ACES AI Literacy Modules
Learn more about AI
Artificial Intelligence is transforming how we approach agricultural research, community development, extension outreach, and more. These self-guided modules are designed to equip ACES faculty and staff with a foundational understanding of AI tools, empowering you to use them responsibly, effectively, and safely.
College of ACES AI Literacy Modules
Complete the 16 core modules below to build a foundation in artificial intelligence, digital citizenship, data security, and operational integration for ACES faculty and staff.
1. What is Artificial Intelligence?
AI literacy builds directly on the critical thinking frameworks we already use across academic disciplines. At its core, AI refers to computer systems designed to perform tasks that typically require human intelligence, such as visual perception, natural language processing, and pattern recognition.
Within the College of ACES, this technology is a powerful utility. Whether analyzing weather patterns for the Agricultural Experiment Station (AES) or formatting consumer nutrition data for the Cooperative Extension Service (CES), AI is a tool to process vast amounts of information efficiently.
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2. How AI Systems Learn
To use AI effectively in your daily operations, it is critical to understand core principles like machine learning and neural networks. Generative AI models do not "know" facts; they recognize and replicate structural patterns.
These models are trained on massive datasets—ranging from environmental science journals to public web forums. By analyzing billions of parameters, the system calculates the statistical probability of which word, data point, or pixel should logically come next in a sequence.
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3. Modes of Engagement
Digital education frameworks outline three interconnected ways faculty and staff should engage with AI: Understand, Evaluate, and Use.
Before deploying a tool to summarize a field trial or draft an administrative memo, you must first understand how the specific model functions, evaluate if it is the appropriate and secure choice for the task, and only then use it to generate output.
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4. Effective Prompting
Interacting with AI requires precise communication. The quality of your output is directly tied to the specificity of your prompt. Clear, highly structured prompts combine human expertise with AI efficiency.
A robust prompt provides four key elements: a specific role, comprehensive context, clear constraints (like word count or tone), and the target audience.
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5. Fact-Checking & Hallucinations
Because generative AI is designed to predict text that sounds highly plausible and authoritative, it can confidently generate entirely false information, a phenomenon known as "hallucinating."
A mandatory competency of AI literacy is aggressively evaluating AI output for inaccuracies. You must remain the subject matter expert. Verify any data, citations, historical dates, or factual claims against trusted primary sources before publishing.
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6. Data Privacy & Security
Understanding data governance is non-negotiable for all ACES personnel. Public, consumer-grade AI tools often absorb user inputs to train their future models.
Entering proprietary agricultural research, sensitive student records, unpublished intellectual property, or constituent contact information into public AI tools constitutes a severe security breach. Always utilize approved, secured environments (like Copilot) when handling internal university data.
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7. Ethics & Bias
When we understand how algorithms work, we can better identify bias in their results. AI models will reflect and amplify the human biases present in their massive training datasets.
Human-centered considerations such as fairness, accountability, and transparency must guide our college's AI usage. Always review outputs to ensure they do not marginalize groups, utilize exclusionary language, or present a skewed socio-economic perspective.
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8. The Thinking Partner
Research across higher education indicates that outcomes improve significantly when AI functions as a collaborative coach rather than a provider of final, finished answers.
Use AI to brainstorm curriculum structures, challenge your research assumptions, generate counter-arguments for a thesis, or overcome writer's block. The goal is co-creation, where the AI enhances your cognitive effort rather than replacing it.
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9. Evaluating Tools
Not all AI tools are created equal. Digital literacy requires users to critically assess the effectiveness, reliability, and security of various platforms before adopting them.
Before integrating a new AI tool into your departmental workflow, assess its privacy policy, its track record for accuracy, and whether its specific architecture is suited to the task (e.g., using a coding-specific model for IT scripts versus a general language model for administrative tasks).
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10. System Limitations
A vital part of AI literacy is understanding what AI cannot do. Current generative AI lacks emotional intelligence, lived experience, genuine reading comprehension, and a moral compass.
It cannot read social cues, understand nuance in complex human interactions, or make ethical judgments. Tasks requiring deep empathy, complex strategic judgment, or nuanced leadership must remain strictly human endeavors.
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11. Research Integrity
It is possible to leverage AI tools while maintaining rigorous academic and professional integrity. The key is absolute transparency and maintaining original thought in your research.
Always disclose when AI has been used to substantially alter, code, structure, or generate content in academic publications or internal reports. Ensure that the core hypotheses, analysis, and final synthesis of any research remain your own intellectual property.
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12. AI in Agricultural Experiment Station (AES) Research
For the Agricultural Experiment Station (AES), AI offers unprecedented capabilities in processing high-volume, complex datasets. Modern agricultural research generates terabytes of data daily, from multispectral drone imagery of crop stress to continuous soil moisture telemetry.
AI excels in precision agriculture by detecting patterns that human eyes might miss. For example, machine learning models can be trained on historical climate data and current irrigation rates to create predictive models for crop yields or to forecast localized pest outbreaks.
However, AI models must be used strictly as analytical assistants. They do not replace the ground-truthing required in scientific field trials. An AI might flag an anomaly in a drone image as "drought stress," but a researcher must verify if it is actually a malfunctioning sprinkler head.
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13. AI for CES Outreach
The Cooperative Extension Service (CES) relies heavily on clear, accessible communication. AI is an excellent tool for translating dense, technical research into plain language for diverse audiences, including farmers, 4-H youth programs, and community workshops.
Extension agents can use AI to quickly iterate different versions of a single document, asking the tool to adjust the reading level, translate concepts into local contexts, or format raw data into engaging social media drafts.
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14. Grant Writing with AI
*Ensure the grant does not explicitly state that you can use AI before using AI for grant writing.
Securing funding is a critical component of ACES operations. AI can serve as a highly effective administrative assistant during the grant writing process.
Faculty can use secure AI platforms to outline complex proposals, ensure narratives align with specific RFP requirements, generate required boilerplate compliance language, and review drafts for clarity and tone before final submission.
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15. Using Microsoft Copilot Effectively
Because the College of ACES handles proprietary research and student data, utilizing consumer-grade public AI tools introduces severe security risks. Our approved enterprise solution is Microsoft Copilot, accessed via your university credentials.
When you log into Copilot with your official account, you are placed in a secure, "walled garden." This enterprise data protection ensures that your prompts, uploaded datasets, and generated outputs are completely isolated. Microsoft does not use your data to train their future public models.
Understanding how to toggle Copilot's "Web" feature is crucial. When Web access is enabled, the AI can search the live internet for up-to-date information. When disabled, it relies solely on its internal training data and the specific documents you upload to it.
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16. Human-Centered Vision
The ultimate goal of this curriculum is to foster a human-centered approach to AI integration across our entire college. This framework emphasizes that human skills (critical thinking, creativity, and boots-on-the-ground experience) are irreplaceable.
As AI automates routine administrative tasks and high-volume data analysis, the value of human judgment only increases. Our focus must remain on using these digital tools to elevate our faculty's potential, better serve our communities, and address real-world agricultural and environmental challenges effectively.
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Appendix: AI Glossary for ACES
A quick-reference guide to the terminology used in artificial intelligence, data security, and digital agriculture.
Algorithm
A set of mathematical instructions or rules given to a computer program to help it learn data patterns and solve problems.
Algorithmic Bias
Systematic errors in a computer system that create unfair outcomes. In Extension work, this might look like AI giving recommendations that only apply to large-scale corporate farming, ignoring historical land-grant practices.
Artificial Intelligence (AI)
The simulation of human intelligence processes by machines, especially computer systems, including learning, reasoning, and self-correction.
Chatbot
A software application designed to simulate human conversation. Microsoft Copilot is the approved enterprise chatbot for NMSU.
Commercial Data Protection
Microsoft's security standard for enterprise users. When logged into Copilot with your MyNMSU credentials, your prompts and data are encrypted and are not used to train public AI models.
Data Crawling / Scraping
The process of using automated bots to extract large amounts of data from websites. NMSU regulates how automated tools can scrape institutional publications.
Deep Learning
A subset of machine learning based on artificial neural networks with multiple layers, often used in AES research for analyzing complex multispectral drone imagery or climate data.
Enterprise AI
AI tools procured and governed by university IT contracts (like Microsoft Copilot), which feature strict data privacy and regulatory compliance, unlike consumer-facing tools.
FERPA
Family Educational Rights and Privacy Act. Student data protected by FERPA must never be entered into public AI generators.
Generative AI (GenAI)
A type of AI technology that can produce various types of new content, including text, imagery, audio, and synthetic data, based on the patterns it learned during training.
Hallucination
When an AI generates false, illogical, or fabricated information but presents it as authoritative fact. Faculty must rigorously fact-check AI-generated citations and statistics.
Human-in-the-Loop (HITL)
The practice of requiring human oversight and intervention in an AI workflow. ACES policy dictates that AI is an assistant, and a human expert must always make the final operational decision.
Large Language Model (LLM)
A highly advanced AI algorithm trained on massive datasets of text (billions of words) to understand and generate human language. Copilot, ChatGPT, and Claude are driven by LLMs.
Machine Learning (ML)
A branch of AI focusing on the use of data and algorithms to imitate the way humans learn, gradually improving its accuracy. Widely used in precision agriculture to predict crop yields.
Natural Language Processing (NLP)
The technology that allows computers to understand, interpret, and manipulate human language in a meaningful way.
Parameters
The internal variables or "knowledge connections" an AI model learns during training. Modern LLMs have hundreds of billions of parameters.
Personally Identifiable Information (PII)
Any data that could potentially identify a specific individual (e.g., SSNs, addresses, health records). PII must never be processed through unsanctioned AI tools.
Precision Agriculture
A farming management concept that uses technology, including AI and machine learning, to ensure crops and soil receive exactly what they need for optimum health and productivity.
Prompt Engineering
The process of structuring and refining the text instructions given to an AI model to achieve the most accurate, relevant, and highest-quality output.
Prompt Injection
A cybersecurity vulnerability where a user manipulates an AI's input to override its original instructions and bypass safety filters.
Retrieval-Augmented Generation (RAG)
An AI framework that fetches facts from an external, specific knowledge base (like an internal NMSU server) to ground the AI's response in accurate, institutional data rather than general internet data.
Shadow IT
Information technology systems, devices, software, or applications used by departments without explicit IT approval. Downloading unauthorized AI browser extensions is considered shadow IT.
System Prompt
The hidden, underlying instructions programmed into an AI by its developers that dictate its personality, boundaries, and ethical constraints.
Token / Tokenization
How AI models break down text. A token is not always a full word; it can be a syllable or a character. AI models have "token limits" which restrict how much text they can read or write at one time.
Training Data
The massive collection of digital books, articles, websites, and media fed into an AI model during its development phase so it can learn linguistic and structural patterns.
Zero-Shot Prompting
Asking an AI model to perform a task without giving it any prior examples of what a "good" output looks like. Supplying examples (Few-Shot Prompting) generally yields better results.