Tag: AI

  • Integrating Generative AI in ITSM Workflows

    Integrating Generative AI in ITSM Workflows

    IT Service Management (ITSM) teams are increasingly turning to generative AI (GenAI) to streamline workflows, reduce resolution times, and improve user satisfaction. In this post, we’ll explore two architectures for integrating GenAI into platforms like ServiceNow: man-in-the-middle (human-in-the-loop) and agentic automation (autonomous AI agents).


    Why GenAI for ITSM?

    • Ticket overload: Teams handle hundreds of tickets daily, leading to burnout and delays.
    • Knowledge gaps: Agents struggle to find relevant solutions quickly.
    • Repetitive tasks: Manual triage and updates consume valuable time.

    GenAI can automate classification, suggest solutions, and even resolve incidents-but how you integrate it matters. Let’s compare two approaches.


    Architecture 1: Man-in-the-Middle (Human-in-the-Loop)

    In this approach, GenAI acts as an assistant to human agents. It analyzes tickets, suggests actions, and automates tasks but requires human approval before execution.

    Workflow Diagram:

    Use Cases:

    • High-risk scenarios (e.g., critical infrastructure changes).
    • Compliance-heavy environments (e.g., healthcare, finance).

    Implementation Steps:

    1. Set Up ServiceNow Outbound REST Integration (javascript)

    // ServiceNow Scripted REST API (Outbound)
    var request = new sn_ws.RESTMessageV2();
    request.setEndpoint('https://your-middleware.com/process-ticket');
    request.setHttpMethod('POST');
    request.setRequestBody(JSON.stringify(current));
    var response = request.execute();

    2. Build Middleware (Python/Flask Example)

    from flask import Flask, request, jsonify
    import openai

    app = Flask(__name__)
    openai.api_key = "your-api-key"

    @app.route('/process-ticket', methods=['POST'])
    def handle_ticket():
    ticket_data = request.json

    # GenAI analysis
    prompt = f"""
    Classify this ITSM ticket and suggest priority (Critical/High/Medium/Low):
    Title: {ticket_data['short_description']}
    Description: {ticket_data['description']}
    """

    response = openai.ChatCompletion.create(
    model="gpt-4",
    messages=[{"role": "user", "content": prompt}]
    )

    suggestion = response.choices[0].message['content']
    return jsonify({"suggestion": suggestion, "ticket_id": ticket_data['number']})

    3. Human Review & Action
    Agents review GenAI’s suggestions in a dashboard and approve/reject them.


    Architecture 2: GenAI Agentic Automation

    Here, GenAI agents act autonomously within guardrails. They analyze tickets, execute actions (e.g., resolving incidents, updating KBs), and only escalate exceptions to humans.

    Workflow Diagram:

    Use Cases:

    • Low-risk, repetitive tasks (e.g., password resets, FAQ responses).
    • High-volume environments needing 24/7 support.

    Implementation Steps:

    1. Autonomous Ticket Resolution with Python

    import requests
    import openai

    def resolve_ticket_automatically(ticket_id):
    # Fetch ticket from ServiceNow
    snow_url = f"https://instance.service-now.com/api/now/table/incident/{ticket_id}"
    headers = {"Accept": "application/json"}
    auth = ("admin", "password")
    response = requests.get(snow_url, headers=headers, auth=auth)
    ticket = response.json()['result']

    # GenAI analysis
    prompt = f"""
    Resolve this ticket autonomously if possible. Provide a solution and mark as closed.
    Ticket: {ticket['description']}
    """

    ai_response = openai.ChatCompletion.create(
    model="gpt-4",
    messages=[{"role": "user", "content": prompt}]
    )

    # Auto-resolve if confidence is high
    if "reset password" in ai_response.choices[0].message['content'].lower():
    update_data = {
    "state": "6", # Resolved
    "close_notes": "Automatically resolved: Password reset instructions sent."
    }
    requests.patch(snow_url, json=update_data, headers=headers, auth=auth)

    2. Guardrails for Safety

    • Limit permissions (e.g., agents can’t modify user roles).
    • Log all actions for auditing.
    • Escalate tickets containing keywords like “outage” or “data breach” to humans.

    Key Considerations

    Combined Architecture Diagram:


    Best Practices for Both Architectures

    • Data Privacy: Mask PII/PHI in tickets before sending to GenAI APIs.
    • Feedback Loops: Let agents rate AI suggestions to improve models.
    • Tooling: Use frameworks like LangChain for complex workflows.

    Conclusion

    Whether you choose man-in-the-middle or agentic automation depends on your risk tolerance and use case. Start with a hybrid approach: use autonomous agents for simple tasks (e.g., FAQs) and human-in-the-loop for critical workflows. As trust in the system grows, expand automation cautiously.

    GenAI is set to redefine ITSM, propelling organizations from automation to true intelligence. The journey is just beginning-those who embrace this shift will not only optimize IT operations but also unlock new levels of agility, resilience, and innovation. The future of ITSM is not just faster or cheaper-it’s smarter, more adaptive, and profoundly more human.

  • The Evolution of IT Infrastructure: Why Disaggregated Platforms Are the Future for GenAI

    The Evolution of IT Infrastructure: Why Disaggregated Platforms Are the Future for GenAI

    Over the past two decades, enterprise IT architecture has undergone a dramatic transformation. What began as siloed, three-tier environments has evolved through converged and hyper-converged infrastructure (HCI) to today’s cutting-edge disaggregated platforms. This journey is more than a story of hardware innovation-it’s the foundation for the next era of data-driven business, especially as generative AI (GenAI) workloads reshape the technology landscape.

    From Three-Tier to Hyper-Converged: The Drive for Simplicity

    Three-tier architecture-with separate compute, storage, and networking-offered flexibility, but at the cost of complexity and inefficiency. IT teams often faced overprovisioning, stranded resources, and operational headaches.

    The arrival of converged infrastructure bundled these elements into pre-validated stacks, simplifying procurement and deployment. Yet, the fundamental silos remained, limiting agility and resource utilization.

    Hyper-converged infrastructure (HCI) took consolidation further by merging compute and storage into modular nodes managed by software. According to Fortune Business Insights, the global HCI market is projected to reach $65 billion by 2029, reflecting enterprises’ desire for simplified management and scalability. However, HCI’s tightly coupled design makes it difficult to scale compute and storage independently-a critical limitation for today’s AI and data-intensive workloads.

    The Rise of Disaggregated Platforms: Built for GenAI

    Enter disaggregated infrastructure: an architecture that decouples compute, storage, and networking into independent resource pools. This approach is rapidly gaining traction, with the composable/disaggregated infrastructure market expected to triple to over $19 billion by 2029 (MarketsandMarkets).

    Why Disaggregation Matters-Especially for GenAI

    1. Independent Scaling GenAI workloads are unpredictable and data-hungry. Disaggregated platforms allow organizations to scale storage for massive datasets or add GPU-rich compute nodes as needed-without unnecessary overprovisioning.
    2. Superior Resource Utilization Dell reports that disaggregated architectures can deliver “orders of magnitude higher” core utilization and reduce server and software licensing costs by up to 50%.
    3. Performance for AI Technologies like NVMe-over-Fabrics and CXL memory pooling enable low-latency, high-throughput access to data-keeping GPUs saturated and AI pipelines moving at full speed.
    4. Hybrid and Edge Flexibility Disaggregated storage and compute pools can be orchestrated across on-premises, cloud, and edge environments, supporting the distributed nature of modern AI applications.

    Real-World Impact

    Industry leaders are moving fast:

    • Dell’s PowerEdge servers offer modular, independently scalable resources.
    • Many vendors/startups are rapidly evolving their portfolio to embrace disaggregation, making it the new default for enterprises scaling GenAI and other advanced workloads.
    • Edge AI is now viable, with lightweight models running inference on disaggregated clusters far from the data center.

    As Travis Vigil Vigil, SVP at Dell, puts it: Disaggregation isn’t just about hardware-it’s about rethinking the entire data center ecosystem to unlock performance and control.

    Looking Ahead

    The shift to disaggregated infrastructure is not just a technological trend-it’s a strategic imperative for organizations embracing GenAI and next-generation workloads. By enabling independent scaling, maximizing resource efficiency, and supporting hybrid deployment models, disaggregated platforms are redefining what’s possible in the data center.

    In the age of AI, flexibility is the ultimate competitive advantage. Is your infrastructure ready?

    Let’s connect and discuss how your organization can leverage disaggregated architectures to accelerate GenAI and future-proof your digital transformation.

  • GenAI as a Replacement for Enterprise Search: Revolution or Evolution?

    GenAI as a Replacement for Enterprise Search: Revolution or Evolution?

    Enterprise search has long been the backbone of organizational knowledge discovery, enabling employees to sift through vast troves of internal data-emails, documents, reports, and more. Yet, as information volume and complexity have exploded, traditional search systems have struggled to keep pace. Enter Generative AI (GenAI): a transformative technology that promises not just incremental improvements, but a fundamental reimagining of how enterprises access and leverage information.

    The Traditional Enterprise Search Challenge

    Legacy enterprise search platforms typically rely on keyword-matching and index-based algorithms. While effective for straightforward queries, these systems falter when faced with:

    • Ambiguous or complex natural language queries
    • Unstructured or poorly tagged data
    • Industry-specific jargon and synonyms
    • The need for contextual, role-based, or personalized results
    • Multi-language demands and adaptive access controls

    The result? Knowledge workers spend an estimated 2.5 to 3.6 hours per day searching for information, leading to frustration and lost productivity.

    How GenAI Transforms Enterprise Search

    GenAI, powered by large language models (LLMs) and advanced natural language processing (NLP), addresses these pain points in several critical ways:

    1. Deep Contextual Understanding and Intent Detection

    Unlike traditional search, GenAI interprets the context and underlying intent behind user queries. Whether an employee asks, “How do I reset my password?” or “I forgot my password, can you help?”-GenAI recognizes the shared intent and delivers precise, relevant answers. This semantic understanding extends to complex, multi-step, or follow-up queries, enabling conversational and intuitive information retrieval.

    2. Personalization and Adaptive Learning

    GenAI-powered search systems learn from user profiles, search histories, and real-time interactions, tailoring results to individual roles and preferences. Over time, this leads to hyper-personalized experiences, with the system anticipating user needs and improving with every interaction.

    3. Mastery of Unstructured and Multilingual Data

    GenAI excels at parsing unstructured data-emails, PDFs, images-transforming them into structured, searchable formats. It also supports multilingual and cross-domain queries, making it invaluable for global enterprises with diverse data sources.

    4. Automation and Decision Support

    Beyond search, GenAI can automate clerical tasks-summarizing documents, drafting emails, compiling reports-freeing employees to focus on higher-value work. It can synthesize insights across multiple sources, supporting faster and more informed decision-making.

    5. Enhanced Security and Compliance

    Modern GenAI enterprise search solutions integrate robust access controls and compliance features, ensuring sensitive information is only accessible to authorized users. AI can also detect anomalies and potential security threats by analyzing usage patterns.

    Real-World Impact

    Leading organizations are already leveraging GenAI to revolutionize internal knowledge centers, streamline customer service, and optimize business processes. The result is a measurable boost in productivity, faster decision cycles, and significant cost savings.

    Challenges and Considerations

    Despite its promise, GenAI is not a panacea. Key challenges include:

    • Data Quality and Integration: Success depends on clean, well-organized data and seamless integration with existing systems.
    • Hallucination Risk: LLMs may generate plausible but incorrect answers if not properly constrained by retrieval-augmented generation (RAG) or domain-specific fine-tuning.
    • Security and Governance: Ensuring robust access controls and preventing prompt-based security bypasses remain ongoing concerns.
    • Infrastructure Readiness: Many enterprises lack the foundational data infrastructure and skilled workforce needed for successful GenAI deployment.

    Is GenAI a Replacement or an Evolution?

    While GenAI dramatically elevates enterprise search, it is best viewed not as a wholesale replacement, but as an evolutionary leap. GenAI augments and, in many cases, supersedes traditional search by delivering context-aware, conversational, and highly relevant results. However, its success hinges on thoughtful implementation, robust data governance, and continuous improvement.

    “GenAI is no magic bullet, but applied in the right places it has potential to improve enterprise search… As the technology evolves, its ability to further enhance search capabilities will grow, offering even more refined solutions to complex search challenges.”

    The Future: From Search to Knowledge Discovery

    As GenAI matures, the line between search and intelligent knowledge discovery will blur. Enterprises that invest in GenAI-powered search today are not just making information easier to find-they are laying the groundwork for a future where knowledge is proactively surfaced, synthesized, and delivered in context, driving innovation and competitive advantage.

    In summary: GenAI is not just a better search engine-it is the catalyst for a new era of enterprise intelligence. For organizations ready to embrace this shift, the rewards are substantial: more empowered employees, faster insights, and a culture of data-driven excellence.

  • Exploring the Strengths and Trade-offs of Fine-tuning and RAG in Language Models

    In the ever-evolving landscape of artificial intelligence, the incorporation of domain-specific knowledge into language models (LLMs) is not just a lofty goal—it’s a mission-critical aspect of model performance. This is where fine-tuning and Retriever-Reader (RAG) come into the picture, two powerful approaches with distinct methodologies for imbuing models with domain-specific prowess. As the Director of AI Research at a tech startup, investing in the right approach to empower language models with knowledge is a debate that rages on in our weekly strategy meetings. In this piece, I dissect the benefits and trade-offs of both methods, aiming to help data scientists, AI enthusiasts, and tech professionals make informed decisions regarding the enhancement of LLMs.

    Introduction

    The modern data scientist wields the power to curate a model’s understanding to an unprecedented degree. Incorporating domain knowledge has become less of an afterthought and more of the central piece to the puzzle of AI applications. As established models like GPT-3 demonstrate extraordinary capabilities, the question of specialized knowledge arises. Both fine-tuning and RAG have stepped forward as capable candidates for augmenting language models, offering different paths to the same destination.

    Fine-tuning: Leveraging Existing Models

    Fine-tuning involves starting with a pre-trained model and updating its weights using labeled examples from within the target domain. The rationale is simple: rather than reinventing the wheel, one can build upon the wealth of knowledge already stored within established models.

    https://sebastianraschka.com/images/blog/2023/llm-finetuning-llama-adapter/classic-flowchart.png

    The Fine-tuning Approach in Depth

    Fine-tuning has gained popularity due to its relatively lower resource consumption compared to training from scratch. Pre-trained models come with an inherent understanding of language and are adept at various natural language processing (NLP) tasks. By fine-tuning these models, often with a smaller, domain-specific dataset, we can specialize the general model to fit particular needs.

    Benefits of Fine-tuning

    • Faster Deployment: Leveraging an existing model allows for a quicker setup, reducing the time from development to deployment significantly.
    • Capitalizing on Pre-trained Weights: The pre-training phase is costly in terms of computation and time. Fine-tuning capitalizes on this investment, using pre-trained weights as a head start for domain tasks.
    • Leveraging Pre-Trained Models: Pre-trained models are increasingly sophisticated and capture various nuances of human language.

    Examples of Successful Applications

    The medical field, for instance, has seen strides with fine-tuned models specializing in entity recognition, question answering, and summarization tasks. In patient data analysis, these models can parse through vast amounts of unstructured text, extracting relevant information with precision.

    RAG: Incorporating Explicit Knowledge

    RAG, on the other hand, is a more recently introduced framework designed to incorporate external knowledge sources into the inference process. It aims to enhance the rationality and awareness of AI systems by allowing them to query reference materials as part of their preliminary thinking.

    The RAG Framework in Depth

    The RAG framework consists of two components: a retriever and a reader. The retriever uses a query to extract relevant passages from a knowledge source, and the reader processes these passages to find an answer or provide context.

    Image courtesy – https://lilianweng.github.io/posts/2020-10-29-odqa/

    Advantages of RAG

    • Handling Out-of-Domain Queries: RAG is capable of tackling a broader set of tasks, not just those within the dataset scope, by referring to the internet or other massive knowledge bases.
    • Interpretability: The retriever component offers insights into the knowledge basis of the model’s decisions, essential for accountability and trust in AI systems.

    Real-World Use Cases

    In legal research, for example, RAG models can sift through laws, cases, and precedents to provide up-to-date advice, cross-referencing information as legal landscapes shift. As such, the legal domain provides a fertile ground for RAG models to shine, reshaping how we approach legal queries and research.

    Strengths and Weaknesses of Fine-tuning

    Fine-tuning isn’t without its downsides. While it excels in many facets, particularly speed and leveraging existing models, it does come with concerns over model performance in unique domains.

    Discussion of the Strengths

    Fine-tuned models often achieve better performance on in-domain tasks, as they’ve been trained to recognize and respond to specific patterns and language nuances within the domain.

    Analysis of the Weaknesses

    Fine-tuned models can be sensitive to the distribution and quality of the training data. Overfitting, a common problem, may occur, leading to less generalizable models. Moreover, fine-tuning can inadvertently strip away some of the broader knowledge captured in the pre-training phase.

    Strengths and Weaknesses of RAG

    RAG’s ability to query large knowledge bases is a distinct advantage but not without its own set of challenges.

    Examination of the Strengths

    RAG models offer improved interpretability, particularly through the retriever’s explicit referencing of the source of its decisions. They also enjoy the benefit of not being overly specialized to a specific domain, serving as a more flexible solution.

    Analysis of the Weaknesses

    However, RAG’s computational requirements are significant. Each query necessitates running through a retrieval system, which can be a bottleneck in terms of the model’s scalability. There’s also the potential for errors in retrieving and parsing large external datasets.

    Trade-offs and Considerations

    When facing a decision between fine-tuning and RAG, it’s critical to assess the nuances of each approach and how they align with the project’s objectives and constraints.

    Comparison of the Two Approaches

    • Performance: Fine-tuned models often outperform RAG models on in-domain tasks. However, RAG’s ability to call upon external knowledge can provide a richer context and improve overall understanding.
    • Flexibility: RAG models are inherently more flexible, handling out-of-domain queries with ease. Fine-tuned models may struggle with tasks beyond their initial scope.
    • Resource Requirements: Fine-tuning generally requires fewer resources, both in terms of infrastructure and data. RAG, with its need for knowledge bases and retrieval systems, tends to be more resource-intensive.

    Factors to Consider

    Certain factors, such as the availability of domain-specific data, the tolerance for uncertainty in results, and the willingness to invest in computational power, should heavily influence the choice between these two approaches.

    Conclusion

    In navigating the complex terrain of domain knowledge incorporation in language models, our journey is one of constant assessment and adaptation. Both fine-tuning and RAG represent leading strategies, each replete with strengths and trade-offs. While there may be no one-size-fits-all answer, the key to unlocking the potential of AI systems lies in understanding and consciously selecting the tool that best suits the task at hand.

    As we stride forward, it’s clear that a balanced approach, perhaps even a hybrid of fine-tuning and RAG, could be the most promising direction. It’s incumbent upon us as practitioners to continue probing, experimenting, and pushing the boundaries of what is possible with language models. By doing so, we will not only elevate the efficiency of our AI systems but also deepen our understanding of what it truly means to teach machines with human wisdom.

    Investing in the right approach isn’t just about model performance; it’s about the ethical and practical implications of the choices we make in the burgeoning field of AI. The confluence of domain knowledge and language models is a domain ripe with potential, and as we integrate these methods into our systems, it will be exciting to see how they unfold, bringing us discoveries, better performance, and perhaps most importantly, a greater appreciation for the delicate art of AI model construction.

  • The EU AI Act: A New Framework for the Development and Use of Artificial Intelligence

    The EU AI Act: A New Framework for the Development and Use of Artificial Intelligence

    The European Union has introduced a new framework for the development and use of Artificial Intelligence (AI). The AI Act  which The European Parliament passed the AI Act on June 14, 2023., aims to ensure that AI is developed and used in a way that respects fundamental rights and freedoms, such as the right to privacy, the right to non-discrimination, and the right to safety.

    The AI Act identifies three categories of AI systems:

    • High-risk AI systems: These systems are considered to pose a high risk to fundamental rights and freedoms. High-risk AI systems will be subject to strict requirements, such as mandatory ex-ante conformity assessments, transparency obligations, and user control mechanisms.
    • Moderate-risk AI systems: These systems are considered to pose a moderate risk to fundamental rights and freedoms. Moderate-risk AI systems will be subject to a lighter set of requirements than high-risk AI systems, such as risk management measures and transparency obligations.
    • Low-risk AI systems: These systems are considered to pose a low risk to fundamental rights and freedoms. Low-risk AI systems will not be subject to any specific requirements under the Act.

    The AI Act also establishes a new European Artificial Intelligence Board (EAAB) to oversee the implementation of the Act. The EAAB will be composed of representatives from the European Commission, national authorities, and stakeholders.

    The AI Act is a significant piece of legislation that will have a major impact on the development and use of AI in the European Union. The Act is still under negotiation, but it is expected to be finalized in 2023.

    Here are some of the key benefits of the EU AI Act:

    • Ensure that AI is developed and used in a way that respects fundamental rights and freedoms. The EU high-risk AI regulation will ban AI systems that are considered to pose an unacceptable risk to fundamental rights and freedoms. This includes AI systems that are used for social scoring, mass surveillance, or biometric identification without consent. The regulation will also require AI systems that are considered to pose a high risk to fundamental rights and freedoms to comply with a number of safeguards. These safeguards will help to ensure that AI systems are developed and used in a way that respects the fundamental rights and freedoms of individuals.
    • Create a level playing field for businesses that develop and use AI in the European Union. This is because the regulation will apply to all AI systems that are considered to pose a high risk, regardless of where the developer or user is located. This will help to prevent businesses from moving their operations to countries with less stringent AI regulations in order to avoid compliance costs. The regulation will also require businesses to comply with a number of technical standards, which will help to ensure that AI systems are interoperable and that data can be shared more easily between different systems. This will make it easier for businesses to develop and use AI solutions, and it will also help to boost innovation in the field of AI.
    • Help to boost innovation in the field of AI. The AI Act regulations are designed to boost innovation in the field of AI by providing a clear framework for the development and use of AI systems. The regulation will also create a level playing field for businesses, which will make it easier for them to invest in AI research and development.

    Here are some of the potential challenges of the EU AI Act:

    • It could be difficult to implement and enforce.
    • It could stifle innovation in the field of AI.
    • It could lead to the fragmentation of the AI market in the European Union.

    Overall, the EU AI Act is a positive step towards ensuring that AI is developed and used in a responsible and ethical way. However, it is important to be aware of the potential challenges of the Act and to work to mitigate them.

    To learn more about the EU AI Act, please visit the following link: https://artificialintelligenceact.eu/

  • AI Infrastructure 101: Getting started with scalable AI

    AI Infrastructure 101: Getting started with scalable AI

    Artificial Intelligence (AI) has revolutionized businesses, streamlining and optimizing operations while increasing efficiency and productivity. However, companies often face challenges in the implementation and management of AI; this could either be a failure to identify the appropriate use cases for AI or guaranteed functionality and efficiency.

    AI adoption calls for a comprehensive understanding of its lifecycle, and companies need to make sure they focus on three critical areas – Silicon, Software, and Services.

    In this blog post, we’ll delve into these areas, their importance, and their relevance in the AI Lifecycle.

    Silicon: Silicon-based chips, are a foundational material in modern AI infrastructure. It comprises traditional components such as the central processing unit (CPU), the graphics processing unit (GPU), memory, network, and data storage. A scalable and resilient AI infrastructure creates a solid foundation for enterprise deployment, capable of supporting complex algorithms, data storage, and analysis. A robust infrastructure facilitates the acceleration of the AI process, enabling businesses to handle large amounts of data and process information in real-time. Therefore, reliable modern infrastructure components are essential for AI success.

    The use of modern AI infrastructure also allows for optimal performance. Modern silicon-based processors are specifically designed for tasks such as machine learning and intensive data processing. They offer high computational power, increased energy efficiency, and real-time parallelism capabilities. This combination of performance and efficiency ensures the smooth operation of AI applications, providing users with fast and accurate results.

    Furthermore, it plays a crucial role in the data storage and transmission of data required for AI. Modern data infrastructure enables quick access to large data sets making sure processing cycles are not wasted. Additionally, modern networking facilitates fast and reliable data transfer between different components of the AI infrastructure.

    Silicon is the essential element of modern AI infrastructure. With its high performance, energy efficiency, and data storage and transmission capabilities, silicon enables businesses to successfully deploy advanced AI solutions.

    Software: The software layer is equally as important as the hardware layer and is a critical component of the overall AI ecosystem. The software layer encompasses a wide range of AI algorithms that support the general AI infrastructure to achieve business outcomes.

    These AI ecosystem can vary from simple “no-code” tools that allow users to manage AI operations and pipelines, to “Super User” tools that assist users in building and operating flexible and precise AI models. These tools are vital in identifying the necessary AI use cases and implementing optimal solutions. In your AI journey, there must be a recognition of different types of software to streamline AI operations, manage costs, and ensure maximum efficiency. By understanding the software layer of AI, businesses can establish a solid foundation to harness the full potential of this groundbreaking technology.

    AI software ecosystem is dynamic and evolving rapidly. Below is the AI software market glance from IDC’s point of view.

    Services: Services play a critical role in the AI ecosystem. The tools and software utilized in the AI lifecycle are still new and evolving, which is why services are crucial to ensuring smooth integration and efficient operation. Services have so far been ignored by most businesses, but as AI operations become more complex, businesses need to incorporate them into their operations to avoid operational challenges. The services layer includes workforce preparedness to scale and support AI operations, operationalizing data management and analytics workloads, and delivering workload automation.

    Understanding the AI lifecycle is critical for implementing and maintaining AI solutions successfully; companies should prioritize and focus on the Silicon, Software, and Services layers. It is crucial to have a reliable infrastructure regardless of the hardware used and to implement software tools that correlate with the AI problems faced to ensure smooth operations. Finally, businesses must recognize the pivotal role played by the services layer and adequately plan for its integration into their AI ecosystem.

    In summary, businesses that identify the appropriate use cases for AI and implement optimal solutions will reap numerous benefits and gain a competitive edge in today’s fast-paced technological environment. Here are my 3 suggestions to increase changes in your AI pilot

    • Incorporate Real-World Business Use Case
    • Develop a Technology Infrastructure and Integrate AI as a tenant
    • Bring AI to your data