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HP HPE0-S59 Exam Dumps & Practice Test Questions

Question 1:

What is required to enable dedicated Fibre Channel connectivity in an existing HPE Synergy setup that includes HPE Synergy 480 Gen10 compute modules, two 12 Gb SAS switches, and two HPE Virtual Connect SE 100Gb F32 Modules?

A. Move the SAS switches to the second fabric and install Fibre Channel modules in the first fabric.
B. Ensure the server-facing ports of the VC-FC modules are properly licensed.
C. Create a logical interconnect group in HPE OneView for the Brocade Fibre Channel switches.
D. Install a second CPU in each HPE Synergy 480 Gen10 compute module.

Answer: B

Explanation:

In this scenario, dedicated Fibre Channel (FC) connectivity needs to be integrated into the existing HPE Synergy environment. The key component in this setup is the VC-FC (Virtual Connect Fibre Channel) modules, which allow the connection of Fibre Channel networks to the Synergy frame.

To enable dedicated Fibre Channel connectivity, the server-facing ports of the VC-FC modules need to be properly licensed. These ports handle the communication between the compute modules and the Fibre Channel SAN (Storage Area Network). The licensing ensures that these ports are enabled and can be used for Fibre Channel traffic, as the Virtual Connect modules need to be specifically licensed to support Fibre Channel.

Now, let’s review why the other options are incorrect:

A. Moving the SAS switches to the second fabric and installing Fibre Channel modules in the first fabric is unnecessary for this setup. The Fibre Channel connectivity is supported by the VC-FC modules rather than by the SAS switches, which are typically used for SAS storage connectivity. Additionally, Fibre Channel modules are installed in the first fabric, not requiring the modification of the fabric configuration as described here.

C. Creating a logical interconnect group in HPE OneView for the Brocade Fibre Channel switches is useful for managing network connectivity and monitoring, but it’s not required specifically to enable dedicated Fibre Channel connectivity. The main requirement is ensuring the correct licensing for the VC-FC ports, which directly enables Fibre Channel functionality.

D. Installing a second CPU in each HPE Synergy 480 Gen10 compute module is unrelated to Fibre Channel connectivity. Fibre Channel support is not dependent on the number of CPUs in the compute modules. The VC-FC modules themselves handle the Fibre Channel connectivity, and no additional hardware in the compute modules is needed.

Thus, ensuring the VC-FC modules are properly licensed is the most critical step in enabling dedicated Fibre Channel connectivity.

Question 2:

Which statement is true regarding the functionality of HPE OneView for VMware vCenter Server in an environment that includes both HPE Synergy and HPE ProLiant servers?

A. HPE Synergy requires HPE Composer 2 for the full functionality of HPE OneView for VMware vCenter Server.
B. Systems can be added to HPE OneView for VMware vCenter Server through an iLO management processor.
C. Only systems managed by HPE OneView can use HPE OneView for VMware vCenter Server features.
D. HPE ProLiant servers need a separate HPE OneView for VMware vCenter Server license for full functionality.

Answer: C

Explanation:

In the given scenario, the customer plans to deploy ESXi systems on both HPE Synergy and HPE ProLiant servers using HPE OneView for VMware vCenter Server. The correct statement focuses on the relationship between HPE OneView and the systems it manages.

For HPE OneView to provide full functionality with VMware vCenter Server, only systems managed by HPE OneView can utilize the features offered by the integration. HPE OneView provides centralized management of the infrastructure, including compute, storage, and networking resources. When these systems are managed by HPE OneView, the integration with VMware vCenter Server allows for seamless operations, such as provisioning and lifecycle management of VMware ESXi hosts.

Now, let’s break down why the other options are incorrect:

A. While HPE Composer 2 is important for managing HPE Synergy environments, it’s not a mandatory requirement for the full functionality of HPE OneView for VMware vCenter Server. HPE Composer 2 is typically used for managing Synergy frame configurations, but OneView itself provides the management capabilities, and Composer is not required for vCenter integration specifically.

B. Although the iLO management processor plays a critical role in server management, systems cannot be added directly to HPE OneView for VMware vCenter Server through iLO. The iLO processor is used for server management at a hardware level, but for OneView and vCenter integration, the system must be actively managed by HPE OneView, not through iLO alone.

D. There is no need for a separate HPE OneView for VMware vCenter Server license for HPE ProLiant servers. As long as these servers are managed by HPE OneView, they can access the full set of features related to VMware vCenter Server integration, without the need for an additional license specific to ProLiant servers.

In conclusion, the correct statement is that only systems managed by HPE OneView can leverage HPE OneView for VMware vCenter Server features, ensuring a unified management experience for both Synergy and ProLiant environments.

Question 3:

What is a limitation when configuring a server profile in HPE OneView?

A. BIOS settings can only be modified when UEFI optimized boot mode is selected.
B. Shared volumes cannot be created on demand through a server profile.
C. iLO management is restricted to integration with Active Directory or LDAP only.
D. A server profile can define no more than 8 network connections.

Correct Answer : A

Explanation:

HPE OneView offers powerful infrastructure automation capabilities, allowing administrators to create server profiles that standardize and automate server provisioning. However, there are several important limitations tied to specific components within these profiles. One such limitation involves BIOS configuration when a particular boot mode is selected.

When working with HPE OneView and configuring a server profile, one limitation is that BIOS settings can only be edited when UEFI optimized boot mode is selected. This means that if a server is set to use Legacy BIOS or standard UEFI boot mode (not optimized), any BIOS settings included in the server profile will be ignored or not applied. This restriction exists because HPE OneView only interacts with the BIOS configuration in a meaningful way under UEFI optimized mode. Therefore, if administrators intend to automate BIOS configurations, they must ensure that UEFI optimized boot mode is selected in the server profile. This behavior directly relates to Option A, which accurately identifies this limitation.

Option B is incorrect because shared volumes, such as storage presented via HPE 3PAR or other SAN systems, are managed through volume attachments and storage pools. While HPE OneView doesn’t necessarily “create” shared volumes on demand via server profiles, it does allow attaching pre-configured storage and managing volume provisioning when integrated with HPE Storage systems.

Option C misrepresents iLO capabilities. HPE OneView enables broader management of iLO settings beyond just integration with Active Directory or LDAP. iLO settings, including user configuration, network settings, directory services, and certificate management, can be managed and applied through server profiles. Therefore, iLO management is not restricted solely to directory service integrations like AD or LDAP.

Option D is also inaccurate. Server profiles in HPE OneView can define more than 8 network connections—in fact, they support a significantly higher number depending on the server hardware and interconnect configuration. The 8-connection limitation does not apply broadly to all server profiles.

In conclusion, the primary limitation that administrators should be aware of when configuring a server profile in HPE OneView is the requirement to select UEFI optimized boot mode to enable BIOS settings configuration. This limitation is critical for any organization leveraging automation to ensure consistent BIOS-level settings across servers.

Question 4:

What is a limitation when using a RoCE (RDMA over Converged Ethernet) network?

A. It is configured by default as an untagged network and cannot be part of a network set.
B. It is not supported with the HPE Virtual Connect SE 40 Gb F8 Module for HPE Synergy.
C. It does not support Smart Link or private network features.
D. It does not support Private VLAN and Multicast VLAN.

Correct Answer : C

Explanation:

RoCE (RDMA over Converged Ethernet) is a networking technology designed to allow Remote Direct Memory Access (RDMA) over Ethernet networks. It is highly beneficial in data center environments due to its low-latency and high-throughput characteristics, especially in applications requiring high-performance computing or large-scale virtualization. However, RoCE has several operational limitations when integrated into environments managed through HPE OneView and HPE Synergy infrastructure.

One key limitation is that RoCE networks do not support Smart Link or private network features, as indicated in Option C. Smart Link is a feature that allows Virtual Connect modules to send link state updates to servers when upstream physical connections go down, enabling faster failover. Similarly, private networks restrict communication between server ports connected to the same network, which may be essential for security in multi-tenant environments. These features are not compatible with the nature of RoCE configurations, which require tightly controlled, low-latency paths and special configurations at the Ethernet level, including Priority Flow Control (PFC) and Enhanced Transmission Selection (ETS).

Option A is incorrect because while RoCE networks are typically untagged and carry specific Quality of Service (QoS) requirements, they can be part of a network set in certain configurations, provided that only one RoCE network is included per set. This allows administrators some level of network aggregation, although with limited flexibility compared to standard Ethernet networks.

Option B is factually incorrect. The HPE Virtual Connect SE 40 Gb F8 Module for HPE Synergy does support RoCE v1 and v2, and it is one of the key hardware components enabling RDMA over Ethernet in HPE's composable infrastructure. In fact, support for RoCE is a primary feature advertised for this module in Synergy environments, particularly when paired with compatible network adapters and interconnects.

Option D states that RoCE does not support Private VLAN or Multicast VLAN. While this may be true in certain contexts, it is not the primary or most critical limitation compared to the lack of Smart Link and private network support. RoCE's core dependency on specialized Ethernet behavior makes Smart Link and private network features more evidently problematic in typical configurations.

In summary, the most impactful and consistently documented limitation of RoCE networks within HPE OneView and HPE Synergy is the lack of support for Smart Link and private network features, making Option C the correct choice.

Question 5:

Which storage object should you check using the HPE Storage System Management Console (SSMC) to ensure the vVol datastore is set up correctly after configuring a vVol datastore using the HPE Storage Integration Pack for VMware vCenter?

A. Virtual Volume Set
B. Virtual Volume
C. App Volume Set
D. Storage Container

Answer: B

Explanation:

When configuring a vVol datastore using the HPE Storage Integration Pack for VMware vCenter, the key object you need to check in the HPE Storage System Management Console (SSMC) to ensure that the configuration is correct is the Virtual Volume. The vVol (Virtual Volume) is the fundamental storage object in a VMware vSphere environment that enables integration between the storage array and VMware. It encapsulates a single logical volume presented to the host, and the entire process of configuring and managing vVol datastores relies on proper handling and configuration of Virtual Volumes.

Here’s a breakdown of why the other options are incorrect:

A. A Virtual Volume Set is a collection of Virtual Volumes grouped together for management purposes. While it can be relevant in managing the storage environment, the object you directly check when confirming vVol datastore configuration is the individual Virtual Volume. A Virtual Volume Set is more about grouping volumes for efficiency rather than checking the configuration of a specific datastore.

C. An App Volume Set is unrelated to vVol datastores. App Volumes are part of VMware's application delivery solution, not directly related to the storage configuration of a vVol datastore. This option would not be applicable to ensuring the correct setup of a vVol datastore.

D. A Storage Container is a logical group of storage resources that provides storage pools for the vSphere environment. While important for managing storage resources, a Storage Container itself isn’t the object used to verify the vVol datastore’s configuration. The configuration verification would be done at the Virtual Volume level.

Thus, to ensure the vVol datastore is set up correctly, you need to check the Virtual Volume in the SSMC.

Question 6:

What is required to enable HPE Primera as the boot storage for HPE Synergy compute nodes using Fibre Channel (FC) for storage access?

A. Add FC upgrade licenses in HPE OneView to enable FC connectivity for the modules.
B. Put both modules into maintenance mode, then enable FC connectivity via the CLI.
C. Enable FC connectivity by disabling FCoE through the service console.
D. Enable FC primary and secondary boot on the modules through HPE OneView.

Answer: D

Explanation:

To configure HPE Primera as the boot storage for HPE Synergy compute nodes using Fibre Channel (FC), the essential requirement is to enable FC primary and secondary boot on the modules through HPE OneView. This allows the compute nodes to boot from the HPE Primera storage using Fibre Channel as the protocol for storage access.

Here’s a breakdown of the other options:

A. Adding FC upgrade licenses in HPE OneView would be necessary to enable Fibre Channel (FC) connectivity in general, but this step alone does not specifically address the requirement for using HPE Primera as the boot storage. The key here is ensuring that the boot functionality is correctly configured through OneView for FC.

B. Putting both Virtual Connect SE 100Gb F32 Modules into maintenance mode is not required to enable Fibre Channel (FC) connectivity or configure boot storage. Maintenance mode typically allows for hardware maintenance or configuration changes, but enabling FC boot functionality through CLI (command-line interface) is unnecessary in this context, as HPE OneView provides a graphical interface to configure this feature easily.

C. Disabling FCoE (Fibre Channel over Ethernet) through the service console is unnecessary for setting up FC boot functionality. FCoE is a different protocol used for transporting Fibre Channel over Ethernet networks, but for FC boot from HPE Primera, you need the FC boot configuration, not a change in protocol handling like disabling FCoE.

The critical step for booting from HPE Primera using FC is to enable FC primary and secondary boot for the compute nodes in HPE OneView, which ensures that the nodes are set up to boot from the FC storage properly.

Thus, the correct approach is to enable FC primary and secondary boot on the modules through HPE OneView.

Question 7:

Which compute node parameters are included in the server hardware type configuration?

A. Size of installed memory
B. Number of CPUs
C. Mezzanine card configuration
D. Installed operating system

Answer: C

Explanation:

In HPE OneView, a server hardware type is a template-like abstraction that defines the supported configuration for physical compute nodes (servers) in the environment. It is crucial to understand what is and isn't included in a server hardware type because this impacts automation, provisioning, and management within the HPE Synergy or BladeSystem infrastructure.

A server hardware type includes fixed hardware characteristics that define a given server model's supported configuration—particularly those components that affect the logical infrastructure setup. One of these critical elements is the mezzanine card configuration, which determines the number and type of I/O adapters present in the server. This directly influences the available network connections, fabric mapping, and compatibility with specific interconnect modules.

The mezzanine card configuration is significant because it defines the I/O capabilities of the server. For instance, a server with a dual-port 10Gb mezzanine adapter has different network connectivity options than one with a 25Gb dual-port card or no mezzanine at all. Because this directly affects how the server communicates with storage and network resources, this information is included in the server hardware type configuration. Thus, Option C correctly identifies an included parameter.

Option A, the size of installed memory, is incorrect because memory is considered a dynamic hardware attribute. The amount of RAM installed in a server does not influence the server hardware type, and administrators can add or remove memory without redefining or modifying the server hardware type. Since HPE OneView treats this as runtime information rather than a configuration definition, it is not part of the server hardware type.

Option B, the number of CPUs, is also a runtime hardware attribute. While it impacts performance and might be important for operating system configuration, it does not affect server hardware type in HPE OneView. Server hardware type is more concerned with structural hardware components, not variable quantities like CPU count.

Option D, the installed operating system, is entirely outside the scope of server hardware types. Server hardware types are concerned with physical hardware characteristics, not with software or firmware. Operating systems are managed separately through OS deployment tools, installation scripts, or image profiles—not through server hardware types.

Therefore, the only option that aligns with what is stored in and defined by a server hardware type is the mezzanine card configuration, making C the correct answer.

Question 8:

A customer is adding a second HPE Synergy frame to an existing logical enclosure and wants to set up a highly available master configuration during the expansion.
Which procedures should be followed to expand the setup? (Choose two.)

A. Create a new logical enclosure that includes both HPE Synergy frames.
B. Move one of the master modules to the interconnect bay in the second frame.
C. Re-parent the existing enclosure group to the new logical interconnect group.
D. Create a new logical interconnect group and enclosure group for the two-frame setup.
E. Modify an existing logical interconnect to include the second HPE Synergy frame.

Answer: B and E

Explanation:

When expanding an HPE Synergy infrastructure by adding a second frame to an existing logical enclosure, it is essential to preserve the current configuration and integrate the new frame in a way that supports high availability and seamless operation. High availability in this context means ensuring that Synergy Composer modules (which host the OneView appliance) and Synergy Image Streamer (if used) are redundant across frames.

Option B, which involves moving one of the master modules to the interconnect bay in the second frame, is a critical step toward high availability. When using multiple Synergy frames, placing the Composer modules (also called the management appliance) in different frames ensures that management functionality continues even if one frame experiences hardware issues. This configuration avoids having a single point of failure by distributing the appliance modules across the frames.

Option E, modifying an existing logical interconnect to include the second HPE Synergy frame, is also correct. Rather than creating a new logical interconnect group (which would require a complete redesign), the existing logical interconnect can be expanded to span additional frames. This approach allows the new frame to inherit the fabric definitions, uplink sets, and network configurations already present in the system. This is the recommended method for scaling out Synergy environments while maintaining consistency and operational simplicity.

Option A is incorrect because you do not need to create a new logical enclosure. The existing logical enclosure can be expanded to include the new frame, preserving all current profiles, templates, and configurations. Creating a new logical enclosure would isolate the frames and prevent unified fabric connectivity.

Option C is inaccurate because re-parenting an enclosure group to a new logical interconnect group is not a valid procedure in OneView. Once a logical enclosure is created and linked to an enclosure group and logical interconnect group, these associations cannot be modified retroactively without deleting and recreating resources—an approach that contradicts the goal of seamless expansion.

Option D, creating new groups for the expansion, is also incorrect for the same reasons as Option A. The existing enclosure and interconnect groups are meant to scale across frames. Recreating them would add unnecessary complexity and downtime.

In summary, the appropriate steps to achieve a highly available master configuration when adding a second Synergy frame are to move a master module to the second frame (B) and expand the existing logical interconnect to include the new frame (E).

Question 9:

What must be done to ensure that HPE Synergy's Virtual Connect SE 40Gb F8 Modules are ready for high-performance networking in an HPE Synergy environment with multiple compute modules?

A. Configure the modules for Fibre Channel over Ethernet (FCoE) to enable high-speed networking.
B. Install additional power supplies in the Synergy frame to support the high-speed modules.
C. Enable Smart Link and Adaptive Load Balancing on the Virtual Connect SE 40Gb F8 Modules.
D. Ensure the modules are licensed for both Ethernet and Fibre Channel (FC) protocols to function correctly.

Answer: C

Explanation:

To ensure that the HPE Synergy Virtual Connect SE 40Gb F8 Modules are ready for high-performance networking, it is necessary to enable Smart Link and Adaptive Load Balancing (ALB) on the modules. These two features optimize the performance of the network by enabling the modules to intelligently balance traffic loads and improve fault tolerance, ensuring efficient use of the available bandwidth.

Smart Link allows multiple network connections to be aggregated, and Adaptive Load Balancing dynamically balances the network traffic across those links based on the current load, improving overall network throughput and redundancy. These features are particularly critical in high-speed networking environments, such as when using 40Gb F8 modules in a Synergy environment, where network performance is paramount.

Now, let’s explore why the other options are incorrect:

A. Configuring the modules for Fibre Channel over Ethernet (FCoE) is not required for high-speed networking in this case. FCoE is used for converging Ethernet and Fibre Channel traffic over the same physical network infrastructure, but the focus here is on Ethernet networking for high-performance scenarios, not Fibre Channel traffic.

B. While additional power supplies may be needed in some cases to support high-power modules, in the context of the Virtual Connect SE 40Gb F8 Modules, the key factor for enabling high-speed networking is the configuration of the modules themselves (i.e., enabling Smart Link and ALB), not the power supply.

D. Licensing the modules for both Ethernet and Fibre Channel (FC) protocols is not necessary to enable high-performance Ethernet networking. Licensing for Ethernet and Fibre Channel would be required if the system needs to support both protocols simultaneously, but for ensuring high-performance networking with these modules, the focus is on configuring the modules for optimized network traffic handling (Smart Link and ALB).

Thus, the correct configuration to prepare the modules for high-performance networking is enabling Smart Link and Adaptive Load Balancing on the Virtual Connect SE 40Gb F8 Modules.

Question 10:

What is the necessary prerequisite for setting up remote replication between two sites using the HPE Primera Remote Copy feature?

A. Configure a separate Fibre Channel (FC) network for replication traffic.
B. Ensure that both sites have matching storage controllers and are in the same geographic location.
C. Set up an IP network between the two locations with a minimum bandwidth of 10 GbE.
D. License the HPE Primera system for replication before configuring the remote copy feature.

Answer: C

Explanation:

For setting up remote replication between two sites using the HPE Primera Remote Copy feature, the prerequisite is to set up an IP network between the two locations with a minimum bandwidth of 10 GbE. Remote Copy uses an IP-based network for the replication traffic between the two systems. 10 GbE (Gigabit Ethernet) or higher bandwidth is required to ensure fast and reliable replication of data, especially when handling large datasets and ensuring minimal latency during the replication process.

Here's why the other options are not correct:

A. Configuring a separate Fibre Channel (FC) network for replication traffic is unnecessary for HPE Primera Remote Copy. The Remote Copy feature relies on an IP network (not Fibre Channel) for replicating data between remote sites. Fibre Channel might be used for other storage-related activities, but it is not the medium for Remote Copy replication.

B. While it’s beneficial for both sites to have matching storage controllers for consistency in performance, having them in the same geographic location is not a requirement. HPE Primera Remote Copy is designed to support replication between disparate sites, regardless of geographical distance, as long as there is adequate network connectivity (such as the required 10 GbE IP network).

D. Licensing the HPE Primera system for replication is not a prerequisite for setting up Remote Copy itself. While licensing is required to enable certain features of the HPE Primera system, including replication, the network setup (IP network with 10 GbE bandwidth) is the primary prerequisite to get the replication feature up and running.

In conclusion, the necessary prerequisite is to set up an IP network with a minimum bandwidth of 10 GbE between the two sites to ensure efficient and reliable replication via HPE Primera Remote Copy.