Skip to Main Content

Current Events & Issues

Welcome to the Current Events & Issues guide! The purpose of this guide is to provide timely information including pro/con debates on current issues affecting us worldwide. Each topic covered in the guide has its own tab.

About This Page

The AI Basics page is created to support the HPU Community—including students, faculty, and staff—in understanding the diverse functions and features of AI tools in research, academics, and productivity. Explore various AI tools and use them ethically in your projects, following guidance from your course guidelines and institutional policies. Learn the basics of AI tools with this guide, and then you can assess whether upgrading to a premium plan is right for you.

What is Artificial Intelligence (AI)?

Artificial Intelligence (AI), a term coined by the distinguished Stanford Professor John McCarthy in 1955, was initially defined as "the science and engineering of creating intelligent machines." Early AI research focused on programming machines to exhibit specific behaviors, such as playing games. Today, however, the emphasis has shifted to developing machines capable of learning, mimicking certain aspects of human learning processes.

Source: Andresen, S. L. (2002). John McCarthy: father of AI. IEEE Intelligent Systems, 17(5), 84-85.

AI Basics

Artificial Intelligence (AI): At its core, AI refers to the ability of machines to simulate human intelligence. This involves tasks such as learning, reasoning, problem-solving, perception, understanding language, and making decisions. AI aims to create systems that can perform tasks that typically require human intellect.

Navigate the tabs below to learn more about each subset of AI.

Made with

Machine learning is a core subset of AI that empowers computers to learn from data without explicit programming. Instead of being directly instructed, ML algorithms identify patterns, make predictions, and improve their performance automatically through experience. This data-driven approach allows AI systems to adapt and evolve over time.

Key Features:

  • Learning from Data: ML algorithms learn by analyzing large datasets to identify underlying patterns, relationships, and insights.
  • Algorithms: A diverse range of algorithms (e.g., linear regression, decision trees, support vector machines, clustering algorithms) are used depending on the task and data.
  • Model Training: The process of feeding data to an algorithm to learn a model that can then be used for prediction or classification.
  • Performance Evaluation: Metrics are used to assess the accuracy and effectiveness of the learned models.
  • Generalization: The ability of a trained model to perform well on new, unseen data.

Examples:

  • Spam Filtering: Email services use ML to classify emails as spam or not spam based on patterns in email content and metadata.
  • Recommendation Systems: Platforms like Netflix and Amazon use ML to suggest movies or products based on user behavior and preferences.
  • Fraud Detection: Banks and financial institutions employ ML to identify unusual transaction patterns that may indicate fraudulent activity.
  • Medical Diagnosis: ML algorithms can analyze medical images (like X-rays or MRIs) to assist in the detection of diseases.
  • Predictive Maintenance: Industrial applications use ML to predict when machinery might fail, allowing for proactive maintenance.

Useful URLs to Learn More:

Deep learning is a subfield of machine learning inspired by the structure and function of the human brain. It utilizes artificial neural networks with multiple layers (hence "deep") to automatically learn hierarchical representations of data. This allows deep learning models to excel at complex tasks involving unstructured data like images, audio, and text.

Key Features:

  • Artificial Neural Networks (ANNs): Networks of interconnected nodes (neurons) organized in layers that process and transmit information.
  • Multiple Layers: Deep learning networks have many hidden layers, enabling them to learn intricate features from raw data.
  • Feature Learning: Unlike traditional ML where features are often manually engineered, deep learning models automatically learn relevant features from the data.
  • Backpropagation: A key algorithm used to train deep neural networks by adjusting the connections between neurons based on errors.
  • Computational Intensity: Training deep learning models often requires significant computational resources (e.g., GPUs) and large datasets.

Examples:

  • Image Recognition: Identifying objects, faces, and scenes in images (e.g., in self-driving cars or photo tagging).
  • Speech Recognition: Converting spoken language into text (e.g., in virtual assistants like Siri and Alexa).
  • Natural Language Understanding: Enabling computers to comprehend the meaning of text (e.g., in chatbots and sentiment analysis).
  • Machine Translation: Translating text from one language to another (e.g., Google Translate).
  • Generative Models: Creating new data that resembles the training data, such as generating realistic images or text (e.g., DALL-E 2, GPT-4).

Useful URLs to Learn More:

  • DeepLearning.AI: Andrew Ng's platform offers comprehensive deep learning courses and specializations.
    • https://www.deeplearning.ai/
  • TensorFlow Documentation: Learn about building and training deep learning models using Google's TensorFlow library.
    • https://www.tensorflow.org/learn
  • PyTorch Tutorials: Explore deep learning with Facebook's PyTorch framework through their tutorials.
    • https://pytorch.org/tutorials/
  • fast.ai: Provides accessible deep learning courses with a focus on practical applications.
    • https://www.fast.ai/

Natural Language Processing (NLP) is a field of AI dedicated to enabling computers to understand, interpret, generate, and manipulate human language (both written and spoken). It bridges the gap between human communication and computer understanding, allowing machines to interact with us in a more natural and intuitive way.

Key Features:

  • Language Understanding: Enabling machines to comprehend the meaning, intent, and context of human language.
  • Language Generation: Allowing computers to produce human-like text that is coherent and contextually relevant.
  • Text Analysis: Techniques for extracting information, identifying patterns, and gaining insights from textual data.
  • Speech Processing: Dealing with spoken language, including speech recognition (converting speech to text) and speech synthesis (converting text to speech).
  • Computational Linguistics: Drawing on linguistic theories and models to develop computational approaches to language processing.

Examples:

  • Chatbots: Conversational AI agents that can interact with users in natural language.
  • Machine Translation: Systems that automatically translate text or speech between languages.
  • Sentiment Analysis: Determining the emotional tone or attitude expressed in text.
  • Text Summarization: Automatically generating concise summaries of longer documents.
  • Voice Assistants: Virtual assistants like Siri, Alexa, and Google Assistant that understand and respond to voice commands.

Useful URLs to Learn More:

  • Natural Language Processing with Python (NLTK): Learn the basics of NLP using the NLTK library.
    • https://www.nltk.org/book/
  • spaCy Documentation: Explore the capabilities of the spaCy library for advanced NLP tasks.
    • https://spacy.io/usage/
  • Hugging Face Transformers: Learn about state-of-the-art NLP models and tools.
    • https://huggingface.co/learn/nlp-course/introduction
  • Stanford NLP Group: Explore research and resources from a leading NLP research group.
    • https://nlp.stanford.edu/

Computer Vision is a field of AI that aims to enable computers to "see" and interpret the visual world. By processing and analyzing digital images and videos, computer vision systems can extract meaningful information, identify objects, detect motion, and understand scenes, mimicking some aspects of human vision.

Key Features:

  • Image Processing: Techniques for manipulating and enhancing digital images.
  • Image Recognition: Identifying objects, people, and scenes within images.
  • Object Detection: Locating and classifying multiple objects within an image.
  • Video Analysis: Processing sequences of images to understand motion, track objects, and analyze events.
  • Feature Extraction: Identifying relevant visual features in images that can be used for analysis.

Examples:

  • Facial Recognition: Identifying individuals based on their facial features.
  • Autonomous Vehicles: Enabling cars to perceive their surroundings, detect obstacles, and navigate safely.
  • Medical Imaging Analysis: Assisting in the diagnosis of diseases by analyzing medical scans.
  • Quality Control: Inspecting manufactured goods for defects using visual analysis.
  • Security and Surveillance: Monitoring areas and detecting suspicious activities through video feeds.

Useful URLs to Learn More:

  • OpenCV Documentation: Learn about the widely used OpenCV library for computer vision tasks.
    • https://docs.opencv.org/4.x/d1/dfb/tutorial_py_table_of_contents_py.html
  • PyImageSearch: A website with numerous tutorials and articles on various computer vision topics.
    • https://pyimagesearch.com/
  • TensorFlow Graphics: Explore TensorFlow's library for computer vision research and applications.
    • https://www.tensorflow.org/graphics
  • Learn Computer Vision: A comprehensive resource with tutorials and courses.
    • https://www.learnopencv.com/

While often considered a separate field, AI is a crucial component of modern robotics. AI algorithms enable robots to perceive their environment, plan movements, make decisions, and interact intelligently with the world. AI-powered robots can perform complex tasks autonomously or semi-autonomously.

Key Features:

  • Perception: Using sensors (e.g., cameras, lidar, sonar) and AI algorithms (like computer vision) to understand the robot's surroundings.
  • Motion Planning: Developing algorithms for robots to navigate and move effectively in their environment, avoiding obstacles and reaching goals.
  • Control Systems: Implementing algorithms to execute planned motions and maintain stability.
  • Task Planning: Enabling robots to break down complex tasks into a sequence of actions.
  • Human-Robot Interaction: Developing interfaces and algorithms for seamless and safe collaboration between humans and robots.

Examples:

  • Industrial Automation: Robots performing assembly line tasks, welding, and painting in factories.
  • Autonomous Navigation: Robots that can navigate and deliver goods in warehouses or perform cleaning tasks autonomously.
  • Surgical Robots: Assisting surgeons with complex procedures, offering precision and minimally invasive techniques.
  • Service Robots: Robots designed to assist humans in everyday tasks, such as cleaning, delivery, or elder care.
  • Exploration Robots: Robots used in hazardous environments like space or deep sea to perform exploration and data gathering.

Useful URLs to Learn More:

  • Robotics Institute at Carnegie Mellon University: Explore research and education in robotics.
    • https://www.ri.cmu.edu/
  • MIT Robotics: Discover the robotics research and projects at MIT.
    • https://robotics.mit.edu/
  • IEEE Robotics and Automation Society: A professional organization with resources and publications in the field.
    • https://www.ieee-ras.org/
  • Introduction to Robotics (Coursera): A course providing a foundational understanding of robotics.
    • https://www.coursera.org/learn/introduction-to-robotics

AI Powered Data Visualization Tools
 

  • Tools like Tableau, Power BI, or Google AI Studio create visual representations of your data including interactive charts, graphs, or even 3D models that make your research data  easier to understand complex relationships in your research.

  • Pattern Recognition in Complex Datasets: to help you identify trends, outliers, and relationships that may not be immediately obvious.

  • Example: Tableau, Power BI, or Google AI Studio 

Conversational Generative AI Tools 

Conversation Generative AI tools represent a significant advancement in natural language processing, enabling users to interact with AI in a conversational manner to generate text, answer questions, summarize information, and even assist with creative tasks. These tools can be valuable assets for academic research, offering new ways to explore information, brainstorm ideas, and synthesize knowledge. However, it's crucial for researchers to understand their capabilities, limitations, and ethical implications.

Explore conversational AI tools by clicking on each tab.

ChatGPT is a large language model developed by OpenAI, known for its ability to generate human-like text in response to prompts and questions. It has gained widespread attention for its conversational abilities, its capacity to generate various creative text formats, and its potential applications in research, writing, and information retrieval.

Category: General-Purpose Conversational AI, Large Language Model (LLM), Virtual Assistant, Natural Language Processing (NLP)

Key Features:

  • Natural Language Understanding: Processes and understands complex user prompts and questions.
  • Text Generation: Can generate various forms of text, including essays, summaries, code, scripts, musical pieces, email, letters, etc.
  • Conversational Ability: Maintains context within a conversation, allowing for follow-up questions and iterative refinement of responses.
  • Multilingual Capabilities: Supports multiple languages for input and output.
  • Code Generation and Explanation: Can generate and explain code in various programming languages.
  • Plugins and Integrations (in newer versions): Extends functionality through connections to external services and data sources.
  • Customization (via fine-tuning for specific use cases): Allows for training on specific datasets to improve performance in targeted domains.

URLs for Learn More:

Claude is a large language model developed by Anthropic, a company focused on AI safety and research. It is designed to be helpful, harmless, and honest. Claude is known for its strong performance in summarizing large documents, engaging in thoughtful dialogue, and its emphasis on safety and ethical considerations in its responses.

Category: Large Language Model (LLM), Conversational AI with a focus on safety and long-form reasoning.

Key Features:

  • Strong Summarization Capabilities: Excels at condensing lengthy documents and extracting key information.
  • Thoughtful and Coherent Dialogue: Capable of engaging in more extended and nuanced conversations.
  • Emphasis on Safety and Harmlessness: Designed with safety mechanisms to avoid generating harmful or biased content.
  • Long Context Window: Can process and retain information from very long inputs, useful for analyzing large research papers or datasets.
  • Code Generation and Explanation: Supports code-related tasks.

URLs for Learn More:

Microsoft Copilot  (formerly Bing Chat) is an AI-powered assistant integrated into various Microsoft products, including Windows,Microsoft 365, and the Bing search engine. It leverages large language models to provide features like answering questions, generating text, summarizing content, and assisting with creative tasks, often with a focus on productivity and information retrieval within the Microsoft ecosystem.

Category: AI Assistant, Integrated Conversational AI, Code Generation AI, Developer Assistant

Key Features:

  • Integration with Microsoft Products: Seamlessly works within applications like Word, Excel, PowerPoint, and the Bing search engine.
  • Web Search Integration: Can leverage Bing's search capabilities to provide up-to-date information.
  • Text Generation and Summarization: Assists with writing documents, emails, and summarizing text.
  • Image Generation (in some versions): Can create images based on text prompts.
  • Code Assistance: Can help with writing and understanding code.
  • Contextual Awareness within Applications: Can understand the context of the document or task you are working on.

URLs for Learn More:

Felo.ai, developed by the Tokyo-based startup Felo Inc., is an AI-driven research assistant designed to streamline academic research. This tool employs a conversational interface to help users discover, understand, and synthesize information from scholarly sources, offering features for literature review, question answering based on academic papers, and concept mapping.

Category: AI-powered Research Assistant, Scholarly Information Retrieval and Analysis

Key features include:

  • Natural language processing (NLP) for understanding user queries.

  • Multilingual support to break down language barriers.

  • Capabilities for academic research, including document translation.

  • Scholarly Focus: Trained on and optimized for academic literature, including research papers, theses, and dissertations.

  • Literature Review Assistance: Helps discover relevant papers based on research topics and keywords.
    Question Answering over Scholarly Texts: Can answer specific questions based on the content of uploaded or linked research papers.

  • Concept Mapping and Synthesis: Assists in identifying key concepts and their relationships within a body of literature.

  • Citation Analysis: May offer features to analyze citation networks and identify influential works.

  • Summarization of Academic Papers: Provides concise summaries of research articles.

URLs for Learn More:

  • Felo.ai Official Website
  • Felo.ai Features/Documentation (likely on their website): Explore the features and support sections of their official website.

Gemini is Google's latest and most capable multimodal AI model. It's designed to integrate seamlessly across different modalities like text, images, audio, video, and code. This allows it to understand and generate content across these diverse formats, promising more intuitive and comprehensive interactions.

Category: General-Purpose Conversational AI, Large Multimodal Model (LMM)

Key Features:

  • Multimodal Understanding and Generation: Can process and generate text, images, audio, video, and code in combination.
  • Advanced Reasoning: Demonstrated strong performance in complex reasoning tasks.
  • Integration with Google Ecosystem: Deeply integrated with Google products and services, such as Search, Gmail, Docs, and more.
  • Code Understanding and Generation: Highly proficient in understanding and generating code in various programming languages.
  • Contextual Awareness: Maintains context within conversations and across different modalities.
  • Scalability and Efficiency: Designed for efficient deployment across various platforms.


URLs for Learn More:

Perplexity AI is a conversational search engine that aims to provide direct answers to questions with sources cited. It focuses on providing factual information and transparency by linking its responses to the sources it used. This can be particularly valuable for academic research where source verification is crucial.

Category: Conversational Search Engine, AI-powered Information Retrieval experience (Search Assistant AI).

Key Features:

  • Direct Answers with Citations: Provides concise answers to questions and includes links to the sources of the information.
  • Follow-up Questions: Allows users to ask clarifying or related questions in a conversational manner.
  • Web Browsing Capabilities: Can access and process information from the live web.
  • Focus on Factual Accuracy and Transparency: Emphasizes providing reliable information with traceable sources.
  • File Upload and Analysis (in newer versions): May allow users to upload documents for the AI to analyze and answer questions about.

URLs for Learn More:

  • Perplexity AI Official Website
  • Perplexity AI Blog/Help Center (likely on their website): Look for resources explaining their features and methodology.
     

Conversational AI Tools Comparison Chart (Generated by Claude.ai)
 

Tool Developer Category Overview Key Features
ChatGPT OpenAI General-Purpose Conversational AI / LLM Versatile AI assistant known for human-like text generation and creative content creation across multiple formats and languages. • Natural language understanding
• Multi-format text generation (essays, code, scripts)
• Conversational context maintenance
• Multilingual support
• Plugin integrations
• Custom fine-tuning
Claude Anthropic Safety-Focused LLM / Long-Form Reasoning AI model emphasizing safety, ethics, and thoughtful dialogue with exceptional document analysis capabilities. • Strong document summarization
• Long context window processing
• Safety and harmlessness focus
• Thoughtful, coherent dialogue
• Large research paper analysis
• Code generation and explanation
Copilot Microsoft Integrated AI Assistant / Developer Tool AI assistant seamlessly integrated into Microsoft ecosystem, focused on productivity and development tasks. • Microsoft product integration (Office, Bing)
• Web search capabilities
• Productivity document assistance
• Image generation (some versions)
• Code assistance
• Contextual application awareness
Felo.ai Felo Inc. Academic Research Assistant Specialized AI tool designed specifically for scholarly research, literature review, and academic information synthesis. • Scholarly literature focus
• Literature review assistance
• Academic paper Q&A
• Concept mapping and synthesis
• Citation analysis
• Multilingual document translation
Gemini Google Multimodal LLM / General-Purpose AI Google's advanced multimodal AI capable of processing and generating content across text, images, audio, video, and code. • Multimodal understanding (text, image, audio, video)
• Google ecosystem integration
• Advanced reasoning capabilities
• Cross-platform code proficiency
• Contextual awareness across modalities
• Scalable deployment design
Perplexity Perplexity AI Conversational Search Engine AI-powered search tool that provides direct answers to questions with transparent source citations and fact verification. • Direct answers with source citations
• Follow-up conversational questions
• Live web browsing<
• Factual accuracy emphasis
• File upload and analysis
• Transparent information sourcing

Quick Reference Guide

Best for Academic Research: Felo.ai (specialized) or Claude (document analysis)
Best for Creative Work: ChatGPT (versatile content creation)
Best for Office Work: Copilot (Microsoft integration)
Best for Multimodal Tasks: Gemini (cross-modal capabilities)
Best for Fact-Checking: Perplexity (sourced information)
Best for Safety-Critical Applications: Claude (ethical focus)

Based on the comparison chart, the recommended use of each conversational AI tool during the literature review process is as follows.

1. ChatGPT (OpenAI)
Best for: Initial Exploration & General Understanding

Use Case:

  • Exploring Topics: ChatGPT can help you understand broad topics, definitions, and methodologies by generating clear summaries and explanations.

  • Literature Search Help: If you're unsure about keywords or the scope of your search, ChatGPT can suggest topics or ways to narrow down research questions.

  • Summarizing Existing Literature: While not specialized in academic papers, ChatGPT can summarize articles and papers you've read and discuss findings in layman's terms.

  • Idea Generation: Can help brainstorm and organize ideas or hypotheses for your literature review.

Limitations:

  • ChatGPT may not always provide precise academic citations, but it's useful for high-level overviews and brainstorming.

2. Claude (Anthropic)

Best for: Summarization & Thoughtful Dialogue on Complex Ideas

Use Case:

  • Summarizing Complex Papers: Claude excels in condensing long academic papers into key points, making it valuable for synthesizing large amounts of research.

  • Ethical Considerations: If your review involves sensitive or ethical topics, Claude’s design focuses on delivering unbiased and safe content, which could be important in certain academic fields.

  • Extending Conversations: It’s ideal for engaging in extended, coherent dialogue around specific studies or ideas, allowing for deep discussion and clarification of complex topics.

Limitations:

  • Not optimized for direct scholarly database access, so you'd need to upload and review papers manually.

3. Copilot (Microsoft)

Best for: Productivity & Cross-Platform Integration

Use Case:

  • Writing & Structuring the Review: Copilot can assist with drafting sections of your literature review, generating summaries of papers, or suggesting how to structure your work based on insights gathered.

  • Information Retrieval & Synthesis: The Bing integration can help you retrieve recent academic articles or news papers from across the web, ensuring your review is up-to-date.

  • Collaborative Tools: Copilot’s integration with MS Word, Excel, and other MS 365 tools is excellent for organizing your literature review, creating reference tables, and maintaining consistency.

Limitations:

  • While it can assist with document creation, Copilot lacks deep academic-specific functions like citation management or concept mapping.

4. Felo.ai

Best for: Focused Academic Research & Synthesis

Use Case:

  • Scholarly Paper Search: Felo.ai is specifically optimized for academic research, helping you quickly locate papers related to your topic by performing a literature review search based on your keywords.

  • Reading & Summarizing Research: It can extract key findings and summarize academic papers in a concise manner, perfect for creating annotated bibliographies.

  • Concept Mapping: It assists in identifying key concepts and relationships between ideas, helping you see the connections between studies.

  • Question Answering from Papers: If you have specific questions about a paper, Felo.ai can directly answer those based on uploaded documents.

Limitations:

  • May not be able to help with creative writing or non-academic tasks, but is ideal for strictly academic research.

5. Gemini (Google)

Best for: Cross-Modal Integration & Advanced Reasoning

Use Case:

  • Multimodal Research: Gemini’s ability to process both text and visual data (e.g., figures or charts in academic papers) means you can extract and analyze information from papers that use visual aids or multimedia.

  • Advanced Reasoning: Use Gemini to analyze complex arguments in academic papers and help connect different findings with advanced reasoning capabilities.

  • Google Ecosystem Integration: It can seamlessly pull in research and data from various Google products and services, making it easier to organize and present your literature review across platforms.

Limitations:

  • While powerful, Gemini’s multimodal capabilities are best suited for advanced users who need more than just basic text summarization or synthesis.

6. Perplexity AI

Best for: Fact-Finding & Source Verification

Use Case:

  • Factual Answering with Citations: When conducting a literature review, you can use Perplexity to pull up factual answers and direct quotes from studies, complete with citation links.

  • Transparency & Source Verification: Perplexity’s focus on citations ensures that you can directly trace the origins of every fact, helping you ensure the credibility of the sources you’re reviewing.

  • Clarifying Specific Queries: If you have a specific question regarding a paper or concept, you can ask follow-up questions to get concise answers.

Limitations:

  • While great for answering fact-based queries, Perplexity doesn’t assist with generating long-form literature reviews or synthesizing broad topics.

Recommendation for Literature Review Process:

  • For General Research and Exploration: Start with ChatGPT for a broad understanding, and use Gemini for deeper insights across various formats (e.g., integrating charts or video content).

  • For Summarization & Academic Focus: Leverage Claude and Felo.ai for summarizing complex research papers, providing deep academic insights, and organizing key findings. Felo.ai will be especially useful for managing large bodies of academic literature and concept mapping.

  • For Writing Assistance and integration, use Copilot to help structure and generate drafts of your literature review within the Microsoft ecosystem, and for organizing your thoughts into a cohesive document.

  • For Fact-Checking & Verification: Use Perplexity AI for fact-checking specific studies, verifying data, and ensuring proper citation for academic rigor.


In summary, each tool has a specific strength that can complement various stages of the literature review process, from discovery and synthesis to writing and citation management. (Generated by ChatGPT)

AI Tools For Research

AI tools for research are transforming how scholars gather, analyze, and synthesize information, making tasks like data analysis, literature reviews, and idea generation faster and more efficient. However, while these tools can greatly enhance productivity, they also come with limitations, such as potential biases in data and the need for careful ethical consideration in their use.

Explore the free tiers or trials of these tools to see which ones best fit your specific needs and workflows.

AI-powered Large Language Models (LLMs) such as ChatGPT, Gemini, Copilot, and Perplexity can also be utilized for brainstorming, topic development, and initial source discovery during the early stages of research.

Conversational AI tools such as ChatGPT, Gemini, Claude AI, Copilot, Perplexity AI, and Llama offer a significantly more interactive and dynamic approach to literature review. These tools can be leveraged for topic exploration, clarifying terminology, identifying key works, brainstorming and idea generation, source analysis and summarization, synthesis and comparison, and structuring and writing assistance.

AI Tools for Educators 

Artificial intelligence is rapidly transforming higher education, offering a diverse range of tools to enhance teaching, learning, assessment, and administrative tasks for educators. Discover a range of AI-powered tools through the tabs below, each designed to streamline workflows, personalize instruction, and empower educators in their mission. 

Learning analytics platforms play an increasingly important role in higher education by helping educators analyze student data to gain insights into learning patterns and improve teaching effectiveness. These platforms collect and analyze data on student engagement, performance, and progress.

-Top 10 Learning Analytics Platforms

Creating effective quizzes and assessments is essential for evaluating student learning. AI-driven quiz and assessment generation tools can significantly reduce the time and effort required for this task by automatically generating questions based on provided materials or topics.

Educators often spend a significant amount of time on writing tasks, including creating lesson plans, drafting emails, developing rubrics, and preparing other instructional materials. AI-powered writing and content creation assistants are designed to help streamline these processes, leveraging natural language processing to generate text quickly and efficiently. Several free or freemium tools are available to support educators in higher education.-Grammarly AI Writer

Creating engaging and informative presentations is a crucial aspect of teaching in higher education. AI tools for presentation development can help educators produce visually appealing and well-structured slides more efficiently. These tools often automate design elements, suggest layouts, and even assist with content generation.

Please refer to the links below to review the guidelines and policies adopted by universities in the United States.

AI Related Issues

Artificial intelligence is quickly reshaping higher education, as educators adopt AI tools to enhance teaching and improve student outcomes. These tools help streamline administrative work, personalize learning, and make educational content more engaging—benefits now more accessible thanks to free or low-cost options.. The tabs below provide an overview of how AI is currently being used in higher education, highlighting different types of tools, practical applications, key benefits and challenges, ethical considerations, and future developments.

Source: Gemini report on The Use of AI Tools by Educators in Higher Education
https://docs.google.com/document/d/1At87Sb4-GynpZF-E0xnnw1hM_WehYYMBetGAjesWNkI/edit?usp=sharing

  • Time Savings: Automates tasks like content generation, assessment creation, and initial feedback.   
     
  • Enhanced Student Engagement: Facilitates interactive learning experiences with quizzes, AI-generated visuals, and personalized feedback.   
     
  • Personalized Learning Potential: Adapts to individual student needs with tailored learning paths and support.   
     
  • Improved Accessibility: Assists in creating materials for diverse learners through translation and text-to-speech.  
     
  • Data-Driven Insights: Learning analytics platforms offer valuable data on student performance and engagement.   
  • Data Privacy and Security Concerns: Especially with external platforms collecting student data.
      
  • Accuracy and Reliability of AI-Generated Content: Requires careful review and verification by educators.   
     
  • Potential for Bias and Fairness Issues: AI algorithms can reflect biases from training data.   
     
  • Risk of Over-Reliance on AI: May lead to deskilling in content creation and assessment design.
     
  • Technical Integration Challenges: Integrating new AI tools with existing systems.
     
  • Ethical Questions Regarding Academic Integrity: Potential for students to misuse AI for assignments.
  • Mindfulness of Biases: Select and use tools that promote fairness and equity.
     
  • Ensuring Accessibility: Choose tools that cater to diverse learning needs.
     
  • Clear Guidelines for Students: Establish policies on appropriate AI tool use to maintain academic integrity.   
     
  • Transparency with Students: Inform them about when and how AI tools are used.
     
  • Prioritize Data Privacy and Security: Comply with data protection regulations.
  • Thorough Evaluation of AI Tools: Consider features, limitations, and alignment with pedagogical goals.
     
  • Professional Development and Support: Provide training for educators on effective integration.
     
  • Establish Clear Guidelines: For both educators and students on ethical and appropriate use.
     
  • Encourage Critical Thinking: Help students evaluate AI-generated content and use tools responsibly.
     
  • Maintain Human Oversight: Ensure accuracy, fairness, and consideration of ethical implications.
  • Increased Sophistication: More advanced AI tools leading to highly personalized learning experiences.
     
  • Greater LMS Integration: Seamless integration of AI tools within existing educational platforms.
     
  • Emergence of Specialized Tools: More free AI tools tailored for specific disciplines or pedagogical approaches.
     
  • Advancements in Natural Language Processing: AI tools with deeper understanding of educational contexts.
     
  • Emphasis on Ethical Considerations: More robust features and guidelines to address bias, privacy, and academic integrity.
     
  • Wider Automation of Administrative Tasks: Free AI tools assisting with tasks beyond teaching and learning.

Generative AI Tools for Digital Arts

Generative AI tools are a form of artificial intelligence that leverage machine learning to generate new content, such as text, images, audio, or video, based on user inputs or requests, rather than just fetching or organizing pre-existing information.  -Gemini AI Overview

Select a tab below to generate new charts, images, audios, videos. presentations, or quizzes.

Note: The generative AI tools listed below can be used for free or with limitations.

Text-to-speech (TTS) technology has advanced significantly, offering increasingly natural-sounding voices that can read digital text aloud. These tools can be incredibly useful for accessibility, content creation, and learning. Here are five TTS services that offer free trials and/or free options, along with a brief description of each:

Note: While the tools listed above offer free options, they often come with limitations such as watermarks, shorter video lengths, restricted features, or a limited number of video generations. Paid subscriptions usually unlock the full potential of these AI video creation platforms.