Wartime industrial logistics information integration: Framework and application in optimizing deployment and formation of military logistics platforms

https://doi.org/10.1016/j.jii.2021.100201Get rights and content

Abstract

Industrial logistics system is one of the key objects of industrial informatization, and analysis on this system is an important task of industrial information integration. According to the concept and principle of industrial information integration engineering, we present a five-layered framework of wartime industrial logistics information integration, and form an analysis of wartime industrial logistics system from the perspective of industrial information integration. To provide resolutions to the problems of optimizing deployment and formation of resources in wartime industrial logistics system (e.g., military logistics platforms [MLPs]), we conduct a typical application of this framework. As the research objects of the fourth layer, war statistics, mathematical calculations and simulation experiment are designed as the means by which descriptive analysis, predictive analysis and prescriptive analysis at the fifth layer can be implemented, respectively. Accordingly, the battle damage repair efficiency-oriented optimal decisions model of using MLPs are built. Results show that our study forms a systematic procedure for wartime industrial logistics information integration, thus obtaining more decision support and greater reference value for wartime industrial logistics.

Introduction

Multiple stakeholders have increased their demand for research on industrial information integration due to its strategic importance [1]. Given that industrial logistics is in substance related to the use of equipment and maintenance materials, industrial logistics system is one of the key objects of industrial informatization, and analysis on this system is an important task of industrial information integration. Therefore, the optimal use of resources in industrial logistics system is a prerequisite for industrial information integration.

The word “logistics” originates from the military discipline. The divisions in the military are responsible for the supply of necessary arms, ammunition, tents and rations as and when they are needed [2]. Wartime industrial logistics focuses on the wartime supply of military materials. In the performance of these tasks, a commander must make some analytical decisions by using the various types of wartime industrial logistics data. Recently, many researchers in technical and social fields have attached importance to data analytics [3], [4], [5]. In this study, we introduce “data analytics” and define “wartime industrial logistics data analytics”, which means the technology that a commander requires to handle wartime industrial logistics data at controlled scales.

Equipment support is one of essential tasks in wartime industrial logistics. Mobile equipment support refers to the mode of recovering and repairing equipment by logistics vehicles, which can be defined as military logistics platforms (MLPs), maneuvering to the support place and providing equipment support. This mechanism is the basic mode for the MLPs to provide battlefield support, in particular maintenance mission under enemy fire strike. Given that the logistics unit mainly provides material supply support and equipment technical support for combat units, it has limited self-defense capability and weak combat power. The MLPs that carry support personnel become the key targets by enemy strike. During the execution of wartime industrial logistics, the combat opportunity is transient due to the urgent time, and different military logistics modes should be adopted in accordance with the battle damage repair tasks and threats of enemy situations to reasonably allocate and use the MLPs and flexibly organize the logistics resources. If the MLPs used in operation are not enough, then the damaged equipment cannot be repaired and utilized in combat, and the regeneration of combat power will be affected. If the MLPs used at one combat direction are more than they need, then it may weaken the support capability at other combat directions. Meanwhile, the additional support equipment and apparent targets will increase the probability of enemy strike. Therefore, how to optimize deployment and formation of MLPs is one of the key subjects for decision-making of wartime logistics command.

We present the framework of wartime industrial logistics information integration and focus on its application in optimal decisions for using MLPs. This work is based on related studies on data analytics in industrial engineering, technical systems, and social fields [2], [3], [4], [5]. However, this work differs from these studies by providing useful insights into military field application of data analytics. Our work centers on the following topics: developing a systematic procedure of wartime industrial logistics information integration, presenting war statistics based on collected historical combat data, as well as performing quantitative calculation and computer simulation demonstration for this procedure and its application.

The rest of the paper is organized as follows. Section 2 introduces the current related work. Section 3 presents the problem description and research methodology. Sections 4, 5, and 6 provide the data analytics-oriented analysis, modeling, and simulation in details, in which descriptive, predictive and prescriptive analytics are illustrated, respectively. Section 7 summarizes the conclusion and describes some future work directions.

Section snippets

Industrial information integration and IIIE

Because of the immense impact of information and communication technology on industry, industrial processes and production have been changed [1]. Accordingly, industrial information integration has played an important role in these fields. As the foundation of the new era of information and communication technology [6], industrial information integration is a new concept proposed by the integrated application of emerging information technologies in the field of modern industry [7,8]. It can be

Demands

During different military operations or operating stages, the battle damage probabilities of equipment vary due to the difference of combat intensity. Moreover, the maintainability of some MLPs varies. In such a case, how to scientifically allocate MLPs for combat platforms and timely and appropriately repair the damaged equipment will be a key issue.

Equipment repair support is extremely different between peacetime and wartime. The aims of peacetime repair are to maintain and restore equipment

Data collection

In general, data are not useful in and of themselves. The data can only have utility if the meaning and value can be extracted from them. Given the utility and value of data, continuous increasing efforts are devoted towards producing and analyzing them [60]. In the wartime industrial logistics data analytics, the first work is war statistics (i.e., descriptive analytics on historical battle data), which recognizes the statistical laws of battle damages and calculates the equipment battle

Optimizing deployment under different conditions

We present the following model to use MLPs in the appropriate quantities for combat platforms according to different combat and support conditions.

Damaged combat platforms (i.e., damaged equipment) go to the support place consisting of MLPs, ask for equipment support, and leave the support place when the battle damage repair task is achieved. Accordingly, we can construct a queuing system model for this mechanism of using MLPs. According to the actual wartime industrial logistics, the process

Simulation process

Scientific optimization on using MLPs is crucial to scientific wartime industrial logistics plan. In this study, we present the framework of wartime industrial logistics information integration and achieve optimal decisions for using MLPs. Optimal deployment and formation of MLPs are related to behaviors of wartime industrial logistics system. Agent-based modeling has become an effective tool in describing microcosmic action mode of real management systems [61]. An agent is an encapsulated

Conclusion and further work

This study proposes the framework of wartime industrial logistics information integration, and provides a typical application in optimizing deployment and formation of MLPs. First, we design the five-layered framework according to the concept and principle of IIIE. It is essentially a process of top-down analysis and bottom-up synthesis. IIIE at the top level is finally specified to IIIE for wartime industrial logistics data analytics. Then, we focus on the application of this framework.

CRediT authorship contribution statement

Xiong Li: Conceptualization, Formal analysis, Funding acquisition, Investigation, Methodology, Project administration, Supervision, Visualization, Writing – original draft, Writing – review & editing. Wei Zhang: Data curtion. Xiaodong Zhao: Validation. Wei Pu: Software. Ping Chen: Software. Fang Liu: Resources

Declaration of Competing Interest

The authors declare that they have no known competing financial interests or personal relationships that could have appeared to influence the work reported in this paper.

Acknowledgement

This research was funded by National Natural Science Foundation of China (grant number 61473311, 70901075), Natural Science Foundation of Beijing Municipality (grant number 9142017), and military projects funded by Chinese Army.

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