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Juniper JN0-364 Exam Syllabus Topics:

SectionObjectives
Layer 2 Bridging or VLANs- Identify the concepts, operation, or functionality of Layer 2 bridging for the Junos OS
  • 1. Provider bridging (Q-in-Q tunneling)
  • 2. Bridging elements and terminology
  • 3. Virtual Switches
  • 4. Frame processing
  • 5. Service provider switching platforms
- Demonstrate knowledge of how to configure, monitor, or troubleshoot Layer 2 bridging or VLANs
  • 1. Provider bridging
  • 2. VLANs
  • 3. IRB
  • 4. Interfaces and ports
- Identify the concepts, benefits, or functionality of VLANs
  • 1. Port modes
  • 2. Tagging
  • 3. Integrated Routing and Bridging (IRB)
Open Shortest Path First (OSPF)- Demonstrate knowledge of how to configure, monitor, or troubleshoot OSPF
  • 1. Routing policy application
  • 2. Troubleshooting tools
  • 3. Interfaces and neighbor
- Identify the concepts, operation, or functionality of OSPF
  • 1. OSPF packet types
  • 2. Link-state database
  • 3. Adjacencies and neighbors
  • 4. Router ID
  • 5. Link-state advertisement (LSA) packet type
  • 6. OSPF area and router types
  • 7. Designated router and backup designated router
Protocol-Independent Routing- Demonstrate knowledge of how to configure, monitor, or troubleshoot various protocol-independent routing components
  • 1. Filter-based forwarding
  • 2. Load balancing
  • 3. Static, aggregate, and generated routes
- Identify the concepts, operation, or functionality of various protocol-independent routing components
  • 1. Routing instances, including routing information base (RIB) (also known as routing table) group
  • 2. Filter-based forwarding
  • 3. Load balancing
  • 4. Static, aggregate, and generated routes
  • 5. Martian addresses
IPv6- Demonstrate knowledge of how to configure, monitor, or troubleshoot IPv6
- Identify the concepts, operation, or functionality of IPv6
  • 1. Static routes
  • 2. Dynamic routing - OSPFv3, IS-IS, BGP
  • 3. IPv6 over IPv4 tunneling
Multiprotocol Label Switching (MPLS)- Demonstrate knowledge of how to configure, monitor, or troubleshoot MPLS
  • 1. Shortest path segment-routing LSPs
  • 2. RSVP-signaled Label-Switched Paths (LSPs)
  • 3. MPLS forwarding
  • 4. LDP-signaled Label-Switched Paths (LSPs)
- Identify the concepts, operation, or functionality of MPLS CoS processing on Junos devices
  • 1. MPLS packet header
  • 2. MPLS and routing tables
  • 3. LDP
  • 4. End-to-end packet flow and forwarding
  • 5. Segment routing with MPLS
  • 6. RSVP
  • 7. Labels and the label information base
  • 8. MPLS terminology
Border Gateway Protocol (BGP)- Demonstrate knowledge of how to configure, monitor, or troubleshoot BGP
  • 1. Routing policy application
  • 2. Troubleshooting tools
  • 3. Peers and peer groups
- Identify the concepts, operation, or functionality of BGP
  • 1. BGP route reflection and confederations
  • 2. Attributes
  • 3. Route selection process
  • 4. BGP message types
  • 5. BGP basic operation
  • 6. IBGP and EBGP functionality and interaction
Spanning Tree Protocols- Identify the concepts, operation, or functionality of STP
  • 1. RSTP
  • 2. VSTP
  • 3. MSTP
  • 4. STP
- Demonstrate knowledge of how to configure, monitor, or troubleshoot Spanning Tree Protocols
  • 1. RSTP
  • 2. VSTP
  • 3. MSTP
  • 4. STP
Intermediate System to Intermediate System (IS-IS)- Identify the concepts, operation, or functionality of IS-IS
  • 1. Metrics
  • 2. Link-state database
  • 3. Type, length, values (TLVs)
  • 4. Designated intermediate system (DIS)
  • 5. IS-IS protocol data units (PDUs)
  • 6. Adjacencies and neighbors
  • 7. Levels and areas
- Demonstrate knowledge of how to configure, monitor, or troubleshoot IS-IS
  • 1. Routing policy application
  • 2. Troubleshooting tools
  • 3. Interfaces and adjacencies

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Free PDF Quiz Juniper - Trustable JN0-364 - Exam Service Provider Routing and Switching, Specialist (JNCIS-SP) Cram

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Juniper Service Provider Routing and Switching, Specialist (JNCIS-SP) Sample Questions (Q69-Q74):

NEW QUESTION # 69
Referring to the exhibit, how do you verify the status of the tunnel from R1?

Answer: B

Explanation:
To verify the status of the tunnel from R1, you would issue a ping from the source address that is assigned to R1's end of the tunnel. In the exhibit, we can see that the tunnel interface (gre-
0/0/0.0) has the IP address 198.51.100.1 on R1. Therefore, to test the tunnel's status, you should ping the IP address at the other end of the tunnel (which is likely the address on User B's interface or another interface on R2) from R1's tunnel source address.


NEW QUESTION # 70

In the exhibit, Site A is sending traffic to Site B. R1 adds MPLS label 7166 to direct the traffic to R5. Which two criteria did R1 use to determine which label number to add to the traffic? (Choose two.)

Answer: A,C

Explanation:
In a Juniper Networks MPLS environment, the process by which a router determines how to forward traffic involves both the control plane and the data plane. When R1 (acting as an Ingress Label Edge Router, or LER) receives an IP packet from Site A destined for Site B, it must perform a lookup to decide whether to forward the packet via standard IP routing or via an MPLS Label Switched Path (LSP).
The first criterion R1 uses is thedestination address of the traffic(Option C). Upon receiving the native IP packet, R1 looks up the destination IP in its routing table (typically inet.0). If the destination matches a prefix that is associated with an LSP-such as the loopback address of R5 or a prefix reachable via R5-the router identifies the appropriate Forwarding Equivalence Class (FEC). The FEC essentially groups packets that should be forwarded in the same manner over the same path. Without identifying the destination, the router cannot map the traffic to the correct MPLS tunnel.
The second criterion is thelabel number advertisement received from R2(Option D). MPLS relies on downstream label allocation. In this topology, R2 is the immediate downstream "next hop" for R1 on the path to Site B. For the LSP to be established, R2 must signal a label to R1 using a protocol like LDP (Label Distribution Protocol) or RSVP (Resource Reservation Protocol). This label (in this case, 7166) tells R1: "If you want to send traffic to the destination associated with this LSP, wrap it in this specific label so I know how to process it." R1 does not use the source address (Option A) for standard label mapping, nor does it receive the label directly from R5 (Option B) in a hop-by-hop signaling model; it must use the label provided by its direct neighbor, R2. Therefore, by combining the destination IP (to find the path) and the label provided by the next hop (to encapsulate the packet), R1 successfully directs the traffic through the MPLS core.


NEW QUESTION # 71

Referring to the exhibit, which protocol would automatically create a full mesh of label-switched paths between MPLS-enabled routers?

Answer: C

Explanation:
In Juniper Networks Junos OS, theLabel Distribution Protocol (LDP)is specifically designed to automate the creation of Label Switched Paths (LSPs) based on the information provided by the underlying Interior Gateway Protocol (IGP), such as OSPF or IS-IS. When LDP is enabled on a set of interfaces within an OSPF area (as shown in the exhibit with Area 0.0.0.0), it automatically discovers neighbors and exchanges label mappings for all known unicast routes in the routing table.
The defining characteristic of LDP in this context is its "topology-driven" nature. Unlike RSVP (Resource Reservation Protocol), which typically requires the manual configuration of each LSP ingress point and destination, LDP follows the IGP's shortest path tree to automatically build afull meshof LSPs between all participating routers. This means that every Provider Edge (PE) and Provider (P) router in the exhibit-PE1, PE2, PE3, P1, P2, and P3-will establish label-switched connectivity to every other router without the administrator having to define individual tunnels.
LDP accomplishes this through a downstream-unsolicited label distribution mode by default in Junos. Each router assigns a local label for its loopback address and other prefixes and advertises these to its neighbors.
Because every router is performing this action for every reachable prefix in the OSPF domain, a complete fabric of label-switched paths is formed. While RSVP is more robust for traffic engineering and bandwidth reservation, LDP is the preferred protocol for creating a simple, scalable full mesh of LSPs for applications like Layer 3 VPNs or internal BGP tunneling where complex path manipulation is not required. BFD is a failure detection protocol, and BGP is used for service signaling, making LDP the only correct choice for automatic mesh creation.


NEW QUESTION # 72
What are three default BGP advertisement rules? (Choose three.)

Answer: B,D,E

Explanation:
Routes learned from an iBGP neighbor are not advertised to other iBGP neighbors. This rule prevents routing loops inside an autonomous system and is the reason mechanisms such as route reflectors or confederations are required.
Routes learned through either iBGP or eBGP can be advertised to eBGP neighbors. This allows prefixes to propagate between autonomous systems.
Routes learned from eBGP peers can be advertised to iBGP peers within the same autonomous system so internal routers can learn external destinations.


NEW QUESTION # 73
Referring to the exhibit. Which type of load balancing is shown in the exhibit?

Answer: A

Explanation:
The policy statement shown in the exhibit has a term that specifies load-balance per-packet, which indicates that per-packet load balancing is being used. This means that the routing device will distribute packets out multiple paths on a per-packet basis, rather than on a per-flow (per- destination or per-source-destination pair) basis.


NEW QUESTION # 74
......

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