One of Australia’s leading juvenile justice services providing secure and safe care of up to 500 young offenders.
Review adequacy of summer and winter menus to address concerns raised to the State by the public.
Ensure compliance with Nutrient Reference Values for Australia and New Zealand
Ensure compliance with Dietary Guidelines for Children and Adolescents in Australia
Ensure compliance with Standards for Juvenile Custodial Facilities
Review of custodial health findings in various State jurisdictions around Australia and overseas.
Computer based macro and micro nutrient analysis of menus and individual recipes including protein, fat, carbohydrate and protein percentages
Computer based energy analysis of menus and individual recipes
Analysis of menus against nutrient reference values and appropriate recommendations.
Analysis of menus against dietary guidelines and appropriate recommendations
Analysis of food variety and appropriate recommendations
Analysis of special dietary needs and appropriate recommendations
Analysis of food choice and satisfaction and appropriate recommendations
A coordinating committee representing 34 professional organizations, advocacy groups and federal agencies oversaw the development of the guidelines. The coordinating committee selected a 25-member expert panel, chaired by Joshua Boyce, M.D., co-director of the Inflammation and Allergic Disease Research Section at Boston's Brigham and Women's Hospital. The panel used an independent, systematic literature review of food allergy and their own expert clinical opinions to prepare draft guidelines. Public comments were invited and considered as well during the development of the guidelines.
“These guidelines are an important starting point toward a goal of a more cogent, evidence-based approach to the diagnosis and management of food allergy,” says Dr. Boyce. “We believe that they provide healthcare professionals with a clear-cut definition of what constitutes a food allergy and a logical framework for the appropriate use of diagnostic testing and accurate interpretation of the results.”
Additional topics covered by the guidelines include the prevalence of food allergy, natural history of food allergy and closely associated diseases, and management of acute allergic reactions to food, including anaphylaxis, a severe whole-body reaction. They also identify gaps about what is known about food allergy.
“The food allergy guidelines provide a rigorous assessment of the state of the science, and clearly identify the areas where evidence is lacking and where research needs to be pursued,” says Daniel Rotrosen, M.D., director of the Division of Allergy, Immunology and Transplantation at NIAID. “This information will help shape our research agenda for the near future.”
Food allergy has become a serious health concern in the United States. Recent studies estimate that food allergy affects nearly 5 percent of children younger than 5 years old and 4 percent of teens and adults. Its prevalence appears to be on the rise. Not only can food allergy be associated with immediate and sometimes life-threatening consequences, it also can affect an individual's health, nutrition, development and quality of life. While several potential treatments appear promising, currently no treatments for food allergy exist and avoidance of the food is the only way to prevent complications of the disease.
More information on the guidelines may be found at http://www.niaid.nih.gov/topics/foodAllergy/clinical/Pages/default.aspx
Cardiovascular and lung researchers at The Ohio State University Medical Center are the first to report a direct link between air pollution and diabetes. If the ongoing research continues to confirm this association, scientists fear human health in both industrialized and developing countries could be impacted.
“We now have even more compelling evidence of the strong relationship between air pollution and obesity and type II diabetes,” said Dr. Sanjay Rajagopalan, section director of vascular medicine at Ohio State's medical center and principal investigator of the study. The latest study builds upon previous research from Rajagopalan's team implicating air pollution as a major adverse risk factor for cardiovascular effects, high blood pressure and acute coronary syndromes.
Researchers found that exposure to air pollution, over a period of 24 weeks, exaggerates insulin resistance and fat inflammation. The results of the study are available online in the current issue of Circulation. “The prevalence of obesity has reached epidemic proportions with 34 percent of adults in the U.S., ages 20 and over, meeting the criteria for obesity,” said Rajagopalan. “Obesity and diabetes are very prevalent in urban areas and there have been no studies evaluating the impact of poor air quality on these related conditions until now.”
Type II diabetes, a consequence of obesity, has soared worldwide with a projected 221 million people expected to suffer from this disease in 2010, a 46 percent increase compared to 1995.
In the Ohio State research, scientists fed male mice a diet high in fat over a 10-week period to induce obesity and then exposed them to either filtered air or air with particulate matter for six hours a day, five days a week, over a 24-week period. Researchers monitored measures of obesity, fat content, vascular responses and diabetic state. The air pollution level inside the chamber containing particulate matter was comparable to levels a commuter may be exposed to in urban including many metropolitan areas in the U.S.
According to the U.S. Environmental Protection Agency, the four most common pollutants emitted into the air are particulate matter, ozone, nitrogen dioxide and sulfur dioxide. Air pollution is commonly the result of industrial emissions, power plants and automobile exhaust.
“This study provides additional guidance for the EPA to review air pollution standards,” says Rajagopalan. “Our study also confirmed a need for a broader based approach, from the entire world, to influence policy development.”
Dr. Qinghua Sun, first author of the study, is leading an international effort to understand the effects of urban air pollution in Beijing, where the impact of recent stringent measures on air quality during the Olympics is being monitored in another controlled experiment. Researchers at the University of Michigan and the New York University School of Medicine participated in the study. Along with Rajagopalan and Sun, other Ohio State researchers involved in the study were Peibin Yue, Jeffrey A. Deiuliis, Thomas Kampfrath, Michael B. Mikolaj, Ying Cai, Michael C. Ostrowski, Bo Lu, Sampath Parthasarathy and Susan D. Moffatt-Bruce.
Funding from the National Institutes of Health supported this research.
Asymmetries of brain activity
Nonetheless, “by focusing on the asymmetric brain activity of the frontal lobe that occurs when we experience emotions, there are two models that contradict the case of anger”, the researcher highlights.
The first model, 'of emotional valence', suggests that the left frontal region of the brain is involved in experiencing positive emotions, whilst the right is more related to negative emotions.
The second model, 'of motivational direction', shows that the left frontal region is involved in experiencing emotions related to closeness, whilst the right is associated with the emotions that provoke withdrawal.
The positive emotions, like happiness, are usually associated to a motivation of closeness, and the negative ones, like fear and sadness, are characterised by a motivation of withdrawal.
However, not all emotions behave in accordance with this connection. “The case of anger is unique because it is experienced as negative but, often, it evokes a motivation of closeness”, the expert explains.
“When experiencing anger, we have observed in our study an increase in right ear advantage, that indicates a greater activation of the left hemisphere, which supports the model of motivational direction”, Herrero points out.. In other words, when we get angry, our asymmetric cerebral response is measured by the motivation of closeness to the stimulus that causes us to be angry and not so much by the fact we consider this stimulus as negative: “Normally when we get angry we show a natural tendency to get closer to what made us angry to try to eliminate it”, he concludes.
Every emotion is unique
This is the first general study on emotions and more specifically on anger that examines all these different psychobiological parameters (cardiovascular, hormonal response and asymmetric activation response of the brain) in a single investigation to study the changes caused by the inducement of anger. In addition the results of the study are along the same lines as previous investigations and defend what has been noted by Darwin: that the emotions, in this case anger, are accompanied by unique and specific (psychobiological) patterns for each emotion.