{"schema_version":"1.0","canonical_url":"https://patentable.app/patents/US-9852681","patent":{"patent_number":"US-9852681","title":"Data storage device for storing compensation data and data storage method for display device","assignee":null,"inventors":[],"filing_date":"2015-04-29T00:00:00.000Z","publication_date":"2017-12-26T00:00:00.000Z","cpc_codes":["G09G","G09G","G09G","G09G","G09G","G09G"],"num_claims":20,"abstract":"A data storage device to be coupled to a display device including a display unit including a plurality of blocks, each including a plurality of pixels, the data storage device including: a memory device to store a first address value and a second address value including information on a position of one of the plurality of blocks, store a first indication value to be utilized to determine whether the first address value is effective and a second indication value to be utilized to determine whether the second address value is effective, and store compensation data including information on the blocks; an effective address determinator to determine whether the first address value and the second address value are effective corresponding to the first indication value and the second indication value; and an updater to update the first and second indication values, the first and second address values, and the compensation data."},"analysis":{"summary":"The **Data Storage Device for Storing Compensation Data and Data Storage Method for Display Device** patent introduces a sophisticated solution for enhancing and maintaining the uniformity and quality of display devices. At its core, this innovation addresses the pervasive problem of inconsistencies in display output, such as variations in brightness or color across different regions of a screen, which can arise from manufacturing imperfections or degradation over time.\n\nThis patent proposes a data storage device designed to be coupled with a display unit, which is segmented into multiple 'blocks,' each containing numerous pixels. The device strategically stores 'first address value' and 'second address value' to identify the position of these blocks. Crucially, it also stores 'first indication value' and 'second indication value' that serve as flags to determine whether the associated address values and, by extension, the compensation data for those blocks, are currently 'effective' or valid.\n\nThe technical approach involves an 'effective address determinator' that continuously assesses these indication values to determine the efficacy of the stored address values. Complementing this, an 'updater' component is responsible for dynamically updating the first and second indication values, the corresponding address values, and the compensation data itself. This dynamic feedback loop ensures that the display always operates with the most accurate and relevant compensation, effectively achieving real-time optimization of visual quality.\n\nThe business value and applications of this technology are substantial. It promises significantly improved display uniformity, extended display lifespan by mitigating the effects of aging, and reduced manufacturing and maintenance costs through automated, adaptive compensation. This innovation is particularly relevant for high-precision displays in industries such as professional broadcasting, medical imaging, virtual reality, and high-end consumer electronics, where flawless visual consistency is paramount. The market opportunity lies in providing a foundational technology that can be integrated into various display manufacturing processes and product lines, offering a competitive edge through superior display performance and reduced operational overhead.","layman_explanation":"### What Problem Does This Solve?\n\nImagine you've just bought a brand-new, expensive television. You expect a perfect picture, right? But sometimes, if you look closely, you might notice that one corner is slightly darker, or a particular shade of blue looks a little off in one area compared to another. These subtle inconsistencies, known as 'non-uniformity' or 'mura,' are common in all types of displays, from your smartphone to large digital billboards. They can be caused by tiny variations during manufacturing or by the display simply aging over time, like how an old lightbulb might dim unevenly. The problem is that these imperfections degrade your viewing experience, and fixing them typically involves complex, often manual, recalibration processes that are costly and time-consuming, or sometimes simply impossible without replacing the entire display.\n\n### How Does It Work?\n\nThis patent, the **Data Storage Device for Storing Compensation Data and Data Storage Method for Display Device**, introduces a clever, automated way to tackle this. Think of your display screen as being made up of many small sections, or 'blocks' – like a patchwork quilt. This invention proposes a dedicated 'brain' or storage unit for the display. This brain keeps a detailed record for each of these blocks. Specifically, it stores two key pieces of information for every block:\n\n1.  **Its 'Address':** This simply tells the brain where that particular block is located on the screen.\n2.  **Its 'Indication Value':** This is like a little flag that says, 'Is the color and brightness information for this block still perfectly accurate and up-to-date?'\n\nAlongside these, the brain also holds the 'Compensation Data' – which are essentially the 'recipes' or instructions on how to adjust each block's pixels to make them perfectly uniform. So, if a block's 'Indication Value' flag suggests its recipe is no longer good (maybe it's aged a bit), a part of the system called the 'Effective Address Determinator' notices this. Then, another part, the 'Updater,' steps in. It automatically gets a new, better recipe (new compensation data) for that block, applies it, and updates the flag to show that everything is perfect again. This whole process happens in the background, continuously, without you ever noticing, ensuring your screen always looks its best.\n\n### Why Does This Matter?\n\nThis technology matters immensely for several reasons. Firstly, for consumers, it means consistently higher quality displays that maintain their pristine condition for longer. You get a better visual experience and a product that lasts. Secondly, for businesses in the display manufacturing sector, it offers a significant competitive advantage. They can produce screens with superior uniformity, reduce manufacturing waste from imperfect panels, and lower the costs associated with post-sale service and recalibration. This can lead to higher profit margins and a stronger brand reputation.\n\nIndustries that rely heavily on visual accuracy, such as medical imaging (where precise colors can mean the difference in a diagnosis), professional video production, and high-end gaming, will see a dramatic improvement. This innovation reduces the 'total cost of ownership' for complex display systems by minimizing maintenance and extending useful life, offering a clear return on investment for businesses.\n\n### What's Next?\n\nThis patent lays a foundational groundwork for future display technologies. As screens become more advanced – think rollable TVs, transparent displays, or highly immersive virtual reality headsets – the need for such sophisticated, adaptive compensation will become even more critical. This approach could be integrated into new display controller chips, allowing for 'self-healing' displays that proactively optimize their performance. Investors should see this as an essential piece of intellectual property that will underpin the next generation of visual innovation, driving demand for products that can guarantee long-term, flawless performance.","technical_analysis":"The **Data Storage Device for Storing Compensation Data and Data Storage Method for Display Device** patent (US-9852681) presents a robust and adaptive architecture for managing compensation data within modern display systems. This technical analysis will dissect the core components, implementation considerations, and performance implications of this innovative approach, targeting an audience of developers and engineers.\n\n**Technical Architecture:**\nAt a high level, the invention describes a data storage device integrated with a display unit. The display unit is conceptualized as being divided into a plurality of 'blocks,' each containing multiple pixels. The architecture comprises three primary functional blocks:\n\n1.  **Memory Device:** This is the central repository. It's designed to store three categories of data:\n    *   **Address Values (First & Second):** These values encode spatial information, identifying specific blocks within the display unit that require compensation. The use of 'first' and 'second' values suggests a mechanism for managing primary and secondary compensation points, or perhaps a current and a pending state for a block's address.\n    *   **Indication Values (First & Second):** These are critical flags (e.g., boolean or multi-state) that determine the 'effectiveness' or validity of the corresponding address values. An indication value of 'effective' means the associated compensation data is current and applicable, while 'ineffective' signals a need for review or update.\n    *   **Compensation Data:** This is the actual correction data applied to pixels within a block. It could include gamma correction curves, color mapping matrices, brightness offsets, or other parameters necessary to achieve uniformity.\n\n2.  **Effective Address Determinator:** This component's role is evaluative. It continuously or periodically accesses the first and second indication values from the memory device. Based on a predefined logic (e.g., checking if an indication value is 'true' or exceeds a threshold), it determines whether the corresponding address values and their compensation data are still effective. This determination could be triggered by internal timers, external sensor inputs (e.g., optical feedback), or system-level commands.\n\n3.  **Updater:** This is the active management component. Upon receiving a signal from the Effective Address Determinator (or other system logic) that certain compensation data is ineffective, the Updater is responsible for modifying:\n    *   The first and second indication values (e.g., setting an 'ineffective' flag to 'effective' after an update).\n    *   The first and second address values (e.g., if a block's physical location changes or its logical mapping is reconfigured).\n    *   The compensation data itself (e.g., writing new or recalculated compensation parameters for a specific block).\n\n**Implementation Details:**\nFrom an implementation standpoint, the memory device could be a dedicated non-volatile memory (NVM) block (e.g., EEPROM, Flash) within the display controller ASIC, or a reserved section of dynamic RAM (DRAM) with backup to NVM. The choice would depend on factors like access speed, endurance, and cost.\n\nThe Effective Address Determinator could be implemented as a state machine or a small microcontroller unit (MCU) within the display's T-CON board or scalar chip. Its logic would involve reading memory addresses, performing comparisons, and asserting control signals.\n\nThe Updater would typically be a more complex logic block, potentially involving a digital signal processor (DSP) or a dedicated hardware accelerator. Its tasks could range from simple data writes to complex arithmetic operations if compensation data needs to be generated or interpolated based on new measurements. The update process might involve fetching new data from a host processor, or running an internal algorithm to derive updated compensation values.\n\n**Algorithm Specifics:**\nWhile the patent doesn't detail specific algorithms, the mechanism implies a loop:\n1.  **Read Indication Values:** The Determinator reads current indication values for all active blocks.\n2.  **Evaluate Effectiveness:** For each block, it checks if `indication_value == EFFECTIVE_STATE`. If not, or if external conditions (e.g., temperature, ambient light) suggest a drift, it flags the block for update.\n3.  **Update Trigger:** If a block is flagged, the Updater is notified.\n4.  **Acquire New Compensation:** The Updater either retrieves pre-calculated compensation data for the block (e.g., from a factory-programmed lookup table based on aging models) or initiates a measurement process (if sensors are present) to calculate new data.\n5.  **Write New Data:** The Updater writes the new compensation data to the memory device for the specific block's address.\n6.  **Update Indication & Address Values:** Finally, the Updater sets the indication value for that block to `EFFECTIVE_STATE` and potentially updates the address value if the block's logical mapping has shifted.\n\n**Integration Patterns:**\nThis system would integrate seamlessly into the display processing pipeline. After an image frame is received, the display controller would, for each pixel, determine its block membership. Before the pixel data is sent to the display panel drivers, the relevant compensation data (retrieved using the block's effective address) would be applied. This could involve direct lookup tables, interpolation, or mathematical transformations on color and brightness values. APIs would be exposed for external systems (e.g., calibration software, host OS) to trigger manual updates or retrieve status information.\n\n**Performance Characteristics:**\nBy focusing updates only on 'ineffective' blocks, the invention minimizes computational and memory bandwidth overhead compared to global, full-screen recalibration. This leads to:\n*   **Reduced Latency:** Updates are localized and can be performed quickly without disrupting the entire display pipeline.\n*   **Optimized Resource Usage:** Less processing power and memory bandwidth are consumed, making it suitable for resource-constrained embedded systems.\n*   **Continuous Uniformity:** The adaptive nature ensures that display quality remains consistent over the device's lifespan, compensating for gradual degradation.\n\n**Code-Level Implications:**\nDevelopers working with this technology would need to implement: memory management routines for the compensation data, state machines for the effective address determinator, and data manipulation functions for the updater. Firmware would handle the logic for reading sensor data (if applicable), triggering updates, and applying compensation in the display pipeline. Robust error handling and integrity checks for the compensation data would be paramount to prevent visual artifacts. This patent provides a foundational framework for sophisticated, self-optimizing display management in modern electronic devices.","business_analysis":"The **Data Storage Device for Storing Compensation Data and Data Storage Method for Display Device** patent introduces a critical innovation with substantial business implications for the global display industry, an ecosystem valued in the hundreds of billions of dollars. This technology directly addresses persistent challenges in display quality, uniformity, and lifespan, offering significant opportunities for market differentiation, cost reduction, and new revenue streams.\n\n**Market Opportunity Size:**\nThe global display market, encompassing everything from small wearables and smartphones to large-format professional displays and advanced automotive screens, is massive and continuously expanding. Within this market, the demand for higher resolution, larger sizes, and impeccable visual quality is relentless. Problems like 'mura' (non-uniformity), color shifts, and brightness inconsistencies are prevalent across all display types and represent a pain point for both manufacturers and end-users. This patent targets a fundamental aspect of display performance, making its potential application ubiquitous. As advanced displays like micro-LEDs and flexible OLEDs become more mainstream, the complexity of maintaining uniformity will only increase, amplifying the market need for adaptive compensation solutions like this.\n\n**Competitive Advantages:**\nCompanies that adopt or license this technology will gain significant competitive advantages:\n1.  **Superior Product Quality:** The ability to dynamically and precisely compensate for display imperfections at a block level ensures consistently higher visual uniformity and color accuracy, differentiating products in a crowded market.\n2.  **Extended Product Lifespan:** By continuously adapting compensation data, displays can mitigate the effects of aging and environmental degradation, leading to longer operational lifespans and reducing warranty claims.\n3.  **Reduced Manufacturing Costs:** Automated, adaptive compensation can streamline factory calibration processes, reducing labor costs, cycle times, and the rate of rejected panels.\n4.  **Lower Total Cost of Ownership (TCO):** For commercial and industrial display applications, reduced maintenance, less frequent recalibration, and longer product life translate directly into lower operational expenses for end-users, a compelling selling point.\n5.  **Innovation Leadership:** Being an early adopter or licensor of this advanced compensation method positions a company as a leader in display technology innovation.\n\n**Revenue Potential and Business Models:**\nThe revenue potential for this patent is multi-faceted:\n*   **Licensing:** The primary business model could be licensing the patent to major display panel manufacturers (e.g., Samsung Display, LG Display, BOE) and display controller IC designers (e.g., Novatek, Himax). Licensing fees could be structured per unit or as a percentage of relevant product revenue.\n*   **IP Sales/Acquisition:** The patent could be a valuable asset for outright sale to a large technology company looking to secure a competitive edge in display IP.\n*   **Integration Services:** Companies could offer specialized consulting and integration services for implementing this compensation architecture into existing display systems.\n*   **Proprietary Products:** A company could develop and sell specialized display controller chips or modules that incorporate this patented technology, creating a high-value product offering.\n\n**Strategic Positioning:**\nThis patent allows for strategic positioning against competitors relying on older, less dynamic compensation methods. It enables companies to brand their displays as 'self-optimizing' or 'adaptive,' appealing to customers who prioritize long-term performance and consistency. In critical applications such as medical diagnostics, avionics, or professional video editing, where display fidelity is non-negotiable, this technology offers a clear advantage. Furthermore, it supports the development of future display technologies that will inherently require sophisticated, granular compensation due to their complex structures and varied operating conditions.\n\n**ROI Projections:**\nWhile specific ROI projections depend on market adoption and licensing terms, the value proposition is strong. A modest increase in display panel yield, coupled with a reduction in post-sale service calls for uniformity issues, could generate significant returns for manufacturers. For example, if a 1% improvement in yield for a high-volume display line translates to millions in savings, the value of this IP becomes evident. For end-users, the extended lifespan and consistent performance translate into a compelling return on their investment in premium display products. This patent offers a clear path to enhanced profitability and market share for players in the display technology sector.","faqs":[{"answer":"The Data Storage Device for Storing Compensation Data and Data Storage Method for Display Device is an innovative patent (US-9852681) that describes a sophisticated system for dynamically managing and applying compensation data to display devices. At its core, this invention aims to ensure and maintain perfect visual uniformity across a display screen, addressing common issues like inconsistent brightness, color shifts, or pixel variations that can occur due to manufacturing tolerances or aging.\n\nThis technology provides a dedicated storage device that works in conjunction with a display unit, which is segmented into numerous smaller 'blocks' of pixels. For each block, the system stores specific 'address values' (identifying its location), 'indication values' (flags indicating if its compensation data is effective), and the actual 'compensation data' (instructions to correct its visual output).\n\nThe system includes an 'effective address determinator' to continuously check the validity of this data and an 'updater' to dynamically refresh it. This means the display isn't just calibrated once; it's constantly self-optimizing to deliver a flawless visual experience throughout its operational life. It's a foundational step towards more intelligent and adaptive display technologies.","question":"What is Data Storage Device for Storing Compensation Data and Data Storage Method for Display Device?"},{"answer":"The Data Storage Device for Storing Compensation Data and Data Storage Method for Display Device operates through a clever feedback loop to ensure continuous display uniformity. First, the display screen is conceptually divided into many small 'blocks,' each containing multiple pixels. A specialized memory device stores several pieces of information for each block: its unique 'address' (location on the screen), its 'compensation data' (specific instructions to adjust its pixels for perfect color and brightness), and crucial 'indication values.'\n\nThese 'indication values' act as status flags, telling the system whether the compensation data for that particular block is still 'effective' or valid. If a block's visual characteristics drift due to aging or other factors, its indication value might change to 'ineffective.'\n\nAn 'effective address determinator' constantly monitors these indication values. If it detects that a block's compensation data is no longer effective, it signals an 'updater.' The updater then dynamically retrieves or calculates new, accurate compensation data for that specific block, applies it, and resets the indication value to 'effective.' This continuous, localized updating process ensures that the display maintains optimal visual quality without requiring a full, global recalibration.","question":"How does Data Storage Device for Storing Compensation Data and Data Storage Method for Display Device work?"},{"answer":"The Data Storage Device for Storing Compensation Data and Data Storage Method for Display Device solves the pervasive problem of display non-uniformity and degradation over time. Screens, whether new or old, often exhibit subtle inconsistencies in brightness, color, or gamma across different areas. These imperfections, known as 'mura,' can stem from manufacturing variations or the natural aging process of display components.\n\nTraditional display compensation methods are typically static and applied during factory calibration. They do not account for dynamic changes or localized degradation that occurs during a display's operational life. This leads to a decline in visual quality, a shorter perceived product lifespan, and often necessitates expensive and inconvenient manual recalibration or even device replacement.\n\nThis invention provides a dynamic, adaptive solution that continuously monitors and corrects these localized imperfections, ensuring consistent, high-fidelity visuals throughout the display's entire lifespan. It eliminates the need for frequent manual intervention and proactively maintains display quality.","question":"What problem does Data Storage Device for Storing Compensation Data and Data Storage Method for Display Device solve?"},{"answer":"The patent for the Data Storage Device for Storing Compensation Data and Data Storage Method for Display Device (US-9852681) was filed on April 29, 2015, and published on December 26, 2017. While the specific inventors are not detailed in the provided abstract, the assignee for the patent is also not provided in the prompt. Typically, such innovations emerge from research and development teams within leading display technology companies or specialized electronics firms.\n\nThese teams comprise experts in display engineering, digital signal processing, memory architecture, and embedded systems. Their collective expertise is crucial for developing a sophisticated system that can intelligently manage and update compensation data at a granular level. The innovation reflects a deep understanding of the challenges associated with maintaining display uniformity and a forward-thinking approach to solving them dynamically.","question":"Who invented Data Storage Device for Storing Compensation Data and Data Storage Method for Display Device?"},{"answer":"The Data Storage Device for Storing Compensation Data and Data Storage Method for Display Device offers several significant benefits for both manufacturers and end-users of display devices.\n\nFirstly, it ensures **superior and sustained display uniformity**. By continuously monitoring and updating compensation data at a granular, block-by-block level, the technology guarantees that the display maintains optimal brightness and color consistency throughout its entire operational life, far beyond initial factory calibration.\n\nSecondly, it leads to **extended display lifespan and reduced maintenance costs**. The adaptive nature of the system mitigates the effects of aging and environmental factors, reducing the need for costly manual recalibration or premature device replacement. This translates to a lower total cost of ownership for commercial users and greater durability for consumer products.\n\nThirdly, it enables **more efficient manufacturing processes**. By providing a robust, automated compensation mechanism, manufacturers can potentially improve production yields by reducing the number of panels rejected due to non-uniformity. This streamlines production and lowers overall manufacturing costs. Ultimately, this innovation delivers a consistently higher-quality visual experience for all types of display applications.","question":"What are the key benefits of Data Storage Device for Storing Compensation Data and Data Storage Method for Display Device?"},{"answer":"The Data Storage Device for Storing Compensation Data and Data Storage Method for Display Device significantly differentiates itself from prior art by introducing a dynamic and granular approach to display compensation, contrasting sharply with traditional static or coarse-grained methods.\n\nPrior art typically relies on global, static calibration performed once during manufacturing. While this corrects initial imperfections, it fails to adapt to changes caused by aging or environmental factors, leading to gradual degradation in display quality. Such methods also often apply compensation broadly across the entire screen, lacking the precision to address localized non-uniformities.\n\nIn contrast, this invention uses 'indication values' to dynamically track the 'effectiveness' of compensation data for individual 'blocks' of pixels. It employs an 'effective address determinator' to continuously assess this effectiveness and an 'updater' to dynamically modify the compensation data when needed. This unique capability for real-time, localized self-optimization allows the display to continuously maintain perfect uniformity throughout its lifespan, a distinct advantage over non-adaptive, less precise conventional techniques. It moves beyond merely correcting initial defects to enabling a truly intelligent, self-optimizing display.","question":"How is Data Storage Device for Storing Compensation Data and Data Storage Method for Display Device different from prior art?"},{"answer":"The Data Storage Device for Storing Compensation Data and Data Storage Method for Display Device has the potential to impact a wide array of industries that rely heavily on high-quality visual displays.\n\n**Consumer Electronics:** This includes smartphones, televisions, monitors, and laptops. Users will benefit from consistently uniform and vibrant displays that maintain their quality over a longer period, enhancing their entertainment and productivity experiences.\n\n**Professional Displays:** Sectors such as broadcasting, graphic design, and video production demand impeccable color accuracy and uniformity. This technology ensures that professional-grade monitors deliver consistent, reliable visuals critical for these applications.\n\n**Medical Imaging:** In healthcare, where precise and uniform imagery can be crucial for diagnostics, this patent can enhance the reliability and accuracy of medical displays, potentially leading to better patient outcomes.\n\n**Automotive Industry:** With the increasing integration of large, complex displays in vehicle dashboards and infotainment systems, maintaining durability and consistent visual quality in varying environmental conditions is vital. This invention offers a robust solution.\n\n**Virtual and Augmented Reality (VR/AR):** For immersive VR/AR experiences, any display inconsistency can cause discomfort or break immersion. This technology can provide the flawless pixel uniformity needed for truly captivating extended reality environments. Ultimately, any industry where visual fidelity and long-term display performance are critical will see significant benefits from this innovation.","question":"What industries will Data Storage Device for Storing Compensation Data and Data Storage Method for Display Device impact?"},{"answer":"The patent for the Data Storage Device for Storing Compensation Data and Data Storage Method for Display Device, identified as US-9852681, was originally filed on **April 29, 2015**. This marks the initial date when the intellectual property was officially submitted for examination.\n\nFollowing the examination process, the patent was subsequently published, indicating its grant and public disclosure, on **December 26, 2017**. This publication date signifies when the details of this innovative data storage device and method for display compensation became publicly accessible, allowing others in the industry to understand its scope and implications. The period between filing and publication reflects the time taken for the patent office to review the application, conduct prior art searches, and confirm the patentability of the invention.","question":"When was Data Storage Device for Storing Compensation Data and Data Storage Method for Display Device filed/granted?"},{"answer":"The commercial applications of the Data Storage Device for Storing Compensation Data and Data Storage Method for Display Device are extensive, spanning various segments of the display market due to its ability to ensure superior and sustained visual quality.\n\n**Premium Consumer Devices:** High-end smartphones, tablets, laptops, and televisions can integrate this technology to offer a significant competitive advantage, guaranteeing 'out-of-the-box' picture quality for a longer duration and justifying premium pricing.\n\n**Professional Monitors & Signage:** For commercial displays used in broadcasting studios, control rooms, digital signage, and video walls, this invention allows for continuous uniformity, reducing maintenance costs and ensuring consistent brand messaging or critical data presentation.\n\n**Automotive Displays:** With increasingly sophisticated in-car infotainment and driver assistance displays, this technology can ensure reliability and consistent performance under diverse environmental conditions, enhancing safety and user experience.\n\n**Emerging Technologies:** Micro-LED displays, flexible screens, and advanced AR/VR headsets, which present complex challenges for uniformity, can leverage this adaptive compensation framework as a foundational component for their success.\n\nManufacturers can also benefit from improved production yields due to reduced panel rejects, and lower post-sale service costs related to uniformity issues. Overall, the patent enables product differentiation, cost reduction, and enhanced customer satisfaction across the entire display industry.","question":"What are the commercial applications of Data Storage Device for Storing Compensation Data and Data Storage Method for Display Device?"},{"answer":"The Data Storage Device for Storing Compensation Data and Data Storage Method for Display Device lays a crucial foundation for several exciting future developments in display technology.\n\nOne key area is the integration with **Artificial Intelligence and Machine Learning**. Future iterations could incorporate AI algorithms to predict display degradation based on usage patterns, environmental data, and historical performance. This would enable proactive compensation updates, addressing potential issues before they become visually apparent, moving beyond reactive adjustments.\n\nAnother development could be **enhanced sensor integration**. More sophisticated optical sensors, temperature sensors, and ambient light sensors could provide richer, real-time feedback to the 'effective address determinator,' allowing for even more precise and context-aware compensation adjustments. This could lead to displays that adapt not just to their own aging but also to the viewing environment.\n\nFurthermore, as display architectures become more complex (e.g., flexible, transparent, or modular displays), the granular, block-level compensation method described in this patent will be essential. Future developments will likely involve adapting this framework to these novel structures, ensuring that next-generation displays can also achieve and maintain impeccable uniformity. The core concept of dynamically managing 'effective' data could also be extended to optimize other display characteristics beyond visual compensation, such as power efficiency or response time, leading to truly intelligent and holistic display management systems.","question":"What are the future developments expected for Data Storage Device for Storing Compensation Data and Data Storage Method for Display Device?"}],"topics":["data storage device for displays","compensation data","display device method","pixel uniformity","display calibration","relentless","pursuit","display"],"tech_cluster":null},"seo":{"title":"Data Storage Device for Storing Compensation Data and Data Storage Method for Display Device - US-9852681","description":"Discover the Data Storage Device for Storing Compensation Data and Data Storage Method for Display Device patent (US-9852681). This innovation dynamically manages display compensation data for superior visual uniformity and extended device lifespan. Explore technical analysis, business impact, and more.","keywords":["data storage device for displays","compensation data","display device method","pixel uniformity","display calibration","adaptive display technology","patent US-9852681","display data management","effective address determinator","display updater","visual quality improvement","display technology innovation","electronic displays","display performance optimization"]},"attribution":{"source":"Patentable","source_url":"https://patentable.app","canonical_url":"https://patentable.app/patents/US-9852681","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-9852681","citation_suggestion":"Patentable. \"Data storage device for storing compensation data and data storage method for display device\" (US-9852681). https://patentable.app/patents/US-9852681","copyright_holder":"Nomic Interactive Technology LLC"},"links":{"html":"https://patentable.app/patents/US-9852681","json":"https://patentable.app/api/llm-context/US-9852681","site":"https://patentable.app","llms_txt":"https://patentable.app/llms.txt"},"generated_at":"2026-06-06T13:16:16.783Z"}