Low-Cost Conservation Technology
Lead Research Organisation:
University of Oxford
Department Name: Autonom Intelligent Machines & Syst CDT
Abstract
We are currently witnessing an ongoing mass extinction. This Anthropocene extinction is mainly caused by human activities that either directly decimate populations (e.g. over fishing and over hunting) or destroy their habitats (e.g. deforestation and pollution). Recently, human-induced climate change has additionally sped up habitat destruction, which is leading to an even greater loss of biodiversity. We hope to address this problem by providing better technology to conservation biologists. This should speed up and improve their investigations which will allow for more effective policy decisions.
Our goal is to foster open development of conservation technology. We expect that this will lead to faster progress and lower end-product costs. To do so, we will be making use of low-volume manufacturing, low-power microcontrollers and cloud processing. As a first step, we want to apply these ideas to the development of a GPS receiver for wildlife tracking.
This GPS receiver will use a snapshot method, which means that it only records milliseconds of data at regular intervals. This leads to very low power consumption, which allows for smaller batteries, which in turn means less obtrusive tracking devices. Apart from the technical challenge of building the software and hardware, there is also the problem of making the solution scalable so that it can be accessible to researchers around the world. Some work has already been done on both the algorithms and the electronics for this approach. However, there currently exists no complete open-source solution stack and, more importantly, no affordable end-product. This is what conservation biologists will need to do large-scale GPS tracking.
This project relates to the following EPSRC's research areas: sensors and instrumentation, digital signal processing.
Our goal is to foster open development of conservation technology. We expect that this will lead to faster progress and lower end-product costs. To do so, we will be making use of low-volume manufacturing, low-power microcontrollers and cloud processing. As a first step, we want to apply these ideas to the development of a GPS receiver for wildlife tracking.
This GPS receiver will use a snapshot method, which means that it only records milliseconds of data at regular intervals. This leads to very low power consumption, which allows for smaller batteries, which in turn means less obtrusive tracking devices. Apart from the technical challenge of building the software and hardware, there is also the problem of making the solution scalable so that it can be accessible to researchers around the world. Some work has already been done on both the algorithms and the electronics for this approach. However, there currently exists no complete open-source solution stack and, more importantly, no affordable end-product. This is what conservation biologists will need to do large-scale GPS tracking.
This project relates to the following EPSRC's research areas: sensors and instrumentation, digital signal processing.
People |
ORCID iD |
Alexander Carl Rogers (Primary Supervisor) | |
Amanda Matthes (Student) |
Studentship Projects
Project Reference | Relationship | Related To | Start | End | Student Name |
---|---|---|---|---|---|
EP/S024050/1 | 30/09/2019 | 30/03/2028 | |||
2634842 | Studentship | EP/S024050/1 | 30/09/2019 | 29/09/2023 | Amanda Matthes |