Topic
Analytics & Experimentation interview questions
560 Analytics & Experimentation questions from 84 companies, with hints, runnable code and solution walkthroughs.
74 easy288 medium198 hard
Analytics & Experimentation interview questions by the numbers
Last updated
Katkat has 560 Analytics & Experimentation interview questions from 84 companies; the most come from Meta (21%), Capital One (11%) and DoorDash (9%). By difficulty: 13% easy, 51% medium and 35% hard. The most common round is Technical Screen (55%). Frequent concepts include Causal Inference, A/B Testing, Experimentation and Metrics.
Companies (84)
Difficulty
- Easy13% · 74
- Medium51% · 288
- Hard35% · 198
Interview rounds
- Technical Screen55% · 306
- Onsite39% · 218
- Online Assessment3% · 16
- HR Screen3% · 14
- Other1% · 6
Roles
- Data Scientist92% · 513
- Software Engineer2% · 13
- Data Analyst2% · 10
- Product Analyst1% · 7
- Data Engineer1% · 5
Frequent concepts
- Causal Inference13% · 73
- A/B Testing12% · 65
- Experimentation8% · 42
- Metrics7% · 41
- Product Analytics5% · 30
- Experiment Design3% · 18
Most mentioned in interview experiences
- 1.Analyze ad watch-time with Excel pivots2 reports
- 2.Define Ultra success and detect suspicious transactions2 reports
- 3.Define Ultra success metrics and detect suspicious transactions2 reports
- 4.Design a flu-shot A/B/n campaign experiment2 reports
- 5.Design an experiment to evaluate a new ads algorithm2 reports
- 6.Diagnose a dip in approval/conversion rate2 reports
- 7.Estimate impact without experiments and pick variant2 reports
- 8.Evaluate Factors Before Renewing TV-Series Contracts2 reports
- 9.How would you investigate a metric decline?2 reports
- 10.Investigate marketplace metrics and experiment rollout2 reports
Counted from 120 candidate interview experiences on Katkat. How we collect and count
Showing 511–540 of 560 results
Evaluates offline marketing measurement for a billboard campaign, including how to define attributable engagement, estimate exposed population, and forecast incremental traffic, sign-ups, retention, revenue, and ROI. Strong answers use geo-lift, matched markets, or synthetic controls rather than direct attribution alone.
TikTokData ScientistAnalytics & ExperimentationOnsiteThis question tests your ability to design a robust incrementality experiment to measure the causal impact of advertising, accounting for selection bias and interference.
TikTokData ScientistAnalytics & ExperimentationTechnical ScreenThis question evaluates a data scientist's competency in experimental design, causal inference, metric definition and instrumentation, power/MDE calculations, interference and contamination handling on multi‑sided platforms, and rollout planning.
TikTokData ScientistAnalytics & ExperimentationOnsiteThis question evaluates data-science competencies in instrumentation and feature design, content-similarity detection and labeling, causal inference for experiments, measurement of harms, and model evaluation, and belongs to the Analytics & Experimentation domain.
Tools For HumanityData ScientistAnalytics & ExperimentationTechnical ScreenThis question evaluates statistical power and sample size determination for A/B testing, covering hypothesis testing for proportions, derivation using normal approximations, the impact of MDE, α and power choices, allocation ratios, cluster design (ICC and design effect), group‑sequential monitoring, and adjustment for overdispersed count outcomes.
TubiData ScientistAnalytics & ExperimentationTechnical ScreenThis question assesses the ability to design a multi-metric experiment, manage the false positive rate under multiple testing, and communicate trade-off decisions to non-technical stakeholders.
TubiData ScientistAnalytics & ExperimentationTechnical ScreenThis question evaluates skills in product analytics, causal inference, feature importance modeling, metric definition, and experimental validation within a marketplace context.
TuroData ScientistAnalytics & ExperimentationOnsiteDefine and integrate room ranking factors evaluates metric design, causal reasoning, experiment setup, diagnostics, SQL/statistical checks, and recommendations in a realistic interview setting. A strong answer states assumptions, handles edge cases, explains trade-offs, and shows how to validate the result clearly.
UberSoftware EngineerAnalytics & ExperimentationOnsiteThis question evaluates experimental design and causal inference competencies for marketplace pricing, covering metric selection, guardrail definition, interference and switchback designs, and sample-size and treatment-window tradeoffs.
UberData ScientistAnalytics & ExperimentationTechnical ScreenThis question evaluates a data scientist's skills in experimental design and causal inference, marketplace metrics and diagnostics, fairness and safety impact assessment, incentive and policy evaluation, and ETA modeling and forecast quality measurement.
UberData ScientistAnalytics & ExperimentationOnsiteThis question evaluates a data scientist's competency in experimental design and causal inference for two-sided marketplaces, focusing on interference, partial compliance, metric definition, randomization strategy, instrumentation, estimation, and power calculations within the Analytics & Experimentation domain.
UberData ScientistAnalytics & ExperimentationTechnical ScreenThis question evaluates a candidate's competency in causal experiment design for networked two‑sided marketplaces, focusing on interference and spillover management, cluster randomization choices, metric definition, power/sample‑size calculations, bias‑reduction approaches, and diagnostic checks.
UberData ScientistAnalytics & ExperimentationTechnical ScreenThis question evaluates a candidate's ability to design a new product feature for a ride-hailing platform and to translate product goals into measurable outcomes, testing competencies in product sense, metric definition, experiment and causal-inference design, segmentation, and two-sided marketplace trade-off analysis.
UberData ScientistAnalytics & ExperimentationOnsiteThis question evaluates experimental design, causal inference, A/B testing and statistical power calculation skills, including defining eligibility, unit of randomization, treatment arms, stratification, metric selection with guardrails, handling noncompliance and interference, and interpreting heterogeneous treatment effects.
UberData ScientistAnalytics & ExperimentationOnsiteThis problem tests your ability to distinguish correlation from causation in observational data and to design a robust A/B test to measure the incremental impact of a new rider promotion.
UberData ScientistAnalytics & ExperimentationTechnical ScreenThis interview question evaluates metric design, causal reasoning, experiment setup, diagnostics, SQL/statistical checks, and recommendations in a realistic interview setting. A strong answer for Determine Sample Size for Promotion Campaign A/B Test states assumptions, handles edge cases, explains trade-offs, and shows how to validate the result clearly.
UberData ScientistAnalytics & ExperimentationTechnical ScreenThis question evaluates a data scientist's skills in causal inference, experimental design, and marketplace analytics, including understanding of confounding, selection bias, interference, and the distinction between correlation and causation.
UberData ScientistAnalytics & ExperimentationTechnical ScreenThis problem tests your ability to design an A/B test for a two-sided marketplace, focusing on network effects, metric selection, and identifying potential interference between treatment and control groups.
UberData ScientistAnalytics & ExperimentationOnsiteUber data scientist analytics prompt on evaluating a rider-incentive program, covering experiment design, rider and driver metrics, matching quality, ROI, marketplace externalities, spillovers, and guardrails.
UberData ScientistAnalytics & ExperimentationTechnical ScreenThis question tests the ability to design an experiment for a marketplace feature and evaluate its impact on key business metrics like conversion, frequency, and total contribution margin.
UberData ScientistAnalytics & ExperimentationTechnical ScreenThis question tests the ability to design an evaluation framework for a new feature in a two-sided marketplace while accounting for spillover effects and metrics that represent different stakeholder interests.
UberData ScientistAnalytics & ExperimentationTechnical ScreenThis question tests the ability to design an experiment that isolates the causal impact of reduced ETA on user retention and to translate these metrics into business value.
UberData ScientistAnalytics & ExperimentationTechnical ScreenThis question evaluates a data scientist's competence in causal inference and identification strategies for estimating promotion effects from observational longitudinal data, emphasizing challenges such as staggered rollout, interference (spillovers), seasonality, and uncertainty quantification.
UberData ScientistAnalytics & ExperimentationTechnical ScreenThis question tests the ability to design an experimentation framework for a two-sided marketplace, specifically addressing interference between supply and demand and selecting appropriate success metrics.
UberData ScientistAnalytics & ExperimentationOnsiteThis question evaluates proficiency in experimental design, causal inference, and statistical diagnostics for A/B testing, covering competencies such as randomization integrity, SUTVA/interference, noncompliance, time-varying effects, metric missingness, sequential testing, and heterogeneous treatment effects.
UberData ScientistAnalytics & ExperimentationTechnical ScreenThis problem tests the ability to design an A/B test for product improvements and address potential confounding factors like selection bias and spillover effects.
UberData ScientistAnalytics & ExperimentationTechnical ScreenThis interview question evaluates metric design, causal reasoning, experiment setup, diagnostics, SQL/statistical checks, and recommendations in a realistic interview setting. A strong answer for Improve Estimated Time of Arrival for Uber Riders states assumptions, handles edge cases, explains trade-offs, and shows how to validate the result clearly.
UberData ScientistAnalytics & ExperimentationTechnical ScreenThis question evaluates proficiency in product analytics, cohort and funnel analysis, retention and supply diagnostics, pricing and subscription economics, and experimentation design.
UberData ScientistAnalytics & ExperimentationOnsiteThis question evaluates proficiency in causal inference and experimental design for product metrics, specifically testing knowledge of switchback experiments, time-series adjustments (seasonality and autocorrelation), propensity score methods for observational comparisons, and complier-average causal effect (LATE/CACE) estimation; it belongs to the Analytics & Experimentation and Data Science domain. It is commonly asked because it probes handling of real-world complications—time and city heterogeneity, non-compliance, and derived-metric inference—and tests both conceptual understanding of causal assumptions and practical application of statistical adjustment and inference.
UberData ScientistAnalytics & ExperimentationTechnical ScreenThis question evaluates causal inference and experimental-analysis competencies in Analytics & Experimentation and Data Science, covering observational estimands, causal identification assumptions and biases, uncertainty quantification for A/B/C tests, multiple-comparisons reasoning, and post-launch forecasting and monitoring.
UpstartData ScientistAnalytics & ExperimentationTechnical Screen