Glossary

4.1 Virtual private cloud (VPC)

13 min read•august 20, 2024

is a cornerstone of cloud networking, offering a secure and customizable environment for your resources. It provides enhanced control over network configurations, allowing you to define IP ranges, subnets, and access controls tailored to your needs.

VPCs bridge the gap between traditional on-premises networks and cloud infrastructure. They offer the flexibility and scalability of cloud computing while maintaining the security and isolation of a private network, making them essential for modern cloud architectures.

VPC fundamentals

  • A (VPC) is a logically isolated virtual network within a cloud provider's infrastructure, enabling you to launch and manage resources in a secure and customizable environment
  • VPCs provide enhanced security, flexibility, and control over your cloud resources, allowing you to define IP address ranges, subnets, and network configurations tailored to your specific requirements
  • VPCs offer a more secure and scalable alternative to traditional on-premises networks, with built-in features like network access control, routing, and the ability to connect to other networks through VPN or Direct Connect

Definition of VPC

Top images from around the web for Definition of VPC

  • Virtual private cloud - Wikipedia View original

    Is this image relevant?

  • тут блог – Об AWS View original

    Is this image relevant?

  • Virtual private cloud - Wikipedia View original

    Is this image relevant?

1 of 3

Top images from around the web for Definition of VPC

  • Virtual private cloud - Wikipedia View original

    Is this image relevant?

  • тут блог – Об AWS View original

    Is this image relevant?

  • Virtual private cloud - Wikipedia View original

    Is this image relevant?

1 of 3
  • A VPC is a virtual network dedicated to your AWS account, logically isolated from other virtual networks in the AWS Cloud
  • It allows you to provision a logically isolated section of the AWS Cloud where you can launch AWS resources in a virtual network that you define
  • You have complete control over your virtual networking environment, including the selection of your own IP address ranges, creation of subnets, and configuration of route tables and network gateways

Benefits of using VPCs

  • Security: VPCs provide a secure and isolated environment for your cloud resources, allowing you to control inbound and outbound traffic using security groups and network ACLs
  • Customization: With VPCs, you can define your own IP address ranges, create subnets, and configure routing tables to suit your application's requirements
  • Scalability: VPCs enable you to scale your resources seamlessly, as you can launch instances in different subnets and availability zones to ensure high availability and fault tolerance
  • : VPCs support hybrid cloud architectures by allowing you to securely connect your on-premises network to your cloud resources using VPN or Direct Connect

VPC vs traditional networks

  • VPCs offer a virtual networking environment that mimics traditional on-premises networks, but with the added benefits of scalability, flexibility, and cost-effectiveness
  • Unlike traditional networks, VPCs can be quickly provisioned and configured through APIs or management consoles, reducing the time and effort required for network setup and management
  • VPCs provide built-in security features like security groups and network ACLs, which can be easily configured to control traffic at the instance and level, respectively
  • With VPCs, you can easily scale your network infrastructure to accommodate changing business needs without the need for physical hardware provisioning or maintenance

VPC architecture

  • VPC architecture consists of various components that work together to provide a secure and customizable virtual networking environment for your cloud resources
  • Key components of VPC architecture include subnets, IP addressing, routing tables, and security features like network ACLs and security groups
  • Understanding the VPC architecture is crucial for designing and implementing a robust and secure cloud infrastructure that meets your application's requirements

VPC components

  • Subnets: A VPC can be divided into one or more subnets, each representing a range of IP addresses in your VPC
  • : An Internet Gateway enables communication between instances in your VPC and the internet, allowing resources within the VPC to access the internet and vice versa
  • : A NAT Gateway allows instances in a to connect to the internet or other AWS services while preventing the internet from initiating connections with the instances
  • Route Tables: Route tables control the traffic flow between subnets within a VPC and between the VPC and external networks
  • Network ACLs: Network ACLs act as a firewall for controlling inbound and outbound traffic at the subnet level
  • Security Groups: Security groups act as a virtual firewall for controlling inbound and outbound traffic at the instance level

Subnets in VPCs

  • A subnet is a range of IP addresses within a VPC that you can launch instances into
  • Subnets can be classified as public or private, depending on whether they have a route to the internet through an Internet Gateway
  • Public subnets have a route to the internet and are typically used for resources that need to be accessible from the internet (load balancers, web servers)
  • Private subnets do not have a direct route to the internet and are typically used for resources that do not need direct internet access (databases, application servers)
  • Subnets can be created in different availability zones to ensure high availability and fault tolerance

IP addressing in VPCs

  • When creating a VPC, you must specify an IPv4 for the VPC, which is a range of private IPv4 addresses that you can use for your instances
  • You can assign IP addresses to instances manually or automatically using DHCP
  • Each subnet within a VPC must have a unique CIDR block that is a subset of the VPC's CIDR block
  • You can also assign secondary private IPv4 addresses to instances, which can be useful for hosting multiple websites or services on a single instance

Routing in VPCs

  • Route tables control the traffic flow between subnets within a VPC and between the VPC and external networks
  • Each subnet must be associated with a , which defines the routing rules for the subnet
  • The default route table allows communication between all subnets within the VPC
  • Custom route tables can be created to control traffic flow between specific subnets or to external networks (internet, on-premises network)
  • Route tables can also be used to enable , allowing communication between instances in different VPCs

Security in VPCs

  • Security groups and network ACLs are the primary security features in VPCs
  • Security groups act as a virtual firewall at the instance level, controlling inbound and outbound traffic based on IP addresses, protocols, and port numbers
  • Network ACLs act as a firewall at the subnet level, providing an additional layer of security by controlling inbound and outbound traffic
  • Security groups are stateful, meaning that return traffic is automatically allowed, while network ACLs are stateless and require explicit rules for return traffic
  • can be enabled to capture information about IP traffic going to and from network interfaces in your VPC, which can be useful for monitoring and troubleshooting

Creating a VPC

  • Creating a VPC involves specifying an IP address range, configuring subnets, and setting up routing and security options
  • AWS provides a VPC wizard that simplifies the process of creating a VPC by guiding you through the necessary steps and providing default configurations
  • When creating a VPC, it's essential to follow best practices to ensure a secure, scalable, and maintainable cloud infrastructure

Steps to create a VPC

  1. Define the IP address range for your VPC by specifying a CIDR block (10.0.0.0/16)
  2. Create subnets within your VPC, specifying their IP address ranges and availability zones (: 10.0.1.0/24, private subnet: 10.0.2.0/24)
  3. Configure an Internet Gateway and attach it to your VPC to enable internet access for public subnets
  4. Create a NAT Gateway in a public subnet to allow instances in private subnets to access the internet
  5. Set up route tables for your subnets, defining the traffic flow between subnets and to external networks
  6. Configure security groups and network ACLs to control inbound and outbound traffic at the instance and subnet level, respectively

Configuring VPC settings

  • When configuring your VPC, you can customize various settings to suit your application's requirements
  • IP addressing: Choose an appropriate CIDR block for your VPC and subnets, ensuring that there are enough IP addresses for your instances and future growth
  • Tenancy: Decide whether to use default or dedicated instance tenancy, which determines whether your instances run on shared or dedicated hardware
  • DNS hostnames and DNS resolution: Enable or disable automatic assignment of DNS hostnames and DNS resolution for instances launched in your VPC
  • DHCP options set: Configure DHCP options to specify the domain name, domain name servers, and other DHCP settings for your VPC

Best practices for VPC design

  • Use multiple subnets across different availability zones to ensure high availability and fault tolerance
  • Implement a multi-tier architecture, with public subnets for internet-facing resources and private subnets for internal resources
  • Use security groups to control traffic at the instance level and network ACLs to control traffic at the subnet level
  • Enable VPC Flow Logs to monitor and troubleshoot network traffic in your VPC
  • Use a consistent naming convention for your VPCs, subnets, and other resources to improve organization and management
  • Regularly review and optimize your VPC configuration to ensure it aligns with your application's evolving requirements

Connecting to a VPC

  • Connecting to a VPC allows you to securely access resources within the VPC from external networks, such as your on-premises network or other VPCs
  • AWS provides several options for connecting to a VPC, including VPC peering, VPN connections, and Direct Connect
  • Choosing the appropriate connection method depends on factors such as security requirements, bandwidth needs, and the location of your resources

VPC peering

  • VPC peering is a networking connection between two VPCs that enables instances in either VPC to communicate with each other using private IP addresses
  • Peered VPCs can be in the same or different AWS accounts and regions
  • VPC peering is a cost-effective and secure way to connect VPCs, as traffic between peered VPCs remains within the AWS network and does not traverse the public internet
  • To establish a VPC peering connection, you must configure route tables in both VPCs to direct traffic between the peered VPCs

VPN connections to VPCs

  • VPN (Virtual Private Network) connections allow you to securely connect your on-premises network to your VPC over the internet
  • AWS provides two types of VPN connections: and
  • AWS Site-to-Site VPN creates an encrypted tunnel between your on-premises network and your VPC, allowing resources in your VPC to communicate with resources in your on-premises network
  • AWS Client VPN enables users to securely access resources in a VPC from any location using an OpenVPN-based VPN client

Direct Connect to VPCs

  • is a dedicated network connection that allows you to establish a private, high-bandwidth connection between your on-premises network and your VPC
  • Direct Connect offers a more reliable and consistent network experience compared to VPN connections, as it bypasses the public internet
  • With Direct Connect, you can establish private virtual interfaces to your VPC, enabling secure communication between your on-premises resources and your VPC resources
  • Direct Connect is suitable for applications that require high bandwidth, low latency, or consistent network performance

VPC security

  • VPC security is crucial for protecting your cloud resources from unauthorized access and ensuring the confidentiality and integrity of your data
  • AWS provides several security features for VPCs, including security groups, network ACLs, and flow logs
  • Implementing a multi-layered security approach, with security controls at the instance, subnet, and VPC levels, helps create a robust and secure cloud environment

Security groups in VPCs

  • Security groups act as virtual firewalls at the instance level, controlling inbound and outbound traffic based on IP addresses, protocols, and port numbers
  • Each instance in a VPC must be associated with at least one
  • Security groups are stateful, meaning that return traffic is automatically allowed, regardless of the inbound rules
  • By default, security groups allow all outbound traffic and deny all inbound traffic, unless explicitly configured otherwise
  • Security group rules can reference other security groups, allowing for more granular control over traffic between instances

Network ACLs in VPCs

  • Network ACLs (Access Control Lists) act as firewalls at the subnet level, providing an additional layer of security for your VPC
  • Each subnet in a VPC must be associated with a network ACL, which controls inbound and outbound traffic for the subnet
  • Network ACLs are stateless, meaning that return traffic must be explicitly allowed by inbound and outbound rules
  • Network ACLs evaluate rules in numeric order, starting with the lowest numbered rule, and apply the first rule that matches the traffic
  • By default, network ACLs allow all inbound and outbound traffic, unless explicitly configured otherwise

Flow logs for VPC monitoring

  • VPC Flow Logs capture information about IP traffic going to and from network interfaces in your VPC
  • Flow logs can be created at the VPC, subnet, or network interface level
  • Flow log data includes information such as the source and destination IP addresses, ports, protocols, and the number of packets and bytes transferred
  • Flow logs can be published to Amazon CloudWatch Logs or Amazon S3 for analysis and troubleshooting
  • Flow logs are useful for monitoring traffic patterns, identifying security issues, and ensuring compliance with security policies

Advanced VPC concepts

  • As your cloud infrastructure grows and becomes more complex, you may need to implement advanced VPC concepts to optimize performance, security, and manageability
  • Advanced VPC concepts include VPC endpoints, , and
  • Understanding and leveraging these concepts can help you build a more efficient, scalable, and secure cloud environment

VPC endpoints

  • VPC endpoints allow instances in your VPC to securely access AWS services without requiring an internet gateway, NAT device, or VPN connection
  • There are two types of VPC endpoints: interface endpoints and gateway endpoints
  • Interface endpoints use an elastic network interface with a private IP address to enable communication between your VPC and supported AWS services (Amazon EC2 API, AWS Systems Manager)
  • Gateway endpoints are virtual devices that enable communication between your VPC and supported AWS services (Amazon S3, Amazon DynamoDB)
  • VPC endpoints keep traffic between your VPC and AWS services within the AWS network, reducing the exposure of your instances to the public internet

Transit Gateway for VPC interconnectivity

  • AWS Transit Gateway is a service that enables you to connect multiple VPCs and on-premises networks using a central hub
  • Transit Gateway simplifies network architecture by reducing the number of VPC and VPN attachments needed to connect multiple VPCs and on-premises networks
  • With Transit Gateway, you can create a single gateway that acts as a central point for routing traffic between all connected networks
  • Transit Gateway supports dynamic routing, allowing you to propagate routes automatically between connected networks
  • Transit Gateway is highly available and scalable, making it suitable for large-scale, complex network architectures

VPC sharing across accounts

  • VPC sharing allows you to share subnets with other AWS accounts within the same organization, enabling resource sharing and collaboration
  • With VPC sharing, account owners can share one or more subnets with other accounts, while maintaining control over the shared subnets
  • Instances launched into shared subnets can communicate with each other using private IP addresses, as if they were in the same VPC
  • VPC sharing simplifies network management by reducing the need for VPC peering and enables centralized management of shared resources
  • To set up VPC sharing, you must enable resource sharing in the AWS Resource Access Manager (RAM) and share subnets with the desired AWS accounts

VPC use cases

  • VPCs are versatile and can be used in a wide range of scenarios to support various application architectures and business requirements
  • Common VPC use cases include hosting web applications, implementing hybrid cloud environments, and ensuring regulatory compliance
  • Understanding how VPCs can be applied to different use cases can help you design and implement effective cloud solutions

Hosting web applications in VPCs

  • VPCs provide a secure and scalable environment for hosting web applications in the cloud
  • By launching web servers in public subnets and database servers in private subnets, you can create a multi-tier architecture that enhances security and performance
  • Load balancers can be used to distribute traffic across multiple web server instances, improving application availability and fault tolerance
  • Security groups and network ACLs can be configured to control inbound and outbound traffic, protecting your application from unauthorized access
  • Auto Scaling can be used to automatically adjust the number of web server instances based on traffic demand, ensuring optimal performance and cost-efficiency

Implementing hybrid cloud with VPCs

  • VPCs enable you to create a hybrid cloud environment by securely connecting your on-premises network with your cloud resources
  • VPN connections or Direct Connect can be used to establish a secure link between your on-premises network and your VPC, allowing for seamless communication between the two environments
  • By extending your on-premises network to the cloud, you can take advantage of the scalability and flexibility of cloud computing while maintaining control over your sensitive data and applications
  • Hybrid cloud architectures are particularly useful for organizations with legacy systems or regulatory requirements that prevent full migration to the cloud
  • With a hybrid cloud setup, you can gradually migrate workloads to the cloud, while keeping critical systems on-premises

Regulatory compliance with VPCs

  • VPCs can help organizations meet regulatory compliance requirements by providing a secure and isolated environment for sensitive data and applications
  • By using VPCs, you can implement strict network access controls, encrypt data in transit and at rest, and monitor network traffic for potential security threats
  • VPC flow logs can be used to capture network traffic information, which can be analyzed for compliance auditing and reporting purposes
  • Dedicated instances can be launched in VPCs to ensure that your resources are physically isolated from other customers' resources, which may be required for certain compliance standards (HIPAA, PCI DSS)
  • By leveraging VPC features and following best practices, you can create a compliant cloud environment that meets the specific requirements of your industry or region

Troubleshooting VPC issues

  • Troubleshooting VPC issues is an essential skill for maintaining a healthy and reliable cloud environment
  • Common VPC issues include connectivity problems, misconfigured security settings, and performance bottlenecks
  • By understanding the root causes of these issues and following a systematic troubleshooting approach, you can quickly identify and resolve VPC problems

Common VPC configuration errors

  • Incorrect route table settings: Misconfigured route tables can prevent instances from communicating with each other or accessing external networks
  • Overlapping CIDR blocks: Using overlapping IP address ranges for VPCs or subnets can cause connectivity issues and make it difficult to manage your network
  • Misconfigured security groups or network ACLs: Overly restrictive or permissive security

Key Terms to Review (29)

Amazon Web Services: Amazon Web Services (AWS) is a comprehensive cloud computing platform provided by Amazon that offers a wide range of services including computing power, storage options, and networking capabilities. It allows businesses to scale their infrastructure and manage their applications more efficiently in a secure environment. With its virtual private cloud (VPC) feature, AWS enables users to create isolated networks within the cloud, offering greater control over resources and enhanced security for sensitive data.
AWS Client VPN: AWS Client VPN is a fully managed, elastic VPN service that automatically scales to accommodate your client connections. It allows users to securely access AWS resources and on-premises networks from any location using OpenVPN-based clients. By providing secure connectivity through encrypted tunnels, it integrates seamlessly with Virtual Private Clouds (VPC) and enhances the security posture of cloud applications.
AWS Direct Connect: AWS Direct Connect is a cloud service that allows you to establish a dedicated network connection from your premises to Amazon Web Services (AWS). This service offers a more consistent network experience than internet-based connections, enabling users to securely and efficiently transfer data between their data centers, offices, or colocation environments and their AWS resources in a Virtual Private Cloud (VPC). With AWS Direct Connect, organizations can improve bandwidth throughput and reduce latency, making it an essential feature for businesses requiring reliable cloud connectivity.
Aws site-to-site vpn: AWS Site-to-Site VPN is a service that allows you to securely connect your on-premises network or branch office to your Amazon Virtual Private Cloud (VPC) through an encrypted tunnel over the internet. This service enables organizations to extend their existing networks into the cloud while maintaining secure communications, facilitating hybrid cloud architectures, and enhancing operational flexibility.
BGP: Border Gateway Protocol (BGP) is a standardized exterior gateway protocol used to exchange routing information between autonomous systems on the internet. It plays a crucial role in determining the best paths for data transfer, ensuring reliable and efficient communication between networks. BGP is essential for the management of internet traffic, enabling different networks to interconnect and communicate seamlessly.
CIDR Block: A CIDR block, or Classless Inter-Domain Routing block, is a method for allocating IP addresses and IP routing that allows for more efficient use of IP address space. It enables the aggregation of multiple IP addresses into a single prefix, which simplifies routing tables and improves the allocation of addresses in large networks. CIDR blocks are essential in managing IP address distribution in virtual private clouds, ensuring that network resources can be organized logically and efficiently.
Flow logs: Flow logs are a feature in cloud computing that captures and records information about the IP traffic going to and from network interfaces in a virtual private cloud (VPC). They provide insights into network traffic patterns, security monitoring, and troubleshooting by logging details such as source and destination IP addresses, ports, and protocols. This data is crucial for analyzing usage and ensuring compliance with security policies within the VPC environment.
Google Cloud Platform: Google Cloud Platform (GCP) is a suite of cloud computing services offered by Google that allows businesses and developers to build, deploy, and scale applications in the cloud. GCP provides a range of services including computing power, storage options, machine learning, and networking capabilities. Its infrastructure is built on Google's own highly secure and scalable data centers, providing users with a reliable platform for their cloud-based needs.
Hybrid Cloud: A hybrid cloud is a cloud computing environment that combines both public and private cloud infrastructures, allowing data and applications to be shared between them. This model provides greater flexibility, scalability, and control over resources while enabling organizations to keep sensitive data secure in a private cloud while leveraging the vast resources of public clouds for less sensitive operations.
IaaS: Infrastructure as a Service (IaaS) is a cloud computing model that provides virtualized computing resources over the internet. Users can rent virtual machines, storage, and networks on a pay-as-you-go basis, allowing for flexibility and scalability in managing IT infrastructure without the need for physical hardware.
Internet gateway: An internet gateway is a key component in cloud computing that allows communication between resources in a virtual private cloud (VPC) and the internet. It serves as a bridge, enabling outbound traffic from the VPC to the internet and allowing inbound traffic from the internet to the VPC, facilitating access to web applications and services hosted within the cloud environment.
Ipsec: IPsec, or Internet Protocol Security, is a suite of protocols designed to secure Internet Protocol (IP) communications by authenticating and encrypting each IP packet in a communication session. It provides various security services like confidentiality, integrity, and authenticity, making it essential for creating secure virtual private networks (VPNs) and protecting data transmitted over public networks.
Multi-cloud: Multi-cloud refers to the use of multiple cloud computing services from different providers to meet various business needs. This strategy allows organizations to leverage the strengths of various cloud platforms, enhance redundancy, and avoid vendor lock-in. By distributing workloads across different environments, multi-cloud enables greater flexibility, scalability, and resilience in IT operations.
NAT Gateway: A NAT Gateway is a network address translation service that enables instances within a private subnet to connect to the internet while preventing inbound internet traffic from directly reaching those instances. This service helps maintain security and simplifies outbound internet access by translating the private IP addresses of resources in a Virtual Private Cloud into a public IP address, allowing them to communicate with external networks seamlessly.
Network access control list: A network access control list (ACL) is a set of rules that determine which network traffic is allowed or denied access to a network resource. These rules are essential for managing inbound and outbound traffic, especially in a virtual private cloud (VPC) environment, where they enhance security by controlling data flow between different parts of the network and ensuring that only authorized traffic can reach sensitive resources.
PaaS: Platform as a Service (PaaS) is a cloud computing model that provides a platform allowing customers to develop, run, and manage applications without the complexity of building and maintaining the infrastructure typically associated with developing and launching apps. It streamlines the application development process by providing pre-configured tools and services, which relate closely to various aspects of cloud services like storage types, virtual environments, data protection, compliance, migration strategies, hybrid architectures, orchestration platforms, and IoT management.
Peering Connections: Peering connections refer to the direct interconnection between two or more networks that allows them to exchange traffic without the need for an intermediary, enabling more efficient data transfer. This is particularly significant in the context of virtual private clouds, as it facilitates communication between VPCs and on-premises networks while optimizing performance and reducing latency. Peering connections enhance scalability and flexibility by allowing resources in different networks to seamlessly interact as if they were part of the same network.
Private subnet: A private subnet is a portion of a network that is isolated from external networks, typically used within a Virtual Private Cloud (VPC) to host resources that should not be directly accessible from the internet. This isolation enhances security and allows for the segmentation of resources based on their access needs, enabling organizations to control inbound and outbound traffic effectively.
Public subnet: A public subnet is a segment of a virtual private cloud (VPC) that allows resources within it to communicate directly with the internet. This setup is essential for hosting web servers and other services that need to be accessible from outside the VPC, while still benefiting from the isolation and security provided by the VPC architecture.
Route Table: A route table is a set of rules that determines where network traffic from your Virtual Private Cloud (VPC) is directed. It acts as a roadmap, guiding packets to their destinations based on the destination IP address and the associated target, such as an instance or a subnet. The route table plays a critical role in enabling communication between different subnets within a VPC, as well as connecting the VPC to external networks, including the internet or other VPCs.
Security Group: A security group is a virtual firewall that controls inbound and outbound traffic for resources in a virtual private cloud (VPC). It enables users to specify rules that define which network traffic is allowed or denied, thus providing an essential layer of security for cloud resources like instances and databases.
Subnet: A subnet, or subnetwork, is a segmented piece of a larger network that helps to organize and optimize the flow of data. Subnets allow for efficient use of IP addresses, enhance security by isolating network traffic, and improve performance by reducing congestion within the larger network. By creating subnets, organizations can better manage their network infrastructure and ensure that resources are allocated effectively.
Subnet sizing: Subnet sizing refers to the process of determining the appropriate size of a subnet within a network, ensuring that there are enough IP addresses available for devices while maintaining efficient use of address space. This concept is crucial in designing networks, particularly in virtual private clouds, where optimal subnet allocation helps in managing resources and enhancing security by segmenting network traffic.
Transit gateway: A transit gateway is a networking service that enables the connection of multiple Virtual Private Clouds (VPCs) and on-premises networks to a single, centralized gateway. It simplifies network architecture by allowing for efficient routing and management of network traffic across various environments, enhancing scalability and security.
Virtual Private Cloud: A Virtual Private Cloud (VPC) is a private cloud environment that exists within a public cloud infrastructure, offering enhanced security and control over resources while still utilizing the scalability and flexibility of the public cloud. This setup allows organizations to create isolated sections of the cloud where they can run applications and store data, ensuring privacy and security. By leveraging a VPC, users can customize their network configurations and manage resources in a way that closely mimics traditional on-premises environments.
Virtual Private Cloud (VPC): A Virtual Private Cloud (VPC) is a secure, isolated section of a cloud provider's infrastructure where users can launch resources in a virtualized network that they define. It allows for greater control over the environment, including IP address range, subnets, and configuration of route tables and network gateways, enabling users to customize their cloud resources while maintaining the benefits of cloud scalability and flexibility.
VPC Peering: VPC peering is a networking connection that allows two Virtual Private Clouds (VPCs) to communicate with each other as if they are within the same network. This connection enables resource sharing and enhances flexibility in managing applications across different VPCs, whether they are in the same region or in different regions. VPC peering provides a way to simplify network architecture while maintaining the isolation and security benefits of separate VPCs.
VPC Sharing: VPC Sharing is a feature that allows multiple Amazon Web Services (AWS) accounts to share a single Virtual Private Cloud (VPC), enabling them to leverage the same networking resources while maintaining separate security controls and billing. This capability enhances resource utilization and simplifies network management, especially for organizations with multiple accounts or teams that require collaboration within the same network space.
Vpn gateway: A VPN gateway is a network point that connects two or more networks through a secure tunnel over the internet. This allows remote users to securely access resources within a private network, such as a Virtual Private Cloud (VPC), ensuring data privacy and integrity during transmission. The VPN gateway plays a critical role in cloud computing by facilitating secure communication between on-premises networks and cloud environments.
© 2024 Fiveable Inc. All rights reserved.
AP® and SAT® are trademarks registered by the College Board, which is not affiliated with, and does not endorse this website.
Back
Practice QuizGlossary
Practice QuizGlossary
Next guide