Mission-oriented dynamic optimization model of carrying spares for warship redundant system

doi:10.21629/JSEE.2018.03.11

Journal of Systems Engineering and Electronics ›› 2018, Vol. 29 ›› Issue (3): 539-548.doi: 10.21629/JSEE.2018.03.11

收稿日期:2016-12-26 出版日期:2018-06-28 发布日期:2018-07-02

Mission-oriented dynamic optimization model of carrying spares for warship redundant system

Minzhi RUAN¹(), Hua LI^2,*(), Junlong WANG¹()

¹ College of Naval Architecture & Marine Engineering, Naval University of Engineering, Wuhan 430033, China
² College of Weaponry Engineering, Naval University of Engineering, Wuhan 430033, China

Received:2016-12-26 Online:2018-06-28 Published:2018-07-02
Contact: Hua LI E-mail:ruanminzhi830917@sina.com;23452390@qq.com;daibanzhu123@163.com
About author:RUAN Minzhi was born in 1983. He received his B.S. degree and M.S. degree in 2006 and 2009 respectively in military command from Dalian Naval Academy, and Ph.D. degree in weapon system and application engineering from Naval University of Engineering in 2012. Now he works at College of Naval Architecture & Marine Engineering, Naval University of Engineering. His main research interests are naval warship equipment logistic support, support resource optimization, equipment support modeling and simulation. E-mail: ruanminzhi830917@sina.com|LI Hua was born in 1972. He received his Ph.D. degree in weapon system and application engineering from Naval University of Engineering in 2007. Currently, he is an associate professor at College of Weaponry Engineering, Naval University of Engineering. His main research interests are equipment logistic support and naval weaponry simulation technology. E-mail: 23452390@qq.com|WANG Junlong was born in 1985. He received his B.S. degree in computer information management from Naval University of Engineering in 2009, and M.S. degree in computer application technology from Wuhan Textile University in 2012. Now he works at College of Naval Architecture & Marine Engineering, Naval University of Engineering. His main research interests are information technology of equipment support and support resource optimization. E-mail: daibanzhu123@163.com
Supported by:
the National Defense Pre-research Project in the 13th Five-Year(41404050502);the National Defense Science and Technology Fund of the Central Military Commission(2101140);This work was supported by the National Defense Pre-research Project in the 13th Five-Year (41404050502) and the National Defense Science and Technology Fund of the Central Military Commission (2101140)

摘要/Abstract

Abstract:

Redundancy is a common structure for warship system, and it is an effective way to improve the reliability of the system. In this paper, warship system is taken as the object of study, based on the system reliability equivalence principle, a spares demand rate calculation method for redundant system is proposed through structure transformation. According to the system analysis method, the general modeling data structure of spares support echelon and system indenture is established, and the mission success probability is taken as the optimization target to build the dynamic optimization model of carrying spares during the process of multi-phase. By introducing the Lagrange multiplier, the spares weight, volume and cost are transformed to the single target of the spares total scale, and the initial Lagrange factors and its dynamic adjustment policy is proposed. In a given example, the main influence factors of the carrying spares project are analyzed, and the study results are in accordance with the reality, which can provide a new approach to mission-oriented carrying spares optimization for the redundant system.

Key words: redundancy, reliability equivalence, warship, carrying spares, optimization

. [J]. Journal of Systems Engineering and Electronics, 2018, 29(3): 539-548.

Minzhi RUAN, Hua LI, Junlong WANG. Mission-oriented dynamic optimization model of carrying spares for warship redundant system[J]. Journal of Systems Engineering and Electronics, 2018, 29(3): 539-548.

图/表 14

参考文献 29

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Equipment	Spare	Structure	Spares	Initial parameter of reliability-maintainability-supportability (RMS)
Equipment	Spare	code	type	MTBF/h	$MRT_{0}$/h	$MRT_{i}$/h	$NR_{0}$	$NR_{i}$	$M$/kg	$V$/m$^{3}$	$C$/10$^{4}$
	Power amplifier	1	LRU	1 200	32	16	0.35	0.75	39	0.9	7.2
	Voltage regulator	1.1	SRU	1 300	12	8	0.25	0.75	3	0.5	2.6
Alert-searching	Drive set	1.2	SRU	1 700	12	8	0.3	0.6	7	0.4	3.4
radar	Signal unit	2	LRU	1 350	16	12	0.3	0.65	12	0.3	8.1
	Sampling plate	2.1	SRU	1 500	12	6	0.3	0.7	4	0.15	3.5
	Output drive plate	2.2	SRU	1 600	8	6	0.35	0.65	7	0.15	4.6
	Fire control unit	3	LRU	1000	36	32	0.35	0.75	18	0.4	5.7
	Interface convertor	3.1	SRU	1350	12	12	0.25	0.75	2	0.22	1.2
Air defense	I/O panel	3.2	SRU	1 500	12	12	0.4	0.6	0.5	0.22	3.1
weapon system	Launch & control	4	LRU	1 000	12	12	0.25	0.7	12	0.5	8.4
	CPU module	4.1	SRU	1 200	12	8	0.3	0.7	0.5	0.35	4.3
	Timing panel	4.2	SRU	1 250	12	8	0.35	0.65	3	0.01	3.2
	Antenna array	5	LRU	875	42	40	0.25	0.75	24	2.2	7.8
	Interface card	5.1	SRU	1 000	12	6	0.35	0.65	1	0.15	4.6
Electronic warfare	Microwave module	5.2	SRU	1 300	24	18	0.3	0.3	3	0.1	2.6
defense system	Display controller	6	LRU	1 250	16	16	0.3	0.8	9	0.5	7.5
	Power module	6.1	SRU	1 400	8	6	0.35	0.5	2	0.15	3.4
	Display panel	6.2	SRU	1 780	12	12	0.3	0.7	1	0.05	2.2

Mission phase	Equipment	Start time	Duration	Install quantity	Working quan-tity minimum
	Alert-searching radar	0	8	3	2
Shipping	Air weapon system	—	—	2	—
	Electronic warfare	—	—	2	—
	Alert-searching radar	8	4	3	3
Air defense anti-missile	Air weapon system	9	3	2	2
	Electronic warfare	—	—	4	—
	Alert-searching radar	12	5	3	2
Electronic warfare defense	Air weapon system	—	—	2	—
	Electronic warfare	14	4	4	3
	Alert-searching radar	18	12	3	1
Returning	Air weapon system	—	—	2	—
	Electronic warfare	18	8	4	1

Project	Result analysis	$\rho_{s}$	Cost/million Yuan	Weight/kg	Volume/m$^{3}$
Cost	Value	0.956 3	2.625	559.5	30.18
Cost	Satisfied?	Y	—	N	N
Weight	Value	0.950 3	3.192	526.5	28
Weight	Satisfied?	Y	—	Y	N
Volume	Value	0.966 2	3.009	639.5	26.04
Volume	Satisfied?	Y	—	N	Y
Total	Value	0.950 8	2.71	514	25.1
scale	Satisfied?	Y	—	Y	Y

Spare part	Cost	Weight	Volume	Total scale
Power amplifier	4	4	7	4
Voltage regulator	4	4	1	4
Drive sets	0	1	0	1
Signal unit	3	4	4	4
Sampling plate	1	4	4	2
Output drive plate	0	0	1	0
Fire control unit	3	2	3	3
Interface convertor	1	4	0	1
I/O panel	0	4	0	1
Launch & control	3	3	3	3
CPU module	1	5	1	1
Timing panel	1	4	4	1
Antenna array	7	4	4	4
Interface card	1	5	4	4
Microwave module	4	5	4	4
Display controller	7	7	7	7
Power module	1	4	4	4
Display panel	1	4	4	4

Spares project	Modelresult	VMETRICresult	Simulationresult	Error/%
Cost project	0.956 3	0.965 4	0.982 6	2.8
Weight project	0.950 3	0.959 9	0.974 5	2.5
Volume project	0.966 2	0.980 1	0.988 9	2.3
Total scale project	0.950 8	0.960 3	0.976 3	2.7

Mission-oriented dynamic optimization model of carrying spares for warship redundant system

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