AI in 15 Minutes or Less

What AI is about

What AI is

Non-intelligent machines simply execute strict commands of their operators. Non-intelligent software follow explicit rules programmed by human developers.

#AI stands for #Artificial intelligence, which is the competency of an artificial system to learn and perform autonomously based on what this system such as a computer, drone, self-driving car, or robot has learned.

For instance, Google-owned AlphaZero is given no knowledge beyond basic chess rules. Instead, this #AI model is prompted to play against itself and, using #Reinforcement learning, to learn from its own mistakes. Win or lose, AlphaZero piles up lessons learned from its millions and millions of games. According to its creator, Demis Hassabis,

"Actually you set off AlphaZero in the morning and it starts off playing randomly. By lunchtime, you know it's able to beat [...] most chess players. And then, by the evening, it's stronger than the world champion."

Because of their #Computing power and #Scalable persistent memory, #AI systems can learn faster and accumulate more knowledge than any human being. However, they are able to learn only in those domains and in those ways that their creators specify. No #Intelligent machine of today can learn without #Algorithms.

What AI is not

#AI-powered systems may mimic or, more exactly, replicate human intelligence. However, they are not beings, individuals, personages, nor souls. They are tools.

#Intelligent machines of today lack a true understanding of its surroundings and, overall, the world at least yet. For example, #AI-driven systems can sound like humans because, similarly to parrots, they learn from human speech samples.

No single #AI system possesses consciousness, intentions, interests, motivations, subjective experiences, self-awareness or awareness of their existence. Similarly to "special police" not being regular police, as of now, artificial intelligence is not general intelligence at least yet.

What AI can

By definition, #AI can perform at least one task autonomously, where "autonomously" refers to the limited ability of an #AI system to function independently without external control or direct human intervention.

#AI systems have the capability to execute tasks that are not exclusively programmed in advance. They can be grouped in three task sets:

1. Partially-autonomous acquisition of data through listening, reading, and graphic recognition. These tasks are commonly known as #Machine learning (#ML).
2. Partially-autonomous discrimination of data through its analysis and classification. The word "discrimination" originates from the Latin verb "discriminare," which means "to distinguish" or "to separate." Those #AI models that perform these tasks are commonly known as #Discriminative models.
3. Partially-autonomous generation of results through delivery of produced outputs such as documents and commands, for instance, needed for autonomous driving. Those #AI models that perform these tasks are commonly known as #Generative models.

Generally speaking, autonomy implies some level of self-governance and the ability to adapt to changing circumstances without relying on continuous commands, guidance, or instructions from external sources.

However, #AI systems are only partially autonomous, lacking the ability to act beyond their specified functions and requiring human guidance for goal-setting, supervision, and contextual understanding. They operate within the parameters set by their programming with #Algorithms and training.

What AI can't yet

As of today, #AI systems:

• Can't perform without #Algorithms and, often, training: #AI models encounter challenges when adapting to unseen contexts due to their reliance on the training data, struggling with entirely new or unforeseen situations that were not part of their training set and lacking the ability to generalize knowledge like humans. While AI can generate novel outputs based on learned patterns, it falls short of true creative thinking, imagination, and inspiration, as it cannot form unique concepts beyond the confines of its training data.
• Have no common or conventional senses: AI lacks inherent ethics. Ethical concerns arise from human developers' decisions and biases in training data, unintentionally perpetuating biases. Despite potency in tasks, AI faces challenges in common sense reasoning, interpreting implicit meanings, grasping context, and making inferences beyond training data.
• Have no emotion, intuition, or feeling: AI lacks the capacity for intuition or gut feelings, as human intuition often involves subconscious processing and experiences that are difficult to reproduce in machines. While certain AI applications may simulate emotional responses or recognize human emotions, such simulations are rooted in pattern recognition and do not constitute a true understanding of emotions.

AI vs ML

#ML is a separate area of studies within #AI. However, no #AI can be possible without #ML. When people say, "AI and ML", they may be emphasizing the distinction between traditional AI methods and approaches that involve machine learning techniques.

Traditional #AI includes rule-based systems and expert systems, while #Machine learning relies on data-driven approaches to improve performance over time. By mentioning both ML and AI, individuals may want to acknowledge the broader context of AI and highlight the specific role that machine learning plays within that framework.

Animals vs AI

Naturally, intelligence is a capacity of animals, especially of humans. Some argue that plants demonstrate limited intelligence as well. That is why the intelligence that computers or robots may demonstrate is called "artificial".

Parents teach their kids, while giving them initial instructions and exposing them to the real world to learn. To train an #AI system, their creators supply this system with #Data and #Algorithms to process it. No parents can predict everything their kids do; similarly, designers of #AI models cannot anticipate everything their creations would produce.

Nevertheless, there is a distinctive difference between raising children and training of machines. Parental controls over what their kids learn and over patterns of their learning are limited. Developers of #AI models today have full control over #Algorithms that the machines utilize to learn and perform, as well as over #Data provided during pre-training.

What AGI stands for

#AGI stands for #Artificial general intelligence, which is still in the research phase and is not commercially available. Performance of existing #AI systems such as facial and speech recognition tools, recommendation systems, self-driving cars, chatbots, and virtual assistants is limited down to narrow, specific tasks. That is why their "intelligence" is called #Narrow AI.

On the contrary, #General AI, if developed, would be able to perform any intellectual task that a human can do. China-based AI visionary Kai-Fu Lee believes that #AGI would be developed, "not within the next 30 years and possibly never".

If researchers are able to develop an AGI system, it could have significant implications for society, including creation of machines that are more intelligent than humans, which could pose ethical and safety concerns.

AI is best at

#AI's combined #Computing power and #Scalable persistent memory already exponentially exceed similar capacities of humankind combined. #AI systems already beat human champions in games like Go, Doom, and Warcraft. No human can memorize as many books as #AI can, no human can program as many lines of code as #AI can, and etc.

There are several functions at which #AI systems are the best.

Dangerous task execution

AI-driven, AI-powered, AI-controlled drone, robots, rovers, and vehicles can perform those tasks that normally involve risks to human lives such as exposure to:

• Dangerous situations such as (a) combat and defense operations, (b) crime and violence, (c) defusing explosive devices, (d) fire fighting, (e) health emergencies and infectious diseases, (f) natural disasters such as earthquakes, floods, hurricanes, tornadoes, and wildfires, (g) operations in remote or challenging locations, high-rise or underground sites, and conflict-prone or hostile areas, as well as (h) water-related dangers.
• Hazardous environments such as (a) agricultural pesticides and large animals, (b) electrical hazards, (c) environmental hazards including air pollution and chemical spills, (d) flammable and toxic chemical and substances, (e) confined spaces, such as silos, tanks, and tunnels because of risks of asphyxiation, toxic gas exposure, and difficulty in rescue operations, (e) deep sea or underwater, (f) nuclear power plants, (g) outer space, and (h) workplace hazards such as chemical exposure, flammable and volatile materials, high temperature, and/or noise pollution.

Both #AI and humans can conduct inspections, perform maintenance, and undertake projects in dangerous situations and hazardous environments. However, reduction in risks to human lives has also economic reasoning. Manufacturing a robot and its AI training is way cheaper than giving birth, raising, and professional training of a human specialist.

Knowledge logistics

#AI systems are the best to capture, organize, store, and retrieve knowledge to make it available 24/7. No human can match (a) the accuracy and precision, (b) depth of insights, (c) magnitude of information, and (d) speed with which AI processes knowledge.

While #AI is superior in knowledge operations and logistics, it's important to note that it is most effective when working in collaboration with human expertise. Human creativity, ethical considerations, and judgment are elements that #AI lacks, and the combination of #AI and human capabilities often results in more comprehensive and well-rounded solutions.

Modeling and simulation

#AI systems are the best to accelerate:

• Experimental cycles in science to speed up advancements.
• Mocking up digital products such as document drafts, software applications, and websites. In that way, human contributions may switch to replacement of usefully wrong parts with right ones, while reducing the time and cost of development.
• Prototyping physical products in construction and manufacturing. This reduces the time and cost of physical prototyping, enabling faster and more efficient product development.
• Recreating personal medical conditions, treatment outcomes, and surgical procedures in healthcare.
• Replicating real-world environments to provide a lifelike and immersive experience for learners. This can involve mimicking scenarios, situations, or tasks that learners might encounter in the actual environment they are preparing for.

Both humans and #AI can model and conduct simulations. The speed is the difference. For instance, an #AI system can draft hundreds of birthday letters before an individual writes one. An #AI system can also draft millions of construction projects before a human architect completes one.

Pattern recognition

#Discriminative AI are the best in #Pattern recognition. Those #AI systems normally analyze their data in order to be utilized in:

• Consistency and anomaly identification. #Discriminative AI may check one's grammar and syntax, detect activities and objects, notice trends, perform business intelligence, as well as offer valuable insights for informed decision-making.
• Predictive analytics to analyze historical data and make predictions about future trends that can be used in finance, healthcare, and manufacturing for forecasting and planning.

Both humans and #AI can notice and recognize patterns. However, a human brain is limited with regards to the volume of data it can process. Humans also acquire biases and preferences such as selective attention. Only #AI can process that much that complicated data that fast to find its anomalies, consistencies, patterns, and trends.

Repetitive task automation

#AI systems are the best to automate repetitive tasks. They can enhance efficiency, reduce human workload, and improve the accuracy and consistency of repetitive tasks in various industries. Automation of:

• Intangible tasks at which #AI is superior with regards to productivity include (a) content moderation, (b) customer support and help desks, (c) data entry and processing, (d) financial transactions, (e) human resource retention and recruitment support, (f) IT operations and maintenance, (h) language translation, (i) social media management, (j) any office-type work such as document and email sorting and filtering.
• Tangible tasks at which #AI is superior with regards to productivity include (a) agriculture and, especially, precision agriculture, (b) cleaning and waste management, (c) construction and demolition, (d) healthcare routine, (e) infrastructure maintenance, (f) manufacturing and assembly, (g) security and surveillance, (i) shopping and retail, (j) transportation, warehouse and logistics, as well as (k) all the tasks in environments that are dangerous to human beings such as deep sea, fire, mining, and outer space operations.

Without #AI, humans can automate repetitive tasks through step-by-step instructions and strictly programmed devices such as numerically controlled machines. However, each deviation in those tasks requires costly changes such as machine re-programming or instruction amendments.

On the contrary, autonomous systems such as self-driving cars, drones, and robots can perform tasks without that costly and time consuming human intervention.

Scalable personalization

#AI systems are the best to personalize at scale. #AI systems excel at swiftly tailoring content or features to align with specific purposes, contexts, and individual preferences. In the realm of language, this adaptation encompasses:

• Transforming the content while adjusting its overall style, catering to the target user's age, changing its tone or size, emulating the style of a famous person, extracting and summarizing relevant information, and translating into different languages among other factors.
• Delivering the content to meet the unique requirements of individual users. #AI systems can deliver the contents (a) promptly, (b) in various formats such as images, spoken narration, specific voices, text, or video, and (c) through the preferred media channel of each individual customer.

Both humans and #AI can personalize products to a particular customer. However, only #AI can do so at massive scale. At very least, no human can speak in as many languages as #AI can.

AI impact on jobs

The impact of #AI on jobs is a complex and evolving topic.

Jobs AI creates

Obviously, #AI creates new jobs and industries. This very crash course wouldn't make that sense, let say, in a year of 2000 as it does today.

1. AI development creates demands in (a) AI copywriters and content creators, (b) developers of AI applications, virtual reality (VR) and augmented reality (AR), (c) engineers, (d) ethical AI specialists, as well as (e) AI model and ML trainers.
2. AI integration creates demands in (a) AI system integrators, (b) customer experience designers, and (c) human-machine teaming specialists.
3. AI operations creates demands in (a) AI analysts and strategists, (b) AI educators and trainers, (c) AI intervention supervisors, as well as (d) AI-tool operators.
4. AI maintenance creates demands in (a) autonomous drone, robot, rover, and vehicle technicians, as well as (b) AI hardware specialists.
5. AI regulation creates demands in (a) AI compliance managers, (b) AI governance and policy analysts, and (c) AI reinforcement officers. As #AI becomes more integrated into various aspects of society, there is a growing need for bias, ethical, privacy, and security considerations and, therefore, regulations. Professionals will likely be required to understand the implications of #AI on societal impacts, promoting responsible and ethical AI development and use.
6. Dangerous zone exploration such as explorations in deep sea, high-rise, outer space, and underground zones may create demands in (a) exploration supervisors and (b) new area development strategists.
7. Remote waste management may create demands in (a) remote waste supervisors and (b) utilization optimization strategists.

In the meanwhile, the landscape of AI-related jobs is dynamic. The integration of AI into various industries will likely lead to the creation of new and diverse roles as technology continues to evolve.

Jobs AI replaces

Most likely, due to #Repetitive task automation, by 2050, #AI systems will automate or significantly augment the overwhelming majority of jobs composed of repetitive and routine tasks, as well as replace #Dangerous task execution.

• AI-powered assistants already affect jobs of (a) accountants and bookkeepers, (b) cashiers, (c) data entry clerks, (d) file clerks, (e) IT support workers, (f) routine inspectors and testers, (g) security and fraud detectors, (h) software coders and programmers, and (i) translators and interpreters.
• AI-powered chatbots already affect jobs of (a) call center operators, (b) customer service representatives, (c) paralegals, (d) telemarketers, (e) human resource generalists, as well as (f) insurance and loan underwriters.
• AI-powered drones are affecting jobs of (a) aerial inspectors, monitors, security guards, and surveyors, (b) remote couriers and delivery drivers, (c) search and rescue teams, and (d) wildlife conservationists.
• AI-powered robots equipped with IoT devices, sensors, and manipulators already affect jobs in routine (a) agriculture, (b) assembly, (c) food production and service, (d) healthcare, (e) hospitality, (f) manufacturing, and (g) retail, as well as general laborer and low-wage jobs across all the industries.
• AI-powered vehicles and rovers already affect jobs of (a) drivers, (b) forklift operators, and (c) logistics and warehouse workers.

In other words, three categories of workers tend to be more susceptible to competition with #AI: (1) workers who strictly follow their step-by-step instructions, (2) workers who process data, natural languages, and software codes, as well as (3) those who risk their health or even life while performing their duties. Additionally, the advancement of technology and AI may impact job roles in ways that are not entirely predictable.

Jobs AI transforms

Development of #AI systems produces #Jobs AI creates. #Intelligent machines can possibly do routine, repetitive tasks more efficiently and at lower costs, which may result in #Jobs AI replaces. Simultaneously, #AI systems have the potential to transform or, at least, significantly impact those jobs that are going to stay.

AI tools will improve the efficiency of employees involved in unique and non-repetitive tasks. As a result, employers may evaluate whether to decrease the workforce or assign more tasks to sustain productivity. This evaluation may lead to either downsizing or expanding job roles. The last change will result in #Dynamics of transforming jobs.

Those tasks that are going to be evaluated include:

• Creative production. #AI will augment creative production by offering data-driven insights and collaborating with human creatives to enhance ideation and design processes.
• Decision making. #AI will revolutionize decision-making by processing vast datasets rapidly, providing predictive analytics, and offering insights to facilitate more informed, data-driven choices across various industries.
• Knowledge work. #AI will transform knowledge work by facilitating data analysis and augmenting human decision-making, ultimately enhancing efficiency and productivity in information-intensive professions.
• Project management. #AI will revolutionize project management by optimizing resource allocation, predicting risks, and enabling more efficient planning and execution of projects.
• Research, science, and innovation. #AI will revolutionize research, science, and innovation by accelerating data analysis, facilitating complex simulations, and uncovering patterns, thereby expediting discoveries and pushing the boundaries of knowledge.
• Workplace collaboration. #AI will redefine workplace collaboration by enhancing interpersonal and multicultural communication, providing data-driven insights, fostering more efficient teamwork and innovation.

In other words, jobs that require human traits like empathy, creativity, and complex problem-solving are likely to remain in demand. However, those workers who are equipped with #AI skills, are generally more competitive than those without such skills due to the powerful capabilities of #AI.

Dynamics of transforming jobs

Because of #AI impact on jobs, there will be #Jobs AI creates, #Jobs AI replaces, and #Jobs AI transforms. The transformation of jobs will affect how work is organized, the skills and competencies required, and the overall employment landscape. Several key elements contribute to the dynamics of transforming jobs.

Diversification of tasks

Within #Jobs AI transforms, employees may be given a wider range of duties that align with their skills and competencies, allowing them to (a) deepen and/or personalize existing services such as customer support, education, human resources, legal services, and social work, (b) supervising #AI systems, (c) planning for new powered by AI functions, and (d) making decisions on optimization of existing organizational resources.

Today's roles	Diversified tasks
Teachers and educators	Education optimization strategists and personalized learning facilitators.
Human resources (HR) professionals	Company culture nurturers, employee developers, and strategic workforce planners.
Marketing and advertising professionals	Marketing optimization strategists, campaign strategists, and creative aspects director.
Financial analysts	Financial strategists, risk managers, and stakeholder relationship managers.
Creatives (designers, writers)	Creative production strategists.
Manufacturing workers	Automated production supervisors and production optimization strategists.
Cybersecurity experts	Cybersecurity strategic planners and novel threat handlers.
Customer service representatives	Customer issue handlers, emotional intelligence officers, and building customer relationships.
Legal professionals	Client integrationists, complex legal analysts, and legal strategists.
Logistics and supply chain professionals	Automated logistics supervisors and supply chain optimization strategists.

Dynamics in needs for labor

#AI reshapes the composition of #Knowledge, skills, and abilities (#KSAs) that are highly valued in the workforce. That development prompts several dynamics such as:

1. Knowledge devaluation. #Assistants and chatbots, as well as #Expert systems are going to degrade the value of worker knowledge. Factual and/or theoretical information of human personnel over time will become less valuable than the data backed by #Persistent scalable memory.
2. Decline in classroom instruction The advent of AI necessitates a reevaluation of training programs. Traditional education models may need to adapt to emphasize skills that are less susceptible to automation. This includes fostering adaptability, continuous learning, and the ability to work with evolving technologies. Training might shift from a one-time event to a continuous and dynamic process throughout one's career.
3. Rise in cross-functional tasks AI's ability to perform routine and repetitive tasks allows humans to focus on more complex, cross-functional, and strategic activities. Workers may be required to collaborate across different disciplines and functions to harness the full potential of AI technologies. This shift encourages a more interdisciplinary approach to work, fostering a broader understanding of various domains.
4. Increase of on-demand training As technology evolves rapidly, on-demand training becomes crucial. Workers may need to update their skills or acquire new ones to keep up with the changing demands of the job market. Online platforms, microlearning modules, and adaptive training programs could become more prevalent, allowing individuals to access relevant training when and where they need it.
5. Uniquely-human skill appreciation. The spread of #AI is increasing demand for authentic creativity, critical thinking, complex problem-solving capacity, and emotional intelligence that machines lack.
6. Sharp demand for AI skills. skills that complement and enhance automated processes.

Strategic leadership

Recognizing the efficiency gains from AI, employers may entrust employees with more significant decision-making responsibilities or leadership roles, empowering them to contribute to the overall strategic direction of the company.

Innovation initiatives

Employees could be encouraged to participate in innovation and creative projects, fostering a culture of continuous improvement and adaptability.

In essence, "expanding job roles" involves making the most of employees' capabilities and the efficiency brought about by AI tools to create a more dynamic and versatile workforce. This approach not only supports the retention of skilled employees but also contributes to the overall growth and resilience of the organization.

This rapid and extensive adaptation to each specific customer is profoundly influencing the interpretation industry globally, with the potential to revolutionize conferencing, education, entertainment, and media sectors.

By strategically allocating these additional tasks, employers can maximize the benefits of AI tools while fostering the growth and development of both individual employees and the organization as a whole.

In these examples, AI serves as a tool to enhance productivity, decision-making, and efficiency, allowing professionals to focus on higher-level tasks that require human creativity, emotional intelligence, and strategic thinking. The transformation of these roles involves collaboration between humans and AI, with each contributing their unique strengths.

It's important to note that while AI may replace certain tasks within jobs, it can also create new job opportunities, especially in the development, maintenance, and oversight of AI systems. Additionally, jobs that require human traits like empathy, creativity, and complex problem-solving are likely to remain in demand. Adaptation, upskilling, and reskilling will be crucial for the workforce to thrive in an increasingly AI-driven world.

- **Supply Chain Optimization:**

 - In logistics and supply chain management, AI-powered systems can use computing power to analyze and optimize complex supply chain networks. Scalable memory supports the storage of extensive data related to inventory, demand, and distribution patterns.

- **Financial Market Analysis:**

 - High computing power enables AI algorithms to process vast amounts of financial data rapidly. Scalable memory allows for the storage of historical market trends, facilitating the identification of patterns that can guide investment decisions.

- **Customer Behavior Analysis:**

 - Businesses can leverage AI to analyze customer interactions, preferences, and purchasing patterns. Computing power helps process real-time data, while scalable memory stores historical customer behavior, enabling businesses to tailor their strategies for improved customer engagement.

optimization

AI, such as intelligent computer tools, enhances performance by reorganizing processes to work more efficiently and rapidly. It proves invaluable to businesses by streamlining operations and cutting costs through clever problem-solving approaches. Optimization lies at the core of AI's capabilities, as it employs mathematical models and algorithms to enhance various processes. Whether it's resource allocation, scheduling, logistics, or overcoming constraints, AI excels at identifying optimal solutions, ultimately boosting efficiency and productivity in problem-solving endeavors.

• Optimizing of infrastructure, traffic flow, and public services to improve urban living conditions and better-designed cities.

Adaptability and ongoing learning will be crucial for individuals seeking to thrive in the evolving job market shaped by AI technologies.

AI systems have the potential to transform or, at least, significantly impact several industries and professions. They are:

Specialties	What #AI will improve
Business operations	AI systems will optimize (a) organizational efficiency and process workflows, (b) workforce management, talent acquisition, and employee engagement, (c) project management, supply chain, and customer relationship management, as well as (d) business intelligence.
Education and training	AI technologies are being used in education for personalized learning experiences, intelligent tutoring systems, and skill development platforms. This can cater to individual learning styles and pace.
Healthcare	AI is transforming healthcare with applications like medical image analysis, predictive analytics, and drug discovery, leading to more accurate diagnoses and personalized treatment plans. Its significant contributions extend to improving patient outcomes in various medical scenarios.
Legal practice	AI systems will be instrumental in (a) analyzing vast amounts of legal documents and providing relevant information for legal research, (b) reviewing documents such as contracts and policies, (c) predicting legal outcomes and providing analytics for case strategies based on historical data, (d) drafting documents, completing forms, and extracting data, (e) ensuring legal compliance and conducting due diligence in various legal processes, and (f) providing basic legal information and guiding clients through simple processes.
Office work	AI systems will be crucial in (a) automating office tasks, (b) supporting collaboration and communication, (c) providing virtual assistance, (d) optimizing workflows, (e) boosting employee productivity, (f) ensuring security and compliance in office-related tasks, especially in handling sensitive information, and (g) re-arranging employee training and development.
Security and fraud detection	AI plays a crucial role in bolstering cybersecurity by real-time detection and prevention of cyber threats. Additionally, it is utilized across various domains, including financial transactions, for identifying patterns associated with fraudulent activities.

In summary, while AI may automate certain tasks, it doesn't diminish the overall value of knowledge. Instead, it necessitates a shift in focus towards skills that are uniquely human. Workers may engage in more cross-functional tasks, and training may become more dynamic, on-demand, and focused on developing a broad set of adaptable skills. The evolving nature of work in the age of AI requires individuals to be proactive in continuous learning and development.

AI system

An #AI system refers to a #System such as a computer, drone, self-driving car, or robot that can perform one or more tasks autonomously, without explicit human command. Some people refer #AI systems to software only and use terms such as #AI-driven systems, #AI-powered systems, or #Intelligent machines to indicate not-only-software systems. However, those terms are often used interchangeably.

Literally, #AI is software. Any software requires hardware, which stands for physical devices that allows for software to run. Any, robotic or non-robotic, #AI system needs (a) #Computing power to compute, (b) #Persistent memory to store #Data, (c) actuators, dashboards, keyboards, sensors, or other #AI peripherals, as well as (d) connectors and wires to connect the system's components.

Besides #AI models and hardware, #AI needs #AI agents, #Algorithms, #Data, and the software to enable those. So, when we say #AI, we often refer to some combination of software and hardware pieces. Depending on the type and complexity of the task, #AI systems can use different combinations of hardware and software components.

AI agent

An AI agent is any software or hardware component of an #AI system that is responsible for:

1. Input data intake through perceiving the system's environment. To collect data, AI agents often have #AI peripherals.
2. System's decision through using algorithms, rules, or machine learning models to analyze the information they receive and make decisions based on that analysis. The decision-making process is typically aimed at achieving a specific goal or solving a particular problem.
3. Output delivery such as taking actions to achieve specific goals. Once an #AI system made a decision, the AI agent takes actions in the environment. This could involve physical actions in the case of a robotic agent or virtual actions in the case of software-based agents.

Based on their level of autonomy and learning capability, AI agents may be divided in (a) reactive agents that follow predefined rules and respond to specific situations without learning from experience and (b) intelligent agents that are capable to learn from experience, adapt their behavior based on feedback, improve performance over time, and/or acquire new knowledge to handle different situations. Intelligent agents are #AI systems on their own.

Algorithms

In the context of #AI systems, #Algorithms are the rules or instructions that #AI systems follows to complete their tasks. In the broader sense, an algorithm is a step-by-step set of directives, procedures, and/or regulations that dictate how a specific task or computation should be performed.

#AI systems normally utilize several #Algorithms. Generally speaking, the more complex #AI system is, the more #Algorithms it tends to utilize. The #Algorithms can be divided in two categories:

1. Those that are used in #Model development.
2. Those that are used in #Inference or making predictions on new, unseen data. The #Inference algorithms, particularly, are used to process data and perform tasks that #End-users prompt.

#Algorithms can be based on logic, optimization, or statistical techniques. Data scientists and engineers who specialize in #AI and #ML design mathematical models, develop learning algorithms, implement them using programming languages, test their predictions, and adjust them based on the testing.

Computing power

In the context of #AI systems, #Computing power refers to the capabilities of the hardware processors that perform the tasks and computations associated with artificial intelligence (AI) applications.

• #Central processing units (#CPUs) are normally used in simple models on small datasets, inference on low-resource devices, non-deep learning algorithms, and demonstrations. Because of their limited number of cores, they are not sufficient in running more complex computations in #AI.
• #Graphics processing units (#GPUs) offer significant advantages in terms of accelerating various AI processes in comparison with #CPUs. #GPUs have hundreds or even thousands of cores, which allow them processing their tasks simultaneously in parallel. Although #GPUs were initially designed for graphics processing, they make early #Deep learning possible. Large-scale models with millions or billions of parameters require more powerful hardware accelerators than #CPUs.
• #Tensor Processing Units (#TPUs) are the newest category of processors in #AI. Google developed them specifically for #Deep learning. However, because of #TPUs' significant costs, they have been only used for some of the most recent and advanced models, such as GPT-4 and CodeLlama.

As of early 2024, the statistics is not available, but it seems that #GPUs are still the most widely used hardware processors for AI computing, followed by #TPUs, which are gaining popularity and adoption. #CPUs are likely to have a very low percentage of AI computing, as they are not efficient or powerful enough for most AI tasks.

In the meanwhile, once trained, any #AI model needs a #Deployment infrastructure to function in real-world applications. Efficient hardware and software #Training infrastructure is necessary for training large-scale AI models. Without the appropriate infrastructure, training times can be prohibitively long, hindering the development process.

Data

In the context of #AI systems, #Data is the raw material that #AI systems use to learn from and make predictions. #Data can be #Structured data (such as categories, labels, or numbers) or #Unstructured data (such as audio, images, or text). #End-user's input such as a #Prompt is a part of #Data as well.

#Persistent memory

Scalable persistent memory

Human memory is not a persistent storage system and is subject to decay and changes over time.

Data intake and storage

Including code, image, text, video, and voice acquisition. AI systems can accept large amounts of data faster and more accurately than humans. For example, AI can identify toys, faces, animals, and even diseases from images. They can also understand and transcribe human speech with high accuracy.

AI model

An #AI model is the knowledge abstraction or representation that makes an #AI system intelligent.

own knowledge abstractions called #AI models.

#Model development

Model architecture

#AI systems often deploy multiple models and their combination is called #Model architecture.

Different models make predictions, classifications, or decisions based on new or unseen data. Some models work with input agents, some do with decision agents, and same work with output agents. For instance, in #GPT,

• A dedicated tokenization model chunks #End-user's request in smaller tokens.
• #Discriminative models process the chunked tokens. One model maps it to a high-dimensional vector, known as a token embedding. Another model adds to this embedding token's position in a prompt, etc.
• Finally, #Generative models are used to generate the output. For instance, one model may suggest the output format, another may so its content, the third may make sure that the output fits the audience, etc.

Any #AI model generalizes its learning from the training data to perform tasks on new, similar data. That way, the models can capture patterns, relationships, or features that are relevant for a specific task or domain.

Workflow of AI system

For example, when a user prompts a #Generative Pre-trained Transformer or #GPT to answer his or her question, this AI system:

1. Transforms the unstructured human prompt, while encoding it into a set of structured machine requests. The machine requests identify the prompted answer format, the topic or topics to address, etc. To create structured requests, the system compares the human request with the prompt dataset.
2. Studies those areas of its large dataset that are relevant to the request. To create that dataset, the system receives the data, usually, an enormous volume of data, in advance. This process is known as pre-training.
3. Generates the response, while selecting most likely words in a most likely sequence from large dataset.

Model development

#Algorithms, both learning and optimization, are integral to creating models in machine learning. Learning algorithms such as ones for #Training, #Evaluation, and/or #Hyperparameter tuning enable models to discover patterns in data. #Optimization algorithms adjust model parameters for optimal performance during training.

Training

During the training phase, an algorithm is employed to optimize the parameters of a model. This involves presenting the model with a dataset, allowing it to learn patterns and relationships within the data. The algorithm adjusts the model's parameters iteratively to minimize the difference between its predictions and the actual outcomes in the training data.

Optimization

Optimization algorithms are often used to fine-tune the parameters of a model to improve its performance. Gradient descent is a common optimization algorithm that adjusts the model's parameters based on the gradient of the loss function with respect to those parameters.

Evaluation

Algorithms are also used to evaluate the performance of models. Metrics such as accuracy, precision, recall, and F1 score are calculated using specific algorithms to assess how well the model generalizes to new data.

Hyperparameter tuning

Algorithms play a role in the process of hyperparameter tuning, where the values of hyperparameters (settings not learned during training) are adjusted to find the optimal configuration for the model.

AI peripheral

In the context of #AI systems, peripheral devices or #AI peripherals enable the system's interaction with the physical world. The peripherals represent the system's hardware beyond their core computing. To interact with the digital world, #AI systems utilize #APIs.

The peripheral devices interface with or connect to #AI agents to facilitate their communication with their their physical environment. End-users of #AI systems use the peripherals to work with these systems.

Input devices

AI input devices enable input from the physical world into #AI systems.

• Manipulators such as buttons, joysticks, keyboards, mouses, steering wheels, etc. enable human manual input into #AI systems. Utilizing those, #End-users may manually input commands, queries, or parameters.
• Sensors such as accelerometers, cameras, microphones, radars, scanners, and etc. enable automatic input into #AI systems.

Output devices

AI output devices enable output from #AI systems into the physical world. To impact the real world, a few devices can be used such as:

• Actuators prompt physical actions of motors, robotic arms, or other mechanisms when #AI systems make such decisions.
• Dashboards and displays (except #Two-way portals) present or display relevant information or insights. Dashboards visually represent data and information in a user-friendly way that allows users to monitor and analyze key metrics or performance indicators. They provide a centralized and easily digestible view of information. Dashboards and displays are not inherently designed for two-way communication, direct interaction, or data input from users. Touch-screen displays and similar devices belong to #Two-way portals.
• Printers: Output devices that produce tangible results based on the AI system's outputs. This could include generating reports, images, or other forms of information.

Two-way portals

Two-way portals are interactive platforms where #End-users can both consume and contribute content. While utilizing interactive websites, collaboration platforms, and customer portals, the users can not only view information, but also actively participate by submitting data, making updates, or engaging in communication.

Key concepts of AI

AI concepts overlap; advancements in one area can benefit others. AI is a rapidly evolving field, and new concepts and interdisciplinary approaches continue to emerge.

Computer vision

#Computer vision involves the use of algorithms and artificial intelligence to enable computers to interpret and understand visual information from the world, typically through images or videos. It can be employed for various tasks, including object recognition, image classification, facial recognition, and even autonomous navigation for vehicles.

Deep learning

#Deep learning is a subset of machine learning that involves neural networks with multiple layers (deep neural networks) to automatically learn hierarchical representations of data. It excels in tasks such as image and speech recognition, natural language processing, and complex pattern recognition, enabling systems to automatically extract intricate features and make high-level abstractions from raw input data.

Expert systems

#Expert systems emulate human expertise by using a knowledge base and a set of rules to make decisions or solve problems within a specific domain. They can be applied in areas such as diagnosis, decision-making, and troubleshooting, providing intelligent solutions by mimicking the decision-making process of human experts.

Fine-tuning

#Fine-tuning in machine learning involves adjusting pre-trained models to better suit specific tasks or datasets, leveraging existing knowledge for improved performance in specialized applications such as image classification or natural language processing. It allows for optimization without starting the training process from scratch, making it a valuable technique for enhancing model efficiency and effectiveness.

Machine learning

#Machine learning is a subset of artificial intelligence that involves the use of algorithms to enable computers to learn patterns and make predictions or decisions from data without explicit programming. It can be applied to various tasks, including image recognition, recommendation systems, and predictive analytics, allowing systems to improve their performance over time through experience with new information.

Machine learning is a specific approach within the field of AI that involves creating algorithms and models that enable machines to learn patterns and make decisions without being explicitly programmed.

Natural language processing

#Natural language processing (#NLP) involves the use of computational algorithms to analyze and understand human language, allowing computers to interpret, generate, and respond to text or speech. NLP can be applied to tasks such as sentiment analysis, language translation, and chatbot development, enabling machines to interact with and comprehend human communication.

Neural networks

#Neural networks are computational models inspired by the human brain's structure, composed of interconnected nodes organized into layers. They can learn complex patterns from data, making them versatile for tasks such as image and speech recognition, natural language processing, and solving intricate problems across various domains.

Reinforcement learning

#Reinforcement learning is a machine learning paradigm where an agent learns to make decisions by interacting with an environment and receiving feedback in the form of rewards or penalties. It can be applied to tasks such as game playing, robotic control, and optimization problems, enabling systems to learn optimal strategies through trial and error.

Robotics

#Robotics involves the design, creation, and operation of robots, which are autonomous or semi-autonomous machines capable of performing tasks in the physical world. Robotics can be applied in various fields, including manufacturing, healthcare, exploration, and logistics, to automate processes, assist humans, and execute complex operations in environments that may be hazardous or impractical for humans.

Supervised learning

#Supervised learning is a machine learning paradigm where the algorithm is trained on a labeled dataset, meaning it learns from input-output pairs to make predictions or classifications on new, unseen data. It can be applied to tasks such as spam detection, image recognition, and speech recognition, where the algorithm generalizes patterns from known examples to make accurate predictions on new instances.

Discriminative AI

#Discriminative AI refers to #Discriminative models. They are designed to (a) classify input data and/or (b) predict an outcome based on input data.

Acknowledged speech

#Discriminative models can acknowledge spoken language and convert it into text. Speech recognition systems learn to map audio features to words or phrases, making them useful in applications like virtual assistants and transcription services.

Classified code or text

#Discriminative models can categorize topics, classify scripts, both code and text, detect spam, and analyze sentiments in #Natural language processing (#NLP).

Detected activity

#Discriminative models can detect activities in cybersecurity, finance, and retail by analyzing patterns, anomalies, and trends in data to identify and categorize different cyber threats, financial transactions, and consumer behaviors. To detect fraud, these models learn patterns of normal behavior and can identify deviations that may indicate fraudulent transactions.

Diagnosed condition

#Discriminative models can classify symptoms, diagnose medical conditions, and predict patient outcomes based on medical images and other patient's data. #Convolutional neural networks (#CNNs) are often employed for classification tasks performed on #Recognized images in healthcare, helping radiologists and clinicians with diagnostics.

Recognized image

#Image recognition, a subset of #Computer vision, involves using artificial intelligence to interpret and understand the content of images. Besides recognizing faces, gestures, and illustrations, image recognition can be used to:

• Analyze satellite image in agriculture for crop monitoring, urban planning for infrastructure development, and environmental monitoring for assessing changes in ecosystems.
• Convert handwritten characters or words into digital formats.
• Detect unusual activities in finance and security, irregular changes, unauthorized objects in secure areas, tumors in medical images such as MRI, CT scans, etc..
• Identify defects, anomalies, or inconsistencies in products either in manufacturing or maintenance via automated optical inspection (AOI).
• Scan barcodes and QR codes. This is commonly used in retail for product identification, ticketing systems, and inventory management.
• Tag people automatically in social media photos.
• Track customer movements and behaviors within a store, providing insights into customer preferences and helping retailers optimize store layouts and product placements.

Image recognition often include #Object detection as a specific task within its scope; while image recognition generally refers to identifying and categorizing objects or patterns in images, object detection specifically involves locating and delineating individual objects within an image. Obviously, before an object can be recognized, it should be detected.

Generative AI

#Generative AI refers to #Generative models that can create new content, script, etc. Two primary approaches are the following.

New object synthesis

AI-powered new object synthesis involves generating new content, text, code, image, etc. from scratch in order to create #Synthesized objects.

Feature transfer

AI-powered feature transfer involves application of existing features of one objects to different objects in the context of generative AI in order to apply #Transferred features.

Transferred features

AI-powered feature transfer refers to the process of applying the behaviors, style, nonverbal communications, and/or other features of one object to another while preserving the content of the second object. In feature transfer, the model extracts specified features from one object and applies them to another.

This process can also be called "neural feature transfer." The terms such as "style transfer", "nonverbal cues transfer", etc. can describe specific processes.

Deepfake

#Deepfakes are realistic forgeries combining #Generated image, #Generated video, and/or #Synthesized speech. StyleGAN (Generative Adversarial Network) is one of the leading companies that specialize in those applications.

Transferred artistic style

#Neural style transfer involves using a pre-trained convolutional neural network to blend the content of one image with the style of another. Challenges include computational costs, potential artifacts in generated images, and the need for careful parameter tuning to achieve visually pleasing results.

Transferred nonverbal cues

#Deep Video Portraits is a technique that enables photo-realistic re-animation of portrait videos using only an input video. It manipulates or synthesizes video content with a focus on accurately transferring facial expressions and movements from one person to another in a video. It has applications in video editing, movie post-production, visual effects, visual dubbing, virtual reality, and telepresence.

Synthesized objects

AI-powered synthesis involves creating entirely new code, image, text, sound, video, or even entire pieces of art from scratch. In this case, "scratch" refers to the #AI models that are created as a result of #Training.

Challenges in AI generation encompass avoiding inaccuracies, biases, and ethical concerns, whether in text, images, videos, music, or speech. Key hurdles include ensuring realism, coherence, and addressing potential biases in training data for responsible and inclusive generation across diverse domains.

Generated code or text

AI script generators are constructed using deep learning architectures like #Recurrent neural networks (#RNNs) or transformers, trained on diverse code and/or textual datasets. As of early 2024, the leading script generators are OpenAI's GPT Models (ChatGPT-3 and ChatGPT-4), Google's Bard, and HummingFaces.

Generated image

AI image generators are typically constructed using deep neural networks, such as #Generative adversarial networks (#GANs) or #Variational autoencoders (#VAEs), trained on extensive datasets of images. Some image generators are designed to generate images from textual descriptions. For instance, you could ask DALL-E to generate images of "a one-story blue house shaped like a flower." As of early 2024, the leading image generators are OpenAI's DALL-E, Google's DeepDream, and Midjourney.

Generated video

AI video generators are built using deep learning techniques, particularly through the utilization of #Generative models such as #Generative adversarial networks (#GANs) or #Variational autoencoders (#VAEs) trained on large datasets of videos.

Synthesized music

AI music generators are built using machine learning algorithms, often employing techniques such as Recurrent neural networks (#RNNs) or transformer models trained on vast datasets of musical compositions. As of early 2024, the leading music generator is OpenAI's MuseNet.

Synthesized speech

Speech synthesis, also known as #Text-to-speech (#TTS), is a technology that converts written text into spoken words. AI speech generators are built using deep learning techniques, particularly with #Recurrent neural networks (#RNNs) or #Transformer models, trained on large datasets of human speech.

Assistants and chatbots

Chatbots are applications that use natural language processing (NLP) and machine learning to engage in conversations with users. They find applications in customer support, information retrieval, and various other domains. Here are a few examples of chatbot implementations:

1. **Customer Support Chatbots:**

  - Many companies use chatbots to provide instant support to customers on their websites. These chatbots can answer frequently asked questions, troubleshoot common issues, and guide users through various processes. For example, a chatbot on an e-commerce site might help users track orders or find product information.

2. **Virtual Assistants:**

  - Virtual assistants like Apple's Siri, Google Assistant, and Amazon's Alexa are examples of chatbots that assist users with tasks and answer questions. They can perform actions based on voice commands or text inputs, such as setting reminders, sending messages, or providing weather updates.

3. **Healthcare Chatbots:**

  - Healthcare chatbots can assist users in finding information about symptoms, scheduling appointments, or understanding medication instructions. They are designed to provide preliminary information and guidance. For instance, a healthcare chatbot might ask about symptoms and provide general advice based on the user's responses.

4. **Education and Training:**

  - Chatbots can be used in educational settings to provide information, answer questions, and even assist with learning exercises. They can act as virtual tutors or help users navigate educational resources. Duolingo, for example, uses a chatbot to simulate conversations for language learners.

5. **HR and Recruitment Chatbots:**

  - Chatbots can streamline the recruitment process by engaging with job candidates, answering queries about job openings, and collecting initial information. They can also assist employees with HR-related inquiries. For example, a chatbot might help employees understand company policies or request time off.

6. **Finance and Banking Chatbots:**

  - Chatbots in the financial industry can assist users with tasks like checking account balances, transferring funds, or getting information about recent transactions. They can also provide financial advice or answer queries about banking services.

7. **Social Media Chatbots:**

  - Some businesses use chatbots on social media platforms to engage with customers. These chatbots can provide information about products, assist with purchases, or address common inquiries. Facebook Messenger, for example, supports chatbots for business pages.

8. **Entertainment and Gaming:**

  - Chatbots are used in gaming and entertainment platforms to enhance user experience. They can provide game-related information, tips, and even engage in interactive storytelling. Additionally, chatbots can simulate conversations with fictional characters.

9. **Legal Assistance Chatbots:**

  - Chatbots can provide basic legal information, guidance on legal processes, and help users understand their rights. They are not a substitute for legal professionals but can offer preliminary assistance. For instance, a legal chatbot might help users generate simple legal documents.

These examples demonstrate the versatility of chatbots across different industries and use cases. Chatbots continue to evolve with advancements in natural language processing and machine learning, providing more sophisticated and user-friendly interactions.

7. **Interactive Art: AI Dungeon**

  - AI Dungeon is an example of an interactive storytelling application. It uses a generative language model to respond dynamically to user inputs, creating a unique and evolving narrative based on user choices. It demonstrates how generative AI can be applied to create interactive and personalized experiences.

These examples showcase the diversity of generative AI applications across different domains. It's important to note that while generative AI has the potential for creativity and innovation, it also poses challenges related to ethics, bias, and the responsible use of technology.

Accessibility enablers

  - Operating systems, such as Windows, macOS, iOS, and Android, incorporate built-in speech synthesis features to assist users with visual impairments. These features read aloud text displayed on the screen, enabling visually impaired users to access information.

Accessibility in Websites and Apps:**

  - Websites and applications often integrate speech synthesis features to make content accessible to users with visual impairments or those who prefer audio content. This can include reading aloud articles, blog posts, or other textual information.

Voice assistants

  - Voice assistants like Amazon Alexa, Google Assistant, and Apple's Siri use speech synthesis to respond to user queries. These systems can provide information, answer questions, and perform various tasks by converting text responses into natural-sounding speech.

  - GPS navigation systems use speech synthesis to provide turn-by-turn directions. The synthesized voice guides drivers and pedestrians, making it easier to navigate without having to look at a screen.

Interactive Voice Response (IVR) Systems

  - Many customer service and helpline systems use speech synthesis to interact with callers. These systems can provide information, guide users through menu options, and offer assistance without the need for a human operator.

Call Center Automation:**

   - Speech synthesis is integrated into automated call center systems to deliver pre-recorded information or responses. This helps manage call volume and handle routine inquiries without the need for human operators.

Voice Banking:**

   - Speech synthesis is utilized in voice banking applications that allow individuals to create personalized synthetic voices. This is particularly beneficial for people facing conditions that may impact their ability to speak, preserving their voice for future use.

Smart Home Devices:**

  - Smart home devices, like smart speakers and connected appliances, use speech synthesis for communication. These devices can provide feedback, confirm actions, or deliver status updates using synthesized speech.

Language translators

  - Language translation services, such as Google Translate, use speech synthesis to convert translated text into spoken words. Users can listen to the translated content to better understand pronunciation and intonation.

AI Ethics

ethical issues related to AI

Bias

Discuss and explain why it matters and how it can be addressed.

Privacy

Discuss and explain why it matters and how it can be addressed.

Accountability

Discuss and explain why it matters and how it can be addressed.

Transparency

Discuss and explain why it matters and how it can be addressed.

How ChatGPT works

While being prompted, "Answer in a way that a kid can understand", an #AI system looks for those texts that are created by children or for children rather than is trying to find explicit instructions for that specific case.

ChatGPT, like other models in the GPT (Generative Pre-trained Transformer) family, is based on a transformer architecture. Here's a simplified overview of how ChatGPT works:

   Pre-training: ChatGPT is initially pre-trained on a large corpus of diverse text from the internet. During pre-training, the model learns to predict the next word in a sentence based on the context of the preceding words. This process helps the model learn grammar, facts, reasoning abilities, and even some level of world knowledge.

   Architecture: The underlying architecture of ChatGPT is the transformer architecture. Transformers use self-attention mechanisms to weigh the significance of different words in a sentence, allowing the model to capture long-range dependencies in the input data.

   Fine-tuning: After pre-training, the model can be fine-tuned on specific tasks or datasets. In the case of ChatGPT, it may be fine-tuned on conversational data to improve its performance in generating human-like responses in a chat setting.

   Prompt-based Interaction: When you interact with ChatGPT, you provide a prompt or a series of prompts, and the model generates a response based on its learned patterns from the pre-training data. The model doesn't have access to real-time data but relies on its pre-existing knowledge up to its last training cut-off.

   Response Generation: The model generates responses by sampling or selecting the most likely next word based on its learned probabilities. The generated responses aim to be contextually relevant and coherent based on the input prompt.

It's important to note that while ChatGPT can generate contextually relevant responses, it doesn't have a deep understanding or awareness of the world. It operates based on patterns learned during training and doesn't possess consciousness or true comprehension.

OpenAI may continue to update and improve models like ChatGPT over time, refining their capabilities and addressing limitations.

Critical skills

Using ChatGPT effectively requires a set of critical skills to maximize the value and obtain accurate, relevant, and meaningful information. Here are some skills and considerations for a ChatGPT user:

1. **Clear Communication Skills:**

  - Articulate your questions or prompts clearly and concisely.
  - Use proper grammar and syntax to enhance understanding.

2. **Domain Knowledge:**

  - Possess knowledge about the subject matter you're discussing to guide the conversation effectively.

3. **Context Management:**

  - Provide context for your questions to help ChatGPT understand the specifics of your inquiry.
  - Refer back to previous messages to maintain context and coherence.

4. **Prompt Iteration:**

  - Be prepared to iterate and refine your prompts based on the model's responses.
  - Experiment with different phrasings to get the desired output.

5. **Critical Thinking:**

  - Evaluate the responses critically. Not all responses may be accurate or suitable.
  - Cross-check information when applicable, especially for critical or sensitive topics.

6. **Awareness of Model Limitations:**

  - Understand the limitations of the model. It may not have the most up-to-date information, and it might generate plausible-sounding but incorrect answers.

7. **Patience:**

  - Be patient, especially if the model provides incomplete or unclear responses.
  - Experiment with breaking down complex questions into simpler ones for better results.

8. **Ethical Considerations:**

  - Be mindful of the ethical use of the technology. Avoid generating harmful or inappropriate content.

9. **Technical Literacy:**

  - Understand the basics of how the model works to tailor your prompts effectively.
  - Be aware of potential biases in the model's responses.

10. **Adaptability:**

   - Be flexible in your approach. Adjust your questions or prompts based on the feedback from the model.

11. **Data Privacy Awareness:**

   - Avoid sharing sensitive personal information as the model might generate inappropriate responses.

12. **Feedback Utilization:**

   - Use the feedback provided by the model to guide subsequent prompts and improve the conversation.

13. **Learning Orientation:**

   - Continuously learn from the interactions with the model to enhance your skills over time.

14. **Experimentation:**

   - Explore different ways to structure your queries to understand the model's capabilities better.

Remember, while ChatGPT is a powerful tool, it's not perfect, and user engagement plays a crucial role in obtaining the desired outcomes. The more effectively you communicate with the model, the more useful and accurate the responses are likely to be.

Tricks

To get the most out of ChatGPT, users can employ certain tricks and strategies to enhance the quality of interactions and obtain more relevant and coherent responses. Here are some primary tricks:

1. **Experiment with Prompt Phrasing:**

  - Try rephrasing your prompts to see if you can get more accurate or detailed responses. Experimentation is key.

2. **Provide Context:**

  - Give sufficient context in your prompts, especially when asking complex or multi-part questions. This helps the model understand the specifics of your inquiry.

3. **Specify the Format:**

  - If you want information in a specific format (e.g., bullet points, a summary), explicitly mention it in your prompt.

4. **Use System Messages:**

  - Guide the model's behavior by using system-level instructions. For example, you can start your prompt with "You are an assistant that knows..." to set the context.

5. **Break Down Complex Queries:**

  - If your question is complex, consider breaking it down into simpler sub-questions. This can help the model provide more focused and accurate responses.

6. **Iterate and Refine:**

  - If the initial response is not what you're looking for, iterate and refine your prompts based on the model's output to guide it towards the desired information.

7. **Ask the Model to Think Step by Step:**

  - Request the model to think through a problem or provide information step by step. This can lead to more structured and detailed responses.

8. **Specify the Source of Information:**

  - Ask the model to generate responses as if it were a specific person or entity. For example, "Can you respond as if you were a historian?"

9. **Use Temperature and Max Tokens:**

  - Experiment with the model's temperature setting (higher values for more randomness, lower values for more determinism) and max tokens to control the length of responses.

10. **Leverage the Feedback System:**

   - Use the model's feedback feature to provide feedback on problematic outputs. This helps fine-tune the model and improves its performance over time.

11. **Handle Ambiguity Explicitly:**

   - If your question has ambiguous elements, explicitly specify your assumptions or ask the model to make certain assumptions before answering.

12. **Check for Consistency:**

   - If you're asking the model to generate a list or set of responses, check for consistency across the generated content.

13. **Use External Tools:**

   - If needed, use external tools or resources to fact-check or verify information provided by the model.

14. **Be Mindful of Sensitive Topics:**

   - Avoid asking the model to generate content that is inappropriate, offensive, or harmful.

Remember that while ChatGPT is a powerful language model, it has limitations, and user guidance is crucial for obtaining desired results. These tricks can help users navigate and make the most of their interactions with the model.

Prompts

The effectiveness of prompts in ChatGPT depends on the specific task or information you're seeking. However, here are some general prompt strategies that can be useful across various contexts:

1. **Open-Ended Questions:**

  - Start with an open-ended question to prompt a more detailed and informative response. For example, "Can you explain..." or "What are the key factors influencing..."

2. **Context Setting:**

  - Begin your prompt by providing context. For example, "In the context of [topic], can you provide information about..."

3. **Comparisons:**

  - Ask the model to compare or contrast different concepts, ideas, or approaches. For example, "Compare the advantages and disadvantages of..."

4. **Step-by-Step Thinking:**

  - Request the model to think through a problem or process step by step. For example, "Can you walk me through the process of..."

5. **Creative Writing:**

  - If you're looking for creative or imaginative responses, frame your prompt in a way that encourages storytelling or creative thinking.

6. **Ask for Pros and Cons:**

  - Solicit the pros and cons of a particular idea, solution, or approach. For example, "What are the advantages and disadvantages of..."

7. **Specify the Format:**

  - If you want information in a specific format, specify that in your prompt. For instance, "Provide a list of..." or "Summarize in three key points..."

8. **Role Play:**

  - Ask the model to respond as if it were a specific character, historical figure, or expert in a particular field. This can add a creative dimension to the responses.

9. **Socratic Questioning:**

  - Pose a series of questions to guide the model's thinking and encourage a more thoughtful response.

10. **Source-Based Queries:**

   - Ask the model to generate responses as if it were a specific source (e.g., a book, article, or person). For example, "Respond as if you were an expert on..."

11. **Clarification Requests:**

   - If the initial response is unclear, ask the model to clarify or provide more details on a specific point.

12. **Ask for Predictions:**

   - Request the model to make predictions about future trends, developments, or outcomes. For example, "What do you think will happen in the next decade regarding..."

13. **Explain Like I'm 5 (ELI5):**

   - Ask the model to explain complex topics in a simple and understandable manner, as if explaining it to a child.

14. **Challenge the Model:**

   - Encourage the model to think critically or consider alternative viewpoints. For example, "What might be the counterarguments to..."

15. **Use System Messages:**

   - Provide high-level instructions in system messages to guide the model's behavior. For example, "You are a helpful assistant with knowledge about..."

Remember to iterate on your prompts, refine them based on the model's responses, and experiment with different phrasings to achieve the desired outcome. The effectiveness of prompts often depends on the context and the specific information or task you're interested in.

Prompt vocabulary

When interacting with ChatGPT, you can use a variety of prompts and instructions to get the most useful and relevant responses. Here are some tips and useful words you can incorporate into your prompts:

1. **Specify the Format:**

  - "Provide a detailed explanation of..."
  - "List the steps to..."
  - "Summarize the key points of..."

2. **Ask for Clarification:**

  - "Can you elaborate on..."
  - "What do you mean by..."
  - "Please clarify..."

3. **Set the Tone:**

  - "Explain in a simple language..."
  - "Give a technical overview of..."
  - "Provide an example of..."

4. **Request Comparisons:**

  - "Compare and contrast..."
  - "Highlight the differences between..."
  - "Examine the similarities of..."

5. **Ask for Pros and Cons:**

  - "What are the advantages and disadvantages of..."
  - "Discuss the pros and cons of..."
  - "Evaluate the strengths and weaknesses of..."

6. **Define Parameters:**

  - "In the context of..."
  - "Considering the factors like..."
  - "With respect to..."

7. **Request Examples:**

  - "Can you give an example of..."
  - "Illustrate with a scenario where..."
  - "Provide a case study for..."

8. **Specify Time Frame:**

  - "Historically, how has..."
  - "In recent times, what changes have occurred in..."
  - "Looking into the future, what can we expect for..."

9. **Quantify or Qualify:**

  - "To what extent does..."
  - "How much impact does..."
  - "In what way does..."

10. **Ask for Opinions or Recommendations:**

   - "What is your opinion on..."
   - "Suggest strategies for..."
   - "Recommend best practices for..."

11. **Explore Causes and Effects:**

   - "What are the causes of..."
   - "How does [A] impact [B]..."
   - "Examine the effects of..."

12. **Discuss Implications:**

   - "What are the implications of..."
   - "Explore the consequences of..."
   - "Consider the impact on..."

13. **Request a Step-by-Step Guide:**

   - "Can you provide a step-by-step guide for..."
   - "Walk me through the process of..."
   - "Outline the necessary steps to..."

14. **Ask for Sources or Citations:**

   - "Are there any studies that support..."
   - "Can you provide references for..."
   - "Where can I find more information about..."

15. **Invite Creativity:**

   - "Imagine a scenario where..."
   - "What innovative solutions can you suggest for..."
   - "In a hypothetical situation, how would you address..."

Remember, the more specific and clear your prompts are, the more likely you are to receive helpful and relevant responses from ChatGPT.

Prompt generators

ChatGPT prompt generators are tools that help you create effective and engaging prompts for ChatGPT, a conversational AI model based on OpenAI’s GPT-4. ChatGPT prompt generators can help you customize your interaction with ChatGPT by setting a specific role, tone, style, and objective for the response.

Some of the best ChatGPT prompt generators that I found on the web are:

ChatGPT Prompt Generator | Welcome AI: This tool lets you experiment with different prompts for ChatGPT by providing some context and your goal or objective. It also follows OpenAI’s best practices for prompt design. ChatGPT Prompt Generator | Prompt Advance: This tool allows you to enforce the style of the response by choosing from a list of predefined roles, such as friend, teacher, coach, etc. It also lets you copy the prompt with one click. AI ChatGPT Prompt Generator | Taskade: This tool uses OpenAI’s GPT-4 model to generate engaging prompts based on your specified inputs. You can also adjust the temperature and top-k parameters to control the randomness and diversity of the response.

Prompt parameters

The term "prompt parameters" typically refers to the instructions or input provided to ChatGPT in order to generate a response. When interacting with ChatGPT, the input prompt is crucial in shaping the nature and content of the AI's output. The parameters can include the style of language, the level of detail required, the context for the response, and any specific instructions or constraints you want the model to follow.

Here's an example of how you might structure a prompt with parameters:

Without Specific Parameters:

   Prompt: "Tell me about climate change."

With Specific Parameters:

   Prompt: "Provide a concise overview of the causes and effects of climate change, focusing on the last decade. Include potential solutions and their implications."

In the second example, the parameters are more explicit, guiding the AI to deliver a response that meets specific criteria. The parameters help in obtaining more tailored and useful information from the AI.

It's important to note that while ChatGPT can understand and respond to a wide range of prompts, the clarity and specificity of your input can significantly influence the quality of the generated output. Experimenting with different parameters and refining your prompts can help you get the desired results.

Prompt techniques

Although I am familiar with Hugging Face's Transformers library, I don't have direct experience with HuggingChat. However, I can provide some suggestions for utilizing prompts effectively when working with similar conversational AI models within the Hugging Face ecosystem. These "prompt tricks" could help improve interactions with HuggingChat:

1. Contextual Prompting: Provide sufficient context before asking questions or giving input. This helps prime the model and ensures generated outputs consider previous information provided. For example: ```makefile <context>: Once upon a time, there were three little pigs who decided to build houses made of straw, sticks, and bricks respectively. A big bad wolf came... <query>: What did each pig do differently regarding building materials? ``` 2. Role Assignment: Define roles explicitly at the beginning of the interaction. This allows the model to understand its position and respond accordingly. Example: ```less System: You will now act as Shakespearean character Hamlet. User: Who art thou speaking to, dear friend? Assistant: To thine own self be true, good sir! ``` 3. Task Definition: Specify the task clearly so that the model understands how to react appropriately. Examples include Question Answering, Summarization, Sentiment Analysis, etc. Here's one for QA: ```markdown Question: Which American president appears on Mount Rushmore? Context: Four presidents—George Washington, Thomas Jefferson, Theodore Roosevelt, and Abraham Lincoln—are immortalized on Mount Rushmore. Answer: George Washington, Thomas Jefferson, Theodore Roosevelt, and Abraham Lincoln appear on Mount Rushmore. ``` 4. Scaffolding Technique: Break down complex queries into smaller sub-questions or steps. This approach makes it easier for the model to handle intricate requests. Example: ```python Query_Part1: Can you summarize chapter 5 of 'The Catcher in the Rye?' <summarization> Query_Part2: Now, please analyze Holden's emotional state described in the summary. <analysis> ``` 5. Error Handling & Repair: If unsatisfied with the response, rephrase the query instead of repeating verbatim. This encourages the model to look at the problem from another perspective. Example: ```vbnet Original Query: Please explain quantum physics briefly. Unsatisfactory Response: Quantum mechanics deals with atomic particles' behavior. Rephrased Query: Could you give me a concise overview of quantum theory concepts like superposition and entanglement? ``` These strategies should generally work well across different conversational AI models built on top of the Hugging Face Transformers library, including HuggingChat. Adapt them according to your particular needs to optimize interactions with the model.

Parameters

ChatGPT prompts can have various parameters that affect the quality and style of the generated responses. Some of the common parameters are:

length: This parameter controls the length of the response, measured in number of tokens or words. You can adjust this value to ensure the output is neither too short nor too lengthy. top_p: This parameter controls the diversity of the response, by filtering out low-probability words. Higher values lead to more diverse responses, while lower values generate more conservative and predictable responses. frequency_penalty: This parameter affects the likelihood of generating words that have already been used in the response. Higher values result in more varied responses, while lower values lead to more repetitive responses. presence_penalty: This parameter penalizes the likelihood of generating words that are not present in the input prompt. Higher values result in more relevant responses, while lower values lead to more irrelevant responses. stop_sequence: This parameter specifies a sequence of words that ChatGPT should avoid generating in its response. You can use this parameter to prevent the generation of inappropriate or sensitive content, or to maintain the focus of the conversation. You can learn more about these and other parameters from these sources:

Mastering ChatGPT Prompts: A Guide to Using Parameters by Bruce Lim How to Prompt ChatGPT - A Helpful Guide by allPrompts How To Write ChatGPT Prompts: Your 2024 Guide by Coursera 195 ChatGPT Prompts (& How to Write Your Own) by Semrush

Conclusion

Summarize the main points of the training, highlight the benefits and limitations of AI, and encourage the participants to explore more AI resources and opportunities.

Courses

(1) Artificial Intelligence Fundamentals Certificate | ISACA. https://www.isaca.org/credentialing/artificial-intelligence-fundamentals-certificate. (2) 18 Best Free AI Training Courses for 2023: Build Skills Now - Tech.co. https://tech.co/news/best-free-ai-training-courses. (3) Generative AI for Everyone | Coursera. https://www.coursera.org/learn/generative-ai-for-everyone. (4) Introduction to Artificial Intelligence (AI) | Coursera. https://www.coursera.org/learn/introduction-to-ai. (5) How to Learn Artificial Intelligence: A Beginner’s Guide. https://www.coursera.org/articles/how-to-learn-artificial-intelligence.

https://github.com/f/awesome-chatgpt-prompts https://promptbase.com/

Key terms

Inference

Once trained, the model uses an inference algorithm to make predictions on new, unseen data. This involves applying the learned patterns and relationships to generate output based on input features.

The inference algorithms, particularly, are used to process data and perform tasks that #End-users prompt.

Intelligent machine

An intelligent machine refers to a device or system that possesses the ability to perform tasks that typically require human intelligence. This includes capabilities such as learning from experience, adapting to new situations, understanding natural language, solving complex problems, and making decisions.

Intelligent machines can take various forms, ranging from simple algorithms and rule-based systems to advanced artificial intelligence (AI) systems that utilize machine learning, deep learning, and other sophisticated techniques. These machines can be designed to perform specific tasks, such as image recognition, language translation, playing strategic games, or even driving vehicles.

The level of intelligence in a machine can vary, and it's often categorized into narrow or weak AI, which is designed for a specific task, and general or strong AI, which would have the ability to perform any intellectual task that a human being can. As of my last knowledge update in January 2022, we have achieved significant progress in narrow AI applications, but the development of general AI remains a complex and ongoing challenge.

Training infrastructure

Efficient hardware and software infrastructure are necessary for training large-scale AI models. Without the appropriate infrastructure, training times can be prohibitively long, hindering the development process.

Deployment infrastructure

Once trained, #AI models need a robust deployment infrastructure to function in real-world applications. This includes considerations for scalability, reliability, and integration with existing systems.