WHAT AND WHERE IS HEAVEN?

Does heaven exist? With well over 100,000 plus recorded and described spiritual experiences collected over 15 years, to base the answer on, science can now categorically say yes. Furthermore, you can see the evidence for free on the website allaboutheaven.org.

Available on Amazon
https://www.amazon.com/dp/B086J9VKZD
also on all local Amazon sites, just change .com for the local version (.co.uk, .jp, .nl, .de, .fr etc.)

VISIONS AND HALLUCINATIONS

This book, which covers Visions and hallucinations, explains what causes them and summarises how many hallucinations have been caused by each event or activity. It also provides specific help with questions people have asked us, such as ‘Is my medication giving me hallucinations?’.

Available on Amazon
https://www.amazon.com/dp/B088GP64MW 
also on all local Amazon sites, just change .com for the local version (.co.uk, .jp, .nl, .de, .fr etc.)


Suppression

Adenosine

Category: Natural chemicals

Type

Involuntary and voluntary

Introduction and description

Adenosine is an 'endogenous purine nucleoside' in other words it is a chemical that occurs naturally in our bodies.

One of its functions appears to be as an anti-inflammatory and immunological messenger. If we get cellular damage, adenosine leaps to the rescue, triggering the autoimmune system and reducing inflammation. It is also important in regulating the heart. If adenosine is prevented in some way from getting to its receptors, we can get atrial fibrillation – heart flutter, so it is a sort of regulating messenger protecting the heart from stress and emotional upset.

As such we can see Adenosine is a part of the parasympathetic nervous system. It thus has a key role to play in relaxation as we cannot relax if our immune system has been compromised or our heart is all a flutter. In effect, We can think of it as one of a group of chemical counterparts to the technique of relaxation.

This means that we must also expect an effect on the lungs, which may appear negative out of context, but is simply a feature of the fact the body is adjusting to the relaxed state and needs less oxygen. Adenosine contributes to 'bronchoconstriction'.

Background

In human beings, there are four adenosine receptors. Each is encoded by a separate gene and has different functions, although with some overlap.

  • Receptor A1 – The adenosine A1 receptor has been found to be ubiquitous throughout the entire body. This receptor has an inhibitory function on most of the tissues in which it is expressed. In the brain, it slows metabolic activity. Receptors found on the heart decrease heart rate, regulating myocardial oxygen consumption and coronary blood flow This receptor has other important roles in the brain, regulating the release of other neurotransmitters such as dopamine and glutamate
  • Receptor A2A – these receptors help in regulating myocardial oxygen consumption and coronary blood flow. The A2A receptor regulates myocardial blood flow by vasodilating the coronary arteries, which increases blood flow to the myocardium, but may lead to hypotension. Just as in A1 receptors, this normally serves as a protective mechanism, “but may be destructive in altered cardiac function
  • Receptor A2B – this receptor is located mainly peripherally and is involved in processes such as inflammation and immune response. I’m afraid the description given was meaningless to me but I will repeat it here “This integral membrane protein stimulates adenylate cyclase activity in the presence of adenosine. This protein also interacts with netrin-1, which is involved in axon elongation” Via a very long chain of effects, they also seem to play a part in bronchoconstriction and bronchospasm
  • Receptor A3 –this receptor is also located mainly peripherally and is involved in processes such as inflammation and immune response. It is “cardioprotective in cardiac ischemia, and promotes inhibition of neutrophil degranulation”. It also “inhibits growth in human melanoma cells

Antagonists

The naturally occurring chemical that counteracts Adenosine in our bodies is called Xanthine. Clearly in order to create a balanced system we need both Xanthine and Adenosine. Derivatives of Xanthine can be found in plants.

If you really go overboard on any antagonist, it will stimulate heart rate, force of contraction, cardiac arrhythmias at high concentrations. In high doses they can lead to convulsions that are resistant to anticonvulsants and you could die.

But their antagonistic action means they can have some positive effects in that they can help to relax bronchial smooth muscle. In asthmatic people or people with other lung disorders this can be a great help. 

Method


 

How it works

At the moderate to low doses one would expect during suppression, Adenosine itself and its ligands works via exactly the same mechanisms as the technique of relaxation. In the first place they should slow the brain down, as such it will have an effect on memory and reason thus helping to still the chattering mind and the intellect.

Once memory and reason have been temporarily stilled, the emotions have in part been quieted, input from the 5 senses and the nervous system minimised then the composer can step in and we get our spiritual experience.

The effects of overdose are described in the appropriate drug sections within the overdose section

List of plants containing ADENOSINE

According to Dr Duke's database

Species

Part

Lo
ppm

Hi
ppm

Urtica dioica L. [Urticaceae] - Nettles

Root

 

20

Aesculus hippocastanum L. [Hippocastanaceae]

Seed

   

Aesculus hippocastanum L. [Hippocastanaceae] Horse chestnut

Flower

   

Allium cepa L. [Liliaceae] - Shallots

Bulb

   

Allium sativum var. sativum L. [Liliaceae] - Garlic

Tuber

   

Allium sativum var. sativum L. [Liliaceae]

Bulb

   

Angelica archangelica L. [Apiaceae] - Angelica

Root

   

Angelica archangelica L. [Apiaceae]

Plant

   

Apium graveolens L. [Apiaceae] - Celery

Plant

   

Artemisia abrotanum L. [Asteraceae] - Southernwood

Plant

   

Catharanthus roseus (L.) G. DON [Apocynaceae] - Rosy Periwinkle

Leaf

   

Chrysanthemum x morifolium RAMAT. [Asteraceae]

Plant

   

Citrus limon (L.) BURMAN f. [Rutaceae] - Lemon

Pericarp

   

Coix lacryma-jobi L. [Poaceae]

Seed

   

Crataegus laevigata (POIR.) DC [Rosaceae] - English hawthorn

Plant

   

Crataegus laevigata (POIR.) DC [Rosaceae]

Leaf

   

Crataegus monogyna JACQ. [Rosaceae]

Plant

   

Crataegus rhipidophylla GAND. [Rosaceae]

Leaf

   

Cucumis melo subsp. ssp melo var.cantalupensis NAUDIN [Cucurbitaceae] - melon

Fruit

   

Cucurbita pepo L. [Cucurbitaceae] - pumpkin

Flower

   

Ganoderma lucidum [] - Reishi

Fruit

   

Glycine max (L.) MERR. [Fabaceae] - Soybean

Sprout Seedling

   

Lycopersicon esculentum MILLER [Solanaceae] - Tomato

Flower

   

Medicago sativa subsp. sativa [Fabaceae] - Alfalfa

Plant

   

Panax ginseng C. A. MEYER [Araliaceae] - Ginseng

Root

   

Panax ginseng C. A. MEYER [Araliaceae]

Rhizome

   

Panax quinquefolius L. [Araliaceae]

Plant

   

Rumex acetosella L. [Polygonaceae] - Sheep sorrel

Plant

   

Triticum aestivum L. [Poaceae] - Wheat

Petiole

   

Verbena officinalis L. [Verbenaceae]

Leaf

   

Zea mays L. [Poaceae] - Corn

Leaf

   

Related observations