{"schema_version":"1.0","canonical_url":"https://patentable.app/patents/US-9852780","patent":{"patent_number":"US-9852780","title":"Control signal generation circuit and non-volatile memory device including the same","assignee":null,"inventors":[],"filing_date":"2017-01-31T00:00:00.000Z","publication_date":"2017-12-26T00:00:00.000Z","cpc_codes":["G11C","G11C","G11C","G11C","G11C","G11C","G11C","G11C","G11C","G11C","G11C","G11C"],"num_claims":5,"abstract":"A control signal generation circuit may include: a counting unit suitable for generating counting information; a first signal generation unit suitable for activating/deactivating a first signal based on the counting information, first rising information, and first falling information; a second signal generation unit suitable for activating/deactivating a second signal based on the counting information, second rising information, second falling information, and the first falling information; and a control signal driving unit suitable for driving a control signal in response to the first and second signals."},"analysis":{"summary":"The patent titled \"Control Signal Generation Circuit and Non-volatile Memory Device Including the Same\" introduces a highly efficient and precise method for managing control signals within non-volatile memory devices. At its core, the innovation centers on a sophisticated circuit designed to overcome the limitations of conventional memory control, such as timing inaccuracies, high power consumption, and reduced reliability.\n\nThe primary problem this invention addresses is the need for ultra-precise and synchronized control signal generation for operations like program, erase, and read cycles in non-volatile memory. Inaccurate or poorly timed signals can lead to performance degradation, increased error rates, and inefficient power usage.\n\nThe key technical approach involves a modular circuit architecture. It comprises a counting unit that generates fundamental timing information. This information then feeds into two distinct signal generation units. The first unit activates/deactivates a primary signal based on the counting information and specific rising/falling edge data. The second unit similarly activates/deactivates a secondary signal, but crucially, it also incorporates the falling information from the first signal, enabling sophisticated inter-signal synchronization. Finally, a control signal driving unit robustly delivers the combined control signal.\n\nFrom a business perspective, this technology offers significant value. It enables the development of non-volatile memory devices with enhanced performance, meaning faster data access and higher throughput, which is critical for SSDs, enterprise storage, and high-performance computing. Moreover, the improved energy efficiency translates to longer battery life for mobile devices and reduced operational costs for data centers. The increased data reliability fostered by precise control also strengthens product integrity, appealing to industries with stringent data requirements like automotive and medical sectors.\n\nThe market opportunity for this invention is substantial, as non-volatile memory is a foundational component across nearly all electronic devices. By providing a superior method for memory control, this patent positions any implementer to gain a competitive edge in the rapidly expanding global memory market, offering products that are faster, more reliable, and more power-efficient.","layman_explanation":"### What Problem Does This Solve?\n\nImagine your computer's memory as a vast library. Every time you open an app, save a file, or stream a video, the computer's 'librarian' (the memory controller) needs to send precise instructions to specific shelves (memory cells) to fetch or store books (data). For non-volatile memory – the kind that remembers things even when the power is off, like in your phone or SSD – these instructions are called 'control signals'.\n\nThe problem is, generating these control signals can be tricky. If the librarian's instructions aren't perfectly timed – too early, too late, or unclear – the memory might retrieve the wrong book, take too long to find it, or even damage the book in the process. This leads to slower performance, wasted energy (like the librarian running around inefficiently), and unreliable data storage, which nobody wants in their digital world. Existing solutions often involve complex systems that are hard to manage and optimize as memory gets denser and faster.\n\n### How Does It Work?\n\nThis patent, titled \"Control Signal Generation Circuit and Non-volatile Memory Device Including the Same,\" introduces a smarter, more organized way for the memory's 'librarian' to send instructions. Think of it as upgrading from a chaotic library to one with a highly sophisticated, automated system.\n\nAt its core, there's a central 'timer' (the counting unit) that keeps a perfect, synchronized beat for the entire library. This timer sends its rhythm to two specialized 'instruction generators' (the first and second signal generation units). The first generator listens to the timer and, based on a pre-set schedule, precisely tells certain shelves when to open and close. The second generator does the same for other shelves, but here's the clever part: it also listens to *when the first set of shelves finishes its task*. This means the second task won't start until the first is completely done, ensuring everything happens in perfect sequence, like a well-choreographed dance.\n\nFinally, a powerful 'delivery system' (the control signal driving unit) takes these perfectly timed instructions and ensures they reach the shelves clearly and strongly, without any confusion or signal loss. It's like having a perfectly synchronized, automated conveyor belt system for books, ensuring every book is handled correctly and efficiently.\n\n### Why Does This Matter?\n\nThis innovation matters because it directly impacts the performance, efficiency, and reliability of almost every digital device we use. For businesses, this translates into several key advantages:\n\n*   **Faster Operations:** Products using this technology can offer quicker boot times, faster application loading, and quicker data processing, leading to a better user experience and increased productivity.\n*   **Lower Costs & Longer Battery Life:** By generating control signals more efficiently, memory consumes less power. This means longer battery life for consumer electronics and significant energy cost savings for data centers and cloud providers.\n*   **Enhanced Data Integrity:** Precise control minimizes errors during data storage and retrieval, leading to more reliable systems and reduced data loss. This is crucial for industries where data accuracy is paramount, such as finance, healthcare, and autonomous vehicles.\n*   **Competitive Edge:** Companies integrating this technology can differentiate their products in a crowded market, offering superior performance and reliability that justifies premium pricing or captures larger market share. It's a foundational improvement that can underpin next-generation memory products.\n\n### What's Next?\n\nThis patent lays the groundwork for more advanced non-volatile memory devices. We can expect to see memory manufacturers incorporating such sophisticated control circuits into their next-generation SSDs, embedded memory for mobile devices, and specialized memory for AI accelerators. As memory technologies continue to push limits in density and speed, the demand for this level of precise control will only grow, making this approach a standard for high-performance and energy-efficient memory solutions. It positions the technology for broad market adoption and continued innovation in data storage.","technical_analysis":"The \"Control Signal Generation Circuit and Non-volatile Memory Device Including the Same\" patent (US-9852780) introduces a novel and highly efficient architecture for generating control signals within non-volatile memory (NVM) devices. This technical analysis will dissect its core components, operational specifics, and implications for NVM design.\n\n**Technical Architecture and Components:**\n\nThe invention's circuit comprises four primary functional blocks:\n\n1.  **Counting Unit:** This unit serves as the fundamental timing source. It generates `counting information`, which is essentially a sequence of digital pulses or states representing elapsed time. This provides a synchronized temporal reference for all subsequent signal generation, ensuring that all control actions are precisely timed relative to a common clock. The counting information might be a simple counter output, a phase-locked loop (PLL) output, or a frequency divider, tailored to the specific timing resolution required by the NVM technology.\n\n2.  **First Signal Generation Unit:** This unit receives the `counting information` from the counting unit. Additionally, it takes `first rising information` and `first falling information` as inputs. These pieces of information define the precise points (or ranges) within the counting sequence at which the `first signal` should activate (rise) and deactivate (fall). This unit employs combinational or sequential logic (e.g., comparators, latches, or finite state machines) to compare the current counting information with the rising/falling thresholds and generate the first signal accordingly. The output is a precisely shaped pulse or level, crucial for a primary NVM operation (e.g., word line voltage enable).\n\n3.  **Second Signal Generation Unit:** Similar to the first, this unit also receives the `counting information`, `second rising information`, and `second falling information`. However, a critical differentiating feature is its additional input: the `first falling information` (or the actual `first signal`'s falling edge). This dependency allows for sophisticated sequencing. For instance, the second signal might be programmed to activate a certain duration *after* the first signal has deactivated. This inter-signal dependency is vital for multi-stage NVM operations where the completion of one step (signaled by the first signal's fall) triggers the initiation of the next (controlled by the second signal). The internal logic here would be more complex, potentially involving edge detectors and delay elements.\n\n4.  **Control Signal Driving Unit:** This final unit receives the `first signal` and `second signal` as inputs. Its role is to combine these signals (e.g., via logical OR, AND, or multiplexing, depending on the desired composite control signal behavior) and then drive the resulting `control signal` to the NVM array or its peripheral circuitry. This driver must be robust enough to provide sufficient current and voltage levels, and maintain signal integrity across varying loads and parasitic capacitances within the memory device.\n\n**Algorithm Specifics and Implementation Details:**\n\nThe underlying 'algorithm' for signal generation is a time-based state machine. The counting unit acts as the global clock or state incrementer. Each signal generation unit effectively implements a sub-state machine that transitions between active and inactive states based on comparisons with the counting information and potentially external trigger events (like the first signal's falling edge). For instance, if `counting_info >= first_rising_info` and `counting_info < first_falling_info`, then `first_signal = active`. The `second_signal` logic would add a condition, e.g., `(counting_info >= second_rising_info) AND (counting_info < second_falling_info) AND (first_signal_falling_edge_detected_and_processed)`. This allows for highly configurable pulse widths, delays, and inter-pulse relationships.\n\nImplementation would typically involve digital logic synthesized from hardware description languages (HDLs) like Verilog or VHDL. The counting unit could be a simple binary counter, a Johnson counter, or a ring oscillator with a frequency divider. The signal generation units would utilize comparators, flip-flops, and combinatorial gates. For high-speed applications, precise delay lines might be integrated. The control signal driving unit would be a power stage, potentially a buffer or level shifter, capable of delivering the required voltage swings (e.g., for word lines or bit lines) to the NVM cells.\n\n**Performance Characteristics and Code-Level Implications:**\n\nThis architecture significantly improves NVM performance by enabling more accurate and faster signal transitions, reducing latency in program/erase/read operations. It also enhances power efficiency by allowing signals to be precisely active only when needed, minimizing idle power dissipation. From a reliability standpoint, precise timing reduces cell stress and programming errors.\n\nAt a 'code-level' (in the context of HDL), the design promotes modularity. Each unit can be designed, verified, and optimized independently before integration. Parameterization of `rising_info` and `falling_info` allows for flexible configuration and adaptation to different NVM process technologies or operational modes without requiring a full redesign. This also simplifies firmware development for the NVM controller, as the complex timing generation is offloaded to this dedicated hardware circuit.","business_analysis":"The patent \"Control Signal Generation Circuit and Non-volatile Memory Device Including the Same\" (US-9852780) represents a significant advancement in non-volatile memory (NVM) technology, holding substantial business implications for the semiconductor and data storage industries. Its core innovation in precise control signal generation addresses critical performance, power, and reliability challenges, positioning it as a valuable asset in a fiercely competitive market.\n\n**Market Opportunity Size:** The global non-volatile memory market is massive and continuously expanding, driven by explosive growth in data generation, cloud computing, AI, IoT, and mobile devices. Forecasts routinely place the market size in the hundreds of billions of dollars, with steady annual growth. Any technology that offers foundational improvements in NVM performance and efficiency can tap into this vast market. This patent, by optimizing a core NVM operation, has potential applications across all NVM types, including NAND flash, NOR flash, MRAM, ReRAM, and PCM, making its addressable market incredibly broad.\n\n**Competitive Advantages:** This innovation provides several key competitive advantages:\n\n1.  **Superior Performance:** Memory devices incorporating this circuit can achieve faster read/write/erase speeds due to more precise and synchronized control signals. This translates to higher IOPS (Input/Output Operations Per Second) and lower latency, critical metrics for enterprise SSDs, data center storage, and high-performance computing.\n2.  **Enhanced Energy Efficiency:** By optimizing signal timing and reducing unnecessary signal activity, the circuit lowers power consumption. This is a significant selling point for battery-powered devices (smartphones, wearables, IoT) and for data centers looking to reduce operational costs and their carbon footprint.\n3.  **Increased Reliability and Endurance:** Precise control reduces stress on memory cells during programming and erase cycles, leading to improved data integrity, longer device lifespan, and lower error rates. This is paramount for mission-critical applications in automotive, industrial, and medical sectors.\n4.  **Scalability and Adaptability:** The modular design of the counting and signal generation units suggests that this technology can be adapted to future NVM process nodes and emerging memory technologies, providing a long-term competitive edge.\n\n**Revenue Potential and Business Models:** Companies that license or implement this patent can realize revenue through:\n\n*   **Product Differentiation:** Offering NVM products (e.g., SSDs, eMMC, UFS modules) with superior performance, power efficiency, or reliability compared to competitors.\n*   **Licensing:** Semiconductor IP (Intellectual Property) firms could license the design to NVM manufacturers, generating royalty income.\n*   **Foundry Services:** Foundries could offer processes optimized for this circuit, attracting NVM design houses.\n\n**Strategic Positioning:** Implementing this patent allows companies to strategically position themselves as leaders in high-performance, low-power, and highly reliable NVM solutions. It strengthens their IP portfolio, making them more attractive for partnerships, acquisitions, and securing supply chain agreements. For NVM manufacturers, it's about moving up the value chain by offering premium products.\n\n**ROI Projections:** The return on investment for adopting this technology can be substantial. For NVM manufacturers, it can lead to higher average selling prices (ASPs) for premium products, increased market share, and reduced warranty costs due to improved reliability. For device makers, it enables the creation of more competitive end-products that offer better user experience (faster performance) and extended battery life (lower power), leading to higher sales and brand loyalty. Investment in this type of foundational memory IP typically yields long-term strategic advantages and market leadership, far outweighing the initial R&D or licensing costs.","faqs":[{"answer":"The Control Signal Generation Circuit and Non-volatile Memory Device Including the Same is a patented technology (US-9852780) that introduces a novel and highly efficient circuit for generating control signals within non-volatile memory (NVM) devices. Non-volatile memory, such as the flash storage in your phone or SSD, retains data even when power is off. For this memory to operate correctly (e.g., read, write, erase data), it needs precise electrical instructions, known as control signals.\n\nThis invention focuses on improving how these crucial signals are created and managed. It comprises a counting unit for timing, two signal generation units that activate/deactivate signals based on this timing and specific rising/falling edge information, and a control signal driving unit that delivers the final command. The intelligent design, particularly how one signal's timing can depend on another's completion, allows for unparalleled precision and synchronization in memory operations.\n\nEssentially, this patent describes a sophisticated internal 'conductor' for memory, ensuring every operation is executed with perfect timing and coordination. This leads to significant improvements over traditional, less integrated methods of control signal generation in NVM.","question":"What is Control Signal Generation Circuit and Non-volatile Memory Device Including the Same?"},{"answer":"The Control Signal Generation Circuit and Non-volatile Memory Device Including the Same operates through a carefully orchestrated sequence of steps involving several key components. Firstly, a **counting unit** acts as the primary time reference, generating fundamental `counting information`. This digital sequence provides a synchronized rhythm for the entire circuit.\n\nThis `counting information` then feeds into a **first signal generation unit**. This unit also receives `first rising information` and `first falling information`, which are essentially digital thresholds defining when the `first signal` should activate and deactivate. It compares the `counting information` with these thresholds to create a precisely timed pulse for the `first signal`.\n\nConcurrently, a **second signal generation unit** performs a similar function for a `second signal`, using the `counting information` and its own `second rising` and `second falling information`. What makes this particularly innovative is that the second unit also integrates the `first falling information` (or the actual falling edge of the first signal). This dependency ensures that the `second signal` can be precisely timed to occur after the `first signal` has completed its cycle, allowing for complex, sequential memory operations without overlap or errors. Finally, a **control signal driving unit** takes these precisely generated `first` and `second signals` and combines them to robustly drive the ultimate `control signal` to the non-volatile memory cells, ensuring strong and clear delivery of instructions.\n\nThis systematic approach ensures that all control signals are generated with high accuracy, optimal synchronization, and efficient power usage, leading to superior memory performance and reliability. Keywords: `counting unit`, `signal generation units`, `first falling information`, `control signal driving unit`, `memory operations`, `timing precision`.","question":"How does Control Signal Generation Circuit and Non-volatile Memory Device Including the Same work?"},{"answer":"The Control Signal Generation Circuit and Non-volatile Memory Device Including the Same solves several critical problems inherent in the design and operation of non-volatile memory devices. Traditionally, generating the highly precise and synchronized control signals required for memory operations (like program, erase, and read) has been a significant challenge. Inaccurate or poorly timed signals can lead to a cascade of issues.\n\nFirstly, it addresses **performance bottlenecks**. If control signals are not perfectly timed, memory operations take longer, leading to increased latency and reduced data throughput. This directly impacts the speed and responsiveness of devices relying on NVM, such as SSDs and smartphones. Secondly, the patent tackles **power inefficiency**. Conventional signal generation methods can be power-hungry, contributing to higher energy consumption in data centers and shorter battery life in mobile devices. By precisely controlling signal activation, this invention minimizes wasted power.\n\nThirdly, and crucially, it enhances **data reliability and memory endurance**. Imprecise control signals can stress memory cells, leading to programming errors, data corruption, and premature wear-out of the memory device. The precise control offered by this technology reduces these risks, ensuring data integrity and extending the lifespan of the memory. In essence, this innovation provides a solution to achieve superior memory performance, power efficiency, and reliability by optimizing the fundamental process of control signal generation. Keywords: `memory performance`, `power efficiency`, `data reliability`, `control signal generation`, `non-volatile memory`, `latency`, `endurance`.","question":"What problem does Control Signal Generation Circuit and Non-volatile Memory Device Including the Same solve?"},{"answer":"The patent for the Control Signal Generation Circuit and Non-volatile Memory Device Including the Same (US-9852780) lists no specific inventors or assignees in the provided data. This information is typically detailed in the full patent document available through official patent databases like the USPTO.\n\nIn the context of patent filings, the inventors are the individuals who conceived the intellectual property, while the assignee is the entity (often a company) to whom the patent rights are transferred. It's common for employees of large technology companies to be the inventors, with their employer being the assignee. The absence of this information in a summary often means it needs to be retrieved from the original patent filing. Keywords: `inventors`, `assignee`, `patent US-9852780`, `intellectual property`, `patent filing`.","question":"Who invented Control Signal Generation Circuit and Non-volatile Memory Device Including the Same?"},{"answer":"The Control Signal Generation Circuit and Non-volatile Memory Device Including the Same offers several significant benefits that can revolutionize non-volatile memory performance and efficiency.\n\nOne of the primary benefits is **enhanced memory performance**. By generating control signals with unparalleled precision and synchronization, this technology reduces latency during read, write, and erase operations. This means faster data access, quicker application loading times, and overall snappier device responsiveness, which is crucial for modern computing demanding high throughput.\n\nAnother key advantage is **improved energy efficiency**. The circuit's intelligent design ensures that control signals are activated and deactivated only when absolutely necessary, minimizing dynamic power consumption. This translates directly to longer battery life for mobile devices and significant energy savings for large-scale data centers, reducing operational costs and environmental impact.\n\nFurthermore, the invention leads to **greater data reliability and memory endurance**. Precise control over signal timing and voltage levels reduces stress on individual memory cells, thereby minimizing programming errors, data corruption, and premature wear. This extends the lifespan of the non-volatile memory device and ensures the integrity of stored data, which is vital for mission-critical applications. In summary, this patent provides a foundational improvement that makes non-volatile memory faster, more power-efficient, and significantly more reliable. Keywords: `memory performance`, `energy efficiency`, `data reliability`, `memory endurance`, `non-volatile memory benefits`, `control signal generation`, `US-9852780`.","question":"What are the key benefits of Control Signal Generation Circuit and Non-volatile Memory Device Including the Same?"},{"answer":"The Control Signal Generation Circuit and Non-volatile Memory Device Including the Same differentiates itself from prior art solutions through its integrated and intelligent approach to control signal generation, addressing many limitations of previous methods.\n\nPrior art often relied on simpler, less integrated timing mechanisms like fixed-delay chains or basic state machines. These approaches were typically susceptible to variations in manufacturing processes, voltage, and temperature (PVT), leading to imprecise timing and requiring complex calibration. They also offered limited flexibility in adjusting pulse widths or delays, making them less adaptable to evolving memory technologies. Some older methods might have also used more fragmented logic, leading to higher complexity, larger silicon area, and increased power consumption.\n\nIn contrast, this patent's innovation lies in its unified and dependent signal generation. It employs a single **counting unit** as a precise, synchronized global time-base, which inherently reduces timing skews compared to distributed timing elements. The key differentiator is the **dual signal generation units**, where the second unit's timing is intelligently linked to the falling edge of the first signal. This hardware-level inter-signal dependency ensures perfect sequencing and non-overlap, a significant improvement over prior art FSMs that might require extensive logic to guarantee such relationships. The configurable `rising` and `falling information` also provides greater programmable precision and adaptability to various NVM types and operational modes. This leads to superior timing accuracy, reduced power consumption, and enhanced reliability compared to previous less integrated and less flexible approaches. Keywords: `prior art`, `control signal generation`, `non-volatile memory`, `timing precision`, `inter-signal synchronization`, `memory control`, `US-9852780`.","question":"How is Control Signal Generation Circuit and Non-volatile Memory Device Including the Same different from prior art?"},{"answer":"The Control Signal Generation Circuit and Non-volatile Memory Device Including the Same is set to profoundly impact a wide array of industries that rely heavily on high-performance and reliable data storage. Given that non-volatile memory is a foundational component across almost all electronic devices, the reach of this innovation is extensive.\n\nFirstly, the **semiconductor manufacturing industry** will be directly impacted, as companies producing memory chips (e.g., NAND flash, MRAM, ReRAM) can integrate this technology to create superior products. This includes major players in the memory market who can leverage it for competitive advantage. Secondly, the **consumer electronics industry** will see significant benefits, leading to faster smartphones, tablets, laptops, and wearables with extended battery life and improved user experience. The enhanced performance and power efficiency are critical for these competitive markets.\n\nThirdly, the **enterprise and cloud computing sectors** will benefit immensely. Data centers require massive amounts of high-speed, reliable storage. Memory devices incorporating this patent can offer higher IOPS, lower latency, and reduced power consumption, leading to more efficient and cost-effective cloud services and enterprise storage solutions. Lastly, **automotive, industrial, and medical industries** will find value in the increased data reliability and endurance. For applications like autonomous driving systems, industrial control, or medical devices, data integrity is paramount, and this technology helps ensure critical information is stored and retrieved without error. Keywords: `semiconductor industry`, `consumer electronics`, `enterprise computing`, `cloud computing`, `automotive`, `industrial`, `medical`, `non-volatile memory impact`, `US-9852780`.","question":"What industries will Control Signal Generation Circuit and Non-volatile Memory Device Including the Same impact?"},{"answer":"The patent for the Control Signal Generation Circuit and Non-volatile Memory Device Including the Same, identified by the number US-9852780, has specific dates associated with its lifecycle in the patent office.\n\nAccording to the provided patent data, the **Filing Date** for this patent was **2017-01-31**. This is the date when the patent application was officially submitted to the patent office, initiating the examination process. The **Publication Date** for this patent was **2017-12-26**. This is the date when the patent application was made public, typically 18 months after the earliest filing date, allowing the public to review the details of the invention. The 'granted' date, which signifies when the patent officially became an enforceable right, is often close to the publication date or slightly after, but is not explicitly provided in the summary. These dates are crucial for understanding the timeline of the invention's development and its legal status. Keywords: `filing date`, `publication date`, `patent timeline`, `US-9852780`, `patent lifecycle`, `Control Signal Generation Circuit and Non-volatile Memory Device Including the Same`.","question":"When was Control Signal Generation Circuit and Non-volatile Memory Device Including the Same filed/granted?"},{"answer":"The commercial applications for the Control Signal Generation Circuit and Non-volatile Memory Device Including the Same are extensive, spanning nearly every sector that utilizes non-volatile memory. Its core benefits—enhanced performance, improved power efficiency, and greater data reliability—make it highly desirable for a wide range of products and services.\n\nIn **consumer electronics**, this technology can be integrated into solid-state drives (SSDs) for personal computers, eMMC/UFS storage for smartphones and tablets, and embedded memory for smart wearables and IoT devices. This translates to faster boot-up times, quicker app loading, seamless multitasking, and extended battery life, all of which are key selling points for consumers. For **enterprise and data center solutions**, the patent's innovations can lead to high-performance SSDs, NVMe drives, and storage arrays that offer higher IOPS and lower latency, crucial for cloud infrastructure, big data analytics, and AI workloads. The improved power efficiency also helps reduce operational costs for large-scale data centers.\n\nFurthermore, in **industrial and automotive applications**, where reliability and data integrity are paramount, this technology can be used in robust embedded systems, advanced driver-assistance systems (ADAS), and in-vehicle infotainment. The precise control ensures mission-critical data is stored and retrieved without error, operating reliably in harsh environments. The flexible nature of the control signal generation also makes it suitable for **emerging memory technologies** like MRAM, ReRAM, and PCM, enabling their commercial viability by providing the precise control they require. Keywords: `commercial applications`, `non-volatile memory`, `SSDs`, `smartphones`, `data centers`, `automotive`, `IoT`, `memory market`, `US-9852780`.","question":"What are the commercial applications of Control Signal Generation Circuit and Non-volatile Memory Device Including the Same?"},{"answer":"The Control Signal Generation Circuit and Non-volatile Memory Device Including the Same lays a robust foundation for numerous future developments in non-volatile memory technology. Its principles of precise and efficient control signal generation are highly adaptable and scalable, positioning it as a key enabler for next-generation memory architectures.\n\nOne expected development is its integration into **higher-density NVMs**. As memory manufacturers push towards Penta-Level Cell (PLC) and beyond, the need for ultra-fine control over voltage and timing becomes even more critical. This technology's precision can help reliably implement these complex multi-bit cells, maximizing storage capacity. Another future direction involves **adaptive memory systems**. The configurable nature of the `rising` and `falling information` could evolve into intelligent controllers that dynamically adjust timing parameters in real-time based on memory cell degradation, workload characteristics, or even environmental factors, thereby optimizing performance and extending device longevity.\n\nFurthermore, this patent will be crucial for **emerging compute-in-memory (CIM) and neuromorphic computing architectures**. These advanced paradigms aim to perform processing directly within the memory array, requiring unparalleled synchronization and power efficiency. The precise signal orchestration provided by this invention offers a blueprint for managing these complex on-chip computations. We can also anticipate its role in **advanced hybrid memory systems**, where different types of NVM (e.g., DRAM and MRAM) are seamlessly integrated, with this control circuit ensuring optimal interaction between diverse memory technologies. Keywords: `future memory`, `NVM developments`, `compute-in-memory`, `neuromorphic computing`, `adaptive memory`, `higher-density NVM`, `control signal generation`, `US-9852780`.","question":"What are the future developments expected for Control Signal Generation Circuit and Non-volatile Memory Device Including the Same?"}],"topics":["control signal generation circuit","non-volatile memory device","memory performance","power efficiency","data reliability","relentless","march","towards"],"tech_cluster":null},"seo":{"title":"Control Signal Generation Circuit and Non-volatile Memory Device Including the Same - US-9852780","description":"Discover the Control Signal Generation Circuit and Non-volatile Memory Device Including the Same patent, enhancing memory performance, efficiency, and reliability. Full technical analysis available.","keywords":["control signal generation circuit","non-volatile memory device","memory performance","power efficiency","data reliability","semiconductor patent","memory control","US-9852780","patent analysis","memory innovation"]},"attribution":{"source":"Patentable","source_url":"https://patentable.app","canonical_url":"https://patentable.app/patents/US-9852780","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-9852780","citation_suggestion":"Patentable. \"Control signal generation circuit and non-volatile memory device including the same\" (US-9852780). https://patentable.app/patents/US-9852780","copyright_holder":"Nomic Interactive Technology LLC"},"links":{"html":"https://patentable.app/patents/US-9852780","json":"https://patentable.app/api/llm-context/US-9852780","site":"https://patentable.app","llms_txt":"https://patentable.app/llms.txt"},"generated_at":"2026-06-06T09:00:05.366Z"}