Program

From First Build to Autonomous Robot

Camp Asimov is an intensive engineering program where every student builds and programs their own robot while developing skills across mechanical design, CAD, programming, sensors, and autonomous systems.

Official 2027 dates release December 1, 2026. Rolling applications open October 1, 2026.

Camp Asimov students testing robots in a robotics workspace

A robotics engineering studio for young builders - Students work across mechanical construction, code, sensors, testing, and documentation.

The engineering journey

Students do not just complete activities. They build toward independence.

The program moves students from understanding the physical robot to programming, control, design, mechanisms, sensing, and integration. Families can see how each skill builds toward a more complete engineering process.

01

Build

Understand the machine.

Students begin by assembling and studying the physical robot. Motors, wiring, wheels, tools, and structure are not treated as a black box; they become the system students learn to reason about.

Mechanical assemblyMecanum drivetrainsMotorsElectronicsWiringToolsRobot architecture
Student assembling a robotics drivetrain at Camp Asimov

Physical robot first - Students learn how structure, wiring, motors, and drivetrain choices affect what the robot can actually do.

02

Program

Make it move.

Students write Java code for their own robot. TeleOp control becomes the first bridge between abstract programming and physical motion they can see, test, and debug.

JavaAndroid StudioFTC SDKTeleOpVariablesMethodsLogicDebugging
Student programming a robot at Camp Asimov

Code becomes robot behavior - Students connect software decisions to motors, servos, driver control, and repeatable testing habits.

03

Control

Turn movement into precision.

Autonomous work starts with simple time-based movement, then becomes more precise as students use encoders for distance and the IMU for accurate heading and turns.

EncodersIMUHeadingDistanceAutonomous movementSequencingRepeatability

From timed motion to measured motion - Students see why a robot that moves for two seconds is different from one that measures distance and heading.

04

Design

Create something that doesn't exist yet.

Students use Fusion 360 to move from measurement and sketches into constrained, parametric parts that can be prototyped and 3D printed for their robot.

Fusion 360MeasurementSketchesConstraintsParametric CADExtrusionRevolvePrototyping3D printing
Student design and robotics work at Camp Asimov

CAD model - Students move from measurements and sketches into CAD decisions that can become physical parts.

05

Mechanisms

Make the robot interact with the world.

Students explore claws, arms, servos, linkages, torque, and mechanical advantage. The goal is not one copied design; it is learning how different mechanisms solve different problems.

ServosClawsArmsLinkagesTorqueMechanical advantageIterationPrototyping
Close-up of a student robot mechanism at Camp Asimov

Mechanisms reveal tradeoffs - Students compare geometry, reach, grip, reliability, and how easily a mechanism can be repaired or improved.

06

See

Teach the robot to interpret its environment.

Students move from commanding a robot to making the robot respond. Color and distance sensors introduce thresholds and conditional decisions, while webcam work adds computer vision, object detection, and field interpretation.

Color sensorsDistance sensorsRGBHSVThresholdsWebcamsComputer visionObject detectionBounding boxesAutonomous decisions

Sensor and vision work in motion - Students connect sensor readings and camera information to robot decisions and field interpretation.

07

Integrate

Think like an engineer.

Engineering is not just knowing a sensor or writing a line of Java. It is learning to combine mechanical, electrical, and software systems, test what happened, and make the next decision with increasing independence.

Systems integrationTroubleshootingIterationTestingOptimizationIndependent problem-solvingMechanical + electrical + software systems
Camp Asimov robot being tested on a robotics field

The full system has to work together - Students learn to connect build decisions, code behavior, field testing, and revision into one engineering process.

What your engineer learns

A technical range, organized clearly.

The experience is broad, but not random. Students build vocabulary and practice across the major systems that make robots work.

Mechanical Engineering

DrivetrainsMotorsServosMechanismsLinkagesGearingTorqueStructural designPrototyping

Programming

JavaAndroid StudioFTC SDKVariablesMethodsLoopsConditionalsTeleOpDebugging

CAD & Manufacturing

Fusion 360SketchingConstraintsParametric modelingExtrusionRevolveMeasurement3D printing

Robotics & Controls

EncodersIMUPositionHeadingAutonomous sequencesSensor integrationFeedback conceptsRepeatable movement

Computer Vision

WebcamsRGBHSVThresholdingImage processingObject detectionBounding boxes

Engineering Practice

Design iterationTestingTroubleshootingOptimizationSystems thinkingDocumentationIndependent problem-solving

Educational philosophy

The goal isn't to finish a robot.

It's to become someone who knows how to build one.

Camp Asimov focuses on helping students understand systems, troubleshoot problems, document progress, and contribute to future robotics and engineering projects. Students are coached to move beyond step-by-step instructions toward clearer technical judgment.

The working loop

CAD. Build. Code. Test.

01

CAD

Plan the next improvement

02

Build

Make it physical

03

Code

Give it behavior

04

Test

Let the robot answer

Daily flow

A camp day is built around iteration.

9:00

Mission briefing

9:30

Engineering block

11:00

Test loop

12:00

Lunch

12:30

Integration block

3:15

Demo + build log

Three levels

Three levels of robotics growth.

Start here

Foundations

Core program

Students learn the fundamentals needed to design, assemble, wire, program, and troubleshoot their own working robot.

CAD Foundations3D PrintingBattery Mount DesignClaw Design+12 more

More control

Intermediate

For returning and advancing students

Students move from basic robot control into sensor-driven decisions, more precise autonomous movement, and higher-quality mechanisms.

Advanced JavaSensorsColor Sensor IntegrationRGB Thresholding+11 more

Integrated systems

Advanced

Long-term pathway

The Engineer Profile is designed to support students over multiple sessions as they grow into deeper robotics work.

ROSAI VisionSLAMCNC+3 more

Engineer Profile

The work becomes visible.

Every student leaves with a private Engineer Profile that turns camp progress into a clear record of competencies, build logs, robot history, badges, and approved family-facing media.

Example Engineer Profile

Sample student profile showing badges, build logs, and competencies

Example Camp Asimov Engineer Profile showing a student name, badges, build logs, and competencies

Program resources

Everything families need to understand the program.

A clear look at what students do each day, how safety is handled, and how progress is documented.

2027 Program Guide

What students build, how the day is structured, what to bring, and what families can expect from the summer.

Download Program Guide

Safety & Supervision Plan

How students use tools, electronics, robots, and workspaces with clear supervision and safety routines.

Download Safety Plan

Summer 2027

Ready to Build?

Join a small cohort of young engineers for a summer of robotics, design, programming, and invention.

Tuition

$3,600

Full three-week program

Access

Financial aid

Available for families who need support

Camp Asimov student working with a robot
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