Mobility Future
Smart Transportation

The Future of Mobility: Unpacking the Promise of CASE Vehicles

Setting the Stage for a CASE Future

In the first of a two-part series, we'll explore the future of mobility through Connected, Autonomous, Shared, and Electric (CASE) vehicles. Connected, Autonomous, Shared, and Electric (CASE) vehicles are not merely a buzzword—they're a critical evolution in how we understand and use transportation. These vehicles are pushing the envelope, thanks to advancements in key technological areas.

V2X and 5G are making cars an integrated part of the Internet of Things (IoT), while machine learning and sensor fusion are opening doors to autonomous driving. Shared mobility benefits from cutting-edge fleet management algorithms and blockchain-secured transactions. Moreover, the electric vehicle domain is being transformed by lithium-ion and solid-state batteries, along with fast-charging technology. These aren't just incremental improvements; they promise to solve some of society's most pressing problems, such as reducing greenhouse gas emissions and relieving urban congestion.

We will delve into the connected, autonomous and shared aspects of the CASE paradigm, dissecting the technologies that make them possible and the remarkable benefits they offer. From improving road safety to making transport more inclusive and sustainable, CASE vehicles are set to redefine the way mobility works. So, buckle up, as we explore the intricate landscape of Connected, Autonomous, Shared, and Electric vehicles, and what they mean for our future.


Exploring the "Connected" in CASE Vehicles

Many modern vehicles are already highly connected, offering features like real-time navigation, traffic updates, and even remote control via smartphone apps. Beyond these existing functionalities, Vehicle-to-Everything (V2X) communication is on the horizon, aiming to drastically improve both traffic flow and road safety. But what exactly are V2X, IoT, and 5G technologies, and how do they contribute to this new landscape of connected mobility?

1. V2X (Vehicle-to-Everything)

V2X is a communication architecture for exchanging data between a vehicle and external elements like other vehicles (V2V), infrastructure (V2I), pedestrians (V2P), networks (V2N), and devices (V2D). V2X operates on two primary technological platforms: WLAN-based and cellular-based, using protocols such as Dedicated Short-Range Communications (DSRC, IEEE 802.11p) and Cellular V2X (C-V2X), respectively.

The technology aims to improve road safety, traffic efficiency, energy conservation, and mass surveillance. According to the U.S. National Highway Traffic Safety Administration (NHTSA), V2V implementation could reduce traffic accidents by at least 13%, preventing around 439,000 crashes annually. By allowing real-time data sharing across its subtypes, V2X enhances situational awareness, alerts drivers or vehicle systems about hazards, and improves mobility by enhancing traffic flow.

2. IoT (Internet of Things)

The Internet of Things (IoT) is the network of physical objects embedded with sensors, software, and other technologies for the purpose of connecting and exchanging data with other devices and systems over the Internet. In the context of CASE vehicles, IoT technology can sync your car with your smart home system, allowing for seamless interactions such as your home lights turning on as you pull into the driveway or your home thermostat adjusting based on your car's estimated time of arrival.

3. 5G Networks

Cellular V2X (C-V2X) is a 3GPP standard for V2X applications. It is an alternative to 802.11p, the IEEE specified standard for V2V and other forms of V2X communication. V2X communication was included in 3GPP release 14. In 3GPP release 14/15, basic safety features and communication protocols in C-V2X were established. In 3GPP release 15, NR – the successor of LTE – was introduced.

In 3GPP release 16, NR-V2X was introduced as the first specification of NR focused on enhancing V2X communication in terms of reliability, latency, capacity, and flexibility. NR-V2X leverages the full capabilities of 5G cellular network technology. It offers faster data download and upload speeds, wider coverage, and more stable connections compared to its predecessor, 4G-LTE. In the world of CASE vehicles, the ultra-low latency and high-speed data transfer capabilities of 5G are essential. They allow for more efficient and reliable V2X communications and are instrumental in realizing the full potential of autonomous driving where real-time data processing and decision-making are critical.

Together, V2X, IoT, and 5G technologies form a synergistic trio that empowers connected vehicles to operate more safely, efficiently, and conveniently. These technologies not only enhance the individual driving experience but also have the potential to create smarter, more responsive transportation ecosystems at large.


"Autonomous" in CASE Vehicles 

Autonomous or self-driving vehicles are more than just a technological marvel; they have the potential to revolutionize society. By enhancing road safety through precise control and decision-making, easing congestion via optimal route planning, and offering mobility solutions for those unable to drive, these vehicles are set to redefine our experience on the road. They could also drastically shift consumer attitudes towards car ownership, fostering a landscape where transportation becomes more of a service (often termed Mobility as a Service or MaaS). But what enables vehicles to drive themselves? What are the different levels of autonomous driving, and what role do technologies like LIDAR, RADAR, and AI play in this arena?


Levels of Autonomous Driving

The Society of Automotive Engineers (SAE) categorizes driving automation into a spectrum that extends from Level 0, signifying no automation, to Level 5, which represents complete autonomy.

At Level 0, the driver retains full control over the vehicle, without any aid from automated systems. Level 1 introduces basic automated features such as adaptive cruise control or lane-keeping assist, although the driver remains responsible for overall vehicle operation. Moving to Level 2, vehicles like Tesla's with Autopilot or Cadillac's Super Cruise can manage both steering and speed but still require the driver to be alert and prepared to intervene.

Level 3 takes a significant step towards automation; the vehicle can autonomously handle most driving scenarios but may still require human intervention for more complex situations. Although Level 3 vehicles are not yet commercially available, they are in the advanced stages of development.

Level 4 is where high-level automation kicks in; these vehicles can operate independently in nearly all conditions but may still have limitations like being unable to navigate through severe weather or heavy traffic. Companies like Waymo are already testing Level 4 vehicles within controlled environments.

Finally, Level 5 represents the pinnacle of autonomous driving, where the vehicle is fully self-sufficient, requiring no human intervention whatsoever. While this level of autonomy is still aspirational, it is the ultimate aim of advancements in autonomous vehicle technology.

It is important to note that these levels are not mutually exclusive. For example, a vehicle could have Level 2 features for highway driving and Level 3 features for city driving. The level of automation that is appropriate for a particular vehicle will depend on a number of factors, such as the driving environment, the capabilities of the vehicle's sensors and software, and the laws and regulations in the area where it will be operated.

And caveat lector: the development of autonomous driving technology is a rapidly evolving field, and it is likely that the SAE levels will be updated as the technology continues to improve.


Key Technologies Enabling Autonomous Driving 

  1. LIDAR (Light Detection and Ranging) - LIDAR uses light waves to create a three-dimensional map of the surroundings. This mapping is critical for an autonomous vehicle to understand its environment, identifying objects like cars, cyclists, and pedestrians, and even assessing the road's condition. The high-resolution data gathered by LIDAR allows the vehicle to make informed decisions.
  2. RADAR (Radio Detection and Ranging) - While LIDAR uses light, RADAR employs radio waves to detect objects and gauge their speed and distance. It is especially useful in poor weather conditions where visibility can be compromised. RADAR complements LIDAR by offering an additional layer of information for the vehicle to process. 
  3. AI (Artificial Intelligence) and Machine Learning - AI algorithms and machine learning models serve as the 'brain' behind autonomous vehicles. They take the data collected by LIDAR, RADAR, and other sensors and process it in real-time to make driving decisions. Advanced machine learning models can learn from millions of miles of driving data, enabling the vehicle to navigate complex driving scenarios safely.

In summary, autonomous vehicles stand at the intersection of sophisticated sensor technologies and cutting-edge artificial intelligence. Together, these components offer the promise of safer, more efficient, and more inclusive transportation options, potentially revolutionizing our approach to mobility and even urban planning.


Examining the "Shared" in CASE Vehicles

Ride-sharing and car-sharing services like Uber, Lyft, and Zipcar have already shifted the paradigm of personal transportation, providing a glimpse into a future where owning a car may no longer be the default choice for getting around. Thanks to these services, the concept of shared mobility is rapidly gaining acceptance, transforming the way we interact with vehicles and altering our perceptions of ownership and access. But what exactly is shared mobility, and how does it fit into the broader landscape of tomorrow's transportation?


The Essence of Shared Mobility

Shared mobility refers to the shared use of a vehicle, bicycle, or other transportation modes on a temporary basis. Rather than being tied to the responsibilities and costs of ownership, users can access transportation on an as-needed basis. The concept encompasses various models, including:

  • Ride-Sharing - Platforms like Uber and Lyft allow users to request rides on-demand, often at a fraction of the cost of traditional taxi services.
  • Car-Sharing - Services like Zipcar provide cars that can be rented by the hour or day, offering the benefits of car use without the long-term commitments of ownership.
  • Bike-Sharing - Public bike-share programs offer short-term bike rentals, encouraging urban commuters to use bicycles for short distances.
  • Scooter-Sharing - Electric scooters available for rent through mobile apps have also joined the shared mobility ecosystem, offering another option for short trips.


Technological Underpinnings

Several technologies enable the effective operation of these shared systems: 

  • Fleet Management Algorithms: Sophisticated software determines the optimal distribution and utilization of available vehicles, ensuring that cars, bikes, or scooters are available where and when they're needed. 
  • Blockchain-Based Transactions: Some platforms are exploring blockchain technology to make transactions secure, transparent, and free from intermediary costs, making sharing even more efficient and user-friendly. 
  • Real-Time Data Analytics: Continuous analysis of user behavior and vehicle usage helps in dynamic pricing, vehicle maintenance, and even predicting future demand, making the system more robust and responsive.


Societal Impact

The rise of shared mobility can alleviate many issues associated with urban transportation. It offers the prospect of reduced traffic congestion, as fewer cars would be needed to serve the same number of people. It can also contribute to a reduction in carbon emissions, particularly as shared services increasingly adopt electric vehicles. Furthermore, it can democratize access to transportation, making it more equitable and accessible for people who can't afford to own a vehicle.

In a nutshell, shared mobility is not just a trend but a critical component of a more sustainable and efficient transportation future. As technology continues to advance, the shared transportation model is likely to become even more integrated into our daily lives, challenging the very notion of what personal mobility can be.


Conclusion

Connected, Autonomous, Shared, and Electric (CASE) vehicles represent a groundbreaking shift in the future of transportation, addressing some of society's most pressing challenges like reducing emissions and alleviating urban congestion.

With technological pillars such as V2X, IoT, and 5G, vehicles are becoming smarter and more integrated, enabling more efficient and safer operations. Autonomous driving, empowered by AI and sensor technology, promises to transform societal norms around mobility, potentially making driving a service rather than a responsibility. Likewise, the rise of shared mobility services is reshaping the concept of vehicle ownership, steering us towards a more sustainable and efficient transportation ecosystem.

Collectively, these innovations are not just incremental; they are revolutionary, with the potential to fundamentally redefine our approach to transportation and urban living. 


Read More
Edge Computing in 2022
Information Technology

Edge Computing in 2022: Trends, Potentials, & Challenges

What’s the big deal about edge computing? Does it have an advantage over cloud computing? Can it offer anything that the cloud can’t? What’s the point of having an edge when you already have a cloud? These are just some of the questions we will answer in this article.

Related: Why Edge Computing Is Gaining Adoption Among Big Data Companies

Edge Computing Goes Mainstream in 2022

Edge computing is gaining traction as a powerful addition to cloud computing. Unlike cloud computing, where all data processing takes place in centralized servers, usually in a different location from where the application is being used or accessed, edge computing brings all processing closer to users.

It can be applicable in several different use cases. Still, its main advantage is that it allows users to process data closer to the source without being dependent on the cloud.

Everything from IoT devices to self-driving cars uses edge computing to identify and respond quickly to certain events.


What Is Edge Computing?

The term “edge” refers to any location outside traditional data centers in which data processing occurs. It features low latency, closer proximity to users and devices, and local processing capabilities for IoT applications.

Edge computing environments can be on-premise or smaller regional data centers located nearer to end-users. They can process data in real-time without relying on centralized cloud platforms for resources.

As per Gartner’s prediction, “75% of enterprise-generated data will be processed outside the cloud or traditional data centers by 2025.” This means enterprises should prepare for a decentralized IT environment with distributed computing power across multiple locations.

Keep reading: The Differences Between Cloud and Edge Computing

Top Edge Computing Trends That Will Dominate in 2022

Data Explosion

The amount of data generated worldwide is growing exponentially. The IDC predicts that within the next few years, there will be 175 zettabytes (175 trillion gigabytes) of data created every year. This growth is driven by the rise of IoT devices, providing businesses with more data and insights than ever before. This data helps organizations improve their processes and customer experiences.

While cloud computing has helped companies benefit from the power of this data, it’s not enough. According to NVIDIA, sending all this data to the cloud takes too much time — up to a tenth of a second. A tenth of a second might not seem like much, but autonomous vehicles need to make decisions within milliseconds if they want to avoid crashes. That’s why edge computing is growing in popularity: It enables businesses to quickly access data from IoT devices without relying on cloud computing alone.

blank

Want to learn more about edge computing? Watch the replay of our Living on the Edge webinar where our speakers break down the complexities of edge computing and provide strategies for successfully deploying edge solutions.


Expanding IoT

The Internet of Things (IoT) has been the defining trend of the last decade. Gartner predicts that by 2025, there will be 75 billion connected devices in use worldwide. This effectively means that everything from our streetlights to our cars to even our fridges will soon be connected to the internet.

The edge computing market is the best way to handle this massive expansion of connected devices. Edge computing allows for data processing at the source, reducing bandwidth requirements and ensuring faster network speeds for billions of users. This is especially important as more and more devices are added to the IoT networks every year.

5G and Edge Computing

With every new generation of mobile technology, data speeds increase exponentially. According to Nokia, 5G networks are 100 times faster than 4G LTE networks and can simultaneously support ten times more devices. In a nutshell, 5G will connect everyone on the planet and make lightning-fast data transmission possible for all devices.

Suffice it to say, edge computing will be instrumental in making this a reality. With more users connecting at once, it’s going to be essential that we have distributed cloud platforms available for processing data at the source.

Autonomous Vehicles

Edge computing is already seeing massive growth in the automotive industry. The tech will fuel the rise of autonomous vehicles (AVs).
The reason for this lies in AVs’ need for a low latency connection. They will also require real-time insights into their surroundings. These include road conditions and other vehicles on the road. All of this can only be achievable with edge computing.

As a result, edge computing will help make AVs a reality by 2022. It will ensure that the vehicles are safe and efficient on the road.

Read more: The Shift to Digital-First Retail

How Can Edge Help Businesses?

Edge computing is the future of data centers. It enables real-time analytics, increases speed, and reduces latency. The technology is already in use across several industries, such as retail, healthcare, and finance.

For example, it can help retailers in the following ways:

Real-time analysis – Edge computing allows stores to capture customer data and analyze it on the go. This information can serve to improve product selection and inventory management.

Speed – Edge computing allows retailers to process data faster than ever before. This helps them streamline their operations and offer customers a better shopping experience.

Latency reduction – Edge computing reduces latency by routing traffic from central servers to local ones or even directly through the cloud. This ensures that customers have access to the information they need when they need it without delays or interruptions due to congestion on the network (which helps reduce costs).


Challenges to Edge Computing

Here are the top challenges of edge computing and how your organization can overcome them:

Security

Edge computing requires a greater focus on security than most organizations are used to. The more places you have data, applications, and hardware, the more potential points of vulnerability there are to hackers. In other words, security becomes even more important with edge computing than before. Organizations need to prioritize security at every step when implementing edge computing, including in their vendor contracts.

Connectivity

For some applications, network latency — the delay between sending and receiving data — doesn’t matter much. For others, it’s critical. Suppose an application will be used at the edge of a network. In that case, it’s important to understand how that application will be affected by inevitable delays in transmitting data over long distances.

Some applications that work well on the cloud might not work as well at the edge because of latency issues. Until 5G equipment becomes available for everyone, this will be an ongoing problem for any organization attempting to create applications for the edge of networks.


Takeaway

Edge computing is going mainstream, and discussed above are the top trends, opportunities, and challenges to watch out for in 2022.

Read More
Edge Networking Trends
Information Technology

Edge Computing Trends in 2022 and Beyond

You probably know already, but just so we're all on the same page, edge computing refers to IT architecture of a distributed nature. Data processing of a given client's network is processed at said network's edge, right near where the data came from. So, a sensor array that collects information can simultaneously help process that data on an edge network.

The "edge" utilizes IoT to make this possible. Think of it as a sort of miniature cloud on your business campus. As a cloud networks servers together to compound data processing capability, edge networks use multiple devices locally for the same purpose. Another way of looking at it is: edge computing filters useless data from useful data.

There's a flood of information out there, and information is a currency in the modern world; you can do a lot with it. So, what does this mean for your business? Well, that depends on how prevalent edge computing gets. In 2022, it's expected to advance across several key industries, and in several specific ways. We'll explore these edge computing trends here specifically:

Data Filtration via Edge Tech Will Optimize Operations Ahead of Competitors

So, the edge makes data at the source of its composition more accessible, and filters out the "noise", as it were, from data you can use. Now you can operate more optimally and get more done with greater cost-effectiveness.

You can identify redundancies you didn't know were there, maximize equipment utility, put processes in place that will increase the ROI of your operational spending, and the list goes on. Businesses that leverage edge computing toward more optimal functionality now will have an "edge" (pun intended) on competitors.

Eventually, this will be standard practice; right now, people are finding their "rhythm", as it were, in this new tech. Ultimately, there's a competitive window for edge computing trends in 2022, and savvy businesses are definitely going to take it.

As 5G Expands, IoT, AI, ML, and Automation on Edge Networks Does Too

IoT tech facilitates edge computing, and 5G optimizes IoT. Collaterally, Artificial Intelligence and Machine Learning are also developing at break-neck speed. Many AI and ML breakthroughs crossover with IoT. Ultimately, 5G tech is going to act like a rising tide lifting all ships.

In this analogy, the "ships" are AI, ML, and similar software innovations. Edge computing utilizing IoT, AI, and ML on a 5G network will reveal more data, and more quickly. You'll get real-time insights impossible before. Multiple industries have the capability of optimizing with such information toward increasingly efficient automation.

Automation can even initiate failover protections as regards operational redundancies in the event of emergency. All devices can be monitored, and algorithms can be put in place to identify features of tech functionality that could indicate an issue.

Now, as of 2022, few industrial campuses have production floors so automated only one or two people are necessary to manage them, but the technology is already here. The trick is applying such tech infrastructurally. Businesses that get ahead of the pack will, as pointed out earlier, have a definite competitive edge.

Operational Capability Locally Regardless of External Internet Availability

This is something that's already been around for a while, edge computing is just a new innovation. Big campuses with lots of techs have on-site server arrays that already form their own "intranet", which is a sort of on-site internet separate from the "real" internet.

Much of localized "intranet" networks are actually accessible via the dark web, but if all contact with external web options were ceased, said localized intranet would remain. Well, with edge computing the same potentiality exists. If a connection to the cloud or an external internet provider is lost, an edge network keeps functioning.

It's Going to Be Everywhere; Even in Agricultural Communities

Owing to the associated advantages of edge computing, it's to be expected such innovations will transition beyond the tech sector. IoT tech used on agricultural equipment can save time and money for farmers, helping them be more productive and increase their profit.

Agriculture tends to produce marginal annual returns, the wealth being in the land or the livestock (or both). As an example: a $1,000,000 profit for the year might have $960,000 in expenses, leaving the family that farms only $40k in profit.

With edge computing utilizing IoT to help initiate automation, that margin may jump from $40k to $100k or more, allowing farmers to branch out and optimize even further.

The Edge Is Getting Foggy and Will Continue to in 2022

Here's how fog computing works: there's a "compute layer" between the edge and the cloud. Basically, "foggy" edge computing is the "edge" of the "edge" network. Basically, managed fog computing solutions receive information from an edge network before it gets to the cloud--it's a sort of middleman, if you will, that gains access to useful data your business can leverage toward optimization.

The right fog network can parse between data sets to separate out that which is useful from that which isn't. What's relevant will stay on the cloud, what isn't will disappear--unless, of course, there's a reason for a business to keep that non-relevant data.

So, what does this look like in practice? Say there's a temperature sensor in your network that continuously collects temperature data. That data is sent to the cloud, and it's monitored for spikes. Well, fog computing would determine if there were any data relevant enough to send to the cloud, saving time and complication in operations when nothing remarkable is recorded.

Foggy edge IT pros would determine what constituted relevant data, and voila: things like bandwidth and latency evaporate. The bigger the business, the more speed a properly managed foggy edge network brings. It's going to be negligible for smaller operations, but the bandwidth saved is ultimately going to reduce operational costs collaterally over time.

An Expansion of Edge Tech in Retail

Think of local department stores, the security cameras they use, the devices at entrances and exits, self-checkout equipment, lighting, HVAC, shipping, receiving, and all the other little departments such stores must manage.

There's a high potential for edge computing. Now imagine that spread out across hundreds of stores nationwide. That's a big "edge". Expect to see retail stores advance accordingly.

Edge Tech in the Energy Industry

Agriculture and retail aren't the only places where edge computing is useful. Pipelines often stretch thousands of miles. Fitting the whole line with IoT requisite to facilitate edge computing is good for oil companies and the environment collaterally--spills can be anticipated and intervention can be applied prior to an incident. Furthermore, with massive pipelines, manpower just isn't available regardless of edge options.

This kind of tech will actually take the oil industry into new territory. Instead of flying planes down the pipe, data can be gathered and transmitted using edge and foggy edge tech, being managed remotely with greater cost-effectiveness and convenience. Pressure anomalies can be quickly identified, diagnosed, and either rectified or left, depending on the situation. If valves need to be shut down, this can be done remotely.

An Expansion in Edge Workloads

Naturally, advantages of more data collection and filtration toward optimal use will increase the workloads demanded of edge networks, which subsequently will yield breakthroughs in the IT sector for that area. So, the edge itself will become sharper--foggy edge applications are a good indicator of that.

AI Computing on the Edge With IoT-Enabled Vehicles

Computers have been central to automobile functionality for decades now. It was a natural step to extend that computational capability to IoT applications and, ultimately, edge computing. Your vehicle's computer saves mechanics and manufacturers time in diagnosing operational issues with the engine or other functional components of the car.

With IoT applied to vehicular functionality, as the car passes into and out of coverage zones, it can send automatic updates to the manufacturers. Essentially, now each vehicle that is IoT-enabled functions as a sort of case study in the longevity of certain vehicular components. How long will the factory water pump last? What about the transmission? At what point do the majority of vehicles experience issues in component functionality, and what does that look like?

Already, careful data has been kept on things like this related to automotive functionality. For example, there's an older RV made by Volkswagen and Winnebago called the Winnebago Rialta; it's really just a glorified camper van. At any rate, the run of these vehicles went from the mid-nineties to the early aughts.

Computational data and driver reports helped manufacturers realize there was an issue with this particular vehicle's transmission. At about the 100,000-mile mark, most of these vehicles had serious transmission problems. If the vehicle made it past the 100k mark, however, the transmission tended to last to 200k miles. So, there was a manufacturer issue which was noted in the literature well before cloud computing, IoT, or edge computing even existed.

Now that manufacturers and mechanics have access to such data, it becomes possible to anticipate issues and correct them before a driver is left without an option, with a broken-down car by the side of the road.

In a big city with thousands of drivers making moves which produce data via IoT, an edge network develops that can act as a sort of digital "cradle" for drivers, allowing for computational navigation anticipation, expanding safety and security for drivers even in congested areas. So, the advantage to vehicles through IoT and edge computing is twofold: vehicular functionality can be enhanced, as can driver safety. Collaterally, things like road design will ultimately shift over time as data reveals better ways of handling cars.

How Edge Computing and AI Will Impact Autonomous Vehicles

For autonomous vehicles, edge computing may be the saving grace of the innovation. Many autonomous vehicle designs have been put into action as of 2022. By 2016, Uber had a few "driverless" cars in San Francisco, but there have been accidents which have limited the trend; still, as of February, 2022 the "Cruise" line of driverless cars has become a big player in the city; and that trend will only increase over time.

With millions of vehicles providing continuous IoT data to the edge network, now driverless cars can operate much more safely. Not only can trends be used to design safety features into such vehicles, but real-time data concerning traffic on a given route for such a vehicle can also be processed to help the software controlling the vehicle react properly when unexpected dangers on the road show up.

Modern cars contain hundreds of sensors even if they're not "autonomous", meaning the data they produce is available for exploration and can be leveraged toward greater safety by vehicles with savvy edge computing software designed for the processing and application of relevant data. As edge computing trends become more streamlined, the sort of data that is used for this purpose, its transmission to the cloud, and how it is used will necessarily become more streamlined. Through this method of qualifying information, data that isn't sensitive to individual drivers, or that contains other things which are private, can be automatically restricted from cloud data repositories. Doing so effectively will reduce the expense of transmitting data, as only that which is needed will be sent to cloud arrays designed to help manage autonomous vehicles.

As Tesla's market share increases, and more competitors develop, IoT information will form edge networks that are used to manage the battery life of varying electric options. Such networks can help inform drivers where charging centers are and when precisely they'll need to find one based on predictions from patterns in the data.

Furthermore, edge data can contribute to better traffic management. Autonomous vehicles can all "report in", helping computers automatically route traffic around congested areas. The same data can be sent as updates to non-autonomous vehicles, and in fact we are already seeing this a little bit with Google. If you're in Google Maps, and the little voice comes over your speakers advising you to take an alternate route with less traffic, cloud-based IoT and burgeoning edge networks are the foundation from which that informed suggestion came. As computational vehicular design, IoT, edge computing, and autonomous options become more integral, expect such edge-based data applications to increase substantially.

Where Edge Computing and Business Meet

Energy, agriculture, and retail are expected to increase edge utility in 2022, and edge computing generally is poised to expand. Edge computing trends will continue through the year and beyond, edge operations need not rely on the web solely, 5G is going to initiate increased edge automation, and businesses on the edge early will be more competitive than peers. Finally, in terms of vehicular development, expect advances for both driven and driverless vehicles that are specifically rooted in the edge, and which will likely become increasingly prevalent over time. You may well work with tech professionals to see where true benefits could help your business operate more efficiently via edge tech.

Read More
autonomous vehicles
Smart Transportation

Paving the Way Toward Autonomous Vehicles

The concept of self-driving or autonomous vehicles (AVs) has been around for decades and has been utilized for industrial applications. Industrial robots, for example, have helped build cars since the sixties. Now AVs are starting to show up on highways around the world including in the United States.

Current AV Development

As the 2020s unfold, autonomous vehicles have already played a role in advanced AI development. There is now a growing selection of these vehicles in the form of passenger cars, trucks, and even drones. Each of these configurations has AI technology capabilities and IoT sensors that connect with radar, cameras, and other electronic systems. The combination of this technology allows an AI-based automated vehicle to "see the road" and respond to sudden changes in road conditions.

Here are the different levels of AV sophistication:

Level 1: Driver Assistance - The driver is mainly in control while the vehicle has limited self-driving functions, such as automatically adjusting cruise control speed.

Level 2: Partial Automation - Certain driving functions such as acceleration adjustments are handled by the AV. In this scenario, the driver still must oversee and direct navigation in cases such as entering or exiting a freeway or changing lanes.

Level 3: Conditional Automation - The vehicle has the ability to track data from the road environment and perform certain functions such as acceleration and braking, but still relies on human guidance.

Level 4: High Automation - The AV can control all driving functions and can operate without human assistance for specific applications.

Level 5: Full Automation - No human assistance is needed for these AVs to perform transport assignments.

These levels of automation help categorize the different types of AVs and EVs that are already available on the market. While level 2 vehicles already exist among high-end models such as Tesla EVs, level 4 is currently in the stages of testing. Level 5 is still just a concept, but technological innovation is moving closer toward its realization.

How Electric Vehicles Will Enhance Society

A widespread cultural shift to electric vehicles would help clean up the environment and improve people's quality of life in numerous ways. Batteries power AVs and other electric vehicles (EVs), which produce zero greenhouse gases. The more electric vehicles populate the streets, the more cities will see reductions in air pollution. The spread of AVs will help reduce traffic congestion, as traffic will be more controlled based on AI-driven data analysis.

Cars will have greater abilities to communicate with other vehicles, as well as with the local infrastructure. This sophisticated mobile networking will help connect citizens quicker with the local services they need.

Stepping Stones for AV Success

Here are the four crucial areas stakeholders must focus on to ensure a safe and successful transition to AVs:

  • Infrastructure - Interconnectivity with a city's digital infrastructure will become essential in the development of smart cities that encompass AVs. That means local governments will need to invest in upgraded equipment so that AVs can interact properly with traffic lights and other traffic control devices.
  • Regulations - Lawmakers must strengthen regulations on safety, insurance, and use of the road. Political leaders need to further take into account privacy and data protection regulations to prevent exploitation of confidential data.
  • Acceptance - In order for citizens to accept AVs on the road, they will need to be included in pilot projects that gather community feedback. Surveys show Americans are open to AV use but many have reservations about sharing an automated taxi with strangers.
  • Collaboration - Stakeholders need to establish partnerships with mobility providers and technology manufacturers who can help contribute to smart infrastructure.

Conclusion

The age of autonomous vehicles has arrived and will only evolve more dramatically with smart infrastructure, IoT sensors, and AI technology. The modern transformation of American cities will benefit from AVs through reduced traffic, improved access to public transportation, and increased free space in urban areas.

Read More
last mile delivery
Logistics

Last Mile Delivery Trends for 2021

The improvement of shipping logistics will be a central theme for manufacturers and transportation firms in 2021. Consumers and businesses have come to expect low-cost speedy delivery, as shipping conditions now play a role in shaping customer satisfaction. Here are significant last mile delivery trends to look for this year.


Final Stage of Delivery

The phrase "last mile delivery" refers to the final stage of delivery from a parcel terminal to a resident or retailer. Demand for shipping has increased during the pandemic due to social distancing and online shopping convenience. Ideally, packages are delivered as quickly as possible in the final shipping phase for a seamless delivery process that reduces disputes and boosts customer satisfaction.


Steps in the Final Stage of Delivery

  1. Orders are placed in a centralized system - During this phase, orders and requests are tracked by the sender and recipient through tracking numbers.
  2. Orders arrive at the parcel center ready for delivery - The delivery process enters the crucial phase that determines whether the journey from the transportation hub to its destination will be successful.
  3. Orders routed based on recipient addresses - Packages are sorted and routed strategically for the most efficient delivery from point A to point B.
  4. Orders are scanned and loaded onto vehicles - Scanning updates the order, allowing the sender and recipient to track the final checkpoint before completion of delivery.
  5. Proof of delivery upon arrival - The delivery person updates the tracking to confirm the package has reached its final destination.


Trends Impacting Service in 2021

Faster Order Handling - Logistics will become increasingly important as supply chains find ways to rapidly fulfill orders to meet customer expectations, especially for same-day delivery.

Enhancement via Traceability - Package traceability is evolving to become more sophisticated, reliable, and accurate thanks to smartphone apps with GPS features.

In-House Delivery - Various companies beyond Amazon are using their own in-house fleet of vehicles for deliveries from warehouses to recipient destinations.

Rise of Micro Warehousing - Amazon uses over 50 transportation hubs in the United States for its Prime Now same-day delivery service. The online retailer's model has inspired many other companies to expand warehouse space to accommodate their own delivery system.

Exploring Carrier Upsells - Delivery personnel can take advantage of direct contact with customers by upselling them on products associated with their tracked interests.

Investing in Smart Technology - Fulfillment centers have invested in smart technology to monitor products in terms of temperature, humidity, and other factors. Smart technology helps protect the quality and shelf life of products.

Robots and Drones Become More Active - While drivers have not yet been replaced by robots or drones, the development of autonomous vehicles is underway and should eventually be a game-changer. Due to the high cost of delivery, transportation companies of the future will view robots and drones as effective cost-cutting strategies.


Technological Planning for Final Stage Logistics

New technology is helping improve the final phase of delivery as well as same-day delivery. The trend toward refining delivery in its final stage is driven by the need for shippers to gain a competitive edge. The development of self-driving vehicles and drones is expected to redefine future shipping processes.

One of the ways technology is speeding up delivery time is through real-time SMS communication with drivers. Automated dispatchers can notify drivers in real-time when rerouting is necessary. Another example of tech enhancing the delivery process is when the package reaches its destination, and the recipient provides a digital signature as proof of delivery.


Conclusion

Staying updated on last mile delivery trends can help companies improve logistics and gain a technological edge over the competition. With more innovation on the horizon and increasing consumer demand, it's imperative for companies that rely on shipping to look at all the current and future options available for alternative delivery transportation.


Read More