Empirical StreetLight Path-Loss Model at 868/915 MHz

This paper presents an initial empirical path-loss propagation model for communication links operating at street light/roof-top heights over the ranges of 100 m to 10 km in urban and suburban environments.
The statistical path-loss model presented uses data taken from a significant number of deployed street-light telemetry systems transmitting in the licence exempt/ISM bands at 868 and 915 MHz.
This propagation model provides a valuable tool for network planning where typical cellular propagation models might not be appropriate.
M. C. Walden, T. Jackson and W. H. Gibson, “Development of an Empirical Path-Loss Model for Street-Light Telemetry at 868 and 915 MHz”, IEEE International Antennas and Propagation Symposium, Spokane, WA, USA, 3–8 July 2011.
doi:10.1109/APS.2011.6222775
Access this Technical Paper

Custom Motor Control Solution for Connected Fitness Equipment
Plextek developed a bespoke BLDC motor control solution for connected fitness equipment, delivering exceptionally low torque ripple and seamless system integration.
Read More

Overcoming Training Data Bottlenecks in Thermal Imaging with Transfer Learning
Plextek's automated transfer learning approach generates labelled thermal datasets using colour camera AI models, eliminating costly manual annotation.
Read More

Concealed object detection for real-time parcel security screening
Concealed object detection for real-time parcel security screening with mmWave sensor design and manufacture, and real-time AI processing
Read More

Machine Learning for Rapid Propagation Assessment
Developing a groundbreaking ML model for swift and efficient coverage prediction in complex urban environments, enabling rapid optimisation of transmitter locations on standard computing hardware.
Read More

Cost-Effective Improvement in mmWave Intensity
Enhancing the mmWave antenna design for Remedee Labs, significantly boosting RF radiation efficiency and cost-effectiveness in non-pharmaceutical chronic pain treatment.
Read More

Game-Changing Radar for the CLEAR Mission
Developing vital radar technology for the CLEAR mission, advancing space debris removal techniques to safeguard operational satellites and spacecraft.
Read More

Future Sensing: Improving Mobile Ad-hoc Networks
Leading a transformative four-year research initiative to improve mobile ad-hoc networks through advanced directional antenna systems and cross-layer processing, significantly enhancing military communication capabilities.
Read More

Millimetre-Wave Radar System
Expertly engineering a compact, high-performance 60 GHz millimetre-wave radar system using innovative Substrate Integrated Waveguide technology, achieving significant advancements in target detection up to 100 metres.
Read More

Communicating Across Surfaces
Using innovative expertise in metamaterials to facilitate the development of advanced surfaces, improving RF communication efficiency through pioneering surface wave technology for superior antenna design and wireless connectivity.
Read More

mmWave Radar for Foreign Object Debris Detection
Collaborating with WaveTech to develop an advanced mmWave radar system, enabling the rapid and automated detection of foreign object debris on runways, enhancing safety and operational efficiency at a South Korean airport.
Read More

Developing Automated Manufacturing Systems
Delivering a pioneering predictive maintenance solution for a global healthcare product company, utilising miniature battery-powered sensor systems to optimise automated production lines and significantly reduce costly downtimes.
Read More

Surveillance Radar for Comprehensive Threat Detection
Advancing a perimeter surveillance solution with long-range detection and low false-alarm rates, using state-of-the-art Passive Electronically Scanned Array technology for robust and maintenance-free operation in a range of demanding environments.
Read More































