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Questions and Answers
What is the purpose of the SLS handshake step 3?
What is the purpose of the SLS handshake step 3?
- To find and associate the bridge with the user account
- To prove that the user has physical access to the bridge (correct)
- To create a user account
- To establish a secure connection with the Philips Cloud
What does the 'Access-Control-Allow-Origin: *' in the server response header indicate?
What does the 'Access-Control-Allow-Origin: *' in the server response header indicate?
- It requires user authentication for access
- It allows access from any origin, including local networks (correct)
- It restricts access to a specific domain
- It enforces strict same-origin policy
Which component of the Smart Lighting System (SLS) communicates with the Philips Cloud?
Which component of the Smart Lighting System (SLS) communicates with the Philips Cloud?
- Wired Connection (Ethernet)
- ZigBee
- Wi-Fi
- Philips Bridge (correct)
What is the main purpose of the SLS Handshake step 1?
What is the main purpose of the SLS Handshake step 1?
What is the potential risk associated with the 'Access-Control-Allow-Origin: *' setting in the server response header?
What is the potential risk associated with the 'Access-Control-Allow-Origin: *' setting in the server response header?
Which step of the SLS Handshake involves associating the bridge with the user account?
Which step of the SLS Handshake involves associating the bridge with the user account?
What technology does the Philips Bridge use to communicate with the Home Network?
What technology does the Philips Bridge use to communicate with the Home Network?
What is the purpose of the Smart Lighting System (SLS) Vulnerabilities section?
What is the purpose of the Smart Lighting System (SLS) Vulnerabilities section?
What happens when the user presses the button on the bridge during the SLS Handshake?
What happens when the user presses the button on the bridge during the SLS Handshake?
What was the first baby monitoring system based on?
What was the first baby monitoring system based on?
What is the main concern for parents/guardians regarding baby monitor appliances?
What is the main concern for parents/guardians regarding baby monitor appliances?
What vulnerability was reported for Foscam baby monitor at the 'Hack in the Box' conference?
What vulnerability was reported for Foscam baby monitor at the 'Hack in the Box' conference?
What does the Shodan search engine help find over the internet?
What does the Shodan search engine help find over the internet?
How do Foscam devices update their hostname mapping?
How do Foscam devices update their hostname mapping?
How can an attacker exploit the knowledge of Foscam device hostname ranges?
How can an attacker exploit the knowledge of Foscam device hostname ranges?
What type of systems are later models of baby monitors like Foscam and WeMo based on?
What type of systems are later models of baby monitors like Foscam and WeMo based on?
What is the security concern with modern baby monitoring systems using WiFi?
What is the security concern with modern baby monitoring systems using WiFi?
Which protocol is used by Foscam devices to update their hostname mapping?
Which protocol is used by Foscam devices to update their hostname mapping?
What is the risk factor associated with knowing the IP address of a Foscam device according to the text?
What is the risk factor associated with knowing the IP address of a Foscam device according to the text?
The SLS Handshake step 3 involves proving physical access to the bridge by pressing a button.
The SLS Handshake step 3 involves proving physical access to the bridge by pressing a button.
The POST request sent by the bridge during the SLS Handshake is used to verify that the user has physical access to the device.
The POST request sent by the bridge during the SLS Handshake is used to verify that the user has physical access to the device.
The 'Access-Control-Allow-Origin: *' setting in the server response header poses a potential risk of capturing SLS information from the victim's local network.
The 'Access-Control-Allow-Origin: *' setting in the server response header poses a potential risk of capturing SLS information from the victim's local network.
The Smart Lighting System (SLS) communicates with the Philips Cloud using a wired connection (Ethernet).
The Smart Lighting System (SLS) communicates with the Philips Cloud using a wired connection (Ethernet).
The bridge sends a Setup Complete message to the backend after the user proves physical access during the SLS Handshake.
The bridge sends a Setup Complete message to the backend after the user proves physical access during the SLS Handshake.
The SLS Handshake step 2 involves associating the bridge with the user account.
The SLS Handshake step 2 involves associating the bridge with the user account.
The SLS Handshake step 1 is to create a user account.
The SLS Handshake step 1 is to create a user account.
The server response header includes an 'Authorization' field with details such as SSOToken and Authentication.
The server response header includes an 'Authorization' field with details such as SSOToken and Authentication.
The victim can visit a website from his local network to capture SLS information due to the 'Access-Control-Allow-Origin: *' setting in the server response header.
The victim can visit a website from his local network to capture SLS information due to the 'Access-Control-Allow-Origin: *' setting in the server response header.
The SLS Vulnerabilities section mainly discusses potential risks and weaknesses of the Smart Lighting System (SLS).
The SLS Vulnerabilities section mainly discusses potential risks and weaknesses of the Smart Lighting System (SLS).
Foscam and WeMo are examples of IoT-based baby monitoring systems.
Foscam and WeMo are examples of IoT-based baby monitoring systems.
Eavesdropping is a significant concern for parents/guardians using baby monitor appliances.
Eavesdropping is a significant concern for parents/guardians using baby monitor appliances.
Modern baby monitoring systems using WiFi are less vulnerable to eavesdropping compared to radio wave monitoring systems.
Modern baby monitoring systems using WiFi are less vulnerable to eavesdropping compared to radio wave monitoring systems.
Foscam baby monitor was reported to be vulnerable to attacks once its IP address is known.
Foscam baby monitor was reported to be vulnerable to attacks once its IP address is known.
Shodan search engine can help find unprotected and vulnerable devices like Foscam baby monitor over the internet.
Shodan search engine can help find unprotected and vulnerable devices like Foscam baby monitor over the internet.
Foscam default password is enforced to be changed by the user upon setup.
Foscam default password is enforced to be changed by the user upon setup.
Foscam devices use User Datagram Protocol (UDP) to update their hostname mapping.
Foscam devices use User Datagram Protocol (UDP) to update their hostname mapping.
The UDP packet sent by Foscam devices contains the username and password associated with the device.
The UDP packet sent by Foscam devices contains the username and password associated with the device.
An attacker can exploit the knowledge of Foscam device hostname ranges to execute phishing attacks.
An attacker can exploit the knowledge of Foscam device hostname ranges to execute phishing attacks.
Guardian Ear was the first baby monitoring system based on Radio Waves.
Guardian Ear was the first baby monitoring system based on Radio Waves.
