gRPC

Last updated 1 year ago

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gRPC

gRPC utilizes several features of HTTP/2 to achieve fast and efficient communication between client and server. Here are some key features of HTTP/2 that gRPC leverages:

Multiplexing: HTTP/2 allows multiple requests and responses to be multiplexed over a single TCP connection. gRPC takes advantage of this feature to send multiple RPC (Remote Procedure Call) messages concurrently over the same connection. This eliminates the overhead of establishing multiple connections for parallel requests, reducing latency and improving efficiency.
Binary framing layer: HTTP/2 introduces a binary framing layer, which allows efficient framing and parsing of messages. gRPC leverages this binary framing mechanism to serialize and deserialize protocol buffers (protobufs), the default data interchange format for gRPC. By using a binary format, gRPC minimizes the size of messages sent over the network, reducing bandwidth consumption and improving performance.
Header Compression: HTTP/2 provides header compression to reduce the overhead of HTTP headers. gRPC utilizes this feature to compress metadata associated with RPC messages, such as headers and trailers. By compressing metadata, gRPC reduces the size of each message, resulting in faster transmission over the network.
Server Push: Although gRPC primarily focuses on RPC-style communication, it can leverage HTTP/2 server push for streaming responses. Server push allows the server to proactively send additional resources to the client without waiting for explicit requests. gRPC can use server push to efficiently stream large volumes of data, such as real-time updates or continuous streams, to clients.
Flow Control: HTTP/2 includes flow control mechanisms to prevent overwhelming clients or servers with excessive data. gRPC utilizes flow control to manage the rate of data transfer between client and server, ensuring optimal utilization of network resources and preventing congestion.

By leveraging these features of HTTP/2, gRPC achieves high performance, low latency communication between clients and servers, making it well-suited for modern microservices architectures and distributed systems.

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Last updated 1 year ago

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gRPC utilizes several features of HTTP/2 to achieve fast and efficient communication between client and server. Here are some key features of HTTP/2 that gRPC leverages:

Multiplexing: HTTP/2 allows multiple requests and responses to be multiplexed over a single TCP connection. gRPC takes advantage of this feature to send multiple RPC (Remote Procedure Call) messages concurrently over the same connection. This eliminates the overhead of establishing multiple connections for parallel requests, reducing latency and improving efficiency.
Binary framing layer: HTTP/2 introduces a binary framing layer, which allows efficient framing and parsing of messages. gRPC leverages this binary framing mechanism to serialize and deserialize protocol buffers (protobufs), the default data interchange format for gRPC. By using a binary format, gRPC minimizes the size of messages sent over the network, reducing bandwidth consumption and improving performance.
Header Compression: HTTP/2 provides header compression to reduce the overhead of HTTP headers. gRPC utilizes this feature to compress metadata associated with RPC messages, such as headers and trailers. By compressing metadata, gRPC reduces the size of each message, resulting in faster transmission over the network.
Server Push: Although gRPC primarily focuses on RPC-style communication, it can leverage HTTP/2 server push for streaming responses. Server push allows the server to proactively send additional resources to the client without waiting for explicit requests. gRPC can use server push to efficiently stream large volumes of data, such as real-time updates or continuous streams, to clients.
Flow Control: HTTP/2 includes flow control mechanisms to prevent overwhelming clients or servers with excessive data. gRPC utilizes flow control to manage the rate of data transfer between client and server, ensuring optimal utilization of network resources and preventing congestion.