Mage Data

Category: Blogs – Test Data Protection and Delivery

  • Reimagining Test Data: Secure-by-Design Database Virtualization

    Reimagining Test Data: Secure-by-Design Database Virtualization

    Enterprises today are operating in an era of unprecedented data velocity and complexity. The demand for rapid software delivery, continuous testing, and seamless data availability has never been greater. At the same time, organizations face growing scrutiny from regulators, customers, and auditors to safeguard sensitive data across every environment—production, test, or development.

    This dual mandate of speed and security is reshaping enterprise data strategies. As hybrid and multi-cloud infrastructures expand, teams struggle to provision synchronized, compliant, and cost-efficient test environments fast enough to keep up with DevOps cycles. The challenge lies not only in how fast data can move, but in how securely it can be replicated, masked, and managed.

    Database virtualization was designed to solve two of the biggest challenges in Test Data Management—time and cost. Instead of creating multiple full physical copies of production databases, virtualization allows teams to provision lightweight, reusable database instances that share a common data image. This drastically reduces storage requirements and accelerates environment creation, enabling developers and QA teams to work in parallel without waiting for lengthy data refresh cycles. By abstracting data from its underlying infrastructure, database virtualization improves agility, simplifies DevOps workflows, and enhances scalability across hybrid and multi-cloud environments. In short, it brings speed and efficiency to an otherwise resource-heavy process—freeing enterprises to innovate faster.

    Database virtualization was introduced to address inefficiencies in provisioning and environment management. It promised faster test data creation by abstracting databases from their underlying infrastructure. But for many enterprises, traditional approaches have failed to evolve alongside modern data governance and privacy demands.

    Typical pain points include:

    • Storage-Heavy Architectures: Conventional virtualization still relies on partial or full data copies, consuming vast amounts of storage.
    • Slow, Manual Refresh Cycles: Database provisioning often depends on DBAs, leading to delays, inconsistent refreshes, and limited automation.
    • Fragmented Data Privacy Controls: Sensitive data frequently leaves production unprotected, exposing organizations to compliance violations.
    • Limited Integration: Many solutions don’t integrate natively with CI/CD or hybrid infrastructures, making automated delivery pipelines cumbersome.
    • Rising Infrastructure Costs: With exponential data growth, managing physical and virtual copies across clouds and data centers drives up operational expenses.

    The result is an environment that might be faster than before—but still insecure, complex, and costly. To thrive in the AI and automation era, enterprises need secure-by-design virtualization that embeds compliance and efficiency at its core.

    Modern data-driven enterprises require database virtualization that does more than accelerate. It must automate security, enforce privacy, and scale seamlessly across any infrastructure—cloud, hybrid, or on-premises.

    This is where Mage Data’s Database Virtualization (DBV) sets a new benchmark. Unlike traditional tools that treat masking and governance as secondary layers, Mage Data Database Virtualization builds them directly into the virtualization process. Every virtual database created is masked, compliant, and policy-governed by default—ensuring that sensitive information never leaves production unprotected.

    Database Virtualization lightweight, flexible architecture enables teams to provision virtual databases in minutes, without duplicating full datasets or requiring specialized hardware. It’s a unified solution that accelerates innovation while maintaining uncompromising data privacy and compliance.

    1. Instant, Secure Provisioning
      Create lightweight, refreshable copies of production databases on demand. Developers and QA teams can access ready-to-use environments instantly, reducing cycle times from days to minutes.
    2. Built-In Data Privacy and Compliance
      Policy-driven masking ensures that sensitive data remains protected during every clone or refresh. Mage Data Database Virtualization is compliance-ready with frameworks like GDPR, HIPAA, and PCI-DSS, ensuring enterprises maintain regulatory integrity across all environments.
    3. Lightweight, Flexible Architecture
      With no proprietary dependencies or hardware requirements, Database Virtualization integrates effortlessly into existing IT ecosystems. It supports on-premises, cloud, and hybrid infrastructures, enabling consistent management across environments.
    4. CI/CD and DevOps Integration
      DBV integrates natively with Jenkins, GitHub Actions, and other automation tools, empowering continuous provisioning within DevOps pipelines.
    5. Cost and Operational Efficiency
      By eliminating full physical copies, enterprises achieve up to 99% storage savings and dramatically reduce infrastructure, cooling, and licensing costs. Automated refreshes and rollbacks further cut
      manual DBA effort.
    6. Time Travel and Branching (Planned)
      Upcoming capabilities will allow enterprises to rewind databases or create parallel branches, enabling faster debugging and parallel testing workflows.

    The AI-driven enterprise depends on speed—but the right kind of speed: one that doesn’t compromise security or compliance. Mage Data Database Virtualization delivers precisely that. By uniting instant provisioning, storage efficiency, and embedded privacy, it transforms database virtualization from a performance tool into a strategic enabler of governance, innovation, and trust.

    As enterprises evolve to meet the demands of accelerating development, they must modernize their entire approach to data handling—adapting for an AI era where agility, accountability, and assurance must coexist seamlessly.

    Mage Data’s Database Virtualization stands out as the foundation for secure digital transformation—enabling enterprises to accelerate innovation while ensuring privacy and compliance by design.

  • Building Trust in AI: Strengthening Data Protection with Mage Data

    Building Trust in AI: Strengthening Data Protection with Mage Data

    Artificial Intelligence is transforming how organizations analyze, process, and leverage data. Yet, with this transformation comes a new level of responsibility. AI systems depend on vast amounts of sensitive information — personal data, intellectual property, and proprietary business assets — all of which must be handled securely and ethically.

    Across industries, organizations are facing a growing challenge: how to innovate responsibly without compromising privacy or compliance. The European Commission’s General-Purpose AI Code of Practice (GPAI Code), developed under the EU AI Act, provides a structured framework for achieving this balance. It defines clear obligations for AI model providers under Articles 53 and 55, focusing on three key pillars — Safety and Security, Copyright Compliance, and Transparency.

    However, implementing these requirements within complex data ecosystems is not simple. Traditional compliance approaches often rely on manual audits, disjointed tools, and lengthy implementation cycles. Enterprises need a scalable, automated, and auditable framework that bridges the gap between regulatory expectations and real-world data management practices.

    Mage Data Solutions provides that bridge. Its unified data protection platform enables organizations to operate compliance efficiently — automating discovery, masking, monitoring, and lifecycle governance — while maintaining data utility and accelerating AI innovation.

    The GPAI Code establishes a practical model for aligning AI system development with responsible data governance. It is centered around three pillars that define how providers must build and manage AI systems.

    1. Safety and Security
      Organizations must assess and mitigate systemic risks, secure AI model parameters through encryption, protect against insider threats, and enforce multi-factor authentication across access points.
    2. Copyright Compliance
      Data sources used in AI training must respect intellectual property rights, including automated compliance with robots.txt directives and digital rights management. Systems must prevent the generation of copyrighted content.
    3. Transparency and Documentation
      Providers must document their data governance frameworks, model training methods, and decision-making logic. This transparency ensures accountability and allows regulators and stakeholders to verify compliance.

    These pillars form the foundation of the EU’s AI governance model. For enterprises, they serve as both a compliance obligation and a blueprint for building AI systems that are ethical, explainable, and secure.

    Mage Data’s platform directly maps its data protection capabilities to the GPAI Code’s requirements, allowing organizations to implement compliance controls across the full AI lifecycle — from data ingestion to production monitoring.

    GPAI Requirement

    Mage Data Capability

    Compliance Outcome

    Safety & Security (Article 53)

    Sensitive Data Discovery

    Automatically identifies and classifies sensitive information across structured and unstructured datasets, ensuring visibility into data sources before training begins.

    Safety & Security (Article 53)

    Static Data Masking (SDM)

    Anonymizes training data using over 60 proven masking techniques, ensuring AI models are trained on de-identified yet fully functional datasets.

    Safety & Security (Article 53)

    Dynamic Data Masking (DDM)

    Enforces real-time, role-based access controls in production systems, aligning with Zero Trust security principles and protecting live data during AI operations.

    Copyright Compliance (Article 55)

    Data Lifecycle Management

    Automates data retention, archival, and deletion processes, ensuring compliance with intellectual property and “right to be forgotten” requirements.

    Transparency & Documentation (Article 55)

    Database Activity Monitoring

    Tracks every access to sensitive data, generates audit-ready logs, and produces compliance reports for regulatory or internal review.

    Transparency & Accountability

    Unified Compliance Dashboard

    Provides centralized oversight for CISOs, compliance teams, and DPOs to manage policies, monitor controls, and evidence compliance in real time.

    By aligning these modules to the AI Code’s compliance pillars, Mage Data helps enterprises demonstrate accountability, ensure privacy, and maintain operational efficiency.

    Mage Data enables enterprises to transform data protection from a compliance requirement into a strategic capability. The platform’s architecture supports high-scale, multi-environment deployments while maintaining governance consistency across systems.

    Key advantages include:

    • Accelerated Compliance: Achieve AI Act alignment faster than traditional, fragmented methods.
    • Integrated Governance: Replace multiple point solutions with a unified, policy-driven platform.
    • Reduced Risk: Automated workflows minimize human error and prevent data exposure.
    • Proven Scalability: Secures over 2.5 billion data rows and processes millions of sensitive transactions daily.
    • Regulatory Readiness: Preconfigured for GDPR, CCPA, HIPAA, PCI-DSS, and EU AI Act compliance.

    This integrated approach enables security and compliance leaders to build AI systems that are both trustworthy and operationally efficient — ensuring every stage of the data lifecycle is protected and auditable.

    Mage Data provides a clear, step-by-step plan:

    This structured approach takes the guesswork out of compliance and ensures organizations are always audit-ready

    The deadlines for AI Act compliance are approaching quickly. Delaying compliance not only increases costs but also exposes organizations to risks such as:

    • Regulatory penalties that impact global revenue.
    • Data breaches harm brand trust.
    • Missed opportunities, as competitors who comply early gain a reputation for trustworthy, responsible AI.

    By starting today, enterprises can turn compliance from a burden into a competitive advantage.

    The General-Purpose AI Code of Practice sets high standards but meeting them doesn’t have to be slow or costly. With Mage Data’s proven platform, organizations can achieve compliance in weeks, not years — all while protecting sensitive data, reducing risks, and supporting innovation.

    AI is the future. With Mage Data, enterprises can embrace it responsibly, securely, and confidently.

    Ready to get started? Contact Mage Data for a free compliance assessment and see how we can help your organization stay ahead of the curve.

  • TDM 2.0 vs. TDM 1.0: What’s Changed?

    TDM 2.0 vs. TDM 1.0: What’s Changed?

    As digital transformation continues to evolve, test data management (TDM) plays a key role in ensuring data security, compliance, and efficiency. TDM 2.0 introduces significant improvements over TDM 1.0, building on its strengths while incorporating modern, cloud-native technologies. These advancements enhance scalability, integration, and user experience, making TDM 2.0 a more agile and accessible solution. With a focus on self-service capabilities and an intuitive conversational UI, this next-generation approach streamlines test data management, delivering notable improvements in efficiency and performance. 

    Foundation & Scalability  

    Understanding the evolution from TDM 1.0 to TDM 2.0 highlights key improvements in technology and scalability. These enhancements address past limitations and align with modern business needs. 

    Modern Tech Stack vs. Legacy Constraints 
    TDM 1.0 relied on traditional systems that, while reliable, were often constrained by expensive licensing and limited scalability. TDM 2.0 shifts to a cloud-native approach, reducing costs and increasing flexibility.
    • Eliminates reliance on costly database licenses, optimizing resource allocation. 
    • Enables seamless scalability through cloud-native architecture. 
    • Improves performance by facilitating faster updates and alignment with industry standards. 

    This transition ensures that TDM 2.0 is well-equipped to support evolving digital data management needs. 

    Enterprise-Grade Scalability vs. Deployment Bottlenecks 

    Deployment in TDM 1.0 was time-consuming, making it difficult to scale or update efficiently. TDM 2.0 addresses these challenges with modern deployment practices: 

    1. Containerization – Uses Docker for efficient, isolated environments. 
    2. Kubernetes Integration – Supports seamless scaling across distributed systems. 
    3. Automated Deployments – Reduces manual effort, minimizing errors and accelerating rollouts. 

    With these improvements, organizations can deploy updates faster and manage resources more effectively. 

    Ease of Use & Automation  

    User experience is a priority in TDM 2.0, making the platform more intuitive and less dependent on IT support. 

    Conversational UI vs. Complex Navigation 

    TDM 1.0 required multiple steps for simple tasks, creating a steep learning curve. TDM 2.0 simplifies interactions with a conversational UI: 

    • Allows users to create test data and define policies with natural language commands. 
    • Reduces training time, enabling quicker adoption. 
    • Streamlines navigation, making data management more accessible. 

    This user-friendly approach improves efficiency and overall satisfaction. 

    Self-Service Friendly vs. High IT Dependency 

    TDM 2.0 reduces IT reliance by enabling self-service capabilities: 

    1. Users can manage test data independently, freeing IT teams for strategic work. 
    2. Integrated automation tools support customized workflows. 
    Developer-Ready vs. No Test Data Generation  

    A user-friendly interface allows non-technical users to perform complex tasks with ease. These features improve productivity and accelerate project timelines. 

    Data Coverage & Security  

    Comprehensive data support and strong security measures are essential in test data management. TDM 2.0 expands these capabilities significantly. 

    Modern Data Ready vs. Limited Coverage 

    TDM 1.0 had limited compatibility with modern databases. TDM 2.0 addresses this by: 

    • Supporting both on-premise and cloud-based data storage. 
    • Integrating with cloud data warehouses. 
    • Accommodating structured and unstructured data. 

    This broad compatibility allows organizations to manage data more effectively. 

    Secure Data Provisioning with EML vs. In-Place Masking Only 

    TDM 2.0 introduces EML (Extract-Mask-Load) pipelines, offering more flexible and secure data provisioning: 

    • Secure data movement across different storage systems. 
    • Policy-driven data subsetting for optimized security. 
    • Real-time file monitoring for proactive data protection. 

    These enhancements ensure stronger data security and compliance. 

    Governance & Integration  

    Effective data governance and integration are key strengths of TDM 2.0, helping organizations maintain oversight and connectivity. 

    Built-in Data Catalog vs. Limited Metadata Management 

    TDM 2.0 improves data governance by providing a built-in data catalog: 

    1. Centralizes metadata management for easier governance. 
    2. Visualizes data lineage for better transparency. 
    3. Supports integration with existing cataloging tools. 

    This centralized approach improves data oversight and compliance. 

    API-First Approach vs. Limited API Support 

    TDM 2.0 enhances integration with an API-first approach: 

    • Connects with third-party tools, including data catalogs and security solutions. 
    • Supports single sign-on (SSO) for improved security. 
    • Ensures compatibility with various tokenization tools. 

    This flexibility allows organizations to integrate TDM 2.0 seamlessly with their existing and future technologies. 

    Future-Ready Capabilities  

    Organizations need solutions that not only meet current demands but also prepare them for future challenges. TDM 2.0 incorporates key future-ready capabilities. 

    GenAI-Ready vs. No AI/ML Support 

    Unlike TDM 1.0, which lacked AI support, TDM 2.0 integrates with AI and GenAI tools: 

    • Ensures data protection in AI training datasets. 
    • Prevents unauthorized data access. 
    • Supports AI-driven environments for innovative applications. 

    These capabilities position TDM 2.0 as a forward-thinking solution. 

    Future-Ready Capabilities 

    TDM 2.0 is built to handle future demands with: 

    1. Scalability to accommodate growing data volumes. 
    2. Flexibility to adapt to new regulations and compliance requirements. 
    3. Integration capabilities for emerging technologies. 

    By anticipating future challenges, TDM 2.0 helps organizations stay agile and ready for evolving data management needs.

  • Why is Referential Integrity Important in Test Data Management?

    Why is Referential Integrity Important in Test Data Management?

    Finding the best test data management tools requires getting all the major features you need— but that doesn’t mean you can ignore the little ones, either. While maintaining referential integrity might not be the most exciting part of test data management, it can, when executed poorly, be an issue that frustrates your team and makes them less productive. Here’s what businesses need to do to ensure their testing process is as frictionless and efficient as possible.

    What is Referential Integrity?

    Before exploring how referential integrity errors can mislead the testing process, we must first explore what it is. While there are a few different options for storing data at scale, the most common method is the relational database. Relational databases are composed of tables, and tables are made up of rows and columns. Rows, or records, represent individual pieces of information, and each column contains an attribute of the thing. So, a “customer” table, for example, would have a row for each customer and would have columns like “first name,” “last name,” “address,” “phone number,” and so on. Every row in a table also contains a unique identifier called a “key.” Typically, the first row is assigned the key “1”, the second, “2,” and so on.

    The key is important when connecting data between tables. For example, you might have a second table that stores information about purchases. Each row would be an individual transaction, and the columns would be things like the total price, the date, the location at which the purchase was made, and so on. The power of relational databases is that entries in tables can reference other tables based on keys. This approach helps eliminate ambiguity. There might be multiple “John Smiths” in your customer table, but only one will have the unique key “1,” so we can tie transactions to that customer by using their unique key rather than something that there might be multiple of, like a name. Therefore, referential integrity refers to the accuracy and consistency of the relationship between tables.

    How Does Referential Integrity Affect Test Data?

    Imagine a scenario in which a customer, “John Doe,” exercised his right under GDPR or CCPA to have his personal data deleted. As a result of this request, his record in the customer table would be deleted, though the transactions would likely remain, as they aren’t personal data. Now, your developers could be working on a new application that processes transactional data and pulls up user information when someone selects a certain transaction. If John’s transactions were included in the test data used, the test would result in an error whenever one of those transactions came up, as the reference included in those transactions has been deleted.

    The developers’ first reaction wouldn’t necessarily be to look at the underlying data, but to instead assume that there was some sort of bug in the code they had been working on. So, they might write new code, test it, see the error again, and start over a few times before realizing that the underlying data is flawed.

    While that may just sound like a waste of a few hours, this is an extremely basic example. More complex applications could be connecting data through dozens of tables, and the code might be far longer and more complicated…so it can take days for teams to recognize that there isn’t a problem with the code itself but with the data they’re using for testing. Companies need a system that can help them deal with referential integrity issues when creating test data sets, no matter what approach to generating test data they use.

    Referential Integrity in Subsetting

    One approach to generating test data is subsetting. Because your production databases can be very, very large, subsetting creates a copy of some of the database which is more manageable in testing. When it comes to referential integrity, subsetting faces the same issues that using a live production environment does: Someone still needs to scrub through the data and either delete records with missing references or create new dummy records to replace missing ones. This can be a time-consuming and error-prone process.

    Referential Integrity in Anonymized/Pseudonymized datasets

    Anonymization and pseudonymization are two more closely related approaches to test data generation. Pseudonymization takes personally identifiable information and changes it so that it cannot be linked to a real person without combining it with other information stored elsewhere. Anonymization also replaces PII data but does it in a way that is irreversible

    These procedures make the data safer for testing purposes, but the generation process could lead to referential integrity issues. For example, the anonymization process may obscure the relationships between tables, creating reference issues if the program doing the anonymization isn’t equipped to handle the issue across the database as a whole.

    How Mage Data Helps with Test Data Management?

    The key to success with referential integrity in test data management is taking a holistic approach to your data. Mage Data helps companies with every aspect of their data, from data privacy and security to data subject access rights automation, to test data management. This comprehensive approach ensures that businesses can spend less time dealing with frustrating issues like broken references and more time on the tasks that make a real difference. To learn more about Mage’s test data management solution, schedule a demo today.

     

  • The ROI of Test Data Management Tool

    The ROI of Test Data Management Tool

    As software teams increasingly take a “shift left” approach to software testing, the need to reduce testing cycle times and improve the rigor of tests is growing in lock-step. This creates a conundrum: Testing coverage and completeness is deeply dependent on the quality of the test dataset used—but provisioning quality test data has to take less time, not more.

    This is where Test Data Management (TDM) tools come into play, giving DevOps teams the resources to provision exactly what they need to test early and often. But, as with anything else, quality TDM tool has a cost associated with it. How can decision makers measure the return on investment (ROI) for such tool?

    To be clear, the issue is not how to do an ROI calculation; there is a well-defined formula for that. The challenge comes with knowing what to measure, and how to translate the functions of TDM tool into concrete cost savings. To get started, it helps to consider the downsides to traditional testing that make TDM attractive, proceeding from there to categorize the areas where TDM tool creates efficiencies as well as new opportunities.

    Traditional Software Testing without TDM—Slow, Ineffective, and Insecure

    The traditional method for generating test data is a largely manual process. A production database would be cloned for the purpose, and then an individual or team would be tasked with creating data subsets and performing other needed functions. This method is inefficient for several reasons:

    • Storage costs. Cloning an entire production database increases storage costs. Although the cost of storage is rather low today, production databases can be large; storing an entire copy is an unnecessary cost.
    • Cloning a database and manually preparing a subset can be a labor-intensive process. According to one survey of DevOps professionals, an average of 3.5 days and 3.8 people were needed to fulfill a request for test data that used production environment data; for 20% of the respondents, the timeframe was over a week.
    • Completeness/edge cases. Missing or misleading edge cases can skew the results of testing. A proper test data subset will need to include important edge cases, but not so many that they overwhelm test results.
    • Referential integrity. When creating a subset, that subset must be representative of the entire dataset. The data model underlying the test data must accurately define the relationships among key pieces of data. Primary keys must be properly linked, and data relationships should be based on well-defined business rules.
    • Ensuring data privacy and compliance. With the increasing number of data security and privacy laws worldwide, it’s important to ensure that your test data generation methods comply with relevant legislation.

    The goal in procuring a TDM tool is to overcome these challenges by automating large parts of the test data procurement process. Thus, the return on such an investment depends on the tool’s ability to guarantee speed, completeness, and referential integrity without consuming too many additional resources or creating compliance issues.

    Efficiency Returns—Driving Down Costs Associated with Testing

    When discussing saved costs, there are two main areas to consider: Internal costs and external ones. Internal costs reflect inefficiencies in process or resource allocation. External costs reflect missed opportunities or problems that arise when bringing a product to market. TDM can help organizations realize a return with both.

    Internal Costs and Test Data Procurement Efficiency

    There is no doubt that testing can happen faster, and sooner, when adequate data is provided more quickly with an automated process. Some industry experts report that, for most organizations, somewhere between 40% and 70% of all test data creation and provisioning can be automated.

    Part of an automated workflow should involve either subsetting the data, or virtualizing it. These steps alleviate the need to store complete copies of production databases, driving down storage costs. Even for a medium-sized organization, this can mean terabytes of saved storage space, with 80% to 90% reductions in storage space being reported by some companies.

    As for overall efficiency, team leaders say their developers are 20% to 25% more efficient when they have access to proper test data management tools.

    External Costs and Competitiveness in the Market

    Most organizations see TDM tools as a way to make testing more efficient, but just as important are the opportunity costs that accrue from slower and more error-prone manual testing. For example, the mean time to the detection of defects (MTTD) will be lower when test data is properly managed, which means software can be improved more quickly, preventing further bugs and client churn. The number of unnoticed defects is likely to decline as well. Catching an error early in development incurs only about one-tenth of the cost of fixing an error in production.

    Time-to-market (TTM) is also a factor here. Traditionally, software projects might have a TTM from six months to several years—but that timeframe is rapidly shrinking. If provisioning of test data takes a week’s worth of time, and there are several testing cycles needed, the delay in TTM due only to data provisioning can be a full month or more. That is not only a month’s worth of lost revenue, but adequate space for a competitor to become more established.

    The Balance

    To review, the cost of any TDM tool and its implementation needs to be balanced against:

    • The cost of storage space for test data
    • The cost of personnel needs (3.8 employees, on average, over 3.5 days)
    • The benefit of an increase in efficiency of your development teams
    • Overall cost of a bug when found in production rather than in testing
    • Lost opportunity due to a slower time-to-market

    TDM Tools Achieve Positive ROI When They Solve These Challenges

    Admittedly, every organization will look different when these factors are assessed. So, while there are general considerations when it comes to the ROI of TDM tools, specific examples will vary wildly. We encourage readers to derive their own estimates for the above numbers.

    That said, the real question is not whether TDM tools provide an ROI. The question is which TDM tools are most likely to do so. Currently available tools differ in terms of their feature sets and ease of use. The better the tool, the higher the ROI will be.

    A tool will achieve positive ROI insofar as it can solve these challenges:

    • Ensuring referential integrity. This can be achieved through proper subsetting and pseudonymization capabilities. The proper number and kind of edge cases should be present, too.
    • Automated provisioning with appropriate security. This means being able to rapidly provision test data across the organization while also staying compliant with all major security and privacy regulations.
    • Scalability and flexibility. The more databases an organization has, the more it will need a tool that can work seamlessly across multiple data platforms. A good tool should have flexible deployment mechanisms to make scalability easy.

    These are specifically the challenges our engineers had in mind when developing Mage’s Data TDM capabilities. Our TDM solution achieves that balance, providing an ROI by helping DevOps teams test more quickly and get to market faster. For more specific numbers and case studies, you can schedule a demo and speak with our team.

  • Why Open-Source Tools Might Fall Short for Test Data Management

    Why Open-Source Tools Might Fall Short for Test Data Management

    You may have heard it said that the best things in life are free—but when it comes to Test Data Management (TDM), free is not always the best choice. For businesses, finding the right balance of value, security, stability, and performance is paramount. And while open-source tools can score well in those areas, there’s a chance that they’ll let you down when you need them most. Here’s what businesses need to know to evaluate open-source test data management tools before they commit.

    What Are Open-Source Tools?

    Before we dive into open-source test data management tools, we need to have a quick conversation about the term “open-source” as the term isn’t always used consistently. Upfront, it’s important to understand that not all free tools are open-source, and because they tend to be community-developed, they don’t have the same expectations around security and customer support that closed-source tools feature.

    Open-source refers to software “designed to be publicly accessible—anyone can see, modify, and distribute the code as they see fit.” Most of the software used in a business context isn’t open-source. For example, common applications like Outlook, Dropbox, or Google Workspace are closed source. The code that powers these applications isn’t published for review, and even if you got access to it, you wouldn’t be able to reuse it in your projects or modify it to run differently.

    Open-source software, by contrast, is intentionally designed so that the code is publicly available. Users are allowed to reuse or modify the code and, in some cases, even contribute new code to the project. Because of its open nature, open-source tools are often developed jointly by a community of passionate developers rather than by a single company. While most open-source tools are free to use, not all software that is free is open-source. An application may be distributed for free, but it’s not open-source if the code isn’t available for reuse, modification, or distribution.

    What are Open-Source TDM Tools Used For?

    For companies, open-source software sometimes makes a lot of sense. They may cost little to nothing to adopt, and if the software has an enthusiastic community, it can often receive free updates improving functionality and security for the foreseeable future. While the feature sets between different open-source test data management tools vary, you could reasonably expect them to do a mixture of the following tasks:

    • Model your data structure
    • Generate test data sets by subsetting
    • Generate synthetic data
    • Provide access rules to restrict who can view data
    • Integrate with a variety of common databases

    Some popular open-source tools in the test data management space include CloudTDMS, ERBuilder, Databucket, and OpenTDM.

    Issues with Open-Source TDM Tools

    For some purposes, the above list may cover all needs. But for businesses with more serious testing needs, there are several issues that can appear when using open-source tools, especially for test data management.

    Limited Functionality and Quality

    One of the core shortcomings of open-source tools is that they’re delivered “as is” at a pace that works for their developers. Unlike software with a team of paid developers, open-source does not guarantee future support. If the application doesn’t have a feature you need now, there’s a chance you may never get it. Unlike paid software, your requests for a new feature may carry no weight with the developers.

    With open-source test data management tools, this primarily creates issues in two areas. The first is user experience. Because these are often unpaid projects, time is a precious commodity. Consequently, development teams tend to spend more time on creating new features, with things like design and user experience being much lower priorities. Unless a designer wants to donate their time, the interfaces you use on the tool may be confusing, slow, or even broken in places.

    The second common issue is in reporting. Most open-source TDM tools come with a limited reporting capability at the very least. However, beyond small businesses with relatively small datasets, these reporting features might not be able to handle the complexity of a modern data environment. This can lead to inaccurate or misleading reporting, which can be especially damaging for businesses.

    Increased Compliance Risk

    Creating and using test data can carry substantial security and privacy risks, as it always begins with personally identifiable information. Under most modern data privacy laws, such as the GDPR or CCPA, documenting how your data is used is necessary for compliance. While you might worry that an open-source tool might leak your data, the reality is that you’ll usually be running such tools locally.

    Instead, it’s more important to consider how well the tool integrates with your existing privacy and security workflow. Is it easy to integrate? Or does the connection keep breaking with each update? Does it provide good visibility into what and how data is being used? Or is it something of a black box? That’s not to say these tools generally have poor connectivity, just that they may not have the full range of integrations and security features you might expect from paid software.

    No Guarantee of Long-Term Availability

    When volunteers run a project, its continued existence often depends on their willingness to keep working for free. While an end to their work might not immediately remove the product from the market, it will eventually fall behind other programs’ features and security. And that means you will eventually need to make a change to avoid security issues or get the latest technology.

    Some businesses will already be planning to upgrade their TDM solution regularly, so that might not be a big deal. For others, changing to something new, even if it’s a new open-source software, means costs in terms of retraining, lost productivity, and possible delays in development during the upgrade. That can be an enormous cost, and open-source solutions are more likely to shut down without significant notice than paid ones.

    Limited Support

    Service-Level Agreements are a huge part of the modern software experience. If something breaks during an upgrade, knowing that you have both easy-to-reach support and a money-back guarantee can provide significant peace of mind. With open-source software, you’re unlikely to have significant support options beyond posting on a forum, and you can forget about an SLA. That doesn’t mean that all open-source solutions are unreliable. However, if something breaks and your team can’t fix it, there’s no way of knowing when it will be fixed.

    How Mage Data Helps with Test Data Management

    For some companies, choosing an open-source test data management system will be a great move. But, some businesses need that extra layer of reliability, security, and compatibility that only paid software can provide. When evaluating these solutions, it’s important to understand the benefits and risks to choose the best option for your business. At Mage, we’ve built a solution designed to handle the most challenging TDM issues, from small businesses to multi-billion-dollar enterprises. Contact us today to schedule a free demo to learn more about what Mage can do for you.

  • Seven Key Test Data Management Metrics to Understand and Track

    Seven Key Test Data Management Metrics to Understand and Track

    If your organization performs software testing, then you probably use test data in some form. But is your process for producing, updating, and implementing that test data adding net value for the organization? Or is it a hidden roadblock to producing quality software?

    Unfortunately, most organizations assume that simply having some sort of Test Data Management (TDM) process in place is sufficient. True, doing some Test Data Management is better than doing none at all. (And there are telltale signs that an organization needs Test Data Management to move forward.) But even with a Test Data Management program in place, it’s important to set up appropriate metrics and KPIs to ensure that your Test Data Management efforts are actually producing the kind of test data needed for optimal quality control.

    Why Are Metrics Needed for Test Data Management?

    Managing test data can be challenging, especially in large and complex software systems. Many TDM projects fail because the processes involved work at first, but erode over time. For example, the test data could lose its “freshness,” or the request process is not robust enough to create effective data sets.

    This is why it is important to gain insight into the TDM process by collecting various metrics. Some of these can be captured using Test Data Management tools, while others will require some customized reporting. But the more complete your picture of the Test Data Management process is, the better your organization will be able to keep its testing process on-track and delivering according to schedule.

    7 Key Test Data Management Metrics

    Here, then, are seven key metrics to consider for tracking your Test Data Management capabilities. These can be split into two categories: Metrics that measure the test data itself and its quality, and metrics for the testing process.

    Metrics for Test Data Quality

    Data completeness. Data completeness is a measure of how well test data covers scenarios from production domains. This can especially be a concern if test data is created via subsetting, or by creating synthetic data. Special cases exist in all data sets and workflows, and those cases need to be represented in test data. There also need to be appropriate boundary cases, null cases, and negative-path cases as well. Otherwise, testing will not be sufficient.

    Data quality. While data completeness is a measure of which cases are covered, data quality is a measure of how well the test data respects the rules and constraints of the database schema, as well as the application being tested. In other words, it is a measure of how well the test data “matches” production data, which in turn affects how well the data will turn up bugs with consistency and reliability.

    Data freshness (data age). Aspects of data sets change over time; using test data that accurately represents the freshest production data is thus crucial. For example, the demographics of clients in a client database might shift over time, or account activity might change as new interfaces and new products are introduced. The freshness of one’s test data can be measured in terms of the age of the data itself, or in terms of the rate at which new test data is generated (the refresh rate).

    Metrics for Test Data Management Processes

    Data security. To what degree do the processes for generating and using test data ensure the security of the original production data? How is test data itself kept secure and compliant? Data security metrics should give numeric proof that datasets are handled in such a way as to keep sensitive information secure and its use compliant with local laws and regulations.

    Test cycle time. Test cycle time is the total time for a testing cycle to complete, from request to test data creation to actual testing and validation. The goal is to reduce test cycle time as much as possible without sacrificing quality—by introducing automation, for example.

    Data request % completion. Are all requests for reliable test data being met? Data request % completion is the other side of the coin from test cycle time; while cycle time measures the average speed of provisioning, data request % completion measures how many requests are actually being met in a timely matter.

    Test effectiveness. If all of the above metrics were to improve within an organization, then overall test effectiveness should improve as well. So, even though test effectiveness is a lagging indicator of the quality of test data and Test Data Management, it is important to track as effectiveness is what will ultimately affect the bottom line.

    Here, test effectiveness is simply a count of the number of bugs found during a period of testing, divided by the total bugs found (that is, both bugs found during testing and bugs found after shipping/deployment). For example, if all bugs are found during testing and none in production, testing effectiveness is 100%. If testing only reveals half of the bugs, with the other half discovered after deployment, testing effectiveness is 50%. The higher test effectiveness is, the better: Catching bugs in testing often makes remediation orders of magnitude cheaper than if caught in production.

    How Mage Data Helps with Test Data Management

    If you have a Test Data Management strategy in place, you’ve already taken the first step in the right direction. Now it is important to start collecting the right metrics, measuring your efforts, and bringing on board the right tools to improve the process.

    Mage’s Data own Test Data Management solution ensures the security and efficiency of your test data processes with secure provisioning of sensitive data across teams, wherever required and whenever needed. This tool allows organizations to rapidly provision high-quality test data, allowing your TDM efforts to scale while staying secure.

    To learn more about how Mage Data can help solve your Test Data Management challenges, contact us today to schedule a free demo.

  • Four Best Practices for Test Data Management in the Banking Sector

    Four Best Practices for Test Data Management in the Banking Sector

    While managing test data may not be as exciting as what financial institutions can do with analytics, poorly managed test data holds an existential risk. Imagine a rare bug that failed to be uncovered during testing—something that reported a balance of zero for a small set of users. The consequences would be dire. Or, imagine testing done with live data that was not properly masked. The potential for a data breach would be astronomical.

    The good news is that properly managed test data can help reduce and eliminate many of these issues before applications are rolled out to users, and so securely. Getting this process right is key to keeping development costs low and avoiding the pain of small bugs with massive consequences.

    Best Practice #1: Understand Your Data Landscape.
    A core principle of data privacy and security is that businesses should minimize their use of data to what is necessary. One of the primary uses for test data is likely to test user interfaces on public-facing applications. In this scenario, there is a lot of information that banks hold, like social security numbers, spending patterns, and credit histories, that won’t ever show up on the front end—and consequently won’t be relevant. While your live data is a key starting point for creating a high-quality test dataset, copying it wholesale will be a waste of resources and create more risk in the event of a leak or breach. By thoughtfully exploring the minimum amount of data necessary for a test, banks can reduce their risk and speed up testing time while reducing resource consumption.

    On the other side of the coin, banks often face issues gathering enough of the right information for testing. Banks are especially at risk for holding data in profoundly non-centralized manners. Legacy systems, some decades old, might handle core business operations like payment processing, credit card rewards, and even the bank accounts themselves. When data is fragmented, collecting the necessary types and amounts of data for testing while respecting data privacy and security laws can be a significant challenge. Banks need a “census” of their data, cataloging what kinds of data they hold and where it is so that they can ensure their test data is as complete as possible and assembled in a legal manner.

    Best Practice #2: Proactively Refresh Your Data
    Like any business, banks are always developing new products and services. Test data management provides a means of stress testing these new offerings so that they perform as expected on launch. However, using test data that isn’t up-to-date can mean that products could pass testing, but fail in actual use. For example, a bank could be expanding into a new country. That would mean that its applications must support a new language and currency symbol. While those may seem like minor adjustments to make, if poorly implemented, they could create a terrible experience for your users in the new area. Without the right test data, the issue may not be identified beforehand.
    Consequently, refreshing test data isn’t just about having the best picture of where your business currently is, though that is important. Instead, refreshing test data can help propel your business to where it’s going and help future-proof it against upcoming developments. Of course, it’s also important to update your data so that it remains current. If test data grows stale, it may become a poor reflection of your business, causing testing to miss critically important issues before changes are rolled out to the public.

    Best Practice #3: Anonymize Your Data
    One of the riskiest things a business could do is take its most sensitive data and give it to its most junior employee. Yet, developers need access to test data to validate their software solutions. In banking, giving employees access to customer information is not just a risk, but in a heavily regulated industry like finance, is probably illegal. Companies could use various techniques to help maintain compliance, such as static or dynamic data masking, anonymization, or pseudonymization.

    Best Practice #4: Automate Test Data Management
    Every day, banks and their customers generate billions of new data points. In an environment where massive change can occur relatively quickly, it can become impossible for humans to keep up with the necessary changes. This is true for test data management. One of the best ways to ensure that your test data is fresh enough for testing is to automate the creation and refreshing of test datasets. That can be a massive challenge at scale, but with the right tools, banks and other financial institutions can keep up with the pace of change.

    How Mage Helps Banks with Test Data Management
    Ultimately, Test Data Management is not just one process but many often-complex interlocking processes. Banks have to get all of these processes right to have effective test data and perform them securely under the watchful gaze of any number of regulators. In an environment where regulatory intervention can be devastating, not just any Test Data Management solution will do. With a deep data privacy and security background, Mage Data’s Test Data Management platform provides businesses of any size with the tools they need to tackle their thorniest data management issues. Mage Data’s platform can handle data at any scale and already supports multiple businesses with multibillion-dollar revenues. To learn more about what Mage Data’s Test Data Management solution can do for your business, contact Mage Data today for a free consultation.

  • Why Do Test Data Management (TDM) Projects Fail?

    Why Do Test Data Management (TDM) Projects Fail?

    Test data, and Test Data Management, remain a huge challenge for tech-driven companies around the globe. Having good test data is a boon to the organization: It helps support rigorous testing to ensure that software is stable and reliable, while also mitigating security risks. But having good test data is exactly the issue. The way in which test data is created and subsequently managed has a huge effect on testers’ ability to do their jobs well.

    This is why many Test Data Management projects fail. Testers manage to create testing that is usable once, or perhaps a handful of times. But over time, problems accumulate. The data loses its freshness, for example, or the request process is not robust enough to create appropriate data sets.

    While we cannot diagnose every unique issue that organizations face when it comes to Test Data Management, there are some common challenges that we’ve seen—challenges that routinely sink Test Data Management projects, making them less effective, more costly, and more likely to fail outright.

    Here are the top six:

    1: Lack of Buy-In

    Test Data Management isn’t likely to be high on the list of priorities for any company. Too often, it’s an afterthought. There isn’t always an internal champion making the project a priority, let alone making the argument for investing in better tools.

    When this lack of buy-in exists, especially among company leadership, a TDM project is liable to fail before it ever takes off. Thus, it is important to get stakeholders on board; they should understand why Test Data Management is important, and have some say into new projects from the start. This includes both company leadership and those who will be responsible for implementing the plan.

    2: Lack of Standardization

    One sign or outcome of a lack of buy-in is a lack of standardization. Answer these questions: Does your organization have a well-developed data dictionary? Where can that be found? Who created it? What does the data model look like? If the answers to these questions are not readily known by you or the team responsible for Test Data Management, chances are you don’t have robust standards in place.

    Another manifestation of this problem is an absence of standard data request forms. This leads to data requests in different types of formats, as well as different tests, both of which ultimately lengthen testing cycles.

    3: Older Data and/or Merged Data

    Test data should cover a range of relevant test cases and legitimately resemble the data in your production environments. But data is not static; it tends to change over time. For example, the demographics of clients in a client database might shift over time, or account activity might change as new interfaces and new products are introduced. This means there is an expiration date on datasets, and yet outdated test data is routinely used.

    This especially becomes a problem after an acquisition or merger. Each party will bring their own data to the new entity, and merging the datasets is a challenge in its own right. If the conversion is done badly, this can throw off the data sample.

    4: Privacy and Safety Standards

    Many applications traffic is sensitive data—banking apps, tax preparation software, HR software, shopping apps…the list goes on. These applications can reveal crucially important insights, but they also risk revealing sensitive personal and financial information.

    This creates a trade-off between safety and relevance when it comes to test data. Using real-time data from production environments ensures relevance, but often at the cost of privacy. Using synthetic data ensures privacy but risks not having the proper relationships and, hence, not being relevant.

    Using automated test data generation software can help the team to deal with this problem. This helps to create data with the relevant relations intact, but without revealing sensitive information. Masking and/or encryption should be part of this process.

    5: Problems with Referential Integrity

    Ideally, any set of test data should contain a representative cross-section of the data, maintaining a high degree of referential integrity. Again, this is easier to achieve with real-time data but much harder with synthetic test data.

    So, when creating synthetic testing data, it is important to have a data model that accurately defines the relationships between key pieces of data. Primary keys must be properly linked, and data relationships should be based on well-defined business rules.

    Sometimes a TDM project will fail because the test data does not have this kind of referential integrity, and the entire testing process becomes an exercise in demonstrating the adage: “garbage in, garbage out.”

    6: Waterfall TDM in an Agile Development Environment

    There are plenty of data management tools out there today…and many of them assume a more-or-less waterfall approach to development. In a waterfall approach, a “subset, mask, and copy” methodology usually ensures that test data is representative of live data, is small enough for efficient testing, and meets all data privacy requirements. With the testing cycle lasting weeks or months and known well in advance, it’s relatively easy to schedule data refreshes as needed to keep test data fresh.

    Things are not so straightforward in an agile development environment. Besides integration challenges, commonly there also are timing challenges. Agile sprints tend to be much shorter than the traditional waterfall process, so the prep time for test data is dramatically shortened. The approach outlined above tends to impede operations by forcing a team to wait for test data and can create a backlog of completed, but untested, features waiting for deployment. Again, automation can help create test data on-the-fly and as needed.

    Preventing Failure

    Given that the above list represents the majority of reasons why TDM projects fail, we can reverse-engineer those reasons to put together a plan for TDM success:

    1. Get buy-in early from both teams and leadership,
    2. Start with appropriate standardization (including a data dictionary and current data model with appropriate referential integrity),
    3. Make a plan to clean older, irrelevant data and convert any data from other sources,
    4. Choose methods that will yield data with the appropriate trade-off between privacy/security and relevance (including using masking and encryption), and
    5. Automate the process wherever possible.

      Mage Data can help with many of these steps. Our Test Data Management solution ensures the security and efficiency of your test data processes, allowing for the secure provisioning of sensitive data across teams, wherever required and whenever needed. Your teams will have a better experience with our ready-to-go, plug-and-play platform for TDM, irrespective of data store type. You can ask for a demo today.

  • What is Data Provisioning in Test Data Management?

    What is Data Provisioning in Test Data Management?

    If your company has taken the time to master test data generation—including steps to ensure that your test data is free from personally identifiable information, is suitable for different tests, and is representative of your data as a whole—data provisioning might feel like an unimportant step. But like a runner who trips a few feet before the finish line, companies who struggle with data provisioning will face delays and other issues at one of the last steps in the Test Data Management process, wasting much of their hard work. The good news is that getting data provisioning right is a straightforward process, though it will require businesses to have a strong inventory of their data management needs.

    What is Data Provisioning?

    Data provisioning is taking prepared datasets and delivering them to the teams responsible for software testing. That process might sound deceptively simple at first, but data provisioning faces similar challenges to last-mile logistics in package delivery. Moving packages in bulk from San Francisco to Dallas on time and at a low cost is relatively easy. It’s much more challenging to achieve a low price and on-time delivery when taking those same packages and delivering them to thousands of homes across the DFW metro area.

    In the same way, creating one or more high-quality datasets that help testers identify issues before launch is not that complicated, relatively speaking. But doing it when multiple teams may be testing different parts of an app, or even testing across multiple apps, can be a big lift. And if your company is using an agile software development approach , there could be dozens of different teams doing sprints, potentially starting and stopping at different times, each with its own unique testing needs. Those teams may start on an entirely new project in as little as two weeks, which means those managing your test data could receive dozens of requests a month for very different datasets.

    Why Does Data Provisioning Matter?

    Failing to deliver test data on time can have severe consequences. For example, a lack of test data could mean that the launch of a critical new feature is delayed, despite being essentially complete. Data that’s even a day or two late could lead to developers being pulled off their new sprints to resolve bugs revealed in testing. When that happens, other teams are potentially disrupted as personnel are moved around to keep things on track, or else the issue can potentially lead to cascading delays.

    In other scenarios, the consequences could be smaller. The test data could exist, but not be stored in a way that testers can easily access. That could mean that your test data managers are spending time in a “customer service” role, where they have to spend time ensuring testers have what they need. If the friction of this process grows too large, testers might start reusing old datasets to save time, which can lead to bugs and other issues going undetected. The data provisioning challenge for businesses is ensuring that testers always have what they need, when needed, to ensure that testing catches bugs before they go live and becomes much more expensive to fix.

    Strategies for Effective Data Provisioning

    Does that mean that an IT-style approach is right for data provisioning? For the typical IT department, as long as there is enough capacity to support all needs on the busiest days, there won’t be any significant IT problems. However, data provisioning is significantly different from IT needs. IT needs are unpredictable, with some days having heavy demands and others producing very few requests. Data provisioning needs are tied to the development process and are nearly 100 percent predictable. Because of its predictability, companies can be efficient in resource usage for data provisioning, aiming for a “just-in-time” style process rather than maintaining excess or insufficient capacity.

    Self Service

    Of course, achieving a just-in-time process is easier said than done. One of the most effective steps companies can take to streamline their data provisioning process is to adopt a self-service portal. While it will vary from company to company, a significant portion of test data generally needs to be reused in multiple tests. This could be for features in continuous development or applications where the data structure remains unchanged, even as the front end undergoes transformations. Enabling developers and testers to grab commonly needed datasets on their own through a portal frees up your data managers to spend more time on the strategic decision-making needed to create great “custom” datasets for more challenging use cases.

    Automation

    Test data sets, whether in a self-service portal or used on a longer project, need to be regularly refreshed to ensure the data they contain is up-to-date and reflective of the business. Maintaining these portals can be a very time-consuming task for your data managers. Automating the process so that this data can be regularly refreshed, rather through a request in a self-service portal or by regular updates on the backend based on rules set by the test data managers, can help ensure that data is always available and up to date.

    How Mage Data Helps with Data Provisioning

    The reality of data provisioning is that your process may not look anything like anyone else’s, and that’s a good thing, as it means that you’ve customized it to your specific needs. However, getting to that point by building your own tools could be a long and expensive process. At the same time, off-the-shelf solutions may not meet all your needs. With Mage Data, companies can have the best of both worlds. With its suite of powerful tools, Mage Data gives companies just about everything they need for data provisioning and Test Data Management as a whole right out of the box. However, everything is customizable to a company’s specific needs, allowing you to obtain the benefits of customized software without the price tag. To learn more about what Mage Data can do for you, contact us today to schedule a free trial.