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@EliFuzz
Created September 5, 2023 03:01
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Overview Table:Tracing in Kubernetes
Level Definition Issues Key Metrics
Application Level Tracing Application-level tracing involves capturing and analyzing the flow of requests and responses within a Kubernetes application. It helps identify bottlenecks, latency issues, and performance optimizations - Lack of visibility into request/response flow within the application.
- Difficulty in identifying the root cause of performance issues.
- Inefficient resource allocation and scaling decisions.
- Request latency
- Number of requests per second
- Error rates
- Response time distribution
Distributed Tracing Distributed tracing focuses on capturing and analyzing the flow of requests and responses across multiple services and components involved in a distributed system within a Kubernetes cluster. It helps identify performance bottlenecks, latency issues, and dependencies between services - Lack of visibility into end-to-end request flow across distributed systems.
- Difficulty in correlating events and traces across multiple services.
- Inefficient service orchestration and communication.
- Trace latency
- Span duration
- Service dependencies
- Error rates
End-to-End Tracing End-to-End Tracing (e2e Tracing) is a diagnostic method that allows developers to follow the execution of code in the infrastructure to investigate why a code path has failed, or to provide detailed tracing for capacity planning and performance analysis. It is particularly useful in distributed systems where a request passes through multiple services and databases - Lack of end-to-end visibility from the user interface to the underlying infrastructure - Response time from user interface to backend services
- Error rate across the entire stack
- Overall system throughput
Infrastructure Tracing Infrastructure tracing involves monitoring and analyzing the performance and behavior of the underlying infrastructure components in a Kubernetes cluster, such as nodes, pods, and network. It helps identify resource bottlenecks, network latency, and infrastructure issues - Lack of visibility into resource utilization and performance at the infrastructure level.
- Difficulty in identifying infrastructure-related bottlenecks and performance issues.
- Inefficient resource allocation and capacity planning.
- CPU and memory utilization
- Network latency
- Disk I/O rates
- Pod scheduling and eviction
Service Mesh Tracing Service mesh tracing focuses on capturing and analyzing the flow of requests and responses between services within a Kubernetes cluster. It helps monitor service-to-service communication, identify latency issues, and optimize network traffic - Lack of visibility into service-to-service communication.
- Difficulty in debugging and troubleshooting microservices.
- Inefficient load balancing and routing decisions.
- Latency between services
- Error rates
- Traffic distribution
- Service dependencies
Service Tracing Provides diagnostic information about the operation of services and modules. It can be used to diagnose and verify issues with services - Difficulty in understanding the flow of requests across multiple services
- Challenges in identifying latency and errors between services
- Response time between services
- Error rate between services
- Request throughput between services
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