Nt1330 Unit 3 Data Analysis Paper

Paper chosen: Atzori, Luigi, Antonio Iera, and Giacomo Morabito. "The internet of things: A survey." Computer networks 54.15 (2010): 2787-2805.

The Internet of Things (IoT) is a data driven technology that seeks to integrate and connect everyday devices and sensors. This data infrastructure can be used for a variety of applications such as home automation, industrial manufacturing, healthcare, and smart agriculture. Although each application is derived from a significantly different field, the underlying communication protocols are very similar and must adhere to similar constraints. The constraints of low power devices, lossy links, noisy environments, and embedded microcontrollers with limited memory and processing power. These protocols are the basis of the IoT protocol stack. They create the framework that determines how data is transferred within an IoT network [3][4]. The focus of active IoT research is shifting towards data, how data is sent, how

IoT offers a platform for sensors and devices to communicate seamlessly within a smart environment and enables information sharing across platforms in a convenient manner. The recent adaptation of different wireless technologies places IoT as the next revolutionary technology by benefiting from the full opportunities offered by the Internet technology. IoT has witnessed its recent adoption in smart cities with interest in developing intelligent systems, such as smart office, smart retail, smart agriculture, smart water, smart transportation, smart healthcare, and smart energy. IoT has emerged as a new trend in the last few years, where mobile devices, transportation facilities, public facilities, and home appliances can all be used as data acquisition equipment in IoT. All surrounding electronic equipment to facilitate daily life operations, such as wristwatches, vending machines, emergency alarms, and garage doors, as well as home appliances, such as refrigerators, microwave ovens, air conditioners, and water heaters are connected to an IoT

Internet of Things (Iot) in recent years, with human technology’s extremely fast improvement, has become something more than it was meant to be. Henry Holtzman explained that IoT was defined as objects that contain some sort of digital shadows (RFID) while us human having a database to manipulate, share and organise these objects in a virtual environment. This very definition was put forward in 1990s, where in present, IoT has evolved into objects that has embedded processers, computing capabilities and the ability to perform communications with other objects. Right now we have objects that could do things much more than the impression we get from its look, the

This growing internetwork of “things” comprise of physical objects with the capability to communicate in new ways—with each other, with their owners or operators, with their manufacturers or with others—to make people’s lives easier and enterprises more efficient and competitive. The possible use cases for IoT are extensive and growing by the day. Already, automobiles, household appliances, biomedical devices and other purpose-built devices are processing data, communicating with each other and performing other automated tasks, such as keeping themselves updated, notifying users of potential repair issues and tracking (and potentially scheduling automatically) routine service calls. Less predictable use cases include smart utensils that help to monitor eating habits, smart socks that measure pressure to help improve running performance and a

Further, a significant challenge many organizations when deploying IoT solutions is the melee of connectivity standards, hardware types, operating systems, programming languages in addition to navigating the proliferation of platforms. Dell Technologies has been a pioneer in driving innovation, standards, and solutions across the industry. Specifically, with their involvement the Industrial Internet Consortium (IIC), OpenFog Consortium, and the EdgeX Foundry hosted by the Linux Foundation. Although there has been some success with these standards bodies, the onus has been put on companies like Dell to provide leadership and move the industry forward. Seeded by Dell code, EdgeX is a vendor-neutral, open source project building a common interoperability framework to facilitate an ecosystem for IoT edge computing. The EdgeX effort is backed by over 60 organizations, including recent addition Samsung, has established a roadmap of bi-annual code releases and has formed a partnership with the IIC to collaborate on testbeds.

The Internet of Things is a complex, innovative system rooted in the idea of connectivity. Individual artifacts that transmit data and information amongst each other ensure a smooth and coherent experience based off their ability to communicate through internet connection, sharing the same network to create incomparable efficiency and convenience. The Internet of Things is constantly developing to work in new areas and scenarios, further securing its essentiality in the domain of the technological future

Abstract – In the perceiving of the Internet of Things (IoT), over internet it is now possible to share and communicate data through an increasing number of embedded devices of all sorts (e.g., sensors, mobile phones, cameras, smart meters, smart cars, traffic lights, smart home appliances, etc.). As IoT becomes an active research area, different techniques from various points of view have been analyzed to uphold the development and acclaim of IoT. Web of Things (WoT) is one trend of considering IoT where the open Web standards are promoted for information sharing and device introgression. By carrying smart things into existing Web, the prevailing web services are enriched with physical world services. This WoT vision allows a new way of consolidating the barrier between virtual and physical worlds. The vision for the "Web of Things" (WoT) plans at bringing physical objects of the world into the World Wide Web. The primary focus of the WoT is to overpass the gap between physical and digital worlds over a common and widely used platform, which is the Web. Conventional physical "things", that are not Web-enabled, and have finite or zero computing capability, can be boarded within the Web.

Heterogeneous endpoint Integration: The Clouds homogenous resources centralization architecture will not sustain the proliferation of endpoints. The distributed infrastructure for IoT will comprise of heterogeneous resources needed to be managed and supported for mobility and interoperability. Fog

The objectives of this project are to understand the key challenges in realizing IoT applications

The Internet of Things can be defined as a physical object that is embedded with an IP address that allows connection to the Internet and other Internet-enabled devices. Devices will no longer be beneficial to just people, but it will benefit millions of surrounding devices and objects. This has become such a significant concept because of a device ability to develop into something greater than the device itself. IoT has expanded the typical internet experience beyond traditional devices and has allowed

Realizing the vision of the IoT, therefore, requires an agreed architectural reference model, based on open protocol solutions and key enabling services that enable interoperability of deployed IoT resources across different application domains and contribute to horizontal re-use of the deployed infrastructure.

The web-based IOT service platform provides a significant working and development environment for application developers, application experimenters, visitors and users. This system converges many kinds of development platforms to satisfy different needs of developers. It also builds the demonstration platform and experimental platform in industrial park scale for the test run of applications. The test platforms provide the test equipment to test the compatibility and interoperation ability of the applications on the platform. Those three platform integrate the IOT ecosystem service platform, provides full range of experiences and services of users. The frame work of web-based IOT service platforms is

Productivity benefits is another technique of managing data on the cloud. It is an application that refers to a data store that is being used in business planning, problem solving and decision support. This system of data storage and management is larger than transactional systems. It consists of around $3.98 billion of the total database market and it is growing at a rate of 10.3 annually. Some of its benefits are that it used shared-nothing architecture and it is scaled to be best. It has multidimensional aggregations, along with data analysis networks and the data can very easily be parallelizing across different nodes using the share-nothing architecture. The guarantee of ACID is not needed in this type of data management system and hence it saves from the replication of data. Few of its limitations are that sometimes particularly sensitive data can be left out during the analysis of the system and the most damaging thing is that it can be accessed by a third party thus corrupting the privacy of the data and its security (Cassell, 2013).

The Internet of Things (IoT) means that everything and everyone is connected billions of people connected to billions of devices creating a constant flow of real world data, in real time, at massive volumes. IoT provides secure, bi-directional communication between Internet-connected things (such as sensors, actuators, embedded devices, or smart appliances) and the cloud. We discover our custom IoT-Data endpoint to communicate with, configure rules for data processing and integration with other services, organize resources associated with each thing (Thing Registry), configure logging, and create and manage policies and credentials to authenticate things.