Phased Array Antenna Engineering for Space Applications
Exploring Electronic Beam Steering and Multi-Beam Architectures for Advanced Spaceborne Communication Systems
No se pudo agregar al carrito
Add to Cart failed.
Error al Agregar a Lista de Deseos.
Error al eliminar de la lista de deseos.
Error al añadir a tu biblioteca
Error al seguir el podcast
Error al dejar de seguir el podcast
Obtén 30 días de Standard gratis
Compra ahora por $12.88
-
Narrado por:
-
Virtual Voice
-
De:
-
Bennett Calder
Este título utiliza narración de voz virtual
Phased array antennas are among the most important enabling technologies for modern space communications, and this book provides a practical, system-minded guide to designing, modeling, calibrating, and verifying them for orbital missions. It brings together the electrical, mechanical, thermal, and operational factors that shape real spacecraft antenna performance, with a clear focus on beam steering, multi-beam coverage, and space qualification.
Readers are guided from mission requirements to implementation details, including link budgets, EIRP and G/T targets, polarization control, spacecraft constraints, and spectrum/regulatory concerns. The text then builds the core principles of array synthesis, showing how element patterns, weighting, phase control, and time-delay techniques influence beam shape, scan range, sidelobes, and wideband behavior.
Key topics covered
- Array architectures for single-beam, multi-beam, analog, hybrid, and fully digital systems
- Element design, RF front-end integration, and packaging for space use
- Phase shifters, attenuators, true-time-delay methods, and beamforming networks
- Calibration, drift correction, beam squint compensation, and in-orbit maintenance
- Modeling, simulation, test methods, and acceptance planning for qualification
- Signal processing methods for beam control and interference suppression
The book also addresses practical engineering realities such as thermal drift, vibration, radiation exposure, component nonidealities, measurement uncertainty, and control-timing issues. Each major section ties theory to execution, helping readers understand how design choices affect gain, coverage, isolation, and long-term reliability.
Ideal for antenna engineers, RF system designers, spacecraft payload teams, and advanced students, this volume serves as both a technical reference and an implementation guide. Its case studies and step-by-step workflows make it especially useful for teams moving from requirements definition to hardware build, test, calibration, and final mission readiness.