At the heart of this weather prediction project lies a collection of meticulously curated weather data. More than just numbers, this data captures the rhythms of the atmosphere, from the shifting winds to the subtle changes in pressure, all over the city of Szeged, Hungary. Each data point tells a part of the story, revealing the hidden patterns that help forecast the unpredictable nature of the weather.
This dataset spans a rich 10-year period, covering weather patterns from 2006 to 2016. It includes key meteorological variables such as temperature, humidity, wind speed, atmospheric pressure, visibility, and rainfall. This comprehensive coverage, over such a significant period, provides a unique opportunity to analyze a broad range of weather events. With years of data to draw from, the project delves into the seasonal shifts and extreme events that define Szeged’s climate, making it an ideal foundation for predictive modeling.
Ensuring the accuracy of the data is essential for building reliable weather predictions. Each data point undergoes thorough inspection to catch and correct any anomalies, missing values, or outliers. This cleansing process guarantees that the data maintains its integrity, providing an accurate reflection of Szeged’s weather patterns. With clean, high-quality data as a starting point, the forecast models are built on a strong, reliable foundation that supports precise predictions.
While raw weather metrics are useful, adding layers of meaning through feature engineering transforms the data into something even more powerful. This dataset has been enriched with new variables, such as seasonal markers and trend indicators, that give deeper insight into long-term weather patterns. These additional features enhance the dataset’s predictive capabilities, allowing for more accurate forecasts that account for subtle shifts in the weather over time.
The data used in this project is sourced from the Kaggle API, a well-respected platform known for hosting high-quality datasets. The dataset offers hourly and daily weather details for Szeged, Hungary, ensuring a level of granularity that is essential for precise predictions. The structured and reliable nature of the Kaggle API allows for seamless integration into weather models, providing a robust foundation for exploring and forecasting future weather patterns.
Szeged, often called the "City of Sunshine," is an ideal location for weather analysis due to its diverse climate. The city experiences a continental climate, with hot, sunny summers and cold, damp winters. This variation offers a challenging and interesting case for weather prediction, as the models must handle both extremes of temperature. Szeged’s climate variability makes it the perfect environment for testing the accuracy and robustness of forecasting models, providing valuable insights across different weather scenarios.
The data for this project was retrieved via the Kaggle API, a repository known for its high-quality datasets. Spanning a decade, the dataset includes all the essential weather metrics needed to develop a comprehensive prediction model. The clean, well-structured format of the Kaggle dataset ensures that the data is ready for analysis without the typical hurdles often encountered with raw weather data.
Before diving into predictions, the dataset underwent a detailed exploration to uncover meaningful relationships between different meteorological variables. Python libraries like Pandas, Matplotlib, and Seaborn were used to visualize and analyze the data, revealing key trends and patterns. This exploratory phase was crucial for understanding how various factors like temperature, humidity, and wind speed interact over time. The deep insights gained from this exploration formed the backbone of the predictive models, ensuring that each forecast is grounded in a thorough understanding of the data.
This decade-long weather dataset offers a unique glimpse into the atmospheric patterns of Szeged, creating a strong foundation for accurate and meaningful weather predictions.
Variables:
- Number of Rows: 96,453 entries
- Number of Columns: 12 columns
1. Formatted Date: Object (string) – The date and time of each observation.
2. Summary: Object (string) – A short description of the weather conditions.
3. Precip Type: Object (string) – Type of precipitation (rain or snow); contains some missing values.
4. Temperature (C): Float – Temperature in Celsius.
5. Apparent Temperature (C): Float – Feels-like temperature in Celsius.
6. Humidity: Float – Humidity as a value between 0 and 1.
7. Wind Speed (km/h): Float – Wind speed in kilometers per hour.
8. Wind Bearing (degrees): Float – Wind direction in degrees.
9. Visibility (km): Float – Visibility in kilometers.
10. Loud Cover: Float – Likely a typo; contains constant values (0) and may refer to cloud cover.
11. Pressure (millibars): Float – Atmospheric pressure in millibars.
12. Daily Summary: Object (string) – A summary of the weather conditions for the day.
The dataset provides detailed weather observations over time, including temperature, humidity, wind speed, and visibility, which can be useful for weather analysis or forecasting tasks.