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📚 Chapters

Airbnb Senior Data Analyst Interview

✍️ By ANUJ SINGH | 11/14/2025



1. How to Identify the Top 3% Revenue-Generating Hosts in Each Country Using SQL?


ANS-

To find the top 3% of hosts by revenue in each country, first filter hosts with at least 50 stays in the last 6 months. Then use PERCENT_RANK() or NTILE() over a PARTITION BY country to isolate the top performers.

 

WITH filtered_hosts AS (
  SELECT host_id, country, SUM(revenue) AS total_revenue
  FROM stays
  WHERE stay_date >= CURRENT_DATE - INTERVAL '6 months'
  GROUP BY host_id, country
  HAVING COUNT(*) >= 50
),
ranked_hosts AS (
  SELECT *,
         PERCENT_RANK() OVER (PARTITION BY country ORDER BY total_revenue DESC) AS revenue_rank
  FROM filtered_hosts
)
SELECT * FROM ranked_hosts
WHERE revenue_rank <= 0.03;



2. SQL Trick to Find Users Who Rebook Within 7 Days After Canceling — Behavioral Retargeting Analysis?


ANS- 

To detect users who cancel and rebook within 7 days, self-join the bookings table on user ID and compare booking dates using DATEDIFF() or booking_date - cancel_date.


WITH canceled AS (
  SELECT user_id, booking_date AS cancel_date
  FROM bookings
  WHERE status = 'cancelled'
),
rebooked AS (
  SELECT user_id, booking_date AS new_booking
  FROM bookings
  WHERE status = 'confirmed'
)
SELECT c.user_id, c.cancel_date, r.new_booking
FROM canceled c
JOIN rebooked r ON c.user_id = r.user_id
WHERE r.new_booking > c.cancel_date
  AND r.new_booking <= c.cancel_date + INTERVAL '7 days';



3. Calculating Marketing Channel Conversion Rates in SQL Using CTEs and Window Functions?


ANS-

To compute conversion rates (bookings/searches) per marketing channel, use CTEs to join searches and bookings, then apply COUNT() with PARTITION BY.


WITH search_cte AS (
  SELECT user_id, channel
  FROM searches
),
booking_cte AS (
  SELECT user_id
  FROM bookings
),
combined AS (
  SELECT s.channel,
         COUNT(*) OVER (PARTITION BY s.channel) AS total_searches,
         COUNT(b.user_id) OVER (PARTITION BY s.channel) AS total_bookings
  FROM search_cte s
  LEFT JOIN booking_cte b ON s.user_id = b.user_id
)
SELECT DISTINCT channel,
       total_bookings,
       total_searches,
       ROUND(total_bookings::decimal / total_searches, 4) AS conversion_rate
FROM combined;



4. Detecting Duplicate Property Listings in Airbnb Data Using Fuzzy Matching and Geolocation Overlap in SQL?

ANS-


To catch duplicate listings, compare property names using LEVENSHTEIN() or cosine similarity, and filter by nearby lat/lon coordinates.


SELECT a.property_id AS prop1, b.property_id AS prop2,
       a.name AS name1, b.name AS name2,
       LEVENSHTEIN(a.name, b.name) AS name_distance
FROM properties a
JOIN properties b ON a.property_id < b.property_id
WHERE LEVENSHTEIN(a.name, b.name) < 5
  AND ABS(a.latitude - b.latitude) < 0.01
  AND ABS(a.longitude - b.longitude) < 0.01;



5. How to Optimize SQL Queries on Billion-Row Datasets: Indexing, Partitioning, and Materialized Views Explained?


ANS-

When your SQL query joins 3+ tables on a billion-row dataset, follow this step-by-step optimization strategy:


 Optimization Steps:


  1. Indexing: Add indexes on join keys and filter columns (e.g., user_id, date, status).
  2. Query Restructuring: Use CTEs to pre-aggregate or filter early. Avoid SELECT *.
  3. Partitioning: Partition large fact tables by date or region to reduce scan size.
  4. Materialized Views: Precompute heavy joins or aggregations and refresh periodically.
  5. Execution Plan Review: Use EXPLAIN ANALYZE to identify bottlenecks.
  6. Avoid Cartesian Joins: Always use proper ON conditions.

  7. 6. Why Are Long-Term Airbnb Stays Declining in Europe? A Data-Driven Investigation Framework?


  8.  Introduction

  1. Long-term stays (28+ nights) are a key growth segment for Airbnb, especially among remote workers, digital nomads, and families. If Europe sees a decline, it’s critical to investigate using structured data analysis.

  2.  Key Metrics to Track
  3. % of long-term stays: Share of bookings ≥28 nights by country and city
  4. Booking lead time: Average days between search and check-in
  5. Cancellation rate: Especially for long-term bookings
  6. Host availability: % of listings offering long-term options
  7. Average nightly rate: Compare long-term vs short-term pricing

  8. User Segmentation Strategy
  9. Segment users to uncover behavioral patterns:
  10. By traveler type: Solo, couple, family, remote worker
  11. By booking source: Mobile app, desktop, referral, partner sites
  12. By geography: Country, city tier (e.g., capital vs regional)
  13. By intent: Search keywords like “monthly stay,” “remote work,” etc.

  14.  Hypotheses to Test
  15. Seasonality shift: Are users opting for shorter vacations post-pandemic?
  16. Pricing mismatch: Are long-term rates less competitive than hotels or rentals?
  17. Policy changes: Are local regulations discouraging long-term hosting?
  18. Host fatigue: Are hosts removing long-term options due to maintenance or risk?
  19. Competitor impact: Are platforms like Booking.com or local rental sites gaining share?

  20. Conclusion
  21. A decline in long-term stays isn’t just a booking trend — it’s a signal. Use data to validate hypotheses, guide product decisions, and support hosts in adapting to evolving traveler needs.


7. How to Measure the Impact of AI-Based Price Suggestions for Airbnb Hosts?


* Introduction

Airbnb’s AI-powered pricing aims to help hosts optimize earnings and stay competitive. But how do we measure its real impact?


* Success Metrics Framework

Track both adoption and performance:

Adoption rate: % of hosts using AI suggestions

Override frequency: How often hosts reject or modify AI prices

Booking rate uplift: Change in bookings vs manual pricing

Revenue per available night (RevPAN): Total revenue / nights available

Conversion rate: Searches → bookings for AI-priced listings

Host satisfaction: Survey feedback or support ticket trends


* Experiment Design

A/B testing: Compare AI vs manual pricing cohorts

Time-series analysis: Pre/post adoption trends

Cohort segmentation: By host type, region, property size


* Bonus Metrics

Price elasticity: How sensitive bookings are to price changes

Competitive benchmarking: Compare AI-priced listings to similar ones nearby


* Conclusion

AI pricing isn’t just about automation — it’s about trust, performance, and host empowerment. A robust framework ensures the feature delivers real value.


6️Why Are Long-Term Airbnb Stays Declining in Europe? A Data-Driven Investigation Framework


Introduction

Long-term stays (28+ nights) are a key growth segment for Airbnb, especially among remote workers, digital nomads, and families. If Europe sees a decline, it’s critical to investigate using structured data analysis.


Key Metrics to Track

  • % of long-term stays: Share of bookings ≥28 nights by country and city
  • Booking lead time: Average days between search and check-in
  • Cancellation rate: Especially for long-term bookings
  • Host availability: % of listings offering long-term options
  • Average nightly rate: Compare long-term vs short-term pricing


User Segmentation Strategy

Segment users to uncover behavioral patterns:

  • By traveler type: Solo, couple, family, remote worker
  • By booking source: Mobile app, desktop, referral, partner sites
  • By geography: Country, city tier (e.g., capital vs regional)
  • By intent: Search keywords like “monthly stay,” “remote work,” etc.


Hypotheses to Test

  • Seasonality shift: Are users opting for shorter vacations post-pandemic?
  • Pricing mismatch: Are long-term rates less competitive than hotels or rentals?
  • Policy changes: Are local regulations discouraging long-term hosting?
  • Host fatigue: Are hosts removing long-term options due to maintenance or risk?
  • Competitor impact: Are platforms like Booking.com or local rental sites gaining share?


 Conclusion

A decline in long-term stays isn’t just a booking trend — it’s a signal. Use data to validate hypotheses, guide product decisions, and support hosts in adapting to evolving traveler needs.

 

7️. How to Measure the Impact of AI-Based Price Suggestions for Airbnb Hosts


Introduction

Airbnb’s AI-powered pricing aims to help hosts optimize earnings and stay competitive. But how do we measure its real impact?


Success Metrics Framework

Track both adoption and performance:

  • Adoption rate: % of hosts using AI suggestions
  • Override frequency: How often hosts reject or modify AI prices
  • Booking rate uplift: Change in bookings vs manual pricing
  • Revenue per available night (RevPAN): Total revenue / nights available
  • Conversion rate: Searches → bookings for AI-priced listings
  • Host satisfaction: Survey feedback or support ticket trends

Experiment Design

  • A/B testing: Compare AI vs manual pricing cohorts
  • Time-series analysis: Pre/post adoption trends
  • Cohort segmentation: By host type, region, property size

Bonus Metrics

  • Price elasticity: How sensitive bookings are to price changes
  • Competitive benchmarking: Compare AI-priced listings to similar ones nearby


 Conclusion

AI pricing isn’t just about automation — it’s about trust, performance, and host empowerment. A robust framework ensures the feature delivers real value.

 

8️.Tracking Adoption and Drop-Offs for Airbnb’s New Group Booking Feature

Introduction


Airbnb’s “Group Booking” feature lets users coordinate stays with friends or family. To ensure success, you need a funnel-based tracking model.


Funnel Metrics to Track

Break down the user journey:

  1. Feature impressions: Who sees the group booking option?
  2. Group creation: Initiation of a group booking flow
  3. Invite sent: Number of invites shared
  4. Invite accepted: % of invitees who join
  5. Booking initiated: Group selects dates and listings
  6. Booking completed: Final payment and confirmation
  7. Post-stay feedback: Ratings and reviews from group members

Data Model Design


  • Entities:
    • User, Group, Invite, Booking, Feedback

  • Relationships:
    • One-to-many: User → Group
    • Many-to-many: Group ↔ Booking

  • Events:
    • Timestamped actions for each funnel stage


Drop-Off Analysis

  • Where users abandon: Invite not accepted, booking not completed
  • Device/channel friction: Mobile vs desktop drop-off rates
  • Coordination delays: Time between invite and booking
  • UX blockers: Confusing flows or lack of reminders

 Conclusion

Group bookings are complex but powerful. A well-designed funnel and data model help Airbnb refine the experience and boost adoption.


 

9. A/B Testing Airbnb’s Checkout Flow: How to Interpret a 0.6% Lift with p-value = 0.07


Introduction

Airbnb runs an A/B test on its checkout flow. Variant B shows a 0.6% lift in conversion, but the p-value is 0.07 — slightly above the conventional 0.05 threshold. What does this mean, and how can we improve the experiment?


 Interpretation

  • 0.6% lift: Suggests Variant B may be better, but the result isn’t statistically significant at p < 0.05.
  • p-value = 0.07: There’s a 7% chance the observed lift is due to random variation — not strong enough to confirm impact.

 

How to Improve Experiment Design

  • Increase sample size: More users reduce variance and improve statistical power.
  • Run longer: Extend duration to capture weekend vs weekday behavior.
  • Segment analysis: Break down by device, region, or user type — the lift may be significant in subgroups.
  • Use Bayesian methods: Complement p-values with probability of uplift.
  • Track secondary metrics: Time to complete checkout, abandonment rate, NPS post-checkout.

 Conclusion

Don’t dismiss the result — refine the experiment. A 0.6% lift at scale could mean millions in revenue, so validate it with better design.



10. How to Detect Simpson’s Paradox in Aggregated Data (With SQL or Python)


 Introduction

Simpson’s Paradox occurs when a trend appears in aggregated data but reverses when segmented. It’s a silent trap in data analysis — especially in product metrics and user behavior.

 

Detection Strategy

  • Step 1: Identify aggregate trend
    • Example: Overall conversion rate is higher for Variant B.
  • Step 2: Segment the data
    • Break down by device, region, user type, or time.
  • Step 3: Compare subgroup trends
    • If subgroup trends contradict the overall trend → Simpson’s Paradox.
  • Step 4: Visualize
    • Use bar charts or line plots with subgroup overlays.


 SQL Example

SELECT segment, variant, COUNT(*) AS users,

       SUM(converted)::float / COUNT(*) AS conversion_rate

FROM experiment_data

GROUP BY segment, variant;


Conclusion

Always segment before concluding. Simpson’s Paradox can mislead product decisions, especially in A/B tests and funnel analysis.


11. How to Segment Airbnb Hosts Using Clustering for Smarter Pricing Recommendations


 Introduction

Airbnb hosts vary widely — from casual renters to full-time property managers. Clustering helps personalize pricing recommendations based on host behavior and listing attributes.

 Clustering Framework

  • Step 1: Feature Engineering
    • Listing type, location, average nightly rate
    • Booking frequency, cancellation rate
    • Host responsiveness, review score
  • Step 2: Normalize Data
    • Use MinMaxScaler or StandardScaler
  • Step 3: Choose Algorithm
    • K-Means for simplicity
    • DBSCAN for density-based clusters
    • Hierarchical for interpretability
  • Step 4: Evaluate Clusters
    • Silhouette score, intra-cluster variance
  • Step 5: Apply Pricing Logic
    • Cluster A: Premium hosts → dynamic pricing
    • Cluster B: Casual hosts → conservative suggestions

 Conclusion

Clustering transforms pricing from one-size-fits-all to data-driven personalization — boosting host trust and platform performance.



12. Fixing Weekend Overestimation in Time Series Forecasting: Diagnostics and Corrections


 Introduction

If your demand forecasting model consistently overestimates weekends, it’s time to diagnose and correct the bias. This is common in travel, retail, and hospitality datasets.

 

Diagnostics

  • Residual analysis: Plot actual vs predicted values by day of week
  • Autocorrelation check: Use ACF/PACF to detect weekly seasonality
  • Feature leakage: Ensure model isn’t overfitting to past weekend spikes
  • Holiday effects: Are weekends near holidays skewing the model?

 

Corrections

  • Add day-of-week features: Encode weekdays explicitly
  • Use seasonal decomposition: STL or Prophet to isolate weekend patterns
  • Retrain with weighted loss: Penalize weekend errors more
  • Segment model: Train separate weekend vs weekday models
  • Include external regressors: Weather, events, promotions


 Conclusion

Weekend bias is fixable. With diagnostics and feature engineering, your model can forecast demand with precision — even for Airbnb’s busiest days.

 

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