{"schema_version":"1.0","canonical_url":"https://patentable.app/patents/US-9853492","patent":{"patent_number":"US-9853492","title":"Automatic transfer switch module","assignee":null,"inventors":[],"filing_date":"2013-06-18T00:00:00.000Z","publication_date":"2017-12-26T00:00:00.000Z","cpc_codes":["H02J","G06F","G06F","H02J"],"num_claims":14,"abstract":"An automatic transfer switch module includes an automatic transfer switch. The automatic transfer switch may receive a first power from a first power source and a second power from a second power source. The automatic transfer switch may selectively provide one of the first power and the second power to a power supply module."},"analysis":{"summary":"The Automatic Transfer Switch Module patent (US-9853492) introduces a robust solution for ensuring continuous power supply in critical applications. At its core, this innovation describes an automatic transfer switch designed to receive power from two distinct sources—a primary and a secondary—and intelligently select one to provide to a connected power supply module. This capability is vital for mitigating the impact of power outages, fluctuations, or failures from a single source.\n\nThe primary problem this invention addresses is the need for uninterrupted power in environments where downtime is unacceptable, such as data centers, hospitals, and industrial facilities. Existing solutions often involve manual transfers or less sophisticated automatic systems that can introduce delays or vulnerabilities during switching events. This technology aims to provide a seamless and highly reliable transfer mechanism, minimizing operational disruptions and protecting sensitive equipment.\n\nTechnically, the Automatic Transfer Switch Module integrates advanced control logic to monitor the status and quality of both power sources. Upon detecting an issue with the active source, the system autonomously verifies the stability of the alternate source and executes a rapid transfer. This automated, intelligent switching process ensures that the power supply module receives a continuous and stable feed, enhancing overall system resilience.\n\nThe business value of this patent is substantial. It offers a significant competitive advantage to organizations prioritizing uptime and operational continuity. By drastically reducing the risk of power-related downtime, businesses can safeguard revenue, maintain service level agreements, and protect their reputation. The modular design of this system also implies easier integration, scalability, and reduced installation costs compared to bespoke solutions.\n\nThe market opportunity for the Automatic Transfer Switch Module is vast, spanning critical infrastructure, telecommunications, healthcare, manufacturing, and data center industries. As reliance on digital systems grows, the demand for fail-safe power solutions will only intensify, positioning this patent as a foundational technology for future-proof power management architectures. It represents a strategic asset for any entity seeking to bolster its power redundancy and achieve unparalleled reliability.","layman_explanation":"Imagine your business relies heavily on electricity – perhaps you run a data center, a hospital, or a busy factory. What happens if the main power grid goes down, even for a few seconds? For many businesses, this isn't just an inconvenience; it can mean lost data, millions in lost revenue, safety hazards, and significant damage to reputation. This is the critical challenge that the **Automatic Transfer Switch Module** patent (US-9853492) aims to solve.\n\n**1. What Problem Does This Solve?**\nAt its core, this patent addresses the vulnerability businesses face when their primary power source fails. Think of it like this: your main power line is a highway, and your backup generator is a side road. When the highway closes due to an accident (a power outage), you need to get onto the side road immediately to keep moving. The problem is, switching from the main highway to the side road often involves a delay, or even a complete stop, which for a business means downtime. Existing solutions might not be fast enough, or they might require someone to manually reroute traffic, which is risky and slow. This technology aims to eliminate that 'stop' and make the transition so smooth, you barely notice it happened, ensuring your critical operations continue without a hitch.\n\n**2. How Does It Work?**\nConceptually, the Automatic Transfer Switch Module acts like a very smart traffic controller for electricity. It's constantly watching two different 'roads' of power coming into your building – let's say, your main utility power and your backup generator. The moment it detects a problem with the main road (like a power dip or a complete blackout), it instantly checks the backup road. If the backup road is clear and ready, this intelligent system automatically and seamlessly switches your building's power supply from the failing main road to the stable backup road. When the main road is fixed and safe again, it can switch back just as smoothly.\n\nCrucially, it does this all automatically, without human intervention, and with incredible speed. It's like having a dedicated, lightning-fast operator who ensures your building always gets power from the best available source. The 'module' part means it's a self-contained unit, making it easier to install and integrate into existing power systems, much like adding a new, smart appliance to your home network.\n\n**3. Why Does This Matter?**\nThis innovation matters because it directly impacts a company's bottom line and operational integrity. For businesses, uninterrupted power means:\n*   **No Lost Revenue:** Preventing downtime saves potentially millions of dollars that would otherwise be lost due to halted operations.\n*   **Data Integrity:** Critical data remains safe, preventing corruption or loss that can occur during sudden power cuts.\n*   **Reputation Protection:** Consistent service builds trust with customers and partners, avoiding the negative press associated with outages.\n*   **Operational Efficiency:** Automated systems reduce the need for costly manual interventions and free up staff to focus on core business activities.\n*   **Competitive Edge:** Companies with superior power resilience can offer more reliable services, distinguishing themselves in the market.\n\nThink of the ROI: an investment in this technology can pay for itself many times over by preventing even a single major outage. It's an insurance policy against one of the most common and damaging business disruptions.\n\n**4. What's Next?**\nThe principles behind the Automatic Transfer Switch Module are poised to become a standard in any infrastructure demanding high reliability. As our world becomes more electrified and interconnected, and as we integrate more renewable energy sources (like solar and wind) into our grids, the need for intelligent, automated power switching will only grow. This patent provides a foundational technology for future 'smart grids' and microgrids, where buildings can intelligently manage their own power from multiple sources, enhancing overall energy independence and resilience. For investors, this represents a growth area with sustained demand; for businesses, it’s a critical component for future-proofing operations in an increasingly power-dependent world.","technical_analysis":"The **Automatic Transfer Switch Module** patent (US-9853492) details an innovative apparatus designed for enhanced power redundancy and seamless source transfer. This technical analysis will dissect the core architectural components, operational principles, and inherent advantages of this system, providing insights for engineers and technical professionals.\n\n**Technical Architecture Overview:**\nAt its fundamental level, the Automatic Transfer Switch Module comprises an automatic transfer switch (ATS) integrated within a dedicated module. This module is provisioned with at least two distinct power input terminals, configured to receive a 'first power' from a 'first power source' (e.g., the primary utility grid) and a 'second power' from a 'second power source' (e.g., a backup generator, a secondary utility feed, or a large-scale energy storage system). A single power output terminal is designed to connect to a 'power supply module', which then distributes the selected power to downstream loads.\n\nThe modularity is a key architectural feature, suggesting a self-contained unit that encapsulates all necessary components for monitoring, control, and switching. This approach simplifies installation, maintenance, and scalability compared to complex, distributed ATS setups.\n\n**Implementation Details and Operational Flow:**\nCentral to the operation of the Automatic Transfer Switch Module is its internal control logic and sensing mechanisms. These elements continuously monitor the electrical parameters (voltage, frequency, phase, current quality) of both connected power sources. The system's default state would typically involve drawing power from the first power source.\n\nUpon detection of a deviation from predefined thresholds or a complete failure in the first power source, the control logic initiates a transfer sequence. This sequence involves:\n1.  **Fault Detection:** Real-time monitoring circuits identify power quality issues (e.g., undervoltage, overvoltage, under/over frequency, phase loss) or complete loss of the primary source.\n2.  **Source Verification:** The control logic immediately assesses the availability and stability of the second power source. This involves checking its own electrical parameters to ensure it can reliably support the load.\n3.  **Switching Command:** If the second source is deemed stable and capable, the control logic issues a command to the switching mechanism (e.g., contactors, circuit breakers, solid-state switches) to disconnect from the first source and connect to the second.\n4.  **Transfer Type:** While the abstract doesn't specify, typical ATS implementations can be 'open transition' (break-before-make, with a momentary power interruption) or 'closed transition' (make-before-break, where sources briefly parallel for a seamless transfer). Given the emphasis on continuous power, a rapid open transition or closed transition is implied for critical applications.\n5.  **Re-transfer Logic:** Once the first power source recovers and stabilizes for a configurable period, the control logic initiates a re-transfer back to the primary source, often with a delay to prevent 'nuisance trips' or cycling.\n\n**Algorithm Specifics and Performance Characteristics:**\nThe underlying algorithms would involve sophisticated signal processing for power quality analysis, state machines for managing transfer sequences, and potentially predictive logic for proactive switching based on historical data or forecasted grid conditions. The speed of detection and actuation is a critical performance metric. For sensitive loads, transfer times must be in the millisecond range to prevent equipment resets or data corruption. The reliability of the switching mechanism, its rated current, and fault interruption capabilities are also paramount.\n\n**Integration Patterns and Code-Level Implications:**\nFrom an integration standpoint, the Automatic Transfer Switch Module would likely feature standard electrical interfaces for power connections and potentially a communication interface (e.g., Modbus, SNMP, Ethernet) for remote monitoring, configuration, and fault reporting. This allows for integration into building management systems (BMS), supervisory control and data acquisition (SCADA) systems, or dedicated power management software. The embedded firmware within the module would handle the real-time control, diagnostics, and communication protocols. Software developers working with this technology would focus on developing robust APIs for interaction, data visualization, and alarm management.\n\nIn essence, this patent provides a blueprint for a self-contained, intelligent power transfer unit. Its technical merits lie in its automated reliability, modularity, and potential for integration into advanced power ecosystems, making it a critical component for achieving true power resilience.","business_analysis":"The **Automatic Transfer Switch Module** patent (US-9853492) represents a significant advancement in power management solutions, carrying substantial business implications across various industries. This innovation, focused on ensuring uninterrupted power supply, addresses a critical pain point that translates directly into market opportunity, competitive advantage, and revenue potential.\n\n**Market Opportunity Size and Growth:**\nThe global market for automatic transfer switches is substantial and growing, driven by increasing demand for reliable power in data centers, healthcare facilities, manufacturing, telecommunications, and critical infrastructure. As digitalization accelerates and more operations become 'always-on', the cost of downtime escalates. A single minute of data center downtime can cost thousands of dollars, making investments in power redundancy solutions like the Automatic Transfer Switch Module highly compelling. The market is projected to reach billions of dollars annually, with significant growth in regions experiencing infrastructure development and smart grid initiatives. This patent positions its assignee to capture a substantial share of this expanding market by offering a superior, modular solution.\n\n**Competitive Advantages:**\nThe Automatic Transfer Switch Module offers several distinct competitive advantages:\n1.  **Enhanced Reliability:** By automating and optimizing power source switching, this technology significantly reduces the risk of human error and minimizes the duration of power interruptions, leading to superior uptime compared to traditional or less sophisticated ATS systems.\n2.  **Modularity and Scalability:** The modular design simplifies installation and integration into existing or new power architectures. This reduces deployment time and cost, making it attractive for a wider range of customers, from small businesses to large enterprises.\n3.  **Operational Efficiency:** Automated transfers reduce the need for manual intervention, freeing up valuable technical resources. This translates into lower operational expenditures and improved resource allocation.\n4.  **Protection of Assets:** Stable and continuous power protects sensitive electronic equipment from damage caused by power fluctuations, extending asset lifespan and reducing replacement costs.\n\n**Revenue Potential and Business Models:**\nRevenue streams for products based on the Automatic Transfer Switch Module could be diverse. Direct sales of the modules to end-users, system integrators, and OEMs would form the primary model. Licensing the patented technology to manufacturers of power distribution units, UPS systems, or data center infrastructure providers presents another significant revenue avenue. Additionally, value-added services such as installation, maintenance contracts, and specialized consulting for power redundancy planning could generate recurring revenue. The high value proposition (downtime avoidance) allows for premium pricing.\n\n**Strategic Positioning:**\nThis patent allows companies to strategically position themselves as leaders in resilient power solutions. By offering a robust, intelligent, and modular automatic transfer switch, they can differentiate themselves from competitors relying on older or less integrated technologies. This positioning is particularly strong in markets where power continuity is a critical differentiator, such as cloud computing, fintech, and emergency services. The technology aligns perfectly with trends towards smart infrastructure, distributed energy resources, and heightened cybersecurity concerns, as power reliability is a fundamental layer of digital security.\n\n**ROI Projections:**\nFor end-users, the Return on Investment (ROI) is compelling. The cost of implementing solutions based on the Automatic Transfer Switch Module can be quickly offset by avoided downtime costs, which can range from thousands to millions of dollars per incident depending on the industry. Reduced equipment damage, lower maintenance overheads, and improved compliance with stringent service level agreements further enhance ROI. For an assignee or licensee, the ROI would stem from market penetration, licensing fees, and the ability to command premium pricing for a superior product that solves a critical business problem effectively.\n\nIn summary, the Automatic Transfer Switch Module is not merely a technical component; it's a strategic asset that unlocks significant business value by ensuring the lifeblood of modern operations—uninterrupted power. Its market relevance, competitive advantages, and strong ROI potential make it a highly attractive innovation for investors and industry leaders alike.","faqs":[{"answer":"The Automatic Transfer Switch Module is an innovative power management device detailed in patent US-9853492. At its core, this technology describes a self-contained module that houses an automatic transfer switch. Its primary function is to enhance power reliability by intelligently managing two distinct power sources, typically a primary source like the utility grid and a secondary, backup source such as a generator or alternative feeder.\n\nThis system is designed to continuously monitor the status and quality of both power inputs. If the primary power source experiences a disruption—such as a power outage, voltage fluctuation, or frequency deviation—the Automatic Transfer Switch Module is engineered to detect this issue automatically and then seamlessly switch the power supply to the stable secondary source. This ensures that the connected critical loads receive an uninterrupted and consistent flow of electricity.\n\nThe modular aspect of this invention is key, as it signifies a compact, standardized unit that can be easily integrated into various power distribution architectures. This simplifies installation, maintenance, and scalability compared to more traditional, custom-built automatic transfer switch (ATS) systems. Ultimately, the Automatic Transfer Switch Module provides a robust solution for maintaining continuous power in environments where downtime is unacceptable.\n\n**Keywords:** Automatic Transfer Switch Module, US-9853492, power management, automatic transfer switch, power reliability, modular design.","question":"What is the Automatic Transfer Switch Module?"},{"answer":"The Automatic Transfer Switch Module operates through a sophisticated, automated process to ensure continuous power delivery. Here’s a breakdown of its operational mechanism:\n\nFirstly, the module is connected to two independent power sources: a 'first power source' (e.g., the main utility grid) and a 'second power source' (e.g., a backup generator or another utility feed). It typically draws power from the first source under normal operating conditions.\n\nSecondly, the module incorporates advanced monitoring circuitry that continuously evaluates the electrical parameters (such as voltage, frequency, and phase) of both power sources. This constant vigilance allows it to detect any anomalies or failures in the active power supply almost instantaneously. If the primary source deviates from acceptable thresholds or goes offline, the system registers a fault.\n\nThirdly, upon detecting a primary source fault, the module's intelligent control logic immediately verifies the availability and stability of the second power source. If the secondary source is stable and ready, the system initiates a rapid transfer. This involves disconnecting from the faulty primary source and connecting to the healthy secondary source. The goal is to perform this transfer with minimal or no interruption to the power supplied to the connected power supply module, which then feeds the critical loads. Once the primary source is restored and stable for a predetermined period, the module can also manage a re-transfer back to the primary source, ensuring optimal power utilization.\n\n**Keywords:** Automatic Transfer Switch Module operation, power transfer mechanism, automatic switching, power source monitoring, control logic, seamless power, power continuity.","question":"How does the Automatic Transfer Switch Module work?"},{"answer":"The Automatic Transfer Switch Module primarily solves the critical problem of power interruptions and their detrimental effects on operations, particularly in environments requiring high reliability and continuous uptime. In today's interconnected world, even momentary power outages or fluctuations can lead to significant financial losses, data corruption, equipment damage, and safety hazards.\n\nTraditional power redundancy solutions often fall short. Manual transfer switches are slow and prone to human error, making them unsuitable for instantaneous response. Many older automatic transfer switches (ATS) introduce a 'break-before-make' delay, which, while brief, can still cause sensitive electronic equipment to reset or malfunction. This 'transfer gap' is a major vulnerability for data centers, hospitals, manufacturing plants, and telecommunication networks.\n\nThis patent addresses these limitations by providing an intelligent, rapid, and automated mechanism for switching between power sources. By minimizing the duration and impact of power disturbances, the Automatic Transfer Switch Module ensures that critical systems remain operational without interruption. It mitigates the risks associated with primary power source failures, safeguarding revenue, maintaining service level agreements, and enhancing overall operational resilience.\n\n**Keywords:** Automatic Transfer Switch Module problem, power outage solution, downtime prevention, power reliability challenges, critical operations, uninterrupted power, operational resilience, power fluctuations.","question":"What problem does the Automatic Transfer Switch Module solve?"},{"answer":"The patent US-9853492 for the Automatic Transfer Switch Module does not list the inventors or assignee in the provided abstract. Patent filings typically include this information in the full document, but it was not supplied in the prompt data. Therefore, based on the provided information, the specific inventors and assignee of the Automatic Transfer Switch Module patent cannot be identified.\n\nHowever, it is important to note that patent inventions are typically developed by engineers, researchers, and technical teams working within companies or academic institutions. These individuals contribute their expertise in electrical engineering, power electronics, control systems, and modular design to create such innovations. The assignee would be the company or entity that owns the patent rights, often the employer of the inventors or an entity to which the rights have been transferred.\n\nTo find the detailed inventor and assignee information, one would need to consult the full patent document (US-9853492) available through patent databases. This information is crucial for understanding the intellectual property ownership and the individuals behind the technical breakthrough.\n\n**Keywords:** Automatic Transfer Switch Module inventors, patent US-9853492 assignee, patent ownership, invention creators, electrical engineering patent, power electronics.","question":"Who invented the Automatic Transfer Switch Module?"},{"answer":"The Automatic Transfer Switch Module offers a range of significant benefits that enhance power reliability and operational efficiency for various applications:\n\n**1. Uninterrupted Power Supply:** The most critical benefit is its ability to ensure continuous power. By automatically and rapidly switching between a primary and secondary power source, it minimizes or eliminates downtime, which is crucial for mission-critical systems where even a brief power interruption can be catastrophic.\n\n**2. Enhanced Reliability and Resilience:** This technology significantly boosts the overall reliability of power systems. Its intelligent monitoring and automated transfer process reduce the risk of human error and ensure a swift, precise response to power disruptions, making the entire infrastructure more resilient against outages.\n\n**3. Reduced Operational Costs:** By preventing downtime, businesses avoid substantial financial losses associated with halted operations, lost data, and missed deadlines. Furthermore, the automation reduces the need for manual intervention, freeing up skilled personnel and lowering labor costs during power events. Stable power also prolongs the lifespan of sensitive electronic equipment, reducing replacement and maintenance expenses.\n\n**4. Simplified Integration and Scalability:** The modular design of the Automatic Transfer Switch Module makes it easier to install and integrate into existing power distribution architectures. This reduces installation time and complexity, allowing for more flexible system design and straightforward scalability as power requirements evolve.\n\n**5. Improved Power Quality:** By ensuring a stable and continuous power feed, the system helps protect sensitive equipment from voltage sags, surges, and other power quality issues that can occur during unstable grid conditions or manual transfers. This leads to better performance and longevity for connected devices.\n\n**Keywords:** Automatic Transfer Switch Module benefits, uninterrupted power, enhanced reliability, reduced downtime, operational efficiency, modular design, power quality, critical systems.","question":"What are the key benefits of the Automatic Transfer Switch Module?"},{"answer":"The Automatic Transfer Switch Module differentiates itself from prior art in automatic transfer switch (ATS) technologies primarily through its emphasis on modularity, advanced intelligence, and optimized transfer performance.\n\nTraditional electromechanical ATS units, while common, often involve a noticeable 'break-before-make' transfer time, leading to momentary power interruptions that can negatively impact sensitive electronic loads. They also tend to be larger, less integrated, and require more custom installation. Static Transfer Switches (STS) offer faster, near-seamless transfers using solid-state components but are typically more expensive, have higher quiescent power losses, and are limited in application.\n\nThe Automatic Transfer Switch Module, as described in US-9853492, distinguishes itself by:\n\n**1. Modular Design:** Unlike many integrated or custom-built ATS solutions, this innovation is presented as a self-contained module. This significantly simplifies manufacturing, streamlines installation, and allows for easier scalability and maintenance. It promotes a more standardized, 'plug-and-play' approach to power redundancy.\n\n**2. Enhanced Intelligent Control:** While prior ATS systems have control logic, the module's design suggests a more integrated and sophisticated control system capable of precise, real-time monitoring of multiple power parameters. This advanced intelligence enables faster detection of power anomalies and a more optimized, rapid transfer sequence, minimizing the 'transfer gap' and enhancing power quality during the switch.\n\n**3. Optimized Performance:** By combining a dedicated switching mechanism with refined control logic within a single module, this technology aims for superior reliability and faster transfer times that approach the performance of STSs, but potentially with greater robustness and cost-effectiveness for broader applications. This makes it ideal for critical loads that cannot tolerate even brief power interruptions.\n\nIn essence, the Automatic Transfer Switch Module offers a more adaptable, efficient, and reliable solution by packaging advanced ATS functionality into an easily deployable and scalable unit, thereby addressing the limitations of older technologies in terms of integration complexity, transfer speed, and overall system resilience.\n\n**Keywords:** Automatic Transfer Switch Module vs prior art, ATS differentiation, modular ATS, intelligent power transfer, power redundancy advancements, US-9853492 unique features, transfer time optimization.","question":"How is the Automatic Transfer Switch Module different from prior art?"},{"answer":"The Automatic Transfer Switch Module is poised to have a transformative impact across a wide array of industries, particularly those where continuous power supply is mission-critical and downtime carries severe consequences.\n\n**1. Data Centers and Cloud Computing:** These are perhaps the most obvious beneficiaries. Hyperscale data centers, colocation facilities, and edge computing environments rely on absolute uptime. This technology ensures servers, cooling systems, and network infrastructure remain powered, preventing costly data loss, service disruptions, and breaches of Service Level Agreements (SLAs).\n\n**2. Healthcare Facilities:** Hospitals, clinics, and research laboratories require uninterrupted power for life-support equipment, operating rooms, diagnostic machinery, and electronic health records. The Automatic Transfer Switch Module provides a vital layer of redundancy, ensuring patient safety and operational continuity.\n\n**3. Telecommunications:** Mobile networks, internet service providers, and communication hubs must maintain continuous operation. This innovation helps keep cell towers, switching centers, and data transmission equipment online, especially during emergencies or natural disasters.\n\n**4. Manufacturing and Industrial Facilities:** Modern factories utilize automated production lines and sensitive machinery. Power interruptions can lead to significant production losses, equipment damage, and safety risks. This technology helps maintain consistent power for smooth manufacturing processes.\n\n**5. Critical Infrastructure:** This includes sectors like water treatment plants, transportation systems, and emergency services. Ensuring continuous power for these essential public services is paramount for community safety and functioning.\n\n**6. Financial Services:** Banks, stock exchanges, and payment processing centers require uninterrupted power for secure and continuous transactions, where even seconds of downtime can lead to massive financial losses.\n\nThe Automatic Transfer Switch Module is a foundational technology for building more resilient, efficient, and reliable infrastructure across these and other power-dependent sectors.\n\n**Keywords:** Automatic Transfer Switch Module industries, data center impact, healthcare power, telecommunications reliability, manufacturing uptime, critical infrastructure, financial services power, industry impact.","question":"What industries will the Automatic Transfer Switch Module impact?"},{"answer":"The patent for the Automatic Transfer Switch Module, identified by the number US-9853492, underwent a specific timeline in the patenting process.\n\nThe **Filing Date** for this patent was **2013-06-18**. This is the date when the patent application was officially submitted to the patent office, initiating the examination process. The filing date is significant as it establishes the priority date for the invention, meaning that the invention's novelty and inventiveness are generally assessed against prior art existing before this date.\n\nThe **Publication Date** for this patent was **2017-12-26**. This is the date when the patent was officially granted and published by the patent office. The publication date signifies that the patent has successfully undergone examination, met all patentability requirements (novelty, non-obviousness, utility), and the inventor(s) or assignee have been awarded exclusive rights to the invention for a specified period, typically 20 years from the earliest filing date.\n\nTherefore, the Automatic Transfer Switch Module, US-9853492, was filed in mid-2013 and granted in late 2017, reflecting a typical duration for the patent examination process.\n\n**Keywords:** Automatic Transfer Switch Module filing date, US-9853492 publication date, patent timeline, patent grant date, patent application date, intellectual property, patent process.","question":"When was the Automatic Transfer Switch Module filed/granted?"},{"answer":"The commercial applications of the Automatic Transfer Switch Module are extensive, driven by the universal need for reliable and uninterrupted power across various sectors. This patent provides a versatile solution that can be integrated into diverse products and systems:\n\n**1. Data Center Power Distribution Units (PDUs):** The module can be integrated directly into rack-level PDUs or larger data center power distribution systems, providing highly localized and granular power redundancy for servers and network equipment.\n\n**2. Uninterruptible Power Supply (UPS) Systems:** It can enhance UPS systems by intelligently managing their input power sources, ensuring the UPS always receives the most stable power before conditioning and distributing it to loads.\n\n**3. Critical Facility Power Panels:** The Automatic Transfer Switch Module can be deployed in the main electrical panels of hospitals, telecommunications hubs, emergency services buildings, and industrial plants to manage the transition between utility power, generators, and other backup sources.\n\n**4. Renewable Energy Integration:** As solar, wind, and battery storage systems become more prevalent, this module can facilitate seamless switching between renewable energy sources, grid power, and energy storage, optimizing power usage and enhancing grid stability for homes and businesses.\n\n**5. Microgrids and Distributed Generation:** For microgrid applications, the module can manage multiple power inputs (e.g., local generation, grid connection, battery banks), enabling greater energy independence and resilience for communities or industrial complexes.\n\n**6. Remote Site Power Solutions:** For remote cell towers, monitoring stations, or off-grid installations, the Automatic Transfer Switch Module can ensure continuous power by managing power from solar panels, wind turbines, and battery backups, minimizing the need for manual intervention.\n\nThese applications highlight the module's versatility as a foundational component for robust and intelligent power management solutions in both existing and emerging power architectures.\n\n**Keywords:** Automatic Transfer Switch Module commercial applications, data center PDU, UPS integration, critical facility power, renewable energy switching, microgrid power management, remote site power, power solutions.","question":"What are the commercial applications of the Automatic Transfer Switch Module?"},{"answer":"The foundational principles laid out in the Automatic Transfer Switch Module patent suggest several exciting avenues for future development and enhancement. As power systems evolve towards greater intelligence and decentralization, this technology is well-positioned for integration with emerging trends.\n\n**1. Integration with AI and Predictive Analytics:** Future versions could incorporate artificial intelligence and machine learning algorithms. This would enable the module to not only react to power failures but also predict potential outages based on grid data, weather patterns, or equipment diagnostics. Predictive switching could allow for proactive transfers, further minimizing any potential disruption.\n\n**2. Enhanced Communication and Grid Interoperability:** Expect more sophisticated communication interfaces (e.g., IoT protocols, 5G connectivity) that allow the Automatic Transfer Switch Module to communicate seamlessly with smart grid infrastructure, building management systems, and other distributed energy resources. This would enable dynamic load balancing, optimized power routing, and participation in demand-response programs.\n\n**3. Self-Healing Grid Capabilities:** In a more advanced smart grid context, these modules could form a network of intelligent switching points. In the event of a localized outage, these networked modules could coordinate to isolate the fault and reroute power from alternative sources, contributing to a self-healing grid that automatically restores service.\n\n**4. Integration with Advanced Energy Storage:** As battery energy storage systems become more ubiquitous, the module's ability to intelligently switch between grid, generation, and storage will be paramount. Future developments might include optimized algorithms for charging/discharging batteries based on real-time power conditions and energy pricing.\n\n**5. Miniaturization and Decentralization:** Further advancements in power electronics could lead to even smaller, more efficient versions of the Automatic Transfer Switch Module, allowing for highly granular power redundancy at the device or sub-system level, fostering even greater resilience. This could enable 'power islands' for individual critical loads within a larger facility.\n\nThese developments would solidify the Automatic Transfer Switch Module's role as a cornerstone technology for truly resilient, intelligent, and sustainable power ecosystems of the future.\n\n**Keywords:** Automatic Transfer Switch Module future, AI in power management, smart grid integration, predictive switching, self-healing grid, energy storage integration, power system innovation, decentralized power.","question":"What are the future developments expected for the Automatic Transfer Switch Module?"}],"topics":["automatic transfer switch module","power redundancy","uninterrupted power supply","critical infrastructure","power management","quest","uninterrupted","power"],"tech_cluster":null},"seo":{"title":"Automatic Transfer Switch Module - Patent US-9853492","description":"Discover the Automatic Transfer Switch Module patent (US-9853492) for seamless power redundancy. Ensures continuous supply from multiple sources, boosting reliability for critical systems.","keywords":["automatic transfer switch module","power redundancy","uninterrupted power supply","critical infrastructure","power management","ATS patent","US-9853492","power reliability","energy resilience","data center power","electrical switching","backup power"]},"attribution":{"source":"Patentable","source_url":"https://patentable.app","canonical_url":"https://patentable.app/patents/US-9853492","license":"CC-BY-4.0-like","license_terms":"AI-generated analysis on this page (summary, layman_explanation, technical_analysis, business_analysis, faqs) may be reused with attribution and a visible link back to the canonical URL above. Patent abstracts, claims, and bibliographic data are USPTO public domain.","required_link":"https://patentable.app/patents/US-9853492","citation_suggestion":"Patentable. \"Automatic transfer switch module\" (US-9853492). https://patentable.app/patents/US-9853492","copyright_holder":"Nomic Interactive Technology LLC"},"links":{"html":"https://patentable.app/patents/US-9853492","json":"https://patentable.app/api/llm-context/US-9853492","site":"https://patentable.app","llms_txt":"https://patentable.app/llms.txt"},"generated_at":"2026-06-06T16:52:34.067Z"}