The Internet of Everything (IoE) is a juggernaut of change, transforming organizations in profound ways. It sows disruption, and it grants enormous opportunities. But this sweeping wave of change is not reserved for what we normally think of as “technology companies.” In the IoE economy, even seemingly “analog” endeavors must be bestowed with network connectivity, no matter how venerable a company’s roots or old its traditions.
In a world where Everyone Is a Tech Company, there are some great examples of older companies that are heeding this new reality. Retail, manufacturing, transportation, and education are just a few of the places where people, process, data, and things are being connected in startling new ways. Companies that are ahead of the IoE transformation curve will ensure their competiveness in marketplaces that are ever more vulnerable to disruption.
Dundee Precious Metalsprovides a great example of a company that is embracing change. A far-flung global organization, the company, for example, runs Europe’s largest mine in Chelopech, Bulgaria, from which it ships gold-rich copper ore to a smelter in Namibia. Yet through IoE-related technologies, executives at the company’s headquarters in Toronto, Canada, have gained unprecedented visibility into all aspects of their operations.
The end result? A boon in safety, efficiency, and productivity.
It is important to define standard interfaces, but equally important is to understand the main capabilities for an orchestration (or choreography) solution. We can gain some more insight by revisiting previous work, particularly in the domain of Grid computing.
Personally, I found the work done by Ian Foster and Steven Tuecke around IT as a Service (back in 2005, 9 years ago!), still extremely relevant. It is fascinating to see how applicable this work continues to be, apart perhaps from the replacement of general SOA services by REST services in particular. We should pay special attention to their definition of Grid Infrastructure: “enable the horizontal integration across diverse physical resources”. I see their work applicable beyond the physical layer, to logical resources and their composition into services. Quoting the paper, the Grid Infrastructure’s capabilities should be:
Resource modeling: describes available resources, their capabilities, and the relationships between them to facilitate discovery, provisioning, and quality of service management.
Monitoring and notification: provides visibility into the state of resources to enable discovery and maintain quality of service.
Allocation: Assures quality of service across an entire set of resources for the lifetime of their use by an application.
Accounting and auditing: tracks the usage of shared resources and provides mechanisms for transferring costs among user communities and for charging for resource use by applications and users
Provisioning, life-cycle management and decommissioning: enables an allocated resource to be configured automatically for application use, manages the resource for the duration of the task at hand and restores the resource to its original state for future use. Read More »
One way to do this is through the millions of cheap, tiny digital sensors generating data from shoes, tires, shopping carts, jet-engine parts, medical equipment, and just about anything else you can imagine.
But another type of sensor promises even deeper visibility and insight: video. Connected video — when deployed in the right situations and combined with other IoE components, such as analytics and mobility — can truly transform the ways in which we sense the world. And for organizations, video will provide rich, real-time insights that will drive hyper-aware decision-making and predictive strategies.
Imagine being able to watch your entire life happen before your eyes or being able to recall specific memories and events, as to relive them the exact way they happened. As the Internet of Everything (IoE) and the network to support it evolve, our lives will be able to literally flash before our eyes.
Today, the first versions of this technology are being developed and utilized to create digital copies of landmarks and monuments. For example, cyber archivists are increasingly using a 3D data recording processes that utilizes a spinning laser on a tripod to collect millions of points of information. Once objects or monuments are fully scanned, the archivists combine the collected data with photographs and then create a virtual version that can be used in classrooms around the world or for various other applications.
Not only will we be able to create an index of digital copies from buildings, monuments and landmarks, this technology will advance to the point that we can record and organize event sequences that take place over the course of our lives. However, this information is useless unless in can be securely accessed in real-time. One point is clear, with this influx of connected people, process, data and things, the Internet of Everything depends on a stable and secure network as we make our own history come to life.
In this Ask the #InternetOfEverything Futurist post, I’ll answer a question from Cisco Champion, Robert Novak, who asks about what the Internet of Everything will mean for preserving our past and our building our future. Robert asks:
Question: “How do you see emerging technology being used to preserve and enhance the past?”
Choosing a career in technology turned out to be one of the best decisions of my life. At one time, however, it seemed counterintuitive to enter such a male-dominated industry. I’m not an engineer. I don’t have a degree in computer science. The only traditional tech skill I possessed was a small knowledge of HTML programming language, which I at one time used to put up static web pages. Today, that skill is useful only for editing blog posts.
What I was trained for was design. I moved into technology because it offered me a fresh way to leverage those talents while having a bigger impact. As a designer, I was taught to understand the context of a problem and to generate insights and creative solutions. I switched from a career in print design because technology was providing exciting new ways to reach people. I found it fascinating and wanted to be a part of it.
Apparently, I’m in the minority. A Forbes article cited research from Maria Klawe, a computer scientist and president of Harvey Mudd College, in listing some of the main reasons women don’t choose tech careers. Many believe that they won’t find a career in tech interesting, while others fear they won’t be good at it. A third concern is working in such a predominantly male bastion.
I have to say that my experience on all three counts has been just the opposite.