Chen Griner

dblp:241/6026 · DBLP profile ↗
← Back
6ranked-venue papers
5as first author
6since 2021 · last 2026
0000-0003-1473-2977ORCID · corroborated

Domains — the database's venue-derived domains; a paper can count in several

Computer networks · 6 · 5 first-author · 6 since 2021
YearPublicationVenuePosition
2026 Integrating topology and traffic engineering to maximize throughput in reconfigurable networks
Chen Griner, Chen Avin
Comput. Networks1
2026 D3: Enhancing reconfigurable datacenters with adaptive demand-oblivious and demand-aware integration
Johannes Zerwas, Chen Griner, Stefan Schmid 0001, Chen Avin
Comput. Networks2
2025 Effectively Mimicking Datacenter Traffic Patterns Using Transformers
Chen Griner
Networking1
2024 Beyond matchings: Dynamic multi-hop topology for demand-aware datacenters
Chen Griner, Chen Avin, Gil Einziger
Comput. Networks1
2022 CacheNet: Leveraging the principle of locality in reconfigurable network design
Chen Griner, Stefan Schmid 0001, Chen Avin
Comput. Networks1
2021 CacheNet: Leveraging the Principle of Locality in Reconfigurable Network Design
abstract
Emerging optical communication technologies support the dynamic reconfiguration of datacenter network topologies depending on the traffic they serve. However, to reap the benefits of such demand-aware networks, a control logic is required which allows to quickly learn and adapt to traffic patterns. This paper presents CacheNet, a novel approach to efficiently control demand-aware networks. CacheNet leverages temporal and spatial locality in the traffic by managing the reconfigurable links of the optical switches as a links-cache. Network traffic, in turn, can be served either by a link from the link-cache component or by a demand-oblivious topology component. We study several classic caching algorithms and provide an analytical model which captures their performance benefits compared to an all demand-oblivious topology. Our analytical results show that based on the hit ratios and the links-cache size, our hybrid design can outperform designs that are based only on demand-oblivious topology.
Chen Griner, Chen Avin
Networking1