Skip to main content
AI Labs & Robotics

Real problems.
Real products.

Two tracks — AI / ML engineering and Robotics & IoT. Real hardware, real datasets, real deployment environments. A community of serious builders who won't let you take shortcuts.

2
Lab tracks
12+
Active sprints
6
Ecosystems addressed
100%
Deployed — not simulated
Join the Labs View Curriculum

Not a classroom.
A proper workshop.

Everything you need to go from model idea to deployed product — in a community that will push you harder than you'd push yourself.

Weekly Model Sprints

Every week, the Labs run a focused experiment — a new model architecture, a new dataset, a real deployment challenge. You show up, you build, you share results. The pace is deliberate.

Shared GPU Compute

Serious model training requires serious hardware. Lab members get access to shared GPU resources so you can run the experiments that matter — without worrying about your cloud bill.

Global Dataset Library

A curated library of real-world datasets — agriculture, health, financial services, natural language. Real data from real contexts globally. Cleaned, documented, and ready for production-grade experiments.

Experiment Tracking

Shared MLflow and W&B workspaces so you can version runs, compare results, and build intelligently on each other's work. Science requires records.

Domain Expert Pairing

Every sprint pairs AI engineers with domain experts who understand the problem firsthand. Context — not just code — is the variable most AI projects get wrong.

Monthly Lab Showcases

Once a month, teams demo working software. Not slides, not decks — deployed products. The best work moves into the incubation pipeline. The rest teaches the whole community something real.

AI Lab — Recent sprints

What we've been building.
Week by week. No breaks.

Every sprint is a real problem, a real dataset, and a deployed result. Here's what the Lab shipped in the last cycle.

Sprint 01AgriAI

Build a RAG-powered assistant for agricultural extension workers using satellite and soil data

Sprint 02Fintech AI

Train a multilingual text classifier on real customer support tickets from a global fintech platform

Sprint 03AgriAI

Fine-tune a vision model to detect crop disease from smartphone photos in low-bandwidth environments

Sprint 04HealthAI

Deploy a speech-to-text API supporting low-resource languages with limited training data

Sprint 05PropTech

Build an LLM-powered property valuation engine from unstructured listing and transaction data

Sprint 06Fintech AI

Design a real-time fraud detection system for mobile money and digital wallet transactions at scale

Every sprint is open.
Every result is shared.

Lab members work in the open — failed experiments included. The fastest way to grow is to build alongside people who are doing the same hard thing.

Lab access is free.

Included with every AI School membership. Just show up and build.

Join the Labs

Build systems that
touch the physical world.

Software alone cannot solve the challenges facing agriculture, healthcare, infrastructure, and conservation. This track teaches you to deploy intelligence into the real world — through hardware that senses, decides, and acts.

You will design sensor networks, write production firmware, build real-time data pipelines, and deploy systems that operate under genuine constraints — unreliable power, no connectivity, harsh environments, and communities that depend on uptime.

6
Ecosystems addressed
12+
Hardware platforms
48h
Sprint delivery window
100%
Deployed — not simulated

Six capabilities.
One physical world.

The IoT track covers every layer of the stack — from firmware on the chip to dashboards in the operations centre.

Embedded Systems Programming

Write production firmware in MicroPython and C++ for Raspberry Pi, ESP32, and Arduino. Learn to think in microseconds, interrupts, and memory constraints — not abstractions.

Sensor Networks & Edge Computing

Design distributed sensor arrays that pre-process data at the edge. Understand power budgets, duty cycles, and why sending raw data to the cloud is always the wrong answer.

Real-Time Data Pipelines

Stream telemetry through MQTT brokers into time-series databases. Turn 10,000 sensor readings per minute into actionable operational intelligence.

Robotics Integration

Control servos, motors, and actuators with precision. Combine computer vision with ROS2 to build robots that perceive their environment and make real decisions.

Remote Monitoring Dashboards

Build operational dashboards in Grafana and Node-RED that field teams trust with their lives. Real-time alerting, anomaly detection, and multi-site visibility across unreliable networks.

Field Deployment Challenges

The lab simulates real-world constraints: intermittent connectivity, solar power budgets, dust, humidity, and hardware that fails at 3am. Build systems that work — not just in the lab.

Robotics & IoT — Active challenges

Critical problems.
Hardware that solves them.

Each challenge addresses a real failure point in a critical ecosystem. You are not building a demo. You are building the system that a community, hospital, or farm will depend on.

Challenge 01AgriTech

Deploy a 12-node soil NPK and moisture sensor array that autonomously triggers precision irrigation — cutting water use by 40%

Challenge 02HealthTech

Build a wearable vitals monitor (SpO2, ECG, temp) that streams patient data to a clinic dashboard over LoRa in zero-connectivity rural zones

Challenge 03Smart City

Architect a 10-node urban air quality mesh that detects PM2.5 spikes in real time and routes alerts to city health systems automatically

Challenge 04Industrial IoT

Attach vibration sensors to industrial motors and build an ML pipeline that predicts bearing failure 72 hours before it occurs

Challenge 05Conservation

Deploy solar-powered acoustic sensors in a protected wildlife reserve that detect and geolocate gunshots within 500m — in under 4 seconds

Challenge 06CleanTech

Install CT clamps on household mains feeds and build a disaggregation model that identifies every appliance and calculates its real-time carbon cost

Hardware kits available
for Lab members.

Don't have hardware? The Lab maintains a shared kit program. Sensors, microcontrollers, and prototyping components shipped to active members for the duration of each challenge.

Both tracks. One membership.

AI Lab and the Robotics & IoT track are included with every AI School membership. No extra cost.

Join the IoT Track

Win the hackathon.
Then build the company.

Most teams lose before the judging starts. Not during the build — during the planning. They pick vague problems, build for imaginary users, and run out of scope with 12 hours left. This is the framework that fixes that.

A hackathon is 48 hours of compressed founding decisions. The problem you pick, the user you talk to, the feature you cut — all of it mirrors a real startup call made under real pressure. The teams that win are not faster. They are clearer. They made fewer wrong calls in the first three hours.

6
Preparation pillars
6
Phase winning process
4
MVP scope dimensions
48h
To a fundable prototype

Six places teams lose
before judging starts.

Experienced judges see the same mistakes every event. These are the six. Most teams get two or three right. Get all six and you are already ahead of the room.

Clear Problem Statement

Write one sentence that names the problem, the person who has it, and what changes when it is solved. If three team members write this separately and the answers disagree, resolve it before anything else. Every build decision for the next 48 hours flows from this sentence.

Defined Team Roles

Assign three responsibilities before the clock starts: who builds the product, who tests it with real users during the build, and who owns the pitch. Gaps and overlaps in these roles cost more time than any technical problem you will encounter.

Controlled Scope

Identify the single user action that proves your solution works. Write it on a whiteboard. Every feature suggestion during the build gets measured against it — if it is not required for that action to succeed, it is out of scope.

Early User Validation

Before writing code, speak with two people who have the problem today. Ask what they currently do about it and what it costs them. Build for the person you interviewed. The insights from those two conversations will shape your pitch more than any feature you can add.

A Single Primary Metric

Agree on the one number your solution moves — time saved, cost reduced, cases detected per hour. Every product decision during the build is evaluated against this metric. If a feature does not move it, remove it from scope.

Demo-First Execution

Describe the demo out loud before a single line is written. Every screen, every transition, the exact moment the metric changes. Build only what that walkthrough requires. Scope creep always looks reasonable at hour five — and costs you the win at hour 47.

Hackathon — hour by hour

What to do,
and when to do it.

Six phases. Each one has a specific output. Skip a phase and you will feel it — usually at hour 30, when you realise you built the wrong thing and do not have time to start again.

Phase 01Foundation · First hour
Frame

Align on problem, user, and success metric

Before any code is written, your team produces three written outputs: a one-sentence problem statement, a named target user, and a single metric that will prove the solution works. All three must be agreed upon. This document is the decision filter for the next 47 hours.

Phase 02Validation · Hours 1 – 3
Research

Conduct two short user interviews before building

Identify two people in or near the venue who have the problem today. Ask each one what they currently do about it, what it costs them, and what a working solution would be worth. Record their exact words. That language becomes the opening of your pitch.

Phase 03Architecture · Hours 3 – 5
Plan

Map the minimum demo path and assign ownership

Draw the shortest user journey that demonstrates your solution end-to-end: entry point, three to four steps, result. No branches. No edge cases. Assign a specific team member to each component with no overlaps. Ambiguity in ownership becomes a production incident at hour 28.

Phase 04Build · Hours 5 – 36
Build

Ship the core feature first, then layer in real evidence

Get the primary user action running end-to-end before building anything else — even if the interface is rough. Once it works, replace any placeholder data with real inputs and real outputs. Judges with technical backgrounds will identify synthetic data immediately.

Phase 05Preparation · Final 4 hours
Rehearse

Run ten complete rehearsals with documented fallbacks

Present the product exactly as you will in the judging room. For every live component — API call, model inference, database query — prepare a fallback: a screen recording or a static result. Define the failure scenario and its response in advance. You control what the panel sees.

Phase 06Presentation · Final 5 minutes
Present

Lead with the user story, close with the business case

Open with the specific person you interviewed and the concrete cost of their problem. Show the before and after. State the metric. Demonstrate the product. Reserve 30 seconds for the revenue model. End with your team names and the ask. Judges fund people as much as products.

Six decisions.
One outcome.

Most teams spend 90% of their time building and 10% thinking. The teams that win flip that ratio in the first three hours — then out-execute everyone in the remaining 45.

Compete. Win. Build.

Hackathon prep is included with every AI School membership. Show up, apply the framework, take the prize.

Join the Labs

Finish something.
Not everything.

The graveyard of hackathon losses is full of half-built products with ten features. Four principles. Apply them before hour five and you will ship something that actually runs on demo day.

Define the Core User Action

Write one sentence: who does what, and what result they see. This sentence is the decision filter for every build choice from hour one to hour 47. When someone suggests adding a feature, measure it against this sentence. If it is not required for that action to succeed, remove it from scope.

Choose Your Execution Stack

Use the tools your team can debug under pressure without documentation. The right stack for a hackathon is the one you know well enough to fix at 3am on three hours of sleep. Performance and elegance are not the goal. A working endpoint in a familiar framework beats a half-built system in the optimal one.

Build a Visible Evidence Layer

Replace any placeholder data with real inputs and real outputs as early as possible. The demo needs something that changes on screen — a cost dropping, a classification appearing, a count incrementing. Judges assess working evidence, not described potential. If the number does not move, the value is not visible.

Document Your Fallback Protocol

For every live component — API call, model inference, database query — record a working result before demo day. Define each failure scenario and its response in advance. You have 48 hours of work invested. Do not allow the venue WiFi or an API rate limit to determine whether judges see it.

Judges have seen
a thousand demos.

What they almost never see is a team that can answer six business questions without fumbling. Know the answers before you walk in. That alone puts you ahead of most of the room.

Customer Definition

Name the specific person, not the category.

The county extension officer who spends three hours per week on manual crop reports. There are 40,000 of them in Kenya. This level of specificity is what separates a researched team from a guessing one — and experienced judges can tell the difference immediately.

Value Delivered

Describe their day without you, then with you.

Two sentences — what they do today and what changes when your product exists. If the difference is not concrete in those two sentences, the value proposition is not clear yet. This is the only element of your pitch that has to be genuinely undeniable.

Revenue Model

Who pays, how much, and when?

Name the payer — the user, their employer, a hospital, a government procurement office. Give a single number, not a range. Judges who have built companies will test this directly. A staged freemium plan is not a revenue model until you name the conversion point.

Market Size

Build your number from the ground up, not from a report.

40,000 maize farmers in Nakuru. Each loses Ksh 12,000 per season to late irrigation. Multiply. That is a credible bottom-up market calculation. A TAM figure from an industry research report carries no weight — your own arithmetic does.

First 100 Users

Name the specific channel and the specific first contact.

A WhatsApp group admin who manages 300 smallholder farmers and will send your onboarding link to the group on launch day — that is a distribution strategy. Social media is not. Name the person who gets you from zero to user one hundred without a paid budget.

Competitive Position

What does your team have that the next team cannot acquire in six months?

Field access accumulated over a year. A proprietary labelled dataset. An existing clinical relationship. A live user base. The answer that wins is specific and non-transferable. If a well-funded competitor could replicate it quickly, keep looking — there is usually a real advantage underneath.

Run it once before
it counts for real.

The Labs run a full hackathon simulation each quarter. Real brief, real judges, the same 48-hour window. Members who have done one simulation before entering a national event win at a rate that is hard to argue with.

Do the reps first.

One simulation before the real event. Low stakes, real pressure. The teams that have done it show up differently — and judges notice.

Join the Labs

The Robotics & IoT stack you'll master

Raspberry Pi
Edge compute node
ESP32
WiFi / BLE MCU
Arduino
Prototyping hardware
MicroPython
Firmware scripting
MQTT
Device messaging
Node-RED
Flow-based IoT logic
InfluxDB
Time-series store
Grafana
Ops dashboards
AWS IoT Core
Device management
ROS 2
Robotics framework
LoRaWAN
Long-range mesh
OpenCV
Robot vision

The AI production stack you'll master

Python
The language of AI
HuggingFace
Models & datasets
LangChain
LLM orchestration
FastAPI
Model serving
Docker
Containerisation
AWS / GCP
Cloud deployment
MLflow
Experiment tracking
PostgreSQL
Vector + relational DB

Lab access is for
serious builders.

You don't need to be an expert. You need to be willing to show up, run experiments, and learn in public — even when your model doesn't converge or your sensor gives the wrong reading at 3am.

Active TechOps Hub membership ($15 / $29 one-time)
Enrolled in the AI Product School or Technical Writing
A working laptop and reliable internet connection
The willingness to fail, share, and iterate in public

Lab access is free.

Both tracks — AI Lab and Robotics & IoT — are included with every AI School membership. No extra cost. Just show up.

Join the Labs

The next sprint starts
when you show up.

AI, Robotics, IoT — the problems are real. The hardware is real. The community will not let you take shortcuts. Show up and build something that matters.

Get Lab Access