The Scientific World Journal

The Scientific World Journal / 2014 / Article
Special Issue

Ubiquitous Systems towards Green, Sustainable, and Secured Smart Environment

View this Special Issue

Research Article | Open Access

Volume 2014 |Article ID 264654 | https://doi.org/10.1155/2014/264654

Min Su Song, Jae Dong Lee, Young-Sik Jeong, Hwa-Young Jeong, Jong Hyuk Park, "DS-ARP: A New Detection Scheme for ARP Spoofing Attacks Based on Routing Trace for Ubiquitous Environments", The Scientific World Journal, vol. 2014, Article ID 264654, 7 pages, 2014. https://doi.org/10.1155/2014/264654

DS-ARP: A New Detection Scheme for ARP Spoofing Attacks Based on Routing Trace for Ubiquitous Environments

Academic Editor: Han-Chieh Chao
Received19 Apr 2014
Accepted11 Jun 2014
Published27 Aug 2014

Abstract

Despite the convenience, ubiquitous computing suffers from many threats and security risks. Security considerations in the ubiquitous network are required to create enriched and more secure ubiquitous environments. The address resolution protocol (ARP) is a protocol used to identify the IP address and the physical address of the associated network card. ARP is designed to work without problems in general environments. However, since it does not include security measures against malicious attacks, in its design, an attacker can impersonate another host using ARP spoofing or access important information. In this paper, we propose a new detection scheme for ARP spoofing attacks using a routing trace, which can be used to protect the internal network. Tracing routing can find the change of network movement path. The proposed scheme provides high constancy and compatibility because it does not alter the ARP protocol. In addition, it is simple and stable, as it does not use a complex algorithm or impose extra load on the computer system.

1. Introduction

Ubiquitous computing has been perceived as the new paradigm for a comfortable life in recent times. In particular, the use of smart applications has greatly increased. However, a growing number of security concerns in this environment have emerged at the same time. Ubiquitous environments always need connected networks. Therefore, one of the important considerations in ubiquitous environments is network security. A secure network can maintain rich ubiquitous environments. Therefore, security considerations in the ubiquitous networks are required.

An ARP spoofing attack is an attack in which the media access control (MAC) address of a computer is masqueraded as that of another. Although various studies have addressed ARP spoofing attack detection, and presented countermeasure plans, there are numerous fundamental difficulties in finding an optimized solution. Countermeasure schemes, such as the cache table static management, S-ARP, T-ARP, and ARP Table server synchronization method, have been presented. Nevertheless, because of various reasons, such as compatibility with the existing network configurations, protocols, and administrative overhead, applying these schemes poses difficulties. In this paper, we present a new detection scheme for ARP spoofing attacks using local network information and a routing trace, which can protect the internal network from ARP spoofing. The detection is composed of ARP Cache Table periodic surveillance and Routing trace. Additional network configuration and protocol change are not required in the proposed scheme, since it does not increase the system and network overhead.

The remainder of this paper is organized as follows. Section 2 discusses related studies including problems in ARP spoofing, security requirements, and existing research. Section 3 introduces a new detection scheme for ARP spoofing using a routing trace. Finally, Section 4 presents concluding remarks and briefly discusses the scope for further research.

ARP is used to map the MAC physical address and the IP network address, as presented in Figure 1. When a host on a local network wants to know the MAC address of the corresponding IP address, it broadcasts an ARP request message to all the hosts connected to the network. All hosts receive the ARP request, and the host with the information on the requested IP address and MAC address will reply with the IP, MAC pair information via unicast [1].

This IP, MAC pair information is efficiently managed through the ARP cache table. Typically, ARP cache entries expire after 20-minute intervals, and in some operating systems, the expiration timer is reset. As shown in Figure 1, Host Y sends an ARP request message to all the hosts connected to the local network to get the MAC address of Host X. Host X sends the ARP reply message, its IP, MAC pair information, to Host Y via unicast [2, 3].

2.1. Problems in ARP and ARP Spoofing

As ARP updates the host’s ARP cache table in the absence of reliable mutual agreement procedures while transmitting the request/reply messages, it has a few fundamental security problems. ARP spoofing attacks are described as follows [4].(i)Block host: an attacker, using the ARP spoofing technique, can change the ARP cache table. The packets sent by the host, in which the ARP cache table is changed, do not reach the real destination address but reach the attacker. Thus, the host network can be blocked by the attacker.(ii)Host impersonation: an attacker can impersonate a host, and, by doing so, can discard the host’s packet and cancel the host’s request.(iii)Man-in-the-middle (MITM) attack: an attacker can change the ARP cache table of two hosts and monitor the communication between them.

2.2. Security Requirements for an Ideal Solution

We can consider the following security requirements as the response scheme for ARP spoofing attacks [3].(1)Management costs of hosts should be controlled.(2)The cryptographic processing, which can lower the performance of ARP, should be minimized.(3)Prevention and block should be detected with timely warnings, which will alert the administrator about the attack situation.(4)The solution has to be universal and easily applicable.(5)Hardware costs should be minimized.(6)The solution has to be compatible with ARP.(7)It should not slow down the ARP request/reply communications.(8)If possible, it should consider all the ARP attacks.(9)The network traffic should be contained.

2.3. Existing Research

Gouda and Huang [5] proposed a structure that resolves the security problems of MAC address and IP address within the Ethernet. The proposed scheme consists of a security server whose two protocols, Invite-accept and Request-reply, are connected to all hosts. Each host checks, through Invite-accept and Request-reply, the IP address and MAC address from the security server, thereby enhancing security [5]. Secure ARP (S-ARP) uses the public and private key pair, authorized through an asymmetric encryption algorithm. All hosts create public and private key pairs during the initial contact of the network and send them with signed certificates to the authoritative key distributor (AKD). Thus, an ARP spoofing attack can be prevented by identifying whether the transmitted request is from a valid user [6]. The port security scheme proposes a form of security using a physical port at the MAC address formed at the switch. Port security can be an effective defense against an attacker who replicates a MAC address. This scheme can definitely protect hosts from MAC-hijacking-type attacks [2, 3]. Dynamic ARP inspection (DAI) is a scheme that can only be used with certain switch types. DAI solves security problems by preventing invalid or malicious ARP packets that are delivered from the network. It identifies whether the ARP packet is valid by comparing the packet at the switch, before it is delivered. If a security problem is detected, the packet is deleted [2, 3]. The ticket-based address resolution protocol (T-ARP) defends ARP spoofing by distributing the centrally secured IP address and MAC address mapping proof. This proof, called ticket, is delivered to the client when it approaches the network. Unlike other public key methods, this protocol can reduce costs [7]. Xing et al. proposed a scheme to capture and filter ARP packets using the WinPcap library. This method involves collecting ARP packets through a WinPcap filtering setting. If the collected ARP packet has a valid value, the ARP cache table is updated [8]. Ramachandran and Nandi proposed a scheme for detecting ARP spoofing through the mismatch of the ARP request/response packet and the IP, MAC pair of TCP SYN. When the information in an ARP request/response packet is different from that of the IP, MAC, and the TCP connection is made, ARP spoofing is assumed. Following this, all attack packets are dropped and reported to the server [9]. P-ARP proposed by Limmaneewichid and Lilakiatsakun [10] modifies only the confirmed ARP packet, an ARP protocol 28-byte ARP message with an 18-byte authentication data ARP trailer attached [10]. ASA is set to static all the Link Type of ARP Cache Table. ASA is not use the ARP Filter Driver of Kernel layer and directly update using encrypted ARP information in ASA agent [11].

3. DS-ARP Scheme

In this section, the proposed detection scheme for ARP spoofing attack using a routing trace, namely detection scheme for ARP spoofing (DS-ARP), is discussed in detail.

3.1. Architecture

The architecture of the proposed scheme can be divided into the agent and server side. Detection and protection are the key technologies involved, as shown in Figure 2.

Detection periodically keeps the updated state of the ARP cache table under surveillance. When the ARP cache table is updated, the DS-ARP performs a routing trace to identify the corresponding IP, MAC pair information. If an ARP spoofing attack is suspected, it reports to the server and initiates the protection process. It also converts the corresponding IP, MAC pair ARP type to static mode. Table 1 shows the description of acronym.


AcronymDescription

ACTMMARP cache table monitor manger
PSMPacket send manager
TRVTrace routing validation
ACTMARP cache table manager
ACTRARP cache table repository
DatabaseDatabase

3.2. Operation Process of DS-ARP

The detection module periodically keeps the ARP cache table under surveillance and checks changed items. Once a change in the ARP cache table is identified, the DS-ARP determines whether an ARP spoofing attack has taken place through a routing trace.

The protection module converts the IP, MAC pair information, which is changed, by the ARP spoofing attack in the ARP cache table list, to the previous state. It prevents ARP spoofing attacks by changing the link type from a dynamic state to a static state.

Step 1 (Detection). See Figure 3. ACTMM (ARP cache table surveillance). ACTM periodically monitors the ARP cache table and the information in the host network. ACTMM PSM (sending the ACT changed identity). The changed information in the ARP cache table is transmitted to PSM using ACTMM. PSM (sending an ICMP packet). PSM sends the ICMP packet in which the TTL value is increased to TRV. PSM TRV (sending the ICMP result). PSM sends the resultant values of ICMP response to TRV. TRV (ICMP validation). TRV checks the moving path of the ICMP and identifies ARP spoofing attacks.

Step 2 (Protection). See Figure 4. ACTM (changing the ARP link type). ACTMN protects the host by changing the ARP link type of the corresponding IP, MAC pair from a dynamic mode to a static mode. ACTM ACTR (requesting for the IP, MAC pair). ACTM requests the ACTR for the normal IP, MAC pair, that is, before it was changed. ACTR ACTM (responding with the IP, MAC pair). ACTR responds to ACTM with the normal IP, MAC pair before the pair was changed. ACTM (changing the IP, MAC pair). ACTM applies the normal IP, MAC pair to the ARP cache table. ACTM Database (sending information regarding the victim host). ACTM sends information regarding the victim host to the database. Database (update). Database updates the information about the victim host to the ARP spoofing attacked state.

3.3. Analyses of the Proposed DS-ARP

In this section, we analyze the existing schemes and the proposed DS-ARP based on the security requirements described in Section 2.2. A comparison of current schemes versus the proposed scheme is shown in Table 2.


ClassificationT-ARP [7]Xing [10]P-ARP [12]ASA [7]DS-ARP

Host cost minimization
Cryptographic technique minimization
Warning/detection effectiveness
Universality, easy applicability
Hardware costs minimization
ARP compatibility
ARP speed
Network loading
Security

: Strong, ○: Medium, △: Weak.

The scheme of using the WinPcap library by Xing et al. has the disadvantage of continuously monitoring the ARP packets and repeatedly comparing them with local information. The scheme proposed by Ramachandran and Nandi causes excessive traffic in the network. Although S-ARP and T-ARP are the most infallible schemes for preventing ARP spoofing, using a pair of authorized keys, their disadvantage is the requirement of an ARP protocol change. Port security cannot be a perfect solution, as it is vulnerable to MITM attacks.

The DAI has a drawback in that the network configuration and switches need to be changed. Limmaneewichid and Lilakiatsakun proposed an effective scheme that ensures the integrity of the ARP packet. However this scheme slows down the network to an unacceptable level. Abad and Bonilla defined the requirements to be fulfilled by the ARP spoofing solution schemes. Based on these requirements, the existing schemes and the scheme proposed in this study are compared in Table 2. The existing schemes can increase the system and network load. In addition, they either are hardware-dependent or perform limited ARP spoofing detection. Furthermore, the current schemes influence the speed of ARP or result in a direct overhead on the network, and they are not easy to use because of their universal disadvantages. ASA is not compatible with ARP.

The proposed DS-ARP can overcome the problems of the existing schemes and it offers a simple and high-performance solution. The detection and protection scenario for the proposed scheme is discussed in the following two steps.

Step 1 (Detection). When the network is attacked through ARP spoofing, the moving path of the network bypasses the attacker’s host and passes the gateway. As shown in Figure 5, if there is a change in the ARP cache table and the gateway of Host A’s network information does not move to the primary path through network routing tracing, it can be deemed that an ARP spoofing attack has taken place in the network.

The routing tracing of the network uses the time-exceeded ICMP message of the ICMP protocol. The TTL value of ICMP decreases with each pass through the router. In other words, if the packet is sent after setting the TTL value to one, the first router on the path will cause the time-exceeded message to return. The network path can be traced by increasing the TTL value.

Step 2 (Protection). Once it is deemed that an ARP spoofing attack has taken place, the changed IP, MAC pair of the ARP cache table is restored to that stored in the memory and is converted to static. An ARP spoofing warning is sent to the server. Figure 6 explains a case of the ARP spoofing detection.

4. Conclusion

We discussed a new detection scheme for ARP spoofing attacks based on routing trace for ubiquitous environments in this paper. This scheme detects ARP attacks through real-time monitoring of the ARP cache table and a routing trace and protects the hosts from attackers through ARP Link Type Control which changes from dynamic to static. In addition, it can solve problems such as host impersonation, man-in-the-middle attack, and block of host. And also, the proposed scheme does not require an ARP protocol change or a complex encryption algorithm; moreover, it does not cause high system load.

Despite the various solutions presented in this paper, new attack techniques can still cause new security problems, since the ARP protocol has a few basic weaknesses. Therefore, further studies on resolving the fundamental security vulnerabilities of the ARP protocol are required.

Conflict of Interests

The authors declare that there is no conflict of interests regarding the publication of this paper.

Acknowledgments

This research was supported by the MSIP (Ministry of Science, ICT, and Future Planning), Korea, under the ITRC (Information Technology Research Center) support program (NIPA-2014-H0301-14-1021), supervised by the NIPA (National IT Industry Promotion Agency).

References

  1. R. Philip, Securing wireless networks from ARP cache poisoning [M.S. thesis], San Jose State University, 2007.
  2. C. L. Abad and R. I. Bonilla, “An analysis on the schemes for detecting and preventing ARP cache poisoning attacks,” in Proceeding of the 27th International Conference on Distributed Computing Systems Workshops (ICDCSW '07), pp. 22–29, Toronto, Canada, June 2007. View at: Publisher Site | Google Scholar
  3. S. Y. Nam, S. Djuraev, and M. Park, “Collaborative approach to mitigating ARP poisoning-based Man-in-the-Middle attacks,” Computer Networks, vol. 57, pp. 3866–3884, 2013. View at: Google Scholar
  4. L. Wu, T. Yu, D. Wu, and J. Cheng, “The Research and Implementation of ARP Monitoring and Protection,” in Proceedings of the International Conference on Internet Technology and Applications (iTAP '11), pp. 1–4, Wuhan, China, August 2011. View at: Publisher Site | Google Scholar
  5. M. G. Gouda and C.-T. Huang, “A secure address resolution protocol,” Computer Networks, vol. 41, no. 1, pp. 57–71, 2003. View at: Publisher Site | Google Scholar
  6. D. Bruschi, A. Ornaghi, and E. Rosti, “S-ARP: a secure address resolution protocol,” in Proceedings of the Computer Security Applications Conference, pp. 66–74, December 2003. View at: Google Scholar
  7. W. Lootah, W. Enck, and P. McDaniel, “TARP: ticket-based address resolution protocol,” Computer Networks, vol. 51, no. 15, pp. 4322–4337, 2007. View at: Publisher Site | Google Scholar
  8. W. Xing, Y. Zhao, and T. Li, “Research on the defense against ARP spoofing attacks based on Winpcap,” in Proceedings of the 2nd International Workshop on Education Technology and Computer Science (ETCS '10), pp. 762–765, March 2010. View at: Publisher Site | Google Scholar
  9. V. Ramachandran and S. Nandi, “Detecting ARP Spoofing: an active technique,” Information Systems Security, vol. 3803, pp. 239–250, 2005. View at: Google Scholar
  10. P. Limmaneewichid and W. Lilakiatsakun, “P-ARP: a novel enhanced authentication scheme for securing ARP,” in Proceedings of the International Conference on Telecommunication Technology and Applications, vol. 5, pp. 83–87, May 2011. View at: Google Scholar
  11. M. Oh, Y.-G. Kim, S. Hong, and S. Cha, “ASA: agent-based secure ARP cache management,” IET Communications, vol. 6, no. 7, pp. 685–693, 2012. View at: Publisher Site | Google Scholar
  12. A. P. Ortega, X. E. Marcos, L. D. Chiang, and C. L. Abad, “Preventing ARP cache poisoning attacks: a proof of concept using OpenWrt,” in Proceedings of the 6th IEEE/IFIP Latin American Network Operations and Management Symposium (LANOMS '09), pp. 1–9, October 2009. View at: Publisher Site | Google Scholar

Copyright © 2014 Min Su Song et al. This is an open access article distributed under the Creative Commons Attribution License, which permits unrestricted use, distribution, and reproduction in any medium, provided the original work is properly cited.


More related articles

3827 Views | 1522 Downloads | 7 Citations
 PDF Download Citation Citation
 Download other formatsMore
 Order printed copiesOrder

Related articles

We are committed to sharing findings related to COVID-19 as quickly as possible. We will be providing unlimited waivers of publication charges for accepted research articles as well as case reports and case series related to COVID-19. Review articles are excluded from this waiver policy. Sign up here as a reviewer to help fast-track new submissions.