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Category: DevOps Onramp

  • Building an Open Source Observability Platform

    Building an Open Source Observability Platform

    Enterprises are under constant pressure to ensure their IT infrastructure and applications are available throughout the year. The complexity of modern architectures (containers, hybrid cloud, SOA, microservices, etc.) is constantly growing, generating vast volumes of unmanageable logs. We need intelligent application performance management (APM) and observability tools to achieve production excellence and meet the availability and uptime goals. These include analyzing application health, performance and user experience. Adopting machine learning techniques to identify anomalies and behavior patterns will help detect the root cause early and meet customer service level agreements (SLA).

    The APM and observability tools market is undoubtedly hot. These tools ingest multiple telemetry data feeds and are powerful analytics platforms providing critical insights into application and infrastructure health, including system performance. The software development teams that adopt observability are much better equipped to release their application code iteratively. As per “MarketsandMarkets” research, the market size of observability tools and platforms is expected to grow from $2.4 billion in 2023 to $4+ billion by 2028 at a compound annual growth rate (CAGR) of 11.7%.

    What is Observability?

    Observability is the ability to collect data about the distributed applications, infrastructure and communication among its internal and external components and services, allowing teams to debug their systems diligently. It enables the site reliability engineering (SRE), software engineering and operations teams to analyze the customer impact and triage a service outage. Observability and monitoring are sometimes used interchangeably. Observability (proactive) makes the data accessible and allows you to ask any system question to know how the code behaves more deeply. Monitoring (reactive) is the task of collecting and displaying that data and the ability to determine the system’s overall state.
    Observability can be further broken down into three key pillars: Logs, traces and metrics, which are essential for SRE observability.

    • Logs help us diagnose the issues and tell us why they happened.
    • Traces help us isolate issues and tell us where they happened.
    • Metrics help us detect the issues and tell us what happened.

    Market Tools, Capabilities and Challenges

    Gartner’s magic quadrant for APM and observability has identified 20+ vendor products offering APM and observability capabilities, including self-hosted, vendor-managed or SaaS deployments. These products provide multiple features, including application performance metrics, monitoring and alerting on events, traceability, anomaly detection and vulnerabilities, etc.

    An enterprise business application comprises homegrown applications (such as .NET, Java, Python, SQL, NoSQL DB, etc.), third-party/off-the-shelf products (such as Salesforce, HubSpot, etc.), and integrations (such as Stripe, PayPal, etc.). Homegrown applications are hosted in an on-premises data center or by cloud vendors like AWS, GCP, or Azure. The off-the-shelf products are SaaS-based or integrated via APIs. There are highly distributed applications spanning tens and hundreds of nodes, services and instances.

    • Too Many Tools: Enterprise applications use various tools for monitoring application health and performance (such as New Relic, Data Dog, etc.), Error logging (such as Splunk), and cloud vendor-provided tools (such as CloudWatch). These products overlap in functionality and maintaining and managing these tools (procurement, learning curve, etc.) can be cumbersome.

    • Unpredictable Data Volume: Imagine the volume of observability data (logs, traces, metrics) collected based on the application traffic, usage, dependency on external products, etc. The amount of data storage required to consolidate these data feeds can quickly grow out of control.

    • Pricing is Complex: These vendor products also offer different pricing models such as charge per host (such as Splunk, Data Dog, Dynatrace), per-user (such as New Relic), per-ingestion (such as SumoLogic, AppDynamics). The complexity of pricing models makes it challenging to compare total cost of ownership (TCO) among vendors and determine the right tool that fits your requirements and budget.

    Why Choose Open Source Observability Platform?

    Open source-based observability tools aim to provide a standard, vendor-agnostic approach for ingesting, transforming and sending data to an observability backend. The open source observability tools can be an alternative to save on licensing costs and consolidate multiple APM tools with the tool that fits your requirements and budget.

    However, maintaining open-source systems may require efforts to set up and maintain and will add to your initial operational cost. But in the long term, you will save on licensing fees and avoid vendor lock-in and contractual agreements.

    Gartner predicts that, by 2025, 70% of new cloud-native application monitoring will use open-source instrumentation rather than vendor-specific agents for improved interoperability, and 70% of new cloud-native applications will adopt OpenTelemetry for observability rather than vendor-specific agents and software development kits (SDKs).

    Scale Observability Using the Open Source Ecosystem

    The open source landscape for observability is quite dynamic. There are multiple Cloud Native Computing Foundation (CNCF) open source tools for observability and monitoring. This post will primarily focus on the OpenTelemetry framework and LGTM technology stack.

    OpenTelemetry:
    The “too many tools” challenge described above brings up a new struggle in telemetry data collection. Each tool vendor has its own APIs, SDKs, agents and collectors for logs, metrics and traces. We need a unified telemetry collection using the OpenTelemetry framework to create and manage telemetry data such as logs, traces and metrics.

    The OTEL project under the auspices of the CNCF offers a unified set of vendor-agnostic APIs, SDKs, and tools for generating and collecting telemetry data and exporting it to various analysis tools. You get one API and SDK per programming language to extract your application’s observability data, a standard collector, a transmission protocol (OTLP) and more.

    LGTM:
    The most popular open source-based observability and monitoring is implemented using the LGTM technology stack.

    In the LGTM stack, we leverage:
    • Loki for log aggregation
    • Grafana dashboards for telemetry visualizations
    • Tempo (or Jaeger) for trace aggregation
    • Managed Prometheus for metrics aggregation

    Conclusion

    Observability is about complete visibility across your systems and tying business metrics with technical data. Monitoring is about understanding if things are working correctly, and AIOps is about getting meaning from that visibility. Observability and monitoring are critical to ensure the smooth functioning of applications and meet customer SLAs. In conclusion, by investing in open source OTel frameworks and LGTM tools, SRE teams can effectively monitor their applications and gain insights into system behavior and potential issues. These tools offer cost-effectiveness and customization to suit specific requirements. It promotes vendor neutrality, which can be critical for avoiding vendor lock-in.

  • Controlling Cloud Costs With Efficient Ramp Plans

    Controlling Cloud Costs With Efficient Ramp Plans

    A mix of rapid migrations to the cloud and complexity over usage and costs has companies desperately trying to reduce waste and gain control over their spending. Making matters worse is a volatile economy that has decision-makers on edge, considering cost-cutting measures and placing a priority on locking down revenue.

    Without a formal FinOps or cost optimization strategy in place, it’s easy for companies to see cloud expenses snowball out of control. In fact, analysts from Gartner report that organizations that do not employ cloud cost optimization can overspend by up to 70%. That said, ramp plans are becoming a vital tool for containing cloud resources.

    Still, while this strategy can show how to effectively grow your environment and increase workloads, the way a ramp plan is carried out is key to its success. The following looks at what companies should do to succeed with ramp planning accompanied by some strategic advice for handling unique needs that may arise.

    Ramping Up

    A ramp plan, at its most rudimentary level, is data tracking toward how your organization consumes cloud resources versus what it commits to with a cloud service provider (CSP) or reseller. By committing to spend a set dollar amount, you can get healthy discounts or other incentives. As an example, a 50% increase in consumption by the end of the year might earn a 10% discount from a CSP on compute workloads. But there is risk: A company is still obligated to pay that figure, even if it uses far fewer resources than it committed to.

    Still, just as you don’t want to spend money needlessly, CSPs—even high-volume hyperscalers like Amazon AWS and Google GCP—would rather see customers get what they need and grow their footprint. For some organizations, the answer is bringing in a partner to help forecast spend. Questions regarding what is needed, past usage, anticipated growth, potential for acquisitions and more need to be answered. You also have to examine such things as product and service offerings. For instance, a subscription app you offer could catch fire and bring in customers—but you’ll need to plan accordingly so the resources will be in place to meet this demand.

    Compiling and projecting this all isn’t easy, but this type of data is needed so you can develop a ramp plan and budget effectively. In the past, this process required time-consuming manual research, a host of spreadsheets and sophisticated algorithms. However, technology has been developed to automate, drive and scale this process. For some businesses, the ideal is to find a partner with this capability in-house and a depth of expertise to use it correctly.

    Processes and Partners

    Ideally, a ramp plan should be developed before a commitment is made. It should be reviewed on at least a quarterly basis with the C-suite and appropriate technical executives and then revised as necessary. On the whole, CSPs like to sign customers to contracts extending more than a year, with three-year terms being typical.

    Working with a third-party partner, reseller or directly with a hyperscaler comes down to personal preference. Big companies, much like hyperscalers, tend to have a lot of bureaucratic processes and requirements. So, if you want a tactical agreement with AWS, you may have to buy tactical support. You may get a good financial incentive in exchange, but the cost of enterprise-level support could offset that.

    Partners and resellers of cloud services, on the other hand, help hyperscalers scale their businesses, so they often have special arrangements that lower support costs. The development of ramp plans is usually less when going through a third party versus registering with a CSP. These services are often designed for smaller companies that larger CSPs don’t have time to handle. Third parties tend to provide tailored services more in tune with customer needs, including more flexible usage, optimization and security. These partners tend to negotiate more effectively than customers themselves because they better understand the ecosystem and which levers to pull.

    Measuring Success

    It’s not easy to measure and track the success of a ramp plan. Beyond understanding and meeting your commitment—and getting the most from cloud spend—the best measure is profitability. Are you just eating costs or acquiring new customers? Is your efficiency boosting or lowering your margins? It’s even possible to apply unit economics to assess if you’re making money on the resources being used.

    Making a commitment and ramp planning should involve more than financial incentives. Maybe there’s some other strategic aspect you want to achieve? From service-level agreements to support, a lot of things can be woven into a commercial contract. Benefits can come in various forms, but when they’re added together, you can take success in the cloud to a whole new level.

  • Securing the DevOps Pipeline: Tools and Best Practices

    Securing the DevOps Pipeline: Tools and Best Practices

    The DevOps pipeline refers to the set of practices and tools designed to automate and integrate the processes between software development (Dev) and IT operations (Ops) teams. This pipeline facilitates continuous integration (CI), continuous delivery (CD) and rapid deployment practices, aiming to shorten the development life cycle and provide continuous delivery with high software quality. 

    The DevOps pipeline typically includes planning, coding, building, testing, releasing, deploying, operating and monitoring, enabling teams to develop and deploy software more efficiently and with fewer errors.

    By automating workflows and integrating various development and operational activities, the pipeline supports the rapid iteration of software releases. This not only accelerates the pace of software development but also ensures that quality and performance standards are met throughout the application’s life cycle.

    Due to the critical nature of the DevOps pipeline, security is becoming a top priority. Some of the most devastating cyberattacks in recent years were related to breaches in DevOps pipelines, which led to global-scale supply chain attacks.

    The Need for Security in DevOps

    DevOps, by its very nature, encourages speed and efficiency. However, this drive for rapid software development and deployment can sometimes overlook the critical aspect of security. That’s why it’s essential to weave security into the fabric of the DevOps pipeline, an approach known as DevSecOps. By doing so, we can ensure that security isn’t an afterthought but an integral part of the development process.

    Incorporating security into the DevOps pipeline offers multiple benefits. First, it helps identify and rectify security vulnerabilities early in the development process, reducing the risk of security breaches. It also fosters a culture of shared responsibility, where the development, operations and security teams work together toward the common goal of creating secure software.

    Tools for Securing the DevOps Pipeline

    Securing the DevOps pipeline requires a set of tools that align with the DevOps philosophy of automation and continuous improvement. Let’s explore some of these tools.

    Static Application Security Testing (SAST)

    SAST, also known as white-box testing, is a tool that helps locate security vulnerabilities in the codebase without executing the application. It makes it possible to identify issues early in the development process, even before the code is run.

    SAST works by analyzing the source code, bytecode or binary code, looking for patterns that might indicate a security flaw. The strength of SAST lies in its ability to pinpoint the exact location of the security vulnerability in the codebase. This makes it easier to fix the issue, thus saving time and resources.

    Dynamic Application Security Testing (DAST)

    DAST, a type of black-box testing, involves testing the application in its running state. It’s designed to find security vulnerabilities that can’t be spotted during static analysis.

    DAST works by simulating attacks on the application and observing its response. It can identify security issues like cross-site scripting (XSS), SQL injection and security misconfigurations. The beauty of DAST is that it views the application from an attacker’s perspective, thus providing a real-world assessment of its security. However, DAST can’t identify vulnerabilities in the source code and relies on the application being in its running state for testing.

    Software Composition Analysis (SCA)

    Software composition analysis (SCA) is designed to provide visibility into the open source components used in the software. It helps identify any security vulnerabilities, licensing issues or outdated libraries in the open source components.

    SCA works by creating a bill of materials (BOM) that lists all the open source components used in the software. It then compares this list against various databases that track open source vulnerabilities. If a match is found, SCA flags the component, allowing the developers to take necessary actions.

    Endpoint Detection and Response (EDR)

    Endpoint detection and response (EDR) is a cybersecurity technology that addresses the need for continuous monitoring and response to advanced threats. EDR tools continuously monitor endpoint and network events and record the information in a central database where further analysis, detection, investigation, reporting, and alerting take place.

    EDR is like a surveillance system for your DevOps pipeline. It keeps an eye on endpoint activity, and if it detects a potential threat, it alerts developers and security staff. EDR is not just about detection; it also provides tools for responding to security incidents. It helps isolate affected systems, block malicious activities and even roll back systems to their pre-attack state.

    Container Security Tools

    In a DevOps environment that increasingly relies on containerization, container security cannot be overlooked. Container security tools provide a means to enforce security policies and protect containerized applications.

    These tools offer functionalities like image scanning, runtime protection and network segmentation. Image scanning helps identify vulnerabilities in the container images. Runtime protection monitors the container’s activities in real-time, looking for any signs of compromise. Network segmentation allows for isolating containerized applications, thus limiting the blast radius in case of a security incident.

    Best Practices for Securing the DevOps Pipeline

    Integrate Security Early (Shift Left)

    The concept of ‘shifting left’ in DevOps refers to integrating security measures early in the development process. Instead of treating security as an afterthought, it becomes a part of the software development life cycle from the get-go.

    Implementing security early allows us to identify and address potential vulnerabilities before they become a significant issue. It saves us time and resources by preventing security breaches instead of responding to them. Besides, it fosters a proactive approach to security, emphasizing prevention over remediation.

    SAST and DAST are useful in integrating security early. SAST tools analyze code in its static state to identify vulnerabilities, while DAST tools test applications in their running state to detect security flaws.

    Automate Security Processes

    Automated security scans can be incorporated into the continuous integration/continuous delivery (CI/CD) pipeline. Each time a code push occurs, these scans are triggered, allowing for immediate feedback on potential security issues. Automated scans can detect a broad range of vulnerabilities, from code defects to configuration errors.

    Configuration management tools like Chef, Puppet, Ansible and Terraform can help manage configurations and enforce security policies. They ensure that all systems are configured correctly and consistently, reducing the risk associated with manual configuration.

    Regular Security Audits and Compliance Checks

    Regular security audits and compliance checks are essential in securing the DevOps pipeline. They provide an opportunity to review and update security measures, ensuring they are effective and up-to-date.

    Security audits should be comprehensive, covering all aspects of the DevOps pipeline. They should evaluate security controls, identify potential vulnerabilities, and recommend remedial measures. Compliance checks ensure that security practices align with relevant regulations and standards.

    In conclusion, securing the DevOps pipeline requires a holistic approach that integrates security into every aspect of the development process. It involves shifting security left, automating security processes, conducting regular audits and compliance checks and fostering a culture of collaboration.

  • Blueprints for a Secure, Future-Proof Hybrid Cloud

    Blueprints for a Secure, Future-Proof Hybrid Cloud

    For today’s organizations, hybrid environments are a given. Whether for legacy reasons, regulatory requirements, or other specific needs, some of an enterprise’s critical data is likely to reside on, or in some cases, revert to, on-premises. However, other equally crucial data might be more efficiently and cost-effectively suited for storing and accessing in the cloud. Hence, hybrid.

    Despite their logic and many benefits, hybrid environments bring new levels of complexity. And they bring greater vulnerability, with ever more devious cyber threats probing the multitude of network access points. More than 80% of breaches now involve data stored in hybrid environments, according to IBM’s Cost of a Data Breach 2023 Report.

    That’s why, to avoid data loss and maintain a comprehensive level of protection across the entire environment, organizations need a blueprint for adopting and evolving their hybrid systems. The right solution enables data protection across workloads, providing the hybrid enterprise with the flexibility to protect data wherever it is today — and wherever it might be in the future.

    A growing multitude of organizations in various industries have successfully implemented blueprints of this sort, built on the following foundational considerations:

    Cost-optimization: A solution that can span a hybrid environment — SaaS, software and on-premises — and reduce infrastructure to manage and save administrative time.

    Air-gapped security: Backup of the most critical data in cloud locations that can’t be accessed through whatever network or networks might be the focus of a cyberattack.

    Fast recovery: Flexible, performance-optimized storage combined with the ability to send an air-gapped copy to the cloud for ransomware protection.

    Broad coverage: An integrated set of software, appliance and SaaS offerings that span hybrid environments — and can evolve with the organization.

    Simple management: Single-pane-of-glass dashboards for monitoring the hybrid environment while reducing management overhead.

    Reliability for peace of mind: Leveraging industry-leading, trusted platform solutions rather than unproven point products.

    Now’s the time to see it in action.

    Ensuring an Insurer’s Data Backup

    In Israel, Harel Group is the country’s top insurance and financial services provider, managing a large volume of data and investments. As such, a critical priority for the company is to ensure all that data is 100% backed up and can be restored without any issues.

    Harel Group were using a secure solution to reliably protect more than 1.5PB of data in its on-premises environment. More recently, though, it has sought the flexibility and efficiencies of moving part of its infrastructure to the cloud. However, stringent industry regulatory requirements meant Harel could store sensitive data in the public cloud only if it could be backed up and stored as efficiently, securely and reliably as the on-premises data. What they needed was a SaaS solution.

    “A SaaS solution takes care of data availability, but not the backup operation of the data,” said David Ben-Eli, system IT infrastructure manager for Harel Group. “We knew from day one that in taking on Microsoft 365, we would need a SaaS solution with good restore functionality that satisfies our business model and strategy.”

    And so, Harel designed a blueprint based on a fully managed SaaS platform. The initial stage involved protecting approximately 1,000 of its employees’ mailboxes, which will soon cover more than 5,000 mailboxes.

    The SaaS solution also enabled Harel to move its on-premises storage securely to the cloud, which has the dual advantage of reducing infrastructure costs and air-gapping its backups to mitigate the risk of ransomware attacks. “We have peace of mind that our data is secure,” Ben-Eli said. And the entire cost of the SaaS solution “is less than the cost of hiring more people.”

    Backing up and protecting a company’s data in a hybrid environment is challenging enough. To be a vendor providing those capabilities to other companies comes with additional challenges.

    A Vendor Puts its Data in Order

    Evolutio, based in Madrid, is a leading enabler of cloud services that provides more than 5,600 kilometers of deployed networks with 6,100 virtual machines across three data centers. Its goal is to support customers’ digital transformations and foster their agility, flexibility and innovation capacity to optimize their business value.

    To meet Evolutio’s needs, Alain Rodriguez, head of services management office, had to find an easy-to-use solution that consumed minimal resources to manage backups and security for Microsoft 365. His blueprint aimed to protect critical data before anything could go wrong.

    So, Evolutio chose a single platform to back up and restore data for internal systems. By implementing a fully hosted SaaS-based solution, Evolutio no longer needs to worry about purchasing and maintaining equipment yearly. There is also no upfront investment required and no additional costs for support from the vendor. As a result, Evolutio’s business can grow on demand.

    Resolving a Global Data Sprawl

    Woodward, Inc. is an American designer, manufacturer and service provider of control systems and components for aircraft engines, industrial engines and power systems. The company has been growing significantly across dozens of global networking sites, with expansion that quadrupled the size of data and backed-up servers.

    Virtual machine sprawl ate into company resources while complicating backup operations requiring standardized procedures. Slow legacy servers and apps made it impossible to meet recovery point objective (RPO) and recovery time objective (RTO) targets. And the absence of a coherent, comprehensive disaster recovery plan worsened things.

    Topping this off was increased backup storage costs via disk and tape and a need for central management or cross-department visibility into data protection and backup policy compliance. There was no blueprint, in other words.

    After trying unsuccessfully to address its needs with various disparate solutions, Woodward decided to replace everything with a comprehensive cloud-based backup and recovery platform. The company switched all global sites to this solution. As a result, Woodward has reduced the overhead of managing their data protection, can consistently enforce backup, restore and retention policies and has unprecedented comprehensive visibility and reporting across the end-to-end environment.

    “I used to cringe when I received a restore request since backups would frequently fail,’’ said Loren Leveque, senior manager of IT and system networking. With the cloud-based platform, he said, “I am ready to support the backup, restore and archive needs of our company.”

    Supporting Dozens of Manufacturing Plants

    Linamar Corporation is a diversified global manufacturing company and world leader in designing, developing and producing highly engineered products. Because the Canadian company supports 61 plants globally, a cloud approach became necessary to streamline efficiency in backup and recovery.

    Linamar had recently shifted from Microsoft Exchange on-premises to cloud-based Microsoft 365 for its 7,000+ users worldwide, and the company’s tape-based backup system didn’t support it. The built-in Microsoft 365 data protection was a start, but it couldn’t handle the rapidly expanding demands imposed by Linamar’s global network.

    By moving to a cloud-based backup and recovery platform supporting Microsoft 365, Linamar saved the costs and administrative time previously needed for managing tapes. And backup is no longer a full-time job – it’s more like “when you need it, set it up,” said Kristian Smith, Linamar’s manager of technical services and support. Restores can now be handled 100% within the team and take hours to execute, not weeks.

    Bringing it All Together

    The examples might be as varied and numerous as enterprises worldwide with crucial data to protect. But these and any other success stories all have at least one thing in common: They took a blueprint approach to ensuring that their hybrid environment is secure and sufficiently future-proof.

  • What Does Build Quality Look Like in Software Design?

    What Does Build Quality Look Like in Software Design?

    With rapid developments in artificial intelligence (AI), mobile applications and modern software in the last year, the enterprise software market is expected to grow exponentially. Market revenue is projected to reach $292 billion in 2024, and developers are constantly implementing innovative measures into the software development life cycle (SDLC) to ensure a seamless, high-quality creation process. One of the best ways to achieve this is by leveraging modern build health tools to monitor a multi-faceted project’s overall quality and performance.

    Build health tools automate the creation of executable applications from source code and encompass several areas to ensure the stability and health of the software build process. From automated testing to security scanning, developers rely on these tools and processes when defining a modern approach to software development. Before diving into the intricacies of build health quality, it is necessary to grasp the complete significance of the SDLC when attaining the final product in a global marketplace.

    The Significance of the SDLC

    The SDLC is the process in which developers plan, write, modify and maintain software. This methodology applies to software developed for computers, mobile phone applications, video games and other systems. Adhering to this process allows developers to reach the optimal outcome for the final product. The life cycle includes everything from the planning and brainstorming stage to setting up maintenance and operations after the product has launched. It ensures success by providing a more structured approach to building and developing software. This becomes increasingly important as the software market’s value continues to rise.

    Since 2020, the demand for software engineers has doubled. Because it’s essential for business leaders and developers to keep up with the latest trends and innovations, the need for software knowledge will continue to grow exponentially. Currently, software is typically delivered in one of two ways:

    • On-premises. End users install and run the software themselves on the desired device. This serves as a more secure delivery method for highly-regulated industries.
    • Software-as-a-service (SaaS). This cloud-based method allows end users to access the software online rather than through a traditional download/upload. This enables providers to offer a subscription-based/pay-as-you-go structure for users. The provider is responsible for the hosting and maintenance.

    Developers rely heavily on build health tools to ensure a smoothly running life cycle. Build health tools play a huge role in determining a seamless development process.

    The Role of Build Health Tools in Modern Software Development

    Build health tools essentially fill the gaps in the development process and enhance the software build quality. These tools deliver automated testing methods by creating multiple testing scenarios to ensure full functionality. They help developers see the different data points necessary for garnering a 360-degree view of the software and its status.

    The tools also impact resource utilization and response times. Using key performance indicators (KPIs), they monitor the build quality while enhancing build production to ensure it is better than what was previously developed. In that way, it is constantly growing and improving to guarantee the project reaches a smooth and seamless completion for the developer. From there, the tools can create multiple datasets in less time, which significantly reduces overall software development time.

    Common Challenges of Build Health Tools in Software Design Projects

    There are several challenges with using build health tools. The most common obstacle is that automated tools and testing lack the human touch that comes from developers and their manual work. Although build health tools can perform simultaneous tasks quicker than a more manual approach, they overlook the full spectrum of available resources to improve the build. These tools are so focused on functionality that they fail to incorporate the prior research and available resources that often serve as key building blocks for a successful development project. For this reason, it is important to have developers working in conjunction with build health tools to provide a balance between manual and automated software testing.

    Developers can leverage build health tools to seek out the KPIs that determine the software’s quality at a given stage of the SDLC, from initial development and quality assurance (QA) to the final phases of staging and production. Some of these KPIs include:

    • Exceptions. Make sure there are no new exceptions from the previous build versus the production stage.
    • Test coverage. Ensure that adequate testing is performed on the current build by defining what application programming interfaces (APIs) need to be included for certification, along with the number of executions required.
    • Automated data validation. Make sure data is accurate and useful while remaining enforceable by the designated standards.
    • API testing. Test the overall interface for smooth performance with trustworthy data to advance the program/project. It is also important to compare performances during different SDLC stages to confirm the status of the API, dependency, database, and functionality.
    • Memory/CPU usage. Measure the overall usage of the central processing unit (CPU) and its memory to ensure stability and efficiency.
    • Requests per minute. Evaluate the rate at which the software can receive and execute certain requests delivered by the end user to ensure optimal efficiency.
    • SQL coding standards. Enforce standards and limitations for the overall coding within the interface by measuring quality, security, efficiency, and sustainability.

    While these are only a few of the KPIs detectable with the aid of build health tools, it is essential to note how these tools can benefit a successful software release. Developers can compare the differences between current and prior builds throughout the SDLC to fully gauge any changes, developments, improvements, or downgrades during production to a successful launch.

    Current Events and the Future of Build Health Quality for Developers

    There are many examples of current organizations effectively leveraging available build health tools for project success. Software developers will continue to adopt new and innovative methods using AI and automation capabilities to ensure more efficient testing and higher build quality.

    The future is bright for contemporary software engineering. As unexpected as the AI boom of 2023 was for the tech world, the future of modern software development may hold even more surprising developments. Build health tools are expanding and perfecting the creation process for enterprises and developers worldwide. As build quality improves on the back end, the customer experience for global industries will improve on the front end. The potential for software enhancements and innovations in this way is what makes the journey exciting.

  • What the Evolution of Specialized Hardware for AI and ML Means for DevOps

    What the Evolution of Specialized Hardware for AI and ML Means for DevOps

    The widespread adoption of artificial intelligence (AI) and machine learning (ML) technologies is accelerating the evolution of computational hardware, essential for automating complex processes and enhancing accuracy in decision-making. This acceleration is crucial in advancing computer science and data processing, especially within the various segments of AI/ML data pipelines.

    This growing demand is prompting a diverse array of chip manufacturers, from established players to emerging contenders, to innovate and lead in the development of faster and more efficient processing solutions. The primary goal? To design chips that optimize data transfer, improve memory management and enhance power efficiency. These advancements are far from incremental; they are pivotal in meeting the escalating demands of sophisticated AI and ML applications.

    This evolving hardware landscape for DevOps necessitates greater unification and automation of the various applications to the specialized AI infrastructure. With chip architectures diversifying, building the application stacks focusing on portability, performance and ease of access becomes even more crucial. The ability to seamlessly embrace multiple architectures will be key to striking the right balance for the varying technical abilities of the people who want to interact with technology.

    This article explores the implications of these hardware advancements on DevOps processes within AI and ML. Additionally, we explore strategies DevOps teams may consider to ensure applications remain efficient and portable across various chip architectures.

    The Rise of Specialized Hardware

    Historically, general-purpose hardware, including GPUs and CPUs, was the staple for many workloads. However, a clear pivot to specialized hardware is underway in artificial intelligence and machine learning, where training and inferencing demands have grown exponentially. These applications often hit performance limitations inherent in traditional hardware, partly due to the modern constraints of Moore’s Law. As a result, there is an increasing need for hardware capable of handling specific AI tasks with increased efficiency and speed. For instance, in certain machine learning scenarios, using hardware that supports single-precision floating-point computations can speed up processes without the need for the accuracy provided by double-precision computations.

    Although NVIDIA remains a dominant force in the AI chip market, the competition is heating up, with various companies offering innovative alternatives. And it’s not only from the usual suspects like Intel or AMD; Google has made strides with its Tensor Processing Units (TPUs). Amazon recently announced Trainium2, a new AI chip designed specifically for training AI systems. This chip, set to compete with Microsoft’s Maia and Google’s TPUs, underscores the growing custom AI chip development trend among major tech companies. Beyond these giants, startups such as Cerebras, SambaNova Systems, Graphcore and Tenstorrent bring fresh takes on AI hardware solutions.

    Challenges for DevOps

    As specialized hardware becomes more prevalent, the DevOps community will need to manage various new challenges, including performance portability. Performance portability refers to ensuring that applications run efficiently and perform well across varying computing architectures with minimal to no modifications.

    Cognitive computing (the broader category of AI and ML) varies in complexity, depending on the algorithms, models and creators’ unique demands for hardware-specific features. While an architecture-tailored version will certainly maximize performance on respective platforms, it complicates the process of ensuring a consistent software experience across diverse hardware.

    The challenge of system design lies in optimizing the environment for maximum efficiency, especially when the precise nature of the workload is unknown to those responsible for designing and supporting the systems.

    Of course, there are also significant and related considerations with continuous integration and continuous deployment (CI/CD) pipelines. The intricacies of CI/CD pipelines are magnified when pursuing performance portability. The need to validate software performance across multiple hardware configurations introduces a more elaborate testing matrix and can extend deployment cycles, directly affecting time-to-market requirements. Suddenly, workloads are now crossing the traditional IT infrastructure and high performance/supercomputing boundaries once defined by microservice and batch processing technologies; they are now one in a CI/CD pipeline.

    As organizations adopt specialized hardware, there’s the potential for a parallel rise in specialists focusing solely on one type of hardware or application use case. While such expertise can drive innovation and optimization for a particular platform, it also creates complexity and the potential for knowledge silos and unnecessary complexities for the operations teams and clients that use those systems.

    Leveling up Performance Portability

    Performance portability and closely related concepts, such as hardware-agnostic performance and cross-platform efficiency, are increasingly important for DevOps teams. As the technological landscape shifts, the pressing question becomes: How can the industry and DevOps teams navigate this evolution seamlessly?

    Ongoing research and development will no doubt play a key role. For example, the U.S. Department of Energy (DoE) is exploring new methodologies to support its Exascale Computing Project. This includes refining existing software libraries, pioneering new programming models and developing new tools that could eventually influence wider DevOps practices. Other researchers are developing software abstraction layers, aiming to simplify the adaptation of generic code for specific hardware configurations.

    Beyond new tools and methodologies that may come from current R&D efforts, there are many existing tools and processes that lend themselves to improving performance portability, including:

    • Containerization: Containers encapsulate applications and their dependencies in a way that helps ensure they run consistently across various environments. Open source tools like SingularityCE with Open Container Initiative (OCI) compatibility can help standardize and simplify deployment across different hardware configurations, promoting performance portability for high-performance computing and traditional IT infrastructure management.
    • Benchmarking and profiling: To achieve performance portability, it’s imperative to understand how software behaves across different architectures. Benchmarking tools provide quantitative performance measures, while profiling tools offer insights into software behavior, helping developers identify bottlenecks and areas that need optimization.
    • Code Portability Libraries: In addition to libraries like OpenCL that enable software execution across diverse hardware, recent advancements in container technologies complement this capability. For example, enhancements in container device interfaces, such as those in SingularityCE, streamline the integration of hardware-specific resources. This development aids DevOps teams in optimizing software for various hardware without extensive codebase rewrites, exemplifying the tools supporting hardware diversity and software agility in all aspects of cognitive computing.

    Of course, on top of all these tools and strategies, agile methodologies will remain essential since they prioritize iterative development, continuous feedback/improvement, and adaptability—all of which are important to fast-evolving hardware and software configurations.

    Looking Ahead: Adaptability as the Key

    As we embrace the new frontiers in AI and ML, the role of DevOps teams in navigating a constantly evolving hardware landscape becomes increasingly vital. At the heart of this journey lies the formidable challenge of application portability—a challenge that calls for technical expertise and a strategic shift toward adaptability. Enter containers emerging as indispensable tools that ensure a consistent application experience and performance across diverse platforms and handle the intricacies of portability.

    Likewise, adopting agile methodologies transcends process adherence; it embodies a mindset of flexibility and responsiveness, essential in rapid technological shifts. These approaches, far from temporary fixes, are integral to a strategy that aims to unleash the potential of AI. As DevOps teams continue to navigate these challenges, their success will depend on their adaptability and willingness to explore and integrate established and emerging technologies—particularly those excelling in scalability and efficiency. This proactive exploration and integration will be the key to surviving and thriving in this dynamic technological landscape. And yet, while we have discussed this problem regarding scientific applications, the impact is also felt on the AIOps side of the house, using AI-specific hardware with AIOps practices. While our goal here was to discuss the complexities of creating and administering systems for artificial intelligence and machine learning, we have yet to approach the security conversation, particularly with confidential computing, which is a topic for another time. Happy computing.

  • 10 Key Features of AI Code Assistants

    10 Key Features of AI Code Assistants

    One of the most potent tools that have emerged to streamline the coding process is code assistants. Code assistants are software tools designed to assist programmers by providing suggestions and automated features that help in writing code more efficiently and accurately. They act as virtual aides, making the coding process faster, more intuitive and less prone to errors.

    Code assistants can be categorized into two types: Rule-based and AI-based. Rule-based assistants follow predefined rules and perform according to set guidelines. They are mainly used for syntax highlighting, code formatting and basic error detection. AI-based code assistants can learn from past coding patterns, predict what a programmer is trying to achieve and suggest appropriate code snippets. They are capable of understanding the context of the code and providing accurate suggestions, as well as generating entire blocks of code based on natural language instructions. Read this blog post for examples of popular AI coding assistants.

    Whether you are an experienced software developer handling complex projects or a beginner, coding assistants can automate the tedious aspects of coding, allowing you to focus more on problem-solving and innovation.

    The Growing Importance of AI in Software Development

    As software development becomes more complex and time-sensitive, the role of AI in this field has grown significantly. AI-driven code assistants represent a major shift in how software is developed. They bridge the gap between human expertise and the efficiency of automated processes. 

    AI in software development not only speeds up the coding process but also enhances the quality of the code. These tools can analyze vast amounts of code, learn from it and apply that learning to assist developers in real-time. They can adapt to different coding styles and requirements, making them versatile tools for a wide range of programming tasks. Furthermore, as software projects increase in size and complexity, AI code assistants become crucial in managing and navigating these complexities. They offer intelligent insights, detect potential issues before they become problematic, and assist in keeping large codebases clean and manageable.

    In addition to increasing efficiency, AI code assistants are instrumental in reducing the barrier to entry in software development. They make coding more accessible to people with varying levels of expertise, including those who are new to programming. This accessibility is essential in an era where the demand for software development skills is continuously rising. By providing real-time assistance and learning resources, AI code assistants are not just tools for current developers but also learning aids for future generations of programmers.

    10 Key Features to Expect from Code Assistants in 2024

    With the rapid advances in large language models (LLMs), the following features are becoming standard in coding assistants as we enter 2024.

    Advanced Contextual Understanding

    Modern code assistants are evolving to understand the context of code more intricately. Unlike simple autocomplete tools, these AI systems can analyze the broader scope of a project, recognizing patterns and offering suggestions that align with the overall architecture and design patterns. This advanced understanding not only streamlines coding but also aids in maintaining consistency throughout the codebase.

    Real-Time Code Optimization Suggestions

    AI tools can proactively recommend changes to improve performance and efficiency. For instance, a code assistant might suggest a more efficient algorithm or highlight redundant code blocks that can be simplified. This feature not only enhances code quality but also serves as a learning tool for developers, exposing them to best practices and alternative approaches.

    Enhanced Debugging Assistance

    Debugging is often a time-consuming aspect of development. In 2024, expect code assistants to revolutionize this process by offering enhanced debugging assistance. Through deep analysis, these tools automatically detect errors and anomalies, suggesting potential fixes. They can pinpoint the exact location of a bug and provide context, significantly reducing the time developers spend in the debugging phase.

    Automated Refactoring

    Refactoring is crucial for maintaining clean code, and AI-driven assistants now offer sophisticated automated refactoring capabilities. They intelligently suggest changes that improve code readability and maintainability, such as restructuring code or renaming variables for clarity. These suggestions will be particularly beneficial for managing and updating legacy code, ensuring it adheres to modern coding standards.

    Code Documentation Generation and Update

    Keeping documentation updated is a challenge. Code assistants can now automate this task by generating and updating documentation in real-time. As code changes, the documentation will reflect these updates, ensuring that it always stays in sync with the codebase. This feature will be invaluable in large teams where keeping track of changes can be daunting.

    Predictive Coding Assistance

    Moving beyond reactive suggestions, code assistants will offer predictive assistance. By analyzing coding patterns and project structures, these tools will predict a developer’s next steps and offer relevant suggestions even before they are explicitly requested. This proactive approach will speed up the development process, reducing the cognitive load on developers.

    Understanding and Responding to Developer Queries in Natural Language

    Developers can pose queries or express coding requirements in plain English, and the assistant will interpret and execute these requests. Chat-based interfaces offered by leading AI coding assistants take this one step further. This advancement will make coding more intuitive and accessible, especially for beginners or non-expert users.

    Real-Time Suggestions and Conflict Resolution in Team Projects

    Collaboration in coding projects can lead to conflicts and inconsistencies. Code assistants now offer real-time suggestions and automated conflict resolution for team projects. These tools will identify potential conflicts in merge requests and suggest optimal resolutions, enhancing team collaboration and maintaining code integrity.

    Personalized Coding Assistance Based on Past Interactions

    Personalization is becoming a significant feature of code assistants. By learning from past interactions with a developer, these tools will tailor their suggestions and support to align with individual coding styles and preferences. This adaptive learning approach ensures that the assistance provided is most relevant and efficient for each developer.

    Enhancing Accessibility of Coding for Non-Expert Users

    One of the most impactful features of code assistants is their role in democratizing coding. By simplifying complex coding concepts and automating mundane tasks, these tools will make software development more accessible to non-experts. Beginners and those learning new programming languages will find these assistants particularly useful, as they provide guidance and learning aids.

    Conclusion

    Code assistants powered by AI are becoming an integral part of the software development process. They not only make coding faster and more efficient but also reduce the chances of errors, making the resultant software more reliable. The role of code assistants is only expected to grow, bringing in more advanced and intuitive features. Whether you are a seasoned programmer or a newbie, embracing code assistants can be a game-changer for your coding journey.