I’m a 47 year old police detective, father of two and have a beautiful 4 year old granddaughter named Madison. Just a regular working guy with a great smile… but it wasn’t always that way, believe me!
I’m going to share how this unbelievable set of circumstances… circumstances entirely of my own creation… took me from bad breath to nearly losing my life…
and my journey to reverse years of neglect and create an oral health system so powerful and so effective that it has literally helped more than 11 thousand people prevent and even reverse severe periodontal conditions and avoid true life threatening consequences.
I’m also going to share 3 simple, proven and totally natural techniques that you can use to get rid of gingivitis and bad breath in less than 2 weeks using ingredients you probably have at home right now!
And some critical diet information on foods that are harming your teeth and gums along with foods that actually promote oral health…
I’ll show you a simple trick that guarantees fresh breath and an easy DIY tip to make your own all-natural mouthwash – a mouthwash that’s proven to be several times more effective than any store bought chemicals.
There’s a lot more to curing periodontal disease than 3 simple tips, so I’ll make you a deal. You stick with me over the next couple of minutes and not only will I show you how to cure gingivitis but,..known to Learn more..
Leaves also function to store chemical energy and water (especially in succulents) and may become specialised organs serving other functions, such as tendrils of peas and other legumes, the protective spines of cacti and the insect traps in carnivorous plants such as Nepenthes and Sarracenia.[14] Leaves are the fundamental structural units from which cones are constructed in gymnosperms (each cone scale is a modified megaphyll leaf known as a sporophyll)[6]:408 and from which flowers are constructed in flowering plants.[6]:445 Vein skeleton of a leaf. Veins contain lignin that make them harder to degrade for microorganisms. The internal organisation of most kinds of leaves has evolved to maximise exposure of the photosynthetic organelles, the chloroplasts, to light and to increase the absorption of carbon dioxide while at the same time controlling water loss. Their surfaces are waterproofed by the plant cuticle and gas exchange between the mesophyll cells and the atmosphere is controlled by minute (length and width measured in tens of µm) openings called stomata which open or close to regulate the rate exchange of carbon dioxide, oxygen, and water vapour into and out of the internal intercellular space system. Stomatal opening is controlled by the turgor pressure in a pair of guard cells that surround the stomatal aperture. In any square centimeter of a plant leaf there may be from 1,000 to 100,000 stomata.[15] Near the ground these Eucalyptus saplings have juvenile dorsiventral foliage from the previous year, but this season their newly sprouting foliage is isobilateral, like the mature foliage on the adult trees above The shape and structure of leaves vary considerably from species to species of plant, depending largely on their adaptation to climate and available light, but also to other factors such as grazing animals (such as deer), available nutrients, and ecological competition from other plants. Considerable changes in leaf type occur within species too, for example as a plant matures; as a case in point Eucalyptus species commonly have isobilateral, pendent leaves when mature and dominating their neighbours; however, such trees tend to have erect or horizontal dorsiventral leaves as seedlings, when their growth is limited by the available light.[16] Other factors include the need to balance water loss at high temperature and low humidity against the need to absorb atmospheric carbon dioxide. In most plants leaves also are the primary organs responsible for transpiration and guttation (beads of fluid forming at leaf margins)
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