What the CCNP Enterprise Certification Actually Represents — and Why It Matters
When Cisco redesigned its certification tracks in 2020, the CCNP Enterprise emerged as a genuinely more demanding and more relevant qualification than its predecessor. The new CCNP does not just test whether you can configure routing protocols — it tests whether you understand enterprise network architecture at a design level. The ENCOR core exam (350-401) is the broadest professional networking exam Cisco has ever produced: enterprise architecture, dual-stack networks, virtualisation, infrastructure (advanced switching and routing), QoS design, security fundamentals, and network automation — all in a single two-hour exam. Passing it proves you have professional breadth. The ENARSI concentration exam (300-410) then proves you have professional depth in advanced routing — the BGP configurations, route redistribution complexity, EIGRP troubleshooting, and MPLS operations that enterprise networks actually run on.
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In practical terms, CCNP is the certification level where networking careers start to pay seriously. The average jump from CCNA to CCNP in terms of salary is 40–60% in the Pune market — because CCNP holders are expected to design and troubleshoot, not just operate. The roles that open up: Senior Network Engineer, Network Architect, Pre-Sales Engineer, CCNP-level consultant at an SI or Cisco partner, and the network engineering team leads that every IT services company's networking practice needs.
One thing we are transparent about at Aapvex: CCNP is genuinely hard. It requires solid CCNA-level foundations, patience with complex troubleshooting scenarios, and the ability to understand interactions between multiple protocols simultaneously. If you are coming from CCNA with recent, solid exam experience and some practical networking work, you are ready for CCNP. If you have had CCNA for a few years but have not used it actively, we recommend a foundations refresher before starting. Our counselling call will help you honestly assess where you stand.
2
Exams — ENCOR + ENARSI Concentration
40%+
Average Salary Jump from CCNA to CCNP
₹16L+
Average CCNP Engineer Salary Pune
4.9★
Student Rating — 48 Reviews
The Two CCNP Enterprise Exams — What Each Tests
🔵 ENCOR 350-401 (Core Exam — 2 Hours)
- Enterprise network architecture and design
- Dual-stack IPv4/IPv6 routing and switching
- Wireless LAN — WLC, CAPWAP, roaming
- Virtualisation — VRF, GRE tunnels, LISP
- Infrastructure — advanced OSPF, EIGRP, BGP
- Network assurance — SNMP, IP SLA, NetFlow
- Security — 802.1X, MACsec, CoPP
- Automation — Python, REST APIs, Ansible, DNA Center
- QoS — classification, queuing, shaping, policing
- SD-WAN and SD-Access architecture overview
🟡 ENARSI 300-410 (Concentration — 90 Minutes)
- Layer 3 technologies — advanced OSPF, EIGRP
- BGP full coverage — eBGP, iBGP, attributes
- Route redistribution between protocols
- Path control — policy-based routing, route maps
- VPN technologies — MPLS L3VPN, DMVPN, FlexVPN
- Infrastructure security — ACLs, uRPF, CoPP
- Infrastructure services — DHCP, NTP, IP SLA
- Troubleshooting complex routing issues
- IPv6 routing — OSPFv3, EIGRP for IPv6, BGP IPv6
- Network management and monitoring
Lab Environment — GNS3 and Cisco Modelling Laboratory
CCNP-level labs require a different approach from CCNA. The topologies are larger — multi-router OSPF networks, BGP configurations with multiple autonomous systems, MPLS networks with P and PE routers, DMVPN hubs connecting dozens of spokes. This kind of complexity cannot be built on physical hardware alone without an impractical number of devices. At Aapvex, CCNP lab work uses GNS3 (the industry-standard open-source network emulator) and Cisco Modelling Laboratory (CML) — both of which run real Cisco IOS images, not simulators, giving genuine device behaviour at the scale CCNP training requires.
Tools & Technologies Covered in the CCNP Course
GNS3
Complex topology emulation
Cisco CML
Cisco Modelling Laboratory
Cisco IOS-XE
Enterprise router/switch OS
BGP / OSPF / EIGRP
Advanced routing protocols
MPLS
Label switching & L3VPNs
Cisco SD-WAN (Viptela)
SD-WAN architecture
Python + Netmiko / RESTCONF
Network programmability
Ansible
Network automation
Cisco DNA Center
Controller-based networking
Wireshark
Protocol analysis
SNMP / NetFlow / IP SLA
Network monitoring & assurance
802.1X / MACsec
Advanced security
Detailed Curriculum — 8 Advanced Lab Modules
1
Enterprise Network Architecture & ENCOR Core Foundations
The CCNP begins with architecture — not just with configuration — because the most important skill difference between a CCNA and CCNP holder is the ability to think about a network as a system rather than a collection of individual device configurations. This module establishes the architectural frameworks that guide every design decision made in the subsequent modules.
Cisco's three-tier hierarchical network design (core, distribution, access) and the collapsed two-tier design that most modern campus networks use are covered with the design rationale for each layer and the trade-offs between them. Cisco's enterprise network architecture — including SD-Access for the campus and SD-WAN for the WAN — is introduced as the current-generation design philosophy that drives the ENCOR exam. Virtualisation concepts relevant to enterprise networking — Virtual Routing and Forwarding (VRF) for traffic separation without dedicated hardware, Generic Routing Encapsulation (GRE) tunnels, and the LISP protocol — are covered at the configuration level. The ENCOR exam structure, domain weightings, and question formats (multiple choice, drag-and-drop, and the complex troubleshooting scenarios that distinguish ENCOR from CCNA) are analysed to set an effective study strategy for the rest of the programme.
Cisco's three-tier hierarchical network design (core, distribution, access) and the collapsed two-tier design that most modern campus networks use are covered with the design rationale for each layer and the trade-offs between them. Cisco's enterprise network architecture — including SD-Access for the campus and SD-WAN for the WAN — is introduced as the current-generation design philosophy that drives the ENCOR exam. Virtualisation concepts relevant to enterprise networking — Virtual Routing and Forwarding (VRF) for traffic separation without dedicated hardware, Generic Routing Encapsulation (GRE) tunnels, and the LISP protocol — are covered at the configuration level. The ENCOR exam structure, domain weightings, and question formats (multiple choice, drag-and-drop, and the complex troubleshooting scenarios that distinguish ENCOR from CCNA) are analysed to set an effective study strategy for the rest of the programme.
2
Advanced OSPF — Multi-Area, LSA Types, Route Summarisation & Redistribution
OSPF at the CCNP level is a different subject from OSPF at the CCNA level. CCNA covers single-area OSPF — one area, one type of LSA, straightforward adjacency and route propagation. CCNP covers multi-area OSPF in full, and the complexity multiplies significantly once multiple areas, different router roles, different LSA types, and inter-area route summarisation enter the picture. This is where real enterprise OSPF deployments live — and this is what the ENARSI exam tests at depth.
Multi-area OSPF design rationale — why large single-area OSPF networks cause problems (full SPF recalculation across all routers for every topology change, LSA flooding overhead, routing table size) and how hierarchical area design solves them — is covered before any configuration begins, because understanding the design goal makes the configuration details far more memorable. All six LSA types (Type 1-5 and 7) are covered with clear explanations of what each one carries and where it travels. OSPF router roles — backbone router, internal router, ABR (Area Border Router), ASBR (Autonomous System Boundary Router) — and how each participates differently in LSA flooding. Totally stubby areas and NSSA configuration for controlling external route propagation. Route summarisation at ABRs and ASBRs for managing route table size across area boundaries. OSPF authentication (simple and MD5) for neighbour security. Route redistribution between OSPF and other protocols — the source of many real production network issues when done carelessly — is covered with the metric, metric-type, and filtering controls that prevent redistribution from causing routing loops.
Multi-area OSPF design rationale — why large single-area OSPF networks cause problems (full SPF recalculation across all routers for every topology change, LSA flooding overhead, routing table size) and how hierarchical area design solves them — is covered before any configuration begins, because understanding the design goal makes the configuration details far more memorable. All six LSA types (Type 1-5 and 7) are covered with clear explanations of what each one carries and where it travels. OSPF router roles — backbone router, internal router, ABR (Area Border Router), ASBR (Autonomous System Boundary Router) — and how each participates differently in LSA flooding. Totally stubby areas and NSSA configuration for controlling external route propagation. Route summarisation at ABRs and ASBRs for managing route table size across area boundaries. OSPF authentication (simple and MD5) for neighbour security. Route redistribution between OSPF and other protocols — the source of many real production network issues when done carelessly — is covered with the metric, metric-type, and filtering controls that prevent redistribution from causing routing loops.
3
EIGRP Advanced — Feasibility Conditions, Load Balancing & Named Mode
EIGRP remains a significant topic on the ENARSI exam and continues to be deployed on enterprise networks where its fast convergence, support for unequal-cost load balancing, and low bandwidth overhead make it attractive compared to OSPF in specific design scenarios. This module covers EIGRP at the CCNP depth — which means understanding the underlying algorithm well enough to predict EIGRP behaviour in complex topologies rather than just configure it and hope for the best.
The DUAL algorithm — the Diffusing Update Algorithm that enables EIGRP's fast, loop-free convergence — is covered with the successor and feasible successor concepts that determine how EIGRP selects routes and how quickly it can switch to an alternative path when the primary path fails. The feasibility condition — the mathematical test that guarantees a feasible successor route is loop-free — is explained and applied to real topology analysis exercises. EIGRP metric components — bandwidth, delay, reliability, load — and the composite metric calculation are covered with hands-on metric tuning. Unequal-cost load balancing with the variance command is a uniquely powerful EIGRP capability not available in OSPF and is practised in lab scenarios. Named EIGRP mode — the modern configuration approach that consolidates IPv4 and IPv6 EIGRP configuration and provides additional authentication and stub options — is covered as the recommended approach for new deployments. Route redistribution between EIGRP and OSPF, with the metric considerations and potential for routing loops that redistribution introduces, closes the module.
The DUAL algorithm — the Diffusing Update Algorithm that enables EIGRP's fast, loop-free convergence — is covered with the successor and feasible successor concepts that determine how EIGRP selects routes and how quickly it can switch to an alternative path when the primary path fails. The feasibility condition — the mathematical test that guarantees a feasible successor route is loop-free — is explained and applied to real topology analysis exercises. EIGRP metric components — bandwidth, delay, reliability, load — and the composite metric calculation are covered with hands-on metric tuning. Unequal-cost load balancing with the variance command is a uniquely powerful EIGRP capability not available in OSPF and is practised in lab scenarios. Named EIGRP mode — the modern configuration approach that consolidates IPv4 and IPv6 EIGRP configuration and provides additional authentication and stub options — is covered as the recommended approach for new deployments. Route redistribution between EIGRP and OSPF, with the metric considerations and potential for routing loops that redistribution introduces, closes the module.
4
BGP — The Routing Protocol of the Internet
BGP is the most important routing protocol you will learn at the CCNP level — and it is the most different from everything you learned at CCNA. BGP is not a link-state or distance-vector protocol in the traditional sense. It is a path-vector protocol that routes based on policy rather than optimal path calculation. Understanding this distinction is the key that unlocks BGP: BGP decisions are about controlling which paths are advertised, which are accepted, and which are preferred — based on business relationships, traffic engineering goals, and operational policies, not just which path has the lowest metric.
The module begins with BGP fundamentals: the difference between eBGP (connecting different autonomous systems — what ISPs use to connect to each other and to enterprise networks) and iBGP (synchronising routing information between BGP routers inside a single AS). BGP neighbour establishment — the TCP session on port 179, the OPEN message exchange, and the conditions that prevent adjacency from forming — is covered with common troubleshooting scenarios. BGP path selection is the deep heart of this module: the BGP best-path algorithm processes attributes in a defined order (Weight, LOCAL_PREF, origination type, AS_PATH length, ORIGIN code, MED, eBGP over iBGP, IGP metric, age and router ID) and students learn to manipulate each attribute to engineer traffic in specific directions. Route maps, prefix lists, and AS_PATH filtering are used to control what BGP advertises and accepts. BGP communities — the mechanism for attaching policy tags to routes that are honoured by downstream peers — are covered with real ISP community usage examples. By the end of this module, students understand why BGP is called "the glue of the internet" and can build and verify realistic enterprise BGP configurations.
The module begins with BGP fundamentals: the difference between eBGP (connecting different autonomous systems — what ISPs use to connect to each other and to enterprise networks) and iBGP (synchronising routing information between BGP routers inside a single AS). BGP neighbour establishment — the TCP session on port 179, the OPEN message exchange, and the conditions that prevent adjacency from forming — is covered with common troubleshooting scenarios. BGP path selection is the deep heart of this module: the BGP best-path algorithm processes attributes in a defined order (Weight, LOCAL_PREF, origination type, AS_PATH length, ORIGIN code, MED, eBGP over iBGP, IGP metric, age and router ID) and students learn to manipulate each attribute to engineer traffic in specific directions. Route maps, prefix lists, and AS_PATH filtering are used to control what BGP advertises and accepts. BGP communities — the mechanism for attaching policy tags to routes that are honoured by downstream peers — are covered with real ISP community usage examples. By the end of this module, students understand why BGP is called "the glue of the internet" and can build and verify realistic enterprise BGP configurations.
5
MPLS, VPNs & WAN Technologies
MPLS — Multiprotocol Label Switching — is the technology that most enterprise WAN connections and all major ISP backbones run on, even when customers are not directly aware of it. Understanding MPLS is essential for any network engineer who works with WAN connectivity, managed network services, or enterprise site-to-site connectivity. DMVPN and FlexVPN provide the overlay VPN technologies that appear extensively on the ENARSI exam and in real enterprise networks that need site-to-site encrypted connectivity.
MPLS fundamentals are covered with genuine depth: label distribution using LDP, the label forwarding information base (LFIB), how packets are label-switched through a provider network, and the roles of Provider (P), Provider Edge (PE), and Customer Edge (CE) routers in an MPLS network. MPLS L3VPN — the most widely deployed MPLS service in India, used by telecom operators to provide virtual private network services to enterprise customers — is covered with MP-BGP as the control plane, VRF-lite on PE routers, and route distinguishers and route targets for VPN route separation. DMVPN (Dynamic Multipoint VPN) enables scalable spoke-to-spoke VPN connectivity without requiring spoke-to-hub-to-spoke routing for every inter-site communication. Phase 1, 2, and 3 DMVPN are covered with the traffic engineering trade-offs of each. FlexVPN, Cisco's IKEv2-based VPN framework, is introduced as the modern evolution of DMVPN.
MPLS fundamentals are covered with genuine depth: label distribution using LDP, the label forwarding information base (LFIB), how packets are label-switched through a provider network, and the roles of Provider (P), Provider Edge (PE), and Customer Edge (CE) routers in an MPLS network. MPLS L3VPN — the most widely deployed MPLS service in India, used by telecom operators to provide virtual private network services to enterprise customers — is covered with MP-BGP as the control plane, VRF-lite on PE routers, and route distinguishers and route targets for VPN route separation. DMVPN (Dynamic Multipoint VPN) enables scalable spoke-to-spoke VPN connectivity without requiring spoke-to-hub-to-spoke routing for every inter-site communication. Phase 1, 2, and 3 DMVPN are covered with the traffic engineering trade-offs of each. FlexVPN, Cisco's IKEv2-based VPN framework, is introduced as the modern evolution of DMVPN.
6
Cisco SD-WAN, QoS & Network Assurance
Cisco SD-WAN — built on the Viptela architecture Cisco acquired in 2017 — is the technology that is replacing traditional MPLS WAN deployments at enterprise organisations globally. The ability to use any combination of internet, 4G/LTE, and MPLS connections as an underlay, apply consistent security and QoS policy across all sites from a centralised management plane, and dynamically route traffic based on real-time link quality measurement is transforming how enterprise networks are designed and operated. The ENCOR exam covers SD-WAN architecture, and understanding SD-WAN is increasingly expected in senior networking roles.
SD-WAN architecture components are covered systematically: vManage (the management plane — web GUI for policy, monitoring and configuration), vSmart (the control plane — distributes routing policy to all devices via OMP), vBond (the orchestration plane — facilitates initial device onboarding), and the vEdge/cEdge routers (the data plane — forward traffic according to policy). Zero-Touch Provisioning allows SD-WAN routers to automatically contact the vBond, authenticate, and receive their configuration without any manual console access. Application-Aware Routing — monitoring the quality of each WAN link in real time and automatically shifting application traffic to the best-performing path — is the feature that justifies most SD-WAN deployments. QoS at the CCNP level covers the full policy architecture: classification and marking (DSCP, CoS, NBAR), queuing (CBWFQ and LLQ for voice), shaping and policing at WAN edges, and the end-to-end QoS design approach for voice, video, and data in an enterprise environment.
SD-WAN architecture components are covered systematically: vManage (the management plane — web GUI for policy, monitoring and configuration), vSmart (the control plane — distributes routing policy to all devices via OMP), vBond (the orchestration plane — facilitates initial device onboarding), and the vEdge/cEdge routers (the data plane — forward traffic according to policy). Zero-Touch Provisioning allows SD-WAN routers to automatically contact the vBond, authenticate, and receive their configuration without any manual console access. Application-Aware Routing — monitoring the quality of each WAN link in real time and automatically shifting application traffic to the best-performing path — is the feature that justifies most SD-WAN deployments. QoS at the CCNP level covers the full policy architecture: classification and marking (DSCP, CoS, NBAR), queuing (CBWFQ and LLQ for voice), shaping and policing at WAN edges, and the end-to-end QoS design approach for voice, video, and data in an enterprise environment.
7
Network Automation — Python, Ansible, RESTCONF & Cisco DNA Center
Network automation is 15% of the ENCOR exam and an increasingly significant expectation for CCNP-level engineers in the Indian job market. Network teams that used to manage 200 devices manually are now managing 2,000 devices — and the only way that is possible is with automation. Engineers who can write Python scripts to pull configuration data from network devices, push configuration changes to hundreds of devices simultaneously, and build automated compliance checking pipelines are significantly more valuable than those who can only configure devices manually.
Python for networking is covered at a practical level — not a software engineering course, but focused specifically on the libraries that network engineers actually use. Netmiko automates SSH connections to Cisco devices, executing commands and capturing output programmatically. NAPALM (Network Automation and Programmability Abstraction Layer with Multivendor support) provides vendor-agnostic interfaces for common network operations. RESTCONF and NETCONF are the modern programmatic interfaces that Cisco IOS-XE exposes for configuration management via structured data (JSON and XML), replacing ad-hoc scraping of CLI output. Ansible for network automation is covered at a meaningful depth: inventory files for network devices, connection types (network_cli vs RESTCONF), playbook structure, task modules (ios_command, ios_config, ios_facts), variable management, and error handling. Cisco DNA Center — the intent-based networking platform and network automation controller — is covered as the enterprise-scale implementation of the concepts the module builds towards.
Python for networking is covered at a practical level — not a software engineering course, but focused specifically on the libraries that network engineers actually use. Netmiko automates SSH connections to Cisco devices, executing commands and capturing output programmatically. NAPALM (Network Automation and Programmability Abstraction Layer with Multivendor support) provides vendor-agnostic interfaces for common network operations. RESTCONF and NETCONF are the modern programmatic interfaces that Cisco IOS-XE exposes for configuration management via structured data (JSON and XML), replacing ad-hoc scraping of CLI output. Ansible for network automation is covered at a meaningful depth: inventory files for network devices, connection types (network_cli vs RESTCONF), playbook structure, task modules (ios_command, ios_config, ios_facts), variable management, and error handling. Cisco DNA Center — the intent-based networking platform and network automation controller — is covered as the enterprise-scale implementation of the concepts the module builds towards.
8
ENCOR & ENARSI Exam Preparation — Mock Exams, Troubleshooting Labs & Strategy
The final module is entirely about exam readiness — not just content coverage, but the specific preparation needed to pass two demanding professional Cisco exams. ENCOR and ENARSI are structurally different from CCNA: the questions are harder, the troubleshooting scenarios are more complex, and the simulation-format questions require the ability to diagnose multi-protocol issues under time pressure. The difference between a prepared candidate and an underprepared one is often 50-100 marks on a 1000-point scale — which is the difference between passing and failing.
ENCOR preparation covers all nine exam domains with domain-by-domain assessment to identify and address weak areas. Troubleshooting scenario practice — the ENCOR exam's most differentiating question type — involves analysing a multi-router topology with an identified problem and determining root cause and resolution from configuration and show command output, without being able to make live configuration changes. This is systematically practised with 20+ complex troubleshooting scenarios covering OSPF, BGP, EIGRP, QoS, and automation topics. ENARSI preparation focuses on BGP path selection (the topic where the most marks are won or lost), OSPF LSA troubleshooting, EIGRP feasibility condition analysis, and MPLS VPN connectivity verification. Full timed mock exams for both ENCOR and ENARSI are run under exam conditions. Exam registration, testing centre options in Pune (Pearson VUE), and what to expect on exam day are covered to eliminate logistical stress.
ENCOR preparation covers all nine exam domains with domain-by-domain assessment to identify and address weak areas. Troubleshooting scenario practice — the ENCOR exam's most differentiating question type — involves analysing a multi-router topology with an identified problem and determining root cause and resolution from configuration and show command output, without being able to make live configuration changes. This is systematically practised with 20+ complex troubleshooting scenarios covering OSPF, BGP, EIGRP, QoS, and automation topics. ENARSI preparation focuses on BGP path selection (the topic where the most marks are won or lost), OSPF LSA troubleshooting, EIGRP feasibility condition analysis, and MPLS VPN connectivity verification. Full timed mock exams for both ENCOR and ENARSI are run under exam conditions. Exam registration, testing centre options in Pune (Pearson VUE), and what to expect on exam day are covered to eliminate logistical stress.
Hands-On Lab Projects in the CCNP Programme
🌐 Enterprise Multi-Area OSPF Design
Build a 6-router multi-area OSPF topology connecting four areas, configure ABR summarisation, implement NSSA for external route injection, tune OSPF costs for traffic engineering, and troubleshoot four deliberately introduced OSPF failures across area boundaries.
📡 BGP Internet Edge Configuration
Configure a dual-homed enterprise internet edge with two ISP connections using eBGP. Implement LOCAL_PREF for outbound path preference, MED for inbound traffic steering, AS_PATH prepending as a backup mechanism, and prefix-list filtering to prevent the enterprise from becoming a transit AS.
🛣 MPLS L3VPN Service Simulation
Build a simulated MPLS service provider network with P and PE routers. Configure MP-BGP for VPN route distribution, create VRFs for two customer A and B networks, verify that customer A and B routes are isolated, and test end-to-end connectivity across the MPLS cloud.
☁️ DMVPN Hub-and-Spoke Network
Deploy a Phase 2 DMVPN topology connecting a hub router to eight spoke sites. Configure NHRP for spoke-to-spoke direct tunnels, implement OSPF over DMVPN with correct network type configuration, and verify that spoke-to-spoke traffic bypasses the hub router entirely after initial NHRP resolution.
⚙️ Network Automation with Python & Ansible
Write Python scripts using Netmiko to collect interface status from all routers in a GNS3 topology and output a structured report. Then convert the same workflow to Ansible playbooks and add RESTCONF-based configuration backup that saves running configs automatically to timestamped files.
🔍 Complex Troubleshooting Lab
Receive a pre-built 8-device GNS3 topology with 10 deliberately introduced faults across OSPF, BGP, MPLS, and QoS. Using only show commands and debug output — no access to the original configuration — identify and document every fault, its root cause, and the configuration correction. This mirrors the most demanding format of ENCOR/ENARSI exam questions.
Career Paths After CCNP Enterprise Certification
Senior Network Engineer
₹10 – 20 LPA
Designing and maintaining enterprise network infrastructure at IT services companies, MNCs, and corporate IT departments. CCNP is the standard qualification for senior networking roles.
Network Architect
₹18 – 32 LPA
Designing network architectures for enterprise customers and large-scale deployments. Requires CCNP-level protocol knowledge combined with design experience and stakeholder communication skills.
Pre-Sales Network Engineer
₹14 – 25 LPA
Technical pre-sales at Cisco partner companies and SIs — designing solutions, building proposals, and supporting sales teams with technical credibility. CCNP is the standard qualification for this role.
Network Consulting Engineer
₹16 – 30 LPA
Consulting roles at Cisco, at Cisco partners, and at large IT services firms delivering enterprise network design and implementation projects. Typically requires CCNP plus 3-5 years of field experience.
SD-WAN Specialist
₹15 – 28 LPA
Cisco SD-WAN deployments are growing rapidly across Indian enterprises. SD-WAN specialists with CCNP background are in high demand at Cisco partners, telecom operators, and enterprise IT teams.
Cloud Network Engineer (CCNP + Cloud)
₹18 – 35 LPA
Combining CCNP routing depth with AWS/Azure/GCP cloud networking creates one of the most valuable skill combinations in the current Pune and Bangalore job markets.
What Our CCNP Students Say About Aapvex Training
"The BGP module was the best networking training I have ever received. I had read articles and watched videos about BGP path selection before without really understanding it. The way the trainer at Aapvex built the BGP topology step by step — eBGP peers first, then iBGP full mesh, then route reflectors, then attribute manipulation — and made us predict the behaviour before applying configuration changes completely changed how I think about BGP. I now work as a Senior Network Engineer at an SI and BGP is something I configure and troubleshoot confidently every week."— Pradeep K., Senior Network Engineer, Cisco Partner, Pune
"I came in with CCNA and two years of NOC experience. The CCNP training pushed me to a completely different level. The troubleshooting labs in the final module — diagnosing complex faults in a multi-protocol topology using only show commands — were genuinely hard and genuinely useful. I passed ENCOR on my first attempt. The MPLS L3VPN section is something I never would have understood from textbooks alone — seeing it built in GNS3 made the concept click completely."— Meera R., Network Engineer, IT Services MNC, Bangalore (Aapvex Pune Batch)
Frequently Asked Questions — CCNP Course Pune
What is the fee for the CCNP Enterprise course at Aapvex Pune?
The CCNP Enterprise course fee starts from ₹18,999. EMI options are available on major cards. Call 7796731656 to confirm the current batch fee and check for any active early-bird or scholarship offers. Fees cover both ENCOR and ENARSI exam domain preparation, all lab materials, and placement support.
Do I need CCNA before doing CCNP?
Cisco officially removed the CCNA prerequisite for CCNP in 2020 — so you can now attempt CCNP exams directly without holding CCNA. However, CCNP assumes solid networking foundations: subnetting proficiency, routing table operation, OSPF and basic switching concepts, ACL logic. If you do not have this foundation, you will struggle significantly with CCNP material. Our pre-enrolment counselling call includes a technical assessment to determine whether your current level is genuinely CCNP-ready or whether a refresher on CCNA topics first would serve you better. We would rather tell you honestly than take your money and have you struggle.
How many exams do I need to pass for CCNP Enterprise?
Two exams: the ENCOR core exam (350-401, 2 hours, covers architecture, infrastructure, QoS, security, and automation) which is required, and one concentration exam. The most common concentration exam for enterprise networking professionals is ENARSI (300-410, 90 minutes, covering advanced routing, MPLS, and VPN technologies). Our course covers both. There are other concentration options (ENSLD for design, ENWLSD for wireless, etc.) if your career direction requires them.
Why is BGP so important at the CCNP level?
BGP is the routing protocol that runs the internet. Every router at every ISP that connects networks to each other uses BGP. Enterprise networks use eBGP to connect to ISPs for internet connectivity and increasingly use iBGP internally for WAN routing across MPLS services. SD-WAN control plane (OMP) is conceptually similar to BGP. Anyone designing or managing a network that has internet connectivity — which is basically every enterprise network — encounters BGP. Understanding BGP path selection well enough to engineer traffic flows deliberately rather than accepting whatever routing Cisco's algorithm defaults to is one of the most valuable skills a senior network engineer can have.
Does CCNP cover Cisco SD-WAN?
Yes. Cisco SD-WAN (Viptela architecture) is covered in the ENCOR core exam and in our curriculum. We cover the four SD-WAN components (vManage, vSmart, vBond, vEdge/cEdge), the overlay (IPSec tunnels) and underlay (internet/MPLS/4G) architecture, OMP as the routing protocol, ZTP for device onboarding, and application-aware routing policies. For engineers who want deeper SD-WAN expertise beyond CCNP level, we offer a dedicated Cisco SD-WAN course that covers the full deployment workflow.
What salary can I realistically expect after CCNP certification in Pune?
The CCNP salary range in Pune depends on years of experience and the role. Engineers who add CCNP to 2-4 years of CCNA-level experience typically see a jump to ₹10–16 LPA. Senior network engineers with CCNP and 5+ years of experience earn ₹16–25 LPA. Pre-sales engineers and networking consultants at Cisco partners earn ₹14–28 LPA. Engineers who combine CCNP with Cisco SD-WAN specialisation or cloud networking certifications (AWS Advanced Networking, Azure Network Engineer) are currently commanding ₹20–35 LPA in the Pune and Bangalore markets.
How long does the CCNP course take at Aapvex?
The course runs for approximately 3 months, with sessions 3 times per week. The ENCOR material takes 7-8 weeks to cover properly, and the ENARSI concentration takes a further 4-5 weeks. The final 2 weeks are mock exams and targeted exam preparation. Students typically sit the ENCOR exam first (about 3-4 weeks after completing the course content) and then the ENARSI exam 4-6 weeks later. This staged approach means you are not trying to retain 5 months of material simultaneously for a single sitting — you consolidate ENCOR knowledge while working on ENARSI content.
Does Aapvex provide placement support after CCNP?
Yes — 100% placement support is included. For CCNP graduates, our placement support focuses on senior networking and pre-sales roles: resume positioning for network engineer and architect positions, technical mock interviews at CCNP depth (BGP troubleshooting scenarios, OSPF LSA analysis, MPLS VPN topology questions), referrals to our hiring partner network including Cisco Gold Partners, IT services companies, and enterprise IT departments. The CCNP placement network is different from the CCNA placement network — the roles are more senior, the salaries are higher, and the interview process is more technically demanding. Our preparation reflects that.
Is CCNP a stepping stone to CCIE?
Yes — CCNP is the natural preparation ground for CCIE. All of the CCNP ENARSI routing topics (BGP, OSPF, EIGRP, MPLS, redistribution) appear in the CCIE Enterprise Infrastructure lab exam, extended to full enterprise complexity. Students who pass CCNP with a good exam score and strong lab skills typically take 12-18 months of additional focused study to reach CCIE Lab level. Aapvex offers CCIE Enterprise training for students who want to pursue that path. The CCNP is where you develop the fundamental skills; CCIE is where you push those to expert depth.
How do I enrol in the CCNP course at Aapvex Pune?
Call or WhatsApp 7796731656. Our counsellor will do a brief technical assessment to confirm your CCNA-level foundations are solid enough for CCNP, discuss the current batch schedule and fee structure, and get you enrolled. This is not a sales call — we turn away students who are not yet ready for CCNP rather than take fees and let them struggle. You can also fill out our Contact form and we will reach you within 2 hours.