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Build, RunThe S32R274RRUEVB is the main evaluation platform for NXP's S32R274 radar MCU. This evaluation board is meant to be paired with the MPC57xxMB motherboard and a radar transceiver such as the TEF810. This page will introduce you to the S32R274RRUEVB's out-of-box experience and showcase some radar applications (coming soon!). Let's get started with your S32R274RRUEVB! You have the choice of watching a short setup video or following the detailed actions listed below.
The S32R274RRUEVB supports two power options: through the EVB power terminals or through the MPC57xxMB. The EVB power terminal requires that the proper voltages be applied to the 5V, 3.3V, and 1.25V ports. This can be most easily generated with a DC voltage generator. The second option, with the motherboard, requires only a 12V power supply with a barrel connector. The MPC57xxMB's various voltage regulators will generate the 5V, 3.3V, and 1.25V supplies from this input and powers both the MPC57xxMB and S32R274RRUEVB. The S32R274RRUEVB ships being configured for the second option. To power from the S32R274RRUEVB terminals, you must switch the jumpers J2, J3, J4, J5, and J7 to the 1-2 position, so that the onboard voltage regulators derive their power from the S32R274RRUEVB rather than from the MPC57xxMB.
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Your S32R274RRUEVB comes with a pre-installed demo. It requires the MPC57xxMB. Connect the CLKOUT pin (P9.7) to an oscilloscope. Also connect the following GPIOs to LEDs: P8.1 to LED P7.1, P8.2 to LED P7.2, and P8.3 to LED P7.3.
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In this demo, the three cores of the S32R274 will take turns controlling the CLKOUT pin. With the clock sources configured to different frequencies, each core drives a different clock source out of the CLKOUT pin. You will see the oscilloscope waveform change accordingly.
Control of CLKOUT passes from one core to the next every 5 seconds in a round-robin fashion. This switch is timed using the PIT (Periodic Interrupt Timer). Each core will also drive a different LED. With the described hardware setup, Core Z4 will toggle LED P7.1; Core Z7a will toggle LED P7.2; and Core Z7b will toggle LED P7.3.
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Choose a Development Path:
Learn how to install and run S32R274 sample code
Download Quick Start Guide and sample software to kickstart your design.
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NXP offers a complimentary toolchain called S32 Design Studio (S32DS). The S32 Design Studio is an Eclipse-based IDE that offers comprehensive software writing and debugging capabilities. It includes a Processor Expert-based SDK, various other libraries, and supports multiple debuggers including GDB and Lauterbach.
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The S32R274RRUEVB debugs with a JTAG interface. Plug in a JTAG connector to the JTAG port in the orientation shown in the figure. NXP recommends the P&E Micro USB Multilink or Lauterbach.
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Software Integration Guide(SWIG) in the Quick Start Package provides easy, step-by-step instructions on how to create, build, and debug projects. Alternatively you can download SWIG from the link below.
For your convenience we integrated example codes in to S32 Design Studio for Power Architecture. Alternatively they can be found in to Quick Start Package. Again Software Integration Guide(SWIG) provides step-by-step instructions on "How to use?".
Tera Term is a very popular open source terminal emulation application. This program can be used to display information sent from your NXP development platform's virtual serial port.
PuTTY is a popular terminal emulation application. This program can be used to display information sent from your NXP development platform's virtual serial port.
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