| LDR | | 00000nam u2200205 4500 |
| 001 | | 000000435696 |
| 005 | | 20200228103114 |
| 008 | | 200131s2019 ||||||||||||||||| ||eng d |
| 020 | |
▼a 9781687985392 |
| 035 | |
▼a (MiAaPQ)AAI22622809 |
| 040 | |
▼a MiAaPQ
▼c MiAaPQ
▼d 247004 |
| 082 | 0 |
▼a 621.3 |
| 100 | 1 |
▼a Chappidi, Chandrakanth Reddy. |
| 245 | 10 |
▼a Millimeter-wave Reconfigurable Power Amplifier and Transmitter Architectures with Antenna Interfaces. |
| 260 | |
▼a [S.l.]:
▼b Princeton University.,
▼c 2019. |
| 260 | 1 |
▼a Ann Arbor:
▼b ProQuest Dissertations & Theses,
▼c 2019. |
| 300 | |
▼a 199 p. |
| 500 | |
▼a Source: Dissertations Abstracts International, Volume: 81-05, Section: B. |
| 500 | |
▼a Advisor: Sengupta, Kaushik. |
| 502 | 1 |
▼a Thesis (Ph.D.)--Princeton University, 2019. |
| 506 | |
▼a This item must not be sold to any third party vendors. |
| 520 | |
▼a Wireless communication is undergoing a fundamental transformation as the new spectrum in the millimeter-wave (mm-Wave) frequencies (30-300 GHz) opens up to serve as the backbone for the next-generation wireless infrastructure. The application range is expected to be extremely heterogeneous ranging from extremely high-speed cellular connectivity, automotive-to-anything (V2x), augmented reality (AR), virtual reality (VR) to wireless backhaul and last mile connectivity. In this, mm-Wave phased arrays, and massive multiple-input-multiple-output (MIMO) systems will serve as the wireless front-end elements to allow adaptive beamforming, tracking and spatial multiplexing for high-spectral efficiency. However, as multiple spectral regions across 20-100 GHz become available, it will be essential to move from current frequency-specific designs that operate at known frequencies to dynamic spectrally-adaptive architectures that learn from the available spectral information. At the hardware level, such reconfigurability is hugely challenging to achieve in the mm-Wave transceiver. Specifically, for the transmitter (Tx) architecture, there is a substantial trade-off between output power, energy efficiency, spectral reconfigurability and spectral efficiency (linearity). This thesis presents a generalized multi-port network synthesis approach to enable active impedance synthesis for simultaneously broadband operation with high peak and back-off efficiency in an mm-Wave power amplifier (PA) architecture. We base the approach on generalized active load-pulling across a series of interacting mm-Wave digital-to-analog (DAC) cells where we can map the optimal operation across frequency and back-off into a set of asymmetric codes. Multiple proof-of-concept architectures are presented to enable back-off efficient wide-band operation across 25-105 GHz. Additionally, we present an extension of this architecture to overcome load-impedance mismatch events at the output of the transmitter and wide-band antenna interfaces for reconfigurable transmitter front-ends. |
| 590 | |
▼a School code: 0181. |
| 650 | 4 |
▼a Electrical engineering. |
| 690 | |
▼a 0544 |
| 710 | 20 |
▼a Princeton University.
▼b Electrical Engineering. |
| 773 | 0 |
▼t Dissertations Abstracts International
▼g 81-05B. |
| 773 | |
▼t Dissertation Abstract International |
| 790 | |
▼a 0181 |
| 791 | |
▼a Ph.D. |
| 792 | |
▼a 2019 |
| 793 | |
▼a English |
| 856 | 40 |
▼u http://www.riss.kr/pdu/ddodLink.do?id=T15493937
▼n KERIS
▼z 이 자료의 원문은 한국교육학술정보원에서 제공합니다. |
| 980 | |
▼a 202002
▼f 2020 |
| 990 | |
▼a ***1816162 |
| 991 | |
▼a E-BOOK |