
We would like to take a moment to highlight our 4G/5G course, which we are confident will provide an exceptional learning experience. Please do not hesitate to contact us directly through WhatsApp or by phone using the provided number if required. We look forward to helping you expand your knowledge and skills in the exciting field of telecommunications.
Delve into the fundamentals of LTE technologies and evolution from 1G to 3G, including GSM, TDMA, CDMA, UMTS, and the impact of data rate, latency, and capacity on user experience.
Explore how LTE and 5G use multi-antenna techniques—diversity, spatial multiplexing, and beamforming—to boost reliability and data rates, plus open/closed loop MIMO, PMI, RI, and transmission modes.
Explain how LTE uses OFDM/OFDMA, 20 MHz bandwidth, and PRBs to structure time-domain frames with subframes, slots, and symbols across Fdd and Tdd.
Explain the physical control format indicator PCFICH and the PHICH channel, and how eNodeB uses scheduling information via downlink control information to allocate resources.
Explore LTE random access channel (RACH): 64 orthogonal preambles from cyclic shifts of root sequences, using config index and preamble formats, with frequency offset, six resource blocks, and SFN timing.
Learn LTE RACH processing, including preamble initial receive target power, delta preamble, power ramping, window length, and contention based and contention free access with random access responses and timing advance.
Understand how the LTE UE monitors paging in idle mode, waking on paging occasions to decode PCH via PRN and PDCCH, and process IMSI-based paging records.
Explore how the LTE MAC scheduler allocates downlink and uplink resources per subframe using dynamic, semi-persistent, and persistent scheduling and fairness-aware strategies like proportional fair.
Learn how periodic and triggered tracking area updates keep the UE location current, switching between idle and connected states, handling paging, and resuming bearers only for signaling.
Learn how layer 3 handovers in LTE and 5G are categorized by radio interface and backhaul, and how measurement configuration, A1/A2/B1/B2 events, hysteresis, and time-to-trigger drive the handover decisions.
This expertly designed course bridges the foundational technologies of 4G LTE with the next-generation capabilities of 5G NR, equipping you with the knowledge and skills essential for success in today’s wireless industry.
Our curriculum begins by establishing a solid understanding of 4G LTE—its architecture, key protocols, and system operations—giving you the context needed to fully appreciate the innovations brought by 5G NR. From OFDMA and resource scheduling to EPC and VoLTE, you'll gain deep insights into the technologies that have powered global connectivity for over a decade.
As the course progresses, we transition into the world of 5G NR, where you'll explore cutting-edge topics such as scalable numerology, beamforming, massive MIMO, network slicing, and the service-based architecture of 5G Core. With a focus on both theoretical knowledge and real-world applications, you’ll learn how these technologies are transforming industries and driving digital innovation.
Through engaging lessons, practical exercises, and real-world case studies, this course offers a holistic and accessible learning experience—whether you're a network engineer, telecom professional, product strategist, or simply passionate about wireless technology.
Join us and become a well-rounded expert in both 4G LTE and 5G NR. By the end of this course, you’ll be equipped to contribute meaningfully to the future of global connectivity.
Enroll now and take the lead in shaping the wireless networks of tomorrow.