In the Collaborative Science Project, modern science meets global engagement. IB Group 4 students collaborate on pressing global challenges, understanding the deep connections between local to global scales. Through analyzing intricate systems and processes, they craft strategic solutions. This initiative not only harnesses technology and teamwork but also fosters critical thinking and global citizenship, preparing students to address real-world complexities. Here are some ideas connected to the Sustainable Development Goals.
Bio: Explore plants' genetics and microbiome for enhanced growth and resistance.
Chem: Investigate soil chemistry and design optimal fertilizers.
Phys: Work on sensors that detect soil moisture, light, and temperature.
ESS: Evaluate the long-term environmental impacts of various farming practices.
CS: Code a comprehensive software tool that integrates data from all sensors to optimize farm productivity.
Bio: Research bio-filters, such as plants or bacteria, that can clean water.
Chem: Study contaminants in water and devise chemical methods to purify water.
Phys: Develop efficient desalination and filtration systems.
ESS: Evaluate the sustainability of water sources and impacts of contamination.
CS: Design an app or software that can track and predict water quality in real-time.
Bio: Investigate the most efficient bio-organisms (like algae) for biofuel production.
Chem: Examine the extraction and refining processes of biofuel.
Phys: Assess the energy content and combustion efficiency of the biofuel.
ESS: Study the impact of biofuel versus fossil fuels on the environment.
CS: Develop a system or model to optimize biofuel production based on variables from the other disciplines.
Bio: Investigate biodiversity in local urban parks or green roofs.
Chem: Analyze soil health and contamination in urban gardens.
Phys: Study microclimate effects of urban green spaces.
ESS: Assess environmental benefits like carbon sequestration and stormwater management.
CS: Develop an app for mapping, reviewing, and suggesting urban green space improvements.
Bio: Study microbes or enzymes that can break down plastics.
Chem: Examine the molecular structure of different plastics and the by-products of their degradation.
Phys: Investigate physical processes that can aid degradation (e.g., UV exposure, heat).
ESS: Assess the environmental impact of plastics and their breakdown products.
CS: Design a system to monitor and enhance the efficiency of biodegradation in controlled settings.
Phys: Develop sensors to detect early signs of disasters (like seismometers for earthquakes).
Bio: Research how flora and fauna react to changes before disasters (e.g., animal behavior before tsunamis).
Chem: Monitor changes in air or water composition that might precede certain events.
ESS: Understand the larger geophysical phenomena leading to natural disasters.
CS: Integrate the data from various sources into a real-time early warning system.