New JN0-480 Test Materials & Valid JN0-480 Test Engine
JN0-480 Updated Exam Dumps [2024] Practice Valid Exam Dumps Question
Juniper JN0-480 exam is an essential certification for IT professionals seeking to enhance their skills in data center networking. JN0-480 exam covers a wide range of topics related to data center networking and provides a comprehensive understanding of Juniper Networks data center technologies. The JNCIS-DC certification is highly valued by employers in the IT industry and provides a competitive advantage in the job market. Data Center, Specialist (JNCIS-DC) certification is recognized globally and provides access to additional Juniper Networks training and certification programs.
NEW QUESTION # 27
Multilenancy for applications is achieved by creating virtual networks (VNs) within which construct?
- A. security policy
- B. routing table
- C. connectivity template
- D. routing zone
Answer: D
Explanation:
According to the Juniper documentation1, a routing zone is an L3 domain, the unit of tenancy in multi-tenant networks. You create routing zones for tenants to isolate their IP traffic from one another, thus enabling tenants to re-use IP subnets. In addition to being in its own VRF, each routing zone can be assigned its own DHCP relay server and external system connections. You can create one or more virtual networks within a routing zone, which means a tenant can stretch its L2 applications across multiple racks within its routing zone. Therefore, the correct answer is D. routing zone. A routing zone is the construct within which you create virtual networks to achieve multitenancy for applications. References: Routing Zones
NEW QUESTION # 28
In the Juniper Apstra design phase, which object dictates port count, port speed, and how the ports would be used?
- A. rack type
- B. network devices
- C. interface map
- D. logical devices
Answer: C
Explanation:
Interface maps are objects that map interfaces between logical devices and physical hardware devices in the Juniper Apstra design phase. They dictate port count, port speed, and how the ports would be used for achieving the intended network configuration rendering. Interface maps also allow you to select device ports, transformations, and interfaces, provision breakout ports, and disable unused ports. For more information, see Interface Maps (Datacenter Design). References:
* Interface Maps (Datacenter Design)
* Design
* Interface Maps Introduction
NEW QUESTION # 29
Exhibit.
Referring to the exhibit, what is the minimum information you must add to create a new routing zone?
- A. VRF Name, VLAN ID.AndVNI
- B. VRF Name, VLAN ID, VNI, Routing Policies
- C. VRF Name and Routing policies
- D. VRF Name only
Answer: A
Explanation:
To create a new routing zone, you must specify the VRF Name, VLAN ID, and VNI for the routing zone.
These are the mandatory fields in the user interface shown in the exhibit. The VRF Name is the name of the L3 domain that isolates the IP traffic of the routing zone from other routing zones. The VLAN ID is the identifier for the VLAN tagged Layer 3 links on external connections. The VNI is the VxLAN Network Identifier associated with the routing zone. The Routing Policies are optional fields that allow you to configure import and export route targets for the routing zone. These are onlyapplicable for EVPN routing zones, which use MP-EBGP as the overlay control protocol. The other options are incorrect because:
* A. VRF Name only is wrong because you also need to specify the VLAN ID and VNI for the routing zone.
* B. VRF Name and Routing policies is wrong because you also need to specify the VLAN ID and VNI for the routing zone. Routing policies are optional and only relevant for EVPN routing zones.
* D. VRF Name, VLAN ID, VNI, Routing Policies is wrong because Routing Policies are optional and not required to create a new routing zone. References:
* Routing Zones (Virtual)
* Data Center Automation Using Juniper Apstra
NEW QUESTION # 30
Exhibit.
Which two statements about ESI values are correct for the server connections to the fabric shown in the exhibit? (Choose two.)
- A. A valid ESI value for Server A is 0x00.10.10.10.10.10.10.10.10.10.
- B. A valid ESI value for Server B is 0x00.20.20.20.20.20.20.20.20.20.
- C. A valid ESI value for Server A is 0x00.00.00.00.00.00.00.00.00.00.
- D. A valid ESI value for Server B is 0x00.00.00.00.00.00.00.00.00.00.
Answer: A,D
Explanation:
To answer this question, we need to understand the concept of ESI values in EVPN LAGs. An ESI is a 10-byte value that identifies an Ethernet segment, which is a set of links that connect a multihomed device (such as a server) to one or more PE devices (such as leaf switches) in an EVPN network. The same ESI value must be configured on all the PE devices that connect to the same Ethernet segment. This allows the PE devices to form an EVPN LAG, which supports active-active or active-standby multihoming for the device. The ESI value can be manually configured (type 0) or automatically derived from LACP (type 1) or other methods. In the exhibit, Server A is connected to two leaf switches (QFX 5210) using a LAG with LACP enabled. Server B is connected to three leaf switches (QFX 5120) using a LAG with LACP enabled. Based on this information, the following statements are correct about ESI values for the server connections to the fabric:
* C. A valid ESI value for Server A is 0x00.10.10.10.10.10.10.10.10.10. This is true because this ESI value can be automatically derived from the LACP configuration on the QFX 5210 devices. The LACP system ID is usually based on the MAC address of the device, and the LACP administrative key is a
2-byte value that identifies the LAG. For example, if the MAC address of the QFX 5210 device is
00:10:10:10:10:10 and the LAG ID is 10, then the LACP system ID is 00:10:10:10:10:10 and the LACP administrative key is 00:0A. The ESI value is then derived by concatenating the LACP system ID and the LACP administrative key, resulting in 00:10:10:10:10:10:00:0A. This ESI value can be represented in hexadecimal notation as 0x00.10.10.10.10.10.00.0A, or padded with zeros as
0x00.10.10.10.10.10.00.0A.00.00. This ESI value must be configured on both QFX 5210 devices that connect to Server A.
* D. A valid ESI value for Server B is 0x00.00.00.00.00.00.00.00.00.00. This is true because this ESI value is a reserved value that indicates a single-homed device. Server B is connected to three leaf switches (QFX 5120) using a LAG, but it is not multihomed to any of them. This means that Server B does not need an ESI value to form an EVPN LAG with any of the leaf switches. Instead, Server B can use the reserved ESI value of 0x00.00.00.00.00.00.00.00.00.00, which indicates that it is a single-homed device and does not participate in any EVPN LAG. This ESI value must be configured on all three QFX
5120 devices that connect to Server B. Thefollowing statements are incorrect about ESI values for the server connections to the fabric:
* A. A valid ESI value for Server A is 0x00.00.00.00.00.00.00.00.00.00. This is false because this ESI value is a reserved value that indicates a single-homed device. Server A is connected to two leaf switches (QFX 5210) using a LAG with LACP enabled, which means that it is multihomed to both of them. This means that Server A needs an ESI value to form an EVPN LAG with the leaf switches. The ESI value must be unique and non-zero for each Ethernet segment, so the reserved ESI value of
0x00.00.00.00.00.00.00.00.00.00 is not valid for Server A.
* B. A valid ESI value for Server B is 0x00.20.20.20.20.20.20.20.20.20. This is false because this ESI value is not derived from the LACP configuration on the QFX 5120 devices. Server B is connected to three leaf switches (QFX 5120) using a LAG with LACP enabled, but it is not multihomed to any of them. This means that Server B does not need an ESI value to form an EVPN LAG with any of the leaf switches. Instead, Server B can use the reserved ESI value of 0x00.00.00.00.00.00.00.00.00.00, which indicates that it is a single-homed device and does not participate in any EVPN LAG. The ESI value of
0x00.20.20.20.20.20.20.20.20.20 is not valid for Server B, and it may cause conflicts with other Ethernet segments that use the same ESI value. References:
* Ethernet Segment Identifiers, ESI Types, and LACP in EVPN LAGs
* Understanding Automatically Generated ESIs in EVPN Networks
* Ethernet Segment in EVPN: All You Need to Know
NEW QUESTION # 31
You want to apply a configlet to a specific device using Juniper Apstra. Which two parameters would be used to accomplish this task? (Choose two.)
- A. hostname
- B. port group
- C. tags
- D. form factor
Answer: A,C
Explanation:
To apply a configlet to a specific device using Juniper Apstra, you need to specify the device's hostname and tags. The hostname is the unique identifier of the device in the Apstra system, and the tags are the labels that you can assign to the device to group it with other devices that share the same characteristics. You can use the hostname and tags to filter the devices that you want to apply the configlet to in the blueprint catalog12.
References:
* Configlets Overview
* Terraform Registry
NEW QUESTION # 32
Exhibit.
Referring to the exhibit, what needs to change in the IP fabric to make it a valid IP fabric?
- A. The IP fabric must consist of only one device model throughout the fabric.
- B. The connection between the two spine nodes must be removed.
- C. The IP fabric connections must be increased to a speed greater than 10 Gbps.
- D. The connection between the two spine nodes must be increased to 40 Gbps.
Answer: B
Explanation:
To make the IP fabric a valid IP fabric, the connection between the two spine nodes must be removed. This is because an IP fabric is a network topology that uses a spine-leaf architecture, where the spine devices are only connected to the leaf devices, and the leaf devices are only connected to the spine devices. This creates a non-blocking, high-performance, and scalable network that supports Layer 3 routing protocols such as BGP or OSPF. The connection between the two spine nodes in the exhibit violates the spine-leaf design principle and introduces unnecessary complexity and potential loops in the network. The other options are incorrect because:
* A. The IP fabric must consist of only one device model throughout the fabric is wrong because an IP fabric can support different device models as long as they are compatible and interoperable. The exhibit shows two different models of QFX switches, which are both supported by Juniper Networks for IP fabric deployments.
* B. The connection between the two spine nodes must be increased to 40 Gbps is wrong because increasing the speed of the connection does not make the IP fabric valid. The connection between the two spine nodes should be removed, as explained above.
* C. The IP fabric connections must be increased to a speed greater than 10 Gbps is wrong because the speed of the connections does not affect the validity of theIP fabric. The IP fabric can use any speed that meets the bandwidth and performance requirements of the network. 10 Gbps is a common speed for IP fabric connections, but higher or lower speeds can also be used depending on the network design and devices. References:
* IP Fabric Underlay Network Design and Implementation
* IP Fabric Overview
* IP Fabric: Automated Network Assurance Platform
NEW QUESTION # 33
Exhibit.
Referring to the exhibit, how do you display the IPv6 subnets lot all of the listed VXLANs?
- A. Select all VXLANs. and the IPv6 Subnets column will appear
- B. An IPv6 Subnets column is not shown, indicating that no VXLAN has an assigned IPv6 subnet
- C. Select Columns, then select IPv6 Subnet.
- D. IPv6 subnets ate shown when each VXLAN is selected individually.
Answer: C
Explanation:
Referring to the exhibit, the image shows a user interface of the Juniper Apstra software application, which is used for network management and configuration. The image shows the Virtual Networks table under the Resources menu, which displays the details of the VLANs and VXLANs in the network. The table has 11 columns, but only 9 are visible in the image. The other two columns are IPv6 Connectivity and IPv6 Subnet, which are hidden by default. To display the IPv6 subnets for all of the listed VXLANs, the user needs to select Columns, then select IPv6 Subnet. This will show the IPv6 Subnet column in the table, which will display the IPv6 addresses assigned to the VXLANs from the IPv6 pools. For more information, see Virtual Networks (Resources). References:
* Virtual Networks (Resources)
* IPv6 Pools (Resources)
* Apstra User Guide
NEW QUESTION # 34
Which two statements about VXLAN VNIs are correct? (Choose two.)
- A. VNIs identify a broadcast domain
- B. VNIs identify a collision domain.
- C. VNIs are alphanumeric values.
- D. VNIs can have over 16 million unique values.
Answer: A,D
Explanation:
VXLAN VNIs are virtual network identifiers that are used to identify and isolate Layer 2 segments in the overlay network. VXLAN VNIs have the following characteristics:
* VNIs can have over 16 million unique values. This is because VXLAN VNIs are 24-bit fields that can range from 4096 to 16777214, according to the VXLAN standard1. This allows VXLAN to support a large number of Layer 2 segments and tenants in the network.
* VNIs identify a broadcast domain. This is because VXLAN VNIs are used to group the end hosts that belong to the same Layer 2 segment and can communicate with each other using VXLAN tunnels. The VXLAN tunnels are established using the VTEP information that is distributed by EVPN. The VTEPs are VXLAN tunnel endpoints that perform the VXLAN encapsulation and decapsulation. The VXLAN tunnels preserve the Layer 2 semantics and support the broadcast, unknown unicast, and multicast traffic within the same VNI2.
The following two statements are incorrect in this scenario:
* VNIs identify a collision domain. This is not true, because VXLAN VNIs do not identify a collision domain, which is a network segment where data packets can collide with each other. VXLAN VNIs identify a broadcast domain, which is a network segment where broadcast traffic can reach all the devices. Collision domains are not relevant in VXLAN networks, because VXLAN uses MAC-in-UDP encapsulation and IP routing to transport the Layer 2 frames over the Layer 3 network1.
* VNIs are alphanumeric values. This is not true, because VXLAN VNIs are numeric values, not alphanumeric values. VXLAN VNIs are 24-bit fields that can range from 4096 to 16777214, according to the VXLAN standard1. Alphanumeric values are values that contain both letters and numbers, such as ABC123 or 1A2B3C.
References:
* Virtual Extensible LAN (VXLAN) Overview
* EVPN LAGs in EVPN-VXLAN Reference Architectures
NEW QUESTION # 35
Which two statements are correct about probes? (Choose two.)
- A. Only the variable parameters tor default probes can be edited and saved.
- B. All default probes are enabled for all blueprints.
- C. Default probes are enabled, based on the intent for a blueprint.
- D. Default probes can be cloned, modified, and saved.
Answer: C,D
Explanation:
Probes are the basic unit of abstraction in Intent-Based Analytics (IBA). They are used to collect, process, and analyze data from the network and raise anomalies based on specified conditions. Probes are composed of processors and stages that form a directed acyclic graph (DAG) of data flow. The following statements are correct about probes:
* A. Default probes can be cloned, modified, and saved. This is true because Apstra provides a set of default probes that cover common use cases and scenarios. These probes can be cloned and modified to suit the specific needs of the user. The modified probes can be saved as new probes with different names and descriptions. This allows the user to customize and extend the functionality of the default probes.
* D. Default probes are enabled, based on the intent for a blueprint. This is true because Apstra enables or disables the default probes automatically based on the intent of the blueprint. The intent of the blueprint is the high-level description of the desired state and behavior of the network. Apstra uses the intent to determine which default probes are relevant and applicable for the blueprint and enables them accordingly. For example, if the intent of the blueprint is to deployan EVPN-VXLAN fabric, Apstra will enable the default probes related to EVPN-VXLAN, such as EVPN-VXLAN Anomaly Detection, EVPN-VXLAN Fabric Health, and EVPN-VXLAN Fabric Validation. The following statements are incorrect about probes:
* B. Only the variable parameters for default probes can be edited and saved. This is false because the user can edit and save any parameters for the default probes, not just the variable ones. The variable parameters are the ones that depend on the network topology, devices, or configuration, such as device
* names, interface names, IP addresses, VLAN IDs, etc. The user can also edit and save the fixed parameters, such as the duration, threshold, condition, etc. However, the user cannot edit and save the default probes directly. The user must clone the default probes first and then edit and save the cloned probes as new probes.
* C. All default probes are enabled for all blueprints. This is false because Apstra does not enable all default probes for all blueprints. Apstra enables the default probes based on the intent of the blueprint, as explained above. This means that only the default probes that are relevant and applicable for the blueprint are enabled. For example, if the intent of the blueprint is to deploy a BGP IP fabric, Apstra will not enable the default probes related to EVPN-VXLAN, since they are not relevant for the blueprint. The user can also manually enable or disable the default probes as needed. References:
* Probes
* Create Probe
* Intent-Based Analytics Overview
NEW QUESTION # 36
Exhibit.
You connect two single-homed servers using Juniper Apstra as shown in the exhibit. You are using the ERB design blueprint with two virtual networks in a common routing zone.
In this scenario, which two types of VXLAN tunnels will be automatically created by the EVPN control plane? (Choose two.)
- A. EVPN signaled route Type-2 VXLAN tunnels
- B. EVPN signaled route Type-8 VXLAN tunnels
- C. EVPN signaled route Type-3 VXLAN tunnels
- D. EVPN signaled route Type-6 VXLAN tunnels
Answer: A,C
Explanation:
According to the Juniper documentation1, EVPN route Type-3 is used to advertise the IP address of the VTEP and the VNIs that it supports. This allows the VTEPs to discover each other and form VXLAN tunnels for the VNIs that they have in common. EVPN route Type-2 is used to advertise the MAC and IP addresses of the hosts connected to the VTEPs. This allows the VTEPs to learn the MAC-to-IP bindings and the MAC-to-VTEP mappings for the hosts in the same VNI. Therefore, these two types of VXLAN tunnels will be automatically created by the EVPN control plane when using Juniper Apstra with the ERB design blueprint and two virtual networks in a common routing zone. References: Example: Configure an EVPN-VXLAN Centrally-Routed Bridging Fabric
NEW QUESTION # 37
You must configure a static route for traffic to exit a configured routing zone. In the Juniper Apstra Ul. where would you accomplish this task?
- A. under Staged -> Connectivity Templates
- B. under Active -> Virtual -> Routing Zones
- C. under Active -> Connectivity Templates
- D. under Staged -> Virtual -> Routing Zones
Answer: A
Explanation:
To configure a static route for traffic to exit a configured routing zone, you need to use the Connectivity Templates feature in the Juniper Apstra UI. A Connectivity Template is a set of configuration parameters that can be applied to a device or a group of devices in a blueprint. You can use Connectivity Templates to configure static routes, BGP, OSPF, and other network services. To create a Connectivity Template, you need to go to the Staged tab and select Connectivity Templates from the left menu. Then, you can click on the + icon to create a new template. You can specify the name, description, andscope of the template. The scope determines which devices or device groups the template will be applied to. You can also specify the order of the template, which determines the priority of the template when multiple templates are applied to the same device. After creating the template, you can add configuration items to the template. To add a static route, you need to select Static Route from the drop-down menu and enter the destination network, subnet mask, and next-hop IP address. You can also specify the administrative distance and the track object for the static route.
After adding the configuration items, you need to save the template and commit the changes to the blueprint.
The other options are incorrect because:
* A. under Active -> Virtual -> Routing Zones is wrong because this option allows you to view and modify the existing routing zones, but not to configure static routes for them.
* B. under Staged -> Virtual -> Routing Zones is wrong because this option allows you to create and delete routing zones, but not to configure static routes for them.
* C. under Active -> Connectivity Templates is wrong because this option allows you to view the existing connectivity templates, but not to create or modify them. References:
* Connectivity Templates
* Data Center Automation Using Juniper Apstra
NEW QUESTION # 38
Which statement about Juniper Apstra role-based access control is correct?
- A. The administrator role is the only predefined role.
- B. The user role can create roles.
- C. The administrator role can see all permissions.
- D. The viewer role is predefined and can be deleted.
Answer: C
Explanation:
Juniper Apstra role-based access control (RBAC) is a feature that allows you to specify access permissions for different users based on their roles. RBAC servers are remote network servers that authenticate and authorize network access based on roles assigned to individual users within an enterprise1. Juniper Apstra has four predefined user roles: administrator, device_ztp, user, and viewer2. The administrator role is the most powerful role, and it can see all permissions and perform all actions in the Apstra software application. The administrator role can also create, clone, edit, and delete user roles, except for the four predefined user roles, which cannot be modified2. Therefore, the statement that the administrator role can see all permissions is correct.
The following three statements are incorrect in this scenario:
* The viewer role is predefined and can be deleted. This is not true, because the viewer role is one of the four predefined user roles, and it cannot be deleted. The viewer role is the most restricted role, and it can only view the network information and configuration, but not make any changes2.
* The user role can create roles. This is not true, because the user role is one of the four predefined user roles, and it cannot create roles. The user role can perform most of the network configuration and management tasks, but it cannot access the platform settings or the user management features2.
* The administrator role is the only predefined role. This is not true, because there are four predefined user roles, not just one. The other three predefined user roles are device_ztp, user, and viewer2.
References:
* Providers - Apstra 3.3.0 documentation
* User/Role Management (Platform)
NEW QUESTION # 39
When an agent installation is successful, devices are placed into which state using the Juniper Apstra Ul?
- A. IS-ACTIVE
- B. OOS-QUARANTINED
- C. IS-MAINT
- D. OOS-READY
Answer: B
Explanation:
When an agent installation is successful, devices are placed into the Out of Service Quarantined (OOS-QUARANTINED) state using the Juniper Apstra UI. This state means that the device is not yet managed by Apstra and has not been assigned to any blueprint. The device configuration at this point is called Pristine Config. To make the device ready for use in a blueprint, you need toacknowledge the device, which changes its state to Out of Service Ready (OOS-READY)12. References:
* Managing Devices
* AOS Device Configuration Lifecycle
NEW QUESTION # 40
Which two actions are required during Juniper Apstra's deploy phase? (Choose two.)
- A. Assign device profiles to the blueprint.
- B. Assign resources to the blueprint.
- C. Assign interlace maps to the blueprint.
- D. Assign user roles to the blueprint.
Answer: A,B
Explanation:
The deploy phase is the final step in the Juniper Apstra data center fabric design and deployment process. In this phase, you apply the Apstra-rendered configuration to the devices and verify the intent of the blueprint. Based on the web search results, we can infer the following actions are required during the deploy phase12:
* Assign device profiles to the blueprint. This action associates a specific vendor model to each logical device in the blueprint. Device profiles contain extensive hardware model details, such as form factor, ASIC, CPU, RAM, ECMP limit, and supported features. Device profiles also define how configuration is generated, how telemetry commands are rendered, and how configuration is deployed on a
* device. Device profiles enable the Apstra system to render and deploy the configuration according to the Apstra Reference Design34.
* Assign resources to the blueprint. This action allocates the physical devices, IP addresses, VLANs, and ASNs to the logical devices, networks, and routing zones in the blueprint. Resources can be assigned manually or automatically by the Apstra system. Assigning resources ensures that the blueprint has all the necessary elements to generate the configuration and deploy the fabric5 .
* Assign user roles to the blueprint. This action is not required during the deploy phase. User roles are defined at the system level, not at the blueprint level. User roles determine the permissions and access levels of different users in the Apstra system. User roles can be system-defined or custom-defined .
* Assign interface maps to the blueprint. This action is not required during the deploy phase. Interface maps are defined at the design phase, not at the deploy phase. Interface maps are objects that map the logical interfaces of a logical device to the physical interfaces of a device profile. Interface maps enable the Apstra system to generate the correct interface configuration for each device in the fabric .
References:
* Deploy
* Deploy Device
* Device Profiles
* Juniper Device Profiles
* Resources
NEW QUESTION # 41
Which two statements are correct regarding a pristine configuration in Juniper Apstra? (Choose two.)
- A. It Is the configuration file on a device before acknowledgment in Apstra.
- B. It is the configuration file placed on the device when decommissioning the device.
- C. It is the device's previously active configuration.
- D. It is the device's currently active configuration.
Answer: A,B
Explanation:
A pristine configuration in Juniper Apstra is the configuration file that is used to onboard a device into the Apstra software application. A pristine configuration contains the minimum settings that are required for the device to communicate with the Apstra server, such as the hostname, management IP address, username, password, and SSH key1. A pristine configuration has the following characteristics:
* It is the configuration file placed on the device when decommissioning the device. This is because when a device is decommissioned from the Apstra software application, it is reverted back to its pristine configuration, which removes all the network configuration and services that were applied by the Apstra software application. This allows the device to be reused or repurposed for another network2.
* It is the configuration file on a device before acknowledgment in Apstra. This is because when a device is onboarded into the Apstra software application, it is initially in the discovery state, which means that
* the device is discovered by the Apstra server, but not yet acknowledged by the user. In the discovery state, thedevice has the pristine configuration, which can be viewed and edited by the user. Once the user acknowledges the device, the device moves to the deployed state, which means that the device is ready to receive the network configuration and services from the Apstra software application3.
The following two statements are incorrect in this scenario:
* It is the device's currently active configuration. This is not true, because the pristine configuration is not the device's currently active configuration, unless the device is in the discovery state or the decommissioned state. In the deployed state, the device's currently active configuration is the network configuration and services that are applied by the Apstra software application, which are based on the blueprint and the intent3.
* It is the device's previously active configuration. This is not true, because the pristine configuration is not the device's previously active configuration, unless the device is in the decommissioned state. In the discovery state, the pristine configuration is the device's initial configuration, which may or may not be the same as the device's previous configuration before being onboarded into the Apstra software application. In the deployed state, the device's previously active configuration is the network configuration and services that were applied by the Apstra software application before the last commit3.
References:
* Pristine Config
* Decommission Device
* Device States
NEW QUESTION # 42
......
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