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The company argues that data loss incidents are accelerating due to a convergence of threats: ransomware, cloud misconfiguration, SaaS and AI sprawl, insider risks, supply-chain attacks, and infrastructure failures. At the same time, security budgets grow far more slowly than attack surfaces, making prevention alone insufficient. In this context, Plakar frames backup and rapid recovery as the “last line of defense” when all other controls fail.
Plakar’s central thesis is that today’s backup market is structurally broken. Proprietary formats, vendor lock-in, and incompatible tools create an illusion of safety, while real recovery often fails after attacks. Existing architectures force trade-offs between encryption and efficiency (deduplication), or between security and interoperability. Plakar proposes solving this through an Open Resilience Standard built on transparency, auditability, and zero-trust principles.

At the technical core is the Plakar agent, which packages data from filesystems, object storage, SaaS platforms, and databases into self-contained, portable units called Klosets. These Klosets are encrypted end-to-end, immutable, verifiable, deduplicated, compressed, and fully browsable and searchable. Plakar likens Klosets to what containers did for compute: a standardized, portable abstraction that decouples data protection from infrastructure. Data can be backed up anywhere, stored anywhere (cloud, NAS, tape), and restored everywhere—without proprietary dependencies.
A key differentiator is the Plakar Vault Storage Protocol, which enables “trustless delegation.” Data is encrypted client-side, and encryption keys never leave the customer’s control. Cloud providers or MSPs can manage storage tiers, replication, and SLAs on opaque data blobs, enabling resilience-as-a-service without exposing sensitive data or creating centralized attack targets. This approach aims to reconcile compliance, sovereignty, and cost optimization.

Plakar recently announced Plakar Enterprise, a unified backup posture management platform delivered as a virtual appliance. It adds role-based access control, multi-user management, secret management integration, orchestration, SLA monitoring, compliance reporting, and centralized visibility across on-prem, cloud, and SaaS assets. The open-source community edition remains free, with guarantees against vendor lock-in: restores are always possible without a license.

Overall, Plakar positions itself not merely as another backup product, but as an open ecosystem and emerging standard for data resilience - designed for an era where recovery certainty, not just protection, determines business survival.
A fresh approach for a domain very often ignored or mis-addressed by companies and we expect a similar trajectory liek with see from famous usual suspects.

HyperBunker’s mission is to make recovery certain when everything else breaks down. Its vision is to establish a global standard for offline resilience, based on the principle that attackers can only compromise what they can reach. As ransomware attacks increase in scale, speed, and sophistication—accelerated further by AI-driven intrusion techniques—the presentation argues that traditional, credential-based and cloud-connected security models have become fundamentally unreliable. Industry data shows that most attacks remain undetected, that full domain compromise is often trivial, and that even well-funded security stacks frequently fail to stop modern ransomware variants.
The core problem HyperBunker addresses is not prevention, but guaranteed recovery. Organizations depend on a small set of trust-critical data—identity systems, financial records, operational configurations, regulatory archives, and customer or partner data. If these datasets are lost or corrupted, business continuity collapses regardless of how advanced other IT systems may be. HyperBunker is designed specifically to protect this “data that keeps organizations alive.”
Technically, HyperBunker is a fully offline, physical data vault. It has no credentials, no cloud APIs, and no external connectivity, making it unreachable by attackers. Data enters the system through a patented “butlering” unit that acts as a controlled airlock, enforcing double physical air-gapping between connected environments and the offline vault. Once inside, data is stored as immutable copies, with the most recent versions always preserved. Because the vault is never online, it is inherently resistant to ransomware, insider threats, credential theft, and even future quantum-based attacks.
HyperBunker is deliberately hardware-based, rejecting software-only or “logical air-gap” approaches that remain accessible through networks, credentials, or misconfigurations. The presentation contrasts this with cloud and software-defined backup systems, which may claim immutability or air-gapping but still expose attack paths. HyperBunker’s philosophy is simple: if attackers cannot see or reach the system, they cannot compromise it.
The solution is targeted at essential and highly regulated industries, including critical infrastructure, finance, healthcare, energy, manufacturing, and government. In these environments, downtime is not merely an IT inconvenience but a regulatory, safety, and operational failure. Validation includes more than 80 technical demonstrations, strong interest from insurers—most notably a listing by U.S. cyber insurer Cowbell—and early discussions with defense innovation organizations, all reinforcing the value of true offline recovery.

HyperBunker is delivered as Hardware-as-a-Service through a subscription model that includes the device, support, SLAs, and regular restore testing. This approach provides predictable costs while avoiding the unpredictable, often catastrophic financial impact of ransomware incidents. The company is backed by venture capital, has already delivered its first production units, and is scaling manufacturing and partner networks across Europe and beyond.
Overall, HyperBunker presents itself not as another cybersecurity tool, but as a governance-grade resilience layer—a final, untouchable vault that ensures organizations can recover when all connected systems fail.
We'll see how the company will penetrate the market in the coming months.
The firm introduced its flagship product high9stor, a TCO-optimized, scale-out enterprise secondary storage platform designed for backup and archival workloads. Led by CEO Cezary Dubnicki, formerly Head of Storage at NEC Labs Princeton, the company builds on more than 16 years of real-world experience delivering and supporting NEC HYDRAstor, one of the earliest and most scalable global-deduplication backup systems deployed at exabyte scale without data loss.

9LivesData positions high9stor squarely at the intersection of exponential data growth and rising infrastructure costs. The company targets the enterprise secondary storage market, where backup volumes continue to expand while organizations struggle with shrinking backup windows, slow restores, ransomware threats, and escalating total cost of ownership. The central promise of high9stor is to reduce TCO by around 20% today, with a roadmap toward 30% savings, without compromising performance, resiliency, or availability.
high9stor is a software-defined, scale-out backup storage system built on commodity hardware. Using dense 1U nodes with up to 240 TB per rack unit, it scales linearly to roughly 180 nodes and more than 40 PB of raw capacity. Capacity and performance grow together as nodes are added, avoiding the bottlenecks typical of scale-up architectures. The system employs inline global deduplication and compression, significantly reducing stored data volumes while also accelerating backup ingestion.
A core architectural differentiator is the use of distributed, multi-controller algorithms. Background operations such as space reclamation, rebalancing, and integrity checks are executed in parallel across all nodes, rather than by a single controller. This allows high9stor to reclaim capacity in hours instead of weeks, even at very high utilization levels. The platform is designed for non-stop operation, supporting online expansion, hardware refresh, and up to three generations of nodes in a single cluster, eliminating forklift upgrades.
High availability and durability are achieved through erasure coding, allowing the system to tolerate multiple disk or node failures with far lower capacity overhead than traditional replication. Integrated WORM (write-once, read-many) functionality, combined with object lock support and tight integration with leading backup applications, provides strong protection against ransomware and accidental deletion. WAN-optimized, dedup-aware replication enables efficient disaster recovery across sites.

Compatibility with existing backup ecosystems is a key focus. high9stor supports standard interfaces such as NFS, CIFS, and S3, as well as deep integrations with major backup vendors including Cohesity NetBackup (OST), Veeam, Commvault, and Nakivo. This allows enterprises to consolidate multiple backup streams into a single global deduplication pool while preserving application-specific optimizations.
From a business perspective, high9stor is sold as a software subscription priced by raw capacity per month, making costs transparent and predictable. The company targets large enterprises, financial institutions, telecoms, utilities, healthcare, media, and government organizations, with a particular focus on EMEA and Central Asia. Real-world case studies, including large financial institutions operating hundreds of nodes across multiple data centers, underline the platform’s maturity and operational stability.
Overall, 9LivesData presents high9stor as a next-generation backup storage platform that combines proven architectural principles, modern scale-out design, and aggressive TCO optimization—positioning it as a compelling alternative to traditional backup appliances and legacy scale-up systems in an era of relentless data growth.
We'll make some checks at different to measure progress of the team and product on the market in the coming months.

ewigbyte frames the challenge through powerful macro trends. Data volumes are growing faster than enterprise storage production capacity, creating a projected supply gap of roughly 15 zettabytes by 2030, or around 50% shortfall. At the same time, storage costs are rising sharply, with hard drives and SSDs experiencing double-digit annual price increases. The industry’s dependence on HDDs, SSDs, and magnetic tape - technologies that are decades old and prone to failure, degradation, and environmental risk - makes the current trajectory unsustainable in terms of energy use, electronic waste, water consumption, and CO₂ emissions.
The company’s core proposition is to rethink cold storage from first principles. Instead of optimizing for density and write speed, ewigbyte prioritizes durability, security, and minimal climate impact. Its solution is based on writing data directly onto glass using photonic technology. Data blocks are "burned" into ultra-thin glass media with ultra-short pulse UV lasers and structured light modulators, without toxic coatings. The result is a write-once, immutable storage medium designed to last more than 10,000 years, resistant to heat, humidity, electromagnetic pulses, radiation, and cyber threats such as ransomware. Because the stored data requires no power to maintain, its operational climate impact is effectively zero.
ewigbyte emphasizes that glass ablation is not experimental science but a proven industrial process already used in other manufacturing contexts. The company’s innovation lies in its modified optical system and its ability to integrate laser writing, robotics, and physical data warehousing into a scalable storage service. Rather than conventional data centers, ewigbyte envisions physical data warehouses where glass-based storage cubes are catalogued, stored securely, and retrieved when needed.

From a market perspective, ewigbyte positions itself as a long-term successor to tape and HDD-based archives. As SSDs dominate hot and warm data tiers, cold data will increasingly migrate to optical and photonic media. The company outlines a staged go-to-market approach, beginning with paid pilot projects focused on WORN (write once, read never) use cases, followed by WORM archival data centers, and eventually scaling toward broader cold and warm data services as economies of scale are achieved. Key applications include compliance archives, backups, hyperscaler archives, and data sets with low read frequency but strict durability and sovereignty requirements.
The roadmap projects an MVP in 2026, the demonstration of the first dedicated archival data center by 2028, and large-scale operational facilities by 2029. Supported by an experienced founding team with legal, technical, and industry expertise, ewigbyte presents itself as a foundational technology company aiming to redefine how humanity preserves data for centuries - shifting cold storage from an energy-hungry liability into a permanent, sustainable asset.
We'll monitor carefully the progress made by the team as it is a key European initiative.












