Scenario: Prove that places closer to the equator are hotter, and locate a few places with the perfect weather for a vacation. Use OpenWeatherMap API, jupyter-gmaps and the Google Places API.
Part I - WeatherPy Create a Python script to visualize the weather of 500+ cities across the world of varying distance from the equator and plot the relationship of various weather measurements across latitudes.
Part II - VacationPy Create a heatmap of humidities for the cities from part 1. Then, narrow down the list of cities to the places with ideal weather for a vacation. Find a hotel in each city and plot it with a marker on top of the heatmap.
In this repo
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output_data folder
- cities.csv: city weather generated in Part I.
- Cloudiness.png: Cloudiness vs. Latitude graph from Part I
- heatmap.png from Part II
- heatmap_with_hotels.png from Part II
- humidity.png: Humidity vs. Latitude graph from Part I
- max_temp.png: Maximum Temperature vs. Latitude graph from Part I
- north_cloudiness.png: Cloudiness vs. Latitude, Northern Hemisphere graph from Part I
- north_humidity.png: Humidity vs. Latitude, Northern Hemisphere graph from Part I
- north_max_temp.png: Maximum Temperature, Northern Hemisphere vs. Latitude graph from Part I
- north_wind_speed.png: Wind Speed vs. Latitude, Northern Hemisphere graph from Part I
- south_cloudiness.png: Cloudiness vs. Latitude, Southern Hemisphere graph from Part I
- south_humidity.png: Humidity vs. Latitude, Southern Hemisphere graph from Part I
- south_max_temp.png: Maximum Temperature, Southern Hemisphere vs. Latitude graph from Part I
- south_wind_speed.png: Wind Speed vs. Latitude, Southern Hemisphere graph from Part I
- wind_speed.png: Wind Speed vs. Latitude graph from Part I
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VacationPy folder
- VacationPy.ipynb: code for Part II
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WeatherPy folder
- WeatherPy.ipynb: code and observations for Part I