Price: $3,999.00

Length: 3 Days
Print Friendly, PDF & Email

5G and mmWave Antenna Engineering Training

For the most part, 5G wireless networks are powered by a technology known as the millimeter wave (mmWave).

Millimeter waves are electromagnetic radio waves typically defined to lie within the frequency range of 30–300 GHz. The micro waveband is just below the millimeter-wave band and is typically defined to cover the 3–30 GHz range.

Although the available bandwidth of mmWave frequencies is promising, the propagation characteristics are significantly different from microwave frequency bands in terms of path loss, diffraction and blockage, rain attenuation, atmospheric absorption and foliage loss behaviors. In general, the overall loss of mmWave systems is significantly larger than that of microwave systems for a point-to-point link.

Fortunately, the small wavelengths of mmWave frequencies enable large numbers of antenna elements to be deployed in the same form factor thereby providing high spatial processing gains that can theoretically compensate for at least the isotropic path loss. Still, as mmWave systems are equipped with several antennas, a number of computation and implementation challenges arise to maintain the anticipated performance gain of mmWave systems.

Despite issues, the major wireless service providers remain committed to the millimeter-band in bringing 5G technology to the public.

The major mobile network operators are compensating for mmWave inefficiencies through antenna enabling techniques that allow 5G to operate at a high level. For example, advanced beamforming and beam tracking techniques use 3D directional antennas to increase coverage and non-line of sight (NLOS) operation.

That, and in order to deliver faster speeds to subscribers, 5G standards require more complex antenna designs and deployment strategies. Traditional antennas are passive devices that use metal rods, capacitors, and conductors. Active antennas and MIMO are key to differentiating 5G from previous wireless networks.

5G and mmWave Antenna Engineering Training Course by Tonex

5G and mmWave Antenna Engineering Training covers the theory and practice of antenna engineering, communications, radar, commercial and military applications. Learn how to system engineer, design and build 5G and mmWave antennas. Also learn about antenna applications and properties including EM spectrum of frequencies covering microwave antennas from about 5 GHz to 60 GHz.

Learning Objectives

Upon completing the 5G and mmWave Antenna Engineering Training course, attendees will be able to:

  • Explain key 5G and mmWave technology features and advantages
  • Describe major mmWave antenna applications using mmWave enabling technologies
  • Relate mmWave and 5G radio architecture and system implementation and antenna deployments
  • Learn the key antenna systems engineering concepts related to design, performance, operation and optimization
  • Describe mmWave antenna technology types
  • Design antenna arrays using basic mmWave principles
  • Simulate and model antenna performance with considerations of mmWave propagation
  • Predict 5G communication system performance using mmWave antenna
  • Measure and test mmWave antenna performance

Who Should Attend

5G and mmWave Antenna Engineering Training is an ideal course for RF engineers, scientists, software engineers, testing engineers, analysts, engineering managers, antenna technicians, field measurement technicians and project planners.

Course Content

History and Introduction

  • Antenna design in cellular phones: 1G-4G antenna evolution: monopole/ PCB-monopole / planar inverted F antenna / planar monopole / coupling element based antenna
  • Typical types of antennas in a cellphone: primary cellular, diversity cellular, GPS antenna / Wi-Fi antenna / NFC antennas
  • Matching Networks / L-Network
  • Commercial deployment in example products: mobile phones / laptops / tablets / projectors / routers

Basic Antenna Concepts

  • Blackbody radiation / Maxwell equations
  • Frequency bands
  • Antenna Reciprocity
  • Radiation pattern / Far Field, Near Field and Fresnel Regions / Beamwidths and Sidelobes
  • Friis Transmission Equation / Link budget
  • Antenna Gain / Efficiency / Bandwidth / Antenna temperature
  • Maximum power-transfer theorem / Smith chart review / impedance matching / Standing wave ratio

5G Antenna Challenges and Theory

  • Shannon-Hartley Theorem (Capacity)
  • Channel capacity / channel state information (CSI)
  • mmWave compatible substrates / Low-Loss Transmission Lines / Device-to-Package Interconnections
  • Small antenna apertures
  • Loss mechanisms /Free-space propagation vs. Multi-path propagation / Fading / Oxygen absorption
  • Antenna design tradeoffs: Bandwidth tradeoff vs. spectrum / tradeoff between complexity and performance / diversity-multiplexing tradeoff for arrays

5G Antenna Types and Components

  • Substrate integrated waveguides (SIWs), multilayer and multipitch antennas
  • Grid Antennas / Patch (with embedded cavity) / L-probe patch / Cavity / loop-loaded dipole / slot / cavity-backed wide slot / aperture antenna
  • Typical antennas for 60 GHz operation: Reflector, lens and horn antennas
  • Microstrip antennas / Yagi–Uda antenna
  • Antenna parameters for mmWaves / Gain / Directionality / antenna effective area / efficiency / return loss
  • antennas on chip (AoC) and antenna in package (AiP)
  • Antenna on chip / Antenna on package
  • High resistivity (HR) silicon-on-insulator (SOI) CMOS
  • 5G Antenna Materials: RT Duroid /
  • Liquid Crystal Polymer / Taconic TLY / PET / RO4350B / FR4
  • 5G antenna Fabrication
  • PCB process
  • Low temperature co-fired ceramic (LTCC)
  • Die-sink electrical discharge machining (EDM)

Multiple Antenna Systems for mmWave 5G networks

  • Antenna arrays
  • Single-input single output (SISO)
  • Multiple input single output (MISO)
  • Multiple-input and multiple-output (MIMO)
  • Single User MIMO
  • Multi User MIMO
  • Pre-coding / Analog pre-coding / Digital pre-coding / Hybrid pre-coding
  • Massive MIMO
  • Beamforming / analog beamforming / digital beamforming / hybrid beamforming
  • Linear array antenna theory
  • Linear array measurements
  • Design considerations for mmWave antennas
  • Polarization characteristics

Antenna Array Design Considerations

  • Friis transmission formula breakdown
  • Cross-coupling in the near-field
  • Array gain / power gain
  • Pre-coding / spatial multiplexing / diversity coding (e.g., space-time coding)
  • Metrics / peak-to-average ratio (PAR)
  • Testing: vector signal generator (VSG) / channel emulator / vector signal analyzer (VSA)
  • Distortion: group velocity dispersion (GVD)
  • Linearity: IP3, P1dB

5G RF front-end Devices and Concepts

  • System design context
  • Quantization error / data converters
  • Multi-band filters / surface acoustic wave (SAW), bulk acoustic wave (BAW) and film bulk acoustic wave (FBAR) filter banks and integrated modules
  • Machine learning for beam training, adaptive reconfiguration / Out-of-band information exploitation / IMU sensor readings
  • Phased array: Phase shift module / active electronically scanned array (AESA), passive electronically scanned array (PESA)

Antenna Testing (Verification and Validation)

  • Design Verification
  • EMC/EMI
  • Anechoic Chambers / Grounding
  • Radiation Pattern and Gain Measurements
  • Near-Field Antenna Measurements
  • Phase Measurements
  • Polarization Measurements
  • Impedance Measurements
  • SAR (Specific Absorption Rate) Measurements
  • Antenna Operational Validation Methods

 

5G and mmWave Antenna Engineering Training

Request More Information

  • Please complete the following form and a Tonex Training Specialist will contact you as soon as is possible.

    * Indicates required fields

  • This field is for validation purposes and should be left unchanged.