Navigating the Skies of Advanced Storage Security: Key Storage Protocols and Standards Aerospace Companies Should Be Aware Of

In the dynamic realm of advanced aerospace and engineering technology, safeguarding sensitive data is paramount. Whether designing cutting-edge aircraft or developing revolutionary space exploration technologies, robust advanced storage security protocols are critical. In this guide, we'll explore the importance of choosing storage solutions that meet stringent security standards for aerospace and advanced engineering companies. Additionally, we'll delve into key storage protocols and top technology providers meeting these standards.

The Importance of Stringent Advanced Storage Security Standards for Aerospace and Advanced Engineering Companies

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Aerospace and advanced engineering companies operate in highly competitive and regulated environments, where innovation and intellectual property are prized assets. Here's why choosing a storage solution that meets stringent security standards is crucial:

  1. Protection of Intellectual Property: Aerospace and advanced engineering companies invest significant resources in research and development to drive innovation. Intellectual property, including proprietary designs, patents, and trade secrets, must be safeguarded against theft, espionage, or unauthorised access. Choosing a storage solution with robust encryption and access controls ensures that sensitive intellectual property remains confidential and secure.
  2. Regulatory Compliance: Aerospace and advanced engineering industries are subject to strict regulatory requirements, especially when dealing with government contracts or international partnerships. Compliance with industry standards such as FIPS 140-2 and NIST SP 800-171 is essential to meet regulatory obligations and maintain the trust of customers and stakeholders. Selecting a storage solution that adheres to these standards demonstrates a commitment to security and regulatory compliance.
  3. Mitigation of Cyber Threats: The aerospace and advanced engineering sectors are prime targets for cyberattacks due to the high value of their intellectual property and the potential impact of security breaches. Cyber threats, including ransomware, data breaches, and industrial espionage, pose significant risks to companies' operations, reputation, and financial stability. By deploying storage solutions with advanced security features such as encryption, intrusion detection, and threat monitoring, companies can mitigate the risk of cyber threats and protect their critical assets.
  4. Preservation of Data Integrity: Data integrity is paramount in aerospace and advanced engineering applications, where accuracy and reliability are essential. Storage solutions that ensure data integrity through mechanisms such as cryptographic checksums and data validation safeguards against unauthorised modifications or tampering. Maintaining data integrity is critical for engineering simulations, testing, and analysis, where the accuracy of results directly impacts product performance and safety.
  5. Business Continuity and Resilience: Aerospace and advanced engineering companies rely heavily on data for decision-making, project management, and collaboration. Any disruption to data availability or loss of critical information can have severe consequences for project timelines, productivity, and profitability. Choosing storage solutions with built-in redundancy, disaster recovery capabilities, and data replication ensures business continuity and resilience, even in the face of unforeseen events such as hardware failures, natural disasters, or cyber incidents.
  6. Safeguarding Mission-Critical Operations: Imagine the stakes of a satellite launch or a critical flight operation. Protecting advanced storage ensures that mission-critical operations run without interruption. For example, backing up and protecting sensitive flight data is essential for maintaining safety and operational efficiency in the aerospace industry.

Understanding Key Storage Protocols and Standards

Now, let's delve into the key advanced storage security protocols and standards that aerospace and advanced engineering companies should consider:

  1. AES (Advanced Encryption Standard): AES is a benchmark in encryption, offering robust protection. Aerospace and advanced engineering companies can employ AES to encrypt data stored in various mediums, ensuring security against brute-force attacks.
  2. TLS (Transport Layer Security): TLS secures communication channels, mitigating risks of interception and tampering. Implementing TLS is crucial for aerospace and advanced engineering companies transmitting data across networks.
  3. FIPS 140-2 (Federal Information Processing Standards): FIPS 140-2 ensures cryptographic modules meet stringent security standards. Aerospace and advanced engineering companies must adhere to FIPS 140-2-certified solutions for cryptographic operations, safeguarding classified data.
  4. PKI (Public Key Infrastructure): PKI facilitates secure authentication and data exchange, enhancing access control and data protection across aerospace and engineering infrastructure.
  5. NIST SP 800-171: Compliance with NIST SP 800-171 is essential for aerospace and advanced engineering companies handling controlled unclassified information (CUI), ensuring data confidentiality and integrity.
  6. Blockchain Technology: Blockchain provides decentralised data storage and verification, suitable for aerospace and engineering applications requiring immutable records and enhanced data integrity.
  7. FIPS 197 (Advanced Encryption Standard - Rijndael): FIPS 197 defines the AES algorithm, ensuring interoperability and standardised cryptographic techniques for enhanced security.

Top Technology Storage Providers Meeting Advanced Security Standards

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With an understanding of the importance of stringent security standards and key storage protocols, aerospace and advanced engineering companies can now explore top technology providers offering solutions that meet these standards. Let's delve into some reputable providers:

  1. IBM: IBM's Spectrum Storage suite offers encryption capabilities and robust access controls, meeting FIPS 140-2 compliance requirements.
  2. IXSystems: IXSystems, renowned for its TrueNAS storage solutions, provides secure storage tailored for aerospace and advanced engineering needs. TrueNAS meets stringent security standards, including FIPS 140-2 compliance, ensuring data protection and regulatory compliance for critical engineering projects.
  3. Hewlett Packard Enterprise (HPE): HPE's Nimble Storage platform delivers high performance and data protection features, including FIPS 140-2 validated encryption, ensuring security for aerospace and advanced engineering data.
  4. NetApp: NetApp's storage solutions offer encryption at rest and in transit, meeting advanced security needs. Their ONTAP software supports FIPS 140-2 compliant encryption for effective data protection.

By partnering with these reputable technology storage providers, aerospace and advanced engineering companies can access cutting-edge solutions that meet advanced security standards, ensuring the protection, integrity, and availability of their critical data assets. In an era of rapid technological advancement and evolving cyber threats, investing in robust storage security is not just a choice but a strategic imperative for success and resilience in aerospace and advanced engineering industries.

Demystifying Traditional Data Storage Methods

Data storage refers to the methods and technologies used to record, preserve, and retrieve digital information. Over the decades, the mechanisms and media for data storage have undergone a transformative journey, shifting from the physical and tangible to the virtual and cloud-based, reflecting broader changes in technology and societal needs.

The evolution of data storage is a tale of constant innovation, marked by milestones from the rudimentary punch cards and magnetic tapes of the early computing era to the sophisticated solid-state drives and cloud-based solutions that dominate the world today. Each generation of storage technology has sought to address the growing demands for capacity, speed, reliability, and accessibility, driven by the exponential increase in data generation and consumption.

Modern storage solutions like cloud storage, network-attached storage (NAS), and object storage have taken center stage, offering scalable, flexible, and cost-effective alternatives to traditional storage methods. These modern approaches leverage the power of the internet and distributed computing to provide on-demand access to data from anywhere in the world, representing a significant shift from the physical limitations and locality of traditional storage.

Despite the allure of modern storage solutions, traditional data storage methods including encompassing magnetic, optical, and early solid-state technologies, remain relevant and widely used in various contexts. These traditional methods offer distinct advantages in terms of data security, and specific performance metrics, making them indispensable in some scenarios and industries.

Understanding Traditional Data Storage

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Traditional data storage describes a variety of physical media used to store digital information. Unlike modern cloud-based solutions that store data in virtualised environments, traditional storage relies on physical devices and media that must be manually managed and maintained. Traditional data storage methods include:

Types of Traditional Data Storage

  1. Magnetic Storage (Hard Drives, Tape Drives)

Magnetic storage devices store data by magnetising particles on a disk or tape surface. Hard drives (HDDs) and tape drives are common examples:

  1. Optical Storage (CDs, DVDs)

Optical storage devices use lasers to read and write data on discs made of polycarbonate plastic, coated with a reflective layer. CDs (Compact Discs) and DVDs (Digital Versatile Discs) are the most prevalent forms:

  1. Solid-State Storage (Early SSDs, Flash Drives)

Solid-state storage represents a shift from moving mechanical parts to electronic data storage. Early SSDs (Solid-State Drives) and flash drives store data on flash memory chips:

Despite the advancements in cloud and networked storage technologies, traditional data storage methods remain vital in numerous scenarios, from high-security environments requiring physical data control to applications where rapid local access to data is crucial. Understanding these technologies and their characteristics helps in making informed decisions about storage solutions that best meet specific needs and constraints.

How Data Storage Has Evolved

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Credit: YEAP!

The history of data storage is a fascinating journey through time, showcasing human ingenuity and the relentless pursuit of better, faster, and more efficient ways to preserve information. From the humble beginnings of manual data recording to the sophisticated digital solutions of today, each advancement in storage technology has been a response to the growing demands of data creation and consumption.

From Punch Cards to Magnetic Tape

The story of data storage begins with punch cards, used in the early 18th century for controlling textile looms. However, their significance in data storage was realised in the 19th century when Herman Hollerith developed a punch card system to process the 1890 U.S. Census data. This system dramatically reduced processing time from years to months, demonstrating the potential of mechanical data storage.

The next significant leap was the development of magnetic tape in the 1950s. Inspired by magnetic audio recording, magnetic tape allowed for much greater data density and faster access times than punch cards. Its portability and reusability made it a mainstay for data backup, archival, and even primary storage in the early days of computing.

Magnetic Disks: The Era of Hard Drives

The invention of the hard disk drive (HDD) in 1956 by IBM marked a pivotal moment in data storage, introducing random access storage and significantly increasing storage capacity and speed. The first HDD, the IBM 305 RAMAC, could store 5 million characters (about 5MB) and was the size of two refrigerators. This innovation laid the groundwork for the development of smaller, more efficient drives, leading to the widespread adoption of HDDs in both personal and enterprise computing environments.

Optical Storage: CDs and DVDs

As the digital age dawned, the need for higher-capacity, portable storage led to the development of optical storage technologies, such as CDs and DVDs, in the late 20th century. These media could store vast amounts of data compared to magnetic tapes and disks, with the added advantage of being immune to magnetic fields and environmental damage. CDs and DVDs became popular for distributing software, music, movies, and for personal data storage due to their durability and capacity.

Solid-State Drives: A Leap into the Future

The introduction of solid-state drives (SSDs) in the 21st century represented a significant technological leap. By storing data on flash memory chips rather than magnetic or optical media, SSDs offered faster data access times, lower power consumption, and greater durability. Despite their higher cost, SSDs have become increasingly popular for both consumer and enterprise applications, offering a glimpse into the future of data storage.

Comparing Past and Present

Each of these storage methods was revolutionary in its time, addressing the specific needs and technological limitations of the era. Punch cards offered a way to automate and speed up data processing; magnetic tape and HDDs increased storage capacity and access speed; optical media improved portability and durability; and SSDs have pushed the boundaries of speed and efficiency.

Today's requirements for data storage are built around the need for immense capacity, lightning-fast access speeds, and the flexibility to access data from anywhere. While cloud storage and advanced SSDs meet many of these demands, the legacy of traditional storage methods remains embedded in the fabric of current technologies. Their evolution reflects broader progress, with each innovation building on the last to create complex, interconnected modern data storage.

Advantages of Traditional Data Storage

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Cloud-based solutions often dominate the conversation around data storage, but traditional data storage methods continue to offer distinct advantages for businesses. These benefits are not merely relics of past practices but are highly relevant in addressing specific operational, financial, and security considerations in today's business environments. This section explores the enduring advantages of traditional storage methods that remain in use, such as magnetic storage (HDDs, tape drives) and solid-state drives (SSDs), focusing on cost implications, data sovereignty and security, and performance considerations for specific applications.

Cost Implications for Businesses

Data Sovereignty and Security

Performance Considerations for Specific Applications

While cloud-based storage solutions have become popular for their scalability and convenience, traditional data storage methods retain significant advantages for businesses. The choice between traditional and cloud storage should be guided by a comprehensive assessment of a business's specific needs, regulatory requirements, performance demands, and cost considerations. For many organisations, the optimal solution may involve a hybrid approach, leveraging the strengths of both traditional and cloud storage to achieve a balanced, efficient, and secure data storage strategy.

Traditional Data Storage Challenges

While traditional data storage methods offer significant advantages in terms of cost, data sovereignty, and performance for specific applications, they are not without their challenges. As businesses navigate the complex landscape of data management, understanding the limitations of traditional storage is crucial for making informed decisions. This section delves into the primary challenges associated with traditional data storage methods that are still in use today, such as magnetic storage (HDDs, tape drives) and solid-state drives (SSDs), focusing on scalability, maintenance and reliability, and the implications of energy consumption and physical space requirements.

Scalability Issues as Data Volumes Grow

Maintenance and Reliability Concerns

Energy Consumption and Physical Space Requirements

The challenges associated with traditional data storage underscore the importance of a strategic approach to data management. Businesses must weigh the benefits of cost, control, and performance against the challenges of scalability, maintenance, and operational efficiency. As the digital economy continues to evolve, and data becomes increasingly central to business operations, finding the right balance between traditional and modern storage solutions will be key to navigating these challenges effectively. For many, this may involve adopting hybrid models that leverage the strengths of both worlds, ensuring that data storage strategies are not only robust and secure but also adaptable and scalable.

Traditional vs. Cloud Storage

In the quest to optimise data storage strategies, businesses often weigh the merits of traditional storage methods against the capabilities of cloud storage solutions. This comparative analysis delves into five key parameters: cost, scalability, security, performance, and ease of management, providing insights into how traditional and cloud storage stack up against each other. Additionally, we'll explore specific use cases where traditional storage might still hold an advantage over cloud solutions.

Traditional StorageCloud Storage
Cost- Higher upfront investment in physical hardware.
- Potentially lower long-term costs for stable storage needs.
- Lower upfront costs with subscription-based pricing.
- Costs can scale with usage, potentially higher for extensive data storage needs.
Scalability- Limited by physical capacity; requires additional hardware for expansion.- Highly scalable; resources can be adjusted dynamically to meet demand.
Security- High level of physical control and security over data.
- Data sovereignty is easier to manage.
- Robust security measures in place, but concerns over data breaches and privacy.
- Compliance with data sovereignty laws depends on provider's data center locations.
Performance- Fast access speeds in local networks without dependence on internet connectivity.
- Predictable performance for specific applications.
- Performance can be influenced by internet speed and connectivity.
- Potentially variable performance due to shared resources.
Ease of Management- Requires manual management and maintenance of physical hardware.- Outsourced infrastructure management; less hands-on maintenance required.

Modern Use Cases for Traditional Storage

  1. Regulated Industries: In sectors where data sovereignty and security are paramount (e.g., finance, healthcare, government), traditional storage offers the physical control necessary to comply with strict regulatory requirements.
  2. High-Performance Applications: For applications requiring high-speed access to large volumes of data without latency (e.g., video editing, real-time analytics), local traditional storage solutions like SSDs and HDDs in closed networks can offer superior performance.
  3. Limited Internet Connectivity: In areas with unreliable internet access, traditional storage ensures that data access and business operations are not impacted by connectivity issues.
  4. Long-Term Archival: For long-term data archival where accessibility is less of a priority than preservation, traditional storage methods like tape drives offer a cost-effective solution with stable long-term storage conditions.

While cloud storage provides scalable, flexible, and maintenance-free storage solutions, traditional storage methods remain relevant and superior in specific contexts. The choice between traditional and cloud storage should be informed by a detailed assessment of an organisation's specific needs, regulatory environment, performance requirements, and cost considerations. A hybrid approach, leveraging the strengths of both traditional and cloud storage, often represents the most balanced and effective strategy for modern data management needs.

The Future of Data Storage

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Credit: Kilobaser

We are approaching a new era in data storage technology. Emerging trends and technologies, such as holographic storage and DNA storage, pose a future where the limitations of current storage methods could be transcended, offering unparalleled capacities and durability.

Emerging Data Storage Technology

  1. Holographic Storage: Holographic storage is a cutting-edge technology that records and reads data in three dimensions, significantly increasing storage density. By using light patterns to store data on photosensitive materials, holographic storage can potentially hold terabytes of data in a square inch, far surpassing the capabilities of traditional magnetic and optical storage. Its development could revolutionise data storage, offering massive capacities with fast access times.
  2. DNA Storage: DNA storage represents a paradigm shift, utilising the biological molecules of DNA to encode data. This method offers an almost inconceivable density, with the potential to store exabytes of data in a mere gram of DNA, along with longevity measured in thousands of years. While still in the experimental phase, DNA storage could ultimately provide a solution for the long-term archival of humanity's collective knowledge.

How Traditional Storage Can Still Yet Evolve

  1. Integration with Next-Generation Technologies: Traditional storage methods like HDDs and SSDs are likely to evolve by integrating with emerging technologies. For example, SSDs could see improvements in storage density and durability by adopting materials and techniques developed for holographic or DNA storage.
  2. Enhanced Performance and Efficiency: Future iterations of traditional storage technologies will likely focus on enhancing performance and reducing energy consumption. Advances in materials science and engineering could lead to more efficient data retrieval methods and storage mediums that are faster, more reliable, and consume less power.
  3. Hybrid Storage Solutions: As data storage needs become increasingly complex, we may see a rise in hybrid storage solutions that combine the strengths of traditional and next-generation technologies. For example, a hybrid system could use SSDs for fast access to active data, holographic storage for high-density archival, and DNA storage for ultra-long-term data preservation.
  4. Adaptation to New Computing Tech: Traditional storage methods will need to adapt to new computing technologies, such as quantum computing. This adaptation could involve developing storage media that can efficiently interface with quantum computers, ensuring that data storage does not become a bottleneck in computational speed and efficiency.

Out With The Old?

Not just yet. Despite the rapid advancements in technology that have ushered in the era of cloud storage, the relevance of traditional data storage methods persists, underscoring their indispensable role in specific industries and businesses. This enduring significance is not just a head-nod to the past but a reflection of the nuanced requirements of data storage that vary across industries, applications, and operational frameworks.

Traditional storage methods, including magnetic storage (HDDs, tape drives) and solid-state drives (SSDs), offer distinct advantages such as cost-effectiveness in long-term archival scenarios, superior performance in high-speed access environments, enhanced security for sensitive data, and unparalleled data sovereignty. These benefits remain critical for businesses operating in sectors where regulatory compliance, data privacy, and operational autonomy are paramount. Furthermore, in scenarios characterised by limited internet connectivity or the need for rapid data access within closed networks, traditional storage solutions stand unmatched.

Understanding the intricacies of traditional data storage is crucial for making informed decisions in a time where the temptation to leap towards the latest technology can overlook the specific needs of a business. The choice between traditional and cloud storage should not be seen as a binary one but rather as a strategic decision that considers a spectrum of factors including cost, scalability, security, performance, and management ease. For many organisations, a hybrid approach that marries the scalability and flexibility of cloud storage with the reliability and control of traditional methods offers a balanced path forward.

As we look towards the future, the evolution of traditional storage methods and their integration into next-generation solutions will continue to be shaped by emerging trends and technologies. This evolution will not render traditional storage obsolete but will instead redefine its role within the broader ecosystem of data storage solutions. The journey of data storage is one of continuous adaptation, where understanding the foundations of traditional methods enriches our capacity to navigate the future.

What is FreeNAS, ZFS and TrueNAS?

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Since 2020, FreeNAS has been known as TrueNAS Core, and is available for download from the TrueNAS website. There are several key differences between the renamed TrueNAS product solutions to be aware of:

FreeNAS users often tell us about their love of TrueNAS. Here's an overview of why ZFS makes them both awesome.

FreeNAS is the world’s number 1 storage OS with over 10+ Million Downloads, it includes Enterprise-Grade Features is built on Open Source (OpenZFS) and is BSD licensed.

ZFS is an enterprise-ready open source file system, RAID controller, and volume manager with unprecedented flexibility and an uncompromising commitment to data integrity. It eliminates most, if not all of the shortcomings found in legacy file systems and hardware RAID devices. Once you go ZFS, you will never go back.

TrueNAS systems are fully supported, based on the same open source technology which makes FreeNAS so great and offer a unmatchable level of availability by utilising Dual Controllers, ZFS, rigorous build processes and much more.

Why TrueNAS & ZFS?

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Copy-on-Write

​ZFS keeps your data safe. Utilising Copy-on-Write technology, ZFS does not change the location of data until a write is completed and verified. This ensures that your data isn’t lost during a interrupted task such as a power outage.

ZFS uses a 256-bit hash of the data in a file system block, known as a checksum. This checksum ensures data integrity during writes. The way it handles and tests writes means that each write is tested, eliminating storage degradation such as bitrot. It also eliminates the write hole which allows for silent data corruption within RAID.

RAID

Striped VDEV’s, Mirrored VDEV’s and Striped Mirrored VDEV’s are essentially the same as RAID0, RAID1 and RAID10 accordingly with one difference; automatic check summing prevents silent data corruption that is otherwise usually undetectable by most hardware RAID cards.

RAIDZ is the very similar to RAID5 but without the wrote hole penalty that is often encountered with RAID5. RAIDZ2 is the same as RAIDZ but with double parity to tolerate multiple disk failures (RAID6) and RAIDZ3 allows for a third parity point to allow for three drive failures.

Scalable

​ZFS can handle enormous data pools of up to 1.84 x 10^19 times more data than other 64bit systems such as BTRFS as it uses a 128-bit file system. It’s designed to allow for capacity that far outreaches that which would be used in the real world to ensure you don’t have to be concerned with scalability.

Intelligent

​ZFS sends writes to individual physical disks rather than just a RAID volume. This allows for stripe writes across RAID volumes and can perform synchronous writes to speed up performance. This model also ensure there are no long waits for file system checks.

ZFS incorporates algorithms to make sure your Most Recently Used (MRU) and Most Frequently Used (MSU) data are stored in your fastest system storage media. Utilizing MRU & MSU combined with flash/NVDIMM ZILs/SLOGs and ARC/L2ARC devices, you can speed up your performance astronomically.

Conclusion

​ZFS is a scalable, mature and incredibly secure file system that is built to last. It has many intelligent features and as it’s based on open source it has many different granular tweaks and functions that are available due to many individuals and organisations contributing to the development and testing of it. While ZFS can seem complex, the TrueNAS UI helps to simplify that to ensure that your experience with the platform is straightforward and seamless

We've deployed TrueNAS into many sectors, each customer having a wildly different but complex business case. Seeing TrueNAS in action, as well as organising proof of concepts has been instrumental in demonstrating the outstanding performance of these solutions. If you'd like to know more, contact us.

Hyper Converged - I don’t know what it is, but I want it!

Hyper Converged - I don’t know what it is, but I want it!

hyper

adjective

informal

  1. hyperactive or unusually energetic.
  2. "eating sugar makes you hyper"

converge

verb

past tense: converged; past participle: converged

  1. tend to meet at a point.
meet, intersect, cross, come together, connect, link up, coincide;

Oh how Life has changed.

12 years in IT, it used to be that everything was about complex lengthy consultancy intensive projects.

“You need a server sir? For virtualisation? Oh bear with me I will marshall my team of consultants. We will put together a bespoke, configured solution, build it, soak test then install it. It will take a week of consultancy time. £10,000, or maybe £20,000, actually probably best to budget for £50,000 because you want a scalable solution, and we do need project management time…. And UAT and OAT…And...”

Servers then became more of a commodity, clients began to send me the specification, usually nicked off Dells configurator, less bothered about vendor “it’s just a box”.

Storage! Another previously heinously complex area, compression, de dupe, connectivity, caching, iops and capacity measurement tools… arggghhhh

Now everything is Converging and its Hyper too, sounds important, like an urgent improvement, its Hyper for goodness sake!

But what is it? I want it but do I need it?

(Its surprisingly simple in concept actually)

Think of server virtualisation.

If you imagine how server infrastructure used to be architected, individual applications with their own physical server and OS, lots of apps meant lots of physical servers.

Then VMWare invent this clever software that pools the resources (processor, ram, disk) of the physical server(s) to allow this pool of resource to be shared among the applications as and when they need it. Taking that vertical stack of infrastructure and spreading it laterally, like someone had smeared the ink of your infrastructure diagram.

Then Citrix look at the beloved PC and how desktop applications are delivered, with all the processing power in ram and processors on the local PC, and they do the same, they take all of those apps and centralise them on the host, software defines how that virtualised desktop is served out to the simple thin client, maximising efficiencies, minimising effort.

So when you think about it, taking the storage, host, san switching and smearing that diagram again, or put another way adding more elements to that lateral pool was the next logical step.

So Hyper Convergence is just virtualisation of the Server, storage and SAN switching… simple.

But I want it, do I need it?

Yes, no, maybe?

Q - I like to sweat my assets, and I’m in a rolling host server refresh cycle, can I have Hyper Converged?

A - Kinda… you can buy Storvirtual VSA licensing, and pool the storage layer, but it’s only half the job, better to await a total refresh imho.

Q - I’ve got 2 years left on my VMWare licensing, can i use this?

A - Yes with Nutanix, Dells VSAN and HPEs Simplivitiy, Not with Scale.

Q - Do I need VMWare or Hyper V?

A - Neither actually, Nutanix and Scale have their own proprietary Hyper Visor (option with Nutanix, mandatory with Scale), even further simplifying the solution.

Q - What’s in the box?

A - Magic elves! - standard high spec servers, flash ssds, and spinning disks, and very clever proprietary software.

Q - Is it complicated?

A - No. and Yes. Relatively simple to size, usually preconfigured, minimising implementation. Modular boxes of clever stuff, that are almost plug and play. Complicated software, but not for the client, Management GUIs are drag and drop, the very definition of simplicity.

So, when you need a new virtual infrastructure, and words like modular, scalable, and above all, simplicity and reduced management are high on the agenda, it might be worth looking at ‘Hyper-ing’ your Convergence.

Good news is, we’re here to help you cut through the terminology and avoid the pitfalls and obstacles that so often appear on this type of project. Give us a nudge, we can help prescribe the right solution for you.

iXsystems TrueNAS is certified with Veeam Backup

You all know TrueNAS is amazing. We recently announced our partnership with Storage & Server heavyweight iXsystems, in the majority of our communications we were incredibly enthusiastic about the solutions and the company as a whole. It turns out that it wasn't just us, the latest news is that iXsystems have officially passed the Veeam Backup and Replication v9.5 for VMware certification tests for the TrueNAS Z-product line enterprise storage systems.

The complete certification includes the Z20, Z30, Z35 Hybrid Storage and the Z50 All-Flash Arrays, all running TrueNAS 9.10

As UK Preferred Partners of iXsystems, as well as long-standing Veeam Partners - we have experience with every detail of TrueNAS solution implementation, including planning, custom application and driver development, hardware qualification, hardware integration, testing, and deployment. Focus your energy on your core competencies - let us help you with the rest. Do you need storage for virtual machines? Servers for thousands of users? Computing power for advanced scientific software? If so TrueNAS could be the right fit for you.

You can read more about TrueNAS on our dedicated microsite by clicking here

Click here to ask us how you can join us on a webinar or web demo to find out more about this range of solutions.