RaimaDB
RaimaDB, an embedded time series database that can be used for Edge and IoT devices, can run in-memory. It is a lightweight, secure, and extremely powerful RDBMS. It has been field tested by more than 20 000 developers around the world and has been deployed in excess of 25 000 000 times.
RaimaDB is a high-performance, cross-platform embedded database optimized for mission-critical applications in industries such as IoT and edge computing. Its lightweight design makes it ideal for resource-constrained environments, supporting both in-memory and persistent storage options. RaimaDB offers flexible data modeling, including traditional relational models and direct relationships through network model sets. With ACID-compliant transactions and advanced indexing methods like B+Tree, Hash Table, R-Tree, and AVL-Tree, it ensures data reliability and efficiency. Built for real-time processing, it incorporates multi-version concurrency control (MVCC) and snapshot isolation, making it a robust solution for applications demanding speed and reliability.
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KrakenD
Engineered for peak performance and efficient resource use, KrakenD can manage a staggering 70k requests per second on just one instance. Its stateless build ensures hassle-free scalability, sidelining complications like database upkeep or node synchronization.
In terms of features, KrakenD is a jack-of-all-trades. It accommodates multiple protocols and API standards, offering granular access control, data shaping, and caching capabilities. A standout feature is its Backend For Frontend pattern, which consolidates various API calls into a single response, simplifying client interactions.
On the security front, KrakenD is OWASP-compliant and data-agnostic, streamlining regulatory adherence. Operational ease comes via its declarative setup and robust third-party tool integration. With its open-source community edition and transparent pricing model, KrakenD is the go-to API Gateway for organizations that refuse to compromise on performance or scalability.
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MPLAB Harmony v3
MPLAB® Harmony v3 is a comprehensive framework designed for embedded software development, offering a range of flexible and interoperable software modules that aim to streamline the creation of enhanced features while expediting product launches. This framework is core-agnostic, providing support for both MIPS® and Arm® Cortex® core architectures, thereby ensuring code portability through consistent APIs applicable across various device families. The MPLAB Harmony Configurator’s (MHC’s) Graphical User Interface (GUI) allows for straightforward configuration, making it user-friendly. It has been validated for compatibility with 32-bit PIC® (MIPS-based) and SAM (Arm Cortex-based) MCU and MPU device families, ensuring robust performance. Additionally, it seamlessly integrates with third-party solutions such as FreeRTOS and Micrium®, and it can import projects developed in IAR Embedded Workbench. The latest version introduces support for SAM families of Arm Cortex-M based devices, complemented by a free software development environment. Furthermore, the graphical configuration features offered by MHC’s GUI facilitate easy setup of devices and libraries, enhancing the overall development experience. This combination of features makes MPLAB Harmony v3 a powerful tool for developers aiming to maximize efficiency and minimize time-to-market for their products.
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Simulink
Develop and test your system using Simulink prior to implementing it on actual hardware. This allows you to explore and apply innovative designs that might typically be overlooked, all without the need to engage in C, C++, or HDL programming. By modeling both the system you are testing and the physical plant, you can investigate a broader design landscape. Your entire team can benefit from a unified multi-domain platform that simulates the interactions of all system components. You can also package and share your simulation results with team members, suppliers, and clients for collaborative feedback. This approach helps minimize costly prototypes by allowing you to experiment with scenarios that might otherwise be deemed too risky or impractical. Use hardware-in-the-loop testing and rapid prototyping to confirm your design's effectiveness. With this method, you can ensure traceability throughout the process, from requirements gathering to design and code development. Rather than manually crafting thousands of lines of code, you can automatically generate high-quality C and HDL code that mirrors your original Simulink model. Finally, deploy this code directly onto your embedded processor or FPGA/ASIC for seamless integration and operation. This comprehensive approach not only streamlines development but also enhances overall project efficiency.
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