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5G Wireless Standard Design

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Preview this course
Self-paced Advanced

5G Wireless Standard Design

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1 enrolled
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1695 min
Anytime
English
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Why enroll

People join this course to understand how modern cellular standards are developed and implemented in real-world networks. It is especially valuable for students and professionals in electronics, communication engineering, and wireless technology who want to work in telecom companies, R&D labs, and next-generation network design. The course also helps learners prepare for advanced studies, research, and careers in 5G, IoT, and future wireless systems.

Is this course for you?

You should take this if

  • You work in Telecommunication
  • You're a Electronics & Telecommunication professional
  • You have 3+ years of hands-on experience in this field
  • You prefer self-paced learning you can revisit

You should skip if

  • You're new to this field with no prior experience
  • You need a different specialisation outside Electronics & Telecommunication
  • You need live interaction with an instructor

Course details

5G Wireless Standard Design focuses on the principles, technologies, and architectural choices behind the fifth-generation mobile communication system. The course explains how 5G standards are designed to achieve ultra-high data rates, low latency, massive connectivity, and improved reliability. It covers both physical-layer innovations and system-level design aspects that enable applications such as enhanced mobile broadband, ultra-reliable low-latency communication, and massive machine-type communication

SOURCE-YOUTUBE[NPTEL]

Course suitable for

Key topics covered

  1. Evolution from 1G to 5G wireless systems

  2. 5G use cases: eMBB, URLLC, and mMTC

  3. 5G network architecture and protocol stack

  4. Physical layer design in 5G NR

  5. Multiple access techniques and numerology

  6. Massive MIMO and beamforming

  7. Millimeter-wave communication

  8. Channel coding and modulation schemes

  9. Scheduling, resource allocation, and latency reduction

  10. Standardization process and future roadmap beyond 5G

Course content

The course is readily available, allowing learners to start and complete it at their own pace.

59 lectures28 hr 15 min
  1. Lecture 01 : Course Introduction
    26 min
  2. Lecture 02 : Key 5G Technologies - Adaptive Modulation and Coding (AMC)
    38 min
  3. Lecture 03 : Key 5G Technologies - Hybrid automatic repeat request (HARQ)
    34 min
  4. Lecture 04 : Key 5G Technologies - Orthogonal frequency division multiplexing (OFDM)
    35 min
  5. Lecture 05 : 5G Numerology
    33 min
  6. Lecture 06 : 5G frame structure
    31 min
  7. Lecture 07 : 5G physical downlink shared channel (PDSCH) transmit chain– CRC generation
    25 min
  8. Lecture 08 : 5G PDSCH transmit chain – code block segmentation – part I
    21 min
  9. Lecture 09 : 5G PDSCH transmit chain – LDPC coding
    28 min
  10. Lecture 10 : 5G PDSCH transmit chain – code block segmentation – part II
    25 min
  11. Lecture 11 : 5G PDSCH transmit chain – rate matching – part I
    34 min
  12. Lecture 12 : 5G PDSCH transmit chain – rate matching – part II
    32 min
  13. Lecture 13 : 5G PDSCH transmit chain – interleaving and concatenation
    23 min
  14. Lecture 14 : 5G PDSCH transmit chain – scrambling and modulation
    30 min
  15. Lecture 15 : 5G PDSCH transmit chain – recap
    22 min
  16. Lecture 16 : 5G PDSCH receive chain – part I
    29 min
  17. Lecture 17 : 5G PDSCH receive chain – part II
    29 min
  18. Lecture 18 : 5G PDSCH – map receiver design part I
    24 min
  19. Lecture 19 : 5G PDSCH – map receiver design part II
    30 min
  20. Lecture 20 : 5G baseband – RF conversion
    29 min
  21. Lecture 21 : Indigenous 5G network architecture
    22 min
  22. Lecture 22 : 5G physical downlink control channel (PDCCH) transmit chain- introduction
    31 min
  23. Lecture 23 : 5G PDCCH transmit chain – CRC and segmentation
    25 min
  24. Lecture 24 : 5G PDCCH transmit chain – Polar encoding
    22 min
  25. Lecture 25 : 5G PDCCH transmit chain – CRC interleaver
    21 min
  26. Lecture 26 : 5G PDCCH transmit chain – sub-block interleaver
    35 min
  27. Lecture 27 : 5G PDCCH transmit chain – rate matching
    22 min
  28. Lecture 28 : 5G PDCCH transmit chain – control resource set (CORESET) design – part I
    29 min
  29. Lecture 29 : 5G PDCCH transmit chain –CORESET design – part II
    30 min
  30. Lecture 30 : 5G PDCCH transmit chain –CORESET design – part III
    24 min
  31. Lecture 31 : 5G PDCCH transmit chain –CORESET design – part IV
    24 min
  32. Lecture 32 : 5G physical uplink control channel (PUCCH) - part I
    29 min
  33. Lecture 33 : 5G physical uplink control channel (PUCCH) - part II
    26 min
  34. Lecture 34 : Multiple input multiple output (MIMO) transceiver chain – part I
    29 min
  35. Lecture 35 : MIMO transceiver chain – part II
    35 min
  36. Lecture 36 : MIMO transceiver chain – part III
    29 min
  37. Lecture 37 : MIMO transceiver chain – part IV
    31 min
  38. Lecture 38 : MIMO transceiver chain – part V
    25 min
  39. Lecture 39 : MIMO transceiver chain – part VI
    27 min
  40. Lecture 40 : MIMO transceiver chain – part VII
    29 min
  41. Lecture 41 : 5G demodulation reference signal (DM-RS) design – part I
    29 min
  42. Lecture 42 : 5G DM-RS design – part II
    21 min
  43. Lecture 43 : 5G DM-RS design – part III
    29 min
  44. Lecture 44 : 5G DM-RS design – part IV
    21 min
  45. Lecture 45 : 5G sounding reference signal (SRS) design – part I
    31 min
  46. Lecture 46 : 5G SRS design – part II
    30 min
  47. Lecture 47 : 5G SRS design – part III
    29 min
  48. Lecture 48 : 5G SRS design – part IV
    28 min
  49. Lecture 49 : 5G SRS design – part V
    33 min
  50. Lecture 50 : 5G channel state estimation reference signal (CSI-RS) – part I
    28 min
  51. Lecture 51 : 5G CSI-RS – part II
    30 min
  52. Lecture 52 : 5G MIMO transceiver chain – part I
    31 min
  53. Lecture 53 : 5G MIMO transceiver chain – part II
    35 min
  54. Lecture 54 : 5G MIMO codebook design – part I
    33 min
  55. Lecture 55 : 5G MIMO codebook design – part II
    32 min
  56. Lecture 56 : 5G FR1/FR2 design– part I
    35 min
  57. Lecture 57 : 5G FR1/FR2 design– part II
    35 min
  58. Lecture 58 : 5G FR1/FR2 design– part III
    28 min
  59. Lecture 59 : 5G initial access - part I
    34 min

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Questions and Answers

A: The right call prevents rising PIM by stopping electrochemical potential from building under salt-laden moisture. Uniform oxidation ignores the electrolyte and metal pairing that sets the cell. Stress corrosion cracking needs sustained stress and specific alloys that aren't present here. Fretting happens, but it doesn't explain the monotonic IM growth seen without repeated mating cycles.

A: The chosen value preserves physics by summing power linearly across carriers before applying losses and gain. Adding 7 dB blindly skips the linear domain and overstates radiated power. Scheduler assumptions don't remove simultaneous average power in a compliance sense. Averaging across bandwidth confuses spectral density with total radiated power.

A: Reading it this way explains how the unit adapts band edges without violating isolation. An RF sampling port would be shown as a coupled branch with power levels. Redundant RF paths are drawn as solid parallel lines with ports. External calibration loops are called out with connectors and test notes.

A: This option directly reduces out-of-band emissions that drive the complaint while staying within spectral masks. Trading antenna gain for PA power leaves ACLR unchanged at the port. Duplexing mode change isn't available in n78 deployments. Downtilt helps geometry but doesn't fix spectral regrowth seen at the victim receiver.