@incollection{DeutschmannGieseJacobetal., author = {Deutschmann, Bj{\"o}rn and Giese, Malte and Jacob, Arne F. and Lofti, Nima and Gerfers, Friedel and Vehring, S{\"o}nke and B{\"o}ck, Georg}, title = {PolyData/DataRace : polymer-integrated CMOS-based high-speed communication systems at W-band}, series = {Wireless 100 Gbps and beyond : architectures, approaches and findings of German Research Foundation (DFG) Priority Programme SPP1655}, booktitle = {Wireless 100 Gbps and beyond : architectures, approaches and findings of German Research Foundation (DFG) Priority Programme SPP1655}, doi = {10.26127/BTUOpen-5917}, publisher = {BTU Cottbus - Senftenberg}, pages = {397 -- 444}, abstract = {In 2012 a group of researchers proposed a basic research initiative to the German Research Foundation (DFG) as a special priority project (SPP) with the name: Wireless 100 Gbps and beyond. The main goal of this initiative was the investigation of architectures, technologies and methods to go well beyond the state of the art. The target of 100 Gbps was set far away from the (at that time) achievable 1 Gbps such that it was not possible to achieve promising results just by tuning some parameters. We wanted to find breakthrough solutions. When we started the work on the proposal we discussed the challenges to be addressed in order to advancing the wireless communication speed significantly. Having the fundamental Shannon boundary in mind we discussed how to achieve the 100 Gbps speed.}, subject = {100 Gbps; Wireless; Drahtlos; PolyData; DataRace; W-band; W-Band; Drahtloses Sensorsystem; Hochfrequenztechnik; Antenne; Terahertzbereich; Energieffizienz}, language = {en} } @incollection{BuechnerNolteHasanietal., author = {B{\"u}chner, Steffen and Nolte, J{\"o}rg and Hasani, Alireza and Kraemer, Rolf and Lopacinsiki, Lukasz}, title = {End2End100 : communication protocol processing for ultra high data rates}, series = {Wireless 100 Gbps and beyond : architectures, approaches and findings of German Research Foundation (DFG) Priority Programme SPP1655}, booktitle = {Wireless 100 Gbps and beyond : architectures, approaches and findings of German Research Foundation (DFG) Priority Programme SPP1655}, doi = {10.26127/BTUOpen-5916}, publisher = {BTU Cottbus - Senftenberg}, pages = {359 -- 396}, abstract = {In 2012 a group of researchers proposed a basic research initiative to the German Research Foundation (DFG) as a special priority project (SPP) with the name: Wireless 100 Gbps and beyond. The main goal of this initiative was the investigation of architectures, technologies and methods to go well beyond the state of the art. The target of 100 Gbps was set far away from the (at that time) achievable 1 Gbps such that it was not possible to achieve promising results just by tuning some parameters. We wanted to find breakthrough solutions. When we started the work on the proposal we discussed the challenges to be addressed in order to advancing the wireless communication speed significantly. Having the fundamental Shannon boundary in mind we discussed how to achieve the 100 Gbps speed.}, subject = {100 Gbps; Wireless; Drahtlos; End2End100; Communication protocol processing; Kommunikations-Protokoll-Prozessierung; Drahtloses Sensorsystem; Hochfrequenztechnik; Antenne; Terahertzbereich; Energieffizienz}, language = {en} } @incollection{BhutaniBoesGoetteletal., author = {Bhutani, A. and Boes, F. and Goettel, B. and Schaefer, J. and Eisenbeis, J. and Zwick, T. and Malz, Stefan and Rodriguez Vazquez, Pedro and Grzyb, Janusz and Pfeiffer, Ulrich}, title = {Real100G.RF : a fully integrated, multi-purpose radio front-end for wireless 100 Gbps}, series = {Wireless 100 Gbps and beyond : architectures, approaches and findings of German Research Foundation (DFG) Priority Programme SPP1655}, booktitle = {Wireless 100 Gbps and beyond : architectures, approaches and findings of German Research Foundation (DFG) Priority Programme SPP1655}, doi = {10.26127/BTUOpen-5915}, publisher = {BTU Cottbus - Senftenberg}, pages = {295 -- 354}, abstract = {In 2012 a group of researchers proposed a basic research initiative to the German Research Foundation (DFG) as a special priority project (SPP) with the name: Wireless 100 Gbps and beyond. The main goal of this initiative was the investigation of architectures, technologies and methods to go well beyond the state of the art. The target of 100 Gbps was set far away from the (at that time) achievable 1 Gbps such that it was not possible to achieve promising results just by tuning some parameters. We wanted to find breakthrough solutions. When we started the work on the proposal we discussed the challenges to be addressed in order to advancing the wireless communication speed significantly. Having the fundamental Shannon boundary in mind we discussed how to achieve the 100 Gbps speed.}, subject = {100 Gbps; Wireless; Drahtlos; Real100G.RF; Fully integrated; Multi-purpose radio front-end; Vollst{\"a}ndig integriert; Vielseitig anwendbare Funkeingangsstufe; Drahtloses Sensorsystem; Hochfrequenztechnik; Antenne; Terahertzbereich; Energieffizienz}, language = {en} } @incollection{JavedScheyttBamidietal., author = {Javed, Abdul Rehman and Scheytt, J. Christoph and Bamidi, Eswara Rao and Kallfass, Ingmar and Krishnegowda, Karthik and Kraemer, Rolf}, title = {Real100G.COM}, series = {Wireless 100 Gbps and beyond : architectures, approaches and findings of German Research Foundation (DFG) Priority Programme SPP1655}, booktitle = {Wireless 100 Gbps and beyond : architectures, approaches and findings of German Research Foundation (DFG) Priority Programme SPP1655}, doi = {10.26127/BTUOpen-5914}, publisher = {BTU Cottbus - Senftenberg}, pages = {231 -- 293}, abstract = {In 2012 a group of researchers proposed a basic research initiative to the German Research Foundation (DFG) as a special priority project (SPP) with the name: Wireless 100 Gbps and beyond. The main goal of this initiative was the investigation of architectures, technologies and methods to go well beyond the state of the art. The target of 100 Gbps was set far away from the (at that time) achievable 1 Gbps such that it was not possible to achieve promising results just by tuning some parameters. We wanted to find breakthrough solutions. When we started the work on the proposal we discussed the challenges to be addressed in order to advancing the wireless communication speed significantly. Having the fundamental Shannon boundary in mind we discussed how to achieve the 100 Gbps speed.}, subject = {100 Gbps; Wireless; Drahtlos; Real100G.COM; PSSS; Drahtloses Sensorsystem; Hochfrequenztechnik; Antenne; Terahertzbereich; Energieffizienz}, language = {en} } @incollection{ScheyttJavedBhutanietal., author = {Scheytt, J. Christoph and Javed, Abdul Rehman and Bhutani, Akanksha and Zwick, Thomas and Kallfass, Ingmar and Bamidi, Eswara Rao and Krishnegowda, Karthik and Kraemer, Rolf}, title = {Real100G : ultrabroadband wireless communication at high mm-wave frequencies}, series = {Wireless 100 Gbps and beyond : architectures, approaches and findings of German Research Foundation (DFG) Priority Programme SPP1655}, booktitle = {Wireless 100 Gbps and beyond : architectures, approaches and findings of German Research Foundation (DFG) Priority Programme SPP1655}, doi = {10.26127/BTUOpen-5913}, publisher = {BTU Cottbus - Senftenberg}, pages = {213 -- 230}, abstract = {In 2012 a group of researchers proposed a basic research initiative to the German Research Foundation (DFG) as a special priority project (SPP) with the name: Wireless 100 Gbps and beyond. The main goal of this initiative was the investigation of architectures, technologies and methods to go well beyond the state of the art. The target of 100 Gbps was set far away from the (at that time) achievable 1 Gbps such that it was not possible to achieve promising results just by tuning some parameters. We wanted to find breakthrough solutions. When we started the work on the proposal we discussed the challenges to be addressed in order to advancing the wireless communication speed significantly. Having the fundamental Shannon boundary in mind we discussed how to achieve the 100 Gbps speed.}, subject = {100 Gbps; Wireless; Drahtlos; Real100G; Ultrabroadband wireless communication; Ultrabreitband-drahtlos-Kommunikation; Drahtloses Sensorsystem; Hochfrequenztechnik; Antenne; Terahertzbereich; Energieffizienz}, language = {en} } @incollection{JohannsenHoeherPeitzmeieretal., author = {Johannsen, Nils L. and Hoeher, Peter A. and Peitzmeier, Nikolai and Manteuffel, Dirk}, title = {M4 : multi-mode massive MIMO}, series = {Wireless 100 Gbps and beyond : architectures, approaches and findings of German Research Foundation (DFG) Priority Programme SPP1655}, booktitle = {Wireless 100 Gbps and beyond : architectures, approaches and findings of German Research Foundation (DFG) Priority Programme SPP1655}, doi = {10.26127/BTUOpen-5912}, publisher = {BTU Cottbus - Senftenberg}, pages = {167 -- 212}, abstract = {In 2012 a group of researchers proposed a basic research initiative to the German Research Foundation (DFG) as a special priority project (SPP) with the name: Wireless 100 Gbps and beyond. The main goal of this initiative was the investigation of architectures, technologies and methods to go well beyond the state of the art. The target of 100 Gbps was set far away from the (at that time) achievable 1 Gbps such that it was not possible to achieve promising results just by tuning some parameters. We wanted to find breakthrough solutions. When we started the work on the proposal we discussed the challenges to be addressed in order to advancing the wireless communication speed significantly. Having the fundamental Shannon boundary in mind we discussed how to achieve the 100 Gbps speed.}, subject = {100 Gbps; Wireless; Drahtlos; M4; Multi-mode massive MIMO; Multi-Mode-massiv-MIMO; Drahtloses Sensorsystem; Hochfrequenztechnik; Antenne; Terahertzbereich; Energieffizienz}, language = {en} } @incollection{SongRaveFettweisetal., author = {Song, Xiaohang and Rave, Wolfgang and Fettweis, Gerhard and H{\"a}lsig, Tim and Lankl, Berthold and Cvetkovski, Darko and Grass, Eckhard}, title = {MaximumMIMO : millimeter wave line-of-sight spatial multiplexing}, series = {Wireless 100 Gbps and beyond : architectures, approaches and findings of German Research Foundation (DFG) Priority Programme SPP1655}, booktitle = {Wireless 100 Gbps and beyond : architectures, approaches and findings of German Research Foundation (DFG) Priority Programme SPP1655}, doi = {10.26127/BTUOpen-5911}, publisher = {BTU Cottbus - Senftenberg}, pages = {139 -- 166}, abstract = {In 2012 a group of researchers proposed a basic research initiative to the German Research Foundation (DFG) as a special priority project (SPP) with the name: Wireless 100 Gbps and beyond. The main goal of this initiative was the investigation of architectures, technologies and methods to go well beyond the state of the art. The target of 100 Gbps was set far away from the (at that time) achievable 1 Gbps such that it was not possible to achieve promising results just by tuning some parameters. We wanted to find breakthrough solutions. When we started the work on the proposal we discussed the challenges to be addressed in order to advancing the wireless communication speed significantly. Having the fundamental Shannon boundary in mind we discussed how to achieve the 100 Gbps speed.}, subject = {Wireless; 100 Gbps; Drahtlos; Millimeter wave; Line-of-sight spatial multiplexing; MaximumMIMO; Millimeter-Welle; LOS-Raum-Multiplexing; Drahtloses Sensorsystem; Hochfrequenztechnik; Antenne; Terahertzbereich; Energieffizienz}, language = {en} } @incollection{TestaCartaEllingeretal., author = {Testa, Paolo Valerio and Carta, Corrado and Ellinger, Frank and Klein, Bernhard and Hahnel, Ronny and Plettemeier, Dirk}, title = {DAAB : on-chip integrated distributed amplifier and antenna systems in locally-backside-etched SiGe BiCMOS for receivers with ultra-large bandwidth}, series = {Wireless 100 Gbps and beyond : architectures, approaches and findings of German Research Foundation (DFG) Priority Programme SPP1655}, booktitle = {Wireless 100 Gbps and beyond : architectures, approaches and findings of German Research Foundation (DFG) Priority Programme SPP1655}, doi = {10.26127/BTUOpen-5910}, publisher = {BTU Cottbus - Senftenberg}, pages = {109 -- 138}, abstract = {In 2012 a group of researchers proposed a basic research initiative to the German Research Foundation (DFG) as a special priority project (SPP) with the name: Wireless 100 Gbps and beyond. The main goal of this initiative was the investigation of architectures, technologies and methods to go well beyond the state of the art. The target of 100 Gbps was set far away from the (at that time) achievable 1 Gbps such that it was not possible to achieve promising results just by tuning some parameters. We wanted to find breakthrough solutions. When we started the work on the proposal we discussed the challenges to be addressed in order to advancing the wireless communication speed significantly. Having the fundamental Shannon boundary in mind we discussed how to achieve the 100 Gbps speed.}, subject = {100 Gbps; Wireless; Drahtlos; DAAB; Drahtloses Sensorsystem; Hochfrequenztechnik; Antenne; Terahertzbereich; Energieffizienz}, language = {en} } @incollection{SteegTebartDuelmeetal., author = {Steeg, Matthias and Tebart, Jonas and D{\"u}lme, Sebastian and St{\"o}hr, Andreas and Exner, Florian and Czylwik, Andreas and Alissa, Mai and Kaiser, Thomas}, title = {Tera50+ : sub-mm-wave 100 Gbit/s fiber-wireless transmission system}, series = {Wireless 100 Gbps and beyond : architectures, approaches and findings of German Research Foundation (DFG) Priority Programme SPP1655}, booktitle = {Wireless 100 Gbps and beyond : architectures, approaches and findings of German Research Foundation (DFG) Priority Programme SPP1655}, doi = {10.26127/BTUOpen-5909}, publisher = {BTU Cottbus - Senftenberg}, pages = {75 -- 108}, abstract = {In 2012 a group of researchers proposed a basic research initiative to the German Research Foundation (DFG) as a special priority project (SPP) with the name: Wireless 100 Gbps and beyond. The main goal of this initiative was the investigation of architectures, technologies and methods to go well beyond the state of the art. The target of 100 Gbps was set far away from the (at that time) achievable 1 Gbps such that it was not possible to achieve promising results just by tuning some parameters. We wanted to find breakthrough solutions. When we started the work on the proposal we discussed the challenges to be addressed in order to advancing the wireless communication speed significantly. Having the fundamental Shannon boundary in mind we discussed how to achieve the 100 Gbps speed.}, subject = {100 Gbps; Wireless; Drahtlos; Tera50+; Fiber-wireless transmission system; Glasfaser-Funk-{\"U}bertragungssystem; Drahtloses Sensorsystem; Hochfrequenztechnik; Antenne; Terahertzbereich; Energieffizienz}, language = {en} } @incollection{CarlowitzVossiekGirgetal., author = {Carlowitz, Christian and Vossiek, Martin and Girg, T. and Dietz, M. and Schrotz, A.-M. and Maiwald, T. and Hagelauer, A. and Weigel, R. and Ghaleb, Hatem and Carta, Corrado and Ellinger, Frank and Du, Xuan-Quang and Gr{\"o}zing, Markus and Berroth, Manfred}, title = {SPARS : simultaneous phase and amplitude regenerative sampling}, series = {Wireless 100 Gbps and beyond : architectures, approaches and findings of German Research Foundation (DFG) Priority Programme SPP1655}, booktitle = {Wireless 100 Gbps and beyond : architectures, approaches and findings of German Research Foundation (DFG) Priority Programme SPP1655}, doi = {10.26127/BTUOpen-5908}, publisher = {BTU Cottbus - Senftenberg}, pages = {37 -- 74}, abstract = {In 2012 a group of researchers proposed a basic research initiative to the German Research Foundation (DFG) as a special priority project (SPP) with the name: Wireless 100 Gbps and beyond. The main goal of this initiative was the investigation of architectures, technologies and methods to go well beyond the state of the art. The target of 100 Gbps was set far away from the (at that time) achievable 1 Gbps such that it was not possible to achieve promising results just by tuning some parameters. We wanted to find breakthrough solutions. When we started the work on the proposal we discussed the challenges to be addressed in order to advancing the wireless communication speed significantly. Having the fundamental Shannon boundary in mind we discussed how to achieve the 100 Gbps speed.}, subject = {100 Gbps; Wireless; Drahtlos; Simultaneous phase sampling; Amplitude regenerative sampling; Amplituden-regenerativ-Sampling; Simultanes Phasen-Sampling; Drahtloses Sensorsystem; Hochfrequenztechnik; Antenne; Terahertzbereich; Energieffizienz}, language = {en} } @incollection{AscheidWangBirkeetal., author = {Ascheid, Gerd and Wang, Gaojian and Birke, Sebastian and Wehn, Norbert and Herrmann, Matthias and Wang, Yanlu and Hanay, Oner and Bayram, Erkan and Negra, Renato}, title = {LP100 : optimization of 100 Gb/s short range wireless transceivers under processing energy constraints}, series = {Wireless 100 Gbps and beyond : architectures, approaches and findings of German Research Foundation (DFG) Priority Programme SPP1655}, booktitle = {Wireless 100 Gbps and beyond : architectures, approaches and findings of German Research Foundation (DFG) Priority Programme SPP1655}, doi = {10.26127/BTUOpen-5906}, publisher = {BTU Cottbus - Senftenberg}, pages = {1 -- 35}, abstract = {In 2012 a group of researchers proposed a basic research initiative to the German Research Foundation (DFG) as a special priority project (SPP) with the name: Wireless 100 Gbps and beyond. The main goal of this initiative was the investigation of architectures, technologies and methods to go well beyond the state of the art. The target of 100 Gbps was set far away from the (at that time) achievable 1 Gbps such that it was not possible to achieve promising results just by tuning some parameters. We wanted to find breakthrough solutions. When we started the work on the proposal we discussed the challenges to be addressed in order to advancing the wireless communication speed significantly. Having the fundamental Shannon boundary in mind we discussed how to achieve the 100 Gbps speed.}, subject = {100 Gbps; Wireless; Drahtlos; Short range wireless transceiver; Kurzreichweiten-Funk-Transceiver; Drahtloses Sensorsystem; Hochfrequenztechnik; Antenne; Terahertzbereich; Energieffizienz}, language = {en} } @incollection{Kraemer, author = {Kraemer, Rolf}, title = {Wireless 100 Gbps and beyond : architectures, approaches and findings of German Research Foundation (DFG) Priority Programme SPP1655 : preface, contents, list of tables, list of figures, bibliography}, series = {Wireless 100 Gbps and beyond : architectures, approaches and findings of German Research Foundation (DFG) Priority Programme SPP1655}, booktitle = {Wireless 100 Gbps and beyond : architectures, approaches and findings of German Research Foundation (DFG) Priority Programme SPP1655}, editor = {Kraemer, Rolf and Scholz, Stefan}, doi = {10.26127/BTUOpen-5716}, url = {http://nbn-resolving.de/urn:nbn:de:kobv:co1-opus4-57167}, publisher = {BTU Cottbus - Senftenberg}, pages = {i-xxix ; 445-489}, abstract = {In 2012 a group of researchers proposed a basic research initiative to the German Research Foundation (DFG) as a special priority project (SPP) with the name: Wireless 100 Gbps and beyond. The main goal of this initiative was the investigation of architectures, technologies and methods to go well beyond the state of the art. The target of 100 Gbps was set far away from the (at that time) achievable 1 Gbps such that it was not possible to achieve promising results just by tuning some parameters. We wanted to find breakthrough solutions. When we started the work on the proposal we discussed the challenges to be addressed in order to advancing the wireless communication speed significantly. Having the fundamental Shannon boundary in mind we discussed how to achieve the 100 Gbps speed.}, subject = {100 Gbps; Wireless; Drahtlos; SPP-1655; Drahtloses Sensorsystem; Hochfrequenztechnik; Antenne; Terahertzbereich; Energieffizienz}, language = {en} } @phdthesis{Krishnegowda2020, author = {Krishnegowda, Karthik}, title = {Investigation of PSSS technologies to achieve 100 Gbps and beyond}, url = {http://nbn-resolving.de/urn:nbn:de:kobv:co1-opus4-52055}, school = {BTU Cottbus - Senftenberg}, year = {2020}, abstract = {The requirement for wireless communication with a speed beyond 100 Gbps is growing. There are mainly two possible approaches to achieve 100 Gbps system. One approach is to target lower transmission bandwidth and very high spectral efficiency. This method requires advanced digital signal processing operations, which are power-hungry. Another possible path is to go for a high-transmission bandwidth and a moderate spectral efficiency. We decided for this direction to implement a 100 Gbps system. We have chosen parallel sequence spread spectrum (PSSS) as an analog-friendly mixed-signal modulation where most of the baseband processing is in the analog domain, and only a small part is in the digital domain. For the channel equalization, we consider an "effective channel" that takes into account the wireless channel and the effects of the transmitter and receiver hardware impairments. The influence of the nonlinear channel response was analyzed for a PSSS modulated signal by employing the RAPP model for the power amplifier. For the first time, we performed a Hardware-In-The-loop experiment using PSSS modulation in the terahertz band. A PSSS modulated signal at a chip rate of 20 Gcps with spectral efficiency of 4 bit/s/Hz is transmitted using a 230 GHz RF-frontend operating in the linear range to achieve a data rate of 80 Gbps. One more important property is that the channel estimation and equalization are performed in the analog domain. A high-speed channel equalization algorithm was developed and implemented on FPGA/ASIC, which operates at(1/10)th of PSSS symbol rate. A parallel PSSS encoder transmitter architecture was designed to work at a high chip rate, and it was implemented on FPGA /ASIC and had an energy efficiency of 0.21 pJ bit-1 on 28nm ASIC. In this Thesis, we put forward a case for the analog-friendly modulation scheme called PSSS. This scheme does not only modulates the signal but rather builds up an eco-system (such as channel estimation, equalization, and synchronization), which is responsible for the baseband operation.}, subject = {Submillimeter-wave; Broadband receiver; PHY layer; Hardware-in-the-loop; Wireless; Drahtlos; Submillimeterwelle; Breitband-Empf{\"a}nger; THz; PSSS; Drahtloses lokales Netz; Breitbandempf{\"a}nger; Hardware-in-the-loop; Terahertzbereich}, language = {en} }