Why the “Viral” Wearable AI Pin Failure Triggers a Shift to “Smart Frames”

SAN FRANCISCO, Calif.  The rapid disappearance of independent AI pin devices has opened a new path for consumer technology development, as Meta and Apple had to redirect their research efforts toward advanced eyewear computing systems after encountering serious hardware development issues.   

The transition marks a major turning point for both Smart Frames and the broader Wearable AI market, as companies rethink how they use artificial intelligence in commercial products that rely on small electronic devices.   

What initially appeared to be the next breakthrough category in personal AI devices is increasingly being viewed as an unsustainable hardware form factor.  

Why AI Pins Struggled Technically  

The AI pin devices attracted public interest because they offered users access to artificial intelligence via voice commands and a lightweight design that did not require a screen.   

The actual implementation revealed significant engineering issues that affected battery performance, processing capacity, and continuous temperature control.   

The main difficulty that needed resolution was Thermal Throttling, which reduced device performance to protect against overheating during heavy AI processing.   

The practical functionality of several wearable AI pin systems was affected by this restriction.  

Smart Frames Offer More Hardware Flexibility  

The transition to Smart Frames demonstrates how glasses-based systems provide a more efficient distribution of processing units, sensors, audio equipment, and battery components.   

Manufacturers can use eyewear platforms to create more effective heat-dissipation and power-management systems than they can with small wearable pins.   

Smart Frames deliver superior performance as a permanent solution for sophisticated AI interaction.   

The category has now emerged as a critical element for upcoming consumer AI hardware development plans.  

Wearable AI Moves Toward Spatial Computing  

The broader development of Wearable AI technology now emphasizes multimodal interaction systems rather than basic voice-driven virtual assistants.   

Future systems will use audio, visual overlays, contextual sensing, and real-time AI assistance to create ongoing user experiences.   

The transition leads companies to develop more advanced wearable systems with multiple functions rather than basic devices, creating complete user experiences through their eyewear products.   

The growth of Wearable AI technology now depends on advances in spatial computing.  

Meta Ray-Ban Gains Strategic Importance  

The increasing popularity of Meta Ray-Ban smart glasses shows that wearable AI devices will evolve from existing consumer product designs rather than requiring new types of devices.   

Glasses enable users to wear AI assistants while they use their built-in microphones, cameras, and speakers for daily activities.   

The performance limitations affecting AI pins have therefore increased confidence in smart glasses as a more scalable consumer adoption pathway.   

Meta Ray-Ban’s strategic value in the wearable technology market has increased.  

Apple Glass Development Accelerates  

The current industry trend is driving greater focus on Apple Glass projects that Apple has been developing for many years.   

The future development of computing platforms will increase the importance of wearable displays and contextual assistance systems, as AI capabilities become embedded in consumer products.   

The existing restrictions on AI pins will drive companies to invest in glasses-based systems that can deliver advanced AI capabilities.   

The emergence of Apple Glass as a significant hardware category for future development.  

Thermal Throttling Limits AI Processing  

The successful operation of large language models and contextual AI systems requires massive computing resources, generating substantial thermal energy during active inference. Pins that are worn in a small size do not have sufficient thermal capacity to withstand those workloads for an extended period. 

The hardware limitation directly led the industry to adopt Smart Frames as its new standard.  

AI Hardware Strategy Is Changing  

The decline of interest in AI pins has led companies to reconsider their complete approach to AI hardware development.   

Manufacturers now design products that balance portability with essential thermal protection, power capacity, and multiple user modes.   

The consumer AI device market has reached a new stage of development, which shows increasing maturity.   

The next generation of AI Hardware will focus on developing practical user functions that solve real-world problems rather than creating new technological methods.  

Consumer Tech Competition Intensifies  

The developing wearable market is driving increased competition across the entire Consumer Technology sector.   

Companies are competing to build superior ecosystems for their AI-based wearable devices, which they need to establish before mainstream users start adopting their products.   

Smart glasses will become the primary interface, connecting smartphones to cloud AI systems, augmented reality tools, and personal digital assistants.   

The future of Smart Frames is strategically significant because its value extends beyond hardware sales.  

The Death of the AI Pin Concept  

The broader death of the “AI Pin” and the rise of spatial audio-visual wearables reflect the reality that successful consumer devices must integrate naturally into existing user behavior patterns.  

AI pins failed to function properly because their design required users to learn new ways of interacting with the system, while the system provided unpredictable results.   

The smart glasses market builds upon existing social acceptance of smart glasses, which users already know as a familiar form of wearable technology.   

This factor provides them with a significant edge, enabling customers to adopt their products for an extended period.  

Wearable AI Expands Into Daily Computing  

The future of Wearable AI will develop systems that provide ongoing user support through voice interaction, contextual awareness, translation, navigation, messaging, and real-time information retrieval.   

The vision requires hardware that can perform AI inference without generating excessive heat or depleting battery capacity.   

The industry is increasingly unifying its operations around Smart Frame architectures because they meet its needs.  

The Future of Spatial Wearables  

Future wearable systems will combine spatial audio with lightweight visual overlays, environmental awareness, and AI-generated contextual assistance, creating single-consumer platforms.   

The speed of technology adoption will depend on advances in processor performance, improvements in battery efficiency, and developments in thermal management.   

The current market trend indicates that glasses-based devices have become the primary option for future development.  

Conclusion: Smart Frames Become the New AI Frontier  

The first major shift in consumer artificial intelligence hardware development occurred through the reduction of AI pin devices.   

The current state of Wearable AI development shows a trend toward Smart Frames and immersive glasses-based systems, as companies seek to overcome three major challenges: Thermal Throttling, battery limitations, and processing power constraints in small devices.   

The growing importance of products such as Meta Ray-Ban and potential future platforms like Apple Glass highlights how the next generation of AI Hardware may center around continuous spatial interaction rather than standalone AI gadgets.   

The future trajectory of the global Consumer Tech industry faces a potential transformation driven by developments from Meta and Apple, which signal the decline of AI pin technology and the emergence of spatial audio-visual wearables.

Source: Meta Newsroom 

How Tesla’s “Optimus Gen 3” Spec Leak Resets the Logistics Labor Market

PALO ALTO, Calif. — The latest leaked Tesla humanoid robot specifications are now sparking further contention between the manufacturing and logistics sectors, as reports indicate that Optimus Gen 3 will deliver significant improvements in tactile detection and actuator performance.   

According to leaked details, the new robotic architecture will enable a 400 percent increase in fine-touch responsiveness, allowing humanoid systems to complete tasks that current robots cannot handle, such as delicate electronics assembly and precise warehouse operations.   

The development is accelerating industry discussions about Tactile Robotics and automation economics, as well as the future changes that will affect the U.S. labor market.  

Why Tactile Robotics Matters  

Traditional industrial robots operate best in manufacturing environments that require them to repeat the same tasks throughout their work period.   

The system faces challenges when handling sensitive tasks that require specialized pressure control, object identification, and precise hand movement.   

Tactile Robotics introduces new possibilities by enabling machines to understand physical feedback through enhanced sensory system accuracy.   

The ability to handle fragile materials is crucial across all operations, including electronic component manufacturing, packaging, and warehouse management.  

Optimus Gen 3 Expands Robotics Capabilities  

The leaked Optimus Gen 3 specifications demonstrate significant progress in robot movement and navigation across different environments.   

Robots will gain improved grip strength and control, object texture identification, and enhanced assembly task performance through the advanced tactile sensing system.   

Humanoid robots will gain new operational capabilities as this technology expansion creates additional environments for their work.   

The development of Optimus Gen 3 will drive all industrial fields to adopt robotics systems capable of performing multiple functions.  

Tesla Bot Strategy Moves Beyond Demonstration  

The present state of the Tesla Bot project shows that humanoid robots are moving from their testing phase toward their first commercial implementation.   

Early humanoid systems faced three main challenges: their inability to handle objects precisely, their failure to navigate accurately, and their lack of operational effectiveness.   

The development of advanced tactile systems and intelligent AI Actuators has created new possibilities to solve existing challenges.   

The growing demand from investors and businesses for robotics solutions to expand workforce capacity has created a new trend in the industry.  

AI Actuators Improve Real-World Adaptability  

Research focuses on developing AI-powered actuators that generate machine motion by understanding and processing environmental conditions.   

AI-based actuators enable continuous system evolution by continuously receiving input on operational challenges, environmental conditions, and their resistance to movement.   

The technology enables humanoid robots to operate effectively in unstructured environments that require precise control of their movements.   

AI Actuators are now fundamental components throughout the development of upcoming robotics technology.  

Warehouse Automation Gains New Momentum  

The implications for Warehouse Automation could be especially significant.   

Current warehouse robotics systems perform specialized functions by handling repetitive tasks, including inventory movement and package sorting.   

Humanoid robots equipped with advanced tactile capabilities can perform a range of operational tasks, including item picking, electronic handling, and adaptive packaging workflows.   

The system expansion would create automated processes that operate beyond conventional fixed-function robotic systems.  

Labor Market Concerns Intensify  

The growth of humanoid robotics technologies has intensified discussions about how advanced automation systems will shape future Labor Market outcomes.   

The manufacturing and logistics sectors employ millions of workers in repetitive operational roles that may eventually be partially automated.   

The commercial deployment of Optimus Gen 3 systems will enable companies to reduce their reliance on human workers to handle specific tasks in warehouse and assembly environments.   

The current situation has sparked intense debate over how economic changes will affect job displacement and workforce restructuring.  

Robotics ROI Becomes More Attractive  

The evolving financial aspects of humanoid automated systems have driven greater interest in Robotics ROI metrics.   

The commercial deployment of humanoid systems faced historical limitations because their operational costs and technical capabilities were considered excessive at that time.   

The development of more efficient batteries and tactile sensing technology, together with AI-powered coordination systems, will lead to substantial operational ROI improvements across multiple business periods.   

Robotics ROI calculations show more favorable results for business adoption as their performance levels increase.  

Amazon and Competitive Logistics Pressure  

All logistics companies need to monitor developments in humanoid robotic technology, as these robots will determine how efficiently their warehouses operate, which, in turn, will affect their total costs.   

If advanced humanoid systems reduce labor dependency while maintaining operational flexibility, competitors will accelerate their automation investments to remain cost-competitive.   

The industry’s distribution and manufacturing networks will experience increased automation adoption as a result of this development.  

Predictive Impact on Manufacturing Labor Costs  

The broader predictive impact of humanoid robotics on U.S. manufacturing labor costs may become one of the defining economic questions of the next decade.  

The widespread use of tactile-capable robotics systems will decrease operational costs for industries that rely on their workers to perform repetitive physical tasks.   

The process of automation will change the need for workers, creating demand for professionals who maintain robots, operate artificial intelligence systems, and manage infrastructure systems.   

The labor impact will result in both workforce disruption and transformation, as it will not lead to complete worker replacement.  

Tactile Robotics and Industrial Flexibility   

Tactile Robotics’ ability to operate across various industrial sectors is the main reason for its current popularity.   

Humanoid robotic systems can handle different workflows because they do not need facility redesigns, unlike traditional industrial robots, which have fixed operational boundaries.   

The various applications of this solution can help organizations in their warehouse, manufacturing, healthcare logistics, and retail fulfillment systems.  

The Future of Humanoid Automation  

Future industrial automation systems will use human-like robots that can function in spaces designed for human access.   

The system allows organizations to save on facility redesign costs while expanding their operations through robotic workforces.   

The speed of this transition will depend on progress made in AI actuators, mobility systems, and tactile feedback technology.  

Conclusion: Robotics Enters a New Economic Phase  

Humanoid robots are reaching a critical stage in their technological development, according to the leaked data about Optimus Gen 3 specifications.   

Businesses see humanoid systems as suitable solutions for Warehouse Automation and manufacturing support because Tactile Robotics, AI Actuators, and adaptive movement systems enhance operational accuracy.   

The growing focus on Robotics ROI and the long-term effects on the U.S. Labor Market indicate that automation is no longer limited to repetitive industrial machinery alone.   

Tesla developments and Amazon’s business interests indicate that humanoid robotics will drive a major economic transformation in U.S. manufacturing labor costs over the next 10 years.

Source: Tesla Blog 

What “Hardware-Root-of-Trust” Patents from Intel Mean for Cloud Security

SANTA CLARA, Calif. — New patent filings connected to Intel are drawing attention across the cloud industry after the company secured patents related to “Dynamic Root of Trust” verification during active AI inference operations.   

The development signals a broader shift toward hardware-level security systems designed to protect AI workloads in shared cloud environments.   

The adoption of sensitive AI systems by enterprises requires organizations to implement Hardware Root of Trust frameworks together with advanced AI Inference Security controls.  

Why Hardware-Level Trust Matters in AI Systems  

Traditional cybersecurity protections typically focus on software-based security measures, such as authentication and encryption, as well as network monitoring systems.   

AI systems create new security threats because their models use extremely confidential business, medical, financial, and governmental information during real-time operations.   

The current trend shows businesses requiring Hardware Root of Trust systems that can authenticate platform security by directly assessing silicon and firmware components.   

The objective requires AI workloads to function exclusively in environments that security experts have verified are free of breaches.  

AI Inference Security Becomes a Strategic Priority  

The rapid expansion of enterprise AI usage is creating AI Inference Security as a critical new field that organizations must protect within their cloud cybersecurity systems.   

The process of running AI models for inference requires continuous operation and handles sensitive data within cloud systems.   

Attackers who gain access to inference systems can use their position to create fake outputs while stealing model data and collecting protected training materials.   

The need to better protect their assets drives companies to invest in advanced security systems that rely on hardware-based protection.  

Dynamic Root of Trust Expands Security Beyond Boot Processes  

Traditional root-of-trust systems usually perform hardware and firmware integrity checks during system booting.   

The new patented method claims to extend system verification beyond startup by conducting ongoing system checks during active AI processing.   

The development of Hardware Root of Trust architecture design changes will enhance security protection for cloud environments that experience continuous workload transitions between different compute resources.   

The need for runtime validation has arisen due to the growing security risks posed by real-time attacks on cloud-based AI systems.  

Intel SGX and Confidential Workload Isolation  

The development of confidential computing systems has received major support from Intel SGX and similar technologies, which create secure execution environments that run within processor chips.   

The enclaves maintain the security of confidential information and software applications, protecting them from the dangers of a complete operating system breach.   

The development of AI Inference Security features indicates that upcoming systems will combine runtime attestation methods with secure execution environments to deliver enhanced protection for artificial intelligence systems.   

This security enhancement will increase trustworthiness for businesses that implement artificial intelligence systems across their shared resource computing environments.  

AMD SEV and Competitive Cloud Security Models  

The market for confidential computing solutions extends beyond its current offerings to include AMD SEV systems, which secure virtual machine memory through encryption to protect their workloads from unauthorized access.   

The battle between Intel SGX and AMD SEV demonstrates that hardware-based security isolation has become essential for developing secure cloud environments.   

As more businesses adopt AI technology, providers are developing more advanced infrastructure solutions to meet their growing needs for secure, confidential computing.   

The competition will grow stronger because companies need to meet the security needs of enterprise AI systems.  

Confidential Computing Gains Momentum  

Confidential Computing has developed as a result of changes in cloud trust architecture.   

The system needs to protect data during processing in memory and compute environments, as perimeter security measures alone are not sufficient.   

AI workloads depend on this feature because inference systems need to process both proprietary models and sensitive business data.   

The integration of Hardware Root of Trust mechanisms further strengthens these protections.  

AI Model Protection Becomes Essential  

The rising need for AI Model Protection stems from the growing value of proprietary AI systems, which companies own as confidential assets.   

Enterprise AI models store three types of protected information: confidential business logic, sensitive training data patterns, and highly valuable intellectual property.   

Attackers targeting inference systems may attempt to steal models, manipulate outputs, or infer sensitive information from runtime behavior.   

The demand for AI Inference Security technologies dedicated to model protection has increased because of this requirement.  

Multi-Tenant Cloud Risks Continue Expanding  

One of the main challenges cloud providers face is protecting artificial intelligence systems that operate across multiple tenants.   

Cloud platforms use shared hardware to run multiple organizational workloads because this approach provides better operational efficiency and system capacity growth.   

The current system requires organizations to establish secure boundaries between applications and to develop mechanisms to monitor their operational status throughout execution.   

Confidential Computing will depend on advanced Hardware Root of Trust capabilities that must function continuously during inference execution for its upcoming development.  

The Future of Confidential AI in Shared Infrastructure  

The broader future of “Confidential AI” in multi-tenant cloud environments is becoming one of the most important strategic questions in enterprise cloud security.  

The organizations need to implement security measures to ensure that their artificial intelligence operations remain separate from both infrastructure personnel and neighboring users, as well as from all outside threats.   

The organization needs to use runtime attestation systems with secure enclaves to fulfill its security requirements.   

The upcoming changes will establish new standards for the design and validation of cloud-based artificial intelligence systems.  

Intel’s Role in Hardware Security Evolution  

Intel’s most recent patents demonstrate that chip manufacturers now integrate security features directly into their processor designs.   

The company needs to establish runtime trust verification because the industry now recognizes that AI systems require greater security than standard business operations.   

The development of Hardware Root of Trust technologies will emerge as a crucial element shaping the future of cloud services.  

Cybersecurity Moves Closer to Silicon  

The development of hardware-based AI security solutions shows that cybersecurity now protects physical infrastructure systems.   

Future systems will establish continuous trust verification through processor, firmware, and memory protection, which goes beyond software security measures.   

The upcoming changes will increase organizational trust in their secure AI deployment methods that handle confidential information.  

Conclusion: Hardware Security Redefines Cloud Trust  

Intel’s new dynamic trust verification patent system demonstrates that enterprise cloud security protection has undergone a significant transformation.   

Next-generation cloud architecture now requires hardware-level validation systems because organizations focus on Hardware Root of Trust, stronger AI Inference Security, and advanced AI Model Protection.  

The rising need for secure AI execution environments that protect sensitive workloads in shared infrastructure systems has led to increased adoption of Intel SGX, AMD SEV, and Confidential Computing frameworks.   

Multi-tenant cloud environments for Confidential AI will establish hardware-backed trust systems as essential requirements for enterprises to implement AI solutions at scale.

Source: Intel Newsroom 

Which Zero-Day in SimpleHelp Reveals the Weakness in Remote IT?

OTTAWA, Kan. — The Cybersecurity and Infrastructure Security Agency issued a new advisory, stepping up efforts to investigate remote administration software, after publishing details of the security vulnerability CVE-2024-57726 affecting the SimpleHelp remote support system.   

The incident has highlighted broader issues affecting Remote IT Security, as current remote management systems do not properly manage authentication, API security, and technician access in business environments.   

The software problem, which initially appeared to be limited to one system, has now revealed fundamental design flaws across the entire remote support system.  

Why the SimpleHelp Vulnerability Matters  

Remote support tools are essential components of enterprise IT systems because they enable technicians to troubleshoot systems and manage infrastructure from any location.   

The systems grant users extensive access rights, allowing them to access all network resources, thereby attracting the attention of cybercriminals.   

The SimpleHelp Vulnerability revealed security flaws in both the API authentication and the privilege-handling system.   

The situation now enables a better understanding of how remote management systems protect their administrative operations when implemented across larger systems.  

Remote IT Security Faces Growing Pressure  

Organizations increasingly rely on remote management solutions as hybrid work models, distributed systems, and cloud-based endpoint management systems become more prevalent.   

Remote IT Security has emerged as a crucial component for enterprises to develop effective cybersecurity strategies.   

Attackers can gain unauthorized system access through a remote support system breach, enabling them to control internal networks, user devices, and administrative processes.   

The SimpleHelp Vulnerability poses major security risks for enterprises due to multiple weaknesses.  

API Key Escalation Creates Hidden Risks  

The incident involves multiple serious problems, but its most critical issue is the potential for API Key Escalation attacks.   

Remote support systems use API keys as their primary method of authentication for automated services, system integrations, and technician work.   

Attackers can use improperly protected low-privileged access tokens to elevate their access rights and gain greater control over the system.   

The reported API Key Escalation concerns highlight how authentication weaknesses can evolve into enterprise-wide security incidents.  

CISA KEV Inclusion Signals Serious Threat Level  

The CISA KEV catalog received heightened attention because it included the vulnerability, which became the main focus of investigation.   

The Known Exploited Vulnerabilities list is typically reserved for security flaws considered actively dangerous or widely exploitable in real-world environments.   

The SimpleHelp Vulnerability, which CISA KEV added, shows that government agencies consider exploitation threats to their operations as critical dangers.   

The situation has forced organizations to accelerate their patching processes and conduct remote access security assessments.  

Ransomware Precursor Risks Increase  

The security analysts observed that attackers first target privileged administrative systems before launching extensive attacks, which makes remote management vulnerabilities a potential Ransomware Precursor.  

Organizations face security risks because attackers can use a compromised remote support platform to access all endpoints within their network.   

Attackers use this method to spread across the network while installing harmful software, and they disable security systems before launching ransomware attacks.   

The SimpleHelp Vulnerability demonstrates that remote management systems are high-value targets that attackers can exploit.  

Remote Support Platforms Expand Attack Surfaces  

Remote Support software has become common in the workplace, leading to increased cybersecurity threats that organizations must defend against.   

Organizations depend on these platforms for their operational needs because they work efficiently in hybrid and distributed work environments.   

Whenever hackers gain access to authentication controls, they can use centralized remote management systems to create single points of failure for their operations.   

Enterprises are now investing more resources into advanced Remote IT Security controls and access segmentation measures.  

Low-Privileged Technician Accounts Create Enterprise Risk  

The broader risks associated with low-privileged technician roles in enterprise remote management are increasingly important in cybersecurity discussions.  

The security systems for remote support services grant technicians different access levels based on their job duties.   

The system allows attackers to escalate their control from restricted access to full administrative rights because its permissions system is not properly segmented, and its API credentials remain unprotected.   

The situation demonstrates the importance of least-privilege security design and detailed access control systems.  

Microsoft and Enterprise Remote Management Trends  

The incident is also drawing attention to broader enterprise security practices involving Microsoft and its remote management and endpoint administration systems used by its partner companies.   

The security of administrative APIs and technician credentials becomes increasingly critical as organizations develop their IT operations through integrated cloud management platforms.   

The board of directors now considers Remote IT Security a critical operational issue as companies develop Remote-first infrastructure.  

Cybersecurity Strategy Shifts Toward Identity Controls  

The current threat environment requires organizations to adopt more advanced identity-based security systems.   

Enterprises need to implement multiple security measures, including zero-trust authentication, role segmentation, and behavioral monitoring, to protect their administrative systems rather than relying on perimeter defenses.   

The SimpleHelp Vulnerability shows that security breaches occur when authentication processes fail to meet basic security standards.   

This development changes the way enterprises develop their Cybersecurity plans for managing systems that control privileged access.  

Why Remote IT Tools Require Stronger Isolation  

Modern remote administration platforms establish comprehensive links with endpoint systems, cloud infrastructure, and internal authentication services.   

The system achieves operational efficiency through its advanced integration capabilities, but these capabilities also create security vulnerabilities.   

Organizations are therefore adopting stricter isolation policies, including the implementation of shorter-lived credentials and stronger API governance measures, to reduce their security exposure.  

The Future of Remote IT Security  

The future of enterprise IT management will likely involve more heavily segmented remote administration systems with stricter identity verification requirements.   

Vulnerabilities tied to API Key Escalation and remote support authentication will continue to receive major attention from both regulators and enterprise security teams.   

Remote administration tools will become among the most closely monitored parts of enterprise infrastructure as cyberattacks become more advanced.  

Conclusion: Remote Management Security Enters a Critical Phase  

The SimpleHelp Vulnerability became a major security concern when CVE-2024-57726 revealed its existence, underscoring the importance of protecting corporate cybersecurity operations.   

The three issues, which involve API Key Escalation problems and CISA KEV classification, and the increased adoption of remote platforms as Ransomware Precursor systems, together show the fundamental deficiencies that exist in contemporary Remote IT Security systems.   

Enterprises must establish new authentication systems, access control methods, and monitoring processes across their entire remote support operations, as low-privileged technician positions create escalating security threats.   

Evidence from the Cybersecurity and Infrastructure Security Agency and Microsoft enterprise networks shows that organizations must prioritize remote administration system security as their most critical upcoming cybersecurity challenge.

Source: Cybersecurity Alerts & Advisories 

When “Quantum-Resistant” Encryption Becomes a Procurement Requirement

WASHINGTON, D.C. — The fundamental structure of federal cybersecurity policy will enter a new stage because the National Institute of Standards and Technology’s standards development process, which produced new technical guidelines, has established that future U.S. government communication systems need to implement Post-Quantum Cryptography security measures, which should be incorporated into their hardware design.  

By 2026, the proposed changes will establish PQC Chips and quantum-resistant encryption systems as essential procurement elements for all federal infrastructure projects, leading to fundamental changes in the processes for creating secure hardware systems and their acquisition and implementation.   

The transition will create effects that extend beyond government systems to various sectors, including financial services, healthcare, telecommunications, and cloud infrastructure.  

Why Quantum-Resistant Encryption Is Becoming Urgent  

Modern encryption systems depend on mathematical problems that classical computers find extremely difficult to solve.   

The current encryption standards face risks as quantum computing advances.   

Post-Quantum Cryptography, which protects against quantum-enabled threats, has received increased funding because of this security risk.   

The growing need for Post-Quantum Cryptography protection, now extending to government and business operations, is transforming cybersecurity strategies.  

PQC Chips Move Security to the Hardware Layer  

The primary technological advancement today involves the development of PQC Chips that integrate quantum-resistant encryption into their core processing and communication components.   

Future systems will use dedicated hardware acceleration to support post-quantum algorithms, complementing existing software-based encryption systems.   

The system delivers improved security and better performance by simplifying the implementation of solutions across extensive network infrastructures.   

The introduction of PQC Chips brings about a fundamental change in the design of hardware security systems.  

NIST Standards Drive Industry Transition  

The NIST Standards play a vital role in establishing quantum-resistant infrastructure.   

NIST has dedicated multiple years to assessing and creating standards for cryptographic algorithms that protect against quantum attacks.   

The existing standards now serve as the fundamental basis for procurement rules, which government agencies and regulated industries will implement.   

The upcoming expansion of NIST Standards will drive private-sector companies to implement quantum-safe encryption technologies more quickly.  

Federal Cybersecurity Procurement Rules Expand  

The Federal Cybersecurity procurement frameworks of the future will need to include post-quantum encryption support that works at both the chip and infrastructure levels.   

This situation will affect communication systems, cloud platforms, defense infrastructure, and financial transaction networks that operate within federal ecosystems.   

The government has implemented a major shift in its cybersecurity policy by establishing Post-Quantum Cryptography as a required standard for procurement.  

IBM Quantum and Enterprise Security Development  

The research initiatives that IBM Quantum conducts lead IBM and other companies to develop both quantum computing technology and systems that protect against quantum-based security threats.   

The potential of quantum systems to revolutionize computational power underscores the urgent need to develop more secure cryptographic methods that can withstand future threats.   

The combination of these two factors drives companies to increase their spending on Encryption Hardware and the development of post-quantum security systems.  

Google Sycamore and Quantum Capability Pressure  

The development of Google Sycamore systems has created a pressing need for organizations to begin their post-quantum security planning.   

The ongoing development of quantum hardware poses long-term security threats to governments and enterprises, as current quantum computers still lack the ability to mount large-scale cryptographic attacks.   

Organizations now choose to implement a “prepare now” strategy to help prevent future security weaknesses.   

The need for PQC Chips and hardware-based cryptographic security solutions continues to grow in various industries.  

Encryption Hardware Becomes a Procurement Priority  

Establishing a secure infrastructure in the future will require the use of tamper-resistant Encryption Hardware to ensure its operations are secure. 

Post-quantum cryptographic algorithms demand more processing power than standard encryption algorithms. 

In addition to providing hardware acceleration specific to post-quantum implementations, dedicated hardware accelerators will offset the cost of delivering the performance and security of post-quantum systems at an enterprise level within your own organization. 
 

Infrastructure procurement planning now centers around Encryption Hardware as its primary focus.  

Financial Sector Faces Accelerated Transition Timeline  

The broader transition timeline for quantum-resistant hardware in the U.S. financial sector is becoming increasingly important, as banks and financial institutions manage highly sensitive long-term data.  

The intercepted encrypted financial records from today will be vulnerable to future attacks when quantum decryption technology reaches full development.   

Financial institutions are now adopting Post-Quantum Cryptography to address the “harvest now, decrypt later” security threat.   

Multiple institutions are currently evaluating options for transitioning to quantum-safe infrastructure systems.  

Cloud and Telecom Infrastructure Will Also Be Affected  

The transition to quantum-resistant systems will impact three groups: cloud providers, telecommunications companies, and data center operators.   

Future secure communication networks may require end-to-end post-quantum encryption capabilities integrated directly into networking equipment and processors.   

PQC Chips will gain broader operational use through this development, extending their application across worldwide infrastructure systems.  

Why Procurement Rules Matter for the Entire Industry  

The Federal procurement standards affect commercial markets because vendors develop their products to meet government compliance requirements.   

The Federal Cybersecurity regulations require hardware manufacturers to implement post-quantum security, which will drive rapid enterprise adoption across sectors.   

The NIST Standards will become the primary global standard for future encryption systems, according to this development.  

The Future of Quantum-Safe Infrastructure  

The transition to quantum-resistant infrastructure will unfold over multiple years, but its current planning phase is advancing faster.   

Organizations need to identify their vulnerable systems, assess their cryptographic dependencies, and establish plans for their upcoming hardware replacement cycles, which will require PQC Chips and advanced Encryption Hardware.  

The future cybersecurity landscape will depend on the speed at which enterprises adapt to post-quantum requirements.  

Conclusion: Quantum Resistance Becomes Infrastructure Policy  

The increasing demand for hardware-based Post-Quantum Cryptography solutions creates a fundamental shift in how organizations protect their digital assets and acquire technological solutions.   

Organizations must now prepare for a future in which traditional encryption methods will no longer provide adequate security, as NIST standards, federal cybersecurity initiatives, and advances in IBM Quantum and Google Sycamore continue to evolve.   

The growth of PQC chips, together with dedicated Encryption Hardware, demonstrates that organizations need to implement quantum security solutions directly into their operational systems.   

IBM and Google research findings indicate that the United States’ financial sector and federal systems will face their most significant cybersecurity challenge over the upcoming decade due to the required transition to quantum-resistant hardware.

Source: IBM Newsroom 

What the Shift to “Carbon-Negative” AI Models Means for Data Center Capex

REDMOND, Wash. A massive change is underway as businesses incorporate Green-Code principles into their approach to building and deploying artificial intelligence technologies. With the emerging emphasis on Sustainable AI, corporations have begun evaluating the efficiency of their models based on environmental factors and other metrics. As AI becomes increasingly pervasive, energy use is now a key consideration for firms and state entities. 

Why Does Sustainable AI Matter? 

The widespread growth of AI infrastructure has led to a sharp increase in global energy demand. Running large-scale AI requires extensive computing power, which raises concerns about data center energy use. 

Some factors that motivate companies towards sustainable AI solutions are: 

  • Growing expenses related to AI processes’ energy requirements 
  • Responsibilities of corporations to address climate change 
  • Government policies for developing environmentally friendly technologies 
  • Increasing public interest in reducing technology’s carbon footprint 

The Importance of Green-Code Frameworks 

The idea behind Green-Code is to ensure that all software and AI technologies consume less energy. Rather than focusing on achieving maximum speed, programmers must also consider energy efficiency. 

Some examples include: 

  • Minimizing wasted computing resources 
  • Creating algorithms that require fewer energy inputs 
  • Measuring environmental impact while implementing AI technology 

The above strategies are becoming increasingly important as corporations strive to balance innovation and environmental responsibility. 

Carbon-Negative AI: The Future Direction 

One exciting trend in the industry is the introduction of Carbon-Negative AI technology, which involves generating extra carbon credits to offset carbon emissions. It not only exceeds existing sustainability requirements but sets an example for others to follow. 

Potential advantages of using this technology include: 

  • Lower carbon footprint 
  • Sustainability in line with international climate targets 
  • Improved public perception 

Effect on Enterprise Decision Making 

The incorporation of sustainability practices is impacting the approach of ESG Tech towards implementing AI within different sectors. Currently, the performance and environmental impacts of AI technologies are considered while making purchasing decisions. 

Some of the factors considered are: 

  • Efficiency of the AI system in energy consumption 
  • Sustainability goals 
  • Environmental compliance 

This has led to changes in the evaluation criteria for technological purchases. 

Microsoft & Google Leading the Charge 

There is a trend where some of the most prominent players in the tech world are taking an active role in leading this transformation. Microsoft’s Azure Sustainability and Google’s Net Zero program are becoming the benchmarks in the sector. 

Some of their initiatives are: 

  • Reducing the carbon footprint of data centers 
  • Using renewable energy sources 
  • Creating energy-efficient AI systems 

The Long-Term Economic Effects 

The idea that energy efficiency ratings are becoming a deciding factor in enterprise AI procurement is gaining momentum as businesses seek cost-effective and eco-friendly solutions. This is expected to result in: 

  • Growing popularity of energy-efficient devices 
  • Modification of procurement methods 
  • Increased focus on operational savings 

Consequently, sustainability will become an essential criterion for making economic choices. 

Costly Sustainable Infrastructure 

Even though the advantages are obvious, implementing sustainable infrastructures can be complicated. Constructing energy-efficient infrastructure involves high costs. 

Some of the obstacles include: 

  • Expensive equipment 
  • Necessity for expert knowledge 
  • Compatibility with the current infrastructure 

However, in the long run, the advantages usually prevail over the disadvantages. 

Impact on Other Industries 

The move towards sustainability is affecting industries beyond technology. The adoption of this trend has led to certain trends across different businesses. 

These trends include: 

  • Increased competition in the development of sustainable technologies 
  • Inter-industry cooperation and partnerships 
  • Appearance of new business models emphasizing sustainable practices 

All of these point out the effect that environment-related factors have on innovation. 

Conclusion 

With the development of the Green-Code standard and the emergence of Sustainable AI, the future of artificial intelligence is changing. As more businesses move toward Carbon-Negative AI, it has become clear that efficiency alone is no longer sufficient; sustainability is now a vital aspect of success. As this becomes the norm, such factors as Data Center Energy usage and   strategy will become important considerations for any business.

Source:-  Advancing sustainability

Who Wins The Prompt To Hardware Integrated PC Battle?

Redmond, Wash: Corporate workstations commonly experience slowdowns due to limited bandwidth and concerns about data privacy. Using cloud-based large language models can lead to network delays of up to 500 milliseconds per query. To fix this, companies are moving to Copilot+ PC setups, which bring processing power right to the user’s desk. This change, called a neural bypass, lets the computer perform tasks locally without connecting to external networks. IT leaders need to check whether their current hardware can handle these demanding tasks without overheating or slowing down.  

The Computing Architecture Dilemma 

Companies want to keep control of their data and need fast, reliable systems. Cloud-based models can expose sensitive information and slow things down when networks are busy. To solve this, IT teams are buying hardware with special chips that can run machine learning models on-site. Using local AI keeps important company data on the device itself. Copilot + PCs use powerful neural processing units to run large language models locally, without sending data to the cloud.  

Processing tasks on the device creates a neural bypass, sending complex requests to the local chip instead of the cloud. When employees use Microsoft Copilot to summarize documents or draft emails, the system responds right away without waiting for a server. This means simple tasks just take milliseconds instead of seconds. Having the NPU built into the main chip simplifies the hardware and keeps everything running fast.  

Silicon Foundations And Power Efficiency 

The hardware for these tasks needs to be highly energy-efficient. The Snapdragon X Elite processor can handle forty-five trillion operations per second while using only fifty watts of power. This productivity lets it run all day without quickly draining the battery.  

IT administrators who manage many mobile devices can use BIOS automation to handle firmware updates and security settings automatically based on how users work. This keeps hardware secure and operating efficiently without needing constant attention from IT staff. As a result, internal IT teams spend less time on routine support.  

The Economics of On-Device Processing 

Cloud query costs can rise quickly when many employees use remote servers every day. Saving even a few milliseconds in daily workflows can make a real difference to the company’s bottom line. For IT directors, the key question is how local AI integration reduces cloud latency for enterprise system administration. The solution is hardware that runs models directly on each user’s machine, without requiring an internet connection. This also reduces data traffic congestion across all offices.  

With local AI, devices process user data on-site, helping protect privacy and comply with local rules. Keeping data on the company network reduces the likelihood that sensitive information will be intercepted. This method also saves money by lessening the need for costly cloud services and special network equipment.  

The Role Of NPU Scaling In Enterprise Workflows 

Handling more complex machine learning tasks requires higher processing capability. As models grow larger, efficient NPU scaling becomes necessary. Adequate NPU scaling allows the system to process larger datasets without relying on cloud servers.  

When employees use Microsoft Copilot to work with large spreadsheets or long PDFs, the device sends the job directly to the NPU. This way, the system can handle complex analysis without slowing down the CPU or GPU, which can then focus on other demanding tasks.  

Switching to this new hardware setup takes careful planning from IT teams. Older applications need to be tested to ensure they work with the new chips. IT leaders also have to confirm that devices have sufficient memory and cache to support the local neural engines.  

Preparing For Hardware Integration 

IT departments are now testing systems with AI built into the motherboard. Copilot + PC design means companies need to rethink their security approach. IT teams limit data sent to external servers, so the hardware processes requests locally.   

A neural bypass allows the operating system to use local resources immediately. When companies switch from bulky laptops to slim, powerful mobile devices, they use much less energy. The savings from cooling and power can cover the cost of new hardware in the first year.  

Managing Future Hardware Deployments 

Winning in the integrated PC market comes down to how well software and chips are optimized. Vendors with more efficient hardware will lead the enterprise space. System administrators should monitor how local chips perform under everyday use and heavy workloads.  

To keep hardware running efficiently, the operating system and chips need to work closely together. This helps prevent overheating and extends equipment lifespan. Companies that focus on client-side intelligence instead of central data centers will benefit most in the future.

Source: Windows 11 PC gamers: Xbox mode rolls out and ROG Xbox Ally updates include Auto SR preview 

When 2nm Fabrication Hurdles Reshape The 2026 Gaming Laptop Market

Santa Clara, Calif.: High-end portable gaming laptops are facing significant heat issues and limited supply. Even though buyers pay extra for desktop-like performance, their devices regularly slow down from overheating after just a few minutes of intense gaming. Solving this issue means rethinking how modern computer parts are built. Moving to 2nm fabrication brings new physical challenges that affect the entire supply chain. Now, chip designers are moving away from traditional single-chip designs and toward GPU chiplets. This change is changing how engineers design gaming hardware and high-performance computers.  

The Node Transition And Manufacturing Constraints 

TSMC’s newest manufacturing facilities reveal that the early phase of 2nm fabrication poses exceptional challenges. The transition from FinFET to nanosheet architecture increases production complexity, initially depressing overall silicon yield. While manufacturers like TSMC Arizona ramp up operations to meet global demand, consumer-grade chips take a back seat to hyperscaler artificial intelligence hardware. This allocation strategy directly alters product roadmaps for the upcoming Nvidia RTX sixty series.  

Instead of adopting a state-of-the-art node, the upcoming Nvidia RTX 60 series will likely rely on a more mature custom 3nm process variant. This conservative approach protects the silicon yield and keeps production costs predictable for the consumer market. Engineering teams must find alternative methods to increase performance per watt without further shrinking transistor size. The difficulty lies in optimizing power delivery networks to prevent voltage drops under heavy multi-threaded loads.  

Modular Design In Modern Computing 

The shift toward GPU chiplets allows manufacturers to break down massive monolithic dies into smaller, specialized modules. These smaller dies are much easier to produce, thereby increasing overall silicon yield compared to building large single-die processors on a single wafer. By distributing heat generation across multiple physical components, this approach better manages temperatures within confined spaces. The impact of chiplet architecture on the thermal design of future portable PCs is apparent as engineers redesign cooling loops to handle distributed heat sources.  

Now, instead of a single large hotspot, the laptop’s vapor chamber cools several smaller areas. This spread-out approach lowers heat stress on the parts inside and helps premium gaming hardware last longer. Engineers can also place heat pipes directly over both the power-delivery components and the main chips, treating them separately.  

The Function Of Advanced Processing 

The type of lithography used sets the physical limits for all components available today. As manufacturers push beyond the limits of extreme ultraviolet lithography, cooling becomes increasingly difficult. Keeping small portable systems cool now needs new ways to move heat away from the chips. For instance, some companies use liquid metal to help transfer heat from the chip to the cooling block.  

Making mobile processors with 2 nm technology generates a lot of heat in a small space, making it hard to cool in thin laptops. Splitting tasks among GPU chiplets helps solve these heat problems. By choosing modular designs over single large chips, the industry is shaping the future of portable computing. This approach lets manufacturers spread heat over a bigger area inside the laptop.  

Market Consequences For Consumers 

The prices of raw materials and high-tech packaging keep rising. As a result, premium laptops are more expensive, showing how complex modern manufacturing and testing have become. Buyers want top performance, but they also expect longer power use and quieter operation. Moving to modular processing units helps keep prices steady while still giving big performance improvements.  

As TSMC, Arizona, and other factories worldwide increase output. The supply of specialized chips will become more stable. This allows manufacturers to offer more product types to consumers. With more choices, users can pick hardware that fits their exact needs.  

Future Horizons for Portable Computing 

The economics of hardware manufacturing are moving toward modular designs. Companies that adjust to these changes will lead the market in the future. Using modular parts helps high-performance portable computers stay practical without using too much power or getting too hot. Engineers will keep working on better packaging and faster communication between chips. This progress means portable computers will keep getting better without encountering major heat issues.

Source: Taiwan Semiconductor Manufacturing Company 

Which New Spatial Canvas Specs From Apple Redefine Mobile Productivity

Cupertino, Calif.: Most enterprise workspaces are still limited by flat screens, which can make it harder for analytics and engineers to manage complex information. High-end engineering firms often find that the cost of setting up multiple monitors outweighs the productivity benefits. Apple is tackling this issue with the new Spatial Canvas in visionOS 3.0. This update changes how professionals work with multifaceted data by moving from hardware-based setups to enveloping three-dimensional workspaces. Companies that start using this technology early gain a clear competitive edge.  

Technical Enhancements In Vision OS 3.0 

The new VisionOS 3.0 changes how computers deal with complex interfaces. Instead of using fixed 2D windows, the spatial canvas lets engineers view multiple design files simultaneously without sacrificing image quality or performance.  

Early enterprise testing shows that spatial computing environments allow structural engineers to visualize assemblies at true scale. The Apple Vision Pro hardware enables this by accurately tracking eye movements and hand gestures. When paired with the Apple Vision Pro, the software environment interprets complex dimensional layouts, allowing users to manipulate intricate designs solely with hand and eye movements.  

Competing Hardware Approaches and Market Realities 

The industry is still experimenting with new ways for users to interact with technology. Competitors like Meta Quest Pro have tried similar ideas, but Apple is remarkable for connecting better with business software. Meta Quest Pro mainly uses controllers, while Apple uses eye and hand input, making it easier for new users to get started.  

Advanced software means more computing power. Now, CAD AI models can show detailed designs right in front of the user. By running CAD AI locally, engineers can modify designs without relying on remote servers. This reduces delays and keeps important information safe during key design stages. Designers also no longer have to wait for cloud systems to update small changes.  

The Role Of Persistent Anchors In Engineering 

Distributed teams need accuracy when sharing workspaces. Persistent anchors let users leave virtual objects in real rooms and find them in the same spot later. These anchors map walls and furniture so digital notes, and 3D models stay in place. This prevents the drifting and misalignment that happened among older systems.  

The Future of Hardware Procurement 

The introduction of new spatial workspaces is driving strategic shifts in mobile workstation manufacturing for the 2027 fiscal year. Corporate procurement managers now plan to replace traditional high-end laptops with lighter dedicated display environments.  

With high-definition displays and advanced processing, companies no longer need multiple desk monitors. For example, an architect can see a building design in a large room, make changes instantly, and work with colleagues in other locations. This reduces hardware costs and helps teams around the world work together more effectively.  

Monetary Effects For Enterprise Budgets 

Cutting down on hardware brings real savings. If a company swaps 10 monitors for a single digital setup, it uses much less power. Companies can also save on office space as employees use the spatial canvas. Lower energy use also aids environmental and sustainable objectives.  

The Vision OS 3.0 update improves the stability of business apps. As these systems improve, companies will quickly move away from flat office screens. Advanced spatial interfaces are establishing a new standard for buying hardware and developing software. In the next two years.  

Preparing for the New Spiritual Standard 

Enterprise tech teams need to update their rollout plans to get the most from this new way of computing. Switching from 2D to 3D environments requires changes to how users are trained and how data is secured.  

IT teams are rolling out custom software that works directly with the new spatial setup. Seeing 3D data without risk helps engineers update designs faster. As more companies adopt these spatial computing tools, they will boost productivity for years to come.

Source: Now Available: Monthly Subscriptions with a 12-Month Commitment 

Why CISA’s May 8 Deadline for IoT Resets the Consumer Mesh Market

Washington, D.C.: a single unpatched device can quietly put an entire network at risk. This is why the CISA CVE catalog is so urgent and why expectations for IoT security are rising. May 8th is beyond simply a compliance deadline; it signals a shift in the market.  

The federal government’s directive requires agencies to remediate the vulnerabilities listed in the known vulnerabilities catalog by the federal deadline, with immediate consequences beyond Washington. Vendors, enterprises, and even prosumers now face a shift in risk. The conversation has shifted from whether devices are connected to whether they can be trusted at scale.  

The Pressure Point: CISF KV Meets Fragmented IoT 

The CRSA KEV list has always changed over time, but new enforcement deadlines make it more urgent. Devices that used to run quietly in the background, like digital signage, routers, and remote access gateways, are now being closely examined. This is a real issue. The well-known D-Link vulnerability showed how old software in consumer networking equipment can be exploited long after vendor support ends.  

Enterprise platforms, such as Samsung MagicInfo, which are often used for digital signage, have shown that centralized systems can become single points of failure if they are not patched regularly. These cases expose a broader issue: IoT platforms lack consistent lifecycle management, leading to compliance that is often reactive rather than planned.  

Executives who manage distributed operations now face a challenging choice. Should they replace hardware early, or should they accept more risk more often? The answer is to make larger changes to their systems rather than just small fixes.  

IoT Security as a Procurement Driver 

The May 8 federal deadline is prompting procurement teams to reconsider how they select vendors. Security is now a must-have directly linked to keeping operations running. Because of this, IoT security is influencing not only IT policies but also how companies spend their money.  

Take a mid-sized retail chain with hundreds of endpoints, such as cameras, POS systems, and digital displays across many locations. One unpatched device can put the whole network at risk. With CISA TEV compliance in mind, these businesses are less likely to keep buying standalone devices that do not update consistently.  

Instead, companies are looking at integrated systems like Cisco Meraki, where firmware updates, monitoring, and threat protection all work together. These platforms make it easier to track vulnerabilities and meet federal requirements.  

This change is not only about defense. It also shows that managing devices separately does not work well as companies grow and remote work becomes more common.  

Mesh Networks Move From Convenience To Control Layer 

Consumer mesh networks used to compete on how easy they were to set up and how much area they covered. That is no longer the main selling point. Now, the key difference is control: being able to see every connected device and respond to threats right away.  

The main question is how federal cybersecurity deadlines are pushing companies to choose managed mesh networks. These systems provide centralized dashboards, automatic updates, and network segmentation that traditional routers cannot offer.  

This is important for organizations adjusting to remote work. Employees now connect from home offices, co-working spaces, and temporary locations, which expands the network’s reach. Using a mesh-based system, especially one like Cisco Meraki, helps maintain consistent security across all these locations.  

Meanwhile, legacy systems tied to vulnerabilities such as the D-Link vulnerability illustrate the price of inaction. Devices that cannot obtain prompt updates effectively become liabilities. The same scrutiny also applies to services like Samsung MagicInfo, where centralized management must be matched with rigorous patching discipline.  

Market Implications: Vendors, Channels, and End Users 

These changes affect the entire supply chain. Vendors now need to show not just how well their products work, but also how transparent they are about updates and support. Buyers want to know how fast vendors respond to CISA KEV catalog updates and how long devices will get support. These questions matter as much as price or features.  

Channel partners are also changing. Resellers and system integrators are now focusing more on managed services, offering hardware alongside ongoing security management. This approach meets the federal deadlines’ demand for complete visibility and quick response.  

End users, especially small and mid-sized businesses, now face a more complicated situation. They have to balance tight budgets with the need for strong IoT security. Consumer-grade solutions are less attractive compared to the risks posed by problems like the D-Link vulnerability or poorly configured Samsung MagicInfo systems.  

The Tactical Change 

The May 8th federal deadline is part of a bigger policy shift that treats cybersecurity as essential infrastructure, not just an add-on. For the consumer mesh market, this brings both difficulties and new opportunities.  

Manufacturers who build security into their products from the start rather than add it later will benefit. Systems such as Cisco Meraki show how combining networking and security management can meet new compliance standards.  

Organizations also need to review their strategies. Moving to managed mesh networks is not just about complying with regulations. It shows that network complexity has grown beyond the capacity of traditional management.  

The next phase will likely bring closer alignment between federal guidelines and commercial products, making the line between enterprise and consumer solutions less clear. As CISA KEV enforcement grows and IoT security expectations rise, companies that treat security as an ongoing process will be rewarded.  

The May 8th deadline is a turning point. It does not introduce new risks but forces the industry to address long-standing ones and build networks that can handle them.

Source: Known Exploited Vulnerabilities Catalog