Free Huawei H35-561 Exam Actual Questions & Explanations

Last updated on: Jun 1, 2026
Author: Stephane Myricks (Senior Huawei Certification Specialist & LTE Network Architect)

The Huawei H35-561 exam validates your expertise in LTE radio network planning and optimization as part of the Huawei Certified ICT Professional (HCIP LTE) certification path. This exam, formally known as HCIP LTE RNP&RNO V1.0, assesses both theoretical knowledge and practical decision-making skills required to design, deploy, and maintain LTE networks in production environments. Whether you're advancing your telecom career or deepening your LTE specialization, this page provides a structured roadmap to guide your preparation and help you understand what the exam measures.

H35-561 Exam Syllabus & Core Topics

Use this topic map to guide your study for Huawei H35-561 (HCIP LTE RNP&RNO V1.0) within the Huawei Certified ICT Professional (HCIP LTE) path.

  • TE Network Fundamentals: Understand LTE architecture, protocol layers, and how radio access networks integrate with core network components. You must be able to explain bearer models, QoS mechanisms, and key signaling flows.
  • Radio Network Planning: Master site selection, coverage prediction, capacity dimensioning, and frequency planning. Apply tools to calculate link budgets, determine antenna configurations, and optimize cell layouts for target coverage areas.
  • Radio Network Optimization: Analyze drive test data, interpret KPI reports, and execute parameter tuning to improve throughput, latency, and handover success rates. Diagnose interference patterns and adjust power, tilt, and neighbor relationships.
  • LTE Security: Identify authentication mechanisms, encryption standards, and key management procedures. Recognize security threats in radio access and core network domains, and apply countermeasures in operational settings.
  • LTE Operations and Maintenance: Monitor network performance, manage alarms, perform software upgrades, and execute preventive maintenance workflows. Interpret performance metrics and respond to service degradation incidents.
  • Emerging Technologies in LTE: Explore LTE-Advanced features, carrier aggregation, dual connectivity, and the evolution toward 5G. Understand how these technologies enhance spectral efficiency and user experience.
  • Practical LTE Implementation: Apply planning and optimization concepts to real-world scenarios. Configure network parameters, validate designs against requirements, and document decisions with technical justification.

Question Formats & What They Test

The H35-561 exam combines multiple-choice items with scenario-based questions to measure both foundational knowledge and applied reasoning in LTE network operations.

  • Multiple Choice: Test recall of definitions, feature behavior, and key terminology across all seven topic areas. Questions focus on what candidates must know to make informed network decisions.
  • Scenario-Based Items: Present realistic situations, such as a coverage gap in a dense urban area, unexpected handover failures, or security policy violations, and ask candidates to select the most appropriate planning, optimization, or operational response.
  • Configuration & Analysis Tasks: Require candidates to interpret network diagrams, performance dashboards, and parameter tables, then justify their recommendations with technical reasoning.

Questions progress in difficulty and emphasize practical application, ensuring candidates can transfer knowledge to live network environments.

Preparation Guidance

Effective preparation for H35-561 requires a structured, topic-driven study plan combined with regular practice and self-assessment. Allocate 6-8 weeks to balance theory review, hands-on problem solving, and timed practice tests. Link concepts across planning, optimization, and operations workflows so you understand how decisions in one phase affect network performance downstream.

  • Map the seven core topics (TE Network Fundamentals, Radio Network Planning, Radio Network Optimization, LTE Security, LTE Operations and Maintenance, Emerging Technologies in LTE, Practical LTE Implementation) to weekly study blocks; track progress weekly to stay on schedule.
  • Work through practice question sets; review detailed explanations for every answer to identify knowledge gaps and reinforce weak areas.
  • Create cross-topic study notes that show how planning constraints influence optimization strategies, and how operational KPIs validate design assumptions.
  • Complete a timed mini mock exam (30-40 questions) two weeks before your test date to build pacing confidence and identify remaining weak points.
  • In the final week, review high-value topics (Radio Network Planning and Optimization typically carry more weight) and do a final timed practice session under exam conditions.

Explore other Huawei certifications: view all Huawei exams.

Get the PDF & Practice Test

Strengthen your preparation with up-to-date resources from validexamdumps.com. These materials align to H35-561 and cover practical scenarios with clear explanations.

  • Q&A PDF with explanations: Topic-mapped questions that clarify why correct options are right and others aren't, helping you build conceptual depth.
  • Practice Test: Realistic items, timed and untimed modes, progress tracking, and detailed review to simulate exam conditions.
  • Focused coverage: Aligned to TE Network Fundamentals, Radio Network Planning, Radio Network Optimization, LTE Security, LTE Operations and Maintenance, Emerging Technologies in LTE, and Practical LTE Implementation so you study what matters most.
  • Regular updates: Content refreshes that reflect syllabus and product changes, ensuring relevance and accuracy.

Visit the exam page to download the PDF, Online Practice Test, or get a Bundle Discount offer for both formats: HCIP LTE RNP&RNO V1.0.

Frequently Asked Questions

Which topics carry the most weight in the H35-561 exam?

Radio Network Planning and Radio Network Optimization typically account for 40-50% of the exam content, reflecting their criticality in live network deployment and performance management. TE Network Fundamentals and LTE Operations and Maintenance each represent 15-20%, while LTE Security, Emerging Technologies, and Practical Implementation round out the remainder. Focus your deepest study effort on planning and optimization, but do not neglect the foundational and operational topics, as scenario questions often integrate concepts across multiple domains.

How do the seven core topics connect in real LTE project workflows?

In a typical project, TE Network Fundamentals provides the architectural context; Radio Network Planning translates requirements into site locations, frequencies, and capacity budgets; Radio Network Optimization refines performance post-launch using drive test data and KPI analysis; LTE Security is embedded throughout (during planning, operations, and maintenance); LTE Operations and Maintenance ensures ongoing performance and incident response; and Emerging Technologies inform capacity upgrades. Practical LTE Implementation ties all phases together. Understanding these dependencies helps you answer scenario questions and apply knowledge to real situations.

How much hands-on LTE network experience helps, and what labs should I prioritize?

Hands-on experience is valuable but not mandatory if you study systematically. If you have access to Huawei LTE lab environments or simulators, prioritize Radio Network Planning exercises (coverage and capacity calculations, frequency planning), Radio Network Optimization tasks (parameter tuning, KPI interpretation), and Operations and Maintenance workflows (alarm handling, performance monitoring). If lab access is limited, focus on understanding parameter meanings, interpreting network diagrams, and working through scenario-based practice questions that simulate real decision-making.

What common mistakes lead to lost points on H35-561?

Frequent errors include confusing similar optimization parameters (e.g., CIO vs. power offset), misinterpreting KPI relationships (e.g., assuming high throughput always indicates good coverage), and overlooking security implications of network design choices. Many candidates also rush through scenario questions without fully reading the context, leading to suboptimal answers. Avoid these by carefully studying parameter definitions with examples, practicing KPI interpretation with real dashboards, and always re-read scenario stems before selecting your answer.

What is an effective review strategy in the final week before the exam?

In your final week, focus on high-confidence topics to maintain momentum, then spend 2-3 days drilling your weakest areas using targeted practice questions. Do not attempt to re-learn entire topics; instead, review your mistake log and revisit explanations for questions you answered incorrectly. Two days before the exam, complete one full-length timed practice test under exam conditions (no breaks, no reference materials) to build pacing and reduce test anxiety. On the day before the exam, do a light review of key definitions and formulas, then rest well to arrive alert and focused.

Question No. 1

In handover based on frequency priority, event A1 is used to stop inter-frequency measurement.

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Correct Answer: B

Question No. 2

Which LTE TDD special subframe description is wrong?

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Correct Answer: B

Question No. 3

The resource block of the PUCCH channel is in the middle of the uplink frequency band.

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Correct Answer: B

Question No. 4

How many configurations are there for R8 TDD special subframe configuration?

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Correct Answer: D

Question No. 5

The path loss value obtained from the link budget is the median value. The actual path loss fluctuates within this value. In order to ensure a certain edge coverage probability (such as >75%), a certain margin needs to be left. This margin is mainly related to the radio wave. Which of the following characteristics of propagation are irrelevant? (multiple choice)

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Correct Answer: A, B, C