Software-defined hardware

Extracted Attributes

• Core Concept

  Abstraction of hardware capabilities to be managed and configured via software

• Common Mechanism

  Over-the-air (OTA) updates for firmware reconfiguration

• Economic Benefit

  Higher margins through software subscriptions and SaaS models

• Related Paradigm

  Software-defined networking (SDN)

• Operational Benefit

  Continuous innovation via post-production software updates

• Strategic Importance

  Enables re-industrialization and deterrence in defense technology

Timeline

• Emergence of the OpenFlow protocol, which popularized the software-defined approach by separating the data plane from the control plane in networking. (Source: Wikipedia: Software-defined networking)

  2011-01-01

• Proprietary software-defined systems begin to emerge from companies like Cisco Systems and Nicira. (Source: Wikipedia: Software-defined networking)

  2012-01-01

• Anduril focuses on the Arsenal One initiative to mass-produce software-defined hardware and drones to counter modern defense threats. (Source: Document e9c5c429-1fba-4cb9-bb3d-c76940278f2d)

  2024-01-01

Software-defined networking

Software-defined networking (SDN) is an approach to network management that uses abstraction to enable dynamic and programmatically efficient network configuration to create grouping and segmentation while improving network performance and monitoring in a manner more akin to cloud computing than to traditional network management. SDN is meant to improve the static architecture of traditional networks and may be employed to centralize network intelligence in one network component by disassociating the forwarding process of network packets (data plane) from the routing process (control plane). The control plane consists of one or more controllers, which are considered the brains of the SDN network, where the whole intelligence is incorporated. However, centralization has certain drawbacks related to security, scalability and elasticity. SDN was commonly associated with the OpenFlow protocol for remote communication with network plane elements to determine the path of network packets across network switches since OpenFlow's emergence in 2011. However, since 2012, proprietary systems have also used the term. These include Cisco Systems' Open Network Environment and Nicira's network virtualization platform. SD-WAN applies similar technology to a wide area network (WAN). In addition to WAN use cases, SDN is also increasingly applied in telecom backbones, where it is paired with operational inventory and automation platforms to provide real-time visibility, service assurance, and simplified provisioning across multi-vendor networks.

Web Search Results

• Software-Defined Hardware - Programmable Hardware - GigaIO

  Let’s Talk GigaIO Let’s Talk # Software Defined Hardware ### With Software defined hardware, IT teams can easily adjust their hardware configurations to meet their compute needs. Software-defined hardware, also known as programmable hardware, is a technology that allows for the configuration and management of hardware devices through software. This allows for more flexibility and automation in the management of hardware resources, as well as improved scalability and performance. This technology is becoming increasingly popular in data centers, where it can be used to improve the efficiency and performance of servers, storage and networking devices. ### Software-Defined Hardware Benefits: ### How It Works FabreX Enables True Software Defined Hardware ### Related Resources [...] Niraj has over 20 years of industry experience in strategic and product marketing, product management, business development, customer applications and advanced silicon engineering. He has held senior leadership roles and led global, cross-functional teams to support these disciplines. Niraj was instrumental in driving numerous successful networking products at Nortel Networks, Quake Technologies, AppliedMicro, Snowbush, Gennum, Semtech and Rambus. He has defined, developed and supported carrier grade hardware and software for the world’s leading telecom, enterprise and cloud customers. His past projects include Ethernet PHYs, core Internet switches, metro optical routers, high-speed silicon IPs and PCI Express products. Niraj holds a Bachelor of Computer Engineering from McGill University [...] a Bachelor of Computer Engineering from McGill University and an MBA from Cornell University.

• Software for Hardware

  This is more than stacking new software onto old hardware. An emerging generation of hardware teams is adopting the principles that transformed software over the last two decades, creating a new end-product: software-defined hardware. These hardware platforms are designed by modern software, modular from the start, enable rapid iteration, and embed real-time intelligence as a foundational framework. [...] Beyond the engineering software stack, we need engineering and manufacturing solutions that can transform critical infrastructure. Chariot Defense is a prime example. By building software-defined hardware that fundamentally changes how power is delivered and distributed on the modern battlefield, they are providing a second life for traditional systems in the defense sector and enabling modern defense innovation. And companies like Re:Build, which is creating a new industrial platform to improve our advanced manufacturing capabilities, offer a window into a future redefined from first principles. With nearly forty percent of its team composed of engineers, Re:Build sits at the intersection of modern human-centric design, software-driven engineering, traditional manufacturing and digital [...] As great as this challenge is, it also presents a generational opportunity. This new era will be marked by a fundamental change, with the digital world catching up to the complexity of industrial environments. At the center of this shift is what we call software for hardware: an emerging category of purpose-built software tools and systems designed from the ground up for the challenges of the physical world.

• Software-Defined Hardware: Why the Future of Hardware is Software-First - Lotus Capital

  Margin compression due to commoditization and competition. Long product development cycles with limited flexibility post-production. By contrast, software-defined hardware companies gain critical advantages: 1. Higher Margins – The ability to charge for software subscriptions or unlock new features post-purchase increases lifetime customer value. 2. Continuous Innovation – Software updates allow companies to improve products after they leave the factory. 3. Network Effects & Data Flywheels – The ability to collect and act on user data enables better personalization and retention. ### Who is Leading the Charge? [...] ### What’s Next for the Industry? As software-defined hardware becomes the dominant model, venture investors should focus on startups that monetize software-first while maintaining hardware defensibility. The key questions for evaluating opportunities: Does the company have a recurring revenue model (SaaS, licensing, or software subscriptions)? How does software enhance or differentiate the hardware product? Can software updates extend the product’s lifespan, improving retention and margins? Companies that blend hardware innovation with scalable, high-margin software models will define the next generation of tech giants. [...] —where software controls, enhances, and extends the functionality of physical products—is reshaping industries from consumer electronics to industrial automation. Apple, Tesla, and Nvidia are prime examples of companies leveraging software-first strategies to maximize margins, drive recurring revenue, and create defensible moats. For investors, this model represents a massive opportunity: startups that adopt software-first principles in hardware markets can unlock new business models, improve gross margins, and avoid the pitfalls of commoditization. ### Why Software-Defined Hardware Matters Traditional hardware businesses face several challenges: High manufacturing costs and capital intensity. Margin compression due to commoditization and competition.

• Software-defined infrastructure - Wikipedia

  ## See also [edit] Infrastructure as code (IaC) which manages and provisions computer data center resources Software-defined networking (SDN), which separates network control logic from hardware devices Software-defined storage (SDS), which abstracts storage resources into software-managed pools Software-defined radio (SDR), where radio signal processing is implemented in software rather than hardware circuits Terms such as software-defined equipment (SDE) or software-defined apparatus (SDA) are sometimes used to describe hardware systems whose functionality is largely determined by software, though these terms are less standardized. ## References [edit] [...] Infrastructure management Software-defined infrastructure (SDI) is an approach to managing and provisioning computing infrastructure, such as compute, storage, and networking, through software-based abstractions rather than direct interaction with physical hardware. It builds on virtualization and automation to enable infrastructure to be configured, deployed, and managed programmatically. In cloud-based and software-defined environments, infrastructure is increasingly abstracted from underlying hardware, with greater emphasis on non-functional requirements such as performance and scalability. Despite this abstraction, system behavior remains dependent on the capabilities and limitations of the underlying physical resources. ## Embedded Systems [edit] [...] ## Embedded Systems [edit] In embedded systems, software-defined principles are often realized through firmware based control of hardware devices. A single hardware platform may support multiple functions depending on the software or firmware it runs. A common mechanism enabling this flexibility is over-the-air updates, which allow firmware to be updated remotely and wirelessly. This enables devices to be reconfigured, improved, or repurposed without requiring physical modification. ## See also [edit]

• Sampa: Software Defined Hardware

  Hardware specialization and domain specific accelerators have recently enjoyed renewed interest as a way to bridge the performance gap and reduce the energy cost of computation. Unfortunately, the current methodologies and approaches to hardware design require significant engineering effort and domain expertise making the design process unscalable. In particular, codesign of application domains with the underlying hardware architecture is a daunting architectural design space which takes additional manual effort. This project seeks to introduce programming language techniques such as program synthesis to the hardware design process to generate custom reconfigurable accelerators to reduce the engineering burden required to design them. private site [...] private site Computer Science & Engineering at the University of Washington