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  • 盘点各大公链铭文

    公链 协议
    龙头币 市值 部署时间 持有人数 市场地址

    BTC BRC-20 ARC-20
    $ORDI 70亿 3月8日 12,807 https://okx.com/cn/web3/marketplace/ordinals/brc20/ordi
    $ATOM 1.4亿 9月17日 1,981 https://atomicalmarket.com/marketplace

    ETH ERC-20 IERC-20
    $ETHS 1.8亿 6月18日 2,195 https://etch.market/market
    $ETHI 2500万 7月1日 4,292 https://ierc20.com/market

    BNB BRC-20 BSC-20
    $BNBS 150万 6月20日 2,558 https://evm.ink/marketplace?tab=tokens&chainId=eip155%3A56&protocol=bsc-20&orderBy=Price%3A+Lowest&tick=bnbs
    $BSCS 100万 11月1日 https://bscs.market/#/detailToken?id=1

    SOL SPL-20本质上还是NFT,有纯铭文的SRC-20
    $SOLS 1250万 11月22日 3,207 https://okx.com/cn/web3/marketplace/nft/collection/sol/sols-spl20

    ADA CAR-20
    $LOVES 20万 11月28日 https://jpg.store/zh-Hans/collection/7044e2678889f1a345a628d21f862895cc2ceb135a1d45417a84a2cd?tab=items

    DOGE DRC-20
    $DOGI 3600万 3月11日 5,296 https://doggy.market/dogi
    $DOGIM (宝二爷团队搞的,有swap) 120万 12,426 https://dogex.me/swordpool

    AVAX ASC-20
    $AVAL 11月19日 23,207 https://avascriptions.com/token/list

    TRX TRC-20
    $TRXI 11月25日 https://trximarket.com/tokens

    MATIC OPRC-20
    $POLS 11月15日 https://polsmarket.wtf

    TON TON-20
    $NANO 12月5日 https://tonano.io/marketplace

    SHIB SRC-20
    $SHIB 12月3日 21,939 https://market.woofswap.finance

    LTC LTC-20
    $LITE 4月29日 https://gate.io/zh/trade/LITE_USDT

    BCH CRC-20
    $BCHS 12月6日 https://fex.cash

    OKT XRC-20
    $OKTS 12月6日 297 https://xrc.ink

    ICP ICPS-20 MORA-20
    $DFN 12月9日 https://umirg-liaaa-aaaag-ace7q-cai.icp0.io
    $ICPS 12月9日 https://mora.app

    FIL FIL-20
    $FILS 12月9日 https://filscription.xyz/#/

    BSV BSV-20
    $BSVS 100万 12月10日 https://firesat.io/home/bsv20_market/bsvs

    EOS EORC-20
    $EOSS 12月9日 https://eorc20.com

    ETHW ETW-20
    $ETHW 12月10日

    BASE BASE-20
    $BASE 130万 8月4日 1,212 https://base20.live/#/market

    NEAR NRC-20
    $NEAT 24,339 https://near.org/inscribe.near/widget/NEAT

    GNO GNO-20
    $GNOS 12月9日

    NEO NRC-20
    $NEOS 12月9日 1,451 https://neos.zone
    ordi | 价格 128,999 sats | 13K 持有人 | OKX
    在欧易 BTC Ordinals 上交易 ordi。
    OKX.COM
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  • 观摩一下币圈财富进化经典case: 从16年进场加密圈,经历过2轮牛熊。当初怀揣10万RMB进场,通过ICO获得了不菲收益,最高达到2000W,最终由于信仰,18年以后回落到200W,这其中7年,给我带来的10大教训。希望对您有益感恩。 1.风险管理:风险控制对于成功投资至关重要,要设定止损点来限制损失。在我以往的加密投资生涯中,我做过很多次过山车,无论是从巅峰到归零 (#POE 早期ICO项目之一,做去中心化内容出版协议,上了币安,最后归零),还是巅峰到落寞( #NEO 小蚁,ICO千倍币,最后过山车一场)。这些惨痛的教训告诉我,时刻做好止盈止损的预期。而对于大多数人适用的办法是:翻倍出本金,让利润奔跑,这是极佳的策略。 2. 适时的反向操作:在市场情绪达到极端时,采取逆向操作可能非常有利。我们在市场中无非赚两种钱,一种周期的钱,一种情绪的钱。当一个热度消散,一个板块凋零,市场天天三点钟无眠,社群热闹非凡,大妈也开始进场的时候,或许要审慎看待市场了。牛市途中,我们有很多次机会可以上车,俗话说牛市多插针,切记不要追高。但于此同时,造成巨大回撤的原因,除了没有止损之外,还有一个点,在高点重新ALL IN进场。 3.利用杠杆的谨慎:虽然杠杆可以放大回报,但同时也会增加风险。我个人惨痛教训在312暴跌。我持有7000美金左右成本的大饼,预期思考,市场这个位置大概是铁底,个人信心满满,各种宏观分析,验证都一如既往。币本位做多2倍BTC。最终发生的事,大家都知道了。313紧急充值保证金都来不及,因为交易所宕机了。那一次合约操作,让我损失了100个大饼。痛彻心扉,再也不碰杠杆!我经常给朋友告诫三不原则:不碰杠杆,不开合约,不借贷炒币。假如您有能力,现货也能让您慢慢暴富! 4.独立思考:发展自己的见解,而不是盲目跟随市场趋势。市场噪音很多,尤其是牛市来临以后。各种赚钱的帖子和社群信息,层出不穷。而您能否守住自己的仓位,并守正出奇。这个很考验心性。很多时候市场的噪音,传到我们耳中,往往已经不是机会,而是陷阱。让自己独立思考,真正的去挖掘价值,才是我们一往无前的利器。 5.分散化投资:不要将所有资金投入到一个篮子里,以减少特定领域的风险。这是信仰的教训,作为李笑来的信徒,并上过他好几次课程,对于他主推的 #EOS,我是坚定不移的信仰者,一度把整个仓位的8成买了 EOS一个标的。虽然18年4月份,有一轮EOS带领的上涨,十分凌厉。当时信仰,跟着王团长喊:三浪打完,到500刀。天天自我麻木,当时一度拥有40万个EOS。最后发生了什么,大家都知道了,一直死拿到割肉离场。所以切记,分散投资。后面发生的 #LUNA#FTX 事件,通过分散投资,也适当规避了风险,虽然有损失,但不至于伤筋动骨。 6.长期视角:关注长期投资回报,而不是短期波动。周期来临以后,尽量少做短线波动操作。多次实验证明,拿住不动的回报可能跟来回波动,除了多巴胺的爽感之外,其实一无是处。ROI收益率可能还跑不赢持有不动。核心,还让自己很疲惫,身体和金钱。其中顾此失彼,毕竟身体是1,金钱是后面的0,身体没了,钱还在,是悲哀。每一轮牛市都会新闻播出几个,猝死的案例。我自己身边的哥们,在上轮牛市,就这么切切实实26岁走了,交易所还躺着200多万美金的加密货币。 7.投资于增长和创新:长期投资于具有潜在反脆弱特性的领域,如技术创新。每一轮周期,从前100名币种来看,轮换了很多次。我们做过测算,在21年牛市巅峰的CMC前100排名,跟17年牛市巅峰的CMC前100排名,替换了67%。其实很多币种,在一轮叙事中,其实绝大多数都被淘汰了。所以我们要一直关注创新的方向和领域。比如这轮叙事的:#AI #RWA #DEPIN #BRC20 8. 非对称性投资:追求损失有限、盈利潜力巨大的投资机会。这种机会在加密货币中概率比传统金融多很多。比如最近的FTX重启,押注FTT,作为以小博大的逻辑。包括之前暴雷的VGX,加拿大合规上市公司,竞拍收购案。等等。在我们日常投资环节中,核心要追寻底部,并长期横盘许久的优质项目。这类项目,在我早期的推文中经常提及,例如去年 #RNDR 在0.4-0.5横盘期间。这种横盘许久,底部有限,但上升空间却是无限的。未来潜力巨大,而安全垫足够厚实。 9.避免情绪交易:不要让情绪影响投资决策,坚持投资计划。做任何投资,一定要先做投资计划和策略,做成表格,指导自己的操作执行。而不是跟随市场,脑袋一拍,就往前冲。这种时候,往往容易出错。投资策略中,应该包含:投入资金,分配仓位,买入标的,买入理由,买入计划(分批还是一次性),持有风控(止盈止损),最后不断修正和跟踪。 10. 定期再平衡:定期调整投资组合,保持与原始投资目标一致。整个牛市环境中,翻倍出本。您会积累很多币本位的筹码,这如同自己生的孩子一般,积累代币量会有成就感。但这个过程并不是放任不管,比如我们最近 #ATOR
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  • Medical Sensor Market Size to Reach US$ 5587.85 million by 2033

    According to the Market Statsville Group (MSG), the global medical sensor market size is expected to grow from USD 1978.2 million in 2022 to USD 5587.85 million by 2033, at a CAGR of 9.9% from 2023 to 2033.

    This published market research report will provide valuable insights and guidance to businesses across various industries. These reports offer a comprehensive overview of a particular market, including its size, trends, key players, consumer behavior, and competitive landscape. By analyzing and interpreting the data and information gathered through extensive research, market research reports help businesses make informed decisions and develop effective strategies. These reports provide detailed market intelligence, identifying opportunities and potential challenges, enabling companies to identify target audiences, understand their needs and preferences, and tailor their products or services accordingly. Market research reports also aid in assessing the feasibility of new product launches, evaluating market demand, and determining pricing strategies. These reports are a reliable source of information and insights, empowering businesses to stay ahead of the competition and make well-informed decisions for sustainable growth and success.



    Request Sample Copy of this Report: https://www.marketstatsville.com/request-sample/medical-sensor-market?utm_source=Free+23+sep&utm_medium=vipin



    Research Methodology
    The research methodology employed for this market study follows a systematic and comprehensive approach to gathering and analyzing data. The methodology consists of the following key steps:

    Data Collection: Primary and secondary data sources are utilized to gather relevant information. Primary data is collected through surveys, interviews, and discussions with industry experts, market participants, and consumers. Secondary data is obtained from reliable sources such as industry reports, government publications, company websites, and reputable databases.
    Market Segmentation: The market is segmented based on factors such as product type, application, geography, and end-user industry. This segmentation allows for a detailed analysis of specific market segments and their dynamics.
    Data Analysis: The collected data is analyzed using statistical tools, qualitative analysis techniques, and industry-standard methodologies. Quantitative analysis involves numerical calculations, trend analysis, and statistical modeling to derive meaningful insights. Qualitative research involves interpreting subjective data, identifying patterns, and extracting key themes and insights.
    Validation and Verification: The research findings are cross-validated and verified through multiple sources and techniques to ensure accuracy and reliability. This may involve comparing data from different sources, conducting peer reviews, and seeking feedback from industry experts.
    Market Forecasting and Projection: Based on the analysis and insights derived from the data, a forecast is made for the market's future performance. This includes estimating market growth rates, demand patterns, and emerging trends to provide a projection of the market's potential trajectory.
    Report Compilation: The research findings, analysis, and insights are compiled into a comprehensive market research report. The report includes an executive summary, introduction, methodology, findings, analysis, and recommendations.
    The research methodology ensures the market study is conducted rigorously and systematically, enabling accurate analysis and reliable conclusions. It provides a strong foundation for decision-making and strategic planning based on credible and actionable market insights.



    Direct Purchase Report: https://www.marketstatsville.com/buy-now/medical-sensor-market?opt=3338&utm_source=Free+23+sep&utm_medium=vipin



    Scope of the Global Medical Sensor Market
    By Type Outlook (Sales, USD Billion, 2019-2033)
    MEMS Pressure Sensors
    Thermistor Temperature Sensors
    Image
    Biosensors
    Flow
    Motion
    Accelerometers
    Flow sensors
    Others
    By Application Outlook (Sales, USD Billion, 2019-2033)
    Medical Appliances
    Dialysis
    Ventilator
    Infusion Pumps
    Others
    Pharmaceutical Analysis
    Home Care
    Diagnostic and Monitoring Devices
    Therapeutic Devices
    Rehabilitation Devices
    Others


    Access full Report Description, TOC, Table of Figure, Chart, etc: https://www.marketstatsville.com/table-of-content/medical-sensor-market



    By Region Outlook (Sales, Growth Rate, USD Billion, 2019-2033)
    North America (the United States, Canada, and Mexico)
    Europe (Germany, UK, France, Italy, Spain, Russia, Ukraine, Poland, Belgium, and Rest of Europe)
    Asia-Pacific (China, Japan, South Korea, India, Australia & New Zealand, and Rest of Asia Pacific)
    South America (Brazil, Argentina, Colombia, Peru, and Rest of South America)
    The Middle East and Africa (Saudi Arabia, UAE, South Africa, Egypt, North Africa, Nigeria, and Rest of MEA)
    Competitive Landscape: Global Medical Sensor Market
    The research report provides a detailed analysis of the competitive landscape within the market. It identifies and profiles key players operating in the industry, including their market share, product portfolio, business strategies, and recent developments. The report assesses the strengths and weaknesses of each competitor, highlighting their competitive positioning and key differentiators. By understanding the competitive landscape, businesses can identify potential collaborations, partnerships, or acquisition opportunities and devise effective strategies to differentiate themselves and gain a competitive advantage. The insights from the competitive landscape analysis aid businesses in benchmarking their performance, evaluating market dynamics, and making informed decisions to stay ahead of the competition.



    Request For Report Description: https://www.marketstatsville.com/medical-sensor-market



    Major key players in the global Medical Sensor market are:


    TE Connectivity
    AMS AG
    Texas Instruments
    OmniVision Technologies
    Honeywell International
    ST Microelectronics
    NXP Semiconductors
    Sensirion AG
    TDK Electronics AG
    ADI
    Amphenol ASTG
    Infineon
    Tekscan, Inc.
    Merit Medical Systems
    Innovative Sensor Technology


    Here are five reasons why you should consider buying this research report:
    Comprehensive Market Insights: This research report offers a comprehensive analysis of the market, providing valuable insights into its size, growth potential, key trends, and competitive landscape. By leveraging this information, you can gain a deep understanding of the market dynamics and make informed decisions to capitalize on emerging opportunities.
    In-depth Consumer Analysis: The research report includes detailed consumer analysis, offering insights into their preferences, behavior, and buying patterns. This knowledge enables you to tailor your products or services to meet your target audience's specific needs and demands, enhancing customer satisfaction and driving business growth.
    Competitor Analysis: The report provides a thorough analysis of the key players in the market, their strategies, and their competitive positioning. Understanding your competitors' strengths and weaknesses allows you to benchmark your performance, identify areas for improvement, and develop effective strategies to gain a competitive edge.
    Market Forecast and Trends: This research report forecasts the market's growth trajectory, helping you make informed decisions about resource allocation, product development, and market entry strategies. By staying ahead of market trends, you can proactively adapt your business to changing consumer preferences and market dynamics, ensuring long-term success.
    Data-driven Decision Making: You can confidently make data-driven decisions by leveraging reliable data and insights from the research report. The report offers quantitative and qualitative analysis backed by robust research methodologies, ensuring your decisions are based on accurate and reliable information rather than guesswork or assumptions.
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  • Quantum Cryptography Market Worth US$ 502.6 million by 2030

    According to the Market Statsville Group (MSG), the global Quantum Cryptography Market size is expected to grow from USD 105.8 million in 2021 to USD 502.6 million by 2030, at a CAGR of 18.9% from 2022 to 2030.

    This published market research report will provide valuable insights and guidance to businesses across various industries. These reports offer a comprehensive overview of a particular market, including its size, trends, key players, consumer behavior, and competitive landscape. By analyzing and interpreting the data and information gathered through extensive research, market research reports help businesses make informed decisions and develop effective strategies. These reports provide detailed market intelligence, identifying opportunities and potential challenges, enabling companies to identify target audiences, understand their needs and preferences, and tailor their products or services accordingly. Market research reports also aid in assessing the feasibility of new product launches, evaluating market demand, and determining pricing strategies. These reports are a reliable source of information and insights, empowering businesses to stay ahead of the competition and make well-informed decisions for sustainable growth and success.



    Request Sample Copy of this Report: https://www.marketstatsville.com/request-sample/quantum-cryptography-market?utm_source=Free+21+sep&utm_medium=vipin



    Research Methodology
    The research methodology employed for this market study follows a systematic and comprehensive approach to gathering and analyzing data. The methodology consists of the following key steps:

    Data Collection: Primary and secondary data sources are utilized to gather relevant information. Primary data is collected through surveys, interviews, and discussions with industry experts, market participants, and consumers. Secondary data is obtained from reliable sources such as industry reports, government publications, company websites, and reputable databases.
    Market Segmentation: The market is segmented based on factors such as product type, application, geography, and end-user industry. This segmentation allows for a detailed analysis of specific market segments and their dynamics.
    Data Analysis: The collected data is analyzed using statistical tools, qualitative analysis techniques, and industry-standard methodologies. Quantitative analysis involves numerical calculations, trend analysis, and statistical modeling to derive meaningful insights. Qualitative research involves interpreting subjective data, identifying patterns, and extracting key themes and insights.
    Validation and Verification: The research findings are cross-validated and verified through multiple sources and techniques to ensure accuracy and reliability. This may involve comparing data from different sources, conducting peer reviews, and seeking feedback from industry experts.
    Market Forecasting and Projection: Based on the analysis and insights derived from the data, a forecast is made for the market's future performance. This includes estimating market growth rates, demand patterns, and emerging trends to provide a projection of the market's potential trajectory.
    Report Compilation: The research findings, analysis, and insights are compiled into a comprehensive market research report. The report includes an executive summary, introduction, methodology, findings, analysis, and recommendations.
    The research methodology ensures the market study is conducted rigorously and systematically, enabling accurate analysis and reliable conclusions. It provides a strong foundation for decision-making and strategic planning based on credible and actionable market insights.



    Direct Purchase Report: https://www.marketstatsville.com/buy-now/quantum-cryptography-market?opt=3338&utm_source=Free+21+sep&utm_medium=vipin



    Scope of the Global Quantum Cryptography Market
    By Component (Revenue, USD Million, 2017-2030)
    Hardware
    Solutions
    Services
    By Security type (Revenue, USD Million, 2017-2030)
    Application Security
    Network Security
    Database Encryption
    By Organizational Size (Revenue, USD Million, 2017-2030)
    Small & Medium Enterprise
    Large Enterprise
    By End-User (Revenue, USD Million, 2017-2030)
    Large Enterprises
    SMEs
    By Industry Vertical (Revenue, USD Million, 2017-2030)
    IT & Telecom
    BFSI
    Healthcare and life science
    Automotive
    Retail
    Government & Defense
    Others


    Access full Report Description, TOC, Table of Figure, Chart, etc: https://www.marketstatsville.com/table-of-content/quantum-cryptography-market



    By Region Outlook (Sales, Growth Rate, USD Billion, 2019-2033)
    North America (the United States, Canada, and Mexico)
    Europe (Germany, UK, France, Italy, Spain, Russia, Ukraine, Poland, Belgium, and Rest of Europe)
    Asia-Pacific (China, Japan, South Korea, India, Australia & New Zealand, and Rest of Asia Pacific)
    South America (Brazil, Argentina, Colombia, Peru, and Rest of South America)
    The Middle East and Africa (Saudi Arabia, UAE, South Africa, Egypt, North Africa, Nigeria, and Rest of MEA)
    Competitive Landscape: Global Quantum Cryptography Market
    The research report provides a detailed analysis of the competitive landscape within the market. It identifies and profiles key players operating in the industry, including their market share, product portfolio, business strategies, and recent developments. The report assesses the strengths and weaknesses of each competitor, highlighting their competitive positioning and key differentiators. By understanding the competitive landscape, businesses can identify potential collaborations, partnerships, or acquisition opportunities and devise effective strategies to differentiate themselves and gain a competitive advantage. The insights from the competitive landscape analysis aid businesses in benchmarking their performance, evaluating market dynamics, and making informed decisions to stay ahead of the competition.



    Request For Report Description: https://www.marketstatsville.com/quantum-cryptography-market



    Major key players in the global Quantum Cryptography market are:


    IBM Corp.
    ID Quantique
    Microsoft Corp.
    Toshiba Corp.
    NuCrypt LLC
    Accenture Corp.
    NEC Corp.
    PQ Solutions
    Anhui Qasky Science and Technology Ltd
    MagiQ Technologies, Inc
    Infineon Technologies
    Here are five reasons why you should consider buying this research report:
    Comprehensive Market Insights: This research report offers a comprehensive analysis of the market, providing valuable insights into its size, growth potential, key trends, and competitive landscape. By leveraging this information, you can gain a deep understanding of the market dynamics and make informed decisions to capitalize on emerging opportunities.
    In-depth Consumer Analysis: The research report includes detailed consumer analysis, offering insights into their preferences, behavior, and buying patterns. This knowledge enables you to tailor your products or services to meet your target audience's specific needs and demands, enhancing customer satisfaction and driving business growth.
    Competitor Analysis: The report provides a thorough analysis of the key players in the market, their strategies, and their competitive positioning. Understanding your competitors' strengths and weaknesses allows you to benchmark your performance, identify areas for improvement, and develop effective strategies to gain a competitive edge.
    Market Forecast and Trends: This research report forecasts the market's growth trajectory, helping you make informed decisions about resource allocation, product development, and market entry strategies. By staying ahead of market trends, you can proactively adapt your business to changing consumer preferences and market dynamics, ensuring long-term success.
    Data-driven Decision Making: You can confidently make data-driven decisions by leveraging reliable data and insights from the research report. The report offers quantitative and qualitative analysis backed by robust research methodologies, ensuring your decisions are based on accurate and reliable information rather than guesswork or assumptions.
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  • Automotive Body Electronics Market Worth US$ 80.1 billion by 2027

    The global automotive body electronics market size is expected to grow from USD 53.1 billion in 2020 to USD 80.1 billion by 2027, at a CAGR of 7.1% from 2021 to 2027.

    The automotive body electronics market refers to the segment of the automotive industry that deals with the electronic components and systems integrated into a vehicle's body and interior. These electronic components play a crucial role in enhancing vehicle functionality, safety, comfort, and convenience. As of my last knowledge update in September 2021, I can provide you with some insights into this market. Please note that the market may have evolved since then, and it's essential to verify this information with the latest sources for up-to-date statistics and trends.

    Automotive Body Electronics Market Dynamics

    The automotive body electronics market is a dynamic and rapidly evolving sector within the automotive industry. Several key dynamics shape this market:

    Advancements in Vehicle Connectivity: The increasing demand for connected cars and the integration of advanced communication systems are driving the growth of automotive body electronics. Consumers expect features like smartphone integration, in-car Wi-Fi, and remote vehicle monitoring, which require sophisticated electronic systems.

    Electrification and Hybridization: The shift toward electric and hybrid vehicles is influencing body electronics. These vehicles require specialized electronics for managing battery systems, electric powertrains, and regenerative braking systems.

    Safety and Driver Assistance Systems: The automotive industry is witnessing a growing emphasis on safety features and driver assistance systems, such as advanced driver assistance systems (ADAS). These systems include sensors, cameras, and radar technologies that rely heavily on electronics to enhance vehicle safety and provide semi-autonomous driving capabilities.



    Request Sample Copy of this Report: https://bit.ly/3Pc8PFu



    Market Segmentation Analysis

    The study categorizes the global Automotive Body Electronics market based on equipment type, technology, type, installation method, distribution channel, application, and regions.

    By Component Outlook (Sales, USD Million, 2017-2027)

    MCU

    ICs

    Sensors

    DC-DC converters

    Other Components

    By Body Features Outlook (Sales, USD Million, 2017-2027)

    Windows and Door Modules

    Seating Modules

    Roof Module Control

    Light Control

    Wiper and Mirror Module

    Auto HVAC

    Remote Keyless Entry



    Direct Purchase Report: https://bit.ly/3PcXqFk



    By Application Outlook (Sales, USD Million, 2017-2027)

    Passive Safety

    Driver Assistance

    Passenger Comfort

    Vehicle Security System

    Infotainment Systems

    Chassis Electronics

    By Region Outlook (Sales, Production, USD Million, 2019-2033)

    North America (Mexico, Canada, US)

    South America (Peru, Brazil, Colombia, Argentina, Rest of Latin America)

    Europe (Germany, Italy, France, UK, Spain, Poland, Russia, Slovenia, Slovakia, Hungary, Czech Republic, Belgium, the Netherlands, Norway, Sweden, Denmark, Rest of Europe)

    Asia Pacific (China, Japan, India, South Korea, Indonesia, Malaysia, Thailand, Vietnam, Myanmar, Cambodia, the Philippines, Singapore, Australia & New Zealand, Rest of Asia Pacific)

    The Middle East & Africa (Saudi Arabia, UAE, South Africa, Northern Africa, Rest of MEA)



    Access full Report Description, TOC, Table of Figure, Chart, etc: https://www.marketstatsville.com/table-of-content/automotive-body-electronics-market



    REGIONAL ANALYSIS, 2023

    Based on the region, the global Automotive Body Electronics market has been analyzed and segmented into five regions, namely, North America, Europe, Asia-Pacific, South America, and the Middle East & Africa.

    North America has been a prominent market for Automotive Body Electronicss due to high consumer spending on electronics and a strong demand for home entertainment systems. The United States, in particular, has a large market for Automotive Body Electronicss, driven by the popularity of streaming services and the desire for immersive audio experiences.

    The Asia Pacific region, including countries like China, Japan, and South Korea, has witnessed substantial growth in the Automotive Body Electronics market. Factors contributing to this growth include the rising disposable income, increasing urbanization, and the growing popularity of home theater systems among consumers in the region.



    Request For Report Description: https://www.marketstatsville.com/automotive-body-electronics-market



    Major Key Players in the Automotive Body Electronics Market

    The global Automotive Body Electronics market is fragmented into a few major players and other local, small, and mid-sized manufacturers/providers, they are –

    The leading global automotive body electronics market players include Robert Bosch, Continental AG, Denso Corporation, Hyundai Mob, HELLA, NXP Semiconductors, Texas Instruments, and Renesas Technology Corp Infineon Technologies, Cypress Semiconductor, STMicroelectronics, ZF, Dallas Semiconductors, Fujitsu Semiconductor, and Microsemi.
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  • Embedded Hypervisor Software Market Demand and Growth Analysis with Forecast up to 2030

    Embedded Hypervisor Software Market: Enabling Efficient Virtualization in Embedded Systems

    Introduction:

    The embedded hypervisor software market has experienced significant growth in recent years, driven by the increasing adoption of virtualization technology in the embedded systems domain. Embedded hypervisors enable the efficient and secure partitioning of hardware resources, allowing multiple operating systems or software components to run simultaneously on a single embedded device. This article provides an overview of the embedded hypervisor software market, highlighting its key drivers, challenges, and future prospects.

    Understanding Embedded Hypervisor Software:

    Embedded hypervisor software is a specialized virtualization technology designed for embedded systems. It enables the consolidation of multiple virtual machines or software components on a single hardware platform, providing isolation, security, and resource management capabilities. Embedded hypervisors allow different operating systems or software stacks to run independently and concurrently on embedded devices, facilitating better utilization of resources and enhancing system flexibility.

    Key Drivers of the Embedded Hypervisor Software Market:

    Increasing Complexity of Embedded Systems: Embedded systems are becoming increasingly complex, incorporating multiple software components with different requirements and real-time constraints. Embedded hypervisors provide a robust solution for managing this complexity by enabling the partitioning of resources and the isolation of critical tasks, improving system performance, and reliability.

    Cost and Space Optimization: Virtualization technology offers cost and space savings by consolidating multiple embedded systems onto a single hardware platform. By running multiple applications or operating systems on a single device, organizations can reduce hardware costs, minimize physical space requirements, and achieve better energy efficiency.

    Enhanced Security and Safety: Embedded hypervisors enhance the security and safety of embedded systems by providing isolation between different software components. Critical functions can be isolated from non-critical functions, preventing unauthorized access or interference and mitigating the risk of system failures.

    Rapid Advancements in IoT and Edge Computing: The growth of the Internet of Things (IoT) and edge computing has fueled the demand for embedded hypervisors. These technologies require efficient management and deployment of diverse applications on resource-constrained devices, making virtualization an essential tool for achieving scalability, flexibility, and better resource utilization.

    Challenges in the Embedded Hypervisor Software Market:

    Performance Overhead: Embedded hypervisors introduce a performance overhead due to the additional layer of abstraction and resource management. Optimizing the performance of virtualized systems and minimizing the impact on real-time constraints is a challenge that developers and system integrators face.

    Hardware Compatibility: Ensuring compatibility between embedded hypervisor software and various hardware platforms can be challenging. Manufacturers need to develop hypervisor solutions that support a wide range of processors, peripherals, and device configurations to meet the diverse requirements of the embedded systems market.

    Certification and Compliance: Certain industries, such as automotive, avionics, and medical devices, have stringent certification and compliance requirements. Ensuring that embedded hypervisor software meets these standards adds complexity and can significantly impact the development and deployment of virtualized systems in these sectors.

    Browse In-depth Market Research Report (100 Pages, Charts, Tables, Figures) on Embedded Hypervisor Software Market

    https://www.marketresearchfuture.com/reports/embedded-hypervisor-software-market-4067

    Future Prospects:

    The embedded hypervisor software market is poised for continued growth and innovation. Several trends contribute to its promising future:

    Edge Computing Expansion: The proliferation of edge computing and the need for efficient resource utilization in edge devices will drive the adoption of embedded hypervisors. These technologies will enable the consolidation of diverse workloads, such as AI inference, analytics, and real-time processing, onto a single device, enhancing the scalability and agility of edge deployments.

    Growing Demand in Automotive and Industrial Sectors: The automotive and industrial sectors will increasingly rely on embedded hypervisors to enable the consolidation of various control systems, infotainment applications, and safety-critical functions. The need for flexibility, security, and system separation in these domains will drive the adoption of virtualization technology.

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    Global Embedded Hypervisor Software Market - Forecast 2030 | MRFR
    Embedded Hypervisor Software Market is expected to grow at USD 4.49 Billion by the end of year 2030 with 6.65% CAGR during forecast period 2020-2030 | Embedded Hypervisor Software Market
    WWW.MARKETRESEARCHFUTURE.COM
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  • Re: Bitcoin P2P e-cash paper
    NOVEMBER 17, 2008 SATOSHI NAKAMOTO CRYPTOGRAPHY MAILING LIST
    I’ll try and hurry up and release the sourcecode as soon as possible to serve
    as a reference to help clear up all these implementation questions.

    Ray Dillinger (Bear) wrote:
    > When a coin is spent, the buyer and seller digitally sign a (blinded)
    > transaction record.

    Only the buyer signs, and there’s no blinding.

    > If someone double spends, then the transaction record
    > can be unblinded revealing the identity of the cheater.

    Identities are not used, and there’s no reliance on recourse. It’s all
    prevention.

    > This is done via a fairly standard cut-and-choose
    > algorithm where the buyer responds to several challenges
    > with secret shares

    No challenges or secret shares. A basic transaction is just what you see in
    the figure in section 2. A signature (of the buyer) satisfying the public key
    of the previous transaction, and a new public key (of the seller) that must be
    satisfied to spend it the next time.

    > They may also receive chains as long as the one they’re trying to
    > extend while they work, in which the last few “links” are links
    > that are *not* in common with the chain on which they’re working.
    > These they ignore.

    Right, if it’s equal in length, ties are broken by keeping the earliest one
    received.

    > If it contains a double spend, then they create a “transaction”
    > which is a proof of double spending, add it to their pool A,
    > broadcast it, and continue work.

    There’s no need for reporting of “proof of double spending” like that. If the
    same chain contains both spends, then the block is invalid and rejected.

    Same if a block didn’t have enough proof-of-work. That block is invalid and
    rejected. There’s no need to circulate a report about it. Every node could
    see that and reject it before relaying it.

    If there are two competing chains, each containing a different version of the
    same transaction, with one trying to give money to one person and the other
    trying to give the same money to someone else, resolving which of the spends is
    valid is what the whole proof-of-work chain is about.

    We’re not “on the lookout” for double spends to sound the alarm and catch the
    cheater. We merely adjudicate which one of the spends is valid. Receivers of
    transactions must wait a few blocks to make sure that resolution has had time
    to complete. Would be cheaters can try and simultaneously double-spend all
    they want, and all they accomplish is that within a few blocks, one of the
    spends becomes valid and the others become invalid. Any later double-spends
    are immediately rejected once there’s already a spend in the main chain.

    Even if an earlier spend wasn’t in the chain yet, if it was already in all the
    nodes’ pools, then the second spend would be turned away by all those nodes
    that already have the first spend.

    > If the new chain is accepted, then they give up on adding their
    > current link, dump all the transactions from pool L back into pool
    > A (along with transactions they’ve received or created since
    > starting work), eliminate from pool A those transaction records
    > which are already part of a link in the new chain, and start work
    > again trying to extend the new chain.

    Right. They also refresh whenever a new transaction comes in, so L pretty much
    contains everything in A all the time.

    > CPU-intensive digital signature algorithm to
    > sign the chain including the new block L.

    It’s a Hashcash style SHA-256 proof-of-work (partial pre-image of zero), not a
    signature.

    > Is there a mechanism to make sure that the “chain” does not consist
    > solely of links added by just the 3 or 4 fastest nodes? ‘Cause a
    > broadcast transaction record could easily miss those 3 or 4 nodes
    > and if it does, and those nodes continue to dominate the chain, the
    > transaction might never get added.

    If you’re thinking of it as a CPU-intensive digital signing, then you may be
    thinking of a race to finish a long operation first and the fastest always
    winning.

    The proof-of-work is a Hashcash style SHA-256 collision finding. It’s a
    memoryless process where you do millions of hashes a second, with a small
    chance of finding one each time. The 3 or 4 fastest nodes’ dominance would
    only be proportional to their share of the total CPU power. Anyone’s chance of
    finding a solution at any time is proportional to their CPU power.

    There will be transaction fees, so nodes will have an incentive to receive and
    include all the transactions they can. Nodes will eventually be compensated by
    transaction fees alone when the total coins created hits the pre-determined
    ceiling.

    > Also, the work requirement for adding a link to the chain should
    > vary (again exponentially) with the number of links added to that
    > chain in the previous week, causing the rate of coin generation
    > (and therefore inflation) to be strictly controlled.

    Right.

    > You need coin aggregation for this to scale. There needs to be
    > a “provable” transaction where someone retires ten single coins
    > and creates a new coin with denomination ten, etc.

    Every transaction is one of these. Section 9, Combining and Splitting Value.
    Satoshi Nakamoto
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  • https://azure.microsoft.com/en-us/blog/announcing-microsoft-s-coco-framework-for-enterprise-blockchain-networks/
    https://opensourcelibs.com/lib/diffnet
    https://github.com/Messi-Q/GraphDeeSmartContract
    https://xscode.com/jdlc105/Must-read-papers-and-continuous-tracking-on-Graph-Neural-Network-GNN-progress
    Must-read papers and continuous track on Graph Neural Network(GNN) progress
    Many important real-world applications and questions come in the form of graphs, such as social network, protein-protein interaction network, brain network, chemical molecular graph and 3D point cloud. Therefore, driven by the above interdisciplinary research, the neural network model for graph data-oriented has become an emerging research hotspot. Among them, two of the three pioneers of deep learning, Professor Yann LeCun (2018 Turing Award Winner), Professor Yoshua Bengio (2018 Turing Award Winner) and famous Professor Jure Leskovec from Stanford University AI lab also participated in it.

    This project focuses on GNN, lists relevant must-read papers and keeps track of progress. We look forward to promoting this direction and providing some help to researchers in this direction.

    Contributed by Allen Bluce (Dr. Bentian Li) and Anne Bluce (Dr. Yunxia Lin), If there is something wrong or GNN-related issue, welcome to send email (Address: jdlc105@qq.com, lbtjackbluce@gmail.com).

    Technology Keyword: Graph Neural Network, Graph convolutional network, Graph network, Graph attention network, Graph auto-encoder, Graph convolutional reinforcement learning, Graph capsule neural network....

    GNN and its variants are an emerging and powerful neural network approach. Its application is no longer limited to the original field. It has flourished in many other areas, such as Data Visualization, Image Processing, NLP, Recommendation System, Computer Vision, Bioinformatics, Chemical informatics, Drug Development and Discovery, Smart Transportation.

    Very hot research topic: the representative work--Graph convolutional networks (GCNs) proposed by T.N. Kipf and M. Welling (ICLR2017 [5] in conference paper list) has been cited 1,020 times in Google Scholar (on 09 May 2019). Update: 1, 065 times (on 20 May 2019); Update: 1, 106 times (on 27 May 2019); Update: 1, 227 times (on 19 June 2019); Update: 1, 377 times (on 8 July 2019); Update: 1, 678 times (on 17 Sept. 2019); Update: 1, 944 times (on 29 Oct. 2019); Update: 2, 232 times (on 9 Dec. 2019); Update: 2, 677 times (on 2 Feb. 2020).Update: 3, 018 times (on 17 March. 2020); Update: 3,560 times (on 27 May. 2020); Update: 4,060 times (on 3 July. 2020); Update: 5,371 times (on 25 Oct. 2020). Update: 6,258 times (on 01 Jan. 2021).

    Thanks for giving us so many stars and supports from the developers and scientists on Github around the world!!! We will continue to make this project better.

    Project Start time: 11 Dec 2018, Latest updated time: 01 Jan. 2021

    New papers about GNN models and their applications have come from NeurIPS2020, AAAI2021 .... We are waiting for more paper to be released.

    Survey papers:
    Bronstein M M, Bruna J, LeCun Y, et al. Geometric deep learning: going beyond euclidean data. IEEE Signal Processing Magazine, 2017, 34(4): 18-42. paper

    Jie Zhou, Ganqu Cui, Zhengyan Zhang, Cheng Yang, Zhiyuan Liu, Maosong Sun, Graph Neural Networks: A Review of Methods and Applications, ArXiv, 2018. paper.

    Battaglia P W, Hamrick J B, Bapst V, et al. Relational inductive biases, deep learning, and graph networks, arXiv 2018. paper

    Zonghan Wu, Shirui Pan, Fengwen Chen, Guodong Long, Chengqi Zhang, Philip S. Yu(Fellow,IEEE), A Comprehensive Survey on Graph Neural Networks, IEEE Transactions on Neural Networks and Learning Systems, 2020. paper.

    Ziwei Zhang, Peng Cui, Wenwu Zhu, Deep Learning on Graphs: A Survey, IEEE Transactions on Knowledge and Data Engineering, 2020. paper.

    Chen Z, Chen F, Zhang L, et al. Bridging the Gap between Spatial and Spectral Domains: A Survey on Graph Neural Networks. arXiv preprint. 2020. paper

    Abadal S, Jain A, Guirado R, et al. Computing Graph Neural Networks: A Survey from Algorithms to Accelerators. arXiv preprint. 2020. paper

    Lamb L, Garcez A, Gori M, et al. Graph Neural Networks Meet Neural-Symbolic Computing: A Survey and Perspective. arXiv preprint. 2020. paper

    Journal papers:
    F. Scarselli, M. Gori, A.C. Tsoi, M. Hagenbuchner, G. Monfardini, The graph neural network model, IEEE Transactions on Neural Networks(IEEE Transactions on Neural Networks and Learning Systems), 2009. paper.

    Scarselli F, Gori M, Tsoi A C, et al. Computational capabilities of graph neural networks, IEEE Transactions on Neural Networks, 2009. paper.

    Micheli A . Neural Network for Graphs: A Contextual Constructive Approach. IEEE Transactions on Neural Networks, 2009. paper.

    Goles, Eric, and Gonzalo A. Ruz. Dynamics of Neural Networks over Undirected Graphs. Neural Networks, 2015. paper.

    Z. Luo, L. Liu, J. Yin, Y. Li, Z. Wu, Deep Learning of Graphs with Ngram Convolutional Neural Networks, IEEE Transactions on Knowledge & Data Engineering, 2017. paper. code.

    Petroski Such F , Sah S , Dominguez M A , et al. Robust Spatial Filtering with Graph Convolutional Neural Networks. IEEE Journal of Selected Topics in Signal Processing, 2017. paper.

    Kawahara J, Brown C J, Miller S P, et al. BrainNetCNN: convolutional neural networks for brain networks; towards predicting neurodevelopment. NeuroImage, 2017. paper.

    Muscoloni A , Thomas J M , Ciucci S , et al. Machine learning meets complex networks via coalescent embedding in the hyperbolic space. Nature Communications, 2017. paper.

    D.M. Camacho, K.M. Collins, R.K. Powers, J.C. Costello, J.J. Collins, Next-Generation Machine Learning for Biological Networks, Cell, 2018. paper.

    Marinka Z , Monica A , Jure L . Modeling polypharmacy side effects with graph convolutional networks. Bioinformatics, 2018. paper.

    Sarah P , Ira K S , Enzo F , et al. Disease Prediction using Graph Convolutional Networks: Application to Autism Spectrum Disorder and Alzheimer’s Disease. Medical Image Analysis, 2018. paper.

    Sofia Ira Ktena, Sarah Parisot, Enzo Ferrante, Martin Rajchl, Matthew Lee, Ben Glocker, Daniel Rueckert, Metric learning with spectral graph convolutions on brain connectivity networks, NeuroImage, 2018. paper.

    Xie T , Grossman J C . Crystal Graph Convolutional Neural Networks for an Accurate and Interpretable Prediction of Material Properties. Physical Review Letters, 2018. paper.

    Phan, Anh Viet, Minh Le Nguyen, Yen Lam Hoang Nguyen, and Lam Thu Bui. DGCNN: A Convolutional Neural Network over Large-Scale Labeled Graphs. Neural Networks, 2018. paper

    Song T, Zheng W, Song P, et al. Eeg emotion recognition using dynamical graph convolutional neural networks. IEEE Transactions on Affective Computing, 2018. paper

    Levie R, Monti F, Bresson X, et al. Cayleynets: Graph convolutional neural networks with complex rational spectral filters. IEEE Transactions on Signal Processing 2019. paper

    Zhang, Zhihong, Dongdong Chen, Jianjia Wang, Lu Bai, and Edwin R. Hancock. Quantum-Based Subgraph Convolutional Neural Networks. Pattern Recognition, 2019. paper

    Qin A, Shang Z, Tian J, et al. Spectral–Spatial Graph Convolutional Networks for Semisupervised Hyperspectral Image Classification. IEEE Geoscience and Remote Sensing Letters, 2019. paper

    Coley C W, Jin W, Rogers L, et al. A graph-convolutional neural network model for the prediction of chemical reactivity. Chemical Science, 2019. paper

    Zhang Z, Chen D, Wang Z, et al. Depth-based Subgraph Convolutional Auto-Encoder for Network Representation Learning. Pattern Recognition, 2019. paper

    Hong Y, Kim J, Chen G, et al. Longitudinal Prediction of Infant Diffusion MRI Data via Graph Convolutional Adversarial Networks. IEEE transactions on medical imaging, 2019. paper

    Khodayar M, Mohammadi S, Khodayar M E, et al. Convolutional Graph Autoencoder: A Generative Deep Neural Network for Probabilistic Spatio-temporal Solar Irradiance Forecasting. IEEE Transactions on Sustainable Energy, 2019. paper

    Zhang Q, Chang J, Meng G, et al. Learning graph structure via graph convolutional networks. Pattern Recognition, 2019. paper

    Xuan P, Pan S, Zhang T, et al. Graph Convolutional Network and Convolutional Neural Network Based Method for Predicting lncRNA-Disease Associations. Cells, 2019. paper

    Sun M, Zhao S, Gilvary C, et al. Graph convolutional networks for computational drug development and discovery. Briefings in bioinformatics, 2019. paper

    Spier N, Nekolla S, Rupprecht C, et al. Classification of Polar Maps from Cardiac Perfusion Imaging with Graph-Convolutional Neural Networks. Scientific reports, 2019. paper

    Heyuan Shi, et al. Hypergraph-Induced Convolutional Networks for Visual Classification. IEEE Transactions on Neural Networks and Learning Systems, 2019. paper

    S.Pan, et al. Learning Graph Embedding With Adversarial Training Methods. IEEE Transactions on Cybernetics, 2019. paper

    D. Grattarola, et al. Change Detection in Graph Streams by Learning Graph Embeddings on Constant-Curvature Manifolds. IEEE Transactions on Neural Networks and Learning Systems. 2019. paper

    Kan Guo, et al. Optimized Graph Convolution Recurrent Neural Network for Traffic Prediction. IEEE Transactions on Intelligent Transportation Systems. 2020. paper

    Ruiz L, et al. Invariance-preserving localized activation functions for graph neural networks. IEEE Transactions on Signal Processing, 2020. paper

    Li J, et al. Neural Inductive Matrix Completion with Graph Convolutional Networks for miRNA-disease Association Prediction. Bioinformatics, 2020. paper

    Bingzhi Chen, et al. Label Co-occurrence Learning with Graph Convolutional Networks for Multi-label Chest X-ray Image Classification. IEEE Journal of Biomedical and Health Informatics, 2020. paper

    Kunjin Chen, et al. Fault Location in Power Distribution Systems via Deep Graph Convolutional Networks. IEEE Journal on Selected Areas in Communications, 2020. paper

    Manessi, Franco, et al. Dynamic graph convolutional networks. Pattern Recognition, 2020. paper

    Jiang X, Zhu R, Li S, et al. Co-embedding of Nodes and Edges with Graph Neural Networks. IEEE Transactions on Pattern Analysis and Machine Intelligence. paper

    Wang Z, Ji S. Second-order pooling for graph neural networks. IEEE Transactions on Pattern Analysis and Machine Intelligence, 2020. paper

    Indro Spinelli, et al. Adaptive Propagation Graph Convolutional Network. IEEE Transactions on Neural Networks and Learning Systems, 2020. paper

    Zhou Fan, et al. Reinforced Spatiotemporal Attentive Graph Neural Networks for Traffic Forecasting. IEEE Internet of Things Journal, 2020. paper

    Wang S H, et al. Covid-19 classification by FGCNet with deep feature fusion from graph convolutional network and convolutional neural network. Information Fusion, 2020. paper

    Ruiz, Luana et al. Gated Graph Recurrent Neural Networks, IEEE Transactions on Signal Processing. paper

    Gama, Fernando et al. Stability Properties of Graph Neural Networks, IEEE Transactions on Signal Processing. paper

    He, Xin et al. MV-GNN: Multi-View Graph Neural Network for Compression Artifacts Reduction, IEEE Transactions on Image Processing. paper

    Conference papers:
    Duvenaud D, Maclaurin D, Aguilera-Iparraguirre J, et al. Convolutional networks on graphs for learning molecular fingerprints, NeurIPS(NIPS) 2015. paper. code.

    M. Niepert, M. Ahmed, K. Kutzkov, Learning Convolutional Neural Networks for Graphs, ICML 2016. paper.

    S. Cao, W. Lu, Q. Xu, Deep neural networks for learning graph representations, AAAI 2016. paper.

    M. Defferrard, X. Bresson, P. Vandergheynst, Convolutional Neural Networks on Graphs with Fast Localized Spectral Filtering, NeurIPS(NIPS) 2016. paper. code.

    T.N. Kipf, M. Welling, Semi-Supervised Classification with Graph Convolutional Networks, ICLR 2017. paper. code.

    A. Fout, B. Shariat, J. Byrd, A. Benhur, Protein Interface Prediction using Graph Convolutional Networks, NeurIPS(NIPS) 2017. paper.

    Monti F, Bronstein M, Bresson X. Geometric matrix completion with recurrent multi-graph neural networks, NeurIPS(NIPS) 2017. paper.

    Simonovsky M, Komodakis N. Dynamic edgeconditioned filters in convolutional neural networks on graphs, CVPR. 2017. paper

    R. Li, S. Wang, F. Zhu, J. Huang, Adaptive Graph Convolutional Neural Networks, AAAI 2018. paper

    J. You, B. Liu, R. Ying, V. Pande, J. Leskovec, Graph Convolutional Policy Network for Goal-Directed Molecular Graph Generation, NeurIPS(NIPS) 2018. paper.

    C. Zhuang, Q. Ma, Dual Graph Convolutional Networks for Graph-Based Semi-Supervised Classification, WWW 2018. paper

    H. Gao, Z. Wang, S. Ji, Large-Scale Learnable Graph Convolutional Networks, KDD 2018. paper

    D. Zügner, A. Akbarnejad, S. Günnemann, Adversarial Attacks on Neural Networks for Graph Data, KDD 2018. paper

    Ying R , He R , Chen K , et al. Graph Convolutional Neural Networks for Web-Scale Recommender Systems. KDD 2018. paper

    P. Veličković, G. Cucurull, A. Casanova, A. Romero, P. Liò, Y. Bengio, Graph Attention Networks, ICLR, 2018. paper

    Beck, Daniel Edward Robert, Gholamreza Haffari and Trevor Cohn. Graph-to-Sequence Learning using Gated Graph Neural Networks. ACL 2018. paper

    Yu B, Yin H, Zhu Z. Spatio-temporal graph convolutional networks: A deep learning framework for traffic forecasting. IJCAI 2018. paper

    Chen J , Zhu J , Song L . Stochastic Training of Graph Convolutional Networks with Variance Reduction. ICML 2018. paper

    Gusi Te, Wei Hu, Amin Zheng, Zongming Guo, RGCNN: Regularized Graph CNN for Point Cloud Segmentation. ACM Multimedia 2018. paper, code,

    Talukdar, Partha, Shikhar Vashishth, Shib Sankar Dasgupta and Swayambhu Nath Ray. Dating Documents using Graph Convolution Networks. ACL 2018. paper, code

    Sanchez-Gonzalez A , Heess N , Springenberg J T , et al. Graph networks as learnable physics engines for inference and control. ICML 2018. paper

    Muhan Zhang, Yixin Chen. Link Prediction Based on Graph Neural Networks. NeurIPS(NIPS) 2018. paper

    Chen, Jie, Tengfei Ma, and Cao Xiao. FastGCN: Fast Learning with Graph Convolutional Networks via Importance Sampling. ICLR 2018. paper

    Zhang, Zhen, Hongxia Yang, Jiajun Bu, Sheng Zhou, Pinggang Yu, Jianwei Zhang, Martin Ester, and Can Wang. ANRL: Attributed Network Representation Learning via Deep Neural Networks.. IJCAI 2018. paper

    Rahimi A , Cohn T , Baldwin T . Semi-supervised User Geolocation via Graph Convolutional Networks. ACL 2018. paper

    Morris C , Ritzert M , Fey M , et al.Weisfeiler and Leman Go Neural: Higher-order Graph Neural Networks.. AAAI 2019. paper

    Xu K, Hu W, Leskovec J, et al. How Powerful are Graph Neural Networks?, ICLR 2019. paper

    Johannes Klicpera, Aleksandar Bojchevski, Stephan Günnemann. Combining Neural Networks with Personalized PageRank for Classification on Graphs, ICLR 2019. paper

    Daniel Zügner, Stephan Günnemann. Adversarial Attacks on Graph Neural Networks via Meta Learning, ICLR 2019. paper

    Zhang Xinyi, Lihui Chen. Capsule Graph Neural Network, ICLR 2019. paper

    Liao, R., Zhao, Z., Urtasun, R., and Zemel, R. LanczosNet: Multi-Scale Deep Graph Convolutional Networks, ICLR 2019, paper

    Bingbing Xu, Huawei Shen, Qi Cao, Yunqi Qiu, Xueqi Cheng. Graph Wavelet Neural Network, ICLR 2019, paper

    Hu J, Guo C, Yang B, et al. Stochastic Weight Completion for Road Networks using Graph Convolutional Networks ICDE. 2019. paper

    Yao L, Mao C, Luo Y . Graph Convolutional Networks for Text Classification. AAAI 2019. paper

    Landrieu L , Boussaha M . Point Cloud Oversegmentation with Graph-Structured Deep Metric Learning. CVPR 2019. paper

    Si C , Chen W , Wang W , et al. An Attention Enhanced Graph Convolutional LSTM Network for Skeleton-Based Action Recognition. CVPR 2019. paper

    Cucurull G , Taslakian P , Vazquez D . Context-Aware Visual Compatibility Prediction. CVPR 2019. paper

    Jia-Xing Zhong, Nannan Li, Weijie Kong, Shan Liu, Thomas H. Li, Ge Li. Graph Convolutional Label Noise Cleaner: Train a Plug-and-play Action Classifier for Anomaly Detection. CVPR 2019. paper

    Michael Kampffmeyer, Yinbo Chen, Xiaodan Liang, Hao Wang, Yujia Zhang, Eric P. Xing. Rethinking Knowledge Graph Propagation for Zero-Shot Learning. CVPR 2019. paper

    Arushi Goel, Keng Teck Ma, Cheston Tan. An End-to-End Network for Generating Social Relationship Graphs. CVPR 2019. paper

    Yichao Yan, Qiang Zhang, Bingbing Ni, Wendong Zhang, Minghao Xu, Xiaokang Yang. Learning Context Graph for Person Search. CVPR 2019 paper

    Zhongdao Wang, Liang Zheng, Yali Li, Shengjin Wang. Linkage Based Face Clustering via Graph Convolution Network. CVPR 2019 paper

    Lei Yang, Xiaohang Zhan, Dapeng Chen, Junjie Yan, Chen Change Loy, Dahua Lin. Learning to Cluster Faces on an Affinity Graph. CVPR 2019 paper

    Yao Ma, Suhang Wang, Charu C. Aggarwal, Jiliang Tang. Graph Convolutional Networks with EigenPooling. KDD2019, paper

    Wenqi Fan, Yao Ma, Qing Li, Yuan He, Eric Zhao, Jiliang Tang, Dawei Yin. Graph Neural Networks for Social Recommendation. WWW2019, paper

    Kim J, Kim T, Kim S, et al. Edge-labeling Graph Neural Network for Few-shot Learning. CVPR 2019. paper

    Jessica V. Schrouff, Kai Wohlfahrt, Bruno Marnette, Liam Atkinson. INFERRING JAVASCRIPT TYPES USING GRAPH NEURAL NETWORKS. ICLR 2019. paper

    Emanuele Rossi, Federico Monti, Michael Bronstein, Pietro liò. ncRNA Classification with Graph Convolutional Networks. SIGKDD 2019. paper

    Wu F, Zhang T, Souza Jr A H, et al. Simplifying Graph Convolutional Networks. ICML 2019. paper.

    Junhyun Lee, Inyeop Lee, Jaewoo Kang. Self-Attention Graph Pooling. ICML 2019. paper.

    Chiang W L, Liu X, Si S, et al. Cluster-GCN: An Efficient Algorithm for Training Deep and Large Graph Convolutional Networks. SIGKDD 2019. paper.

    Namyong Park, Andrey Kan, Xin Luna Dong, Tong Zhao, Christos Faloutsos, Estimating Node Importance in Knowledge Graphs Using Graph Neural Networks. SIGKDD 2019. paper.

    Wu S, Tang Y, Zhu Y, et al. Session-based Recommendation with Graph Neural Networks. AAAI 2019. paper.

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    Open source platform on GNN
    Deep Graph Library(DGL)
    DGL is developed and maintained by New York University, New York University Shanghai, AWS Shanghai Research Institute and AWS MXNet Science Team.

    Initiation time: 2018.

    Source: URL, github

    NGra
    NGra is developed and maintained by Peking University and Microsoft Asia Research Institute.

    Initiation time:2018

    Source: pdf

    Graph_nets
    Graph_nets is developed and maintained by DeepMind, Google Corp.

    Initiation time:2018

    Source: github

    Euler
    Euler is developed and maintained by Alimama, which belongs to Alibaba Group.

    Initiation time:2019

    Source: github

    PyTorch Geometric
    PyTorch Geometric is developed and maintained by TU Dortmund University, Germany.

    Initiation time:2019

    Source: github paper

    PyTorch-BigGraph(PBG)
    PBG is developed and maintained by Facebook AI Research.

    Initiation time:2019

    Source: github paper

    Angel
    Angel is developed and maintained by Tencent Inc.

    Initiation time:2019

    Source: github

    Plato
    Plato is developed and maintained by Tencent Inc.

    Initiation time:2019

    Source: github

    PGL
    PGL is developed and maintained by Baidu Inc.

    Initiation time:2019

    Source: github

    OGB
    Open Graph Benchmark(OGB) is developed and maintained by Standford University.

    Initiation time:2019

    Source: github

    Benchmarking GNNs
    Benchmarking GNNs is developed and maintained by Nanyang Technological University.

    Initiation time:2020

    Source: github

    Graph-Learn
    Graph-Learn is developed and maintained by Alibaba Group.

    Initiation time:2020

    Source: github

    AutoGL (Auto Graph Learning) New
    AutoGL is developed and maintained by Tsinghua University.

    Initiation time:2020

    Source: github

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    Neo: 因为这是我的选择。
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