A novel networking paradigm, Network Function Virtualization (NFV), meets the user demands dynamically and reduces operational expenses (OpEx) and capital expenditures (CapEx), by implementing network functions in the software layer known as virtual network functions (VNFs).
In networks enabling NFV coupled with the Software Defined Network (SDN) paradigm, network functions can be implemented dynamically on generic hardware.
The Network-on-Chip (NoC) paradigm brings networks inside chips.
Comparing to the common operations in traditional network environment, SDN paradigm empowers network operators (1) deploy, configure and update network functions in a much faster and easier way; (2) maximize resource utilization when using commodity hardware and software-based functions; and (3) dynamically scale resources based on service requirements and traffic patterns.
The last two decades have witnessed how numerous phenomena of economic relevance have also been studied using the paradigm of networks.
We examine the proposed paradigm on networks containing NF-κB pathways, where it shows significant improvement in classifier performance over the classical data-only approach to classifier design.
According to the paradigm, the networks take care of managing topological information and forwarding decisions using a bipartite architecture in which a control plane decides the forwarding policies and the data plane (i.e. ordinary sensor nodes) executes them.
It is becoming common to study gene × gene interactions by using a paradigm of networks that includes aggregating gene × gene interaction that exists even in the absence of main effects (McKinney and Pajewski 2012).
However, due to the emergence of 5G and the Internet of Things (IoT) paradigms, heterogeneous networks comprising heterogeneous nodes such as sensors, phones, computers and satellites form, thereby providing various ubiquitous services.
Dynamic provisioning is a new paradigm in network control and management (NC&M) that requires the introduction of control plane (i.e. routing and signaling) capabilities within network elements such as routers, layer 2 switches and layer 1 cross-connects.
