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      What to Expect from Industrial Applications of Humanoid Robotics

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      semifly
      Team Semifly
      7 minute read
      January 21, 2022
      Category : Information Technology
      What to Expect from Industrial Applications of Humanoid Robotics

      Robotics engineers are designing and manufacturing more robots that resemble and behave like humans—with a growing number of real-world applications. For example, humanoid service robots (SRs) were critical to continued healthcare and other services during the COVID-19 pandemic, when safety and social distancing requirements made human services less viable, the Journal of Information Technology Teaching Cases reports.

       

      Intelligent humanoid robots are still some time away from widespread adoption across all industries that may benefit from their capabilities. But scientists continue to develop mechanics, algorithms, and artificial intelligence (AI) that allow for more human-like capabilities, behaviors, and even simulated emotions. All these features make humanoid robots more viable options in unique industrial use cases.

       

      This article benchmarks scientists’ and business leaders’ current progress in developing humanoid robotics for industrial applications. We highlight four trends of which business leaders should be aware as they consider humanoid robotics applications in their own industries.

       

      Industrial Use Cases for Human-Robotic Interaction (HRI)

       

      In order to understand the impetus for humanoid robotics, we must consider the related need to improve human-robot interaction (HRI). HRI is a growing area of study and a critical factor when considering industrial adoption of humanoid robotics. For humanoid robots, this involves the success with which they detect, understand, and learn through sensors and artificial intelligence the behaviors, questions, and commands of human beings. HRI also investigates human reactions to humanoid robots—specifically, their emotions, their trust in robots, and their ability to both communicate and work with those robots productively.

       

      As humanoid robots become more prevalent, HRI will increase in relevance due to the breadth of applications that will emerge. Humanoid robots already have real applications in the healthcare and service industries, for example, where human emotions, wellbeing, and medicine or care on which humans depend are contingent on successful HRI.

       

      Human workers will increasingly rely on humanoid robots in industrial settings as well. While repetitive robotic process automation (RPI) is already prevalent in industrial environments, future workers will also rely on robots to perform nuanced tasks that require adaptability and intelligence, and may even have human safety implications (e.g., when humanoid robots must transport hazardous materials).

       

      Uncertainty as Industrial Humanoid Robots Approach the Mainstream

       

      As these use cases emerge, human risk and uncertainty will become a substantial concern—especially in industrial settings, where humans will depend on humanoid robots to perform tasks safely and successfully every day. Specifically, human workers will have understandable misgivings about relinquishing more decision making and responsibility to humanoid robots when they are untested outside of traditional human capacities (e.g., experience on the job or referrals from past employers).

       

      In these settings, the humanization or “anthropomorphism” of robots could either help or hurt their purposes. For example, Humans have found humanoid robots highly personable and effective in service settings that nonetheless require some autonomy and cognition. But this trust may not carry over into industrial settings where labor is more frequent, dynamic, and high risk.

       

      Even so, recent advances in robotic intelligence mean future industrialized robots will achieve “high-fidelity movements” where “the robot is able to plan its movement—considering its dynamics and all the obstacles—within fractions of a second,” the University of Illinois Chicago reports. Combined with more advanced sensors and cognition, humanoid robotics may become both trustworthy and trusted in industrial settings where today they are neither.

       

       

      Business leaders must visualize future humanoid robotics applications in their own industries, even if real adoption of those technologies is distant, uncertain, or even out of the question today. Their competitive and opportunistic understanding of their industries depends on it.

       

      Here we discuss five key trends affecting humanoid robotics in industrial applications. Consider the implications of HRI within your own industry as the field of humanoid robotics evolves.

       

      1. Humanoid Robots Will Perform More Complex Physical Tasks

       

      Traditional robotics hinges on the repetition of a single of series of actions. Early applications of machine learning focused on improving those singular functions as well. Humanoid robots in industrial settings will perform more complex tasks based on real-time stimuli and criteria, emulating human beings more directly.

       

      Already, “MIT researchers have developed an AI model that understands the underlying relationships between objects in a scene and helps robots perform complex tasks,” Lifewire reports. “This work could be applied in situations where robots must perform complex tasks,” such as organizing inventory or assembling machinery.

       

      2. Humanoid Robots Will Adopt More “Humanistic” Responsibilities

       

      It is unlikely that humanoid robots will replace human functions entirely; rather, they will augment specific tasks that are traditionally human responsibilities. This differs from traditional automation, where robotic tasks are repetitive, highly limited, and strictly mechanical. Instead, humanoid robots may take orders when performing specialized functions, such as lifting materials or operating machinery; they may answer questions or provide advice as human laborers perform certain tasks as well.

       

      3. “Cobots” Must Earn the Trust of their Human Coworkers

       

      As workers share physical spaces with humanoid robots, they will need to build a new type of trust—not only in those robots’ abilities to collaborate on tasks, but to ensure for their own personal safety in doing so. These “cobots” will need to deliver on the promises of their manufacturers, assisting human beings in safe and meaningful ways as well.

       

      Humanoid robots may be in a stronger position to do this than non-humanoid robots as roboticists increasingly focus on improving their relatability and real-time adaptability to human behavior. Humans will need to grow accustomed to robots performing unforeseeable tasks in response to unique requirements and stimuli, and adapt to levels of sociability that will be inherent in their AI-driven personalities.

       

      4.  Intelligence Sophistication Will Differ Based on Roles

       

      Robot intelligence is not as malleable and adaptable as human intelligence, even as its technology progresses. That means robots and their capacities intelligence will continue to be designed for specific functions, rather than be adaptable to any environment.

       

      “Mechanical intelligence relates to standardized and transactional tasks, which require a minimal level of learning,” Boston University’s Boston Hospitality Review reports in their analysis of robotics in the hospitality industry. Meanwhile, “analytical intelligence is based on systematic and rule-based learning from big data and enables logical thinking in decision-making.”

       

      In other words, a customer service robot in a hotel setting will invariably require less sophistication than a nursing assistant robot in a healthcare setting, or a factory floor robot in an industrial setting. “Intuitive” robots like those designed to provide medications, conversation, and even empathy in elderly care settings will require more sophisticated capabilities—such as the ability to identify emotions and respond during human crises—as well.

       

      A Long Pathway to Success

       

      The normalization of humanoid robots in industrial environments is still in progress. Widespread and even early adoptions won’t be possible until humanoid robotics emerges from academic and experimental settings with higher rates of success, not to mention real, cost-effective use cases.

       

      What’s more, both scientists and industrialists haven’t agreed on what constitutes the ideal anthropomorphic design, or the appropriate degree to which robots should resemble humans. Questions remain unanswered, such as:

       

      • To what degree should robots look like humans?
      • What is the right conversational tone for robots in different settings?
      • How should human characteristics differ from one role to another?
      • What level of cognition is appropriate for different roles?

       

      Despite this uncertainty, this exciting and inventive field is sure to revolutionize all industries for several decades. Much as the design and sophistication of automobiles evolved form one generation to the next, the evolution of humanoid robotics will be evolutionary, continuing well into the distant future.

       

      Partner with Semifly as You Consider Robotics in Your Industry

       

      The consultants at Semifly can help you understand the implications of robotics in your industry. Book an online session with a robotics expert and begin preparing for this inevitable future.

       

       

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      Semifly

      is an engineer and a technologist with a diverse background spanning software, hardware, aerospace, defense, and cybersecurity. As CTO at Semifly, he leverages his extensive experience to lead the company’s technological innovation and development.

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      FAQs

      • Industrial humanoid robots are machines engineered to resemble and behave like humans. While widespread industrial adoption is an emerging trend, they have already demonstrated their value in real-world applications. For instance, humanoid service robots proved critical in sectors like healthcare during the COVID-19 pandemic, where safety and social distancing requirements made certain human-delivered services less viable, showcasing their potential for practical, high-stakes deployment

      • Human-Robotic Interaction (HRI) is a vital area of study focused on the effectiveness of communication and collaboration between people and robots. Its importance is twofold:

         

        1. Robot Comprehension: HRI investigates a robot’s ability to successfully detect, understand, and learn from human behaviors and commands using sensors and artificial intelligence.

         

        2. Human Response: It also analyzes human reactions to robots, specifically focusing on emotional responses, the ability to trust the robot, and the capacity to work productively alongside it.

         

        Successful HRI is essential for ensuring both safety and productivity. As workers rely on these machines for nuanced tasks with real-world consequences—such as when humanoid robots must transport hazardous materials—effective interaction becomes a non-negotiable requirement.

         

        A firm grasp of these core concepts is the first step toward appreciating how these advanced machines will redefine industrial roles and capabilities.

      • The role of robotics is shifting from traditional models, which hinge on the endless repetition of a single series of actions, to more advanced and dynamic functions. Recent developments, such as an AI model from MIT researchers, allow robots to understand the underlying relationships between objects in a scene. This breakthrough enables them to perform complex tasks based on real-time stimuli, such as organizing inventory or assembling machinery, which are far beyond the scope of conventional automation.

      • The most likely role for humanoid robots is to augment human tasks rather than replace human workers entirely. This approach differs significantly from traditional automation, where machines perform repetitive and strictly mechanical functions in isolation. In the future, humanoid robots will perform specialized functions like lifting materials or operating machinery while simultaneously taking orders, answering questions, or providing advice to their human counterparts, creating a truly collaborative work environment.

      • No. The type of intelligence required is dictated by the robot’s operational environment and the complexity of its human interactions. A robot’s intelligence is designed for specific functions rather than being universally adaptable like human intelligence, resulting in three distinct types:

         

        • Mechanical Intelligence: Used for standardized, transactional tasks. For example, a humanoid robot that consistently presents a specific component to a human technician at the optimal orientation for assembly.

         

        • Analytical Intelligence: Based on systematic, rule-based learning from data, enabling logical thinking in decision-making. A robot using this intelligence could organize inventory based on a predefined set of rules or analyze sensor data to predict maintenance needs.

         

        • Intuitive Intelligence: The most sophisticated level, required for roles involving emotional identification and complex human interaction. In an industrial context, this could be a collaborative robot in a high-risk environment that interprets a human worker’s tone of voice or hesitation as a sign of uncertainty, prompting it to pause and ask for confirmation before proceeding.

         

        While these expanding capabilities promise unprecedented operational efficiency, their successful integration hinges on solving the human-centric challenges of trust and safety, which must be addressed at the planning stage.

      • The primary barrier is earning the trust of human coworkers. As workers begin to share physical spaces with autonomous robots, trust is required not only for effective collaboration on tasks but, more importantly, for ensuring personal safety. This challenge extends beyond mechanical reliability; humans will need to adapt to the levels of sociability inherent in their AI-driven personalities. Learning to trust a machine that performs unforeseeable tasks in real-time response to unique stimuli represents a significant psychological and operational hurdle for workforce management.

      • The “long pathway to success” for humanoid robotics is due to several key factors that create uncertainty about the timeline for mainstream adoption. These include:

         

        1. Performance: The technology must mature beyond academic and experimental settings and demonstrate higher, more reliable rates of success in real-world industrial environments.

         

        2. Cost-Effectiveness: Businesses require proven, cost-effective use cases to justify the significant investment in deploying and maintaining these advanced systems.

         

        3. Design Consensus: Scientists and industry leaders have not yet reached a consensus on fundamental design principles, including the ideal degree of anthropomorphism (human-like appearance) for different applications.
        Resolving these challenges is the prerequisite for moving forward into the next phase of development, which will be defined by answering foundational questions about the technology’s ultimate form and function.

      • Before widespread adoption can occur, industry leaders and scientists must address several foundational questions about how these robots should look, act, and think. Strategic clarity on these points is essential for market acceptance and functional success. The key unanswered questions include:

         

        • To what degree should robots look like humans?
        • What is the right conversational tone for robots in different settings?
        • How should human characteristics differ from one role to another?
        • What level of cognition is appropriate for different roles?

      • The normalization of humanoid robots in industrial environments is a work in progress. Much like the automobile in its early days, the evolution of humanoid robotics will be an evolutionary process that continues well into the distant future. We can expect that the design, sophistication, and capabilities of these robots will advance incrementally from one generation to the next as the technology matures and its role in the workplace becomes more clearly defined.

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