1666255812
Vega-Lite is an implementation of the grammar-of-graphics, rendered in the browser with interactivity.
The goal of vegawidget is to render Vega-Lite and Vega specifications as htmlwidgets, and to help you communicate with a Vega chart using JavaScript or Shiny. Its ambition is to be a low-level interface to the Vega(-Lite) API, so that other packages can build upon it.
Accordingly, this package may be useful to:
vegawidget now supports the last two Vega-Lite major-versions, currently versions 5 and 4.
However, for a given R session (e.g. rendering of an RMarkdown file), the vegawidget()
function can use only one major-version; this version is determined using the $schema
element of the first vegaspec
evaluated using vegawidget()
.
This restriction does not apply to the image functions, e.g. vw_to_svg()
, or to the compilation function, vw_to_vega()
.
use vega_version_all()
to see the available versions:
library("vegawidget")
vega_version_all()
#> widget vega_lite vega vega_embed
#> 1 vl5 5.5.0 5.22.0 6.20.8
#> 2 vl4 4.17.0 5.17.0 6.12.2
You can install vegawidget from CRAN with:
install.packages("vegawidget")
The development version of vegawidget is available from GitHub with:
# install.packages("devtools")
devtools::install_github("vegawidget/vegawidget")
Note: There are documentation websites for both the CRAN version and the development version of this package.
Vega(-Lite) specifications are just text, formatted as JSON. However, in R, we can use lists to build specifications:
library("vegawidget")
spec_mtcars <-
list(
`$schema` = vega_schema(), # specifies Vega-Lite
description = "An mtcars example.",
data = list(values = mtcars),
mark = "point",
encoding = list(
x = list(field = "wt", type = "quantitative"),
y = list(field = "mpg", type = "quantitative"),
color = list(field = "cyl", type = "nominal")
)
) %>%
as_vegaspec()
The as_vegaspec()
function is used to turn the list into a vegaspec; many of this package’s functions are built to support, and render, vegaspecs:
spec_mtcars
The rendering of the chart above depends on where you are reading it:
On this package’s pkgdown site, it is rendered as part of an HTML environment, showing its full capabilities.
At its GitHub code site, the chart is further rendered to a static SVG file, then incorporated into the Markdown rendering.
A learnr tutorial is available: learnr::run_tutorial("overview", package = "vegawidget")
.
For more, please see our Getting Started article. Additionally, the Vega-Lite website has a comprehensive introduction.
Other articles for this package:
Contributions are welcome, please see this guide. Please note that this project is released with a Contributor Code of Conduct. By participating in this project you agree to abide by its terms.
Author: Vegawidget
Source Code: https://github.com/vegawidget/vegawidget
License: View license
1659694200
public_activity
provides easy activity tracking for your ActiveRecord, Mongoid 3 and MongoMapper models in Rails 3 and 4.
Simply put: it can record what happens in your application and gives you the ability to present those recorded activities to users - in a similar way to how GitHub does it.
You probably don't want to read the docs for this unreleased version 2.0.
For the stable 1.5.X
readme see: https://github.com/chaps-io/public_activity/blob/1-5-stable/README.md
Here is a simple example showing what this gem is about:
Ryan Bates made a great screencast describing how to integrate Public Activity.
A great step-by-step guide on implementing activity feeds using public_activity by Ilya Bodrov.
You can see an actual application using this gem here: http://public-activity-example.herokuapp.com/feed
The source code of the demo is hosted here: https://github.com/pokonski/activity_blog
You can install public_activity
as you would any other gem:
gem install public_activity
or in your Gemfile:
gem 'public_activity'
By default public_activity
uses Active Record. If you want to use Mongoid or MongoMapper as your backend, create an initializer file in your Rails application with the corresponding code inside:
For Mongoid:
# config/initializers/public_activity.rb
PublicActivity.configure do |config|
config.orm = :mongoid
end
For MongoMapper:
# config/initializers/public_activity.rb
PublicActivity.configure do |config|
config.orm = :mongo_mapper
end
(ActiveRecord only) Create migration for activities and migrate the database (in your Rails project):
rails g public_activity:migration
rake db:migrate
Include PublicActivity::Model
and add tracked
to the model you want to keep track of:
For ActiveRecord:
class Article < ActiveRecord::Base
include PublicActivity::Model
tracked
end
For Mongoid:
class Article
include Mongoid::Document
include PublicActivity::Model
tracked
end
For MongoMapper:
class Article
include MongoMapper::Document
include PublicActivity::Model
tracked
end
And now, by default create/update/destroy activities are recorded in activities table. This is all you need to start recording activities for basic CRUD actions.
Optional: If you don't need #tracked
but still want the comfort of #create_activity
, you can include only the lightweight Common
module instead of Model
.
You can trigger custom activities by setting all your required parameters and triggering create_activity
on the tracked model, like this:
@article.create_activity key: 'article.commented_on', owner: current_user
See this entry http://rubydoc.info/gems/public_activity/PublicActivity/Common:create_activity for more details.
To display them you simply query the PublicActivity::Activity
model:
# notifications_controller.rb
def index
@activities = PublicActivity::Activity.all
end
And in your views:
<%= render_activities(@activities) %>
Note: render_activities
is an alias for render_activity
and does the same.
You can also pass options to both activity#render
and #render_activity
methods, which are passed deeper to the internally used render_partial
method. A useful example would be to render activities wrapped in layout, which shares common elements of an activity, like a timestamp, owner's avatar etc:
<%= render_activities(@activities, layout: :activity) %>
The activity will be wrapped with the app/views/layouts/_activity.html.erb
layout, in the above example.
Important: please note that layouts for activities are also partials. Hence the _
prefix.
Sometimes, it's desirable to pass additional local variables to partials. It can be done this way:
<%= render_activity(@activity, locals: {friends: current_user.friends}) %>
Note: Before 1.4.0, one could pass variables directly to the options hash for #render_activity
and access it from activity parameters. This functionality is retained in 1.4.0 and later, but the :locals
method is preferred, since it prevents bugs from shadowing variables from activity parameters in the database.
public_activity
looks for views in app/views/public_activity
.
For example, if you have an activity with :key
set to "activity.user.changed_avatar"
, the gem will look for a partial in app/views/public_activity/user/_changed_avatar.html.(|erb|haml|slim|something_else)
.
Hint: the "activity."
prefix in :key
is completely optional and kept for backwards compatibility, you can skip it in new projects.
If you would like to fallback to a partial, you can utilize the fallback
parameter to specify the path of a partial to use when one is missing:
<%= render_activity(@activity, fallback: 'default') %>
When used in this manner, if a partial with the specified :key
cannot be located it will use the partial defined in the fallback
instead. In the example above this would resolve to public_activity/_default.html.(|erb|haml|slim|something_else)
.
If a view file does not exist then ActionView::MisingTemplate will be raised. If you wish to fallback to the old behaviour and use an i18n based translation in this situation you can specify a :fallback
parameter of text
to fallback to this mechanism like such:
<%= render_activity(@activity, fallback: :text) %>
Translations are used by the #text
method, to which you can pass additional options in form of a hash. #render
method uses translations when view templates have not been provided. You can render pure i18n strings by passing {display: :i18n}
to #render_activity
or #render
.
Translations should be put in your locale .yml
files. To render pure strings from I18n Example structure:
activity:
article:
create: 'Article has been created'
update: 'Someone has edited the article'
destroy: 'Some user removed an article!'
This structure is valid for activities with keys "activity.article.create"
or "article.create"
. As mentioned before, "activity."
part of the key is optional.
For RSpec you can first disable public_activity
and add require helper methods in the rails_helper.rb
with:
#rails_helper.rb
require 'public_activity/testing'
PublicActivity.enabled = false
In your specs you can then blockwise decide whether to turn public_activity
on or off.
# file_spec.rb
PublicActivity.with_tracking do
# your test code goes here
end
PublicActivity.without_tracking do
# your test code goes here
end
For more documentation go here
You can set up a default value for :owner
by doing this:
PublicActivity::StoreController
in your ApplicationController
like this:class ApplicationController < ActionController::Base
include PublicActivity::StoreController
end
:owner
attribute for tracked
class method in your desired model. For example:class Article < ActiveRecord::Base
tracked owner: Proc.new{ |controller, model| controller.current_user }
end
Note: current_user
applies to Devise, if you are using a different authentication gem or your own code, change the current_user
to a method you use.
If you need to disable tracking temporarily, for example in tests or db/seeds.rb
then you can use PublicActivity.enabled=
attribute like below:
# Disable p_a globally
PublicActivity.enabled = false
# Perform some operations that would normally be tracked by p_a:
Article.create(title: 'New article')
# Switch it back on
PublicActivity.enabled = true
You can also disable public_activity for a specific class:
# Disable p_a for Article class
Article.public_activity_off
# p_a will not do anything here:
@article = Article.create(title: 'New article')
# But will be enabled for other classes:
# (creation of the comment will be recorded if you are tracking the Comment class)
@article.comments.create(body: 'some comment!')
# Enable it again for Article:
Article.public_activity_on
Besides standard, automatic activities created on CRUD actions on your model (deactivatable), you can post your own activities that can be triggered without modifying the tracked model. There are a few ways to do this, as PublicActivity gives three tiers of options to be set.
Because every activity needs a key (otherwise: NoKeyProvided
is raised), the shortest and minimal way to post an activity is:
@user.create_activity :mood_changed
# the key of the action will be user.mood_changed
@user.create_activity action: :mood_changed # this is exactly the same as above
Besides assigning your key (which is obvious from the code), it will take global options from User class (given in #tracked
method during class definition) and overwrite them with instance options (set on @user
by #activity
method). You can read more about options and how PublicActivity inherits them for you here.
Note the action parameter builds the key like this: "#{model_name}.#{action}"
. You can read further on options for #create_activity
here.
To provide more options, you can do:
@user.create_activity action: 'poke', parameters: {reason: 'bored'}, recipient: @friend, owner: current_user
In this example, we have provided all the things we could for a standard Activity.
Besides the few fields that every Activity has (key
, owner
, recipient
, trackable
, parameters
), you can also set custom fields. This could be very beneficial, as parameters
are a serialized hash, which cannot be queried easily from the database. That being said, use custom fields when you know that you will set them very often and search by them (don't forget database indexes :) ).
owner
and recipient
based on associationsclass Comment < ActiveRecord::Base
include PublicActivity::Model
tracked owner: :commenter, recipient: :commentee
belongs_to :commenter, :class_name => "User"
belongs_to :commentee, :class_name => "User"
end
class Post < ActiveRecord::Base
include PublicActivity::Model
tracked only: [:update], parameters: :tracked_values
def tracked_values
{}.tap do |hash|
hash[:tags] = tags if tags_changed?
end
end
end
Skip this step if you are using ActiveRecord in Rails 4 or Mongoid
The first step is similar in every ORM available (except mongoid):
PublicActivity::Activity.class_eval do
attr_accessible :custom_field
end
place this code under config/initializers/public_activity.rb
, you have to create it first.
To be able to assign to that field, we need to move it to the mass assignment sanitizer's whitelist.
If you're using ActiveRecord, you will also need to provide a migration to add the actual field to the Activity
. Taken from our tests:
class AddCustomFieldToActivities < ActiveRecord::Migration
def change
change_table :activities do |t|
t.string :custom_field
end
end
end
Assigning is done by the same methods that you use for normal parameters: #tracked
, #create_activity
. You can just pass the name of your custom variable and assign its value. Even better, you can pass it to #tracked
to tell us how to harvest your data for custom fields so we can do that for you.
class Article < ActiveRecord::Base
include PublicActivity::Model
tracked custom_field: proc {|controller, model| controller.some_helper }
end
If you need help with using public_activity please visit our discussion group and ask a question there:
https://groups.google.com/forum/?fromgroups#!forum/public-activity
Please do not ask general questions in the Github Issues.
Author: public-activity
Source code: https://github.com/public-activity/public_activity
License: MIT license
1585399948
AppClues Studio is a Top Mobile App Development Company in Las Vegas with over 700+ successful projects under its belt. Our aced mobile app developers have rich industry experience and in-depth technical app development expertise to build business-centric apps. We harness the latest tools and SDKs to build custom iOS & Android mobile applications for businesses of all sizes. Hire our developers on a full time or part-time basis to achieve sustainable growth for your organization.
For more information,
Visit: https://appcluesstudio.com/mobile-applications-development-company-lasvegas/
Connect with us: 978-309-9910
Email: info@appcluesstudio.com
#top mobile app development company in las vegas #best mobile app development company in las vegas #top mobile app development agency in las vegas #best mobile app development agency in las vegas #mobile app development las vegas
1666255812
Vega-Lite is an implementation of the grammar-of-graphics, rendered in the browser with interactivity.
The goal of vegawidget is to render Vega-Lite and Vega specifications as htmlwidgets, and to help you communicate with a Vega chart using JavaScript or Shiny. Its ambition is to be a low-level interface to the Vega(-Lite) API, so that other packages can build upon it.
Accordingly, this package may be useful to:
vegawidget now supports the last two Vega-Lite major-versions, currently versions 5 and 4.
However, for a given R session (e.g. rendering of an RMarkdown file), the vegawidget()
function can use only one major-version; this version is determined using the $schema
element of the first vegaspec
evaluated using vegawidget()
.
This restriction does not apply to the image functions, e.g. vw_to_svg()
, or to the compilation function, vw_to_vega()
.
use vega_version_all()
to see the available versions:
library("vegawidget")
vega_version_all()
#> widget vega_lite vega vega_embed
#> 1 vl5 5.5.0 5.22.0 6.20.8
#> 2 vl4 4.17.0 5.17.0 6.12.2
You can install vegawidget from CRAN with:
install.packages("vegawidget")
The development version of vegawidget is available from GitHub with:
# install.packages("devtools")
devtools::install_github("vegawidget/vegawidget")
Note: There are documentation websites for both the CRAN version and the development version of this package.
Vega(-Lite) specifications are just text, formatted as JSON. However, in R, we can use lists to build specifications:
library("vegawidget")
spec_mtcars <-
list(
`$schema` = vega_schema(), # specifies Vega-Lite
description = "An mtcars example.",
data = list(values = mtcars),
mark = "point",
encoding = list(
x = list(field = "wt", type = "quantitative"),
y = list(field = "mpg", type = "quantitative"),
color = list(field = "cyl", type = "nominal")
)
) %>%
as_vegaspec()
The as_vegaspec()
function is used to turn the list into a vegaspec; many of this package’s functions are built to support, and render, vegaspecs:
spec_mtcars
The rendering of the chart above depends on where you are reading it:
On this package’s pkgdown site, it is rendered as part of an HTML environment, showing its full capabilities.
At its GitHub code site, the chart is further rendered to a static SVG file, then incorporated into the Markdown rendering.
A learnr tutorial is available: learnr::run_tutorial("overview", package = "vegawidget")
.
For more, please see our Getting Started article. Additionally, the Vega-Lite website has a comprehensive introduction.
Other articles for this package:
Contributions are welcome, please see this guide. Please note that this project is released with a Contributor Code of Conduct. By participating in this project you agree to abide by its terms.
Author: Vegawidget
Source Code: https://github.com/vegawidget/vegawidget
License: View license
1659829500
View Components for Ruby and Rails.
Cells allow you to encapsulate parts of your UI into components into view models. View models, or cells, are simple ruby classes that can render templates.
Nevertheless, a cell gives you more than just a template renderer. They allow proper OOP, polymorphic builders, nesting, view inheritance, using Rails helpers, asset packaging to bundle JS, CSS or images, simple distribution via gems or Rails engines, encapsulated testing, caching, and integrate with Trailblazer.
Cells is part of the Trailblazer framework. Full documentation is available on the project site.
Cells is completely decoupled from Rails. However, Rails-specific functionality is to be found here.
You can render cells anywhere and as many as you want, in views, controllers, composites, mailers, etc.
Rendering a cell in Rails ironically happens via a helper.
<%= cell(:comment, @comment) %>
This boils down to the following invocation, that can be used to render cells in any other Ruby environment.
CommentCell.(@comment).()
You can also pass the cell class in explicitly:
<%= cell(CommentCell, @comment) %>
In Rails you have the same helper API for views and controllers.
class DashboardController < ApplicationController
def dashboard
@comments = cell(:comment, collection: Comment.recent)
@traffic = cell(:report, TrafficReport.find(1)).()
end
Usually, you'd pass in one or more objects you want the cell to present. That can be an ActiveRecord model, a ROM instance or any kind of PORO you fancy.
A cell is a light-weight class with one or multiple methods that render views.
class CommentCell < Cell::ViewModel
property :body
property :author
def show
render
end
private
def author_link
link_to "#{author.email}", author
end
end
Here, show
is the only public method. By calling render
it will invoke rendering for the show
view.
Views come packaged with the cell and can be ERB, Haml, or Slim.
<h3>New Comment</h3>
<%= body %>
By <%= author_link %>
The concept of "helpers" that get strangely copied from modules to the view does not exist in Cells anymore.
Methods called in the view are directly called on the cell instance. You're free to use loops and deciders in views, even instance variables are allowed, but Cells tries to push you gently towards method invocations to access data in the view.
In Rails, cells are placed in app/cells
or app/concepts/
. Every cell has their own directory where it keeps views, assets and code.
app
├── cells
│ ├── comment_cell.rb
│ ├── comment
│ │ ├── show.haml
│ │ ├── list.haml
The discussed show
view would reside in app/cells/comment/show.haml
. However, you can set any set of view paths you want.
In order to make a cell render, you have to call the rendering methods. While you could call the method directly, the preferred way is the call style.
cell(:comment, @song).() # calls CommentCell#show.
cell(:comment, @song).(:index) # calls CommentCell#index.
The call style respects caching.
Keep in mind that cell(..)
really gives you the cell object. In case you want to reuse the cell, need setup logic, etc. that's completely up to you.
You can pass in as many parameters as you need. Per convention, this is a hash.
cell(:comment, @song, volume: 99, genre: "Jazz Fusion")
Options can be accessed via the @options
instance variable.
Naturally, you may also pass arbitrary options into the call itself. Those will be simple method arguments.
cell(:comment, @song).(:show, volume: 99)
Then, the show
method signature changes to def show(options)
.
A huge benefit from "all this encapsulation" is that you can easily write tests for your components. The API does not change and everything is exactly as it would be in production.
html = CommentCell.(@comment).()
Capybara.string(html).must_have_css "h3"
It is completely up to you how you test, whether it's RSpec, MiniTest or whatever. All the cell does is return HTML.
In Rails, there's support for TestUnit, MiniTest and RSpec available, along with Capybara integration.
The cell's model is available via the model
reader. You can have automatic readers to the model's fields by using ::property
.
class CommentCell < Cell::ViewModel
property :author # delegates to model.author
def author_link
link_to author.name, author
end
end
Cells per default does no HTML escaping, anywhere. Include Escaped
to make property readers return escaped strings.
class CommentCell < Cell::ViewModel
include Escaped
property :title
end
song.title #=> "<script>Dangerous</script>"
Comment::Cell.(song).title #=> <script>Dangerous</script>
Properties and escaping are documented here.
Cells runs with any framework.
gem "cells"
For Rails, please use the cells-rails gem. It supports Rails >= 4.0.
gem "cells-rails"
Lower versions of Rails will still run with Cells, but you will get in trouble with the helpers. (Note: we use Cells in production with Rails 3.2 and Haml and it works great.)
Various template engines are supported but need to be added to your Gemfile.
gem "haml", github: "haml/haml", ref: "7c7c169"
. Use cells-hamlit
instead.gem "cells-erb"
In Rails, this is all you need to do. In other environments, you need to include the respective module into your cells.
class CommentCell < Cell::ViewModel
include ::Cell::Erb # or Cell::Hamlit, or Cell::Haml, or Cell::Slim
end
Cells can be namespaced as well.
module Admin
class CommentCell < Cell::ViewModel
Invocation in Rails would happen as follows.
cell("admin/comment", @comment).()
Views will be searched in app/cells/admin/comment
per default.
Even in a non-Rails environment, Cells provides the Rails view API and allows using all Rails helpers.
You have to include all helper modules into your cell class. You can then use link_to
, simple_form_for
or whatever you feel like.
class CommentCell < Cell::ViewModel
include ActionView::Helpers::UrlHelper
include ActionView::Helpers::CaptureHelper
def author_link
content_tag :div, link_to(author.name, author)
end
As always, you can use helpers in cells and in views.
You might run into problems with wrong escaping or missing URL helpers. This is not Cells' fault but Rails suboptimal way of implementing and interfacing their helpers. Please open the actionview gem helper code and try figuring out the problem yourself before bombarding us with issues because helper xyz
doesn't work.
In Rails, the view path is automatically set to app/cells/
or app/concepts/
. You can append or set view paths by using ::view_paths
. Of course, this works in any Ruby environment.
class CommentCell < Cell::ViewModel
self.view_paths = "lib/views"
end
Cells can easily ship with their own JavaScript, CSS and more and be part of Rails' asset pipeline. Bundling assets into a cell allows you to implement super encapsulated widgets that are stand-alone. Asset pipeline is documented here.
Unlike Rails, the #render
method only provides a handful of options you gotta learn.
def show
render
end
Without options, this will render the state name, e.g. show.erb
.
You can provide a view name manually. The following calls are identical.
render :index
render view: :index
If you need locals, pass them to #render
.
render locals: {style: "border: solid;"}
Every view can be wrapped by a layout. Either pass it when rendering.
render layout: :default
Or configure it on the class-level.
class CommentCell < Cell::ViewModel
layout :default
The layout is treated as a view and will be searched in the same directories.
Cells love to render. You can render as many views as you need in a cell state or view.
<%= render :index %>
The #render
method really just returns the rendered template string, allowing you all kind of modification.
def show
render + render(:additional)
end
You can even render other cells within a cell using the exact same API.
def about
cell(:profile, model.author).()
end
This works both in cell views and on the instance, in states.
You can not only inherit code across cell classes, but also views. This is extremely helpful if you want to override parts of your UI, only. It's documented here.
In order to render collections, Cells comes with a shortcut.
comments = Comment.all #=> three comments.
cell(:comment, collection: comments).()
This will invoke cell(:comment, comment).()
three times and concatenate the rendered output automatically.
Learn more about collections here.
Builders allow instantiating different cell classes for different models and options. They introduce polymorphism into cells.
class CommentCell < Cell::ViewModel
include ::Cell::Builder
builds do |model, options|
case model
when Post; PostCell
when Comment; CommentCell
end
end
The #cell
helper takes care of instantiating the right cell class for you.
cell(:comment, Post.find(1)) #=> creates a PostCell.
Learn more about builders here.
For every cell class you can define caching per state. Without any configuration the cell will run and render the state once. In following invocations, the cached fragment is returned.
class CommentCell < Cell::ViewModel
cache :show
# ..
end
The ::cache
method will forward options to the caching engine.
cache :show, expires_in: 10.minutes
You can also compute your own cache key, use dynamic keys, cache tags, and conditionals using :if
. Caching is documented here and in chapter 8 of the Trailblazer book.
Cells is part of the Trailblazer project. Please buy my book to support the development and to learn all the cool stuff about Cells. The book discusses many use cases of Cells.

The book picks up where the README leaves off. Go grab a copy and support us - it talks about object- and view design and covers all aspects of the API.
Temporary note: This is the README and API for Cells 4. Many things have improved. If you want to upgrade, follow this guide. When in trouble, join the Zulip channel.
Author: trailblazer
Source code: https://github.com/trailblazer/cells
1603245600
Back in the day, rendering a website was simple. You needed a web server that served HTML files. Those were static sites. Then developers started using databases and authentication. To achieve that, they needed to manipulate the HTML file before serving it.
That’s how **server-side **rendering was born. Let’s fast forward until 2010, when Backbone got released. The front-end got richer and more complex. Then the era of client-side applications begin. Developers migrated their data and routing logic to the client side. They could, because Google “understood” JavaScript. The servers became slimmer, but the websites became more complex. Yet, recently server-side rendering became a trend again. All thanks to React and its server-side hydration feature.
Static sites are the simplest way to render a website. You code your website in HTML/CSS, and serve those files from a web server. This is the simplest way to render your website, but it comes with pros and cons.
Cons
Since they’re static, you cannot have dynamic data. To update the data on your static site, you need to edit your HTML files, and deploy them again.
That also means that your visitors won’t be able to “contribute” to the website data. They can’t leave comments, or create their own posts, or “like” your content.
Pros
But, since there’s no “computation” in static sites, they are the fastest to render. The server serves the HTML file, and the browser starts “drawing” immediately. This gives your website fast TTFB (time-to-first-byte) score.
Another benefit that static sites have is the ability to host them on CDNs. A CDN (content delivery network) is a network of servers distributed around the world. Meaning, your website will “live” on many servers at the same time. Also, CDNs are cheaper than dedicated servers!
They’re also more secure. There is no back-end. That means there’s less room for your site to suffer an attack, or your database to get compromised.
So, if you need to create a website that doesn’t update the data on a regular basis, static site might be the best for you. Your site will be fast, cheap, and more secure.
#server-side-rendering #spa #static-website #what-is-server-side-rendering #webdev #webdevelopment #nextjs #react-rendering