Basics in RF Design

    On-Line Class
    CET – Central European Time Zone

    Download One-Page Schedule Here

    Week 1: June 23-27, 2025

    Week 2: June 30 – July 4, 2025

    Registration deadline: June 9, 2025
    Payment deadline: June 13, 2025

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    TEACHING HOURS

    DAILY Central European Time CET Eastern Standard Time EST Pacific Standard Time PST India Standard Time IST
    Module 1 3:00-4:30 pm 9:00-10:30 am 6:00-7:30 am 6:30-8:00 pm
    Module 2 5:00-6:30 pm 11:00-12:30 am 8:00-9:30 am 8:30-10:00 pm

    WEEK 1: June 23-27, 2025

    Monday, June 23

    3:00-4:30 pm Introduction to Wireless RX and TX Antonio Liscidini
    5:00-6:30 pm Integrated Mixers Antonio Liscidini

    Tuesday, June 24

    3:00-4:30 pm Base Band Filters Antonio Liscidini
    5:00-6:30 pm LNA Topologies Antonio Liscidini

    Wednesday, June 25

    3:00-4:30 pm Wireless CMOS Receiver Front-End Systems Michiel Steyaert
    5:00-6:30 pm Wireless CMOS Receiver Front-End Circuits Michiel Steyaert

    Thursday, June 26

    3:00-4:30 pm RF CMOS LNA Topologies Michiel Steyaert
    5:00-6:30 pm Up-Converters and Single Chip Transceivers Michiel Steyaert

    Friday, June 27

    3:00-4:30 pm Fundamentals of Analog PLLs Michiel Steyaert
    5:00-6:30 pm Interference Effects in PLLs Michiel Steyaert

    WEEK 2: June 30 – July 4

    Monday, June 30

    3:00-4:30 pm PLL Building Blocks Sam Palermo
    5:00-6:30 pm PLL Analysis and Modeling Sam Palermo

    Tuesday, July 1

    3:00-6:30 Spiral Inductor Interference, Deadzone and Phase Noise Michiel Steyaert

    Wednesday, June 2

    3:00-4:30 pm Integrated Power Amplifiers (PA): System Level Patrick Reynaert
    5:00-6:30 pm Integrated PA: Classes and Topologies Patrick Reynaert

    Thursday, June 3

    3:00-4:30 pm Integrated PA: Design and Implementation Patrick Reynaert
    5:00-6:30 pm Integrated PA: Stability and Layout Patrick Reynaert

    Friday, June 4

    3:00-4:30 pm Integrated PA: Design at mm-Wave Frequencies Patrick Reynaert
    5:00-6:30 pm Integrated PA: Broadband Design with Transformers Patrick Reynaert
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    Abstracts

    Basics in RF Design
    On-Line Class
    June 23 – July 4, 2025

    Building Blocks and Sub System for Wireless Transceivers (4 modules)
    Antonio Liscidini, University of Toronto

    After a first introduction of the requirements of a wireless transceiver, the main building blocks and sub-systems will be analyzed with some emphasis on of ultra-low power techniques for IoT applications. On the RF signal path low noise amplifiers, mixer topologies and base band filters will be presented. Beside the most common approaches, particular solutions oriented to ultra-low power systems will be included such as, quadrature low noise amplifiers, self-oscillating mixer, complex/poly-phase filters.
    The course  will continue with the analysis of the frequency generation required to perform signal down/up conversion in the radio. Different oscillator topologies, and quadrature generation schemes will be presented. After that an overview on phase locked loop will be provided.
    The first part of the course will end with a module dedicated on different transceiver architectures especially for ultra low power applications.

    Wireless CMOS Receiver Front-End Systems and Circuits
    Michiel Steyaert, KU Leuven, Belgium

    Architecture differences towards fully integration CMOS RF implementations. Co-design architecture and mixer topologies. Basic mixer structures, sub-sampling topologies, square-law related topologies and linear down conversion mixers. Quadrature and double quadrature topologies. Poly-phase structures. Design example of a low-IF receiver.

    RF CMOS LNA Topologies
    Michiel Steyaert, KU Leuven, Belgium

    Fundamentals and limits towards CMOS implementations. Common gate, common source with inductive impedance matching, current re-use circuit topologies. Noise figure and non-quasistatic effects. Design examples of low power CMOS LNA’s.

    Up-Converters and Single Chip Transceivers
    Michiel Steyaert, KU Leuven, Belgium

    Quadrature upconverters. Basic mixer structures, linear differential transconductance topologies, single ended circuits and preamplifier buffer stages. Design example of broadband CMOS transmitter circuit.

    Fundamentals of Analog PLLs
    Michiel Steyaert, KU Leuven, Belgium

    Basic definitions and concepts of phase locked loop topologies. Frequency behavior, stability and settling of PLL topologies. Introduction of analog, digital and fractional N synthesizers. Introduction to Phase noise and jitter.

    Interference Effects in PLLs
    Michiel Steyaert, KU Leuven, Belgium

    Different interference effects in PLLs are discussed. First de Dead-zone in phase detectors. Secondly, the design of prescalers and the effect of mismatch in noise performance in fractional-N. Finally the RF and Power supply coupling effects.

    PLL Building Blocks
    Sam Palermo, Texas A&M University, USA

    This talk covers circuit design techniques for the main building blocks, excluding the VCO, used in analog and digital PLLs. This includes phase detectors, time-to-digital converters, analog and digital loop filters, and high-speed dividers.

    PLL Analysis and Modeling
    Sam Palermo, Texas A&M University, USA

    Abstract.

    Spiral Inductor Interference, Deadzone and Phase Noise
    Michiel Steyaert, KU Leuven, Belgium

    Fundamentals and principles of VCO circuits. Lay-out and design issues of spiral inductors and varactors for CMOS VCO circuits. Effect of loop filter and VCO noise on phase noise behavior of PLL synthesizers. Design examples of fully integrated synthesizers in CMOS technologies.

    Integrated Power Amplifiers (PA): System Level
    Patrick Reynaert, KU Leuven, Belgium

    Abstract

    Integrated PA: Classes and Topologies
    Patrick Reynaert, KU Leuven, Belgium

    Abstract.

    Integrated PA: Design and Implementation
    Patrick Reynaert, KU Leuven, Belgium

    Abstract

    Integrated PA: Stability and Layout
    Patrick Reynaert, KU Leuven, Belgium

    Abstract.

    Integrated PA: Design at mm-Wave Frequencies
    Patrick Reynaert, KU Leuven, Belgium

    Abstract

    Integrated PA: Broadband Design with Transformers
    Patrick Reynaert, KU Leuven, Belgium

    Abstract.

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