PFB Bicycle Network Connectivity
Requirements:
- Vagrant 1.8.3+
- VirtualBox 4.3+
- AWS CLI
- Ensure all project files checkout with LF (unix) line endings. The easiest way is to run
git config --global core.autocrlf false
before checking out the project. Alternatively, you can checkout the project, then rungit config core.autocrlf false
within the project dir, then manually fix all remaining CRLF line endings before runningvagrant up
. - Run all commands in a shell with administrator permissions. It's highly recommended to run all commands within the "Git for Windows" Git Bash shell, as that already includes an SSH client, and allows running the commands below as-is.
- Before starting the VM, ensure the ENV variable
PFB_SHARED_FOLDER_TYPE=virtualbox
is set. NFS is not supported on windows, so we need to ensure that Vagrant ignores our request for it. - Do not use
vagrant reload
. In some cases it will create a new VM rather than autodetecting that the old one exists
- An NFS daemon must be running on the host machine. This should be enabled by default on MacOS. Linux computers may require the installation of an additional package such as nfs-kernel-server on Ubuntu.
Note: If you do not have AWS credentials, this step can be skipped if you just want to run local analyses. Continue below at Provisioning the VM
As noted above, ensure the AWS CLI is installed on your host machine. Once it is, you can configure your PFB account credentials by running:
aws configure --profile pfb
First you'll need to copy the example ansible group_vars file:
cp deployment/ansible/group_vars/all.example deployment/ansible/group_vars/all
If you want to run the full development application and you've configured AWS credentials, copy the appropriate values at the links below into deployment/ansible/group_vars/all
, choosing the resources with 'staging' in the name:
- AWS Batch Job Queue: Copy the staging
analysis
job queue name to the equivalent group var setting.
If you don't have access to the console, or just want to run a local analysis, copying the values into group_vars/all
can be skipped.
Run ./scripts/setup
to install project dependencies and prepare the development environment. Then, SSH into the VM:
vagrant ssh
Once in the VM, if you added AWS credentials above, run the following commands to configure your development S3 buckets:
aws s3api create-bucket --bucket "${DEV_USER}-pfb-storage-us-east-1"
aws s3api put-bucket-policy --bucket "${DEV_USER}-pfb-storage-us-east-1" --policy "{\"Statement\":[{\"Effect\":\"Allow\",\"Principal\":\"*\",\"Action\":\"s3:GetObject\",\"Resource\":\"arn:aws:s3:::${DEV_USER}-pfb-storage-us-east-1/*\"}]}"
At this point, if you only intend to run the 'Bike Network Analysis', skip directly to Running the Analysis
To start the application containers (from within the Vagrant VM):
./scripts/server
In order to use the API, you'll need to run migrations on the Django app server:
./scripts/django-manage migrate
This will add a default admin user that can log in to http://localhost:9200/api/ as:
systems+pfb@azavea.com / root
Port | Service | Notes |
---|---|---|
9200 | Nginx | |
9202 | Gunicorn | |
9203 | Django Runserver | Not running by default. Must be started manually via scripts/django-manage |
9214 | Postgresql | Allows direct connections to the database where an analysis run is stored |
9301 | Gulp | Gulp server for analysis angular app |
9302 | Browsersync | Browsersync for analysis angular app |
9400 | Tilegarden | Tilegarden development server |
9401 | Browsersync | Node debugger for Tilegarden development server |
Name | Description |
---|---|
setup | Bring up a dev VM, and perform initial installation steps |
update | Re-build application Docker containers and run database migrations |
server | Start the application containers |
console | Start a bash shell on one of the running Docker containers |
django-manage | Run a Django management command on the django container |
On creating a local anaylsis job in the admin UI, the Django logs will print the appropriate command to run in the VM console to actually run the analysis jobs locally.
See Running the Analysis Locally for details.
The output from the analysis run may be compared to previous output to see if it has changed. See the section below for the input parameters used to generate the verified output.
Build the docker container for the verification tool within the VM:
cd src/verifier
docker-compose build
Ensure the exported output from the analysis to check exists in the data/output
directory. It will be there by default if the data
directory was used for the neighborhood input shapefile.
To compare the analysis output for Boulder, run the verification tool with:
docker-compose run verifier boulder.csv
Any output in the verified_output
directory may be used for comparison.
To compare to analysis output that has a non-default filename (analysis_neighborhood_score_inputs.csv
), run the verification tool with the name of the file in data/output
as the second argument:
docker-compose run verifier boulder.csv my_output_to_verify.csv
If there are any differences in the outputs, a summary of the differences will be output to console.
The analysis output in the verified_output
directory was generated using the following input parameters and files:
Boulder: