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AWS Advanced Networking Specialty Exam Syllabus Topics:
| Section | Objectives |
|---|---|
Design and implement hybrid IT network architectures at scale - 24% | |
| Apply procedural concepts for the implementation of connectivity for hybrid IT architecture | |
| Given a scenario, derive an appropriate hybrid IT architecture connectivity solution | - Determine IP address allocations for a low-level design - Map the application flows to create a communication matrix - Implement device configurations based on templates - Determine implementation steps for the configuration of the AWS console (AWS, Direct Connect link, VPN, On-premises, L1→7 testing, etc.) - Integrate AWS and on-premises DNS services - Outline the components of a solution (for example, diagram, protocols within a solution, VLANs, 801.q, BFD, etc.) - Evaluate a network architecture diagram for alignment to business and technical requirements - Determine implementation steps for the configuration of devices (AWS, Direct Connect link, VPN, On-premises, L1→7 testing, etc.) - Customize device configurations based on business requirements - Given business and technical requirements, define a rollback procedure - Design multipath links into the VPC to meet business requirements - Determine the high availability/load balancing requirements specific to an architecture |
| Explain the process to extend connectivity using Direct Connect | |
| Evaluate design alternatives leveraging Direct Connect | - Determine the appropriate region(s) to use in support of private VIFs - Determine the appropriate resiliency strategy - Determine whether customer device colocation at the DX facility is required - Restrict public VIF access to specific regional services - Determine whether multiple sub-1G connections are required - Determine Direct Connect facilities required to provide connection redundancy - Route Direct Connect traffic to multiple AWS regions with a Direct Connect gateway |
| Define routing policies for hybrid IT architectures | - Determine a routing policy according to customer requirements concerning high availability, load balancing, traffic shaping, and security - Define link parameters for the routing peers (AWS router peering with an on-premises router) - Define BGP parameters that will be required to implement the routing policy (for example, BGP metrics, AS number) - Implement device-based configuration for route manipulation outside the routing protocol configurations (route filtering, route maps, policy based routing, ACL’s, AS manipulations) in order to implement the routing policy - Determine a testing plan - Create router configurations (including BGP configuration, policy/security configurations) - Test the implementation |
Design and implement AWS networks - 28% | |
| Apply AWS networking concepts | |
| Given customer requirements, define network architectures on AWS | - Explain the purpose and functionality of AWS software-defined networking - Describe how network isolation within AWS works (VPC) and its various components - Calculate the number of IP addresses required - Calculate the number of networks/subnets required and the number of hosts within each network - Classify the level of isolation between subnets - Explain the traffic flow requirements between subnets and in/out of VPC - Outline the requirements of global networks and communication between them - Create VPC, subnets, route tables, and Network ACLs using the AWS console or AWS tools according to customer requirements - Create and attach gateways - Leverage VPC endpoints to meet customer requirements - Design an IP addressing scheme based on the customer requirements and estimate the subnet size (subnet masks) for each subnet - Differentiate the subnets into various logical units based on customer requirements (security isolation, dev/test/prod environment, etc.) - Design a security model for each subnet (Network ACL, public/private subnet) - Determine the routing characteristics for each subnet - Design a model for connecting a VPC to the public internet (if required) and the security around that based on customer requirements - Design a model for inter-VPC communication (within a region/global) and the security around that based on customer requirements, including AWS Transit Gateway - Select ecosystem solutions that augment AWS services and address customer requirements - Determine if a subnet should be shared with multiple AWS accounts |
| Propose optimized designs based on the evaluation of an existing implementation | - Map best practice for particular product sets used and identified in HLD or account usage with best practice identified from whitepapers and other AWS reference documentation (for example, using GAP analysis between current deployment and AWS best practices) - Make recommendations around differences between current deployment identified in HLD and AWS best practices - Determine and carry out a change management plan based upon target architecture - Determine an appropriate network optimization strategy (for example, placement groups, enhanced networking, additional ENI, ENA, EFA, ecosystem, EBS Optimized, MTU, throughput to the internet) - Use tools including, GAP Analyses, AWS Reference architectures, AWS whitepapers, AWS Documentation for specific products |
| Determine network requirements for a specialized workload | - Determine specialized workload(s) and its network requirements (for example, bandwidth requirement, latency requirement, reliability/resiliency requirement, encryption requirements) - Outline components of the solution (for example, diagram, protocols within a solution, VLANs, 801.q, BFD, etc.) |
| Derive an appropriate architecture based on customer and application requirements | - Map business and application requirements to technical solution - Determine application requirements and translate to technical requirements - Evaluate customer business requirements and compare them to application requirements, mapping differences - Map application flow requirements to network capabilities - Outline a requirements definition document detailing mapped customer requirements to application requirements within the network limitations of the system - Translate customer requirements into AWS components |
| Evaluate and optimize cost allocations given a network design and application data flow | - Estimate charges based on network design - Estimate charges based on the application data flow (for example, VPC-E, AWS Key Management Service (AMS KMS) snapshot copy, Amazon S3 cross-region-replication, interAvailability Zone, etc.) |
Automate AWS tasks - 8% | |
| Evaluate automation alternatives within AWS for network deployments | - Manage VPC infrastructure using AWS CloudFormation - Extend network provisioning self-service using AWS Service Catalog - Store Infrastructure-as-Code artifacts in AWS CodeCommit - Audit changes using AWS Config, Amazon Single Notification Service (Amazon SNS), AWS Lambda, and CloudFormation drift detection - Implement overlay network configurations dynamically using Amazon EC2 tags (e.g., multicast), Transit Gateway to route multicast traffic between subnets of attached VPCs - Leverage Lambda as a CloudFormation custom resource for integration with external systems, including IPAM software - Build CloudFormation templates using CloudFormation |
| Evaluate tool-based alternatives within AWS for network operations and management | - Use scripting (any language) to implement highly available solutions for NAT, firewalls, etc., on EC2 - Use APIs to interrogate current network component status/configuration - Implement EC2 monitoring scripts for Amazon CloudWatch and Amazon CloudWatch Logs - Use the Network Manager console to visualize and monitor the global network - Use VPC traffic mirroring to monitor traffic - Given a customer scenario, utilize CloudWatch to monitor for aggregated metrics and issue notifications and automated fixes |
Configure network integration with application services - 14% | |
| Leverage the capabilities of Amazon Route 53 | |
| Evaluate DNS solutions in a hybrid IT architecture | - Leverage Route 53 aliases with other AWS services. - Select appropriate DNS record types, values, and TTLs - Based on customer requirements, determine the appropriate DNS zone type (public/private) - Describe the differences between public and private hosted zones - Given business requirements, design an appropriate DNS routing strategy - Design and configure a hierarchy of hosted zones and record sets - Given business requirements, design an effective health check strategy |
| Determine the appropriate configuration of DHCP within AWS | - Explain key concepts and functionality of DHCP - Describe how DHCP works in AWS (for example, layer 2 broadcast) - Determine appropriate use of DHCP for assignment of IP addresses (for example, secondary IPs) - Configure DHCP option-sets to meet application requirements - Implement solutions where linked applications require different DHCP option-sets |
| Given a scenario, determine an appropriate load balancing strategy within the AWS ecosystem | - Implement sticky sessions - Identify strategies for retrieving client IP addresses - Configure load balancing of TCP, HTTP, and HTTPS services - Given business and application requirements, design an application health check strategy - Leverage ecosystem (for example, Elastic Load Balancers and third-party solutions) offerings to meet application requirements - Given a scenario, identify an appropriate load balancing solution |
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Amazon AWS Certified Advanced Networking Specialty (ANS-C00) Exam Sample Questions (Q10-Q15):
NEW QUESTION # 10
A company has a service that runs on TCP port 443 in VPC A within AWS account A.
The company wants to expose the service to Amazon EC2 instances in VPC B within AWS account B.
The service must not be made public, and all other services in VPC A must not be accessible from VPC B.
A network engineer is using AWS PrivateLink for the configuration.
Which set of procedures should the network engineer follow to meet these requirements?
- A. In VPC A, create an Application Load Balancer (ALB) that has an HTTPS listener. Create an endpoint service in VPC A that points to the ALB. Add the principal ARN of account B to the service endpoints allow list. In VPC B, create an interface endpoint that points to the service identifier of the endpoint service in AWS account A.
- B. In VPC A, create a Network Load Balancer (NLB) that has a TCP listener. Create an endpoint service in VPC A that points to the NLB. Add the principal ARN of account B to the service endpoints allow list. In VPC B, create an interface endpoint that points to the service identifier of the endpoint service in AWS account A.
- C. In VPC A, create a Network Load Balancer (NLB) that has a TCP listener. Create an endpoint service in VPC A that points to the NLB. Add the principal ARN of account B to the service endpoints allow list. In VPC B, create a gateway endpoint that points to the service identifier of the endpoint service in AWS account A.
- D. In VPC A, create an Application Load Balancer (ALB) that has a TCP listener. Create an endpoint service in VPC A that points to the ALB. Add the principal ARN of account B to the service endpoints allow list. In VPC B, create a Gateway Load Balancer endpoint that points to the service identifier of the endpoint service in AWS account A.
Answer: A
Explanation:
https://docs.aws.amazon.com/vpc/latest/privatelink/vpce-interface.html
NEW QUESTION # 11
You are designing the network infrastructure for an application server in Amazon VPC. Users will access all the application instances from the Internet and from an on-premises network. The on-premises network is connected to your VPC over an AWS Direct Connect link.
How should you design routing to meet these requirements?
- A. Configure two routing tables: one that has a default route via the IGW, and another that has a default route via the VGW. Associate both routing tables with each VPC subnet.
- B. Configure a single routing table with a default route via the IGW. Propagate a default route via BGP on the AWS Direct Connect customer router. Associate the routing table with all VPC subnet.
- C. Configure a single routing table with two default routes: one to the Internet via an IGW, the other to the on-premises network via the VGW. Use this routing table across all subnets in your VPC.
- D. Configure a single routing table with a default route via the IGW. Propagate specific routes for the on-premises networks via BGP on the AWS Direct Connect customer router. Associate the routing table with all VPC subnets.
Answer: D
Explanation:
0/0 to IGW and advertise specific routes or (10/8) from onprem to VGW and propogate to VPC
NEW QUESTION # 12
You deploy your Internet-facing application is the us-west-2(Oregon) region. To manage this application and upload content from your corporate network, you have a 1-Gbps AWS Direct Connect connection with a private virtual interface via one of the associated Direct Connect locations. In normal operation, you use approximately 300 Mbps of the available bandwidth, which is more than your Internet connection from the corporate network.
You need to deploy another identical instance of the application is us-east-1(N Virginia) as soon as possible.
You need to use the benefits of Direct Connect. Your design must be the most effective solution regarding cost, performance, and time to deploy.
Which design should you choose?
- A. Use the inter-region capabilities of Direct Connect to establish a private virtual interface from us-west-2 Direct Connect location to the new VPC in us-east-1.
- B. Deploy an IPsec VPN over your corporate Internet connection to us-east-1 to provide access to the new VPC.
- C. Use VPC peering to connect the existing VPC in us-west-2 to the new VPC in us-east-1, and then route traffic over Direct Connect and transit the peering connection.
- D. Use the inter-region capabilities of Direct Connect to deploy an IPsec VPN over a public virtual interface to the new VPC in us-east-1.
Answer: A
NEW QUESTION # 13
A company is deploying a new web application that uses a three-tier model with a public-facing Network Load Balancer and web servers in an Amazon VPC. The application servers are hosted in the company's data center.
There is an AWS Direct Connect connection between the VPC and the company's data center. Load testing results indicate that up to 100 servers, equally distributed across multiple Availability Zones, are required to handle peak loads.
The Network Engineer needs to design a VPC that has a /24 CIDR assigned to it.
How should the Engineer allocate subnets across three Availability Zones for each tier?
- A. Network Load Balancer: /28 per subnetWeb: /26 per subnet
- B. Network Load Balancer: /29 per subnetWeb: /26 per subnet
- C. Network Load Balancer: /28 per subnetWeb: /27 per subnet
- D. Network Load Balancer: /28 per subnetWeb: /25 per subnet
Answer: A
NEW QUESTION # 14
Your VPC has a DX connection that is advertising 99 routes. You have two more prefixes to add:
10.223.1.0/24 and 10.223.2.0/24. You have several locations, so you need to be as exact as possible with your routing. How would you do this? Choose the correct answer:
- A. Summarize the routes into a 10.223.0.0/12 and advertise that route instead.
- B. Add the prefixes; AWS allows for as many BGP routes as you need but not static.
- C. Contact AWS to extend the number of prefixes you are allowed to advertise. .
- D. Summarize the routes into a 10.223.0.0/22 and advertise that route instead.
Answer: D
Explanation:
BGP has a strict 100 prefix limit. 10.223.0.0/12 includes both routes but is not very specific.
10.223.0.0/22 is the proper summarization of both routes.
NEW QUESTION # 15
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