Rethinking Survivability
By CPT Jonathan Taylor
Article published on:
in the 2026 e-Edition
of Engineer
Read Time:
< 8 mins
National Guard soldiers conduct stalk training during sniper school at
Camp Robinson in Little Rock, Ark., Tuesday, Aug. 6, 2025. The soldiers
constructed ghillie suits and practiced long-range marksmanship as part
of the sniper training program. As part of the exercise, they crawled
with rifles fully camouflaged to avoid detection and worked on
concealment techniques to hide from drones overhead.
(Photo by Jenna Dorazio)
When U.S. Army engineers think of survivability for vehicles and
artillery, they likely picture vehicle fighting positions, vehicle
protective positions, and artillery positions constructed with earthmoving
equipment. The proliferation of unmanned aerial vehicles (UAVs) on the
battlefield in the Russia-Ukraine War changes the calculus of
survivability operations. UAVs bring increased aerial reconnaissance and
aerial-precision strike capability to the battlefield. In this context,
traditional survivability is inadequate and sometimes even
counterproductive. In response, engineers must adapt by implementing
anti-UAV overhead cover and weighing concealment versus cover based on the
operational context. These observations from Ukraine should inform us, but
not lead us to reject traditional survivability because the next fight
will likely not exactly mirror the current fight in Ukraine. Engineers
must apply critical thinking to tailor survivability measures to each
operational context.
The UAV Threat
Whether UAVs will have a revolutionary impact on warfare is an ongoing
debate, but they clearly have at least made a profound impact on the
battlefield in Ukraine and Russia. The U.K. Royal United Services
Institute reported in February 2025 that “tactical UAVs currently account
for 60–70% of damaged and destroyed Russian systems.”1U.K. Defense Intelligence assessed that the Lancet UAV was likely the
most effective new capability that Russia fielded in 2023.2The quantity of UAVs used on the battlefield in Ukraine is orders of
magnitude higher than past conflicts and shows no signs of decreasing with
both Russia and Ukraine aiming to manufacture three to four million drones
in 2025.3
Compared to past large-scale combat, today’s battlefield sees
significantly more aerial reconnaissance and aerial precision strikes.
Current reconnaissance UAVs are effective and cost efficient. They
increase the chance of detection from the air compared to detection from
ground reconnaissance. Side concealment alone is inadequate, and overhead
concealment is more important than ever. Two types of attack UAVs
increasingly common in the current fight are munition-dropping UAVs and
one-way attack UAVs. Munition-dropping UAVs can loiter directly above a
position and drop munitions such as grenades, mortar rounds, or improvised
explosives directly downward onto a target. One-way attack UAVs can fly
directly onto the target from a high angle. Side cover is inadequate
against both, and their proliferation necessitates increased use of
overhead cover.
AI Generated Graphic
Traditional Survivability
AI Generated Graphic
Traditional survivability offers inadequate protection from attack UAVs.
Here, “traditional survivability” refers not necessarily to doctrine but
to the habitual ways engineers traditionally apply it in practice.
Traditional survivability positions consist of vehicle fighting positions,
vehicle protective positions, artillery positions, or protective berms
constructed with earthmoving equipment. These positions shield against
fragmentation and blast pressure from nearby explosive impacts. They
primarily provide side cover but usually not overhead cover. Traditional
survivability positions provide side cover for two reasons. First, there
is a relatively low chance of unguided artillery achieving a direct hit on
a dug-in position. Second, constructing overhead cover, sufficient to
protect against a direct hit from artillery, requires significant time and
resources. U.S. Army ATP 3-21.90 states that field fortifications built
without concrete or steel cannot withstand a direct hit from a 122-mm
rocket or 152-mm high-explosive round and that “even dud 152-mm rounds
will penetrate about 4 feet of solid earth.”4Ultimately, while effective against nearby artillery impacts, traditional
positions offer inadequate protection from attack UAVs.
Traditional positions also offer inadequate concealment from
reconnaissance UAVs. A doctrinal, fully developed vehicle-fighting
position does include a hide site with overhead concealment. Despite
doctrinal guidance, there is a tendency to consider “survivability”
complete with the establishment of the hull or turret defilade position.
Even following doctrinal guidance, the defilade position itself lacks a
strict requirement for overhead concealment, and only the separate hide
site has this requirement. This traditional approach inadequately
addresses the critical need for overhead concealment.
Not only are these traditional positions inadequate, but in some cases
they may be counterproductive to survivability. The Center for Army
Lessons Learned references a Ukrainian Territorial Defense Forces manual
that advised against using heavy engineer equipment for survivability
because it “unmasks positions with the audible and visual signatures and
the residual track marks it leaves behind.”5Disturbing earth and vegetation with earthmoving equipment can make a
dug-in vehicle more visible than one left in place, counter-intuitively
reducing survivability. Marks from dozer tracks and blades disturb natural
vegetation on the ground, making the position more conspicuous from the
air. This consideration is heightened due to the proliferation of
reconnaissance UAVs.
Soldiers deployed to Iraq from Fort Bliss, Texas, Delta Company, 2nd
Brigade Engineer Battalion, 3rd Brigade Combat Team, 1st Army Division
prepare the RQ-7B Shadow, an unmanned aerial system, for launch, Oct.
20. Corporal Colyn Eure and Specialist Andrew Hopkins perform a
preflight inspection before the UAV can provide route reconnaissance,
target acquisition and overwatch for ground troops in their area of
operation. (Photo By Army Captain Sean Burger)
A U.S. Army Soldier assigned to the 11th Airborne Division maintains
security from a camouflaged fighting position during Joint Pacific
Multinational Readiness Center (JPMRC) 26-02 at Yukon Training Area,
Alaska, Feb. 18, 2026. Arctic camouflage techniques reduce visibility
and enhance survivability in snow-covered environments.
(Photo by SSG. Arbishua Rojas)
On Survivability
Rethinking survivability is considering the prevalent threat and deciding
how best to enhance survivability rather than simply defaulting to
traditional survivability. This includes incorporating overhead-UAV
protection and weighing concealment versus cover.
Incorporate overhead anti-UAV protection
Engineers should incorporate anti-UAV overhead protection into
survivability position design. Both Ukrainian and Russian forces are
employing improvised overhead cover made from netting, chain-link fencing,
or metal cages to counter the UAV threat for vehicle and artillery
positions. While ineffective against direct hits from artillery, these
measures can be effective against munition-dropping and one-way attack
UAVs.6Certainly, stronger overhead cover that protects against artillery is
beneficial, but it is often impractical. Anti-UAV overhead cover may be
more necessary, given the precision of attack UAVs over artillery, and is
less resource-intensive than antiartillery overhead cover. This gives
anti-UAV overhead cover a more compelling case to be standard for
survivability positions. Engineers should develop and implement rapidly
deployable, lightweight, and effective anti-UAV overhead cover.
Weigh concealment and cover
Engineers should advise maneuver and artillery to weigh the need for
concealment and cover based on the prevalent threat in their current
operational context. Ideally, survivability positions combine maximum
cover and maximum concealment, but sometimes they conflict. First, digging
can reduce concealment by disturbing the ground and vegetation. Second,
areas suitable for digging are often open, as thick vegetation makes
maneuvering and digging with a dozer difficult. However, a vehicle placed
under thick vegetation, without being dug in, may be more survivable than
one fully dug in in open terrain. If the primary threat to an artillery
position is attack UAVs cued by reconnaissance UAVs, then optimizing
concealment and camouflage, rather than digging in, may be appropriate.
Conversely, if the greater threat is counterbattery fire cued by radar,
then digging-in may be appropriate. The prevalent threat could even change
based on location on the battlefield. Positions further to the rear may be
more likely to be targeted by long-range artillery and less likely to be
observed and targeted by short-range UAVs, and vice versa. Engineers
should conduct this analysis to tailor survivability measures to each
context.
Rethinking in Context
It is a mistake to assume that future large-scale combat operations will
exactly mirror the current Russia-Ukraine fight or that UAVs will now
permanently replace artillery as the dominant indirect fire threat on the
battlefield. In Small Wars Journal, Lieutenant General Bill
Murray argues that “drones will never replicate the overwhelming
suppression and deep interdiction effects of artillery.”7Even though UAVs may not permanently be the dominant threat on the
battlefield, they bring a different threat that survivability operations
must address. UAVs may not have changed the game completely, but they are
certainly now part of the game. Traditional constantly re-evaluate it and
apply critical thinking to tailor survivability is far from obsolete, but
engineers must survivability measures to each operational context.
Notes
1.
Jack Watling and Nick Reynolds, 2025, “Tactical Developments During the Third Year of the Russo–Ukrainian
War,” Royal United Services Institute, February 14, 2025,
https://www.rusi.org/explore-our-research/publications/special-resources/tactical-developments-during-third-year-russo-ukrainian-war.
2.
UK Ministry of Defence (@DefenceHQ), “Latest Defence Intelligence update on the situation in
Ukraine,” X (formerly Twitter), November 1, 2023,
https://x.com/defencehq/status/1719621502121775113.
3.
Michael Schwirtz and Lynsey Addario, “A Drone Attack Kills Dozens at a Ukrainian Training Base,” The New York Times, March 3, 2025,
https://www.nytimes.com/interactive/2025/03/03/world/europe/ukraine-russia-war-drones-deaths.html.
4.
Department of the Army,
ATP 3-21.90: Tactical Employment of Mortars, para. 5-24, p.
5-8, October 9, 2019.
5.
S. Ullrich and S. Moriarty, 2024, “Lessons Learned from the Ukrainian Territorial Defense Forces:
Command Post Survivability,” U.S. Army, February 6, 2024,
https://www.army.mil/article/273510/lessons_learned_from_the_ukrainian_territorial_defense_forces_command_post_survivability.
6.
Jack Watling and Nick Reynolds, 2025, “Tactical Developments During the Third Year of the Russo–Ukrainian
War,” Royal United Services Institute, February 14, 2025,
https://www.rusi.org/explore-our-research/publications/special-resources/tactical-developments-during-third-year-russo-ukrainian-war.
7.
Bill Murray, 2025, “Beyond the Hype: Why Drones Cannot Replace Artillery,” Small Wars Journal, May 5, 2025,
https://smallwarsjournal.com/2025/05/05/beyond-the-hype-why-drones-cannot-replace-artillery/.
Authors
CPT Jonathan Taylor is an Engineer Advisor Team Leader
in 4th Security Force Assistance Brigade. He holds a master
of science in engineering management from the Missouri University of
Science & Technology and a bachelor of science in mechanical
engineering from the United States Military Academy.