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Google·Software Engineer·Onsite - Multi Round·Junior

JuniorPending
Jun 2026

Summary

Went through the first part of a Google SWE loop, covering a behavioral round and one coding round. The behavioral went well, but the DSA round was a mess of half-finished code and a ticking clock. Two more rounds still to go, so the verdict is very much up in the air.

Questions Asked (2)

Q1

Tell me about a time you had to build something quickly with limited resources or under pressure.

Adaptability & Ambiguity
Author's notes

Coming from a startup, I had plenty of real material here.

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AI HintsAI Generated

Suggested Approach

Use the STAR method to structure your answer, focusing on a specific project where you delivered a solution quickly despite constraints. Highlight your prioritization, technical decisions, and the impact of your work, while showing how you navigated ambiguity and resource limitations.

Pro tip: Emphasize the trade-offs you made and how you communicated them to stakeholders; Google values engineers who can make pragmatic decisions under pressure without sacrificing long-term quality.

1. Set the Context

Briefly describe the project, the goal, and the constraints (time, resources, ambiguity). Explain why it was important to build quickly.

2. Identify the Challenge

Clearly state the main obstacles: limited resources, tight deadline, unclear requirements, or technical debt. This shows you recognized the pressure.

3. Describe Your Actions

Walk through the steps you took: how you prioritized features, made technical choices, collaborated with others, and adapted as you learned more.

4. Highlight the Outcome

Quantify the results: delivery time, impact on users or business, and any lessons learned. Mention if the solution was later improved or scaled.

5. Reflect and Connect

Summarize what you learned about working under pressure and how it aligns with Google's values, such as adaptability, innovation, and user focus.

Key Points to Mention

  • Prioritization: how you decided what to build first and what to cut.
  • Technical decisions: choosing simple, scalable solutions over perfect ones.
  • Collaboration: working with cross-functional teams or communicating with stakeholders.
  • Adaptability: how you handled changing requirements or unexpected issues.
  • Impact: measurable results (e.g., time saved, users impacted, revenue).
  • Lessons learned: what you would do differently and how it improved your approach.

AI-generated suggestions, not part of the candidate's original notes. May be inaccurate — verify before relying on them.

Q2

Given a scheduling or ordering problem, find an optimal solution using an appropriate data structure.

Algorithms & Data Structures
Author's notes

My first instinct was a priority queue and I still think that was defensible.

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AI HintsAI Generated

Suggested Approach

Clarify the problem constraints and objective, then identify the optimal data structure (e.g., heap, segment tree, or graph) based on the problem's nature. Explain the algorithm step-by-step, analyze time and space complexity, and discuss potential edge cases and trade-offs.

Pro tip: Always start by discussing brute force and then optimize; interviewers value your thought process and ability to iterate. Also, explicitly state why the chosen data structure is optimal for the given constraints.

1. Understand the Problem

Ask clarifying questions to determine input size, constraints, and exact objective (e.g., minimize completion time, maximize throughput). Restate the problem in your own words to ensure alignment.

2. Identify the Data Structure

Based on the problem type (e.g., interval scheduling, task ordering with dependencies), select an appropriate data structure such as a priority queue, disjoint-set union, or topological sort with a graph.

3. Design the Algorithm

Outline the algorithm using the chosen data structure, explaining how it achieves optimality. Consider greedy, dynamic programming, or graph-based approaches and justify your choice.

4. Analyze Complexity

Derive the time and space complexity of your solution. Compare with alternatives and explain why your approach is efficient for the given constraints.

5. Test and Validate

Walk through a small example, test edge cases (e.g., empty input, ties, large values), and discuss potential pitfalls or optimizations.

Key Points to Mention

  • Problem constraints and how they influence data structure choice
  • Time and space complexity analysis of the proposed solution
  • Correctness proof or intuition behind the algorithm's optimality
  • Handling of edge cases and ties in scheduling/ordering
  • Comparison with alternative approaches and trade-offs
  • Real-world applications or similar problems (e.g., task scheduling in OS)

AI-generated suggestions, not part of the candidate's original notes. May be inaccurate — verify before relying on them.