Learning (Graduate)
Hardware: OpenArm 101 + DK1 bimanual. Duration: 10-week quarter. Topics: behavior cloning, DAgger, diffusion policies, data collection protocol design, and sim-to-real transfer. Students collect 200+ demonstrations and train imitation learning policies. Based on curricula at Stanford CS 236 and CMU 16-831 patterns. Learning outcomes: students can design a data collection protocol, train a policy from demonstrations, and evaluate transfer quality.
High School STEM / Robotics Club
Hardware: OpenArm 101 (with K-12 pricing at $3,150). Duration: 8-12 weeks. Topics: robot safety, basic joint control via Python, first teleoperation, and a team challenge (stack 3 blocks faster than the other team). No prior ROS2 experience required — SVRC provides simplified Python wrapper scripts for K-12. Learning outcomes: students understand robot kinematics concepts, can write simple control scripts, and present a working demo.
Outcomes
Learning outcomes by level
K-12 / Beginner
Students understand what a robot arm is, how joints move, and why programming matters for physical tasks. They can write a simple Python script to move a robot to a target position, explain the concept of degrees of freedom, and work safely around powered hardware. Timeline: 4-8 weeks of 1-hour sessions.
Undergraduate
Students can operate and calibrate a 6-DOF arm, write ROS2 nodes for sensor reading and control, implement forward and inverse kinematics, collect teleoperation data, and evaluate task success rates. They understand workspace constraints, joint limits, and calibration procedures. Timeline: one 15-week semester.
Graduate / Research
Students can design and execute a complete data collection campaign, train imitation learning and RL policies, evaluate policy generalization across object and scene variations, and contribute to research publications. They understand data formats (HDF5, LeRobot), training pipelines (ACT, diffusion policy), and sim-to-real transfer. Timeline: one 10-week quarter.
Club Pacing
Suggested pacing for robotics clubs and courses
A typical semester-length robotics club or elective can follow this 12-week spine, mapped to Academy layers. Adjust the cadence for bootcamp (compress to 4-6 weeks) or a year-long program (expand each unit with additional design challenges).
Weeks 1-3: Hardware foundations
OpenArm 101 bringup, joint calibration, and first teleoperation. Goals: every student can power on, home, and safely stop the arm. Use OpenArm tutorials and Academy layer A. Students document their setup process on the Forum.
Weeks 4-6: Software and data
ROS2 topics, data recording with rosbag, and first imitation-learning data collection pass. Students collect 20-50 demonstrations of a simple task (pick and place). Introduction to data formats (HDF5) and quality assessment.
Weeks 7-9: Design and integration
Workspace analysis, end-effector selection, and system constraints. Students design a simple gripper modification or workspace jig and evaluate it quantitatively. Optional: introduce the SVRC Data Platform for episode replay and annotation.
Weeks 10-12: Capstone and showcase
Teams present a working robot task, document their data collection protocol, and post a build log to the SVRC Forum for community feedback and discussion. Best projects are featured on the SVRC Showcase.
Funding
Grant assistance and funding support
SVRC hardware qualifies as research equipment under most federal and institutional grant programs. We provide the documentation your grants office needs to process equipment purchases.
NSF equipment grants
OpenArm 101 and DK1 qualify as research equipment under NSF MRI (Major Research Instrumentation) and standard research grants. SVRC provides sole-source justification letters, technical specifications in NSF format, and budget templates. If you are writing an NSF proposal that includes robotics hardware, contact us for a supporting quote and specification document.
NIH and DOD programs
For NIH R01/R21 equipment budgets and DOD research programs, SVRC provides W-9, SAM registration details, and equipment specification sheets in required formats. We have been listed as a vendor in successful NIH and DARPA proposals.
Institutional lab budgets
Most department lab budgets can accommodate one or more OpenArm 101 units at $3,600 (academic price) without requiring special approval. For larger orders or DK1/Unitree purchases, SVRC provides formal quotes compatible with your university procurement system. We accept institutional POs with net-30 terms.
Industry-sponsored lab programs
If your lab receives equipment funding from industry sponsors (Amazon, Google, NVIDIA robotics programs), SVRC hardware is eligible for purchase under these programs. We can provide documentation in the format your sponsor requires. Contact us to discuss specific sponsor requirements.
Lab Safety
Safety principles for robotics labs
Tabletop manipulators like OpenArm 101 are lower-risk than full-size industrial arms, but they still require a clear safety protocol. Establish these rules before the first powered session:
1. E-stop always accessible
Keep a software or hardware emergency stop within arm's reach of every operator. For ROS2 setups, the Ctrl-C kill sequence should be practiced before the arm moves. Optional physical e-stop buttons are available from SVRC.
2. Workspace clearance
Mark a 60cm exclusion zone around the arm base when powered. Students should enter this zone only when the arm is unpowered or in a known safe joint state. Use tape on the lab bench to make the zone visible.
3. Joint limit awareness
Teach students to read joint angle feedback before commanding motion. OpenArm 101 exposes live joint state topics in ROS2 — verify limits before each session. Joint limits are enforced in firmware, but students should understand why they exist.
4. Data collection safety
During teleoperation data collection, the operator should keep the other hand on the kill switch. Unexpected policy rollouts during replay can exceed human reaction time. Never run untested policies without a clear stop procedure.
Educator FAQ
10 questions educators ask most
1. How much does a classroom set cost?
A set of 5 OpenArm 101 units with academic pricing is $18,000. With K-12 pricing (30% off), the same set is $15,750. Both include documentation access and forum support. Optional spare parts kits and platform licenses are additional. See the buying guide for full pricing details.
2. What software do students need?
Ubuntu 22.04, ROS2 Humble, and Python 3.10+. All free and open-source. SVRC provides installation scripts and Docker containers for consistent lab setups. No paid software licenses required. For K-12, we provide simplified Python wrappers that do not require ROS2 knowledge.
3. Can students use their own laptops?
Yes, if they run Ubuntu 22.04 (native or via dual boot). ROS2 also works in Docker on macOS and Windows, though native Ubuntu is recommended for the best experience. Each OpenArm connects via USB — no special network infrastructure required.
4. How long does setup take for a new lab?
Plan 1 day for physical setup (unpacking, bench mounting, cable management) and 1 day for software setup (OS install, ROS2 install, first calibration) per 5 units. With experience, subsequent cohorts can be set up in a few hours. SVRC offers paid on-site setup assistance if you want us to configure the lab for you.
5. Do you provide curriculum materials?
Yes. The Robotics Academy provides structured learning paths from hardware bringup through imitation learning. Each module includes learning objectives, exercises, and assessment criteria. We also provide slide decks and lab handouts for common course configurations — email us to request them.
6. What if a student breaks a robot during class?
The most common failure is a servo motor, which costs $30-$50 to replace and takes under 30 minutes with our guide. We recommend keeping 2 spare servos per 5 units. For more serious damage, mail the unit to our Mountain View or Allston facility for repair. Turnaround is typically 3-5 business days.
7. Can we lease instead of buying?
Yes. OpenArm 101 leases start at $800/mo per unit with academic pricing applied. Leasing is ideal for trial semesters, summer programs, or workshops where you want to evaluate the platform before committing to a purchase. Lease-to-own is available. See the leasing page.
8. Do you visit campuses for workshops or demos?
Yes, for institutions within driving distance of Mountain View or Allston. We can run a 2-hour workshop introducing OpenArm 101, ROS2 basics, and data collection for your faculty or students. For remote institutions, we offer virtual workshops via video call. Contact us to schedule.
9. How does OpenArm compare to other educational robots (e.g., Dobot, xArm)?
OpenArm 101 is fully open-source (hardware and software), ROS2-native, and designed for research-grade data collection — not just demos. Dobot and xArm are good for basic pick-and-place but lack open firmware, standard ROS2 integration, and community-driven documentation. OpenArm skills transfer to real research workflows; proprietary platforms do not.
10. Can we use SVRC hardware for competitions or capstone projects?
Absolutely. OpenArm 101 is used in capstone projects at multiple universities. The open-source design means students can modify and extend the platform without hitting proprietary limits. We feature outstanding student projects on the SVRC Showcase and provide letters of support for competition entries that use SVRC hardware.
Suggested Path
A simple educator sequence
1. Start with Academy paths
Use the structured learning flow to build course modules around tutorials, software, and troubleshooting. The five-layer stack (A-E) maps directly to weekly lab units.
Open Academy →2. Choose classroom-fit hardware
OpenArm 101 for most courses. DK1 for advanced bimanual work. Compare systems based on ease of setup, safety, repeatability, and lab budget constraints on the buyer page.
OpenArm details →3. Reuse public documentation
Lean on tutorials and docs that students can access directly instead of rebuilding all learning material from scratch. SVRC documentation is publicly accessible and searchable.
Browse Wiki →4. Contact for academic pricing
Email us with your institution, course details, and quantity. We will send a formal academic quote within 1 business day. Include your timeline and we can coordinate delivery with your semester start.
Get academic pricing →