Project · Extension and Innovation · UTN FRSR

Aventuras Deportivas

GPS tracking and telemetry for mountain sports events

A technology proposal to know where participants are during mountain races, even in areas with limited mobile connectivity, and to display their route on a digital map.

Aventuras Deportivas logo

Maturity

Proof of Concept · TRL 2–3

Project overview

From the mountain to the screen

Aventuras Deportivas is developing a GPS tracking and telemetry solution for mountain sports events. The system aims to receive each participant's position, relay it from areas without mobile coverage and display it on a map to support race organisation and monitoring.

Setting

Mountain races and trail running over large terrains.

Problem

Weak or no mobile coverage along the course.

Approach

LoRa radio + gateways + backend + web map, without relying on phones.

Project description

What is Aventuras Deportivas?

Aventuras Deportivas is a university innovation project applied to outdoor sports events. Within its broader scope, current work focuses on building our own GPS (Global Positioning System) tracking system to know where each participant is during a mountain competition.

The project combines electronics, communications, software development and geospatial tools. Rather than relying on a closed foreign platform, the goal is to study, develop and validate a local solution that can adapt to organisers' real needs and evolve over time.

The challenge

GPS tracking in hard-to-reach areas

In a mountain race, mobile coverage can be weak or non-existent. This lack of connectivity makes it hard to know where runners are and limits the organisers' ability to follow the event. The challenge is to obtain a useful position from the field, relay it over long distances and make it available to the system without requiring each participant to have Internet on their phone.

Solving this end-to-end chain would provide an up-to-date reference for each device, improve operational visibility during the race and lay the foundations for a tool designed specifically for events in hard-to-reach environments.

From the mountain to the screen

How does it work?

Five steps take a coordinate from the field to the organisers' map.

  1. 01

    The device gets the position

    The GPS calculates the participant's coordinates and the ESP32 prepares them for transmission.

  2. 02

    The position travels by radio

    LoRa transmits small messages over long distances without requiring mobile coverage for the runner.

  3. 03

    Gateways receive the telemetry

    Stations placed along the course collect the messages sent by multiple devices.

  4. 04

    Data reaches the central system

    The connection planned for the PoC sends the information to the backend, where it is validated and stored.

  5. 05

    The web shows the route

    Stored positions are overlaid on the map to show each participant's progress.

The tracker in action

From the device to the map

A look at the GPS tracker sending positions and the route being displayed on the web map during the Proof of Concept simulations.

Two different, complementary tasks

Before the race · QGIS

Used to work with the terrain offline: preparing the course, analysing the relief and studying where best to place the gateways.

During the race · Mapbox

Acts as the visual stage of the website. The map stays ready and what changes are the coordinates arriving from the trackers.

Architecture

A modular architecture

The solution is designed as components: the device gets the position; LoRa carries it; gateways receive it; the backend processes it; PostgreSQL stores it; and the web application displays it.

GPS + ESP32
LoRa
Gateways
Backend
PostgreSQL
Web map

This separation makes it possible to test each part independently and replace technologies if PoC evidence shows a better alternative.

Where we are

Development and early simulations

The overall architecture is already defined as a working baseline, and the team has started simulating positions to check how data is received, processed and stored. This stage corresponds to preparing a Proof of Concept at TRL 2–3 maturity.

The system is not yet presented as a finished solution, nor has it been validated in a real race. Full integration of device, communication, gateway, backend, database and visualisation will be demonstrated progressively through controlled tests and, later on, field tests.

  1. Design and technical foundations

    Problem definition, architecture, components, data flow and initial software structure.

  2. 2

    Development and simulations

    Current phase

    Building the backend and testing with simulated positions to validate processing and persistence.

  3. 3

    Integration and field tests

    Connecting the devices, LoRa, gateways, Internet access and route visualisation in real conditions.

Goals and outlook

What do we aim to achieve?

Immediate goal

Show that a coordinate generated in the field can travel end to end through the whole technology chain: GPS tracker, LoRa communication, gateway, Internet connection, backend, database and web map. This validation will reveal which parts work, which need adjusting and which decisions should be revisited before moving towards a larger deployment.

Medium term

Become a reusable technology foundation for organising and supporting sports events in areas with limited connectivity. A local, modular and scalable alternative that reduces dependence on external solutions and creates experience, knowledge and technology-transfer opportunities from the university.

Applications and outlook

Aimed mainly at mountain races, trail running and other outdoor events on long courses or with low connectivity. It also serves as a learning and research platform.

  • IoT telemetry
  • Long-range communications
  • Geospatial analysis
  • Real-time web systems

Its value lies not only in showing a dot on a map, but in integrating several technologies to meet a concrete need of the territory and of sports organisers.

Mountain racesTrail runningGPSESP32LoRaQGISMapboxPostgreSQL

Team

The people who make it possible

Project developed within the Extension and Innovation programme of Universidad Tecnológica Nacional, Facultad Regional San Rafael.

Lourdes Rizza

Lourdes Rizza

Systems Engineering student

Angelina Magallanes

Angelina Magallanes

Systems Engineering student

Maite Puente

Maite Puente

Systems Engineering student

Valentina Peñasco

Valentina Peñasco

Systems Engineering student

Sharon Vico

Sharon Vico

Systems Engineering student

Milagros Franco

Milagros Franco

Industrial Engineering student

Do you organise mountain events or are you interested in IoT telemetry?

We are looking for organisers, institutions and collaborators for upcoming controlled and field tests.

Institutions that support us

Universidad Tecnológica NacionalUniversidad de MendozaEscuela Da VinciINTA
Universidad Tecnológica NacionalUniversidad de MendozaEscuela Da VinciINTA