This post focuses on a particularly important technology market, the Internet of Things. IoT is at a strategic inflection point, due to explosive projected market growth and unresolved problems of wireless data throughput and energy-efficiency needs. The IoT market is projected to grow to 75 Billion devices by 2025. This growth is predicated on very high throughput wireless networks combined with high energy-efficiency which are not yet available. Existing wireless technologies, including 5G, will not meet this market need. Also, the extreme diversity of IoT applications will require both small sensors that operate using minimal energy and bandwidth and virtual reality applications with very high Gigabit per second data rates and substantial power requirements.
Five years ago, I wrote a post on this blog disparaging the state of the Internet of Things/home automation market as a “Tower of Proprietary Babble.” Vendors of many different home and industrial product offerings were literally speaking different languages, making their products inoperable with other complementary products from other vendors. The market was being constrained by its immaturity and a failure to grasp the importance of open standards. A 2017 Verizon report concluded that “an absence of industry-wide standards…represented greater than 50% of executives concerns about IoT. Today I can report that finally, the solutions and technologies are beginning to come together, albeit still slowly.
IEEE Talk: Integrated Big Data, The Cloud, & Smart Mobile: Actually One Big Thing by David Mayes This IEEE […]
The term “Internet of Things” (IoT) is being loosely tossed around in the media. But what does it […]
In 1981, Richard Feynman, probably the most famous physicist of his time asked the question: “Can we simulate physics on a computer?” At the time the answer was “theoretically yes,” but practically not at that time. Today, we may be on the verge of answering “yes” in practice to Feynman’s original question. Quantum computers operate in such a strange way and are so radically different from today’s computers that it requires some understanding of quantum mechanics and bizarre properties like “quantum entanglement.” Quantum computers are in a realm orders of magnitude beyond today’s supercomputers and their application in specific computational problems like cryptography, Big Data analysis, computational fluid dynamics (CFD), and sub-atomic physics will change our World. Canadian quantum computing company, D-Wave Systems has been at the center of Google’s efforts to pioneer this technology.
The following infographic provides an excellent overview of the World’s Most Innovative Countries and the weighted criteria used to rank the top 10. Glaringly, Canada is completely absent from this list. It is worth noting that eight of the ten countries listed have much smaller populations than Canada. That said, I have little essential disagreement with this list. Investment in research & development, leading to commercial technology innovation is crucial to a country’s economic growth and competitiveness in productivity. Canada lags in every category.
I previously posted WRT the fact that we are approaching the limits of our ability to achieve physical proof of quantum physics. Why should we care? Where do we go after the CERN Hadron Super Collider confirmed the existence of the Higgs-boson particle, proving the role of dark matter? That said, two separate teams at CERN are debating the results of further experiments that suggest the possible existence of a new sub-atomic particle. This particle, if it exists, and can be confirmed, may support the existence of additional dimensions of space and time. The MIT Technology Review has also suggested that the CERN Hadron Super Collider could potentially prove the validity of the Star Trek hyperdrive technology. We should care because it is the future of the technology that will continue to change our lives.