Mode Selection for Device-To-Device Communication Underlaying an LTE-Advanced Network

Doppler, Klaus; Yu, Chengpu; Ribeiro, C.B.; Janis, Pekka

doi:10.1109/wcnc.2010.5506248

Cited by 391 publications

(242 citation statements)

References 7 publications

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“…This resource sharing pair is formed on the basis of PF metric value of CUEs and the interference level between the pair. Doppler et al in [29] propose mode selection algorithm for D2D communications underlaying cellular network. In this work, eNB decides whether (i) D2D pairs get dedicated resource, (ii) reuse the cellular resource, or (iii) communicate via eNB.…”

Section: Resource Allocationmentioning

confidence: 99%

SC-FDMA-based resource allocation and power control scheme for D2D communication using LTE-A uplink resource

Shah

Hasan

et al. 2015

J Wireless Com Network

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Device-to-device (D2D) communication-enabled cellular networks allow cellular devices to directly communicate with each other without any evolved NodeB (eNB). D2D communication aims to improve the spectral efficiency and increases the overall system capacity. For future mobile networks, intelligent radio resource allocation and power control schemes are required to accommodate the increasing number of cellular devices and their growing demand of data traffic. In this paper, a combined resource allocation and power control scheme for D2D communication is proposed. In the proposed scheme, D2D communication reuses the uplink (UL) resources of conventional cellular user equipments (CUEs); therefore, we have adopted single-carrier frequency division multiple access (SC-FDMA) as UL transmission scheme. The proposed scheme uses fractional frequency reuse (FFR)-based architecture to efficiently allocate the resources and mitigate the interference between CUEs and D2D user equipments (DUEs). In order to guarantee the user fairness, the proposed scheme uses the well-known proportional fair (PF) scheduling algorithm for resource allocation. We have also proposed an intelligent power control scheme which provides equal opportunity to both CUEs and DUEs to achieve a certain minimum signal-to-interference and noise ratio (SINR) value. The performance evaluation results show that the proposed scheme significantly improves the overall cell capacity and achieves low peak-to-average power ratio (PAPR).

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Section: Resource Allocationmentioning

confidence: 99%

SC-FDMA-based resource allocation and power control scheme for D2D communication using LTE-A uplink resource

Shah

Hasan

et al. 2015

J Wireless Com Network

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“…Thus, UE 1 can evaluate either (4), (5), or (6) and decide which mode is preferable for the moment. The fact that (6) only provides a sufficient condition can actually be a feature, because it removes special cases when D2D mode is only slightly better than cellular mode but not enough to motivate the extra overhead signaling.…”

Section: A D2d Optimality With a Dedicated Resourcementioning

confidence: 99%

“…However, depending on the network topology and channel conditions, it may not always be beneficial to choose the D2D mode for a UE. The studies [5] and [6] consider the mode selection problem with power control for one D2D user and one cellular UE (CUE) in a single antenna system. This problem corresponds to a choice between orthogonal resources, spectrum sharing, and conventional cellular transmission for the UE with D2D capability.…”

Section: Introductionmentioning

confidence: 99%

“…Both problems are solved under power/energy constraints. In [6], a similar scenario is considered where the cell sum rate in single-and multi-cell scenarios is studied under a rate constraint that gives priority to the CUE. Moreover, [7] considers a scenario in which the position of the D2D transmitter and receiver are fixed, while the CUE's position can change.…”

Section: Introductionmentioning

confidence: 99%

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Closed-form optimality characterization of network-assisted device-to-device communications

Shalmashi

Björnson

Slimane

et al. 2014

2014 IEEE Wireless Communications and Networking Conference (WCNC)

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International audience—This paper considers the mode selection problem for network-assisted device-to-device (D2D) communications with multiple antennas at the base station. We study transmission in both dedicated and shared frequency bands. Given the type of resources (i.e., dedicated or shared), the user equipment (UE) decides to transmit in the conventional cellular mode or directly to its corresponding receiver in the D2D mode. We formulate this problem under two different objectives. The first problem is to maximize the quality-of-service (QoS) given a transmit power, and the second problem is to minimize the transmit power given a QoS requirement. We derive closed-form results for the optimal decision and show that the two problem formulations behave differently. Taking a geometrical approach, we study the area around the transmitter UE where the receiving UE should be to have D2D mode optimality, and how it is affected by the transmit power, QoS, and the number of base station antennas. I. INTRODUCTION Emerging multimedia services and applications introduce new traffic types and user behaviors [1]. To address the higher demands imposed on wireless networks, more spectrally effi-cient and energy efficient approaches should be developed. Device-to-device (D2D) communication underlaying cellular networks is proposed to improve cell spectral and energy efficiency of the network [2], [3]. In D2D transmission mode, user equipments (UEs) communicate directly to their intended receivers as opposed to the conventional cellular mode where they communicate through the base station (BS). D2D mode can bring proximity gains and reduce the transmission time. Users in the D2D mode can transmit either in a separate frequency band or via spectrum sharing with cellular users. In the former case, D2D communications do not interfere with cellular users. This case is interesting due to its potential applications, such as public safety and multicasting for local multimedia services and robustness to infrastructure failure. On the other hand, spectrum sharing can be employed to efficiently utilize the resources which allows for better area spectral efficiency [4]. The gain from spectrum sharing can be assured if the interference is controlled by proper mode selection and resource management. However, depending on the network topology and channel conditions, it may not always be beneficial to choose the D2D mode for a UE

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“…Feasibility of underlay D2D communication in LTE-A has been studied in [10] where authors show that because of flexibility of time and frequency resource allocation in LTE-A, it is possible to share the resources with D2D communication. Authors in [11] propose D2D mode selection considering the interferences between D2D and cellular users and quality of D2D and cellular users. A practical and optimal mode selection in presented and evaluated in [12].…”

Section: Introductionmentioning

confidence: 99%

Effect of Residual of Self-Interference in Performance of Full-Duplex D2D Communication

Ali¹,

Ghazanfari²,

Rajatheva³

2014

Proceedings of the 1st International Conference on 5G for Ubiquitous Connectivity

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Abstract-This paper studies possibility of using full-duplex (FD) radios in underlay device-to-device communication (D2D) in cellular networks. We consider a cellular system with one D2D pair and one cellular user. Cellular user is sharing the radio resources with D2D link which is equipped with full-duplex radios. The problem of sum-power minimization of cellular system and D2D link both in uplink and downlink period is considered. Considering the interference caused because of exploiting the same radio resources, for uplink period, we use fixed point iterations to solve the optimization problem to calculate transmit powers of users. To design the optimal receiver in the base station, linear minimum mean squared error method is used. In the downlink, to calculate optimal transmit precoder at base station and optimal D2D transmit powers, the optimization problem is formulated as a second order cone problem (SOCP) and solved using CVX in Matlab. Since the available full-duplex radios are not able to cancel the self-interference completely, residual of self-interference is considered in D2D receivers. Performance of the full-duplex D2D with different amounts of self-interference cancelation is compared to that of half-duplex D2D. Results show that full-duplex radios with 110 dB self-interferece cancelation can provide double the throughput for D2D compared to halfduplex radios.

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Mode Selection for Device-To-Device Communication Underlaying an LTE-Advanced Network

Cited by 391 publications

References 7 publications

SC-FDMA-based resource allocation and power control scheme for D2D communication using LTE-A uplink resource

SC-FDMA-based resource allocation and power control scheme for D2D communication using LTE-A uplink resource

Closed-form optimality characterization of network-assisted device-to-device communications

Effect of Residual of Self-Interference in Performance of Full-Duplex D2D Communication

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