Claim Missing Document
Check
Articles

Found 2 Documents
Search

LITERATURE REVIEW ON ARMAMENT TECHNOLOGY, CAUSES, STRATEGIES, AND FUTURE PROJECTIONS: RUSSIA-UKRAINE WAR CASE Shilfa Nisa Agustin; Lutfi Adin Affandi
Jurnal Penelitian Progresif Vol 5 No 2 (2026): MARCH 2026 - AUGUST 2026
Publisher : CV Naskah Aceh

Show Abstract | Download Original | Original Source | Check in Google Scholar | DOI: 10.61992/jpp.v5i2.375

Abstract

This literature review examines the causes, armament technology evolution, military strategies, and future projections of the Russia-Ukraine War (2022–present), one of Europe's largest conflicts since World War II. Drawing on historical, geopolitical, and technological analyses, the study addresses key questions: root causes of the invasion, temporal developments in weaponry (e.g., drones, artillery, EW systems), strategies employed by both sides including public involvement, and long-term implications. Data were collected through systematic review of peer-reviewed journals, think-tank reports (RUSI, ISW), and official documents (2021–2026). Findings highlight Russia's quantitative attrition approach versus Ukraine's asymmetric innovation and Western aid. The war accelerates drone swarms, AI integration, and electronic warfare, projecting prolonged attrition or frozen conflict with risks of regional escalation. Conclusions emphasize lessons for national defense strategies, particularly for archipelagic nations like Indonesia in hybrid warfare preparedness. This case underscores the interplay of technology, strategy, and societal resilience in modern conflicts.
Optimasi Sudut Terminal Rudal Menggunakan Simulasi Monte Carlo Probabilistik Shilfa Nisa Agustin; Y. H. Yogaswara; Robertus Heru Thirarjanto; Larasmoyo Nugroho
Fuse-teknik Elektro Vol 6 No 1 (2026): Fuse-teknik Elektro
Publisher : Fakultas Teknik Universitas Garut

Show Abstract | Download Original | Original Source | Check in Google Scholar

Abstract

Modern missiles, loitering munitions, and glide bombs are increasingly utilized due to their high-precision strike capabilities. However, in urban and complex environments where targets are often hidden behind obstacles, these systems frequently fail to achieve optimal terminal impact angles. This study addresses the limitations of conventional GPS/INS systems by optimizing the terminal angle using a numerical statistical approach based on Monte Carlo simulation. The simulation was conducted on an online cloud platform with 10,000 iterations to handle operational uncertainties. The results demonstrated a reduction in vertical angle error of up to 31.6%, an increase in altitude error of 10.7%, and an increase in hit probability to 84.8% compared to conventional methods. This approach enables missiles to achieve a more effective balance between penetration capability and impact accuracy, which is critical in contested and cluttered battlefields. This study concludes that integrating Monte Carlo simulation provides a more robust solution for improving attack effectiveness in complex environments. Future research is recommended to include hardware-in-the-loop testing and artificial intelligence integration.