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Type of article: Bibliographic review https://doi.org/10.47460/athenea.v6i20.94
Advances in Technologies for the Soldiers of the Future
Edison Luna*
https://orcid.org/0009-0001-5998-8688
raulluna2710@hotmail.com
Ejercito Ecuatoriano
Centro de Instrucci
´
on 31 “CARCHI”
San Ibarra-Ecuador
Patricio Cata
˜
na
https://orcid.org/0009-0004-5962-0383
alexcatana66@hotmail.com
Ej
´
ercito Ecuatoriano
Batall
´
on de Infanter
´
ıa Nro. 39
Tulc
´
an-Ecuador
Jos
´
e Calder
´
on
https://orcid.org/0009-0006-3211-8283
calderon 313@hotmail.com
Ej
´
ercito Ecuatoriano
BIMOT 39 “Mayor Galo Molina”
San Tulc
´
an-Ecuador
Miguel Ponce
https://orcid.org/0000-0002-4832-1386
mikeyponce06@gmail.com
Ej
´
ercito Ecuatoriano
Comandante del Pelot
´
on de Comunicaciones del
BIMOT 39
Tulc
´
an-Ecuador
*Autor de correspondencia: raulluna2710@hotmail.com
Recibido (29/11/2024), Aceptado(13/03/2025)
Abstract. - Emerging technologies enhance soldiers’ capabilities, improving safety, accuracy, and effi-
ciency. Exoskeletons, AI, AR, biotechnology, nanotechnology, drones, smart materials, and communica-
tion technologies enable the optimization of strategies, decisions, resistance, and situational awareness,
being key in modern armed forces. This review paper synthesizes the most relevant advances, their key
technologies and the impacts they have on the efficiency of soldiers’ strategies during their operations.
A systematic PRISMA review was conducted across the SCOPUS, Web of Science, Taylor & Francis,
PubMed, and ProQuest databases, identifying review articles on these advances, including practical
cases of implementation in military forces in Latin America and Europe. The results show more recent
advances such as drone swarms, biometrics for monitoring troops, and high-precision laser weapons.
Despite challenges such as costs and technical training, these technologies transform defense, improv-
ing its effectiveness and security, driving greater capabilities, and providing competitive advantages in
adverse events.
Keywords: emerging technologies, military innovation, technological innovation, security and defence.
Avances en Tecnolog´ıas Para los Soldados del Futuro
Resumen. Las tecnolog
´
ıas emergentes y avances en rob
´
otica actualmente potencian las capacidades,
seguridad, precisi
´
on y eficiencia de los soldados. Exoesqueletos, tecnolog
´
ıas de realidad extendida,
biotecnolog
´
ıa, nanotecnolog
´
ıa, drones, materiales inteligentes y las tecnolog
´
ıas de comunicaci
´
on per-
miten optimizar estrategias, decisiones, resistencia y conciencia situacional, siendo clave para las op-
eraciones de defensa de las fuerzas armadas modernas. Este trabajo describe los avances tecnol
´
ogicos
m
´
as relevantes, sus impactos en para los soldados durante sus operaciones, sus desafios y limitaciones.
Se realiz
´
o una revisi
´
on sistem
´
atica PRISMA® identificando art
´
ıculos en bases como SCOPUS, Web of
Science, Taylor& Francis, PubMed y ProQuest adem
´
as de casos reales de uso de estas tecnolog
´
ıas en
fuerzas militares de Am
´
erica de Norte y Europa. La incorporaci
´
on de tecnolog
´
ıas que incluyen enjam-
bres de drones, biometr
´
ıa para monitoreo de tropas y armas l
´
aser de alta precisi
´
on impulsan ventajas
competitivas ante el enemigo a gran distancia, a pesar de esto, persisten desaf
´
ıos como el costos y
formaci
´
on t
´
ecnica de los soldados.
Palabras clave: tecnolog
´
ıas emergentes, innovaci
´
on militar, innovaci
´
on tecnol
´
ogica, seguridad y de-
fensa.
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I. INTRODUCTION
Currently, technology enhances aspects such as the effectiveness, security, and response
capacity of soldiers, optimizing communication, surveillance, decision-making, and adapt-
ability in combat, which is key to facing modern threats. The soldiers’ use of technologies
strengthens national defense, guarantees sovereignty, improves security, and positions
countries in geopolitical competition. It also drives innovation, optimizes resources, and
enables the efficient management of modern threats with reduced human risk. In this
way, the impact of emerging technologies in the military field transcends the immedi-
ate operational benefits, contributing to the strengthening of institutional capacities and
the promotion of global security. These innovations align with the Sustainable Develop-
ment Goals (SDGs) [1], particularly SDG 16, which promotes the establishment of strong
and resilient institutions, and SDG 17, as it requires partnerships to achieve its goals.
Countries such as the United States, China, Russia, the United Kingdom, France, Israel,
Germany, India, South Korea, and Japan are leading the way in integrating advanced
technologies in military defense [2], while other nations are exploring their adoption to
modernize their armed forces.
Technologies such as exoskeletons, artificial intelligence (AI), augmented reality (AR),
brain-computer interfaces (BCIs), applied biotechnology, and 5G and 6G networks are
shaping a paradigm shift in contemporary military strategies. These solutions strengthen
situational awareness, optimize operational efficiency, and position technological inno-
vation as a fundamental axis to ensure effectiveness in critical missions [3].
The modern soldier faces increasingly complex scenarios where the ability to adapt
quickly and effectively utilize advanced technologies is essential for operational success.
Solutions have been developed that improve mobility, physical endurance, and decision-
making under dynamic conditions [4]. The adoption of technologies poses new ethical,
technical, and strategic challenges that require clear regulatory frameworks and special-
ized training.
To understand the areas that have developed around the study of technologies for the
soldiers of the future, Figure 1 has been made, which shows a bibliometric graph obtained
from the analysis of 565 studies obtained in the SCOPUS database with the following text
string: (future soldier OR soldier technology OR military technology OR combat systems) AND
(wearable OR smart OR enhanced OR augmented) AND (communication OR networking OR
connectivity OR data transfer) AND (sensors OR monitoring OR detection OR surveillance)
AND (robotics OR autonomous OR drones OR unmanned) AND (training OR simulation OR
education OR preparedness) AND (logistics OR support OR supply chain OR maintenance)
AND (cybersecurity OR information security OR data protection OR threat assessment)”.
The bibliometric map in Figure 1 highlights that research on technologies applied to
the soldiers of the future is addressed around two central axes: on the one hand, the
development and application of advanced technologies such as artificial intelligence,
robotics, sensors, nanotechnology, wearable devices, and communication systems; on
the other, the analysis of the impact of these innovations on the physical, cognitive and
decision-making capacities of military personnel. Concepts such as technology”, mil-
itary operations”, military applications and soldier appear as predominant nodes, re-
flecting the importance of human-machine integration in the military field. The inter-
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Fig. 1. Bibliometric graph highlighting studies related to technologies for soldiers of the future
carried out with VOSViewer v.1.6.20.
connectedness between technological terms and human factors underscores the need to
design solutions that not only enhance operational efficiency but also consider the health,
performance, and safety of soldiers in complex environments. Additionally, the graph il-
lustrates a growing interest in the scientific validation of these technologies through con-
trolled studies, as well as in their institutional management and implementation, partic-
ularly in contexts such as military medicine and strategic defense organizations. All this
points to a paradigm shift in the armed forces, where technological innovation and hu-
man adaptation are essential pillars to face the challenges of modern and future warfare.
The study of the advanced technologies addressed in Figure 1 and applied to the field
of defence and security for soldiers may be of interest to researchers, academics, and pro-
fessionals in the military, defence, and security fields, as well as developers of emerging
technologies applied to tactical environments. The information provided may be relevant
to defense policymakers, government institutions, companies in the military-technology
sector, and international organizations seeking to optimize the readiness, security, and
effectiveness of their armed forces through innovative solutions. Additionally, it can be
useful for experts in ergonomics, occupational health, and the human factor who are in-
terested in the impact of these solutions on the performance and well-being of soldiers.
This article aims to conduct a systematic review of the main technologies and de-
velopment trends for soldiers of the future in the defense field, analyzing their opera-
tional impact, associated risks, and integration perspectives. The structure of the docu-
ment addresses in Section 2 the methodology based on the guidelines of the PRISMA®
methodology; Section 3 presents the results on (1) Technological developments for the
soldiers of the future, (2) Impact of the use of technologies on the soldiers of the future,
(3) Challenges in the use of technologies, and (4) Prospects in the use of technologies.
Section 4 discusses technical, ethical, and strategic aspects related to the implementation
and proper use of these technologies. Finally, the Conclusions are presented.
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II. METHODOLOGY
The systematic review of this article was conducted following a protocol based on the
PRISMA methodology, with the aim of identifying and analyzing the most relevant ad-
vances in emerging technologies applied to various areas of defense and combat for mil-
itary personnel. Systematic reviews published in the last ten years in scientific journals
and specialized conferences were considered. The primary research question guiding
this review was: What technologies are being developed to enhance the performance of
future soldiers? The number of studies identified through various databases and reposi-
tories, as well as their corresponding text strings for the search, is presented in Table 1.
Tabla 1. Text strings used for scientific literature search.
Database Search string Number of studies
Web of Science "future soldiers technologies"
(Author Keywords) AND 2024 OR 2023 OR
2022 OR 2021 OR 2020 OR 2019 OR 2018
OR 2017 OR 2016 OR 2015 (Publication
Years)
95
Taylor & Francis [Publication Title: ”future soldiers”]
AND [Publication Title: ”technologies”]
AND [Publication Date: (01/01/2019 TO
12/31/2024)]
25
Scopus TITLE(”emerging” AND ”technologies”)
AND PUBYEAR ¿ 2013 AND PUBYEAR ¡
2025
110
ScienceDirect Title, abstract, keywords: ”emerging tech-
nologies”
45
IEEE Xplore (”Document Title”: ”emerging”) AND
(”Document Title”: ”technologies”)
32
Total 307
This literature review was developed in three stages: (1) formulation of research ques-
tions, (2) definition of study scope, and (3) design of a search strategy to identify and se-
lect relevant documents. Priority was given to the most significant articles, followed by
rigorous data extraction and analysis. The review was guided by five research questions:
(1) What technologies enhance soldiers’ operational effectiveness? (2) What key advances
support future soldier solutions? (3) What are the impacts of these technologies? (4) What
ethical and social challenges arise? (5) What are the future defense prospects? To assess
article quality, evaluation criteria were applied as detailed in Table 2.
Figure 2 illustrates the workflow used for selecting reference documents. The search
included the keywords: ("future soldier" OR "soldier technology" OR "military
technology") AND ("wearable" OR "smart" OR "extended reality"). Papers that an-
alyzed relevant developments in emerging technologies over the past decade were in-
cluded, while those that focused exclusively on specific technical aspects, such as algo-
rithms or simulations, were excluded.
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Tabla 2. Quality Assessment Questions
Quality Assessment Questions Answer
Does the article describe technologies developed for
use in military operations?
(+1) S
´
ı / (+0) No
Does the paper address the impacts of these
technologies on the effectiveness of defense
operations?
(+1) S
´
ı / (+0) No
Does the document include analyses of the ethical
and social implications associated with emerging
technologies?
(+1) S
´
ı / (+0) No
Does the publication belong to a journal indexed in
SJR?
(+1) Q1, (+0.75) Q2, (+0.5)
Q3, (+0.25) Q4, (+0.0) Not
classified
A. Inclusion criteria
Scientific articles, systematic reviews, technical reports, and case studies that addressed
technologies applied to the optimization of soldiers’ capabilities in military contexts, such
as wearable devices, intelligent solutions, and extended reality technologies (AR, VR,
and MR), were included for this study. The selected documents were published between
2015 and 2025, in English or Spanish, and were available in full text through recognized
databases such as Scopus, Web of Science, Taylor & Francis, ScienceDirect, and IEEE
Xplore, thus guaranteeing the quality and timeliness of the information analyzed.
B. Exclusion Criteria
Those documents, which despite addressing emerging technologies such as wearables or
extended reality, did not have a direct application in the military field or in the devel-
opment of capabilities for future soldiers, were excluded. Likewise, publications of an
informative nature, reports without peer review, press releases, blogs and non-academic
books were discarded. Duplicate documents or preliminary versions, as well as studies
published before 2015, were also eliminated, as they were considered obsolete for the
purpose of this analysis.
III. RESULTS
Technologies applied to the military field have multiple characteristics, impacts, and
considerations in their use. In this section, the most representative advances, applica-
tions, and a description of their potential for defense activities are described.
A. Technological developments for the soldiers of the future
This section describes the technological advances that are redefining the operational ca-
pabilities of modern soldiers, offering innovative solutions that strengthen their perfor-
mance and adaptability in complex scenarios. Technologies such as exoskeletons, robotic
suits, augmented reality (AR), advanced biotechnology, 5G networks, and autonomous
drones have established themselves as key tools in improving safety, efficiency, and effec-
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Fig. 2. Selection process of articles included in the study according to PRISMA® methodology.
tiveness on the battlefield [5][3][6]. Its applications, classifications and the ethical impli-
cations of its implementation are discussed below. Figure 3 summarizes and categorizes
the technological advances addressed in this section.
Exoskeletons and robotic suits
The development of exoskeletons represents one of the most relevant advances in the
physical strengthening of the modern soldier. These devices are designed to enhance
strength, endurance, and stability, thereby minimizing muscle fatigue during prolonged
operations and optimizing the combatant’s energy efficiency. A prominent example is
Lockheed Martin’s ONYX Exoskeleton, which provides active knee support, improving
mobility in challenging terrain and reducing muscle fatigue under prolonged load condi-
tions ??. Recent studies have shown that the use of exoskeletons, such as the ONYX, not
only increases load capacity and reduces wear but also significantly decreases metabolic
demand during walking, thereby increasing operational efficiency [7].
The new generation of robotic suits incorporates advanced biometric sensors for real-
time monitoring of vital signs, thereby enhancing both performance and risk prevention
during missions [8] (Figure 4). Additionally, soft exosuits offer greater flexibility and
comfort, enabling extended use in demanding environments and broadening their tacti-
cal applications [9].
Artificial intelligence
Artificial intelligence (AI) is reshaping military operations by improving decision-making,
real-time data analysis, and automating tactical tasks. It enables predictive threat anal-
ysis, multi-sensor detection, and action recommendations for units [10]. AI-powered
drones and robots enhance reconnaissance and logistics with minimal human input,
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Fig. 3. Emerging technologies identified for use by soldiers in tactical and defense operations.
while sensor fusion creates real-time 3D battlefield views, improving awareness and re-
ducing errors [11]. Ethical concerns include accountability and algorithmic bias. Figure
4 shows portable technologies such as physiological monitors, drones, communication
power sources, and exoskeletons for mobility and protection.
Augmented and mixed realitye
Augmented reality (AR) and mixed reality (MR) have established themselves as key tech-
nologies to optimize tactical perception and operational efficiency in military environ-
ments. Advanced devices, such as the Microsoft HoloLens 2, allow strategic maps, evacu-
ation routes, intelligence data, and critical environmental elements to be overlaid directly
into the soldier’s field of vision, significantly improving real-time decision-making [12].
The integration of these technologies facilitates the projection of 3D images and iden-
tification systems of enemies and allies, reducing cognitive overload in high-pressure
situations. Through intelligent Head-Up Displays (HUDs), soldiers receive immediate
alerts, strategic updates, and mission orders, thereby increasing their situational aware-
ness and ability to respond quickly and accurately.
Fig. 4. Wearable devices for vital signs monitoring with the use of smart clothes, robots, and
multiple sensors.
Virtual reality (VR) is widely used in military training, recreating realistic combat
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scenarios where soldiers practice skills like threat detection, navigation, and rescue op-
erations. Studies show that incorporating VR and augmented reality (AR) significantly
enhances tactical skill retention, mental resilience, and adaptability [11]. These immer-
sive simulations provide high-fidelity environments that improve training effectiveness.
Biotechnology applied to the military field
Military biotechnology is reshaping how soldiers’ health, performance, and recovery are
managed in demanding scenarios. It includes advanced biometric sensors, gene ther-
apies, and stress biomarkers to monitor and enhance physical and cognitive functions.
Portable or implantable sensors track heart rate, oxygen saturation, hydration, and fa-
tigue in real time, improving tactical and medical decisions [13][14]. Their use also ac-
celerates recovery, reduces downtime, and increases troop availability in prolonged mis-
sions.
Gene therapy research explores ways to boost muscle endurance, speed up injury
recovery, and improve cognitive adaptability in hostile settings. Tools like CRISPR are
under evaluation to enhance physiological responses to extreme stress [15].
Early detection of stress biomarkers helps anticipate performance decline, aiding team
management and mission planning. However, these advances raise ethical concerns
around genetic modification, consent, and long-term effects. Thus, while biotechnology
expands human potential, its application demands clear ethical frameworks and trans-
parency.
Brain-Computer Interfaces (BCI)
Brain-Computer Interfaces (BCIs) are among the most disruptive technologies in today’s
military, enabling control of devices via neural signals without physical movement. Their
use demands strict safety protocols and ethical oversight to ensure responsible deploy-
ment.
In combat, BCIs improve reaction time, silent communication, and control of au-
tonomous systems—critical for high-demand missions [16]. DARPA has shown their
potential in managing drones, robots, and weapons with neural commands, reducing la-
tency. BCIs also monitor soldiers’ cognitive and emotional states in real time, enabling
early responses to fatigue or stress, vital for sustained operations [17]. Strategically, BCIs
could transform military capabilities and future warfare dynamics [18]. However, they
raise ethical concerns around mental privacy, consent, and cybersecurity. Strong ethical
frameworks are essential for their responsible integration [19].
Nanotechnology and smart materials
Nanotechnology and smart materials are transforming soldiers’ protection, mobility, and
adaptability in demanding environments. Their integration raises concerns about sus-
tainability, cost, and long-term toxicity, requiring strict regulation and safety protocols.
Key applications include smart fabrics in uniforms with self-healing, adaptive camou-
flage, and temperature regulation, enhancing survivability and comfort in extreme con-
ditions [20]. Nanotech also enables ultra-light, high-resistance armor made from carbon
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and graphene nanotubes, offering superior ballistic protection with less weight [11].
Nanosensors embedded in gear detect chemical, biological, and radiological threats in
real time, improving tactical responses. Research is advancing implantable nanodevices
for monitoring physiological data and delivering drugs in response to fatigue or injury.
Together, these innovations are central to strengthening future soldiers’ protection and
operational resilience.
5G Networkss
5G networks have enabled faster and more reliable connectivity on the battlefield, facil-
itating communication between units and the handling of advanced technological sys-
tems such as augmented reality devices and biometric sensors. This technology offers
low latency and high data transmission capacity, improving coordination and real-time
decision-making. In addition, 5G networks enable the efficient control of autonomous
drone swarms and the integration of advanced artificial intelligence systems for tactical
and strategic operations, increasing effectiveness in critical missions.
Tabla 3. Technologies, applications, benefits, and potential risks of using technologies for
soldiers in the armed forces.
Technology Applications Benefits Potential risks
Exoskeletons Physical assistance,
load support
Increased strength,
reduced fatigue
Mechanical failures,
technological
dependence
Augmented
reality (AR)
Tactical
visualization,
immersive training
Better situational
awareness, effective
training
Cognitive overload,
misinterpretation
Artificial
intelligence (AI)
Image analysis,
threat prediction
Quick decisions,
early detection
Data biases,
cyberattacks
Bioengineering Muscle and
cognitive
optimization
Greater resistance,
better recovery
Ethical dilemmas,
unforeseen effects
Brain–computer
interface (BCI)
Device control by
thought
Speed of
communication,
tactical advantage
Risk of invasion of
mental privacy
Nanotechnology
and Smart
materials
Ballistic protection,
climate adaptability
Lighter armor,
self-healing fabrics
High costs,
vulnerability in
extreme conditions
Autonomous drones and smart swarms
Autonomous drones are transforming military operations by enabling surveillance, re-
connaissance, and logistical support missions with minimal human intervention. Equipped
with artificial intelligence, these devices are not only capable of operating synchronously
in swarms but also of adapting to changes in real-time, optimizing coverage in the field
and significantly improving operational efficiency [21].
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Precision Laser Weapons
The development of laser weapons has expanded defensive and offensive capabilities by
allowing the neutralization of threats with high accuracy and minimal collateral dam-
age. These tools are crucial for countering airstrikes and safeguarding vital battlefield
facilities [22].
A. Impact of the use of technologies on the soldiers of the future
The use of these technologies has improved the efficiency, safety, and operational perfor-
mance of soldiers. For example, drone swarms enable the execution of complex tactical
missions more effectively [21], while biometric sensors monitor troops’ health in real-
time, preventing medical emergencies [12]. Additionally, AR and MR enhance training
by simulating real-time combat environments.
5G networks and autonomous drones have optimized communication and reconnais-
sance in missions, reducing risks and maximizing the success of operations. These tools
also increase the ability to respond to unforeseen threats, strengthening the adaptability
of troops [8].
B. Challenges in the use of technologies
The implementation of these technologies presents significant challenges. These include
the high costs of development and implementation, as well as the need for specialized
technical training for its effective use [5]. Ethical concerns also arise related to biomet-
ric data privacy and technological dependency, which could compromise autonomy in
critical decisions.
The integration of AI into autonomous systems poses risks associated with potential
errors in decision-making that occur without human intervention. This requires clear
regulatory frameworks and strict oversight to ensure the safe and ethical use of these
advanced tools.
C. Prospects of the technology use in soldiers of the future
The future of military operations will be marked by the integration of even more ad-
vanced technologies. The use of artificial intelligence (AI) is expected to extend to pre-
dictive systems capable of anticipating threats and providing more accurate real-time
analytics [16]. In addition, biometric sensors will evolve into predictive devices capable
of analyzing complex physiological patterns and anticipating health issues before they
manifest.
Another expected advance is the adoption of 6G networks, which will offer higher
speed and lower latency, allowing instant and coordinated communication between sol-
diers and autonomous systems [11]. Likewise, the development of lighter and stronger
materials for exoskeletons will further improve soldiers’ mobility and endurance on the
battlefield.
International collaboration will be essential to establish ethical and normative stan-
dards to guide the responsible development of these technologies. Clear regulations and
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multilateral agreements will ensure their sustainable implementation, minimizing risks
and maximizing benefits in the field.
D. Discussion
Emerging technologies—exoskeletons, robotic suits, BCIs, AR, AI, 5G, and autonomous
drones—are redefining modern soldiers by enhancing individual performance and col-
lective efficiency for faster, more adaptable deployments. However, their use raises ethi-
cal and strategic concerns. Biometric data, autonomous systems, and sensitive informa-
tion require regulations to protect privacy, ensure consent, and uphold human judgment.
Technological dependence also increases vulnerability to cyberattacks and system errors.
These innovations impact not only defense but also civilian sectors like biotech and
communications, while raising fears of warfare dehumanization and widening geopo-
litical gaps. Future advances—such as miniaturized exoskeletons, 6G, accessible BCIs,
and predictive AI—offer tactical benefits but increase systemic risks and bioethical chal-
lenges.
The future soldier goes beyond technology integration, using smart sensors, visors,
laptops, and GPS to enhance real-time decision-making. Yet, prolonged conflicts may
degrade capabilities, demanding versatile soldiers skilled in combat, stabilization, nego-
tiation, and reconstruction.
Ethical dilemmas emerge with enhancing drugs, neurotech, and genetic modifica-
tions, particularly around consent and long-term health risks [15]. In a volatile global
landscape, developing cognitive skills, emotional resilience, and tactical adaptability is
crucial. Programs like the Comprehensive Soldier Fitness Program highlight the role of
psychological strength in high-stress missions. Thus, technological advancement must
be balanced with strategies that ensure operational resilience, protect human capabili-
ties, and promote ethical reflection on the limits of military innovation.
CONCLUSIONS
The integration of emerging technologies—exoskeletons, AI, advanced communica-
tions, and extended reality—is redefining the modern soldier’s capabilities. This synergy
boosts tactical efficiency and real-time decision-making in complex, rapidly evolving sce-
narios. However, it also demands rethinking the human role in warfare, emphasizing
physical, cognitive, and emotional resilience.
Military technological progress must be guided by ethical and strategic frameworks
that protect human autonomy, particularly in areas like neurotechnology and genetic
modification. Organizational resilience and long-term adaptability must be preserved to
avoid overreliance on automation, ensuring readiness in low-tech or failure-prone envi-
ronments. Innovation must align with principles of proportionality, transparency, and
responsibility.
Future soldiers must be trained not only in advanced technologies but also in emo-
tional resilience, technical expertise, and ethical reasoning. A holistic approach is essen-
tial to navigate highly automated and digitized combat settings, where human-machine
collaboration will reshape the future of warfare and global security.
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ACKNOWLEDGEMENT
We would like to express our sincere gratitude to the academic institution Polytechnic
University of Puerto Rico for the support and guidance throughout the development of
this review. Their assistance has been relevant in influencing the success of this work.
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AUTHORS
Major of Infantry Edison Ra
´
ul Luna Delgado, Ecuadorian Army, Training Cen-
ter 31 ”CARCHI”. Master’s in Socio-productive Project Management, Uni-
versidad Tecnol
´
ogica Indoam
´
erica (Ecuador). Bachelor’s in Military Sciences,
Army Polytechnic School (Ecuador).
Captain of Infantry Patricio Alexander Cata
˜
na Mu
˜
noz, Ecuadorian Army, In-
fantry Battalion No. 39 ”MAYOR GALO MOLINA”. PhD in Public Policy,
Universidad Anglo Hispano Mexicana (Mexico). Master’s in Political Science
with a mention in Public Policy, Universidad Particular de Loja (Ecuador).
Luna Edison. et al. Advances in Technologies for the Soldiers of the Future
41
ISSN-e: 2737-6419
Period: April-June 2025
Athenea Journal
Vol.6, Issue 20, (pp. 29-42)
Lieutenant of Infantry Jos
´
e Antonio Calder
´
on Rosero, Ecuadorian Army, Hu-
man Resources Officer of BIMOT 39 ”MAYOR GALO MOLINA”. Master’s
in Human Capital and People Development, Specialization in Digital Trans-
formation of Technological Media, Catholic University of Murcia (Spain).
Second Lieutenant of Communications Miguel Alejandro Ponce Galarza,
Ecuadorian Army, Commander of the Communications Platoon of BIMOT 39
”MAYOR GALO MOLINA”. Master’s in Cybersecurity, Universidad Pac
´
ıfico
(Ecuador). Diploma in Expert in Risk Control and Information Security, Uni-
versidad Europea (Spain).
Luna Edison. et al. Advances in Technologies for the Soldiers of the Future
42