Cyber-Physical systems have greatly assisted industry in maintaining industrial systems being a key element in the progress to Industry 4.0. The strategies and technologies developed along with industrial application of Cyber-Physical systems can be utilized in managing human health as well as health trends and research. Many Digital Health devices are appearing on the market, often utilizing Cyber-Physical technologies and many for consumers to provide health data. However, applying to the medical world adds many challenges including data accuracy and informatics, significant security and privacy issues as well how to best utilize the information with medical professionals and research. This paper examines the situation, how the market is changing, types of health devices, and provides a framework for health management informatics to serve the needs of the patient, medical professional, and researcher. With this framework we look at how many ways it can be utilized to manage health and humanity.

The Internet of Things (IoT) offers the user seamless interoperability and connectivity between devices, systems, services, disparate networks, and in particular control systems. End users expect to connect quickly and transparently via any endpoint device, be it a phone, tablet, wearable, TV, car, or other system that is Internet enabled. Smart IoT devices can serve as versatile control system interfaces, allowing for rapid response and potentially ubiquitous access. However, these devices can present significant security challenges. Using these technologies for user access control at IoT endpoints is vulnerable to replay, man-in-the-middle, and denial-of-service attacks. This paper presents a model that combines the capabilities of smart IoT devices with control system gateways using real-time challenge response for secure control operations. The proposed solution using both endpoint and gateway devices employs a mix of compute, cryptography, signal/image processing, and communication capabilities for authentication and authorization functions. We propose a model that is more secure, scalable, and resilient with real-time performance as compared to traditional approaches. We also provide an example IoT architecture, by showing an overview of Intel's IoT framework for control system gateways currently deployed in control, manufacturing, transportation, and retail tracking environments.

The BELLMAC-32 microprocessor is a 32-bit microprocessor, implemented with CMOS technology, designed to support operating system functions and high level languages efficiently. The architecture was designed with the following objectives in mind:• High performance.• Enhanced operating system support capabilities.• High level language support.• High reliability, availability and maintainability.

This paper examines "language processing" approach to paging where the of the programming language compiler or interpreter is responsible for generating the necessary control code for the page management of a program. We explore this idea for APL and describe an approach to incorporating in a program the necessary paging functions. The semantics of APL computation are examined to observe how paging operations can be incorporated into the computation. We discuss a model of data access in APL that exhibits storage use for both scalar and page references. A data structure that encodes the logical use of data from an array is introduced. We find that ordering computations efficiently and computing paging needs can be determined by simple transformations on this structure. This analysis leads us to an efficient method for paging an APL computation. Our approach builds on previous studies for efficiently executing APL.