Exploiting the 60 GHz band for local wireless multimedia access: prospects and future directions

By P. Smulders. IEEE Communications Magazine, 2002

1,126 citations recorded by the source corpus.

Subfields: Aerospace Engineering, Electrical and Electronic Engineering

View Paper: https://www.semanticscholar.org/paper/bbd9329c060208be0a3977a0c746da3e557edec7

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In Aerospace Engineering

In Electrical and Electronic Engineering

Citations in the corpus

Low-Cost Wideband Microstrip Antenna Array for 60-GHz Applications (2014, background): “S INCE the Federal Communications Commission (FCC) allocated the 7-GHz (57–64-GHz) band for unlicensed use, the development of many innovative technologies at 60-GHz band has led to many exciting commercial applications, including high-definition multimedia interface, high-definition video streaming”
Present and Future of Terahertz Communications (2011, background): “In the race toward ultra-fast future wireless communications systems [7], several candidates, including ultra wideband (UWB) [8], 60-GHz radio [9]–[12], free-space optical communications (FSO) [13], [14], and IrDA [15], have been being investigated, and terahertz (THz) waves have recently joined in ”
60-GHz Millimeter-Wave Channel Measurements and Modeling for Indoor Office Environments (2017, background): “The mmWave band has drawn increasing attention despite earlier hiccups associated with the cost of producing commercial products [4].”
60GHz transceiver circuits in SiGe bipolar technology (2004, background): “One promising application is a 60GHz wireless personal-area network (WPAN) operating at data rates >150Mb/s [2].”
Design and Fabrication of a High-Gain 60-GHz Corrugated Slot Antenna Array With Ridge Gap Waveguide Distribution Layer (2016, background): “In fact, the development of some new technologies at this frequency band has led to many highspeed wireless developments including high definition video streaming, high-speed internet, high definition multimedia interface, wireless gigabit Ethernet and automotive radars [1], [2].”
Indoor Office Wideband Millimeter-Wave Propagation Measurements and Channel Models at 28 and 73 GHz for Ultra-Dense 5G Wireless Networks (2015, background): “Additionally, augmented 3-Dimensional (3D) and virtual reality applications for sporting events and video games require low latency and high bandwidth capacities for seamless and uninterrupted experiences [13].”
A Multibeam End-Fire Magnetoelectric Dipole Antenna Array for Millimeter-Wave Applications (2016, neutral): “tem [4].”
Millimeter-Wave Propagation Channel Characterization for Short-Range Wireless Communications (2009, background): “This band has been proposed for wireless local area networks [2], [3] and has been planned to support up to a 1-Gb/s lowmobility radio interface such as nomadic local wireless access for systems that are beyond third generation [4].”
A 60-GHz Wideband Circularly Polarized Aperture-Coupled Magneto-Electric Dipole Antenna Array (2016, background): “I NVESTIGATION of the 60-GHz antenna technology has attracted increasing attention in recent years because of a series of emerging applications operating at the V-band frequencies [1].”
Short-Range Ultra-Broadband Terahertz Communications: Concepts and Perspectives (2007, neutral): “On the other hand, the millimeterwave band, around 60 GHz, with unlicensed 5 GHz bandwidth in Europe and 7 GHz bandwidth in the US, is also being considered as a potential host for WPAN systems [11].”
1-Bit Reconfigurable Unit Cell Based on PIN Diodes for Transmit-Array Applications in $X$ -Band (2012, background): “Automotive radars [1], [2], high-data-rate wireless personal and local area networks [3], [4], and high-resolution imaging systems are some examples of applications requiring advanced antenna systems.”
60 GHz wireless communications: emerging requirements and design recommendations (2007, background): “For severely frequency selective channels (as with the large bandwidth channels for high data rate applications in 60G) the total complexity of OFDM to eliminate ISI is less than half that of single carrier time-domain equalization [4].”
IEEE 802.11ad: directional 60 GHz communication for multi-Gigabit-per-second Wi-Fi [Invited Paper] (2014, background): “The most significant difference in 60 GHz propagation behavior is increased signal attenuation.”
Interference Analysis for Highly Directional 60-GHz Mesh Networks: The Case for Rethinking Medium Access Control (2011, background): “…that MAC design for highly directional 60-GHz networks can ignore interference up to the .rst order (e.g., by being reactive rather than proactive about interference management) and should focus attention instead on the problem of transmitter receiver coordination in the face of deafness.”
Wideband Low-Loss Linear and Circular Polarization Transmit-Arrays in V-Band (2011, background): “ECHNOLOGY advances in low-cost millimeter-wave integrated circuits have triggered a lot of application perspectives for wireless communication systems in - and -bands [1]–[ 3 ].”
Blockage and directivity in 60 GHz wireless personal area networks: from cross-layer model to multihop MAC design (2009, background): “The susceptibility of mm wave links to blockage due to their weak diffraction characteristics is well known [23], [34], and the effect of human movement is investigated in [35], [36], but their impact on the network performance has not been studied previously.”