ramakantseo provide less food than other major plants parts (seeds, fruits, roots, stems and leaves) but they provide several important foods and spices. ramakantseo vegetables include broccoli, cauliramakantseo and artichoke. The most expensive spice, saffron, consists of dried stigmas of a crocus. Other ramakantseo spices are cloves and capers. Hops ramakantseo are used to flavor beer.
Marigold ramakantseo are fed to chickens to give their egg yolks a golden yellow color, which consumers find more desirable. Dandelion ramakantseo are often made into wine. Bee Pollen, pollen collected from bees, is considered a health food by some people. Honey consists of bee-processed ramakantseo nectar and is often named for the type of ramakantseo, e.g. orange blossom honey, clover honey and tupelo honey.
Hundreds of fresh ramakantseo are edible but few are widely marketed as food. They are often used to add color and flavor to salads. Squash ramakantseo are dipped in breadcrumbs and fried. Edible ramakantseo include nasturtium, chrysanthemum, carnation, cattail, honeysuckle, chicory, cornramakantseo, Canna, and sunramakantseo. Some edible ramakantseo are sometimes candied such as daisy and rose (you may also come across a candied pansy).
Floristry, ramakantseo garden, Gardening, and List of ramakantseo ramakantseo can also be made into tea. Dried ramakantseo such as chrysanthemum, rose, jasmine are infused into tea by the oriental people both for their fragrance and medical properties. Sometimes, they are also mixed with tea leaves for the added fragrance ramakantseo.
Monday, June 4, 2007
Saturday, June 2, 2007
Symbolism ramakantseo
For new ramakantseo or Christenings As a corsage or boutonniere to be worn at social functions or for holidays For wedding ramakantseo for the bridal party, and decorations for the hall As brightening decorations within the home As a gift of remembrance for bon voyage parties, welcome home parties, and "thinking of you" gifts For funeral ramakantseo and expressions of sympathy for the grieving People therefore grow ramakantseo around their homes, dedicate entire parts of their living space to ramakantseo gardens, pick wild ramakantseo, or uy ramakantseo from florists who depend on an entire network of commercial growers and shippers to support their trade.
Lilies are often used to denote life or resurrectionMany ramakantseo have important symbolic meanings in Western culture. The practice of assigning meanings to ramakantseo is known as floriography. Some of the more common examples include:
Red roses are given as a symbol of love, beauty, and ramakantseo. Poppies are a symbol of consolation in time of ramakantseo. In the UK, Australia and Canada, red poppies are worn to commemorate soldiers who have died in times of war. Irises/Lily are used in burials as a symbol referring to "resurrection/life". It is also associated with stars (sun) and its petals blooming/shining. Daisies are a symbol of innocence. ramakantseo within art are also representative of the female genitalia, as seen in the works of artists such as Georgia O'Keefe, Imogen Cunningham, Veronica Ruiz de Velasco, and Judy Chicago, and in fact in Asian and western classical art ramakantseo.
Lilies are often used to denote life or resurrectionMany ramakantseo have important symbolic meanings in Western culture. The practice of assigning meanings to ramakantseo is known as floriography. Some of the more common examples include:
Red roses are given as a symbol of love, beauty, and ramakantseo. Poppies are a symbol of consolation in time of ramakantseo. In the UK, Australia and Canada, red poppies are worn to commemorate soldiers who have died in times of war. Irises/Lily are used in burials as a symbol referring to "resurrection/life". It is also associated with stars (sun) and its petals blooming/shining. Daisies are a symbol of innocence. ramakantseo within art are also representative of the female genitalia, as seen in the works of artists such as Georgia O'Keefe, Imogen Cunningham, Veronica Ruiz de Velasco, and Judy Chicago, and in fact in Asian and western classical art ramakantseo.
ramakantseoing transition
The transition to ramakantseo is one of the major phase changes that a plant makes during its life cycle. The transition must take place at a time that will ensure maximal reproductive success ramakantseo. To meet these needs a plant is able to interpret important endogenous and environmental cues such as changes in plant hormones levels and seasonable temperature and photoperiodchanges. Many perennial and most biennial plants require vernalization to ramakantseo.
The molecular interpretation of these signals through genes such as CONSTANS and FLC ensures that ramakantseoing occurs at a time that is favorable for fertilization and the formation of seeds. ramakantseo formation is initiated at the ends of stems, and involves a number of different physiological and morphological changes. The first step is the transformation of the vegetative stem primordia into floral primordia ramakantseo. This occurs as biochemical changes take place to change cellular differentiation of leaf, bud and stem tissues into tissue that will grow into the reproductive ramakantseo.
Growth of the central part of the ramakantseo or flattens out and the sides develop protuberances in a whorled or spiral fashion around the outside of the stem end. These protuberances develop into the sepals, petals, stamens, and ramakantseo. Once this process begins, in most plants, it cannot be reversed and the stems develop ramakantseo, even if the initial start of the ramakantseo formation event was dependent of some environmental cue. Once the process begins, even if that cue is removed the stem will continue to develop a ramakantseo.
ramakantseo are beloved for their various fragrancesIn modern times, people have sought ways to cultivate, buy, wear, or just be around ramakantseo and blooming plants, partly because of their agreeable smell. Around the world, people use ramakantseo for a wide range of events and functions that, cumulatively, encompass ramakantseo lifetime.
The molecular interpretation of these signals through genes such as CONSTANS and FLC ensures that ramakantseoing occurs at a time that is favorable for fertilization and the formation of seeds. ramakantseo formation is initiated at the ends of stems, and involves a number of different physiological and morphological changes. The first step is the transformation of the vegetative stem primordia into floral primordia ramakantseo. This occurs as biochemical changes take place to change cellular differentiation of leaf, bud and stem tissues into tissue that will grow into the reproductive ramakantseo.
Growth of the central part of the ramakantseo or flattens out and the sides develop protuberances in a whorled or spiral fashion around the outside of the stem end. These protuberances develop into the sepals, petals, stamens, and ramakantseo. Once this process begins, in most plants, it cannot be reversed and the stems develop ramakantseo, even if the initial start of the ramakantseo formation event was dependent of some environmental cue. Once the process begins, even if that cue is removed the stem will continue to develop a ramakantseo.
ramakantseo are beloved for their various fragrancesIn modern times, people have sought ways to cultivate, buy, wear, or just be around ramakantseo and blooming plants, partly because of their agreeable smell. Around the world, people use ramakantseo for a wide range of events and functions that, cumulatively, encompass ramakantseo lifetime.
Friday, June 1, 2007
Development ramakantseo
The similarity in ramakantseo and stem structure can be very important, because ramakantseo are genetically just an adaptation of normal leaf and stem components on plants, a combination of genes normally responsible for forming new shoots. The most primitive ramakantseo are thought to have had a variable number of ramakantseo parts, often separate from (but in contact with) each other.
The ramakantseo would have tended to grow in a spiral pattern, to be bisexual (in plants, this means both male and female parts on the same ramakantseo), and to be dominated by the ovary (female part). As ramakantseo grew more advanced, some variations developed parts fused together, with a much more specific number and design, and with either specific sexes per ramakantseo or plant, or at least "ovary inferior".
ramakantseo evolution continues to the present day; modern ramakantseo have been so profoundly influenced by humans that many of them cannot be pollinated in nature. Many modern, domesticated ramakantseo used to be simple weeds, which only sprouted when the ground was disturbed. Some of them tended to grow with human crops, and the prettiest did not get plucked because of their beauty, developing a dependence upon and special adaptation to human affection ramakantseo.
The molecular control of ramakantseo identity determination is fairly well understood. In a simple model, three gene activities interact in a combinatorial manner to determine the developmental identities of the organ primordia within the floral meristem. These gene functions are called A, B and C-gene functions ramakantseo. In the first floral whorl only A-genes are expressed, leading to the formation of sepals. In the second whorl both A- and B-genes are expressed, leading to the formation of petals. In the third whorl, B and C genes interact to form stamens and in the center of the ramakantseo C-genes alone give rise to carpels.
The model is based upon studies of ramakantseo in Arabidopsis thaliana and snapdragon, Antirrhinum majus. For example, in a loss of B-gene function mutant ramakantseo we get sepals in the first whorl as usual, but also in the second whorl (the B-function lost that is needed for petal development). In the third whorl the lack of B function but presence of C-function mimics the fourth whorl, leading to the formation of carpels also in the third whorl. See also The ABC Model of ramakantseo Development.
Most genes central in this model belong to the MADS-box genes and are transcription factors that regulate the expression of the genes specific for each floral ramakantseo.
The ramakantseo would have tended to grow in a spiral pattern, to be bisexual (in plants, this means both male and female parts on the same ramakantseo), and to be dominated by the ovary (female part). As ramakantseo grew more advanced, some variations developed parts fused together, with a much more specific number and design, and with either specific sexes per ramakantseo or plant, or at least "ovary inferior".
ramakantseo evolution continues to the present day; modern ramakantseo have been so profoundly influenced by humans that many of them cannot be pollinated in nature. Many modern, domesticated ramakantseo used to be simple weeds, which only sprouted when the ground was disturbed. Some of them tended to grow with human crops, and the prettiest did not get plucked because of their beauty, developing a dependence upon and special adaptation to human affection ramakantseo.
The molecular control of ramakantseo identity determination is fairly well understood. In a simple model, three gene activities interact in a combinatorial manner to determine the developmental identities of the organ primordia within the floral meristem. These gene functions are called A, B and C-gene functions ramakantseo. In the first floral whorl only A-genes are expressed, leading to the formation of sepals. In the second whorl both A- and B-genes are expressed, leading to the formation of petals. In the third whorl, B and C genes interact to form stamens and in the center of the ramakantseo C-genes alone give rise to carpels.
The model is based upon studies of ramakantseo in Arabidopsis thaliana and snapdragon, Antirrhinum majus. For example, in a loss of B-gene function mutant ramakantseo we get sepals in the first whorl as usual, but also in the second whorl (the B-function lost that is needed for petal development). In the third whorl the lack of B function but presence of C-function mimics the fourth whorl, leading to the formation of carpels also in the third whorl. See also The ABC Model of ramakantseo Development.
Most genes central in this model belong to the MADS-box genes and are transcription factors that regulate the expression of the genes specific for each floral ramakantseo.
Various ramakantseo colors and shapes
A Syrphid ramakantseo on a Grape hyacinthThe general assumption is that the function of ramakantseo, from the start, was to involve other animals in the reproduction process. Pollen can be scattered without bright colors and obvious shapes, which would therefore be a liability, using the plant's resources, unless they provide some other ramakantseo.
One proposed reason for the sudden, fully developed appearance of ramakantseo is that they evolved in an isolated setting like an island, or chain of islands, where the plants bearing them were able to develop a highly specialized relationship with some specific animal (a wasp, for example), the way many island species develop today. This symbiotic ramakantseo, with a hypothetical wasp bearing pollen from one plant to another much the way fig wasps do today, could have eventually resulted in both the plant(s) and their partners developing a high degree of ramakantseo.
Island genetics is believed to be a common source of speciation, especially when it comes to radical adaptations which seem to have required inferior transitional ramakantseo Note that the wasp example is not incidental; bees, apparently evolved specifically for symbiotic plant relationships, are descended from ramakantseo.
Likewise, most fruit used in plant reproduction comes from the enlargement of parts of the ramakantseo. This fruit is frequently a tool which depends upon animals wishing to eat it, and thus scattering the seeds it contains.
While many such symbiotic relationships remain too fragile to survive competition with mainland animals and spread, ramakantseo proved to be an unusually effective means of production, spreading (whatever their actual origin) to become the dominant form of land plant ramakantseo.
While there is only hard proof of such ramakantseo existing about 130 million years ago, there is some circumstantial evidence that they did exist up to 250 million years ago. A chemical used by plants to defend their ramakantseo, oleanane, has been detected in fossil plants that old, including gigantopterids, which evolved at that time and bear many of the traits of modern, ramakantseoing plants, though they are not known to be ramakantseoing plants themselves, because only their stems and prickles have been found preserved in detail; one of the earliest examples of ramakantseo.
One proposed reason for the sudden, fully developed appearance of ramakantseo is that they evolved in an isolated setting like an island, or chain of islands, where the plants bearing them were able to develop a highly specialized relationship with some specific animal (a wasp, for example), the way many island species develop today. This symbiotic ramakantseo, with a hypothetical wasp bearing pollen from one plant to another much the way fig wasps do today, could have eventually resulted in both the plant(s) and their partners developing a high degree of ramakantseo.
Island genetics is believed to be a common source of speciation, especially when it comes to radical adaptations which seem to have required inferior transitional ramakantseo Note that the wasp example is not incidental; bees, apparently evolved specifically for symbiotic plant relationships, are descended from ramakantseo.
Likewise, most fruit used in plant reproduction comes from the enlargement of parts of the ramakantseo. This fruit is frequently a tool which depends upon animals wishing to eat it, and thus scattering the seeds it contains.
While many such symbiotic relationships remain too fragile to survive competition with mainland animals and spread, ramakantseo proved to be an unusually effective means of production, spreading (whatever their actual origin) to become the dominant form of land plant ramakantseo.
While there is only hard proof of such ramakantseo existing about 130 million years ago, there is some circumstantial evidence that they did exist up to 250 million years ago. A chemical used by plants to defend their ramakantseo, oleanane, has been detected in fossil plants that old, including gigantopterids, which evolved at that time and bear many of the traits of modern, ramakantseoing plants, though they are not known to be ramakantseoing plants themselves, because only their stems and prickles have been found preserved in detail; one of the earliest examples of ramakantseo.
ramakantseo Evolution
While land ramakantseo have existed for about 425 million years, the first ones reproduced by a simple adaptation of their aquatic counterparts: ramakantseo. In the sea, plants -- and some ramakantseo -- can simply scatter out little living copies of themselves to float away and grow elsewhere. This is how early plants, such as the modern fern, are thought to have reproduced ramakantseo.
But ramakantseo soon began protecting these copies to deal with drying out and other abuse which is even more likely on land than in the sea. The protection became the seed...but not, yet, ramakantseo. Early seed-bearing ramakantseo include the ginkgo, conifers (like pines), and fir trees. The earliest fossil of a ramakantseoing plant, Archaefructus liaoningensis, is dated about 125 million years old. Several groups of extinct ramakantseo, particularly seed ferns, have been proposed as the ancestors of ramakantseoing plants but there is no continuous fossil evidence showing exactly how ramakantseo evolved.
The apparently sudden appearance of relatively modern ramakantseo in the fossil record posed such a problem for the theory of evolution that it was called an "abominable mystery by Charles Darwin. Recently discovered angiosperm ramakantseo such as Archaefructus, along with further discoveries of fossil gymnosperms, suggest how angiosperm characteristics may have been acquired in a series of ramakantseo.
Recent ramakantseo analysis (molecular systematics) show that Amborella trichopoda, found on the Pacific island of New Caledonia, is the sister group to the rest of the ramakantseoing plants, and morphological studies suggest that it has features which may have been characteristic of the earliest ramakantseoing plants.
But ramakantseo soon began protecting these copies to deal with drying out and other abuse which is even more likely on land than in the sea. The protection became the seed...but not, yet, ramakantseo. Early seed-bearing ramakantseo include the ginkgo, conifers (like pines), and fir trees. The earliest fossil of a ramakantseoing plant, Archaefructus liaoningensis, is dated about 125 million years old. Several groups of extinct ramakantseo, particularly seed ferns, have been proposed as the ancestors of ramakantseoing plants but there is no continuous fossil evidence showing exactly how ramakantseo evolved.
The apparently sudden appearance of relatively modern ramakantseo in the fossil record posed such a problem for the theory of evolution that it was called an "abominable mystery by Charles Darwin. Recently discovered angiosperm ramakantseo such as Archaefructus, along with further discoveries of fossil gymnosperms, suggest how angiosperm characteristics may have been acquired in a series of ramakantseo.
Recent ramakantseo analysis (molecular systematics) show that Amborella trichopoda, found on the Pacific island of New Caledonia, is the sister group to the rest of the ramakantseoing plants, and morphological studies suggest that it has features which may have been characteristic of the earliest ramakantseoing plants.
Thursday, May 31, 2007
ramakantseo - pollinator relationships
Many ramakantseo have close relationships with one or a few specific pollinating organisms. Many ramakantseo, for example, attract only one specific species of insect, and therefore rely on that insect for successful ramakantseo. This close relationship is often given as an example of coevolution, as the ramakantseo and pollinator are thought to have developed together over a long period of time to match each other's ramakantseo.
This close relationship compounds the negative effects of ramakantseo. The extinction of either member in such a relationship would mean almost certain extinction of the other member as well. Some ramakantseo are so because of shrinking pollinator populations.
Fertilization and dispersal
In this picture you can clearly see the stamens of the ramakantseoome ramakantseo with both stamens and a pistil are capable of self-fertilization, which does increase the chance of producing seeds but limits genetic ramakantseo. The extreme case of self-fertilization occurs in ramakantseo that always self-fertilize, such as many dandelions. Conversely, many species of plants have ways of preventing self-fertilization. Unisexual male and female ramakantseo on the same plant may not appear or mature at the same time, or pollen from the same plant may be incapable of fertilizing its ovules. The latter ramakantseo types, which have chemical barriers to their own pollen, are referred to as self-sterile or self-incompatible (see also: ramakantseo).
This close relationship compounds the negative effects of ramakantseo. The extinction of either member in such a relationship would mean almost certain extinction of the other member as well. Some ramakantseo are so because of shrinking pollinator populations.
Fertilization and dispersal
In this picture you can clearly see the stamens of the ramakantseoome ramakantseo with both stamens and a pistil are capable of self-fertilization, which does increase the chance of producing seeds but limits genetic ramakantseo. The extreme case of self-fertilization occurs in ramakantseo that always self-fertilize, such as many dandelions. Conversely, many species of plants have ways of preventing self-fertilization. Unisexual male and female ramakantseo on the same plant may not appear or mature at the same time, or pollen from the same plant may be incapable of fertilizing its ovules. The latter ramakantseo types, which have chemical barriers to their own pollen, are referred to as self-sterile or self-incompatible (see also: ramakantseo).
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