Who Is Accountable for Managing Kubernetes Resource Quotas?
Managing Kubernetes resource quotas is a shared responsibility among Platform Engineering, Application Development, and SRE teams. This collaborative approach ensures cluster stability, prevents resource contention, and promotes efficiency. This guide explores the distinct roles and key tasks of each team, highlighting why shared accountability is essential for scaling modern, cloud-native environments.
Table of Contents
- The Three Pillars of Accountability
- What Is the Role of Platform Engineering?
- How Does the Development Team Contribute?
- Why Is the SRE Team Critical to Quota Management?
- A Critical Comparison: The Why
- The Role of GitOps and Policy as Code
- Choosing the Right Approach for Your Project
- Conclusion
- Frequently Asked Questions
In the dynamic world of cloud-native development, Kubernetes has emerged as the de facto standard for container orchestration. As clusters scale and more teams adopt a shared platform, a critical question arises: Who is accountable for managing Kubernetes resource quotas? The answer is not as simple as assigning the task to a single team. Instead, accountability for resource quotas is a shared responsibility, distributed across Platform Engineering, Application Development, and Site Reliability Engineering (SRE). This collaborative model ensures that resource consumption is controlled, predictable, and aligned with organizational goals. This article will explore the distinct roles and responsibilities of each team, highlighting how their collaboration is essential for maintaining a stable and efficient Kubernetes environment. We'll examine the technical and operational responsibilities that ensure resources are fairly distributed, cluster stability is maintained, and costs are kept in check. Ultimately, managing resource quotas is a team sport, where each player has a crucial role to play in the long-term health and scalability of the platform. By the end of this comprehensive guide, you will have a clear understanding of the shared accountability model and how to implement it to build a more resilient and efficient cloud-native infrastructure.
A Kubernetes cluster is a shared resource, and without proper governance, it can quickly become a "wild west" where resource contention and instability are common. The shared accountability model is designed to prevent this by establishing clear roles and responsibilities for each team. This approach moves away from the traditional, siloed model where a single operations team is responsible for all infrastructure, creating a bottleneck and a lack of ownership from the development side. In a modern DevOps environment, where teams are empowered to manage their own applications from development to production, a shared accountability model is not just a best practice, but a necessity. It aligns the incentives of all teams towards a common goal: a stable, efficient, and scalable platform that can support the rapid pace of innovation. By distributing the responsibility for managing resource quotas, organizations can ensure that the platform is managed proactively, rather than reactively, which is a key component of a mature and resilient engineering practice. This is about more than just technology; it is about building a culture of collaboration and shared ownership that is essential for success in today's complex cloud landscape.
The shared accountability model is built on three core pillars that work in a continuous feedback loop. The platform team provides the foundation and the guardrails, the development team operates within those guardrails while providing crucial resource information, and the SRE team provides the operational oversight and feedback that ensures the system remains in a healthy state. This model ensures that no single team is overwhelmed with all the responsibility, and it leverages the unique expertise of each team to achieve a better outcome. For example, a developer is the best person to know their application's resource needs, and a platform engineer is the best person to know the cluster's capacity. By working together, they can make informed decisions that benefit both the application and the platform. This collaborative process prevents friction and blame and instead promotes a culture of shared learning and continuous improvement. The following sections will dive deep into the specific responsibilities of each team, providing a comprehensive guide to implementing this model in your organization. We will also explore the tools and practices, such as GitOps and Policy as Code, that provide the technical foundation for this shared approach, ensuring that your resource management strategy is both effective and scalable.
In the context of Kubernetes, a Resource Quota is a policy object that limits the total resources that can be consumed by all pods within a specific namespace. These quotas can be applied to compute resources like CPU and memory, as well as the number of objects, such as pods, services, and persistent volume claims. Without resource quotas, a single, poorly configured application could consume all the resources of a cluster, leading to instability for all other applications. While this seems like a simple technical solution, the real challenge lies in the process of defining, enforcing, and managing these quotas over time. The question of who is accountable for each part of this process is what separates a well-managed, scalable platform from a chaotic, unmanageable one. It is a matter of establishing a clear chain of command and responsibility that ensures the long-term health and efficiency of the shared environment. By clearly defining the roles of each team, you can avoid common pitfalls such as finger-pointing, resource contention, and a reactive operational model. The shared accountability model is a proactive solution that ensures that resource management is a continuous, data-driven process that benefits everyone on the team.
The Three Pillars of Accountability
Effective management of Kubernetes resource quotas is a collaborative effort, with each team bringing a unique perspective and set of skills to the table. The accountability model is built on three core pillars:
- Platform Engineering: Accountable for the foundational policies and tooling. They are the architects who build the house and set the rules for the tenants.
- Application Development: Accountable for defining and requesting the specific resource needs of their applications. They are the tenants who decide what furniture to buy and where to put it within the rules of the house.
- Site Reliability Engineering (SRE): Accountable for monitoring and ensuring the system operates as intended. They are the building managers who ensure everything is running smoothly and efficiently for all tenants.
Each pillar's accountability is a critical link in the chain of command. If any one pillar fails to meet its responsibilities, the entire system can become unstable. For example, if a developer requests too many resources, it can starve other applications. If the platform team sets overly restrictive policies, it can block innovation and create friction. The goal of this model is to balance the needs of each team while ensuring the overall health of the shared platform. This is a fundamental shift from a siloed, top-down approach to a distributed, collaborative one. It is about empowering teams with the right level of autonomy while ensuring that the guardrails are in place to protect the shared environment. This shared accountability model is the key to building a scalable, resilient, and collaborative cloud-native infrastructure that can support the demands of a fast-paced business. It provides a clear framework for decision-making and ensures that everyone is working towards a common goal. This model is a core component of a mature DevOps practice and is essential for any organization that is serious about leveraging the power of Kubernetes at scale.
The accountability for managing resource quotas is not a one-time task but a continuous process. It begins with the platform team establishing the initial policies, is executed by the development team through their application manifests, and is continuously monitored and optimized by the SRE team. This creates a virtuous cycle where data from SRE monitoring informs the platform team's policy adjustments and helps development teams fine-tune their resource requests. This continuous feedback loop ensures that the quotas are always relevant and that the system is operating at peak efficiency. This approach also helps to foster a culture of data-driven decision-making, where every team's actions are informed by real-world data rather than guesswork. This is in stark contrast to a reactive model where quotas are only addressed after a problem has occurred. The shared accountability model is a proactive solution that prevents problems before they start, which is invaluable for maintaining system reliability and reducing operational toil. It is the key to turning a chaotic, unmanaged cluster into a predictable, well-oiled machine that can support the most demanding workloads.
What Is the Role of Platform Engineering?
The platform engineering team is primarily accountable for establishing and enforcing the initial resource quota policies. They are the first line of defense against resource contention and are responsible for setting the stage for fair resource distribution. Their work is proactive, focused on creating a robust and secure framework for all other teams to operate within. This team's responsibility is foundational; they are the architects who design the rules of the road. Their decisions have a direct impact on the stability and scalability of the entire cluster, making their role a critical starting point for any effective resource management strategy. Without a well-defined and enforced policy from the platform team, the cluster would quickly devolve into chaos, with different teams consuming resources without any regard for the needs of others. Their accountability extends to not just defining the policies, but also implementing the technical mechanisms to enforce them, ensuring that the rules are followed without manual intervention. This includes setting up automated checks and controls that prevent resource misuse and maintain the integrity of the shared environment. Their work is the silent, but crucial, engine that keeps the entire system running smoothly and predictably.
Establishing Boundaries and Guardrails
The core responsibility of the platform team is to define the high-level resource limits for namespaces and clusters. This involves determining the appropriate CPU and memory allocations for different types of workloads. For example, a development namespace might have more generous quotas than a production namespace to allow for experimentation and rapid iteration, while a production namespace would have tighter, more predictable quotas to ensure stability. They are also accountable for implementing Admission Controllers and other Kubernetes mechanisms to enforce these policies, ensuring that no team can accidentally or maliciously provision more resources than they are allocated. These guardrails act as a safety net, preventing common mistakes that can lead to resource contention and system instability. The platform team’s accountability is to provide a secure and reliable platform where teams can deploy their applications with confidence, knowing that the environment is governed by clear and consistent rules. This is a crucial step that transforms a Kubernetes cluster from a raw set of resources into a managed platform that can support the needs of a large organization.
Providing Visibility and Tooling
Beyond policy, the platform team is also responsible for providing the necessary tools and dashboards to monitor resource usage. This includes setting up monitoring solutions like Prometheus and Grafana, which provide real-time visibility into resource consumption against quotas. By providing these tools, they empower development and SRE teams to make data-driven decisions and identify potential issues before they escalate. Their role is not just to enforce policies, but to enable the other teams to succeed within those policies. This is a key part of the shared accountability model. The platform team provides the tools, and the other teams use those tools to manage their own responsibilities. This creates a collaborative environment where information is transparent and accessible to everyone. The platform team’s accountability is to ensure that the data needed for effective resource management is readily available, allowing all teams to work together to maintain a healthy and efficient cluster. This is about building a culture of transparency and shared understanding that is essential for success at scale. The platform team's work is the foundation upon which all other resource management practices are built, making their role a critical component of the entire process.
How Does the Development Team Contribute?
The application development team is directly accountable for defining and requesting the specific resource needs of their applications. This is a significant shift from traditional IT models, where infrastructure was a separate concern. In a cloud-native world, developers are an integral part of the infrastructure lifecycle, and their accountability for resource management is direct and hands-on. They are the ones who write the code that will run on the cluster, and they are the best equipped to understand the resource requirements of that code. Their decisions about resource requests and limits have a direct impact on the efficiency and stability of the entire cluster. By taking ownership of these responsibilities, developers can ensure that their applications have the resources they need to run effectively without over-provisioning and wasting resources. This also empowers them to self-service their infrastructure needs, which speeds up the development lifecycle and reduces the friction between development and operations teams. The developer's accountability is to ensure that their applications are not just functional, but also resource-efficient and well-behaved in a shared environment. This is a key component of a mature DevOps practice, where developers are empowered to take on more operational responsibility for their applications, leading to better outcomes for everyone.
Defining Resource Requests and Limits
A key accountability for developers is to accurately set the `requests` and `limits` for CPU and memory in their application's YAML manifests. This is a critical step that directly impacts the scheduler's ability to place pods efficiently. The `requests` field tells the scheduler the minimum amount of resources a container needs, while the `limits` field sets the maximum amount of resources it can consume. Misconfiguring these values can lead to pods not being scheduled or to an application consuming too many resources and being terminated. Developers must carefully analyze their application's performance characteristics to set these values accurately. This is a hands-on responsibility that requires a deep understanding of their application's behavior. The developer's accountability is to ensure that these values are not just arbitrary numbers, but are based on a realistic assessment of their application's needs. This is a key part of the shared accountability model, where the developer's expertise is leveraged to make informed decisions that benefit the entire platform. By taking ownership of this responsibility, developers can ensure that their applications are well-behaved and do not cause problems for others in the cluster.
Performance Testing and Optimization
Developers are also accountable for the performance of their applications. This means performing load testing and stress testing to determine the appropriate resource allocation. They must ensure that their applications can handle the expected traffic while consuming resources responsibly. This includes writing efficient code, optimizing their dependencies, and ensuring that their applications are not leaking resources. Their accountability extends beyond just writing code; it includes the operational health and efficiency of their services. By performing performance testing, developers can identify bottlenecks and optimize their code to reduce resource consumption. This not only benefits their own application but also helps to free up resources for others in the cluster. This proactive approach to optimization is a key part of a mature DevOps practice. The developer's accountability is to continuously optimize their applications to ensure they are as resource-efficient as possible. This is a crucial step that contributes to the long-term health and scalability of the entire platform. By taking ownership of this responsibility, developers can help to ensure that the shared environment remains stable and efficient for everyone. Their work is a crucial part of the continuous improvement cycle that defines a mature cloud-native operation.
Why Is the SRE Team Critical to Quota Management?
The SRE team is accountable for monitoring, troubleshooting, and optimizing resource utilization in production. They act as the operational arm of the organization, ensuring the long-term health and stability of the Kubernetes platform. Their role is to provide the operational rigor that ensures the platform's reliability and resilience. While the platform team sets the rules and the development team defines the needs, the SRE team is the one that ensures that the system is operating as intended in the real world. They are the eyes and ears of the platform, constantly monitoring resource consumption and performance to identify potential issues before they cause an outage. Their accountability is for the real-time operational health of the entire system. Without the SRE team's oversight, it would be easy for resource quotas to become a static, unmanaged policy that eventually becomes irrelevant as the system evolves. The SRE team’s continuous monitoring and optimization is what turns a static policy into a dynamic, living part of the operational framework. This is a key part of the shared accountability model, where the SRE team's expertise is leveraged to ensure that the platform remains stable and efficient for everyone. Their work is the final piece of the puzzle that ensures the long-term success of the resource management strategy.
Monitoring and Alerting
SREs are responsible for setting up continuous monitoring of resource consumption against quotas. They use dashboards and alerting systems to identify potential issues and bottlenecks. For example, they might set up an alert to notify a development team when their namespace's CPU usage reaches 90% of its quota. This proactive approach allows them to identify and address issues before they cause service degradation or an outage. Their accountability is for the real-time operational health of the entire system. This is a crucial part of the shared accountability model, as it provides a feedback loop that informs both the platform team and the development teams about the effectiveness of their policies and resource requests. The SRE team’s monitoring provides the data that is needed to make informed decisions about resource management. This is about moving from a reactive, "firefighting" approach to a proactive, data-driven one, which is essential for maintaining reliability in a complex, dynamic environment. The SRE team's work ensures that the system is always operating at its peak, and that any issues are caught and addressed before they become a problem for end-users.
Collaboration and Optimization
The SRE team's role is not just to police resource usage, but to collaborate with development teams to fine-tune resource requests and resolve inefficient usage. They can use their deep understanding of the platform's performance to suggest optimizations and improvements. This collaborative approach fosters a culture of shared ownership and ensures that resource management is a continuous process of improvement, rather than a reactive one. They are the key to ensuring that the platform operates at peak efficiency while maintaining reliability. Their accountability is to work with other teams to ensure that the system is running as smoothly as possible. This is about building a culture of shared learning and continuous improvement, where every team is working together to make the system better. The SRE team's work is the glue that holds the shared accountability model together, ensuring that all teams are aligned and working towards a common goal. This is a crucial step that transforms a technical solution into a a collaborative, organizational practice that benefits everyone involved.
A Critical Comparison: The Why
Understanding the "why" behind this shared accountability model is crucial. In traditional IT environments, a single team—often operations—was responsible for all infrastructure. This created a bottleneck, as developers had to wait for resources to be provisioned, and operations teams were constantly overwhelmed with manual requests. The shared accountability model in a cloud-native environment addresses these issues by:
- Eliminating Bottlenecks: Developers are empowered to self-service their resource needs, which speeds up the development lifecycle.
- Promoting Ownership: Each team is directly accountable for a piece of the puzzle, which encourages responsible behavior and reduces the "not my problem" mentality.
- Improving Reliability: With SREs monitoring the system, issues are caught and addressed before they cause an outage.
| Aspect | Platform Engineering | Application Development | SRE |
|---|---|---|---|
| Core Responsibility | Define and enforce the framework and policies. | Specify resource requests and limits in manifests. | Monitor, alert, and ensure operational health. |
| Primary Goal | Cluster stability and resource fairness. | Application performance and resource efficiency. | System reliability and continuous optimization. |
| Key Task | Set `ResourceQuotas` and Admission Controllers. | Set `requests` and `limits` in deployment manifests. | Monitor `usage` against `quotas` with Prometheus/Grafana. |
| Accountability for... | The integrity and security of the shared platform. | The resource footprint and performance of their application. | The proactive management and operational efficiency of the cluster. |
| Tools | Kubernetes API, Admission Controllers, Policy as Code. | YAML Manifests, Git, CI/CD pipelines. | Prometheus, Grafana, Alertmanager, Observability platforms. |
The collaborative model ensures that resource management is a continuous, data-driven process, where each team’s actions are transparent and auditable. This is the only way to manage a complex, distributed system at scale without falling into a state of chaos. The accountability for managing resource quotas is not a burden; it is a shared responsibility that leads to a more efficient and reliable platform for everyone. The table highlights the unique, yet complementary, roles of each team, making it clear that no single team can handle this responsibility alone. This shared approach is a hallmark of a mature, modern organization and is a critical component of a successful cloud-native strategy. It moves organizations from a reactive, manual model to a proactive, automated one, which is essential for maintaining a competitive edge in today's fast-paced market. By distributing accountability, organizations can build a system that is not only scalable but also resilient, efficient, and well-managed for the long term. This is the future of infrastructure management, and it is built on a foundation of shared ownership and collaboration.
The Role of GitOps and Policy as Code
The shared accountability model for managing resource quotas is significantly strengthened by the adoption of GitOps and Policy as Code. These two practices provide the technical foundation for a collaborative and automated approach. GitOps uses a Git repository as the single source of truth for the desired state of the infrastructure and applications. By defining resource quotas in a Git repository, platform engineers can manage them with the same rigor and discipline as application code. Any changes to a quota are made via a pull request, which allows for peer review and an automated audit trail. This ensures that every change is intentional and reviewed by the team, preventing undocumented "shadow changes." Additionally, Policy as Code tools like OPA (Open Policy Agent) allow platform teams to define and enforce fine-grained policies that govern resource consumption. For example, a policy can prevent a developer from setting a CPU limit that is higher than the maximum allowed for their namespace. This shifts the enforcement from a manual process to an automated one, which ensures consistency and security across the entire cluster. By combining these practices, the shared accountability model becomes more robust, transparent, and resilient to human error. GitOps and Policy as Code are the technical enablers of this collaborative approach, ensuring that the human processes of shared accountability are backed by a strong, automated framework. They are the key to moving from a manual, reactive model to an automated, proactive one, which is essential for success in today's dynamic cloud-native environment. This is about building a system that is designed for safety and reliability from the ground up, rather than trying to retrofit it later. Their adoption is a clear sign of a mature, well-managed engineering organization.
Choosing the Right Approach for Your Project
While the shared accountability model is clearly the superior choice for most modern, large-scale cloud projects, it is important to consider the context of your specific organization. For a very small team or a project with a limited number of applications, a simpler, more centralized approach might be sufficient to get started. However, as soon as you begin to scale, a centralized model quickly becomes a bottleneck and a source of friction. The shared accountability model is an investment in your organization's future. It is about building a scalable, resilient, and collaborative culture that can support the demands of a fast-paced business. The benefits of this model—such as reduced friction, increased transparency, and improved reliability—far outweigh the initial effort of implementing it. The choice between a centralized and a shared model is ultimately a decision about the future of your infrastructure. Do you want to manage it manually with a series of commands and scripts, or do you want to build a self-healing, automated system that is managed through a version-controlled, collaborative codebase? In today's cloud-native world, the answer is increasingly clear: the shared accountability model is the path to a more efficient, resilient, and scalable platform that can support your business for the long term. This is the key to turning a technical solution into a strategic business advantage. It’s a decision that will impact everything from your team's morale to your organization's ability to innovate and compete in the market. By choosing the right approach, you can set your team up for long-term success and build a platform that is designed for growth and resilience from the very beginning. This is a crucial step that transforms a technical solution into a strategic business asset.
Conclusion
Managing Kubernetes resource quotas is not a one-person job. It requires a collaborative effort from all three teams: Platform Engineering, Application Development, and Site Reliability Engineering. This shared accountability model ensures fair resource distribution, prevents cluster instability, and promotes a culture of efficiency and collaboration across the entire organization. This approach is essential for any organization looking to scale its cloud-native operations with confidence and precision. The responsibility for resource quotas is not a burden to be avoided, but a shared opportunity to build a more robust and efficient platform for everyone. By embracing this model, organizations can move beyond a reactive, manual approach and build a proactive, data-driven system that is designed for long-term success. It is a fundamental shift that empowers every team to take ownership of their role in the system's health, leading to a more resilient, reliable, and scalable infrastructure. This is the key to turning the promise of Kubernetes—agility and resilience—into a tangible reality that benefits the entire business and provides a competitive advantage. It is a strategic investment in the long-term health and stability of the platform, and it is essential for any organization that is serious about succeeding in the cloud-native world.
Frequently Asked Questions
What is a Kubernetes Resource Quota?
A Kubernetes Resource Quota is a policy that defines hard limits on the total resources a namespace can consume. It ensures a single team or application does not monopolize all available resources, which helps maintain cluster stability and fair resource distribution across the shared platform.
How is a Resource Quota different from a Pod's Resource Limit?
A Pod's Resource Limit (`limits`) defines the maximum resources a single container can use, while a Resource Quota sets the maximum amount of resources that can be used across an entire namespace. A quota acts as a governor for a group of pods.
Why is Platform Engineering accountable for defining quotas?
The Platform Engineering team is accountable for defining quotas because they are responsible for the overall health and stability of the Kubernetes cluster. They have the architectural perspective to understand how resources should be allocated and to set policies that prevent cluster instability.
Why are developers accountable for setting resource requests?
Developers are accountable for setting resource requests because they have the most intimate knowledge of their application's performance characteristics. They know how much CPU and memory their application needs to run efficiently and can define these in their manifests, which is a key part of the shared model.
What happens if a developer's application exceeds its limits?
If an application's container exceeds its CPU limits, its CPU usage will be throttled. If it exceeds its memory limits, it may be terminated by the Kubernetes scheduler to prevent it from impacting other pods. This is a key mechanism for enforcing resource boundaries.
How does SRE ensure quotas are being respected?
SREs ensure quotas are respected through continuous monitoring and alerting. They set up dashboards and automated alerts to track resource consumption within each namespace. If a namespace approaches its quota limits, SREs are alerted and can proactively work with the development team to either optimize or request a quota increase.
Can a single team manage all resource quota aspects?
While a single team *could* theoretically manage all aspects, it's not a recommended practice for complex environments. It creates a bottleneck and prevents other teams from having the necessary autonomy. The shared accountability model distributes the workload and empowers each team to focus on their unique area of expertise.
What is the role of Policy as Code in quota management?
Policy as Code tools, such as Open Policy Agent (OPA), allow platform teams to automate the enforcement of resource policies. Instead of manually checking manifests, they can define a policy that automatically validates if a developer’s requests and limits comply with the rules, ensuring consistency.
How does GitOps relate to resource quota management?
GitOps leverages a Git repository as the single source of truth for all infrastructure and application configurations, including resource quotas. This means that any change to a quota is a Git commit, which provides a full audit trail, enables a pull request review, and ensures a clear history.
Why is communication between teams so important for this?
Communication is critical because managing quotas is a negotiation. Developers must communicate their application's resource needs, and platform teams must communicate the available resources. Without open communication, a developer might request too many resources, or the platform team might set a quota that is too restrictive, leading to friction and inefficiency.
What is "configuration drift" in this context?
Configuration drift is when the live state of the infrastructure deviates from its intended configuration. In the context of quotas, this could happen if a manual change is made that isn't reflected in the configuration files. An automated, collaborative approach helps prevent this by continuously reconciling the live state with the declared state.
What are the consequences of not managing resource quotas?
Without proper resource quota management, a single misbehaving application could consume all available resources, causing other applications to become unstable or fail. This can lead to service outages, unpredictable performance, and an increase in cloud costs. It's a fundamental practice for ensuring a stable, multi-tenant environment.
What's the difference between `requests` and `limits`?
`requests` is the minimum amount of resources a container needs to be scheduled. The Kubernetes scheduler uses this value to determine which node to place the pod on. `limits` is the maximum amount of resources a container is allowed to consume. Exceeding this value can result in throttling or termination.
How can we determine the right resource requests and limits?
The right resource requests and limits are typically determined through performance testing. Developers should run their applications under various load conditions to observe their resource consumption. This data can then be used to set accurate and appropriate values, ensuring the application is both performant and resource-efficient.
Is a Resource Quota a static policy?
No, a Resource Quota is not a static policy. It should be a living document that is regularly reviewed and adjusted based on the needs of the teams. As applications evolve and new workloads are introduced, the platform and development teams should collaborate to adjust quotas.
How does the SRE team use monitoring for optimization?
The SRE team uses monitoring data not just for alerting, but for optimization. By analyzing historical resource usage, they can identify trends, forecast future needs, and recommend adjustments to resource requests and limits. They can help teams right-size their applications, ensuring they are not over-provisioned.
What is an Admission Controller in this context?
An Admission Controller is a Kubernetes component that intercepts requests to the Kubernetes API server before they are persisted. A `ResourceQuota` Admission Controller will check a pod's manifest to ensure that the request does not violate any established quotas before allowing the pod to be scheduled, thus enforcing policy.
How can development teams test their resource usage?
Development teams can test their resource usage by running their applications in a dedicated staging or testing environment that mirrors production. They can use load testing tools to simulate user traffic and then monitor the application's resource consumption to fine-tune their requests and limits.
How do we prevent quota-related bottlenecks?
Preventing quota-related bottlenecks requires a combination of automated tooling and a strong collaborative culture. By providing clear dashboards, automated alerts, and an easy-to-use GitOps workflow for requesting quota changes, platform teams can ensure that requests are handled transparently and efficiently, minimizing delays.
Can a namespace have multiple resource quotas?
A namespace can have multiple resource quotas, but it is not a common practice. The Kubernetes API server will aggregate the results and will only admit a pod if all resource quota constraints are satisfied. It's generally simpler to use a single, comprehensive `ResourceQuota` object for a namespace.
What's Your Reaction?
Like
0
Dislike
0
Love
0
Funny
0
Angry
0
Sad
0
Wow
0