CN111669403A - Multi-drainage multi-trapping node deployment system - Google Patents
Multi-drainage multi-trapping node deployment system Download PDFInfo
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- CN111669403A CN111669403A CN202010589243.9A CN202010589243A CN111669403A CN 111669403 A CN111669403 A CN 111669403A CN 202010589243 A CN202010589243 A CN 202010589243A CN 111669403 A CN111669403 A CN 111669403A
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- H—ELECTRICITY
- H04—ELECTRIC COMMUNICATION TECHNIQUE
- H04L—TRANSMISSION OF DIGITAL INFORMATION, e.g. TELEGRAPHIC COMMUNICATION
- H04L63/00—Network architectures or network communication protocols for network security
- H04L63/14—Network architectures or network communication protocols for network security for detecting or protecting against malicious traffic
- H04L63/1441—Countermeasures against malicious traffic
- H04L63/1491—Countermeasures against malicious traffic using deception as countermeasure, e.g. honeypots, honeynets, decoys or entrapment
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- H—ELECTRICITY
- H04—ELECTRIC COMMUNICATION TECHNIQUE
- H04L—TRANSMISSION OF DIGITAL INFORMATION, e.g. TELEGRAPHIC COMMUNICATION
- H04L67/00—Network arrangements or protocols for supporting network services or applications
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- H04L67/10—Protocols in which an application is distributed across nodes in the network
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Abstract
A multi-drainage multi-trapping-node deployment system is at least provided with a honeypot and a plurality of trapping nodes arranged corresponding to the honeypot, and the attack flow aiming at the trapping nodes is finally drained to the honeypot. The invention has the following beneficial effects: 1. the method realizes the mode of multiple drainage, saves the deployment cost, improves the coverage rate of trapping nodes, namely the coverage rate of honeypots in the region, and greatly increases the success rate of honeypot trapping. 2. The adoption of the iptables forwarding rule has strict guidance. 3. No matter which level of trap nodes are touched by an attacker, the attacker finally drains to the honeypots in an insensible mode through a plurality of heavy drains.
Description
Technical Field
The invention relates to the technical field of honeypots, in particular to a multi-drainage multi-trapping node deployment system.
Background
Nowadays, honeypot technology has become a middle strength in the active defense field, and is a necessary part of the existing security defense systems of governments, enterprises and the like in a new period. The honeypot can actively detect the network attack event and complement the deficiency of the traditional security defense system in dealing with high-level network threats. Once an attacker enters an enterprise intranet, in order to realize successful trapping of the attacker by the honeypot, the authenticity of the honeypot itself needs to be ensured firstly, so that the attacker cannot know that the system to be attacked is actually the honeypot; secondly, the coverage rate of honeypots in an intranet environment is ensured, and the trapping success rate is higher when the ratio of the number of honeypots to the number of real assets in the area is higher. However, the cost of a single honeypot is relatively high, and in the existing honeypot deployment methods, a point-to-point deployment method is adopted, as shown in fig. 1, and in this way, under the condition that the number of honeypots is limited, the coverage rate cannot be guaranteed.
Therefore, it is necessary to provide a multi-drainage multi-trap node deployment system to solve the deficiencies of the prior art.
Disclosure of Invention
The invention aims to avoid the defects of the prior art and provide a multi-drainage multi-trapping node deployment system. The multi-drainage multi-trapping node deployment system has the advantages of simplicity and less occupied simulation resources.
The above object of the present invention is achieved by the following technical measures:
the utility model provides a many trap node deployment systems of drainage, be provided with a honeypot at least and with a plurality of trap nodes that honeypot corresponds the setting, the attack flow to the node of trapping finally drains to the honeypot.
Defining the number of trapping nodes as N, the number of honeypots as N, and there being N: n is more than or equal to 2.
The n trapping nodes are sequentially and serially drained, and the honeypot is used as the tail end.
The trapping nodes far away from the honeypot are taken as starting points, and n trapping nodes are sequentially defined as the A < th > node1Trapping node, item A2Trap node … …, item Ai-1Trapping node, item AiTrapping node, item Ai+1Trap node … …, item An-1Trapping node, item AnAnd (4) trapping nodes, wherein i is more than or equal to 2 and less than or equal to n.
Then the firsti-1The trapping node is defined as a previous stage trapping node, and A isiThe trap node defines the current trap node, and the A < th > isi+1The trap node defines a next level trap node.
And defining the attack traffic which is drained from the previous stage trapping node to the current trapping node as the previous stage attack traffic, and defining the attack traffic aiming at the current trapping node as the current attack traffic.
A (A) of1The trapping node drains the current attack traffic into the A < th > node2And trapping the nodes.
The current trapping node drains the current attack flow and the superior attack flow to the next-level trapping node, the A < th > stagenAnd the trapping node drains the current attack traffic and the superior attack traffic to the honeypot.
The n trapping nodes adopt a parallel drainage mode and take the honeypots as tail ends.
And the n trapping nodes respectively drain the attack traffic aiming at each trapping node to the honeypots.
And the n trapping nodes adopt a composite drainage mode and take the honeypots as tail ends.
Preferably, the composite drainage mode comprises a parallel drainage mode and a serial drainage mode.
When any trapping node has attack flow, the corresponding attack flow takes the honeypot as a terminal direction, and flows towards the honeypot in sequence in a single direction.
And the plurality of trapping nodes drain the attack traffic to a lower induction node or a honeypot through an iptables forwarding rule.
The multi-drainage multi-trapping-node deployment system is at least provided with a honeypot and a plurality of trapping nodes arranged corresponding to the honeypot, and the attack flow aiming at the trapping nodes is finally drained to the honeypot. The invention has the following beneficial effects: 1. the method realizes the mode of multiple drainage, saves the deployment cost, improves the coverage rate of trapping nodes, namely the coverage rate of honeypots in the region, and greatly increases the success rate of honeypot trapping. 2. The adoption of the iptables forwarding rule has strict guidance. 3. No matter which level of trap nodes are touched by an attacker, the attacker finally drains to the honeypots in an insensible mode through a plurality of heavy drains.
Drawings
The invention is further illustrated by means of the attached drawings, the content of which is not in any way limiting.
FIG. 1 is a schematic diagram of a prior art deployment system.
Fig. 2 is a schematic serial drainage diagram of a multi-drainage multi-trap node deployment system according to the present invention.
Fig. 3 is a schematic parallel drainage diagram of a multi-drainage multi-trap node deployment system according to the present invention.
Fig. 4 is a schematic diagram of a composite drainage manner of the multi-drainage multi-trap node deployment system according to embodiment 3.
Fig. 5 is a schematic diagram of a composite drainage manner of the multi-drainage multi-trap node deployment system according to embodiment 4.
Detailed Description
The technical solution of the present invention is further illustrated by the following examples.
Example 1.
A multi-drainage multi-trapping node deployment system, as shown in fig. 2, is provided with at least one honeypot and a plurality of trapping nodes corresponding to the honeypot, and finally drains the attack traffic directed at the trapping nodes to the honeypot.
The invention discloses a multi-drainage multi-trap node deployment system, wherein the number of trap nodes is defined as N, the number of honeypots is defined as N, and N: n is more than or equal to 2. The n trapping nodes are sequentially and serially drained, and the honeypot is used as the tail end.
The number of trap nodes in the embodiment is 3, that is, N is 3, and the number of honeypots is defined as 1, that is, N is 1. It should be noted that the number of trap nodes of the multi-drainage multi-trap node deployment system of the present invention is not limited to 3 in this example, and n may be any number of 2, 5, 6, 10, 100, etc.
The trapping nodes far away from the honeypot are taken as starting points, and n trapping nodes are sequentially defined as the A < th > node1Trapping node, item A2Trap node … …, item Ai-1Trapping node, item AiTrapping node, item Ai+1Trap node … …, item An-1Trapping node, item AnAnd (4) trapping nodes, wherein i is more than or equal to 2 and less than or equal to n.
Then the firsti-1The trapping node is defined as a previous stage trapping node, and A isiThe trap node defines the current trap node, and the A < th > isi+1The trap node defines a next level trap node.
And defining the attack traffic which is drained from the previous stage trapping node to the current trapping node as the previous stage attack traffic, and defining the attack traffic aiming at the current trapping node as the current attack traffic. A (A) of1The trapping node drains the current attack traffic into the A < th > node2And trapping the nodes. The current trapping node drains the current attack flow and the superior attack flow to the next-level trapping node, the A < th > stagenAnd the trapping node drains the current attack traffic and the superior attack traffic to the honeypot.
The invention is explained by taking the embodiment as an example, and three trap nodes are sequentially defined as A1Trapping node, item A2Trapping node and A3Trap the node, then let A1The trapping node is defined as a previous stage trapping node, and A is2The trap node defines the current trap node, and the A < th > is3The trapping node defines the next-level trapping node when attacking the A < th > order1When trapping nodes, A1Trapping nodes drain attacks to the A2Trap nodes, then A2The trapping node A is connected with1Attack diversion of trapping nodes, namely switching to the A-th level attack flow3Trapping nodes, and finally transferring all attack traffic into the honeypots.
According to the multi-drainage multi-trapping node deployment system, a plurality of trapping nodes drain attack flow to a lower-level induction node or a honeypot through an iptables forwarding rule.
The multi-drainage multi-trapping-node deployment system is at least provided with a honeypot and a plurality of trapping nodes which are arranged corresponding to the honeypot, and the attack flow aiming at the trapping nodes is finally drained to the honeypot. The invention has the following beneficial effects: 1. the method realizes the mode of multiple drainage, saves the deployment cost, improves the coverage rate of trapping nodes, namely the coverage rate of honeypots in the region, and greatly increases the success rate of honeypot trapping. 2. The adoption of the iptables forwarding rule has strict guidance. 3. No matter which level of trap nodes are touched by an attacker, the attacker finally drains to the honeypots in an insensible mode through a plurality of heavy drains.
Example 2.
A multi-drainage multi-trap node deployment system, as shown in fig. 3, with the other features the same as those of embodiment 1 except that: the n trapping nodes adopt a parallel drainage mode and take the honeypots as tail ends.
In this example, N is also 3 and N is also 1.
And the n trapping nodes respectively drain the attack traffic aiming at each trapping node to the honeypots.
The present invention is described by taking the embodiment as an example, when any one of the three trapping nodes is attacked, the attacking traffic is drained to the honeypot by the corresponding attacked trapping node.
The multi-drainage multi-trapping-node deployment system is at least provided with a honeypot and a plurality of trapping nodes which are arranged corresponding to the honeypot, and the attack flow aiming at the trapping nodes is finally drained to the honeypot. The invention has the following beneficial effects: 1. the method realizes the mode of multiple drainage, saves the deployment cost, improves the coverage rate of trapping nodes, namely the coverage rate of honeypots in the region, and greatly increases the success rate of honeypot trapping. 2. The adoption of the iptables forwarding rule has strict guidance. 3. No matter which level of trap nodes are touched by an attacker, the attacker finally drains to the honeypots in an insensible mode through a plurality of heavy drains.
Example 3.
A multi-drainage multi-trap node deployment system, as shown in fig. 4, with the other features the same as those of embodiment 1 except that: and the n trapping nodes adopt a composite drainage mode and take the honeypots as tail ends.
The composite drainage mode of the invention comprises a parallel drainage mode and a serial drainage mode.
When any trapping node has attack flow, the corresponding attack flow takes the honeypot as a terminal direction, and flows towards the honeypot in a single direction in sequence.
Specifically, the current trap node is stored in the previous stage trap node and the next stage trap node. When the current trapping node has attack flow, the trapping node drains the attack flow to the trapping node of the next stage, if the trapping node of the previous stage also has the attack flow, the trapping node of the previous stage also drains the attack flow to the trapping node of the next stage, and finally all the attack flows are sequentially drained towards the honeypot in a single direction.
Taking the example that the current trapping node only has the next-stage trapping node, when the current trapping node has attack traffic, the trapping node drains the attack traffic to the next-stage trapping node, and finally all the attack traffic is drained towards the honeypot in a single direction in sequence.
Taking the example that the current trapping node has the previous trapping node and is connected with the honeypot, when the current trapping node has attack traffic, and if the previous trapping node also has attack traffic, the current trapping node drains all the attack traffic and the previous attack traffic to the honeypot.
In this embodiment, 3 trapping nodes and 1 honeypot are taken as an example for explanation, two trapping nodes drain in parallel first, then the two trapping nodes drain in series with another honeypot, and finally the honeypot is taken as a terminal point, the two trapping nodes draining in parallel are defined as parallel trapping nodes, the other trapping node is defined as a series trapping node, when any one parallel trapping node is attacked, the attack traffic is introduced into the series trapping node, and finally the attack traffic is drained into the honeypot. If the serial trapping node is attacked, the serial trapping node directly drains the attacking traffic into the honeypot.
It should be noted that, this embodiment is only described with 3 trap nodes and 1 honeypot, and it is within the scope of the present invention for other numbers of trap nodes and honeypots to be in a composite drainage manner.
Example 4.
A multi-drainage multi-trap node deployment system, as shown in fig. 5, with the other features being the same as those of embodiment 3 except that: the present embodiment is provided with 7 trap nodes and 1 honeypot.
The 7 trapping nodes are named as a 1 st trapping node, a 2 nd trapping node, a 3 rd trapping node, a 4 th trapping node, a 5 th trapping node, a 6 th trapping node and a 7 th trapping node respectively.
The 1 st trapping node and the 2 nd trapping node drain in parallel and then drain in series with the 6 th trapping node respectively, the 3 rd trapping node, the 4 th trapping node and the 5 th trapping node drain in parallel and then drain in series with the 7 th trapping node respectively, the 6 th trapping node and the 7 th trapping node drain in parallel, and finally the 6 th trapping node and the 7 th trapping node are connected with the honeypot.
For example, when the 4 th trap node is attacked, the attack traffic flows into the 7 th trap node and then is drained to the honeypot. When the 6 th trapping node is attacked, the attack traffic is directly drained to the honeypot.
The multi-drainage multi-trapping-node deployment system is provided with a plurality of trapping nodes and a honeypot, wherein the plurality of trapping nodes are finally drained to the honeypot; the number of the trapping nodes is larger than that of the honeypots. The invention has the following beneficial effects: 1. the method realizes the mode of multiple drainage, saves the deployment cost, improves the coverage rate of trapping nodes, namely the coverage rate of honeypots in the region, and greatly increases the success rate of honeypot trapping. 2. The adoption of the iptables forwarding rule has strict guidance. 3. No matter which level of trap nodes are touched by an attacker, the attacker finally drains to the honeypots in an insensible mode through a plurality of heavy drains.
Finally, it should be noted that the above embodiments are only used for illustrating the technical solutions of the present invention and not for limiting the protection scope of the present invention, and although the present invention is described in detail with reference to the preferred embodiments, it should be understood by those skilled in the art that modifications or equivalent substitutions can be made on the technical solutions of the present invention without departing from the spirit and scope of the technical solutions of the present invention.
Claims (10)
1. The utility model provides a many drainage trap node deployment system which characterized in that: at least one honeypot and a plurality of trapping nodes which are arranged corresponding to the honeypot are arranged, and the attack flow aiming at the trapping nodes is finally drained to the honeypot.
2. The multi-drainage multi-trap node deployment system of claim 1, wherein: defining the number of trapping nodes as N, the number of honeypots as N, and the existence of N: n is more than or equal to 2.
3. The multi-drainage multi-trap node deployment system of claim 1, wherein: the n trapping nodes are sequentially and serially drained, and the honeypot is used as the tail end.
4. The multi-drainage multi-trap node deployment system of claim 3, wherein: the trapping nodes far away from the honeypot are taken as starting points, and n trapping nodes are sequentially defined as the A < th > node1Trapping node, item A2Trap node … …, item Ai-1Trapping node, item AiTrapping node, item Ai+1Trap node … …, item An-1Trapping node, item AnTrapping nodes, wherein i is more than or equal to 2 and less than or equal to n;
then the firsti-1The trapping node is defined as a previous stage trapping node, and A isiThe trap node defines the current trap node, and the A < th > isi+1The trapping node defines a next-level trapping node;
defining the attack flow from the previous stage trapping node to the current trapping node as the previous stage attack flow, and defining the attack flow aiming at the current trapping node as the current attack flow;
a (A) of1The trapping node drains the current attack traffic into the A < th > node2Trapping nodes;
the current trapping node drains the current attack flow and the superior attack flow to the next-level trapping node, the A < th > stagenAnd the trapping node drains the current attack traffic and the superior attack traffic to the honeypot.
5. The multi-drainage multi-trap node deployment system of claim 1, wherein: the n trapping nodes adopt a parallel drainage mode and take the honeypots as tail ends.
6. The multi-drainage multi-trap node deployment system of claim 5, wherein: and the n trapping nodes respectively drain the attack traffic aiming at each trapping node to the honeypots.
7. The multi-drainage multi-trap node deployment system of claim 1, wherein: and the n trapping nodes adopt a composite drainage mode and take the honeypots as tail ends.
8. The multi-drainage multi-trap node deployment system of claim 7, wherein: the composite drainage mode comprises a parallel drainage mode and a serial drainage mode.
9. The multi-drainage multi-trap node deployment system of claim 8, wherein: when any trapping node has attack flow, the corresponding attack flow takes the honeypot as a terminal direction, and flows towards the honeypot in a single direction in sequence.
10. The multi-drainage multi-trap node deployment system according to any one of claims 1 to 9, wherein: and the plurality of trapping nodes drain the attack traffic to a lower induction node or a honeypot through an iptables forwarding rule.
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| CN114499915A (en) * | 2021-09-28 | 2022-05-13 | 北京卫达信息技术有限公司 | Trapping attack method, device and system combining virtual nodes and honeypots |
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Application publication date: 20200915 |