All posts

Can Python Predict a Spotify Hit? One Analysis of 30,000 Songs

Manaal KhanMay 2, 2026 at 10:43 PM5 min read
Can Python Predict a Spotify Hit? One Analysis of 30,000 Songs

Key Takeaways

Article image
  • Kaggle datasets let you skip API setup and start analyzing Spotify data immediately
  • Standard Python libraries like pandas, NumPy, and Seaborn handle music analytics well
  • Jupyter notebooks make exploratory data analysis reproducible and shareable

What separates a Spotify hit from the millions of tracks that never break through? David Delony, a tech journalist at How-To Geek, decided to answer that question with data. He downloaded a dataset of over 30,000 Spotify songs and built a Python analysis to find patterns.

The project shows how accessible music data analysis has become. You don't need a Spotify developer account or API expertise. Kaggle hosts prebuilt datasets that anyone can download and explore.

Getting Started With Kaggle Data

Spotify makes data available to developers through its API. But scraping that data yourself takes time. Delony took a shortcut: he downloaded a dataset compiled by Joakim Arvidsson on Kaggle, a platform where data scientists share datasets and compete in machine learning challenges.

The download is a single command if you have the Kaggle CLI installed:

bash
kaggle datasets download joebeachcapital/30000-spotify-songs

From there, Delony set up a Jupyter notebook to document his analysis. He published the notebook on GitHub so others can follow along or extend the work.

The Python Stack for Music Analysis

The analysis uses a standard Python data science toolkit. Here's the import block that sets up the environment:

python
import numpy as np
import pandas as pd
import seaborn as sns
sns.set_theme()
%matplotlib inline
import matplotlib.pyplot as plt
import statsmodels.formula.api as smf
import statsmodels.api as sm
from scipy import stats

Each library handles a specific job. NumPy provides numerical analysis and linear algebra. pandas manages tabular data through DataFrames. Seaborn creates statistical visualizations. Statsmodels builds the regression models that test hypotheses about what makes songs popular.

The first few lines of the Spotify dataset in Jupyter.
The first few lines of the Spotify dataset in Jupyter.

Loading the data into pandas takes one line:

python
spotify = pd.read_csv('data/spotify_songs.csv')

What the Dataset Contains

The Kaggle dataset includes a data card explaining each column. Some fields are identifiers like track_id. Others capture audio features that Spotify calculates for every track: danceability, energy, tempo, valence (musical positivity), and more.

These audio features give the analysis something concrete to measure. Instead of asking vague questions like "what makes a song catchy," you can test specific hypotheses. Do higher-energy songs get more streams? Does danceability correlate with playlist placement?

Descriptive statistics from the Spotify dataset columns.
Descriptive statistics from the Spotify dataset columns.

Visualizing the Data

Delony used Seaborn's visualization tools to explore patterns. Histograms show the distribution of popularity scores. Box plots compare how different genres cluster around certain audio features.

Histograms of the columns of Spotify dataset.
Histograms of the columns of Spotify dataset.

The visualizations reveal that popularity isn't evenly distributed. Most tracks cluster at lower popularity scores, with a long tail of genuine hits. This matches intuition: most songs don't break through, but the ones that do can reach massive audiences.

Boxplot of Spotify track popularity by playlist genre.
Boxplot of Spotify track popularity by playlist genre.

Why This Matters for Analysts and Hobbyists

The technical barrier to this kind of analysis has dropped significantly. A decade ago, you'd need database skills, API expertise, and serious statistical training. Now, a Kaggle dataset and a few Python libraries get you started in an afternoon.

For businesses, these same techniques apply to any domain with available data. Customer behavior, product performance, market trends. The tools are the same. The questions change.

Spotify popularity by genre ANOVA results with statsmodels, showing statistically significant p-value.
Spotify popularity by genre ANOVA results with statsmodels, showing statistically significant p-value.
Bar plot of Spotify track popularity by playlist genre.
Bar plot of Spotify track popularity by playlist genre.
ℹ️

Logicity's Take

Also Read
5 Free Wi-Fi Tweaks That Beat Buying a New Router

Another practical guide to getting more from existing tools

Try It Yourself

Delony published his Jupyter notebook on GitHub. If you have Python installed, you can clone the repository and run the analysis on your own machine. Swap in a different dataset. Ask different questions. The framework transfers.

Frequently Asked Questions

Where can I download Spotify song data for analysis?

Kaggle hosts several Spotify datasets compiled by developers who used the Spotify API. You can download them with the Kaggle CLI or through the web interface.

What Python libraries do I need for music data analysis?

The core stack includes pandas for data manipulation, NumPy for numerical operations, Seaborn and Matplotlib for visualization, and statsmodels for statistical modeling.

Do I need a Spotify developer account to analyze music data?

Not if you use prebuilt datasets from Kaggle. You only need a developer account if you want to scrape fresh data directly from Spotify's API.

What audio features does Spotify track for each song?

Spotify calculates danceability, energy, tempo, valence (musical positivity), acousticness, instrumentalness, liveness, and speechiness for every track.

ℹ️

Need Help Implementing This?

Source: How-To Geek

M

Manaal Khan

Tech & Innovation Writer

Produced with AI assistance and reviewed by the Logicity editorial team. Learn more in our Editorial Policy.

Related Articles