This article goes under-the-hood to explain how GPS technology works and the settings and situations that affect its precision.

Our new open access editorial discusses the challenges of creating training load guidelines and mandates.

This video discusses how invisible monitoring can be used in sports science. Invisible monitoring can negate the need for fitness testing.

In this video, we discuss athlete load monitoring & specifically, player tracking technologies, such as GPS, IMU, LPS, & Optical tracking.

I'm delighted to share our new open access article on Sports Performance and Science Reports: Tracking Systems in Team Sports Back to Basics

This post provides three action steps to help practitioners feel less overwhelmed by big data when monitoring athlete training load.

Decelerations are crucial to injury & perf but often overlooked. So, I set out to provide a practical guide to monitoring deceleration load.

Measures of distance and "PlayerLoad" demonstrated good reliability on a group level across trials of standardised football training games

The worst case scenario stemmed from practitioners & researchers seeking to understanding the most demanding passages of play. Is it valid?

I am pleased to share this new publication in Frontiers led by Amber Rowell. Using the training environment as a testing setting is an...

Part One of our Acute: Chronic Workload Ratio (ACWR) debate series outlined some of the contemporary research that include the metric in...

FIFA has officially allowed GPS in competitive matches. What does this mean for player tracking in football?

GPS technology provides coaches, sport scientists and athletes the opportunity to collect individual physical data that has not...

GPS units can contain a number of components including the satellite receiver, accelerometer, magnetometer, gyroscope and a battery...