2025-2026

2025-2026 Season

FTC Game: DECODE

Robot: Something II

Team Overview

Standard Deviation, from Eden Prairie, Minnesota, is a dedicated FTC team of six students (five active + one graduating) from the International School of Minnesota. One member graduated to alumni; remaining members promoted for the next season.

  • Team composition: 1 senior (Jason → alumni), 4 juniors
  • Continuity: 3 original members and 3 new members
  • Mentor support: 1 lead mentor with industry engineering experience

Mission

Our mission is to improve ourselves and our community through outreach, STEM learning, and inspiring younger students to explore robotics and engineering.

Future Goals

  • Strengthen team skills, especially CAD and building
  • Increase outreach hours
  • Improve event performance
  • Build stronger connections with lower school robotics programs

Robot Overview

Drag to rotate | Scroll to zoom

Interactive 3D model of our DECODE robot. Drag to rotate, scroll to zoom.

For INTO THE DEEP, we chose a mecanum-drive robot with a custom drivetrain to maximize scoring potential through fast alignment and flexible movement.

Chassis Design

  • Custom 1/8 inch 5052 aluminum plates manufactured by SendCutSend
  • Seven motors mounted between inner and outer side panels
  • Pocketed plates reduce weight and add wire-management points
  • Drag chain protects turret wiring during motion
  • Integrated battery door supports fast battery swaps

Intake and Deposit System

Our intake/deposit design has gone through six major iterations:

  1. Dual flywheel with fins and 2-axis wrist
  2. Internalized wrist and polycarbonate backplate
  3. Flat flywheel and adjustable hood
  4. Rear flywheel removed
  5. Fixed hood (good long-range consistency, weaker close-range flexibility)
  6. Planned return to adjustable hood for broader shot utility

Lift System

We developed six major scissor-lift-based iterations:

  • Initial flat-beam scissor lift was too weak
  • Reinforced beams improved strength but reduced max height
  • Added beams restored height but risked separation
  • Added bottom plate to prevent separation
  • Custom coupler fixed torque slippage in the drive path
  • Final redesign tested a worm-gear flipper, but tooth engagement and axial support were insufficient

Indexer

Five major indexer iterations:

  1. Dual-path servo-controlled feed (unreliable)
  2. Carousel with mini mecanums (too large, too many motors)
  3. Carousel plus funnel plus Geneva mechanism (worked but lacked independent control)
  4. Axon-servo-powered carousel (best performer so far)
  5. Planned servo-kicker tray concept (jam risk under evaluation)

Kicker

Four major improvements:

  • Shortened kicker to reduce torque demand
  • Added software interlock to prevent empty actuation
  • Added rigid servo mount
  • Switched to metal geartrain to eliminate stripping

CAD and Fabrication

  • CAD platform: Onshape with modular design philosophy
  • Material and process: PETG-CF 3D-printed components for rapid iteration
  • Printer fleet: Bambu P1S, Bambu X1C, Prusa MK3S+, Anycubic Vyper

Autonomous Capabilities

From any starting location, our autonomous can score LEAVE points and artifacts, while adapting routes around alliance partners.

Minimum Goal

  • Score LEAVE points in autonomous
  • Score some artifacts
  • Achieve a partial park

Maximum Goal

  • Score 3 artifacts in autonomous
  • Score consistently in teleop
  • Complete full plus partial return-to-base actions in endgame

Design Process

Our software and mechanism workflow follows:

Identify -> Ideate -> Design -> Create -> Test

This process was adopted from former team Catlateral Damage.


Driver Controls

Driver Controls

  • Three driver-control layers through trigger-based controller mapping
  • Speed toggle for precision alignment
  • Macros for flywheel, intake, and turret workflows
  • Manual override always available
  • Color-sensor-aware macros to reduce cycle mistakes
  • Automatic aiming and dynamic shot-power calculations

Autonomous

  • Reliable LEAVE and artifact-scoring flow from all starting locations
  • Pathing adjusts based on alliance partner movement and positioning

The Team

Roshan — CAD, Build

Roshan

CAD, Build

Grade 11

A junior at the International School of Minnesota. This is his fifth year in FTC, and he is a former Catlateral Damage member. Roshan works across CAD and building. He enjoys swimming, and his favorite subject is math.

Ryan — Building & Driver

Ryan

Building & Driver

Grade 12

A senior at the International School of Minnesota. This is his fourth year in FTC. Ryan works across building and driving. He enjoys music, and his favorite subject is biology.

Asif — Build

Asif

Build

Grade 11

A junior at the International School of Minnesota. This is his first year in FTC. Asif focuses on building, enjoys badminton, and his favorite subject is math.

Ean — Build

Ean

Build

Grade 11

A junior at the International School of Minnesota. Ean focuses on building, and he enjoys volleyball and tennis.

Alex — Build

Alex

Build

Grade 11

A junior at the International School of Minnesota. Alex focuses on building and enjoys sports, physics, and math.


Outreach

Our outreach strategy emphasizes motivating new students, connecting with industry mentors, and sharing practical engineering lessons.

Motivate

Valentine’s Bot Event

We built a gifting robot that delivered chocolates and 3D-printed gifts around campus, engaging hundreds of students.

International Day Robotics Exhibition

We hosted a dedicated robotics room, demonstrated our robot, shared our notebook process, and ran hands-on STEM activities to recruit and inspire students.

City Park Demonstration

We showcased our robot in a public park, giving visitors a chance to drive it and learn FTC systems.

Connect

Problem and Solution: Lift Mechanism Failure

Our original endgame lift used a three-gear train and coupler to drive a lead screw, but the coupler failed to transfer torque consistently. After repeated tuning attempts, the mechanism remained unreliable.

Esmeril Industries Trip

Parents in industrial manufacturing invited us for a factory tour, reviewed our lift architecture, and helped us design a custom coupler that resolved the torque-transfer issue.


Team Sustainability

We prioritize long-term continuity by combining low-cost fabrication methods with active annual recruitment.

  • 3D printing and laser cutting reduce part costs and speed replacement cycles
  • Recruiting new students yearly preserves knowledge transfer and team continuity

Competition Results

Season Over - Results Coming Soon.


Coming Soon - Check Back Later.


Season Over - Results Coming Soon

Coming Soon - Check Back Later.


CAD Preview

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Robot: Something II