Ankur Mandal

March 11, 2024

GCP Cost Optimization Best

Practices In 2024


Ankur Mandal

5 min read
March 11, 2024

The rising adoption of Google Cloud Platform (GCP) offers tremendous advantages, yet it also brings the challenge of managing increased cloud expenditures.

While GCP provides a suite of powerful tools and services beneficial to users, optimizing costs efficiently while avoiding unnecessary expenses becomes paramount.

Often, organizations prioritize optimizing compute resources, inadvertently overlooking the costs associated with storage usage.

A holistic approach that emphasizes compute and storage resources is essential to achieve comprehensive cost reduction.

This blog outlines the most effective GCP cost optimization practices, ensuring a well-rounded expense reduction.

Introduction To Google Cloud Platform (GCP)

Google Cloud Platform (GCP) is an extensive collection of cloud computing services meticulously crafted and offered by Google.

Positioned on the formidable infrastructure that supports acclaimed end-user products such as YouTube and Gmail, GCP provides a flexible range of services tailored to fulfill various computing requirements.

The primary service domains encompassed by Google Cloud Platform consist of compute, storage, network, machine learning and AI, and big data processing.

The increasing demand for cloud data storage has led to an increased adoption of the Google Cloud Platform (GCP). There are several benefits to opting for GCP as a cloud service provider.

  • High Uptime Assurance: Google Cloud hosting commits to an uptime exceeding 99.99%, backed by a Service Level Agreement. Any failure to meet this uptime guarantees users financial credit.
  • Free Monitoring Tools: Google Cloud's Operations Suite offers powerful tools for monitoring platform and application performance.
    The setup for uptime checks and alerting policies is straightforward, enhancing system management. Google Cloud's native infrastructure monitoring is free, but integrating external monitoring may involve additional costs.
  • Cost-Efficient Pay-as-You-Go Model: Google Cloud's pay-as-you-go model ensures that users only pay for actively used resources. Hosting packages are competitively priced, making them more affordable than other platforms' alternatives.
  • Live Migration Capability: Google Cloud's live migration feature enables seamless transfer of virtual machine instances between hosts with minimal disruption. This ensures uninterrupted access to applications and services during hardware maintenance or upgrades, ensuring reliability.
  • Data Redundancy and Integrity: Google Cloud emphasizes data redundancy through robust replication and backup mechanisms across multiple geographic locations. This redundancy safeguards data against hardware failures or unexpected incidents, ensuring high availability and integrity.

These features collectively make Google Cloud hosting an attractive option for businesses seeking reliability, cost-efficiency, and robust performance for their applications and services.

Importance Of Cost Optimization In Google Cloud Platform (GCP)

Cost optimization is paramount in efficiently managing cloud resources in the Google Cloud Platform (GCP). As businesses increasingly shift to the cloud, controlling and optimizing costs becomes crucial to maintaining financial prudence. 

GCP's pay-as-you-go approach allows users to pay only for the resources they utilize; however, expenses can escalate without strategic cost optimization. To effectively optimize costs on GCP, it is necessary to appropriately size instances, leverage pricing models, utilize auto-scaling, and continuously monitor resource usage. 

By adopting GCP cost optimization best practices, significant savings can be achieved, and resources can also be allocated efficiently, mitigating unnecessary expenditures. Cost optimization within the Google Cloud Platform (GCP) is of paramount importance for several reasons:

  • Resource Efficiency: GCP offers extensive services and resources, and ensuring they are used efficiently is vital. GCP Cost optimization best practices focus on utilizing these resources optimally, including right-sizing instances, choosing appropriate storage options, and using auto-scaling to match demand.
    Efficient resource usage minimizes waste and reduces unnecessary expenses.
  • Budget Management: GCP provides flexibility in resource provisioning, but this flexibility can lead to increased costs if not managed effectively. GCP Cost optimization helps control cloud spending, enabling businesses to adhere to predefined budgets and preventing unexpected cost overruns.
  • Maximizing ROI: Cloud services often represent a significant investment for organizations.
    GCP Cost optimization best practices aim to maximize the return on this investment by ensuring that every dollar spent on GCP translates into tangible value. It involves aligning the utilization of cloud resources with the business needs to derive the most value from the services.
  • Scalability without Overspending: GCP offers scalability, allowing businesses to scale resources up or down based on demand. GCP cost optimization best practices ensures that scaling doesn't lead to unnecessary expenses. Efficient scaling strategies enable businesses to accommodate growth without incurring excessive costs, making scaling a strategic advantage rather than a financial burden.
  • Competitive Advantage: Organizations need to stay competitive. Efficient cost management allows businesses to direct funds toward innovation, product development, or customer experience improvements. This competitive advantage comes from not just using cloud services but using them in a way that supports innovation and growth without incurring unnecessary costs.
  • Visibility and Accountability: GCP cost optimization practices provide visibility into spending patterns and resource utilization. This transparency allows teams to monitor and control their usage, fostering accountability for resource consumption across different departments or teams. It helps in tracking expenses accurately, attributing costs to specific projects, and identifying areas for improvement.
  • Strategic Decision-Making: Effective cost optimization strategies provide data-driven insights into usage patterns and spending trends. This information is invaluable for making informed decisions regarding resource allocation, investment in specific services, or considering alternative cost-effective solutions within GCP.

Ultimately, cost optimization in GCP is about balancing leveraging the platform's robust services and ensuring that the utilization aligns with business objectives. It's a continuous process that involves ongoing monitoring, analysis, and adaptation to ensure efficient spending and maximum value from cloud investments.

Contributors to Google Cloud Platform (GCP) Costs

There are many factors that impact the GCP cost such as:

  • Resources- compute & storage
  • Network usage
  • Database Service
  • Identity and Access Management
  • Global Load Balancing
  • Content Delivery Networks
  • Geographical Locations
  • APIs

While we see many organizations trying to bring down their cloud bill by optimizing compute resources such as compute engines and Google Kubernetes, they are overall another significant contributor- storage. GCP storage resources such as block storage contribute heavily to the overall cloud bill.

As per a report by Virtana named "State of the Hybrid Cloud Storage 2023," which interviewed more than 350 cloud decision-makers, 94% of them agreed that their cloud storage cost was increasing, and 54% said that their storage cost was increased at a faster rate compared to their overall cloud cost. 

Failure to optimize storage usage in the cloud can have significant consequences for an organization, affecting costs, performance, and overall efficiency. Key outcomes can arise from not optimizing storage usage:

  • Increased Costs: Inefficient storage utilization often leads to unnecessary expenses, as organizations pay for unused or underutilized storage capacity. Failing to optimize storage can result in higher cloud bills and reduced cost-effectiveness.
  • Wasted Resources: Unoptimized storage utilization leads to wastage of resources, including physical storage space and cloud-based storage services. This inefficiency prevents organizations from fully capitalizing on their available resources.
  • Performance Degradation: Overloaded or poorly managed storage can lead to a decline in performance. Slow data access times, increased latency, and system slowdowns can impact the user experience and impede application performance.

To further understand the impact of storage on the overall cloud costs, we decided to dig deeper into the storage pattern and its associated cost for our clients. We discovered that:

  • Block Storage significantly contributed to the overall cloud cost.
  • Organizations overestimated the data growth and overprovisioned storage resources to ensure no performance issues.
  • Despite the abundant overprovisioning, organizations faced at least one downtime per quarter. 

Wondering what is the reason behind the increasing overprovisioning of storage resources.

Overprovisioning has become a norm for organizations looking to ensure they always have sufficient resources and their application performance is not affected when requirements change.

We understand it and consider it as a reasonable compromise. This is because, to streamline storage optimization, organizations need an external tool due to the lack of features in CSP-provided tools. This leads to heightened DevOps efforts and a significant investment of time. 

Conversely, organizations can not rely solely on CSP-provided tools since they are inefficient and require extreme manual and resource-intensive work.

Hence, acknowledging the complexities of day-to-day business operations and ensuring application uptime, organizations are left with no choice but to overprovision their resources—however, overprovisioning results in organizations paying for resources they are not using and indicates resource inefficiency. 

This is why when you plan GCP cost optimization, you must ensure your strategies optimize your compute and storage resources.

In our continuous pursuit of the most effective strategies for optimizing cloud costs, and building upon the valuable insights gained from exploring cost optimization best practices in AWS and Azure, we will unravel the complexities and subtleties involved in maximizing efficiency and reducing expenses on the GCP.

GCP Pricing Model And Cost Structure

Before we jump into the GCP cost optimization best practices, it is essential to understand the basics, aka the GCP cost structure. Once you know where your money is going, you can align your cloud spending with the actual usage pattern and avoid unnecessary costs.

  • Pay-As-You-Go Model: This model offers flexibility by charging for the resources consumed, making it suitable for fluctuating or unpredictable workloads. While it provides flexibility, the pay-as-you-go model typically incurs higher hourly costs compared to other long-term commitments.
  • Long-Term Commitments: Users willing to commit upfront for extended periods (1 or 3 years) can save significantly, especially on Compute Engine expenses, with potential savings of up to 70%. However, choosing a long-term commitment means committing to a fixed price for the duration, allowing for better predictability in budgeting.
  • Free Tier: The free tier option offers predefined resources for a specific duration, granting access to a set of cloud services and products without incurring charges. Users can experiment within the set usage limits for 24 services, which benefits those exploring GCP’s offerings.

Understanding these pricing models helps users align their cloud usage with their specific needs, optimizing costs by choosing the most suitable pricing model for their usage patterns and long-term objectives.s.

Now that we have understood different pricing models let us discuss the factors impacting the GCP costs.

  • Compute Engine: Google Cloud's Compute Engine is a dynamic computing service that empowers users to build and manage virtual machines (VMs) on Google's robust infrastructure effortlessly.
    The pricing structure is consumption-based, aligning with actual usage, and users can enjoy significant cost savings with sustained use discounts of 20-30% when a VM remains active for more than a quarter of the month. 
    Moreover, users can unlock up to 80% cost efficiencies by utilizing short-lived preemptive instances. This feature is especially advantageous for fault-tolerant workloads and batch jobs. 
  • Cloud Storage: The pricing structure of Google Cloud Storage contains several elements. It encompasses different factors that determine the charges. These charges are based on data storage, calculated by the amount of data stored in buckets. 
    Network usage charges are also in place, considering data reads and transfers between buckets. The costs also include operation usage, which depends on the activities conducted within Cloud Storage.
    Furthermore, there are additional fees associated with certain actions. These fees may apply for retrieval, early deletion (relevant to Coldline, Archive, and Nearline storage classes), and inter-region replication. It is important to note that the free tier has its limitations. These limitations include restrictions on network egress, standard storage, and Class A and B operations.
    For Google Persistent Disks, which offer high-performance block storage, costs can vary based on the type of disk selected. This allows users to align their expenses with their specific storage requirements effectively.
  • Networking: The pricing structure of Google Cloud's Virtual Private Cloud (VPC) is determined by the specific characteristics of the utilized traffic and storage tiers. In simple terms, there is no cost for incoming traffic to a Google Cloud resource (also known as ingress traffic), but there may be charges for the resources that process this incoming traffic. 
    On the other hand, data leaving a Google Cloud resource (egress traffic) is subject to billing. The cost of egress traffic is influenced by factors such as the type of IP address used and whether the traffic crosses region or zone boundaries. 
  • Cloud SQL: Google Cloud SQL is a fully managed database service with a pricing model designed to consider different factors. These factors include the instance type, CPU and memory usage, storage, and networking. Costs related to memory and CPUs vary by region, and the pricing for instances is calculated according to the active runtime, rounded up to the nearest second. A noteworthy point is that charges only apply to shared-core instances when actively running. 
  • Google Cloud Functions: The pricing structure is based on three essential factors: the duration of function execution, the frequency of invocations, and the allocated resources. This approach guarantees a detailed and clear method where costs align with the executed functions' specific usage and resource needs.

9 GCP Cost Optimization Best Practices

Now that you have a comprehensive understanding of the importance of GCP cost optimization and how the GCP cost structure works. Let us look at some of the GCP cost optimization best practices you can implement to bring down your overall cloud costs.

1. Leveraging GCP In-Built Features

You can utilize several in-built features and tools in GCP to optimize the overall cost. Some of them are listed below.

  • GCP cloud quotas: Quotas are an essential tool that proves instrumental in keeping the GCP costs on track. They work by preventing any overuse of resources due to malicious attacks. Quotas can be applied on a GCP project level to avoid unforeseen billing charges. There are two types of Quotas offered by GCP- rate and allocation quotas. You can restrict the number of calls for a specific service using rate quotas. Allocation quotas, however, restrict the compute resources you can have in your GCP product.
  • GCP budgeting and alerting: Using Budgeting and Alerting in GCP, you can set a budget limit and receive alerts when the budget limit crosses. As a proactive mechanism, they provide visibility into spending, facilitate early detection of any performance issues, and enable prompt intervention for robust financial control and cost-effectiveness.
  • GCP billing export tool: You can also use the billing export tool for all the billing account information through the billing export. This ensures you have all the required data to understand your cloud spending and wastage comprehensively.
  • GCP cloud billing report: Cloud billing reports summarize expenses accrued in a specific billing cycle, usually from the first to the final day of a month. Along with documenting costs incurred in the ongoing month, these reports offer a predictive analysis based on historical data. You can effortlessly customize the reports by applying filters to parameters such as project, Google Cloud service, region, and labels. This feature augments the level of detail and pertinence in the delivered insights.

2. Using Long-Term Commitment Discounts

Long-term commitment discounts are incentives cloud service providers provide to users who commit to utilizing their services for an extended duration, typically spanning one to three years. Users can access these discounts by making prepayments or committing to a consistent usage level over the specified period.


  • Cost Savings: Users can access reduced rates for cloud services by committing to a specific usage level or making a prepayment for an extended duration. This results in substantial overall cost reductions compared to pay-as-you-go pricing.
  • Budget Predictability: Long-term commitments offer predictability in budgeting. By foreseeing cloud expenses over an extended period, users can engage in better financial planning and resource allocation.

Types of Long-Term Commitment Discounts:

  1. Sustained Use Discounts: Automatically applied as users continuously use a specific instance type for a percentage of the month. 
    Use case:
    Suitable for continuous workloads without requiring upfront commitments.
  1. Committed Use Discounts: Require a commitment to a defined quantity of vCPU and memory usage within a region for either one or three years. 
    Use case:
    Ideal for establishing dedicated computational resources without being restricted to specific instance types, suitable for versatile workloads.

Long-term commitment discounts offer significant cost-saving opportunities and budget predictability, enabling users to optimize their cloud spending effectively..

3. Utilizing Spend-Based Commitment Used Discounts 

Spend-based commitment, also known as commitment-based pricing, involves committing to a specific expenditure on cloud resources within a designated timeframe, typically one or three years. This commitment is made upfront, and cloud service providers offer discounts or additional benefits in return.

Core Aspects

  • Predefined Spending: Users commit to a predetermined expenditure on cloud services for a specified duration.
  • Discounts or Benefits: Cloud providers offer incentives or discounts in exchange for this commitment.

Flexibility and Resource Selection

  • Resource Flexibility: Unlike fixed plans, users can utilize various resources. They can choose instance types or services based on their specific needs.
  • Adaptability: This model allows adjusting resource usage to meet the overall committed spending amount.

Distinctions from Long-Term Commitments

  • Specific Commitment: Spend-based commitments focus on committing to a spending threshold, while long-term commitments often involve committing to particular resources or instance types.
  • Resource Selection Flexibility: Spend-based models provide more freedom in resource selection while maintaining the committed spending amount.


  • Adaptation and Flexibility: Balancing committed spending with the flexibility to choose resources as needs change is crucial.
  • Budget Alignment: Ensure the committed spending aligns with your budget and anticipated cloud expenses.
  • Resource Optimization: Continuously optimize resource usage to meet the committed spending without unnecessary over-provisioning.

Spend-based commitments balance flexibility and commitment, allowing users to leverage cloud services efficiently within predefined spending constraints. 

4. Employing Preemptive VMs For Non-Critical Workload

Google Cloud provides Preemptible VMs - cost-effective virtual machines designed for workloads tolerant to interruptions. These instances are short-lived and offer reduced compute expenses compared to standard VMs.

However, it's important to note that Google may terminate these instances without prior notice. Thus, preemptible VMs are recommended only for workloads that can handle interruptions without significant disruptions.

Benefits: Preemptible VMs are beneficial for tasks like batch processing, video encoding, rendering, and non-essential operations that can accommodate interruptions. Leveraging Google Cloud's surplus capacity, these VMs provide cost savings for compute-intensive workloads such as machine learning training, significantly lowering expenses compared to regular VMs.

How to Use Preemptive VMs?

Instance Configuration: While creating a new instance, select the "Preemptible" option to utilize these VMs.

Managed Instance Groups: For automated scalability based on demand, managed instance groups efficiently scale preemptible instances. Keep in mind that preemptible instances have a maximum lifespan of 24 hours. Design workloads to gracefully handle interruptions within this timeframe.

Preemptible VMs offer cost-effective solutions for specific workloads that can adapt to interruptions, making them a valuable asset in optimizing computational resources on Google Cloud.

5. Right-sizing Resources

Right-sizing ensures you pay only for the resources actively used, preventing unnecessary expenses on idle resources. Cloud service providers charge for provisioned resources, making it crucial to optimize resource allocation to avoid both underutilization and over-provisioning costs.

Compute Resources Optimization

  • Instance Right-Sizing: Google Cloud's Compute Engine offers Instance Right-Sizing Recommendations. This feature analyzes virtual machine (VM) utilization and suggests more suitable machine types. These recommendations enhance performance and cost-effectiveness by aligning resources with actual usage.
  • Flexible Scalability: GCP empowers businesses to optimize VM performance by customizing machine types. This flexibility allows the selection of desired CPU and RAM resources, ensuring efficient allocation based on workload requirements. This adaptability significantly reduces unnecessary costs by matching resource capacity to actual needs.

Right-sizing resources within the Google Cloud Platform ensures optimal resource utilization, enhancing performance while minimizing unnecessary expenses incurred from over-provisioning.

6. Identifying And Removing Idle Resources

Cloud service providers charge for provisioned resources regardless of their utilization. Idle resources, often underused, contribute significantly to unnecessary cloud expenses. Identifying and removing these idle resources is critical for cost optimization.

The Challenge: Manual identification of idle resources or utilizing monitoring tools can be laborious and cost-intensive. Managing complex storage environments becomes overwhelming, necessitating automated solutions.

Lucidity's Storage Audit: Lucidity offers an automated solution, the Storage Audit tool, simplifying resource analysis and optimization within GCP environments. It helps with the following.

Automated Disk Analysis: Lucidity's tool automates disk health and usage analysis, optimizing expenses and preventing downtime effortlessly.

Metadata Collection: Utilizing GCP's internal services, the tool gathers essential storage metadata—storage utilization percentages, disk sizes—while ensuring strict adherence to customer data privacy policies.

Benefits of Lucidity Storage Audit:

  • Expense analysis: Gain comprehensive insights into current spending, achieving up to a 70% reduction in storage costs. Optimize resource allocation for improved cost-effectiveness.
  • Wastage identification: Detect inefficiencies caused by overprovisioning and eliminate them, creating a more cost-effective storage environment.
  • Performance bottleneck detection: Swiftly identify and resolve performance issues to create a more efficient and productive storage setup.

Lucidity's Storage Audit offers a streamlined, secure, and efficient solution for identifying idle resources, optimizing storage costs, and enhancing overall system performance within GCP environments.

7. Auto-Scaling Resources

Auto-scaling in cloud environments involves dynamically adjusting resources based on application demand, offering an efficient and cost-effective alternative to manual resource provisioning. Google Cloud Platform (GCP) provides robust auto-scaling capabilities for its compute resources. It has the following benefits:

  • Optimizing Performance and Costs: Auto-scaling ensures optimal performance and cost efficiency by seamlessly allocating resources as per varying workloads. It mitigates the need for manual resource management, reducing errors and optimizing resource utilization.
  • Versatility in Dynamic Demands: Auto-scaling becomes invaluable in scenarios with fluctuating resource needs, such as an e-commerce platform experiencing seasonal traffic spikes or a video streaming service encountering weekend demand surges. It adeptly manages these fluctuations by automatically adjusting compute resources as per the application's requirements.
  • Implementing Auto-Scaling in GCP: By enabling auto-scaling in GCP, you can effortlessly regulate compute resource allocation based on demand. This ensures efficient resource utilization without the risk of over-provisioning, optimizing costs while maintaining optimal performance.

Auto-scaling within GCP empowers businesses to adapt dynamically to varying workloads, ensuring a seamless user experience while efficiently managing resource consumption.

How To Enable Auto-Scaling In GCP?

To enable auto-scaling in GCP, you can use manage instance groups and configure them automatically. They will then automatically increase or decrease the compute resources based on the demand.

You can accomplish this goal by leveraging various metrics such as CPU utilization, network traffic, or requests per second. To streamline this process further, Google Cloud Platform (GCP) offers auto-scaling policies that allow users to define specific rules for resource scaling based on predefined metrics.

However, while GCP offers comprehensive compute resource auto-scaling, the options for auto-scaling no storage resources are limited. 

As mentioned above, storage significantly contributes to the overall cloud cost and needs effective optimization. However, optimizing storage resources is not a priority because its impact is not evident compared to computing resources.

Meanwhile, the effect of computing resource performance on the end user is immediate and noticeable.

However, optimizing storage resources is challenging, and we understand the compromise behind it. There are two significant reasons.

To optimize storage efficiently, it is often required to create customized tools as the existing features offered by Cloud Service Providers (CSPs) have limited capabilities. This situation significantly increases the workload and time commitment for DevOps teams. 

On the other hand, relying solely on the tools provided by CSPs may lead to a less effective and labor-intensive approach, thereby posing difficulties for consistent day-to-day operations.

This is why organizations prefer overprovisioning storage resources to ensure application uptime and prevent the possibility of any performance bottlenecks. However, overprovisioning results in organizations paying for the storage resources they are not using. Moreover, it is also an indicator of resource inefficiency. This is why there is an urgent need for a tool that offers auto-scaling features for storage resources in GCP.

While you can increase the size of the persistent disk in GCP, there is no direct process for live shrinking the storage resources. There is only a manual process, which is prone to errors, misconfigurations, and excessive consumption of time and effort.

Moreover, considering the steps involved in manually shrinking the persistent disk, such as stopping the instances, creating a snapshot, creating a new volume, mounting a new volume, and so on, the probability of downtime and performance hiccups is exceptionally high. This is why there is a need for a solution that offers automated shrinkage and expansion of GCP’s persistent disk.

Lucidity has designed one such solution- Block Storage Auto-Scaler. An industry’s first autonomous storage orchestration solution, Lucidity’s Block Storage Auto-Scaler, ensures that there are always sufficient storage resources by automating shrinkage and expansion of the storage resources per the changing requirements. 

Deploying the auto-scaler is extremely easy, with just three clicks. It effortlessly configures itself to ensure optimal utilization levels within a healthy range of 70-80%. Once operational, the auto-scaler smoothly takes charge, constantly adapting your storage to save costs from the start effectively.

With a single minute, you can quickly expand your resources, guaranteeing your infrastructure is always ready to handle unexpected increases in website traffic or workload. This prompt action maintains a consistent availability of necessary storage capacity, enabling smooth management of fluctuating demand. Such capability not only strengthens resilience but also improves the overall responsiveness of your system.

Lucidity's Block Storage Auto-Scaler offers a wide range of benefits, ensuring a storage experience that is seamless and efficient.

  • Zero Downtime: With Lucidity's Auto-Scaler, you can optimize costs without the complexities of manual provisioning. Unlike the steps involved in manually provisioning of storage resources, which lead to downtime and degrade the overall performance, Lucidity’s Block Storage Auto-Scaler seamlessly expands or shrinks storage resources as per the fluctuating demands. It guarantees a continuous user experience without any downtime. Moreover, since the Auto-Scaler agent consumes a minimal 2% of CPU or RAM usage, there is no impact on the application’s performance.

You can achieve uninterrupted operations and maximize storage efficiency by leveraging Lucidity's customizable policies. It seamlessly tackles storage shortages beforehand by customizing disk utilization and buffer settings according to your preferences.

Lucidity streamlines the policy setup process, offering a user-friendly interface. With a few simple clicks on the "Create Policy" button, users can effortlessly input policy details such as policy name, desired utilization, maximum disk size, and buffer size. This uncomplicated approach allows for the creation of policies tailored to specific usage and loading requirements.

By strictly adhering to these policies, Lucidity ensures effective instance management that aligns with your criteria. This extensive customization promotes optimal performance and enhances cost-effectiveness, delivering a reliable and bespoke storage solution.

  • Automated Expansion and Storage: Lucidity takes care of resource scaling for you, automatically adapting to changing demand and ensuring constant storage space availability. Whether you encounter sudden spikes in demand or periods of reduced activity, our Auto-Scaler dynamically adjusts storage resources to enhance efficiency and align with the demands of your workload.
  • Storage Cost Reduction by 70%: Lucidity's automated scaling feature enables remarkable cost savings of up to 70% on storage expenses. The auto-scaler greatly enhances disk utilization, elevating it from a modest 35% to an impressive 80%. Lucidity empowers users to attain optimal efficiency, ultimately leading to substantial reductions in storage costs.

Lucidity takes it further by offering a valuable functionality - the capability to measure the cost savings gained after implementing the auto-scaler. Users can estimate the savings achieved with the Lucidity Block Storage Auto-Scaler using the Lucidity ROI Calculator. This tool provides valuable insights into the potential financial advantages, enhancing transparency and facilitating well-informed decision-making.

8. Using Cloud Cost Management Tools

There are many native and third-party cloud cost management tools that you can use for effective GCP cost optimization. These GCP cost optimization tools will help you understand the cost of running the cloud and control your expenses. 

Cost table reports and Google Cloud Console are native GCP cost optimization tools. 

  • Google Cloud Console: The Google Cloud Console is the exclusive interface for supervising and managing Google Cloud Platform (GCP) resources. This user-friendly platform provides built-in visibility features that simplify the administration of different GCP services. Using the Cloud Console, users can effortlessly access thorough logs, powerful monitoring functions, and the ability to configure personalized alerts. This guarantees precise control and oversight of the complete infrastructure, enabling users to navigate and enhance their GCP resources effectively.

If you are looking for third-party tools that offer more granularity in visibility, you can opt for CloudZero, Ternary, or Harness for enhanced visibility and reporting capabilities.

  • Harness: Harness enables you to monitor usage data hourly, giving you detailed visibility into the utilization of resources – be it utilized, unallocated, or idle. The platform also incorporates advanced capabilities like cost anomaly detection and alerting, allowing you to proactively receive prompt notifications to proactively address potentially expensive activities.

If you need help with compute resource optimization, you can opt for Densify, CloudCheckr, or CloudBolt

  • Densify: Densify's platform integrates a cloud resource optimization tool, offering many opportunities and methods to reduce your cloud computing expenses. Through Densify, you gain instant alerts that promptly notify you in cases of resource over-allocation or the utilization of inefficient instance families. This approach empowers you to make well-informed decisions for optimizing your cloud infrastructure, resulting in significant cost savings.

For storage resource optimization, Lucidity is an ideal choice.

  • Lucidity: As mentioned before, unlike other tools in the market that focus on compute resource optimization and overlook storage resources, Lucidity has designed a block storage auto-scaler that automatically shrinks and expands storage resources with fluctuating demands without any performance degradation or downtime. 

9. Optimizing BigQuery

BigQuery, a data warehouse and analytics platform offered by Google Cloud Platform (GCP), is a fully managed solution that operates without servers. It aims to efficiently handle extensive data processing and analytics, providing exceptional performance and scalability. W

With BigQuery, users can effortlessly execute intricate SQL queries on massive datasets, benefiting from its economical serverless design and flexible pay-as-you-go pricing structure. 

BigQuery possesses numerous advantages, such as scalability, performance, and user-friendly nature. However, it is important to acknowledge that it can impact cloud costs in multiple ways.

  • Query Costs: The pricing for BigQuery is based on the volume of data processed by queries. The more data you query, the greater the cost. This approach incentivizes users to optimize their queries and minimize unnecessary data scanning.
  • Storage Costs: With BigQuery, data is stored in tables, and you are billed for storing these tables. The more data you store, the higher the storage costs. It is important to regularly assess and manage your data storage to ensure that it aligns with your actual requirements.
  • Streaming Inserts: There are associated costs if you choose to utilize streaming inserts for real-time data additions to BigQuery. These costs for streaming inserts are separate from those of batch loading. It is crucial to consider these costs when considering the design of your data pipeline.
  • Data Transfer Costs: Transferring data into and out of BigQuery may result in data transfer costs. For instance, when loading data from other GCP services or external sources, you will incur charges for the data transfer.

Below are some ways to ensure BigQuery does not burden your cloud bill.

  • Query Optimization: Query Optimization: Enhance the efficiency of your queries by optimizing them to process only essential data. Incorporate industry best practices to enhance query performance significantly.
  • Move to batch loading: Many companies choose streaming inserts to have data available quickly in seconds instead of waiting for hours. Although this benefit is highly beneficial for various operational tasks, it may not always be necessary. If the data does not require constant real-time manipulation, an alternative approach to save costs is by switching to batch loading, which does not incur any extra charges.
  • Switch to flat rate: Enterprises and initiatives that deal with a continuous and significant amount of work might realize that the flexibility offered by an on-demand plan could lead to increasing expenses in the long run. Evaluating the costs related to on-demand services and comparing them with flat-rate pricing is recommended.

Fine-tune your GCP Expenses

Navigating through the GCP environment requires a strategic approach. Through our comprehensive list of GCP cost optimization best practices, we hope we have been able to guide you on the journey to align your cloud spending with your business goals.

If you face challenges in managing storage efficiently, unused resources may likely exist within your infrastructure. To maximize optimization, consider scheduling a demo with Lucidity.

We will help you identify problematic areas and automate the allocation of storage resources, ultimately creating a tailored and efficient storage environment.

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