Behavioural Data Science Week
Image credit: the cover art contains a photo by Ramon Salinero

Behavioural Data Science Week

Issue 6

July 18, 2024


Editorial Note

Welcome to this week's edition of Behavioural Data Science Week, where we consider an intersection between technology and human behaviour. In this issue, we focus on the revolutionary shift in business operations from managing purely human teams to leading dynamic human-machine teams. As technology continues to evolve at a rapid pace, the integration of AI and robotics into the workforce is not only transforming how we work but also how we lead and collaborate. This week's feature article explores the profound implications of human-machine teaming, showcasing real-world examples and highlighting the benefits of this innovative approach. Discover how businesses can harness the power of human-machine collaboration to drive efficiency, enhance decision-making, and maintain a competitive edge in the modern market. Enjoy!

If you found this content interesting or helpful but do not have time to write a comment, please, leave "10" in the comments section so I know this content resonates with you.

Yours in discovery,

Ganna

Image credit: This Is Engineering

Leadership 2.0: Managing Human-Machine Collaborations

In the modern world, managers no longer lead human teams; they lead human-machine teams. As we navigate through the rapid evolution of technology, its seamless integration into business operations is no longer a futuristic vision but a present reality. The convergence of advanced technologies like artificial intelligence (AI), machine learning, and robotics with traditional business practices has initiated a profound transformation. This integration has sparked a shift from managing purely human teams to leading these new hybrid teams, a paradigm that is reshaping the landscape of modern business. Human-machine teaming refers to the collaborative interaction between human workers and machines (including algorithms, intelligent technology, robots, etc.), where both complement each other's strengths to achieve common goals. This synergy is not just about replacing human labor with automation but about creating an environment where humans and machines work together to enhance productivity, innovation, and decision-making. Machines excel at processing vast amounts of data and performing repetitive tasks with precision and speed, while humans bring creativity, critical thinking, and emotional intelligence to the table. By combining these strengths, businesses can unlock unprecedented opportunities.

The benefits of this paradigm are manifold. Yet, the transition to human-machine teams also presents challenges, including the need for new leadership skills and changes in organisational culture. Managers must learn to lead hybrid teams, where understanding and leveraging the strengths of both humans and machines is crucial. This involves fostering an environment of collaboration, continuous learning, and adaptability. Leaders also need to be adept at interpreting AI-generated insights and making strategic decisions based on a combination of data-driven analysis and human judgment.

Image credit: Dell


Algorithmic Influence in Decision Making

In the current data-dense environment, algorithms exert a hidden yet pervasive influence across various organisational functions. These sophisticated machine learning models operate behind the scenes, shaping business decisions in subtle yet profound ways, often without explicit managerial oversight. The current challenge for leaders is that machines can impact human decision-making in unknown and sometimes unpredictable ways, necessitating a heightened awareness and understanding of these influences.

Few of us realise, for example, that Google employs hundreds of machine learning algorithms to refine search results, impacting business decisions by controlling the visibility of information. These algorithms determine which websites appear at the top of search results, influencing which sources are consulted by decision-makers. For instance, a financial analyst might rely on search results to gather market insights, unaware that the algorithms have prioritised certain sources over others based on relevance, user behaviour, and other factors. This can subtly steer strategic decisions and shape market analyses, highlighting the need for managers to understand the underlying mechanisms of algorithmic influence. Amazon's recommendation system is another powerful example of algorithmic influence. By analysing consumer behaviour, purchase history, and browsing patterns, Amazon's algorithms suggest products tailored to individual preferences. This capability significantly impacts purchasing decisions in e-commerce, often without consumers or even Amazon's sellers fully realising the extent of this influence. For example, a consumer might be nudged towards purchasing a particular product because it appears as a highly recommended item, even if they initially had no intention of buying it. This not only drives sales but also shapes consumer behavior and market trends, emphasising the need for businesses to be aware of how these recommendations are formulated.

In the financial sector, credit scoring models assess creditworthiness using sophisticated machine learning techniques. These models analyse a multitude of factors, such as payment history, debt levels, and credit inquiries, to generate a credit score that influences loan approvals and interest rates. The complexity and opacity of these models mean that decision-makers might not fully grasp how certain variables are weighted or how interdependencies affect the final score. This can lead to decisions that seem objective but are heavily influenced by the underlying algorithms. For example, a loan officer might approve or deny a loan application based on the credit score, without understanding the nuanced factors that contributed to that score.

On social media platforms like Facebook, Twitter, and Instagram, what users see and engage with is largely determined by algorithms. These platforms use complex algorithms to curate content, showing users posts, advertisements, and recommendations based on their interactions, likes, and browsing history. For instance, YouTube's recommendation algorithm suggests videos that are likely to keep viewers engaged based on their past viewing habits. This can significantly influence what information users consume, their opinions, and their behavior. Businesses leveraging social media for marketing need to understand that their visibility and reach are dictated by these algorithms, which prioritize content that drives engagement. Leaders must be aware of how these platforms' algorithms can shape public perception and consumer behavior, often in ways that are not immediately apparent.

Hedge funds and investment firms increasingly rely on algorithmic trading, where complex algorithms execute trades at high speeds based on predefined criteria. These algorithms analyse vast amounts of market data, identifying patterns and executing trades within milliseconds. However, the influence of these algorithms can lead to unexpected market behaviours, such as flash crashes, where rapid sell-offs trigger further automated selling, leading to significant market downturns within minutes. Managers need to be vigilant about the potential risks and ensure robust oversight mechanisms are in place to mitigate these effects.

In healthcare, AI algorithms are used to assist in diagnosing diseases by analyzing medical images and patient data. For instance, Google's DeepMind has developed algorithms that can detect eye diseases from retinal scans with high accuracy. While these tools can enhance diagnostic capabilities, they also introduce challenges. Doctors might become overly reliant on AI recommendations, potentially overlooking critical nuances that the algorithm might miss. This highlights the importance of maintaining a balanced approach where human expertise complements AI capabilities (so-called human-in-the-loop approach).

Dynamic pricing algorithms in retail adjust prices based on demand, competition, and consumer behavior. Uber, for example, uses algorithms to implement surge pricing, adjusting fares in real-time based on supply and demand. While this can optimise revenue and manage demand effectively, it can also lead to customer dissatisfaction if perceived as unfair. Retailers need to be aware of the broader implications of these pricing strategies and ensure they align with their brand values and customer expectations. Companies like HireVue use AI-driven assessments to evaluate job candidates through video interviews, analysing facial expressions, tone of voice, and speech patterns. While these tools can streamline the hiring process and reduce bias, they can also introduce new biases if the algorithms are not properly validated. Managers need to ensure that these tools are used ethically and that their impact on decision-making is fully understood.

The pervasive influence of algorithms in business decision-making presents a significant challenge for leaders. As machines increasingly impact decisions in unknown and sometimes unpredictable ways, it is crucial for managers to develop at least a basic understanding of these technologies or at the very minimum - an understanding of how these technologies come into difference organisational decisions. This involves not only being aware of how algorithms work but also critically evaluating their outputs and ensuring transparency in algorithmic deployment. Leaders must foster a culture of continuous learning and adaptability, where human judgment complements machine intelligence. By doing so, businesses can harness the power of algorithms while mitigating their risks, leading to more informed, balanced, and ethical decision-making.

Image credit: This Is Engineering


Effective Human-Machine Teaming

Yet, there is a silver lining... Human-machine teaming is already making significant strides in enhancing productivity and innovation.

AI-powered chatbots and virtual assistants handle routine customer inquiries and support tasks. These AI systems can manage a vast array of queries simultaneously, providing quick and accurate responses to customers. This frees human agents to address more complex and nuanced issues that require a personal touch and deeper understanding. The result is an improved customer service experience, with AI handling the high volume of routine interactions and human agents focusing on resolving more complicated problems. This collaboration not only enhances operational efficiency but also improves customer satisfaction and loyalty.

Exploring further into the realm of innovative applications, robotic dogs are being introduced as office companions. These robotic dogs can perform a variety of tasks, such as delivering documents, conducting security patrols, or simply providing interactive companionship to employees. Their presence in the workplace introduces positive disruptions that break the monotony and boost morale, leading to enhanced productivity and employee well-being.

Flapper drones offer another fascinating example of human-machine teaming in the workplace. Equipped with sensors, these drones can measure and adjust office conditions to make employees more comfortable. They monitor environmental factors such as temperature, lighting, and air quality in real-time and make adjustments to create an optimal workspace. For instance, if a drone detects that a particular area of the office is too warm or poorly lit, it can adjust the HVAC systems or lighting fixtures accordingly. This ability to maintain ideal work conditions ensures that employees can work in an environment that maximizes their comfort and productivity.

Benefits of Human-Machine Teaming

The integration of automation and AI into business processes, if done well, can significantly enhance productivity and reduces operational costs, transforming how businesses operate and compete. Human-machine teaming, which combines the strengths of both human intelligence and machine efficiency, offers numerous benefits that can drive organisational success and innovation.

One of the most immediate advantages of human-machine teaming is the significant boost in productivity. Automation technologies, such as Robotic Process Automation (RPA), handle repetitive and time-consuming tasks, such as data entry, transaction processing, and compliance checks. This automation frees up human workers to focus on higher-value activities, such as strategic planning, problem-solving, and creative thinking. For instance, in the finance sector, RPA can manage routine accounting tasks, allowing financial analysts to dedicate more time to complex financial modeling and decision-making. By automating routine tasks, businesses can streamline their operations and reduce labor costs. Automation minimizes the need for manual intervention, reducing errors and increasing efficiency. This leads to significant cost savings, as automated processes are faster, more accurate, and can operate continuously without the limitations of human workers. For example, in manufacturing, automation can optimise production lines, reducing downtime and improving output quality, resulting in lower operational costs.

AI-driven insights play a crucial role in enhancing decision-making. Advanced AI algorithms can analyse vast amounts of data quickly and accurately, identifying patterns and trends that might not be apparent to human analysts. This data-driven analysis provides leaders with deeper insights into market conditions, customer behavior, and operational performance. By leveraging these insights, businesses can make more informed decisions, improving strategic planning and execution. For instance, AI can help retail companies analyse consumer purchasing patterns, enabling them to optimise inventory levels and personalise marketing strategies. Human-machine teaming fosters a culture of continuous innovation. The collaboration between humans and machines encourages the exploration of new ideas and the development of innovative solutions. Machines can process data and perform calculations at a speed and scale that humans cannot match, providing a solid foundation for creative problem-solving and experimentation. By embracing advanced technologies, companies can stay ahead of industry trends, develop cutting-edge products and services, and maintain a competitive edge.

Companies that integrate advanced technologies into their operations not only stay competitive but also drive continuous innovation. The ability to adapt to technological advancements and leverage them effectively is a key determinant of success in today's fast-paced business environment. Businesses that embrace human-machine teaming can respond more swiftly to market changes, make better-informed decisions, and offer superior customer experiences. This agility and responsiveness help businesses maintain a competitive advantage and achieve long-term success.

Image credit: Vinicius Amnx Amano


Takeaways

Leaders navigating the integration of human-machine teaming should consider embracing continuous learning and adaptability to keep pace with the rapidly evolving technological landscape. Cultivating a culture that values ongoing education and skill enhancement is beneficial, as it ensures that both leaders and employees stay abreast of the latest advancements in AI and automation. This commitment to learning not only enhances individual competencies but also equips the organization to effectively leverage new technologies.

Fostering collaboration between humans and machines can significantly maximise the potential of human-machine teaming. Leaders are encouraged to identify areas where automation can complement human efforts, integrating AI tools that enhance productivity and decision-making. By promoting teamwork and communication between human workers and AI systems, organisations can create a synergistic environment where both can thrive. This collaborative approach allows businesses to harness the strengths of both human creativity and machine efficiency, leading to improved outcomes. Ensuring transparency and ethical use of AI is vital for building trust and accountability within the organization. Leaders might consider implementing robust governance frameworks to ensure that AI systems operate transparently, providing clear explanations for their decisions. Regular audits of AI algorithms are advisable to detect and mitigate biases, ensuring that the technology is used fairly and ethically. This commitment to ethical AI use not only protects the organization from potential pitfalls but also enhances its reputation and credibility.

Strategic resource allocation is another important consideration for leaders. By automating routine tasks, human resources can be redirected towards more strategic and high-value activities. Leaders should focus on identifying where human expertise can add the most value, prioritising tasks that require creativity, critical thinking, and strategic planning. This approach not only improves overall organisational effectiveness but also drives innovation by allowing human talent to focus on areas where they can make the most significant impact. Leveraging data-driven insights for informed decision-making is a key advantage of integrating AI into business processes. Advanced data analytics provide deep insights into market trends, customer behavior, and operational performance, enabling leaders to make more informed and strategic decisions. By prioritizing data-driven decision-making, organisations can optimise their operations, enhance customer experiences, and stay ahead of competitors. Promoting a culture of innovation is essential for sustaining long-term success in a rapidly changing business environment. Leaders should encourage experimentation and the development of new ideas, investing in research and development to explore innovative solutions. Creating an environment where employees feel empowered to take risks and explore creative approaches to problem-solving fosters a culture of continuous improvement and adaptation. Maintaining a competitive edge requires a proactive approach to technology adoption. Leaders should continuously assess emerging technologies and their potential impact on the business, integrating advanced technologies to stay ahead of industry trends. By fostering innovation and leveraging the latest advancements, organisations can maintain their competitive position and achieve long-term success.

Human-machine teaming offers significant benefits, including enhanced productivity, reduced operational costs, improved decision-making, and continuous innovation. Leaders who embrace this collaborative approach, prioritise ethical AI use, and foster a culture of learning and innovation will drive organisational success and maintain a competitive edge in the rapidly evolving business landscape.

Image credit: This Is Engineering



Research Highlights

These are the studies combining behavioural science and data science components, which caught my eye this week. Note that inclusion in this list does not constitute an endorsement or a recommendation. It is just something I found interesting to read.

Operationalising AI governance through ethics-based auditing: An industry case study

Ethics based auditing (EBA) is a structured process whereby an entitys past or present behaviour is assessed for consistency with moral principles or norms. Recently, EBA has attracted much attention as a governance mechanism that may bridge the gap between principles and practice in AI ethics. However, important aspects of EBA (such as the feasibility and effectiveness of different auditing procedures) have yet to be substantiated by empirical research. In this article, we address this knowledge gap by providing insights from a longitudinal industry case study. Over 12 months, we observed and analysed the internal activities of AstraZeneca, a biopharmaceutical company, as it prepared for and underwent an ethics-based AI audit. While previous literature concerning EBA has focused on proposing evaluation metrics or visualisation techniques, our findings suggest that the main difficulties large multinational organisations face when conducting EBA mirror classical governance challenges. These include ensuring harmonised standards across decentralised organisations, demarcating the scope of the audit, driving internal communication and change management, and measuring actual outcomes. The case study presented in this article contributes to the existing literature by providing a detailed description of the organisational context in which EBA procedures must be integrated to be feasible and effective.

Over the Edge of Chaos? Excess Complexity as a Roadblock to Artificial General Intelligence

In this study, we explored the progression trajectories of artificial intelligence (AI) systems through the lens of complexity theory. We challenged the conventional linear and exponential projections of AI advancement toward Artificial General Intelligence (AGI) underpinned by transformer-based architectures, and posited the existence of critical points, akin to phase transitions in complex systems, where AI performance might plateau or regress into instability upon exceeding a critical complexity threshold. We employed agent-based modelling (ABM) to simulate hypothetical scenarios of AI systems' evolution under specific assumptions, using benchmark performance as a proxy for capability and complexity. Our simulations demonstrated how increasing the complexity of the AI system could exceed an upper criticality threshold, leading to unpredictable performance behaviours. Additionally, we developed a practical methodology for detecting these critical thresholds using simulation data and stochastic gradient descent to fine-tune detection thresholds. This research offers a novel perspective on AI advancement that has a particular relevance to Large Language Models (LLMs), emphasising the need for a tempered approach to extrapolating AI's growth potential and underscoring the importance of developing more robust and comprehensive AI performance benchmarks.

Disentangled Representations for Causal Cognition

Complex adaptive agents consistently achieve their goals by solving problems that seem to require an understanding of causal information, information pertaining to the causal relationships that exist among elements of combined agent-environment systems. Causal cognition studies and describes the main characteristics of causal learning and reasoning in human and non-human animals, offering a conceptual framework to discuss cognitive performances based on the level of apparent causal understanding of a task. Despite the use of formal intervention-based models of causality, including causal Bayesian networks, psychological and behavioural research on causal cognition does not yet offer a computational account that operationalises how agents acquire a causal understanding of the world. Machine and reinforcement learning research on causality, especially involving disentanglement as a candidate process to build causal representations, represent on the one hand a concrete attempt at designing causal artificial agents that can shed light on the inner workings of natural causal cognition. In this work, we connect these two areas of research to build a unifying framework for causal cognition that will offer a computational perspective on studies of animal cognition, and provide insights in the development of new algorithms for causal reinforcement learning in AI.

Image credit: This Is Engineering

Events and Opportunities

You may find the following events and opportunities of interest. Note that inclusion in this list does not constitute an endorsement or a recommendation.

Events:

Vacancies:

Image credit: Rivage

Your Feedback

Your insights and experiences are crucial to me. Please leave a comment to share your thoughts on this edition or suggest topics you would like me to cover in the future. I strive to improve and tailor the content of this newsletter to your interests and needs. Naturally, comments would motivate me to write more... If you found this content interesting or helpful, please, leave "10" in the comments section. Thank you all!

Milan Maksimovic

Sr. Program Director/ Manager, Research Scientist, SAFe Advanced Scrum Master, Strategy, Program Leadership, Data Science, DevSecOps

1 个月

Dear Ganna, thank you for your insightful writing. We gain many benefits with human-machine teaming, but as you pointed out, we will need new leadership skills to harness these benefits. From the early days of data mining, business intelligence, data science, and even early AI, we learned that governance, frameworks, and models where humans are always in control give the best results. Leaders in the near future will have more resources, including cross-functional teams of humans, human-machine teams, and autonomous machines. However, the key factor will be establishing frameworks to enable and integrate governance, management, design, development, and operations. Thank you again for your leadership in this important space.

Milan Maksimovic

Sr. Program Director/ Manager, Research Scientist, SAFe Advanced Scrum Master, Strategy, Program Leadership, Data Science, DevSecOps

1 个月

10

Divyani Diddi

Behavioural Science and Public Policy

1 个月

10

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