The Making of 5G: Building an End-to-End 5G-Enabled System

Quintana-Ramirez, Idelkys; Tsiopoulos, Anthony; Lema, María A.; Sardis, Fragkiskos; Sequeira, Luis; Arias, James; Azam, Ali; Dohler, Mischa

doi:10.1109/mcomstd.2018.1800024

Cited by 14 publications

(7 citation statements)

References 7 publications

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“…El retardo es un parámetro crítico para ciertas aplicaciones y servicios en tiempo real (por ejemplo en aplicaciones de robótica en la nube, la telecirugía [16] o incluso los vehículos conectados [17,18]); es también un factor de importancia en el diseño de las redes [19,20] y en ocasiones es utilizado como una medida del rendimiento de una red. Puede definirse como el tiempo que necesita un dato para viajar a través de la red desde un nodo a otro.…”

Section: Retardounclassified

El impacto del buffer en la calidad de servicio

Sequeira

2021

Preprint

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Section: Retardounclassified

El impacto del buffer en la calidad de servicio

Sequeira

2021

Preprint

Self Cite

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“…Communication technology requires the immediacy of communication. With the development of Internet of Things technology [34] and 5G technology [35], information interaction and real-time control information have been satisfied.…”

Section: Load Predictionmentioning

confidence: 99%

Power Retailer Air-Conditioning Load Aggregation Operation Control Method and Demand Response

et al. 2020

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Thermostatically controlled loads (TCLs) have become a major tool for the demand response (DR) program when air conditioners cause peak loads in a day during the winter or summer. To solve the problem of a direct load control with TCL usually affecting user comfort and hardly considering responsiveness, a power retailer airconditioning load aggregation operation control and demand response method was proposed in this research. From the perspective of a power retailer, a compensation mechanism for TCL was constructed, which was composed of a basic incentive program and an additional incentive program. The basic incentive program aimed to encourage users with a low response degree to increase the response capacity in order to participate in DR. An auxiliary service market control strategy based on a new compensation mechanism of the electricity retailer was detailed, which fully considered the enthusiasm of the user in mobilizing the response and reducing the load reduction fluctuation when using the state-queuing (SQ) model. Case studies were provided to verify the effectiveness of the proposed method. Compared with other compensation schemes, the simulation results showed that the compensation mechanism provided in this research was more reasonable, and it could smooth the load and reduce fluctuations. The compensation distribution among the user groups could effectively control the uniform distribution in the user groups in the temperature range, and it could mobilize users at different temperatures to participate in DR.

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“…A one-size-fits-all architecture is unlikely to be suitable for such diverse services. Realizing the service-oriented 5G vision in a cost-effective manner requires a flexible mobile network architecture that can turn the physical network infrastructure into multiple logical end-to-end slices, one for each service [3], [4]. Each slice in such an architecture is a complete virtualized network instance, spanning both the Core Network (CN) and the Radio Access Network (RAN), which is tailored to meet the requirements of the service being provided.…”

Section: Introductionmentioning

confidence: 99%

AIRTIME: End-to-End Virtualization Layer for RAN-as-a-Service in Future Multi-Service Mobile Networks

Kist

Santos

Collins

et al. 2022

IEEE Trans. on Mobile Comput.

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Future mobile networks are envisioned to become multi-service systems, enabling the dynamic deployment of services with vastly different performance requirements, accommodating the needs of diverse service providers. Virtualizing the mobile network infrastructure is of fundamental importance for realizing this vision in a cost-effective manner. While there have been extensive research efforts in virtualization for the mobile core network, virtualization in the radio access network (RAN) is still at an early stage. In this paper, we present AIRTIME, a new RAN slicing system that enables the dynamic on-the-fly virtualization of RANs, with the programmability required by service providers to customize any aspect of their virtual RAN to meet their service needs. We present a prototype implementation of AIRTIME and evaluate the: (i) capacity to create virtual RANs on-the-fly, (ii) performance experienced by slice owners, (iii) isolation among multiple virtual RANs sharing the same physical infrastructure, and (iv ) scalability to accommodate a large number of virtual RANs.

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The Making of 5G: Building an End-to-End 5G-Enabled System

Cited by 14 publications

References 7 publications

El impacto del buffer en la calidad de servicio

El impacto del buffer en la calidad de servicio

Power Retailer Air-Conditioning Load Aggregation Operation Control Method and Demand Response

AIRTIME: End-to-End Virtualization Layer for RAN-as-a-Service in Future Multi-Service Mobile Networks

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