Uploaded June 2026 | Updated September 2026, 2 weeks ago
In today’s evolving IT landscape, selecting the right storage architecture is critical for optimal performance, scalability, data governance, and cost-efficiency. Furthermore, AI workloads have uniquely influenced how we meet these demands from our storage infrastructure. This webinar provides a technical deep dive into three fundamental storage deployment models – on-premises, cloud, and hybrid – examining their architectures and operational trade-offs through the lens of two key concepts: indirection (accessing data through mapping layers that provide flexibility and abstraction) and redirection (rerouting data requests to enable failover, load balancing, and optimized performance).
We are going to take some of the key stages of AI lifecycle development as sample use-cases (such as data ingestion, preparation, training, inferencing, and retrieval) and compare how each storage model can serve these use-cases across varying access patterns, data volumes, and performance requirements.
Attendees will gain a practical framework for aligning AI workloads with the most suitable storage architecture, balancing cost, scalability, and latency. Whether you are building AI infrastructure from scratch or optimizing existing deployments, this session will help you make informed decisions for AI-ready storage.
Learning Objectives and Key Takeaways:
• Introduction to the 3 different types of storage deployment models – on-prem, cloud, and hybrid
• Trade-offs for each deployment model
• Importance of indirection and redirection
• Understand how AI-specific data types and access patterns (e.g., embeddings, checkpointing) influence storage performance and design
• Evaluate trade-offs in latency, scalability, security, and cost when choosing storage for different stages of the AI pipeline
• Gain a decision-making framework for selecting the right storage model based on workload characteristics and infrastructure goals
Presented by Rohan Mehta, Micron Technology; Erik Smith, Dell Technologies; Himabindu Tummala, Dell Technologies
Read Q&A blog: snia.org/blog/2026/ai-meets-storage-qa-comparing-prem-cloud-and-hybrid-architectures
• SNIA “AI Stack” Webinar Series youtube.com/playlist?list=PLH_ag5Km-YUZaWla60wr-s3vqX0M40-t-
• SNIA Website: snia.org
• SNIA Educational Library: snia.org/library
• X: twitter.com/SNIA
• LinkedIn: linkedin.com/company/snia
In today’s evolving IT landscape, selecting the right storage architecture is critical for optimal performance, scalability, data governance, and cost-efficiency. Furthermore, AI workloads have uniquely influenced how we meet these demands from our storage infrastructure. This webinar provides a technical deep dive into three fundamental storage deployment models – on-premises, cloud, and hybrid – examining their architectures and operational trade-offs through the lens of two key concepts: indirection (accessing data through mapping layers that provide flexibility and abstraction) and redirection (rerouting data requests to enable failover, load balancing, and optimized performance).
We are going to take some of the key stages of AI lifecycle development as sample use-cases (such as data ingestion, preparation, training, inferencing, and retrieval) and compare how each storage model can serve these use-cases across varying access patterns, data volumes, and performance requirements.
Attendees will gain a practical framework for aligning AI workloads with the most suitable storage architecture, balancing cost, scalability, and latency. Whether you are building AI infrastructure from scratch or optimizing existing deployments, this session will help you make informed decisions for AI-ready storage.
Learning Objectives and Key Takeaways:
• Introduction to the 3 different types of storage deployment models – on-prem, cloud, and hybrid
• Trade-offs for each deployment model
• Importance of indirection and redirection
• Understand how AI-specific data types and access patterns (e.g., embeddings, checkpointing) influence storage performance and design
• Evaluate trade-offs in latency, scalability, security, and cost when choosing storage for different stages of the AI pipeline
• Gain a decision-making framework for selecting the right storage model based on workload characteristics and infrastructure goals
Presented by Rohan Mehta, Micron Technology; Erik Smith, Dell Technologies; Himabindu Tummala, Dell Technologies
Read Q&A blog: snia.org/blog/2026/ai-meets-storage-qa-comparing-prem-cloud-and-hybrid-architectures
• SNIA “AI Stack” Webinar Series youtube.com/playlist?list=PLH_ag5Km-YUZaWla60wr-s3vqX0M40-t-
• SNIA Website: snia.org
• SNIA Educational Library: snia.org/library
• X: twitter.com/SNIA
• LinkedIn: linkedin.com/company/snia







![DNA MGC+ A Codec for Reliable and Efficient DNA Data Storage
Efficient and reliable data retrieval remains a major challenge in DNA data storage due to the inherent noisiness of the underlying biochemical processes, which lead to both base-level errors and sequence-level dropouts. Here we introduce DNA-MGC+, a novel DNA storage codec designed to enable reliable and efficient data retrieval in the presence of insertion, deletion, and substitution (IDS) errors as well as dropouts. DNA-MGC+ combines an inner coding layer based on the Marker Guess & Check Plus (MGC+) code [1] for correcting IDS errors with an outer Reed-Solomon code that recovers from sequence dropouts and corrects residual inner decoding errors. Our results show that DNA-MGC+ consistently outperforms other codecs across diverse operating conditions. In particular, we observe gains in sequencing depth requirements and decoding time under both Illumina and Nanopore sequencing. We evaluated the performance of DNA-MGC+ in comparison with representative codecs through an in vitro experiment in which sequences encoded using multiple codec configurations were combined in a single oligonucleotide pool. Specifically, a 24-KB compressed file was encoded into oligonucleotides of length 170 bases using two configurations of DNA-MGC+ with different redundancy allocations, design A (1.03 bits/nt) and design B (0.71 bits/nt), as well as two existing codecs: DNA-Aeon [2] (1 bit/nt) and HEDGES [3] (0.61 bits/nt). The oligonucleotide pool was ordered from GenScript (electrochemical synthesis) and sequenced using both Illumina and Oxford Nanopore platforms, with multiple basecalling algorithms evaluated for the Nanopore data. Across all sequencing and basecalling setups, the stored file was recovered with an exact match, albeit with quantitatively different performance outcomes. The results shown in the attached figure indicate that DNA-MGC+ consistently outperforms both DNA-Aeon and HEDGES in terms of the minimum sequencing depth required for reliable decoding, achieving depths below 3x for both Illumina and Nanopore sequencing.
Presented by
Serge Kas Hanna, CNRS
This is a presentation from the 2026 Storage and Computing with DNA Conference.
· Learn More about the SNIA DNA Data Storage Alliance: https://www.snia.org/groups/snia-dna-technology-affiliate
· SNIA Educational Library: https://snia.org/library
· X: https://twitter.com/SNIA
· LinkedIn: https://linkedin.com/company/snia/ DNA MGC+ A Codec for Reliable and Efficient DNA Data Storage](https://i.ytimg.com/vi/gqRbmqRlTMM/mqdefault.jpg)


