Checkpoint 156-536 Practice Test Questions and Exam Dumps Part14 Q261-280

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Question 261. What improves performance in large Endpoint environments?

  1. Extra browser extensions
  2. More local users
  3. Endpoint Policy Servers
  4. Larger uninstall passwords

Correct Answer: 3. Endpoint Policy Servers

Explanation:

Endpoint Policy Servers improve performance in large Harmony Endpoint environments by handling much of the communication that would otherwise reach the Endpoint Security Management Server. They process frequent requests such as heartbeats, synchronization, policy downloads, package downloads, Anti-Malware updates, and client logs. Distributing these tasks lowers the workload on the main management server and reduces bandwidth requirements between remote sites and central management. Check Point specifically includes Endpoint Policy Servers as an important component of scalable, large-deployment architecture.

Question 262. Where is an Endpoint Policy Server positioned?

  1. Between clients and management
  2. Inside Active Directory only
  3. Behind the browser extension
  4. Inside ThreatCloud

Correct Answer: 1. Between clients and management

Explanation:

An Endpoint Policy Server sits logically between Endpoint Security clients and the Endpoint Security Management Server. For most routine communication, endpoint clients contact the Policy Server, which then communicates with central management when necessary. This distributed design prevents every client from sending all traffic directly to the central server. It is particularly useful in remote offices or large environments where thousands of endpoints could otherwise create significant bandwidth and processing load. Check Point recommends external Endpoint Policy Servers to improve scalability and communication efficiency.

Question 263. What does an Endpoint Policy Server handle locally?

  1. Only encryption recovery
  2. Only Active Directory scans
  3. Only administrator passwords
  4. Heartbeat and synchronization requests

Correct Answer: 4. Heartbeat and synchronization requests

Explanation:

Endpoint Policy Servers handle heartbeat and synchronization requests without forwarding each one to the central Endpoint Security Management Server. These requests occur frequently, so processing them locally significantly reduces central-server workload. The Policy Server also handles policy downloads, Endpoint client package downloads, Anti-Malware updates, and client logs. Some information that must be written to the central database, such as certain Full Disk Encryption recovery data, is still forwarded to the management server. This separation of responsibilities is a key part of Check Point’s large-scale Endpoint architecture.

Question 264. Which data is forwarded to central management?

  1. Every heartbeat
  2. FDE recovery data
  3. Every Anti-Malware update
  4. Every package download

Correct Answer: 2. FDE recovery data

Explanation:

Component-specific information that must be stored in the central Endpoint Security database is forwarded from an Endpoint Policy Server to the Endpoint Security Management Server. Check Point gives Full Disk Encryption recovery data as an example. By contrast, routine heartbeat requests, policy downloads, software package downloads, Anti-Malware updates, and client logs can be handled locally by the Endpoint Policy Server. This design preserves central management of important database information while offloading high-volume operational traffic to distributed servers.

Question 265. How does a client choose among multiple Policy Servers?

  1. Alphabetically
  2. By administrator name
  3. Randomly only
  4. By closest or fastest server

Correct Answer: 4. By closest or fastest server

Explanation:

When multiple Endpoint Policy Servers are available, an Endpoint Security client analyzes which server is closest in communication terms and automatically connects to the server expected to provide the fastest communication. This behavior helps distribute endpoint traffic efficiently without requiring administrators to manually assign every client to a specific Policy Server. In geographically distributed organizations, this reduces latency and WAN bandwidth consumption because endpoints can communicate with a nearby server rather than always reaching central management.

Question 266. What is recommended for each remote site?

  1. One SmartConsole
  2. At least one Endpoint Policy Server
  3. One Domain Controller
  4. One Threat Emulator

Correct Answer: 2. At least one Endpoint Policy Server

Explanation:

Check Point recommends using a distributed deployment with at least one Endpoint Policy Server for each remote site. Larger sites can use multiple Policy Servers to improve performance further. This recommendation reduces WAN traffic between branch locations and central management while giving endpoints a nearby service for heartbeats, policies, packages, updates, and logging. The design is particularly useful when organizations have many distributed users or offices and want to prevent the central management server from becoming a communication bottleneck.

Question 267. What is an Endpoint Policy Server based on?

  1. A Log Server
  2. A Security Gateway
  3. A domain controller
  4. A browser appliance

Correct Answer: 1. A Log Server

Explanation:

An Endpoint Policy Server is created from a Check Point Log Server that is configured to perform the Endpoint Policy Server role. This design allows it to handle frequent endpoint communication and logging tasks efficiently. Check Point recommends dedicated Endpoint Policy Servers in distributed environments, particularly for remote or large sites. Although the central Endpoint Security Management Server also contains Endpoint Policy Server functionality by default, dedicated external servers provide additional scalability and bandwidth reduction when endpoint counts grow.

Question 268. What is the purpose of Management High Availability?

  1. Malware emulation
  2. Application scanning
  3. Management redundancy
  4. URL categorization

Correct Answer: 3. Management redundancy

Explanation:

Management High Availability provides redundancy and database backup for Check Point management servers. Synchronized management servers contain equivalent policies, rules, user definitions, network objects, and system configuration information. If the primary management server fails or must be taken offline for maintenance, the secondary server can take over management responsibilities. In Endpoint Security environments, this redundancy protects both the Network Security Management and Endpoint Security Management databases because the Endpoint component is integrated into the management architecture.

Question 269. How many Secondary servers are supported with Endpoint Security?

  1. Four
  2. One
  3. Two
  4. Unlimited

Correct Answer: 2. One

Explanation:

Check Point states that only one Secondary management server is supported with Endpoint Security. The primary server is the first management server installed, while the secondary provides redundancy and database backup. If the primary becomes unavailable, the secondary can take over after the required synchronization has occurred. Administrators should not design an Endpoint Security Management High Availability environment assuming that multiple secondary servers are supported. The single-secondary limitation is an important architecture point for large or highly available deployments.

Question 270. What must occur before a standby server can become Active?

  1. Appscan must finish
  2. Full Disk Encryption must be disabled
  3. All clients must reboot
  4. Initial database synchronization

Correct Answer: 4. Initial database synchronization

Explanation:

A standby Endpoint Security Management Server cannot become Active until the first synchronization of the Endpoint Security database has completed. Synchronization ensures that the secondary server has the necessary policies, objects, and management data required to take over correctly. Activating a secondary server before synchronization would risk inconsistent or incomplete management information. For this reason, Check Point’s High Availability workflow emphasizes establishing communication, installing and synchronizing the database, and completing the required Endpoint-specific configuration before failover is expected to work.

Question 271. What happens if the primary server fails?

  1. The secondary can take over
  2. All clients uninstall
  3. Full Disk Encryption decrypts
  4. ThreatCloud stops globally

Correct Answer: 1. The secondary can take over

Explanation:

In a Management High Availability deployment, the secondary management server provides backup capability when the primary server fails or is intentionally taken offline. Once properly synchronized and configured, the secondary can become Active and continue management operations. This protects the organization’s ability to administer Endpoint Security policies and associated management data during server failure or maintenance. High Availability does not mean endpoint security controls disappear when the primary server is unavailable; instead, the management role can be transferred to the synchronized secondary system.

Question 272. What can block client policy updates after failover?

  1. A large Appscan file
  2. A short heartbeat
  3. An older server PAT version
  4. A strong uninstall password

Correct Answer: 3. An older server PAT version

Explanation:

After a standby management server becomes Active, its Policy Assignment Table, or PAT, version can sometimes be older than the version already held by endpoint clients. If the server’s PAT version is lower than the client’s PAT version, the client does not download policy updates. This creates an important failover troubleshooting scenario because management may appear active while endpoints do not receive new policies. Administrators should therefore verify PAT synchronization and version state when policy updates stop after a High Availability changeover.

Question 273. What is a Super Node?

  1. A secondary management server
  2. A Security Gateway cluster
  3. A dedicated domain controller
  4. A client with proxy-like capabilities

Correct Answer: 4. A client with proxy-like capabilities

Explanation:

A Super Node is a Windows endpoint running a specially configured Endpoint Security client that also provides server-like and proxy-like services to other clients. It stores local copies of update signatures and can serve them to nearby Endpoint Security clients. Because only the Super Node may need direct connectivity to external update sources, the design can support semi-isolated environments and reduce internet or WAN bandwidth usage. Check Point describes the Super Node as a lightweight proxy based on NGINX.

Question 274. What is a main Super Node benefit?

  1. Lower site bandwidth usage
  2. More user passwords
  3. More FDE recovery files
  4. Larger log files

Correct Answer: 1. Lower site bandwidth usage

Explanation:

One of the main advantages of a Super Node is reduced bandwidth usage. Instead of every endpoint independently downloading the same signatures and updates from remote sources, the Super Node downloads and stores a local copy that other clients can use. Check Point also lists reduced server workload, improved scale, and reduced equipment expense as advantages. This makes Super Nodes useful in branch offices, remote environments, and locations where bandwidth is limited or endpoints cannot all communicate directly with external update services.

Question 275. Which port does a Super Node use for client service by default?

  1. TCP 22
  2. TCP 4434
  3. UDP 53
  4. TCP 3389

Correct Answer: 2. TCP 4434

Explanation:

A Harmony Endpoint Super Node listens on TCP port 4434 by default for client-related communication. It also uses TCP port 3128 for proxy functionality. These ports support the Super Node’s role as a lightweight local service for Endpoint Security clients. Correct firewall configuration is therefore important when clients are unable to reach a configured Super Node. The R81.20 documentation identifies the default ports as part of the Super Node architecture and explains that the node serves locally cached signature information to client systems.

Question 276. Which port is used for Super Node proxy mode by default?

  1. TCP 80
  2. TCP 8080
  3. TCP 3128
  4. TCP 25

Correct Answer: 3. TCP 3128

Explanation:

The Super Node uses TCP port 3128 by default for proxy-mode communication. Its other principal client-service port is TCP 4434. Because the Super Node acts as a lightweight NGINX-based proxy, these network requirements must be permitted between participating endpoints and the Super Node. If firewall rules block the required traffic, clients may be unable to retrieve signatures through the node and may have to fall back to other configured update sources.

Question 277. What happens if the first chosen Super Node fails?

  1. The client tries another Super Node
  2. The endpoint uninstalls
  3. Encryption is disabled
  4. Management shuts down

Correct Answer: 1. The client tries another Super Node

Explanation:

When updating signatures, the Endpoint Security client first selects a Super Node from the configured list. If that Super Node cannot provide the update, the client attempts another Super Node. This automatic retry behavior improves resilience and prevents a single unavailable node from stopping all endpoint updates at a site. If every configured Super Node fails, the client can fall back to the normal update sources defined in policy. Administrators can therefore configure multiple Super Nodes for better availability.

Question 278. What happens if all configured Super Nodes fail?

  1. The client remains permanently outdated
  2. The client downloads from policy update sources
  3. The management database resets
  4. The endpoint enters Restricted state

Correct Answer: 4. The client downloads from policy update sources

Explanation:

If all configured Super Nodes fail, the Endpoint Security client falls back to the update sources defined in the policy. This prevents the Super Node architecture from becoming a single point of failure for signature updates. Super Nodes are an optimization layer that reduces bandwidth and central workload, but the underlying update sources remain available as a fallback when connectivity permits. In semi-isolated environments, administrators should still design network access carefully because fallback sources may require connectivity that ordinary clients do not normally use.

Question 279. Where can Super Nodes be used?

  1. Domain environments only
  2. Domain and Workgroup environments
  3. Workgroup environments only
  4. Active Directory forests only

Correct Answer: 2. Domain and Workgroup environments

Explanation:

Check Point states that Super Nodes are available in both Domain and Workgroup environments. This makes them suitable for organizations that use traditional Active Directory domains as well as environments where endpoints are not joined to a domain. The Super Node’s main role is to provide local proxy and update capabilities rather than depending on domain membership. This flexibility can be valuable in remote offices, segmented networks, or specialized endpoint deployments where conventional domain-based infrastructure is not available.

Question 280. What BEST supports a large remote-site deployment?

  1. One central server for every client request
  2. Disable local update sources
  3. Use distributed Policy Servers and Super Nodes
  4. Remove client heartbeats

Correct Answer: 3. Use distributed Policy Servers and Super Nodes

Explanation:

A scalable remote-site design should distribute routine client communication and update traffic rather than forcing every endpoint to communicate directly with central management and external update sources. Endpoint Policy Servers can handle heartbeats, policy downloads, package downloads, updates, and logs close to the clients, while Super Nodes can cache and proxy signature updates. Check Point’s official CCES course specifically includes large-scale deployment, sizing, Super Nodes, External Policy Servers, and High Availability as core objectives. Together, these technologies improve scale, reduce WAN bandwidth, and lower central-server workload.