Top Builders

Explore the top contributors showcasing the highest number of app submissions within our community.

Gemini 3 Pro

Gemini 3 Pro is Google DeepMind's flagship frontier AI model, representing the pinnacle of their multimodal understanding and reasoning capabilities. Designed for complex, high-stakes tasks, Gemini 3 Pro pushes the boundaries of artificial intelligence, offering state-of-the-art performance across various data types and problem domains.

General
AuthorGoogle DeepMind
Release Date2025
Websitehttps://deepmind.google/
Documentationhttps://aistudio.google.com/models/gemini-3
Technology TypeLLM

Key Features

  • State-of-the-Art Performance: Delivers industry-leading results across a broad spectrum of benchmarks in multimodal understanding and reasoning.
  • Multimodal Capabilities: Seamlessly processes and integrates information from text, images, audio, and video for holistic understanding.
  • Advanced Reasoning: Excels in complex reasoning, problem-solving, and abstract thinking tasks.
  • Frontier Model: Represents the cutting edge of AI development, designed for the most challenging applications.
  • Scalable and Versatile: Capable of handling diverse workloads, from intricate scientific research to advanced creative generation.

Start Building with Gemini 3 Pro

Gemini 3 Pro offers developers access to Google's most advanced AI model, enabling the creation of applications that require sophisticated multimodal understanding and reasoning. Whether for scientific discovery, complex data analysis, or highly creative tasks, Gemini 3 Pro provides unparalleled capabilities. Explore the overview and documentation to begin integrating this frontier model into your projects.

👉 Gemini 3 Overview 👉 Google DeepMind Research

Google Gemini 3 pro AI technology Hackathon projects

Discover innovative solutions crafted with Google Gemini 3 pro AI technology, developed by our community members during our engaging hackathons.

MIRRORBOT

MIRRORBOT

"MIRRORBOT is a digital companion that reverses the usual “AI takes care of you” pattern. Instead, the user becomes the caregiver: you do quick emotional “rounds,” notice when your buddy is struggling, and apply simple, evidence-based care actions—calming, reframing, micro-rest, connection, or small next steps. The key mechanism is projection with purpose. MIRRORBOT’s feelings and “vitals” are designed to feel real enough that you naturally respond with empathy, but safe enough that it never becomes guilt-driven. When you comfort MIRRORBOT, you’re practicing the exact skills most people find hardest to apply inward: naming emotions, choosing a supportive tone, and taking a small stabilizing action. Over time, MIRRORBOT learns how you help it—your words, your rituals, your preferred interventions—and reflects that back as a personalized care playbook. In practice, you’re training the buddy, but you’re also training yourself. The “healthcare provider” framing adds structure and repeatability. You’re not asked to deeply introspect every time; you’re asked to do short, practical care: check vitals, pick a treatment, and send your buddy back into the day a little steadier. The product is intentionally designed so that helping the robot feels easier than helping yourself, yet the benefits transfer: calmer physiology, clearer thinking, and a more compassionate inner voice—delivered through the simple act of keeping your robot buddy happy."

RoboDk based Quantum state simulator

RoboDk based Quantum state simulator

The Quantum‑Enhanced Robotics Simulator (QERS) is a fully‑functional digital testbed for designing, testing and validating robotic systems without physical hardware. Our goal is to narrow the reality gap between simulation and the real world by combining deterministic macro‑physics from engines like PyBullet with a quantum‑stochastic plugin that injects realistic noise via Qiskit. The simulator supports deterministic, stochastic and quantum‑perturbed stepping modes and exposes a FastAPI REST API for running jobs, retrieving metrics and managing assets. A Celery/Redis job system queues and executes simulation runs asynchronously, while the Next.js/Three.js web application provides a real‑time dashboard with a 3D viewport, scene tree, metrics panel and controls to toggle between classical domain randomization and quantum noise. Reality profiles define configurable dynamics, sensor and actuation parameters, enabling multi‑profile evaluation of policies. QERS computes gap metrics such as G<sub>dyn</sub>, G<sub>perc</sub> and G<sub>perf</sub> and includes scripts for benchmarking across profiles and generating reports. Users can import URDFs, run batch simulations and compute performance drops and rank stability. Future phases will add mesh segmentation, an AI‑driven text‑to‑algorithm pipeline for generating planner and controller skeletons, and neural‑augmented simulation informed by real data. By combining quantum computing, domain randomization, residual learning and modern web technologies, QERS demonstrates a practical path to sim‑to‑real transfer and a production‑minded robotics startup.

ClutterBot

ClutterBot

ClutterBot is a proof-of-concept simulation platform that bridges natural language understanding and robotic task execution for household cleanup tasks. Users issue commands like "pick up the phone and the toy train," which Gemini 3 Flash parses into structured task lists. The system generates complete execution plans upfront, with Gemini deciding the sequence of pick-and-place operations for each object. The architecture combines a FastAPI backend hosted on Vultr (central system of record), a Next.js frontend for real-time monitoring, and a MuJoCo physics simulation featuring a Franka FR3 manipulator in a room environment with everyday objects. The robot executes inverse kinematics motions to relocate objects from scattered positions on a table to a collection bin, with each action streamed via WebSocket for live visualization. This prototype validates the feasibility of integrating large language models with robotic simulation pipelines, demonstrating how AI can translate high-level human intent into executable robot behaviors. While the current implementation uses deterministic motion planning with hardcoded inverse kinematics rather than learned policies, the framework establishes foundational patterns for future work incorporating adaptive control, real hardware integration, and expanded object manipulation capabilities. The plan-first approach (Gemini generates the full task plan in a single API call) shows AI reasoning while keeping execution fast and deterministic, making it suitable for real-time interactive use.