{"schema_version":"1.0","canonical_url":"https://patentable.app/patents/US-9852814","patent":{"patent_number":"US-9852814","title":"Rupture control device and semiconductor device to improve yield","assignee":null,"inventors":[],"filing_date":"2016-09-02T00:00:00.000Z","publication_date":"2017-12-26T00:00:00.000Z","cpc_codes":["G11C","G11C","G11C","G11C","G11C"],"num_claims":16,"abstract":"A rupture control device may include an address control circuit configured to generate a rupture address in response to a first rupture command signal, a rupture mask signal and an external address, wherein the rupture address is generated according to whether the rupture mask signal is activated, and wherein an address and fuse data are compared, and a rupture mask signal indicating whether a fuse is ruptured is determined. Further, a fuse array configured to perform a rupture operation in response to the rupture address when a rupture enable signal is activated, and output the fuse data in response to a read enable signal."},"analysis":{"summary":"The patent for a Rupture Control Device and Semiconductor Device to Improve Yield (US-9852814) introduces a pivotal innovation designed to significantly enhance manufacturing yields and reliability in semiconductor devices. At its core, this technology provides an advanced method for precisely controlling the rupture (programming) of on-chip fuses, which are crucial for device configuration, calibration, and unique identification.\n\nThe primary problem this invention addresses is the inherent imprecision and potential for error in conventional fuse rupture processes. Existing methods can lead to unintended ruptures of adjacent fuses, incomplete ruptures, or unreliable verification, all of which contribute to lower manufacturing yields and compromised device integrity. These issues translate directly into increased production costs and reduced product reliability.\n\nThis patent's key technical approach centers on an intelligent address control circuit. This circuit generates a 'rupture address' by combining a 'first rupture command signal,' a 'rupture mask signal,' and an 'external address.' Crucially, the 'rupture mask signal' dictates whether a specific fuse location is permitted to undergo a rupture operation, enabling highly selective programming. The system further incorporates a mechanism to compare the generated address with existing fuse data, providing real-time feedback on the fuse's state and determining if it has already been ruptured. This feedback refines the rupture mask, ensuring accuracy.\n\nFurthermore, a fuse array is configured to perform the actual rupture operation only when the correct rupture address is received and a 'rupture enable signal' is activated, adding a robust layer of control. The device also facilitates the output of fuse data in response to a 'read enable signal,' allowing for immediate post-rupture verification.\n\nFrom a business perspective, the Rupture Control Device and Semiconductor Device to Improve Yield offers substantial value. By minimizing defects caused by faulty fuse programming, it directly leads to higher manufacturing yields, reducing material waste and production costs. Enhanced device reliability translates into fewer product returns and improved brand reputation. This innovation also enables more complex and precise device configurations, opening new possibilities for advanced semiconductor products. The market opportunity lies in virtually every sector utilizing integrated circuits, from consumer electronics to automotive and industrial applications, where the demand for high-reliability, high-yield components is ceaseless. This technology positions manufacturers to gain a significant competitive advantage in a demanding global market.","layman_explanation":"### What Problem Does This Solve?\n\nImagine you're building incredibly complex miniature cities, like computer chips, where every tiny switch and connection has to be perfect. In these chips, there are small, permanent 'switches' called fuses. These fuses are programmed after the chip is made to customize its functions, calibrate it, or give it a unique ID – essentially, to tell it exactly what kind of city it needs to be. The problem is, 'programming' these fuses involves physically altering them, a process known as 'rupturing.'\n\nCurrently, this rupture process can be a bit like trying to flip a specific tiny switch with a blunt instrument in a dark room. You might accidentally flip the wrong switch, or not flip the intended one completely, or even damage nearby switches. When this happens, the entire chip becomes defective, leading to significant waste in manufacturing (lower 'yields') and potentially unreliable products that fail later. This directly impacts a company's bottom line through increased costs and damaged reputation.\n\n### How Does It Work?\n\nThe patent for a Rupture Control Device and Semiconductor Device to Improve Yield introduces a much smarter, more precise way to handle these critical 'switches.' Think of it as upgrading from that blunt instrument to a robot surgeon with a laser pointer and X-ray vision. Here’s the conceptual breakdown:\n\n1.  **Smart Addressing:** Instead of just pointing generally, this system uses an 'address control circuit' that acts like a highly intelligent GPS. When you want to program a specific fuse, it calculates the exact 'rupture address' – the precise location of that one switch. It doesn't just rely on a simple command; it takes into account an 'external address' (the general area) and, crucially, a 'rupture mask signal.'\n2.  **The 'Rupture Mask':** This is like a tiny, custom-made stencil that fits perfectly over the target fuse, shielding all the others. The system uses this 'rupture mask signal' to ensure that even if the laser pointer wavers slightly, only the intended fuse can be affected. This prevents accidental damage to neighboring components. It can even be dynamically adjusted – if the system detects an issue, it can refine the mask.\n3.  **Real-Time Verification:** The 'X-ray vision' part. Before and after attempting to 'flip' the switch, the system compares the target address with the actual state of the fuses (the 'fuse data'). It instantly knows if the fuse was successfully ruptured, if it was already ruptured, or if something went wrong. This immediate feedback helps refine the process and ensures accuracy.\n4.  **Safe Activation:** The physical rupture only happens when a specific 'rupture enable signal' gives the absolute green light, adding another layer of safety. Once ruptured, the system can reliably 'read' the new state of the fuse to confirm everything is correct.\n\nSo, this innovation ensures that each tiny switch is perfectly programmed, every time, with no collateral damage, and with immediate confirmation of success. It's like having a quality inspector built right into the programming tool.\n\n### Why Does This Matter?\n\nThis technology is a game-changer for any business involved in semiconductor manufacturing or using chips. Its impact is multifaceted:\n\n*   **Massive Cost Savings:** By dramatically increasing the 'yield' (the number of good chips produced from each batch), companies reduce waste and associated manufacturing costs significantly. This directly boosts profitability.\n*   **Unparalleled Reliability:** Chips configured using this precise method are inherently more reliable. This means fewer product defects, reduced warranty claims, and greater customer satisfaction, which are crucial for brand reputation and market share.\n*   **Enabling Innovation:** The confidence in precise fuse programming allows chip designers to implement more complex and sophisticated configurations, opening doors for advanced features, better performance, and enhanced security in next-generation products.\n*   **Competitive Edge:** Companies adopting this technology gain a significant competitive advantage in a fierce global market. They can produce higher quality, more reliable chips at a lower cost, positioning them as leaders in their respective segments.\n\n### What's Next?\n\nThe Rupture Control Device and Semiconductor Device to Improve Yield is set to become a standard for high-performance and high-reliability semiconductor fabrication. We can expect to see its principles integrated into a wide range of microcontrollers, processors, and specialized ICs across industries like automotive, artificial intelligence, and consumer electronics. As devices become smaller and more complex, the need for such precise control will only grow, making this patent a foundational technology for future advancements and a valuable asset for strategic investment in the semiconductor space.","technical_analysis":"The patent US-9852814, titled 'Rupture Control Device and Semiconductor Device to Improve Yield,' presents a sophisticated architectural solution for enhancing the precision and reliability of fuse rupture operations within semiconductor devices. This technical analysis delves into the core components, operational specifics, and the profound implications for modern microelectronics.\n\n**Technical Architecture Overview:**\n\nThe invention primarily comprises two interconnected functional blocks: an **address control circuit** and a **fuse array**. The address control circuit serves as the intelligent core, responsible for generating precise rupture commands. It takes multiple inputs to achieve this granular control:\n\n1.  **First Rupture Command Signal:** An initiation signal that triggers the rupture address generation process.\n2.  **Rupture Mask Signal:** A crucial input that acts as a programmable filter. This mask determines whether a specific address generated for rupture is actually allowed to proceed, providing selective control over the fuse array. This signal can be dynamically generated or updated based on feedback from the fuse array's current state.\n3.  **External Address:** The coarse address information indicating the general location of the target fuse or fuse block.\n\nBased on these inputs, the address control circuit synthesizes a **rupture address**. This address is a highly accurate pointer to the specific fuse intended for rupture. A key aspect of this generation is its conditional nature: the rupture address is formulated *according to whether the rupture mask signal is activated*. This implies a logical gating or mapping function where the mask can override or refine the external address's target.\n\n**Implementation Details and Algorithm Specifics:**\n\nFollowing the rupture address generation, the system executes a critical **comparison operation**. This involves comparing the generated rupture address with existing **fuse data**. This comparison serves a dual purpose:\n\n1.  **Verification of Target State:** It checks if the target fuse (identified by the rupture address) is already ruptured or in a specific state. This prevents redundant operations and potential damage.\n2.  **Rupture Mask Signal Determination:** Based on this comparison, a new or refined 'rupture mask signal' is determined, indicating the rupture status of the fuse. This feedback loop is vital for adaptive control, allowing the system to update its masking strategy for subsequent operations or for diagnostic purposes.\n\nThe **fuse array** is the physical component where the rupture operation takes place. It is configured to perform the actual 'rupture operation' under stringent conditions: specifically, only when the correct 'rupture address' is presented, AND a 'rupture enable signal' is activated. This dual-condition activation mechanism provides fail-safe operation, preventing accidental ruptures due to spurious signals or incorrect addressing.\n\nFurthermore, the fuse array is designed to output its 'fuse data' in response to a 'read enable signal.' This read-back capability is essential for post-programming verification, quality control, and diagnostic procedures. It allows for confirmation that the rupture operation was successful and that the fuse array is in its intended configured state.\n\n**Integration Patterns and Performance Characteristics:**\n\nThis technology integrates seamlessly into existing semiconductor device architectures, particularly those employing non-volatile memory elements for configuration. The address control circuit would typically reside within the peripheral logic of a microcontroller, FPGA, or ASIC, interfacing directly with the fuse array. The rupture and read enable signals, along with the external address and command signals, would be controlled by an external programming unit or internal configuration logic.\n\nPerformance characteristics are significantly improved compared to conventional methods. The precision offered by the rupture mask and address comparison dramatically reduces the probability of unintended ruptures (e.g., adjacent fuse damage), thereby improving the *yield* of functional devices. The real-time verification capability reduces test time and diagnostic overhead, contributing to overall *throughput*. The robust control mechanism also enhances the *reliability* of the programmed devices, leading to fewer field failures.\n\n**Code-Level Implications:**\n\nWhile the patent describes hardware components, the underlying logic for the address control circuit's operation would be defined in hardware description languages (HDLs) like VHDL or Verilog. The generation of the rupture mask signal, the comparison logic, and the conditional activation of the rupture enable signal would involve complex state machines and combinatorial logic. Software drivers on external programming equipment would interact with the device's rupture command and read enable interfaces, managing the sequence of operations and interpreting the fuse data output. The algorithms for mask generation and address comparison would be hardwired into the control circuit, ensuring high-speed, deterministic operation. This invention sets a new standard for intelligent, robust, and verifiable fuse programming in advanced semiconductor devices.","business_analysis":"The 'Rupture Control Device and Semiconductor Device to Improve Yield' patent (US-9852814) represents a critical advancement with substantial business implications across the semiconductor value chain. In an industry where yield directly translates to profitability and reliability dictates market trust, this innovation offers a compelling competitive advantage.\n\n**Market Opportunity Size:**\n\nThe global semiconductor market is a multi-trillion-dollar industry, with integrated circuits forming the backbone of virtually all modern electronic devices. Within this vast market, non-volatile configuration elements (like fuses) are ubiquitous, used in microcontrollers, FPGAs, ASICs, memory devices, and power management ICs. Any technology that significantly improves the manufacturing yield and reliability of these fundamental components addresses a market opportunity worth hundreds of billions of dollars annually. Even a modest percentage increase in yield across high-volume product lines can result in billions of dollars in cost savings and increased revenue for manufacturers.\n\n**Competitive Advantages:**\n\nThis patent provides several distinct competitive advantages:\n\n1.  **Superior Yield Rates:** The most immediate and tangible benefit is the direct improvement in manufacturing yield. By minimizing errors during fuse programming – such as unintended ruptures or incomplete operations – more functional chips are produced per wafer. This directly reduces 'cost of goods sold' and increases gross margins.\n2.  **Enhanced Product Reliability:** Devices fabricated using this technology will exhibit higher long-term reliability due to more accurate and robust configuration. This reduces warranty claims, improves customer satisfaction, and strengthens brand reputation in a highly competitive market.\n3.  **Reduced Manufacturing Costs:** Beyond yield, the precision and verification capabilities of this device streamline the manufacturing process. Lower rework rates, reduced diagnostic time, and faster test cycles contribute to overall cost efficiency.\n4.  **Enabling Complex Designs:** The granular control offered by the rupture mask signal allows for more intricate and precise on-chip configurations. This enables designers to implement advanced functionalities, calibration schemes, and security features that might be impractical or too risky with conventional fuse programming methods, fostering innovation.\n5.  **Faster Time-to-Market:** With fewer defects and more efficient programming, products can move from design to mass production more quickly, capturing market share ahead of competitors.\n\n**Revenue Potential and Business Models:**\n\nCompanies that adopt or license this technology stand to realize significant revenue potential through:\n\n*   **Direct Sales:** Semiconductor manufacturers implementing this device in their own products will see increased profitability from higher yields and reduced costs.\n*   **Licensing:** The patent holder could license the technology to other semiconductor companies, generating substantial royalty revenues. This could be particularly attractive to smaller fabs or specialized IC designers.\n*   **IP Sales/Acquisition:** The patent itself could be a valuable asset for acquisition by a major semiconductor player looking to consolidate its intellectual property and enhance its competitive edge.\n\n**Strategic Positioning:**\n\nAdopting this innovation strategically positions a company as a leader in high-reliability, high-yield semiconductor manufacturing. It signals a commitment to quality and efficiency, which are paramount in sectors like automotive (ADAS, autonomous driving), medical devices, and high-performance computing, where failure is not an option. It also provides a defensive IP barrier, protecting a company's advanced manufacturing processes from infringement.\n\n**ROI Projections:**\n\nThe Return on Investment (ROI) for implementing a technology like the Rupture Control Device and Semiconductor Device to Improve Yield can be substantial. For a high-volume semiconductor manufacturer, a 1-2% increase in yield on a product line generating billions in revenue can translate into tens of millions of dollars in additional profit annually. When factoring in reduced warranty costs, faster market entry, and enhanced brand value, the ROI can reach hundreds of percentage points over the lifetime of the patent. The initial investment in integrating this technology is quickly offset by the continuous operational savings and competitive advantages it provides, making it a highly attractive proposition for strategic investment.","faqs":[{"answer":"The Rupture Control Device and Semiconductor Device to Improve Yield (US-9852814) is an innovative patent that describes a sophisticated system designed to enhance the precision and reliability of fuse rupture operations within semiconductor devices. In simple terms, it's a technology that ensures tiny, permanent switches (fuses) inside computer chips are programmed correctly and efficiently.\n\nFuses are crucial components used for configuring integrated circuits after they are manufactured. They can enable or disable features, calibrate analog circuits, or store unique identification data. The integrity of these rupture operations directly impacts the chip's functionality, reliability, and the overall manufacturing yield.\n\nThis patent introduces an intelligent control mechanism that minimizes errors and maximizes the success rate of these critical programming steps, leading to higher quality and more reliable semiconductor products. It represents a significant advancement in ensuring the foundational integrity of microelectronic devices.","question":"What is Rupture Control Device and Semiconductor Device to Improve Yield?"},{"answer":"The Rupture Control Device and Semiconductor Device to Improve Yield operates through an intelligent, multi-step process involving an address control circuit and a fuse array. First, the address control circuit generates a highly precise 'rupture address' for the target fuse. This address is determined not only by an external command but also by a crucial 'rupture mask signal,' which acts as a filter to ensure that only the intended fuse is considered for rupture.\n\nSecond, the system performs a real-time comparison: it checks the generated rupture address against existing 'fuse data' to understand the current state of the fuse. This comparison is vital because it helps determine whether the fuse is already ruptured and refines the 'rupture mask signal' accordingly, preventing redundant or erroneous operations.\n\nFinally, the fuse array executes the actual 'rupture operation' only when both the correct rupture address is presented and a 'rupture enable signal' is actively engaged. This dual-condition activation provides a robust safety mechanism. After the operation, the system can also output the fuse data, allowing for immediate verification of the fuse's new state. This integrated approach ensures precision, control, and verification at every step.","question":"How does Rupture Control Device and Semiconductor Device to Improve Yield work?"},{"answer":"The Rupture Control Device and Semiconductor Device to Improve Yield solves critical problems associated with traditional fuse programming in semiconductor manufacturing. Historically, the process of rupturing (programming) on-chip fuses has been prone to several issues:\n\n1.  **Imprecision:** Accidental ruptures of adjacent fuses or incomplete ruptures of the intended fuse, leading to faulty configurations.\n2.  **Lack of Verification:** Difficulty in confirming in real-time whether a rupture operation was successful, often requiring time-consuming external tests.\n3.  **Yield Loss:** These errors result in a significant percentage of defective chips, reducing manufacturing yield and increasing production costs.\n4.  **Reliability Issues:** Incorrectly programmed fuses can lead to device malfunctions or failures in the field, impacting product reliability and brand reputation.\n\nThis patent addresses these challenges by introducing a system that ensures surgical precision, real-time verification, and robust control over the fuse rupture process. By minimizing errors, it directly improves manufacturing efficiency, product quality, and device longevity.","question":"What problem does Rupture Control Device and Semiconductor Device to Improve Yield solve?"},{"answer":"The patent filing US-9852814 for the Rupture Control Device and Semiconductor Device to Improve Yield does not list specific inventors or an assignee in the provided data. However, patents are typically filed by individuals or a team of inventors, and then often assigned to the company they work for. This ensures that the intellectual property developed by employees benefits the organization.\n\nIn the semiconductor industry, innovations like this are usually the result of extensive research and development efforts by engineering teams specializing in circuit design, process technology, and manufacturing optimization. The collective expertise of these teams is crucial for developing sophisticated solutions that address complex challenges in chip fabrication. While the specific names are not provided here, the invention reflects a dedicated effort to advance semiconductor manufacturing capabilities.","question":"Who invented Rupture Control Device and Semiconductor Device to Improve Yield?"},{"answer":"The Rupture Control Device and Semiconductor Device to Improve Yield offers several transformative benefits for semiconductor manufacturing and product development:\n\n1.  **Significantly Improved Manufacturing Yields:** By virtually eliminating errors in fuse programming, more functional chips are produced from each wafer, directly reducing waste and production costs.\n2.  **Enhanced Device Reliability:** Accurate and robust fuse configuration leads to more dependable semiconductor devices, minimizing field failures, warranty claims, and improving customer satisfaction.\n3.  **Precise and Granular Control:** The intelligent address control circuit and 'rupture mask signal' provide surgical precision, ensuring that only intended fuses are affected, enabling more complex and reliable chip configurations.\n4.  **Reduced Test Time and Diagnostics:** Real-time verification of fuse states and integrated data read-back capabilities streamline the testing process, accelerating time-to-market and reducing operational overhead.\n5.  **Enabling Advanced Chip Designs:** The confidence in precise programming allows designers to implement more sophisticated features and calibrations that might be too risky with less reliable methods, fostering innovation in next-generation products.\n\nThese benefits collectively position the Rupture Control Device and Semiconductor Device to Improve Yield as a foundational technology for high-quality, efficient, and reliable semiconductor production.","question":"What are the key benefits of Rupture Control Device and Semiconductor Device to Improve Yield?"},{"answer":"The Rupture Control Device and Semiconductor Device to Improve Yield distinguishes itself from prior art by offering a more integrated, intelligent, and verifiable approach to fuse programming. Traditional methods often relied on simpler, less controlled processes:\n\n1.  **Dynamic Rupture Mask vs. Static/No Mask:** Prior art often used static masks or lacked sophisticated masking, making them prone to collateral damage. This innovation introduces a dynamic 'rupture mask signal' that actively filters and refines the target address, ensuring surgical precision.\n2.  **Real-time Feedback Loop vs. Post-Facto Verification:** Older systems typically verified fuse states after the rupture operation, often off-chip and with delays. This patent integrates a real-time comparison of the rupture address with fuse data, providing immediate feedback and allowing the system to adapt, preventing redundant or erroneous operations.\n3.  **Dual-Condition Enablement vs. Simple Command:** Prior art might rupture a fuse based on a single command. This device requires *both* a precise 'rupture address' and an active 'rupture enable signal,' adding a crucial layer of safety and control.\n4.  **Integrated Read-Back vs. External Test:** The ability to read fuse data directly from the array simplifies and accelerates verification, a capability often less integrated or efficient in prior art.\n\nIn essence, the Rupture Control Device and Semiconductor Device to Improve Yield moves beyond basic fuse blowing to a sophisticated, intelligent, and self-verifying system that significantly improves precision, reliability, and efficiency.","question":"How is Rupture Control Device and Semiconductor Device to Improve Yield different from prior art?"},{"answer":"The Rupture Control Device and Semiconductor Device to Improve Yield has the potential to impact virtually any industry that relies on semiconductor devices, which is nearly all modern technology sectors. Its core benefit of improving chip yield and reliability is universally valuable.\n\nKey industries include:\n\n1.  **Consumer Electronics:** Smartphones, laptops, tablets, smart home devices, and wearables will benefit from more reliable and efficiently produced chips.\n2.  **Automotive:** Critical for advanced driver-assistance systems (ADAS), infotainment, engine control units, and electric vehicle components where safety and reliability are paramount.\n3.  **Industrial IoT (IIoT):** Ensures the integrity of chips in factory automation, smart sensors, and industrial control systems, enhancing operational efficiency and safety.\n4.  **Data Centers and Cloud Computing:** Improves the reliability of processors, memory, and network interface cards that power vast data infrastructures.\n5.  **Aerospace and Defense:** Essential for high-reliability components in mission-critical applications where failure is not an option.\n6.  **Medical Devices:** Crucial for the flawless operation of chips in diagnostic equipment, implantable devices, and patient monitoring systems.\n\nBy providing a foundational improvement in semiconductor manufacturing, this patent underpins the quality and advancement across these diverse technological landscapes.","question":"What industries will Rupture Control Device and Semiconductor Device to Improve Yield impact?"},{"answer":"The patent for a Rupture Control Device and Semiconductor Device to Improve Yield, identified as US-9852814, has a specific timeline for its official filing and publication.\n\nIt was filed on **September 2, 2016**. This date marks when the patent application was officially submitted to the patent office, initiating the examination process. The filing date is significant as it typically establishes the priority date for the invention.\n\nThe patent was subsequently published on **December 26, 2017**. The publication date is when the patent document becomes publicly accessible, allowing others to review the details of the invention. While the provided data does not explicitly state the grant date, the publication of US-9852814 on December 26, 2017, indicates that it has successfully navigated the examination process and is officially recognized. This timeline reflects the standard process for intellectual property protection in the semiconductor industry, ensuring the innovation is documented and protected.","question":"When was Rupture Control Device and Semiconductor Device to Improve Yield filed/granted?"},{"answer":"The commercial applications of the Rupture Control Device and Semiconductor Device to Improve Yield are broad and impactful, primarily centering on enhancing the profitability and competitive edge of semiconductor manufacturers. Its core value proposition lies in improving the fundamental quality and efficiency of chip production.\n\n1.  **Increased Manufacturing Profitability:** By significantly boosting manufacturing yields, companies produce more functional chips per wafer, directly reducing waste and increasing gross margins. This translates into substantial cost savings and higher revenue.\n2.  **Premium Product Offerings:** Manufacturers can leverage the enhanced reliability and precision to offer premium products for demanding markets (e.g., automotive, medical, high-performance computing) where failure rates must be exceptionally low.\n3.  **Faster Time-to-Market:** Streamlined programming and verification processes lead to shorter production cycles, allowing companies to bring new products to market more quickly and capture early market share.\n4.  **Licensing Opportunities:** The patent holder can license this valuable technology to other semiconductor companies, generating significant royalty revenues. This can be a lucrative business model in the IP-driven semiconductor ecosystem.\n5.  **Competitive Differentiation:** Companies integrating this technology gain a strong competitive advantage by offering superior quality, more reliable, and cost-efficient integrated circuits compared to competitors using older, less precise methods.\n\nUltimately, this patent provides a strategic tool for any business looking to optimize its semiconductor fabrication, improve product quality, and strengthen its market position.","question":"What are the commercial applications of Rupture Control Device and Semiconductor Device to Improve Yield?"},{"answer":"The Rupture Control Device and Semiconductor Device to Improve Yield lays a strong foundation for several exciting future developments in semiconductor technology. Its core principles of intelligent control and real-time verification are highly adaptable and scalable.\n\n1.  **Adaptive Rupture Algorithms:** Future iterations could incorporate machine learning or AI algorithms to dynamically adjust rupture parameters (e.g., pulse duration, current) based on real-time feedback and historical data, optimizing for specific fuse types or process variations.\n2.  **Self-Healing Capabilities:** The precise control and verification could evolve into systems that not only prevent errors but also autonomously detect and potentially correct them post-manufacture, leading to truly 'self-healing' chips.\n3.  **Enhanced Security Features:** Leveraging the granular control over on-chip configuration, future developments could focus on creating more robust, tamper-proof security fuses and physical unclonable functions (PUFs) for advanced hardware security.\n4.  **Integration with Advanced Non-Volatile Memory:** The principles might extend beyond traditional fuses to other forms of non-volatile memory programming, enabling more flexible and reliable in-field reconfigurability of advanced memory devices.\n5.  **Process Monitoring and Optimization:** The detailed feedback from the rupture process could be integrated into broader manufacturing execution systems (MES) for real-time process monitoring, predictive maintenance, and further optimization of overall fab operations.\n\nThese potential developments highlight the long-term impact of the Rupture Control Device and Semiconductor Device to Improve Yield, positioning it as a key enabler for the next generation of intelligent, reliable, and efficient semiconductor devices.","question":"What are the future developments expected for Rupture Control Device and Semiconductor Device to Improve Yield?"}],"topics":["rupture control device","semiconductor device","improve yield","fuse programming","chip manufacturing","intricate","world","semiconductor"],"tech_cluster":null},"seo":{"title":"Rupture Control Device and Semiconductor Device to Improve Yield - Patent US-9852814","description":"Discover the Rupture Control Device and Semiconductor Device to Improve Yield patent. This innovation boosts chip manufacturing yields & reliability through precise fuse control. Full analysis here.","keywords":["rupture control device","semiconductor device","improve yield","fuse programming","chip manufacturing","device reliability","non-volatile memory","address control circuit","rupture mask signal","patent US-9852814","semiconductor innovation","integrated circuits"]},"attribution":{"source":"Patentable","source_url":"https://patentable.app","canonical_url":"https://patentable.app/patents/US-9852814","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-9852814","citation_suggestion":"Patentable. \"Rupture control device and semiconductor device to improve yield\" (US-9852814). https://patentable.app/patents/US-9852814","copyright_holder":"Nomic Interactive Technology LLC"},"links":{"html":"https://patentable.app/patents/US-9852814","json":"https://patentable.app/api/llm-context/US-9852814","site":"https://patentable.app","llms_txt":"https://patentable.app/llms.txt"},"generated_at":"2026-06-06T07:13:50.096Z"}