@masterthesis{Mughal2025, type = {Bachelor Thesis}, author = {Mughal, Abdul Qadir}, title = {Design and Development of an Automated Hyperspectral Imaging System for Plant Monitoring}, url = {http://nbn-resolving.de/urn:nbn:de:hbz:1383-opus4-22614}, school = {Hochschule Rhein-Waal}, pages = {114}, year = {2025}, abstract = {This thesis presents the design and construction of a prototype automated plant monitoring system that integrates hyperspectral imaging with a custom linear motion structure for greenhouse applications. Controlled by an Arduino-driven stepper motor, the system positions two hyperspectral cameras (covering visible-near-infrared and short-wave infrared ranges) and a stereo RGB camera along a linear guide to capture consistent and repeatable measurements. Calibration and data acquisition are managed by specialized software, enabling detection of early drought stress indicators such as pigment and water content changes before visible symptoms occur. Assembled and tested at Fraunhofer IGD, the prototype demonstrated reliable operation and consistent spectral data collection, providing a versatile foundation for future enhancements including automated workflows, machine learning-based analysis, and application in diverse agricultural settings.}, language = {en} } @masterthesis{Thissen2025, type = {Bachelor Thesis}, author = {Thissen, Erik}, title = {Entwicklung eines prototypischen Tools zur Automatisierung der Erstellung von Linked Open Data aus Open Data Datens{\"a}tzen}, school = {Hochschule Rhein-Waal}, year = {2025}, abstract = {Linked Data has become an increasingly important publication format for structured information. This thesis explores the extent to which the conversion of Open Data into Linked Open Data can be automated and identifies the main challenges and sources of error. The creation of a prototypical tool was used to gain insights into these challenges and sources of error during the conversion to Linked Data. These were then analyzed and solutions to these problems created. The resulting tool was evaluated with different Open Data datasets. The results show that it is able to partially automate the process of converting Open Data to Linked Open Data and that it succeeded in eliminating key barriers, like the necessary programming skills, currently needed to create Linked Data. This prototype contributes towards decreasing the barrier of entry to create Linked Data and indicates that further research could lead towards the fully automatic conversion to RDF.}, language = {de} } @masterthesis{Khatiwada, type = {Bachelor Thesis}, author = {Khatiwada, Sabin}, title = {AUTOMATION OF SOLAR WATER DISINFECTION (SODIS) ON A SMALL-SCALE USING ARDUINO DUE}, school = {Hochschule Rhein-Waal}, abstract = {Clean water is essential for human health and well-being. In many parts of the world, access to safe drinking water is limited, leading to various waterborne diseases. Solar water disinfection(SODIS) is a simple and cost-effective method used to purify water using sunlight, where itinactivates the pathogens and makes the water safe for consumption. This disinfection process involves filling polyethylene terephthalate (PET) bottles with water and exposing them to sunlight for a specified period. The aim of this thesis is to develop a working prototype that exploresthe automation of SODIS on a small-scale using Arduino Due, a microcontroller board that offers advanced features for automation. The prototype consists of the necessary parts to perform SODIS automatically. In conventional SODIS, it is assumed that the required SODIS criteria are met within 6 hours of a sunny day. In contrast, in the prototype microcontroller pumps the water into the PET bottle, monitors sunlight exposure for 6 hours, determines disinfection, and then pumps out the water for consumption only when the threshold values for irradiance are met. If the conditions are not met, the exposure is extended by an hour each time and checked again. The prototype automates the SODIS on a small-scale using cost-efficient components. However, the prototype lacks oxygenation capacity, and there is a possibility of entering an infinite loop if the irradiance values are not met for a long time. The prototype could be further developed with extra sensors and extensive research for advanced automation.}, language = {en} }