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Wireless Digital Communications and Signal Processing

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Benny Bing

4:38:20

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  • 1. Introduction.mp4
    18:10
  • 1. Channel Models, Modulation, Link Adaptation.mp4
    25:22
  • 1. Binary Communications, Entropy, Shannon Capacity.mp4
    17:02
  • 1. Sampling Theorem, Quantization, Pulse Shaping, Multi-level Modulation.mp4
    12:18
  • 1. Power Spectral Analysis and Error Performance for QAM.mp4
    17:14
  • 1. Error-Control Coding and Error Performance.mp4
    23:29
  • 1. Signal Estimation and Noise in Digital Communications.mp4
    21:38
  • 1. Multiple Access Communications.mp4
    19:33
  • 1. Wireless Communications System.mp4
    19:47
  • 1. Nyquist Sampling Theorem and Bandlimited Signals.mp4
    15:45
  • 1. Baseband Equivalent Channel and Digital Modulation.mp4
    20:04
  • 1. Matched Filters and Symbol Synchronization.mp4
    12:15
  • 2. Matched Filter Demo.mp4
    01:15
  • 3. Equalization and Frequency Offset Estimation.mp4
    23:12
  • 4. Wireless Channel Modeling and Velocity Measurement.mp4
    17:22
  • 1. Delta-Sigma Modulators, Noise Shaping, Direct Sampling, Power Amplifier Lineariz.mp4
    13:54
  • Description


    Modulation, coding, pulse shaping, signal estimation, channel modeling, multicarrier and multiantenna transmission

    What You'll Learn?


    • Understand the fundamental principles of wireless signal transmission and processing
    • Evaluate modulation and coding schemes for a given application, and compare the error performance of different modulations
    • Apply channel models and pulse shaping in wireless systems
    • Learn equalization techniques, matched filtering, and spectral estimation
    • Review multicarrier transmission, analyze subcarrier power loading, and evaluate the impact of frequency offset
    • Design and optimize digital beamforming and multiple antenna systems
    • Direct Sampling, Power Amplifier Linearization, N-Path Filtering, Phase-Locked Loop

    Who is this for?


  • Anyone who wish to gain a deeper understanding of wireless communications
  • Wireless signal processing engineers working on physical layer (PHY) algorithm design and optimization
  • What You Need to Know?


  • A background in wireless communications and digital signal processing
  • Some knowledge of linear algebra and probability theory
  • More details


    Description

    Wireless networks have expanded beyond person-to-person communications, connecting not only users but also machines, devices, and objects. Using 420 illustrative slides, this course will cover the fundamental principles of digital communications and describe the role of digital signal processing in driving wireless technologies. Participants will learn how to analyze the performance of digital modulation techniques such as quadrature amplitude modulation (QAM) and apply them in modern wireless systems. High-order modulation (such as 256-QAM, 1024-QAM) achieves greater spectral efficiency, thus leading to higher data rates. They form the basis of current and emerging wireless standards (such as 5G and Wi-Fi). By changing the modulation and coding, the available data rate and robustness of the wireless signal can be adapted to deployment conditions.

    The Nyquist Theorem allows bandlimited continuous-time signals to be represented by their discrete-time samples. Consequently, a wireless communications system, including channel impairments like multipath fading and noise, can be analyzed in terms of their discrete-time equivalents. Linear time-invariant systems, which are characterized by convolution with an impulse response, can be used to model wireless channels. Deconvolution can be used to equalize the effects of the channel. Upsampling, downsampling, and multirate signal processing allow efficient implementation of pulse shaping at the transmitter and matched filtering at the receiver. This course will present many DSP tools that are relevant to wireless system design, analysis, and optimization, including practical techniques related to multiple antenna signal processing (transmit beamforming, spatial multiplexing, and space-time coding).

    Who this course is for:

    • Anyone who wish to gain a deeper understanding of wireless communications
    • Wireless signal processing engineers working on physical layer (PHY) algorithm design and optimization

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    Focused display
    Benny Bing has worked in academia for 30 years, and has published 20 books and over 70 scientific research papers. In 1999, Cisco Systems adopted 18,000 printed copies of his pioneering book on Wi-Fi to launch its first wireless product. He has also published a software-defined radio article for the IEEE Spectrum and was featured in the MIT Technology Review. He has taught custom courses for many companies, universities, and the IEEE, including 8 industry-sponsored tutorials for the IEEE. His 6 U.S. patents were all licensed to industry and he has served as a residential broadband technology panelist for the National Science Foundation. He has received several industry, research, and teaching awards, such as the NAB Technology Innovation Award, the European Interactive TV Grand Challenge first prize, 2 IEEE best paper awards, and the Georgia Tech Center for the Enhancement of Teaching and Learning award. He is a certified computer-aided instructor, and has trained hundreds of engineers from China, Taiwan, Korea, India, Malaysia, Germany, Spain, Portugal, Chicago, Colorado, Atlanta, San Diego, and San Francisco.
    Students take courses primarily to improve job-related skills.Some courses generate credit toward technical certification. Udemy has made a special effort to attract corporate trainers seeking to create coursework for employees of their company.
    • language english
    • Training sessions 16
    • duration 4:38:20
    • Release Date 2024/04/23