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Network architecture for cellular upgrades to 4G and 5G.

Network architecture for cellular upgrades to 4G and 5G.

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Work has now begun on the sixth generation of cellular technologies (‘6G‘) and cost-efficient global broadband coverage is already becoming a key pillar. Indeed, we are still far from providing universal and affordable broadband connectivity, despite this being a key part of the Sustainable Development Goals (Target 9.c). Currently, both Mobile Net...

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... there is a time dimension to the assessment study period, all costs are discounted using a 5% discount rate to produce the NPV to the current initial period, which is also informed by IMF consumer price forecasts [84]. The network architecture illustrated in Figure 3 is used to upgrade legacy cellular sites to either of the chosen technologies using the unit cost information reported in Table 2, guided by costs from [89], [102]. ...
Context 2
... there is a time dimension to the assessment study period, all costs are discounted using a 5% discount rate to produce the NPV to the current initial period, which is also informed by IMF consumer price forecasts [84]. The network architecture illustrated in Figure 3 is used to upgrade legacy cellular sites to either of the chosen technologies using the unit cost information reported in Table 2, guided by costs from [89], [102]. ...

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Citations

... On the road towards 6G technology, a comprehensive survey of the four aspects of 6G was considered in recent advances and future trends (You, 2020). Further, IEEE 802.1ax was envisioned to play a major role in the future of multi-tier networks when deployed simultaneously to serve as competitors and complements (Oughton & Jha, 2021). Envisioning 6G as an upcoming technology and still in its early developmental stage, a speculative study was carried out looking at the possible enabling technologies and their innovative elements with the explanation of features beyond 5G (Tariq et al, 2020). ...
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... Via stochastic geometry, spectral efficiency values can be estimated producing a distribution of capacity among different UEs at varying distances from a gNodeB (Lim, 2020;Jang, 2022). The NR link budget estimation considers a standard deviation of 6 dB for a rural scenario and different propagation models for rural areas (Lim, 2020;Oughton and Jha, 2021), in line with the literature (Oughton, 2020a,b). The analysis also considers interference from nearby base stations. ...
... Let the expected average user traffic be given as δ t GB/user/month, such that, t ǫ T. Then, the data consumed per day per user, δ t,day MB/day (Oughton and Frias, 2018;Oughton and Jha, 2021). The minimum data speed required per user ζ in Mbps, during the busiest hour of the day (B HF ) using the conversion value of 1 Byte (B) with 8 bits (b), and 1 h with 3,600 s (Oughton et al., 2022b), is calculated as: ...
... Table 4 provides a summary of the simulation parameters and the inputs for different models. The data for the study are obtained from various sources from the literature (Oughton and Frias, 2018;Grijpink et al., 2020;Ofcom, 2020;Oughton and Jha, 2021;5G-New-Thinking, 2022;ITU, 2022;Lappalainen and Rosenberg, 2022). Typically for rural areas, the operating frequencies are in the range of 700 MHz and 3,800 MHz (Partners, 2019). ...
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... The approach proposed in [4] uses a more data-driven demand model to perform a techno-economic analysis of how 5G policies may affect universal broadband. Authors leverage population data, night-time luminosity, and site deployment data to calculate a few model inputs such as average number of smartphone users, average revenue per user, and cellular site coverage. ...
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... To name a few, the 6G networks are ideated to deliver cost-efficiency, spectrumefficiency, energy-efficiency, and security [6]- [8] in the context of machine learning (ML) or artificial intelligence (AI) empowered networks [9], [10]. 5G is supportive to 6G and is conceived to continue supporting and augmenting the performance of the use cases defined by 3GPP, ranging from enhanced mobile broadband (eMBB) to ultra-reliable low latency communication (URLLC) services and massive machine type communications (mMTC) [11], [12]. These use cases have numerous applications such as vehicle to all (V2X), augmented reality (AR), virtual reality (VR) and mission-critical communication which have stringent requirements for enhanced user experience [13]- [15]. ...
... NetDataDrilling(D) 6 D(t e ) = h 7 for all ← γ min to γ max do 8 [L] ← DBSCAN(D(te, l e ), , µ) 9for all n e ∈ L 10 p ← q : n e = L(q) do11 if n e = D(n e ) then 12X aux (p) ← X aux (p) + s e 13 Y aux (p) ← Y aux (p) ...
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... Importantly, wireless mobile broadband can generally have a relatively low cost compared to other broadband communications technologies (e.g. fixed broadband networks) [4]- [6]. However, the economic viability of 5G can be challenging in low demand areas, mainly to satisfy strict high capacity, low latency performance requirements [7]- [9]. ...
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... Table 2 provides a summary of the simulation parameters and the inputs for different models. The data for the study are obtained from different sources from the literature [4], [39], [72], [74], [132], [137], [138]. In this evaluation, for the existing technology with a takeup rate (x), 50% of P , consider that 30% of those users would upgrade to 5G services, and an additional 20% of P would join the network. ...
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... This analysis is useful when it is difficult to quantify the benefits and the results of the analysis are not shown as economic benefits. In particular, the discounting process is applied not to the benefit side but to the cost side when the NPV is calculated [30,31]. The comparison between alternatives can be performed using a fixed-cost approach or a fixed-effect approach. ...
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... Importantly, wireless mobile broadband can generally have a relatively low cost compared to other broadband communications technologies (e.g. fixed broadband networks) [6]- [8]. However, the economic viability of 5G can be challenging in low demand areas, mainly to satisfy strict high capacity, low latency performance requirements [9]- [12]. ...
... More often, it is the rural and remote areas that experience poor broadband services, if coverage is even offered at all. Thus, building wireless broadband infrastructure is a pressing economic development issue [6], [38]. However, this needs to be supported by evidence exploring cost-efficient ways to invest the limited financial capital available, ensuring the right technologies and business models are selected to maximize societal benefits [39], [40]. ...
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p>How cost-efficient are potential infrastructure sharing business models for the 5G/6G era? How should telecommunications regulators formulate a national policy to improve mobile broadband connectivity? These are significant questions that need to be addressed if we are to deliver universal, affordable broadband and achieve Target 9c of the UN Sustainable Development Goals.</p
... Importantly, wireless mobile broadband can generally have a relatively low cost compared to other broadband communications technologies (e.g. fixed broadband networks) [6]- [8]. However, the economic viability of 5G can be challenging in low demand areas, mainly to satisfy strict high capacity, low latency performance requirements [9]- [12]. ...
... More often, it is the rural and remote areas that experience poor broadband services, if coverage is even offered at all. Thus, building wireless broadband infrastructure is a pressing economic development issue [6], [38]. However, this needs to be supported by evidence exploring cost-efficient ways to invest the limited financial capital available, ensuring the right technologies and business models are selected to maximize societal benefits [39], [40]. ...
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How cost-efficient are potential infrastructure sharing business models for the 5G/6G era? How should telecommunication regulators formulate a national policy to improve mobile broadband connectivity? These are significant questions that need to be addressed if we are to deliver universal affordable broadband and achieve Target 9c of the UN Sustainable Development Goals. For example, over one-third of the global population has never used the Internet, with many of these users in areas of low economic viability. Consequently, this assessment evaluates the cost implications of different infrastructure sharing business models. Over a decade, the results show that a rural 5G neutral host network (NHN) strategy helps to reduce the total cost by 10-50% over “No Sharing”, “Passive Sharing”, or “Active Sharing” approaches. We also find that compared to a baseline strategy with “No Sharing”, the net present value of rural 5G sharing strategies can earn between 30-90% more profit. The network upgrades to 5G using various sharing strategies are most sensitive to changes in the average revenue per user, the adoption rate, and the amount of existing site infrastructure. For example, a 20% variation in demand revenue is estimated to increase the net present value of the sharing strategies by 2-5 times compared to the net present value of the “No Sharing” strategy. Similarly, a 10% increase in existing infrastructure lowers the net present value by 8-30%.