Fork
Home
/
Technologies
/
Message Pushing
/
MPMessagePack

Apps using MPMessagePack

Download a list of all 2K MPMessagePack customers with contacts.

Create a Free account to see more.
App Installs Publisher Publisher Email Publisher Social Publisher Website
44M Meta Platforms, Inc. *****@meta.com
facebook twitter
http://viewpoints.facebook.com/
1M Xiamen Meitu Technology Co., Ltd. *****@meitu.com
twitter
http://itunes.apple.com/cn/app/mei-tu-tie-tie/id477678113?mt=8
507K HAGO Singapore PTE. LTD *****@hago.nl - https://www.ihago.net/
463K 美柚信息科技有限公司 *****@xiaoyouzi.com - http://www.youzibuy.com/
439K Xiamen Meitu Technology Co., Ltd. *****@meitu.com
twitter
http://itunes.apple.com/cn/app/mei-tu-tie-tie/id477678113?mt=8
386K TIYA PTE. LTD. - - https://www.tiyalive.com/
206K Suning Commerce Group Co.,Ltd. *****@cnsuning.com - http://www.suning.com/
156K Google LLC *****@google.com
twitter instagram
http://android.com/wear
140K Beijing JiuYaoYao Tech CO.,LTD *****@911tech.cn - https://piaxiya.com/
67K Hangzhou WeiPei Network Technology Co., Ltd - - https://www.vpesports.com/

Full list contains 2K apps using MPMessagePack in the U.S, of which 2K are currently active and 540 have been updated over the past year, with publisher contacts included.

List updated on 21th August 2024

Create a Free account to see more.

Overview: What is MPMessagePack?

MPMessagePack is a powerful and efficient serialization library designed for seamless data exchange between different programming languages and platforms. This lightweight SDK implements the MessagePack binary serialization format, providing developers with a fast and compact solution for encoding and decoding structured data. MPMessagePack offers superior performance compared to traditional JSON serialization, making it an ideal choice for applications that require high-speed data transfer and minimal bandwidth usage. One of the key features of MPMessagePack is its cross-platform compatibility, allowing developers to easily integrate it into various programming environments such as iOS, macOS, and Android. The library supports a wide range of data types, including integers, floats, strings, arrays, and dictionaries, enabling developers to serialize complex data structures with ease. MPMessagePack's efficient encoding algorithm results in smaller payload sizes, which is particularly beneficial for mobile applications and IoT devices where network resources may be limited. Developers can leverage MPMessagePack's intuitive API to quickly implement serialization and deserialization functionality in their projects. The library offers both synchronous and asynchronous methods for encoding and decoding data, providing flexibility for different use cases. MPMessagePack also includes robust error handling mechanisms, ensuring that developers can easily identify and address any issues that may arise during the serialization process. Security-conscious developers will appreciate MPMessagePack's built-in safeguards against malicious data manipulation. The library implements strict type checking and validation to prevent potential vulnerabilities associated with deserialization attacks. Additionally, MPMessagePack supports data compression, further reducing the size of serialized data and enhancing overall performance. One of the standout features of MPMessagePack is its ability to handle schema evolution gracefully. This means that developers can modify the structure of their data without breaking compatibility with existing serialized data, making it an excellent choice for applications that require long-term data persistence or frequent updates. MPMessagePack's extensibility allows developers to create custom serializers and deserializers for complex object types, providing greater flexibility in handling application-specific data structures. The library also offers seamless integration with popular networking frameworks, making it easy to incorporate MPMessagePack into existing client-server architectures. Performance benchmarks have consistently shown that MPMessagePack outperforms traditional JSON serialization in terms of both speed and payload size. This makes it an attractive option for real-time applications, such as gaming, financial trading platforms, and collaborative tools, where minimizing latency is crucial. Developers working with MPMessagePack can take advantage of its comprehensive documentation, which includes detailed API references, code samples, and best practices for optimizing serialization performance. The library's active community and regular updates ensure that developers have access to the latest features and bug fixes, making it a reliable choice for long-term projects. In conclusion, MPMessagePack is a versatile and efficient serialization library that offers significant advantages over traditional data exchange formats. Its combination of speed, compact encoding, cross-platform compatibility, and robust feature set makes it an invaluable tool for developers looking to optimize data transfer in their applications. Whether you're building mobile apps, web services, or distributed systems, MPMessagePack provides a solid foundation for efficient and reliable data serialization.

MPMessagePack Key Features

  • MPMessagePack is a lightweight and efficient binary serialization format implementation for Objective-C and Swift, designed to facilitate data exchange between applications and systems.
  • It provides high-performance encoding and decoding capabilities, allowing developers to quickly serialize and deserialize complex data structures with minimal overhead.
  • The library supports a wide range of data types, including integers, floating-point numbers, strings, arrays, dictionaries, and custom objects, making it versatile for various use cases.
  • MPMessagePack offers seamless integration with Cocoa and Cocoa Touch frameworks, making it easy to incorporate into iOS, macOS, and tvOS applications.
  • The SDK includes both synchronous and asynchronous APIs, enabling developers to choose the most suitable approach for their specific performance requirements and application architecture.
  • It implements the MessagePack specification, ensuring compatibility with other MessagePack implementations across different programming languages and platforms.
  • MPMessagePack provides optimized memory management, reducing the overall memory footprint of serialized data compared to other serialization formats like JSON or XML.
  • The library offers extensibility through custom coders, allowing developers to implement custom serialization and deserialization logic for complex or application-specific data types.
  • It includes built-in support for handling null values and optional types, simplifying the process of working with potentially missing or undefined data.
  • MPMessagePack provides robust error handling mechanisms, allowing developers to gracefully handle and recover from serialization and deserialization errors.
  • The SDK offers thread-safe implementations, ensuring that multiple threads can safely encode and decode data concurrently without causing race conditions or data corruption.
  • It includes comprehensive documentation and code examples, making it easy for developers to quickly understand and implement the library in their projects.
  • MPMessagePack supports streaming capabilities, allowing for efficient processing of large datasets or continuous data streams without consuming excessive memory.
  • The library provides options for customizing the serialization process, such as specifying encoding strategies for floating-point numbers or handling circular references in object graphs.
  • It offers seamless integration with popular networking libraries and frameworks, enabling developers to easily incorporate MPMessagePack into their existing communication protocols and data transfer mechanisms.
  • MPMessagePack includes performance optimization techniques, such as buffer pooling and lazy decoding, to minimize CPU usage and improve overall application performance.
  • The SDK supports backward and forward compatibility, allowing developers to evolve their data structures over time without breaking existing serialized data or requiring major version updates.
  • It provides utilities for debugging and inspecting serialized data, helping developers troubleshoot issues and verify the correctness of their serialization and deserialization processes.
  • MPMessagePack offers cross-platform compatibility, allowing developers to easily share serialized data between different operating systems and device architectures.
  • The library includes support for custom date and time formats, enabling developers to efficiently serialize and deserialize temporal data according to their specific requirements.

MPMessagePack Use Cases

  • MPMessagePack is a lightweight and efficient binary serialization format that can be used in various scenarios where data needs to be transmitted or stored compactly. One common use case is in mobile app development, where MPMessagePack can be utilized to serialize and deserialize data between the client and server, reducing bandwidth usage and improving performance. This is particularly useful for apps that need to transfer large amounts of structured data, such as social media platforms or data-intensive applications.
  • Another use case for MPMessagePack is in real-time communication systems, such as chat applications or multiplayer games. The binary format allows for faster parsing and smaller message sizes compared to text-based formats like JSON, making it ideal for scenarios where low latency and high throughput are crucial. Developers can use MPMessagePack to encode and decode messages quickly, enabling smooth and responsive user experiences in these real-time applications.
  • MPMessagePack can also be employed in data storage scenarios, particularly when dealing with large datasets or when storage space is a concern. By serializing data using MPMessagePack before storing it in databases or file systems, developers can reduce the overall storage footprint while maintaining the ability to quickly retrieve and deserialize the data when needed. This can be especially beneficial for applications that deal with time-series data, logs, or other types of information that need to be stored efficiently and accessed frequently.
  • In distributed systems and microservices architectures, MPMessagePack can serve as an efficient data exchange format between different components or services. Its compact binary representation and cross-language support make it suitable for scenarios where services written in different programming languages need to communicate with each other. This can help reduce network overhead and improve overall system performance in complex, distributed environments.
  • MPMessagePack is also valuable in IoT (Internet of Things) applications, where devices with limited resources need to communicate efficiently. The compact binary format allows for smaller payloads, which is crucial when dealing with constrained networks or devices with limited processing power and memory. IoT developers can use MPMessagePack to serialize sensor data, device states, and control commands, enabling efficient communication between IoT devices and cloud services.
  • For data analysis and machine learning applications, MPMessagePack can be used to efficiently serialize and store large datasets or model parameters. This can be particularly useful when working with distributed computing frameworks or when transferring data between different stages of a machine learning pipeline. The compact binary format can help reduce storage requirements and speed up data loading processes, ultimately improving the overall performance of data-intensive analytical workflows.
  • In caching systems and in-memory databases, MPMessagePack can be employed to serialize and deserialize data structures quickly. This can lead to improved performance when storing and retrieving complex objects from cache, as the binary format allows for faster serialization and deserialization compared to text-based formats. Developers can leverage MPMessagePack to optimize caching strategies and reduce memory usage in high-performance applications.
  • MPMessagePack can also be utilized in configuration management systems, where it can serve as an efficient format for storing and transmitting configuration data. The compact binary representation allows for smaller configuration files, which can be particularly beneficial in containerized environments or when deploying applications to resource-constrained systems. Additionally, the schema-less nature of MPMessagePack provides flexibility in handling different configuration structures across various components of a system.

Alternatives to MPMessagePack

  • MessagePack is a popular binary serialization format that offers efficient data encoding and decoding. While MPMessagePack is a specific implementation, there are several alternatives available for various programming languages and use cases. One such alternative is Protocol Buffers (protobuf), developed by Google. Protobuf offers a language-neutral, platform-neutral, extensible mechanism for serializing structured data. It provides a compact binary format and supports schema evolution, making it suitable for large-scale systems and microservices architectures.
  • Another alternative is Apache Thrift, which is a software framework for scalable cross-language services development. Thrift combines a software stack with a code generation engine to build services that work efficiently and seamlessly between various programming languages. It offers a compact binary protocol and supports RPC (Remote Procedure Call) functionality, making it suitable for building distributed systems.
  • JSON (JavaScript Object Notation) is a widely-used alternative for data serialization, although it's not as compact as binary formats. JSON is human-readable, language-independent, and supported by most programming languages and platforms. While it may not be as efficient in terms of size and parsing speed compared to binary formats, JSON's simplicity and widespread adoption make it a popular choice for many applications, especially in web development and RESTful APIs.
  • Apache Avro is another data serialization system that provides rich data structures, a compact binary format, and a container file for storing persistent data. Avro offers schema evolution, allowing schemas to change over time without requiring all data to be rewritten. It's particularly well-suited for use in Apache Hadoop ecosystems and big data processing applications.
  • BSON (Binary JSON) is a binary-encoded serialization of JSON-like documents. Developed as part of the MongoDB project, BSON extends the JSON model to provide additional data types and to be efficient for encoding and decoding within different languages. While primarily used with MongoDB, BSON can be employed as a general-purpose serialization format in various applications.
  • Cap'n Proto is a fast data interchange format and capability-based RPC system. It's designed to be faster and more efficient than Protocol Buffers, offering zero-copy deserialization and a compact binary format. Cap'n Proto is particularly useful in scenarios where performance is critical, such as high-throughput systems or real-time applications.
  • FlatBuffers, developed by Google, is another efficient cross-platform serialization library. It offers a flexible, fast, and memory-efficient serialization format without the need for parsing or unpacking. FlatBuffers is well-suited for game development, mobile apps, and other performance-critical applications where minimal memory footprint and fast access to serialized data are important.
  • YAML (YAML Ain't Markup Language) is a human-readable data serialization format that's often used for configuration files and data exchange between languages with different data structures. While not as compact as binary formats, YAML offers good readability and supports complex data structures, making it a popular choice for configuration management and data representation in various applications.
  • Bond is a cross-platform framework for working with schematized data, developed by Microsoft. It supports efficient binary serialization, type evolution, and optional XML and JSON protocols. Bond is designed for high-performance scenarios and is used extensively within Microsoft for various services and applications.
  • ASN.1 (Abstract Syntax Notation One) is a standard and notation that describes rules and structures for representing, encoding, transmitting, and decoding data in telecommunications and computer networking. While more complex than some alternatives, ASN.1 offers great flexibility and is widely used in telecommunications and network protocols, particularly in areas requiring strict data definitions and efficient encoding.

Get App Leads with Verified Emails.

Use Fork for Lead Generation, Sales Prospecting, Competitor Research and Partnership Discovery.

Sign up for a Free Trial