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Once a While We Should Focus on What Our Animals Can Teach Us

Roger Abrantes
Articles and Blogs, Free
Animal Learning, Behaviorism, Ethology

October 30, 2018May 29, 2014 by Roger Abrantes

One of the most exciting aspects of the Guinea Pig camps, as far as I’m concerned, is how they evolved throughout the times.

Learning is an ongoing process and in spite of having held many GP camps, I still learn new fascinating details for every camp I have the privilege to conduct.

For example, for each camp we held, it became increasingly clear how important it is to build a good and trusting relationship with the little Guinea pig before we even consider teaching it any skills. If the piggy does not trust you, it won’t work. This should be obvious, but in these technocratic times we live, we tend to forget what is it like to be an animal (human animal in our case).

We also learned how efficient we can be when combining ethology with behaviorism, a daunting task many consider virtually impossible—but it is not.

Let me explain. Ethology studies the behavior of animals in their natural environment. Ethologists do not interfere with the animals, and as such there is no training theory to find in ethology. There is, however, much to find about interaction, communication and living together.

Behaviorism studies the behavior of animals in artificial setups. Behaviorists attempt to control the environment best possible to achieve the results they want by manipulating stimuli and consequences. As Pavlov showed, to control the environment is a much more difficult task than researchers first assumed.

Combining ethology with behaviorism means to apply the knowledge we have about the natural behavior of the animals with which we work with the principles of behavior modification that we know will lead us to proven results under controlled conditions.

It is not as easy as it looks because as soon as we leave a proven track, we are on our own. Suddenly, we have no longer a recipe to follow. We need to improvise, to dig deeper in ourselves, to find the empathy that will connect us to the animal we train. The rules, we so painstakingly have memorized, do not seem to work any longer. This is an illusion, though, for the rules work all right—though only after a myriad of tiny, individual adjustments, so that they end up resembling exceptions. In that, Guinea pig camps excel. I’ve seen it time after time in the faces of the camp participants: a mixture of excitement and doubt, comparable to what I see in my diving students the first time they jump into the sea to discover that they can actually breathe under water.

And so here I am ready to start a new Guinea Pig camp, this time at the Wolf Park in Indiana. Wolves and Guinea pigs have nothing in common except that they both have much from which we can learn. We will commute between wolf enclosures and Guinea Pig training areas, listening to their stories and learning.

We tend to focus on what we can teach our animals, but maybe once a while we should turn it around and focus on what they can teach us.

Featured image: Our animals have a lesson to teach us. In these technocratic times we live, we tend to forget what is it like to be an animal (human animal in our case).

How Splendid They Are—or the Importance of Imprinting

Roger Abrantes
Articles and Blogs, Free
Animal Training, Ethology, Guinea Pigs, Imprinting

September 10, 2018May 24, 2014 by Roger Abrantes

First Guinea pig camp day. How splendid they are, the little Guinea pigs! Between three and eight weeks of age, they are curious, friendly and quick learners. They are so totally cute! (To put it in modern American English.)

The clip above, which I’m sure you watched as soon as you arrived at this page, is a quick iPhone recording to show you little Chupa-Chupa only two hours after the team started training it. It does not live up to the quality of the movies I usually show but bear with me. I just had to capture the moment and show it to you.

I must compliment Michael and Natalie for the brilliant job they have done imprinting and socializing the young Guinea pigs. Without it, we would have spent the whole day yesterday, and would spend most of today, habituating them to the environment, novel stimuli, humans, etc. As they are, the teams could teach them all the agility obstacles. This is the first time we have achieved it in one day, undoubtedly due to the perfect imprinting and socialization of the piggies.

Though this makes it much easier for the camp attendees to train the Guinea pigs, it also deprives them of the experience of going thru the laborious process of imprinting and socialization. Fortunately, we have a couple of older piggies, Michael and Natalie got later, for comparison.

I wished dog breeders knew more about these all relevant mechanisms in the formation of behavior. Imagine that all puppies were perfectly imprinted and socialized to the human world. I bet we would see a dramatic fall in problem behavior and wouldn’t that be splendid?

Imprinting describes any kind of phase-sensitive learning (learning occurring at a particular life stage) that is rapid and apparently independent of the consequences of behavior.

Imprinting affects subsequent social adjustment and sexual behavior among others. It occurs immediately after birth or early in life. Though critical for the future behavior of the animal, its preferences and aversions, the consequences of imprinting are not as rapid or as irreversible as Lorenz and the early ethologists thought.

Studies of wolf cubs show that although the period of imprinting is longer than in ducks, and most birds, it is just as important. Holding a wolf cub in our hands for three minutes a day in the first 10 days makes all the difference in its behavior towards humans later in life. The same applies to our domestic dogs, even if they are more flexible. The difference is that we have selected dogs for thousands of years for their sociability. They have probably many genes determining this trait, allowing imprinting for longer, or over several periods.

A sensitive period (or critical period) is a limited time in which an event can occur, usually resulting in some transformation. If the organism does not receive the appropriate stimulus during this time, it may be difficult, or even impossible, to develop some functions later in life.

Evidence suggests that there may be more than one type of a sensitive period. Recent studies point out that the critical phase for sexual imprinting occurs later than that for filial imprinting. Researchers discovered that learning components are more important than previously thought. There is evidence that cumulative learning entails the release of endorphins in the brain providing a comforting feedback and, thus, fixing the association.

As amazed as the camp attendees are with the speedy progress of their training (at the end of the first day, they have gone thru all agility obstacles, including weave poles), what left them flabbergasted today was the limited use of food treats and that we did not use training tools and gadgets at all.

This is training the ethology way, my preferred method of interacting with animals. We create a relationship of mutual trust and respect, with higher benefits than costs, leading by example, meeting the animal half-way, controlling ourselves rather than the animal.

Watch this space, my friends, I will tell you more tomorrow.

Featured image: Konrad Lorenz and his geese showing the effect of imprinting.

Can Two Training Methods Be Equally Good?

Roger Abrantes
Articles and Blogs, Free
Animal Behavior, Animal Training, Behaviorism, Ethology, Philosophy

October 19, 2018May 1, 2014 by Roger Abrantes

I receive many emails with questions about animal behavior. Most of them involve practical issues, but, now and then, someone poses a more complex question. Here is my answer to one of the latter, one I’d like to share with you because it deals with important issues for our understanding of animal behavior and training.

Dear ….,

Thanks for your comment, which gives me the opportunity to clarify a few issues. By no means, I see animals as biological robots or do I regard the Skinnerian approach as the truth, the only truth and nothing but the truth, quite the contrary (please, consider the following passages from “Mission SMAF—Bringing Scientific Precision Into Animal Training”).

“In fact, I suspect that [communication] even involves more than what science can describe with the intrinsic limitations of its key concepts and methods, no matter how stringent they are.”

“It seems to me, therefore, that our goal must not be to oppress or suppress emotions, but rather control them and use them advantageously. Emotional arousal proves to be necessary to learn and the right amount of emotional arousal even shows to increase the efficiency of learning processes.” (A very non-Skinnerian statement, I would say).

As to my own method to analyze learning processes in artificial set-ups (like in animal training), I write: “In a crude sense, SMAF is an oversimplification of complex processes […] certainly not an attempt to reduce complex mechanisms to a few formulas. In the end, [its] value depends solely on its successful application to solving practical problems; beyond that it has no value.”

Operant conditioning (when we use it correctly) is an efficient model of behavior for animal training because we control the conditionals to a certain extent (as Pavlov explains in its original writings, not the subsequent translations). Whilst operant conditioning is adequate to analyze behavior at a particular level, beyond that it is too crude a tool. To do that, we need evolutionary models and concepts like variation, selection, adaptation, fitness, function, evolutionary strategies, ESS (evolutionarily stable strategies), cost and benefit, etc. Thus, my approach to behavior is based on evolutionary biology and philosophically sound argumentation.

Greetings,

RAA

The core of the argument is reductionism, the view that we can reduce complex processes to the sum of its simpler parts. In a sense, all science is reductionistic. We attempt to explain complex processes with a few notions well organized in little boxes. That is a process that seems to suit our human brain particularly well.

However, we must bear in mind that our interpretations, independently of how good they are, are just our pictures of an elusive reality. They suit our particular umwelten but definitely not all. They explain parts of it from particular angles so we can make sense of it. Newton and Einstein, the classical example, are (probably) both right, only explaining reality at two different levels.

There’s nothing wrong about being a reductionist if only we do not get greedy and attempt to explain far too much with far too little as in, “That’s it, this is the way things are. Period.” Simplifying gets us often to the point, which complicating and oversimplifying, both have missed.

In animal training, one theory or one method can be as good as another depending on its foundations, approaches, what it attempts to explain and what practical purposes it intends to serve. If both are based on reliable evidence, use well-defined terms, and are logically sound, there’s little to choose between one or the other.

If only animal trainers would understand that, I believe we would forgo many senseless disputes.

Then again, we can brag about being the most emotional creatures on this big blue marble of ours, can’t we?

Laughter is the Shortest Distance Between Two People

Roger Abrantes
Articles and Blogs, Free
Ethology, Evolution, Laughter

November 11, 2019April 23, 2014 by Roger Abrantes

“Laughter is the shortest distance between two people,” Victor Borge once said. As you have figured out by now, I enjoy finding proof that humans are not that different from other forms of life. We share many characteristics with the other living creatures with whom we share our planet. Today, I have one more example for you—laughter.

Laughing is an involuntary reaction in humans consisting of rhythmical contractions of the diaphragm and other parts of the respiratory system. External stimuli, like being tickled, mostly elicit it. We associate it primarily with joy, happiness, and relief, but fear, nervousness, and embarrassment may also cause it. Laughter depends on early learning and cultural factors.

The study of humor and laughter is called gelotology (from the Greek gelos, γέλιο, meaning laughter).

Chimpanzees, gorillas, bonobos, and orangutans display laughter-like behavior when wrestling, playing or tickling. Their laughter consists of alternating inhalations and exhalations that sound to us like breathing and panting.

Rats display extended, high frequency, ultrasonic vocalizations during play and when tickled. We can only hear these chirping sounds with proper equipment. They are also ticklish, as are we. Particular areas of their body are more sensitive than others. There is an association between laughter and pleasant feelings. Social bonding occurs with the human tickler, and the rats can even become conditioned to seek the tickling.*

A dog’s laughter sounds similar to a regular pant. A sonograph analysis of this panting behavior shows that the variation of the bursts of frequencies is comparable with the laughing sound. When we play this recorded dog-laughter to dogs in a shelter, it can contribute to promoting play, social behavior, and decrease stress levels.*

“Laughter is the shortest distance between two people.” Maybe, it is simply the shortest distance between any two living creatures.

Keep laughing, my friends!

__________

* Panksepp & Burgdorf, 2003, Laughing rats and the evolutionary antecedents of human joy?; Simonet, Versteeg & Storie, 2005, Dog-laughter: Recorded playback reduces stress-related behavior in shelter dogs.

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Featured image: We laugh, but we are not the only ones.

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Evolutionary Strategies

Roger Abrantes
Articles and Blogs, Free
Biology, Ethology, Evolution

November 23, 2018April 20, 2014 by Roger Abrantes

Evolutionary strategies – Evolutionarily Stable Strategies (Doves Hawks)

An evolutionarily stable strategy (ESS) is a strategy that no other feasible alternative strategy can better, provided sufficient members of the population adopt it. The best strategy for an individual depends upon the strategies adopted by other members of the population. Since the same applies to all individuals in the population, a mutant gene cannot invade a true ESS successfully.

Evolutionary biologists imagine a time before a particular trait existed. Then, they postulate that a rare gene arises in an individual and ask what circumstances would favor the spread of the gene throughout the population. If natural selection favors the gene, then the individuals with the genotypes incorporating that gene will have increased fitness. A gene must compete with the existing members of the gene pool and resist invasion from other mutant genes, to become established in a population’s gene pool.

In considering evolutionary strategies that influence behavior, we visualize a situation in which changes in genotype lead to changes in behavior. By ‘the gene for sibling care’, we mean that genetic differences exist in the population such that some individuals aid their siblings while others do not. Similarly, by ‘dove strategy,’ we mean that animals exist in the population that do not engage in fights and that they pass this trait from one generation to the next.

At first sight, it might seem that the most successful evolutionary strategy will always spread through the population and eventually supplant all others. While this may sometimes be the case, it is far from always being so. Sometimes, it may even not be possible to determine the best strategy. Competing strategies may be interdependent. The success of one depends upon the existence of the other and the frequency with which the population adopts the other. For example, the strategy of mimicry has no value if the warning strategy of the model is not efficient.

Game theory belongs to mathematics and economics, and it studies situations where players choose different actions in an attempt to maximize their returns. It is a good model for evolutionary biologists to approach situations in which various decision makers interact. The payoffs in biological simulations correspond to fitness, comparable to money in economics. Simulations focus on achieving a balance that would be maintained by evolutionary strategies. The Evolutionarily Stable Strategy (ESS), introduced by John Maynard Smith in 1973 (and published in 1982), is the most well known of these strategies. Maynard Smith used the hawk-dove simulation to analyze fighting and territorial behavior. Together with Harper in 2003, he employed an ESS to explain the emergence of animal communication.

An evolutionarily stable strategy (ESS) is a strategy that no other feasible alternative strategy can better, provided sufficient members of the population adopt it.

The traditional way to illustrate this problem is the simulation of the encounter between two strategies, the hawks and the doves. When a hawk meets a hawk it wins on half of the occasions, and it loses and suffers an injury on the other half. Hawks always beat doves. Doves always retreat against hawks. Whenever a dove meets another dove, there is always a display, and it wins on half of the occasions. Under these rules, populations of only hawks or doves are no ESS. A hawk can invade a population made up entirely of doves and a dove can invade a population of hawks only. Both would have an advantage and would spread in the population. A hawk in a population of doves would win all contests. A dove in a population of hawks would never get injured because it wouldn’t fight.

However, it is possible for a mixture of hawks and doves to provide a stable situation when their numbers reach a certain proportion of the total population. For example, with payoffs as winner +50, injury -100, loser 0, display -10, a population consisting of hawks and doves (or individuals adopting hawk and dove strategies) is an ESS whenever 58,3% of the population are hawks and 41,7% doves. Or alternatively, when all individuals behave at random as hawks in 58,3 % of the encounters and doves in 41,7%.

Evolutionarily stable strategies are not artificial constructs. They exist in nature. The Oryx, Oryx gazella, have sharp pointed horns, which they never use in contests with rivals and only in defense against predators. They play the dove strategy. Up to 10% per year of Muskox, Ovibos moschatus, adult males die as a result of injuries sustained while fighting over females. They play the hawk strategy.

Peer-to-peer file sharing is a good example of an ESS in our modern society. BitTorrent peers use Tit for Tat strategy to optimize their download speed. Cooperation is achieved when upload bandwidth is exchanged for download bandwidth.

Life is a box of wonder and amazement, isn’t it?

Featured image: The traditional way to illustrate Evolutionarily Stable Strategies is the simulation of the encounter between two strategies, the hawk and the dove.

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The Spectrum of Behavior

Roger Abrantes
Articles and Blogs, Free
Behavior, Ethology, Philosophy

November 20, 2018April 15, 2014 by Roger Abrantes

Behavior is like the spectrum of light (behaviorspectrum)

The conundrum of the behavioral sciences is that they are not exact sciences in the same sense as physics or mathematics. Behavior is like the spectrum of light: it is as difficult to say when yellow turns into orange as when one behavior turns into another. It is a continuum of quantity, perceptible throughout its duration, describable only when quantity turns into quality.

Friendly, insecure, pacifying, submissive and fearful behaviors are a continuum of quantity, as are content, self-confident, assertive, dominant and aggressive behaviors. The distinction between any two behaviors is a matter of function; the borderline separating one category from the other is a matter of observational skill, contextual parameters, and convention; the way we understand it all is a matter of definition.

Our brain likes to tidy up its stored information in small boxes, but once in a while, I like to turn them upside down. It’s good mental exercise.

Featured image: Behavior is like the spectrum of light: it is as difficult to say when yellow turns into orange as when one behavior turns into another. © Illustration by Roger Abrantes with drawings from Alice Rasmussen.

Learn more in our course Agonistic Behavior. Agonistic Behavior is all forms of aggression, threat, fear, pacifying behavior, fight or flight, arising from confrontations between individuals of the same species. This course gives you the scientific definitions and facts.

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