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| Section | Weight | Objectives |
|---|---|---|
| Topic 1: 5G Radio Network Optimization | 20% | - Coverage, capacity, and quality optimization - Fault diagnosis and troubleshooting - Drive test and signaling tracing - Performance indicator analysis |
| Topic 2: 5G Industry Applications & Private Network Solutions | 5% | - Private 5G network requirements and design - Vertical industry scenarios and KPI requirements |
| Topic 3: 5G RAN Feature Application | 35% | - Mobility management and handover optimization - Energy saving and coverage enhancement features - Power control and load balancing - Carrier aggregation and dual connectivity |
| Topic 4: 5G Radio Network Planning | 10% | - Interference analysis and mitigation - Link budget calculation - Parameter planning and configuration - Coverage and capacity planning |
| Topic 5: 5G Radio Network In-depth Principles | 30% | - 5G NR air interface fundamentals - Massive MIMO and beamforming principles - 5G NR protocol stack and signaling procedures - 5G spectrum and frame structure |
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NEW QUESTION # 42
Which of the following PUCCH measurement counters is used for outer-loop power control on PUCCH?
Answer: C
Explanation:
Block Error Rate (BLER) is the intended answer because outer-loop power-control algorithms use error- performance feedback to adjust the target received signal quality required for reliable control-channel reception.
PUCCH carries essential Uplink Control Information (UCI), including HARQ acknowledgments, scheduling requests, and configured channel-state reports.
Errors in these transmissions can produce unnecessary retransmissions, incorrect scheduling decisions, and reduced radio-network efficiency.
The distinction between inner-loop and outer-loop power control is important.
Inner-loop power control adjusts transmission power according to the difference between measured signal quality, commonly expressed through SINR, and a configured target.
The gNodeB can issue Transmit Power Control (TPC) commands to modify the UE's PUCCH transmit power.
Outer-loop power control adjusts the target signal-quality requirement according to observed error performance. When reception reliability deteriorates, the target SINR can be increased to improve decoding probability. Conversely, consistently satisfactory error performance can permit a reduction in the target.
RSRP measures received reference-signal power, while power spectral density expresses signal or noise power per unit bandwidth. Neither directly represents the error-performance feedback used in the intended outer-loop mechanism.
Therefore, BLER is the expected examination answer, with implementation-specific qualifications.
Official Reference: 3GPP TS 38.213, Section 7.2.1, PUCCH Transmit Power Control .
Technical warning / qualification: 3GPP specifies the PUCCH power-control signaling and calculations but does not mandate one universal BLER-based outer-loop algorithm. Huawei implementations may use BER or another error-performance measure depending on the radio technology and PUCCH configuration.
NEW QUESTION # 43
Notification Control is used exclusively for GBR QoS flows and is an optional parameter.
Answer: A
Explanation:
The statement is true because Notification Control is an optional Quality of Service (QoS) parameter applicable to Guaranteed Bit Rate (GBR) QoS flows in the 5G system architecture.
In 5G, QoS flows enable differentiated treatment of traffic according to service requirements such as guaranteed throughput, packet delay, reliability, and priority.
GBR QoS flows are characterized by Guaranteed Flow Bit Rate (GFBR) and Maximum Flow Bit Rate (MFBR) parameters.
Notification Control allows the NG-RAN to report when the guaranteed QoS requirements associated with a GBR QoS flow can no longer be satisfied.
According to 3GPP TS 23.501, the Session Management Function (SMF) enables Notification Control when the corresponding QoS Notification Control parameter is present in the Policy and Charging Control (PCC) rule received from the Policy Control Function (PCF).
The parameter is subsequently communicated to the NG-RAN as part of the QoS profile.
When Notification Control is active, the NG-RAN monitors whether the required GFBR, Packet Delay Budget (PDB), and Packet Error Rate (PER) conditions remain achievable.
If these requirements cannot be fulfilled, the NG-RAN sends the appropriate notification toward the SMF.
Notification Control is not mandatory for every GBR QoS flow and is not a standard parameter applied to ordinary non-GBR flows.
Therefore, option A is correct.
Official Reference: 3GPP TS 23.501, Section 5.7.2.4, Notification Control .
NEW QUESTION # 44
Which SSB pattern cases are supported by Huawei NR TDD base stations?
Select All that Apply
Answer: B,C,D
Explanation:
The intended answers are Case D, Case C, and Case A, corresponding to the SSB transmission patterns identified as supported by the Huawei NR TDD implementation described in the updated question bank.
In 5G NR, Synchronization Signal/PBCH Block (SSB) patterns define the candidate time-domain positions of synchronization blocks within an SSB burst set.
The patterns depend on the SSB subcarrier spacing, operating frequency range, and applicable radio-access configuration.
Case A uses 15 kHz subcarrier spacing and is defined for applicable FR1 operating bands.
Case C uses 30 kHz subcarrier spacing and supports configurations used in applicable low-frequency NR deployments, including TDD bands.
Case D uses 120 kHz subcarrier spacing and is associated with higher-frequency NR operation.
The source material identifies Cases A and C as supported for Huawei low-frequency TDD deployments and Case D for supported high-frequency TDD deployments.
Case B also uses 30 kHz subcarrier spacing and is a valid standardized SSB pattern. Its exclusion here reflects the intended Huawei product-support subset rather than a prohibition imposed by the NR specification.
Therefore, options B, C, and D are the intended answers.
Official Reference: 3GPP TS 38.213, Section 4.1, Cell Search and Candidate SS/PBCH Block Positions ; TS
38.101-1 and TS 38.101-2, applicable band and SSB numerology requirements.
Technical warning / qualification: This is a Huawei software-version-specific question. The standards confirm that Cases A, B, C, and D exist, but do not independently establish the supported subset for every Huawei TDD base-station release. The official Huawei 5G RAN Channel Management Feature Parameter Description for the relevant release is required for final vendor verification.
NEW QUESTION # 45
Which NAS security encryption algorithms are supported by an RG?
Select All that Apply
Answer: A,B,C
Explanation:
SNOW 3G, ZUC, and AES are standardized ciphering algorithms supported within the 5G security architecture for Non-Access Stratum (NAS) protection.
NAS security protects signaling exchanged between the UE and the Access and Mobility Management Function (AMF), including registration, authentication-related procedures, mobility management, and applicable NAS transport messages.
3GPP TS 33.501 identifies three principal 128-bit non-null ciphering algorithm families.
128-NEA1 is based on SNOW 3G, a stream-cipher algorithm originally developed for mobile-network security applications.
128-NEA2 uses the Advanced Encryption Standard (AES) in Counter (CTR) mode.
128-NEA3 is based on ZUC, a stream cipher standardized for mobile telecommunications security.
The serving network selects a ciphering algorithm according to the UE security capabilities and the algorithms permitted by the network configuration.
Option A is incorrect because quantum encryption is not one of the standardized NAS ciphering algorithms defined in the referenced 3GPP specification.
An additional standardized option, NEA0, represents null ciphering, but it is not listed among the available answers.
Therefore, B, C, and D identify the applicable standardized non-null algorithm families.
Official Reference: 3GPP TS 33.501, Sections 5.11.1.1 and 5.11.2, Ciphering Algorithm Identifier Values and Requirements for Algorithm Selection .
Technical warning / qualification: The question uses RG without defining the abbreviation. The explanation verifies standardized 5G NAS ciphering algorithms, but whether a particular residential gateway supports all three depends on its implementation and advertised security capabilities. The wording should specify the intended gateway type.
NEW QUESTION # 46
How many consecutive symbols does each SSB occupy in the time domain?
Answer: D
Explanation:
Each Synchronization Signal and Physical Broadcast Channel Block (SSB), formally identified as an SS
/PBCH block, occupies four consecutive Orthogonal Frequency Division Multiplexing (OFDM) symbols in the time domain.
In 5G NR, the SSB provides essential information for initial cell search, synchronization, physical cell identity detection, and acquisition of broadcast system information.
According to 3GPP TS 38.211, Section 7.4.3.1, an SS/PBCH block occupies four consecutive OFDM symbols, numbered 0 through 3.
The SSB contains the Primary Synchronization Signal (PSS), Secondary Synchronization Signal (SSS), Physical Broadcast Channel (PBCH), and associated PBCH Demodulation Reference Signals (DM-RS).
The PSS enables the UE to detect a component of the physical cell identity and establish initial timing synchronization.
The SSS provides the remaining information required to determine the complete physical cell identity and assists synchronization.
The PBCH carries the Master Information Block (MIB), which provides essential configuration information for acquiring further system information.
In the frequency domain, each SSB spans 240 contiguous subcarriers.
Although multiple SSBs may be transmitted within an SSB burst set to support beam sweeping, the time- domain duration of an individual SSB remains exactly four consecutive OFDM symbols.
Official Reference: 3GPP TS 38.211, Section 7.4.3.1, Time-Frequency Structure of an SS/PBCH Block , Table 7.4.3.1-1.
NEW QUESTION # 47
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