Pass the Checkpoint CCTE 156-587 Questions and answers with ValidTests

The correct statement explaining the differences between the two procedures for debugging in the firewall kernel is D. (i) is used for general debugging, has a small buffer and is a quick way to set kernel debug flags to get an output via command line whereas (ii) is useful when there is a need for detailed debugging and requires additional steps to set the buffer and get an output via command line.

The command fw ctl zdebug is a shortcut command that sets the kernel debug flags to a predefined value and prints the debug output to the standard output. It is useful for general debugging of common issues, such as traffic drops, NAT, VPN, or clustering. It has a small buffer size and does not require additional steps to start or stop the debugging. However, it has some limitations, such as it cannot be used with SecureXL, it cannot filter the output by chain modules, and it cannot save the output to a file12.

The command fw ctl debug is a command that allows the administrator to set the kernel debug flags to a custom value and specify the chain modules to debug. It is useful for detailed debugging of specific issues, such as policy installation, CoreXL, or Identity Awareness. It has a larger buffer size and can save the output to a file. However, it requires additional steps to start and stop thedebugging, such as setting the buffer size, clearing the buffer, dumping the buffer, and resetting the debug flags12.

The command fw ctl kdebug is a command that is used in conjunction with fw ctl debug to dump the kernel debug buffer to the standard output or to a file. It is part of the procedure (ii) for detailed debugging in the firewall kernel12.

The other statements are not correct or relevant for explaining the differences between the two procedures for debugging in the firewall kernel. The command fw ctl zdebug can be used to debug more than just the access control policy, and the command fw ctl debug/kdebug can be used to debug more than just the unified policy. Both commands can be used on both the Security Gateway and the Security Management Server, depending on the issue to be debugged12.

 The correct command to check the subscription status on the CLI of the gateway is show license status. This command displays the current license information, such as the license type, expiration date, and subscription status for various blades, such as Anti-Bot, Anti-Virus, IPS, etc. The command also shows the contract status for each blade, such as valid, expired, or invalid. If John has renewed his NPTX license, but he gets an error that the contract for Anti-Bot expired, he can use this command to verify the contract status and the subscription status for the Anti-Bot blade.

The other commands are incorrect because:

A. fwm lie print is not a valid command. The correct command is fwm lic print, which displays the license information on the Security Management Server, not on the gateway. This command does not show the subscription status or the contract status for the blades.

B. fw monitor license status is not a valid command. The correct command is fw monitor, which is a tool for capturing network traffic on the gateway, not for checking the license status.

C. cpstat antimalware-f subscription status is not a valid command. The correct command is cpstat antimalware -f subscription_status, which displays the subscription status for the Anti-Virus blade, not for the Anti-Bot blade. This command does not show the contract status for the blade.

The cpca process is responsible for the generation of certificates on the Security Management Server or the Multi-Domain Security Management Server. It is the Check Point Internal Certificate Authority (ICA) that issues certificates for internal use, such as for VPN, HTTPS Inspection, SmartConsole, and Secure Internal Communication (SIC). The cpca process runs on the Security Management Server or the Multi-Domain Security Management Server as part of the Management High Availability module.

If you have modified kernel parameters (infwkern.conf, for example) and the gateway starts dropping traffic or behaving abnormally after a reboot, the best practice is to restore the original or a known-good configuration from backup. Then, reboot again so that the gateway loads the last known stable settings.

Option A(fw ctl set int fw1_kernel_all_disable=1) is not a standard or documented method for “undoing” all kernel tweaks.

Option B(Restore fwkem.conf from backup and reboot the gateway) is the correct and straightforward approach.

Option C(fw unloadlocal) removes the local policy but does not revert custom kernel parameters that have already been loaded at boot.

Option D(Remove all kernel parameters from fwkem.conf and reboot) might help in some cases, but you risk losing other beneficial or necessary parameters if there were legitimate custom settings. Restoring from a known-good backup is safer and more precise.

Hence, the best answer:

“Restore fwkem.conf from backup and reboot the gateway.”

Check Point Troubleshooting References

sk98339– Working with fwkern.conf (kernel parameters) in Gaia OS.

sk92739– Advanced System Tuning in Gaia OS.

Check Point Gaia Administration Guide– Section on kernel parameters and system tuning.

Check Point CLI Reference Guide– Explanation of using fw ctl, fw unloadlocal, and relevant troubleshooting commands.

 The top command is a Linux command that displays information about resource utilization for running processes and shows additional information for core utilization and memory. The top command provides a dynamic real-time view of the system, showing the processes that are consuming the most CPU, memory, and other resources. The top command also shows the total number of processes, the system load average, the uptime, and the CPU usage by user, system, andidle. The top command can be customized by using various options and interactive commands to change the display, sort the processes, filter the output, and kill processes.

The other commands are incorrect because:

B. vmstat is a Linux command that displays information about the virtual memory, CPU, disk, and system activity. It does not show information about individual processes or core utilization.

C. cptop is a Check Point command that displays information about the firewall kernel activity, such as the number of connections, packets, drops, and rejects. It does not show information about other processes or memory usage.

D. mpstat is a Linux command that displays information about the CPU utilization by each processor or core. It does not show information about processes or memory usage.

cpsemd is the process responsible for logging into the SmartEvent GUI. Therefore, you need to check the status of this process and debug it, if necessary. Usually, the issue withthe cpsemd process is that it is crashing, or not coming up. What causes this process to crash or not come up is that the PostgreSQL database is down. Therefore, in order to run the cpsemd process successfully, you need to run the PostgreSQL database successfully.

CPWD (Check Point WatchDog)is the process that monitors, terminates (if necessary), and restarts critical Check Point processes (e.g., FWD, FWM, CPM) when they stop responding or crash.

CPM(Check Point Management process) is a process on the Management Server responsible for the web-based SmartConsole connections, policy installations, etc.

FWD(Firewall Daemon) handles logging and communication functions in the Security Gateway.

FWM(FireWall Management) is an older reference to the management process on the Management Server for older versions.

Therefore, the best answer isCPWD.

Check Point Troubleshooting References

sk97638: Check Point WatchDog (CPWD) process explanation and commands.

R81.20 Administration Guide– Section on CoreXL, Daemons, and CPWD usage.

sk105217: Best Practices – Explains system processes, how to monitor them, and how CPWD is utilized.

The Check Point process responsible for Mobile VPN connections, particularly those associated with the Mobile Access Software Blade (which includes SSL VPN and clientless access), is cvpnd (Connectra VPN Daemon).

Exact Extracts and Supporting Information:

Check Point CLI Reference Guide (for cvpnd_admin):

"cvpnd_admin. Description. Changes the behavior of the Mobile Access cvpnd process."

This command utility directly interacts with cvpnd for Mobile Access functionalities.  

Check Point Daemon Lists (e.g., from "tech :: stuff - Checkpoint Daemons and Processes Explained" or similar CCTE R81.20 documentation):

Under the "Mobile Access Blade" section, CVPND is typically listed as:"CVPND - Connectra VPN Daemon. Main daemon for the Mobile Access Software Blade."  

It's also often noted that the cpwd_admin list command (Check Point WatchDog) shows this process as "CVPND".  

Commands like cvpnstart and cvpnstop are used to manage this daemon.  

Exam Preparation Materials (e.g., ExamTopics for 156-586):

A question directly asking "Which process is responsible for Mobile VPN connections?" with options including cvpnd, vpnk, fwk, and vpnd, typically indicates cvpnd as the correct answer.

Explanation of other options:

B. fwk: This is a general suffix often related to firewall worker processes or kernel modules, not a specific high-level daemon for Mobile VPN.

C. vpnd: This is the main VPN daemon, primarily responsible for site-to-site IPsec VPNs and some traditional IPsec remote access clients. While it handles VPN functions, cvpnd is specialized for Mobile Access.  

D. vpnk: This refers to VPN kernel-level operations and modules (e.g., handling the actual encryption/decryption of traffic processed by IPsec SAs). It is not the user-space daemon that manages Mobile VPN sessions and policies.

Therefore, cvpnd is the specific process dedicated to managing Mobile VPN connections within the Check Point architecture.

Reference (based on official Check Point documentation naming and functionality):

Check Point R81.20 CLI Reference Guide (details for cvpnd_admin).

Check Point R81.20 Administration Guides (sections discussing Mobile Access architecture and daemons).

Commonly known Check Point process lists available in CCTE study materials.