Add extracted tools: CitrineOS, OpenOCPP, ShapeShifter
- CitrineOS core extracted (CSMS OCPP 2.0.1) - OpenOCPP extracted (firmware OCPP 1.6J/2.0.1) - ShapeShifter library installed (pip install -e) - ShapeShifter specification extracted - EVerest extracted TODO updated with progress
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.. _htg_getting_started_hw:
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#########################
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Get started with Hardware
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#########################
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There are different approaches for getting started with running EVerest
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on hardware. For each approach we have collected some starting points
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and best practices to help you get up and running with EVerest.
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For each of the following starting scenarios, you can find more detail
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in the sections below:
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- **Using an EVerest-compatible development kit and add the BSP.** This
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is a great path to start learning about the benefits of EVerest. A
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device including a deployed EVerest image can let you experience
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charging in a more practical manner moving beyond software simulation.
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- **Start with your own hardware.** This is a less out-of-the-box
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start, but a more direct path to your own system environment. We will
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explain how to get there below.
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Using an EVerest-compatible development kit
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===========================================
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The easiest way to get started with hardware is to use one of the development kits.
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They can charge a real car out of the box and you can evaluate all features of
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EVerest before building your own product.
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Additionally, they come with a ready-to-use Yocto image with RAUC OTA updates, OCPP,
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ISO 15118 and all other features of EVerest.
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They will help you to:
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* parallelize HW and SW developments for new charger projects,
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* test OCPP backends (CSMS) against EVerest,
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* explore new charging algorithms without the need of doing all the groundwork and
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* rapidly integrate EV charging with other applications.
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Currently, there are three development kits available. Choose the one that matches
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your product the closest:
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1. **AC all-integrated PCB development kit: The BelayBox.**
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It is available at https://shop.pionix.com with a touch screen display,
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up to 22 kW 3ph AC charging, RCD, PCB-integrated power meter, RFID reader and
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a Raspberry Pi CM4 compute module.
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Schematics and MCU firmware are open source:
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https://github.com/PionixPublic/reference-hardware
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Yocto for the BelayBox is available at:
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https://github.com/PionixPublic/dev-hardware-yocto
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Find the manual here: https://pionix.com/user-manual-belaybox
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2. **AC DIN Rail / Dual public charging**
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Dual socket AC charging with DIN rail contactors and power meters can be realized
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with the phyVERSO available from Phytec:
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https://www.phytec.de/ladeelektronik/komplettloesung
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The advantage of this solution is the seamless transition to production: The phyVERSO
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is production-ready and can be used as is in volume production. Customization service
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is also available from Phytec to build custom derivatives with different interfaces
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and form factors to perfectly meet your requirements.
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3. **DC DIN Rail / Dual public charging**
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Similar to (2), the phyVERSO can be used in a DC configuration (both ports can be
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configured for AC or DC; also a mixed configuration is possible). Phytec offers a
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DC development kit as well, which includes a 40 kW DC power supply, isolation monitor,
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power meter and everything else needed to make it a complete charger ready for
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evaluation.
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.. note::
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Keep in mind that the development kits were not designed to be a certifiable product.
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They are optimized to be easily accessible for developers.
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Start with your own hardware
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----------------------------
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If you already want to start integrating EVerest with
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your existing charger hardware, we recommend to start reading through
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the sections about setting up your Linux/Yocto and cross-compiling.
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You will find these sections in the :doc:`Linux / Yocto overview </explanation/linux-yocto/index>`.
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.. note::
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This is not the easiest way to start.
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But should you choose this mission, you will go the most direct way to use
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EVerest for production-ready charger development.
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Tell us about your experience and where you get stuck on the way.
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The mountain top can best be reached together.
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We recommend to start your journey by copying an already existing image
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(like the phyVERSO or Yeti/Yak ones) and change this according to your
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needs and HW setup.
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This will give you an overview on which in- and outputs are required,
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the dependencies per module and how to set up the MQTT communication
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accordingly.
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-----------------------------------
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**Authors**: Cornelius Claussen, Manuel Ziegler
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