%% You should probably cite draft-irtf-icnrg-icn-lte-4g instead of this I-D.
@techreport{suthar-icnrg-icn-lte-4g-04,
    number =    {draft-suthar-icnrg-icn-lte-4g-04},
    type =      {Internet-Draft},
    institution =   {Internet Engineering Task Force},
    publisher = {Internet Engineering Task Force},
    note =      {Work in Progress},
    url =       {https://datatracker.ietf.org/doc/draft-suthar-icnrg-icn-lte-4g/04/},
    author =    {Prakash Suthar and Milan Stolic and Anil Jangam and Dirk Trossen},
    title =     {{Native Deployment of ICN in LTE, 4G Mobile Networks}},
    pagetotal = 32,
    year =      2017,
    month =     nov,
    day =       11,
    abstract =  {LTE, 4G mobile networks use IP based transport for control plane to establish the data session and user plane for actual data delivery. In existing architecture, IP transport used in user plane is not optimized for data transport, which leads to an inefficient data delivery. IP unicast routing from server to clients is used for delivery of multimedia content to User Equipment (UE), where each user gets a separate stream. From bandwidth and routing perspective this approach is inefficient. Multicast and broadcast technologies have emerged recently for mobile networks, but their deployments are very limited or at an experimental stage due to complex architecture and radio spectrum issues. ICN is a rapidly emerging technology with built-in features for efficient multimedia data delivery, however majority of the work is focused on fixed networks. The main focus of this draft is on native deployment of ICN in cellular mobile networks by using ICN in 3GPP protocol stack. ICN has an inherent capability for multicast, anchorless mobility, security and it is optimized for data delivery using local caching at the edge. The native ICN (it runs directly on cellular layer 2 protocols like PDCP/RLC/MAC/L1) or dual stack (along with IP) deployment will bring all inherent benefits and help in optimizing mobile networks.},
}