Ethical Concerns in Robotics Vocabulary Flashcards
Foundations of Ethics and Engineering
Ethics Defined:
Ethics, also referred to as moral philosophy, consists of standards of right and wrong.
Ethics is distinct from factual knowledge.
It involves evaluating and determining what it means to "do the right thing," such as being honest, keeping promises, and refraining from stealing.
Engineering Ethics:
Engineering ethics are established by the National Society for Professional Engineers (NSPE).
The NSPE developed the Engineering Code of Ethics, which explicitly mandates that engineers must:
Place public safety, health, and welfare above all other considerations.
Perform services only in areas where they are fully knowledgeable and competent.
Issue objective and truthful public statements.
Act as faithful and professional agents or trustees for every employer and client.
Avoid misleading or deceptive practices.
Conduct themselves in an honorable, responsible, ethical, and lawful manner.
Ethical Frameworks and Governing Organizations in Robotics
Isaac Asimov:
Prominent figure who formulated the foundational Three Laws of Robotics.
British Standards Institute (BSI):
An organization that developed standards specifically for the ethical design of robots and robotic devices.
Core tenets set by the institute include:
Robots cannot be primarily designed to kill or harm human beings.
Human beings are ultimately responsible for robot actions.
It must always be possible to discover who is held responsible for any robot.
IEEE Standards Association:
An organization that leads a global initiative focused on the ethics of autonomous and intelligent systems.
Focuses on educating, training, and empowering robot designers with a primary emphasis on ethics.
Central goal is to advance technology for the explicit benefit of humanity.
Authored two major documents outlining ethically aligned design principles for robots and instructions on how to implement them.
Open Roboethics Institute (ORI):
A non-profit organization dedicated to exploring the ethical and social implications of robotics and artificial intelligence (AI).
Operates across three primary functions:
Generating research-based insights into robotics and AI technology.
Providing training and public lectures to educate society.
Facilitating connections and discussions across diverse groups to incorporate various perspectives, anticipating and avoiding technological risks.
Asimov’s Three Laws of Robotics
First Law:
A robot may not injure a human being or, through inaction, allow a human being to come to harm.
Second Law:
A robot must obey orders given to it by human beings, except where such orders would conflict with the First Law.
Third Law:
A robot must protect its own existence as long as such protection does not conflict with the First or Second Law.
Fundamental Principles of Robot Accountability and Liability
Basic Robot Ethics:
General consensus exists across fundamental robotic ethics principles.
Requires evaluating accountability and liability for every newly introduced technology:
Determining who is held accountable for a robot's actions.
Determining who is legally liable for a robot's actions.
Deciding whether responsibility should be distributed among multiple parties (e.g., designers, programmers, manufacturers, and owners).
Human-Robot Interaction: Care and Friendship
Overview of Human-Robot Interaction (HRI):
HRI as an ethical domain primarily focuses on two categories of systems: care robots and friendship robots.
Care Robots:
Defined as robots designed specifically to provide care for humans.
Key ethical considerations:
Replacement of Human Care: Debates whether human caregiving should be replaced by automated systems and whether this transition leads to less intentional care.
Empathetic Care and Deception: Questions whether care robots should provide empathetic care. If a robot pretends to care or display empathy, it creates deceptive and ethically problematic scenarios.
Necessity in an Aging Society: Examines whether care robots are required due to demographic shifts. An increased human lifespan requires a substantially larger caregiving workforce that human society may be unable to supply.
Friendship Robots:
Defined as robots utilized by humans to form artificial companionship or friendship.
Key ethical considerations:
Deception and Relationship Perception: Involves issues of deception that alter fundamental human perceptions of personal relationships.
Lack of Genuine Emotion: A robot cannot actually mean what it says or experience genuine feelings for a human.
Anthropomorphism: Humans naturally project thoughts, emotions, and sentience onto entities that exhibit outward behaviors resembling sentience, including completely inanimate objects.
Automation, Employment, and Economic Impact
Job Displacement Concerns:
Centers on the widespread replacement of human workers by robotic systems.
Productivity gains derived from deploying robots mean significantly fewer human workers are required to perform existing jobs.
Socioeconomic Consequences:
Creates uncertainties regarding what employment options will remain available for low-skilled workers.
Raises broader economic questions regarding workforce stability, income distribution, and economic structure.
Ethical Dilemmas in Autonomous Systems
Autonomous Vehicle Systems:
The Trolley Problem: A classic thought experiment applied to self-driving navigation logic. A train heading toward five people will kill them unless diverted onto a sidetrack, where it will kill one person instead. Because there is no morally clear choice, engineers face complex decisions when programming autonomous vehicles to handle unavoidable collision scenarios.
Personal Interest vs. Common Good:
Serving the common good requires autonomous vehicles to adhere strictly to traffic rules rather than prioritizing the immediate interest of individual passengers.
Programming must account for specific, rare conditions under which breaking standard traffic rules is acceptable.
Personal passenger interests—such as choosing to speed, driving riskily, or failing to maintain safe follow distances—must be overridden by the system's programming.
Autonomous Weapon Systems:
Involves deploying automated or autonomous devices designed to execute military attacks.
Significantly increases the likelihood of declaring war or executing lethal actions.
Civilian safety must remain the absolute highest priority during system deployment.
Requires clear governance on two major issues:
Establishing who is assigned blame if an autonomous weapon system fails or causes unauthorized harm.
Determining methods for maintaining meaningful human control.
Proposed solutions for maintaining human control include continually verifying that a robot's operation aligns directly with human interest, and ensuring at least one designated human fully understands both the technical process and the moral significance of the automated deployment.
Robot Rights and Superintelligence
Robot Rights:
Debates whether robots should eventually be granted legal or moral rights.
Granting rights to robots would fundamentally restructure all existing robotic ethical considerations, including liability, labor, and human interaction.
Superintelligence:
Pertains to scenarios where robotic and AI intelligence exponentially surpasses human intellect, prompting concerns of machines taking over global systems.
Two major ideological perspectives exist regarding superintelligence:
Belief that humans can successfully maintain control over superintelligent entities.
Concepts advocating for preserving human mind state and knowledge onto computer systems to achieve digital immortality ("living forever").
Historical Milestones and Key Robotic Elements
Etymology of Robot:
The word "Robot" originates from the Czech word "Robota," which translates directly to hard work and forced labor.
Earliest Historical Invention:
The very first robot ever invented in history was a mechanical flying bird.
Leonardo da Vinci's Mechanical Knight:
Historical polymath Leonardo da Vinci constructed a mechanical knight robot designed to defend against potential enemies.
Surgical Robotics (Arthrobot):
The first robot ever used to assist in human surgical procedures was the Arthrobot, which was utilized in an orthopedic surgery performed in Vancouver.
Global Manufacturing Leader:
Japan is currently the largest manufacturer of robots in the world.
Questions and Discussion Prompts
Accountability and Liability Design Discussion:
Prompt: Discuss with a partner how accountability and liability can be structured when designing robotic systems.
Core Question 1: Who is responsible for any harm caused by a robot?
Core Question 2: How can engineers prevent robots from causing harm?
Categorical Ethical Dilemma Discussion:
Prompt: Select one of the five primary ethical areas listed below and discuss your primary concerns with a partner:
Human-robot interaction
Automation and employment
Autonomous systems
Robot rights
Superintelligence