The Middleware for Edge Clouds & Cloudlets (MECC) workshop aims to address the increasing need for closer integration between the different tiers on modern cloud computing platforms.
There is a growing trend of interactive and resource-intensive (e.g., compute, storage, need for big data) applications on mobile devices today, and currently many such applications are provided using resources on infrastructural clouds. However, it is challenging to provide such applications using cloud resources when there is limited connectivity. Harvesting the resources present on nearby mobile devices and/or cloudlets is a viable solution to this problem.
Today, there is also increasing demand for middleware that offers higher level abstractions without hampering expressiveness and performance. However, many distributed systems today are designed for the datacenter, and their assumptions, such as that nodes use fast wired interconnects, no longer hold in edge environments. In particular, edge clouds, such as those made up of only mobile devices at the edge, use unreliable wireless links. These unreliable links directly translate into unavailability and churn. Simultaneously, since mobile devices have limited energy resources, heavyweight distributed algorithms, such as coordination using a leader-based consensus protocol, are impractical.
As an effort to offload computation from mobile devices, cloudlets were originally envisioned as server-class hardware deployed in a neighborhood, office building or more generally, in close physical proximity to any scenario with a high density of users, such as at large public events. It is now transitioning to a more lightweight approach where the offloading is done through multiple techniques besides the use of virtual machines, as originally proposed, and where cloudlets can also offer connectivity support to crowd-sourced mobile devices, i.e., edge clouds.
With this new trend in sight, there is a need to define the services that should be offered at each tier. For example, cloudlets can provide well-defined APIs to support multiple computation offloading methods. Furthermore, new modular and reconfigurable architectures have to be proposed in order to support a variety of deployment scenarios, such as edge clouds without cloudlet support, and scenarios with very limited access to infrastructural clouds.
Topics of interest include but are not limited to:
Design and performance of middleware platforms for edge clouds and cloudlets
Mechanisms for the integration of edge clouds with cloudlets
Security mechanisms for edge clouds including, including but not limited to, storage and computation
Context-aware services by cloudlets
Connectivity-as-a-service provided by cloudlets
Novel theoretical approaches for churn tolerance
Lightweight replication and fault-tolerance algorithms
Distributed coordination and cooperation for edge clouds
Lightweight computation sandboxing for edge clouds
Novel storage systems for edge clouds, with special focus on geo-aware storage engines
Tools for testing and benchmarking MECC
Experimental deployments and applications
Networking coding approaches for MECC
Programming languages for edge clouds
P2P overlays and systems for edge clouds
Gossip based protocols for edge clouds
Computational frameworks for MECC
Programming models and abstractions to manage edge to infrastructure cloud interactions
Middleware platforms for cloud-of-clouds
Privacy enforcing algorithms for leveraging MECC
Trust for edge clouds and/or cloudlets
Interoperability between mobile OSes
Formal methods for middleware verification
Sensor fusion for MECC
Infrastructure cloud based services for supporting MECC
12月12日
2016
12月16日
2016
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