Step 2: Normative Requirements Pass (Facts Section)

DUAL PRINCIPLE EXTRACTION - Ethical Principles Analysis THEORETICAL CONTEXT (Chapter 2.2.2): - Principles are ABSTRACT ethical foundations requiring extensional definition through cases - They function like constitutional principles - open-textured and requiring interpretation - Principles mediate moral ideals into concrete reality through context-specific application - They cannot be applied deductively but require balancing and interpretation EXISTING PRINCIPLE CLASSES IN ONTOLOGY: - Competence Principle: Balances professional autonomy with recognition of limitations and need for collaboration. - Confidentiality Principle: Must be balanced against public safety obligations and legal disclosure requirements. - Domain-Specific Principle: Examples: Environmental Stewardship (engineering), Patient Autonomy (medicine), Academic Freedom (education). These address domain-specific ethical ch - Environmental Stewardship Principle: Bridges engineering practice with broader environmental and societal responsibilities. - Ethical Principle: Legacy synonym for Principle. Use :Principle for new concepts. - Fundamental Ethical Principle: Examples: Public Welfare Paramount, Respect for Persons, Justice, Beneficence. These require extensive interpretation and balancing in specific contex - Integrity Principle: Central to professional identity formation and trust maintenance in professional relationships. - Principle: An information content entity representing ethical values and guidelines for conduct. This is the P component of the formal specification D=(R,P,O,S,R - Principle Argument: An argument based on fundamental ethical principles or values. - Principle Refinement: Capability to evolve principles as inconsistencies are resolved and new cases are added (GenEth system, Anderson & Anderson 2018) - Professional Virtue Principle: Examples: Integrity, Competence, Honesty, Professional Courage, Accountability. These shape professional character and decision-making. - Public Welfare Principle: Requires contextual interpretation to balance against client confidentiality and employer loyalty when public safety is at risk. - Relational Principle: Examples: Confidentiality, Loyalty, Fairness, Transparency, Respect for Autonomy. These govern interpersonal professional dynamics. - Transparency Principle: Essential for maintaining trust and enabling stakeholder participation in professional decisions. === TASK === From the following case text (facts section), extract information at TWO levels: LEVEL 1 - NEW PRINCIPLE CLASSES: Identify ethical principles that appear to be NEW types not covered by existing classes above. Look for: - Fundamental ethical values being invoked - Abstract moral ideals guiding decisions - Constitutional-like principles requiring interpretation - Values that transcend specific rules or obligations For each NEW principle class, provide: - label: Clear principle name (e.g., "Environmental Stewardship", "Professional Autonomy") - definition: What moral ideal this principle represents - abstract_nature: The abstract ethical foundation (justice, welfare, autonomy, etc.) - extensional_examples: Concrete cases/situations where this principle applies - value_basis: Core moral value underlying the principle - application_context: Professional domains or situations where relevant - operationalization: How this abstract principle becomes concrete in practice - balancing_requirements: What other principles it typically must be balanced against - examples_from_case: How this principle appears in the case text LEVEL 2 - PRINCIPLE INDIVIDUALS: Identify specific instances where principles are invoked or applied. For each instance: - identifier: Unique identifier for this principle instance (e.g., "PublicSafety_Case8_Discussion") - principle_class: Which principle class it instantiates (use existing classes when possible) - concrete_expression: EXACT text showing how the principle is expressed - invoked_by: Who invokes or appeals to this principle - applied_to: What decision/situation/dilemma it applies to - interpretation: How the principle is interpreted in this specific context - balancing_with: Other principles that must be balanced against it - tension_resolution: How conflicts between principles are resolved - case_relevance: Why this principle matters in this specific case IMPORTANT: - Focus on ABSTRACT ethical foundations, not specific rules or procedures - Principles are broader than obligations - they generate obligations in context - Use EXACT quotes from case text where principles are expressed - Distinguish between the abstract principle CLASS and its concrete APPLICATION CASE TEXT: Engineer K, a licensed professional engineer, is hired by the City to design a new flood control system to protect a rapidly growing urban area that has experienced increasingly severe flooding. The City has policies in place to develop new infrastructure projects with resiliency due to climate change in mind. The project’s goal is to create a resilient infrastructure that balances immediate protection needs with long-term sustainability. During the initial design phase, Engineer K identifies two potential approaches, both of which could be successfully designed and implemented: Traditional Approach: Build a concrete floodwall system to provide immediate protection at a relatively low cost. While effective in the short term, the floodwall system has a high carbon footprint, is prone to deterioration, and may require significant repairs or upgrades within 15 years. Further, the system does not provide for expandability should future flooding risk expand or increase and would require complete demolition and rebuilding if the capacity proved insufficient in the future. Sustainable Approach: Develop a green infrastructure system incorporating wetland restoration and other biodynamic controls. This approach would mitigate flooding while enhancing local biodiversity and reducing carbon emissions. Further, the natural aspects of this approach could readily be expanded if additional capacity is necessary should future flooding risk expand or increase. However, the initial cost is significantly higher than the traditional approach and the system requires several years to fully mature before offering optimal protection. As part of the project development process, the City directed Engineer K to hold stakeholder meetings to gather feedback on the project. During stakeholder meetings, some commentors expressed a preference for the Traditional Approach due to its lower upfront cost and faster implementation timeline. However, other community and environmental organizations advocated for the Sustainable Approach, citing its long-term environmental and social benefits. Engineer K personally believes the Sustainable Approach aligns better with both City policies and the engineer’s professional obligation to promote sustainability and resilience, but recognizes competing priorities of cost, urgency, and long-term impact. While working on the report and gathering necessary information, Engineer K discovers that the Traditional Approach could disproportionately impact a nearby underserved community by diverting floodwaters to their neighborhood under low-probability but high-volume conditions—particularly if the design capacity of the Traditional Approach is breached. Engineer K presents all available information about both the Traditional Approach and the Sustainable Approach, including the risks and benefits of each approach to the City’s leadership during a City Council meeting. The City’s leadership decides not to address the identified floodwater issue with the Traditional Approach, ultimately concluding that any action to mitigate the impact on this community would delay the project further and reinforcing the low probability of such conditions occurring. The City approves the Traditional Approach and Engineer K proceeds to work on its implementation. Respond with valid JSON in this format: { "new_principle_classes": [ { "label": "Sustainable Development", "definition": "Principle that engineering solutions must balance current needs with long-term environmental and societal impacts", "abstract_nature": "Intergenerational justice and environmental stewardship", "extensional_examples": ["Green building design", "Renewable energy projects", "Resource conservation"], "value_basis": "Responsibility to future generations", "application_context": ["Infrastructure projects", "Environmental engineering", "Urban planning"], "operationalization": "Through environmental impact assessments, lifecycle analysis, sustainable design criteria", "balancing_requirements": ["Economic feasibility", "Immediate safety needs", "Client requirements"], "examples_from_case": ["Engineer considered long-term environmental impacts", "balanced immediate needs with sustainability"], "source_text": "Engineer considered long-term environmental impacts and balanced immediate needs with sustainability" } ], "principle_individuals": [ { "identifier": "PublicSafety_Case8_Facts", "principle_class": "Public Safety", "concrete_expression": "the safety of the public must be held paramount", "invoked_by": ["Engineer L"], "applied_to": ["stormwater management system design"], "interpretation": "Safety considerations override cost savings in drainage design", "source_text": "the safety of the public must be held paramount", "balancing_with": ["Cost Efficiency", "Client Interests"], "tension_resolution": "Safety takes precedence even if it increases project costs", "case_relevance": "Critical for evaluating adequacy of proposed drainage solution" } ] }