Tactical UAS:
Three-Tiered UAS Manning for Increased
Lethality and Situational Awareness
By CPT Charles J. O’Hagan, 1LT Parker Mitchell, 1LT
Noah Paffenroth, 1LT Adam Hendrick
Article published on: October 18, in the Winter
2024-2025 Issue of the infantry journal
Read Time:
< 15 mins
Figure 5 — Ghost-X (12 kilometers
recommended) (Photo by SGT Charlie Duke)
The world has watched as unmanned aerial vehicles became as
ubiquitous a weapon of war in Ukraine as the improvised
explosive device (IED) turned out to be during Operation Iraqi
Freedom. A relatively low-cost, remote-piloted vehicle is
capable of removing multimillion-dollar tanks from the
battlefield. As the U.S. armed forces observe the success of
unmanned aerial systems (UAS) tactics, techniques, and
procedures (TTPs) in Ukraine, we must consider how to equip and
operate drones at the tactical level within our own formations.
To maintain its strategic edge and adapt to the rapidly changing
landscape of warfare, the U.S. Army must effectively man and
operate drones at this level.
Inspired by the recent experiences of Ukrainian forces and
lessons learned from Joint Readiness Training Center (JRTC)
Rotation 24-10, this article recommends a three-tiered approach
to manning UAS operators, encompassing additional duty,
designated position, and military occupation specialty
(MOS)-specific roles. This approach will ensure that the vast,
and still growing, variety of UAS — ranging from small, simple
systems to larger, more complex platforms — is considered.
Drones at this echelon are currently broken down by aircraft
weight, range, and endurance (see Table 1). However, with
improvements in battery technology, endurance will soon be a
metric of the past, and range will prove to be the
differentiating factor between small UAS (sUAS).
Additional Duty Concept
Soldiers should employ relatively simple and short-range UAS as
an additional duty. A rifleman in an infantry squad could
operate smaller, easy-to-use drones for reconnaissance or target
acquisition tasks. For example, Ukrainian forces have
effectively used smaller, hand-launched drones, such as the DJI
Mavic or Phantom series, for tactical reconnaissance and target
acquisition missions. These drones require very little
instruction and do not necessitate extensive training. During
JRTC 24-10, Soldiers from the 2nd Mobile Brigade Combat Team
(MBCT), 101st Airborne Division (Air Assault) employed similar
platforms to observe targets 2-5 kilometers away in minutes.
These smaller systems are not cumbersome during prolonged
movements; however, they have limited range and flight duration.
This limits them to target refinement based on cues from larger
UAS platforms, electronic signature detection, or audio-visual
contact. Soldiers would utilize these platforms for
short-duration flights while primarily acting as riflemen who
may need to engage rapidly in a fight. These platforms enhance
team maneuverability since they do not require a significant
power draw; they can charge with portable battery packs from
hide sites and be deployed by mobile teams in heavily restricted
areas. Portability and mobility are crucial in densely vegetated
areas, where the signal range will degrade severely, and in
contested areas, where launching and landing pose the greatest
chance of compromise.
Table 1 — Short-Range, Medium-Range, and Long-Range Reconnaissance Capabilities, comparing aircraft weight, range, and endurance.
|
Aircraft Weight |
Range |
Endurance |
| Short-Range Reconnaissance |
3-5 pounds |
3 kilometers |
30 minutes |
| Medium-Range Reconnaissance |
< 20 pounds |
10+ kilometers |
1.5 hours |
| Long-Range Reconnaissance |
< 55 pounds |
30-60 kilometers |
5-8 hours |
Table 1 — Short-Range, Medium-Range, and Long-Range Reconnaissance Capabilities
On day one of the 24-10 rotation, these capabilities immediately
impacted the battlefield. Using a Skydio drone, a small element
in front of the forward line of own troops (FLOT) identified
three enemy artillery pieces. The brigade called for fire and
destroyed all three, along with another enemy vehicle and
multiple dismounted personnel. This marked the first of many
fire missions using small UAS to identify and observe effects.
However, to maintain observation, the Soldier whose additional
duty involved drone operations had to fly one drone after
another. This example highlights that while this Soldier’s
primary duty is serving as a rifleman, the tactical situation
can create an environment where drone operations frequently
supplant that primary duty. Ideally, this Soldier would have
identified the targets and cued another platform during a
deliberate handoff to a more robust reconnaissance platform,
which would be manned by personnel whose primary duty is their
operation. This situation highlights the need for a dedicated
UAS operator position who can work in a multi-layered and
coordinated approach with other UAS operators at lower and
higher echelons.
Figure 2 — Skydio X2D (2.5-3
kilometers recommended)
Primary Duty Concept
Creating designated UAS operator positions within units would
ensure operators with specialized training can manage larger,
more complex drone platforms. Ukrainian forces have utilized
medium-range drones, such as the R18 octocopter, for more
extended reconnaissance and surveillance missions, requiring
operators with specific skill sets and dedication. These
operators are crucial in conducting longer duration missions,
often in contested environments. Another example is the
first-person view (FPV) drone, which requires extensive practice
and training to operate proficiently. While any Soldier can
fulfill this role, the time necessary for proficiency justifies
the need for a dedicated position rather than simply an
additional duty. During this JRTC rotation, the robotics and
autonomous systems (RAS) platoon assigned specific platforms to
personnel. Two-person teams managed the maintenance and
operation of the PDW C-100, a medium-range reconnaissance (MRR)
UAS capable of carrying up to a 10-pound payload. This
assignment emerged from the greater complexity, power demands,
and practice required for accurate munitions delivery. Although
the RAS platoon comprises 15Ws (UAS operators) and 15Es (UAS
repairers), the personnel assignment to platforms was MOS
agnostic, with operating that platform becoming their primary
duty. Just as the platoon radio-telephone operator (RTO) must
detach from the fight to facilitate crucial communications with
higher command, MRR operators must focus on observation and
medium-duration surveillance. During call-for-fire missions,
maintaining constant visual contact with targets helps deliver
accurate effects and can prevent overkill. This was evident
during JRTC 24-10 when the RAS platoon attached to 2/101’s
Attack Company, 2nd Battalion, 502nd Infantry Regiment. The PDW
C-100 maintained visual contact with enemy forces during the
brigade defense on 19-20 August.
Figure 3 — Parrot Anafi MIL (2.5-3
kilometers recommended)
Consequently, the operators became the primary observers for all
fire missions. They directed the prosecution of fires far beyond
the FLOT, alleviating the difficulty of placing an observation
post (OP) that can observe fires and remain outside risk
estimate distances (REDs). The MRR operator must focus on
providing a real-time picture of the battlefield to higher
command. These drones have a more significant signal output,
louder takeoffs and landings, and require a higher power draw,
making it difficult to operate in contested areas. The demanding
tasks on the operator tie this platform to the company command
post (CP), where we are farther from the front, have electronic
warfare (EW) assets, a semi-defensible position, and vehicles
for power supply and rapid relocation.
Figure 4 — PDW C-100 (10 kilometers
recommended) (Photo courtesy of PDW)
Career Progression for Primary UAS
Operators
A counterargument to creating designated UAS operator positions
within units is the possible negative career impact for 11B
Soldiers. For example, making an 11B20 a dedicated UAS operator
could potentially put the Soldier behind the power curve of
peers acting as team leaders, who are maneuvering teams to close
with and destroy the enemy. However, we could argue that the
individuals selected to serve in UAS operator roles will learn
far more about maneuvering and tactical decision-making in the
assigned UAS position. Considering that a UAS operator would be
co-located with the platoon or company CP, those Soldiers will
gain a better understanding of what is happening across the
battlefield and how leaders maneuver squads or platoons in the
close fight. The specified role for a UAS operator primarily
addresses Soldiers who would be operating an MRR. However, the
same holds true for Soldiers who are designated as FPV
operators. Soldiers who effectively employ an FPV will
understand the breadth of their company/ platoon fight and will
be utilized as a combat multiplier. Those with a primary duty of
operating an FPV with multiple payloads have the potential to be
more lethal and precise than a company’s 60mm mortar section.
Their primary duties would be akin to those of an RTO position.
In the same regard as how Soldiers tasked as a platoon RTO are
separated from the rest of the formation to focus on the radio
equipment, drone operators will have their UAS as their focus
during the fight. UAS, and specifically FPVs, are here to stay
when it comes to modern combat; therefore, our formations need
to adapt to this evolving battlefield without adding
MOS-specific roles at the company and platoon level
Figure 6 — Stalker VXE30 (160
kilometers recommended) (Photo by Sgt Jacqueline C. Parsons,
USMC)
New UAS Operator MOS Concept
The Army should also consider creating a new MOS for UAS
operators, specifically for specialized drone platforms. These
MOS-qualified operators would possess unique skills including
advanced sensor management, organization-specific TTPs, and
specialized payload optimization. Operators controlling
sophisticated systems, such as the Bayraktar TB2 used by
Ukrainian forces for significant reconnaissance and precision
strike missions, require extensive training and specialized
skills. By having MOS-designated drone operators, Soldiers would
arrive with considerable expertise. These individuals can join
battalions, fill modified table of organization and equipment
(MTOE) positions, and integrate seamlessly with long-range
reconnaissance (LRR) systems aligned to battalions. They would
serve as brigade/battalion-level assets. This designation grants
them protection, enabling them to focus on flight operations
while remaining farther removed from the frontlines. Long-range
drones provide top-down, real-time intel that can cue smaller
platforms on pertinent areas to direct their drone assets,
preserving their limited power resources and limiting exposure
time. During JRTC 24-10, we did not utilize any LRR platforms,
resulting in an overreliance on division assets such as the Gray
Eagle. LRR UAS will enable battalions to shape their close fight
while the brigade can shape the next ridgeline. Battalions can
find, fix, and finish at their level without relying on brigade
or echelon above brigade assets. The brigade will then be able
to find, fix, and finish the brigade high-payoff target list
(HPTL) with the multi-functional reconnaissance company, setting
conditions for future operations. This additional platform
enhances information flow and situational awareness on the
battlefield, both top down and bottom up. Due to their large
frames, heavy power draw, and logistical requirements, the
lowest level at which they can be effectively employed is from a
battalion CP.
Figure 7 — Shadow (125 kilometers
recommended) (Photo by John Hughel)
Human-Machine UAS Integration
It is essential to discuss the differences between short-range
reconnaissance (SRR), MRR, and LRR; the handover lines between
each platform at the echelon; the training required for each;
and the focus that should be spent on additional, primary, and
MOS duties; however, the primary emphasis should remain on
decreasing human involvement in UAS operations. UAS technology
and human-machine integration advancements present an
opportunity to reduce the burden on UAS operators. Autonomous
technologies like artificial intelligence and machine learning
can improve mission efficiency and decrease operator workload.
The current platforms lack the software to minimize human
involvement and require more personnel and an increased
cognitive load. We should continue to invest time, effort, and
money in acquiring platforms and, more importantly, operating
systems that allow for the control and integration of multiple
systems. A UAS must autonomously identify HPTLs, present options
for kinetic actions, and execute — all through a standard
operating system. Ideally, this UAS should communicate with
other sensors. A UAS that communicates with visually based
ground and electronic warfare sensors will sense and present
various kinetic options for action to a commander and work off
standard software, achieving human-machine integration. By
maintaining situational awareness and decision-making skills
among operators, the Army can leverage advanced automation
capabilities for operational success while fostering
human-machine teaming and promoting force multiplication.
Center of Excellence to Unify Efforts
An Army center of excellence must be designated to codify this
tiered approach, ensure lessons are learned, and dedicate
resources to understand the human-machine integration of the
future. Currently, tactical UAS employment, TTPs, and doctrine
are not directly owned by a center of excellence. Every
warfighting function has a center of excellence that shapes what
the future of that function will be and codifies it in doctrine.
2/101 MBCT’s current recommendation is that either the U.S. Army
Maneuver Center of Excellence or the Aviation Center of
Excellence take control of this critical and emerging
capability.
As seen during JRTC 24-10, tactical UAS facilitate maneuver and
fires more than any other warfighting functions. Tactical UAS
can reduce risk to the force and mission for maneuvering units
by allowing for greater standoff while increasing situational
awareness and enabling more effective C2 for leaders. A
commander could see when a maneuvering element was about to hit
a phase line, call up a shift fire, receive confirmation, and
continue advancing his force far quicker than more traditional
confirmation methods. Likewise, tactical UAS allow forward
observers to maintain observation on targets from a greater
distance and increase the breadth of what they can sense/hunt.
Additionally, UAS provide additional avenues with which to
prosecute fires targets, either through dropped munitions or
one-way attack drones. However, keeping UAS with the Aviation
Center of Excellence provides benefits. Historically, Aviation
has had ownership of legacy sUAS platforms, institutional
knowledge of airspace management, and tactical employment of
manned aviation assets. During JRTC 24-10, the brigade aviation
officer played a crucial role in setting conditions for maneuver
forces to fly sUAS during complex air assault operations. This
permitted effective airspace management allowing 2/101 MBCT to
synchronize fires, maneuver, and aviation assets. Given the
fundamental difficulty of managing a ubiquitous sUAS presence
while safely conducting air assault operations, it would be
prudent for both centers of excellence to be stakeholders in
future implementation. Ultimately, tactical UAS are now a part
of warfare, and to keep pace with the dynamic nature of warfare,
a center of excellence needs to be established to oversee this
revolution.
Conclusion
In conclusion, inspired by the Ukrainian experience, adopting a
three-tiered approach to manning UAS operators within the U.S.
Army, based on drone complexity and operational requirements,
will optimize the utilization of these versatile assets. This
approach involves integrating drone operations into additional
duties, establishing designated UAS operator positions, and
creating a new MOS for specialized drone platforms. The next
step in this revolution of military affairs is leveraging
advancements in human-machine integration, and autonomous
technologies will reduce the burden on UAS operators and foster
effective human-machine teaming. Additionally, there must be a
center of excellence that is designated to unify these efforts
and spread lessons learned across the force. By implementing
these recommendations, the U.S. Army can effectively adapt to
the ever-changing landscape of modern warfare and maintain its
strategic edge.