<?xml version="1.0" encoding="UTF-8"?>
<!DOCTYPE article PUBLIC "-//NLM//DTD JATS (Z39.96) Journal Archiving DTD v1.0 20120330//EN" "JATS-journalarchiving.dtd">
<article xmlns:xlink="http://www.w3.org/1999/xlink" xmlns:ali="http://www.niso.org/schemas/ali/1.0">
  <front>
    <article-meta>
      <title-group>
        <article-title>From dashboards to decision-making agents: Integrating agentic AI into Business Intelligence Systems for enterprise transformation</article-title>
        <subtitle>Dari dasbor hingga agen pengambil keputusan: Mengintegrasikan AI agen ke dalam Sistem Intelijen Bisnis untuk transformasi perusahaan</subtitle>
      </title-group>
      <contrib-group content-type="author">
        <contrib id="person-969929c0d545ef4374e0bfa361c5b7f8" contrib-type="person" equal-contrib="no" corresp="no" deceased="no">
          <name>
            <surname>Hanis</surname>
            <given-names>Priyanka Anisa</given-names>
          </name>
          <email>hadiah@umsida.ac.id</email>
          <xref ref-type="aff" rid="aff-1" />
        </contrib>
        <contrib id="person-bd02b225a27dd726d48c96f6f8ef3a72" contrib-type="person" equal-contrib="no" corresp="no" deceased="no">
          <name>
            <surname>Fitriyah</surname>
            <given-names>Hadiah</given-names>
          </name>
          <email>hadiah@umsida.ac.id</email>
          <xref ref-type="aff" rid="aff-2" />
        </contrib>
      </contrib-group>
      <aff id="aff-1">
        <country>Indonesia</country>
      </aff>
      <aff id="aff-2">
        <country>Indonesia</country>
      </aff>
      <history>
        <date date-type="received" iso-8601-date="2024-10-25">
          <day>25</day>
          <month>10</month>
          <year>2024</year>
        </date>
      </history>
      <abstract />
    </article-meta>
  </front>
  <body id="body">
    <sec id="heading-6995bf97b29d673d2421dbb88c4f1339">
      <title>
        <bold id="_bold-20">1. Introduction</bold>
      </title>
      <p id="_paragraph-9">The landscape of enterprise decision-making has undergone a remarkable transformation over the past thirty years. What started as simple reporting systems in the 1990s has grown into advanced business intelligence platforms capable of processing massive amounts of data in real-time. Still, despite these advancements, most organizations continue to depend on reactive analytical methods that require human interpretation and intervention during critical decision points. While effective for historical analysis and trend spotting, this traditional approach struggles to keep up with modern business needs marked by rapid market shifts, complex regulations, and the demand for immediate strategic responses [1].</p>
      <p id="_paragraph-10">The rise of agentic artificial intelligence, systems capable of autonomous goal pursuit, adaptive learning, and proactive decision-making, provides an unprecedented opportunity to rethink how businesses approach intelligence fundamentally. Unlike traditional AI applications focused on pattern recognition or predictive modeling, agentic AI systems can independently develop strategies, take actions, and adjust their behavior in response to changing situations without requiring constant human oversight. This advancement marks a significant step beyond conventional BI systems, shifting from descriptive and predictive analytics to prescriptive and autonomous decision-making [2] (Figure 1).</p>
      <fig id="figure-panel-a07e6aa73971bd01e6f9b72cb6963be5">
        <label>Figure 1</label>
        <caption>
          <title>Evolution from Traditional Dashboards to Agentic AI-Driven Decision - Making Systems</title>
          <p id="paragraph-702abba6935f7b2f81982a25b954c95a" />
        </caption>
        <graphic id="graphic-dd251ef41bf45c8a0e170c232d396e5f" mimetype="image" mime-subtype="png" xlink:href="Picture1.png" />
      </fig>
      <p id="_paragraph-12">Recent advances in large language models, multimodal AI systems, and reinforcement learning have made agentic AI more practical for business applications. Companies like Walmart have shown the potential of these systems, achieving a 50% reduction in forecasting errors and a 20% decrease in inventory costs through AI-driven demand forecasting and autonomous supply chain adjustments. Similarly, JPMorgan Chase has implemented agentic AI systems for anti-money laundering efforts, leading to a 95% reduction in false positives while maintaining detection accuracy. These examples highlight the transformative potential of integrating agentic AI into business intelligence frameworks [3].</p>
      <p id="_paragraph-13">The shift from traditional dashboards to intelligent decision-making agents is not just a technological upgrade but a fundamental organizational change that demands careful consideration of human-AI collaboration, governance structures, and ethical issues. This research fills the important gap between theoretical ideas and real-world implementation by offering a comprehensive framework for understanding and integrating agentic AI within existing BI systems [4].</p>
    </sec>
    <sec id="heading-e5138f5f402d6697af43c794c60638dd">
      <title>
        <bold id="_bold-25">Methodology</bold>
      </title>
      <p id="_paragraph-15">The methodology adopted in this study employs a qualitative-descriptive approach centered on the synthesis of theoretical frameworks and empirical case evaluations to explore the integration of agentic artificial intelligence (AI) into business intelligence (BI) systems. The research design involves a comprehensive review of academic literature, white papers, and industry reports to identify the core principles, operational models, and challenges associated with agentic AI systems. Emphasis is placed on analyzing the "BI-Agentic Decision Loop" framework developed by the researcher, which was conceptually constructed through inductive reasoning grounded in cross-sector evidence from domains such as financial forecasting, ESG reporting, and real-time operations management. Rather than manipulating variables in a controlled environment, the methodology relies on interpretive analysis of real-world implementations in firms such as JPMorgan Chase, Walmart, and multinational manufacturing companies. These case examples serve as embedded units of analysis that support the theoretical propositions regarding performance gains, decision autonomy, and organizational transformation. Data on decision accuracy improvements, operational responsiveness, and reporting efficiency were derived from documented enterprise implementations and secondary data sources. Analytical triangulation was applied by comparing results across industries and aligning them with governance and ethical challenges identified in the literature. This approach enables the researcher to construct a model that is both grounded in empirical observation and theoretically coherent. By employing this design, the study bridges the gap between conceptual development and practice-oriented validation, offering practical insights and strategic implications for integrating agentic AI into enterprise BI systems without reliance on experimental manipulation.</p>
    </sec>
    <sec id="heading-b3df9c3d4448431e4a132b3c2ec09ba3">
      <title>
        <bold id="_bold-26">2. Literature Review</bold>
      </title>
      <p id="_paragraph-17">The development of business intelligence systems has been well documented in academic literature, with researchers tracing the evolution from simple reporting tools to advanced analytical platforms. Traditional BI systems, as described in Heang and Mohan's comprehensive literature review, have mainly focused on data warehousing, OLAP (Online Analytical Processing), and dashboard-based reporting that offer historical insights and trend analysis. These systems have proven effective for retrospective analysis but show notable limitations in dynamic, real-time decision-making environments [5].</p>
      <p id="_paragraph-18">The integration of artificial intelligence into business intelligence is a natural evolution of these systems. According to recent research published in the Journal of Business Analytics, AI-enhanced BI systems have shown significant improvements in predictive accuracy and processing efficiency. Machine learning algorithms, especially in supervised and unsupervised learning, have allowed organizations to identify patterns and anomalies that would be difficult to detect with traditional analytical methods. The use of natural language processing (NLP) in business intelligence has further increased the accessibility of these systems, enabling non-technical users to interact with complex data through conversational interfaces [6].</p>
      <p id="_paragraph-19">Agentic artificial intelligence signifies a significant step forward from traditional AI applications in business intelligence. As described in recent academic literature, agentic AI systems are defined by their ability to perceive environments, develop strategies, and adapt to changing contexts through ongoing learning and iterative planning. Unlike traditional rule-based systems or even advanced machine learning models, agentic AI systems can independently pursue long-term goals, make autonomous decisions, and carry out complex multi-step workflows without constant human oversight [7].</p>
      <p id="_paragraph-20">The foundational theories of agentic AI in business settings have been studied through various academic models. Research published in SSRN has analyzed the main parts of agentic AI systems, highlighting five key elements: perception, reasoning, planning, execution, and ongoing learning. These systems combine large foundational models with different sensors, actuators, and data sources to build autonomous agents that can make complex decisions and interact naturally with human users [8].</p>
      <p id="_paragraph-21">The practical uses of agentic AI in business intelligence have been shown across various industries. Financial services firms have used agentic AI for fraud detection, risk assessment, and algorithmic trading, achieving notable improvements in accuracy and speed. Healthcare systems have adopted these technologies for diagnostic support and treatment optimization, while manufacturing companies have employed agentic AI for predictive maintenance and supply chain management [9].</p>
      <p id="_paragraph-22">However, integrating agentic AI into business intelligence systems also brings significant challenges, as noted in recent literature. Trust and accountability issues, especially in high-stakes decision-making situations, remain main concerns for enterprise adoption. The phenomenon of AI hallucinations, where systems produce plausible but incorrect information, poses particular risks in business intelligence applications where accuracy is crucial. Moreover, the complexity of embedding agentic AI systems with existing enterprise architectures creates substantial technical and organizational hurdles.</p>
      <p id="_paragraph-23">The governance and ethical implications of agentic AI in business intelligence have garnered increasing attention in academic literature. Research highlights the importance of human-in-the-loop mechanisms, bias mitigation strategies, and transparent decision-making processes. The need for strong governance frameworks that balance the advantages of automation with human oversight has become a crucial concern for organizations adopting these technologies [10].</p>
    </sec>
    <sec id="heading-411e5633d3c225358c424a675b918283">
      <title>
        <bold id="_bold-27">3. Conceptual Framework: Agent-Augmented BI</bold>
      </title>
      <p id="_paragraph-25">Building on the existing literature and practical implementations across various industries, this research introduces a new theoretical framework called the "BI-Agentic Decision Loop" (BADL). This framework makes a unique contribution to the field of intelligent information systems by offering a structured way to understand and implement agentic AI within traditional business intelligence architectures.</p>
      <p id="_paragraph-26">The BI-Agentic Decision Loop framework has five interconnected parts that work together to turn passive data analysis into active, independent decision-making. The first part, Contextual Perception, covers the system's ability to constantly observe and interpret environmental shifts, market trends, and organizational changes. This method goes beyond simple data collection by adding real-time sentiment analysis, external market updates, and organizational behavior patterns to gain a full understanding of the business environment.</p>
      <p id="_paragraph-27">The second component, Adaptive Reasoning, describes the system's ability to process complex, multi-faceted data relationships and produce insights that consider uncertainty and ambiguity. Unlike traditional analytical engines that depend on fixed algorithms, this component uses advanced machine learning techniques to adjust reasoning patterns based on feedback and evolving business conditions. The reasoning engine employs probabilistic models, causal inference methods, and contextual understanding to generate actionable insights [11].</p>
      <p id="_paragraph-28">Autonomous Planning is the third part of the framework, allowing the system to develop and improve strategic methods for meeting defined goals. This component goes beyond basic recommendation engines by creating detailed action plans, predicting potential challenges, and developing backup strategies to handle them. The planning process uses game theory models, optimization algorithms, and scenario planning techniques to build strong decision-making frameworks.</p>
      <p id="_paragraph-29">The fourth component, Proactive Execution, signifies the system's capacity to autonomously carry out decisions and actions within set parameters and governance rules. This component connects with enterprise systems to carry out approved decisions, track progress, and adjust in real-time based on new developments. The execution engine incorporates risk management protocols, approval workflows, and rollback mechanisms to guarantee safe and controlled autonomous operations.</p>
      <p id="_paragraph-30">The final component, Continuous Learning and Adaptation, forms a feedback loop that allows the system to enhance its performance over time through experience and outcome analysis. This component uses reinforcement learning techniques, success metric monitoring, and model updating processes to improve the accuracy and effectiveness of decision-making. It also includes bias detection and correction methods to ensure fair and ethical decision-making [12].</p>
      <p id="_paragraph-31">The BI-Agentic Decision Loop framework sets itself apart from existing methods by focusing on closed-loop autonomous operation while ensuring proper human oversight and governance controls. The framework clearly tackles the integration challenges with legacy BI systems by offering straightforward interfaces and transition strategies that enable organizations to gradually adopt agentic AI capabilities without disrupting current operations.</p>
    </sec>
    <sec id="heading-e25432d5db70390671e94032c357f792">
      <title>
        <bold id="_bold-33">4. Enterprise Use Cases</bold>
      </title>
      <p id="_paragraph-33">The practical use of agentic AI in business intelligence has shown significant value across various enterprise fields. Financial forecasting is one of the most compelling cases, where agentic AI systems have made notable gains in accuracy and responsiveness. Major financial institutions have implemented these systems to automatically analyze market conditions, economic indicators, and organizational performance metrics, creating dynamic forecasts that adjust to changing circumstances without needing human input.</p>
      <p id="_paragraph-34">A notable example involves a major investment bank that deployed an agentic AI system for portfolio optimization and risk management. The system constantly monitors market conditions, analyzes news sentiment, and adjusts investment strategies in real-time. In the first year of use, the system improved forecast accuracy by 45% and reduced portfolio rebalancing time from hours to minutes. Its ability to process large amounts of unstructured data, including news articles, social media sentiment, and regulatory filings, has provided insights that traditional methods cannot achieve [13].</p>
      <p id="_paragraph-35">Environmental, Social, and Governance (ESG) reporting has become an essential area for agentic AI in business intelligence. Organizations facing more complex regulatory demands have found that traditional reporting methods are inadequate for handling the volume and complexity of ESG data. Agentic AI systems can automatically gather, validate, and synthesize ESG metrics from various sources, creating comprehensive reports that adjust to changing regulatory requirements (Figure 2).</p>
      <fig id="figure-panel-9a7f197a31ee2ab5703d11bb5e8ba4ce">
        <label>Figure 2</label>
        <caption>
          <title>Enterprise Use Cases and Impact Metrics for Agentic AI in Business Intelligence Systems</title>
          <p id="paragraph-040e5cb6e7920af523592decb6e46e3c" />
        </caption>
        <graphic id="graphic-5c22ad4d958362528c13bc171f699c8a" mimetype="image" mime-subtype="png" xlink:href="Picture2.png" />
      </fig>
      <p id="_paragraph-37">A multinational corporation's deployment of agentic AI for ESG reporting led to a 75% decrease in preparation time, while also enhancing data accuracy and consistency. The system automatically locates relevant data sources, assesses the quality of information, and produces narrative explanations for stakeholder communications. It also proactively detects potential compliance issues and recommends corrective actions before these issues escalate to regulatory levels.</p>
      <p id="_paragraph-38">Real-time operations management is another area where agentic AI has shown significant value. Manufacturing companies use these systems to improve production schedules, handle supply chain issues, and ensure quality standards. The autonomous nature of these systems allows them to respond quickly to operational problems without needing human analysis or decisions [14].</p>
      <p id="_paragraph-39">A leading automotive manufacturer implemented an agent-based AI system for supply chain optimization, achieving a 35% reduction in inventory costs while maintaining service level agreements. The system continuously monitors supplier performance, transportation costs, and demand patterns to improve procurement decisions and logistics planning. During a major supply chain disruption, the system automatically identified alternative suppliers, renegotiated contracts, and realigned production schedules to reduce the impact on customer deliveries.</p>
      <p id="_paragraph-40">Customer analytics and personalization have also greatly benefited from the adoption of agentic AI. E-commerce platforms use these systems to automatically segment customers, tailor product recommendations, and optimize pricing strategies based on real-time market conditions and customer behavior patterns. The systems' capacity to analyze complex customer interaction data and adjust strategies accordingly has led to significant improvements in customer satisfaction and revenue growth.</p>
      <p id="_paragraph-41">Risk management and fraud detection are essential areas where agentic AI systems have shown outstanding performance. Financial institutions use these systems to automatically detect suspicious transactions, evaluate credit risks, and ensure compliance with regulations. The ability of these systems to learn from new fraud patterns and adjust detection algorithms in real-time has greatly improved accuracy and reduced false positive rates.</p>
    </sec>
    <sec id="heading-576934e8249b845c2f38239f53d27773">
      <title>
        <bold id="_bold-36">5. Implementation Considerations</bold>
      </title>
      <p id="_paragraph-43">Successfully integrating agentic AI into business intelligence systems requires careful consideration of multiple technical, organizational, and ethical factors. Trust and transparency are fundamental challenges that organizations must address to ensure successful adoption and deployment. Unlike traditional BI systems, where human analysts can inspect and validate analytical processes, agentic AI systems often operate through complex neural networks and machine learning algorithms that are hard to interpret and explain.</p>
      <p id="_paragraph-44">The challenge of AI hallucinations, where systems produce plausible but wrong information, presents specific risks in business intelligence applications where decision accuracy is crucial. Organizations need to implement strong validation methods, cross-check systems, and human oversight protocols to reduce these risks. Recent research shows that advanced reasoning models can have hallucination rates of 30-50%, making validation and verification vital parts of any AI implementation involving agency (Figure 3).</p>
      <fig id="figure-panel-d7d74de99e67a4af86d6667d0e177b45">
        <label>Figure 3</label>
        <caption>
          <title>Implementation Challenges and Mitigation Strategy Effectiveness for Agentic AI in Business Intelligence</title>
          <p id="paragraph-fa14174bcbca0b52220aeda76f05227b" />
        </caption>
        <graphic id="graphic-07060e93aec8ab76bdcb77188d2598d1" mimetype="image" mime-subtype="png" xlink:href="Picture3.png" />
      </fig>
      <p id="_paragraph-46">Data quality and integration challenges are another key concern for organizations adopting agentic AI in business intelligence. These systems need access to high-quality, thorough data from various organizational areas to work properly. Poor data quality can result in faulty decisions and mistakes, which might cause serious organizational harm. Organizations should invest in data governance frameworks, quality control processes, and integration structures that can meet the complex needs of agentic AI systems.</p>
      <p id="_paragraph-47">Governance and control mechanisms are vital for ensuring that agentic AI systems function within proper boundaries and align with organizational goals. Traditional BI governance frameworks fall short in managing autonomous systems capable of making independent decisions and taking actions without human approval. Organizations need to develop new governance structures that balance the advantages of automation with the necessity for proper oversight and control.</p>
      <p id="_paragraph-48">The human-computer interaction aspects of agentic AI systems pose unique challenges that are quite different from those of traditional BI interfaces. Users need to understand system capabilities, set appropriate parameters, and intervene when necessary. The interface design must offer enough transparency so users can trust the system's operations without being overwhelmed with information, which could hinder decision-making.</p>
      <p id="_paragraph-49">Organizational change management is a vital factor for successful agentic AI implementations. Moving from reactive, human-led analytical processes to proactive, autonomous decision-making requires major shifts in organizational culture, processes, and skills. Organizations need to invest in training, change management efforts, and restructuring to effectively integrate agentic AI capabilities.</p>
      <p id="_paragraph-50">Technical integration challenges involve connecting agentic AI systems with existing enterprise architecture, ensuring system scalability and performance, and safeguarding security and privacy. These systems must work with legacy databases, enterprise resource planning systems, and other business applications while applying proper security controls and access restrictions.</p>
      <p id="_paragraph-51">The skills gap in AI and machine learning expertise poses a major challenge for many organizations. Successful agentic AI implementations need specialized knowledge in fields like machine learning, natural language processing, and AI system design. Organizations must either build internal skills or collaborate with external experts to ensure successful deployment and maintenance of their projects [15].</p>
    </sec>
    <sec id="heading-a110b6ebc895a60587468696d888165b">
      <title>
        <bold id="_bold-39">6. Strategic Implications and Future Directions</bold>
      </title>
      <p id="_paragraph-53">The integration of agentic AI into business intelligence systems marks a fundamental shift in how organizations approach strategic decision-making and competitive advantage. The ability to analyze large amounts of data, generate independent insights, and make decisions in real-time gives organizations unmatched capabilities for market responsiveness and operational efficiency. However, this shift also brings new strategic challenges and competitive dynamics that organizations need to navigate carefully.</p>
      <p id="_paragraph-54">The competitive effects of adopting agentic AI are important and complex. Organizations that successfully deploy these systems can gain major advantages in market agility, efficiency, and customer service quality. The capacity to make autonomous decisions and adjust strategies instantly can give first-mover benefits in fast-changing markets. However, the complexity and expense of implementation may pose barriers to adoption, which could increase competitive gaps between organizations with varying resources.</p>
      <p id="_paragraph-55">The transformation of organizational decision-making structures is another key strategic implication. Traditional hierarchical decision-making processes might become outdated as agentic AI systems can process information and make decisions faster and more accurately than humans. This change forces organizations to rethink their structures, reporting lines, and decision-making authority. Human managers may shift from decision-makers to system supervisors and strategic planners.</p>
      <p id="_paragraph-56">The ethical and societal effects of widespread adoption of agentic AI in business intelligence pose complex challenges that go beyond individual organizations. The ability of autonomous systems to make decisions impacting employment, resource distribution, and social well-being raises significant questions about accountability, transparency, and fairness. Organizations need to consider their broader societal responsibilities when deploying these technologies.</p>
      <p id="_paragraph-57">Future research directions in agentic AI and business intelligence should concentrate on several key areas. Developing stronger governance frameworks that can effectively oversee autonomous systems while ensuring appropriate human oversight is an urgent research priority. Additionally, establishing standardized evaluation metrics and benchmarks for agentic AI performance in business intelligence applications would enable more effective comparison and optimization of these systems.</p>
      <p id="_paragraph-58">The integration of agentic AI with emerging technologies like quantum computing, edge computing, and Internet of Things (IoT) devices offers exciting opportunities for future growth. These combinations could enable even more advanced autonomous decision-making and broaden the applications of agentic AI in business intelligence.</p>
      <p id="_paragraph-59">The development of industry-specific agentic AI frameworks and standards is another key research focus. Different industries have distinct requirements, constraints, and risk profiles that may require specialized methods for implementing agentic AI. Creating industry-specific frameworks could speed up adoption and increase success rates in implementation.</p>
      <p id="_paragraph-60">The long-term effects of implementing agentic AI in organizational learning and knowledge management deserve careful evaluation. As these systems grow more advanced and autonomous, organizations must prioritize the ongoing development and preservation of human knowledge and expertise. Relying too much on autonomous systems may risk the decline of human skills and institutional memory.</p>
    </sec>
    <sec id="heading-619d3273f0562fe74ed355d75de17bf9">
      <title>
        <bold id="_bold-40">7. Conclusion</bold>
      </title>
      <p id="_paragraph-62">The shift from traditional dashboards to autonomous decision-making agents marks a significant milestone in the evolution of business intelligence and enterprise information systems. This research has shown that agentic artificial intelligence provides unmatched capabilities for autonomous decision-making, adaptive learning, and proactive actions that can significantly improve organizational performance and competitive edge.</p>
      <p id="_paragraph-63">The BI-Agentic Decision Loop framework presented in this study offers a solid theoretical basis for understanding and deploying agentic AI within current business intelligence systems. Its focus on contextual perception, adaptive reasoning, autonomous planning, proactive execution, and ongoing learning provides a clear structure for organizations aiming to enhance their decision-making processes.</p>
      <p id="_paragraph-64">The empirical evidence from enterprise implementations in financial services, environmental reporting, and operational management shows the significant value that agentic AI can deliver. Gains in decision accuracy, process efficiency, and operational responsiveness confirm the theoretical potential of these systems while also revealing the practical challenges organizations need to tackle during implementation.</p>
      <p id="_paragraph-65">The implementation considerations identified in this research, including trust and transparency, data quality, governance frameworks, and organizational change management, provide essential guidance for organizations implementing agentic AI. The challenges of AI hallucinations, integration complexity, and skills gaps require careful attention and strategic planning to ensure successful results.</p>
      <p id="_paragraph-66">The strategic implications of adopting agentic AI go far beyond just technology; they include competitive advantages, organizational change, and social duties. Organizations that successfully handle these issues can gain clear benefits, while those that do not may face serious competitive setbacks.</p>
      <p id="_paragraph-67">The future of business intelligence doesn't rely on replacing human decision-makers but on developing advanced human-AI collaboration frameworks that harness the complementary strengths of both human intelligence and artificial intelligence. The most successful organizations will be those that effectively incorporate agentic AI capabilities while maintaining proper human oversight, following ethical standards, and encouraging organizational learning.</p>
      <p id="_paragraph-68">This research adds to the growing body of knowledge on intelligent information systems by offering both theoretical frameworks and practical guidance for organizations aiming to enhance their decision-making capabilities. The BI-Agentic Decision Loop framework provides a new contribution to the field, shaping future research and real-world applications.</p>
      <p id="_paragraph-69">As organizations continue to navigate an increasingly complex and dynamic business environment, their ability to make autonomous, adaptive, and intelligent decisions will become more essential for success. The integration of agentic AI into business intelligence systems marks a significant step toward this future, giving organizations the tools and capabilities they need to thrive in the era of artificial intelligence.</p>
    </sec>
  </body>
  <back />
</article>