Join Microchip’s Virtual events on Space-Grade development. Specialists from Microchip will reveal the potential for using scalable development to reduce risk, and accelerate design, by moving from rad-tolerant to rad-hard components. Weekly Virtual Space events start Tuesday 18th May 2021 at 16:00pm CET.
Presentation of the COTS rad-tolerant concept applied to microcontrollers and the unique ARM M7 SoC scalable solution to rad-hard devices. This COTS based approach benefits from a widely deployed software & hardware ecosystem enabling a wide range of space applications.
Updates on Microchip’s radiation-tolerant FPGAs, focusing on qualification and radiation, and emphasizing savings in power and system cost with RTG4 and RT PolarFire® FPGAs.
Microchip has the broadest Space qualified oscillator portfolio in the industry. You will learn about our VCSO frequency expansion to 3GHz, the smallest TCXO footprint available to the market, 300krad tolerant clocks, our CSAC for LEO applications, and which clock to choose to drive Microchip FPGAs, MCUs and Phys. In addition, learn how choosing specific ordering codes will make you compliant with the latest releases of the applicable MIL standards.
Our rad-hard-by-design mixed signal portfolio is growing! In this session, you will learn about our new power protection devices and get important updates on our existing telemetry, motor control and power management solutions. These updates include QML certifications and development tools to support your designs using these mixed signal ICs with our MCUs and FPGAs.
The only standard non-hybrid space-grade power converters available utilizing surface-mount component construction, allowing flexibility and customization to fit specific applications and requirements. The SA50-120 family, qualified to Mil-Std-461, Mil-Std-883 and Mil-Std-202, enables you to quickly scale up development, reducing risk and development time.
With a wide range of rad-hard and rad-tolerant solutions, presentation of Total System Solutions available for space applications. Around processors and FPGA solutions, update about all available companions’ devices and system implementation examples.
The MCP6N11 and MCP6V2x Wheatstone Bridge Reference Design demonstrates the performance of Microchip's MCP6N11 instrumentation amplifier (INA) and a traditional three op amp INA using Microchip's MCP6V26 and MCP6V27 auto-zeroed op amps. The input signal comes from an RTD temperature sensor in a Wheatstone bridge. Real world interference is added to the bridge's output, to provide realistic performance comparisons. Data is gathered and displayed on a PC, for ease of use. The USB PIC® microcontroller and included Graphical User Interface (GUI) provides the means to configure the board and collect sample data.
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