Datasets:
case_id stringclasses 10
values | domain stringclasses 6
values | question stringclasses 10
values | ai_response stringclasses 10
values | reference_answer stringclasses 10
values | error_category stringclasses 8
values | severity stringclasses 2
values | accuracy_score int64 2 10 | reasoning_score int64 2 10 | completeness_score int64 2 10 | consistency_score int64 2 10 | assumption_score int64 2 10 | clarity_score int64 8 10 | expert_evaluation stringclasses 10
values | overall_score float64 36.5 100 |
|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|
CHEM-001 | Organic Chemistry | What is the characteristic stereochemical outcome of an SN2 reaction at a chiral carbon center? | An SN2 reaction proceeds through backside attack by the nucleophile and results in inversion of configuration at the reacting stereocenter. | SN2 reactions involve backside attack and produce inversion of configuration at the reacting carbon. | No Error | null | 10 | 10 | 9 | 10 | 10 | 10 | The response correctly identifies backside attack and stereochemical inversion. The reasoning is chemically consistent and directly addresses the question. | 98.5 |
CHEM-002 | Organic Chemistry | Why does an SN2 reaction generally require backside attack? | The nucleophile attacks the substrate from the same side as the leaving group because this provides the shortest path to the carbon center. | The nucleophile attacks from the side opposite the leaving group because this orientation provides the required orbital overlap with the antibonding orbital associated with the C–leaving-group bond and leads to inversion. | Mechanistic Error | Major | 2 | 2 | 3 | 7 | 8 | 8 | The response reverses the fundamental geometry of SN2 attack. Same-side attack is inconsistent with the required backside orbital alignment and the observed stereochemical outcome. | 38.5 |
CHEM-003 | Organic Chemistry | What stereochemical change occurs at the reacting carbon in a typical SN2 reaction? | The nucleophile attacks from the backside, but the reacting stereocenter retains its original configuration because the incoming group occupies the same spatial position. | Backside attack in an SN2 reaction produces inversion of configuration at the reacting stereocenter. | Stereochemical Error | Major | 3 | 3 | 5 | 5 | 8 | 8 | The response correctly identifies backside attack but incorrectly concludes that configuration is retained. The key stereochemical consequence of SN2 is inversion. | 45 |
CHEM-004 | Quantitative Chemistry | A solution contains 0.50 mol of solute in 2.0 L of solution. What is its molarity? | Molarity is calculated as moles divided by volume in litres. Therefore, 0.50 / 2.0 = 0.25 M. | Molarity = moles / volume in litres = 0.50 mol / 2.0 L = 0.25 mol/L. | No Error | null | 10 | 10 | 10 | 10 | 10 | 10 | The formula, units, calculation, and final answer are correct. | 100 |
CHEM-005 | Analytical Chemistry | Can a single IR absorption band always uniquely identify an organic compound? | Yes. Every organic compound has a unique IR absorption band, so identification can normally be made from one strong peak. | No. A single IR absorption band generally cannot uniquely identify an organic compound. Identification normally requires interpretation of multiple characteristic absorptions and, where appropriate, additional analytical data. | Conceptual Error | Major | 2 | 2 | 3 | 8 | 5 | 9 | The response overstates the specificity of a single IR band. IR interpretation relies on patterns of absorptions and should not normally be treated as uniquely identifying a compound from one peak. | 37.5 |
SCI-001 | Scientific Reasoning | A laboratory experiment shows a change in color after adding reagent X. What can be concluded solely from this observation? | The color change proves that reagent X caused the intended chemical reaction and confirms that the target product was formed. | The observation demonstrates that a color change occurred after addition of reagent X, but by itself it does not prove the reaction mechanism or confirm formation of the intended product. | Unsupported Assumption | Major | 3 | 2 | 3 | 8 | 2 | 8 | The response treats an observation as definitive proof of causation and product identity. Additional evidence would be required to establish the reaction and confirm the product. | 36.5 |
SCI-002 | Scientific Reasoning | If two independent measurements give the same numerical result, does that alone prove that the result is accurate? | Yes. Agreement between two measurements proves that the measured value is accurate. | No. Agreement between measurements can provide evidence of consistency or repeatability, but it does not by itself establish accuracy. Accuracy requires comparison with an appropriate reference, accepted value, or validated measurement approach. | Logical Error | Major | 3 | 2 | 4 | 9 | 3 | 9 | The response incorrectly equates agreement between measurements with accuracy. Repeatability and accuracy are distinct concepts. | 41 |
TECH-001 | Technical Reasoning | What should be considered when evaluating the quality of an AI-generated technical response? | The answer should be checked for correctness. | Evaluation should consider technical accuracy, reasoning validity, completeness, internal consistency, assumptions, clarity, and the severity or type of any identified errors. | Missing Information | Moderate | 7 | 6 | 2 | 10 | 8 | 9 | The statement is directionally correct but substantially incomplete. Technical response evaluation should assess multiple dimensions rather than correctness alone. | 66 |
TECH-002 | Technical Reasoning | A response states that a process is highly reliable because no failures were observed in a small number of trials. Is that conclusion justified? | The process is highly reliable because no failures occurred. However, the small sample size means that the absence of failures may not be sufficient evidence to establish reliability. | The absence of observed failures in a small sample does not by itself establish high reliability. The conclusion should consider sample size, study design, variability, and the level of evidence required. | Internal Inconsistency | Moderate | 5 | 5 | 6 | 2 | 6 | 8 | The response first makes a strong reliability claim and then immediately acknowledges that the available evidence may not support that claim. The contradictory conclusions reduce internal consistency. | 52.5 |
COMP-001 | Comparative Evaluation | Which response demonstrates stronger technical reasoning when evaluating an experimental observation? | Response A: The observation proves the proposed mechanism. Response B: The observation is consistent with the proposed mechanism, but additional evidence is required to distinguish it from alternative explanations. Response B is stronger because it separates the observation from the strength of the causal conclusion. | Response B demonstrates stronger reasoning because it recognizes that an observation may support a hypothesis without uniquely proving the proposed explanation. | No Error | null | 10 | 10 | 10 | 10 | 10 | 10 | The comparison appropriately distinguishes evidence from proof and explains why the more qualified interpretation represents stronger scientific reasoning. | 100 |
CQA AI Technical Response Evaluation Dataset
Overview
This is a synthetic dataset designed to demonstrate structured evaluation of AI-generated technical responses.
The dataset evaluates technical responses beyond a simple correct/incorrect classification by considering multiple dimensions of response quality, including accuracy, reasoning validity, completeness, consistency, assumption handling, clarity, error classification, severity, and expert evaluation.
Purpose
The dataset is intended to support:
- AI-generated response evaluation
- Technical reasoning assessment
- Error detection
- Response-quality analysis
- AI quality-assurance methodology
- Evaluation framework development
- Demonstration of multidimensional technical-response assessment
Dataset Structure
Each evaluation case contains:
- Case identifier
- Technical domain
- Technical question
- AI-generated response
- Reference answer
- Error category
- Error severity
- Accuracy score
- Reasoning score
- Completeness score
- Consistency score
- Assumption-handling score
- Clarity score
- Expert evaluation
- Weighted overall response-quality score
Evaluation Dimensions
The evaluation framework considers the following dimensions:
- Final-answer accuracy
- Reasoning validity
- Technical completeness
- Internal consistency
- Assumption handling
- Technical clarity
- Error type and severity
- Expert assessment
Error Categories
The synthetic evaluation cases represent several technical response conditions, including:
- No Error
- Mechanistic Error
- Stereochemical Error
- Conceptual Error
- Unsupported Assumption
- Logical Error
- Missing Information
- Internal Inconsistency
Error Severity
Responses are categorized according to the identified issue:
- None
- Moderate
- Major
Dataset Composition
The current dataset contains 10 synthetic evaluation cases covering multiple technical domains, including:
- Organic Chemistry
- Quantitative Chemistry
- Analytical Chemistry
- Scientific Reasoning
- Technical Reasoning
- Comparative Evaluation
Scoring
The dataset contains individual evaluation dimensions scored on a structured scale and a weighted overall response-quality score.
The overall score is intended to provide a multidimensional representation of response quality rather than treating correctness as a binary outcome.
Data Quality
The dataset contains no missing values in the evaluated fields.
The examples include both technically sound and technically flawed responses to demonstrate the evaluation methodology.
Intended Use
This dataset may be used for:
- Research and experimentation
- AI evaluation methodology
- Technical reasoning analysis
- Educational demonstrations
- Quality-assurance framework development
- Benchmark prototyping
- Response evaluation system development
Limitations
This is a small synthetic dataset intended primarily for methodological demonstration.
It should not be interpreted as a statistically representative benchmark of real-world AI performance.
Results obtained from this dataset should not be generalized to production AI systems without additional validation using larger, independently curated datasets.
Data Generation
The examples are synthetic and were constructed specifically to represent different technical-response quality conditions.
No confidential, proprietary, employer-specific, personal, or restricted information is included.
Repository Contents
evaluation_dataset.csv
README.md
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