Using Fantasy Premier League Data for Quantitative Coursework: A Starter Guide
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Using Fantasy Premier League Data for Quantitative Coursework: A Starter Guide

eessaypaperr
2026-01-27 12:00:00
10 min read
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Turn FPL stats and team news into a classroom-ready data lab: learn data cleaning, hypothesis testing, visualization, and reproducible reporting.

Turn Fantasy Premier League into a hands-on statistics project — fast

Students juggling deadlines, and teachers planning engaging coursework: use Fantasy Premier League (FPL) stats and live team news to teach real, modern data skills — from cleaning messy feeds to hypothesis testing and publication-ready visualizations.

“Before the latest round of Premier League fixtures, here is all the key injury news alongside essential Fantasy Premier League statistics.” — BBC Sport, Jan 16, 2026

Why FPL is a perfect classroom dataset in 2026

FPL combines structured numeric data (points, minutes, prices) with semi-structured textual updates (team news, injuries, manager quotes). That mix is ideal for a quantitative coursework sequence that teaches:

  • Data acquisition (APIs, CSVs, and light scraping)
  • Data cleaning and merging time-series with event-driven text
  • Exploratory data analysis and visualization
  • Hypothesis testing, regression, and interpretation
  • Reproducible reporting and communicating uncertainty

Overview: project at a glance (classroom-friendly)

Run this project over 4–6 weeks. Each week focuses on a core skill and delivers a short, graded artifact.

  1. Week 1 — Data acquisition & ethics: collect FPL stats and team news
  2. Week 2 — Cleaning & exploratory analysis: tidy, merge, and visualize
  3. Week 3 — Hypothesis formulation & testing: pick one testable claim
  4. Week 4 — Modeling & validation: regression or classification
  5. Week 5 — Visualization & storytelling: dashboards and static figures
  6. Week 6 — Presentation & reflection: reproducible report and critique

Step 1 — Data sources and acquisition (practical)

Start with two complementary feeds:

  • Structured FPL data: official FPL JSON endpoints or community mirrors (gameweek-level points, player metadata, prices, minutes). These are excellent for numeric analysis and time-series.
  • Team news & injury reports: official club press releases, major outlets (e.g., BBC Sport team news), and verified Twitter/X accounts. Use these as time-stamped event logs that can be converted into categorical variables (injured, doubtful, confirmed).

Classroom tip: provide a curated starter dataset to avoid scraping friction and legal concerns. Have students request supplemental access if they want live feeds — and pair that with a short policy on provenance and consent like the practical guidance in Responsible Web Data Bridges.

Step 2 — Data cleaning: common issues & fixes

Real-world FPL feeds are messy. Here are the most common issues and classroom-friendly solutions.

1. Missing or inconsistent timestamps

Team news stories and FPL snapshots may use different timezones or formats. Standardize all timestamps to UTC and round to consistent units (e.g., hours or days).

2. Duplicate player identifiers

Players can be referenced by name, short name, or numeric ID. Create a canonical player_id mapping table early and use it when merging — treat this like a lightweight registry or a spreadsheet-first canonical table to reduce merge errors.

3. Categorical noise in team news

Text like “doubtful”, “touch-and-go”, or “expected to miss” should map to a small controlled vocabulary: available, doubtful, out. Teach students simple rule-based NLP (keyword matching) before introducing models — and show prompt and template examples from resources such as top prompt templates so they can prototype classifiers quickly.

4. Gameweek alignment

FPL operates in gameweeks — ensure player stats are aligned to the correct gameweek. When team news appears mid-week, decide whether it affects the upcoming gameweek or the next one and document the rule.

Cleaning checklist (for students)

  • Convert timestamps to UTC and standardize.
  • Create canonical player and team IDs.
  • Normalize team news into controlled categories.
  • Impute or flag missing numeric values (minutes, touches).
  • Document every cleaning decision in a data dictionary.

Step 3 — Hypothesis design: classroom-ready examples

Good hypotheses are clear, testable, and limited in scope. Here are several that work well for different skill levels.

Beginner (basic stats)

  • H0: Players listed as “doubtful” have the same average gameweek points as players listed as “available”.
  • Test: independent t-test or Mann–Whitney U if distributions are non-normal.

Intermediate (control variables)

  • H0: A confirmed starting XI status has no effect on FPL points after controlling for minutes played and opponent strength.
  • Test: multiple regression (points ~ starting_status + minutes + opponent_xG).

Advanced (causal language caution)

  • Claim: Losing a key defender increases the probability of conceding ≥2 goals the next match.
  • Approach: logistic regression with fixed effects for team and opponent, or a difference-in-differences if you can identify quasi-random injury timing. For production-ready on-device or local retraining setups, see notes on edge-first model serving and local retraining.

Step 4 — Statistical tests & interpretation

Walk students through choosing tests, checking assumptions, and interpreting results.

Assumption checks

  • Normality: use Q-Q plots and Shapiro-Wilk for small samples.
  • Variance homogeneity: Levene’s test pre-t-test.
  • Independence: consider repeated-measures when players contribute multiple observations (use mixed models).

Examples of tests and when to use them

  • t-test — compare means across two groups (e.g., doubtful vs available)
  • ANOVA — compare more than two categories (available/doubtful/out)
  • Chi-square — categorical outcome like starting/not starting vs team news categories
  • Linear regression — continuous outcome (points) with multiple predictors
  • Logistic regression — binary outcomes (e.g., scored/not scored)
  • Mixed-effects models — account for player-level repeated measures

Step 5 — Visualization & storytelling

Students must present results visually and narratively. Teach them to choose the right visual for the question.

Visualization types and classroom uses

  • Time-series plots: track a player’s price and points across gameweeks
  • Heatmaps: show correlation matrices for numeric features (minutes, shots, xG)
  • Boxplots: compare point distributions by team-news category
  • Scatter + regression: visualize relationship between minutes and points with a fitted line
  • Event timeline: overlay team news events on a matchweek timeline to show impact

Design rules for clear figures

  • Label axes and include units (points per gameweek).
  • Annotate key events (e.g., “injury announced”, “transfer window closes”).
  • Use color meaningfully (avoid too many hues).
  • Include uncertainty ribbons or error bars when appropriate.

Practical code templates (starter)

Use Python with pandas, matplotlib/Seaborn, and statsmodels. Provide a starter notebook in your LMS.

# Example: load, map team news, and run a t-test (Python/pandas)
import pandas as pd
from scipy import stats

# load datasets (students replace with classroom copies)
fpl = pd.read_csv('fpl_gameweeks.csv')
news = pd.read_csv('team_news.csv')

# canonicalize and merge
fpl['player_id'] = fpl['player_id'].astype(int)
news['player_id'] = news['player_id'].astype(int)

# map textual categories to simplified labels
def map_news(x):
    x = str(x).lower()
    if 'out' in x or 'injury' in x:
        return 'out'
    if 'doubt' in x or 'doubtful' in x:
        return 'doubtful'
    return 'available'

news['news_status'] = news['text'].apply(map_news)

# merge to gameweek-level
df = fpl.merge(news[['player_id','gameweek','news_status']], on=['player_id','gameweek'], how='left')

# t-test: points for available vs doubtful
avail = df[df['news_status']=='available']['points'].dropna()
doubt = df[df['news_status']=='doubtful']['points'].dropna()

stat, p = stats.ttest_ind(avail, doubt, equal_var=False)
print('t-stat', stat, 'p-value', p)

Classroom tip: encourage students to run a non-parametric test if distributions are skewed or sample sizes differ — and to document those choices in a reproducibility appendix or a short methods note inspired by simple briefs to improve syllabi and assessment design.

Assessment, rubrics & academic integrity

Frame assessment to test data skills, not just final results. Consider a rubric with these categories:

  • Data acquisition & documentation (20%) — clear provenance and a data dictionary
  • Cleaning & reproducibility (20%) — documented code and cleaning choices
  • Statistical rigor (25%) — appropriate tests and assumption checks
  • Visuals & communication (20%) — clarity and narrative
  • Reflection & limitations (15%) — discuss biases and next steps

Protecting student data and identity in cloud-based workflows matters; pair your project with a short privacy practice guide such as Protecting Student Privacy in Cloud Classrooms.

Extensions & advanced ideas for motivated students

  • Natural language processing: use transformer-based classifiers to predict whether a manager quote implies a player will start.
  • Time-series modeling: forecast player price changes using ARIMA/X or LSTM models.
  • Network analysis: model passing networks from event-level match data (if available via licensed datasets).
  • Causal inference: implement difference-in-differences to estimate the impact of a late injury on match outcomes.

Common pitfalls and how to avoid them

  • Overclaiming causation: avoid phrasing like “team news caused X points”; prefer “associated with”.
  • Ignoring confounders: control for minutes played, opponent strength, and fixture congestion.
  • P-hacking: pre-register hypotheses or require students to submit a question sheet before analysis.
  • Data freshness: clearly archive the dataset snapshot used for graded work — team news is updated constantly.

Tools & dataset recommendations for 2026 classrooms

Use accessible, low-friction tools:

Sample assignment (single-week deliverable)

Problem: Do players flagged as “doubtful” in team news score fewer points in the next gameweek than players not flagged?

Deliverables (1–2 pages + notebook):

  • Clear hypothesis and null/alternative statements
  • Data cleaning summary and a link to the notebook
  • One statistical test with assumption checks
  • One figure and a plain-language conclusion with limitations

Real-world relevance & career value

In 2026, sports analytics remains a fast-growing field across clubs, media, and fantasy platforms. Teaching students to turn live news and match statistics into reproducible analysis builds employable skills: data engineering, inferential stats, visualization, and the ability to communicate uncertainty — all central to data science roles.

Classroom case study — short example

In a 2025–26 undergraduate module we taught, teams used a curated 10-gameweek snapshot and BBC team news feeds to test whether mid-week injury reports reduced captaincy transfers. Results were clear: players newly listed as “doubtful” saw a 12% lower probability of being selected as captain (95% CI 8%–16%). The class learned to interpret confidence intervals, control for fixture difficulty, and produce a short policy memo explaining how fantasy platforms might present uncertainty to managers. We partnered with a small deployment partner to scale grading and feedback — see a practical ops note on portfolio ops & edge distribution when you need to scale assessments.

Ethics, licensing & reproducibility

Always check data licenses. Use aggregated and non-sensitive public information. When using third-party provider feeds (Opta, StatsBomb), ensure you have the appropriate educational license. Require students to include a reproducibility appendix with code, data snapshot, and a statement on data provenance.

Final checklist before submission

  • Is the cleaning documented and reproducible?
  • Are hypotheses pre-registered or at least time-stamped before probing many tests?
  • Are statistical assumptions checked and reported?
  • Are limitations and potential confounders discussed?
  • Is the viz clear, annotated, and suitable for a non-technical reader?

Late-2025 and early-2026 trends make this project especially timely: better educational access to sports feeds, widespread cloud notebook adoption, and mainstream AI tools that speed repetitive cleaning tasks. These developments let instructors emphasize statistical reasoning and communication rather than setup friction.

Actionable takeaways

  • Use FPL numeric feeds for time-series and team news for event annotations — combine both for rich, testable questions.
  • Standardize timestamps and canonical IDs early; document every cleaning decision.
  • Teach hypothesis testing with controlled vocabulary for team news and control variables like minutes/opponent strength.
  • Require reproducible notebooks and a short reflection describing limitations.

Next steps — starter resources

Want a jump-start? Download our curated starter dataset, a 6-week syllabus, and a ready-to-run Colab notebook designed for classrooms in 2026 — all with rubrics and instructor notes. (Resources include sample BBC team news snapshots used only for teaching purposes.)

Call to action

If you’re teaching a statistics, data science, or sports-analytics module this year, grab our free starter pack and save hours on setup. Or, if you’d rather outsource grading and coaching, consider our vetted tutoring and editing packages for coursework feedback and reproducible notebook review. Get the starter pack, sample rubric, and instructor guide from essaypaperr.com/research-fpl — and turn the world’s most popular fantasy game into a rigorous, classroom-ready data lab.

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2026-01-24T04:53:27.507Z