Free Jun-2025 UPDATED HP HPE6-A78 Exam Questions & Answer
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HP HPE6-A78 (Aruba Certified Network Security Associate) certification exam is designed for professionals who are interested in validating their knowledge and skills in network security. Aruba Certified Network Security Associate Exam certification exam is particularly useful for individuals who are interested in working with Aruba products and technologies. HPE6-A78 exam is designed to test a candidate's ability to implement, configure, and troubleshoot Aruba network security solutions.
HP HPE6-A78 (Aruba Certified Network Security Associate) Certification Exam is a valuable certification for network professionals who want to specialize in wireless network security. Aruba Certified Network Security Associate Exam certification can enhance their career prospects and provide them with the necessary skills to secure wireless networks against cyber threats.
NEW QUESTION # 92
A company has a WLAN that uses Tunnel forwarding mode and WPA3-Enterprise security, supported by an Aruba Mobility Controller (MC) and campus APs (CAPs). You have been asked to capture packets from a wireless client connected to this WLAN and submit the packets to the security team.
What is a guideline for this capture?
- A. You should mirror traffic from the switch port that connects to the AP out on a port connected to a packet analyzer.
- B. You should capture the traffic on the AP, so that the capture is as close to the source as possible.
- C. You should use an Air Monitor (AM) to capture the packets in the air.
- D. You should capture the traffic on the MC dataplane to obtain unencrypted traffic.
Answer: C
Explanation:
The correct approach for capturing packets from a wireless client in a WLAN that uses Tunnel forwarding mode and WPA3-Enterprise, managed by an Aruba Mobility Controller and Campus APs, is to use an Air Monitor (AM). An AM is specifically designed to capture wireless traffic "in the air," which means it listens to the wireless signals transmitted between devices and the access points. This method ensures that the capture includes all the necessary details while maintaining the integrity and security of the data as it is transmitted over the air. Using an Air Monitor helps in analyzing the raw wireless traffic before it gets encrypted or tunneled to the Mobility Controller, providing a clear view of the wireless client's activity and interactions. The information regarding the use of Air Monitors for packet capture in such environments can be found in the Aruba Network's official documentation and configuration guides for WLAN setups and security analysis.
NEW QUESTION # 93
What is an Authorized client as defined by ArubaOS Wireless Intrusion Prevention System (WIP)?
- A. a client that has a certificate issued by a trusted Certification Authority (CA)
- B. a client that is not on the WIP blacklist
- C. a client that has successfully authenticated to an authorized AP and passed encrypted traffic
- D. a client that is on the WIP whitelist.
Answer: C
Explanation:
In the context of ArubaOS Wireless Intrusion Prevention System (WIP), an authorized client is defined as a client that has successfully authenticated to an authorized Access Point (AP) and has passed encrypted traffic. This ensures that only clients which have been verified and authenticated according to the network's security policies are allowed to access network resources. Authentication typically involves credentials that are validated by a server, confirming the client's right to access the network securely.
:
ArubaOS Wireless Intrusion Prevention System configuration and management guidelines.
NEW QUESTION # 94
What are some functions of an AruDaOS user role?
- A. The role determines which authentication methods the user must pass to gain network access
- B. The role determines which control plane ACL rules apply to the client's traffic
- C. The role determines which firewall policies and bandwidth contract apply to the clients traffic
- D. The role determines which wireless networks (SSiDs) a user is permitted to access
Answer: C
Explanation:
An ArubaOS user role determines the firewall policies and bandwidth contracts that apply to the client's traffic. When a user is authenticated, they are assigned a role, and this role has associated policies that govern network access rights, Quality of Service (QoS), Layer 2 forwarding, Layer 3 routing behaviors, and bandwidth contracts for users or devices.
References:
Aruba Networks official documentation on user roles in ArubaOS.
Technical guides that detail user role definitions and their impact on network policies.
NEW QUESTION # 95
What is social engineering?
- A. Hackers spoof the source IP address in their communications so they appear to be a legitimate user.
- B. Hackers intercept traffic between two users, eavesdrop on their messages, and pretend to be one or both users.
- C. Hackers use employees to circumvent network security and gather the information they need to launch an attack.
- D. Hackers use Artificial Intelligence (Al) to mimic a user's online behavior so they can infiltrate a network and launch an attack.
Answer: C
Explanation:
Social engineering in the context of network security refers to the techniques used by hackers to manipulate individuals into breaking normal security procedures and best practices to gain unauthorized access to systems, networks, or physical locations, or for financial gain. Hackers use various forms of deception to trick employees into handing over confidential or personal information that can be used for fraudulent purposes. This definition encompasses phishing attacks, pretexting, baiting, and other manipulative techniques designed to exploit human psychology. Unlike other hacking methods that rely on technical means, social engineering targets the human element of security. to social engineering, its methods, and defense strategies are commonly found in security training manuals, cybersecurity awareness programs, and authoritative resources like those from the SANS Institute or cybersecurity agencies.
NEW QUESTION # 96
How does the ArubaOS firewall determine which rules to apply to a specific client's traffic?
- A. The firewall applies the rules in policies associated with the client's wlan
- B. The firewall applies every rule that includes the client's IP address as the source or destination.
- C. The firewall applies thee rules in policies associated with the client's user role.
- D. The firewall applies every rule that includes the dent's IP address as the source.
Answer: D
NEW QUESTION # 97
Your AOS solution has detected a rogue AP with Wireless Intrusion Prevention (WIP). Which information about the detected radio can best help you to locate the rogue device?
- A. The confidence level
- B. The detecting devices
- C. The match type
- D. The match method
Answer: B
Explanation:
In an HPE Aruba Networking AOS-8 solution, the Wireless Intrusion Prevention (WIP) system is used to detect and classify rogue Access Points (APs). When a rogue AP is detected, the AOS system provides various pieces of information about the detected radio, such as the SSID, BSSID, match method, match type, confidence level, and the devices that detected the rogue AP. The goal is to locate the physical rogue device, which requires identifying its approximate location in the network environment.
Option A, "The detecting devices," is correct. The "detecting devices" refer to the authorized APs or radios that detected the rogue AP's signal. This information is critical for locating the rogue device because it provides the physical locations of the detecting APs. By knowing which APs detected the rogue AP and their signal strength (RSSI) readings, you can triangulate the approximate location of the rogue AP. For example, if AP-1 in Building A and AP-2 in Building B both detect the rogue AP, and AP-1 reports a stronger signal, the rogue AP is likely closer to AP-1 in Building A.
Option B, "The match method," is incorrect. The match method (e.g., "Plus one," "Eth-Wired-Mac-Table") indicates how the rogue AP was classified (e.g., based on a BSSID close to a known MAC or its presence on the wired network). While this helps understand why the AP was classified as rogue, it does not directly help locate the physical device.
Option C, "The confidence level," is incorrect. The confidence level indicates the likelihood that the AP is correctly classified as rogue (e.g., 90% confidence). This is useful for assessing the reliability of the classification but does not provide location information.
Option D, "The match type," is incorrect. The match type (e.g., "Rogue," "Suspected Rogue") specifies the category of the classification. Like the match method, it helps understand the classification but does not aid in physically locating the device.
The HPE Aruba Networking AOS-8 8.11 User Guide states:
"When a rogue AP is detected by the Wireless Intrusion Prevention (WIP) system, the 'detecting devices' information lists the authorized APs or radios that detected the rogue AP's signal. This is the most useful information for locating the rogue device, as it provides the physical locations of the detecting APs. By analyzing the signal strength (RSSI) reported by each detecting device, you can triangulate the approximate location of the rogue AP. For example, if AP-1 and AP-2 detect the rogue AP, and AP-1 reports a higher RSSI, the rogue AP is likely closer to AP-1." (Page 416, Rogue AP Detection Section) Additionally, the HPE Aruba Networking Security Guide notes:
"To locate a rogue AP, use the 'detecting devices' information in the AOS Detected Radios page. This lists the APs that detected the rogue AP, along with signal strength data, enabling triangulation to pinpoint the rogue device's location." (Page 80, Locating Rogue APs Section)
:
HPE Aruba Networking AOS-8 8.11 User Guide, Rogue AP Detection Section, Page 416.
HPE Aruba Networking Security Guide, Locating Rogue APs Section, Page 80.
NEW QUESTION # 98
What role does the Aruba ClearPass Device Insight Analyzer play in the Device Insight architecture?
- A. It resides In the cloud and applies machine learning and supervised crowdsourcing to metadata sent by Collectors
- B. It resides on-prem and is responsible for running active SNMP and Nmap scans
- C. It resides in the cloud and manages licensing and configuration for Collectors
- D. It resides on-prem and provides the span port to which traffic is mirrored for deep analytics.
Answer: A
Explanation:
The Aruba ClearPass Device Insight Analyzer plays a crucial role within the Device Insight architecture by residing in the cloud and applying machine learning and supervised crowdsourcing to the metadata sent by Collectors. This component of the architecture is responsible for analyzing vast amounts of data collected from the network to identify and classify devices accurately. By utilizing machine learning algorithms and crowdsourced input, the Device Insight Analyzer enhances the accuracy of device detection and classification, thereby improving the overall security and management of the network.
:
Aruba ClearPass official documentation and whitepapers that detail the functionality and deployment of the Device Insight Analyzer.
Technical articles and presentations on network security solutions that discuss the use of machine learning and data analytics in device management.
NEW QUESTION # 99
Which attack is an example of social engineering?
- A. A hacker eavesdrops on insecure communications, such as Remote Desktop Protocol (RDP), and discovers login credentials.
- B. An attack exploits an operating system vulnerability and locks out users until they pay the ransom.
- C. An email is used to impersonate a bank and trick users into entering their bank login information on a fake website page.
- D. A user visits a website and downloads a file that contains a worm, which self-replicates throughout the network.
Answer: C
Explanation:
Social engineering is a type of attack that relies on manipulating individuals into performing actions or divulging confidential information, often by exploiting human psychology rather than technical vulnerabilities. HPE Aruba Networking's security documentation, particularly in the context of Wireless Intrusion Prevention (WIP) and network security training, emphasizes the importance of recognizing social engineering as a common attack vector.
Option A, "An email is used to impersonate a bank and trick users into entering their bank login information on a fake website page," is a classic example of social engineering. This describes a phishing attack, where the attacker impersonates a trusted entity (a bank) to deceive users into providing sensitive information (login credentials) on a fraudulent website. Phishing is a well-documented form of social engineering that exploits trust and urgency to manipulate users.
Option B, "An attack exploits an operating system vulnerability and locks out users until they pay the ransom," describes a ransomware attack. This is a technical exploit that targets system vulnerabilities, not a social engineering attack, as it does not involve manipulating human behavior.
Option C, "A hacker eavesdrops on insecure communications, such as Remote Desktop Protocol (RDP), and discovers login credentials," describes a man-in-the-middle (MITM) or eavesdropping attack. This is a technical attack that exploits insecure communication protocols, not social engineering.
Option D, "A user visits a website and downloads a file that contains a worm, which self-replicates throughout the network," describes a malware infection (specifically a worm). While the user's action of downloading the file might involve some level of deception, this is not primarily a social engineering attack; it's a malware delivery mechanism that relies on the user's action but not necessarily on psychological manipulation.
The HPE Aruba Networking AOS-8 8.11 User Guide states:
"Social engineering attacks manipulate individuals into performing actions or divulging confidential information. A common example is phishing, where attackers send fraudulent emails that appear to come from a trusted source, such as a bank, to trick users into providing sensitive information like login credentials or financial details on a fake website." (Page 421, Security Threats Section) Additionally, the HPE Aruba Networking Security Fundamentals Guide notes:
"Phishing is a form of social engineering that uses deceptive emails, text messages, or other communications to trick users into revealing sensitive information or performing actions, such as clicking on malicious links or entering credentials on fraudulent websites." (Page 15, Social Engineering Section)
:
HPE Aruba Networking AOS-8 8.11 User Guide, Security Threats Section, Page 421.
HPE Aruba Networking Security Fundamentals Guide, Social Engineering Section, Page 15.
NEW QUESTION # 100
What is an example of passive endpoint classification?
- A. SSH scans
- B. WMI scans
- C. TCP fingerprinting
- D. SNMP scans
Answer: C
Explanation:
Endpoint classification in HPE Aruba Networking ClearPass Policy Manager (CPPM) involves identifying and categorizing devices on the network to enforce access policies. CPPM supports two types of profiling methods: passive and active.
Passive Profiling: Involves observing network traffic that devices send as part of their normal operation, without CPPM sending any requests to the device. Examples include DHCP fingerprinting, HTTP User-Agent analysis, and TCP fingerprinting.
Active Profiling: Involves CPPM sending requests to the device to gather information, such as SNMP scans, WMI scans, or SSH probes.
Option A, "TCP fingerprinting," is correct. TCP fingerprinting is a passive profiling method where CPPM analyzes TCP packet headers (e.g., TTL, window size) in the device's normal network traffic to identify its operating system. This does not require CPPM to send any requests to the device, making it a passive method.
Option B, "SSH scans," is incorrect. SSH scans involve actively connecting to a device over SSH to gather information (e.g., system details), which is an active profiling method.
Option C, "WMI scans," is incorrect. Windows Management Instrumentation (WMI) scans involve CPPM querying a Windows device to gather information (e.g., OS version, installed software), which is an active profiling method.
Option D, "SNMP scans," is incorrect. SNMP scans involve CPPM sending SNMP requests to a device to gather information (e.g., system description, interfaces), which is an active profiling method.
The HPE Aruba Networking ClearPass Policy Manager 6.11 User Guide states:
"Passive profiling methods observe network traffic that endpoints send as part of their normal operation, without ClearPass sending any requests to the device. An example of passive profiling is TCP fingerprinting, where ClearPass analyzes TCP packet headers (e.g., TTL, window size) to identify the device's operating system. Active profiling methods, such as SNMP scans, WMI scans, or SSH scans, involve ClearPass sending requests to the device to gather information." (Page 246, Passive vs. Active Profiling Section) Additionally, the ClearPass Device Insight Data Sheet notes:
"Passive profiling techniques, such as TCP fingerprinting, allow ClearPass to identify devices without generating additional network traffic. By analyzing TCP attributes in the device's normal traffic, ClearPass can fingerprint the OS, making it a non-intrusive method for endpoint classification." (Page 3, Profiling Methods Section)
:
HPE Aruba Networking ClearPass Policy Manager 6.11 User Guide, Passive vs. Active Profiling Section, Page 246.
ClearPass Device Insight Data Sheet, Profiling Methods Section, Page 3.
NEW QUESTION # 101
A company has Aruba Mobility Controllers (MCs). Aruba campus APs. and ArubaOS-CX switches. The company plans to use ClearPass Policy Manager (CPPM) to classify endpoints by type The ClearPass admins tell you that they want to run Network scans as part of the solution What should you do to configure the infrastructure to support the scans?
- A. Create device fingerprinting profiles on the ArubaOS-Switches that include SNMP. and apply the profiles to edge ports
- B. Create SNMPv3 users on ArubaOS-CX switches, and make sure that the credentials match those configured on CPPM
- C. Create remote mirrors on the ArubaOS-Swrtches that collect traffic on edge ports, and mirror it to CPPM's IP address.
- D. Create a TA profile on the ArubaOS-Switches with the root CA certificate for ClearPass's HTTPS certificate
Answer: A
NEW QUESTION # 102
You are deploying a new wireless solution with an Aruba Mobility Master (MM). Aruba Mobility Controllers (MCs), and campus APs (CAPs). The solution will include a WLAN that uses Tunnel for the forwarding mode and WPA3-Enterprise for the security option.
You have decided to assign the WLAN to VLAN 301, a new VLAN. A pair of core routing switches will act as the default router for wireless user traffic.
Which links need to carry VLAN 301?
- A. only links between MC ports and the core routing switches
- B. only links on the path between APs and the core routing switches
- C. only links in the campus LAN to ensure seamless roaming
- D. only links on the path between APs and the MC
Answer: A
Explanation:
In a wireless network deployment with Aruba Mobility Master (MM), Mobility Controllers (MCs), and Campus APs (CAPs), where a WLAN is configured to use Tunnel mode for forwarding, the user traffic is tunneled from the APs to the MCs. VLAN 301, which is assigned to the WLAN, must be present on the links from the MCs to the core routing switches because these switches act as the default router for the wireless user traffic. It is not necessary for the VLAN to be present on all campus LAN links or AP links, only between the MCs and the core routing switches where the routing for VLAN 301 will occur.
NEW QUESTION # 103
What is one of the roles of the network access server (NAS) in the AAA framewonx?
- A. It enforces access to network services and sends accounting information to the AAA server
- B. It authenticates legitimate users and uses policies to determine which resources each user is allowed to access.
- C. It determines which resources authenticated users are allowed to access and monitors each users session
- D. It negotiates with each user's device to determine which EAP method is used for authentication
Answer: B
NEW QUESTION # 104
Which is a correct description of a Public Key Infrastructure (PKI)?
- A. A device uses Intermediate Certification Authorities (CAs) to enable it to trust root CAs that are different from the root CA that signed its own certificate.
- B. Root Certification Authorities (CAs) primarily sign certificates, and Intermediate Certification Authorities (CAs) primarily validate signatures.
- C. A user must manually choose to trust a root Certification Authority (CA) certificate, or the root CA certificate must be installed on the device as trusted.
- D. A user must manually choose to trust intermediate and end-entity certificates, or those certificates must be installed on the device as trusted in advance.
Answer: C
Explanation:
Public Key Infrastructure (PKI) relies on a trusted root Certification Authority (CA) to issue certificates. Devices and users must trust the root CA for the PKI to be effective. If a root CA certificate is not pre-installed or manually chosen to be trusted on a device, any certificates issued by that CA will not be inherently trusted by the device.
NEW QUESTION # 105
Your company policies require you to encrypt logs between network infrastructure devices and Syslog servers. What should you do to meet these requirements on an ArubaOS-CX switch?
- A. Specify a priv key with the Syslog settings that matches a priv key on the Syslog server.
- B. Specify the Syslog server with the TLS option and make sure the switch has a valid certificate.
- C. Set up RadSec and then enable Syslog as a protocol carried by the RadSec tunnel.
- D. Specify the Syslog server with the UDP option and then add an CPsec tunnel that selects Syslog.
Answer: B
Explanation:
To ensure secure transmission of log data over the network, particularly when dealing with sensitive or critical information, using TLS (Transport Layer Security) for encrypted communication between network devices and syslog servers is necessary:
Secure Logging Setup: When configuring an ArubaOS-CX switch to send logs securely to a Syslog server, specifying the server with the TLS option ensures that all transmitted log data is encrypted. Additionally, the switch must have a valid certificate to establish a trusted connection, preventing potential eavesdropping or tampering with the logs in transit.
Other Options:
Option B, Option C, and Option D are less accurate or applicable for directly encrypting log data between the device and Syslog server as specified in the company policies.
NEW QUESTION # 106
What is one difference between EAP-Tunneled Layer Security (EAP-TLS) and Protected EAP (PEAP)?
- A. EAP-TLS requires the supplicant to authenticate with a certificate, but PEAP allows the supplicant to use a username and password.
- B. EAP-TLS creates a TLS tunnel for transmitting user credentials, while PEAP authenticates the server and supplicant during a TLS handshake.
- C. EAP-TLS begins with the establishment of a TLS tunnel, but PEAP does not use a TLS tunnel as part of its process.
- D. EAP-TLS creates a TLS tunnel for transmitting user credentials securely, while PEAP protects user credentials with TKIP encryption.
Answer: A
Explanation:
EAP-TLS (Extensible Authentication Protocol - Transport Layer Security) and PEAP (Protected EAP) are two EAP methods used for 802.1X authentication in wireless networks, such as those configured with WPA3-Enterprise on HPE Aruba Networking solutions. Both methods are commonly used with ClearPass Policy Manager (CPPM) for secure authentication.
EAP-TLS:
Requires both the supplicant (client) and the server (e.g., CPPM) to present a valid certificate during authentication.
Establishes a TLS tunnel to secure the authentication process, but the primary authentication mechanism is the mutual certificate exchange. The client's certificate is used to authenticate the client, and the server's certificate authenticates the server.
PEAP:
Requires only the server to present a certificate to authenticate itself to the client.
Establishes a TLS tunnel to secure the authentication process, within which the client authenticates using a secondary method, typically a username and password (e.g., via MS-CHAPv2 or EAP-GTC).
Option A, "EAP-TLS begins with the establishment of a TLS tunnel, but PEAP does not use a TLS tunnel as part of its process," is incorrect. Both EAP-TLS and PEAP establish a TLS tunnel. In EAP-TLS, the TLS tunnel is used for the mutual certificate exchange, while in PEAP, the TLS tunnel protects the inner authentication (e.g., username/password).
Option B, "EAP-TLS requires the supplicant to authenticate with a certificate, but PEAP allows the supplicant to use a username and password," is correct. This is a key difference: EAP-TLS mandates certificate-based authentication for the client, while PEAP allows the client to authenticate with a username and password inside the TLS tunnel, making PEAP more flexible for environments where client certificates are not deployed.
Option C, "EAP-TLS creates a TLS tunnel for transmitting user credentials, while PEAP authenticates the server and supplicant during a TLS handshake," is incorrect. Both methods use a TLS tunnel, and both authenticate the server during the TLS handshake (using the server's certificate). In EAP-TLS, the client's certificate is also part of the TLS handshake, while in PEAP, the client's credentials (username/password) are sent inside the tunnel after the handshake.
Option D, "EAP-TLS creates a TLS tunnel for transmitting user credentials securely, while PEAP protects user credentials with TKIP encryption," is incorrect. PEAP does not use TKIP (Temporal Key Integrity Protocol) for protecting credentials; TKIP is a legacy encryption method used in WPA/WPA2 for wireless data encryption, not for EAP authentication. PEAP uses the TLS tunnel to protect the inner authentication credentials.
The HPE Aruba Networking ClearPass Policy Manager 6.11 User Guide states:
"EAP-TLS requires both the supplicant and the server to present a valid certificate for mutual authentication. The supplicant authenticates using its certificate, and the process is secured within a TLS tunnel. In contrast, PEAP requires only the server to present a certificate to establish a TLS tunnel, within which the supplicant can authenticate using a username and password (e.g., via MS-CHAPv2 or EAP-GTC). This makes PEAP more suitable for environments where client certificates are not deployed." (Page 292, EAP Methods Section) Additionally, the HPE Aruba Networking Wireless Security Guide notes:
"A key difference between EAP-TLS and PEAP is the client authentication method. EAP-TLS mandates that the client authenticate with a certificate, requiring certificate deployment on all clients. PEAP allows the client to authenticate with a username and password inside a TLS tunnel, making it easier to deploy in environments without client certificates." (Page 40, 802.1X Authentication Methods Section)
:
HPE Aruba Networking ClearPass Policy Manager 6.11 User Guide, EAP Methods Section, Page 292.
HPE Aruba Networking Wireless Security Guide, 802.1X Authentication Methods Section, Page 40.
NEW QUESTION # 107
What is a benefit of deploying HPE Aruba Networking ClearPass Device Insight?
- A. Highly accurate endpoint classification for environments with many device types, including Internet of Things (IoT)
- B. Visibility into devices' 802.1X supplicant settings and automated certificate deployment
- C. Simpler troubleshooting of ClearPass solutions across an environment with multiple ClearPass Policy Managers
- D. Agent-based analysis of devices' security settings and health status, with the ability to implement quarantining
Answer: A
Explanation:
HPE Aruba Networking ClearPass Device Insight is an advanced profiling solution integrated with ClearPass Policy Manager (CPPM) to enhance endpoint classification. It uses a combination of passive and active profiling techniques, along with machine learning, to identify and categorize devices on the network.
Option A, "Highly accurate endpoint classification for environments with many device types, including Internet of Things (IoT)," is correct. ClearPass Device Insight is designed to provide precise device profiling, especially in complex environments with diverse device types, such as IoT devices (e.g., smart cameras, thermostats). It leverages deep packet inspection (DPI), behavioral analysis, and a vast fingerprint database to accurately classify devices, enabling granular policy enforcement based on device type.
Option B, "Simpler troubleshooting of ClearPass solutions across an environment with multiple ClearPass Policy Managers," is incorrect. ClearPass Device Insight focuses on device profiling, not on troubleshooting ClearPass deployments. Troubleshooting across multiple CPPM instances would involve tools like the Event Viewer or Access Tracker, not Device Insight.
Option C, "Visibility into devices' 802.1X supplicant settings and automated certificate deployment," is incorrect. ClearPass Device Insight does not provide visibility into 802.1X supplicant settings or automate certificate deployment. Those functions are handled by ClearPass Onboard (for certificate deployment) or Access Tracker (for authentication details).
Option D, "Agent-based analysis of devices' security settings and health status, with the ability to implement quarantining," is incorrect. ClearPass Device Insight does not use agents for analysis; it relies on network traffic and active/passive profiling. Agent-based analysis and health status checks are features of ClearPass OnGuard, not Device Insight. Quarantining can be implemented by CPPM policies, but it's not a direct benefit of Device Insight.
The ClearPass Device Insight Data Sheet states:
"ClearPass Device Insight provides highly accurate endpoint classification for environments with many device types, including Internet of Things (IoT) devices. It uses a combination of passive and active profiling techniques, deep packet inspection (DPI), and machine learning to identify and categorize devices with precision, enabling organizations to enforce granular access policies in complex networks." (Page 2, Benefits Section) Additionally, the HPE Aruba Networking ClearPass Policy Manager 6.11 User Guide notes:
"ClearPass Device Insight enhances device profiling by offering highly accurate classification, especially for IoT and other non-traditional devices. It leverages a vast fingerprint database and advanced analytics to identify device types, making it ideal for environments with diverse endpoints." (Page 252, Device Insight Overview Section)
:
ClearPass Device Insight Data Sheet, Benefits Section, Page 2.
HPE Aruba Networking ClearPass Policy Manager 6.11 User Guide, Device Insight Overview Section, Page 252.
NEW QUESTION # 108
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