网络空间拟态防御发展综述：从拟态概念到“拟态+”生态

doi:10.11959/j.issn.2096-109x.2022018

Abstract

Abstract:

Build upon the dynamic-heterogeneous-redundant architecture for multi-body execution, multi-mode ruling and multi-dimension reconstruction, cyberspace mimic defense (CMD) uses uncertain system to deal with the uncertain threat to cyberspace ubiquity.The evolution of CMD over the past 8 years were reviewed systematically from the vertical, horizontal, current, developing and future perspectives.From the vertical perspective, the development process of CMD from concept to theory and practice was summarized.From the horizontal view, it elaborated the core structure DHR (dynamical heterogeneous redundancy) of CMD, the principles based on CMD’s three major theorems, safety gains and performance costs.A comparison was conducted between CMD and five other active defense technologies, namely intrusion tolerance, moving target defense, zero trust architecture, trusted computing and computer immunology.From the current perspective, it reviewed the implementation elements, performance, system architecture, heterogeneous strategies, scheduling strategies, voting strategies and other common technology patterns and characteristics of 11 types of main existing mimic products including mimicry router, mimicry processor, mimicry DNS server and mimicry cloud platform.From the developing perspective, it explored the “mimic+” AICDS (Mimic + AI/IoT/Cloud/Data/SDN) symbiotic ecology with respect to 5 types of new technologies, namely artificial intelligence, Internet of things, cloud computing, big data and software-defined network, and proposed the corresponding technology junctions and cross research value.From the future perspective, it looked into the future mimicry baseline 2.0 product ecology, “mimic +5G/6G”, “mimic + edge computing”,“mimic + cloud” and “mimic + blockchain” application scenarios.Besides, 4 types of challenges faced by CMD in the future were analyzed and summarized, including escape space of multi-mode decision attack, mutual restriction of heterogeneous and synchronous, difficult balance between security and function, and limited transformation space of existing endogenous security components.

Key words: cyberspace mimic defense, system architecture, heterogeneous strategy, scheduling strategy, non-cooperative multi-mode decision-making, heterogeneous gain

CLC Number:

TP309

Hailong MA, Liang WANG, Tao HU, Yiming JIANG, Yanze QU. Survey on the development of mimic defense in cyberspace:from mimic concept to “mimic+” ecology[J]. Chinese Journal of Network and Information Security, 2022, 8(2): 15-38.

Figures/Tables 11

拟态平台	系统架构	异构策略	调度策略	表决策略
拟态蜜罐^[9]	拟态蜜罐子系统+宿主机操作系统+物理硬件	Web中间件+操作系统	状态回滚+轮换	行为记录、告警数据对比
拟态防火墙^[35]	分布式处理架构	硬件平台+操作系统+安全引擎	未明确	分层次、分阶段裁决
拟态交换机^[7]	异构执行体集+拟态调度器+交换芯片	CPU+操作系统	定时清洗+裁决清洗	基于信任权值的自清洗大数表决
拟态路由器	应用层+控制层+设备层	路由器+操作系统	执行体可信度+执行体性能权重	择多判决、权重判决、随机判决
拟态处理机^[28]	拟态调度器+异构处理机集+外围电路	操作系统	基于状态保存的两步清洗降级调度	基于可信度的比较择多策略+基于抽样择多的复合单选表决
拟态存储器	拟态调度器+异构处理机集+外围电路	存储编码	输出结果哈希值比对+纠删码	未明确
拟态Web服务器^[8,19]	中心调度器+动态执行体调度器+服务器池+请求分发均衡模块+表决器^[19]	服务器软件+文件系统+虚拟机操作系统+物理机操作系统^[19]；关键字标签化+文件标签化+目录随机化^[8]	基于可构成异构构件集种类数的执行体调度^[19]	多模裁决前端表决+SQL语句审查后端表决^[8]
拟态DNS服务器^[62]	异构DNS服务器池+选调器	DNS软件	基于执行体可信度、负载量确定选取系数的调度	大数表决+预表决
拟态计算服务器	CPU+GPU+FPGA+DSP+HRCA+RIC计算部件+其余部分	计算部件与结构	未明确	未明确
拟态云平台^[63-64]	基础设施层+异构网络交换层+拟态化括号层+拟态云管理器/拟态化 SaaS 应用层+运维管理层^[63]；原系统结构+服务层MSP化改造^[64]	拟态存储+拟态云管+异构网络交换^[63]；虚拟执行体^[64]	基于拟态表决、业务迁移和数据同步的调度^[63]；裁决触发、人工触发和策略触发相结合的调度^[64]	大数表决^[63-64]
拟态网络操作系统^[29]	应用层+控制层+拟态层+数据层	NOS+控制器	基于异构度增益的调度	基于博弈策略

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调度算法	动态性指标（取值1~5）	平均失效率	异构度	系统开销	服务质量
MD	1	1.14×10^-4	0.114 3	O(1)	—
OMD	1	3.60×10^-4	0.218 3	O(1)	0.450 3
随机调度	5	7.66×10^-4	0.272 3	O(1)	—
RSMS^[9]	2	2.77×10^-4	0.155 0	O(n)	—
PSPT^[21]	5	—	0.249 0	O(1)	—
RSMHQ^[19]	2	—	0.376 8	O(n)	0.519 3
RSMHQH^[22]	2	—	—	O(1)	—
基于正态分布^[13]	4	—	—	O(2ⁿ)	—
基于BSG^[16]	2	—	MOSS	O(n)	—
基于反馈判决^[25]	3	—	MOSS	O(n)	—
基于自学习^[17]	3	—	—	O(2ⁿ)	—
基于安全策略^[26]	2	—	—	O(n)	—
基于滑动窗口^[27]	4	—	—	O(n)	—
注：动态性指标取值越大表示动态性越强，MOSS表示采用基于软件相似性度量衡量执行体间异构度，“—”表示研究未衡量该指标。

技术	发布时间	技术本质	核心特性	典型架构	具体实现	先验知识无关性	组件动态水平	风险感知能力	威胁规避能力
CMD	2016年	异构执行体策略裁决与动态调度	动态、异构、冗余	DHR	拟态交换机/路由器/处理机等	5	5	4	5
入侵容忍	1985年	配置冗余资源容忍入侵	冗余	基于入侵检测的容忍触发、算法驱动、周期性恢复	SITAR/MAFTIA/SCIT	2	3	3	4
MTD	2009年	移动攻击面	多样、动态、随机	动态网络+动态平台+动态环境+动态应用+动态数据	MUTE/MAS	5	5	3	5
ZTA	2010年	基于信任传递建立信任关系	信任授权	强认证+最小特权授权	无	1	4	5	5
TC	1985年	以身份取代传统网络边界	信任授权	TPM+TSS+应用	SGX^[49]/可信云^[50]	5	1	1	5
计算机免疫学	20 世纪90年代	将网络威胁视为待优化问题求解	免疫	抗原识别+抗体群体产生+群体更新	IMMSIM/ARTIS/Multi-Agent	1	1	4	4

拟态平台	测试方案			安全性能（攻击成功概率）	开销（平均时延）
拟态平台	扫描	漏洞利用	后门利用	安全性能（攻击成功概率）	开销（平均时延）
拟态交换机^[7]	√	√	—	5项测试均通过	10 ms
				漏洞利用率35%（余度为3）	32 ms（500条路由）
拟态路由器^[65]	√	√	√	漏洞利用率18%（余度为7）
				后门利用率4%以下	52 ms（1 500条路由）
拟态处理机^[28]	√	√	√	3个测试项均通过	未测试
拟态存储器	—	—	—	100个文件经1 000次拟态变换持续可用	0.2~1s
拟态Web服务器^[8]	√	√	√	13项测试均通过	未测试
拟态DNS服务器^[62]	—	√	√	攻击难度提升10¹⁰个数量级	506 ms（余度为5）
拟态云平台^[64]	—	√		3项测试均通过	530 ms（余度为3）
拟态网络操作系统^[29]	—	√	√	0.3%~2%	20 ms

			软件					硬件
应用软件^[8,19]	服务器软件^[8,19,62]	数据库/SQL脚本^[8]	SDN控制器^[29]	文件系统^[8,19]	虚拟/物理主机操作系统^[8,19]	CPU^[28]	其他计算部件^[68]	路由器^[65]	路由器控制方式^[65]	防火墙^[35]
	RedHat 7				Ubuntu
	Windows 7		Floodlight		Windows Server 2003/
	Debian 7.0		OpenDaylight		2008/2012/2016/2018	Intel	GPU	Quagga0.99.22.4	软件迁移	Linux
	Windows		RYU	ext2	RedHat 7	Atom	DSP	XORP1.8.5	控制路由	NGTOS
PHP	Server	未异构化	NOX	ext4	IIS 6.0	AMD	HRCA	思科c2600	器接口改	IPS
	2012	处理	ONOS	FAT	CentOS	E3930	RIC	Juniper10.2	造组合运	SSL
	IIS 6.0		BEACON		Windows XP	龙芯	FPGA	MP3900	用实体设	DLP
	Apache		MAESTRO		Windows 7			ZXR10	备和SDN
	Lightpd		RAW		Vx Works				交换机
	Nginx				中标麒麟

Survey on the development of mimic defense in cyberspace:from mimic concept to “mimic+” ecology

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