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NEW QUESTION # 51
Which of the following layers is responsible for concatenating RLC PDUs?
Answer: D
Explanation:
The Medium Access Control (MAC) layer is responsible for multiplexing multiple RLC PDUs into a MAC PDU for transmission over the physical transport channel.
In the 5G NR protocol architecture, the Radio Link Control (RLC) layer processes data received from upper protocol layers and constructs RLC PDUs.
RLC supports segmentation and reassembly of RLC Service Data Units (SDUs), depending on the configured RLC operating mode.
However, the NR RLC layer does not perform concatenation of multiple independent RLC SDUs into one RLC PDU in the manner associated with earlier LTE RLC processing.
Instead, each RLC SDU is used to construct an RLC PDU, or is segmented into multiple RLC PDUs when necessary.
These RLC PDUs are subsequently delivered to the MAC layer.
From the MAC perspective, an RLC PDU is received as a MAC SDU. The MAC multiplexing procedure can combine MAC SDUs belonging to one or several logical channels into a single MAC PDU.
The MAC PDU is then transferred to the physical layer through the corresponding transport channel.
PDCP performs functions such as sequence numbering, ciphering, and header compression where applicable.
PHY performs physical-channel processing, modulation, and transmission.
Therefore, option C correctly identifies the layer responsible for combining multiple RLC PDUs for transmission.
Official Reference: 3GPP TS 38.321, Section 4.4, MAC Functions ; TS 38.322, Sections 4.2 and 5, RLC Sublayer and Data Transfer Procedures .
NEW QUESTION # 52
Which TA offsets may be configured for a 5G network operating in n41?
Select All that Apply
Answer: B,D
Explanation:
Options B and C are correct because the standardized Timing Advance (TA) offset values applicable to an NR Frequency Range 1 (FR1) Time Division Duplex (TDD) deployment include 25600 T_c and 39936 T_c, depending on the coexistence scenario.
NR band n41 operates in FR1 using TDD.
Timing Advance enables the UE to adjust uplink transmission timing so that signals from different UEs arrive at the gNodeB within the required timing alignment.
In NR, the effective uplink timing relationship includes a timing-advance offset represented by N_TA,offset.
According to the standardized timing requirements:
Option B - 25600 T_c: This value applies to FR1 TDD operation without the relevant LTE-NR coexistence requirements. It is also the default FR1 offset in applicable configurations when no explicit n- TimingAdvanceOffset is provided.
Option C - 39936 T_c: This value applies to FR1 TDD operation involving LTE-NR coexistence.
Option A - 0 T_c: This value is associated with the specified FR1 FDD coexistence case, not the normal n41 TDD configurations represented by this question.
Option D - 51200 T_c: This is not one of the applicable standardized NR timing-advance offset values.
Therefore, B and C are correct.
Official Reference: 3GPP TS 38.533, Section 4.4.1.0.1, Table 4.4.1.0.1-2, Timing Advance Offset Values ; TS 38.213, Section 4.2, Transmission Timing Adjustments .
NEW QUESTION # 53
During downlink data transmission, if a UE suddenly stops reporting CQI, which of the following issues will occur?
Answer: C
Explanation:
CQI is part of the Channel State Information (CSI) reported by the UE to assist the gNodeB in downlink link adaptation.
The CQI value represents the estimated channel quality under configured reporting assumptions and helps determine an appropriate modulation order and coding rate.
When the UE stops reporting CQI, the scheduler loses an important source of updated radio-channel information.
In an implementation that retains the last valid channel-quality estimate, the scheduler may continue transmitting using the previously selected MCS.
However, this is not a universal requirement.
A gNodeB may also use HARQ acknowledgment statistics, observed decoding performance, configured fallback policies, or other available channel information to modify its scheduling decisions.
Consequently, downlink transmission does not necessarily stop, and a low-order MCS is not always selected.
The absence of fresh CQI can adversely affect link-adaptation accuracy and throughput, so option D is also not generally appropriate.
Option C therefore reflects the expected simplified behavior, but its use of the word always makes the statement technically overrestrictive.
Official Reference: 3GPP TS 38.214, Sections 5.1 and 5.2, PDSCH Procedures and CSI Reporting ; TS
38.321, HARQ Operation and MAC Procedures .
Technical warning / qualification: 3GPP does not mandate that an unchanged MCS must always be used after CQI reporting stops. The answer is valid only under a specific scheduler implementation or fallback policy. As written, the question has no universally guaranteed correct option.
NEW QUESTION # 54
Which of the following cannot be transmitted on the PDCCH?
Answer: C
Explanation:
The Precoding Matrix Indicator (PMI) is the correct answer because PMI is primarily reported by the UE as part of Channel State Information (CSI), rather than being transmitted as a conventional Downlink Control Information (DCI) field on the Physical Downlink Control Channel (PDCCH).
In 5G NR, the PDCCH carries scheduling and control information from the gNodeB to the UE. DCI formats determine whether the signaling concerns uplink transmission, downlink transmission, or another supported control procedure.
For downlink scheduling, DCI formats 1_0 and 1_1 can specify PDSCH resource assignments, including frequency-domain and time-domain resource allocation.
The DCI also contains a Modulation and Coding Scheme (MCS) field. This identifies the modulation order and target coding rate associated with the scheduled PDSCH transmission.
For uplink scheduling, DCI formats 0_0 and 0_1 can provide PUSCH resource allocations and associated transmission parameters.
PMI serves a different purpose. Based on configured CSI-RS measurements, the UE determines a preferred precoding matrix and reports the associated PMI to the gNodeB.
This feedback is conveyed through applicable uplink reporting procedures using PUCCH or PUSCH.
Therefore, PMI is the only listed parameter that is not ordinarily carried as a PDCCH DCI field.
Official Reference: 3GPP TS 38.212, Section 7.3.1, DCI Formats ; TS 38.214, Section 5.2, Channel State Information Reporting .
NEW QUESTION # 55
What is the broadcast periodicity of the MIB in 5G?
Answer: A
Explanation:
The NR Master Information Block (MIB) has a nominal broadcast scheduling periodicity of 80 milliseconds, with repetitions transmitted within the applicable MIB scheduling period.
The MIB is an essential component of 5G NR system-information acquisition. It is carried on the Broadcast Channel (BCH), physically transmitted through the Physical Broadcast Channel (PBCH) within a Synchronization Signal/PBCH Block (SSB).
The MIB contains information required for the UE to acquire System Information Block 1 (SIB1), including essential system-frame and control-channel configuration parameters.
Its information elements include the system frame number components, subcarrier spacing indication, SSB subcarrier offset, and parameters associated with the initial PDCCH configuration.
A distinction must be made between the MIB's nominal 80 ms scheduling periodicity and the repetition periodicity associated with SSB transmission.
An SSB burst may repeat at intervals such as 5, 10, 20, 40, 80, or 160 ms, depending on the applicable configuration and operating procedure.
For typical deployments, the UE may therefore receive repeated PBCH transmissions more frequently than every 80 ms.
The question concerns the standardized nominal MIB scheduling period rather than the interval between every PBCH transmission.
Therefore, 80 ms is the correct answer.
Official Reference: 3GPP TS 38.331, Section 5.2.1.2, System Information Scheduling ; TS 38.212, Section
7.1, Broadcast Channel .
NEW QUESTION # 56
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