GETTING KICKED OUT FOR WEED

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Oh so real growers are only making mothers and not copping OG or rare clones from other people that have it exclusively ?:usure:

You don't know shyt about the weed game you just have a closet set up and read high times...stop trying to play like you know the game

Basically. Clones are basicly for people who dont want to bother with genetics. Hobbyists. I create strains. I smoked herb in cali, amsterdam and all over the world, you aint never left oakland.

:dead:
 

TheBeigeBomber

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http://www.medicinenet.com/script/main/art.asp?articlekey=89947



Marijuana May Shrink Parts of the Brain
By Steven Reinberg
HealthDay Reporter
MONDAY, June 2 (HealthDay News) — People who use marijuana for a long time can develop abnormalities in their brains, Australian researchers report.

Although growing literature suggests that long-term marijuana use is associated with a wide range of adverse health consequences, many people believe it is relatively harmless and should be legalized, the researchers noted.


Marijuana May Shrink Parts of the Brain
By Steven Reinberg
HealthDay Reporter
MONDAY, June 2 (HealthDay News) — People who use marijuana for a long time can develop abnormalities in their brains, Australian researchers report.

Although growing literature suggests that long-term marijuana use is associated with a wide range of adverse health consequences, many people believe it is relatively harmless and should be legalized, the researchers noted.

"However, this study shows long-term, heavy cannabis use causes significant brain injury, memory loss, difficulties learning new information, and psychotic symptoms, such as delusions of persecution [paranoia], delusions of mind-reading, and bizarre social behaviors in even non-vulnerable users," said lead researcher Murat Yucel, from the ORYGEN Research Centre and the Neuropsychiatry Centre at the University of Melbourne.

This new evidence plays an important role in further understanding the effects of marijuana and its impact on brain functioning, Yucel said. "The study is the first to show that long-term cannabis use can adversely affect all users, not just those in the high-risk categories such as the young, or those susceptible to mental illness, as previously thought," he said.

The report was published in the June issue of the Archives of General Psychiatry.

In the study, Yucel's team did high-resolution MRIs on 15 men who smoked more than five joints a day for more than 10 years. They compared those with scans of 16 men who did not use marijuana.

In addition, all the men took verbal memory tests and were examined for symptoms of psychiatric disorders.

"The more marijuana used, the more these individuals were likely to show reduced brain volumes in the hippocampus and amygdala, as well as being more likely to develop symptoms of psychotic disorders and to have significant memory impairment," Yucel said.

In fact, the hippocampus of marijuana users was 12 percent smaller, and the amygdala was 7.1 percent smaller than among nonusers. In addition, men who used marijuana also had symptoms of psychiatric disorders, Yucel's group found.

The hippocampus is associated with the regulation of emotion and memory, while the amygdala controls fear and aggression.

"There is ongoing controversy concerning the long-term effects of cannabis on the brain," Yucel said. "These findings challenge the widespread perception of cannabis as having limited or no harmful effects on brain and behavior. Although modest use may not lead to significant neurotoxic effects, these results suggest that heavy daily use might indeed be toxic to human brain tissue."

One expert agrees that heavy marijuana use can have negative effects on the brain.

"These findings are not surprising," said Dr. Adam Bisaga, an assistant professor of psychiatry at Columbia University and an addiction psychiatrist at New York State Psychiatric Institute. "Chronic use of large amounts of any substance that is affecting neural transmission will most likely invoke adaptive changes and lead to the reorganization of neural networks, and possibly affect brain structures."

Heavy users of marijuana probably represent only a very small proportion of users, Bisaga said.

"It is not clear if any clinically significant changes can be seen in recreational, infrequent marijuana users, who were not studied here. These findings suggest that public health education, as well as screening, early recognition, and treatment of cannabis dependence, may prevent the progression of the disease and the loss of brain function and related psychiatric complications," Bisaga said.

SOURCES: Murat Yucel, Ph.D., ORYGEN Research Centre, Melbourne Neuropsychiatry Centre, University of Melbourne, Australia; Adam Bisaga, M.D., assistant professor, psychiatry, Columbia University, and addiction psychiatrist, New York State Psychiatric Institute, New York City; June 2008, Archives of General Psychiatry

If you been smoking weed 10 years, you got the same size amydula as an Alzheimer patient.

What part of this dont you understand? A SMALLER AMYGDALA = LESS ANXIETY. So theres nothing wrong with weed shrinking the amygdala. Meditation does the same thing. Seriously I dont think you understand what you are talking about.
 
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shyts very popular.

HGgxRo9.jpg


Strawberry cough x nyc diesel x lavender.

I got a waiting list but I also got a real job, this is a hobby Im awesome at.
 
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What part of this dont you understand? A SMALLER AMYGDALA = LESS ANXIETY. So theres nothing wrong with weed shrinking the amygdala. Meditation does the same thing. Seriously I dont think you understand what you are talking about.

How about you provide proof that a smaller amygdula is better for you. Any papers. Just one..

LOL its like you think that its small amygdala = small anxiety

JFC you cant be this stupid. Debunk it.
 

observe

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Hes full of shyt. He just posted the most ridiculous article about weed shrinking the brain. :snoop: So yeah he crates weed strains but still thinks weed is bad for you? :snoop:

I know he's full of shyt..I've worked in 4 different hydro shops over the course of 10 years..he's just a one room grower creating some strain that no one gives a shyt about..my customers are doing warehouses making millions locking up the game in the states
 

TheBeigeBomber

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I smoke cigs too. Just because I do something I dont have to pretend its harmless. Pros and cons to everything. You got a childs mentality

PS show the studies

I gave you a link and you chose to ignore it. all you have to do is google amaygdala size amd anxiety. youve got it the wrong way round.
 
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I did. All points to me being correct except for children who are still developing. Then again i knew I was correct before I made this post cus I study this stuff.

Source: The Scientist 15[19]:20,
Date: October. 1, 2001
Amygdala's Inner Workings
Researchers gain new insights into this structure's emotional connections
By Harvey Black

The amygdala, an almond-sized and -shaped brain structure, has long been linked with a person's mental and emotional state. But thanks to scientific advances, researchers have recently grasped how important this 1-inch-long structure really is. Associated with a range of mental conditions from normalcy to depression to even autism, the amygdala has become the focal point of numerous research projects.

Derived from the Greek for almond, the amygdala sits in the brain's medial temporal lobe, a few inches from either ear. Coursing through the amygdala are nerves connecting it to a number of important brain centers, including the neocortex and visual cortex. "More and more we're beginning to believe, and the evidence is pointing to the idea, that it's the circuits that are important, not just the structure per se," says Ned Kalin, professor of psychiatry, University of Wisconsin-Madison. "And in this particular case the circuitry between the frontal cortical regions of the brain may be critical in regulating emotion and in guiding emotion-related behaviors."

Investigations detailing the amygdala's role date back more than 60 years. H. Kluver and P.C. Bucy reported that amygdala lesions transformed feral rhesus monkeys into tame ones.1 But these lesions were so large and, compared to today's techniques, so crude, that researchers weren't sure of the structures responsible for the behavioral changes. Improved techniques, such as using the neurotoxin ibotenic acid to make more precise lesions; magnetic resonance imaging (MRI); and positron emission tomography (PET) scans of the amygdala's activity, are partly responsible for renewed interest in the amygdala.

A second reason, says John Aggleton, professor of cognitive neuroscience at Cardiff University, Wales, was rat research conducted by Joseph Ledoux, professor of neural science and psychology at New York University, and Michael Davis, professor of psychiatry at Emory University.2,3 This research, says Aggleton, has, in the past 10 years, "paid enormous dividends in understanding how fearful stimuli can control behavior."

But Kalin notes that David Amaral, professor of psychiatry and neuroscience, University of California, Davis, has demonstrated a major difference between rats and monkeys in the links between the amygdala and the rest of the brain.4 "[Amaral's] work has pointed out that there are very strong connections between the amygdala and the neocortex, particularly the visual cortex and the prefrontal cortex. There's not much cross-talk in the rodents between the amygdala and the cortex," says Kalin.

Amaral says he thinks that the amygdala is really playing a protective role. "It is a very phylogenetically old structure," he says. "Probably very early on in Phylogeny, [it] was primarily involved in protecting organisms, moving them away from obnoxious chemical milieu. As organisms evolved it got different kinds of sensory information in to evaluate stimuli in the environment, and that's one of the reasons why it's more highly connected with the neocortex as organisms evolved. It's getting more and more high-level information to do an interpretation of what's going on in the environment."

Kalin's recent monkey study5 shows how a lesioned amygdala can damage that potentially life-saving evaluative function. "We found that when we selectively lesioned the amygdala in 3-year-old animals, the animals' acute fear responses were blunted," he says.

Amaral has found that lesioned adult monkeys abandon their normal caution and tendency to withdraw when confronted with a strange monkey. Instead, they approached the animal and showed "greater frequency and duration of positive social behavior," such as grooming and cooing, than did nonlesioned monkeys.



A Role in Autism?
Lesioned infant monkeys, however, present a dramatically different picture. Jocelyne Bachevalier, professor of neurobiology and anatomy, University of Texas Health Science Center, found that 6-month-old monkeys, their amygdalas lesioned four months before,6 "will not initiate social approach as young babies normally do to play together. And they also seem to have ritualistic behavior, like rocking. These behaviors remained when they became adults," she says. Bachevalier believes that the damaged amygdala robs the young animals of their ability to interpret the social world around them. "I have the feeling that these animals have a hard time interpreting facial expressions or any type of gestures the monkeys can have. Thus they react as trying to avoid interactions," she says. So striking were these findings, says Bachevalier, that she examined literature on human emotional problems. "When I was starting to read about autism, the behavioral syndrome looked quite similar," she says. "Maybe the amygdala is important in the social deficits we see in this population of humans." She was following up on this hypothesis when Tropical Storm Allison, which hit the Houston area in early June, drowned her study animals.
But Amaral questions whether amygdala lesions in neonatal animals can be used as an autism model. Based on Bachevalier's findings, Amaral lesioned infant monkeys to explore the possible connection,7 and placed them in a cage with an intact monkey. "We expected to see these neonatal monkeys not responding in a social way, like Jocelyne suggested.... We found that the animals did not engage in social interactions, but they are very vigilant and very attentive to the other monkey in the cage. If this was going to be a model of autism, they should show no interest in the other animal. You can get lack of social behavior in a variety of ways. If you're phobic, it's not that you can't read social signals; it's just that you're frightened. That's what our monkeys look like. They're frightened," he says. But Amaral doesn't dismiss the possibility that some amygdala dysfunction could play a role in autism. He is currently using magnetic resonance imaging to examine amygdala function in autistic children and adults.



The Amygdala and Depression
Other researchers are exploring how the amygdala might affect people who suffer from bipolar or unipolar (depression-marked melancholy episodes) illnesses, which run in families. "We found that [such people] have an abnormal increase in blood flow and glucose metabolism," says Wayne Drevets, chief of mood and anxiety disorders in the National Institute of Mental Health's neuroimaging section. He also reports that in patients with unipolar depression, the amygdala's left side is smaller by about 12 percent to 15 percent than it is in normal controls.8 Why this is so is not fully certain, but Drevets notes that the amygdala is linked with other brain structures, including the orbital frontal cortex, the thalamus, the striatum, all of which have been "implicated in emotional processing," he says. The overactive amygdala could be a sign of excitotoxicity, a lethal kind of overactivity that kills cells. That, Drevets suggests, might be why a shrunken amygdala is seen in depressed patients. And, he says, some anti-depressive drugs, like lithium, increase biochemical production; these protect neurons from the ravages of overexcitation, thus giving researchers a good reason to continue developing anti-depressants.
While the amygdala is involved in current emotional responses, it is also heavily involved in emotional memory, notes psychology professor Larry Cahill, University of California, Irvine. It gives a "critical boost for long-term memory of emotional events," he says, also noting that men's and women's amygdalas respond differently to emotional situations.

The brain images of women and men were recorded while they were shown emotionally upsetting films, such as plane crashes or killer whales dismembering and eating baby seals. Men showed an increase in glucose metabolism on the amygdala's right side; women showed the increase on the structure's left side. The findings, notes Cahill, don't explain the difference, but they force researchers to explore the basis for it.9 "To my mind, it's saying we have to stop ignoring these kinds of variables [sex differences] when we try to figure out how the brain stores memory for emotional events. Though we only reported the amygdala, in the whole brain we found very different patterns," he says. "We have to now actively incorporate the influence of gender into our theorizing about how the brain stores memories for emotional events, because men and women on average, are probably not doing it in the same way."


Harvey Black (73773.2227@compuserve.com) is a freelance writer in Madison Wis.



1. H. Kluver, P.C. Bucy, "Preliminary analysis of the temporal lobes in monkeys," Archives of Neurological Psychiatry, 42:979-1000, 1939.

2. J. Ledoux et al., "Different projections of the central amygdaloid nucleus mediate autonomic and behavioral correlates of conditioned fear," Journal of Neuroscience, 8:2517-9, 1988.
3. M. Davis, "The role of the amygdala in fear and anxiety," Annual Review of Neuroscience, 15:353-75, 1992.



4. D.G. Amaral et al., "Anatomical organization of the primate amygdala complex." In: The Amygdala, J. Aggleton, ed., New York: Wiley-Liss, 1992, pp 1-67.

5. N.H. Kalin, "The primate amygdala mediates acute fear but not the behavioral and physiological component of anxious temperament," The Journal of Neuroscience, 21:2067-74, March 15, 2001.

6. J. Bachevalier, "Medial temporal lobe structures and autism: A review of clinical and experimental findings," Neuropsychologia, 32:627-48, 1994.

7. M. Prather et al., "Dissociation of fear to inanimate objects from social fear in macaque monkey with neonatal bilateral amygdala lesions," Neuroscience, in press.

8. W. Drevets, "Neuroimaging and neuropathological studies of depression: implications for the cognitive-emotional features of mood disorders," Current Opinion in Neurobiology, 11[2]:240-49, April 2001.

9. L. Cahill et al., "Sex related difference in amygdala activity during emotionally influenced memory storage," Neurobiology of Learning and Memory, 75:1-9, January 2001.
 
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