Pass the Checkpoint CTPS 156-590 Questions and answers with CertsForce

The correct answer is B. 1. Integrated/Standalone and 2. Dedicated Server . SmartEvent is Check Point’s event analysis, correlation, and reporting platform. Official Check Point Logging and Monitoring documentation explains that SmartEvent Server is integrated with the Security Management Server architecture and can communicate with Log Servers to read and analyze logs. It further states that administrators can enable SmartEvent on the Security Management Server or deploy it as a dedicated server . In Multi-Domain environments, Check Point requires SmartEvent on a dedicated server.

This maps directly to the course terminology: integrated or standalone deployment means SmartEvent runs on the existing management architecture, while a dedicated server deployment separates SmartEvent components onto another machine for scale, retention, performance, or Multi-Domain requirements. Option A uses generic distributed language but not the tested Check Point deployment wording. Option C confuses SmartEvent deployment with Threat Prevention enforcement states such as Prevent and Detect. Option D refers to clustering concepts and does not describe SmartEvent deployment models. In production design, dedicated SmartEvent is preferred when log volume is high, reporting is heavily used, or event correlation must not compete with management operations. Reference topics: Deploying SmartEvent, SmartEvent Server, Correlation Unit, Integrated/Standalone deployment, Dedicated SmartEvent Server.

The correct answer is B. Exclusions . In Anti-Virus policy design, exclusions are used to remove selected traffic or file categories from Anti-Virus inspection when inspection is unnecessary, redundant, or too costly for the business flow. Check Point documentation states that Threat Prevention can be configured to exclude files from inspection , including examples such as internal emails and internal file transfers. The same section explains that these settings are based on interface type and traffic direction.

This directly aligns with the performance objective in the question: if the gateway does not inspect files that are already trusted, internal, or operationally low-risk, Anti-Virus consumes fewer CPU, memory, buffering, and content-inspection resources. Content Control is not the Anti-Virus bypass feature named in this context. Exceptions are policy-level constructs that can exclude traffic from Threat Prevention enforcement, but the question specifically asks for the feature that improves Anti-Virus performance by bypassing inspection of specific files, which is Exclusions . Bypass describes the effect, not the named feature. Reference topics: Anti-Virus Settings, Protected Scope, file inspection exclusions, interface direction, Threat Prevention performance optimization.

The correct answer is C. ThreatCloud DNS Tunneling Protection . Check Point R81.20 introduced major Advanced Threat Prevention enhancements, including AI Deep Learning improvements for DNS attacks. The R81.20 Release Notes state that AI Deep Learning prevents more DNS attacks in real time and specifically reference ThreatCloud DNS tunneling protection as part of the DNS Security enhancements.

DNS tunneling protection is distinct from Malware DNS Trap. Malware DNS Trap returns a false or bogus IP address for known malicious hosts and domains, and it can help identify compromised clients by observing connection attempts to the false trap address. That mechanism is represented by option A/B, but it is not the R81.20-introduced DNS protection being tested here. ThreatCloud DNS Tunneling Protection targets a different technique: abuse of DNS as a covert channel for command-and-control, data exfiltration, or tunneling traffic through recursive DNS infrastructure. Option D is unrelated to Check Point DNS Threat Prevention architecture. Reference topics: R81.20 Advanced Threat Prevention, DNS Security, ThreatCloud DNS Tunneling Protection, Malware DNS Trap, Anti-Bot and Anti-Virus DNS protections.

The correct answer is D. F2F . Protections with high inspection impact generally require deeper processing that cannot remain fully accelerated in SecureXL. In Check Point performance terminology, F2F means traffic is forwarded from SecureXL to the Firewall path for inspection. Performance tuning documentation describes F2F packets as packets that SecureXL forwarded to the Firewall in the slow path, while accelerated traffic remains in the fast path. Threat Prevention protections, especially high-impact IPS protections, can require deeper packet, stream, or protocol analysis and therefore increase the portion of traffic processed outside full SecureXL acceleration.

Check Point IPS documentation explains that Performance Impact is the measure of how much a protection affects gateway performance and warns that activated protections with higher performance impact can cause connectivity or performance issues. The IPS optimization guidance further explains that some protections require more system resources to inspect traffic and recommends focusing on lower-impact protections when reducing gateway resource use is necessary. SXL is the fully accelerated path, PXL is medium-path inspection with acceleration assistance, and CPASXL relates to active streaming acceleration. High Protection Impact aligns with F2F because the gateway must perform deeper inspection. Reference topics: IPS Performance Impact, SecureXL packet paths, F2F, PXL/SXL, IPS optimization.

The correct answer for the uploaded course-question set is B. 1 Million . IOC files are used to import indicators of compromise so that the gateway can match known malicious or suspicious observables such as domains, URLs, IP addresses, and file hashes. In the Threat Prevention architecture, these indicators complement ThreatCloud intelligence by letting administrators add organization-specific or third-party intelligence into enforcement. The key certification point in this question is scale: R81.20 IOC Files are tested with a maximum of 1 million patterns or observables in this exam context.

Operationally, this limit matters because large IOC files affect memory use, update processing, compilation time, and gateway enforcement behavior. Architects should avoid treating IOC ingestion as unlimited; feeds must be curated, deduplicated, normalized, and prioritized. The current public R81.20 release documentation distinguishes expanded IoC feed scale and states that IoC feeds can support significantly more observables on XFS systems, while EXT3 has a lower limit. For this specific question wording, however, the answer key’s “IOC Files” limit is 1 Million , while later Custom Threat Indicators and external-feed capacities are treated separately in related questions. Reference topics: IOC Files, Threat Indicators, R81.20 Threat Prevention, observable limits, feed sizing and gateway resource planning.

The correct answer is C. Install the Threat Prevention Policy . IPS Core Protections are part of the Threat Prevention policy domain, so changing them in SmartConsole is not enough by itself. The updated configuration must be compiled and installed to the relevant Security Gateways through the Threat Prevention Policy installation process. Check Point’s IPS Protections documentation shows the workflow for editing core protections: go to Security Policies > Threat Prevention > Custom Policy Tools > IPS Protections , filter for Type Core , edit the required core protection settings, and then Install the Threat Prevention policy .

This directly eliminates the other options. The setting is not immediately active because gateways enforce installed policy, not merely edited management configuration. Install Database updates the management database but does not push enforcement logic to the Security Gateway. Install Access Control Policy applies firewall/access-layer logic, but IPS Core Protections belong to the Threat Prevention policy. In operational terms, this separation allows administrators to install Threat Prevention changes without necessarily reinstalling Access Control, reducing disruption and keeping blade changes scoped to the correct policy package. Reference topics: IPS Protections, Core IPS Protections, Custom Policy Tools, Threat Prevention Policy installation, enforcement lifecycle.

The correct answer is D. The traffic is not dropped. It is simply not inspected by the Threat Prevention Engine . Access Control and Threat Prevention are separate enforcement stages. The Access Control policy first decides whether the connection is allowed, rejected, or dropped. If Access Control accepts the connection, Threat Prevention is then applied only if the connection matches a Threat Prevention rule and therefore receives a Threat Prevention profile. Check Point documentation describes Threat Prevention policy as the mechanism used to activate only the protections needed and prevent attacks that most threaten the network. It also explains that Threat Prevention policy layers calculate their action separately and that in a single layer, the first matched rule is enforced.

Therefore, if accepted traffic does not match the Threat Prevention rulebase, no Threat Prevention profile is selected for that connection. The traffic is not blocked merely because of the non-match; it passes according to the Access Control decision, but without Threat Prevention inspection. Option A is too aggressive and incorrect. Option B incorrectly assumes logging. Option C is directionally true but incomplete because the key point is that Threat Prevention inspection is not applied. Reference topics: Access Control before Threat Prevention, Threat Prevention Rule Base, profile selection, unmatched traffic, ordered layer evaluation.

The correct answer is A. Assess Health of System . HealthCheck Point, commonly referred to as HCP , is Check Point’s self-updatable health assessment suite. The official Security Management Administration Guide states that the HCP tool is designed for tests that assess the health of your system , WTS timelines that provide critical and informative events, and topology visualization. It also explains that HCP runs on managed Security Gateways every six hours and sends a status report to the Security Management Server or Domain Management Server.

Therefore, the “Tests” function of HCP is specifically system-health assessment. It is not primarily a SmartConsole connection checker, although management connectivity can affect visibility. It is also not a general “security posture” assessment engine in the sense of policy risk analysis, and it is not limited to SmartEvent status. In troubleshooting, HCP is useful because it gives administrators a structured view of platform health, recent critical events, and topology-related information, helping distinguish Threat Prevention blade problems from broader gateway, management, or system-health issues. Reference topics: HealthCheck Point Tool, HCP Tests, system-health assessment, WTS, topology visualization, managed gateway status reporting.

The correct answer is B. Removes all Administrator overrides . Profile Cleanup is a Threat Prevention profile hygiene tool used mainly in IPS protection management. When administrators manually override protections during tuning, exception handling, false-positive analysis, emergency hardening, or staged deployment, those manual changes can accumulate and cause the profile to deviate from its intended design. Check Point’s IPS Protections documentation states that the Profile Cleanup window lets the administrator select actions such as Remove all user modified and Clear all staging , then install the Threat Prevention Policy.

This directly maps to removing administrator overrides. The option does not automatically set all protections to Detect only; Detect is an action used in specific protection or staging contexts, not the purpose of Profile Cleanup. It also does not delete exemptions, because exception rules are separate policy constructs. It does not repair or remove corrupt updates; IPS update package handling is managed through the update and revert workflow. Profile Cleanup is best understood as a reset mechanism: it clears manual activation or staging deviations so the profile can return to its baseline activation policy and blade settings. Reference topics: IPS Protections, Profile Cleanup, Remove all user modified, Clear all staging, Threat Prevention Policy installation.

The correct answer is C. Accept . Threat Prevention is applied only to traffic that has already been accepted by the Access Control policy, and then the Threat Prevention rulebase determines which protection profile, blade behavior, and tracking settings apply. When traffic does not match a Threat Prevention rule, no Threat Prevention profile is selected for that connection, so the traffic is not blocked by Threat Prevention simply because of a non-match. Check Point documentation explains that Threat Prevention policy layers calculate their actions according to rule matching, and in a single-layer policy the enforced rule is the first matched rule.

This distinction is critical for certification and real operations. Threat Prevention is not a replacement for the Access Control decision; it is a follow-up inspection layer for already accepted traffic. A non-match in Threat Prevention means the traffic is outside the configured protected scope or rule conditions, so the Threat Prevention engine does not apply a prevent/drop/reject action to it. Reject and Drop are enforcement outcomes for matched malicious or blocked traffic, not for unmatched Threat Prevention traffic. Detect is a logging/enforcement mode for matched protections, not the default result of no rule match. Reference topics: Threat Prevention Policy, ordered layer behavior, protected scope, first-match rule logic, unmatched traffic handling.