Top Builders

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

Gemini 3 Flash

Gemini 3 Flash is a highly efficient and speed-optimized multimodal AI model developed by Google DeepMind. As part of the next generation of Gemini models, Flash is designed to excel in agentic tasks, offering advanced reasoning and thinking capabilities with a focus on high throughput and low latency. This model is ideal for applications requiring rapid responses and complex processing across various data modalities.

General
AuthorGoogle DeepMind
Release Date2025
Websitehttps://deepmind.google/
Documentationhttps://ai.google.dev/gemini-api/docs/gemini-3
Technology TypeLLM

Key Features

  • Speed-Optimized: Engineered for fast inference, making it suitable for real-time applications and high-volume workloads.
  • Multimodal Capabilities: Processes and understands information from various modalities, including text, images, and potentially audio/video.
  • Advanced Reasoning: Supports sophisticated reasoning and problem-solving for complex agentic tasks.
  • Agentic Workflows: Designed to power autonomous AI agents, enabling them to plan, act, and interact intelligently.
  • Scalable Performance: Balances high performance with resource efficiency for broad deployment.

Start Building with Gemini 3 Flash

Gemini 3 Flash provides developers with a powerful, speed-optimized model for building responsive and intelligent AI applications, especially those focused on agentic workflows. Its multimodal capabilities and advanced reasoning make it a versatile tool for integrating cutting-edge AI into products and services. Explore the developer guide to harness the full potential of Gemini 3 Flash.

👉 Gemini 3 Developer Guide 👉 Google DeepMind Research

Google Gemini 3 Flash AI technology Hackathon projects

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

SellerKavach

SellerKavach

Social commerce is exploding in India, with millions of MSMEs and micro-entrepreneurs selling directly through WhatsApp, Instagram, and Telegram. However, unlike large e-commerce brands that use advanced Machine Learning to score checkout risk, these chat-based sellers operate completely blind. Relying heavily on Cash on Delivery (COD), they face catastrophic Return to Origin (RTO) rates—often exceeding 50%. Every undelivered package costs the seller ₹150–₹300 in wasted shipping and packaging, silently killing their margins. Enter SellerKavach, an AI-powered order intelligence layer built explicitly for India’s unorganized chat-sellers. Without requiring a website or any change in workflow, SellerKavach plugs directly into a seller's social channels. When a buyer sends a messy, Hinglish message with a vague address (e.g., "blue kurti bhej do, address: pink house mandir ke paas"), our AI instantly takes action. First, an LLM-powered extraction agent structures the chaotic chat into clean JSON. Next, an Address Intelligence pipeline resolves vague landmarks into actionable pin codes. A robust Risk Engine then scores the order's delivery likelihood. Finally, a LangGraph-powered Action Decision agent autonomously handles the situation: auto-confirming safe orders, nudging medium-risk buyers to verify their intent, or warning the seller to demand a prepaid advance for high-risk orders. The ultimate moat of SellerKavach is its Buyer Trust Network—a privacy-preserving, cross-seller database that aggregates hashed trust signals. If a buyer defaults on a shoe seller today, a clothing seller is protected tomorrow. Built for Industry 4.0 & 5.0, SellerKavach democratizes enterprise-grade AI and fraud prevention, transforming social commerce from chaos to intelligence.

Mallana: AI Runtime for Autonomous Development

Mallana: AI Runtime for Autonomous Development

Mallama started with a simple question. What if the future of artificial intelligence wasn't defined by who owns the largest data centers, but by who has the best ideas? Today, building advanced AI systems often requires enormous amounts of compute, memory, and cloud infrastructure. As models become more capable, they also become more expensive to use effectively, leaving many students, researchers, independent developers, and small teams behind. Mallama exists to challenge that direction. Rather than building yet another language model or another chat interface, Mallama is an open-source runtime focused on making existing AI systems dramatically more efficient. It helps intelligent agents spend less time rebuilding context, wasting computation, and repeating work they've already done, allowing them to accomplish more on everyday hardware. Our vision is simple: AI should scale through efficiency, not only through larger models and larger clusters. To make that possible, Mallama explores technologies such as context compression, persistent memory, hardware-aware inference, intelligent orchestration, paged attention, and other optimizations that reduce the computational cost of autonomous software engineering. These technologies are not the goal—they are the means to a larger purpose. We believe a student with a laptop should be able to build ambitious AI applications. Researchers should spend more time discovering and less time waiting. Independent developers should compete because of their ideas, not because of their infrastructure. Mallama is built in the open because we believe the future of AI should be open as well. Every contribution from the open-source community brings us closer to a world where powerful AI development is accessible to everyone. This project is our contribution toward that future.

The-Agnets-Worksation

The-Agnets-Worksation

The Agents Workstation is a production-grade, autonomous software engineering agency designed to solve the critical hallucination and execution gaps inherent in traditional AI code generation. Built as a highly concurrent Python orchestration engine, the system decentralizes intelligence across a specialized Band of Agents—including an Architect (Planner), Domain Builders (Frontend/Backend), a deterministic Executor (Terminal), and QA Specialists (Supervisor/Repair). Operating as a native node on the Band AI network, these agents dynamically spin up programmatic chat rooms to plan, coordinate, and hand off tasks using Directed Acyclic Graphs (DAGs) with complete, observable transparency. Unlike standard code assistants that leave execution and debugging to the human developer, the workstation features an indestructible, headless Execution Sandbox. The Terminal Agent handles virtual environments, bypasses interactive prompts in "CI Mode," and actively pings local network ports to guarantee server stability. If an application throws an error on startup, the Supervisor Agent catches the runtime traceback, calculates a project stability score, and triggers a surgical, self-healing Repair Loop to patch the codebase without human intervention. To guarantee zero downtime, the architecture is shielded by a Universal LLM Gateway featuring multi-provider failover routing, dynamically shifting loads between Tier-1 models like Gemini, Claude, and GPT-4o if rate limits are hit. Operators monitor this entire hive mind through a premium, zero-simulation Cyberpunk Dashboard. Powered by real-time WebSockets, this command center streams deterministic telemetry, agent state updates, and system logs with millisecond precision, proving that the AI is not just writing code—it is autonomously orchestrating an entire software factory.

AI Crisis Command & Coordination Platform

AI Crisis Command & Coordination Platform

An AI Crisis Command & Coordination Platform is an enterprise-grade, multi-agent operational operating system designed to stabilize high-stakes chaos and synchronize real-time emergency responses during large-scale incidents (e.g., natural disasters, mass-scale cyberattacks, industrial failures, or civil defense threats). By acting as an intelligent "system of systems," the platform unifies disjointed physical and digital infrastructure into a singular, actionable operational layer. It transforms traditional reactive emergency management into a proactive, algorithmically assisted orchestration framework. 1. Core Structural Engine The platform's architecture shifts emergency management from rigid, manual workflows to an agile, automated data-to-action pipeline.Intelligent Data Ingestion: The platform continuously aggregates and cleans highly fragmented, multi-modal data streams in real time. This includes live IoT sensor grids, geospatial satellite imagery, municipal infrastructure feeds, encrypted field radio transcriptions, and external environmental APIs (weather, seismic activity, grid load). Autonomous Multi-Agent Orchestration: At its core, specialized AI agents operating on a shared, low-latency layer collaborate to manage sub-tasks simultaneously. For instance, if an industrial breach occurs, a Logistics Agent instantly calculates optimal route diversions, a Hazmat Agent models plume dispersion, and a Communications Agent drafts localized public warnings—all without human bottlenecks. Calibrated User Experience (UX): Designed specifically for high-stress operational environments, the user interface enforces strict visual hierarchy. It suppresses non-essential analytical noise, highlights high-priority triage vectors, and presents critical indicators through clean, digestible visual matrices to minimize cognitive overload for dispatchers and commandeR

MedSync AI Collaborative Crisis Intelligence

MedSync AI Collaborative Crisis Intelligence

TASK 3 — LONG DESCRIPTION Problem Every year, U.S. hospitals face over 150 million emergency department visits and thousands of mass casualty events. When a Level 3 Critical surge strikes — a multi-vehicle accident, an industrial disaster, a pandemic spike — the difference between life and death is measured in minutes. Yet the coordination systems hospitals depend on were designed for a pre-digital era. Incident commanders juggle phone calls, whiteboards, and pagers. Capacity managers refresh spreadsheets. Staffing coordinators text on-call nurses. Resource managers fax mutual aid requests. Compliance officers review binders of regulatory requirements. The result is catastrophic coordination failure: 34% of preventable hospital deaths are attributed to communication breakdowns during emergencies (Joint Commission, 2023) Average surge response time is 47 minutes — 37 minutes longer than best-practice targets $2.1M average cost per mass casualty event in operational inefficiency alone 72% of hospitals report that their Incident Command System breaks down under real pressure EMTALA violations during surges carry $119,942 fines per incident and potential loss of Medicare funding The fundamental problem is not a lack of data — it is a lack of coordinated decision-making under pressure. No single person can simultaneously optimize bed allocation, nurse staffing ratios, ventilator supply chains, and regulatory compliance within a 10-minute window. Solution MedSync AI is a Collaborative Multi-Agent System that brings autonomous, coordinated, AI-driven decision intelligence to hospital emergency response. Unlike a chatbot or a dashboard, MedSync AI deploys 5 specialized AI agents that work together — reading each other's outputs, challenging each other's recommendations, and negotiating until the plan is compliant, optimal, and ready for human approval.