MANET Applications: Why It’s the Best Approach

In our previous answer for, “What is MANET (Mobile Ad Hoc Network) Technology?” we explained MANET and its history, touched upon some of its major applications and technological challenges, and described MIMO/MANET as one possible solution to improve data communications, connectivity, situational awareness, and ability to operate in A2/AD environments. This article will discuss MANET applications further and explain why MANET is better than other technologies in these applications.

The military is one of the largest users of MANET. The military must perform a variety of missions, often in a hostile environment. The Army, Navy, Marines, Air Force, and Coast Guard require an information network between soldiers, vehicles, ships, planes, and headquarters—and this network must be safe from hacking, jamming, and targeting by adversaries. The need to transfer more and more information over greater distances with greater numbers of end points presents a challenging and complex mix of transceivers, amplifiers, and antenna equipment.

Unmanned systems utilizing MANET have been identified as a strategy to fight adversaries—autonomous, high-capacity bearers that can operate independently in anti-access/area-denial (A2/AD) environments, adding and removing members automatically and seamlessly, provide a way to transfer data in these challenging environments.

Before MANET, other communications technologies for off-site/off-platform bearers were lacking in three areas: 1) their ability to handle high-capacity data; 2) autonomous operation; and 3) self-forming and self-healing networks.

Let’s examine these other existing technologies, ultimately moving toward the conclusion that MANET, and ultimately MIMO/MANET, is superior.

HF Radio Technology

This technology can travel long distances, but it requires a high amount of power, can be unreliable in some weather conditions, and has inherently limited bandwidth.

VHF/UHF Radio

Tactical VHF/UHF Radio consists of line-of-sight tactical radio links that allow for immediate, point-to-point transfer of voice and data. Although the high-capacity requirement is met, the need for complex configurations and controller nodes do not result in truly autonomous network forming and healing.

Satellite Communications (SATCOM)

SATCOM can communicate reliably over long distances from almost anywhere a mission demands and has increased bandwidth capacity (although it is challenged to keep up with an ever-increasing capacity demand).

But SATCOM equipment can be very costly and complex, sometimes requiring multiple large-dish radomes that take up valuable space in congested environments. In addition, SATCOM continues to be a major target for near-peer adversaries and struggles in the areas of autonomous operation, and self-forming and self-healing network, requiring immensely complex negotiation and timing systems.

Tactical Data Links

Tactical data links meet many of these needs with numerous types and applications. They are specifically designed for transferring high-capacity data. They typically work in a point-to-point, or point-to-multi-point configuration with a predetermined network topology and user list. But not many of the tactical data link technologies can operate in a truly independent and ad-hoc manner in military applications.

The Solution: MANET & MIMO/MANET

Mobile Ad Hoc Network or MANET is a group of mobile devices like laptops, mobile phones, radios, or sensors that communicate with each other wirelessly, providing needed network functionality without an existing fixed infrastructure, and can change locations and reconfigure themselves while doing so. MANETs can be restricted to a local group of wireless devices or they can be connected to the Internet. MANET allows information to be exchanged without regard for geographic location or remoteness of infrastructure.

MIMO (Multiple-Input Multiple-Output) is a wireless technology that uses multiple transmitters and receivers to transfer more data over a given time. When applied to a tactical mobile ad hoc network (MANET), MIMO has a high potential to improve data communications, connectivity, and situational awareness. When combined with the self-forming and self-healing advantages of the MANET implementation, these MIMO/MANET systems’ ability to operate in A2/AD environments become substantially stronger.

MIMO/MANET technology is the best available at present and the go-to solution in the areas of high-capacity data, autonomous operation, and self-forming and self-healing networks.

Other Applications

There are other applications where MIMO/MANET has substantially improved communication in remote or hostile environments when communication is required without a fixed infrastructure. These include commercial (for emergency rescue/disaster relief), low-level use (like law enforcement), computer data networks, and sensor networks to detect vibration, temperature, pressure, toxins, pollution, and more.

These radio systems are made by Silvus Technologies, DTC, and Microhard as well as others. Triad RF Systems offers a number of THPR High Power Radio Systems that utilize the Silvus Streamcaster SC4200 and SC4400, the DTC SOLO8, the Microhard 2x2 MIMO pMDDL, and others as a core radio. These fully integrated high-power systems support UHF, L, S and C bands and offer output power levels of up to 100W per channel.

For more information – Read the Tech brief about the keys to successful naval defense using MIMO/MANET radio system deployments.

Naval vessels operate in a dynamic environment requiring a wide array of communication links or off-ship bearers to transport information to or from maritime assets. As more information is transferred over greater distances with many more endpoints, there is a dizzying hodgepodge of transceivers, amplifiers and antennas to contend with. And, near-peer adversaries are continually seeking to target maritime vessels to actively jam communication. These challenges have led to amazing advancements with Mobile-Ad-Hoc Networking (MANET) radios.

Download the tech brief from Triad RF to find out how new technology answers the call for high-capacity, autonomous, self-forming and self-healing networks.

Download Here

About the Author

Patrick Sherlock, Vice President of Business Development, Triad RF Systems

Patrick Sherlock has bachelor’s degrees in Electrical and Computer Engineering and a Master’s degree in Engineering Management. Pat has spent over 20 years working on designing, integrating, and implementing naval communication systems within the United States and internationally, including Canada, Australia, New Zealand, Turkey, South Africa, South Korea, as well as many others. Pat has received numerous awards for his work including a Deepwater Award for Excellence from the United States Coast Guard for his “exemplary performance of duty while assigned to the Integrated Deepwater System (IDS) Program.” Pat has most recently joined Triad RF Systems, Inc. as Vice President of Business Development, focusing on MIMO/MANET radios and amplified radio systems.