Master this deck with 20 terms through effective study methods.
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The primary data collection techniques used in fieldwork include surveys (gathering opinions or facts through questionnaires or interviews), counts (quantifying specific occurrences), observations (recording behaviors or phenomena in natural settings), and measurements (taking precise measurements such as distances or temperatures).
Graphs such as bar graphs, line graphs, and pie charts can be used to visually show trends and comparisons in data, making it easier to interpret and understand patterns.
Charts and tables help organize and summarize raw data, providing clarity and making it easier for the audience to grasp complex information quickly.
Simple statistics such as averages (mean), percentages, and mode can be applied to summarize data patterns, helping to identify trends and key insights.
Maps, including thematic or annotated maps, can spatially represent data, allowing for a visual understanding of geographical relationships and patterns in the findings.
Diagrams such as flowcharts and process diagrams help illustrate concepts or data relationships, making complex information more accessible and understandable.
Writing summaries of key findings is important as it clearly explains the insights drawn from the data, ensuring that the main points are communicated effectively to the audience.
Digital tools such as presentation software, GIS mapping, and spreadsheets can enhance the clarity and appeal of data presentations by providing interactive and visually engaging formats.
Current transport systems contribute to air pollution, greenhouse gas emissions, noise, and habitat disruption, while reliance on fossil fuels increases the carbon footprint and global warming risks.
Congestion leads to inefficiency in transport systems, resulting in higher pollution levels due to increased emissions from idling vehicles and longer travel times.
Electric vehicles (EVs) are vehicles that use renewable electricity instead of petrol or diesel, significantly reducing emissions and contributing to a more sustainable transport solution.
Improvements to public transport can include expanding and enhancing buses, trains, and trams to increase efficiency and lower emissions per passenger, making it a more attractive option.
Building safe bike lanes and promoting cycling can reduce car use, leading to lower emissions and a healthier population, thus contributing to sustainable transport solutions.
Low-emission fuels, such as biofuels and hydrogen, are alternative energy sources that produce less pollution compared to traditional fossil fuels, helping to mitigate environmental impacts.
Factors to consider include pollution reduction potential, feasibility (cost and infrastructure needs), social benefits (accessibility and health improvements), and alignment with long-term sustainability goals.
Balancing long-term goals with immediate transport solutions is crucial to ensure that strategies are sustainable, scalable, and have a positive environmental impact over time.
Improving public transport can lead to increased accessibility, health improvements through reduced air pollution, and decreased congestion, benefiting the overall community.
Reliance on fossil fuels contributes to increased carbon emissions, which trap heat in the atmosphere and lead to global warming, exacerbating climate change.
Technology readiness refers to the current state of technology development and its ability to be implemented effectively; it is crucial for assessing the feasibility and potential success of sustainable transport solutions.
Public awareness and education can significantly influence sustainable transport initiatives by encouraging community participation, promoting behavioral changes, and increasing support for policy changes.