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Airbnb Senior Data Analyst Interview Questions and Answers 2026

Airbnb is known for having one of the most rigorous data analytics interviews in the industry. The Airbnb Senior Data Analyst role demands deep SQL skills, strong experiment design intuition, and an understanding of two-sided marketplace dynamics. This guide covers all four rounds with real questions from 2024–2025 Airbnb interview experiences, along with exact answers and what each interviewer is scoring.

Airbnb
Senior Data Analyst
Marketplace Analytics / Growth
SQL
Python
A/B Testing
Experiment Design
Tableau
dbt
Salary Range
₹35–55 LPA
5–8 Years Exp

Round 1 — Advanced SQL

SQL Coding Round (Marketplace Focus)
Airbnb SQL questions are always set in a marketplace context — hosts, guests, listings, bookings, reviews. You are expected to reason about the data model before writing the query. The interviewer will ask you to explain trade-offs in your approach and how the query would scale.
Questions 5
Duration 60 minutes
Difficulty Medium–Hard
Key Topics Window FunctionsMarketplace MetricsOccupancy RateSuperhost LogicHost Quality
Q1 — Calculate Listing Occupancy Rate Per City
Medium⏱ 14 min

The supply team wants the occupancy rate for each city over the past 90 days. Occupancy rate = booked nights / available nights.

Tables: bookings(listing_id, checkin_date, checkout_date, status) · listings(listing_id, city, available_days_per_month)

🎯 What the interviewer tests
Do you know to use DATEDIFF to compute booked nights from checkin/checkout? Many candidates forget to filter status = 'confirmed' and include cancelled bookings — an immediate flag. They also test whether you handle listings with zero available days (division-by-zero).

WITH booked_nights AS (
    SELECT
        l.city,
        SUM(
            DATEDIFF('day', b.checkin_date, b.checkout_date)
        ) AS total_booked
    FROM bookings b
    JOIN listings l ON b.listing_id = l.listing_id
    WHERE b.status = 'confirmed'
      AND b.checkin_date >= CURRENT_DATE - INTERVAL '90 days'
    GROUP BY l.city
),
available_nights AS (
    SELECT
        city,
        SUM(available_days_per_month * 3) AS total_available  -- 3 months
    FROM listings
    GROUP BY city
)
SELECT
    a.city,
    b.total_booked,
    a.total_available,
    ROUND(
        100.0 * b.total_booked / NULLIF(a.total_available, 0), 1
    ) AS occupancy_rate_pct
FROM available_nights a
LEFT JOIN booked_nights b USING (city)
ORDER BY occupancy_rate_pct DESC NULLS LAST;
💡 Key insight
DATEDIFF('day', checkin, checkout) gives booked nights — not COUNT(booking_id) which counts bookings regardless of length. Always filter status = 'confirmed'. NULLIF(available, 0) prevents division-by-zero on newly listed properties.
🔁 Common Follow-Up Questions
  • How would you compute occupancy rate per listing per month rather than per city?
  • If a guest books 5 days but checks out early after 3 days, how should your query handle it?

Q2 — Identify Superhost Eligibility
Medium⏱ 16 min

A host is eligible for Superhost status if in the past 12 months they have: ≥10 completed stays, ≥90% response rate, ≥80% 5-star reviews, and zero cancellations initiated by host.

Tables: hosts(host_id, name) · bookings(host_id, status, host_cancelled) · messages(host_id, responded_within_24h) · reviews(host_id, rating)

WITH host_stats AS (
    SELECT
        h.host_id,
        COUNT(CASE WHEN b.status = 'completed' THEN 1 END)
            AS completed_stays,
        ROUND(100.0 * AVG(CASE WHEN m.responded_within_24h THEN 1.0 ELSE 0 END), 1)
            AS response_rate_pct,
        ROUND(100.0 * AVG(CASE WHEN r.rating = 5 THEN 1.0 ELSE 0 END), 1)
            AS five_star_pct,
        MAX(CASE WHEN b.host_cancelled THEN 1 ELSE 0 END)
            AS has_host_cancellation
    FROM hosts h
    LEFT JOIN bookings  b ON b.host_id  = h.host_id
    LEFT JOIN messages  m ON m.host_id  = h.host_id
    LEFT JOIN reviews   r ON r.host_id  = h.host_id
    WHERE COALESCE(b.created_at, m.sent_at, r.created_at)
          >= CURRENT_DATE - INTERVAL '1 year'
    GROUP BY h.host_id
)
SELECT
    host_id,
    completed_stays,
    response_rate_pct,
    five_star_pct,
    CASE
        WHEN completed_stays       >= 10
         AND response_rate_pct     >= 90
         AND five_star_pct         >= 80
         AND has_host_cancellation  = 0
        THEN 'Eligible'
        ELSE 'Not Eligible'
    END AS superhost_status
FROM host_stats
ORDER BY completed_stays DESC;
💡 Key insight
Use CASE WHEN inside AVG() to compute percentages in a single pass — no need for multiple subqueries. The COALESCE date filter handles the fact that different tables may have different date column names. This pattern (conditional aggregation) is the most powerful single SQL technique for analyst interviews.
🔁 Common Follow-Up Questions
  • Airbnb evaluates superhost quarterly — how would you add a quarter dimension to this query?
  • How would you find hosts who were Superhost last quarter but are no longer eligible this quarter?
  • What index would you add to make this query faster on a 500M-row bookings table?


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Q3 — Top 3 Listings by Revenue Per City (Revenue Rank)
Easy⏱ 10 min

Tables: bookings(listing_id, total_price, status) · listings(listing_id, city)

WITH listing_revenue AS (
    SELECT
        l.city,
        b.listing_id,
        SUM(b.total_price) AS total_revenue,
        DENSE_RANK() OVER (
            PARTITION BY l.city
            ORDER BY SUM(b.total_price) DESC
        ) AS rev_rank
    FROM bookings b
    JOIN listings l ON b.listing_id = l.listing_id
    WHERE b.status = 'confirmed'
    GROUP BY l.city, b.listing_id
)
SELECT city, listing_id, total_revenue
FROM listing_revenue
WHERE rev_rank <= 3;
💡 Key insight
You can use window functions directly on aggregated columns — DENSE_RANK() OVER (... ORDER BY SUM(...)) — without a separate CTE for the aggregation. This is a clean, single-CTE solution that Airbnb interviewers appreciate for its conciseness.

Q4 — Average Time to First Booking Per Host
Medium⏱ 14 min

The growth team wants to understand how quickly new hosts get their first booking — a key activation metric. Calculate the average days between a host’s listing creation date and their first confirmed booking, grouped by listing type.

Tables: listings(listing_id, host_id, created_at, listing_type) · bookings(listing_id, created_at AS booked_at, status)

🎯 What the interviewer tests
Whether you use MIN(booked_at) correctly to get the first booking. Candidates often forget to exclude hosts with zero bookings (LEFT JOIN + IS NOT NULL check). They will ask: “What does a high time-to-first-booking tell you about the listing quality or the market?”

WITH first_bookings AS (
    SELECT
        l.host_id,
        l.listing_type,
        l.created_at                       AS listed_at,
        MIN(b.booked_at)                   AS first_booked_at
    FROM listings l
    LEFT JOIN bookings b
        ON  b.listing_id = l.listing_id
        AND b.status     = 'confirmed'
    GROUP BY l.host_id, l.listing_type, l.created_at
)
SELECT
    listing_type,
    COUNT(*)                                         AS total_hosts,
    COUNT(first_booked_at)                           AS hosts_with_booking,
    ROUND(AVG(
        DATEDIFF('day', listed_at, first_booked_at)
    ), 1)                                            AS avg_days_to_first_booking
FROM first_bookings
WHERE first_booked_at IS NOT NULL
GROUP BY listing_type
ORDER BY avg_days_to_first_booking;
💡 Key insight
Show both total_hosts and hosts_with_booking — the ratio tells you activation rate, which is as important as time-to-first-booking. This proactive business context is what separates a Senior DA response from a junior one at Airbnb.

Q5 — Identify Fraudulent Listings (Anomaly Detection in SQL)
Hard⏱ 22 min

Flag listings where the same guest books the same listing more than once within 30 days — a known pattern for review manipulation and fraudulent activity.

🎯 What the interviewer tests
This tests whether you can detect patterns across rows (not just within a row). The self-join approach works; the window function approach using LAG() is more elegant. The interviewer also wants to know: “How would you tune the 30-day threshold and what false positive rate would you accept?”

WITH guest_booking_gaps AS (
    SELECT
        guest_id,
        listing_id,
        checkin_date,
        LAG(checkin_date) OVER (
            PARTITION BY guest_id, listing_id
            ORDER BY checkin_date
        ) AS prev_checkin
    FROM bookings
    WHERE status = 'confirmed'
)
SELECT DISTINCT
    guest_id,
    listing_id,
    COUNT(*) OVER (PARTITION BY guest_id, listing_id) AS booking_count
FROM guest_booking_gaps
WHERE DATEDIFF('day', prev_checkin, checkin_date) <= 30
ORDER BY booking_count DESC;
💡 Key insight
LAG() OVER (PARTITION BY guest_id, listing_id) gives the previous booking date for the same guest-listing pair — no self-join required. The DISTINCT + window COUNT(*) avoids overcounting while still surfacing the total repeat bookings per pair. Always mention the false-positive risk — legitimate families may rebook the same cabin annually.
🔁 Common Follow-Up Questions
  • How would you extend this to detect a network of fake guests all reviewing the same host?
  • What additional signals would you combine with this query to improve fraud precision?


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Round 2 — Python Analytics

Python + Experiment Analysis
Airbnb’s Python round is heavily skewed toward statistical thinking. They expect you to not just code but to reason about experiment validity, confounders, and marketplace interference effects. You will likely be given a dataset scenario and asked to walk through your analysis end-to-end.
Questions 4
Duration 45 minutes
Difficulty Medium–Hard
Key Topics PandasScipy StatsSeasonalitySUTVA ViolationsPrice Elasticity
Q1 — Detect Seasonality in Booking Demand
Medium⏱ 15 min

The pricing team suspects strong seasonality in Goa bookings. Decompose the weekly booking time series into trend, seasonality, and residual components.

🎯 What the interviewer tests
Whether you reach for seasonal_decompose or try to do it manually with rolling averages. Manual approach shows deeper understanding. They will also ask: “What period would you choose for Goa — 52 weeks or 12 months — and why?” (Answer: 52 for weekly, 12 for monthly — depends on granularity.)

import pandas as pd
from statsmodels.tsa.seasonal import seasonal_decompose
import matplotlib.pyplot as plt

# Weekly bookings indexed by date
df = df.set_index("week_start").sort_index()
ts = df["booking_count"]

# Decompose — multiplicative handles growing seasonal amplitude
result = seasonal_decompose(ts, model="multiplicative", period=52)

# Summary stats per component
print("Trend variance (pct of total):",
      round(result.trend.var() / ts.var() * 100, 1), "%")
print("Seasonal variance (pct of total):",
      round(result.seasonal.var() / ts.var() * 100, 1), "%")

# Peak season weeks
seasonal_idx = pd.Series(result.seasonal.values, index=ts.index)
peak_weeks = seasonal_idx.nlargest(5)
print("Peak demand weeks:\n", peak_weeks)
💡 Key insight
Use model="multiplicative" for Airbnb data — seasonal effects grow with the trend (more bookings overall → bigger seasonal swings). Use "additive" only when the seasonal magnitude stays constant over time. Always report what % of variance each component explains — that tells the business whether seasonality or trend is the bigger driver.

Q2 — A/B Test: New Search Ranking Algorithm
Hard⏱ 20 min

Airbnb tested a new search ranking algorithm on 50,000 users per group. Variant B shows 3.1% booking conversion vs control’s 2.8%. Evaluate if the result is valid and significant.

🎯 What the interviewer tests
This is Airbnb’s most-asked interview question. They specifically want you to raise the marketplace interference problem (SUTVA violation): in a two-sided marketplace, showing more of listing A to group B reduces its availability for group A — the groups are not independent. A candidate who just runs a z-test without mentioning this gets marked down.

from statsmodels.stats.proportion import proportions_ztest
import numpy as np

n = 50_000
conv_ctrl = 0.028
conv_var  = 0.031

counts = np.array([conv_var * n, conv_ctrl * n])
nobs   = np.array([n, n])

z, p = proportions_ztest(counts, nobs, alternative='larger')
print(f"Z-stat  : {z:.3f}")
print(f"P-value : {p:.4f}")
print(f"Result  : {'Significant ✓' if p < 0.05 else 'Not Significant ✗'}")

# Relative lift
lift = (conv_var - conv_ctrl) / conv_ctrl * 100
print(f"Relative lift: {lift:.1f}%")

# Practical significance check
# At Airbnb scale: 1% lift on 100M searches = ~$50M ARR
print(f"Business impact: {lift:.1f}% lift at Airbnb scale is material")
💡 Key insight
Critical to mention: Airbnb’s two-sided marketplace means SUTVA (Stable Unit Treatment Value Assumption) is likely violated — guests in the control group compete for the same listings as guests in the variant group. The correct approach is to randomise at the listing level or use a holdout market (city-level randomisation), not individual user-level. This distinction is what Airbnb specifically tests at Senior DA level.
🔁 Common Follow-Up Questions
  • How would you redesign this experiment to avoid the SUTVA violation?
  • The test ran during peak season — how does that affect the generalisability of results?
  • How would you calculate the minimum detectable effect before launching the test?

Q3 — Price Elasticity of Demand for Airbnb Listings
Hard⏱ 18 min

Estimate the price elasticity of demand for listings in Bangalore — how much does a 10% price increase reduce booking rate?

import pandas as pd
import numpy as np
from sklearn.linear_model import LinearRegression

# Log-log regression: ln(demand) ~ ln(price) + controls
df["log_bookings"] = np.log(df["monthly_bookings"] + 1)
df["log_price"]    = np.log(df["price_per_night"])

features = ["log_price", "num_reviews", "superhost_flag",
            "room_type_encoded", "distance_to_centre_km"]

X = df[features]
y = df["log_bookings"]

model = LinearRegression().fit(X, y)

elasticity = model.coef_[0]  # coefficient on log_price
print(f"Price elasticity: {elasticity:.3f}")
print(f"A 10% price increase → {elasticity * 10:.1f}% change in bookings")
print(f"Demand is {'elastic' if abs(elasticity) > 1 else 'inelastic'}")
💡 Key insight
Log-log regression gives elasticity directly as the coefficient — no manual calculation needed. Include control variables (reviews, superhost status, distance) to isolate the price effect from confounders. A typical Airbnb elasticity is –0.5 to –1.5 depending on city and room type. Mentioning endogeneity (hosts raising prices during high demand periods) shows econometric awareness that Airbnb values highly.

Q4 — Host Response Time Distribution
Easy⏱ 8 min

Calculate median, p75, and p95 response times (in hours) per host tier (Superhost vs Regular), and flag hosts with p95 response time > 24 hours.

stats = (
    df.groupby("host_tier")["response_hours"]
      .agg(
          median  = lambda x: x.quantile(0.50),
          p75     = lambda x: x.quantile(0.75),
          p95     = lambda x: x.quantile(0.95),
          slow_pct= lambda x: (x > 24).mean() * 100
      )
      .round(1)
      .reset_index()
)
print(stats)
💡 Key insight
Always report p95 alongside median for operational metrics — the median looks fine but p95 > 24h means 5% of guests wait over a day for a response, which directly drives booking abandonment. This is the Senior DA mindset: median tells the average experience, tail percentiles tell the worst experience.


Round 3 — Product Analytics Case Study

Marketplace Metrics & Experiment Design
Airbnb’s case study round is uniquely focused on marketplace dynamics — every analysis must account for both host and guest sides simultaneously. The interviewer scores you on: defining the right north star metric, structuring the analysis without jumping to conclusions, and understanding second-order effects in a two-sided marketplace.
Questions 1–2
Duration 45 minutes
Difficulty Hard
Key Topics North Star MetricsTwo-Sided MarketplaceExperiment DesignNetwork Effects
Q1 — Airbnb Bookings Dropped 20% in Bangalore Last Month. Diagnose It.
Hard⏱ 25 min
🎯 What the interviewer tests
Airbnb always includes a “metric drop” case. They want to see you think about both sides of the marketplace — is it a supply problem (fewer hosts accepting bookings) or a demand problem (fewer guests searching)? Most candidates only analyse demand. Airbnb scores you on marketplace systems thinking.

🗂️ MECE Analysis — Bangalore Booking Drop
Demand-Side (Guest) Factors
School exams / local holidays reducing travel intent · Competing platforms (OYO, MakeMyTrip) promotions · Price increase perception · App/website UX regression in search/booking funnel
Supply-Side (Host) Factors
Hosts blocking calendar dates (weddings / festivals) · New Airbnb host fee increase causing de-listings · Fewer new host acquisitions · Superhost churn spike reducing quality supply
Platform / Technical Factors
Search ranking algorithm change reducing listing visibility · Payment gateway failure for specific bank · Review/trust score algorithm change blocking listings · New regulatory requirement compliance delay
External / Macro Factors
Compare: same month last year (YoY) · National holiday shift · Major competitor hotel deal in city · Negative press coverage · Local event cancellation (IPL, tech conference)
💡 Key insight
Start with: “Is this a measurement issue?” — check whether the tracking pixel or data pipeline changed. Then split by demand (search volume, click-through rate, booking conversion) vs supply (active listings, calendar availability, acceptance rate). If search volume is flat but conversion dropped → supply problem. If search volume dropped → demand/awareness problem. This supply/demand decomposition is what Airbnb expects and most candidates miss.
🔁 Common Follow-Up Questions
  • You find the drop is entirely in new users (0–1 prior bookings), not returning users. What does that tell you?
  • How would you design an alert system that catches a 20% drop within 48 hours rather than a month later?
  • How would you present a recommendation to the Bangalore market manager in 3 slides?


Round 4 — Metric Design & Experiment Architecture

North Star Metrics + Advanced Experiment Design
This round is Airbnb’s most unique. You are expected to design metrics from scratch, choose the right experiment unit (user vs listing vs city), handle network effects and interference, and discuss guardrail metrics. No other company in the industry tests this at this depth in analytics interviews.
Questions 3
Duration 60 minutes
Difficulty Hard
Key Topics North Star MetricGuardrail MetricsNetwork EffectsSwitchback TestsHoldout Markets
Q1 — Define the North Star Metric for Airbnb Experiences
Hard⏱ 20 min

Airbnb launched “Experiences” — local activities hosted by residents. Define the North Star Metric and explain what supporting metrics you would track.

🎯 What the interviewer tests
They want to see you challenge the obvious metric (experiences_booked) and think about long-term value. The wrong answer is just revenue. The right answer includes both sides: host utilisation AND guest satisfaction, because neither alone captures marketplace health. Airbnb’s actual North Star is something close to “Nights and Experiences Booked” — demonstrating you understand this earns points.

Metric Type Metric Why It Matters
North Star Experiences Booked (quality-adjusted) Captures both supply utilisation + demand conversion
Demand health Experience search → booking conversion rate Is discovery working? Is pricing right?
Supply health Active experiences per city per week Are hosts creating and maintaining listings?
Quality % experiences with rating ≥ 4.8 after 10 reviews Low quality kills word-of-mouth growth
Repeat behaviour % guests who book a 2nd experience within 90 days Predicts long-term LTV better than one-off revenue
Guardrail Guest refund rate · Host cancellation rate Ensures growth doesn’t come from low-quality listings
💡 Key insight
Always define guardrail metrics alongside the North Star — Airbnb has seen cases where optimising bookings increased refund rates (low-quality experiences getting booked and cancelled). A guardrail ensures you don’t move the North Star by degrading user trust. This is a signal of Senior+ thinking.

Q2 — Design an Experiment: New Instant Book Feature
Hard⏱ 22 min

Airbnb wants to test a new “Instant Book” feature that allows guests to book without waiting for host approval. Design the experiment.

🎯 What the interviewer tests
The tricky part is who is the randomisation unit? If you randomise by guest, a guest might see Instant Book on listing A but not listing B — creating confusion and invalid results. The correct unit is the listing (or host). They also want you to discuss interference: Instant Book listings may “steal” bookings from non-Instant Book listings in the control group.

Design Decision Choice Rationale
Randomisation unit Listing (not guest) Avoids guest seeing inconsistent UX across listings
Stratification By city, listing type, price tier Ensures balanced groups across key segments
Duration 4 weeks minimum Captures weekend + weekday variation; avoids novelty effect
Primary metric Booking conversion rate per listing Direct measure of Instant Book impact
Guardrail metrics Host cancellation rate, guest complaint rate Ensure hosts aren’t overwhelmed by unscreened bookings
Interference mitigation City-level holdout (10% of cities control) Prevents control group bookings being displaced
💡 Key insight
City-level holdout (geographic randomisation) is the gold standard for marketplace experiments at Airbnb — it fully isolates control from treatment. The cost is lower statistical power (fewer independent units), so you need more cities. This tradeoff is exactly what Airbnb interviewers want you to articulate.

Q3 — Build a Host Quality Score
Medium⏱ 14 min

Design a composite Host Quality Score (0–100) that Airbnb can use to rank hosts for promotional placement. What signals would you include and how would you weight them?

-- Composite Host Quality Score (0–100)
WITH host_signals AS (
    SELECT
        h.host_id,
        -- Normalise each signal to 0-1
        LEAST(completed_stays / 50.0, 1.0)          AS experience_score,   -- caps at 50 stays
        response_rate_pct / 100.0                    AS response_score,
        five_star_pct / 100.0                        AS review_score,
        CASE WHEN host_cancelled_count = 0 THEN 1.0
             ELSE GREATEST(0, 1 - host_cancelled_count * 0.2) END
                                                     AS reliability_score,
        LEAST(DATEDIFF('day', joined_at, CURRENT_DATE) / 365.0, 3) / 3.0
                                                     AS tenure_score       -- caps at 3 years
    FROM host_stats h
)
SELECT
    host_id,
    ROUND(
        100 * (
            0.30 * review_score       +  -- guest satisfaction
            0.25 * response_score     +  -- responsiveness
            0.20 * reliability_score  +  -- no cancellations
            0.15 * experience_score   +  -- track record
            0.10 * tenure_score          -- platform trust
        ), 1
    ) AS quality_score
FROM host_signals
ORDER BY quality_score DESC;
💡 Key insight
Always cap raw signals before combining (e.g., 50+ stays and 3+ years both get max score) to prevent outliers dominating. Weight by business priority — review score is highest (30%) because guest satisfaction is Airbnb’s brand. Always propose a validation step: does a higher quality score actually predict better guest outcomes? (Correlation with future booking cancellation rate is a good test.)
🔁 Common Follow-Up Questions
  • How would you validate that this scoring model is actually predicting host quality and not just host tenure?
  • New hosts have no history — how do you score them fairly without penalising them for lack of data?
  • How would you update this model over time as Airbnb’s priorities change?


4-Week Study Plan for Airbnb Senior DA Interview

Airbnb tests deeper analytical thinking than most companies. The differentiation at senior level is your ability to reason about marketplace dynamics — not just execute SQL or Python correctly.

Week 1
Build your foundation — SQL window functions, Python pandas, experiment design fundamentals, and case study frameworks. Read The Data Monk’s Airbnb interview pattern posts to understand exactly what they test.
Week 2
2200 Most Asked Analytics Interview Questions ebook — cover the SQL section, Python section, and all case study chapters. Focus on marketplace-style questions (occupancy, conversion funnels, A/B testing). End of Week 2: First mock interview →
Week 3
Ace Any SQL Interview ebook — work through all 200 questions, no shortcuts. Focus on self-joins, CTEs, fraud detection patterns, and window function chains. End of Week 3: Second mock interview →
Week 4
Revise + timed practice — redo first 5 chapters of the 2200 ebook, practice 2 metric-drop case studies per day (supply vs demand framing), and run 15-min timed SQL sessions. End of Week 4: Final mock interview →
~950 questions + 3 mock interviews = enough to crack any product company. Or fast-track with the mentorship program below.

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