New challenge: Moving network based on mmWave technology for 5G era

Mastrosimone, Antonio; Panno, Daniela

doi:10.1109/cits.2015.7297756

Cited by 8 publications

(7 citation statements)

References 20 publications

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“…The mmWave-enabled cellular band can also be a potential candidate for in-vehicle communication in moving networks. For example, the authors in [94] presented the feasibility for using 60 GHz access link inside mobile cell with LTE backhaul to form a hybrid mechanism. The high penetration rate of mmWave transmission is a main deterrent to its deployment for cells that provide wider coverage for indoor-to-outdoor transmission services [95]- [97].…”

Section: In-vehicle Access Linkmentioning

confidence: 99%

“…[120], [121], [123] Resource allocation using mixed integer integer programming and graph coloring N/A [73] Resource allocation using LSTM ad graph coloring N/A [94] wireless backhaul for mobile cells coupled with mmWave access link to isolate the in-vehicle and out-of-vehicle interference mmWave for access link, LTE-A for backhaul [124] Fairness in resource allocation through power control using Cucker-Smale flocking model N/A allocation problem. In [123], the authors proposed probabilistic resource (i.e., sub-channel and transmit-power) allocation for mobile cells using public transport mobility model.…”

Section: N/amentioning

confidence: 99%

“…The researchers in [53], [110], [122], [130] used separate bands for in-vehicle and out-of-vehicle communication and reported very high throughput and QoS due to minimal in-band interference. For example, authors in [94] used mmWave-enabled in-vehicle access link and LTE-A backhaul to report high throughput as there was no interference between backhaul and access links.…”

Section: Lessons Learnedmentioning

confidence: 99%

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A Comprehensive Survey on Moving Networks

Jaffry

Hussain

Gui

et al. 2020

Preprint

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The unprecedented increase in the demand for mobile data, fuelled by new emerging applications and usecases such as high-definition video streaming and heightened online activities has caused massive strain on the existing cellular networks. As a solution, the fifth generation (5G) of cellular technology has been introduced to improve network performance through various innovative features such as millimeter-wave spectrum and Heterogeneous Networks (HetNet). In essence, HetNets include several small cells underlaid within macro-cell to serve densely populated regions like stadiums, shopping malls, and so on. Recently, a mobile layer of HetNet has been under consideration by the researchers and is often referred to as moving networks. Moving networks comprise of mobile cells that are primarily introduced to improve Quality of Service (QoS) for commuting users inside public transport because the QoS is deteriorated due to vehicular penetration losses and high Doppler shift. Furthermore, the users inside fast moving public transport also exert excessive load on the core network due to large group handovers. To this end, mobile cells will play a crucial role in reducing overall handover count and will help in alleviating these problems by decoupling in-vehicle users from the core network. This decoupling is achieved by introducing separate in-vehicle access link, and out-of-vehicle backhaul links with the core network. Additionally sidehaul links will connect mobile cells with their neighbors.To date, remarkable research results have been achieved by the research community in addressing challenges linked to moving networks. However, to the best of our knowledge, a discussion on moving networks and mobile cells in a holistic way is missing in the current literature. To fill the gap, in this paper, we comprehensively survey moving networks and mobile cells. We cover the technological aspects of moving cells and their applications in the futuristic applications. We also discuss the use-cases and value additions that moving networks may bring to future cellular architecture and identify the challenges associated with them. Based on the identified challenges we discuss the future research directions.

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Section: In-vehicle Access Linkmentioning

confidence: 99%

Section: N/amentioning

confidence: 99%

Section: Lessons Learnedmentioning

confidence: 99%

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A Comprehensive Survey on Moving Networks

Jaffry

Hussain

Gui

et al. 2020

Preprint

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“…A symbiotic coexistence of new and legacy architectures and technologies is imposed to ensure the best services for both user and service providers. Furthermore, substantial research works have made progress towards this direction, and 5G equipments are supposed to meet the aforesaid requirements while being backward compatible …”

Section: Introductionmentioning

confidence: 99%

“…Furthermore, substantial research works have made progress towards this direction, and 5G equipments are supposed to meet the aforesaid requirements while being backward compatible. 12 The 5G cellular enables P2P communications that allows communication between the peers by sharing a channel of the cellular link without the BS intervention. 13 Two modes are depicted, namely, underlay and overlay.…”

Section: Introductionmentioning

confidence: 99%

CRAN, H‐CRAN, and F‐RAN for 5G systems: Key capabilities and recent advances

Guizani

Hamdi

2017

Int J Network Mgmt

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Summary The world of telecommunication is witnessing a swift metamorphosis towards fifth generation cellular networks. Particularly, the rapid shift from a user centric to a device centric communication has created a tremendous impact on service complexity and network requirements. The future networks present requisite needs in ubiquitous throughput, low latency, and high reliability. They are also envisioned to provide energy efficiency, spectrum reuse, network scalability, and robustness as well as improved quality of user experience, which proves to be of ultimate importance. Accordingly, government, academic, and industrial institutions are working together to fulfill these challenging goals. Their research efforts have been extensively reported in various topics and directions, such as heterogeneous small cell networks, millimeter wave communication, massive multiple input multiple output, network function virtualization, software‐defined network, and device‐to‐device communication. More interestingly, a revolutionary network architecture based on cloud computing and centralized processing is adopted as one of the best candidates for fifth generation. It is denoted Cloud Radio Access Network (CRAN) and (H‐CRAN) in heterogeneous networks. An upgraded version, namely, Fog RAN (F‐RAN), with caching and fog computing capabilities is also presented. Environmental friendly, it ensures flexibility and scalability with reduced expenditures. This paper presents the aforementioned key technological functionalities and surveys the benefits and challenges of CRAN, H‐CRAN, and F‐RAN.

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Moving network based on mmWave technology: a promising solution for 5G vehicular users

Mastrosimone

Panno

2017

Wireless Netw

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New challenge: Moving network based on mmWave technology for 5G era

Cited by 8 publications

References 20 publications

A Comprehensive Survey on Moving Networks

A Comprehensive Survey on Moving Networks

CRAN, H‐CRAN, and F‐RAN for 5G systems: Key capabilities and recent advances

Moving network based on mmWave technology: a promising solution for 5G vehicular users

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