1) What is your international development research about?
We received GCRF@Essex research pump priming grants for two complementary projects.
a) Unravelling the Forest Fires in Lower Himalayan Forests: A Comprehensive Study of Indian Forest Regions in Uttarakhand using IoT technology
This project aimed to perform a comprehensive analysis of the underlying reasons for forest fires in the Pauri Garhwal district of Uttarakhand, India. The project was motivated by the severe environmental impacts of forest fires, which are a common occurrence in the region. Major factors contributing to the severe impact of fires are the difficult terrain and weather conditions in the area. The hills of Uttarakhand have a large number of villages in the middle Himalayan zone between 1000 and 2000m which are highly dependent on forests for their basic needs. Compared to standard forest fire technologies wireless sensor networks such as Internet of things (IoT) devices allow the monitoring of forest fires and the events leading up to fires in real time. We aimed to deploy a state-of-the-art internet connected multiple IoT devices in a key area of common fire incidents for 6 months during the winter season. The device would generate a rich dataset by monitoring key environmental variables such as CO2, O2, CO, NO2, temperature, humidity, methane, and ammonia levels. Analysis of this rich dataset would allow us to identify the key factors leading to the development of forest fires and to predict when a fire will occur and the areas at greatest risk of fires.
b) Machine Learning for In-network Performance Optimization of Wireless Sensor Networks and Internet of Things (IoT)
Wireless sensor networks (WSNs) and IoT-based environmental sensing devices are often deployed in regions with difficult terrains such as forest areas, where the parameters and networks statistics change continuously and frequently over time. The change in the network characteristics is imposed not only due to the external factors (e.g. node loss due to sudden animal movement, link loss due to harsh weather, inaccurate event detection due to multiple sound sources) but also because of the in-network parameters such as power failure, hop-to-hoc acknowledgement, stability period, and communication range. In such a scenario, processing multimodal data becomes a demanding task and is a prime concern for researchers working in difficult terrains. In this project we aimed to develop methodologies to aid the efficiency of WSN and IoT networks for data collection in difficult terrains.
2) What activities did your GCRF@Essex funding support?
GCRF@Essex funding supported online meetings with our research colleagues in India at the Indian Institute of Information Technology, Lucknow (IIIT-L), which helped us to define the objectives of our research collaboration.
For project A) a female researcher with expertise in machine learning was hired at IIIT-L with the view to analyse the forest fire dataset collected by the IoT device in the Uttarakhand forest region. Unfortunately, due to the COVID-19 outbreak, we were not able to deploy the IoT kit in the Pauri Garhwal forest region. However, our researcher analysed publicly available forest fire datasets acquired from the UC Irvine Machine Learning Repository (UCI) repository. These datasets allowed us to identify common features characterising the source and spread of forest fires in mountainous regions by applying machine learning methodologies. This work will feed into identifying areas in Uttarakhand at higher risk of fire damage.
For project B) we employed a female postdoctoral research assistant at IIIT-L for 5 months who developed methodologies to improve the efficiency of WSN and IoT devices.
In addition, we delivered a remote 5-day workshop: "Online International Workshop on Machine Learning Applications to Images, IoT and Wireless Sensor Networks" organised by IIIT-L. The workshop sessions were focused on IoT analysis, machine learning methods, computer vision, wireless sensor networks, and handling data distribution shifts. Workshop presenters were leading AI and machine learning experts from academia and industry from India and the UK. The workshop received more than 1200 applications of interest from Indian academics and industry professionals. We shortlisted 120 participants with focus on gender balance. All the tutorials were recorded and published on YouTube.
3) You are applying IoT technology to study Forest Fires in the Lower Himalayan Forests in India. How is your project benefitting this region and which Sustainable Development Goals (SDGs) are being addressed?
India falls in the “Lower Middle-Income Countries” category of the “DAC List of ODA Recipients Effective for reporting on aid in 2020”. Uttarakhand is a forest and biodiversity rich-Himalayan state with 45.32% of its geographical area under forest cover. It is the only north Indian state to have more than 33% of the area under forest cover. Fire is one of the major causes of forest degradation in India and has wide-ranging adverse ecological, economic and social impacts. The year 2016 (April- early June), witnessed a major Forest fire in the Chir Pine forests of Uttarakhand registering a total of 2069 Forest fire incidents affecting 4423 ha forests.
Our outlined challenges and proposed solutions are addressing Sustainable Development Goals (SDG) 13, 15 and 17. Our proposed project will identify the key regions at risk of fires in Uttarakhand and will identify important factors leading to the development of fires. This knowledge will enable local authorities to take preventive measures reducing the risk fires pose.
Our project has developed a well-structured dataset as well as a robust data analysis tool. Both will be published in open source data repositories. Our research collaboration and the online workshop helped to develop the research capacity in machine learning and complex data analysis at our partner institutions. We were also able to develop additional research project proposals. Our initial results will pave the way for larger studies, which may include using a drone to capture images and using computer vision to build a robust system, which can provide us with stronger evidence-based early-detection and prevention systems for forest fires.