Scality provides cyber-resilient storage software for hybrid, private, and public clouds. Its flagship products, Scality RING and ARTESCA, manage, access, and protect backup data across cloud environments by using software-defined storage that can run in multiple infrastructures. This makes it possible for customers to choose their preferred cloud setup while keeping data safe and easy to access. Scality differentiates itself through its focus on data protection and performance in object storage for backups, along with offering integration services to build complete data solutions. The company is recognized for being a leader in backup object storage and collaborates with ecosystem partners to deliver end-to-end storage solutions. The goal is to give organizations the freedom to select the cloud infrastructure that fits their needs while ensuring their data is protected, readily accessible, and efficiently managed.
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$175.4M
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2009
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Scality's Paul Speciale on SC26: why KV cache is the new AI bottleneck. As AI moves from pilot to production, the bottleneck is shifting from compute to memory. Reasoning models and agents build context faster than GPU memory can hold it, and whatever doesn't fit gets recomputed, burning GPU time with nothing new to show for it. In this VMblog pre-show Q&A ahead of SC26 in Chicago, Paul Speciale, Chief Strategy Officer and Field CTO at Scality, makes the case that KV cache is now a data infrastructure problem. He points to lab results from August 2026 in which reading a stored context back was 14x faster than recomputing it at 14K tokens and 72x faster at 439K tokens, and in which a shared cache held 8 TB with first-token time staying flat as it grew. Speciale also discusses how Scality, which launched Scality ADI in May and Scality AI Inference Factory in October, helps customers cope with the memory and accelerator supply crunch. He covers running on standard servers from Dell, HPE, Lenovo and Supermicro, sovereignty and private AI, and where scale-out object storage fits alongside parallel file systems in modern HPC environments. Attendees can find Scality at booth #4959, and can catch Candida Valois presenting "What Production AI Demands from Data Infrastructure" in the Exhibitor Forum on Tuesday, November 17, at 10:30 a.m. CST in Room W194b. VMblog: If you were giving an SC26 attendee a quick overview of your company, what would you say? How has your company evolved since SC25, and what has been the biggest change in your business over the past twelve months? Paul Speciale: Scality builds software-defined data infrastructure for AI and for the data that feeds it. Our software runs in production at more than 1,000 enterprises in over 70 countries, holds more than 12 exabytes of data, and has been in continuous production since 2009. In research and life sciences, customers include the Leibniz Supercomputing Centre (LRZ) and SeqOIA. The biggest change this year is where we sit in the AI stack. In May we launched Scality ADI (AI Data Infrastructure), one platform that serves every stage of the AI pipeline, from ingest and training through inference, protection and long-term retention. In October we built on it with Scality AI Inference Factory, an open-code software stack for running AI inference on infrastructure the enterprise owns. That moved the conversation with customers from where AI data lives to what keeps GPUs productive once AI is in production. VMblog: Your company is participating in SC26 in Chicago. What does that presence look like, and if you were in St. Louis last year, how does it differ from your SC25 participation? Paul Speciale: We're in the exhibit hall at booth #4959 all week, and we're on the program. Candida Valois, our Field CTO and Alliances Leader for the Americas, presents "What Production AI Demands from Data Infrastructure" in the Exhibitor Forum on Tuesday, November 17. I'll be in Chicago too, meeting with HPC and AI architects. What's different this year is our focus topic. The SC community has always cared about feeding compute with data. With inference now sitting alongside simulation and training, that problem has reached GPU memory itself, and that's what we'll be talking about at the booth and in the session. VMblog: What key message will SC26 attendees hear from you this year? With AI infrastructure budgets under heavy scrutiny and hardware costs rising, what concrete value proposition can they take back to their CFO and CIO? Paul Speciale: When AI goes into production, the bottleneck very quickly moves from compute to memory, since reasoning models and agents build context faster than GPU memory can hold it. This is especially true when you have teams of many simultaneous user sessions, each of whom want to retain a long context. In our lab, one long session with a 438,764-token context produced 189 GB of KV cache, which will not fit in the GPU cache (HBM), so it requires external storage. Whatever doesn't fit gets recomputed, and recomputing is GPU time you've paid for and get nothing new from. For the CFO, the value is super clear and direct: put the GPUs you already own to work. Reading a stored context back instead of recomputing it was 14x faster at 14K tokens (Gemma-3 27B) and 72x faster at 439K tokens (GLM-5.2) in our August 2026 lab tests. That matters because GPUs already sit idle most of the time, for example Cast AI measured average GPU utilization of just 5% across tens of thousands of Kubernetes clusters on AWS, GCP and Azure (2026 State of Kubernetes Optimization Report), and 79% of organizations running AI in production told a VentureBeat Intelligence survey their GPUs are 50% of the time or less (July-September 2026). On top of that, Scality runs on standard servers from Dell, HPE, Lenovo and Supermicro, and performance and capacity scale independently, so you buy flash only where a workload proves it needs it. For the CIO, the value is one governed dataset that serves many teams and frameworks without a copy for every tool, with cyber resilience built in rather than bolted on. VMblog: Do you have speaking sessions, panels, Birds of a Feather meetings, workshop appearances, or paper tie-ins at SC26? What topics will you address, and how can attendees join? Paul Speciale: Yes, we have the session mentioned above (Candida Valois presents "What Production AI Demands from Data Infrastructure" in the Exhibitor Forum (AI and Data Analytics I) on Tuesday, November 17, in Room W194b at 10:30-11am CST. She'll cover why AI projects that worked in the pilot stall in production, the six AI workloads that hit one dataset at the same time (KV cache, RAG, vector search, agents, multimodal models and knowledge systems), and four practical moves: reduce unnecessary data movement, keep the GPUs fed, eliminate disconnected storage silos, and read context back instead of rebuilding it. Candida will provide measured lab results and patterns from production deployments. Anyone who wants a deeper discussion afterwards can find us at booth #4959. VMblog: The memory and accelerator supply crunch has pushed up prices and stretched lead times for DRAM, HBM, and NAND. How are you helping customers plan and get more from constrained hardware, whether through flexible configurations, software efficiency, disaggregation, or extending the life of existing systems? Paul Speciale: Our answer starts with the fact that Scality's solutions are software. Customers run it on their own choice of standard servers from Dell, HPE, Lenovo and Supermicro, so they buy what they can get, when they can get it, and they're not waiting on one vendor's appliance. Clusters grow a server at a time, so customers add capacity when they need it rather than buying years ahead in a constrained market. Disaggregation is really the bigger lever for efficiency of hardware. When HBM is scarce, the worst thing to do with it is fill it with context you'll throw away and recompute. Scality ADI acts as a shared KV cache that every GPU in the cluster can read. In our lab it held 8 TB of KV cache, more than 80x one GPU's memory, with first-token time flat as the cache grew, and the storage tier was five servers a few generations old. Model weights are stored once, and any GPU can load any model. That significantly stretches the HBM and DRAM you already have. VMblog: With a Chinese system taking the No. 1 spot on the TOP500 and nations investing in domestic compute stacks, sovereignty and export controls are shaping procurement. How do sovereign AI, data residency, and geopolitical risk influence your product design and go-to-market, and how do you support on-prem, cloud, neocloud, and hybrid deployments? Paul Speciale: Sovereignty is built into how we design and sell, not added on. Scality is software that runs on infrastructure the customer owns and operates, in its own data centers, under its own jurisdiction. The same platform serves on-prem, hybrid, service provider and neocloud deployments, and Scality AI Inference Factory is available as a software license or as a fully managed service. For AI, this is where demand is heading. In a 2026 Freeform Dynamics study, 81% of 504 medium to large enterprises active with private AI said private AI on infrastructure they control is critical to their success. When inference runs on your own infrastructure, the codebase, retrieved documents and tool outputs an agent sends stay inside your perimeter, and nobody outside your company has any ability to switch it off. We support that with open-weight models and an open-code stack, so customers aren't trading one dependency for another. VMblog: With memory scarce and expensive, and modern AI leaning heavily on KV cache, checkpointing, and massive datasets, what innovations in memory tiering, storage orchestration, or interconnect (Ethernet, InfiniBand, optical) are you unveiling to keep costly accelerators fed? Paul Speciale: We treat KV cache as a data infrastructure problem. Today, each GPU server typically keeps its own cache on local drives. Only that server's GPUs can read it, a returning session has to find its way back to the same server, and when the context no longer fits, it's dropped and recomputed. Scality ADI replaces that with one shared KV cache and model store with access for all GPUs in the whole cluster over RDMA. In our August 2026 lab tests, reading a context back was 14x faster than recomputing it at 14K tokens and 72x faster at 439K tokens, and the cache held 8 TB with first-token time flat as it grew. A shared cache also changes the serving architecture: because any GPU can pick up any session, prefill and decode can run on separate GPU pools that scale independently, which is how Scality AI Inference Factory serves models. The same platform keeps training data, checkpoints and long-lived datasets on dense capacity, so the fast tier is reserved for the workloads that need it. VMblog: SC is a parallel file system crowd. Where does object storage fit in a modern supercomputer, and why should HPC architects care? Paul Speciale: Parallel file systems are excellent at what they do: feeding a running job at full speed. But most of the data an HPC center holds isn't in a running job. It's input datasets, results, checkpoints, model weights and years of research output that has to stay durable, governed and reachable. Keeping all of that on the performance tier is expensive (especially in all-flash), and that's where scale-out object storage belongs, as the capacity tier underneath, and still offering the performance to deliver massive throughputs on both flash and HDD based servers. This is also where the industry is converging. We partner with WEKA on a jointly validated solution that pairs WEKA NeuralMesh for active AI and HPC data with Scality RING as the cost-efficient object tier. For example, Leibniz Supercomputing Centre (LRZ) is a Scality customer. And as AI moves into scientific workflows, the capacity tier increasingly has to serve AI too, as a data lake for training, a model store and a shared KV cache for inference. That's the architecture we'll be discussing with HPC teams at booth #4959.
Scality achieves CNA status as EU Cyber Resilience Act reshapes storage. PARIS - November 10, 2026 - In the rapidly evolving landscape of 2026, data infrastructure is no longer merely a passive repository; it is the active, beating heart of global digital experience and enterprise artificial intelligence. As the sheer volume and strategic value of this data grow, so too does the regulatory pressure to secure it. Today, Paris-based data infrastructure provider Scality announced its official designation as a Common Vulnerabilities and Exposures (CVE) Numbering Authority (CNA) under the Root operated by the European Union Agency for Cybersecurity (ENISA). While a technical designation on its surface, Scality's move to become a CNA represents a fundamental shift in how enterprise storage vendors are adapting to a new era of regulatory scrutiny and operational integration. By gaining the authority to directly assign CVE Identifiers and publish corresponding CVE Records for vulnerabilities discovered in its software products - including Scality RING, ARTESCA, and ADI - the company is bridging a long-standing gap between proprietary storage infrastructure and standardized enterprise security operations. The EU Cyber Resilience Act forces a reckoning. The timing of Scality's announcement is inextricably linked to the sweeping regulatory changes currently reshaping the European technology sector. On September 11, 2026, the rigorous reporting obligations of the EU Cyber Resilience Act (CRA) officially came into effect. The CRA fundamentally alters the liability and operational landscape for manufacturers of products with digital elements available in the EU market. Under Article 14 of the CRA, vendors are now subject to a multi-staged reporting process that demands unprecedented speed and transparency. When an actively exploited vulnerability or severe incident is detected, manufacturers must issue an early warning to ENISA and relevant national Computer Security Incident Response Teams (CSIRTs) within a punishing 24-hour window. This is followed by a comprehensive full notification within 72 hours, and a final report detailing corrective measures shortly thereafter. Non-compliance carries severe financial penalties, reaching up to €15 million or 2.5% of total worldwide annual turnover. For years, many infrastructure vendors relied on proprietary technical bulletins hidden behind customer portals to communicate security flaws. The CRA effectively outlaws this opaque approach. By transitioning to a formalized CNA model, Scality is not only ensuring its compliance with these stringent new European mandates but is also aggressively backfilling past vulnerabilities previously noted in private bulletins into standardized public CVE Records. This proactive stance reflects a broader industry realization: security by obscurity is no longer legally or operationally viable. Securing the crown jewels: storage joins the secops stack. Beyond regulatory compliance, the transition to standardized CVE reporting addresses a critical pain point for enterprise Chief Information Security Officers (CISOs). Storage platforms hold the "crown jewels" of an organization - the proprietary data, customer records, and AI training models that define modern business value. Yet, historically, storage software has often operated in a silo, disconnected from the automated workflows of modern Security Operations Centers (SOCs). Enterprise security teams track, prioritize, and remediate vulnerabilities almost exclusively via CVE IDs. Their entire ecosystem of automated scanners, ticketing systems, and patch deployment workflows is built around this standardized nomenclature. When a vendor relies on proprietary bulletins, it forces security engineers to manually interpret and integrate threat data, introducing dangerous friction and delays into the incident response lifecycle. "Our customers run Scality in some of the most regulated environments in the world, and their security teams were clear about what they wanted: vulnerability information from the vendor, in the format their tools already use," said Anh Nguyen-Phuoc, chief information security officer at Scality. "Becoming a CNA means that when a vulnerability is found in Scality software, it gets its CVE ID and public CVE Record from the people who know the code best, at the moment the fix is ready. It also gives us a seat in the community that keeps the CVE system working, and we are glad to do that under the ENISA Root." This sentiment highlights a crucial evolution in enterprise architecture. Storage software must now meet the same rigorous disclosure standards as firewalls, endpoint detection agents, and the rest of the traditional security stack. "Storage holds the data an organization cannot afford to lose, so storage software has to meet the same disclosure standards as the rest of the security stack," noted Paul Speciale, chief strategy officer at Scality. "Becoming a CNA is a practical commitment to our customers. When something in our software needs fixing, they hear about it from us directly, with an identifier their tools recognize and the guidance to act on it. It sits naturally alongside the cyber resilience we build into every product." The ENISA Root and the new European standard. Scality's authorization, officially granted on July 21, 2026, places the company under the oversight of ENISA, which became a CVE Root for European entities in late 2025. As the 13th CNA from France, Scality is part of a growing cohort of European organizations embracing structured vulnerability disclosure under regional oversight. ENISA's expanding role as a CVE Root is designed to strengthen the resilience and long-term sustainability of the global vulnerability identification ecosystem. This is particularly critical in 2026, as the proliferation of advanced AI models has dramatically accelerated both the defensive discovery and offensive exploitation of software flaws. ENISA's recent threat landscape reports indicate that attackers are now weaponizing new vulnerabilities within days - sometimes hours - of their initial discovery. By operating under the ENISA Root, Scality integrates its disclosure process directly into the European cybersecurity apparatus. This facilitates smoother reporting through ENISA's new Single Reporting Platform (SRP) and ensures that critical vulnerability data flows seamlessly to the national CSIRTs tasked with defending the continent's digital infrastructure. Beyond the checkbox: A maturing infrastructure landscape. Scality's elevation to CNA status is not an isolated compliance exercise; it is part of a broader maturation of the data infrastructure market. As enterprises deploy multi-petabyte and exabyte-scale systems to support AI initiatives and defend against sophisticated ransomware campaigns, the demand for verifiable "secure-by-design" architectures has skyrocketed. The company's existing security framework already includes an ISO 27001-certified information security management system and the publication of a Software Bill of Materials (SBOM) with every release of its ARTESCA platform. These practices, combined with its CORE5 cyber resilience architecture, align Scality with established industry leaders. Benchmarking against the broader enterprise storage sector reveals that major players like NetApp, Dell Technologies, and Pure Storage have also adopted the CNA model, cementing standardized vulnerability disclosure as a baseline expectation for enterprise-grade infrastructure. As the digital landscape of 2026 continues to evolve, the intersection of technical capability and transparent governance will define the market leaders. The ability to store massive volumes of data is no longer sufficient; vendors must prove they can secure that data and integrate seamlessly into the defensive postures of their customers. By embracing the transparency of the CVE program and aligning with the rigorous demands of the EU Cyber Resilience Act, storage providers are acknowledging that true resilience requires not just robust code, but an unwavering commitment to open, standardized collaboration with the global security community. Topics & related. Compliance Action Cybersecurity Cloud & Infrastructure Are you a relevant expert who could contribute your opinion or insights to this article? BriefGlance'd love to hear from you. BriefGlance will give you full credit for your contribution. UAID: 54516
Scality entrusts the contextual memory storage of AI agents, without performance guarantees. Avery Calloway - 10/09/2026 - 6 minutes of reading Scality Unveils AI Inference Factory at Scality Day in Paris Scality has announced its latest innovation, the AI Inference Factory, during Scality Day in Paris - a software stack designed for on-premises inference that offloads the contextual memory of AI models to storage. This move aims to address the limitations of GPU memory for AI agents as the complexity of context expands during operations. Although Scality has launched this product with a fixed budget model in mind, it has not yet guaranteed performance outcomes. AI models and reasoning agents require context retention throughout a session, which can grow increasingly cumbersome. Scality's announcement, made on October 8, aims to tackle these demands, promoting the use of AI Inference Factory on enterprise infrastructure instead of relying on cloud providers. This software stack integrates validated open-weight models, an inference service, a control layer, and Scality's own Scality AI Data Infrastructure (ADI). The target market includes businesses, government entities, and new cloud service providers focused on AI. Scality offers this stack through both licensed and fully managed service options, delivering a complete solution that it validates, deploys, and maintains. Shared KV cache for agents' context. To produce each token, the AI model utilizes a Key-Value (KV) cache, storing previous computations related to the context. This technical memory mechanism enables AI agents and large language models to respond swiftly and cost-effectively during complex tasks or conversations. Instead of revisiting and recalculating entire conversation histories for every word generated, the system retains prior attention states directly within the graphics card memory (VRAM). According to Scality, reasoning models and agent loads, particularly during long sessions, are the most impacted. The company has opted to move the KV cache from GPU servers to ADI, marketed as a shared cache with multi-petabyte capacity. Furthermore, the architecture separates the two phases of inference: a group of GPUs first reads the request and updates the cache (prefill), while a second group then accesses this cache to generate tokens (decode). "With ADI as a shared cache, any decode GPU can retrieve any context without size limitations," explains Giorgio Regni, Scality's Chief Technology Officer. It's important to note that this KV cache does not overlap with an agent's memory from one session to another. Instead, it maintains the context of the ongoing session, including instructions, read documents, tool results, and reasoning already produced. Retention of historical data, preferences, and organizational knowledge requires different mechanisms, such as retrieval-augmented generation or long-term memory, which are not part of this announcement. This distinction is crucial for agent functionality, allowing an agent that waits for tool feedback or human validation to resume tasks without the GPU recalculating all accumulated context. Hence, this development addresses the costs associated with extended and interrupted sessions, not the learning capabilities of agents. ADI operates on a scale of multiple petabytes, using NVMe or HDD disks connected to GPUs via RDMA. Data is distributed across flash memory, disks, and optionally tape. Laboratory performance insights from Scality. The performance numbers shared stem from Scality's internal tests. The Gemma-3 27B model loads in 1.9 seconds - nearly ten times faster than loading from a local NVMe drive. Restoring a context of 14,000 tokens from ADI takes 166 milliseconds before producing the first token, which is only 83 milliseconds longer than loading from HBM. Accessing cached data is 14 times faster than recalculating it for the same context, going up to 72 times faster for 439,000 tokens. The cache exceeds GPU memory capabilities by over 80 times and can restore 1,000 sessions without recalculation. According to the company, latency between generating tokens remains steady, with context restored before the first token is emitted. However, these tests are based on a modest setup: a server with eight GPUs, five storage servers, and four RDMA links operating at 100 Gbit/s. Scality has not released any service-level commitments. Its control layer effectively distributes requests according to service-level agreement (SLA) targets, yet these are ultimately determined by the client. The company cites two external studies. DistServe, presented at OSDI 2024, reported a 7.4 times increase in requests served at similar latencies thanks to the separation of phases, while Moonshot AI noted a 75% increase in requests processed with its Mooncake shared cache. Fixed budget per token amidst unpublished pricing. Scality's second key argument revolves around costs. In cloud environments, providers charge per token generated, with bills escalating alongside usage. Additionally, a provider may alter a model's version, risking disruption to dependent applications. By deploying on-premise, enterprises can maintain control over model versions and pay for infrastructure rather than consumption. The stack supports various models, including Mistral, Gemma, gpt-oss, Qwen, Kimi, GLM, and DeepSeek, compatible with Dell, HPE, Lenovo, and Supermicro servers. This variety addresses common needs within the market. Yet, Scality has not provided pricing details or client references. On-premise deployment incurs costs for GPU purchase, energy, and operational maintenance. In the cloud, token prices are competitive. For example, as of October 8, Anthropic charges $0.10 per million tokens for its Claude Haiku 5.5, and Google Cloud has set spending caps for computational loads. On-premise solutions excel in scenarios of massive, consistent usage, while cloud services are advantageous when usage is low or variable. Thus, cost savings will likely vary by case until Scality reveals its pricing. IDC Vice President Nataliya Yezhkova points out the market dynamics, stating that on-site inference is now a viable option "as long as the infrastructure can efficiently preserve and serve model states at scale." Scality isn't pioneering this field alone; Red Hat has also entered the arena with its AI Inference Server since May 2025, supporting a distribution of the vLLM engine, alongside the distributed inference project llm-d. A response to architectural challenges yet to be proven. The distinction between prefill and decode, as measured by DistServe, and the reuse of the KV cache are established practices that Scality hasn't invented. Fundamentally, the approach makes sense. The differentiating factor lies in how it handles inference state storage, as opposed to the engine work emphasized by Red Hat. In this paradigm shift, agent context transitions from a computational burden to a stored data format, allowing GPU memory constraints to transform into storage capacity inquiries that IT departments are capable of managing. Still, Scality's evaluations are based on a single test bed using just two models, Gemma-3 27B and GLM-5.2. It remains to be seen whether this framework can hold up under production loads. An IT department considering this stack will require testing with its own agents, specific session volumes, and documented performance guarantees. Ultimately, the fulfillment of the promise of a fixed budget will depend on how well these requirements are met.
Scality launches AI Inference Factory to bring enterprise AI on-premises. Scality's new open-code software stack enables enterprises to run validated open-weight AI models on their own infrastructure, with predictable costs and control over models and data sovereignty. SAN FRANCISCO, October 8, 2026 - Scality, a global leader in data infrastructure software for AI storage at scale, today announced the availability of Scality AI Inference Factory, an open-code software stack for deploying and operating AI inference on enterprise-owned infrastructure. The solution gives enterprises, government agencies and neo-cloud providers a supported alternative to cloud-based AI services, without having to assemble, integrate and maintain the entire software stack themselves. As AI moves from experimentation into production, organizations are looking for more predictable costs, greater control over model lifecycles and increased data sovereignty. For most organizations, the answer will be hybrid, with the most critical AI processes running on-premises. Running inference locally can address these requirements while keeping sensitive data within infrastructure that organizations own and operate. Scality AI Inference Factory brings together validated open-weight models, a disaggregated inference-serving layer, a control plane for authentication, metering, routing and scheduling, and Scality AI Data Infrastructure (ADI), which uses policy-governed autonomous operations to manage massive datasets across the AI lifecycle. Scality validates, ships and maintains the integrated stack. "With AI moving into mission-critical production environments, organizations need greater control over where inference runs, how their models are managed and what happens to their data," said Jérôme Lecat, CEO at Scality. "For 15 years, Scality has built data infrastructure that thousands of customers around the globe rely on to operate 24/7. AI Inference Factory brings that experience to on-premises AI, giving organizations the reliability and sovereignty they need to run critical AI workloads on their own terms." Cloud AI challenges drive interest in on-premises inference Enterprises scaling AI in production are confronting challenges with the cloud-based inference model. With per-token pricing, the more useful an AI workflow becomes, the more it costs, producing bills that are difficult to forecast and impossible to cap. Model versions and quantization can change at the provider's discretion, affecting the workflows built on them. Organizations with sensitive or regulated data face sovereignty concerns over where their prompts, documents and proprietary code are processed, under which jurisdiction, and who can restrict access to them. Scality AI Inference Factory is designed for organizations that want to run critical AI workloads on infrastructure they control while retaining flexibility across models, hardware and software. The stack supports specialized chatbots, AI-assisted software development, agentic applications and other inference-intensive workloads. Scality AI Inference Factory combines: * Validated open-weight models maintained as part of the supported stack; * Disaggregated inference serving that separates prefill from decode so each can scale independently; * A control plane that authenticates and meters requests, routes them to the appropriate GPUs holding the relevant context and schedules workloads against SLA targets; and * Scality ADI, which provides high-performance object storage for models, enterprise data and inference state. Scality validates and maintains the complete stack as a supported solution, helping organizations keep pace with rapidly changing models, serving technologies and security requirements without having to integrate and maintain the individual components themselves. "As AI adoption expands and AI agents become more prevalent, organizations are evaluating which IT environments are best suited to run inference. On-premises deployments are coming into focus for a variety of reasons, including cost optimization, data security and privacy, and regulatory requirements. IDC research shows that running inference on-premises is a credible option for a growing set of enterprise and public sector workloads, provided the infrastructure can hold and serve model state efficiently at scale. Scality is among the vendors addressing that requirement across the inference and storage layers." - Nataliya Yezhkova, Vice President, Storage and Data Management, Enterprise Infrastructure, IDC Scality ADI extends AI inference beyond GPU memory constraints Scality ADI serves as the shared storage layer for AI Inference Factory, extending key-value (KV) cache beyond limited GPU high-bandwidth memory (HBM). This allows inference infrastructure to preserve and retrieve model context instead of requiring GPUs to recompute it, improving GPU utilization and reducing inference costs. This is particularly important for reasoning models and agentic workloads, where KV cache can quickly exceed available GPU memory. Scality ADI provides a shared, multi-petabyte cache that GPUs read at latency the same order of magnitude as GPU memory, allowing them to retrieve existing context and remain focused on inference. Scality testing demonstrated that ADI can reduce GPU consumption while maintaining the same level of performance: * 1.9-second load time for Gemma-3 27B, almost 10x faster than local NVMe, with the model streamed in parallel across the cluster over RDMA; * 166 ms warm time-to-first-token on a 14K-token context restore from ADI, only 83 ms behind HBM; * 14x faster KV cache retrieval than recomputation on a 14K-token context and up to 72x faster on a 439K-token context; * A KV cache more than 80x larger than a single GPU's memory, keeping up to 1,000 concurrent sessions resumable without recomputation; * No measurable impact on token generation, as context is restored before the first token; and * 97% of network line rate for data transfer between GPUs and storage. The architecture separates prefill from decode, with ADI acting as the shared cache between GPU pools. This allows available decode GPUs to access existing context without tying it to a specific GPU server. Separating prefill from decode has documented gains: DistServe (OSDI 2024) measured up to 7.4 times more requests served within the same latency targets. Adding a shared KV cache pool on top, Moonshot AI's Mooncake reported 75 percent more requests on Kimi's production traffic. As Giorgio Regni, Scality CTO, puts it: "The KV cache on Scality ADI is fast enough to sit in the serving path. Restoring a context from ADI is the same order of magnitude as GPU memory, and 14 times faster than recomputing it, with the GPUs staying busy the whole time. Storage is no longer the reason to keep the KV cache inside the GPU server." Regni continues: "That opens the door to disaggregated serving. One pool of GPUs handles prefill, processing the prompt and writing the KV cache to ADI. A second pool handles decode, reading the cache back and generating tokens. With Scality ADI as the shared cache, any decode GPU can pick up any context, and there is essentially no size limit. Prefill no longer interrupts decode, and both pools run at full load." For a technical deep dive into the AI Inference Factory architecture and test results, visit Scality's companion blog. Open architecture provides flexibility across models, frameworks and hardware Scality AI Inference Factory is designed to preserve customer choice across the AI infrastructure stack. It is compatible with open-source harnesses and agentic frameworks such as OpenCode, Hermes, Goose, LangGraph and Pydantic AI, and runs validated open-weight models such as Mistral, Gemma, gpt-oss, Qwen, Kimi, GLM, and DeepSeek. The software deploys on standard servers from Dell, HPE, Lenovo and Supermicro. Every software component Scality ships is delivered as open code, enabling customers to inspect how inference state is stored and moved, and to submit contributions for Scality review. For organizations running sensitive, regulated or sovereign AI workloads, this provides transparency into the software handling their models and data rather than requiring them to rely on a closed external service. Scality ADI integrates with standard AI stacks and deploys at multi-petabyte scale on NVMe, with RDMA access to HDD for virtually unlimited KV cache capacity. A single namespace automatically tiers data across TLC, HDD and, optionally, tape, allowing organizations to align storage performance and economics with different stages of the AI data lifecycle. Availability Scality AI Inference Factory is available now as a software license or as a fully managed service. Scality is demonstrating the solution and its reference architecture at Scality Day on October 8 in Paris. To learn more, visit the Scality AI Inference Factory web page and detailed companion blog.
CTERA Networks bridging the gap between cloud storage and local storage. Liran Eshel, CEO, Co-Founder The explosive growth in unstructured data, the increased need to access files anywhere and from any device, and the desire to collaborate frequently across the distributed enterprise are all driving companies to use scalable, costefficient cloud storage technology to address these needs. Palo Alto based CTERA Networks caters to this need of both enterprises and service providers and in the process has created a buzz amongst the tech circles. The company enables its customers to use the cloud storage infrastructure of their choice whether private, public or hybrid, while ensuring end-to-end security and overcoming performance and scalability challenges. 'Single Pane Of Glass' Management Founded in 2008 by Liran Eshel, CEO, and Zohar Kaufman, VP R&D, the company provides a cloud storage platform that enables enterprises and service providers to create, manage and deliver cloud storage services, whether internal or external. The company's unique platform includes built-in functionality for file sync and share, hybrid on-premises/cloud backup,managed branch storage and mobile collaboration which is unified under 'single pane of glass' management. "Our platform extends storage infrastructure to make it "cloud enabled", and integrates with the majority of object-based and other scalable storage systems, as well as cloud service providers. CTERA is a technology vendor - we do not provide cloud services, but rather empower service providers and enterprises to do so," adds Eshel. It is the only company to provide a platform that addresses multiple cloud storage "killer apps" and supports both hardware and software-based deployment scenarios to optimize performance across remote office and branches,as well as mobile workers. Providing Game Changing Services CTERA's core development team originated from Check Point Software, so security is very much in the company's DNA and is embedded into all aspects of the company's solutions, which feature built-in source-based encryption and other security measures. The company's cloud storage platform is comprised of cloudside management software, cloud storage gateway appliances and ndpoint software agents for PCs and mobile. Customers can choose any mix of software/hardware to serve their storage, backup and file sharing needs in an optimal way. Active Directory integration, including support for the most complex AD forests, makes it easy for enterprises to deploy CTERA's solution, while global source-based de-duplication ensures optimal erformance over the WAN. CTERA integrates with storage infrastructure from EMC, IBM, HDS, OpenStack, Caringo, DDN, Scality and leversafe, as well as with public cloud providers such as AWS and Rackspace. Winning the Trust of Clients Due to its game changing technology, in a very short period of time, the company has won the hearts of many firms which include some of the Fortune 100 enterprises across multiple industry sectors including financial services,life sciences and energy. Major service providers also use CTERA's platform to drive their businessgrade cloud storage services.They include, among others, Telefonica, CenturyLink, Orange (France Telecom), Telecom Italia and Swisscom. With customers in production with 10,000s of appliances deployed and 100,000s of active users, CTERA's technology is proven to scale to very large deployments. CTERA plans to continue its good run and expand its platform both to support additional usecases as well as to extend further the value of cloud storage for security, compliance and data mining purposes in the future. Management Liran Eshel, CEO, Co-Founder and Zohar Kaufman, VP R&D, Co-Founder Description A provider of a cloud storage platform for enterprises and service providers, enabling the delivery of a suite of storage applications over the infrastructure of their choice
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Industries
Company Size
201-500
Company Stage
Series E
Total Funding
$175.4M
Headquarters
San Francisco, CA
Founded
2009
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