Reason, Emotion, and AI

Human intelligence has always been an inspiration for artificial intelligence. For example, early work in artificial neural networks was inspired by the interconnected axons and dendrites found in biological brains. 

Human intelligence also inspires the tasks AI researchers use to benchmark their machines: tasks are defined that require human intelligence, then researchers attemp to build machines that can perform those tasks. AI has progressively matched or out -performed humans in tasks such as chess, Go, and language translation.

Does this progress in AI mean machines are getting ‘smarter’, in the sense of being closer to having human intelligence? I would say ‘No’. Others would say skeptics like me just keep moving the goal post by saying “Anything a machine can do can’t be intelligence, it’s just code!”

But let’s look at human intelligence. It involves a lot more than the kind of skills demonstrated by a chess grandmaster in a championship game. Although chess mastery is a demonstration of exceptional human intelligence, this skill represents a narrow slice of the grandmaster’s intelligence, the totality of which relies on a complex cognitive architecture shared by all humans. Emotions are part of that architecture.

Emotions are often framed as the antithesis of intelligence and a human weakness. In the 1951 science fiction movie classic ‘The Thing from Another World’, a scientist, Dr. Carrington, marvels at the superiority of an alien mind: ‘No pleasure, no pain… no emotion, no heart. Our superior in every way’. Modern commentators cast our society as minds manipulated by social media, embracing conspiracy theories in the service of anger and resentment, at the expense of reason.

It is true that immense human progress has been made through science and reason, and emotions can stir up real troubles. However, it is clear that reason and emotion work hand-in-hand. Humans wouldn’t have evolved that way if emotions weren’t an essential part of our survival.

So, what role does emotion play in human intelligence? It provides essential context and motivation behind conscious analytical problem solving. It is the reason the chess grandmaster acquired her skill to begin with, and the architect of the path that led her there. The grandmaster’s skilled game play is just the tip of the iceberg. The intelligence required to create that highly specialized, analytical skill, in a brain evolved to survive in the broad context of human life, is truly awesome, and far beyond the rote learning of a deep neural network.

What role does emotion play in AI? There is a branch of AI called Emotion AI, which seeks to develop AIs that recognize and respond to human emotion. While this line of work benefits human – AI collaboration (and unfortunately, manipulation), in my view it doesn’t get at the essential role of emotions in human intelligence.

It’s not that AIs need to be able to ‘feel’ emotions to have human-like intelligence. Instead, AI problem solving would need to incorporate the immense informational context represented by human emotions. Emotions represent lifetimes of experience living embodied in the real world, incorporating a comprehensiveness and appreciation of causality and common sense that has been unmatched so far in AI.

AI Emergency Management

AI and Emergency Management

Artificial Intelligence has found application in many areas, where its particular ability to find patterns in data makes it a useful tool. Let’s look at AI’s application to Emergency Management, a critical activity in today’s world of climate change, pandemics, and social unrest.

Emergency Management seeks to minimize the impact, on people and property, of emergencies such as earthquakes, hurricanes, floods, disease, and terrorism. EM involves four kinds of interrelated and sometimes overlapping activities:

  1. Mitigation (also called Disaster Risk Reduction) – steps taken to reduce the likelihood (e.g., forest management to reduce wildfire risk) or reduce impact (flood protection levies) of emergencies
  2. Preparation – equipping responders and the public with tools and knowledge that will minimize emergency impacts. Examples include stockpiling personal protective equipment for pandemics, and training Community Emergency Response Teams
  3. Response – actions taken during an emergency or in its aftermath, to prevent further suffering or financial loss. International relief efforts after a devastating earthquake are an example of this, as is medical care for the victims of a pandemic
  4. Recovery – work to return communities back to ‘normal’ after an emergency, for example rebuilding destroyed structures or re-opening a shut down economy.

Deep neural networks, currently a leading edge of AI, map patterns in data to useful interpretations of the data, such as the condition of a building, the likelihood of a flood, or the best evacuation route. This kind of information can be very useful for the planning, prediction, situation assessment, and decision making that are at the heart of Emergency Management.

Here are some examples of AI’s use in the four kinds of EM activity:


Mitigation seeks to reduce the risks associated with emergencies and disasters. Two ways this can be done are by recognizing human-made dangers and reducing them, or by predicting dangerous natural phenomena in time for actions to be taken to reduce their impact.

Poor urban areas are especially vulnerable to disasters and poverty data is in scare supply and difficult to collect. Researchers at Oak Ridge National Laboratory in the US have developed a AI-based technique to identify poor, informal settlements from high-resolution satellite imagery. Their approach uses a variety of spatial, structural, and contextual features to classify areas as formal, informal, and non-settlement classes. The method was tested in Caracas, Kabul, Kandahar, and La Paz, and demonstrated that good accuracy could be obtained using the same features in these diverse areas.

El Niño is a climate phenomenon that disrupts normal weather, leading to intense storms in some areas and droughts in others. It happens at irregular intervals of two to seven years, and lasts nine months to two years. The farther in advance an El Niño event can be predicted, the better a region can prepare for it. Recently deep neural networks have been able to forecast El Niño 18 months in advance, which is an improvement of 6 months over previously used methods.

In California, two high school students invented a device to predict the probability of a forest fire occurring. The device is placed in the forest and takes real-time photographs together with measurements of humidity, temperature, carbon monoxide/dioxide, and wind. This data is then used with a deep neural network to predict the probability of a fire.


A primary responsibility of emergency managers is to develop good plans to execute when disaster strikes. Such plans must deal with patterns of natural and social phenomena, and AI can help analyze these patterns and guide effective planning.

For example, Google has been partnering with India’s Central Water Commission to develop AI-enabled flood forecasting and early warning.  Google uses a variety of elements such as historical events, river level readings, terrain and elevation, to run hundreds of thousands of simulations for each location to create river flood forecasting models that can more accurately predict where and when a flood might occur, and also how severe it will be.


Emergency response must provide aid where it is needed. Knowing where and what sort of aid is needed is a challenge, especially in large-scale disasters. Our modern world is flooded with situational information from social media, surveillance cameras (fixed, drones, satellites), and internet-of-things sensors. However, it is very challenging for emergency managers to sort through and interpret this data. This is an ideal application for AI.

A system called Artificial Intelligence for Disaster Response (AIDR) has been developed to help analyze Twitter tweets during emergencies and disasters. The system is available as free and open software, and it is designed to be tailored to responder needs. The responder first identifies keywords and/or hashtags that are used as a preliminary filter for tweets. Next responders identify topics of interest such as “Medical Needs” or “Sheltering”, and manually tag example tweets in each category. A deep neural network then learns to classify relevant tweets in each category, and automatically streams relevant information to responders.

AI is being used in the fight against the ongoing COVID-19 pandemic. Deep neural networks are being used to identify patterns in medical imagery in lungs and heart that will allow early detection and personalized therapies. AI is also being used to identify research and drugs most likely to lead to COVID-19 treatments and vaccines, and to track the disease by monitoring the deluge of data on social media and the internet.


During disaster recovery a wide range of activities are undertaken to attend to casualties and survivors, restore buildings and infrastructure, and re-establish social systems and businesses. When international aid is involved, complex interactions among multiple organizations must be coordinated. Situation assessment, resource allocation, and planning can all be supported by AI’s ability to recognize patterns in data.

For example Google, in collaboration with the United Nations World Food Program Innovation Accelerator, has developed a system for automatic damage assessment using very high-resolution satellite imagery. The system uses a deep neural network to identify buildings and compare their condition before and after the disaster. This automated damage assessment can greatly improve the timeliness and effectiveness of recovery efforts for disasters that damage large numbers of structures, such as the 2010 Haiti earthquake, which required assessment of over 90,000 buildings in the Port-au-Prince area alone.

AI and EM

AI’s pattern recognition capability can be an invaluable asset for planning, prediction, situation assessment, and decision making. These activities are critical to many lines of work, especially Emergency Management.

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