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Friday, January 19, 2007

ZOLL 1600 Defibrillator


A defibrillator is an electronic apparatus used to counteract atrial or ventricular fibrillation by the application of brief electroshock to the heart, either directly or through electrodes placed on the chest wall.The importance of attempting to provide all links of the Advanced Cardiac Life Support (ACLS) "Chain of Survival" to victims of sudden cardiac arrest cannot be stressed enough. Each link in the chain: Access to 911, bystander CPR, rapid defibrillation, prompt ACLS, all equate to increased survival rates for victims of sudden cardiac arrest, especially when delivered as a collective sequential package.With the creation of comprehensive EMS systems capable of delivering higher levels of medical care outside of the hospital environment, the ability to have an impact on treating cardiac disease has become apparent. Perhaps the most noticeable impact can be seen in the area of treating sudden cardiac arrest using defibrillation. Communities have demonstrated increased survival rates for out-of-hospital cardiac arrest victims, using defibrillation in combination with quick access to EMS and early bystander CPR.Survival rates beginning in the range of 20 per cent have been reported for out-of-hospital cardiac arrest victims who received immediate bystander CPR, followed by rapid defibrillation within eight minutes following collapse.

Health and the Millennium Development Goals


In September 2000, the largest-ever gathering of Heads of State ushered in the new millennium by adopting the Millennium Declaration. The Declaration, endorsed by 189 countries, was then translated into a roadmap setting out goals to be reached by 2015.
The eight Millennium Development Goals (MDGs) build on agreements made at United Nations conferences in the 1990s and represent commitments to reduce poverty and hunger, and to tackle ill-health, gender inequality, lack of education, lack of access to clean water and environmental degradation.
The MDGs are framed as a compact, which recognizes the contribution that developed countries can make through trade, development assistance, debt relief, access to essential medicines and technology transfer.
Some of WHO's work is tied directly to one MDG, for example, WHO's work on HIV/AIDS. Other work touches not one specific goal, but several at the same time, for example, WHO's work on strengthening health systems.
This website provides easy access to information on WHO activities on the MDGs. It also includes recent publications on the topic.




Overview

The aim of the High-Level Forum (HLF) on the Health Millennium Development Goals (MDGs) is to provide an opportunity for candid dialogue between senior policy makers and identify opportunities for accelerating action on the health-related MDGs.The idea for the High-Level Forum emerged from a meeting of development agencies and developing countries that took place in Ottawa, hosted by the Government of Canada, the World Bank and the United Kingdom's Department for International Development (DFID) in May 2003. The HLF is coordinated by a small secretariat provided by the World Health Organization and the World Bank. Forum participants include ministers and senior officials from developing countries as well as heads of bilateral and multilateral agencies, foundations, regional organizations and global partnerships.The first High-Level Forum (HLF) on the Health Millennium Development Goals (MDGs) took place in Geneva in January 2004. Discussions focused on resources, aid effectiveness and harmonization and on human resources for health. Action on establishing a global health metrics network was agreed.
The second High-Level Forum on the Health MDGs was held in December 2004 in Abuja, Nigeria and co-sponsored by the Government of Nigeria. Key points of discussion covered progress toward health MDGs in low and middle income countries; MDG-oriented poverty reduction and sector strategies; monitoring performance and tracking resource flows; action on the human resources crisis in health; and health in low-income countries under stress.

The third High-Level Forum on the Health MDGs, was held in Paris France, on 14 and 15 November 2005. Major topics discussed were: financial sustainability and fiscal space; global health partnerships and aid effectiveness, and health in fragile states.

Brain Cleaner:new method for Brain injuries.

An injury to the brain can be devastating. When brain cells die, whether from head trauma, stroke or disease, a substance called glutamate floods the surrounding areas, overloading the cells in its path and setting off a chain reaction that damages whole swathes of tissue. Glutamate is always present in the brain, where it carries nerve impulses across the gaps between cells. But when this chemical is released by damaged or dying brain cells, the result is a flood that overexcites nearby cells and kills them.
A new method for ridding the brain of excess glutamate has been developed at the Weizmann Institute of Science. This method takes a completely new approach to the problem, compared with previous attempts based on drugs that must enter the brain to prevent the deleterious action of glutamate. Many drugs, however, can't cross the blood-brain barrier into the brain, while other promising treatments have proved ineffective in clinical trials. Prof. Vivian Teichberg, of the Institute's Neurobiology Department, working together with Prof. Yoram Shapira and Dr. Alexander Zlotnik of the Soroka Medical Center and Ben Gurion University of the Negev, has shown that in rats, an enzyme in the blood can be activated to "mop up" toxic glutamate spills in the brain and prevent much of the damage. This method may soon be entering clinical trials to see if it can do the same for humans.
Though the brain has its own means of recycling glutamate, injury causes the system to malfunction, leading to glutamate build up. Prof. Teichberg reasoned that this problem could be circumvented by passing glutamate from the fluid surrounding brain cells into the bloodstream. But first, he had to have a clear understanding of the mechanism for moving glutamate from the brain to the blood. Glutamate concentrations are several times higher in the blood than in the brain, and the body must be able to pump the chemical "upstream." Glutamate pumps, called transporters, are found on the outsides of blood vessels, on cells that come into contact with the brain. These collect glutamate, creating small zones of high concentration from which the glutamate can then be released into the bloodstream.
Basic chemistry told him that he could affect the transporter activity by tweaking glutamate levels in the blood. When blood levels are low, the greater difference in concentrations causes the brain to release more glutamate into the bloodstream. He uses an enzyme called GOT that is normally present in blood to bind glutamate chemically and inactivate it, effectively lowering levels in the blood and kicking transporter activity into high gear. In their experiments, Teichberg and his colleagues used this method to scavenge blood glutamate in rats with simulated traumatic brain injury. They found that glutamate cleared out of the animals' brains effectively, and damage was prevented.
Yeda, the technology transfer arm of the Weizmann Institute, now holds a patent for this method, and a new company based on this patent, called "Braintact Ltd.," has been set up in Kiryat Shmona in northern Israel and is currently operating within the framework of Meytav Technological Incubator. The US FDA has assured the company of a fast track to approval. If all goes well, Phase I clinical trials are planned for the near future.
The method could potentially be used to treat such acute brain insults as head traumas and stroke, and prevent brain and nerve damage from bacterial meningitis or nerve gas. It may also have an impact on chronic diseases such as glaucoma, amyotrophic lateral sclerosis (ALS) or HIV dementia. Teichberg: "Our method may work where others have failed, because rather than temporarily blocking the glutamate's toxic action with drugs inside the brain, it clears the chemical away from the brain into the blood, where it can't do harm anymore."
Prof. Vivian I. Teichberg's research is supported by the M.D. Moross Institute for Cancer Research; the Nella and Leon Benoziyo Center for Neurosciences; the Carl and Micaela Einhorn-Dominic Brain Research Institute; the Mario Negri Institute for Pharmacological Research -- Weizmann Institute of Science Exchange Program; the Ruth and Samuel Rosenwasser Charitable Fund; the estate of Dr. Frank Goldstein, Chevy Chase, MD; Mr. and Mrs. Irwin Green, Boca Raton, FL; and the estate of Anne Kinston, UK.