Projecte llegit
Títol: Distributed Computing Infrastructure for AI Workloads
Estudiants que han llegit aquest projecte:
ARICA, ECEM DOGA (data lectura: 15-09-2026)- Cerca aquest projecte a Bibliotècnica
ARICA, ECEM DOGA (data lectura: 15-09-2026)Director/a: SPADARO, SALVATORE
Departament: TSC
Títol: Distributed Computing Infrastructure for AI Workloads
Data inici oferta: 16-10-2025 Data finalització oferta: 16-05-2026
Estudis d'assignació del projecte:
MU AI4CI
MU EM CODAS 1
MU EM CODAS 2
MU MASTEAM 2015
| Tipus: Individual | |
| Lloc de realització: EETAC | |
| Paraules clau: | |
| Optical networks, cloud services, deterministic optical systems, Distributed Computing Infrastructure | |
| Descripció del contingut i pla d'activitats: | |
| The development of emerging applications and use cases such as, among others, artificial intelligence (AI), autonomous and connected vehicles, virtual reality and industrial factories digitalization, has a significant impact on the requirements posed not only to transmission networks but also in terms of computing power. Current efforts towards design and implementation of 6G systems are envisioned to enable future networks to provide support to such new ecosystem of applications, services and use cases. To meet these requirements, the concept of Telecom Cloud Continuum, that relies on the integration of cloud computing and telecommunications networks to provide telecom services, arise.
The Master thesis objectives will be to define suitable architectural solutions to enable AI-driven Telecom Cloud ecosystems. |
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| Overview (resum en anglès): | |
| Artificial intelligence workloads are changing the way computing infrastructure
is designed. Large-scale training and low-latency inference require increasing computing capacity, high bandwidth and predictable communication performance. While Scale-Up and Scale-Out can extend the resources available inside a single data center, they are eventually limited by factors such as power, cooling, physical space and network scalability. This motivates the use of geographically distributed Edge and Cloud data centers connected through a Telecom Cloud Network. This thesis studies how computing and network resources can be coordinated to support AI workloads across multiple sites. It reviews the evolution towards distributed AI infrastructure, identifies the network requirements imposed by these workloads and analyses the limitations of single-site orchestration. Based on this analysis, an end-to-end architecture is proposed in which Edge and Cloud data centers expose abstract computing-resource information, while the Telecom Cloud Network exposes the connectivity available between sites. An E2E Infrastructure Orchestrator combines both views to select a feasible compute-and-network combination. The network integrates packet connectivity with programmable optical transport, using shared packet paths when sufficient and reconfigurable optical lightpaths when higher sustained capacity or reserved connectivity is required. Two illustrative cases, latency-sensitive inference and distributed training, are used to show how workload characteristics affect placement and connectivity decisions. For example, transferring 1 GB of synchronization data within 100 ms requires an average rate of 80 Gb/s. The analysis indicates that, in distributed AI infrastructures, the network cannot be treated as an unlimited and always-available resource; computing-site selection and network-resource selection should therefore be coordinated as part of the same orchestration process. |
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