Class XII - Delhi - AI / Robotics

Building Machine Intelligence

I build the system, then dig under it: transformer internals, code-switched language research, local AI agents, computer vision, embedded hardware, and a physical reasoning robot that sees, asks, refuses, and acts.

/ selected systems

Not a portfolio wall. A lab surface.

Each card is a system with a claim: what it tests, what it proves, and where it still breaks. Completed work gets proof. Future work stays clearly marked.

TARQ / 10 Open the complete build sequenceOne continuous path from first-principles ML to a physical reasoning robot. Expand +
01

Neural Networks from Scratch

Build a decoder-only transformer by hand: embeddings, attention, residual blocks, training loops, evaluation, and generation.

completeGitHub ↗
02

Data Analysis and the Scientific Method

Analyze AG News, establish a TF-IDF baseline, evaluate with confusion matrices, F1 and ROC curves, inspect errors with LIME, and write the result.

active
03

Build and Deploy an API

Serve the Project 2 classifier with FastAPI and Pydantic, test it with pytest, containerize it with Docker, and deploy it through Railway and AWS Lightsail.

queued
04

Computer Vision Fundamentals

Move from CNN fundamentals and filter visualization to CIFAR-10, ResNet-18 transfer learning, YOLO, and real-time webcam detection.

queued
05

Train a Small Language Model

Implement byte-pair encoding, curate a Simple English Wikipedia corpus, train a BPE transformer, and test scaling and domain adaptation.

queued
06

Robotics Simulation

Learn MDPs and the Bellman equation, compare PPO and SAC, and train a Kuka iiwa arm in PyBullet using reward shaping and curriculum learning.

queued
07

Perception and Planning Integration

Connect a virtual camera to the arm through OpenCV detection, pixel-to-world mapping, homography, planning, inverse kinematics, and closed-loop execution.

queued
08

TARQ Software Prototype

Assemble offline speech, vision, local reasoning, structured prompts, ambiguity detection, active learning, and independent safety interlocks before hardware.

queued
09

TARQ Physical Capstone

Build the Raspberry Pi 5 robot, calibrate its camera, solve and validate inverse kinematics, control six servos, and demonstrate safe failure handling.

queued
10

Unsupervised Learning and Classical ML

Implement and compare PCA, t-SNE, UMAP, k-Means, Gaussian mixtures, expectation-maximization, and support vector machines.

queued

GitHub links appear only when a public repository exists. Project 1 is published; Project 2 is currently being built locally.

/ build trajectory

Language to hardware to embodied action.

The through-line is simple: understand the model, learn to evaluate it honestly, connect the components into a system, then put intelligence into the physical world.

Project pipeline

2026 / AY 2027-28
PHASE 01
Neural foundationsResearch with pretrained models, then rebuild a transformer from its tensor operations upward.
complete
PHASE 02
Evaluation disciplineProject 2: AG News analysis, baselines, error inspection, explainability, and written evidence.
active
PHASE 03
Deployed perceptionAPIs, computer vision, a small language model, and the interfaces that make components cooperate.
queued
PHASE 04
Embodied reasoningSimulation, planning, voice and vision, safety gates, then the physical TARQ arm.
queued

/ stack map

Comfortable across the messy layers.

The current skill stack is intentionally uneven: strong where projects are done, grey-boxed where the next builds will force depth.

languagescore

Python C++ Bash

Research pipelines, local tools, computer vision systems, automation, and embedded diagnostics.

PythonC++Bash
modelsapplied

Transformers VLMs CV

mBERT, MuRIL, Moondream, Llama, OpenCV, and from-scratch internals.

PyTorchOpenCVOllama
systemsnext

Agents APIs Embedded Systems

FastAPI services, local inference, guarded tool use, ESP32 hardware, and the path toward Raspberry Pi control loops.

FastAPIOllamaESP32

/ contact

Research groups, admissions offices, curious builders.

The current mission: build serious proof, document the failed attempts, and make the path from idea to working system visible.