Our Technology

Advanced BLE Mesh Networking

Connectivity Beyond Infrastructure

In today's connected world, we still face a fundamental limitation: traditional communication networks fail precisely when we need them most. Cellular networks become overwhelmed at crowded events, are unavailable in remote areas, and are vulnerable during emergencies.

We're developing a solution that transforms how devices communicate by creating decentralized, self-forming networks that operate independently of traditional infrastructure. By leveraging the Bluetooth Low Energy (BLE) capabilities already in your smartphone, we're building technology that creates resilient communication channels when conventional networks aren't available.

Traditional Networks

Traditional Network Architecture

All devices must connect to central infrastructure (cell towers, WiFi)

Mesh Networks

Mesh Network Architecture

Devices connect directly to each other, forming a resilient web of connections

How Mesh Networks Change Everything

Bluetooth has traditionally been a point-to-point technology, connecting one device directly to another over a limited range. Mesh networking fundamentally transforms this limitation by allowing messages to hop from device to device until they reach their destination.

Mesh Communication Flow
Conceptual Visualization

Node Discovery

Each device running our app automatically identifies other compatible devices within Bluetooth range.

Message Relay

Instead of sending messages directly to their final destination, devices pass them to nearby nodes, which continue forwarding them along optimal paths.

Dynamic Adaptation

As people move and conditions change, the network continuously reconfigures itself to maintain reliable communication paths.

Key Differences from Traditional Bluetooth

While standard Bluetooth connections work only between directly paired devices within about 30 feet, our mesh approach allows:

  • Communication across much greater distances
  • Messages to reach recipients even when they're not directly in range
  • Networks that grow stronger and more resilient as more users join

Benefits of This Approach

Infrastructure Independent

Works without cellular towers or WiFi access points

Scales Positively

Improves with more users rather than becoming congested

Redundant Paths

Creates multiple message routes for enhanced reliability

Uses Existing Hardware

Functions entirely on technology already in your smartphone

Turning Vision Into Reality

We're developing our BLE mesh networking technology based on established protocols while introducing proprietary innovations to optimize for specific challenges in mobile device communication.

Modified Flooding Mesh Protocol

Modified Flooding Mesh Protocol
Technical Concept

We're implementing an optimized version of flooding mesh protocols where devices intelligently relay messages based on network conditions rather than broadcasting all messages.

Challenge: Balancing message propagation reliability with network efficiency to prevent unnecessary transmission.

Status: Protocol design completed, implementation in progress.

Adaptive Power Management

Adaptive Power Management
Technical Concept

Our algorithms will dynamically adjust transmission power and scanning intervals based on network density, message priority, and device battery status.

Challenge: Creating efficient power profiles that maintain network reliability without excessive battery drain.

Status: Concept defined, implementation planning phase.

Store-and-Forward Reliability

Store-and-Forward Reliability
Technical Concept

Critical messages persist on intermediate devices until delivery confirmation, ensuring reliability even with intermittent connectivity.

Challenge: Managing storage constraints and privacy considerations with message persistence.

Status: Basic framework developed, authentication mechanisms in design.

Decentralized Group Management

Decentralized Group Management
Technical Concept

Users can create and manage communication groups that maintain integrity across the mesh without requiring centralized servers.

Challenge: Ensuring group consistency across distributed devices with potentially intermittent connectivity.

Status: Data structures defined, implementation beginning.

Overcoming Real-World Challenges

Creating effective mesh networks on consumer smartphones presents several significant technical challenges. Here's how we're addressing the most critical ones:

BLE Connection Limitations

Bluetooth Low Energy was designed primarily for peripheral device connections rather than peer-to-peer mesh networking, with limitations on connection quantities and types.

Our Approach

We're implementing a hybrid connection model that combines advertising and GATT connections, optimizing for different scenarios based on network conditions.

Current Status

Basic scanning and advertising implemented, connection management in development.

Battery Optimization

Continuous Bluetooth operation can significantly impact smartphone battery life, potentially making the application impractical for all-day use.

Our Approach

We're developing adaptive duty cycling algorithms that reduce power consumption during periods of stability while maintaining responsiveness when needed.

Current Status

Baseline power measurements established, optimization algorithms in design phase.

Security & Privacy

Mesh networks introduce unique security challenges, as messages travel through multiple third-party devices before reaching their destination.

Our Approach

End-to-end encryption ensures that only intended recipients can read message content, while our anonymous routing protocol prevents intermediate devices from tracking message origins and destinations.

Current Status

Security architecture defined, core encryption components identified.

Building on Solid Foundations

Technical Methodology

Our development approach combines established mesh networking research with practical mobile application considerations:

  • Iterative prototyping with real-world testing
  • Modular architecture allowing component-level optimization
  • Data-driven decision making based on performance metrics

Technologies We're Using

Our development leverages key technologies and frameworks:

  • Nordic Semiconductor's Bluetooth Mesh SDK
  • Android BLE APIs with custom extensions
  • Signal protocol-inspired end-to-end encryption
  • Open-source mapping technologies for location features

Research Foundations

Our approach is informed by established research in:

  • Mobile ad-hoc networks (MANETs)
  • Delay-tolerant networking
  • Energy-efficient protocol design
  • Mesh network security

The Path Forward

Current Technical Capabilities

We've established foundational elements of our technology:

  • Application architecture and user interface framework
  • Basic Bluetooth device discovery
  • Framework for message handling
  • Data structures for group management

Next Technical Milestones

Our immediate technical focus areas are:

  1. Complete implementation of the BLE mesh core using Nordic SDK
  2. Achieve reliable device-to-device message passing
  3. Implement message routing algorithms with basic optimization
  4. Develop functional group creation and management

Long-term Technical Vision

Beyond our initial implementation, we're planning to:

  • Optimize for increasingly larger mesh networks
  • Enhance location sharing precision and battery efficiency
  • Implement cross-platform support
  • Develop offline mapping capabilities
  • Create APIs for integration with other applications

Help Build the Future of Decentralized Communication

We're looking for individuals and organizations who share our vision for resilient, infrastructure-independent communication technology.