CheckPoint 156-590 Exam Dumps

The correct answer is D. Verify Threat Prevention Blades are performing properly. Benign testing sites are controlled test resources used to validate that the Threat Prevention path is functioning without exposing the organization to real malware or live malicious infrastructure. Check Point documentation includes examples of test events generated by a Security Gateway, including a path named TestAntiBotBlade.html, which demonstrates that test-oriented resources can be used to confirm Anti-Bot/ThreatCloud detection and logging behavior without relying on an actual infection.

The key purpose is operational validation: confirm that the blade is enabled, the gateway can query or use ThreatCloud intelligence, the correct policy is installed, logs are generated, and the expected prevent/detect behavior occurs. Option A is narrower because rulebase reaction may be one part of testing, but the broader goal is to verify blade operation. Option B is also too narrow because SmartEvent visibility depends on logging and event correlation, while the test's main purpose is not specifically SmartEvent validation. Option C is incorrect because benign testing sites are not used to decide whether real URLs are malicious; they are intentionally safe test endpoints. Reference topics: Threat Prevention blade validation, Anti-Bot test page, ThreatCloud event testing, logging verification, operational health checks.

The correct answer is B. protection. In the IPS Protections browser, Check Point exposes protection metadata so administrators can search, filter, sort, review, and tune IPS protections. The official IPS Protections page states that the Protection Browser shows Threat Prevention Software Blade protection types and important usage indicators. The documented IPS protections summary table includes Protection as a default column, defined as the name of the protection, with its description shown in the lower pane.

This directly supports ''protection'' as a searchable or browsable field in IPS. Administrators use it to find a specific IPS signature, exploit protection, protocol protection, or vulnerability-related protection. Other displayed metadata can include industry reference, performance impact, severity, confidence level, and profile activation state, but the exam option that matches the official IPS browser field is Protection. ''Update time,'' ''threat year,'' and ''release date'' are not the standard field names presented in this question. Operationally, searching by protection name is central to exception creation, override review, staging validation, and incident follow-up because it links a log or protection event back to the exact IPS protection object. Reference topics: IPS Protections, Protection Browser, protection name field, IPS summary table, filter and search workflow.

The correct answer is D. Inactive. A protection set to Inactive is not enforced for matching traffic, so it does not impose the same inspection and enforcement cost as active protection states. Check Point documentation explains that a Threat Prevention profile determines which protections are activated and which Software Blades are enabled for a rule or policy. The protections a profile activates depend on factors such as performance impact, threat severity, confidence level, and blade-specific settings. Check Point best-practice material also describes that administrators may tune IPS profiles and set protections to prevent, detect, or inactive.

The relative resource logic is direct: Prevent is usually the most expensive because the gateway must inspect and enforce a blocking action inline. Inspect and Detect still require traffic analysis and matching logic, even if the final result is logging rather than prevention. Inactive removes the protection from enforcement consideration, making it the lowest resource option. This does not mean administrators should disable protections indiscriminately; Inactive should be used only when justified by risk, false-positive analysis, performance tuning, or compensating controls. Reference topics: IPS profile tuning, activation settings, performance impact, Prevent/Detect/Inactive behavior, Threat Prevention optimization.

The correct answer is D. The Threat Prevention Policy is only applied after traffic is accepted by Access Control Policy. Threat Prevention is a follow-up inspection framework for traffic that has already passed the access decision. The Access Control policy determines whether a connection is allowed, rejected, or dropped. Only traffic that is allowed by Access Control can proceed into Threat Prevention evaluation for IPS, Anti-Bot, Anti-Virus, Threat Emulation, and related blades. Check Point's policy workflow separates Access Control and Threat Prevention, and the Threat Prevention guide describes the Threat Prevention rulebase as the policy used to activate needed protections and prevent attacks against accepted traffic flows.

Options B and C are incorrect because Threat Prevention does not resurrect or override a connection that Access Control has already dropped or rejected. The inspection chain is sequential from an enforcement perspective: blocked traffic does not continue to malware or IPS inspection as an accepted connection. Option A is also incorrect because a gateway is assigned policy through its policy package and Threat Prevention policy structure, not by stacking multiple independent Threat Prevention policies on the same target as competing enforcement policies. Reference topics: Threat Prevention Policy workflow, Access Control then Threat Prevention sequence, policy package enforcement, accepted-traffic inspection.

The correct answer is B. Traffic is matched against all applicable layers at the same time. Threat Prevention policy evaluation is not best described as a flat simultaneous match against all applicable layers. Check Point documentation explains that Threat Prevention Policy Layers are Ordered Layers, and that each ordered layer calculates its action separately from the other layers. In a single-layer policy package, the enforced rule is the first matched rule. In multiple-layer policy behavior, matching and enforcement are determined by the layer calculations and the applicable action logic, rather than by one undifferentiated simultaneous match model.

Option A is true because Threat Prevention inspection is applied after the Access Control policy allows the connection; traffic dropped or rejected by Access Control does not proceed to Threat Prevention enforcement. Option C is true for a single Threat Prevention layer because the first matching rule is enforced. Option D is also true because Threat Prevention uses ordered policy-layer behavior. The false statement is therefore option B. Reference topics: Threat Prevention Policy, Ordered Layers, first-match rule behavior, Access Control before Threat Prevention, multi-layer enforcement logic.