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Stress, Addictions & Codependency

sharon sanders

Editor-in-Chief & President
Studies Link Stress and Drug Addiction

By Steven Stocker, NIDA NOTES Contributing Writer
Drug-addicted patients who are trying to remain off drugs can often resist the cravings brought on by seeing reminders of their former drug life, NIDA-funded researcher Dr. Mary Jeanne Kreek of Rockefeller University in New York City has noted. "For 6 months or so, they can walk past the street corner where they used to buy drugs and not succumb to their urges. But then all of a sudden they relapse," she says. "When we ask them why they relapse, almost always they tell us something like, 'Well, things weren't going well at my job,' or 'My wife left me.' Sometimes, the problem is as small as 'My public assistance check was delayed,' or 'The traffic was too heavy.'"
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Anecdotes such as these are common in the drug abuse treatment community. These anecdotes plus animal studies on this subject point toward an important role for stress in drug abuse relapse. In addition, the fact that addicts often relapse apparently in response to what most people would consider mild stressors suggests that addicts may be more sensitive than nonaddicts to stress.
This hypersensitivity may exist before drug abusers start taking drugs and may contribute to their initial drug use, or it could result from the effects of chronic drug abuse on the brain, or its existence could be due to a combination of both, Dr. Kreek has proposed. She has demonstrated that the nervous system of an addict is hypersensitive to chemically induced stress, which suggests that the nervous system also may be hypersensitive to emotional stress.
How the Body Copes With Stress

The body reacts to stress by secreting two types of chemical messengers - hormones in the blood and neurotransmitters in the brain. Scientists think that some of the neurotransmitters may be the same or similar chemicals as the hormones but acting in a different capacity.
Some of the hormones travel throughout the body, altering the metabolism of food so that the brain and muscles have sufficient stores of metabolic fuel for activities, such as fighting or fleeing, that help the person cope with the source of the stress. In the brain, the neurotransmitters trigger emotions, such as aggression or anxiety, that prompt the person to undertake those activities.
Normally, stress hormones are released in small amounts throughout the day, but when the body is under stress the level of these hormones increases dramatically. The release of stress hormones begins in the brain. First, a hormone called corticotropin-releasing factor (CRF) is released from the brain into the blood, which carries the CRF to the pituitary gland, located directly underneath the brain. There, CRF stimulates the release of another hormone, adrenocorticotropin (ACTH), which, in turn, triggers the release of other hormones - principally cortisol - from the adrenal glands. Cortisol travels throughout the body, helping it to cope with stress. If the stressor is mild, when the cortisol reaches the brain and pituitary gland it inhibits the further release of CRF and ACTH, which return to their normal levels. But if the stressor is intense, signals in the brain for more CRF release outweigh the inhibitory signal from cortisol, and the stress hormone cycle continues.
Researchers speculate that CRF and ACTH may be among the chemicals that serve dual purposes as hormones and neurotransmitters. The researchers posit that if, indeed, these chemicals also act as neurotransmitters, they may be involved in producing the emotional responses to stress.
The stress hormone cycle is controlled by a number of stimulatory chemicals in addition to CRF and ACTH and inhibitory chemicals in addition to cortisol both in the brain and in the blood. Among the chemicals that inhibit the cycle are neurotransmitters called opioid peptides, which are chemically similar to opiate drugs such as heroin and morphine. Dr. Kreek has found evidence that opioid peptides also may inhibit the release of CRF and other stress-related neurotransmitters in the brain, thereby inhibiting stressful emotions.
How Addiction Changes the Body's Response to Stress

Heroin and morphine inhibit the stress hormone cycle and presumably the release of stress-related neurotransmitters just as the natural opioid peptides do. Thus, when people take heroin or morphine, the drugs add to the inhibition already being provided by the opioid peptides. This may be a major reason that some people start taking heroin or morphine in the first place, suggests Dr. Kreek. "Every one of us has things in life that really bother us," she says. "Most people are able to cope with these hassles, but some people find it very difficult to do so. In trying opiate drugs for the first time, some people who have difficulty coping with stressful emotions might find that these drugs blunt those emotions, an effect that they might find rewarding. This could be a major factor in their continued use of these drugs."
When the effects of opiate drugs wear off, the addict goes into withdrawal. Research has shown that, during withdrawal, the level of stress hormones rises in the blood and stress-related neurotransmitters are released in the brain. These chemicals trigger emotions that the addict perceives as highly unpleasant, which drive the addict to take more opiate drugs. Because the effects of heroin or morphine last only 4 to 6 hours, opiate addicts often experience withdrawal three or four times a day. This constant switching on and off of the stress systems of the body heightens whatever hypersensitivity these systems may have had before the person started taking drugs, Dr. Kreek says. "The result is that these stress chemicals are on a sort of hair-trigger release. They surge at the slightest provocation," she says.
Studies have suggested that cocaine similarly heightens the body's sensitivity to stress, although in a different way. When a cocaine addict takes cocaine, the stress systems are activated, much like when an opiate addict goes into withdrawal, but the person perceives this as part of the cocaine rush because cocaine is also stimulating the parts of the brain that are involved in feeling pleasure. When cocaine's effects wear off and the addict goes into withdrawal, the stress systems are again activated - again, much like when an opiate addict goes into withdrawal. This time, the cocaine addict perceives the activation as unpleasant because the cocaine is no longer stimulating the pleasure circuits in the brain. Because cocaine switches on the stress systems both when it is active and during withdrawal, these systems rapidly become hypersensitive, Dr. Kreek theorizes.
Evidence for the Link Between Stress and Addiction

This theory about stress and drug addiction is derived in part from studies conducted by Dr. Kreek's group in which addicts were given a test agent called metyrapone. This chemical blocks the production of cortisol in the adrenal glands, which lowers the level of cortisol in the blood. As a result, cortisol is no longer inhibiting the release of CRF from the brain and ACTH from the pituitary. The brain and pituitary then start producing more of these chemicals.
Physicians use metyrapone to test whether a person's stress system is operating normally. When metyrapone is given to nonaddicted people, the ACTH level in the blood increases. However, when Dr. Kreek and her colleagues administered metyrapone to active heroin addicts, the ACTH level hardly rose at all. When the scientists gave metyrapone to heroin addicts who were abstaining from heroin use and who were not taking methadone, the synthetic opioid medication that suppresses cravings for opiate drugs, the ACTH level in the majority of the addicts increased about twice as high as in nonaddicts. Finally, when the scientists gave metyrapone to heroin addicts maintained for at least 3 months on methadone, the ACTH level rose the same as in nonaddicts.
Addicts on heroin underreact because all the excess opioid molecules in the brain greatly inhibit the brain's stress system, Dr. Kreek explains. Addicts who are heroin-free and methadone-free overreact because the constant on-off of daily heroin use has made the stress system hypersensitive, she says, and heroin addicts who are on methadone react normally because methadone stabilizes this stress system. Methadone acts at the same sites in the brain as heroin, but methadone stays active for about 24 hours while the effects of heroin are felt for only 4 to 6 hours. Because methadone is long-acting, the heroin addict is no longer going into withdrawal three or four times a day. Without the constant activation involved in these withdrawals, the brain's stress system normalizes.
Recently, Dr. Kreek's group reported that a majority of cocaine addicts who are abstaining from cocaine use overreact in the metyrapone test, just like the heroin addicts who are abstaining from heroin and not taking methadone. As with heroin addicts, this overreaction in cocaine addicts reflects hypersensitivity of the stress system caused by chronic cocaine abuse.
"We think that addicts may react to emotional stress in the same way that their stress hormone system reacts to the metyrapone test," says Dr. Kreek. At the slightest provocation, CRF and other stress-related neurotransmitters pour out into the brain, producing unpleasant emotions that make the addict want to take drugs again, she suggests. Since life is filled with little provocations, addicts in withdrawal are constantly having their stress system activated, she concludes.
Sources
Kreek, M.J., and Koob, G.F. Drug dependence: Stress and dysregulation of brain reward pathways. Drug and Alcohol Dependence 51:23-47, 1998.
Kreek, M.J., et al. ACTH, cortisol, and b-endorphin response to metyrapone testing during chronic methadone maintenance treatment in humans. Neuropeptides 5:277-278, 1984.
Schluger, J.H., et al. Abnormal metyrapone tests during cocaine abstinence. In: L.S. Harris, ed. Problems of Drug Dependence, 1997: Proceedings of the 59th Annual Scientific Meeting, College on Problems of Drug Dependence, Inc. NIDA Research Monograph Series, Number 178. NIH Publication No. 98-4305. Pittsburgh, PA: Superintendent of Documents, U.S. Government Printing Office, p. 105, 1998.
Schluger, J.H., et al. Nalmefene causes greater hypothalamic-pituitary-adrenal axis activation than naloxone in normal volunteers: Implications for the treatment of alcoholism. Alcoholism: Clinical and Experimental Research 22(7):1430-1436, 1998.



http://www.nida.nih.gov/NIDA_Notes/NNVol14N1/Stress.html
 
Re: Stress and Addictions -

Re: Stress and Addictions -

[FONT=Arial, Helvetica, sans-serif]Alcohol and Stress [/FONT]
[FONT=Arial, Helvetica, sans-serif]The term "stress" often is used to describe the subjective feeling of pressure or tension. However, when scientists refer to stress, they mean the many objective physiological processes that are initiated in response to a stressor. As this Alcohol Alert explains, the stress response is a complex process; the association between drinking and stress is more complicated still. Becauseboth drinking behavior and an individual's response to stress are determined by multiple genetic and environmental factors (1-3), studying the link between alcohol consumption and stress may further our understanding of drinking behavior. [/FONT]
[FONT=Arial, Helvetica, sans-serif]The Stress Response [/FONT]
[FONT=Arial, Helvetica, sans-serif] The maintenance of the body's relatively steady internal state,or homeostasis, is essential for survival. The body's delicate balance of biochemical and physiological function is constantly challenged by a wide variety of stressors, including illness, injury, and exposure to extreme temperatures; by psychological factors, such as depression and fear; and by sexual activity and some forms of novelty-seeking. In response to stress, or even perceived stress, the body mobilizes an extensive array of physiological and behavioral changes in a process of continual adaptation, with the goal of maintaining homeostasis and coping with the stress (4). [/FONT]
[FONT=Arial, Helvetica, sans-serif] The stress response is a highly complex, integrated network involving the central nervous system, the adrenal system, and the cardiovascular system. When homeostasis is threatened, the hypothalamus gland, at the base of the brain, initiates the stress response by secreting corticotropin releasing factor (CRF). CRF coordinates the stress response by triggering an integrated series of physiological and behavioral reactions. CRF is transported in blood within the brain and in seconds triggers the pituitary gland to release adrenocorticotropin hormone (ACTH), also referred to as corticotropin. ACTH then triggers secretion of glucocorticoid hormones (i.e., "steroids") by the adrenal glands, located at the top of the kidneys. Glucocorticoid hormones play a key role in the stress response and its termination (4). [/FONT]
[FONT=Arial, Helvetica, sans-serif] Activation of the stress response affects smooth muscle, fat, the gastrointestinal tract, the kidneys, and many other organs and the body functions that they control (4). The stress response affects the body's regulation of temperature; appetite and satiety; arousal, vigilance, and attention; mood; and more (4). Physical adaptation to stress allows the body to redirect oxygen and nutrients to the stressed body site, where they are needed most (4). [/FONT]
[FONT=Arial, Helvetica, sans-serif] Both the perception of what is stressful and the physiological response to stress vary considerably among individuals. These differences are based on genetic factors and environmental influences that can be traced back to infancy (5). [/FONT]
[FONT=Arial, Helvetica, sans-serif] Stress is usually thought of as harmful; but when the stress response is acute and transient, homeostasis is maintained and no adverse effects result. Under chronic stress, however, when the body either fails to compensate or when it overcompensates, damage can occur (4). Such damage may include suppression of growth, immune system dysfunction, and cell damage resulting in impaired learning and memory (4,6). [/FONT]
[FONT=Arial, Helvetica, sans-serif]Does Stress Influence Drinking? [/FONT]
[FONT=Arial, Helvetica, sans-serif] Human research to clarify the connection between alcohol and stress usually has been conducted using either population surveys based on subject self-reports or experimental studies. In many but not all of these studies, individuals report that they drink in response to stress and do so for a variety of reasons. Studies indicate that people drink as a means of coping with economic stress, job stress, and marital problems, often in the absence of social support, and that the more severe and chronic the stressor, the greater the alcohol consumption (7). However, whether an individual will drink in response to stress appears to depend on many factors, including possible genetic determinants of drinking in response to stress, an individual's usual drinking behavior, one's expectations regarding the effect of alcohol on stress, the intensity and type of stressor, the individual's sense of control over the stressor, the range of one's responses to cope with the perceived stress, and the availability of social support to buffer the effects of stress (1,2,7,8). Some researchers have found that high levels of stress may influence drinking when alternative resources are lacking, when alcohol is accessible, and when the individual believes that alcohol will help to reduce the stress (1,8). [/FONT]
[FONT=Arial, Helvetica, sans-serif] Numerous studies have found that stress increases alcohol consumption in animals (9) and that individual animals may differ in the amount of alcohol they consume in response to stress (10). Such differences may be related in part to an animal's experiencing chronic stress early in life: Prolonged stress in infancy may permanently alter the hormonal stress response and subsequent reactions to new stressors, including alcohol consumption (10,11). For example, monkeys who were reared by peers, a circumstance regarded as a stressor compared to mother-rearing, consumed twice as much alcohol as monkeys who were mother-reared (10). According to Viau and colleagues (11), adult rats handled for the first 3 weeks of life demonstrate markedly reduced hormonal responses to a variety of stressors compared with rats not handled during this time (11). In humans, Cloninger reported an association between certain types of alcoholism and adverse early childhoodexperiences (12). [/FONT]
[FONT=Arial, Helvetica, sans-serif] Animal studies reporting a positive correlation between stress and alcohol consumption suggest that drinking may take place in response to chronic stress perceived as unavoidable (2,13). For instance, rats chronically exposed to unavoidable shock learn to be helpless or passive when faced with any new stressor--including shock that is avoidable--and to demonstrate increased alcohol preference compared with rats that received only avoidable shock (2). The rats exposed to unavoidable shock exhibit the hormonal changes indicative of the stress response, including increased levels [/FONT][FONT=Arial, Helvetica, sans-serif]there was evidence of increased drinking in the towns surrounding Mount St. Helens following eruption of the volcano [/FONT][FONT=Arial, Helvetica, sans-serif]of corticosteroid hormones (2). [/FONT]
[FONT=Arial, Helvetica, sans-serif] Whether humans drink in response to uncontrollable stress is less clear, according to Pohorecky (7). In a review investigating the connection between alcohol consumption and stress, Pohorecky notes several studies in which researchers sampled individuals from areas affected by natural disaster. One study found that alcohol consumption increased by 30 percent in the 2 years following a flood at Buffalo Creek, West Virginia. Similarly[/FONT][FONT=Arial, Helvetica, sans-serif] [/FONT][FONT=Arial, Helvetica, sans-serif], t(7). Following the nuclear plant accident at Three Mile Island, however, alcohol consumption was infrequently used by those sampled as a means of coping with the resulting stress (14). [/FONT]
[FONT=Arial, Helvetica, sans-serif] In both humans and animals, drinking appears to follow stress (2,3,7,13). Some human research, however, shows that drinking may take place in anticipation of or during times of stress (15). [/FONT]
[FONT=Arial, Helvetica, sans-serif]Does Drinking Reduce or Induce Stress? [/FONT]
[FONT=Arial, Helvetica, sans-serif] Some studies have reported that acute exposure to low doses of alcohol may reduce the response to a stressor in animals and humans. For example, low doses of alcohol reduced the stress response in rats subjected to strenuous activity in a running wheel (3). In humans, a low dose of alcohol improved performance of a complex mental problem-solving task under stressful conditions (3). However , in some individuals, at certain doses, alcohol may induce rather than reduce the body's stress response (16). [/FONT]
[FONT=Arial, Helvetica, sans-serif] Much research demonstrates that alcohol actually induces the stress response by stimulating hormone release by the hypothalamus, pituitary, and adrenal glands (4,6,17,18). This finding has been demonstrated in animal studies. In one study with rats, the administration of alcohol initiated the physiological stress response, measured by increased levels of corticosterone (19). In addition to stimulating the hormonal stress response, chronic exposure to alcohol also results in an increase in adrenaline (20). [/FONT]
[FONT=Arial, Helvetica, sans-serif]Stress, Alcoholism, and Relapse [/FONT]
[FONT=Arial, Helvetica, sans-serif] Stress may be linked to social drinking, and the physiological response to stress is different in actively drinking alcoholics compared with nonalcoholics (17). Researchers have found that animals preferring alcohol over water have a different physiological response to stress than animals that do not prefer alcohol (21). Nonetheless, a clear association between stress, drinking behavior, and the development of alcoholism in humans has yet to be established. [/FONT]
[FONT=Arial, Helvetica, sans-serif] There may, however, in the already established alcoholic, be a clearer connection between stress and relapse: Among abstinent alcoholics, personally threatening, severe, and chronic life stressors may lead to alcohol relapse (15,22). Brown and colleagues (15) studied a group of men who completed inpatient alcoholism treatment and later experienced severe and prolonged psychosocial stress prior to and independent of any alcohol use. The researchers found that subjects who relapsed experienced twice as much severe and prolonged stress before their return to drinking as those who remained abstinent. In this study, severe psychosocial stress was related to relapse in alcoholic males who expected alcohol to reduce their stress. Those most vulnerable to stress-related relapse scored low on measures of coping skills, self-efficacy, and social support. Stress-related relapse was greatest among those who had less confidence in their ability to resist drinking and among those who relied on drinkers for social support. Although many factors can influence a return to drinking, Brown and colleagues note that stress may exert its greatest influence on the initial consumption of alcohol after a period of abstinence (15). [/FONT]
[FONT=Arial, Helvetica, sans-serif]Drinking and Stress--A Commentary by
NIAAA Director Enoch Gordis, M.D.
[/FONT]
[FONT=Arial, Helvetica, sans-serif]Stress is commonly believed to be a factor in the development of alcoholism (alcohol dependence). However, current science is more informative about the relationship between drinking and stress than about the relationship between stress and alcohol dependence. [/FONT]
[FONT=Arial, Helvetica, sans-serif] Drinking alcohol produces physiological stress, that is, some of the body's responses to alcohol are similar to its responses to other stressors. Yet, individuals also drink to relieve stress. Why people should engage in an activity that produces effects similar to those they are trying to relieve is a paradox that we do not yet understand. One hypothesis is that stress responses are not exclusively unpleasant; the arousal associated with stress itself may be rewarding. This might explain, for example, compulsive gambling or repeated participation in "thrill-seeking" activities. Current studies may illuminate genetic variations in the physiological response to stress that are important in drinking or other activities with the potential to become addictive. [/FONT]
[FONT=Arial, Helvetica, sans-serif] Training clinical staff to accurately appraise patients' drink-provoking stressors may help staff to identify individuals at risk for relapse. One route to relapse prevention is the teaching of coping skills where patients learn how to deal with these stressors without drinking. How this treatment approach compares with others remains of special interest. [/FONT]
[FONT=Arial, Helvetica, sans-serif]References [/FONT]
[FONT=Arial, Helvetica, sans-serif](1) Sadava, S.W., & Pak A.W. Stress-related problem drinking and alcohol problems: A longitudinal study and extension of Marlatt's model. Canadian Journal of Behavioral Science 25(3):446-464, 1993. (2) Volpicelli, J.R. Uncontrollable events and alcohol drinking. British Journal of Addiction 82(4): 381-392, 1987. (3) Kalant, H. Stress-related effects of ethanol in mammals. Critical Reviews in Biotechnology 9(4):265-272, 1990. (4) Tsigos, C., &Chrousos, G.P. The neuroendocrinology of the stress response. In: Hunt, W., & Zakhari, S., eds. Stress, Gender, and Alcohol-Seeking Behavior. National Institute on Alcohol Abuse and Alcoholism Research Monograph No. 29. Bethesda,MD: the Institute, 1995. (5) Meany, M.J.; Diorio, J.; O'Donnell, D.; Smythe, J.W.; Parent, A.; & Sharma, S. Serotonin as a mediator of the effects of environmental events on the development of the hypothalamic-pituitary-adrenal axis. In:Hunt, W., & Zakhari, S., eds. Stress, Gender, and Alcohol-Seeking Behavior. National Institute of Alcohol Abuse and Alcoholism Research Monograph No 29. Bethesda, MD: the Institute, 1995. (6) Eskay, R.L.; Chautard, T.; Torda, T.; & Hwang, D. The effects of alcohol on selected regulatory aspects of the stress axis. In:Zakhari, S., ed. Alcohol and the Endocrine System. National Institute on Alcohol Abuse and Alcoholism Research Monograph No. 23. Bethesda, MD: the Institute, 1993. (7) Pohorecky, L.A. Stress and alcohol interaction: An update of human research. Alcoholism: Clinical and Experimental Research 15(3):438-459, 1991. (8) Jennison, K.M. The impact of stressful life events and social support on drinking among older adults: A general population survey. International Journal of Aging and Human Development 35(2):99-123, 1992. (9) Hilakivi-Clarke, L., & Lister, R.G. Social status and voluntary alcohol consumption in mice: Interaction with stress. Psychopharmacology 108(3):276-282, 1992. (10) Higley, J.D.; Hasert, M.F.; Suomi, S.J.; & Linnoila, M. Nonhuman primate model of alcohol abuse: Effects of early experience, personality, and stress on alcohol consumption. Proceedings of the National Academy of Sciences U.S.A. 88:7261-7265, 1991. (11) Viau, V.; Sharma, S.; Plotsky, P.M.;& Meaney, M.J. Increased plasma ACTH responses to stress in nonhandled compared with handled rats require basal levels of corticosterone and are associated with increased levels of ACTH secretagogues in the median eminence. The Journal of Neuroscience 13(3):1097-1105, 1993. (12) Cloninger, C.R. Neurogenetic adaptive mechanisms in alcoholism. Science 236:410-416, 1987. (13) Nash, J.F., &Maickel, R.P. The role of the hypothalamic-pituitary-adrenocortical axis in post-stress induced ethanol consumption by rats. Progress in Neuro-psychopharmacology and Biological Psychiatry 12:653-671, 1988. (14) Kasl, S.V.; Chisholm, R.F.;&Eskenazi, B. The impact of the accident at the Three Mile Island on the behavior and well-being of nuclear workers. Part II: Job tension, psychophysiological symptoms, and indices of distress. American Journal of Public Health 71(5):484-495, 1981. (15) Brown, S.A.; Vik, P.W.; Patterson, T.L.; Grant, I.; & Schuckit, M.A. Stress, vulnerability, and adult alcohol relapse. Journal of Studies on Alcohol 56(5):538-545, 1995. (16) Waltman, C.; Blevins, Jr., L.S.; Boyd, G.; & Wand, G.S. The effects of mild ethanol intoxication on the hypothalamic-pituitary-adrenal axis in nonalcoholic men. Journal of Clinical Endocrinology and Metabolism 77(2):518-522, 1993. (17) Wand, G.S., & Dobs, A.S. Alterations in the hypothalamic-pituitary-adrenal axis in actively drinking alcoholics. Journal of Clinical Endocrinology and Metabolism 72(6):1290-1295, 1991. [/FONT][FONT=Arial, Helvetica, sans-serif](18) Krishnan, S.; Nash, Jr., J.F.; & Maickel, R.P. Free-choice ethanol consumption of rats: Effects of ACTH4-10. Alcohol 8(5)401-404, 1991. (19) Spencer, R.L, &McEwen, B.S. Adaptation of the hypothalamic-pituitary-adrenal axis to chronic ethanol stress. Neuroendocrinology 52(5):481-489, 1990. (20) Rivier, C.; Imaki, T.; & Vale, W. Prolonged exposure to alcohol: Effect on CRF mRNA levels, and CRF- and stress-induced ACTH secretion in the rat. Brain Research 520: 1-5, 1990. (21) Ehlers, C.L. Stress, gender, and alcoholism risk: Findings in humans and animal models. In:Hunt, W., & Zakhari, S., eds. Stress, Gender, and Alcohol-Seeking Behavior. National Institute on Alcohol Abuse and Alcoholism Research Monograph No 29. Bethesda, MD: the Institute, 1995. (22) Brown, S.A.; Vik, P.W.; McQuaid, J.R.; Patterson, T.L.; Irwin, M.R.; & Grant, I. Severity of psychosocial stress and outcome of alcoholism treatment. Journal of Abnormal Psychology 99(4):344-348, 1990. [/FONT]

http://pubs.niaaa.nih.gov/publications/aa32.htm
 
Codependence

Codependence

Codependence (or codependency) is a popular psychology concept popularized by Twelve-Step program advocates. A "codependent" is loosely defined as someone who exhibits too much, and often inappropriate, caring for persons who depend on him or her. A "codependent" is one side of a relationship between mutually needy people. The dependent, or obviously needy party(s) may have emotional, physical, financial difficulties, or addictions they seemingly are unable to surmount. The "codependent" party exhibits behaviour which controls, makes excuses for, pities, and takes other actions to perpetuate the obviously needy party's condition, because of their desire to be needed and fear of doing anything that would change the relationship.
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[edit] Symptoms

Symptoms of codependence are controlling behavior, distrust, perfectionism, avoidance of feelings, problems with intimacy, excessive caretaking, hypervigilance or physical illness related to stress. Codependence is often accompanied by clinical depression, as the codependent person succumbs to feelings of frustration or sadness over his or her inability to improve the situation.

Codependence can also be a set of maladaptive, compulsive behaviors learned by family members in order to survive in a family which is experiencing great emotional pain and stress caused, for example, by a family member's alcoholism or other addiction, sexual or other abuse within the family, a family member's chronic illness, or forces external to the family, such as poverty.

Codependency advocates claim that a codependent may feel shame about, or try to change, his or her most private thoughts and feelings if they conflict with those of another person. An example would be a wife making excuses for her husband's excessive drinking and perhaps running interference for him by calling in sick for him when he is hung over. Such behaviors, which may well lessen conflict and ease tension within the family in the short term, are counterproductive in the long term, since, in this case, the wife is actually supporting ("enabling") the husband's drinking behavior. So, sometimes, the codependent is referred to as an "enabler." It is also worth noting that since the wife in this case is dependent on the husband's alcoholic behavior, she may actually feel disturbed, disoriented or threatened if she sees clearly that he is emerging from his dependence; the threat to her position as a confidante and needed loved one might lead her unconsciously to resist the husband's steps towards recovery. Similarly, a codependent parent might resist his or her child's steps toward independence; whether early or late in life.

Codependent people have a greater tendency to enter into relationships with people who are emotionally unavailable or needy. The codependent tries to control a relationship without directly identifying and addressing his or her own needs and desires. This invariably means that codependents set themselves up for continued unfulfillment. Codependents always feel that they are acting in another person's best interest, making it difficult for them to see the controlling nature of their own behavior.

http://en.wikipedia.org/wiki/Codependence
 
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