1597564800
Learn how Azure Monitor Application Insights enables you to perform usage analysis to understand which features of your app are most frequently used and if users achieve their goals in your app. It provides visibility into users, sessions, events, and includes out of the box workflows to analyze business funnels, user flows and user retention.
#coding #azure #azure monitor #microsoft
1597564800
Learn how Azure Monitor Application Insights enables you to perform usage analysis to understand which features of your app are most frequently used and if users achieve their goals in your app. It provides visibility into users, sessions, events, and includes out of the box workflows to analyze business funnels, user flows and user retention.
#coding #azure #azure monitor #microsoft
1624006278
In an ecosystem that has become increasingly integrated with huge chunks of data and information traveling through the airwaves, Big Data has become irreplaceable for establishments.
From day-to-day business operations to detailed customer interactions, many ventures heavily invest in data sciences and data analysis to find breakthroughs and marketable insights.
Plus, surviving in the current era, mandates taking informed decisions and surgical precision based on the projected forecast of current trends to retain profitability. Hence these days, data is revered as the most valuable resource.
According to a recent study by Sigma Computing , the world of Big Data is only projected to grow bigger, and by 2025 it is estimated that the global data-sphere will grow to reach 17.5 Zettabytes. FYI one Zettabyte is equal to 1 million Petabytes.
Moreover, the Big Data industry will be worth an estimate of $77 billion by 2023. Furthermore, the Banking sector generates unparalleled quantities of data, with the amount of data generated by the financial industry each second growing by 700% in 2021.
In light of this information, let’s take a quick look at some of the ways application monitoring can use Big Data, along with its growing importance and impact.
#ai in business #ai application #application monitoring #big data #the rising value of big data in application monitoring #application monitoring
1656280800
This package allows users to jump to local IDE code directly from browser React component by just a simple click, which is similar to Chrome inspector but more advanced.
press hotkey (
ctrl⌃ + shift⇧ + commmand⌘ + c
), then click the HTML element you wish to inspect.
screen record gif (8M size):
npm i -D react-dev-inspector
Users need to add React component and apply webpack config before connecting your React project with 'react-dev-inspector'.
Note: You should NOT use this package, and React component, webpack config in production mode
import React from 'react'
import { Inspector, InspectParams } from 'react-dev-inspector'
const InspectorWrapper = process.env.NODE_ENV === 'development'
? Inspector
: React.Fragment
export const Layout = () => {
// ...
return (
{}}
onClickElement={(params: InspectParams) => {}}
>
...
)
}
You should add:
react-dev-inspector/plugins/babel
import { launchEditorMiddleware } from 'react-dev-inspector/plugins/webpack'
to your current project development config.
Such as add babel plugin into your .babelrc
or webpack babel-loader
config,
add api middleware into your webpack-dev-server
config or other server setup.
There are some example ways to set up, please pick the one fit your project best.
In common cases, if you're using webpack, you can see #raw-webpack-config,
If your project happen to use vite / nextjs / create-react-app and so on, you can also try out our integrated plugins / examples with
Example:
// .babelrc.js
module.exports = {
plugins: [
/**
* react-dev-inspector plugin, options docs see:
* https://github.com/zthxxx/react-dev-inspector#inspector-babel-plugin-options
*/
'react-dev-inspector/plugins/babel',
],
}
// webpack.config.ts
import type { Configuration } from 'webpack'
import { launchEditorMiddleware } from 'react-dev-inspector/plugins/webpack'
const config: Configuration = {
/**
* [server side] webpack dev server side middleware for launch IDE app
*/
devServer: {
before: (app) => {
app.use(launchEditorMiddleware)
},
},
}
example project see: https://github.com/zthxxx/react-dev-inspector/tree/master/examples/vite2
example vite.config.ts
:
import { defineConfig } from 'vite'
import { inspectorServer } from 'react-dev-inspector/plugins/vite'
export default defineConfig({
plugins: [
inspectorServer(),
],
})
use Next.js Custom Server + Customizing Babel Config
example project see: https://github.com/zthxxx/react-dev-inspector/tree/master/examples/nextjs
in server.js
, example:
...
const {
queryParserMiddleware,
launchEditorMiddleware,
} = require('react-dev-inspector/plugins/webpack')
app.prepare().then(() => {
createServer((req, res) => {
/**
* middlewares, from top to bottom
*/
const middlewares = [
/**
* react-dev-inspector configuration two middlewares for nextjs
*/
queryParserMiddleware,
launchEditorMiddleware,
/** Next.js default app handle */
(req, res) => handle(req, res),
]
const middlewarePipeline = middlewares.reduceRight(
(next, middleware) => (
() => { middleware(req, res, next) }
),
() => {},
)
middlewarePipeline()
}).listen(PORT, (err) => {
if (err) throw err
console.debug(`> Ready on http://localhost:${PORT}`)
})
})
in package.json
, example:
"scripts": {
- "dev": "next dev",
+ "dev": "node server.js",
"build": "next build"
}
in .babelrc.js
, example:
module.exports = {
plugins: [
/**
* react-dev-inspector plugin, options docs see:
* https://github.com/zthxxx/react-dev-inspector#inspector-babel-plugin-options
*/
'react-dev-inspector/plugins/babel',
],
}
cra + react-app-rewired + customize-cra example config-overrides.js
:
example project see: https://github.com/zthxxx/react-dev-inspector/tree/master/examples/cra
const { ReactInspectorPlugin } = require('react-dev-inspector/plugins/webpack')
const {
addBabelPlugin,
addWebpackPlugin,
} = require('customize-cra')
module.exports = override(
addBabelPlugin([
'react-dev-inspector/plugins/babel',
// plugin options docs see:
// https://github.com/zthxxx/react-dev-inspector#inspector-babel-plugin-options
{
excludes: [
/xxxx-want-to-ignore/,
],
},
]),
addWebpackPlugin(
new ReactInspectorPlugin(),
),
)
example project see: https://github.com/zthxxx/react-dev-inspector/tree/master/examples/umi3
Example .umirc.dev.ts
:
// https://umijs.org/config/
import { defineConfig } from 'umi'
export default defineConfig({
plugins: [
'react-dev-inspector/plugins/umi/react-inspector',
],
inspectorConfig: {
// babel plugin options docs see:
// https://github.com/zthxxx/react-dev-inspector#inspector-babel-plugin-options
excludes: [],
},
})
Example .umirc.dev.js
:
import { launchEditorMiddleware } from 'react-dev-inspector/plugins/webpack'
export default {
// ...
extraBabelPlugins: [
// plugin options docs see:
// https://github.com/zthxxx/react-dev-inspector#inspector-babel-plugin-options
'react-dev-inspector/plugins/babel',
],
/**
* And you need to set `false` to `dll` in `umi-plugin-react`,
* becase these is a umi2 bug that `dll` cannot work with `devServer.before`
*
* https://github.com/umijs/umi/issues/2599
* https://github.com/umijs/umi/issues/2161
*/
chainWebpack(config, { webpack }) {
const originBefore = config.toConfig().devServer
config.devServer.before((app, server, compiler) => {
app.use(launchEditorMiddleware)
originBefore?.before?.(app, server, compiler)
})
return config
},
}
Example build.json
:
// https://ice.work/docs/guide/basic/build
{
"plugins": [
"react-dev-inspector/plugins/ice",
]
}
checkout TS definition under react-dev-inspector/es/Inspector.d.ts
.
Property | Description | Type | Default |
---|---|---|---|
keys | inspector hotkeys supported keys see: https://github.com/jaywcjlove/hotkeys#supported-keys | string[] | ['control', 'shift', 'command', 'c'] |
disableLaunchEditor | disable editor launching (launch by default in dev Mode, but not in production mode) | boolean | false |
onHoverElement | triggered when mouse hover in inspector mode | (params: InspectParams) => void | - |
onClickElement | triggered when mouse hover in inspector mode | (params: InspectParams) => void | - |
// import type { InspectParams } from 'react-dev-inspector'
interface InspectParams {
/** hover / click event target dom element */
element: HTMLElement,
/** nearest named react component fiber for dom element */
fiber?: React.Fiber,
/** source file line / column / path info for react component */
codeInfo?: {
lineNumber: string,
columnNumber: string,
/**
* code source file relative path to dev-server cwd(current working directory)
* need use with `react-dev-inspector/plugins/babel`
*/
relativePath?: string,
/**
* code source file absolute path
* just need use with `@babel/plugin-transform-react-jsx-source` which auto set by most framework
*/
absolutePath?: string,
},
/** react component name for dom element */
name?: string,
}
interface InspectorPluginOptions {
/** override process.cwd() */
cwd?: string,
/** patterns to exclude matched files */
excludes?: (string | RegExp)[],
}
// import type { ParserPlugin, ParserOptions } from '@babel/parser'
// import type { InspectorConfig } from 'react-dev-inspector/plugins/webpack'
interface InspectorConfig {
/** patterns to exclude matched files */
excludes?: (string | RegExp)[],
/**
* add extra plugins for babel parser
* default is ['typescript', 'jsx', 'decorators-legacy', 'classProperties']
*/
babelPlugins?: ParserPlugin[],
/** extra babel parser options */
babelOptions?: ParserOptions,
}
This package uses react-dev-utils
to launch your local IDE application, but, which one will be open?
In fact, it uses an environment variable named REACT_EDITOR
to specify an IDE application, but if you do not set this variable, it will try to open a common IDE that you have open or installed once it is certified.
For example, if you want it always open VSCode when inspection clicked, set export REACT_EDITOR=code
in your shell.
install VSCode command line tools, see the official docs
set env to shell, like .bashrc
or .zshrc
export REACT_EDITOR=code
.bashrc
or .zshrc
(only MacOS)export REACT_EDITOR='/Applications/WebStorm.app/Contents/MacOS/webstorm'
OR
install WebStorm command line tools
then set env to shell, like .bashrc
or .zshrc
export REACT_EDITOR=webstorm
Yes! you can also use vim if you want, just set env to shell
export REACT_EDITOR=vim
Stage 1 - Compile Time
Stage 2 - Web React Runtime
[React component] Inspector
Component in react, for listen hotkeys, and request api to dev-server for open IDE.
Specific, when you click a component DOM, the Inspector
will try to obtain its source file info (path/line/column), then request launch-editor api (in stage 3) with absolute file path.
Stage 3 - Dev-server Side
[middleware] setup launchEditorMiddleware
in webpack dev-server (or other dev-server), to open file in IDE according to the request params.
Only need in development mode,and you want to open IDE when click a component element.
Not need in prod mode, or you just want inspect dom without open IDE (set disableLaunchEditor={true}
to Inspector component props)
Author: zthxxx
Source code: https://github.com/zthxxx/react-dev-inspector
License: MIT license
1597572000
In this video, learn how to use Azure Monitor Application Insights to monitor live and historical application performance, detect/diagnose errors, configure proactive alerting/ notification, analyze user behavior, and create interactive reports/dashboards that can be shared across your teams.
#coding #azure #microsoft #azure monitor
1598959140
Many enterprises and SaaS companies depend on a variety of external API integrations in order to build an awesome customer experience. Some integrations may outsource certain business functionality such as handling payments or search to companies like Stripe and Algolia. You may have integrated other partners which expand the functionality of your product offering, For example, if you want to add real-time alerts to an analytics tool, you might want to integrate the PagerDuty and Slack APIs into your application.
If you’re like most companies though, you’ll soon realize you’re integrating hundreds of different vendors and partners into your app. Any one of them could have performance or functional issues impacting your customer experience. Worst yet, the reliability of an integration may be less visible than your own APIs and backend. If the login functionality is broken, you’ll have many customers complaining they cannot log into your website. However, if your Slack integration is broken, only the customers who added Slack to their account will be impacted. On top of that, since the integration is asynchronous, your customers may not realize the integration is broken until after a few days when they haven’t received any alerts for some time.
How do you ensure your API integrations are reliable and high performing? After all, if you’re selling a feature real-time alerting, you’re alerts better well be real-time and have at least once guaranteed delivery. Dropping alerts because your Slack or PagerDuty integration is unacceptable from a customer experience perspective.
Specific API integrations that have an exceedingly high latency could be a signal that your integration is about to fail. Maybe your pagination scheme is incorrect or the vendor has not indexed your data in the best way for you to efficiently query.
Average latency only tells you half the story. An API that consistently takes one second to complete is usually better than an API with high variance. For example if an API only takes 30 milliseconds on average, but 1 out of 10 API calls take up to five seconds, then you have high variance in your customer experience. This is makes it much harder to track down bugs and harder to handle in your customer experience. This is why 90th percentile and 95th percentiles are important to look at.
Reliability is a key metric to monitor especially since your integrating APIs that you don’t have control over. What percent of API calls are failing? In order to track reliability, you should have a rigid definition on what constitutes a failure.
While any API call that has a response status code in the 4xx or 5xx family may be considered an error, you might have specific business cases where the API appears to successfully complete yet the API call should still be considered a failure. For example, a data API integration that returns no matches or no content consistently could be considered failing even though the status code is always 200 OK. Another API could be returning bogus or incomplete data. Data validation is critical for measuring where the data returned is correct and up to date.
Not every API provider and integration partner follows suggested status code mapping
While reliability is specific to errors and functional correctness, availability and uptime is a pure infrastructure metric that measures how often a service has an outage, even if temporary. Availability is usually measured as a percentage of uptime per year or number of 9’s.
AVAILABILITY %DOWNTIME PER YEARDOWNTIME PER MONTHDOWNTIME PER WEEKDOWNTIME PER DAY90% (“one nine”)36.53 days73.05 hours16.80 hours2.40 hours99% (“two nines”)3.65 days7.31 hours1.68 hours14.40 minutes99.9% (“three nines”)8.77 hours43.83 minutes10.08 minutes1.44 minutes99.99% (“four nines”)52.60 minutes4.38 minutes1.01 minutes8.64 seconds99.999% (“five nines”)5.26 minutes26.30 seconds6.05 seconds864.00 milliseconds99.9999% (“six nines”)31.56 seconds2.63 seconds604.80 milliseconds86.40 milliseconds99.99999% (“seven nines”)3.16 seconds262.98 milliseconds60.48 milliseconds8.64 milliseconds99.999999% (“eight nines”)315.58 milliseconds26.30 milliseconds6.05 milliseconds864.00 microseconds99.9999999% (“nine nines”)31.56 milliseconds2.63 milliseconds604.80 microseconds86.40 microseconds
Many API providers are priced on API usage. Even if the API is free, they most likely have some sort of rate limiting implemented on the API to ensure bad actors are not starving out good clients. This means tracking your API usage with each integration partner is critical to understand when your current usage is close to the plan limits or their rate limits.
It’s recommended to tie usage back to your end-users even if the API integration is quite downstream from your customer experience. This enables measuring the direct ROI of specific integrations and finding trends. For example, let’s say your product is a CRM, and you are paying Clearbit $199 dollars a month to enrich up to 2,500 companies. That is a direct cost you have and is tied to your customer’s usage. If you have a free tier and they are using the most of your Clearbit quota, you may want to reconsider your pricing strategy. Potentially, Clearbit enrichment should be on the paid tiers only to reduce your own cost.
Monitoring API integrations seems like the correct remedy to stay on top of these issues. However, traditional Application Performance Monitoring (APM) tools like New Relic and AppDynamics focus more on monitoring the health of your own websites and infrastructure. This includes infrastructure metrics like memory usage and requests per minute along with application level health such as appdex scores and latency. Of course, if you’re consuming an API that’s running in someone else’s infrastructure, you can’t just ask your third-party providers to install an APM agent that you have access to. This means you need a way to monitor the third-party APIs indirectly or via some other instrumentation methodology.
#monitoring #api integration #api monitoring #monitoring and alerting #monitoring strategies #monitoring tools #api integrations #monitoring microservices