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Video shows how fast patient recovers after inguinal hernia repair without mesh by Dr.Desarda technique. Patient normally can drive car and go to office within 3-4 days.No recurrence, no pain.
A STORY OF MR. DAVID FROM USA LOS ANGELES IS WORTH LISTENING:
Mr. David said that he did not wish to insert a foreign body like mesh in his body for hernia repair. He had heard from his friends and well wishers and also read and learnt from the internet about complications of a foreign body or mesh and the chances of recurrences after mesh repair. He made an immense research on the internet for any available technique of hernia repair that does not use mesh. He found to his amazement that there are only two centers all over the world which specialize in pure tissue repair of hernia. One is ‘Shouldice center’ in Canada and another is ‘Desarda Center’ in India. This is how he came to know about ‘Desarda’s Repair’ while searching on internet and liked it because it is without mesh or any foreign body and virtually free from recurrences thereafter.
David Williamson, a 37 years patient from Los Angeles, USA came to Pune to Dr. Desarda for getting operated for his groin hernia. Mr. David flew from USA and reached Mumbai and then Pune at 4AM in the morning on 7.10.2007. He was operated at 11 AM in Poona Hospital on the same day and was allowed to move out of bed and go to bathroom within 4-5 hours after surgery. He was permitted to move freely all around as and when he wanted. There were no restrictions. He was freely moving all around the ward on second day. He came down the staircase on third day with his hand bag luggage, took auto-rickshaw and went on his own to ATM centre to withdraw the money. On 4th day he went to Rajneesh Oschio Ashram and spent whole day there to attend there various course activities. A local patient is discharged from the hospital on the same day or next day morning and he is advised to attend all his routine work without any restrictions thereafter.
The story of Mr. Ted and Mr. Ron who also came to India for their hernia surgery is also similar to this story. If American surgeons had adopted this technique in their practice, many patients like David who wish to have no foreign body inserted for hernia repair could get easily operated there and could avoid this long distance journey and other hassles of going to some other country for such operation.
“Complete cure from groin hernia is now possible with Dr.Desarda's repair technique.......”
Mesh is a foreign body. Therefore, its use in hernia repairs is known to cause all sorts of complications like pain, recurrence, infection etc. We have developed an innovative new technique of inguinal hernia repair without mesh. It uses your own body muscle for repair and gives virtually complete cure from inguinal hernia problem. An undetached strip of the external oblique aponeurosis is stitched on the weak area between the muscle arch and the inguinal ligament to form a new, strong and physiologically dynamic posterior wall that gives protection and prevents re-herniation. Normally patient goes home in a day after surgery and can drive car and go to office in 3-4 days time. This "Dr.Desarda's hernia repair" is now followed in many countries all over the world. We are surprised to see the enquiries from many patients in the developed countries asking for this repair in their country. This is because this operation does not use any foreign body like mesh for repair and therefore there are no complications that are seen in mesh repairs. A visit to Topix or other hernia forums show thousands of posts showing sufferings of many patients due to mesh repairs. But still why surgeons from developed countries are interested in mesh repairs is a big question for us.
Please visit our website for more details: http://herniasurgery.tripod.com Our cell number: +91 9373322178
Neurotransmitter 3D Animation
on Tuesday, December 21, 2010
Neurotransmitters are endogenous chemicals which transmit signals from a neuron to a target cell across a synapse. Neurotransmitters are packaged into synaptic vesicles clustered beneath the membrane on the presynaptic side of a synapse, and are released into the synaptic cleft, where they bind to receptors in the membrane on the postsynaptic side of the synapse. Release of neurotransmitters usually follows arrival of an action potential at the synapse, but may also follow graded electrical potentials. Low level "baseline" release also occurs without electrical stimulation. Neurotransmitters are synthesized from plentiful and simple precursors, such as amino acids, which are readily available from the diet and which require only a small number of biosynthetic steps to convert. The chemical identity of neurotransmitters is often difficult to determine experimentally. For example, it is easy using an electron microscope to recognize vesicles on the presynaptic side of a synapse, but it may not be easy to determine directly what chemical is packed into them. The difficulties led to many historical controversies over whether a given chemical was or was not clearly established as a transmitter. In an effort to give some structure to the arguments, neurochemists worked out a set of experimentally tractable rules. According to the prevailing beliefs of the 1960s, a chemical can be classified as a neurotransmitter if it meets the following conditions: * There are precursors and/or synthesis enzymes located in the presynaptic side of the synapse. * The chemical is present in the presynaptic element. * It is available in sufficient quantity in the presynaptic neuron to affect the postsynaptic neuron; * There are postsynaptic receptors and the chemical is able to bind to them. * A biochemical mechanism for inactivation is present. There are many different ways to classify neurotransmitters. Dividing them into amino acids, peptides, and monoamines is sufficient for some classification purposes. Major neurotransmitters: * Amino acids: glutamate, aspartate, D-serine, γ-aminobutyric acid (GABA), glycine * Monoamines and other biogenic amines: dopamine (DA), norepinephrine (noradrenaline; NE, NA), epinephrine (adrenaline), histamine, serotonin (SE, 5-HT), melatonin * Others: acetylcholine (ACh), adenosine, anandamide, nitric oxide, etc. In addition, over 50 neuroactive peptides have been found, and new ones are discovered regularly. Many of these are "co-released" along with a small-molecule transmitter, but in some cases a peptide is the primary transmitter at a synapse. β-endorphin is a relatively well known example of a peptide neurotransmitter; it engages in highly specific interactions with opioid receptors in the central nervous system. Single ions, such as synaptically released zinc, are also considered neurotransmitters by some[by whom?], as are some gaseous molecules such as nitric oxide (NO) and carbon monoxide (CO). These are not classical neurotransmitters by the strictest definition, however, because although they have all been shown experimentally to be released by presynaptic terminals in an activity-dependent way, they are not packaged into vesicles. By far the most prevalent transmitter is glutamate, which is excitatory at well over 90% of the synapses in the human brain. The next most prevalent is GABA, which is inhibitory at more than 90% of the synapses that do not use glutamate. Even though other transmitters are used in far fewer synapses, they may be very important functionally—the great majority of psychoactive drugs exert their effects by altering the actions of some neurotransmitter systems, often acting through transmitters other than glutamate or GABA. Addictive drugs such as cocaine and amphetamine exert their effects primarily on the dop