STRATA; Layers for Structuring Trustworthy Ambient Systems

地层;

• 批准号: EP/N023641/1
• 负责人: Alexander Romanovsky
• 金额: $ 123万
• 依托单位: Newcastle University
• 依托单位国家: 英国
• 项目类别: Research Grant
• 财政年份: 2016
• 资助国家: 英国
• 起止时间: 2016 至 无数据
• 项目状态: 已结题
• 来源: https://gtr.ukri.org/projects?ref=EP%2FN023641%2F1
• 关键词: STRATA; Layers; Structuring; Trustworthy; Ambient

For computing as a whole, and ambient systems in particular, significant new challenges will have to be faced because of the rapid evolution in Cyber-Physical Systems (CPS). A major impetus towards CPS is the promised Internet of Things (IoT). The scale of the IoT could soon involve trillions of devices generating masses of real-time data and thus demanding unprecedented power. To sustain this scaling and huge surge in energy demand, ambient systems will need to be designed to trade off power, performance and reliability. Inevitably, this will require ever more sophisticated responses to achieve trustworthiness. Our TrAmS-2 platform was shaped by two important factors affecting ambient system design. First, the power provision/consumption of devices, rather than cost, was becoming the limiting factor in the deployment of ambient systems. Second, novel paradigms such as cloud computing offered a new dimension of ambience in that data and programs can be migrated without physical movement of agents. The TrAmS-2 platform grant has sustained our research group which has created new projects on sound technical foundations, methods and tools to model, design and analyse Trustworthy Ambient Systems. Our team, and the projects in which it is involved, are developing methods for designing mobile devices with energy-efficient and power-constrained hardware. Our project portfolio includes 13 EPSRC, EU, industry and other projects with applications in sectors including automotive, rail, space, business, healthcare and consumer electronics. Our current arsenal of tools and methods includes the powerful toolsets of Rodin, Workcraft and Symphony, advanced patterns for modelling fault tolerance and world-leading techniques in proof technology, simulation and ample evidence to support industrial deployment of formal engineering methods. With such a solid foundation we will enter Strata well equipped with formal engineering methods, advanced tool support, architectural and algorithmic approaches for embedded systems design and modelling, in particular capturing systems with multiple modes targeted at power and reliability. In Strata, the research platform will receive extra impetus through a two-pronged attack on the challenges of future ambient systems design with the teams in Newcastle and York working together. This will facilitate making a qualitative step in terms of rigorous and model-based approaches to the design and analysis of future resource-limited ambient systems. The cornerstone of the platform approach and methodology is a shared vision that future complex ambient systems have to be structured in layers. These layers, or strata, of system resources and delivered functionality in terms of time and power will be combined with cross-layer fault tolerance and even adherence to the (levels of) specification in an environment where one has to accept that components will fail. Strata will address the challenges in four interlinked themes: methodology, cross-layer fault tolerance, real-time layering and real power.The skills of the three involved research groups are complementary and form a solid research base in software, systems and microelectronics to establish a unique team in terms of capability and expertise, with international profiles in formal methods, dependability, real-time and energy-modulated systems. Strata will provide continuity for research staff, encouraging new, risky, research in areas created by this novel mix of expertise.

对于整个计算，特别是环境系统，由于网络物理系统（CPS）的快速发展，将不得不面临重大的新挑战。CPS的一个主要推动力是承诺的物联网（IoT）。物联网的规模可能很快就会涉及数万亿台设备，这些设备会产生大量实时数据，从而需要前所未有的电力。为了维持这种规模和能源需求的巨大增长，环境系统的设计需要权衡功率，性能和可靠性。不可避免的是，这将需要更复杂的反应来实现可信度。我们的TrAmS-2平台由影响环境系统设计的两个重要因素塑造。首先，设备的功率供应/消耗，而不是成本，正在成为部署环境系统的限制因素。其次，云计算等新范式提供了一种新的氛围维度，即数据和程序可以在无需代理物理移动的情况下进行迁移。TrAmS-2平台资助支持了我们的研究团队，该团队在良好的技术基础，方法和工具上创建了新项目，以建模，设计和分析值得信赖的环境系统。我们的团队及其参与的项目正在开发设计具有节能和功率受限硬件的移动的设备的方法。我们的项目组合包括13个EPSRC，欧盟，工业和其他项目，应用领域包括汽车，铁路，航天，商业，医疗保健和消费电子产品。我们目前的工具和方法库包括罗丹、Workcraft和Symphony的强大工具集，用于建模容错的高级模式，以及世界领先的证明技术、模拟和充分的证据，以支持正式工程方法的工业部署。有了这样一个坚实的基础，我们将进入Strata配备了正式的工程方法，先进的工具支持，架构和算法方法的嵌入式系统设计和建模，特别是捕获系统与多种模式的目标是权力和可靠性。在Strata，研究平台将通过纽卡斯尔和约克的团队共同努力，对未来环境系统设计的挑战进行双管齐下的攻击，从而获得额外的动力。这将有助于在设计和分析未来资源有限的环境系统的严格和基于模型的方法方面迈出质的一步。平台方法和方法的基石是一个共同的愿景，即未来复杂的环境系统必须分层结构化。系统资源的这些层或层次以及在时间和功率方面交付的功能将与跨层容错相结合，甚至在必须接受组件会发生故障的环境中遵守（级别）规范。Strata将在四个相互关联的主题中应对挑战：方法论、跨层容错、实时分层和真实的功率。三个相关研究小组的技能是互补的，并在软件、系统和微电子领域形成了坚实的研究基础，以建立一支在能力和专业知识方面独特的团队，在正式方法、可靠性、实时和能量调制系统方面具有国际知名度。Strata将为研究人员提供连续性，鼓励在这种新颖的专业知识组合所创造的领域进行新的、有风险的研究。

项目成果

AirTight: A Resilient Wireless Communication Protocol for Mixed-Criticality Systems

• DOI: 10.1109/rtcsa.2018.00017
• 发表时间: 2018-08
• 期刊: 2018 IEEE 24th International Conference on Embedded and Real-Time Computing Systems and Applications (RTCSA)
• 作者: A. Burns;J. Harbin;L. Indrusiak;I. Bate;Robert I. Davis;D. Griffin

AdaptMC: A Control-Theoretic Approach for Achieving Resilience in Mixed-Criticality Systems

• DOI: 10.4230/lipics.ecrts.2018.14
• 发表时间: 2018-06
• 作者: A. Papadopoulos;Enrico Bini;Sanjoy Baruah;A. Burns

Performance Analysis of MICS-Based RF Wireless Power Transfer System for Implantable Medical Devices

• DOI: 10.1109/access.2019.2891815
• 发表时间: 2019-01-01
• 期刊: IEEE ACCESS
• 影响因子: 3.9
• 作者: Abdulfattah, Ahmad N.;Tsimenidis, Charalampos C.;Yakovlev, Alex
• 通讯作者: Yakovlev, Alex

MEMS-Based Runtime Idle Energy Minimization for Bursty Workloads in Heterogeneous Many-Core Systems

针对异构多核系统中突发工作负载的基于 MEMS 的运行时空闲能量最小化

• DOI: 10.1109/patmos.2018.8464152
• 发表时间: 2018
• 作者: Aalsaud A

Low-Complexity Run-time Management of Concurrent Workloads for Energy-Efficient Multi-Core Systems

高能效多核系统并发工作负载的低复杂度运行时管理

• DOI: 10.3390/jlpea10030025
• 发表时间: 2020
• 期刊: Journal of Low Power Electronics and Applications
• 影响因子: 2.1
• 作者: Aalsaud A