This content is a comprehensive crash course for the Google Associate Cloud Engineer certification exam, offering free training and 206 real exam questions to prepare individuals for managing and optimizing Google Cloud Platform (GCP) services.
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Hello and welcome to Tech with Shaping
Pixel. We are bringing you free
certification course. This time we are
bringing Google's associate cloud
engineer certification exam crash
course. We have also included 206 real
exam question answers with this crash course.
Are you ready to evaluate your cloud
skills? This learning path is designed
to prepare you for Google's associate
cloud engineer certification exam, but
it's also perfect for anyone looking to
enhance their cloud expertise. The exam
tests your knowledge in five key areas:
setting up a cloud environment, planning
and configuration solutions, deploying
and implementing those solutions,
maintaining operations, and securing
your environment with access policies.
We start with an overview of Google
Cloud Platform's main products and
services. You will learn how to set up a
development environment and install the
Google Cloud software development kit.
Next, dive into configuring networks and
creating virtual machines. Topics
include autoscaling, load balancing, and
network security. You will understand
concepts like network address
translation and configuring a cloud
virtual private network. Then explore
containers using Google Kubernetes
Engine, App Engine, and Cloud Run. Learn
to use identity and access management to
Cloud offers powerful compute options
from virtual machines to Kubernetes
engine. You can scale your application
seamlessly. These services ensure high
performance and flexibility for your workloads.
workloads.
Google Cloud provides robust storage
solutions whether you need object
storage, file storage or databases.
Their offering like cloud storage and
bigquery cater to diverse data needs efficiently.
efficiently.
Networking in cloud Google cloud is
designed for speed and security with
virtual private cloud cloud load
balancing and cloud CDN. You can
optimize traffic and ensure reliable
connectivity across the globe. Google
Cloud excels in AI and machine learning.
Tools like TensorFlow, AutoML, and AI
platform help you build, deploy, and
scale intelligent applications with
ease, leveraging Google's advanced AI capabilities.
capabilities.
Security and operations are paramount in
Google Cloud. Services like identity and
access management, cloud security,
command center, and operation suit
ensure your infrastructure is secure and
well managed. So stay connected, stay
updated as Google continuously innovates.
Google Cloud Platform or GCP is a public
cloud vendor offering a collection of
virtual non-demand services. It allows
anyone to build, host, and deliver
applications using the same hardware and
software that powers Google services
like search, Gmail, and Google Docs. One
of the main advantages of using GCP is
access to Google's global network and
vast experience in serving applications
to billions of users.
This means you can leverage their
infrastructure without the hustle and
cost of building and maintaining your
own data centers.
With GCP, resources are available on
demand wherever and whenever you need
them. This flexibility is complemented
by a wide range of services including
artificial intelligence, machine
learning, big data, internet of things,
healthcare, and gaming. The options are
almost endless. To make it easier to
navigate, GCP services are divided into
five main categories. compute, storage,
networking, artificial intelligence and
machine learning and security and
operations. In the coming up, we will
explore each category in more detail
giving you a comprehensive understanding
Google Cloud Platform offers a variety
of compute services to run your code.
Whether you need virtual machines,
containers, or serverless options, GCP
has you covered.
For virtual machines, Google's Compute
Engine is the go-to service. It supports
both Linux and Windows with predefined
and custom machine types. Compute Engine
is ideal for building from scratch or
migrating existing infrastructure.
Containers are lightweight alternatives
to virtual machines. Google Kubernetes
Engine RGke
simplifies deploying, maintaining, and
scaling containerized applications. It
includes features for logging,
monitoring, and health management.
For hybrid environments, Anthos allows
you to run containers across multiple
locations, including on premises, GCP,
and AWS. Anthos provides unified command
interface for seamless management.
App Engine is Google's platform as a
service offering. It lets you run web
and mobile applications without managing
the underlying infrastructure. Just
upload your code and GCP handles the
For single container applications, Cloud
Run offers a serverless solution. Upload
your container and cloud run deploys it
as a stateless autoscaling service.
Cloud functions are perfect for small
singlepurpose functions that responds to
events. They add extra functionality
without the complexity of larger
applications. Choose Compute Engine for
Windows applications, App Engine for
Java or Python apps, Cloud Run for
single containers, JKE for multiple
containers, Anthos for hybrid
environments, and Cloud Functions for
Let's explore the main storage services
available on Google Cloud Platform or GCP.
GCP.
Data can be structured like names and
dates or unstructured like music and
photos. Different types of data require
different storage solutions. For
unstructured data, Google Cloud Storage
is ideal. It's fast, secure, and has
almost unlimited capacity. Perfect for
web pages, log files, or data links.
Google Cloud Storage offers four classes.
classes.
Standard for frequently accessed data,
nearline for monthly access, code line
for quarterly access and archive for
annual access. All provide immediate
life file access. Cloud storage uses
object storage meaning no directories
just buckets. For traditional file
systems with block level access, use
file store which supports NFS
compatibility file shares. For
structured data, cloud SQL supports
MySQL, PostgresSQL, and Microsoft SQL
Server for higher performance. Use cloud
spanner for big data analytics. BigQuery
is the go-to solution. In summary,
choose cloud storage for files, file
store for editable files, cloud SQL for
standard databases, cloud spanner for
large workloads, and BigQuery for analytics.
Google Cloud Platform offers virtual
private clouds or VPCs which allow you
to organize and share resources. VPCs
are logically isolated networks that can
group or separate virtual machines and
containers. You can also divide a VPC
into sub networks and define traffic
rules. By default, all incoming traffic
to a VPC is blocked and all outgoing
traffic is allowed. You can create
firewall rules to override this
behavior, blocking outbound traffic or
allowing external access to a public web
server. To connect VPC to an external
network, you can use CloudVPN for secure
encrypted traffic over the internet. For
higher security and reliability, cloud
interconnect provides a direct dedicated
connection to Google. Direct peering is
another option coordinated
with your local internet service
provider. Load balancers distribute
network traffic among resources to
prevent any single part from being
overwhelmed. Cloud Armor works with load
balancers to defend against application
and denial of service attacks, ensuring
Cloud DNS manages millions of DNS
records for both public and private
domains. Cloud CDN accelerates web and
applications. Content delivery using
Google's globally distributed catches
enhancing performance and user
experience. These are the key networking
services on Google Cloud Platform
designed to keep your resources
Google Cloud Platform or GCP offers some
of the most exciting services in
artificial intelligence and machine
learning. Let's dive into what makes
these services stand out. Artificial
intelligence or AI aims to give machine
humanlike intelligence. Machine learning
or ML is a branch of AI focused on
systems that learn from data to improve
over time. On the side, GCP offers the
vision API to detect objects and faces
in images, the video intelligence API to
recognize actions in videos and document
AI to pass data in documents. Language
services include the translation API
which supports over 100 languages and
the natural language API which performs
sentiment analysis to classify messages
as positive, negative or neutral.
Conversation services feature text to to
speech and uh speechtoext APIs and
dialogue flow which generates realistic
dialogue for chat bots and voice bots
perfect for customer support. Structured
data services like recommendations, AI
suggest products based on past purchases
while cloud talent solutions helps match
JS job seekers with the right
opportunities for specific needs. GCP
offers AutoML to train custom models
without deep ML knowledge. For more
advanced requirements, Vortex AI
provides tool for building and deploying
Security services on Google Cloud
Platform or GCP help protect your data.
Privacy is crucial and security is the
method to achieve it. Policies pres
essential to safeguard your customers
and company often shaped by compliance
requirements. GCP offers several
security services. Security command
center provides a centralized control
panel for discovering vulnerabilities
and detecting threats. Secret manager
stores passwords, API keys, and
certificates securely. Data loss
prevention or DLP identifies and scrubs
sensitive data such as credit card
numbers from user records before
responding to database queries.
Operation services on GCP focuses on
monitoring and maintaining your
infrastructure. These tools ensure your
systems run smoothly and efficiently
providing insights and auto automation
to manage your resources effectively.
The Google cloud operation suit include
cloud logging for centralized log
management and cloud monitoring for
tracking metrics like CPU utilization
and network traffic.
Cloud debugger helps find software bugs
while cloud profiler and cloud trace
identify latency issues. Cloud
deployment manager automates resources
provisioning. Cloud build automates code
deployment. Age design secure APIs and
cloud composer manages workflows across
Let's do a quick recap on what we have
learned so far. So, Google Cloud
Platform offers powerful compute
services. Compute Engine manages virtual
machines while Kubernetes engine handles
containers. For hybrid environments,
Anthos is the go-to preferred managed
serverless options.
Use app engines for web apps, cloud run
for single containers, and cloud
functions for event-driven functions.
For storage, Google cloud has you
covered. Cloud storage is the perfect
for file storage. Needs SQL databases,
choose cloudsql, cloud spanner or
bigquery. For NoSQL databases, fire
store, firebase and big table are the
best options. Network is crucial. So,
private network clouds or VPC isolate or
connect your virtual machines. CloudVPN
interconnect and peering link your
company network to Google Cloud
Platform. Load balancer distributes
traffic and cloud armor protects against
Google Cloud excels in AI and machine
learning. Use AutoML to train custom
models. An AI hub for plug-in and play
components. services cover site,
language, conversation, and structured
data, making it easier to integrate AI
into your applications.
Security and operations are vital.
Security Manager stores passwords and
keys securely. Cloud Debugger inspects
running applications while cloud
profiler and cloud trays identify
latency issues. Age helps build
scalable, secure APIs. That's a wrap on
cloud Google cloud platform from compute
to AI. It offers comprehensive
solutions. Explore more courses on our
YouTube channel and enhance your cloud
skills. Thanks for watching.
So before you can start building on
Google Cloud Platform, you need a
project. Projects help organize all your
resources including users, APIs, and
billing information. To create a
project, you log into your Google Cloud
Console, click the project selector
drop-down, and then new project. Name
your project like photo blog and let
Google generate a unique project ID.
Once your project is created, you can
add resources for a photo blog. You
might add a compute engine instance for
WordPress, a cloud SQL database for
post, and a cloud storage bucket for
photos. Organizing resources into
projects prevents confusion and enhances
security. It ensures you won't mix up
production and development databases and
simplifies resources management.
Deleting a project removes all
associated resources. To delete P
project go to IM and admin then manage
resources. Select the project. Click
delete and confirm by entering the
project ID. Projects has marked for
deletion for 30 days allowing recovery
So managing user accounts and roles in
Google cloud platform is essential for
any organization. Different users have
different needs and is crucial to assign
the right permission to ensure smooth
operations. Each project in Google cloud
platform has its own set of users each
with unique permissions. Some users need
full access while others need only need
to view or make changes specific
changes. You can manually create user
accounts or automate the process using
tools like Google Cloud Direct Directory
Sync. This is especially useful for
large companies with hundreds of
thousands of users.
So permissions are managed by assigning
roles to users. Instead of assigning
individual permissions, you group them
into roles. These saves time and ensures
users have the necessary permissions to
perform their tasks. There are three
main types of roles. basic, predefined,
and custom. Basic roles offer broad
permissions. Predefined roles are more
specific, and custom roles allow you to
tailor permissions to your exact needs.
So, understanding and managing your
permissions is crucial. Start by
assigning minimal permission and adjust
as needed. These ensure security and
efficiency in your Google Cloud Platform projects.
To access certain Google Cloud
resources, you need to enable the
corresponding API. Google Cloud APIs
provide access to various services, but
many are disabled by default. Suppose
you want to interact with the users
Google Calendar. First, ensure you have
the correct project selected. Navigate
to APIs and services and select
dashboard. Click enable APIs and
services. Search for Google Calendar API
and click enable. Some APIs require
extra steps beyond enabling. For
instance, you might need to accept terms
of service or create credentials. Verify
the API is enabled by checking the
dashboard. When you no longer need an
API, you can disable it. Select the API
and click disable API at the top of the
page. Confirm it was disabled by
checking the dashboard again. Only
enable the APIs you need to avoid
unnecessary costs. Disabling unused APIs
ensures you don't accidentally use them,
helping you manage your resources efficiently.
Managing billing on Google Cloud
Platform is crucial. You start with a
$300 free trial for 90 days, but
eventually you will need to pay for services.
services.
To add a new billing account, click
billing in the navigation menu, then
manage billing accounts. Click create
account. Assign a name. Select a country
and submit. Now you have multiple
billing accounts. To link a project to a
new billing account, go to account
management. Select the project. Then
modify it to use the new billing
account. Confirm the changes. To disable
billing for a project, click the action
buttons next to the project. Select
disable billing and confirm. Remember,
you are still responsible for
outstanding charges. Creating a budget
helps monitor spending. For the billing
page, click budgets and alerts. Then
create budget. Set a name, scope, and
amount. Defin define uh notification
thresholds to receive alerts when
spending exceed certain percentages.
So to generate a billing export, select
billing export from build the billing
page. Choose to export all cost, confirm
the project and create a new bigquery
data set. These help in detailed analysis.
Let's review how to set up a Google
Cloud Platform environment. First,
create and delete projects to manage and
organize your Google Cloud Platform
accounts. Projects are essential for
structuring your resources. Next, create
user accounts and design permissions via
roles. Remember the three types, basic,
predefined, and custom. Basic roles like
viewer and editor are simple but not
secure. Predefined roles are more
granular. If none fit, create custom
roles. Avoid using basic roles in real environment.
environment.
Then enable APIs to access various
Google services like compute, storage,
and networking. Control project
resources by enabling or disabling the
associated API. Finally, add a billing
account to specify payment methods for
services. Projects can share billing
accounts or have a separate ones. Set
spending alerts by creating a budget and
analyze spending with billing exports.
That's a quick review of setting up your
The Google Cloud Software Development
Kit or Cloud SDK lets you manage your
Google Cloud Platform account through
terminal commands. It simplifies tasks
and automates repeatable process. To get
started, use CloudShell, an online
terminal in the Google Cloud Console. It
comes pre-installed with Cloud SDK. Just
login, click activate cloud shell and
you're ready to go. Cloud SDK includes
several key commands. G G-Cloud for
common cloud tasks. Gsil for Google
storage and BQ for BigQuery. These
commands streamline your workflow significantly.
significantly.
G-Cloud is the main utility for task
like installing components, spinning up
comput engine instances, and deploying
apps to App Engine. It's your go-to for
most cloud operations. GSUTIL
GSUTIL
or Google storage utility helps manage
cloud storage buckets and objects. It's
essential for handling your storage
needs efficiently.
BQ is used for interacting with
BigQuery. Run queries and manipulate
data sets effortlessly with this command.
Installing the Google Cloud SDK on your
machine can be more convenient than
using the integrated CloudShell. Let's
walk through the process of downloading,
installing, and setting up the SDK.
First, visit cloud.google.com/dk/doccks/install
for detailed instructions.
Download the installer for your
operating system, run it, and follow the
prompts. Choose the installation method
that best suits your needs.
After installation, verify it by running
G-Cloud help in your terminal. If you
see the help screen, you're good to go.
If not, revisit the installation
instructions to troubleshoot. Next, run
G-Cloud in it to authorize access to
your Google account. Follow the prompts,
login, and choose a default project.
If you are behind a proxy, configure
your proxy settings as needed. The SDK
comes with default components, but you
can install additional ones. Use G-Cloud
components list to see available
components. For example, install the
Google app engine Java component with
G-Cloud components. Install app/ engine/ java.
Google Compute Engine on Google Cloud
Platform lets you design and build
custom data centers in the cloud.
With Compute Engine, you have almost
complete control. Choose your hardware
operating system and install any
applications you need. It offers deep
customization and control. There are
various preconfigured machine types.
General purpose for website compute
optimized for performance tasks. Memory
optimized for large databases and
accelerator optimized for graphic
rendering and machine learning. Compute
engine can save you money.
You only pay for what you use and there
there are discounts for sustained and
committed use. Spot VMs offers
short-term savings for fall tolerant
workloads. Compute Engine is a versatile
and cost effective making it a great
step for moving to the cloud. Start by
Creating and managing virtual machines
with Google Compute Engine can seem
overwhelming. Let's focus on the main
features to get you started quickly and
efficiently. First, log into the Google
Cloud Platform console. Navigate to
Compute Engine by either using the
navigation menu or the search bar. You
will see a list of your current VMs. To
create a new VM instance, click on
create instance. You can create it from
scratch, a template, or a machine engine.
engine.
So, we will focus on creating one from
scratch. Fill out the form with details
like the instance name, region, and
zone. Choose your machine configuration,
including the type and amount of memory.
Adjust the boot disk and firewall
settings as needed. Once your VM is
running, Google provides a detailed logs
and monitoring tools. These help you
track metrics like CPU utilization and
network traffic. For advanced metrics,
install the ops agent. And that's it.
You have created and configured a VM
instance on Google Compute Engine. With
these basics, you are ready to explore
more advanced features and optimize your machine
machine
Now that you know how to create a basic
virtual machine, let's explore some
advanced options to enhance your next step.
step.
In the networking section, you can
customize your networking interfaces.
Choose the virtual private cloud or VPC
and a sub network for your instance.
These allows for better network
management and segmentation. You can set
your internal IP address to be dynamic
or static. Empiral
IPS change when an instance is stopped
or deleted. For a consistent IP, reserve
a static one. The same options apply to
external IP addresses, including the
option to have one for added security.
In the disk section, you can add and
attach additional disk drives. The
security section offers various options
to enhance your VM security. You can
also add your own secure shell or SSH
keys for custom access. Under
management, you can handle committed use
discounts and switch to spot instances.
Spot instances are cheaper but less
reliable, suitable for specific
workloads. They can save you money if
used correctly. Finally, you can create
a VM using a command line. Click to get
the exact command. paste it into your
terminal with the cloud software
development kit or SDK installed and
Managing a few virtual machines manually
is fine, but what if you need hundreds
of thousands? Let's explore how
templates and machine images can
simplify this process. Start by creating
a VM template. Click create instance
template and fill out the form with your
desired settings. This template saves
all your VM configuration making it easy
to replicate.
Once your template is ready, use it to
create new instances. Select your
template, make any necessary
arrangements, adjustments, and click
create. This method ensures consistency
across multiple VMs. A machine image
goes a step further. It captures the
entire state of a VM including installed
software. Create a machine image by
selecting an existing VM and clicking
create new machine image. To use a
machine image, create a new instance and
create select create from machine image.
These replicates the original VM
including all software and
configurations saving you time and
effort. To delete VM, select the
instances, click more actions and choose
delete. You can delete multiple
instances simultaneously. Streamlining
your management process.
Using templates and machine images makes
Before creating virtual machine
instances on Google Cloud Platform, it's
crucial to understand quotas. Kotas
prevent excessive resources consumption
and cap spending to avoid unexpected
bills. Let's explore how to view and
manage your quotas.
First, log into your GCP console. Search
for quotas and click on all quotas. This
page displays all quotas for your
project, including compute engine and
API gateway. You can filter to view
specific services.
To focus on a particular service, use
the filter option. For example, filter
by compute engine to see related
quoters. These help you monitor your
usage and identify if you're nearing any
limits. If you need to exceed a kota,
request a change, filter for your kota
like the number of virtual machine
instances per region. Select the kota to
change. Then click edit quotas. Fill out
the form specifying the new limit and justification.
justification.
After providing your contact details,
submit the request. Google will review
and respond which might take a day or
two. Now you know how to manage kas
Google Cloud Platform allows you to
build virtual data centers in the cloud.
One crucial component is the underlaying
network. Since you can't physically
access Google's hardware, connectivity
is essential for everything you build in
Google Cloud Platform. With many
customers using Google Cloud Platform,
isolation is key. Company A and Company
B, for example, need separate networks
to avoid conflicts like IP collisions.
Virtual private cloud solves these by
allowing complete isolation while
accessing the same resources.
VPCs let you create private virtual
networks broken down into subn networks
or subnets. You can keep things simple
with one VPC or get complex with
multiple VPCs and subnets.
You have the option to manually manage
settings or let Google handle them.
One standout feature of VPC is their
global nature. Servers across different
regions like the United States, United
Kingdom and China can communicate within
the same VPC.
Alternatively, you can isolate them by
creating a separate VPCs.
Google VPCs balance connectivity with
security. You can create open VPCs for
public servers or lock down VPCs for
private applications.
Using Google private access, you can
disable internet access while
maintaining connectivity to other Google
As your networking needs evolve, you
might need to modify your existing
virtual private cloud or VPC. Let's see
how. First, go to the VPC network page.
Ensure the VPC network option is
selected on the left. Click the network
name you wish to modify, then hit edit.
To edit roots, go to the roots tab,
select a region, then click on the
specific route to modify it. For new
roots, use root management.
In the firewalls tab, you can add,
delete, or edit firewall rules. Click
add firewall rule to create a new one or
select an existing rule to modify or
delete it. The subnets tab allows you to
add, edit, or delete subnets. Click on
the subnet name, then choose edit or
delete to make changes.
To expand a subnet IP range, click edit
and modify the CID range. Remember, the
new range must be a supererset of the
old one and cannot overlap with other
subnets. For example, changing a /16 to
a /15 doubles, the IBS must but must
follow CID rules.
Proper planning is crucial to avoid
issues. Expanding subnets can be done
without downtime, but always ensure your
addressing scheme accommodates future growth.
Google creates multiple copies of
everything. All data is duplicated and
stored in multiple locations. Servers
are replicated across multiple instances
by having redundant copies of
everything. Their services can survive
hardware failure, software glitches, and
even network outages without losing data
or functionality.
Having multiple copies isn't useful
unless you can access one of them.
Google spreads its copies across
different geographic regions. So even
when an entire country goes offline,
Google services are still accessible to
everyone else.
Google has failover mechanisms to
automatically handle most problems. When
a server or data center becomes
unavailable, traffic is instantaneously
redirected to another location. These
ensures uninterrupted service
because its services are distributed.
Google can easily adjust the number of
instances as required. When traffic
increases, servers are added to handle
the additional load. When traffic
decreases, servers are removed to lower costs.
costs.
Cloud load balancers provide a single
point of entry for resources.
They intelligently distribute request
based on server health, capacity, and
location. These ensures no part of your
infrastructure gets overwhelmed.
Optimizing performance and reducing latency.
Google Cloud Platform offers various
load balancers tailored for specific workloads.
workloads.
Let's break them down using four main attributes.
attributes.
Access type.
Load balances can be internal or
external. Internal load balancers use
private IP addresses accessible only
within Google Cloud. External load
balancers use public IP addresses
accessible from anywhere on the
internet. Choose based on whether your
service is internal or public facing.
Next scope load balances can be regional
or global.
Regional load balancers distribute
traffic across multiple jones ensuring
servicing service during jonal outages.
Global load balancers distribute traffic
across multiple regions providing
resonance against both jonal and
regional outages.
Third traffic type. Load balances handle
specific network traffic types. For web
servers, use HTTP or HTTPS load
balances. For V servers, use UDP load balances.
balances.
Understanding your traffic type is
crucial for selecting the right load
balancer. Finally, termination. Proxy
load balancers terminate client
connections allowing advanced
configurations like single SSL certificates.
certificates.
pass through load balances forward
packets directly preserving client IP information.
information.
By understanding these four attributes,
you can select the right Google Cloud
Platform load balancers for any application.
To troubleshoot load balancers, start
with logging. Logs provide detailed
insights into issues. Remember, logging
is not enabled by default. Enable it
during creation or by editing the load
balancer under backend configuration.
Set a sample rate to control log volume.
Use logs explorer to filter and view
specific log entries like http load
balancer. Next, monitoring. Accessing.
Access the monitoring dashboard from the
load balancer page. Click on the load
balancer. Then the monitoring tab for a
high level overview. For detailed
insights, go to the cloud monitoring
page and select Google Cloud load
balances. These dashboards track errors,
latency, and more, helping you identify
patterns and issues.
Finally, create a custom dashboards. On
the cloud monitoring page, click create
dashboard. Add charts and graphs to
track specific metrics like load
balancer backend utilization. Customize
these dashboards to suit your needs and
set up alerts to notify you when metrics
exceed thresholds. This combination of
logging and monitoring ensures
Ever wondered what a VPN is? Let's break
it down. A VPN, a virtual private
network, creates a secure connection
between private networks using the
public internet. A VPN acts like a
single seamless network allowing
resources in different networks to
connect as if they were in the same
network. It keeps your networks private
and secure through encryption.
Modern VPNs use encryption to securely
exchange data over the public internet.
These means your private networks remain
inaccessible to the general public,
ensuring your data stays safe.
VPNs can make your device appear to be
in a different country by changing your
IP addresses. They also allow remote
employees to securely access corporate
networks and connect multiple data
centers across vast instances.
VPNs are cost effective and easy to set
up but rely on internet connectivity.
Slow or unstable internet can affect VPN
performance. While encryption adds
security, older methods can be
vulnerable. For highly sensitive data,
VPNs might not be secure enough. VPNs
offer a practical solution for secure
private connections. However, for higher
reliability and security, consider
alternatives like cloud interconnect or
CloudVPN is a Google Cloud Platform
service that links an external network
with your virtual private cloud. Many
companies have resources spread across
on premises, Google Cloud and other
public clouds. CloudVPN ensures seamless
communication between these environments.
environments.
ClassicVPN was the original offering. It
uses a single interface and external IP
address. While it supports static
routing, a tunnel failure disrupts activities.
activities.
Classic VPN is mostly depra decapricated
as of March 31, 2022, but it's still
useful for older gateways without border
gateway protocol support.
High availability VPN introduced in 2019
offers multiple interfaces and IPs.
If one tunnel fails, another takes over
and shows 99.99%
uptime. This makes it more reliable than
classic VPN. However, it only supports
dynamic routing, not static.
Google encourages migration to high
availability VPN due to its reliability.
Classic VPN is only recommended if your
external network uses an old gateway
that doesn't support border gateway
protocol. For everyone else, high
availability VPN is the better choice.
CloudVPN supports only the IPAC
protocol, making it incompatible with
SSLR wire guard. It's designed for side
to side connections nor client to
gateway or remote access scenarios.
Despite these limitations, it's
excellent for hybrid and multicloud environments.
Google Cloud DNS is a global domain name
service that simplifies domain
management. It allows you to map address
public IP addresses to public domain
names and create private domain names.
One standout feature is the ability to
use internal DNS names instead of hard
coding IP addresses. These flexibility
is invaluable for managing complex
infrastructure, making testing and
deployment much easier across multiple
environments like development, testing,
staging, and production.
With Google Cloud DNS, you don't need to
maintain your own DNS servers or software.
software.
The service is fully managed and highly
scalable, capable of handling millions
of records. It offers 100% availability
and low latency access from anywhere in
the world. Additionally, you can
generate detailed logs for monitoring
and troubleshooting.
Google Cloud DNS ensures high
scalability and reliability. It can
manage millions of records effortlessly,
providing low latency and 100%
availability globally. This makes it a
roadest choice for any business.
If you already have a Google Cloud
Platform account, using Google Cloud DNS
is no barrier. It streamlines domain
management and enhances your
infrastructure flexibility and reliability.
Before diving into cloud DNS, it's
crucial to understand DNS zones.
A DNS zone is a container for DNS
records sharing the same name suffix.
These zones automatically generate
essential records like NS and S SOA.
Cloud DNS offers two types of jones
public and private. Public jones are
visible to the entire internet while
private jones are restricted to
specified virtual private cloud or VPC networks.
networks.
Sometimes you may need both public and
private jones for the same domain. This
setup known as split horizont
allows different results for the same
domain name based on the source IP address.
address.
To set up split DNS, create both the
public and private jone for the same
domain and add the appropriate records.
This way internet users get the public
IP while internal
resources get the private IP.
Public DNS Jones can enforce DNS
security extension or DNS SSC.
DN SSEC authenticates responses for
domain name lookups, ensuring data
integrity and preventing redirection to
harmful servers. DNS forwarding allows
requests for certain domains to be
resolved by another DNS server. DNS
pairing on the other hand forwards
request between VPCs enabling internal
to internal routting. Understanding
these concepts is key to effectively
managing cloud DNS. Whether it's public,
private or split jones, each has its
To fully utilize cloud DNS,
understanding DNS policies is crucial.
These policies allow you to override
default settings, enabling both simple
and advanced configurations.
On premises DNS resolution. Handling all
DNS resolutions on premises involves
adding a cloud DNS policy specifying an
alternative name server.
These bypasses cloud DNS but increases
latency and risks disruptions if the
on-prim connection fails. Using cloud
DNS for all DNS resolution requires a
policy for inbound query forwarding.
This setup shares name resolution
services across networks but also
suffers from higher latency and
potential disruptions if the GCP
connection fails.
A hybrid DNS environment combines both
on-prim and cloud DNS. Set up a
forwarding zone for on-prim resources
and enable inbound DNS forwarding for
GCP access. These approach balances
flexibility and reliability.
While onprim and cloud only strategies
have drawbacks, a hybrid DNS environment
offers the best of both worlds. It's a
recommended practice by Google for
optimal performance and minimal headache.
Securing cloud resources can be challenging.
challenging.
As your systems grow and become more
complex, the total number of potential
vulnerabilities increases.
Minimizing your attack surface is
crucial to maintaining security.
Physically securing a room with a single
door is much easier than securing an
entire building with many entrances.
Similarly, securing a private network is
easier than a public one. Assigning
public IPs only when absolutely
necessary. Cutting of VMs and Kubernetes
clusters from the internet can limit
updates and patches.
Network address translation or NAT
allows you to assign a single IP address
to a group of computers. These enables
internal network request to reach the
internet while blocking incoming requests.
requests.
Setting up NAT in Google Cloud Platform
is straightforward with Google CloudNet.
It works with both compute engine VMs
and cloud Kubernetes engine. Fully
managed, it requires no maintenance of
NAT gateways and is highly scalable and reliable.
reliable.
Google CloudNat offers flexibility with
manual and auto modes. In auto mode,
CloudNat manages everything for you.
Even if a zone goes down, CloudNat
remains available across the region,
ensuring your VM stays secure and upto-date.
CloudNet allows your private virtual
machines to access the internet without
exposing them to public IP addresses.
Let's walk through setting it up. First,
ensure you have two virtual machines, a
public VM with both internal and
external IP addresses and a private VM
with only an internal IP address. Both
should be in the same virtual private
cloud or VPC but different subnets.
Verify the public VM internet access
using the curl method. It should return
your public IP address and load
websites. For the private VM, the curl
command will time out indicating no
internet access.
Navigate to cloudnat and click get
started. Name your gateway. Select your
VPC network and region and create a new
router. The default settings will map
all subnets to the NAT gateway and
assign NAT IP addresses automatically.
Click create. Once the gateway is
created, test the private VMs internet
access again using curl.
It should now connect successfully
showing the NAD public IP address.
Explore advanced configurations like
setting manual IP addresses, enabling
logging and adjusting connection
settings. These options provide greater
control and customization for your
Google Kubernetes Engine, GKE, is a
fully managed Kubernetes service. No
need to manually install Kubernetes.
It's all set up and ready to go,
simplifying your operations.
GKE handles most system management
tasks, offering advanced features like
automatic node scaling, repairing, and
upgrading. This means you can focus on
your applications while GKE takes care
of the heavy lifting.
Kubernetes is an open-source container
orchestration system ideal for running
many containerized applications. It's
especially useful for complex micro
service architectures requiring hundreds
of thousands of containers.
Kubernetes uses a distributed system
deploying containers onto virtual
machines called nodes grouped into
clusters. This setup ensures high
availability and easy scaling as nodes
can take over if one fails.
A Kubernetes cluster has two main
components. The control plane and worker
nodes. The control plane orchestrates
tasks and manages node health while
worker node run the containerized
application. In summary, JKE simplifies
Kubernetes management allowing you to
create cluster with control plane and a
worker node. This setup ensures
efficient, scalable and reliable
Kubernetes is designed to run
containerized applications. While you
might think of containers, Kubernetes
focuses on parts and workloads. Let's
break down what these terms mean. In
Kubernetes, a pod is the closest thing
to a container. A pod can contain one or
more containers bundled together sharing
storage and network resources.
Most pods have a single container making
pod and a container almost
interchangeable. However, multiple
containers in a pod can work together seamlessly.
seamlessly.
You don't directly create pods in
Kubernetes. Instead, you define
workloads which then create the pods.
The workload represents an application
and sets deployment rules for pods.
These includes how many parts to deploy
these hardware requirements and how they
should run workloads ensures flexibility
and scalability in your application.
Initially you will likely create
workloads with a single pod in a
container but Kubernetes allows you to
run pods on multiple nodes providing
redundancy and scalability.
These abstraction helps Kubernetes
manage complex applications efficiently.
When working with Kubernetes, remember
you are deploying workloads. These
workload consist of pods which contain
containers. This structure offers the
flexibility and scalability needed for
So, let's explore how to create and
manage Google Kubernetes Engine clusters.
First, log into the Google Cloud Console
and navigate to the Kubernetes Engine
page. Click on the create button to
start a new cluster. Choose a standard
cluster for more control over configurations.
configurations.
Name your cluster and configure the
worker node, selecting machine types and
the number of nodes.
Node pools allow you to have different
types of nodes within the same cluster.
You can create multiple node pools to
support various workloads. For example,
one pool can have generalpurpose
machines while another can have compute
optimized machines.
These flexibility helps in managing
diverse workloads efficiently.
Google communities engine supports
autoscaling to handle varying workloads.
Vertical pod autoscaling adjusts CPU and
memory resources for your pods.
Horizontal pod autoscaling changes the
number of pods based on resource consumption.
consumption.
Node autoscaling adjusts the number of
nodes in your cluster, ensuring
efficient resource use and cost management.
To troubleshoot your Google Kubernetes
Engine, start by checking the logs. This
is the first step to identify and fixing
any issues with Kubernetes.
Log into the web console and navigate to
the Kubernetes engine page. Click on the
cluster name and then the logs tab. Here
you can filter by severity and search
for the specific test strings.
For more detailed information, click on
the log logs explorer link. This tool
provides an expanded set of records and
filters, allowing you to drill down into
the details and locate error messages.
Monitoring helps identify issues that
aren't immediately obvious on the
clusters page. Click the operations
button. These pop-up includes logs,
metrics, events, and alerts. For more
details, use the cloud monitoring
dashboard. Set up alerts by clicking on
alerting. Choose the metrics to monitor
and set thresholds for notifications.
For example, get notified if memory
usage spikes or if a pod generates many errors.
errors.
By combining logs, monitoring and
alerts, you can effectively troubleshoot
Developing microservices on Kubernetes
involves more than just building and
deploying containers. Effective
communication between containers is crucial.
crucial.
An unreachable
API is useless and failures can cascade
through dependent services.
Name spaces in Kubernetes help organize
your containers. Think of them like
folders in a file system but not
hierarchical. Every pod in a Kubernetes
cluster is assigned to a namespace with
default being the fallback if none is specified.
specified.
In smaller environments, the default
name space might suffice, but in longer
setups, managing hundreds of thousands
of containers in one name space can be chotic.
chotic.
Name spaces help avoid conflicts and
accidental deletions by dividing the
cluster into virtual clusters for
different teams.
Name spaces do not provide isolation.
Containers in different name spaces can
still communicate.
Kubernetes clusters like those in Google
Cities engine come with predefined name
spaces like default cube-
system cube public and cube node
release. It's best to leave the cube
dash name spaces alone. To demonstrate, create a j cluster and a couple of name
create a j cluster and a couple of name spaces. deploy a simple app to each
spaces. deploy a simple app to each namespace.
namespace. This shows how name spaces prevent
This shows how name spaces prevent naming conflicts and help manage
naming conflicts and help manage resources efficiently.
resources efficiently. You can also manage namespaces via the
You can also manage namespaces via the Google cloud console. Name spaces are
Google cloud console. Name spaces are essential for organizing and managing
essential for organizing and managing microservices on Kubernetes, especially
microservices on Kubernetes, especially in large environments.
you have a containerized web server running in a Kubernetes cluster. Each
running in a Kubernetes cluster. Each pod gets an IP address, but these IPs
pod gets an IP address, but these IPs change as parts are created and
change as parts are created and destroyed. These makes direct traffic
destroyed. These makes direct traffic rooting unreliable.
rooting unreliable. Kubernetes services solve this problem
Kubernetes services solve this problem by defining a set of pods and setting a
by defining a set of pods and setting a policy to access them.
policy to access them. Think of services as internal load
Think of services as internal load balances mapping a single IP address to
balances mapping a single IP address to a group of parts ensuring reliable
a group of parts ensuring reliable connectivity.
connectivity. There are five types of Kubernetes
There are five types of Kubernetes services. Cluster IP, headless, node
port, load balancer, and external name. Cluster IP is the default. Mapping an
Cluster IP is the default. Mapping an internal IP to ports. Load balancer uses
internal IP to ports. Load balancer uses a cloud providers load balancer for
a cloud providers load balancer for external access.
external access. To create a load balancer service, use a
To create a load balancer service, use a command specifying the service type and
command specifying the service type and name space. This service maps to an
name space. This service maps to an external IP allowing public access.
external IP allowing public access. Verify it works by connecting to the
Verify it works by connecting to the external IP with the curl command.
external IP with the curl command. Creating a cluster IP service is similar
Creating a cluster IP service is similar but for internal access only. It doesn't
but for internal access only. It doesn't get an external IP. To test it, connect
get an external IP. To test it, connect from a pod inside the cluster using a
from a pod inside the cluster using a shell command. These ensures internal
shell command. These ensures internal connectivity is working.
Kubernetes network policies are essential for controlling traffic at the
essential for controlling traffic at the IP address and port level. They help
IP address and port level. They help secure your cluster by simplifying what
secure your cluster by simplifying what types of access are allowed for each
types of access are allowed for each board or name space. Cluster IP and load
board or name space. Cluster IP and load balancer services
balancer services enable internal access within the
enable internal access within the cluster while load balancer services
cluster while load balancer services allow external access. But what if you
allow external access. But what if you need more control over these
need more control over these connections? That's where network
connections? That's where network policies come in. By default, Kubernetes
policies come in. By default, Kubernetes allows all traffic. However, once you
allows all traffic. However, once you create a network policy, any connection
create a network policy, any connection not explicitly allowed will be denied.
not explicitly allowed will be denied. This is crucial for securing a
This is crucial for securing a production environment.
production environment. Network policies are defined using YAML
Network policies are defined using YAML files. You can specify policies for
files. You can specify policies for ingress and egress traffic. These
ingress and egress traffic. These policies are addictive, meaning they act
policies are addictive, meaning they act like a white list, not a block list. For
like a white list, not a block list. For example, you could allow all incoming
example, you could allow all incoming connections but deny all outgoing
connections but deny all outgoing connections or allow connections only
connections or allow connections only for certain IPs.
for certain IPs. These flexibility helps tailor security
These flexibility helps tailor security to your specific needs. Imagine you have
to your specific needs. Imagine you have a web server container. You could set a
a web server container. You could set a policy to allow ingress on ports 80 and
policy to allow ingress on ports 80 and 443 automatically denying all other
443 automatically denying all other parts ports. This ensures only necessary
parts ports. This ensures only necessary traffic reaches your server.
Creating a new cluster in Google communities engine can be overwhelming.
communities engine can be overwhelming. With so many options, it's crucial to
With so many options, it's crucial to understand the difference between JKE
understand the difference between JKE standard and JKE autopilot.
standard and JKE autopilot. JK standard offers maximum control you
JK standard offers maximum control you decide on clusterwide settings, node
decide on clusterwide settings, node pool size, machine types, and operating
pool size, machine types, and operating systems. This hands-on approach requires
systems. This hands-on approach requires you to monitor node health and compute
you to monitor node health and compute capacity making it ideal for those who
capacity making it ideal for those who need detailed customization.
need detailed customization. JKE autopilot simplifies the process by
JKE autopilot simplifies the process by preconfiguring optimized settings. It
preconfiguring optimized settings. It handles maintenance, autoscaling and
handles maintenance, autoscaling and repairs automatically.
repairs automatically. This approach is perfect for those who
This approach is perfect for those who prefer hasslefree setup leveraging
prefer hasslefree setup leveraging Google's best practices without the need
Google's best practices without the need for extensive research.
for extensive research. Autopilot can also save you money. You
Autopilot can also save you money. You pay for board instead of per node. This
pay for board instead of per node. This means you only pay for the resource you
means you only pay for the resource you use, unlike standard clusters where you
use, unlike standard clusters where you pay for provisioned nodes regardless of
pay for provisioned nodes regardless of usage.
To create a cluster, log into the Google Cloud Platform console. Choose either
Cloud Platform console. Choose either standard or autopilot based on your
standard or autopilot based on your needs. Autopilot requires minimal input
needs. Autopilot requires minimal input while standard offers extensive
while standard offers extensive customization options. Both types
customization options. Both types provide tutorials to guide you through
provide tutorials to guide you through the setup process. Autopilot suits most
the setup process. Autopilot suits most use cases with its ease and efficiency.
use cases with its ease and efficiency. Standard is best for advanced needs.
Standard is best for advanced needs. Remember, you can't convert between
Remember, you can't convert between types, so choose wisely. Experiment with
types, so choose wisely. Experiment with both to find what works best for you.
When creating a Google Kubernetes Engine cluster, you can choose between public
cluster, you can choose between public and private. Public clusters assign
and private. Public clusters assign nodes both private and public IP
nodes both private and public IP addresses allowing direct internet
addresses allowing direct internet access. This is useful for microservices
access. This is useful for microservices needing external access but comes with
needing external access but comes with security risks. Private cluster assign
security risks. Private cluster assign nodes only private IP addresses
nodes only private IP addresses isolating them from direct internet
isolating them from direct internet communication. These enhances security
communication. These enhances security but limits connectivity. Nodes can't
but limits connectivity. Nodes can't connect to the internet unless
connect to the internet unless configured with cloud network address
configured with cloud network address translation or cloudnat. This step is
translation or cloudnat. This step is more secure but less flexible.
more secure but less flexible. Both public and private clusters have a
Both public and private clusters have a public endpoint for the control plan
public endpoint for the control plan used for cluster management. Private
used for cluster management. Private clusters also have a private endpoint
clusters also have a private endpoint which can be used if the public endpoint
which can be used if the public endpoint is disabled. enhancing security but
is disabled. enhancing security but limiting management options. You can
limiting management options. You can restrict access to the public endpoint
restrict access to the public endpoint by configuring an authorized network.
by configuring an authorized network. These allows only pre-approved networks
These allows only pre-approved networks to connect, balancing remote
to connect, balancing remote administration with security. Disabling
administration with security. Disabling authorized networks allow management
authorized networks allow management from anywhere but increase risk. In
from anywhere but increase risk. In summary, public clusters offer
summary, public clusters offer accessibility but less security. Private
accessibility but less security. Private clusters provide better security by
clusters provide better security by isolating nodes. You can enhance
isolating nodes. You can enhance security further by disabling the public
security further by disabling the public endpoint or using authorized networks.
endpoint or using authorized networks. Choose based on your specific needs for
Choose based on your specific needs for connectivity and security.
When creating a Google Kubernetes Engine cluster, you need to consider your
cluster, you need to consider your availability requirements. Google offers
availability requirements. Google offers two types of clusters, journal and
two types of clusters, journal and regional. Let's explore the differences.
regional. Let's explore the differences. Jonal clusters have a single control
Jonal clusters have a single control plan in one jone. If that jone goes
plan in one jone. If that jone goes down, your cluster becomes unreachable.
down, your cluster becomes unreachable. Nodes can be spread across multiple
Nodes can be spread across multiple jones, but the control plan remains a
jones, but the control plan remains a single point of failure. Regional
single point of failure. Regional clusters run multiple copies of the
clusters run multiple copies of the control plane across multiple jones.
control plane across multiple jones. These setup ensures high availability as
These setup ensures high availability as the cluster remains operational even if
the cluster remains operational even if one or two jones fails. Regional
one or two jones fails. Regional clusters also avoid downtime during
clusters also avoid downtime during upgrades. Regional clusters are ideal
upgrades. Regional clusters are ideal for production environments due to their
for production environments due to their resilence. Jonal clusters while less
resilence. Jonal clusters while less expensive and faster to configure are
expensive and faster to configure are better suited for non-critical
better suited for non-critical operations like development or testing.
operations like development or testing. To create a regional cluster, select
To create a regional cluster, select autopilot in the GCP console. For a
autopilot in the GCP console. For a journal cluster, choose standard and
journal cluster, choose standard and configure your jones. Remember the
configure your jones. Remember the default for standard is journal but you
default for standard is journal but you can distribute nodes across multiple
can distribute nodes across multiple jones
in Google Kubernetes Engine. Traffic routting between pods can be managed
routting between pods can be managed using allies IPIs or Google cloud roots.
using allies IPIs or Google cloud roots. Let's break down these two methods and
Let's break down these two methods and their benefits.
their benefits. Allies IPs involve assigning multiple IP
Allies IPs involve assigning multiple IP addresses to a network interface.
addresses to a network interface. In GKE, this means allocating a range of
In GKE, this means allocating a range of IPs for nodes, parts, and services. GKE
IPs for nodes, parts, and services. GKE then distributes these IPs as needed,
then distributes these IPs as needed, making it a seamless process. Google
making it a seamless process. Google Cloud roots on the other hand are custom
Cloud roots on the other hand are custom static root roots defined in a virtual
static root roots defined in a virtual private cloud or VPC. This method
private cloud or VPC. This method requires manual management of roots
requires manual management of roots similar to setting up static roots for
similar to setting up static roots for virtual machines. Clusters using allies
virtual machines. Clusters using allies IPs are called VPC native clusters. They
IPs are called VPC native clusters. They allocate three IP ranges for nodes, pods
allocate three IP ranges for nodes, pods and services. This method is best
and services. This method is best practice offering benefits like native
practice offering benefits like native rootability within the VPC and avoiding
rootability within the VPC and avoiding IP conflicts.
IP conflicts. Roots based clusters handle IP
Roots based clusters handle IP allocation differently requiring minimal
allocation differently requiring minimal creation of IP ranges for parts and
creation of IP ranges for parts and services. This method uses the
services. This method uses the Kubernetes control plan to maintain
Kubernetes control plan to maintain static roots to each node. In most
static roots to each node. In most cases, VPC native mode is recommended
cases, VPC native mode is recommended for its simplicity and efficiency.
for its simplicity and efficiency. Choose rootsbased clusters only for
Choose rootsbased clusters only for specific requirements.
Google Cloud Platform is a powerful tool for building almost anything. But
for building almost anything. But sometimes you don't need a custom
sometimes you don't need a custom solution. Google Cloud Marketplace
solution. Google Cloud Marketplace offers a wide array of commercial and
offers a wide array of commercial and open-source software packages to meet
open-source software packages to meet your needs. With Google Cloud
your needs. With Google Cloud Marketplace, deploying applications is
Marketplace, deploying applications is simple. No need to manually provisions
simple. No need to manually provisions resources or configure software. Just
resources or configure software. Just pick a package, review cost and click
pick a package, review cost and click launch. It's that easy to start. Log
launch. It's that easy to start. Log into the Google Cloud Platform console,
into the Google Cloud Platform console, search for marketplace and click the
search for marketplace and click the link. Browse the catalog or search for a
link. Browse the catalog or search for a specific product. You can filter by
specific product. You can filter by categorize categories to find exactly
categorize categories to find exactly what you need. Google Cloud Marketplace
what you need. Google Cloud Marketplace offers various types of software
offers various types of software packages, virtual machines, Kubernetes
packages, virtual machines, Kubernetes apps, software as a service and
apps, software as a service and application programming interfaces and
application programming interfaces and container images. Each type has
container images. Each type has different deployment and cost
different deployment and cost implications.
implications. Let's deploy Drupal using virtual
Let's deploy Drupal using virtual machine. Search for Drupal. Select the
machine. Search for Drupal. Select the correct type. Review details and cost
correct type. Review details and cost and click launch. Customize settings if
and click launch. Customize settings if needed. Accept the terms and condition
needed. Accept the terms and condition terms of services and deploy. Once
terms of services and deploy. Once complete, manage your new VM from the
complete, manage your new VM from the compute engine page.
are fantastic. They are easy to build, deploy, and are highly portable. They
deploy, and are highly portable. They start up faster and are smaller than
start up faster and are smaller than virtual machines, but managing them can
virtual machines, but managing them can be a hassle. Manually scaling and
be a hassle. Manually scaling and maintaining containers is labor
maintaining containers is labor intensive. What happens when a container
intensive. What happens when a container crashes or gets overwhelmed with
crashes or gets overwhelmed with request? Kubernetes can help, but it
request? Kubernetes can help, but it adds complexity with clusters, nodes,
adds complexity with clusters, nodes, boards, and controllers.
boards, and controllers. Enter Google Cloud Run. It allows you to
Enter Google Cloud Run. It allows you to run containers in a serverless
run containers in a serverless environment, eliminating the need for to
environment, eliminating the need for to manage infrastructure. Request based
manage infrastructure. Request based autoscaling handles memory and CPU needs
autoscaling handles memory and CPU needs automatically.
automatically. Start with a single instant. As demand
Start with a single instant. As demand increases, Cloud Run creates additional
increases, Cloud Run creates additional instances. When demand drops, it
instances. When demand drops, it terminates those extra in instances,
terminates those extra in instances, saving you money. If a container
saving you money. If a container crashes, Cloud Run seamlessly replaces
crashes, Cloud Run seamlessly replaces it. Cloud Run supports almost
it. Cloud Run supports almost everything. If you can build a container
everything. If you can build a container image, you can deploy it. The Google
image, you can deploy it. The Google Cloud SDK can even deploy your container
Cloud SDK can even deploy your container from source for languages like Java,
from source for languages like Java, Python, or NodeJS.
Python, or NodeJS. It supports hybrid and multi cloud
It supports hybrid and multi cloud environments including AWS and Azure.
Google Cloud Function simplifies your cloud workflow by allowing you to
cloud workflow by allowing you to trigger small bits of code based on
trigger small bits of code based on events. This makes it easier to connect
events. This makes it easier to connect and orchestrate multiple Google Cloud
and orchestrate multiple Google Cloud services.
services. Imagine a company wants customer to
Imagine a company wants customer to upload document images. Cloud storage
upload document images. Cloud storage stores the images. documents AI passes
stores the images. documents AI passes them and cloud SQL stores the data.
them and cloud SQL stores the data. Cloud functions acts as the glue code to
Cloud functions acts as the glue code to automate these workflows seamlessly.
automate these workflows seamlessly. First, it requires less code spending up
First, it requires less code spending up development and testing. Second, it
development and testing. Second, it offers flexibility enabling complex
offers flexibility enabling complex workflows with multiple entry points in
workflows with multiple entry points in exist. Third, it cost effective and
exist. Third, it cost effective and scalable as you only pay when functions
scalable as you only pay when functions run avoiding expensive always on
run avoiding expensive always on applications.
applications. While cloud run is more powerful and
While cloud run is more powerful and flexible, supporting multiple languages
flexible, supporting multiple languages and better scaling, it requires more
and better scaling, it requires more code and setup. Cloud functions, though
code and setup. Cloud functions, though less flexible, are simpler and optimized
less flexible, are simpler and optimized for connecting cloud services like
for connecting cloud services like building blocks, making them ideal for
building blocks, making them ideal for straightforward, event-driven tasks.
straightforward, event-driven tasks. Google Cloud Functions allows you to
Google Cloud Functions allows you to build powerful event-driven systems with
build powerful event-driven systems with minimal code, making it easier to
minimal code, making it easier to connect to various Google Cloud products
connect to various Google Cloud products and even third party services.
Let's explore the basics of identity and access management in Google cloud.
access management in Google cloud. We will also cover for practices for
We will also cover for practices for applying IM to your Google cloud
applying IM to your Google cloud platform projects. So security in the
platform projects. So security in the cloud means not every employee should
cloud means not every employee should have access. For instance, system
have access. For instance, system administrator can create and delete
administrator can create and delete virtual machines while developers use
virtual machines while developers use existing ones. Each role needs different
existing ones. Each role needs different permissions. Google Cloud Identity and
permissions. Google Cloud Identity and Access Management or IM is a managed
Access Management or IM is a managed service that enforces security for your
service that enforces security for your Google Cloud Platform resources. It
Google Cloud Platform resources. It offers a single dashboard to view
offers a single dashboard to view identities and their access levels
identities and their access levels across various services.
across various services. Google Cloud resources are organized
Google Cloud resources are organized hierarchically. Policies applied at a
hierarchically. Policies applied at a higher level like the organization level
higher level like the organization level propagate down to folders, projects and
propagate down to folders, projects and resources. These allow for flexible
resources. These allow for flexible companywide protections and specific
companywide protections and specific overrides. The core principle of IM is
overrides. The core principle of IM is lease privilege. These means limiting
lease privilege. These means limiting permissions to the minimum necessary for
permissions to the minimum necessary for each user or application. By using cloud
each user or application. By using cloud IM you ensure strong platform security
IM you ensure strong platform security allowing only authorized users to access
allowing only authorized users to access your resources.
Let's explore how to use cloud identity and access management IM effectively.
and access management IM effectively. To access the IM dashboard, navigate to
To access the IM dashboard, navigate to IM and admin from the menu or search for
IM and admin from the menu or search for it. This brings you to the IM page where
it. This brings you to the IM page where you can manage project principles and
you can manage project principles and roles. Principles are accounts with
roles. Principles are accounts with access to your project where roles are
access to your project where roles are groups of permissions assigned to these
groups of permissions assigned to these accounts. For example, the owner role
accounts. For example, the owner role grants full access but not every user
grants full access but not every user should have these. To assign roles,
should have these. To assign roles, click the IM, then add, enter the user's
click the IM, then add, enter the user's email and select roles like basic viewer
email and select roles like basic viewer or readonly access or app engine creator
or readonly access or app engine creator for creating applications. Save to
for creating applications. Save to finalize. For custom roles, go to roles
finalize. For custom roles, go to roles and click create role. Name your role,
and click create role. Name your role, set a launch stage, and add specific
set a launch stage, and add specific permissions. These allows you to tailor
permissions. These allows you to tailor access preciously
access preciously to your needs. Now you know how to
to your needs. Now you know how to navigate the IM dashboard, understand
navigate the IM dashboard, understand principles and roles, assign roles, and
principles and roles, assign roles, and create custom roles. These ensure secure
create custom roles. These ensure secure and efficient management of your cloud
and efficient management of your cloud resources.
Now let's explore what a service account is and how to use them in the Google
is and how to use them in the Google Cloud Platform project. A service
Cloud Platform project. A service account is a similar to your user
account is a similar to your user account but while user accounts are for
account but while user accounts are for people, service accounts are for
people, service accounts are for computers. For example, if software
computers. For example, if software needs to write a file to cloud storage,
needs to write a file to cloud storage, it uses a service account.
it uses a service account. Service accounts are essential for
Service accounts are essential for scenarios where virtual machines or
scenarios where virtual machines or containers need to access other GCP
containers need to access other GCP resources. Any authentication using RSA
resources. Any authentication using RSA key pairs and must have the correct
key pairs and must have the correct permissions to perform tasks like
permissions to perform tasks like calling an API or accessing a database.
calling an API or accessing a database. Though service accounts and user
Though service accounts and user accounts seem almost identical, they
accounts seem almost identical, they differ in key ways. Service accounts do
differ in key ways. Service accounts do not use real email addresses or
not use real email addresses or passwords. Instead, they use RSA key
passwords. Instead, they use RSA key pairs for authentication but are managed
pairs for authentication but are managed similarly to user accounts. By creating
similarly to user accounts. By creating and assigning service accounts, you can
and assigning service accounts, you can prevent unauthorized programs from
prevent unauthorized programs from accessing your GCP resources. This
accessing your GCP resources. This separation ensures that test systems
separation ensures that test systems cannot connect to production systems and
cannot connect to production systems and allows you to control resource access
allows you to control resource access between different teams.
Managing service accounts in Google Cloud Platform or GCP is essential for
Cloud Platform or GCP is essential for controlling permissions. So let's create
controlling permissions. So let's create a service account, assign roles and link
a service account, assign roles and link it to your virtual mission. First
it to your virtual mission. First navigate to the IM and admin page and
navigate to the IM and admin page and select service accounts. Click create
select service accounts. Click create service account. Enter a name and
service account. Enter a name and optionally add a description. These
optionally add a description. These generates a service account ID
generates a service account ID resembling an email address. To assign
resembling an email address. To assign roles, click create and continue. You
roles, click create and continue. You can search for roles or scroll through
can search for roles or scroll through the list. For instance, to allow reading
the list. For instance, to allow reading from cloud storage, select storage
from cloud storage, select storage object viewer. Click done to finish.
object viewer. Click done to finish. Next, create a new virtual machine in
Next, create a new virtual machine in Compute Engine. Name it and change the
Compute Engine. Name it and change the default service accounts to the one you
default service accounts to the one you just created. Confirm the VM creation
just created. Confirm the VM creation and it will inheritions.
and it will inheritions. If you need to change the service
If you need to change the service account later, stop the VM first. Edit
account later, stop the VM first. Edit the VM settings. Select the new service
the VM settings. Select the new service account. Save and restart the VM for
account. Save and restart the VM for changes to take effect. Service accounts
changes to take effect. Service accounts offer flexibility and can be used across
offer flexibility and can be used across projects.
projects. Now you know how to create, assign roles
Now you know how to create, assign roles and manage service accounts in GCP.
In a production environment, numerous users, applications, and resources
users, applications, and resources interact constantly. When something goes
interact constantly. When something goes wrong like a deleted virtual machine are
wrong like a deleted virtual machine are denied access, detailed logs are
denied access, detailed logs are essential to figure out the issue.
essential to figure out the issue. Google Cloud Platform maintains audit
Google Cloud Platform maintains audit logs that record all activity and access
logs that record all activity and access to your resources. These logs answer
to your resources. These logs answer critical questions. Which resource was
critical questions. Which resource was accessed? Who accessed it? What action
accessed? Who accessed it? What action was attempted? When did it occur? These
was attempted? When did it occur? These helps in troubleshooting and maintaining
helps in troubleshooting and maintaining security.
security. Google Cloud's audit logs are divided
Google Cloud's audit logs are divided into four main categories. Admin
into four main categories. Admin activity, data access, system event, and
activity, data access, system event, and policy denied. Each category serves a
policy denied. Each category serves a specific purpose, making it easier to
specific purpose, making it easier to track and manage different types of
track and manage different types of activities within your cloud
activities within your cloud environment.
environment. Admin activity logs record attempts to
Admin activity logs record attempts to create, delete, or modify resources like
create, delete, or modify resources like provisioning a new CloudSQL database.
provisioning a new CloudSQL database. Data access logs capture entries for
Data access logs capture entries for reading or writing data to resources
reading or writing data to resources such as accessing a CloudSQL database.
such as accessing a CloudSQL database. System event logs contain entries for
System event logs contain entries for Google initiated actions that modify
Google initiated actions that modify resource configurations. Policy denial
resource configurations. Policy denial logs record every instance where access
logs record every instance where access to a resource is denied, helping you
to a resource is denied, helping you identify suspicious activities or
identify suspicious activities or potential issues.
Now let's explore how to access audit logs for your Google Cloud Platform
logs for your Google Cloud Platform project using the Google Cloud operation
project using the Google Cloud operation suit.
suit. This suit provides a centralized logging
This suit provides a centralized logging interface for all your GCP resources.
interface for all your GCP resources. To access the logging interface, use the
To access the logging interface, use the navigation menu or search for logging.
navigation menu or search for logging. Here you can view various logs from
Here you can view various logs from different GCP services in one place. You
different GCP services in one place. You can filter logs using drop- down menus.
can filter logs using drop- down menus. Filter by resource, log name, or error
Filter by resource, log name, or error severity.
severity. These filters help you quickly find the
These filters help you quickly find the logs you need. Once you find the logs
logs you need. Once you find the logs you are interested in, click the zoom
you are interested in, click the zoom icon. Scroll through entries and expand
icon. Scroll through entries and expand sections to read detailed information.
sections to read detailed information. By default, logs from the last hour are
By default, logs from the last hour are shown. To change these, click edit time
shown. To change these, click edit time and set your desired time period. For
and set your desired time period. For example, select records from the last 7
example, select records from the last 7 days from the main console. Click the
days from the main console. Click the activity tab for a simplified summary of
activity tab for a simplified summary of activity logs.
activity logs. Filter by country, activity type,
Filter by country, activity type, resource type to see specific entries
resource type to see specific entries like building or configuration changes.
like building or configuration changes. Now you know how to find and read logs
Now you know how to find and read logs using Google Cloud Operation Suit,
using Google Cloud Operation Suit, making trouble shooting and auditing
making trouble shooting and auditing easier.
Google CloudSQL is a powerful relational database service on Google Cloud
database service on Google Cloud Platform. It helps you store and
Platform. It helps you store and organize large amounts of structured
organize large amounts of structured data efficiently, making it perfect for
data efficiently, making it perfect for various applications.
various applications. Google CloudSQL organizes data into
Google CloudSQL organizes data into tables. rows and columns make it ideal
tables. rows and columns make it ideal for storing customers list or product
for storing customers list or product catalogs.
catalogs. It supports MySQL, PostgresSQL and
It supports MySQL, PostgresSQL and Microsoft SQL Server offering industry
Microsoft SQL Server offering industry standard databasees
standard databasees without the hustle of setup. CloudSQL is
without the hustle of setup. CloudSQL is commonly used for applications running
commonly used for applications running on Google Cloud services like compute
on Google Cloud services like compute engine, communities engine and cloud
engine, communities engine and cloud functions. It can also be accessed by
functions. It can also be accessed by external applications whether on
external applications whether on premises or on other cloud providers.
premises or on other cloud providers. While cloudSQL is a drop in replacement
While cloudSQL is a drop in replacement for MySQL or SQL server, Cloud Spanner
for MySQL or SQL server, Cloud Spanner is more powerful and suited for high
is more powerful and suited for high demand scenarios.
demand scenarios. BigQuery on the other hand is designed
BigQuery on the other hand is designed for analytics and big data storing
for analytics and big data storing terabytes of information for data
terabytes of information for data scientists.
scientists. CloudSQL offers automated backups,
CloudSQL offers automated backups, replication and storage management. It
replication and storage management. It ensures data encryption at rest and in
ensures data encryption at rest and in transit, providing a secure, reliable
transit, providing a secure, reliable and highly available database solution
and highly available database solution without the headaches of manual
without the headaches of manual management.
Let's cover creating a server instance, importing an external database, and
importing an external database, and managing users.
managing users. This is about setup, not SQL queries.
This is about setup, not SQL queries. First, log into your Google Cloud
First, log into your Google Cloud Platform account and search for SQL.
Platform account and search for SQL. Click to create a new instance. Choose
Click to create a new instance. Choose your database engine, MySQL, PostgresSQL
your database engine, MySQL, PostgresSQL or Microsoft SQL Server. Each has its
or Microsoft SQL Server. Each has its own benefits and costs. Name your
own benefits and costs. Name your instance and set a password for the root
instance and set a password for the root user. Choose between production and
user. Choose between production and developer configurations. Select your
developer configurations. Select your region and zone for data residency.
region and zone for data residency. Customize machine type, storage, and
Customize machine type, storage, and connection settings. Review everything
connection settings. Review everything and click create instance. Once your
and click create instance. Once your instance is ready, import data by
instance is ready, import data by clicking the import button. You can use
clicking the import button. You can use SQL or CSV files. For example, import
SQL or CSV files. For example, import SQL file to create a database or
SQL file to create a database or populate it with records.
populate it with records. Manage your instance from the overview
Manage your instance from the overview page. Edit settings. Import. export
page. Edit settings. Import. export data, restart, stop, or clone your
data, restart, stop, or clone your instance. Use the connect to these
instance. Use the connect to these instance section to verify your data.
instance section to verify your data. Export data by clicking the export
Export data by clicking the export button and choosing your format. And
button and choosing your format. And that's a quick guide to using Google
that's a quick guide to using Google Cloud SQL.
Bitquery storage charges are incredibly cheap. It costs 2 cents per gigabyte per
cheap. It costs 2 cents per gigabyte per month, the same as cloud storage
month, the same as cloud storage standard. If you don't edit a table for
standard. If you don't edit a table for 90 days, the price drops to 1 cent per
90 days, the price drops to 1 cent per gigabyte per month. Plus, there's no
gigabyte per month. Plus, there's no charge for reading data from BigQuery
charge for reading data from BigQuery storage. The only other charge is for
storage. The only other charge is for queries. The first terabyte per month is
queries. The first terabyte per month is free. After that, it cost $6.25 per
free. After that, it cost $6.25 per terabyte, which is about 2/3 of a cent
terabyte, which is about 2/3 of a cent per gigabyte. Bitquery charges query
per gigabyte. Bitquery charges query fees regardless of where the data is
fees regardless of where the data is stored. The charge is for the
stored. The charge is for the processing, not for reading the data.
processing, not for reading the data. For customers with the steady volume of
For customers with the steady volume of queries, there's capacity based billing.
queries, there's capacity based billing. These option provides more predictable
These option provides more predictable cost, but only applies to query cost,
cost, but only applies to query cost, not storage. Storage charges remain
not storage. Storage charges remain separate.
separate. To see how much data will be processed
To see how much data will be processed by a query, you can check and query
by a query, you can check and query details. For example, a query processing
details. For example, a query processing 163 mgabytes won't cost anything if you
163 mgabytes won't cost anything if you are under the free 1 TBTE limit. Even if
are under the free 1 TBTE limit. Even if you exceed it, the cost is less than a
you exceed it, the cost is less than a tenth of a cent.
Google Cloud Pub/SUB is a scalable message query service
is a scalable message query service designed for communication between
designed for communication between different applications or services. It's
different applications or services. It's not for emails or chats, but for
not for emails or chats, but for tracking numerous changes and sharing
tracking numerous changes and sharing updates across systems. Think of it as a
updates across systems. Think of it as a tool for asynchronous messaging between
tool for asynchronous messaging between applications. Pub/sub doesn't directly
applications. Pub/sub doesn't directly deliver messages from one app to
deliver messages from one app to another. Instead, app A post updates
another. Instead, app A post updates which pub/sub stores. Later, app B can
which pub/sub stores. Later, app B can retrieve these updates. It functions
retrieve these updates. It functions more like a blog or forum where messages
more like a blog or forum where messages are published and anyone interested can
are published and anyone interested can read them later.
read them later. Pub/sub supports various communication
Pub/sub supports various communication models one to many, many to one, many to
models one to many, many to one, many to many and one to one. This flexibility
many and one to one. This flexibility allows it to cater to different
allows it to cater to different messaging needs. For instance, one
messaging needs. For instance, one sender can reach multiple receipts or
sender can reach multiple receipts or multiple senders can communicate with a
multiple senders can communicate with a single receipt. Google Cloud Pub/Sub can
single receipt. Google Cloud Pub/Sub can handle immense data volumes sending over
handle immense data volumes sending over 5 million messages per second equivalent
5 million messages per second equivalent to over 1 TBTE of data. It's a global
to over 1 TBTE of data. It's a global service ensuring messages are delivered
service ensuring messages are delivered with consistent latency regardless of
with consistent latency regardless of location without manual replication.
location without manual replication. These makes it highly scalable and
These makes it highly scalable and reliable for modern applications.
Cloud pub/sub supports the publisher subscriber model. It involves publishing
subscriber model. It involves publishing messages to a topic, subscribing to a
messages to a topic, subscribing to a topic, and receiving messages from a
topic, and receiving messages from a topic. A message is data exchanged
topic. A message is data exchanged between services stored as a text or
between services stored as a text or byte string. Publishers add messages to
byte string. Publishers add messages to topics which acts as a cues for related
topics which acts as a cues for related messages. Topics can have one or
messages. Topics can have one or multiple publishers. Subscribers are
multiple publishers. Subscribers are services that wish to receive messages
services that wish to receive messages from topics. Each subscriber needs a
from topics. Each subscriber needs a separate subscription for each topic.
separate subscription for each topic. Subscriptions ensure that messages are
Subscriptions ensure that messages are delivered to the right subscriber.
delivered to the right subscriber. Subscribers can receive messages by
Subscribers can receive messages by pulling them manually or having them
pulling them manually or having them pushed to an end point. Pull
pushed to an end point. Pull subscriptions allow control over when
subscriptions allow control over when messages are received while push
messages are received while push subscription notify subscribers or as
subscription notify subscribers or as messages arrive. Subscribers must
messages arrive. Subscribers must acknowledge or ACK each message to res
acknowledge or ACK each message to res confirm receipt.
confirm receipt. Acknowledged messages are resent until
Acknowledged messages are resent until acknowledged, ensuring no messages are
acknowledged, ensuring no messages are lost, even if a subscriber crashes.
lost, even if a subscriber crashes. Cloud sub/pub/slub
offers flexibility and resilency in message delivery, making it easier to
message delivery, making it easier to manage changes and ensure reliable
manage changes and ensure reliable communication between services.
Cloud pub/sub offers two services pub/sub
pub/sub and a pub/sub light.
and a pub/sub light. Pub/sub is a more powerful option
Pub/sub is a more powerful option providing high reliability global
providing high reliability global routting and automated capacity scaling.
routting and automated capacity scaling. It supports per message parallelism and
It supports per message parallelism and replicates messages across multiple
replicates messages across multiple jones making it the default choice for
jones making it the default choice for most users.
most users. Pub/sub
Pub/sub light is more affordable alternative
light is more affordable alternative with lower availability and durability.
with lower availability and durability. It requires manual resource management
It requires manual resource management and is limited to a single jone. Despite
and is limited to a single jone. Despite these limitations, it can be
these limitations, it can be significantly cheaper making it suitable
significantly cheaper making it suitable for costsensitive applications.
for costsensitive applications. Pub/sub automatically scales capacity
Pub/sub automatically scales capacity and offers unlimited message storage
and offers unlimited message storage with a 7-day retention limit.
with a 7-day retention limit. In contrast, pub/ sublight requires
In contrast, pub/ sublight requires manual capacity management, offers over
manual capacity management, offers over 10 terabytes per topic, and allows
10 terabytes per topic, and allows unlimited message retention.
unlimited message retention. Pub/sub routts messages globally, while
Pub/sub routts messages globally, while pub/sublight
pub/sublight is restricted to a single jone.
Pub/sub operates on a pay for what you use model ensuring you only pay for the
use model ensuring you only pay for the resources you consume and the light
resources you consume and the light version however follows a pay for what
version however follows a pay for what you provision model which can lead to
you provision model which can lead to higher cost if you overprovision
higher cost if you overprovision capacity. Choose based on your specific
capacity. Choose based on your specific needs and budget.
Cloud pub/sub is perfect for realtime event processing. It can create an
event processing. It can create an enterprisewide data sharing bus tracking
enterprisewide data sharing bus tracking business events, user interactions, and
business events, user interactions, and system failures as they happen. These
system failures as they happen. These allows for immediate responses to
allows for immediate responses to critical events. Pub/ sub excels in
critical events. Pub/ sub excels in parallel processing.
parallel processing. Imagine a website like YouTube. When a
Imagine a website like YouTube. When a user uploads a video, multiple tasks can
user uploads a video, multiple tasks can run simultaneously. One process
run simultaneously. One process re-encodes the video, other scans for
re-encodes the video, other scans for copyright issues and the third generates
copyright issues and the third generates closed captions. All these tasks can be
closed captions. All these tasks can be autoscaled using microservices.
autoscaled using microservices. Pub/sub is also great for tracking
Pub/sub is also great for tracking database changes. It notifies interested
database changes. It notifies interested services when records are added, edited
services when records are added, edited or deleted. These can synchronize
or deleted. These can synchronize multiple databases creating incremental
multiple databases creating incremental backups or log changes for big data
backups or log changes for big data analysis. Internet of thing devices
analysis. Internet of thing devices generate massive amounts of data.
generate massive amounts of data. Pubs/sub captures, stores and filters
Pubs/sub captures, stores and filters these data preventing services from
these data preventing services from being overwhelmed by unnecessary
being overwhelmed by unnecessary notifications.
notifications. These ensures efficient data management
These ensures efficient data management and processing.
Managing data growth is crucial to avoid runaway costs. Even with Google Cloud's
runaway costs. Even with Google Cloud's vast storage, object life cycle
vast storage, object life cycle management helps control these cost
management helps control these cost effectively.
effectively. You can manage cost by deleting old
You can manage cost by deleting old objects or moving them to cheaper
objects or moving them to cheaper storage classes like nearline or
storage classes like nearline or coldline storage. These can be done
coldline storage. These can be done through the cloud storage console, the
through the cloud storage console, the gcloud storage command or Google API
gcloud storage command or Google API client libraries. First create a life
client libraries. First create a life cycle configuration file with rules. For
cycle configuration file with rules. For example, delete any live object older
example, delete any live object older than 365 days. Test these rules on
than 365 days. Test these rules on non-production data to avoid accidental
non-production data to avoid accidental data loss.
data loss. If versioning is enabled, old objects
If versioning is enabled, old objects become non-current instead of being
become non-current instead of being deleted. Use the command G-Cloud storage
deleted. Use the command G-Cloud storage bucket describe to check if versioning
bucket describe to check if versioning is enabled. Enabling enable it with
is enabled. Enabling enable it with G-Cloud storage buckets update.
G-Cloud storage buckets update. Instead of deleting, you can move
Instead of deleting, you can move objects older than one year to nearline
objects older than one year to nearline storage. Objects in nearline storage
storage. Objects in nearline storage older than 3 years can be moved to
older than 3 years can be moved to coldline storage. Apply these rules
coldline storage. Apply these rules using G-Cloud storage buckets update.
using G-Cloud storage buckets update. Monitor life cycle policies through
Monitor life cycle policies through expiration time metadata and usage logs.
expiration time metadata and usage logs. Set up a logging bucket and enable
Set up a logging bucket and enable logging with G-Cloud storage buckets
logging with G-Cloud storage buckets update. Always test life cycle rules on
update. Always test life cycle rules on non-production data first.
data is the lifeblood of any business. Marketing data reveals trends. Customer
Marketing data reveals trends. Customer data improves offerings and operational
data improves offerings and operational data optimizes processes. But using this
data optimizes processes. But using this data efficiently effectively is often
data efficiently effectively is often challenging. Data can be stored in
challenging. Data can be stored in various formats and locations from SQL
various formats and locations from SQL databases to text files. Consolidating
databases to text files. Consolidating and standardizing this data is crucial
and standardizing this data is crucial but complex. The this is where data
but complex. The this is where data pipelines come in. A data pipeline is an
pipelines come in. A data pipeline is an automated workflow that moves and
automated workflow that moves and reformates data. It copies data from one
reformates data. It copies data from one location, transforms it and writes the
location, transforms it and writes the results to another. Pipelines can
results to another. Pipelines can consolidate multiple sources into a
consolidate multiple sources into a single data lake or warehouse.
single data lake or warehouse. Data pipelines have three main phases.
Data pipelines have three main phases. Reading data from a source, transforming
Reading data from a source, transforming it and writing it to a sync. The
it and writing it to a sync. The transformation phase can involve
transformation phase can involve reformatting, filtering or joining data
reformatting, filtering or joining data sets. Each transformation generates a
sets. Each transformation generates a new immutable data set.
new immutable data set. Data pipelines break down data silos and
Data pipelines break down data silos and handle repetitive task like extraction,
handle repetitive task like extraction, cleaning and formatting. They ensure
cleaning and formatting. They ensure data remains clean, consistent and ready
data remains clean, consistent and ready for analysis, making information more
for analysis, making information more accessible and useful.
Building and managing data pipelines can be challenging. Google Cloud Dataf Flow
be challenging. Google Cloud Dataf Flow simplifies this process by offering a
simplifies this process by offering a managed service for executing and
managed service for executing and maintaining data pipelines on Google
maintaining data pipelines on Google Cloud Platform.
Cloud Platform. Dataf flow is serverless, automatically
Dataf flow is serverless, automatically allocating and scaling resources. It
allocating and scaling resources. It handles workloads for any size, ensuring
handles workloads for any size, ensuring performance remains unaffected even
performance remains unaffected even during sudden spikes in data value.
during sudden spikes in data value. Dataf flow manages jobuling, fall
Dataf flow manages jobuling, fall tolerance and monitoring. It builds in
tolerance and monitoring. It builds in built-in tools help visualize pipeline
built-in tools help visualize pipeline execution, identify errors, and optimize
execution, identify errors, and optimize performance, allowing you to focus on
performance, allowing you to focus on developing pipeline logic. Unlike many
developing pipeline logic. Unlike many services, dataf flow supports both batch
services, dataf flow supports both batch and streaming jobs with the unified
and streaming jobs with the unified programming model, offering flexibility
programming model, offering flexibility and simplifying workflows.
and simplifying workflows. Batch pipelines process large finite
Batch pipelines process large finite data sets at specific times while stream
data sets at specific times while stream streaming pipeline handles real time
streaming pipeline handles real time unlimited data.
unlimited data. Dataflow uses Windows and triggers to
Dataflow uses Windows and triggers to manage and process streaming data
manage and process streaming data efficiently. To build pipelines, use
efficiently. To build pipelines, use Apache Beam, an open-source framework
Apache Beam, an open-source framework supporting multiple languages. Beam acts
supporting multiple languages. Beam acts as a blueprint and data flow executes
as a blueprint and data flow executes the pipeline managing the environment
the pipeline managing the environment and monitoring results.
After setting up your infrastructure on Google Cloud Platform, form. The next
Google Cloud Platform, form. The next step is to establish a monitoring system
step is to establish a monitoring system to alert you to major issues. Use cloud
to alert you to major issues. Use cloud operations, formerly known as stack
operations, formerly known as stack driver for monitoring and logging.
driver for monitoring and logging. Access it by selecting monitoring from
Access it by selecting monitoring from the menu or typing monitoring in the
the menu or typing monitoring in the search bar. You can install an agent on
search bar. You can install an agent on a virtual machine for more detailed
a virtual machine for more detailed information, but it's not necessary to
information, but it's not necessary to start. To monitor a web server, create
start. To monitor a web server, create an uptime check. Leave the protocol as
an uptime check. Leave the protocol as HTTP and resource type as URL. Enter the
HTTP and resource type as URL. Enter the IP address of your web server instance.
IP address of your web server instance. Set the check frequency to 1 minute and
Set the check frequency to 1 minute and response time time out to 10 seconds.
response time time out to 10 seconds. Enable logging for failures. Set up an
Enable logging for failures. Set up an alert for uptime check failures. Name
alert for uptime check failures. Name the alert and specify the failure
the alert and specify the failure duration before triggering an alert.
duration before triggering an alert. Choose how to receive notifications such
Choose how to receive notifications such as email. Add your email address and
as email. Add your email address and name. Then refresh and select your email
name. Then refresh and select your email for notification.
for notification. Title the uptime check and test it. If
Title the uptime check and test it. If the web server is down, you will receive
the web server is down, you will receive an email notification. View uptime data
an email notification. View uptime data and latency graphs to monitor server
and latency graphs to monitor server performance. Create custom dash
performance. Create custom dash dashboards for additional metrics like
dashboards for additional metrics like CPU and memory utilization by installing
CPU and memory utilization by installing the ops agent.
Realtime monitoring is great, but sometimes you need to look back at
sometimes you need to look back at past events. That's where Google Cloud
past events. That's where Google Cloud audit logs come in handy. They track who
audit logs come in handy. They track who did what, where, and when. There are
did what, where, and when. There are four types of audit logs. Admin activity
four types of audit logs. Admin activity logs track actions that modify resources
logs track actions that modify resources like shutting down virtual machines.
like shutting down virtual machines. System events logs monitor Google's
System events logs monitor Google's cloud action such as maintenance data
cloud action such as maintenance data access logs track data request including
access logs track data request including read request on configurations policy
read request on configurations policy denied logs record access denials due to
denied logs record access denials due to security policy violations to find when
security policy violations to find when a virtual machine was shut down. Search
a virtual machine was shut down. Search for logging in the console. Filter by
for logging in the console. Filter by the specific virtual machine instance
the specific virtual machine instance and select the activity log in the cloud
and select the activity log in the cloud audit log section. Search for entries
audit log section. Search for entries containing the word stop to see shutdown
containing the word stop to see shutdown events. For in-depth analysis, export
events. For in-depth analysis, export logs to BigQuery. Create a sync in the
logs to BigQuery. Create a sync in the more actions menu. Name it and choose
more actions menu. Name it and choose BigQuery as the sync service. Create a
BigQuery as the sync service. Create a data set if needed. Once set up,
data set if needed. Once set up, generate log entries and check BigQuery
generate log entries and check BigQuery for the data. Use SQL statements to
for the data. Use SQL statements to search through the logs efficiently.
Let's explore how to get error information from your applications using
information from your applications using Google Cloud's error reporting service.
Google Cloud's error reporting service. We will use Google's Hello World
We will use Google's Hello World application in App Engine to
application in App Engine to demonstrate. First, open CloudShell,
demonstrate. First, open CloudShell, which has all necessary packages
which has all necessary packages pre-installed. Clone the Hello World
pre-installed. Clone the Hello World application using the git clone command
application using the git clone command and navigate to the app directory. Run
and navigate to the app directory. Run the local development server to ensure
the local development server to ensure the app works. Click the web preview
the app works. Click the web preview icon and select preview on port 8080.
icon and select preview on port 8080. You should see a hello world message.
You should see a hello world message. Stop the server and deploy the app to
Stop the server and deploy the app to app engine using the G-Cloud app deploy
app engine using the G-Cloud app deploy command. To generate an error, edit the
command. To generate an error, edit the code to introduce a problem such as
code to introduce a problem such as dividing by zero. Save the file and
dividing by zero. Save the file and redeploy the application with G-Cloud
redeploy the application with G-Cloud app deploy. This will trigger an
app deploy. This will trigger an exception. Check the Google Cloud
exception. Check the Google Cloud console for errors. Click on the error
console for errors. Click on the error to see details including a stack trace.
to see details including a stack trace. To get notification for errors, go to
To get notification for errors, go to the error reporting page and click
the error reporting page and click configure notifications. Select our
configure notifications. Select our create a notification channel. That's it
create a notification channel. That's it for error reporting.
Is your application running but performing too slow? Cloud trace and
performing too slow? Cloud trace and cloud profiler can help. These tools
cloud profiler can help. These tools from Google Cloud provide insights into
from Google Cloud provide insights into latency and resource usage, optimizing
latency and resource usage, optimizing your app's performance. Cloud Trace
your app's performance. Cloud Trace shows the latency of each application
shows the latency of each application request, helping you identify slow
request, helping you identify slow request. The trace list displays all
request. The trace list displays all traces over a specific period visualized
traces over a specific period visualized in an interactive graph. Clicking on a
in an interactive graph. Clicking on a track trace dot reveals a waterfall view
track trace dot reveals a waterfall view showing the total end to end time and
showing the total end to end time and the time taken by each call. These helps
the time taken by each call. These helps pinpoint which cause are slowing down
pinpoint which cause are slowing down your application.
your application. Analysis reports in cloud trace show
Analysis reports in cloud trace show latency distribution and identity
latency distribution and identity performance bottlenecks. You need at
performance bottlenecks. You need at least 1000 traces to generate a report,
least 1000 traces to generate a report, providing a comprehensive view of your
providing a comprehensive view of your app's performance.
app's performance. Cloud profiler analyzes which parts of
Cloud profiler analyzes which parts of your code use the most CPU and memory.
your code use the most CPU and memory. Even if your app runs in app engine, you
Even if your app runs in app engine, you need to add instrumentation code to use
need to add instrumentation code to use cloud profiler. In cloud profiler, a
cloud profiler. In cloud profiler, a flame graph shows CPU time taken by each
flame graph shows CPU time taken by each function. For example, in the shakes app
function. For example, in the shakes app sample, one function took 58% of CPU
sample, one function took 58% of CPU time, highlighting areas for
time, highlighting areas for optimization.
Now, let's dive into the latest real exam questions and answers for the
exam questions and answers for the Google Cloud Certified Associate Cloud
Google Cloud Certified Associate Cloud Engineer. If you haven't subscribed to
Engineer. If you haven't subscribed to our YouTube channel yet, we'd love for
our YouTube channel yet, we'd love for you to join our growing community. Just
you to join our growing community. Just hit that subscribe button. Want a
hit that subscribe button. Want a downloadable PDF of these questions and
downloadable PDF of these questions and answers? You can grab it from our
answers? You can grab it from our website, www.shapingpixel.com.
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