 top-down approach for IP connectivity. Applications controlled the activation of network resources and had a built-in knowledge of what kind of network access they needed (APNs, Quality of Service (QoS), IP versions, and such like). The noteworthy proliferation of smart phones with a bottom-up approach to IP connectivity and the emerging need to solve the practical challenges of multiple network access interfaces on consumer UEs, offers us an opportunity to revisit the 3GPP bearer and connectivity model. Furthermore, the use of APNs has turned out to be conceptually challenging for bottom-up IP connectivity. In modern UEs, applications are provided with less control on activating the network connectivity, and in general for managing the traffic routing decisions in the UE. Enabling services and access isolation using multiple network connections has a cost. Each 3GPP Bearer and connection consumes both radio network and core network resources that are typically subject to licensing, while the equivalent functionality could be accomplished by just allowing multiple addresses (beyond dual-stack) on a single net- work interface. Yet there is an emerging desire to provide shortcuts to the Internet, for certain IP traffic, bypassing parts of the operator infrastructure. The solutions today build on the use of multiple interfaces, which in cellular-only access scenarios falls back to the activation of a dedicated connection, such as a LIPA enabled bearer (see Section 4.3.16 of [1]), or SIPTO enabled bearer (see Section 4.3.15 of [1]). We have experimented with an idea for a new 3GPP bearer and connectivity model, which advocates multiple addressing on a single 3GPP network connection and aban- dons the use of multiple APNs. We propose a new abstraction of the 3GPP link, which essentially turns the existing point-to-point link into a Non-Broadcast Multiple Access (NBMA) resembling link that allows for multiple exit points for IP traffic in operators' IP network infrastructure. We call the bearer and connectivity model 