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Nokia SRAN-Radio-Network-Performance-Optimization Exam Syllabus Topics:

Section	Weight	Objectives
SRAN Optimization Tools and Reports	10-15%	- Nokia NetAct and performance tools - Report generation and interpretation - Configuration management for optimization - Automated optimization features
Radio Network Optimization Techniques	25-30%	- Capacity optimization strategies - Handover optimization - Interference analysis and mitigation - Coverage optimization methods - Load balancing techniques - Parameter tuning best practices
Radio Network Performance Monitoring	20-25%	- Threshold configuration and alerting - Performance monitoring tools and dashboards - Performance data collection and analysis - KPI definition and measurement - Real-time network monitoring techniques
Performance Troubleshooting	20-25%	- Common performance issues diagnosis - Troubleshooting tools utilization - Optimization case studies - Network failure identification and resolution - Root cause analysis methodologies
SRAN Architecture and Fundamentals	15-20%	- Single RAN integration principles - Radio access concepts and principles - SRAN solution components and functions - SRAN network architecture overview

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Certification SRAN-Radio-Network-Performance-Optimization Test Answers, SRAN-Radio-Network-Performance-Optimization Reliable Test Questions

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Nokia MN: NCSS NPS - SRAN Radio Network Performance Optimization Certification Exam | GS40-NPS-SRPER-E-S03-2510 Sample Questions (Q22-Q27):

NEW QUESTION # 22
In the case of 5G SA, which of the following triggers the Radio Link Failure, or RLF, handling mechanism?

A. UE indication timer only
B. gNodeB indication timer only
C. None of the above
D. gNodeB and UE indication timer

Answer: A

Explanation:
The correct answer is C.
In 5G SA, Radio Link Failure handling is mainly UE-driven. The UE monitors the radio link quality using lower-layer indications such as in-sync and out-of-sync indications. If the UE receives enough out-of-sync indications, it starts the relevant RLF timer, commonly associated with T310 behavior. If the link does not recover before the timer expires, the UE declares Radio Link Failure and starts recovery, such as RRC re- establishment.
The gNodeB can detect uplink problems and may release or reconfigure the UE, but the classical RLF handling mechanism is triggered at the UE side.
So the correct answer is:
UE indication timer only.

NEW QUESTION # 23
In NR SA Option 2, the UE is camped on an SA serving cell. An IRAT handover is triggered for a multi-QCI call, QCI 1 and QCI 6, due to weak coverage of the serving cell. What will happen to both QCIs during the IRAT handover toward LTE?

A. The QCI 1 bearer, or voice call, and the QCI 6 data bearer will both continue on LTE.
B. The QCI 1 bearer, or voice call, will be released, while the QCI 6 data bearer will continue on LTE.
C. IRAT handover is not supported in SA Option 2.
D. The QCI 1 bearer, or voice call, will continue on LTE, while the QCI 6 data bearer will be released.

Answer: A

Explanation:
The correct answer is D.
In 5G SA Option 2, NR works independently with the 5G Core, but interworking with LTE/EPC can be supported for mobility continuity. When IRAT handover toward LTE is triggered due to weak NR coverage, the goal is to preserve the active services during mobility.
For a multi-QCI service:
QCI 1 normally represents the voice bearer, such as VoLTE/IMS voice continuity after movement to LTE.
QCI 6 normally represents a non-GBR data bearer.
During a supported IRAT handover from NR SA to LTE, both the voice bearer and data bearer can be transferred to LTE, assuming proper interworking, bearer mapping, and LTE coverage availability.
Option C is incorrect because IRAT mobility from NR SA to LTE is supported in properly configured networks. Option A is incorrect because the voice bearer is the most critical bearer to preserve. Option B is also not the best answer because the data bearer does not necessarily need to be released during IRAT handover.
Therefore, the expected result is:
Both QCI 1 voice and QCI 6 data continue on LTE.

NEW QUESTION # 24
A customer complains about coverage reduction after modernization of 4G TDD 4x4 sites to Concurrent mMIMO B41/n41 with AEHC module 64T64R . Which of the following statements regarding RF design changes to increase the coverage is correct?

A. For concurrent mode, the tilt for both 4G and 5G is controlled by mMIMOSecSectorBFProfName and beamforming weight profile parameters.
B. 5G tilt is controlled by tiltOffset , while the 4G tilt is controlled by mMIMOSecSectorBFProfName .
C. For concurrent mode, the tilt for both 4G and 5G is controlled by tiltOffset .
D. 5G tilt is controlled by tiltOffset , while the 4G tilt uses the AEHC RET control port.

Answer: A

Explanation:
The correct answer is C .
In a Concurrent mMIMO B41/n41 AEHC 64T64R deployment, LTE and NR share the same Massive MIMO active antenna system. Public Nokia material identifies AEHC as an AirScale Massive MIMO
64T64R B41 radio product, and Nokia's AirScale Massive MIMO portfolio is designed for high-capacity 5G
/RAN deployments.
Unlike a passive antenna system where coverage is changed mainly by physical/electrical RET, Massive MIMO coverage is strongly influenced by beamforming profiles and beamforming weight parameters . In concurrent LTE/NR operation, the RF design must consider the shared active antenna behavior, not independent passive RET-style tilt control per technology.
Therefore, for concurrent 4G/5G mMIMO coverage adjustment, the correct statement is:
The tilt/coverage behavior for both 4G and 5G is controlled by mMIMOSecSectorBFProfName and beamforming weight profile parameters.

NEW QUESTION # 25
What is the role of admission control in 5G networks ?

A. To check whether there are enough resources for new connections
B. To manage the modulation schemes
C. To optimize the downlink throughput
D. To increase the spectral efficiency

Answer: A

NEW QUESTION # 26
Single Network Slice Selection Assistance Information , or S-NSSAI , identifies a network slice. Which of the following statements are correct regarding NSSAI ? Refer to the diagram for basic information.

A. A and B
B. A, B, and C
C. SD , or Slice Differentiator , pairs with SST , or Slice/Service Type , to uniquely define a slice.
D. The SST field may have standardized and non-standardized values.
E. B, C, and D
F. A, B, C, and D
G. SST , or Slice/Service Type , is a mandatory numeric parameter that refers to defined slice characteristics.
H. SD , or Slice Differentiator , is an optional parameter that identifies or differentiates slices.

Answer: D

Explanation:
The correct answer is D: A, B, C, and D .
In 5G network slicing, S-NSSAI identifies a single network slice. It is composed of:
SST , or Slice/Service Type
SD , or Slice Differentiator
Statement A is correct.
The combination of SST + SD can uniquely identify a slice. For example, two slices may both use SST 1 for eMBB/MBB-type service, but different SD values can separate them for different enterprises, tenants, or service groups.
Statement B is correct.
SST is mandatory. It is an 8-bit numeric field that indicates the expected slice/service behavior, such as eMBB, URLLC, or mMTC.
Statement C is correct.
SD is optional. It is a 24-bit field used to differentiate multiple slices that may share the same SST.
Statement D is correct.
SST may use standardized values, such as SST 1 for eMBB, SST 2 for URLLC, and SST 3 for mMTC/MIoT.
It may also use operator-specific or non-standardized values depending on deployment requirements.

NEW QUESTION # 27
......

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