Kubernetes continues to lead the container orchestration charge. In fact, according to the latest [CNCF survey](https://www.cncf.io/wp-content/uploads/2020/11/CNCF_Survey_Report_2020.pdf)CNCF survey, 83% of respondents said they were using Kubernetes in production. Kubernetes provides you with key features such as self-healing capabilities, automated rollouts and rollbacks, automated scheduling, scaling, and infrastructure abstraction. This provides a truly extensible, highly available and infrastructure-agnostic environment to deploy all your modern microservices-based applications.
[Microservices applications](https://konghq.com/blog/learning-center/what-are-microservices)Microservices applications feature dozens, even hundreds, of separate modular services - all communicating with each other via Application Programming Interfaces (APIs). Your microservices also need to interact with one or more external clients such as a web server, application or an IoT device. This direct client-to-microservice communication means exposing the APIs for each microservice to the outside world.
Technology teams need to ensure that these APIs can be seamlessly secured, monitored and managed at scale. Not doing so would be catastrophic. For example, without proper security controls, these APIs may accidentally expose a company’s sensitive data and resources to bad actors, causing compliance violations, increasing fines and lowering customer trust. [
In addition to this, the Kubernetes environment itself introduces a unique set of [security and complexity challenges](https://thenewstack.io/top-challenges-kubernetes-users-face-deployment)security and complexity challenges. As a result, managing and securing these APIs at scale in the Kubernetes environment becomes critical for your businesses to succeed.
This blog post will discuss some of the different ways to manage APIs in a Kubernetes environment and how those choices can affect your overall experience and performance.
A typical Kubernetes [Deployment](https://kubernetes.io/docs/concepts/workloads/controllers/deployment)Deployment consists of one or more [Pods](https://kubernetes.io/docs/concepts/workloads/pods)Pods maintained by [ReplicaSets](https://kubernetes.io/docs/concepts/workloads/controllers/replicaset)ReplicaSets and exposed by one or more Services. In Kubernetes, a [Service](https://kubernetes.io/docs/concepts/services-networking/service)Service is responsible for exposing an interface to those pods, which enables network access from either within the cluster or between external processes and the service.
External access is achieved by the[ Ingress API object](https://kubernetes.io/docs/concepts/services-networking/ingress) Ingress API object provided by Kubernetes. With Ingress, services within the cluster are exposed to the outside of the cluster via HTTP and HTTPS routes.
Diagram 1: Kubernetes Ingress
Services exposed by Ingress can be configured based on routing rules (which are typically over HTTP or HTTPS). Kubernetes Ingress supports multiple protocols, traffic load balancing, SSL/TLS termination, path-based routing, etc. and allows users to manage and configure them in Kubernetes clusters easily. Kubernetes Ingress consists of two core components:
Kubernetes Ingress can be easily set up with rules for routing traffic without creating a bunch of load balancers or exposing each service on the node. This makes it the best option to use in production environments. However, standalone Kubernetes Ingress is not enough to maintain and manage large-scale production APIs, as it can’t do more than traffic routing and load balancing. This leads us to the topic of API gateways and its core concepts and why it’s beneficial.
An [API gateway](https://konghq.com/blog/learning-center/what-is-an-api-gateway)API gateway can be best described as a layer that is present between the clients (both internal and external clients) and the service/product APIs which can be accessed via a centralized ingress point.
With the increase in the number of microservice architecture applications, a complex application is divided into smaller components based on its distinct functionality and other factors. Microservices are easier to develop, deploy and maintain individual parts of a complex application. However, this comes with the cost of difficulty for clients (both internally and externally) to access the information in a fast and secure fashion.
An API gateway can solve most of these problems, as it can act as a central interface for the clients who are consuming these microservices. The main function of the API gateway is **routing** and along with it, offers a number of API management features such as:
API gateways are an essential part of modern API management solutions, particularly when it comes to complex microservices-based applications.
Managing the APIs in a Kubernetes environment can be a daunting, complicated and time-consuming task. In this blog, we discussed how we can use Kubernetes Ingress or an API gateway to address this challenge. Each technology comes with its own set of advantages and capabilities. [**Download the ****eBook**** to learn about the differences between an API gateway and Kubernetes Ingress.**](https://konghq.com/ebooks/api-gateways-vs-kubernetes-ingress)**Download the ****eBook**** to learn about the differences between an API gateway and Kubernetes Ingress.**
A completely optimized and Kubernetes-native solution is available by Kong for seamless API management. Check out the live hands-on tutorial on Kong Gateway on Kubernetes, and try it out for yourself [here](https://www.konglabs.io/kubernetes)here.
In the last blog , we discussed the challenges in managing APIs at scale in a Kubernetes environment. We also discussed how deploying a Kubernetes Ingress Controller or an API gateway can help you address those challenges. In this blog, we wil
[](https://konghq.com/blog/enterprise/managing-apis-at-scale-in-a-kubernetes-environment-part-ii)
Local-first: your data stays with you: Insomnia stores everything on your machine by default. No forced cloud sync, no account needed just to send a request. This is helpful if privacy or working in a regulated environment is a priority for you Fre
[](https://konghq.com/blog/engineering/migrating-collections-and-requests-from-postman-to-insomnia)
If you've ever gotten sticker shock after receiving a surprisingly large cloud bill, you're not alone. Many organizations have faced this challenge, especially as they scale their Kubernetes deployments . While the cloud makes flexible scaling poss
[](https://konghq.com/blog/enterprise/kubernetes-cloud-cost-optimization-tactics)
In today's rapidly evolving technological landscape, software teams have found themselves at the heart of business strategy. Their decisions on which technologies to invest in have become crucial, directly impacting a company's agility and ability t
[](https://konghq.com/blog/enterprise/why-your-engineers-want-to-migrate-to-kubernetes)
Engineering organizations building modern API-driven systems have different priorities when it comes to their API management solution. These priorities will drive design decisions about the deployment of various components for API gateways. Some org
[](https://konghq.com/blog/enterprise/multi-tenancy)
This is part of a 3-part series on APIs, sustainability, and climate change. Check out part 1 on managing a greener API lifecycle, and part 2 on ways to embed and innovate on top of third-party APIs to make greener products. In this final part
[](https://konghq.com/blog/enterprise/the-environmental-impact-of-common-architecture-patterns)
The API management space is changing - fast. In the past couple of years alone, we've seen huge changes in the deployment patterns that our customers are adopting. In the past, when the use cases were fairly simple, organizations would deploy an
[](https://konghq.com/blog/enterprise/kong-vs-apigee-flexibility)