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==Neurobiology==
 
==Neurobiology==
Based on discoveries made through neural mapping of the [[limbic system]], the [[neurobiology|neurobiological]] explanation of human emotion is that emotion is a pleasant or unpleasant mental state organized in the limbic system of the [[Mammal|mammalian]] brain. Specifically, these states are manifestations of non-verbally expressed feelings of agreement, anger, certainty, control, disagreement, disgust, disliking, embarrassment, fear, guilt, happiness, hate, interest, liking, love, sadness, shame, surprise, and uncertainty. Emotions are mammalian elaborations of [[vertebrate]] arousal patterns, in which neurochemicals (e.g., [[dopamine]], [[noradrenaline]], and [[serotonin]]) step-up or step-down the brain's activity level, as visible in body movements, gestures, and postures. In [[mammal]]s, [[primate]]s, and human beings, feelings are displayed as emotion cues.
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Based on discoveries made through neural mapping of the [[limbic system]], the [[neurobiology|neurobiological]] explanation of human emotion is that emotion is a pleasant or unpleasant mental state organized in the limbic system of the [[Mammal|mammalian]] brain <ref>{{cite web|last=Givens|first=David B. (1998)|title=Emotion |url=http://center-for-nonverbal-studies.org/emotion.htm|work=Center for Nonverbal Studies|accessdate=7 May 2014}}</ref>.. Specifically, these states are manifestations of non-verbally expressed feelings of agreement, anger, certainty, control, disagreement, disgust, disliking, embarrassment, fear, guilt, happiness, hate, interest, liking, love, sadness, shame, surprise, and uncertainty. Emotions are mammalian elaborations of [[vertebrate]] arousal patterns, in which neurochemicals (e.g., [[dopamine]], [[noradrenaline]], and [[serotonin]]) step-up or step-down the brain's activity level, as visible in body movements, gestures, and postures. In [[mammal]]s, [[primate]]s, and human beings, feelings are displayed as emotion cues.
   
 
The human emotion of love is believed to have evolved from paleocircuits of the mammalian brain (specifically, modules of the [[cingulate gyrus|cingulated gyrus]]) designed for the care, feeding, and grooming of offspring. Paleocircuits are neural platforms for bodily expression configured millions of years before the advent of [[Cerebral cortex|cortical]] [[neuronal circuit|circuits]] for speech. They consist of pre-configured pathways or networks of [[nerve cell]]s in the [[forebrain]], [[brain stem]] and [[spinal cord]]. They evolved in the earliest mammalian ancestors, the jawless [[fish]]es, to control motor function.
 
The human emotion of love is believed to have evolved from paleocircuits of the mammalian brain (specifically, modules of the [[cingulate gyrus|cingulated gyrus]]) designed for the care, feeding, and grooming of offspring. Paleocircuits are neural platforms for bodily expression configured millions of years before the advent of [[Cerebral cortex|cortical]] [[neuronal circuit|circuits]] for speech. They consist of pre-configured pathways or networks of [[nerve cell]]s in the [[forebrain]], [[brain stem]] and [[spinal cord]]. They evolved in the earliest mammalian ancestors, the jawless [[fish]]es, to control motor function.
   
Before the mammalian brain, life in the non-verbal world was automatic, preconscious, and predictable. [[Reptilian]] motor centers reacted to vision, sound, touch, chemical, gravity, and motion sensory cues with preset body movements and programmed postures. With the arrival of night-active mammals, circa 180 million years ago, smell replaced sight as the dominant sense, and a newer, more flexible way of responding — based on emotion and emotional memory — arose from the olfactory sense. In the [[Jurassic Period]], the mammalian brain invested heavily in aroma circuits to succeed at night as reptiles slept. These odor pathways gradually formed the neural blueprint for what was later to become our limbic brain.
+
Before the mammalian brain, life in the non-verbal world was automatic, preconscious, and predictable. [[Reptilian]] motor centers reacted to vision, sound, touch, chemical, gravity, and motion sensory cues with preset body movements and programmed postures. With the arrival of night-active mammals, circa 180 million years ago, smell replaced sight as the dominant sense, and a newer, more flexible way of responding — based on emotion and emotional memory — arose from the olfactory sense. In the [[Jurassic Period]], the mammalian brain invested heavily in aroma circuits to succeed at night as reptiles slept. These odor pathways gradually formed the neural blueprint for what was later to become our limbic brain<ref>{{cite web|last=Givens|first=David B. (1998)|title=Emotion |url=http://center-for-nonverbal-studies.org/emotion.htm|work=Center for Nonverbal Studies|accessdate=7 May 2014}}</ref>.
   
Primary (i.e., innate) emotions, such as fear, "depend on limbic system circuitry," with the [[amygdala]] and [[anterior cingulate gyrus]] being "key players".
+
Primary (i.e., innate) emotions, such as fear, "depend on limbic system circuitry," with the [[amygdala]] and [[anterior cingulate gyrus]] being "key players"<ref>{{cite web|last=Givens|first=David B. (1998)|title=Emotion |url=http://center-for-nonverbal-studies.org/emotion.htm|work=Center for Nonverbal Studies|accessdate=7 May 2014}}</ref>.
   
 
Secondary emotions (i.e., feelings attached to objects [e.g., to dental drills], events, and situations through learning) require additional input from the prefrontal and somatosensory cortices. The stimulus may still be processed directly via the amygdala but is now also analyzed in the thought process. Thoughts and emotions are interwoven: every thought, however bland, almost always carries with it some emotional undertone, however subtle.
 
Secondary emotions (i.e., feelings attached to objects [e.g., to dental drills], events, and situations through learning) require additional input from the prefrontal and somatosensory cortices. The stimulus may still be processed directly via the amygdala but is now also analyzed in the thought process. Thoughts and emotions are interwoven: every thought, however bland, almost always carries with it some emotional undertone, however subtle.
   
* Smell carries directly to limbic areas of the mammalian brain via nerves running from the olfactory bulbs to the [[septum]], amygdala, and [[hippocampus]]. In the acquatic brain, olfaction was critical for detecting food, foes, and mates from a distance in murky waters.
+
* Smell carries directly to limbic areas of the mammalian brain via nerves running from the olfactory bulbs to the [[septum]], amygdala, and [[hippocampus]]. In the acquatic brain, olfaction was critical for detecting food, foes, and mates from a distance in murky waters<ref>{{cite web|last=Givens|first=David B. (1998)|title=Emotion |url=http://center-for-nonverbal-studies.org/emotion.htm|work=Center for Nonverbal Studies|accessdate=7 May 2014}}</ref>.
   
* An emotional feeling, like an aroma, has a volatile or "thin-skinned" quality because sensory cells lie on the exposed exterior of the olfactory epithelium (i.e., on the bodily surface itself).
+
* An emotional feeling, like an aroma, has a volatile or "thin-skinned" quality because sensory cells lie on the exposed exterior of the olfactory epithelium (i.e., on the bodily surface itself)<ref>{{cite web|last=Givens|first=David B. (1998)|title=Emotion |url=http://center-for-nonverbal-studies.org/emotion.htm|work=Center for Nonverbal Studies|accessdate=7 May 2014}}</ref>.
   
* A sudden scent, like a whiff of smelling salts, may jolt the mind. The force of a mood is reminiscent of a smell's intensity (e.g., soft and gentle, pungent, or overpowering), and similarly permeates and fades as well. The design of emotion cues, in tandem with the forebrain's [[olfactory]] prehistory, suggests that the sense of smell is the neurological model for our emotions.
+
* A sudden scent, like a whiff of smelling salts, may jolt the mind. The force of a mood is reminiscent of a smell's intensity (e.g., soft and gentle, pungent, or overpowering), and similarly permeates and fades as well. The design of emotion cues, in tandem with the forebrain's [[olfactory]] prehistory, suggests that the sense of smell is the neurological model for our emotions<ref>{{cite web|last=Givens|first=David B. (1998)|title=Emotion |url=http://center-for-nonverbal-studies.org/emotion.htm|work=Center for Nonverbal Studies|accessdate=7 May 2014}}</ref>.
   
Like aromas, emotions are either positive or negative (i.e., pleasant or unpleasant) — and rarely neutral. Like odors, feelings come and go, defy logic, and clearly show upon our face in mood signs. It is likely that many emotions evolved from aroma paleocircuits a. in subcortical nuclei (e.g., the paleocortex of the amygdala), and b. in layers of nerve cells within the forebrain's outer covering of [[neocortex]]. The latter's stratified architecture resembles that of the olfactory bulb, which is organized in layers as well.
+
Like aromas, emotions are either positive or negative (i.e., pleasant or unpleasant) — and rarely neutral. Like odors, feelings come and go, defy logic, and clearly show upon our face in mood signs. It is likely that many emotions evolved from aroma paleocircuits a. in subcortical nuclei (e.g., the paleocortex of the amygdala), and b. in layers of nerve cells within the forebrain's outer covering of [[neocortex]]. The latter's stratified architecture resembles that of the olfactory bulb, which is organized in layers as well<ref>{{cite web|last=Givens|first=David B. (1998)|title=Emotion |url=http://center-for-nonverbal-studies.org/emotion.htm|work=Center for Nonverbal Studies|accessdate=7 May 2014}}</ref>.
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[[Category:Emotion|*]]
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[[Category:Psychology]]
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[[Category:Limbic system]]
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[[Category:Motivation]]
   
 
==Computer models of emotion==
 
==Computer models of emotion==

Revision as of 23:07, 7 May 2014

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Emotion, in its most general definition, is an intense neural mental state that arises subjectively rather than through conscious effort and evokes either a positive or negative psychological response to move an organism to action. An emotion is differentiated from a feeling.

Definition of emotion

Although a widespread word, it is not so easy to come up with a generally acceptable definition of emotion. Growing consensus does agree that the distinction between emotion and feeling is important. Feeling can be seen as emotion that is filtered through the cognitive brain centers, specifically the frontal lobe, producing a physiological change in addition to the psycho-physiological change. Daniel Goleman, in his landmark book Emotional Intelligence, discusses this differentiation at length.

Robert Masters makes the following distinctions between affect, feeling and emotion: "As I define them, affect is an innately structured, non-cognitive evaluative sensation that may or may not register in consciousness; feeling is affect made conscious, possessing an evaluative capacity that is not only physiologically based, but that is often also psychologically (and sometimes relationally) oriented; and emotion is psychosocially constructed, dramatized feeling."[1]

In the Triune brain model, emotions are defined as the responses of the Mammalian cortex. Emotion competes with even more instinctive responses from the Reptilian cortex and the more logically developed neocortex.

Emotion is complex, and the term has no single universally accepted definition[2]. Emotions create a response in the mind that arises spontaneously, rather than through conscious effort. It is unclear whether animals or all human beings experience emotion. Emotions are physical expressions, often involuntary, related to feelings, perceptions or beliefs about elements, objects or relations between them, in reality or in the imagination. The study of emotions is part of psychology, neuroscience, and, more recently, artificial intelligence. According to Sloman [3], emotions are cognitive processes. Some authors emphasize the difference between human emotions and the affective behavior of animals.

Emotion is sometimes regarded as the antithesis of reason. This is reflected in common phrases like appeal to emotion or your emotions have taken over. Emotions can be undesired to the individual feeling them; he or she may wish to control but often cannot. Thus one of the most distinctive, and perhaps challenging, facts about human beings is this potential for entanglement, or even opposition, between will, emotion, and reason.

Emotion as the subject of scientific research has multiple dimensions: behavioral, physiological, subjective, and cognitive. Sloman and others explain that the need to face a changing and unpredictable world makes emotions necessary for any intelligent system (natural or artificial) with multiple motives and limited capacities and resources.

Current research on the neural circuitry of emotion suggests that emotion makes up an essential part of human decision-making, including long-term planning, and that the famous distinction made by Descartes between reason and emotion is not as clear as it seems [4].

Some state that there is no empirical support for any generalization suggesting the antithesis between reason and emotion: indeed, anger or fear can often be thought of as a systematic response to observed facts. In any case, it is clear that the relation between logic and argument on the one hand and emotion on the other, is one which merits careful study.

Psychiatrist William Glasser's theory of the human control system states that behavior is composed of four simultaneous components: deeds, ideas, emotions, and physiological states. He asserts that we choose the idea and deed and that the associated emotions and physiological states also occur but cannot be chosen independently. He calls his construct a total behavior to distinguish it from the common concept of behavior. He uses the verbs to describe what is commonly seen as emotion. For example, he uses 'to depress' to describe the total behavior commonly known as depression which, to him, includes depressing ideas, actions, emotions, and physiological states. Dr. Glasser also further asserts that internal choices (conscious or unconscious) cause emotions instead of external stimuli.

Theoretical traditions

According to Cornelius (1996), four main theoretical traditions have dominated research in emotions starting in the 1800's with Darwin's observations of emotion in man and animals. These traditions are not mutually exclusive and many researchers incorporate multiple perspectives in their work.

  • The Darwinian perspective

First articulated in the late 19th century by Charles Darwin[5], emotions evolved via natural selection and therefore have cross-culturally universal counterparts. Most research in this area has focused on physical displays of emotion including body language of animals and facial expressions in humans. Paul Ekman's work on basic emotions is representative of the Darwinian tradition.

  • The Jamesian perspective

William James in the 1800's believed that emotional experience is largely due to the experience of bodily changes. These changes might be visceral, postural, or facially expressive. However, the physiological aspects of his theory were empirically discredited by Walter Cannon in the second edition of Bodily Changes in Pain, Hunger, Fear and Rage.

  • The cognitive perspective

Many researchers believe that thought and in particular cognitive appraisal of the environment is an underlying causal explanation for emotional processes.

  • The social constructivist perspective

Social constructivism emphasizes the importance of culture and context in understanding what occurs in society and constructing knowledge based on this understanding (Derry, 1999; McMahon, 1997). Much current research in emotion is based on the social constructivist view.

  • The neurological tradition (Plutchik, 1980)

This tradition draws on recent work on neurophysiology and neuroanatomy to explain the nature of emotions. Joseph LeDoux (1986) reviews relatively current knowledge on the neurophysiology of emotion.

Etymology

Etymologically, the word emotion is a composite formed from two Latin words. e(x)/out, outward + motio/movement, action, gesture. This classical formation refers to the immediate nature of emotion as experienced by humans and attributed in some cultures and ways of thinking to all living organisms, and by scientific community to any creature that exhibits complex response traits similar to what humans refer to as emotion.

Physical responses to emotion

The body frequently responds to Shame by warmth in the upper chest and face, Fear by a heightened heartbeat, increased "flinch" response, and increased muscle tension. The sensations connected with anger are nearly indistinguishable from fear. Happiness is often felt as an expansive or swelling feeling in the chest and the sensation of lightness or buoyancy, as if standing underwater. Sadness by a feeling of tightness in the throat and eyes, and relaxation in the arms and legs. Desire can be accompanied by a dry throat and heavy breathing.

In the psychotherapy field, advocates of Re-evaluation Counselling claim that painful emotion is best relieved via the well-known (and sometimes automatic) discharge processes of crying, laughing, sweating, shaking and trembling.[6]

Neurobiology

Based on discoveries made through neural mapping of the limbic system, the neurobiological explanation of human emotion is that emotion is a pleasant or unpleasant mental state organized in the limbic system of the mammalian brain [7].. Specifically, these states are manifestations of non-verbally expressed feelings of agreement, anger, certainty, control, disagreement, disgust, disliking, embarrassment, fear, guilt, happiness, hate, interest, liking, love, sadness, shame, surprise, and uncertainty. Emotions are mammalian elaborations of vertebrate arousal patterns, in which neurochemicals (e.g., dopamine, noradrenaline, and serotonin) step-up or step-down the brain's activity level, as visible in body movements, gestures, and postures. In mammals, primates, and human beings, feelings are displayed as emotion cues.

The human emotion of love is believed to have evolved from paleocircuits of the mammalian brain (specifically, modules of the cingulated gyrus) designed for the care, feeding, and grooming of offspring. Paleocircuits are neural platforms for bodily expression configured millions of years before the advent of cortical circuits for speech. They consist of pre-configured pathways or networks of nerve cells in the forebrain, brain stem and spinal cord. They evolved in the earliest mammalian ancestors, the jawless fishes, to control motor function.

Before the mammalian brain, life in the non-verbal world was automatic, preconscious, and predictable. Reptilian motor centers reacted to vision, sound, touch, chemical, gravity, and motion sensory cues with preset body movements and programmed postures. With the arrival of night-active mammals, circa 180 million years ago, smell replaced sight as the dominant sense, and a newer, more flexible way of responding — based on emotion and emotional memory — arose from the olfactory sense. In the Jurassic Period, the mammalian brain invested heavily in aroma circuits to succeed at night as reptiles slept. These odor pathways gradually formed the neural blueprint for what was later to become our limbic brain[8].

Primary (i.e., innate) emotions, such as fear, "depend on limbic system circuitry," with the amygdala and anterior cingulate gyrus being "key players"[9].

Secondary emotions (i.e., feelings attached to objects [e.g., to dental drills], events, and situations through learning) require additional input from the prefrontal and somatosensory cortices. The stimulus may still be processed directly via the amygdala but is now also analyzed in the thought process. Thoughts and emotions are interwoven: every thought, however bland, almost always carries with it some emotional undertone, however subtle.

  • Smell carries directly to limbic areas of the mammalian brain via nerves running from the olfactory bulbs to the septum, amygdala, and hippocampus. In the acquatic brain, olfaction was critical for detecting food, foes, and mates from a distance in murky waters[10].
  • An emotional feeling, like an aroma, has a volatile or "thin-skinned" quality because sensory cells lie on the exposed exterior of the olfactory epithelium (i.e., on the bodily surface itself)[11].
  • A sudden scent, like a whiff of smelling salts, may jolt the mind. The force of a mood is reminiscent of a smell's intensity (e.g., soft and gentle, pungent, or overpowering), and similarly permeates and fades as well. The design of emotion cues, in tandem with the forebrain's olfactory prehistory, suggests that the sense of smell is the neurological model for our emotions[12].

Like aromas, emotions are either positive or negative (i.e., pleasant or unpleasant) — and rarely neutral. Like odors, feelings come and go, defy logic, and clearly show upon our face in mood signs. It is likely that many emotions evolved from aroma paleocircuits a. in subcortical nuclei (e.g., the paleocortex of the amygdala), and b. in layers of nerve cells within the forebrain's outer covering of neocortex. The latter's stratified architecture resembles that of the olfactory bulb, which is organized in layers as well[13].

Computer models of emotion

A flurry of recent work in modeling emotional circuitry and recognition has come out of computer science, engineering, psychology and neuroscience (c.f. Fellous, Armony & LeDoux, 2002).

Emotion in animals

Main article: Emotion in animals

There is increasing support for animals having emotions, although it is still not clear to what amount those are qualitatively the same as human's feelings.

Sociology of Emotions

Neuroscientist Antonio Damasio has shown emotions to be essential for human social life[How to reference and link to summary or text]. Rational, reasonable, or otherwise effective choosing or decision making are all about differentially valuing, and valuing is based on comparing emotional worth attributed to, and expected from the available alternatives of action – as much as on feelings of confidence or uncertainty in our stimation skills. Affect and logic are social competences and their participation in decision making varies widely among individuals, situations and cultures.

Sociologist Randall Collins has stated that a single, specific and long-term emotion named emotional energy is the main motivating force in social life, for love and hatred, investing, working or consuming, rendering cult or waging war[How to reference and link to summary or text]. Individually, emotional energy ranges from the highests heights of enthusiasm, self-confidence and initiative to the deepest depths of apathy, depression and retreat. But this does not make it just a psychological emotion.

Emotional energy comes from variously successful or failed chains of interaction rituals, that is, patterned social encounters –from conversation or sexual flirtation through Christmas family dinners or office work to mass demonstrations, organizations or revolutions. In the latter, the coupling of participants' behavior synchronizes their nervous systems to the point of generating a collective effervescence, one observable in their mutual focus and emotional entraining, as well as in their loading of emotional and symbolic meaning to entities which subsequently become emblems of the ritual and of the membership group endorsing, preserving, promoting and defending them. Thus social life would be most importantly about generating and distributing emotional energy. Recent research has shown that most areas of social dynamics revolve around some particular emotional cluster. Most significant is classic contribution by Thomas J. Scheff, who established that many cases of social conflict are based on a destructive and often escalating, but stoppable and reversible shame-rage cycle: when someone results or feels shamed by another, their social bond comes under stress.

This can be cooperatively acknowledged, talked about and – most effectively when possible - laughed at so their social bond may be restored. Yet, when shame is not acknowledged, but instead negated and repressed, it becomes rage, and rage may drive to aggressive and shaming actions that feed-back negatively on this self-destructive situation. The social management of emotions might be the fundamental dynamics of social cooperation and conflict around resources, complexity, conflict and moral life.

References and notes

  1. Masters, Robert (2000), Compassionate Wrath: Transpersonal Approaches to Anger
  2. Emotional Competency discussion of emotion
  3. Sloman, Aaron (1981) Why Robots Will Have Emotions. In proc.[1]. University of Sussex, UK
  4. Damasio, Antonio (1994) Descartes Error Penguin Putnam, New York, New York
  5. Darwin, Charles (1872). The Expression of Emotions in Man and Animals. Note: This book was originally published in 1872, but has been reprinted many times thereafter by different publishers
  6. Counselling recovery processes - RC website
  7. Givens, David B. (1998) Emotion. Center for Nonverbal Studies. URL accessed on 7 May 2014.
  8. Givens, David B. (1998) Emotion. Center for Nonverbal Studies. URL accessed on 7 May 2014.
  9. Givens, David B. (1998) Emotion. Center for Nonverbal Studies. URL accessed on 7 May 2014.
  10. Givens, David B. (1998) Emotion. Center for Nonverbal Studies. URL accessed on 7 May 2014.
  11. Givens, David B. (1998) Emotion. Center for Nonverbal Studies. URL accessed on 7 May 2014.
  12. Givens, David B. (1998) Emotion. Center for Nonverbal Studies. URL accessed on 7 May 2014.
  13. Givens, David B. (1998) Emotion. Center for Nonverbal Studies. URL accessed on 7 May 2014.
  1. Cornelius, R. (1996). The science of emotion. New Jersey: Prentice Hall.
  2. Ekman P. (1999). "Facial Expressions" in Handbook of Cognition and Emotion. Dalgleish T & Power M, Eds. John Wiley & Sons Ltd. New York, New York.
  3. Fellous, J.M., Armony, J.L., & LeDoux, J.E. (2002). "Emotional Circuits and Computational Neuroscience" in 'The handbook of brain theory and neural networks' Second Edition. M.A. Arbib (editor), The MIT Press. [2]
  4. Frijda, Nico H. (1986). The Emotions. Maison des Sciences de l'Homme and Cambridge University Press. [3]
  5. LeDoux, J.E. (1986). The neurobiology of emotion. Chap. 15 in J E. LeDoux & W. Hirst (Eds.) Mind and Brain: diologues in cognitive neuroscience. New York: Cambridge.
  6. Plutchik, R. (1980). A general psychoevolutionary theory of emotion. In R. Plutchik & H. Kellerman (Eds.), Emotion: Theory, research, and experience: Vol. 1. Theories of emotion (pp. 3-33). New York: Academic.[4]

Emotion researchers with Wikipedia articles

Institution/ Research Center

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