What Is Cybersecurity Army Explained Clearly

Published

what is cybersecurity army
Table of Contents

The term cybersecurity army represents a structured and evolving force blending military precision with digital warfare capabilities. Originating from state-sponsored cyber operations, its modern iterations now encompass civilian, hybrid, and even private sector frameworks designed to counter sophisticated cyber threats. This convergence of offensive, defensive, and intelligence units reflects a paradigm shift where traditional boundaries between warfare and digital security dissolve. Governments, corporations, and even non-state actors now deploy specialized teams to navigate an increasingly complex cyber battlefield.

At its core, a cybersecurity army operates as a multi-disciplinary entity, integrating technical expertise with strategic decision-making to neutralize adversarial cyber activities. From the clandestine operations of intelligence agencies like NSA TAO to the tactical maneuvers of corporate red teams, these units adapt tools, methodologies, and legal frameworks to align with their operational objectives. The distinction between authoritarian regimes—where cyber operations often serve as instruments of state control—and democratic nations, which emphasize ethical constraints and international cooperation, underscores the geopolitical dimensions of this field. Understanding these dynamics is essential for grasping how cybersecurity armies shape contemporary security landscapes.

what is cybersecurity army

Definition and Core Concepts of Cybersecurity Army

The term "cybersecurity army" refers to a structured, organized framework of personnel, technologies, and operational protocols designed to conduct cyber operations—whether offensive, defensive, or intelligence-driven. Originating from military cyber warfare units (e.g., NSA’s Tailored Access Operations, GCHQ’s Joint Threat Research Intelligence Group), the concept has expanded into civilian, hybrid, and state-sponsored entities. These entities now include corporate red teams, hacktivist collectives, and national cyber commands, reflecting the evolving nature of cyber conflict in the digital age.

The evolution of cybersecurity armies mirrors broader shifts in geopolitical strategy, technological advancement, and the privatization of cyber capabilities. Early military cyber units focused on signal intelligence (SIGINT) and electronic warfare, while modern iterations integrate artificial intelligence, quantum computing, and automated threat response systems. Civilian and hybrid models, such as those employed by private cybersecurity firms or activist groups, operate under different legal and ethical constraints, often blurring the lines between state and non-state actors.

Origins and Evolution of Cybersecurity Armies

The concept of a "cybersecurity army" traces back to the Cold War era, when nations like the U.S. and USSR established specialized units for electronic warfare and intelligence gathering. The National Security Agency (NSA) in the U.S. and GCHQ in the UK pioneered cyber operations, transitioning from manual interception to large-scale digital espionage. The Stuxnet attack (2010), a joint U.S.-Israeli operation targeting Iran’s nuclear program, marked a turning point, demonstrating the weaponization of cyber capabilities as a strategic tool.

In the 2010s, the rise of hacktivist groups (e.g., Anonymous, LulzSec) and cyber mercenaries (e.g., NSO Group’s Pegasus spyware) introduced non-state actors into the cybersecurity landscape. Meanwhile, authoritarian regimes like China and Russia formalized cyber operations under military structures, such as China’s Strategic Support Force (SSF) and Russia’s GRU Unit 26165. These developments led to a hybrid model, where state-sponsored and private-sector cyber capabilities coexist, often overlapping in operations.

"Cybersecurity armies are no longer confined to military silos; they now encompass a spectrum of actors—from nation-states to freelance hackers—operating under varying degrees of transparency and accountability."

Key Roles Within a Cybersecurity Army

A cybersecurity army comprises specialized units with distinct functions, categorized into offensive, defensive, and intelligence operations. Below is a structured breakdown of core roles, their primary functions, and required skills:
Role Name Primary Function Key Skills
Offensive Cyber Operations (OCO) Conduct penetration testing, exploit development, and cyber attacks against adversarial systems. Exploit development, malware reverse engineering, social engineering, zero-day research.
Defensive Cyber Operations (DCO) Protect critical infrastructure, detect intrusions, and mitigate cyber threats in real-time. Incident response, threat hunting, network forensics, SIEM administration.
Cyber Intelligence (CI) Gather and analyze digital intelligence (e.g., malware attribution, adversary TTPs). OSINT, malware analysis, threat intelligence sharing, behavioral analysis.
Red Team / Blue Team
  • Red Team: Simulates adversarial attacks to test defenses.
  • Blue Team: Defends systems against red team simulations.
  • Red Team: Adversarial thinking, lateral movement, persistence techniques.
  • Blue Team: SOC operations, digital forensics, threat detection.
Cyber Warfare Command (CWC) Strategic oversight of cyber operations, policy alignment, and cross-agency coordination. Strategic planning, legal compliance, interagency liaison, risk assessment.
The offensive-defensive balance varies by entity: military units prioritize denial and deception, while corporate red teams focus on improving resilience. Intelligence units, such as the NSA’s TAO, specialize in long-term surveillance and attribution, whereas hacktivist groups may prioritize disruption over intelligence gathering.

Distinction Between Military and Civilian Cybersecurity Armies

Military cyber units (e.g., NSA TAO, GCHQ, Russia’s Fancy Bear) operate under classified mandates, with access to classified tools and infrastructure. Their operations are governed by national security directives, often with minimal public oversight. In contrast, civilian cybersecurity armies—such as corporate red teams, hacktivist collectives, or cyber mercenaries—function under commercial or ideological motivations.

Key differences include:

  • Legal Framework:
  • Military units adhere to international laws (e.g., Geneva Conventions, UN Cyber Norms) and domestic intelligence statutes.
  • Civilian groups may operate in legal gray areas, exploiting vulnerabilities without formal authorization.
  • Ethical Constraints:
  • State actors are bound by rules of engagement, whereas hacktivists may engage in unauthorized access or data leaks under moral justifications.
  • Resource Access:
  • Military units leverage classified budgets and zero-day exploits, while private firms rely on commercial tools and crowdsourced intelligence.
    • "The line between military cyber operations and civilian cyber activities has blurred, with private-sector firms (e.g., Palantir, CrowdStrike) now assisting governments in cyber defense—raising questions about accountability and dual-use technologies."

    Comparative Analysis: Authoritarian vs. Democratic Cybersecurity Armies

    Authoritarian regimes (e.g., China, Russia, North Korea) employ cybersecurity armies as tools of state control, often integrating them into military or intelligence structures. Democratic nations (e.g., U.S., UK, France) operate under transparency and legal constraints, with cyber operations subject to parliamentary oversight and public scrutiny.
    AspectAuthoritarian RegimesDemocratic Nations
    Legal FrameworkOperate under secrecy laws, minimal oversight.Governed by democratic oversight, transparency laws.
    Ethical GuidelinesNo restrictions on domestic surveillance.Bound by human rights laws, privacy protections.
    Target PrioritiesDomestic dissent, foreign adversaries.State actors, criminal syndicates, foreign threats.
    Example EntitiesChina’s SSF, Russia’s GRU Unit 26165.U.S. Cyber Command, UK’s NCSC.
    Public PerceptionDenied or justified as "national security".Scrutinized, subject to investigative journalism.
    Authoritarian cyber armies often engage in aggressive offensive operations, such as:
  • China’s APT41 (targeting global corporations for IP theft).
  • Russia’s Cozy Bear (disinformation campaigns and election interference).
  • North Korea’s Lazarus Group (cyber heists for state funding).

    • Democratic nations, conversely, emphasize defensive postures and attribution transparency, as seen in:

  • The U.S. indictment of Russian GRU officers for the 2016 election interference.
  • The UK’s NCSC’s attribution of SolarWinds attacks to Russia.
    • "While democratic nations adhere to cyber norms, authoritarian regimes exploit ambiguity in international law to conduct large-scale cyber espionage and sabotage with impunity."

    Hierarchical Structure of a Hypothetical Cybersecurity Army

    A hypothetical cybersecurity army would follow a multi-tiered command structure, integrating strategic, operational, and tactical levels. Below is a flowchart-style breakdown of decision-making processes during cyber conflicts:

    1. Strategic Layer (Political & Policy Oversight)

  • National Cyber Command (NCC)

    • what is cybersecurity army - Ilustrasi 2

    Skills and Training Requirements for Cybersecurity Army Members

    The effectiveness of a Cybersecurity Army depends on the integration of specialized technical expertise with adaptable operational skills, mirroring the demands of modern cyber warfare. Members must possess a hybrid skill set—ranging from advanced digital forensics to psychological manipulation—that aligns with both offensive and defensive cyber operations. This section categorizes essential skills into hard (technical) and soft (non-technical) domains, outlines a structured 6-month training pipeline, and examines real-world methodologies employed by elite cyber units. The integration of physical and cyber training further ensures operational readiness in high-stakes environments.

    Categorization of Hard and Soft Skills for Cybersecurity Army Roles

    Cybersecurity army members require a multi-disciplinary skill matrix to execute missions across cyber espionage, offensive operations, threat intelligence, and digital counterterrorism. Hard skills form the technical backbone, while soft skills enable mission adaptability, deception, and crisis management. Below is a structured breakdown:

    Hard Skills (Technical Proficiency)
    These skills are critical for executing cyber operations, reverse engineering, and threat mitigation. Mastery is typically validated through certifications (e.g., OSCP, CISSP) or hands-on experience.

    - Offensive Cyber Operations

  • Exploit development (e.g., memory corruption, zero-day discovery)
  • Malware analysis and reverse engineering (IDA Pro, Ghidra, Radare2)
  • Network penetration testing (Metasploit, Cobalt Strike, custom payloads)
  • Post-exploitation techniques (C2 frameworks like Sliver, Mythic)

    • - Defensive Cyber Operations

  • Intrusion detection/prevention systems (Snort, Suricata, Zeek)
  • Threat hunting (SIEM tools like Splunk, ELK Stack, custom YARA rules)
  • Secure coding practices (OWASP Top 10, SAST/DAST tools)
  • Incident response (playbooks for ransomware, APT mitigation)

    • - Threat Intelligence and OSINT

  • Dark web monitoring (Tor, I2P, cryptocurrency tracking)
  • Geolocation and metadata analysis (Maltego, SpiderFoot)
  • Adversary simulation (Red Teaming, Purple Teaming)
  • Automated intelligence gathering (Scrapy, Python-based OSINT tools)

    • - Digital Forensics and Counter-Forensics

  • Disk and memory forensics (Volatility, Autopsy, FTK)
  • Anti-forensics techniques (fileless malware, steganography)
  • Mobile device forensics (Android/iOS extraction tools)
  • Chain of custody documentation for legal admissibility

    • Soft Skills (Operational and Psychological)
    Soft skills are often underemphasized but critical for mission success, particularly in deception, psychological warfare, and cross-functional teamwork.

    - Deception and Social Engineering

  • Crafting believable phishing campaigns (Gophish, SET)
  • Voice and video manipulation (deepfake detection/creation)
  • Psychological profiling of targets (OSINT-driven behavioral analysis)
  • Covert communication (dead drops, steganography in social media)

    • - Crisis Communication and Leadership

  • High-pressure decision-making under uncertainty
  • Cross-agency coordination (e.g., with law enforcement or military units)
  • Media and public relations management (controlling information leaks)
  • Ethical dilemmas in cyber operations (e.g., collateral damage, attribution)

    • - Adaptability and Resilience

  • Rapid skill acquisition in dynamic threat landscapes
  • Handling burnout and long-term operational stress
  • Cultural and linguistic adaptability (e.g., for foreign operations)
  • Ethical hacking and legal gray areas (navigating cyber law ambiguities)

    • Designing a 6-Month Training Program for Cybersecurity Army Recruits

    A structured 6-month training pipeline must balance theoretical knowledge, hands-on labs, and real-world simulations to produce operationally ready cyber operatives. The program is divided into three phases: foundational training, specialized modules, and mission-ready simulations. Each phase includes assessments, red-teaming exercises, and mentorship to ensure proficiency.

    Phase 1: Foundational Cybersecurity and Legal Framework (Months 1-2)
    Objective: Establish core technical skills and legal awareness to prevent liability in operations.

    - Module 1: Cybersecurity Fundamentals

  • Networking and system architecture (TCP/IP, DNS, VPNs, firewalls)
  • Cryptography basics (symmetric/asymmetric encryption, hashing, PKI)
  • Linux/Windows administration (scripting, privilege escalation)
  • Virtualization and sandboxing (VMware, QEMU, Docker)

    • - Module 2: Cyber Law and Ethical Hacking

  • International cyber laws (e.g., CFAA, EU NIS Directive, Russian "Sovereign Internet")
  • Rules of engagement for offensive operations
  • Attribution challenges and legal risks (e.g., false flags)
  • Case studies: Stuxnet, NotPetya, SolarWinds (legal and ethical implications)

    • - Module 3: Introduction to Offensive Security

  • Basic exploitation (buffer overflows, SQLi, XSS)
  • Reconnaissance techniques (Nmap, theHarvester, Shodan)
  • Hands-on labs: Capture-the-Flag (CTF) challenges (e.g., Hack The Box, TryHackMe)

    • Phase 2: Specialized Cyber Operations (Months 3-4)
    Objective: Deep dive into offensive, defensive, and forensic specializations with tactical applications.

    - Module 4: Advanced Exploitation and Malware Development

  • Memory corruption (stack/heap overflows, ROP chains)
  • Custom malware (C++, Python, Go; evasion techniques)
  • Anti-virus evasion (packing, polymorphism, living-off-the-land)
  • Case study: Analysis of real-world malware (e.g., Emotet, TrickBot)

    • - Module 5: Social Engineering and Psychological Operations (PSYOP)

  • Human hacking (phishing, vishing, pretexting)
  • Dark web operations (Bitcoin tracking, Tor network exploitation)
  • Influence operations (disinformation campaigns, meme warfare)
  • Psychological profiling (OSINT-driven target analysis)

    • - Module 6: Digital Forensics and Counter-Forensics

  • Memory and disk forensics (Volatility, Autopsy)
  • Mobile forensics (iOS/Android extraction, WhatsApp/Telegram analysis)
  • Anti-forensics (fileless attacks, timestamp manipulation)
  • Legal admissibility of digital evidence (chain of custody)

    • Phase 3: Mission-Ready Simulations and Red Teaming (Months 5-6)
    Objective: Transition from theoretical knowledge to real-world operational scenarios under controlled conditions.

    - Module 7: Red Teaming and Adversary Simulation

  • Full-spectrum penetration testing (physical + cyber)
  • Breach-and-simulate exercises (e.g., compromising a mock corporate network)
  • Defense evasion (bypassing EDR/XDR, living-off-the-land techniques)

    • - Module 8: Blue Teaming and Incident Response

  • SOC operations (SIEM alerts, threat hunting)
  • Ransomware response playbooks
  • Cyber kill chain mitigation (Lockheed Martin framework)

    • - Module 9: Integrated Physical-Cyber Training

  • Lockpick simulations: Combining physical access (e.g., bypassing biometrics) with cyber exploitation (e.g., extracting credentials from a compromised system).
  • Tactical cyber drills: Hacking a vehicle’s ECU during a mock raid or disabling a drone’s GPS signal mid-flight.
  • Psychological stress testing: Simulating high-pressure scenarios (e.g., real-time patching under DDoS while communicating with a "captured" ally).

    • - Final Assessment: Capture-the-Flag (CTF) Olympics

  • Blue Team vs. Red Team: Teams compete to defend or attack a live network.
  • Forensic Challenge: Reconstructing an attack from partial logs.
  • PSYOP Scenario: Crafting a disinformation campaign to mislead an adversary.

    • Real-World Training Methodologies from Elite Cyber Units

    Elite cyber units (e.g., Russian GRU Unit 26165, Israeli Unit 8200, U.S. Cyber Command) employ highly specialized training methodologies that blend cyber, physical, and psychological tactics. Below are adaptable techniques derived from declassified reports and open-source intelligence:

    - Lockpick and Physical Penetration Integration

  • Russian GRU: Operatives train in lockpicking, safecracking, and bypassing biometric systems while simultaneously extracting data from compromised devices (e.g., USB drops, keyloggers).
  • Adaptation: Use arduino-based lockpick simulations paired with cyber challenges (e.g., "Extract the password from this laptop within 10 minutes of physical access").

    • - Capture-the-Flag (CTF

    Tools, Technologies, and Infrastructure of Cybersecurity Armies

    Cybersecurity armies—whether state-sponsored, private military contractors, or elite hacking collectives—operate using a sophisticated ecosystem of tools, technologies, and infrastructure tailored for offensive, defensive, and intelligence operations. These resources are meticulously designed to evade detection, scale attacks, and sustain prolonged campaigns. The integration of hardware, software, and networked infrastructure enables cybersecurity armies to execute operations ranging from targeted espionage to large-scale disruptive attacks, often mirroring traditional military tactics in the digital domain. Below, the categorization of tools, deployment strategies for infrastructure, and adaptations of the cyber kill chain for military-grade operations are examined.

    Categorization of Tools and Technologies

    Cybersecurity armies employ a diverse arsenal of tools, segmented into three primary categories: offensive, defensive, and intelligence. Each category serves distinct operational objectives, with tools often overlapping in functionality or being repurposed based on mission requirements. Offensive tools prioritize exploitation and intrusion, defensive tools focus on detection and mitigation, while intelligence tools gather and analyze data to inform decision-making.
    Offensive tools disrupt systems; defensive tools harden them; intelligence tools map the battlefield.
    Offensive Tools
    Used for penetration testing, exploitation, and attack simulation, these tools often mimic adversary tactics to identify vulnerabilities or execute real-world operations. Examples include:
  • Exploitation Frameworks: Metasploit (open-source), Cobalt Strike (commercial), and BloodHound (Active Directory attack path mapping).
  • Post-Exploitation: Mimikatz (credential dumping), PowerSploit (PowerShell-based attacks), and Empire (C2 framework).
  • Network Scanning: Nmap (port scanning), Masscan (high-speed scanning), and Shodan (IoT/device discovery).
  • Payload Generation: Veil-Framework (custom malware), Shellter (EXE file infector), and Metasploit’s `msfvenom`.

    • Defensive Tools
    Deployed to monitor, detect, and respond to cyber threats, these tools are critical for incident response and threat hunting. Key examples include:

  • Endpoint Detection and Response (EDR): CrowdStrike Falcon, SentinelOne, and Microsoft Defender ATP.
  • Security Information and Event Management (SIEM): Splunk, IBM QRadar, and ELK Stack (Elasticsearch, Logstax, Kibana).
  • Network Traffic Analysis (NTA): Zeek (formerly Bro), Suricata (IDS/IPS), and Darktrace (AI-driven anomaly detection).
  • Threat Intelligence Platforms: MISP (Malware Information Sharing Platform), AlienVault OTX, and Recorded Future.

    • Intelligence Tools
    Focused on reconnaissance, threat mapping, and data correlation, these tools provide the foundational intelligence for both offensive and defensive operations. Notable tools include:

  • Open-Source Intelligence (OSINT): Maltego (link analysis), theHarvester (email/domain reconnaissance), and SpiderFoot (automated OSINT).
  • Dark Web Monitoring: Tor-based tools (e.g., Tor2Web proxies), OnionShare (anonymous file sharing), and Darknet market analysis platforms.
  • Threat Hunting: YARA (malware classification), Sigma (log-based detection rules), and MITRE ATT&CK Navigator (tactic/technique mapping).

    • Deployment and Management of Large-Scale Infrastructure

    Cybersecurity armies rely on scalable, resilient infrastructure to support operations such as command-and-control (C2), proxy routing, and covert communications. This infrastructure is often distributed across multiple jurisdictions to obscure origins and evade attribution. Below is a technical breakdown of key components and their deployment strategies:

    1. Command-and-Control (C2) Servers
    C2 infrastructure enables attackers to maintain persistence, issue commands, and exfiltrate data post-compromise. Modern cybersecurity armies employ hybrid models combining traditional C2 with cloud-based and peer-to-peer (P2P) architectures.

    - Traditional C2 (Server-Based)

  • Deployment: Hosted on compromised servers (e.g., via botnets) or rented cloud instances (AWS, Azure, DigitalOcean).
  • Stealth Techniques:
  • Domain Generation Algorithms (DGAs) to evade takedowns.
  • Fast Flux DNS to dynamically route traffic through multiple IPs.
  • Encrypted channels (TLS, custom protocols) to obscure payloads.
  • Examples: Cobalt Strike’s C2, Sliver, and custom Python-based C2 frameworks (e.g., Poseidon).

    • - Cloud-Based C2

  • Deployment: Leverages legitimate cloud services (e.g., AWS S3 buckets, Azure Blob Storage) to blend with normal traffic.
  • Stealth Techniques:
  • Abuse of serverless architectures (AWS Lambda, Azure Functions).
  • Use of legitimate APIs (e.g., Microsoft Graph, Google Drive) for C2 communications.
  • Examples: CloudBrute (AWS-based C2), DanderSpritz (CISA’s red-team tool for cloud environments).

    • - Peer-to-Peer (P2P) C2

  • Deployment: Decentralized networks (e.g., BitTorrent, I2P) to avoid single points of failure.
  • Stealth Techniques:
  • Dynamic peer selection to prevent sinkholing.
  • Encrypted overlay networks (e.g., Tor, I2P) for anonymity.
  • Examples: TrickBot’s P2P modules, custom implementations using libp2p.

    • 2. Proxy Networks and Anonymization
    Proxy chains and anonymization tools are critical for masking the origin of traffic and evading geolocation-based blocking.

    - Multi-Hop Proxies

  • Tools: Tor (The Onion Router), I2P (Invisible Internet Project), and VPN chains (e.g., ProtonVPN + Mullvad).
  • Deployment:
  • Tor: Used for exit nodes with custom exit policies to filter malicious traffic.
  • VPN Chains: Sequential tunneling (e.g., SSH + VPN + Tor) to obscure IP traces.
  • Advanced Techniques:
  • Domain Fronting: Routing traffic through legitimate domains (e.g., Google, Microsoft) to bypass censorship.
  • DNS Tunnels: Encoding data in DNS queries (e.g., Iodine, DNSExfiltrator).

    • 3. Darknet Communications
    Darknet environments (e.g., Tor, I2P, Freenet) provide platforms for covert coordination, data exfiltration, and secure messaging.

    - Tor Network

  • Use Cases:
  • Hosting C2 servers on `.onion` domains.
  • Exfiltrating data via Tor hidden services (e.g., using `stem` or `onionShare`).
  • Tools: Tor Browser, OnionShare (file sharing), and custom Tor-based C2 frameworks.

    • - I2P (Invisible Internet Project)

  • Use Cases:
  • Decentralized C2 with built-in encryption.
  • Anonymous file sharing (e.g., I2P’s "eepsites").
  • Tools: I2P Router Console, Susimail (anonymous email).

    • - Freenet

  • Use Cases:
  • Resilient data storage (e.g., storing malware samples or logs).
  • Censorship-resistant communications.
  • Tools: Freenet’s Darknet nodes, custom plugins for data hiding.

    • Cyber Kill Chain Adapted for Military Use

    The Cyber Kill Chain, originally developed by Lockheed Martin, is a phased model describing the stages of a cyber attack. Cybersecurity armies adapt this model to align with military objectives, incorporating tactical persistence, deniability, and scalable disruption. Below is the modified kill chain with military-specific tactics:
    The military cyber kill chain extends traditional phases with deception, long-term persistence, and strategic impact as primary objectives.
    1. Reconnaissance
  • Traditional: Gathering information on targets (e.g., OSINT, network scans).
  • Military Adaptation:
  • Active Reconnaissance: Large-scale scanning (e.g., using Masscan or Shodan) to identify critical infrastructure.
  • Social Engineering: Spear-phishing campaigns targeting high-value personnel (e.g., using GOOGLEFINCH or COPPERHEDGE).
  • Supply Chain Attacks: Compromising third-party vendors (e.g., SolarWinds, Kaseya) to gain access to multiple organizations.

    • 2. Weaponization

  • Traditional: Developing exploit code (e.g., zero-days, custom malware).
  • Military Adaptation:
  • Custom Malware: Tailored payloads with anti-forensic features (e.g., APT29’s COZYBEAR, APT10’s Cloud Hopper).
  • Dual-Use Exploits: Repurposing vulnerabilities from bug bounty programs (e.g., CVE-2021-44228 in Log4j).
  • Living-off-the-Land

    A cybersecurity army embodies the intersection of technology, strategy, and governance in an era where digital dominance dictates global influence. Its members require a blend of technical proficiency—spanning exploit development, digital forensics, and intelligence gathering—and non-technical acumen, including crisis communication and psychological warfare. Training programs mirror the rigor of elite military units, combining simulated cyber conflicts with physical tactical drills to foster adaptability. The tools and infrastructure deployed, from offensive frameworks like Cobalt Strike to defensive SIEM systems, reflect a tailored approach to state-level cyber operations. As threats evolve, so too must the structures and methodologies of these armies, ensuring they remain at the forefront of defending—and when necessary, projecting—cyber power in an interconnected world.

    • Leave a Comment

    Comments are moderated before appearing. The data you submit is processed according to the Privacy Policy of ir.msu.ac.zw.