Cal.com: Scheduling infrastructure for Absolutely Everyone

Cal.com (formerly Calendso)

The open-source Calendly alternative.

About The Project

booking-screen

Scheduling infrastructure for absolutely everyone

The open source Calendly alternative. You are in charge of your own data, workflow and appearance.

Calendly and other scheduling tools are awesome. It made our lives massively easier. We're using it for business meetings, seminars, yoga classes and even calls with our families. However, most tools are very limited in terms of control and customisations.

That's where Cal.com comes in. Self-hosted or hosted by us. White-label by design. API-driven and ready to be deployed on your own domain. Full control of your events and data.

Recognition

Hacker News

Featured on Hacker News

 Featured on Hacker News

Product Hunt

Cal.com - The open source Calendly alternative | Product Hunt Cal.com - The open source Calendly alternative | Product Hunt Cal.com - The open source Calendly alternative | Product Hunt

Built With

Stay Up-to-Date

Cal officially launched as v.1.0 on 15th of September, however a lot of new features are coming. Watch releases of this repository to be notified for future updates:

cal-star-github

Getting Started

To get a local copy up and running, please follow these simple steps.

Prerequisites

Here is what you need to be able to run Cal.

  • Node.js (Version: >=15.x <17)
  • PostgreSQL
  • Yarn (recommended)

If you want to enable any of the available integrations, you may want to obtain additional credentials for each one. More details on this can be found below under the integrations section.

Development

Setup

Clone the repo into a public GitHub repository (or fork https://github.com/calcom/cal.com/fork). If you plan to distribute the code, keep the source code public to comply with AGPLv3. To clone in a private repository, acquire a commercial license)

git clone https://github.com/calcom/cal.com.git

Go to the project folder

cd cal.com

Install packages with yarn

yarn

Set up your .env file

  • Duplicate .env.example to .env
  • Use openssl rand -base64 32 to generate a key and add it under NEXTAUTH_SECRET in the .env file.
  • Use openssl rand -base64 24 to generate a key and add it under CALENDSO_ENCRYPTION_KEY in the .env file.

Quick start with yarn dx

  • Requires Docker and Docker Compose to be installed
  • Will start a local Postgres instance with a few test users - the credentials will be logged in the console
yarn dx

Development tip

Add NEXT_PUBLIC_DEBUG=1 anywhere in your .env to get logging information for all the queries and mutations driven by trpc.

echo 'NEXT_PUBLIC_DEBUG=1' >> .env

Manual setup

Configure environment variables in the .env file. Replace <user>, <pass>, <db-host>, <db-port> with their applicable values

DATABASE_URL='postgresql://<user>:<pass>@<db-host>:<db-port>'
  1. If you don't know how to configure the DATABASE_URL, then follow the steps here to create a quick DB using Heroku

Set a 32 character random string in your .env file for the CALENDSO_ENCRYPTION_KEY (You can use a command like openssl rand -base64 24 to generate one).

Set up the database using the Prisma schema (found in packages/prisma/schema.prisma)

yarn workspace @calcom/prisma db-deploy

Run (in development mode)

yarn dev

Setting up your first user

Open Prisma Studio to look at or modify the database content:

yarn db-studio

Click on the User model to add a new user record.

Fill out the fields email, username, password, and set metadata to empty {} (remembering to encrypt your password with BCrypt) and click Save 1 Record to create your first user.

New users are set on a TRIAL plan by default. You might want to adjust this behavior to your needs in the packages/prisma/schema.prisma file.

Open a browser to http://localhost:3000 and login with your just created, first user.

E2E-Testing

Be sure to set the environment variable NEXTAUTH_URL to the correct value. If you are running locally, as the documentation within .env.example mentions, the value should be http://localhost:3000.

# In a terminal just run:
yarn test-e2e

# To open last HTML report run:
yarn playwright show-report test-results/reports/playwright-html-report

Upgrading from earlier versions

Pull the current version:

git pull

Check if dependencies got added/updated/removed

yarn

Apply database migrations by running one of the following commands:

In a development environment, run:

yarn workspace @calcom/prisma db-migrate

(this can clear your development database in some cases)

In a production environment, run:

yarn workspace @calcom/prisma db-deploy

Check for .env variables changes

yarn predev

Start the server. In a development environment, just do:

yarn dev

For a production build, run for example:

yarn build
yarn start

Enjoy the new version.

Deployment

Docker

The Docker configuration for Cal is an effort powered by people within the community.

If you want to contribute to the Docker repository, reply here.

The Docker configuration can be found in our docker repository.

Issues with Docker? Find your answer or open a new discussion here to ask the community.

Cal.com, Inc. does not provide official support for Docker, but we will accept fixes and documentation. Use at your own risk.

Heroku

Deploy

Railway

Deploy on Railway

You can deploy Cal on Railway using the button above. The team at Railway also have a detailed blog post on deploying Cal on their platform.

Vercel

Currently Vercel Pro Plan is required to be able to Deploy this application with Vercel, due to limitations on the number of serverless functions on the free plan.

Deploy with Vercel

Render

Deploy to Render

Roadmap

Cal.com Roadmap

See the roadmap project for a list of proposed features (and known issues). You can change the view to see planned tagged releases.

Repo Activity

Contributing

Please see our contributing guide.

Good First Issues

We have a list of help wanted that contain small features and bugs which have a relatively limited scope. This is a great place to get started, gain experience, and get familiar with our contribution process.

Translations

Don't code but still want to contribute? Join our slack and join the #i18n channel and let us know what language you want to translate.

ar translation bg translation cs translation de translation el translation en translation es translation es-419 translation fr translation he translation hu translation it translation ja translation ko translation nl translation no translation pl translation pt translation pt-BR translation ro translation ru translation sr translation sv translation tr translation uk translation vi translation zh-CN translation zh-TW translation

Integrations

Obtaining the Google API Credentials

  1. Open Google API Console. If you don't have a project in your Google Cloud subscription, you'll need to create one before proceeding further. Under Dashboard pane, select Enable APIS and Services.
  2. In the search box, type calendar and select the Google Calendar API search result.
  3. Enable the selected API.
  4. Next, go to the OAuth consent screen from the side pane. Select the app type (Internal or External) and enter the basic app details on the first page.
  5. In the second page on Scopes, select Add or Remove Scopes. Search for Calendar.event and select the scope with scope value .../auth/calendar.events, .../auth/calendar.readonly and select Update.
  6. In the third page (Test Users), add the Google account(s) you'll using. Make sure the details are correct on the last page of the wizard and your consent screen will be configured.
  7. Now select Credentials from the side pane and then select Create Credentials. Select the OAuth Client ID option.
  8. Select Web Application as the Application Type.
  9. Under Authorized redirect URI's, select Add URI and then add the URI <Cal.com URL>/api/integrations/googlecalendar/callback and <Cal.com URL>/api/auth/callback/google replacing Cal.com URL with the URI at which your application runs.
  10. The key will be created and you will be redirected back to the Credentials page. Select the newly generated client ID under OAuth 2.0 Client IDs.
  11. Select Download JSON. Copy the contents of this file and paste the entire JSON string in the .env file as the value for GOOGLE_API_CREDENTIALS key.

Adding google calendar to Cal.com App Store

After adding Google credentials, you can now Google Calendar App to the app store. You can repopulate the App store by running

cd packages/prisma
yarn seed-app-store

You will need to complete a few more steps to activate Google Calendar App. Make sure to complete section "Obtaining the Google API Credentials". After the do the following

  1. Add extra redirect URL <Cal.com URL>/api/auth/callback/google
  2. Under 'OAuth concent screen', click "PUBLISH APP"

Obtaining Microsoft Graph Client ID and Secret

  1. Open Azure App Registration and select New registration
  2. Name your application
  3. Set Who can use this application or access this API? to Accounts in any organizational directory (Any Azure AD directory - Multitenant)
  4. Set the Web redirect URI to <Cal.com URL>/api/integrations/office365calendar/callback replacing Cal.com URL with the URI at which your application runs.
  5. Use Application (client) ID as the MS_GRAPH_CLIENT_ID attribute value in .env
  6. Click Certificates & secrets create a new client secret and use the value as the MS_GRAPH_CLIENT_SECRET attribute

Obtaining Zoom Client ID and Secret

  1. Open Zoom Marketplace and sign in with your Zoom account.
  2. On the upper right, click "Develop" => "Build App".
  3. On "OAuth", select "Create".
  4. Name your App.
  5. Choose "User-managed app" as the app type.
  6. De-select the option to publish the app on the Zoom App Marketplace.
  7. Click "Create".
  8. Now copy the Client ID and Client Secret to your .env file into the ZOOM_CLIENT_ID and ZOOM_CLIENT_SECRET fields.
  9. Set the Redirect URL for OAuth <Cal.com URL>/api/integrations/zoomvideo/callback replacing Cal.com URL with the URI at which your application runs.
  10. Also add the redirect URL given above as a allow list URL and enable "Subdomain check". Make sure, it says "saved" below the form.
  11. You don't need to provide basic information about your app. Instead click at "Scopes" and then at "+ Add Scopes". On the left, click the category "Meeting" and check the scope meeting:write.
  12. Click "Done".
  13. You're good to go. Now you can easily add your Zoom integration in the Cal.com settings.

Obtaining Daily API Credentials

  1. Open Daily and sign into your account.
  2. From within your dashboard, go to the developers tab.
  3. Copy your API key.
  4. Now paste the API key to your .env file into the DAILY_API_KEY field in your .env file.
  5. If you have the Daily Scale Plan set the DAILY_SCALE_PLAN variable to true in order to use features like video recording.

Obtaining HubSpot Client ID and Secret

  1. Open HubSpot Developer and sign into your account, or create a new one.
  2. From within the home of the Developer account page, go to "Manage apps".
  3. Click "Create app" button top right.
  4. Fill in any information you want in the "App info" tab
  5. Go to tab "Auth"
  6. Now copy the Client ID and Client Secret to your .env file into the HUBSPOT_CLIENT_ID and HUBSPOT_CLIENT_SECRET fields.
  7. Set the Redirect URL for OAuth <Cal.com URL>/api/integrations/hubspot/callback replacing Cal.com URL with the URI at which your application runs.
  8. In the "Scopes" section at the bottom of the page, make sure you select "Read" and "Write" for scope called crm.objects.contacts
  9. Click the "Save" button at the bottom footer.
  10. You're good to go. Now you can see any booking in Cal.com created as a meeting in HubSpot for your contacts.

Workflows

Setting up SendGrid for Email reminders

  1. Create a SendGrid account (https://signup.sendgrid.com/)
  2. Go to Settings -> API keys and create an API key
  3. Copy API key to your .env file into the SENDGRID_API_KEY field
  4. Go to Settings -> Sender Authentication and verify a single sender
  5. Copy the verified E-Mail to your .env file into the SENDGRID_EMAIL field
  6. Add your custom sender name to the .env file into the NEXT_PUBLIC_SENDGRID_SENDER_NAME field (fallback is Cal.com)

Setting up Twilio for SMS reminders

  1. Create a Twilio account (https://www.twilio.com/try-twilio)
  2. Click ‘Get a Twilio phone number’
  3. Copy Account SID to your .env file into the TWILIO_SID field
  4. Copy Auth Token to your .env file into the TWILIO_TOKEN field
  5. Copy your Twilio phone number to your .env file into the TWILIO_PHONE_NUMBER field
  6. Add your own sender id to the .env file into the NEXT_PUBLIC_SENDER_ID field (fallback is Cal)
  7. Create a messaging service (Develop -> Messaging -> Services)
  8. Choose any name for the messaging service
  9. Click 'Add Senders'
  10. Choose phone number as sender type
  11. Add the listed phone number
  12. Leave all other fields as they are
  13. Complete setup and click ‘View my new Messaging Service’
  14. Copy Messaging Service SID to your .env file into the TWILIO_MESSAGING_SID field
  15. Create a verify service
  16. Copy Verify Service SID to your .env file into the TWILIO_VERIFY_SID field

Acknowledgements

Special thanks to these amazing projects which help power Cal.com:

Jitsu.com

Cal.com is an open startup and Jitsu (an open-source Segment alternative) helps us to track most of the usage metrics.

Download Details:

Author: Calcom
Source Code: https://github.com/calcom/cal.com 
License: View license

#opensource #typescript #nextjs #postgresql #prisma #tailwindcss

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Rufus Scheduler: Job Scheduler for Ruby (at, Cron, in and Every Jobs)

rufus-scheduler

Job scheduler for Ruby (at, cron, in and every jobs).

It uses threads.

Note: maybe are you looking for the README of rufus-scheduler 2.x? (especially if you're using Dashing which is stuck on rufus-scheduler 2.0.24)

Quickstart:

# quickstart.rb

require 'rufus-scheduler'

scheduler = Rufus::Scheduler.new

scheduler.in '3s' do
  puts 'Hello... Rufus'
end

scheduler.join
  #
  # let the current thread join the scheduler thread
  #
  # (please note that this join should be removed when scheduling
  # in a web application (Rails and friends) initializer)

(run with ruby quickstart.rb)

Various forms of scheduling are supported:

require 'rufus-scheduler'

scheduler = Rufus::Scheduler.new

# ...

scheduler.in '10d' do
  # do something in 10 days
end

scheduler.at '2030/12/12 23:30:00' do
  # do something at a given point in time
end

scheduler.every '3h' do
  # do something every 3 hours
end
scheduler.every '3h10m' do
  # do something every 3 hours and 10 minutes
end

scheduler.cron '5 0 * * *' do
  # do something every day, five minutes after midnight
  # (see "man 5 crontab" in your terminal)
end

# ...

Rufus-scheduler uses fugit for parsing time strings, et-orbi for pairing time and tzinfo timezones.

non-features

Rufus-scheduler (out of the box) is an in-process, in-memory scheduler. It uses threads.

It does not persist your schedules. When the process is gone and the scheduler instance with it, the schedules are gone.

A rufus-scheduler instance will go on scheduling while it is present among the objects in a Ruby process. To make it stop scheduling you have to call its #shutdown method.

related and similar gems

  • Whenever - let cron call back your Ruby code, trusted and reliable cron drives your schedule
  • ruby-clock - a clock process / job scheduler for Ruby
  • Clockwork - rufus-scheduler inspired gem
  • Crono - an in-Rails cron scheduler
  • PerfectSched - highly available distributed cron built on Sequel and more

(please note: rufus-scheduler is not a cron replacement)

note about the 3.0 line

It's a complete rewrite of rufus-scheduler.

There is no EventMachine-based scheduler anymore.

I don't know what this Ruby thing is, where are my Rails?

I'll drive you right to the tracks.

notable changes:

  • As said, no more EventMachine-based scheduler
  • scheduler.every('100') { will schedule every 100 seconds (previously, it would have been 0.1s). This aligns rufus-scheduler with Ruby's sleep(100)
  • The scheduler isn't catching the whole of Exception anymore, only StandardError
  • The error_handler is #on_error (instead of #on_exception), by default it now prints the details of the error to $stderr (used to be $stdout)
  • Rufus::Scheduler::TimeOutError renamed to Rufus::Scheduler::TimeoutError
  • Introduction of "interval" jobs. Whereas "every" jobs are like "every 10 minutes, do this", interval jobs are like "do that, then wait for 10 minutes, then do that again, and so on"
  • Introduction of a lockfile: true/filename mechanism to prevent multiple schedulers from executing
  • "discard_past" is on by default. If the scheduler (its host) sleeps for 1 hour and a every '10m' job is on, it will trigger once at wakeup, not 6 times (discard_past was false by default in rufus-scheduler 2.x). No intention to re-introduce discard_past: false in 3.0 for now.
  • Introduction of Scheduler #on_pre_trigger and #on_post_trigger callback points

getting help

So you need help. People can help you, but first help them help you, and don't waste their time. Provide a complete description of the issue. If it works on A but not on B and others have to ask you: "so what is different between A and B" you are wasting everyone's time.

"hello", "please" and "thanks" are not swear words.

Go read how to report bugs effectively, twice.

Update: help_help.md might help help you.

on Gitter

You can find help via chat over at https://gitter.im/floraison/fugit. It's fugit, et-orbi, and rufus-scheduler combined chat room.

Please be courteous.

issues

Yes, issues can be reported in rufus-scheduler issues, I'd actually prefer bugs in there. If there is nothing wrong with rufus-scheduler, a Stack Overflow question is better.

faq

scheduling

Rufus-scheduler supports five kinds of jobs. in, at, every, interval and cron jobs.

Most of the rufus-scheduler examples show block scheduling, but it's also OK to schedule handler instances or handler classes.

in, at, every, interval, cron

In and at jobs trigger once.

require 'rufus-scheduler'

scheduler = Rufus::Scheduler.new

scheduler.in '10d' do
  puts "10 days reminder for review X!"
end

scheduler.at '2014/12/24 2000' do
  puts "merry xmas!"
end

In jobs are scheduled with a time interval, they trigger after that time elapsed. At jobs are scheduled with a point in time, they trigger when that point in time is reached (better to choose a point in the future).

Every, interval and cron jobs trigger repeatedly.

require 'rufus-scheduler'

scheduler = Rufus::Scheduler.new

scheduler.every '3h' do
  puts "change the oil filter!"
end

scheduler.interval '2h' do
  puts "thinking..."
  puts sleep(rand * 1000)
  puts "thought."
end

scheduler.cron '00 09 * * *' do
  puts "it's 9am! good morning!"
end

Every jobs try hard to trigger following the frequency they were scheduled with.

Interval jobs trigger, execute and then trigger again after the interval elapsed. (every jobs time between trigger times, interval jobs time between trigger termination and the next trigger start).

Cron jobs are based on the venerable cron utility (man 5 crontab). They trigger following a pattern given in (almost) the same language cron uses.

 

#schedule_x vs #x

schedule_in, schedule_at, schedule_cron, etc will return the new Job instance.

in, at, cron will return the new Job instance's id (a String).

job_id =
  scheduler.in '10d' do
    # ...
  end
job = scheduler.job(job_id)

# versus

job =
  scheduler.schedule_in '10d' do
    # ...
  end

# also

job =
  scheduler.in '10d', job: true do
    # ...
  end

#schedule and #repeat

Sometimes it pays to be less verbose.

The #schedule methods schedules an at, in or cron job. It just decides based on its input. It returns the Job instance.

scheduler.schedule '10d' do; end.class
  # => Rufus::Scheduler::InJob

scheduler.schedule '2013/12/12 12:30' do; end.class
  # => Rufus::Scheduler::AtJob

scheduler.schedule '* * * * *' do; end.class
  # => Rufus::Scheduler::CronJob

The #repeat method schedules and returns an EveryJob or a CronJob.

scheduler.repeat '10d' do; end.class
  # => Rufus::Scheduler::EveryJob

scheduler.repeat '* * * * *' do; end.class
  # => Rufus::Scheduler::CronJob

(Yes, no combination here gives back an IntervalJob).

schedule blocks arguments (job, time)

A schedule block may be given 0, 1 or 2 arguments.

The first argument is "job", it's simply the Job instance involved. It might be useful if the job is to be unscheduled for some reason.

scheduler.every '10m' do |job|

  status = determine_pie_status

  if status == 'burnt' || status == 'cooked'
    stop_oven
    takeout_pie
    job.unschedule
  end
end

The second argument is "time", it's the time when the job got cleared for triggering (not Time.now).

Note that time is the time when the job got cleared for triggering. If there are mutexes involved, now = mutex_wait_time + time...

"every" jobs and changing the next_time in-flight

It's OK to change the next_time of an every job in-flight:

scheduler.every '10m' do |job|

  # ...

  status = determine_pie_status

  job.next_time = Time.now + 30 * 60 if status == 'burnt'
    #
    # if burnt, wait 30 minutes for the oven to cool a bit
end

It should work as well with cron jobs, not so with interval jobs whose next_time is computed after their block ends its current run.

scheduling handler instances

It's OK to pass any object, as long as it responds to #call(), when scheduling:

class Handler
  def self.call(job, time)
    p "- Handler called for #{job.id} at #{time}"
  end
end

scheduler.in '10d', Handler

# or

class OtherHandler
  def initialize(name)
    @name = name
  end
  def call(job, time)
    p "* #{time} - Handler #{name.inspect} called for #{job.id}"
  end
end

oh = OtherHandler.new('Doe')

scheduler.every '10m', oh
scheduler.in '3d5m', oh

The call method must accept 2 (job, time), 1 (job) or 0 arguments.

Note that time is the time when the job got cleared for triggering. If there are mutexes involved, now = mutex_wait_time + time...

scheduling handler classes

One can pass a handler class to rufus-scheduler when scheduling. Rufus will instantiate it and that instance will be available via job#handler.

class MyHandler
  attr_reader :count
  def initialize
    @count = 0
  end
  def call(job)
    @count += 1
    puts ". #{self.class} called at #{Time.now} (#{@count})"
  end
end

job = scheduler.schedule_every '35m', MyHandler

job.handler
  # => #<MyHandler:0x000000021034f0>
job.handler.count
  # => 0

If you want to keep that "block feeling":

job_id =
  scheduler.every '10m', Class.new do
    def call(job)
      puts ". hello #{self.inspect} at #{Time.now}"
    end
  end

pause and resume the scheduler

The scheduler can be paused via the #pause and #resume methods. One can determine if the scheduler is currently paused by calling #paused?.

While paused, the scheduler still accepts schedules, but no schedule will get triggered as long as #resume isn't called.

job options

name: string

Sets the name of the job.

scheduler.cron '*/15 8 * * *', name: 'Robert' do |job|
  puts "A, it's #{Time.now} and my name is #{job.name}"
end

job1 =
  scheduler.schedule_cron '*/30 9 * * *', n: 'temporary' do |job|
    puts "B, it's #{Time.now} and my name is #{job.name}"
  end
# ...
job1.name = 'Beowulf'

blocking: true

By default, jobs are triggered in their own, new threads. When blocking: true, the job is triggered in the scheduler thread (a new thread is not created). Yes, while a blocking job is running, the scheduler is not scheduling.

overlap: false

Since, by default, jobs are triggered in their own new threads, job instances might overlap. For example, a job that takes 10 minutes and is scheduled every 7 minutes will have overlaps.

To prevent overlap, one can set overlap: false. Such a job will not trigger if one of its instances is already running.

The :overlap option is considered before the :mutex option when the scheduler is reviewing jobs for triggering.

mutex: mutex_instance / mutex_name / array of mutexes

When a job with a mutex triggers, the job's block is executed with the mutex around it, preventing other jobs with the same mutex from entering (it makes the other jobs wait until it exits the mutex).

This is different from overlap: false, which is, first, limited to instances of the same job, and, second, doesn't make the incoming job instance block/wait but give up.

:mutex accepts a mutex instance or a mutex name (String). It also accept an array of mutex names / mutex instances. It allows for complex relations between jobs.

Array of mutexes: original idea and implementation by Rainux Luo

Note: creating lots of different mutexes is OK. Rufus-scheduler will place them in its Scheduler#mutexes hash... And they won't get garbage collected.

The :overlap option is considered before the :mutex option when the scheduler is reviewing jobs for triggering.

timeout: duration or point in time

It's OK to specify a timeout when scheduling some work. After the time specified, it gets interrupted via a Rufus::Scheduler::TimeoutError.

scheduler.in '10d', timeout: '1d' do
  begin
    # ... do something
  rescue Rufus::Scheduler::TimeoutError
    # ... that something got interrupted after 1 day
  end
end

The :timeout option accepts either a duration (like "1d" or "2w3d") or a point in time (like "2013/12/12 12:00").

:first_at, :first_in, :first, :first_time

This option is for repeat jobs (cron / every) only.

It's used to specify the first time after which the repeat job should trigger for the first time.

In the case of an "every" job, this will be the first time (modulo the scheduler frequency) the job triggers. For a "cron" job as well, the :first will point to the first time the job has to trigger, the following trigger times are then determined by the cron string.

scheduler.every '2d', first_at: Time.now + 10 * 3600 do
  # ... every two days, but start in 10 hours
end

scheduler.every '2d', first_in: '10h' do
  # ... every two days, but start in 10 hours
end

scheduler.cron '00 14 * * *', first_in: '3d' do
  # ... every day at 14h00, but start after 3 * 24 hours
end

:first, :first_at and :first_in all accept a point in time or a duration (number or time string). Use the symbol you think makes your schedule more readable.

Note: it's OK to change the first_at (a Time instance) directly:

job.first_at = Time.now + 10
job.first_at = Rufus::Scheduler.parse('2029-12-12')

The first argument (in all its flavours) accepts a :now or :immediately value. That schedules the first occurrence for immediate triggering. Consider:

require 'rufus-scheduler'

s = Rufus::Scheduler.new

n = Time.now; p [ :scheduled_at, n, n.to_f ]

s.every '3s', first: :now do
  n = Time.now; p [ :in, n, n.to_f ]
end

s.join

that'll output something like:

[:scheduled_at, 2014-01-22 22:21:21 +0900, 1390396881.344438]
[:in, 2014-01-22 22:21:21 +0900, 1390396881.6453865]
[:in, 2014-01-22 22:21:24 +0900, 1390396884.648807]
[:in, 2014-01-22 22:21:27 +0900, 1390396887.651686]
[:in, 2014-01-22 22:21:30 +0900, 1390396890.6571937]
...

:last_at, :last_in, :last

This option is for repeat jobs (cron / every) only.

It indicates the point in time after which the job should unschedule itself.

scheduler.cron '5 23 * * *', last_in: '10d' do
  # ... do something every evening at 23:05 for 10 days
end

scheduler.every '10m', last_at: Time.now + 10 * 3600 do
  # ... do something every 10 minutes for 10 hours
end

scheduler.every '10m', last_in: 10 * 3600 do
  # ... do something every 10 minutes for 10 hours
end

:last, :last_at and :last_in all accept a point in time or a duration (number or time string). Use the symbol you think makes your schedule more readable.

Note: it's OK to change the last_at (nil or a Time instance) directly:

job.last_at = nil
  # remove the "last" bound

job.last_at = Rufus::Scheduler.parse('2029-12-12')
  # set the last bound

times: nb of times (before auto-unscheduling)

One can tell how many times a repeat job (CronJob or EveryJob) is to execute before unscheduling by itself.

scheduler.every '2d', times: 10 do
  # ... do something every two days, but not more than 10 times
end

scheduler.cron '0 23 * * *', times: 31 do
  # ... do something every day at 23:00 but do it no more than 31 times
end

It's OK to assign nil to :times to make sure the repeat job is not limited. It's useful when the :times is determined at scheduling time.

scheduler.cron '0 23 * * *', times: (nolimit ? nil : 10) do
  # ...
end

The value set by :times is accessible in the job. It can be modified anytime.

job =
  scheduler.cron '0 23 * * *' do
    # ...
  end

# later on...

job.times = 10
  # 10 days and it will be over

Job methods

When calling a schedule method, the id (String) of the job is returned. Longer schedule methods return Job instances directly. Calling the shorter schedule methods with the job: true also returns Job instances instead of Job ids (Strings).

  require 'rufus-scheduler'

  scheduler = Rufus::Scheduler.new

  job_id =
    scheduler.in '10d' do
      # ...
    end

  job =
    scheduler.schedule_in '1w' do
      # ...
    end

  job =
    scheduler.in '1w', job: true do
      # ...
    end

Those Job instances have a few interesting methods / properties:

id, job_id

Returns the job id.

job = scheduler.schedule_in('10d') do; end
job.id
  # => "in_1374072446.8923042_0.0_0"

scheduler

Returns the scheduler instance itself.

opts

Returns the options passed at the Job creation.

job = scheduler.schedule_in('10d', tag: 'hello') do; end
job.opts
  # => { :tag => 'hello' }

original

Returns the original schedule.

job = scheduler.schedule_in('10d', tag: 'hello') do; end
job.original
  # => '10d'

callable, handler

callable() returns the scheduled block (or the call method of the callable object passed in lieu of a block)

handler() returns nil if a block was scheduled and the instance scheduled otherwise.

# when passing a block

job =
  scheduler.schedule_in('10d') do
    # ...
  end

job.handler
  # => nil
job.callable
  # => #<Proc:0x00000001dc6f58@/home/jmettraux/whatever.rb:115>

and

# when passing something else than a block

class MyHandler
  attr_reader :counter
  def initialize
    @counter = 0
  end
  def call(job, time)
    @counter = @counter + 1
  end
end

job = scheduler.schedule_in('10d', MyHandler.new)

job.handler
  # => #<Method: MyHandler#call>
job.callable
  # => #<MyHandler:0x0000000163ae88 @counter=0>

source_location

Added to rufus-scheduler 3.8.0.

Returns the array [ 'path/to/file.rb', 123 ] like Proc#source_location does.

require 'rufus-scheduler'

scheduler = Rufus::Scheduler.new

job = scheduler.schedule_every('2h') { p Time.now }

p job.source_location
  # ==> [ '/home/jmettraux/rufus-scheduler/test.rb', 6 ]

scheduled_at

Returns the Time instance when the job got created.

job = scheduler.schedule_in('10d', tag: 'hello') do; end
job.scheduled_at
  # => 2013-07-17 23:48:54 +0900

last_time

Returns the last time the job triggered (is usually nil for AtJob and InJob).

job = scheduler.schedule_every('10s') do; end

job.scheduled_at
  # => 2013-07-17 23:48:54 +0900
job.last_time
  # => nil (since we've just scheduled it)

# after 10 seconds

job.scheduled_at
  # => 2013-07-17 23:48:54 +0900 (same as above)
job.last_time
  # => 2013-07-17 23:49:04 +0900

previous_time

Returns the previous #next_time

scheduler.every('10s') do |job|
  puts "job scheduled for #{job.previous_time} triggered at #{Time.now}"
  puts "next time will be around #{job.next_time}"
  puts "."
end

last_work_time, mean_work_time

The job keeps track of how long its work was in the last_work_time attribute. For a one time job (in, at) it's probably not very useful.

The attribute mean_work_time contains a computed mean work time. It's recomputed after every run (if it's a repeat job).

next_times(n)

Returns an array of EtOrbi::EoTime instances (Time instances with a designated time zone), listing the n next occurrences for this job.

Please note that for "interval" jobs, a mean work time is computed each time and it's used by this #next_times(n) method to approximate the next times beyond the immediate next time.

unschedule

Unschedule the job, preventing it from firing again and removing it from the schedule. This doesn't prevent a running thread for this job to run until its end.

threads

Returns the list of threads currently "hosting" runs of this Job instance.

kill

Interrupts all the work threads currently running for this job instance. They discard their work and are free for their next run (of whatever job).

Note: this doesn't unschedule the Job instance.

Note: if the job is pooled for another run, a free work thread will probably pick up that next run and the job will appear as running again. You'd have to unschedule and kill to make sure the job doesn't run again.

running?

Returns true if there is at least one running Thread hosting a run of this Job instance.

scheduled?

Returns true if the job is scheduled (is due to trigger). For repeat jobs it should return true until the job gets unscheduled. "at" and "in" jobs will respond with false as soon as they start running (execution triggered).

pause, resume, paused?, paused_at

These four methods are only available to CronJob, EveryJob and IntervalJob instances. One can pause or resume such jobs thanks to these methods.

job =
  scheduler.schedule_every('10s') do
    # ...
  end

job.pause
  # => 2013-07-20 01:22:22 +0900
job.paused?
  # => true
job.paused_at
  # => 2013-07-20 01:22:22 +0900

job.resume
  # => nil

tags

Returns the list of tags attached to this Job instance.

By default, returns an empty array.

job = scheduler.schedule_in('10d') do; end
job.tags
  # => []

job = scheduler.schedule_in('10d', tag: 'hello') do; end
job.tags
  # => [ 'hello' ]

[]=, [], key?, has_key?, keys, values, and entries

Threads have thread-local variables, similarly Rufus-scheduler jobs have job-local variables. Those are more like a dict with thread-safe access.

job =
  @scheduler.schedule_every '1s' do |job|
    job[:timestamp] = Time.now.to_f
    job[:counter] ||= 0
    job[:counter] += 1
  end

sleep 3.6

job[:counter]
  # => 3

job.key?(:timestamp) # => true
job.has_key?(:timestamp) # => true
job.keys # => [ :timestamp, :counter ]

Locals can be set at schedule time:

job0 =
  @scheduler.schedule_cron '*/15 12 * * *', locals: { a: 0 } do
    # ...
  end
job1 =
  @scheduler.schedule_cron '*/15 13 * * *', l: { a: 1 } do
    # ...
  end

One can fetch the Hash directly with Job#locals. Of course, direct manipulation is not thread-safe.

job.locals.entries do |k, v|
  p "#{k}: #{v}"
end

call

Job instances have a #call method. It simply calls the scheduled block or callable immediately.

job =
  @scheduler.schedule_every '10m' do |job|
    # ...
  end

job.call

Warning: the Scheduler#on_error handler is not involved. Error handling is the responsibility of the caller.

If the call has to be rescued by the error handler of the scheduler, call(true) might help:

require 'rufus-scheduler'

s = Rufus::Scheduler.new

def s.on_error(job, err)
  if job
    p [ 'error in scheduled job', job.class, job.original, err.message ]
  else
    p [ 'error while scheduling', err.message ]
  end
rescue
  p $!
end

job =
  s.schedule_in('1d') do
    fail 'again'
  end

job.call(true)
  #
  # true lets the error_handler deal with error in the job call

AtJob and InJob methods

time

Returns when the job will trigger (hopefully).

next_time

An alias for time.

EveryJob, IntervalJob and CronJob methods

next_time

Returns the next time the job will trigger (hopefully).

count

Returns how many times the job fired.

EveryJob methods

frequency

It returns the scheduling frequency. For a job scheduled "every 20s", it's 20.

It's used to determine if the job frequency is higher than the scheduler frequency (it raises an ArgumentError if that is the case).

IntervalJob methods

interval

Returns the interval scheduled between each execution of the job.

Every jobs use a time duration between each start of their execution, while interval jobs use a time duration between the end of an execution and the start of the next.

CronJob methods

brute_frequency

An expensive method to run, it's brute. It caches its results. By default it runs for 2017 (a non leap-year).

  require 'rufus-scheduler'

  Rufus::Scheduler.parse('* * * * *').brute_frequency
    #
    # => #<Fugit::Cron::Frequency:0x00007fdf4520c5e8
    #      @span=31536000.0, @delta_min=60, @delta_max=60,
    #      @occurrences=525600, @span_years=1.0, @yearly_occurrences=525600.0>
      #
      # Occurs 525600 times in a span of 1 year (2017) and 1 day.
      # There are least 60 seconds between "triggers" and at most 60 seconds.

  Rufus::Scheduler.parse('0 12 * * *').brute_frequency
    # => #<Fugit::Cron::Frequency:0x00007fdf451ec6d0
    #      @span=31536000.0, @delta_min=86400, @delta_max=86400,
    #      @occurrences=365, @span_years=1.0, @yearly_occurrences=365.0>
  Rufus::Scheduler.parse('0 12 * * *').brute_frequency.to_debug_s
    # => "dmin: 1D, dmax: 1D, ocs: 365, spn: 52W1D, spnys: 1, yocs: 365"
      #
      # 365 occurrences, at most 1 day between each, at least 1 day.

The CronJob#frequency method found in rufus-scheduler < 3.5 has been retired.

looking up jobs

Scheduler#job(job_id)

The scheduler #job(job_id) method can be used to look up Job instances.

  require 'rufus-scheduler'

  scheduler = Rufus::Scheduler.new

  job_id =
    scheduler.in '10d' do
      # ...
    end

  # later on...

  job = scheduler.job(job_id)

Scheduler #jobs #at_jobs #in_jobs #every_jobs #interval_jobs and #cron_jobs

Are methods for looking up lists of scheduled Job instances.

Here is an example:

  #
  # let's unschedule all the at jobs

  scheduler.at_jobs.each(&:unschedule)

Scheduler#jobs(tag: / tags: x)

When scheduling a job, one can specify one or more tags attached to the job. These can be used to look up the job later on.

  scheduler.in '10d', tag: 'main_process' do
    # ...
  end
  scheduler.in '10d', tags: [ 'main_process', 'side_dish' ] do
    # ...
  end

  # ...

  jobs = scheduler.jobs(tag: 'main_process')
    # find all the jobs with the 'main_process' tag

  jobs = scheduler.jobs(tags: [ 'main_process', 'side_dish' ]
    # find all the jobs with the 'main_process' AND 'side_dish' tags

Scheduler#running_jobs

Returns the list of Job instance that have currently running instances.

Whereas other "_jobs" method scan the scheduled job list, this method scans the thread list to find the job. It thus comprises jobs that are running but are not scheduled anymore (that happens for at and in jobs).

misc Scheduler methods

Scheduler#unschedule(job_or_job_id)

Unschedule a job given directly or by its id.

Scheduler#shutdown

Shuts down the scheduler, ceases any scheduler/triggering activity.

Scheduler#shutdown(:wait)

Shuts down the scheduler, waits (blocks) until all the jobs cease running.

Scheduler#shutdown(wait: n)

Shuts down the scheduler, waits (blocks) at most n seconds until all the jobs cease running. (Jobs are killed after n seconds have elapsed).

Scheduler#shutdown(:kill)

Kills all the job (threads) and then shuts the scheduler down. Radical.

Scheduler#down?

Returns true if the scheduler has been shut down.

Scheduler#started_at

Returns the Time instance at which the scheduler got started.

Scheduler #uptime / #uptime_s

Returns since the count of seconds for which the scheduler has been running.

#uptime_s returns this count in a String easier to grasp for humans, like "3d12m45s123".

Scheduler#join

Lets the current thread join the scheduling thread in rufus-scheduler. The thread comes back when the scheduler gets shut down.

#join is mostly used in standalone scheduling script (or tiny one file examples). Calling #join from a web application initializer will probably hijack the main thread and prevent the web application from being served. Do not put a #join in such a web application initializer file.

Scheduler#threads

Returns all the threads associated with the scheduler, including the scheduler thread itself.

Scheduler#work_threads(query=:all/:active/:vacant)

Lists the work threads associated with the scheduler. The query option defaults to :all.

  • :all : all the work threads
  • :active : all the work threads currently running a Job
  • :vacant : all the work threads currently not running a Job

Note that the main schedule thread will be returned if it is currently running a Job (ie one of those blocking: true jobs).

Scheduler#scheduled?(job_or_job_id)

Returns true if the arg is a currently scheduled job (see Job#scheduled?).

Scheduler#occurrences(time0, time1)

Returns a hash { job => [ t0, t1, ... ] } mapping jobs to their potential trigger time within the [ time0, time1 ] span.

Please note that, for interval jobs, the #mean_work_time is used, so the result is only a prediction.

Scheduler#timeline(time0, time1)

Like #occurrences but returns a list [ [ t0, job0 ], [ t1, job1 ], ... ] of time + job pairs.

dealing with job errors

The easy, job-granular way of dealing with errors is to rescue and deal with them immediately. The two next sections show examples. Skip them for explanations on how to deal with errors at the scheduler level.

block jobs

As said, jobs could take care of their errors themselves.

scheduler.every '10m' do
  begin
    # do something that might fail...
  rescue => e
    $stderr.puts '-' * 80
    $stderr.puts e.message
    $stderr.puts e.stacktrace
    $stderr.puts '-' * 80
  end
end

callable jobs

Jobs are not only shrunk to blocks, here is how the above would look like with a dedicated class.

scheduler.every '10m', Class.new do
  def call(job)
    # do something that might fail...
  rescue => e
    $stderr.puts '-' * 80
    $stderr.puts e.message
    $stderr.puts e.stacktrace
    $stderr.puts '-' * 80
  end
end

TODO: talk about callable#on_error (if implemented)

(see scheduling handler instances and scheduling handler classes for more about those "callable jobs")

Rufus::Scheduler#stderr=

By default, rufus-scheduler intercepts all errors (that inherit from StandardError) and dumps abundant details to $stderr.

If, for example, you'd like to divert that flow to another file (descriptor), you can reassign $stderr for the current Ruby process

$stderr = File.open('/var/log/myapplication.log', 'ab')

or, you can limit that reassignement to the scheduler itself

scheduler.stderr = File.open('/var/log/myapplication.log', 'ab')

Rufus::Scheduler#on_error(job, error)

We've just seen that, by default, rufus-scheduler dumps error information to $stderr. If one needs to completely change what happens in case of error, it's OK to overwrite #on_error

def scheduler.on_error(job, error)

  Logger.warn("intercepted error in #{job.id}: #{error.message}")
end

On Rails, the on_error method redefinition might look like:

def scheduler.on_error(job, error)

  Rails.logger.error(
    "err#{error.object_id} rufus-scheduler intercepted #{error.inspect}" +
    " in job #{job.inspect}")
  error.backtrace.each_with_index do |line, i|
    Rails.logger.error(
      "err#{error.object_id} #{i}: #{line}")
  end
end

Callbacks

Rufus::Scheduler #on_pre_trigger and #on_post_trigger callbacks

One can bind callbacks before and after jobs trigger:

s = Rufus::Scheduler.new

def s.on_pre_trigger(job, trigger_time)
  puts "triggering job #{job.id}..."
end

def s.on_post_trigger(job, trigger_time)
  puts "triggered job #{job.id}."
end

s.every '1s' do
  # ...
end

The trigger_time is the time at which the job triggers. It might be a bit before Time.now.

Warning: these two callbacks are executed in the scheduler thread, not in the work threads (the threads where the job execution really happens).

Rufus::Scheduler#around_trigger

One can create an around callback which will wrap a job:

def s.around_trigger(job)
  t = Time.now
  puts "Starting job #{job.id}..."
  yield
  puts "job #{job.id} finished in #{Time.now-t} seconds."
end

The around callback is executed in the thread.

Rufus::Scheduler#on_pre_trigger as a guard

Returning false in on_pre_trigger will prevent the job from triggering. Returning anything else (nil, -1, true, ...) will let the job trigger.

Note: your business logic should go in the scheduled block itself (or the scheduled instance). Don't put business logic in on_pre_trigger. Return false for admin reasons (backend down, etc), not for business reasons that are tied to the job itself.

def s.on_pre_trigger(job, trigger_time)

  return false if Backend.down?

  puts "triggering job #{job.id}..."
end

Rufus::Scheduler.new options

:frequency

By default, rufus-scheduler sleeps 0.300 second between every step. At each step it checks for jobs to trigger and so on.

The :frequency option lets you change that 0.300 second to something else.

scheduler = Rufus::Scheduler.new(frequency: 5)

It's OK to use a time string to specify the frequency.

scheduler = Rufus::Scheduler.new(frequency: '2h10m')
  # this scheduler will sleep 2 hours and 10 minutes between every "step"

Use with care.

lockfile: "mylockfile.txt"

This feature only works on OSes that support the flock (man 2 flock) call.

Starting the scheduler with lockfile: '.rufus-scheduler.lock' will make the scheduler attempt to create and lock the file .rufus-scheduler.lock in the current working directory. If that fails, the scheduler will not start.

The idea is to guarantee only one scheduler (in a group of schedulers sharing the same lockfile) is running.

This is useful in environments where the Ruby process holding the scheduler gets started multiple times.

If the lockfile mechanism here is not sufficient, you can plug your custom mechanism. It's explained in advanced lock schemes below.

:scheduler_lock

(since rufus-scheduler 3.0.9)

The scheduler lock is an object that responds to #lock and #unlock. The scheduler calls #lock when starting up. If the answer is false, the scheduler stops its initialization work and won't schedule anything.

Here is a sample of a scheduler lock that only lets the scheduler on host "coffee.example.com" start:

class HostLock
  def initialize(lock_name)
    @lock_name = lock_name
  end
  def lock
    @lock_name == `hostname -f`.strip
  end
  def unlock
    true
  end
end

scheduler =
  Rufus::Scheduler.new(scheduler_lock: HostLock.new('coffee.example.com'))

By default, the scheduler_lock is an instance of Rufus::Scheduler::NullLock, with a #lock that returns true.

:trigger_lock

(since rufus-scheduler 3.0.9)

The trigger lock in an object that responds to #lock. The scheduler calls that method on the job lock right before triggering any job. If the answer is false, the trigger doesn't happen, the job is not done (at least not in this scheduler).

Here is a (stupid) PingLock example, it'll only trigger if an "other host" is not responding to ping. Do not use that in production, you don't want to fork a ping process for each trigger attempt...

class PingLock
  def initialize(other_host)
    @other_host = other_host
  end
  def lock
    ! system("ping -c 1 #{@other_host}")
  end
end

scheduler =
  Rufus::Scheduler.new(trigger_lock: PingLock.new('main.example.com'))

By default, the trigger_lock is an instance of Rufus::Scheduler::NullLock, with a #lock that always returns true.

As explained in advanced lock schemes, another way to tune that behaviour is by overriding the scheduler's #confirm_lock method. (You could also do that with an #on_pre_trigger callback).

:max_work_threads

In rufus-scheduler 2.x, by default, each job triggering received its own, brand new, thread of execution. In rufus-scheduler 3.x, execution happens in a pooled work thread. The max work thread count (the pool size) defaults to 28.

One can set this maximum value when starting the scheduler.

scheduler = Rufus::Scheduler.new(max_work_threads: 77)

It's OK to increase the :max_work_threads of a running scheduler.

scheduler.max_work_threads += 10

Rufus::Scheduler.singleton

Do not want to store a reference to your rufus-scheduler instance? Then Rufus::Scheduler.singleton can help, it returns a singleton instance of the scheduler, initialized the first time this class method is called.

Rufus::Scheduler.singleton.every '10s' { puts "hello, world!" }

It's OK to pass initialization arguments (like :frequency or :max_work_threads) but they will only be taken into account the first time .singleton is called.

Rufus::Scheduler.singleton(max_work_threads: 77)
Rufus::Scheduler.singleton(max_work_threads: 277) # no effect

The .s is a shortcut for .singleton.

Rufus::Scheduler.s.every '10s' { puts "hello, world!" }

advanced lock schemes

As seen above, rufus-scheduler proposes the :lockfile system out of the box. If in a group of schedulers only one is supposed to run, the lockfile mechanism prevents schedulers that have not set/created the lockfile from running.

There are situations where this is not sufficient.

By overriding #lock and #unlock, one can customize how schedulers lock.

This example was provided by Eric Lindvall:

class ZookeptScheduler < Rufus::Scheduler

  def initialize(zookeeper, opts={})
    @zk = zookeeper
    super(opts)
  end

  def lock
    @zk_locker = @zk.exclusive_locker('scheduler')
    @zk_locker.lock # returns true if the lock was acquired, false else
  end

  def unlock
    @zk_locker.unlock
  end

  def confirm_lock
    return false if down?
    @zk_locker.assert!
  rescue ZK::Exceptions::LockAssertionFailedError => e
    # we've lost the lock, shutdown (and return false to at least prevent
    # this job from triggering
    shutdown
    false
  end
end

This uses a zookeeper to make sure only one scheduler in a group of distributed schedulers runs.

The methods #lock and #unlock are overridden and #confirm_lock is provided, to make sure that the lock is still valid.

The #confirm_lock method is called right before a job triggers (if it is provided). The more generic callback #on_pre_trigger is called right after #confirm_lock.

:scheduler_lock and :trigger_lock

(introduced in rufus-scheduler 3.0.9).

Another way of prodiving #lock, #unlock and #confirm_lock to a rufus-scheduler is by using the :scheduler_lock and :trigger_lock options.

See :trigger_lock and :scheduler_lock.

The scheduler lock may be used to prevent a scheduler from starting, while a trigger lock prevents individual jobs from triggering (the scheduler goes on scheduling).

One has to be careful with what goes in #confirm_lock or in a trigger lock, as it gets called before each trigger.

Warning: you may think you're heading towards "high availability" by using a trigger lock and having lots of schedulers at hand. It may be so if you limit yourself to scheduling the same set of jobs at scheduler startup. But if you add schedules at runtime, they stay local to their scheduler. There is no magic that propagates the jobs to all the schedulers in your pack.

parsing cronlines and time strings

(Please note that fugit does the heavy-lifting parsing work for rufus-scheduler).

Rufus::Scheduler provides a class method .parse to parse time durations and cron strings. It's what it's using when receiving schedules. One can use it directly (no need to instantiate a Scheduler).

require 'rufus-scheduler'

Rufus::Scheduler.parse('1w2d')
  # => 777600.0
Rufus::Scheduler.parse('1.0w1.0d')
  # => 777600.0

Rufus::Scheduler.parse('Sun Nov 18 16:01:00 2012').strftime('%c')
  # => 'Sun Nov 18 16:01:00 2012'

Rufus::Scheduler.parse('Sun Nov 18 16:01:00 2012 Europe/Berlin').strftime('%c %z')
  # => 'Sun Nov 18 15:01:00 2012 +0000'

Rufus::Scheduler.parse(0.1)
  # => 0.1

Rufus::Scheduler.parse('* * * * *')
  # => #<Fugit::Cron:0x00007fb7a3045508
  #      @original="* * * * *", @cron_s=nil,
  #      @seconds=[0], @minutes=nil, @hours=nil, @monthdays=nil, @months=nil,
  #      @weekdays=nil, @zone=nil, @timezone=nil>

It returns a number when the input is a duration and a Fugit::Cron instance when the input is a cron string.

It will raise an ArgumentError if it can't parse the input.

Beyond .parse, there are also .parse_cron and .parse_duration, for finer granularity.

There is an interesting helper method named .to_duration_hash:

require 'rufus-scheduler'

Rufus::Scheduler.to_duration_hash(60)
  # => { :m => 1 }
Rufus::Scheduler.to_duration_hash(62.127)
  # => { :m => 1, :s => 2, :ms => 127 }

Rufus::Scheduler.to_duration_hash(62.127, drop_seconds: true)
  # => { :m => 1 }

cronline notations specific to rufus-scheduler

first Monday, last Sunday et al

To schedule something at noon every first Monday of the month:

scheduler.cron('00 12 * * mon#1') do
  # ...
end

To schedule something at noon the last Sunday of every month:

scheduler.cron('00 12 * * sun#-1') do
  # ...
end
#
# OR
#
scheduler.cron('00 12 * * sun#L') do
  # ...
end

Such cronlines can be tested with scripts like:

require 'rufus-scheduler'

Time.now
  # => 2013-10-26 07:07:08 +0900
Rufus::Scheduler.parse('* * * * mon#1').next_time.to_s
  # => 2013-11-04 00:00:00 +0900

L (last day of month)

L can be used in the "day" slot:

In this example, the cronline is supposed to trigger every last day of the month at noon:

require 'rufus-scheduler'
Time.now
  # => 2013-10-26 07:22:09 +0900
Rufus::Scheduler.parse('00 12 L * *').next_time.to_s
  # => 2013-10-31 12:00:00 +0900

negative day (x days before the end of the month)

It's OK to pass negative values in the "day" slot:

scheduler.cron '0 0 -5 * *' do
  # do it at 00h00 5 days before the end of the month...
end

Negative ranges (-10--5-: 10 days before the end of the month to 5 days before the end of the month) are OK, but mixed positive / negative ranges will raise an ArgumentError.

Negative ranges with increments (-10---2/2) are accepted as well.

Descending day ranges are not accepted (10-8 or -8--10 for example).

a note about timezones

Cron schedules and at schedules support the specification of a timezone.

scheduler.cron '0 22 * * 1-5 America/Chicago' do
  # the job...
end

scheduler.at '2013-12-12 14:00 Pacific/Samoa' do
  puts "it's tea time!"
end

# or even

Rufus::Scheduler.parse("2013-12-12 14:00 Pacific/Saipan")
  # => #<Rufus::Scheduler::ZoTime:0x007fb424abf4e8 @seconds=1386820800.0, @zone=#<TZInfo::DataTimezone: Pacific/Saipan>, @time=nil>

I get "zotime.rb:41:in `initialize': cannot determine timezone from nil"

For when you see an error like:

rufus-scheduler/lib/rufus/scheduler/zotime.rb:41:
  in `initialize':
    cannot determine timezone from nil (etz:nil,tnz:"中国标准时间",tzid:nil)
      (ArgumentError)
    from rufus-scheduler/lib/rufus/scheduler/zotime.rb:198:in `new'
    from rufus-scheduler/lib/rufus/scheduler/zotime.rb:198:in `now'
    from rufus-scheduler/lib/rufus/scheduler.rb:561:in `start'
    ...

It may happen on Windows or on systems that poorly hint to Ruby which timezone to use. It should be solved by setting explicitly the ENV['TZ'] before the scheduler instantiation:

ENV['TZ'] = 'Asia/Shanghai'
scheduler = Rufus::Scheduler.new
scheduler.every '2s' do
  puts "#{Time.now} Hello #{ENV['TZ']}!"
end

On Rails you might want to try with:

ENV['TZ'] = Time.zone.name # Rails only
scheduler = Rufus::Scheduler.new
scheduler.every '2s' do
  puts "#{Time.now} Hello #{ENV['TZ']}!"
end

(Hat tip to Alexander in gh-230)

Rails sets its timezone under config/application.rb.

Rufus-Scheduler 3.3.3 detects the presence of Rails and uses its timezone setting (tested with Rails 4), so setting ENV['TZ'] should not be necessary.

The value can be determined thanks to https://en.wikipedia.org/wiki/List_of_tz_database_time_zones.

Use a "continent/city" identifier (for example "Asia/Shanghai"). Do not use an abbreviation (not "CST") and do not use a local time zone name (not "中国标准时间" nor "Eastern Standard Time" which, for instance, points to a time zone in America and to another one in Australia...).

If the error persists (and especially on Windows), try to add the tzinfo-data to your Gemfile, as in:

gem 'tzinfo-data'

or by manually requiring it before requiring rufus-scheduler (if you don't use Bundler):

require 'tzinfo/data'
require 'rufus-scheduler'

so Rails?

Yes, I know, all of the above is boring and you're only looking for a snippet to paste in your Ruby-on-Rails application to schedule...

Here is an example initializer:

#
# config/initializers/scheduler.rb

require 'rufus-scheduler'

# Let's use the rufus-scheduler singleton
#
s = Rufus::Scheduler.singleton


# Stupid recurrent task...
#
s.every '1m' do

  Rails.logger.info "hello, it's #{Time.now}"
  Rails.logger.flush
end

And now you tell me that this is good, but you want to schedule stuff from your controller.

Maybe:

class ScheController < ApplicationController

  # GET /sche/
  #
  def index

    job_id =
      Rufus::Scheduler.singleton.in '5s' do
        Rails.logger.info "time flies, it's now #{Time.now}"
      end

    render text: "scheduled job #{job_id}"
  end
end

The rufus-scheduler singleton is instantiated in the config/initializers/scheduler.rb file, it's then available throughout the webapp via Rufus::Scheduler.singleton.

Warning: this works well with single-process Ruby servers like Webrick and Thin. Using rufus-scheduler with Passenger or Unicorn requires a bit more knowledge and tuning, gently provided by a bit of googling and reading, see Faq above.

avoid scheduling when running the Ruby on Rails console

(Written in reply to gh-186)

If you don't want rufus-scheduler to trigger anything while running the Ruby on Rails console, running for tests/specs, or running from a Rake task, you can insert a conditional return statement before jobs are added to the scheduler instance:

#
# config/initializers/scheduler.rb

require 'rufus-scheduler'

return if defined?(Rails::Console) || Rails.env.test? || File.split($PROGRAM_NAME).last == 'rake'
  #
  # do not schedule when Rails is run from its console, for a test/spec, or
  # from a Rake task

# return if $PROGRAM_NAME.include?('spring')
  #
  # see https://github.com/jmettraux/rufus-scheduler/issues/186

s = Rufus::Scheduler.singleton

s.every '1m' do
  Rails.logger.info "hello, it's #{Time.now}"
  Rails.logger.flush
end

(Beware later version of Rails where Spring takes care pre-running the initializers. Running spring stop or disabling Spring might be necessary in some cases to see changes to initializers being taken into account.)

rails server -d

(Written in reply to https://github.com/jmettraux/rufus-scheduler/issues/165 )

There is the handy rails server -d that starts a development Rails as a daemon. The annoying thing is that the scheduler as seen above is started in the main process that then gets forked and daemonized. The rufus-scheduler thread (and any other thread) gets lost, no scheduling happens.

I avoid running -d in development mode and bother about daemonizing only for production deployment.

These are two well crafted articles on process daemonization, please read them:

If, anyway, you need something like rails server -d, why not try bundle exec unicorn -D instead? In my (limited) experience, it worked out of the box (well, had to add gem 'unicorn' to Gemfile first).

executor / reloader

You might benefit from wraping your scheduled code in the executor or reloader. Read more here: https://guides.rubyonrails.org/threading_and_code_execution.html

support

see getting help above.


Author: jmettraux
Source code: https://github.com/jmettraux/rufus-scheduler
License: MIT license

#ruby 

Reid  Rohan

Reid Rohan

1667128860

Cal.com: Scheduling infrastructure for Absolutely Everyone

Cal.com

Cal.com (formerly Calendso)

The open-source Calendly alternative.
Learn more »

About The Project

booking-screen

Scheduling infrastructure for absolutely everyone

The open source Calendly alternative. You are in charge of your own data, workflow and appearance.

Calendly and other scheduling tools are awesome. It made our lives massively easier. We're using it for business meetings, seminars, yoga classes and even calls with our families. However, most tools are very limited in terms of control and customisations.

That's where Cal.com comes in. Self-hosted or hosted by us. White-label by design. API-driven and ready to be deployed on your own domain. Full control of your events and data.

Product of the Month: April 2021

Built With

Stay Up-to-Date

Cal officially launched as v.1.0 on 15th of September, however a lot of new features are coming. Watch releases of this repository to be notified for future updates:

cal-star-github

Getting Started

To get a local copy up and running, please follow these simple steps.

Prerequisites

Here is what you need to be able to run Cal.

  • Node.js (Version: >=15.x <17)
  • PostgreSQL
  • Yarn (recommended)

If you want to enable any of the available integrations, you may want to obtain additional credentials for each one. More details on this can be found below under the integrations section.

Development

Setup

Clone the repo into a public GitHub repository (or fork https://github.com/calcom/cal.com/fork). If you plan to distribute the code, keep the source code public to comply with AGPLv3. To clone in a private repository, acquire a commercial license)

git clone https://github.com/calcom/cal.com.git

Go to the project folder

cd cal.com

Install packages with yarn

yarn

Set up your .env file

  • Duplicate .env.example to .env
  • Use openssl rand -base64 32 to generate a key and add it under NEXTAUTH_SECRET in the .env file.
  • Use openssl rand -base64 24 to generate a key and add it under CALENDSO_ENCRYPTION_KEY in the .env file.

Quick start with yarn dx

  • Requires Docker and Docker Compose to be installed
  • Will start a local Postgres instance with a few test users - the credentials will be logged in the console
yarn dx

Development tip

Add NEXT_PUBLIC_DEBUG=1 anywhere in your .env to get logging information for all the queries and mutations driven by trpc.

echo 'NEXT_PUBLIC_DEBUG=1' >> .env

Manual setup

Configure environment variables in the .env file. Replace <user>, <pass>, <db-host>, <db-port> with their applicable values

DATABASE_URL='postgresql://<user>:<pass>@<db-host>:<db-port>'

If you don't know how to configure the DATABASE_URL, then follow the steps here to create a quick DB using Heroku

Create a free account with Heroku.

Create a new app. Create an App

In your new app, go to Overview and next to Installed add-ons, click Configure Add-ons. We need this to set up our database. image

Once you clicked on Configure Add-ons, click on Find more add-ons and search for postgres. One of the options will be Heroku Postgres - click on that option. image

Once the pop-up appears, click Submit Order Form - plan name should be Hobby Dev - Free. Submit Order Form

Once you completed the above steps, click on your newly created Heroku Postgres and go to its Settings. image

In Settings, copy your URI to your Cal.com .env file and replace the postgresql://<user>:<pass>@<db-host>:<db-port> with it. image image

To view your DB, once you add new data in Prisma, you can use Heroku Data Explorer.

Set a 32 character random string in your .env file for the CALENDSO_ENCRYPTION_KEY (You can use a command like openssl rand -base64 24 to generate one).

Set up the database using the Prisma schema (found in packages/prisma/schema.prisma)

yarn workspace @calcom/prisma db-deploy

Run (in development mode)

yarn dev

Setting up your first user

Open Prisma Studio to look at or modify the database content:

yarn db-studio

Click on the User model to add a new user record.

Fill out the fields email, username, password, and set metadata to empty {} (remembering to encrypt your password with BCrypt) and click Save 1 Record to create your first user.

New users are set on a TRIAL plan by default. You might want to adjust this behavior to your needs in the packages/prisma/schema.prisma file.

Open a browser to http://localhost:3000 and login with your just created, first user.

E2E-Testing

Be sure to set the environment variable NEXTAUTH_URL to the correct value. If you are running locally, as the documentation within .env.example mentions, the value should be http://localhost:3000.

# In a terminal just run:
yarn test-e2e

# To open last HTML report run:
yarn playwright show-report test-results/reports/playwright-html-report

Upgrading from earlier versions

Pull the current version:

git pull

Check if dependencies got added/updated/removed

yarn

Apply database migrations by running one of the following commands:

In a development environment, run:

yarn workspace @calcom/prisma db-migrate

(this can clear your development database in some cases)

In a production environment, run:

yarn workspace @calcom/prisma db-deploy

Check for .env variables changes

yarn predev

Start the server. In a development environment, just do:

yarn dev

For a production build, run for example:

yarn build
yarn start

Enjoy the new version.

Deployment

Docker

The Docker configuration for Cal is an effort powered by people within the community.

If you want to contribute to the Docker repository, reply here.

The Docker configuration can be found in our docker repository.

Issues with Docker? Find your answer or open a new discussion here to ask the community.

Cal.com, Inc. does not provide official support for Docker, but we will accept fixes and documentation. Use at your own risk.

Heroku

Deploy

Railway

Deploy on Railway

You can deploy Cal on Railway using the button above. The team at Railway also have a detailed blog post on deploying Cal on their platform.

Vercel

Currently Vercel Pro Plan is required to be able to Deploy this application with Vercel, due to limitations on the number of serverless functions on the free plan.

Deploy with Vercel

Roadmap

Cal.com Roadmap

See the roadmap project for a list of proposed features (and known issues). You can change the view to see planned tagged releases.

Contributing

Please see our contributing guide.

Good First Issues

We have a list of help wanted that contain small features and bugs which have a relatively limited scope. This is a great place to get started, gain experience, and get familiar with our contribution process.

Integrations

Obtaining the Google API Credentials

  1. Open Google API Console. If you don't have a project in your Google Cloud subscription, you'll need to create one before proceeding further. Under Dashboard pane, select Enable APIS and Services.
  2. In the search box, type calendar and select the Google Calendar API search result.
  3. Enable the selected API.
  4. Next, go to the OAuth consent screen from the side pane. Select the app type (Internal or External) and enter the basic app details on the first page.
  5. In the second page on Scopes, select Add or Remove Scopes. Search for Calendar.event and select the scope with scope value .../auth/calendar.events, .../auth/calendar.readonly and select Update.
  6. In the third page (Test Users), add the Google account(s) you'll using. Make sure the details are correct on the last page of the wizard and your consent screen will be configured.
  7. Now select Credentials from the side pane and then select Create Credentials. Select the OAuth Client ID option.
  8. Select Web Application as the Application Type.
  9. Under Authorized redirect URI's, select Add URI and then add the URI <Cal.com URL>/api/integrations/googlecalendar/callback and <Cal.com URL>/api/auth/callback/google replacing Cal.com URL with the URI at which your application runs.
  10. The key will be created and you will be redirected back to the Credentials page. Select the newly generated client ID under OAuth 2.0 Client IDs.
  11. Select Download JSON. Copy the contents of this file and paste the entire JSON string in the .env file as the value for GOOGLE_API_CREDENTIALS key.

Adding google calendar to Cal.com App Store

After adding Google credentials, you can now Google Calendar App to the app store. You can repopulate the App store by running

cd packages/prisma
yarn seed-app-store

You will need to complete a few more steps to activate Google Calendar App. Make sure to complete section "Obtaining the Google API Credentials". After the do the following

  1. Add extra redirect URL <Cal.com URL>/api/auth/callback/google
  2. Under 'OAuth concent screen', click "PUBLISH APP"

Obtaining Microsoft Graph Client ID and Secret

  1. Open Azure App Registration and select New registration
  2. Name your application
  3. Set Who can use this application or access this API? to Accounts in any organizational directory (Any Azure AD directory - Multitenant)
  4. Set the Web redirect URI to <Cal.com URL>/api/integrations/office365calendar/callback replacing Cal.com URL with the URI at which your application runs.
  5. Use Application (client) ID as the MS_GRAPH_CLIENT_ID attribute value in .env
  6. Click Certificates & secrets create a new client secret and use the value as the MS_GRAPH_CLIENT_SECRET attribute

Obtaining Slack Client ID and Secret and Signing Secret

To test this you will need to create a Slack app for yourself on their apps website.

Copy and paste the app manifest below into the setting on your slack app. Be sure to replace YOUR_DOMAIN with your own domain or your proxy host if you're testing locally.

App Manifest

Add the integration as normal - slack app - add. Follow the oauth flow to add it to a server.

Next make sure you have your app running yarn dx. Then in the slack chat type one of these commands: /create-event or /today

NOTE: Next you will need to setup a proxy server like ngrok to allow your local host machine to be hosted on a public https server.

Obtaining Zoom Client ID and Secret

  1. Open Zoom Marketplace and sign in with your Zoom account.
  2. On the upper right, click "Develop" => "Build App".
  3. On "OAuth", select "Create".
  4. Name your App.
  5. Choose "User-managed app" as the app type.
  6. De-select the option to publish the app on the Zoom App Marketplace.
  7. Click "Create".
  8. Now copy the Client ID and Client Secret to your .env file into the ZOOM_CLIENT_ID and ZOOM_CLIENT_SECRET fields.
  9. Set the Redirect URL for OAuth <Cal.com URL>/api/integrations/zoomvideo/callback replacing Cal.com URL with the URI at which your application runs.
  10. Also add the redirect URL given above as a allow list URL and enable "Subdomain check". Make sure, it says "saved" below the form.
  11. You don't need to provide basic information about your app. Instead click at "Scopes" and then at "+ Add Scopes". On the left, click the category "Meeting" and check the scope meeting:write.
  12. Click "Done".
  13. You're good to go. Now you can easily add your Zoom integration in the Cal.com settings.

Obtaining Daily API Credentials

  1. Open Daily and sign into your account.
  2. From within your dashboard, go to the developers tab.
  3. Copy your API key.
  4. Now paste the API key to your .env file into the DAILY_API_KEY field in your .env file.
  5. If you have the Daily Scale Plan set the DAILY_SCALE_PLAN variable to true in order to use features like video recording.

Obtaining HubSpot Client ID and Secret

  1. Open HubSpot Developer and sign into your account, or create a new one.
  2. From within the home of the Developer account page, go to "Manage apps".
  3. Click "Create app" button top right.
  4. Fill in any information you want in the "App info" tab
  5. Go to tab "Auth"
  6. Now copy the Client ID and Client Secret to your .env file into the HUBSPOT_CLIENT_ID and HUBSPOT_CLIENT_SECRET fields.
  7. Set the Redirect URL for OAuth <Cal.com URL>/api/integrations/hubspotothercalendar/callback replacing Cal.com URL with the URI at which your application runs.
  8. In the "Scopes" section at the bottom of the page, make sure you select "Read" and "Write" for scope called crm.objects.contacts
  9. Click the "Save" button at the bottom footer.
  10. You're good to go. Now you can see any booking in Cal.com created as a meeting in HubSpot for your contacts.

Obtaining Vital API Keys

  1. Open Vital and click Get API Keys.
  2. Create a team with the team name you desire
  3. Head to the configuration section on the sidebar of the dashboard
  4. Click on API keys and you'll find your sandbox api_key.
  5. Copy your api_key to VITAL_API_KEY in the .env.appStore file.
  6. Open Vital Webhooks and add <CALCOM BASE URL>/api/integrations/vital/webhook as webhook for connected applications.
  7. Select all events for the webhook you interested, e.g. sleep_created
  8. Copy the webhook secret (sec...) to VITAL_WEBHOOK_SECRET in the .env.appStore file.

Workflows

Setting up SendGrid for Email reminders

  1. Create a SendGrid account (https://signup.sendgrid.com/)
  2. Go to Settings -> API keys and create an API key
  3. Copy API key to your .env file into the SENDGRID_API_KEY field
  4. Go to Settings -> Sender Authentication and verify a single sender
  5. Copy the verified E-Mail to your .env file into the SENDGRID_EMAIL field

Setting up Twilio for SMS reminders

  1. Create a Twilio account (https://www.twilio.com/try-twilio)
  2. Click ‘Get a Twilio phone number’
  3. Copy Account SID to your .env file into the TWILIO_SID field
  4. Copy Auth Token to your .env file into the TWILIO_TOKEN field
  5. Create a messaging service (Develop -> Messaging -> Services)
  6. Choose any name for the messaging service
  7. Click 'Add Senders'
  8. Choose phone number as sender type
  9. Add the listed phone number
  10. Leave all other fields as they are
  11. Complete setup and click ‘View my new Messaging Service’
  12. Copy Messaging Service SID to your .env file into the TWILIO_MESSAGING_SID field

Acknowledgements

Special thanks to these amazing projects which help power Cal.com:

Jitsu.com

Cal.com is an open startup and Jitsu (an open-source Segment alternative) helps us to track most of the usage metrics.

Download Details:

Author: Calcom
Source Code: https://github.com/calcom/cal.com 
License: View license

#typescript #opensource #nextjs #postgresql 

Cal.com: Scheduling Infrastructure for Absolutely Everyone

Scheduling infrastructure for absolutely everyone

The open source Calendly alternative. You are in charge of your own data, workflow and appearance.

Calendly and other scheduling tools are awesome. It made our lives massively easier. We're using it for business meetings, seminars, yoga classes and even calls with our families. However, most tools are very limited in terms of control and customisations.

That's where Cal.com comes in. Self-hosted or hosted by us. White-label by design. API-driven and ready to be deployed on your own domain. Full control of your events and data.

About The Project

booking-screen

Stay Up-to-Date

Cal officially launched as v.1.0 on 15th of September, however a lot of new features are coming. Watch releases of this repository to be notified for future updates:

cal-star-github

Getting Started

To get a local copy up and running, please follow these simple steps.

Prerequisites

Here is what you need to be able to run Cal.

  • Node.js (Version: >=14.x <17)
  • PostgreSQL
  • Yarn (recommended)

If you want to enable any of the available integrations, you may want to obtain additional credentials for each one. More details on this can be found below under the integrations section.

Development

Setup

  1. Clone the repo into a public GitHub repository (or fork https://github.com/calcom/cal.com/fork). If you plan to distribute the code, keep the source code public to comply with AGPLv3. To clone in a private repository, acquire a commercial license)
git clone https://github.com/calcom/cal.com.git

2.   Go to the project folder

cd cal.com

3.   Install packages with yarn

yarn

4.   Use openssl rand -base64 32 to generate a key and add it under NEXTAUTH_SECRET in the .env file.

Quick start with yarn dx

  • Requires Docker and Docker Compose to be installed
  • Will start a local Postgres instance with a few test users - the credentials will be logged in the console
yarn dx

Development tip

Add NEXT_PUBLIC_DEBUG=1 anywhere in your .env to get logging information for all the queries and mutations driven by trpc.

echo 'NEXT_PUBLIC_DEBUG=1' >> .env

Manual setup

  1. Configure environment variables in the packages/prisma/.env file. Replace <user>, <pass>, <db-host>, <db-port> with their applicable values
DATABASE_URL='postgresql://<user>:<pass>@<db-host>:<db-port>'

2.   If you don't know how to configure the DATABASE_URL, then follow the steps here to create a quick DB using Heroku

Set a 32 character random string in your .env file for the CALENDSO_ENCRYPTION_KEY (You can use a command like openssl rand -base64 24 to generate one).

3.   Set up the database using the Prisma schema (found in packages/prisma/schema.prisma)

yarn workspace @calcom/prisma db-deploy

4.   Run (in development mode)

yarn dev

Setting up your first user

  1. Open Prisma Studio to look at or modify the database content:
yarn db-studio

2.   Click on the User model to add a new user record.

3.   Fill out the fields email, username, password, and set metadata to empty {} (remembering to encrypt your password with BCrypt) and click Save 1 Record to create your first user.

New users are set on a TRIAL plan by default. You might want to adjust this behavior to your needs in the packages/prisma/schema.prisma file.

4.   Open a browser to http://localhost:3000 and login with your just created, first user.

E2E-Testing

Be sure to set the environment variable NEXTAUTH_URL to the correct value. If you are running locally, as the documentation within .env.example mentions, the value should be http://localhost:3000.

# In a terminal just run:
yarn test-e2e

# To open last HTML report run:
yarn workspace @calcom/web playwright-report

Upgrading from earlier versions

  1. Pull the current version:
git pull

2.   Check if dependencies got added/updated/removed

yarn

3.   Apply database migrations by running one of the following commands:

In a development environment, run:

yarn workspace @calcom/prisma db-migrate

(this can clear your development database in some cases)

In a production environment, run:

yarn workspace @calcom/prisma db-deploy

4.   Check for .env variables changes

yarn predev

5.   Start the server. In a development environment, just do:

yarn dev

6.   For a production build, run for example:

yarn build
yarn start

Enjoy the new version.

Deployment

Docker

The Docker configuration for Cal is an effort powered by people within the community. Cal.com, Inc. does not provide official support for Docker, but we will accept fixes and documentation. Use at your own risk.

If you want to contribute to the Docker repository, reply here.

The Docker configuration can be found in our docker repository.

Heroku

Deploy

Railway

Deploy on Railway

You can deploy Cal on Railway using the button above. The team at Railway also have a detailed blog post on deploying Cal on their platform.

Vercel

Deploy with Vercel

Roadmap

Cal.com Roadmap

See the roadmap project for a list of proposed features (and known issues). You can change the view to see planned tagged releases.

Contributing

Please see our contributing guide.

Good First Issues

We have a list of good first issues that contain bugs which have a relatively limited scope. This is a great place to get started, gain experience, and get familiar with our contribution process.

Integrations

Obtaining the Google API Credentials

  1. Open Google API Console. If you don't have a project in your Google Cloud subscription, you'll need to create one before proceeding further. Under Dashboard pane, select Enable APIS and Services.
  2. In the search box, type calendar and select the Google Calendar API search result.
  3. Enable the selected API.
  4. Next, go to the OAuth consent screen from the side pane. Select the app type (Internal or External) and enter the basic app details on the first page.
  5. In the second page on Scopes, select Add or Remove Scopes. Search for Calendar.event and select the scope with scope value .../auth/calendar.events, .../auth/calendar.readonly and select Update.
  6. In the third page (Test Users), add the Google account(s) you'll using. Make sure the details are correct on the last page of the wizard and your consent screen will be configured.
  7. Now select Credentials from the side pane and then select Create Credentials. Select the OAuth Client ID option.
  8. Select Web Application as the Application Type.
  9. Under Authorized redirect URI's, select Add URI and then add the URI <Cal.com URL>/api/integrations/googlecalendar/callback replacing Cal.com URL with the URI at which your application runs.
  10. The key will be created and you will be redirected back to the Credentials page. Select the newly generated client ID under OAuth 2.0 Client IDs.
  11. Select Download JSON. Copy the contents of this file and paste the entire JSON string in the .env file as the value for GOOGLE_API_CREDENTIALS key.

Obtaining Microsoft Graph Client ID and Secret

  1. Open Azure App Registration and select New registration
  2. Name your application
  3. Set Who can use this application or access this API? to Accounts in any organizational directory (Any Azure AD directory - Multitenant)
  4. Set the Web redirect URI to <Cal.com URL>/api/integrations/office365calendar/callback replacing Cal.com URL with the URI at which your application runs.
  5. Use Application (client) ID as the MS_GRAPH_CLIENT_ID attribute value in .env
  6. Click Certificates & secrets create a new client secret and use the value as the MS_GRAPH_CLIENT_SECRET attribute

Obtaining Slack Client ID and Secret and Signing Secret

To test this you will need to create a Slack app for yourself on their apps website.

Copy and paste the app manifest below into the setting on your slack app. Be sure to replace YOUR_DOMAIN with your own domain or your proxy host if you're testing locally.

App Manifest

Add the integration as normal - slack app - add. Follow the oauth flow to add it to a server.

Next make sure you have your app running yarn dx. Then in the slack chat type one of these commands: /create-event or /today

NOTE: Next you will need to setup a proxy server like ngrok to allow your local host machine to be hosted on a public https server.

Obtaining Zoom Client ID and Secret

  1. Open Zoom Marketplace and sign in with your Zoom account.
  2. On the upper right, click "Develop" => "Build App".
  3. On "OAuth", select "Create".
  4. Name your App.
  5. Choose "User-managed app" as the app type.
  6. De-select the option to publish the app on the Zoom App Marketplace.
  7. Click "Create".
  8. Now copy the Client ID and Client Secret to your .env file into the ZOOM_CLIENT_ID and ZOOM_CLIENT_SECRET fields.
  9. Set the Redirect URL for OAuth <Cal.com URL>/api/integrations/zoomvideo/callback replacing Cal.com URL with the URI at which your application runs.
  10. Also add the redirect URL given above as a allow list URL and enable "Subdomain check". Make sure, it says "saved" below the form.
  11. You don't need to provide basic information about your app. Instead click at "Scopes" and then at "+ Add Scopes". On the left, click the category "Meeting" and check the scope meeting:write.
  12. Click "Done".
  13. You're good to go. Now you can easily add your Zoom integration in the Cal.com settings.

Obtaining Daily API Credentials

  1. Open Daily and sign into your account.
  2. From within your dashboard, go to the developers tab.
  3. Copy your API key.
  4. Now paste the API key to your .env file into the DAILY_API_KEY field in your .env file.
  5. If you have the Daily Scale Plan set the DAILY_SCALE_PLAN variable to true in order to use features like video recording.

Obtaining HubSpot Client ID and Secret

  1. Open HubSpot Developer and sign into your account, or create a new one.
  2. From within the home of the Developer account page, go to "Manage apps".
  3. Click "Create app" button top right.
  4. Fill in any information you want in the "App info" tab
  5. Go to tab "Auth"
  6. Now copy the Client ID and Client Secret to your .env file into the HUBSPOT_CLIENT_ID and HUBSPOT_CLIENT_SECRET fields.
  7. Set the Redirect URL for OAuth <Cal.com URL>/api/integrations/hubspotothercalendar/callback replacing Cal.com URL with the URI at which your application runs.
  8. In the "Scopes" section at the bottom of the page, make sure you select "Read" and "Write" for scope called crm.objects.contacts
  9. Click the "Save" button at the bottom footer.
  10. You're good to go. Now you can see any booking in Cal.com created as a meeting in HubSpot for your contacts.

Obtaining Vital API Keys

  1. Open Vital and click Get API Keys.
  2. Create a team with the team name you desire
  3. Head to the configuration section on the sidebar of the dashboard
  4. Click on API keys and you'll find your sandbox api_key.
  5. Copy your api_key to VITAL_API_KEY in the .env.appStore file.
  6. Open Vital Webhooks and add <CALCOM BASE URL>/api/integrations/vital/webhook as webhook for connected applications.
  7. Select all events for the webhook you interested, e.g. sleep_created
  8. Copy the webhook secret (sec...) to VITAL_WEBHOOK_SECRET in the .env.appStore file.

Workflows

Setting up SendGrid for Email reminders

  1. Create a SendGrid account (https://signup.sendgrid.com/)
  2. Go to Settings -> API keys and create an API key
  3. Copy API key to your .env file into the SENDGRID_API_KEY field
  4. Go to Settings -> Sender Authentication and verify a single sender
  5. Copy the verified E-Mail to your .env file into the SENDGRID_EMAIL field

Setting up Twilio for SMS reminders

  1. Create a Twilio account (https://www.twilio.com/try-twilio)
  2. Click ‘Get a Twilio phone number’
  3. Copy Account SID to your .env file into the TWILIO_SID field
  4. Copy Auth Token to your .env file into the TWILIO_TOKEN field
  5. Create a messaging service (Develop -> Messaging -> Services)
  6. Choose any name for the messaging service
  7. Click 'Add Senders'
  8. Choose phone number as sender type
  9. Add the listed phone number
  10. Leave all other fields as they are
  11. Complete setup and click ‘View my new Messaging Service’
  12. Copy Messaging Service SID to your .env file into the TWILIO_MESSAGING_SID field

Download details:
Author: calcom
Source code: https://github.com/calcom/cal.com
License: View license

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