Successful Deployments
Internet Of Things

Don’t Let Your IoT Projects Fail! Here’s How to Make Your IoT Deployments Successful

IoT Deployments Need Careful Planning and Execution, Not Rush Jobs
Businesses are increasingly going more digital because they realize it's no longer much of a choice. IoT deployments are part of this digital transformation, but not all smart technology lives up to its name. Rushing IoT projects is a mistake that can lead to a snowball effect of multiple misfortunes, so it's best to put plenty of time into planning and executing IoT projects. Many businesses turn to tech consultants to minimize the complications that come with digital transformation.


Why IoT Systems Fail

Not all IoT deployments are successful, as some companies have dealt with hundreds of failed attempts to digitize parts of their infrastructure. According to Beecham Research, 58 percent of businesses surveyed said their IoT projects were unsuccessful, while only 12 percent boasted complete success.

IoT technology is about delivering valuable operational data in real time. Even though IoT has come a long way in a short time, it still presents deficiencies in certain applications. Poor planning and weak execution are two major factors for IoT system failures.

One of the keys for businesses to overcome major IoT challenges is to envision resilience through a complex transformation. It's important to realize IoT is still in its infancy and it has limitations, especially when it comes to cheaper products. The medical industry has succeeded with going wireless and digital because it contracts with advanced companies that design high-quality electronic products. Local governments have also invested in advanced technology to design "smart cities."

Many companies have set up their new infrastructures so that all data goes to a database in the cloud. But if they lack a filtering system to weed out spam and unnecessary data, the system can get cluttered with a mix of useful and useless big data. That's where an IT consultant can offer direction on steps to minimize the storage of useless data, as well as other proactive measures to improve efficiency.

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Reasons Why IoT Deployment Isn't Simple

Shifting to a digital infrastructure implanted with IoT devices is easier said than done, even for seasoned technicians. There are many technical challenges involved, which is why companies outsource to IT experts. Typical software programmers specialize in certain programming languages, but many are not up to date on developing IoT software. So you shouldn't just hire any software developer for your projects.

One of the main reasons to deploy an IoT device is to generate real-time data that can be used to make quick, actionable decisions. If network resources get strained, data transmission might slow down. With medical devices, hospitals need data to transmit in real time, which requires an investment in robust networking. Companies that try to cut corners by buying cheaper but less reliable technology can face serious complaints during network bottlenecks.

A major complexity involved with IoT deployment is getting systems to work with a multitude of components. Another problem with IoT is that it can't replace humans completely, so it needs to be downplayed as a job-destroyer. The problem with CTOs and CIOs who haven't learned much yet about smart technology is they can mislead their companies into either jumping in too fast or resisting IoT completely.

Cybersecurity is another complex issue that involves creating several layers of security, otherwise IoT sensors can be compromised by hackers. Even the most sophisticated cybersecurity systems can be vulnerable to a technically-skilled cybercriminal. Your company data can be exploited in many ways by nefarious players of the dark web. So you need an experienced IT team to handle the difficult tasks of digital transformation.


Sensors Spread Globally

The growth of IoT sensors around the world is expected to be exponential over the next decade. With data expansion comes deeper responsibilities of protecting the data from getting into the wrong hands. In order to move forward with digital transformation, it's crucial for businesses to choose the right tech partner that keeps up with IoT and cybersecurity advancements.

Companies face major risks when they turn IoT projects over to young technicians who lack expertise in the field of smart technology. There are plenty of newbies who want to make money off new technology, but it's not really a job for a computer science graduate who is fresh out of college unless they have deep experience with IoT deployment.

The most common reasons businesses are adopting IoT are related to improving business efficiency, according to Beecham. Top reasons include strengthening safety and security, as well as cutting operational costs. Deploying IoT also enables new business models and opens the door for disruptive players to enter the market.

An interesting insight from Beecham's study is companies that experienced lack of cohesion during IoT deployment tended to see the project fail. Meanwhile, firms that sensed cohesion had a higher rate of success in deploying IoT devices. Lack of experience in communicating with different departments can cause friction in the deployment process. Different departments have different views on what types of data they want to monitor.

It's best to work with tech professionals who understand how to communicate technical language to different types of clients. When you rely on an in-house tech team that doesn't stay ahead of the curve on new tech developments, it can create roadblocks to implementing smart technology. But a third-party tech team that has worked with various businesses on digital transformation can deliver more reliable results and get the project successfully completed on schedule.


Conclusion

Network latency can happen even with modern IoT devices, which defeats the purpose of collecting real-time data. But the more you gain insights from tech experts, the more you'll balance price with quality when it comes to investing in new digital technology. It helps to work with tech professionals to learn more about IoT deployments and deeper information on digital transformation.

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Wireless Technologies
Networking

Understanding Wireless Technologies: Licensed vs. Unlicensed Spectrum

The science behind how wireless technologies move data through the air is based on radio waves. The airwaves are made possible by the electromagnetic spectrum, which occurs in nature, but is regulated by governments around the world to prevent operators from interfering with each other. Here's a look at the differences between licensed and unlicensed parts of the radio spectrum.


Understanding the Radio Spectrum

It's difficult for many people to understand what the electromagnetic spectrum is since it's usually not taught as part of people's regular education. Yet everyone knows what it's used for, such as radio, TV, and wireless internet.

This spectrum of energy contains all the frequencies that facilitate wireless technologies. Frequencies of energy waves can be broken down into vibrations or cycles per second, measured in Hertz (Hz). The further you move up the spectrum, the higher the number of vibrations per second, moving from kilohertz (KHz) to megahertz (MHz) to gigahertz (GHz). Different regions of the spectrum are called "bands."

In the kilohertz band are commercial AM radio signals, while FM radio and TV signals occupy the megahertz band. Wireless internet is higher up the spectrum in the gigahertz band. The radio spectrum is divided into licensed and unlicensed channels. Licensed channels are assigned by government to exclusive operators. Meanwhile, unlicensed channels are open for public use, but subject to regulations.


Licensed Spectrum

In the United States, the Federal Communications Commission (FCC) oversees licensing of spectrum frequencies. The FCC sets the rules as to which parts of the spectrum can be licensed to commercial entities. Major cellphone carriers such as AT&T and Comcast own most of the licensed spectrum allocated for wide-area coverage in the gigahertz range. These owners can make special licensing available for clients to operate per-link or per-area, although it can be expensive.

A key advantage to using the licensed spectrum for wireless communication is the lack of congestion and minimal interference. A spectrum licensee can take legal action against parties that interfere with their transmission. Licensed frequencies allow for better technical performance compared with unlicensed frequencies. Mobile network operators (MNOs) are able to deploy cellular networks with more flexibility to manage interference between the base station transmitter and radio receivers.

The main disadvantage to using licensed frequencies is equipment costs are much more expensive than for unlicensed use of the spectrum. Usually, only large organizations are able to afford this option. The more licensed links the company purchases, the higher the costs. Due to how licensing is issued, it's necessary to hire an attorney to assist with licensing, which can add to expenses.

All AM and FM radio stations must obtain broadcast licenses to meet FCC requirements. The reason most people you know don't own radio stations is due to the regulatory red tape and costs involved. The FCC also requires licensing for low-power FM (LPFM) stations that serve small communities. Even amateur ham radio operators in the ultra-high frequency (UHF) range of 420-450 MHz must hold FCC licenses.


Unlicensed Spectrum

Beyond the frequencies allotted for commercial and public use, much of the entire spectrum is unlicensed. Wi-Fi operates in the unlicensed spectrum. Wireless ISP startups known as WISPs typically begin service with unlicensed frequencies and may grow to purchase licensed spectrum space when higher performance becomes an issue. A big difference with unlicensed frequencies is lower cost.

The use of unlicensed frequencies allows MNOs to spread out base stations for network cost-cutting, as there are no fees involved with using the unlicensed spectrum. The equipment doesn't have to be as expensive as for licensed broadcast stations.

But due to the performance limitations of unlicensed frequencies, users can be plagued with interference problems. While paying for a license greatly reduces interference issues, unlicensed users have to live with noise and dropouts caused by radio interference from other close-range unlicensed operators. It's important to note that prior to the federal government issuing radio licenses, early AM radio stations suffered from signal interference from other operators occupying nearby frequency bands.

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Heavily-populated areas present major problems for unlicensed spectrum users, but it's possible to co-exist in a crowded region of mobile operators. There are still regulations to meet, so it's not the complete wild west. Certain regions, for example, have restrictions on the amount of effective isotropic radiated power (EIRP) that can be used.

Unlicensed users can make equipment adjustments to reduce transmitting power, which can reduce interfering with others on the same frequencies. Other strategies for avoiding interference include occupying higher frequency bands and using a strategy called frequency hopping, which involves selecting a specific block of frequencies.

Differences in Frequency Bands

The three primary frequency bands the FCC has assigned for unlicensed use are: 900 MHz, 2.4 GHz, and 5.8 GHz. Use of these bands does not require filing with the FCC. All three bands support mesh networks and high-speed Ethernet interfaces.

The 900 MHz frequency provides the best coverage area compared with the GHz band. But it only offers a limited number of channels, which reduces the number of wireless networks that can operate in an area. Conversely, the 5.7 GHz frequency allows for the greatest number of available channels, but it requires antennas to be aligned in direct line of sight to achieve long distances.

Frequency allocation is important in the IoT age because most IoT devices currently operate on unlicensed spectrum bands. Companies seeking more reliable IoT transmission performance should consider purchasing use of licensed frequencies. If you own a license for specific frequency, no one without your permission is allowed to bleed over into your band, which can result in FCC fines.


Conclusion

While most of the radio spectrum is licensed to broadcast stations, the FCC allows a limited number of unlicensed frequencies for users of wireless technologies. But to avoid interference from other unlicensed spectrum users, it's beneficial and more reliable to use licensed frequencies.

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