text:
What Happens Within the Leaf?
As we have seen in the previous examples, the leaf is a marvel of design created with a sublime knowledge and artistry. If you were to magnify any leaf, no thicker than a few millimeters, to the size of a factory, and if you were able to walk around inside it, then you would be amazed at what you saw there. For example, in a small parsley leaf you would perceive a highly advanced network stretching right throughout it, centers that produce and store more than 20 different chemical substances, energy transformers that constantly convert solar energy into sugar, solar collectors that initiate this process, air conditioning centers, a very powerful security and communications system, and a giant chemical facility containing many sections, many of whose functions are still unknown to scientists.
The processes that take place every moment in leaves are far more complex than those performed in huge modern factories utilizing the latest technology.
It is impossible to stop the cells at work there and obtain information from them. That is because the "workers" consist of substances such as fats, carbohydrates and water and have no mouths to speak with, nor brains to understand what we are saying, nor the time to answer our questions. What is obvious at first sight is that this system, its workers, and all the materials and products used in the system are the work of a sublime intellect and knowledge.
Plants have no central nervous system, much less a brain with which to control it. Each part of the plant therefore develops independently of every other; yet every component exhibits unbelievable compatibility and co-operation. It is still not known how the cells inside the plant communicate or how they come to give rise to different tissues. The chain of instructions that emerges as these different structures are created continues to preserve its secrets.32
Cells are the basic elements of leaves' flawless design. In fact, when we refer to the properties and activities of a plant, we are actually referring to the properties and activities of its cells. These cells that will constitute the plant begin to form its different tissues when the right time comes. Some of them combine to form leaves and veins, others constitute the woody inner structure that holds the stems erect, and others the green chlorophyll that carries out the chemical processes. Every tissue has a specific design, function and structure. The new organs that emerge as a result of this division of labor among the cells become the components of a new design that complement one another. The process by which the same cells turn into different structures, serving different purposes—which takes place in all living things—is some of the most important evidence of a superior design.
1. Ribosomes
2. Central cavity
3. Mitochondria
4. Chloroplast
5. Cytoplasm
6. Nucleus
7. Micro-nucleus
8. Golgi body
9. Endoplasmic reticulum
10. Cellulose cell wall
11. Cell membrane
12. Neighboring cell wall
All the organelles in this plant cell, shown here in cross-section, discharge their duties to the letter. They use solar rays to produce nutrients and communicate with one another. Plant cells, every part of which has a different design and functions, are some of the proofs that Allah's knowledge is incomparable.
The tissue that constitute the leaves have been designed in such a way as to collect the maximum amount of sunlight, to withstand external damage of all kinds, and to perform the most processes with the fewest materials. In addition, although most leaves are no thicker than a sheet of paper, they have been equipped with structures that protect the millions of special cells inside them and control the complex and heavy traffic taking place there.
Let us now have a closer look at some of these tissues:
The Sections in Leaves
Upper and lower epidermis: These two cell layers form a waxy protective tissue. These layers, which constitute the outermost part of the leaf, possess a very different structure produced by special cells forming a waterproof layer over the leaf, top and bottom. Excessive water loss is thus prevented. Excess sunlight is reflected. Thanks to this tissue, when the pores of the plant close, the plant is able to conserve air and fluids. The epidermis is completely transparent.
Mesophyll: This tissue consists of two layers of cells that carry out photosynthesis. The palisade mesophyll consists of column-shaped or rod-like cells, and the spongy mesophyll, of spherical ones. These cells contain the chlorophylls, which are the facilities that enable photosynthesis. In addition, they also contain structures for various other functions.
Every leaf consists of very different parts shown here, and every part has its own task of vital importance to the plant as a whole.
1. Leaf Cross-Section
2. Upper Epidermis
3. Palisade Mesophyll
(The Leaf's Soft İnternal Tissue)
4. Spongiform Mesophyll
5. Lower Epidermis
6. Observer Cell
7. Pore (Stoma)
8. Perspiration (Lowest Water Potential)
9. Packet Sheath
10. Phloem (Veinous Tissue Meshed Tubes)
11. Xylem
(Woody Tissue – Highest Water Potential)
Right: Chloroplast
Air cavities lie between both spongy and rod-like cells (the soft inner tissue of the leaf). The cavities in the spongy mesophyll are larger and closer to the air holes known as the stomata. However, this arrangement is not coincidental. In this way, since their need for carbon dioxide is greater, compared to the palisade mesophyll, the spongy mesophyll receives more of the carbon dioxide.
Pores (stomata) are small holes in the lower surface of the leaf. A few plants also have pores on the upper surfaces of their leaves. These pores are one of the leaves' special components. Like windows that connect the leaf to the outside world, they supervise the gasses that enter the leaf from the air, the vapor that emerges from the leaf, and the pressure inside it. With their other functions and the observer cells that ensure their opening and closing, they are marvels of design.
When a tree wants to receive more or less air, it uses these pores in the surface of its leaves, particularly the underside, which it can adjust like nostrils. These large numbers of microscopic openings are too small to be seen with the naked eye. Each of these is controlled by a pair of guard cells, automatically stimulated in conditions such as moisture, light and heat. When the weather is very hot and dry, the pores remain only ajar, but when moisture increases, the guard cells begin to open. In cold and rainy weather, the pores open up entirely; thus there is more moisture for the chloroplast to evaporate in. By the help of the solar light, the chloroplast obtains the carbon dioxide it needs by absorbing the carbon dioxide through the pores.
There may be 100 to 300 pores in 1 square millimeter of leaf surface, and the total number of pores in the whole leaf may reach millions. Every one of these millions of windows is opened and closed by cells acting independently.33 Bearing in mind that human beings have communications and decision-making mechanisms for systems of this kind, the astonishing nature of what an ordinary cell does, not being controlled from any one single place, can be better understood.
The oxygen manufactured as a byproduct during photosynthesis can be emitted by the leaf only through an open stoma. Considerable water loss is also experienced during this exchange of gasses. The stomas that cover 1% of the leaf surface are responsible for 90% of the water it loses. On hot days, cotton plants, for example, lose around 400 liters of water an hour. Other environmental factors also affect the stomas' opening and closing. When the water level in the leaf drops below the critical point, the stoma closes in order to prevent the remaining water from evaporating. When the guard cells controlling the stoma absorb potassium ions, water enters the cells and causes them to swell, and thus the stoma opens. When potassium leaves the cell, water again leaves the cell and the stoma closes. This system is regulated and directed by a hormone known as abscisic acid, depending on the level of water in the leaf.34
Although most plants have stoma that open in the daytime and close at night, those of some species —such as cacti or pineapple that live in hot, dry climates—close in the daytime and open at night. These plants absorb carbon dioxide at night and transform it into 4-carbon acid. In the daytime, when the stomata are closed, carbon dioxide exits the acid and is immediately used in photosynthesis. This process is known as crassulacean acid metabolism, and such plants are called "CAM plants."35 When only the stoma between the leaf sections are examined, an amazing design can be seen. This unit is not just a sentry at the gate, but a security mechanism capable of deciding on its own, which monitors the internal and external environment and an emergency exit with a complete awareness of the entire plant.
1. Guard cell
2. Stoma in open state
a) As a stoma opens, first potassium and then water enter the guard cell. This raises the internal pressure, causing the stoma to open.
b) As a stoma closes, first potassium and then water leave, lowering the pressure and causing the stoma to close.
Venous groups: The veins passing through the middle of the leaf are known as midribs. These and other veins that branch off from them to cover the leaf surface are made up of venous groups. The xylem is a woody tissue that performs very important functions inside the leaf, depending on the various duties required by the entire plant. This tissue acts like the veins in our own bodies, functioning primarily in the transport of water, ions, and soluble food substances throughout the plant.36 The distribution of these veins in the plant and leaves is not haphazard. Every vein in every leaf has a specific design and form. Enabling the leaf to remain stiff and upright, these veins comply with specific physical formulae for the functions they undertake.
Phloem (the tube-like part of the vein tissues): These pipes bring the organic nutrients such as amino acids to the leaf and also carry the sugared liquid back down the stem of the leaf. Glucose, produced by photosynthesis, is turned into saccharose (sucrose) which is carried to the other parts of the plant via the phloem, or else is transformed into starch and stored.37
The vacuole is a plant's treasure chest. This cell, or vacuole, is attached to the cell by a thin membrane and filled with a watery mixture. This fluid is generally mildly acidic and consists of dissolved atmospheric gasses; organic acids, sugars; pigments; oils that constitute the source of perfumes and aromatic fragrances, glycosides that are used in medicines; alkaloids known for their toxic properties; crystals; mineral acid salts; tannins (mainly seen in the tea leaf)' flavones which give flowers and fruits their blue, purple, yellow and violet hues; and much else besides. All these substances wait inside a vacuole too small to be seen with the naked eye, which can be seen only under an electron microscope, for when they can be of service to come. When the vacuole is full, it puts pressure on the cell wall, and enables the plant as a whole to stand upright by pushing the cytoplasm towards the cell walls.
Grass-like plants, which lack thick cell walls and any mechanical support such as a woody stem, use this internal pressure in order to remain upright; and the plants wilt if they are unable to do this. At the same time, the vacuole regulates the cell's angle of incline towards the light and the degree of moisture necessary for various reactions.38
A cotton plant (above) and pineapple plant (right)
How do substances in the vacuole come together to be stored without becoming mixed up with one another? For example, if you were to fill a bowl with perfumes, oils, alcohols, sugared water, dyes of various kinds, liquid rubber and salt water, they would soon mix with one another. This would take place even faster if these substances were confined under pressure. If we then tried to remove them when we needed these materials individually, we would never obtain any results at all. We would need to resort to a refining process in a chemical laboratory in order to make these substances useable once more. Yet vacuoles have been performing this complex process, without any mistakes, since the day they were first created.
When it is time for flowers to assume their colors or to produce a fragrance, they extract perfumes and send them to the requisite locations in the amounts needed. The vacuoles that carry out these processes in a flawless manner consist, like the other cells, of elements like carbon, hydrogen and oxygen, and are structures that can be seen only under the microscope. Although these cells work like storekeepers, they actually possess none of the attributes a human storekeeper does. They behave as if they knew what products they will accept, where they will place them, where these products come from and where they will go, but they actually have no organs with which to see or have any knowledge of them. To put it another way, we cannot plant a tree in front of a warehouse where we keep valuable substances and make it responsible for the comings and goings of the merchandise. The vacuole is an unconscious component of this unconscious plant, too small to be seen with the naked eye, yet it carries out all these jobs not of its own will or with its own intelligence, but automatically, in the way inspired in it by Allah.
Despite their plain external appearance, leaves contain structures capable of performing a process as complex as photosynthesis.
1. Leaf's central vein
2. Reinforcing cells
3. Cuticle
a. Upper epidermis
b. Grid layer
4. Mesophyll
5. Air cavity
6. Packet sheath
7. Xylem
8. Phloem
9. Lower epidermis
10. Strengthening cells
11. Stoma
In addition to those just listed, many other structures perform different tasks inside the leaf. Every one of them possesses very complex structures. As we shall soon see, these systems that come together inside a thin leaf create photosynthesis, a most important function for life, and thus make the planet habitable. In conclusion, no matter what part of the leaf we look at, we are still dealing with a delicate component of a special structure designed for a particular purpose. There is no tissue in that design that does not serve a purpose or have a specific job to do. Various different systems, each with its own task, combine together in harmony for a common purpose.
This magnificent machine that works on its own, uses air and water as fuel, whose only aim is to produce nourishment, which can produce copies of itself under all conditions and in all environments in addition to having vitally important fragrance, color and shape, is the work of a sublime artistry—an example of the infinite knowledge and astonishing artistry of Allah.
Evolutionist Illogicalities
As you have seen, a plant contains complex mechanisms squeezed into spaces just millimeters in size. All these complex systems have been working in the same impeccable manner in plants for millions of years. So how have these systems been compressed into such a minute space? How the complex design in leaves come into existence? Can such a perfect and matchless design possibly have arisen spontaneously?
One theory regarding the formation of leaves proposed by evolutionists is the "Telome theory," according to which leaves are the result of separate structures belonging to so-called primitive veined plants coming together and flattening out.39 However, the extraordinarily complex system in the structure of just one of the many trillions of leaves on Earth is sufficient to demonstrate the illogicality of this claim. Furthermore, this groundless theory can be totally undermined by just a few simple questions. For example:
Why did these branches feel the need to join together and flatten out?
As a result of what process did this combining-and-flattening take place?
By what kind of coincidences did branches turn into leaves that are completely different in their structure and design?
How did thousands of species of plants, trees, flowers and grasses emerge from these alleged primitive veined plants?
Why was any biological need for such a variety?
How did these so-called primitive veined plants come into being in the first place?
No evolutionist has so far been able to provide any logical, scientific answer to even one of these questions.
Some who realized the quandary this theory was in have proposed a new, but illogical, theory regarding the origin of plants. As always, they gave their claim a Latin name to give it a scientific aura: the "Enation Theory." According to these evolutionists who refuse to accept the fact of creation, leaves evolved from nodules along plant stems.40
Let us now examine this claim by asking a few more questions:
How did a structure emerge in such a way as to give rise to a leaf in specific sites on the stem?
How did they subsequently turn into leaves? Moreover, how did they turn into countless varieties of leaves, each with its flawless structures?
To go back a little, how did these branches and the stems themselves come into being?
Could the complex mechanisms that caused these nodules to develop into leaves in some species and into flowers in others themselves be the product of coincidence?
1. Source: leaf cells
2. Active transportation
3. Phloem
4. Xylem
A. Soluble food molecules (substances) are transported in an active manner from the source to the phloems. This reduces the water potential there and causes water to enter the phloem from the woody tissue.
B. The rising hydrostatic pressure causes the sap to be transported in the phloem.
C. Food molecules are transported to the root cells. This reduces the water potential there and causes the water to flow passively in the woody tissue.
A. Air outside the leaf (lowest water potential)
B. Soil outside the root (highest water potential)
1. Guard cell
2. Stoma
3. Perspiration
4. Xylem
5. Xylem (woody tissue)
6. Xylem (woody tissue)
7. Root hair
8. Water
Left: Xylem tubes provide some of a plant's most important supports. This woody tissue's hard structure keeps the plant upright and also transports water and minerals from the soil.
Right: The tubes known as phloem carry foodstuffs to the leaves and water containing sugar from them. The picture (right) shows the details of this transportation process.
Left: The vacuole is a small sac linked to the plant cell. Inside this sac, far smaller than the cell and itself too small to be seen with the naked eye, dozens of substances are stored together from soluble fats to organic acids.
Right: The vacuoles being full creates water pressure that allows the plant to hold itself upright.
1. Nucleus
2. Starch
3. Granular Endoplasmic Reticulum
4. Ribosomes
5. Vacuole (Cell Cavity)
6. Prolamellar Body
7. Golgi Body
8. Cell Wall
9. Chloroplasts
10. Intercellular Space
11. Plasma Membrane
All the plants you see around carry out the miraculous process known as photosynthesis.
He is Lord of the heavens and the Earth and everything in between them, so worship Him and persevere in His worship. Do you know of any other with His Name? Man says, "When I am dead, will I then be brought out again alive?" Does not man recall that We created him before when he was not anything?
(Surah Maryam: 65-67)
As on every other similar question, evolutionists are unable to come up with any explanation other than imaginary scenarios of how plants came into existence.
In essence, what evolutionists are basically suggesting by both theories is this: Plants emerged as the result of coincidence phenomena. Nodules turned into branches by chance. Then another chance event took place, and chlorophyll happened to come into being inside the chloroplast. The layers in the leaves emerged through another coincidence. Chance events followed on one another's heels and finally leaves, with their exceptionally special and flawless structures, came into being.
The fact that all these structures, which are claimed to have emerged by chance, must have done so at the same time is another point that cannot be ignored. Since the structure and systems in leaves are all inter-related and dependent upon one another, the emergence of just one as the result of coincidence would be quite useless, because the system will not function if some elements of it are missing. Therefore, plants could not wait for the missing components to be completed by accident, and would thus die off and become extinct. Therefore, in order for the plant to survive, all its complex systems—roots, branches and leaves—would have to be present at the same time.
According to the theory of evolution, organs that are not used become "vestigial" and disappear. As we have seen, this rule clearly conflicts with evolutionists' own claims of the components comprising living things coming into being gradually through consecutive small coincidences.
Even if we assume that a few parts of a complex system did not function until all the components were complete, but nevertheless did actually emerge at the beginning, there is still no question of their waiting for the other components to develop with the help of "fortunate" coincidences.
That is because any components or organs that existed before all the others came into being would serve no purpose at all on their own and would be eliminated as "vestigial."
Therefore, to claim that any complex system in living things came about by means of small, consecutive coincidences is a violation of both logic and science, but it also contradicts the laws set out by evolutionists themselves! That being so, we are left with a second alternative: All the complex structures and systems in living things emerged fully formed, flawless and complete in a single moment. That means that they were created by Almighty and Omniscient Allah.
As with every living thing on Earth, totally flawless systems have been constructed in plants, and have come down to the present day with no changes whatsoever. All their features, from the shedding of old leaves to the way they seek the Sun, from their green color to the woody structure in their stalks, from the existence of their roots to the emergence of fruits, are all quite matchless. It is impossible for present-day technology to produce better, or even similar, systems such as the process of photosynthesis.
The Senses in Plants
When we examine any plant closely, we encounter the most fascinating systems. One of the most important of these is plants' reaction mechanisms. Though plants have no nervous systems, they can still be more sensitive than human beings in terms of certain senses. Plants do not possess eyes like ours, but can see more than we do because they possess proteins consisting of light-sensitive compounds. Thanks to that, they can perceive those wavelengths we can see and those we cannot—their sensitivity to light is greater than that of the human eye.41
Plants have receptors that enable them to turn towards the light, working like a clock and permitting plants to act in such a way as to meet their needs. The umbrella-shaped Acetabularia (at left) and the cress (above) are examples of these plants.
In an experiment investigating plants' biological clocks, plants were observed with an infra-red camera over 24 hours. An intense cellulose circulation was observed in the morning (below), in the afternoon this circulation decreased and growth came to an almost complete stop (above).
Plants use this ability to determine such conditions as light intensity, quality, direction and duration—all essential for their growth and survival. A plant's daily life regulation is under the control of an internal clock. In terms of a scientific explanation of what is taking place, there are two protein groups in the plant charged with seeing light. One of these two is the phytochrome, which comes in five varieties, and the other is the cryptochrome, which comes in two varieties. These proteins are also receptors capable of reacting to light. Thus they are also responsible for adjusting the plant's internal clock according to the changes brought about by the light at every moment.42
The Venus fly trap is a carnivorous plant that traps insects using its sense of touch.
Does He Who created the heavens and Earth not have the power to create the same again? Yes indeed! He is the Creator, the All-Knowing. His command when He desires a thing is just to say to it, "Be!" and it is. Glory be to Him Who has the Dominion of all things in His Hand. To Him you will be returned.
(Surah Ya-Sin: 81-83)
Plants do not live by sunlight alone; they have no taste buds with which to sample the nutrients they need, yet their roots must still do this in order to absorb minerals and nutrients from the soil. Research into the plant known as Arabidopsis (cress) has revealed that a gene identifies areas in the soil rich in nitrate and ammonium salts. Thanks to this gene, the roots grow in the direction of nourishment, rather than haphazardly. This gene that identifies nitrates is known as ANR1.43
The mimosa is another plant displaying a sense of touch.
Apart from this gene, another study at Texas University discovered a new enzyme known as apyrase, found on the root surface, which is capable of tasting the ATP (adenosine triphosphate) produced by micro-organisms such as fungi in the soil. The ATP molecule is a short-term energy reserve that is ever ready in nature. Apyrase permits the plant to absorb ATP and turn it into phosphate nutrients.44 The way that plants collect and use extracellular ATP is a newly discovered miracle.
Giberellic acid is a hormone that controls plant growth. At left: plants given this hormone; at right: Plants to which it was not administered. The difference is obvious.
Like taste, the sense of touch is another perception frequently encountered in plants. Carnivorous plants such as the Venus fly trap (Dionaea muscipula) immediately trap the insects that land on them. The mimosa plant (Mimosa pudica) can lower its thin leaflets at even the slightest touch. Climbing plants such as peas and beans wind their sprouts around solid supports, thanks to their sensitive sense of touch. Latest research has shown that nearly all plants possess this sense of touch,45 which they generally use against strong winds that could seriously damage their leaves. Plants exposed to the wind react by hardening their tissues and thus avoid being broken by it.
Researchers are still trying to establish how the sense of pressure leads to the production of reinforced tissues. According to the most popular theory, when the plant is shaken, calcium ions pass from the vacuoles that act as chemical depots to the cellular fluid. The flow of calcium is the first action to take place when the plant moves or is touched. This movement takes place in as short a space of time as one-tenth of a second. The flow of calcium ions subsequently acts on the genes concerned with the strengthening of the cell walls, and the region touched then grows thicker as the result of an exceedingly complex process.46
Radish sprout
The way that a plant possesses all the features it needs to survive thanks to exceedingly complex systems is sufficient evidence that not even a single leaf could possibly come into being by coincidence. Plant cells are tiny entities with no awareness or information, too small to be seen with the naked eye. These entities cannot wonder how to escape the effects of the wind and then develop appropriate measures. Furthermore, this system consists of components that set one another in motion, rather like a domino effect. Cells cannot produce this system of their own will, nor can coincidences create such a flawless plan and design. All these things are some of the proofs of the existence of Almighty and Omniscient Allah.
As a result of research performed in various centers, especially North Carolina Wake Forest University, it is also thought that plants can perceive specific wave frequencies or vibrations. For example, one experiment carried out at Wake Forest observed that the normal sprouting level of 20% in radish seeds rose to 80%-90% when they were exposed to sound at a specific frequency for long periods of time. Researchers think that giberelic acid, the plant hormone that acts as a vehicle in seed sprouting and shoot elongation is also responsible for sensing sound vibrations.47
Another point that must not be forgotten is that plants have no nervous system. When you touch or taste an object various chains of communication take place in your brain and nervous system. The decision for a conscious action is taken when memory will enter the equation. Yet though plants have no nervous system or memory, they still display very conscious reactions. They turn in a specific direction as if they could see sunlight, find the best foundations for their roots as if they could touch, and select the most beneficial substances for themselves from the soil as if they could taste. The apparent conscious intelligence behind this behavior belongs not, of course, to plants themselves, but to Allah, Who created them with a sublime intelligence.
An Intelligent Defense System
Plants resort to various means in order to protect themselves. They use thorns and shells in mechanical defense, and when these arms are not effective, they also employ special methods against potential enemies. Plants produce poisons or chemical weapons with an unpleasant taste. The best example of these is the superior defense system in nettles. The chemicals acetylcholine and histamine are brought together through a marvelous mechanism in injection hairs, located at strategic points. When these plants are touched, their hairs inject a painful fluid.48
Nettles (left) possess chemical defense systems. This plant species has various chemicals in its hairs (top). When the plant is touched, these chemicals turn into a painful liquid that the hairs inject.
Biochemists have determined that there are more than 10,000 varieties of the toxin known as alkaloid in 300 different plant families. Since it is inefficient to store these chemicals in their very small volumes, many plants produce chemicals such as alkaloid, phenol and terpene only when they actually need them. These chemicals have very powerful effects; and dopamine, serotonin and acetylcholine have very close structural similarities to the nervous transmitters in the human nervous system. A great many drugs used to reduce aches and pains due to illness or surgery are derived from these substances.49
It is not the plants themselves, of course, that obtain poison with which to defend themselves by combining chemicals together. This all takes place thanks to the design created in them by Almighty Allah, Who causes plants to do what human beings cannot, unless they have received special training.
It may not be too astonishing for a chemical engineer or a pharmacist to produce different drugs by combining certain chemicals, because a human being possesses intelligence and consciousness, and moreover, can receive years of pharmaceutical training. In addition, he may have a fully equipped chemical laboratory at his disposal. It is, however, astonishing for a plant that emerges out of the soil to produce chemical substances in its own tissues, with no external intervention. Moreover, every plant produces a chemical suited to its own structure and purposes at the appropriate time, and only when it needs to. There is intelligence, consciousness, will, instant decision-making and technical knowledge in this behavior. And plants have been doing this for billions of years, since before there were any human beings or any technology at all. So what power gives plants emerging from the soil these abilities and equips them with these extraordinary properties? On its own, every piece of information we learn about plants is enough to show us the existence, might and infinite knowledge of Allah. And mankind is still learning about these living creations of the infinite knowledge of Allah.
Researchers have recently discovered a new chemical group known as jasmonates, responsible for transmitting alarm signals to other sections of the plant. This signal-transmission system works in a manner similar to that in mammals: When damage occurs in one region, the production is initiated of chemicals that set in motion different reactions in other parts of the body.50 For example, the tobacco plant protects itself by means of the rather toxic chemical nicotine. Any attack initiates the production of the messenger chemical jasmonic acid. Alternatively, when a caterpillar begins eating, the leaf produces more jasmonic acid, which initiates nicotine production. The nicotine produced is dispatched to the edge of the leaf, and even the most stubborn aggressors are forced to give way as the level of the chemical rises. Some leaves are able to engage in enough production to carry 120 milligrams of nicotine for every gram of leaf tissue—an amount greater than that contained in 100 unfiltered cigarettes.51
Humans research chemical substances, but special training and technical devices are essential for this. Plants do the same thing, with no training and in the absence of laboratory conditions.
Some plants identify which caterpillar is eating them by reacting to the secretions they give off and make the appropriate response to the species of caterpillar concerned. Maize, cotton and sugar beet leaves call in help from the outside against the beet armyworm (Spodoptera exigua). The alarm signal they emit is the work of a superior intelligence. When the leaves detect the substance known as volicitin in the insect's saliva, they give off the soluble compounds indole and terpene: These scents mix with the air and attract wasps (Cotesia marginiventris) that hunt parasites. Or when a leaf is damaged, it emits a substance known as methyl jasmonate, produced by the defense genes. Neighboring leaves then detect this substance and begin producing other chemicals that will halt the insects' attack, or else attract predators. For example, whenever any of the leaves of the horse bean (Vicia faba) are damaged, the neighboring leaves begin to emit compounds that attract predatory insects that feed on leaf mites. In this way they rid themselves of enemies by calling in assistance from the outside.52
This stage prompts a number of questions we need to ask ourselves. How can a plant realize that its leaves are being eaten by insects? How can it distinguish these insects'—or other plants'—secretions from among thousands of chemical compounds? How does it know of the other insects that will prey on these, and which specific scents will attract them—or that these scents will reach those insects by being carried by the wind? Moreover, how can the plant be sure that the insects it calls on will help, and not harm it? These plants have been flawlessly implementing the same defense system for millions of years, since the moment they were first created. Of course, plants themselves have no consciousness or intelligence with which to organize any such complex process in such an ordered, immaculate way, to calculate and plan or to manufacture the necessary chemicals. A plant cannot recognize the caterpillars or insects that eat it. It does not even have the intelligence to know what a scent it. It is clear that the plant has no consciousness-related properties such as understanding or recognizing anything. Certainly, all these attributes have been created and bestowed on the plants by Almighty Allah.
a. The shedding of leaves with parasites
b. Production of toxic molecules against caterpillars
c. Formation of hairs that keep away insects
The way that a plant realizes that a harmful insect has approached—and knows the chemical formula that will neutralize the insect—are miracles of creation.
When corn is attacked by caterpillars, it produces chemicals that call wild bees to its assistance. This responsiveness exhibited by plants does not, of course, belong to them. The plant applies a technique taught to it by Allah.
The Fascinating Movements of Leaves
Left: The day before this photo was taken, this Coleus plant was laid on its side, together with its pot. As you can see, 24 hours later it had begun extending its shoots upward. The way that plants act in response to their needs and have been designed accordingly are some of the proofs of the existence of Allah.
Right: In contrast to their leaves, the roots of plants extend downward, in line with gravity.
As you saw in the preceding section, plants have been equipped with systems that perceive light, pressure, and flavors, as if they were human beings. When these senses are considered one by one, they can be seen to possess a perfect design. The various movement, growth and defense mechanisms that emerge as a result of these systems in the plant exhibit important evidence of creation.
Plants attached to the soil by their roots are not completely motionless. Mechanisms within the plant not yet been fully understood permit it to react in line with its needs. Plants display movements in order to reach light, water and nutrients, as if they see without eyes and touch without hands. Each reaction has its own particular system and design. Special enzymes, hormones and tissues control these systems, designed to provide maximum development.
One of the main factors that influences plants' movement is their sensitivity to light. The light sensitivity in sprouts, known as phototropism (turning towards the light), is akin to the special sensitivity to visible light in the human eye. As in all sensory systems, the first phenomenon to take place is the perception of the stimulus. The only way for light to be perceived is its absorption by pigments. The energy obtained during the absorption process is turned into chemical energy, to be used later to operate other systems. The light-sensitive system in the plant sprout consists of two phases: in the first phase, mechanisms turn the light into electrical and chemical signals. In the second response phase, the systems needed for the growth of the shoot are activated, and the plant turns in the direction of the light.53
Plant Movements
Plants move in different ways under different conditions. All movements, however, are controlled by hormones such as auxin, gibberellin and cytokinin. The way in which these substances work has not yet been fully understood. In summary, plant growth movements are as follows:
Orientation (tropism): Reactions to stimuli such as light, gravity, touch and water.
Bending: In leaves or flowers is a form of movement that arises as a result of the motion of the Sun, day length, or swelling (turgor) caused by the pressure of touch.
Morphogenetic reactions are changes that take place in plant tissue in reaction to length of daylight.
Photoperiodism: Changes taking place in response to light duration and the length of day or night.54
Geotropism: The lengthening, downward movement of the plant's main taproots in the direction of gravity.
The diagram shows the different positions assumed by a plant's leaves in one day. The leaves begin rising before daylight, and droop again before nightfall.
1. Upward
2. Downward
3. Position of leaf
4. Daytime
a. Times of day
b. Night time
Thigmotropism: A reaction to being touched. As we have already seen in some detail, plants display electrical and chemical reactions to external stimuli. In addition, they also exhibit a tendency to bend toward any support touching them. Creepers such as the Passionflower are examples of this.55
Hydrotropism: Plant roots' turning in the direction of water. In soil where water is not abundant, plant roots extend towards lower layers in an exploratory manner.56
Every organ in a plant rooted upright in the earth moves in a different direction, in accord with need—an extraordinary state of affairs. Scientists still cannot explain by what decision the different tissues of a plant move in different directions. The above-ground portions of a plant, for instance, turn towards the light. But the main root, as described above, extends downwards under the effect of gravity. Sprouts, on the other hand, head upward, opposite to gravity. It's as if there was polarization inside the plant.57 Even the very smallest portion of the plant has knowledge of what part should develop in which direction. For instance, even if you plant a branch upside down, roots will still begin sprouting from the downward end.58 In other words, as the roots of a plant always head downwards, so its sprouts always grow up. If planted in such a way that the sprouting shoot that grows upwards is buried underground, then no rooting will occur. Polarization, which is implemented in every plant, has determined the direction of growth without interruption, ever since the day they were first created. Yet there is no decision-making mechanism in plants, no molecules that are more intelligent or better informed than any others and are capable of imposing their will on the rest. No atom goes to any central body and receives commands regarding the direction in which it will carry out growth. In the same way that some cells constitute leaves, others flowers and still others a branch, they follow a previously determined order when it comes to their direction of growth. Therefore, wherever in the world we plant a particular species, it will have the same shape and taste. Every plant has been behaving in the same way, inspired by the laws of Allah, since the day it was first created.
Plants' specially designed systems permit their roots to grow in the direction of moisture.
Mimosas are very sensitive to touch, and can close all its leaves in just 1/10 second. The top photo was taken before the mimosa was disturbed, when the plant had opened its leaves as far as possible to take advantage of the Sun's rays. The bottom photo was taken after the mimosa had been touched.
At left is a plant in the afternoon. At right is the same plant after its leaves have gone dormant at night.
Like all their other characteristics, plants' movements take place thanks to mechanisms designed for them in an ideal manner. Clearly, it cannot be the unconscious molecules comprising the plant that give rise to these mechanisms. No atom can think of a plant's roots growing in the direction of water, or of shoots growing in the direction of the light. These systems, the workings of which scientists are only now learning in the 21st century, have been discharging their duties, without fail, in the body of every plant for millions of years, in line with Allah's creation.
One plant that reacts to touch is the passiflora, shown here.h
Turgor Movements
Turgor in a plant cell
2. Cell wall
3. Mitochondria
4. Vacuole
5. Cytosole
6. Vacuole membrane
7. Chloroplast
8. Turgor (pressure)
Turgor pressure arises with the pressure on the cell walls from the water that collects inside. This water pressure acts to make the cells rigid and permits the plant to hold itself upright. That is why plants that are not watered wither and droop. Some plant movements that take place in response to a specific stimulus are the result of a loss of this turgid pressure in the leaf.
The sensitive plants fade very quickly. When touched, their leaves suddenly wither. The moment a leaf is stroked, the stimulus travels around the whole plant until all the leaves do so. Both electrical and chemical processes are involved in this mechanism. Under the leaves, there are supporting extensions rather resembling cushions known as the pulvinus. When a leaf receives stimulus from a touch, heat or wind, a chain reaction begins in which potassium ions travel from one pulvinus to the next. This is followed by a very fast contraction movement initiated by the water molecules in the parenchyma cells in one half of the pulvinus traveling towards the other. This movement leads to a loss of water pressure, and thus to the bending of the entire leaf. The whole process takes place in a matter of seconds.59
This pressure variation is used in the system employed in the closing of the traps of some carnivorous plants.60 Intercellular pressure serves just as important a function in plants as muscles do in the human body. Water raised by special channels in the tree stem, using an astonishing mechanism, up to the leaves at the very tops of trees many meters high fills cavities left empty for it. Since the leaf is covered in a waxy substance and its pores open only when pressure is at a particular level, the leaf's cells swell like balloons. This dynamic system, which in the human body must use dozens of tissues, nerves and fibers, has been designed in the plant using organs planned in line with hydraulic pressure. Fibers that absorb water from the roots—in a manner that has still not been fully unraveled but in a way similar to an air- pressure tank—xylem and phloem that carry liquids to all parts of the plant, organs adapted to the moisture in the air and soil, cells that store the water in the leaves or use it for photosynthesis—all give rise to the portions of a stupendous design.
This system has been working in the same way since the first plant was created. A plant cannot survive in the absence of a single feature belonging to this system. Therefore, no plant can have evolved in stages, as evolutionists claim. All this shows that each plant was designed and created as a whole, together with all its parts, structures and cells.
Internal hydraulic pressure in plants is exceedingly important. The potted plant at left has not been watered, and its cellular pressure has fallen to zero. However, 30 minutes after being watered the same plant has re-acquired internal pressure and resumed the appearance shown in the photo below.
Communication in Plants
A. Pulvinus: supports projecting underneath the leaf
B. Pulvinus cross-section: state of cells before the plant is disturbed
C. Pulvinus cross-section; turgor loss and leaf fall
1. Pulvinus
2. Sap
3. Cells retaining turgor
4. Cells losing turgor
5. Venous tissue
6. Pulvinus
A relationship in the different branches of the same tree—one that had not previously been recognized—recently attracted botanists' attention. When the top part of a pine tree is cut off, for example, it was observed that the side branches immediately underneath the cut bend upwards as if to compensate for the missing branches and begin to grow straight up within a few growth seasons. These limbs, which had previously been lateral branches, allow one or more of the branches to grow to replace the upright trunk of the pine tree. As if they knew that they had been chosen for the purpose, the branches thus selected grow toward a position in the middle of the others, where they can dominate and assume a central position. But how do the other branches know that these one or two branches have been selected to replace the top of the pine tree?
The questions of how the "main" branch is selected, and why and how the other branches abide by this choice, continue to preoccupy scientists. The only thing they can be certain of is that there is a kind of partnership among the branches.61
In fact, there is a partnership not just among the branches, but in the entire organism—as in the distribution of tasks inside the tree. If in spring you cut off the branch of a willow and plant in wet soil, it will produce roots and new shoots. This is not just an organism, but also organization. The plant cells literally know from which lower region the roots need to emerge, and the same for the buds that form the shoots. Even a small portion of the tree behaves as if it knew all the details regarding the tree as a whole.
Research into plants has permitted a most important miracle to be perceived. There is a communications system among the unconscious cells of the plant. Just like the cells of humans and animals, plant cells communicate with one another and thus display mass behavior.
A hormone is a kind of protein that regulates essential systems in living things. Various hormones are produced in plant cells—miraculous molecules that have been created to determine how the plant should behave under good and adverse conditions.
For example, if new shoots are enjoying good light and air, but the roots endure a dry environment with plentiful sunlight but little water, then the plant requires a deeper, stronger taproot. So perfect is the system inside the plant that the requisite measures are immediately taken. The plant's cells increase the production of a hormone known as auxin which, upon reaching the root cells, commands them to divide and multiply. Thus new roots are produced.62
How do the cells that produce the hormone auxin know that the roots right at the bottom of the plant need to grow longer? How do they learn the chemical formulae that will enable this to happen? And why do the root cells obey this hormone's commands?
The way that unconscious plant cells communicate with one another is a great miracle of creation.
Hormones have assumed duties inside the plant, as if they were managers responsible for running a factory. Molecules too small to be seen by the naked eye resolve with great expertise such complex questions as "Where should the sugar be carried? Where from? Which leaf will grow old and drop off, and which new ones need to be nourished? How long should the branches grow? Is it the accurate time to bloom?"
One of the 50 important varieties of hormone is gibberellin, which controls branch growth. The hormone cytokinin acts on a more distant part of the plant than does the hormone auxin. While auxin acts on the roots, cytokinin influences the plant's buds. It is agreed that this hormone is responsible for the shape of the bud.63 An unconscious molecule produced by unconscious plant cells is regarded as "responsible" for the production of buds created with infinite wisdom!
The really astonishing property of these hormones, which manage all the stages of photosynthesis, is that although they are not linked to any central system, they behave in a seemingly conscious manner, as if they received intelligent instructions from a single source.
The Miracle Called Auxin
Within a few years, a tiny seed planted in the ground becomes a bush and then a tree the size of a human being, and within decades becomes a giant plane tree. So what ensures the growth of the tree and its regular and beautiful development?
Responsibility for the growth of an unthinking plant has been entrusted to another unconscious entity, the hormone auxin. Therefore, the most auxin is found in the developing regions of the plant. Auxin behaves with an astonishing awareness, establishing growth by directing the branches upward towards the light (phototropism), against the force of gravity, and the roots downward in the same direction as gravity. Cell division, the variety and distribution of cells according to specific tasks, fruit growth, root development from cut areas and leaf shedding are among auxin's other responsibilities. The hormone auxin plays a key role in many aspects of plant growth and development, and with its mysterious chemical structure has been the focus of interest for researchers.
The hormone auxin controls in what direction the plant grows, and how much. For example, when a plant receives diffuse light from all directions, the hormone is distributed equally throughout, allowing the plant to grow equally in all directions, as shown on the left. When light arrives from one side only, however, auxin accumulates on the side not receiving light and the greatest growth takes place there, as shown in the photo on the right.
1. Organ sensitive to light
2. Oxyn distributes cell extension equally (equally on both sides).
3. Extra cell growth on the shaded side
4. Oxyn deficiency in the side receiving light
5. Oxyn concentrated in the shaded sid
A. Light
C. Light from one side only
B. Light from above
What controls this hormone, which acts like a decision-making center in the growth of the plant and controls in which direction it will grow? Researchers seeking an answer to this question have found themselves facing an insoluble problem. Another question is why all the components of the plant obey this hormone. In fact, the existence of such a perfect decision-making and implementing mechanism within the plant, the like of which can only be encountered in a disciplined army, proves one single truth: Like other living things, plants have submitted to a single Creator, from their leaves to their roots. This fact is revealed in the Qur'an:
… There is no creature He does not hold by the forelock. My Lord is on a Straight Path.
(Surah Hud: 56)
Everyone in heaven and earth prostrates to Allah willingly or unwillingly,
as do their shadows in the morning and the evening.
(Surat ar-Ra'd:15)
32. Paul Simons, "The Secret Feelings of Plants," New Scientist, Vol 136, No: 1843, 17 October 1992, p. 29.
33. "Cell Types of the Epidermis,"http://www.rrz.uni-hamburg.de/biologie/b_online/e05/05a.htm.
34. "Mechanism and Regulation of Stomata Movements,"
35. http://botany.about.com/science/botany/library/weekly/aa020498b.htm.
36. Kingsley R. Stern, Op. cit., p. 55.
37. Sylvia S. Mader, Inquiry into Life, Willam C. Brown Publishers, 1991, pp. 158-159.
38. "Plant Vacuole",http://microscopy.fsu.edu/cells/plants/vacuole.html.
39. "Testing the Telome Theory,"
http://www.rrz.uni-hamburg.de/biologie/b_online/ibc99/ibc/abstracts/listen/abstracts/4069.html "Botany, an introduction to plant biology," http://biology.jbpub.com/Botany/interactive_glossary_showterm.cfm?term=telome%20theory.
40. "Lycophyta: More on Morphology,,http://www.ucmp.berkeley.edu/plants/lycophyta/lycomm.html.
41. "Bitkilerin Duyulari, ("Sense of Plants"), Bilim ve Teknik ( "Journal of Science and Technology"), June 2000, p. 71.
42. Paul Simons, Op. cit., p. 29; http://www.rrz.uni-hamburg.de/biologie/b_online/e30/30b.htm.
43. "Root development and function: the perception and transduction nutrients," http://www.biology.leeds.ac.uk/centres/LIBA/cps/zhang.htm.
44. http://www.sbs.utexas.edu/roux/research.htm.
45. "Seismonasty," http://www.biologie.uni-hamburg.de/b-online/e32/32d.htm.
46. "The Rapid-response mechanisms of plants," http://www3.telus.net/Chad/pulvinus.htm.
47. "Sensitive Flower," New Scientist, 26 September 1998, p. 24.
48. Dr. Sara Akdik, Botanik ("Botany"), Istanbul: Sirketi Mürettibiye Publishing, 1961, p. 13.
49. "Plants that make you loco,"http://waynesword.palomar.edu/ww0703.htm.
50. "Pests leave lasting impression on plant." New Scientist, 4 March 1995, p. 13.
51. Ibid.
52. "Bitkilerin Duyulari, Op cit., pp. 74-75.
53. Malcolm Wilkins, Plant Watching, London, Facts on File Publications, 1988, pp. 75-77.
54. Kingsley R. Stern, Introductory Plant Biology, Wm. C. Brown Publishers, USA, 1991, pp. 189-190
55. "Plant hormones-nutrition", http://gened.emc.maricopa.edu/bio/bio181/BIOBK/BioBookPLANTHORM.html
56. "Plant tropisms," http://www.geocities.com/CapeCanaveral/Hall/1244/colaborationstropism.htm
57. Kingsley R. Stern, Op. cit., pp. 189-190.
58. "Geotropism, Gravitropism," http://www.biologie.uni-hamburg.de/b-online/e32/32c.htm.
59. "Carnivorous plants,"http://waynesword.palomar.edu/carnivor.htm; Wallace, Sanders, Ferl, Biology The Science of Life, New York: HarperCollins, 1996, pp. 640-641, 660.
60. "Carnivorous plants," http://waynesword.palomar.edu/carnivor.htm.
61. "Auxin, http://www.ultranet.com/~jkimball/BiologyPages/A/Auxin.html.
62. "Plant Hormones, nutrition, and transport," http://www.emc.maricopa.edu/faculty/farabee/biobk/BioBookPLANTHORM.html; Malcolm Wilkins, Plant-Watching, Facts on File Publications, 1988, pp. 167-169,
63. Malcolm Wilkins, Op cit. , pp. 172-173.


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"Vanes is such a hard worker. He's just a baby now, he's only 19, but we're getting there a little bit every day." — Freddie Roach on Vanes Martirosyan after the latter's second pro fight
Within the bowels of the Staples Center, inside the confines of the Chick Hearn Media Room, Vanes "The Nightmare" Martirosyan stepped onto center stage.
Shouldered by trainer Freddie Roach and Top Rank Promoter Lee Samuels, Martirosyan was the centerpiece of a press conference on the undercard of an event headlined by Julio Cesar Chavez as a part of his farewell tour.
As this press conference came to be, the mass of media milling around picking at complimentary snacks and hobnobbing within their own cliques as they often do during the undercard, they all briefly looked up at this teenage fighter wondering who he was as the impromptu interview began taking place.
It consisted of one writer asking every question as this promising 19-year-old boxer seemed to only be of interest to one representative of his hometown paper.
On that particular Saturday, May 28, 2005, Martirosyan easily dispatched Jovanni Rubio inside of one round, improving to 2-0.
Since then, five years have passed along with 25 more victories and 16 more knockouts. A lot more people are asking Martirosyan questions these days and a lot more people are paying attention.
And on June 5, the former Olympian and one of Glendale's favorite sons will step through the ropes and into the biggest fight of his still young career.
Little more than a week remains until the Armenian native takes on "Mean" Joe Greene in a 10-round, 154-pound bout at "The Stadium Slugfest," a card televised on HBO in which Greene (22-0, 14 KOs) and Martirosyan (27-0, 17 KOs) will be the co-main event at the new Yankee Stadium. While many will tune in and buy tickets to see Miguel Cotto and Yuri Foreman duel in the main event, Greene and Martirosyan will still have plenty of eyes upon them.
For the "Nightmare," now 24, it will not be the first time he's fought in a major venue, nor will it be the first time he's fought atop a card.
He's fought from top to bottom of the bout sheet, he's fought indoors and outdoors at magnificent arenas and some that weren't quite so illustrious.
He's fought at the Alameda Swap Meet in L.A. and Buffalo Bill's in Primm, Nev.
He's also fought in Vegas and Atlantic City, NJ.
He's fought on untelevised undercards, he's fought on cable and on pay-per-view.
But make no mistake, this will be the biggest fight that the Glendale fighter has ever fought.
Sure it's a co-main event on HBO. But this time, for the first time, everything is big.
New Yankee Stadium or not, it's Yankee Stadium, it's spacious, it's New York and the card itself is an event.
And HBO is, indeed, HBO, a network known for putting on big-time boxing matches for which millions tune in.
And Greene, though lacking in an original nickname, is an up-and-coming fighter who many believe is destined for a championship future — just like Martirosyan.
Never before has it all come together like this for Martirosyan.
Sure, he's defeated good competition, but like any boxer earmarked for success by a big-time promotion such as Top Rank, his road to glory has been well-planned.
Though he's fought previous "biggest fights of his career," none have been with so much attention upon him nor against an opponent as challenging as Greene.
Alas, it is all coming together.
This is it, the moment where and when Martirosyan can take himself to the next level of championship chances and glory.
In the world of boxing, Martirosyan is a top-10 fighter in his division, brimming with potential.
For sometime now, at least a year, Martirosyan has clamored to test himself against the next level of competition.
While he's captured NABO and NABF tiles, Martirosyan knows as well as anybody that titles such as those mean little on the way to the top. And the top is the only place the determined pugilist has ever wanted to be.
Should Martirosyan emerge victorious, in all likelihood, it will also mark the first conversations in which his name is mentioned among those who should challenge the best of the best.
Should Martirosyan emerge with his first loss, it certainly wouldn't be a disaster. He's simply too good a fighter for a loss to another good fighter to severely damage a bright future. Still, it would be a lofty setback.
Among those in Glendale's Armenian community, of which there are many, it's likely that Martirosyan is its most popular athlete.
But Martirosyan's road to glory, one that took him to the Olympics and now professional fame, has always been meant for a bigger stage.
Certainly not a press conference with one writer asking questions.
Certainly not just the hometown that adores him.
And if Martirosyan once more emerges, as he's done throughout his pro career, undefeated, he will most assuredly announce his rightful presence among the elite in the world of boxing.
On June 5, right smack dab in the middle of one of the most famous sports venues in the world, in the heart of the media capital of the universe and live in your living room, Vanes "The Nightmare" Martirosyan will throw his next punch.
If it lands right, he'll take his next step to stardom — and the biggest one yet.
That's just the way I see it, playing second string.

subset: commoncrawl


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Tour of Flanders 2012
April 1, 2012, Brugge, BEL, Road - WorldTour
Tour of Flanders 2012
The 2012 Tour of Flanders is already one of the most talked about editions in the long and distinguished history of the race. Significant changes to the route for this year have caused controversy, with riders and fans reacting with consternation to the removal of the Muur van Geraardsbergen from the parcours.
Nevertheless the race will retain its status as one of the most loved and eagerly anticipated of the season and remains Belgium's premier Monument. The Tour of Flanders traditionally attracts the best riders in the world to the start line, but riders of other nationalities are always fighting the home team here. The race is a national emblem in Belgium and the host country's riders have won almost seven times more titles here than any other nation. Tom Boonen, who has been in fine early season form, is sure to make a bold bid to continue that dominance, provided he gets to grips with the changes to the course.


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Meet Hermes and Mud main content.
by AMNH on
The Museum is home to Tyrannosaurus rex, a blue whale model...and two live tortoises! Meet Hermes and Mud, a pair of brother African spur-thighed tortoises, the third-largest type of tortoise (after Galapagos and Aldabra). They eat hay, go for walks on the lawn, and have swankier digs than most New Yorkers.
Hermes and Mud were adopted by Darrel Frost, curator of herpetology, and have been delighting lucky Museum visitors ever since. And because we couldn't resist:


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For the past 32 years, Charlie's Nissan in Augusta, Maine has been selling and servicing Nissan vehicles all over the great state of Maine. As a matter of fact, since Charlie opened his Nissan franchise in 1989, he has sold over 20,000 New and Pre-Owned Nissan's all over the beautiful state of Maine. Here at Charlie's Nissan in Augusta it is not uncommon for us to have over 200 new Nissan vehicles in stock at any given time. We have one of the largest Nissan inventories in Maine. Our huge selection of popular Nissan models include Altimas, Frontiers, Rogues, Titans, Jukes and the NV Cargo Van.
We employ over 20 ASE certified Nissan mechanics with over 100 years of combined Nissan service experience, so no matter what your parts and service needs are we can take care of you. Charlie's Nissan employees the #1 ASE Nissan Technician in the country!!! So whether you are from Bangor ME, Saco ME, Portland ME, Lewiston ME, Auburn ME, Rockland ME or even Portsmouth, NH we encourage you to give Charlie's Nissan a try!
You owe it to yourself to see why more people in Maine are choosing Charlie's Nissan as the place to buy their new or used Nissan. If you don't see a particular Nissan vehicle you are looking for, click on CarFinder and complete the form. We will gladly inform you when a matching Nissan car or truck arrives. If you'd like a see a Nissan vehicle in person, click on Dealership: Directions for step-by-step driving instructions to our location in Augusta, Maine or give us a call. We look forward to seeing you in central maine.
New to the Charlie's family in Augusta is the arrival of the new NV Commercial Van. These Nissan vans come in high and low top options NV200, NV1500, NV2500, and NV3500 models as well as 12 passenger Nissan vans. We invite you to come check out our full line of Nissan Commercial Vans at Charlie's Nissan in Augusta.


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After taking my final trip to the theatre to see a 2016 release this weekend I'm ready to post my top 10 films of the year. This year is different, the top three are so inseparably great that they hold joint first place, as a result, I have included two extra titles on this year's list. Here are my picks. You can be sure I'll be picking up more than a good few of these on Blu-Ray in the coming months too.
1. Manchester by the Sea
1. La La Land
1. Loving
2. Arrival
3. Nocturnal Animals
4. Green Room
5. Moonlight
6. The Lobster
7. The Witch
8. High Rise
9. Rogue One
10. The Handmaiden
Evan's Top Films of 2016
Movies, Video Games, TV, more.
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Tombstone Tuesday – Burchfiel Cemetery
by Sherry Stocking Kline
January 12, 2010
Burchfiel Church & Cemetery – Harper County, Kansas
In the early 1960's, my brother pastored at the Burchfiel Church…
Once again, I'm posting information about a cemetery in which I have no family members, although there are family ties to this cemetery and the church near it.
In the late 1950's and early 1960's, my brother Harold F. "Fred" Stocking Jr. and his wife Nancy served the Burchfiel Methodist Church as pastor and family. The Burchfiel church is located just a little over six miles south of Anthony, Kansas in Harper County on Highway 179.
They lived in the same parsonage on the church grounds that you will see here in the photograph. My brother was a student minister at the time, and attended Southwestern College in Winfield, Kansas.
My brother and his wife had three boys and a baby daughter then, and I was just a couple of years older than their oldest boy. Though they had a large yard, we were used to having a quarter section of ground (160 acres) to play on, so it was fairly common for us older children to run up the road that ran on the south side of the church to the old cemetery and play hide and seek among the stones. (would children be safe doing such a thing today?)
While playing among the stones, I noticed many baby and child burials…
Life on the prairie for the early settlers was certainly hard, and from other research and reading that I've done since I would guess very few families escaped losing a child to diseases we now cure so easily, so the one thing I noticed while hiding among the tombstones was how many babies and children were buried there in the early days of the cemetery.
This past year, the Burchfiel Church celebrated its 125th anniversary and my brother enjoyed going back for the celebration, and according to information from the article "Rural Churches Provided a Cornerstone for this Area," by Ruth Jean Anderson, Conway Springs Star, Thurs, Sept 10, 2009 their minister last year and for the previous nine years was Rev. Laurence Hastings and his wife Aletha.
The facts and information following about the early days of the Burchfiel church were excerpted from "Rural Churches Provided a Cornerstone for this Area," by Ruth Jean Anderson, Conway Springs Star, Thurs, Sept 10, 2009.
William H. and Sarah Denton Burchfiel traveled from Tennessee…
According to Anderson's article, in 1878 William H. and Sarah Denton Burchfiel traveled from Dandridge, TN to their new home in Harper County, Kansas in a covered wagon and lived in a dugout home, located 9 and one half miles southeast of Anthony, and it was in their dugout home that the Burchfiel church had its beginning.
The Early Church Family met in a dugout…
According to Anderson's article, Sarah Burchfiel swept out one of the rooms in their dugout home and invited the few neighbors to Sunday School. Later, in 1882, the Burchfield School was organized and Rev Wood, Anthony Methodist Church, held meetings in the school house.
Anderson's article states that Bill Burchfiel wrote about his new home to his brother, the Rev. Joseph R. "Parson" Burchfiel who was a circuit-riding Methodist preacher in Tennessee, invited him to come to Kansas, and so in January of 1884 Parson Burchfield and forty members of his congregation came to Kansas, first on a flat boat up the French Broad River, then by railroad coach.
Parson Burchfield preached at the church until 1888, stated Anderson's article, and several other Tennessee families joined them: Sharp, Croft, Frazier, Henderson, Moore, Bettis, Reneau, Willson, Walker, Denton.
"Only two families in the early days did not come from Tennessee. Both the William Geitgey family and the Fred and Steve Rife families came from Ohio. Sometimes the community was known as "Little Tennessee".
On August 29, 1892 a charter for the Burchfiel Methodist Episcopal Church was obtained for the land and its present location six and one-half miles south of Anthony, and the first Burchfield church was in 1902 "after one of the best wheat crops ever."
On the 10th day of April 1936 a heater at the church caught fire and the church burned to the ground. The next week a meeting of the official board was held to decide what was to be done. William Geitgey said that he would give $500 right then and more later to rebuild the church.
All during the record hot summer the men gave their time and labor to help on the new brick building. And so it was on the sixth day of September 1936, without one penny of debt, Bishop Charles Meade dedicated the new church.
Today, the tiny church supports its young people with college scholarships, and also supports mission work here in the United States and in Africa. The photographs are ones that I took while taking my mom for a ride in the country, and doing some reminiscing.
3 Responses to "Tombstone Tuesday – Burchfiel Cemetery"
Great story. I love these stories of yester-year. My Keyes ancerstors, too established a "little Tennessee," but in Wheeler county of eastern Oregon. It was, and is, a harsh land, but they were quite proud of the Tennessee heritage – a southern flavor which they cherished in their lives.
[…] This post was mentioned on Twitter by Felicia R Mathis, Felicia R Mathis. Felicia R Mathis said: RT @familytreewritr: Used to play among the stones in this cemetery…. Tombstone Tuesday – http://bit.ly/7i8Hgq […]


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Exodus Church, 101 S. Main., presents �Kids Extreme� from 6 to 8:30 p.m. July 22-24, for children entering kindergarten through completed fifth grade. To register, visit.www.theexoduschurch.org. For questions, e-mail email@example.com.
First Baptist, 23 N. Central Ave., presents �Athens: Paul�s Dangerous Journey to Share the Truth� from 6:30 to 8:30 p.m. July 21-25, for families. To register online, visit firstbaptistbelmont.com. For details, call 704-825-3758.
St. John�s Lutheran, NC 150, holds Vacation Bible School from 5:30 to 8 p.m. July 28-Aug. 1 for children and adults. Each night begins at 5:30 with a meal. Those planning to attend are asked to call the church office, 704-435-9264.
Hardin Community Baptist Church, 548 Hardin Road, will be having VBS from 5:30 to 8:30 p.m. July 21-26, 704-675-8388.
Christ United Methodist, 3415 Union Road, presents �Everywhere Fun Fair� from 6 to 8:30 p.m. July 14-18. Call 704-864- 5321
Gastonia Church of Christ, 1919 N. New Hope Road, presents �It�s a Blue Ribbon Life� from 6:30 to 8:30 p.m. July 15-19, for nursery age through adults. Call 704-865-4800 or e-mail email@example.com.
Myers Memorial United Methodist, 301 S. New Hope Road, presents Everywhere Fun Fair from July 14-17. Nightly schedule: 5:30- 6:15 p.m. dinner (for donation); 6:15-6:30 p.m. opening assembly; 6:30-8 p.m. individual classes; 8 p.m. closing assembly. Features children�s classes age 2 through sixth grade; youth classes and two adult classes. One adult class will focus on Adam Hamilton�s book �Forgiveness,� and the second focuses on parenting for parents of children and teens. For details or to register, call Nikki Stacy, 704-864-3222.
New Hope Baptist, 2024 Redbud Drive, presents �Kingdom Rock� from 6 to 8:30 nightly, Aug. 4-8, for ages 4 years through fifth grade. Dinner provided nightly at 6. Call 704-864-6759.
South Gastonia Church of God, 310 Carolina Ave., Gastonia, hosts �Kingdom Rock� Vacation Bible School from 9 a.m. to noon July 15-19. Registration is encourage but not required at www.southgasoniacog.com.
Pisgah United Methodist Church, 2582 Gastonia Highway, holds Vacation Bible School from July 21-25 for children age 3 through sixth grade . The 5-day event begins at 6 p.m. Sunday with a light supper for all children and volunteers, then crafts, music, Bible stories, games, and interesting projects will round out each evening.
Asbury United Methodist Church, 3097 Asbury Church Road, Lincolnton, invites children from 4 years old through fifth grade to Kingdom Rock from 5:30-8 p.m. July 21-25. Kids will participate in memorable Bible-learning activities, sing catchy songs, play teamwork-building games, make and dig into yummy treats, experience epic Bible adventures, collect Bible Memory Buddies to remind them to stand strong, test out Sciency -Fun Gizmos they�ll take home, and learn to look for evidence of God all around them through God Sightings. Each day concludes with Fanfare Finale � a celebration that gets everyone involved in living what they�ve learned. Family members and friends are encouraged to join in daily for this special time at 7:40pm for our Fanfare Finale. For more information, call 704-735-6448.
Ridgeview Baptist Church, 105 Pine Road, presents �SonWest Roundup� from 6 to 8:30 p.m. July 15-19, for ages preschool to sixth grade. Features food, Bible lessons, crafts and games. For more information or to pre-register (required) go to ridgeviewbaptist-mtholly.org. Click on VBS 2013 for link to online registration.
Ranlo Baptist, 1517 Spencer Mountain Road, presents �Kingdom Rock� from 5:30 to 8:30 nightly, July 14-17 for ages kindergarten through 12 th grade. Dinner served 5:30 -6 p.m. each night. July 18 is Family Night at 5:30 p.m. followed by a hot dog supper.
Ranlo Church of God, 1825 Spencer Mountain Road, holds SonWest Roundup from 7 to 8:30 p.m. July 14-18 for children ages 4 to 12. Includes Bible Study, music, puppets, refreshments, games, and contests with prizes. Call 704-827-1528. Thank you sincerely for your service to the community!
Don�t see your church listed?
Send announcements for Vacation Bible School to email@example.com or FAX it to 704-867-5751


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Decor courtesy of Simply Beautiful.
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Kendall Hurley Art Show. On-going at the winery. Come see Kendall's latest creations.
© 2019 Château des Charmes
1025 York Rd., Niagara-on-the-Lake, ON L0S 1P0 905.262.4219
Winery hours: 10am–6pm every day except statutory holidays. Please note our tasting bar closes at 5.30pm.


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Haight Ashbury Comedy Night | Milk Bar
>> Want to see our Top Picks for this week instead?
Milk Bar | 1840 Haight Street, San Francisco, CA
Submitted by the Event Organizer
Haight Ashbury Comedy Night | Milk Bar
Come out to Haight Ashbury Comedy Night at Milk Bar located in the heart of the Upper Haight to see some of SF's best rising comedic talent.
The lineup changes every week, but expect to see comics that have performed at Cobbs, SF Sketchfest, the Punchline and featured on Comedy Central.
The show is produced by Dave Chappelle's Bay Area opener, Stroy Moyd of Rideshare the Love.
#Haight Asbury Comedy Night
Every Thursday at 8 pm
1840 Haight St. near Stanyan, SF
$15 – but use promo code HELLAFUNNY for free tickets or follow @StroyMoyd on Instagram and show proof on smart phone at the door.
Make sure to bring your dancing shoes because Groovewell will be spinning your favorite Hip Hop, Funk, Soul, and Electronic Jams all night.
Updated 3/6/19 – Event info last checked via website
Event Details
Cost: FREE*


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1. YACHT featuring Marc Maron, "Party At The NSA"
From Rockwell's "Somebody's Watching Me" to Isis' "Backlit," songs have long dealt with the paranoia of being stalked or spied upon. But with the revelation this year of the extent of the NSA's domestic surveillance program—thanks to whistleblower Edward Snowden—more attention than ever has fallen on the specific topic of electronic surveillance. In response to Snowden's plight as a fugitive, not to mention the revelation that America is even less of a land of the free than anyone might have suspected, indie-dance band YACHT teamed up with comic Marc Maron for "Party At The NSA." Upbeat yet soberingly satirical, the song makes its stance on the issue clear with the refrain, "Let that whistle blow."
2. Nine Inch Nails, "Satellite"
Nine Inch Nails mastermind Trent Reznor has explored the subject of electronic surveillance numerous times, most extensively on 2007's dystopian concept album Year Zero (whose song "The Great Destroyer" speaks of being watched by the government and "their shiny satellite"). But Reznor cranks up the Sputnik-phobia on "Satellite." One of the most sinister cuts on this year's Hesitation Marks, the song is a slithery, synth-steeped warning to "watch what you think," because the surveillance satellites are "up there somewhere"—and they're "everywhere, listening." It's a harrowing stare into the hidden eyes of those who stare at others.
3. Judas Priest, "Electric Eye"
Trent Reznor has a kindred spirit in Judas Priest's Rob Halford. Although Priest's 1982 "Electric Eye" was written long before Nine Inch Nails existed—and when Snowden was still in diapers—the threat of being controlled via institutionalized observation is as old as Jeremy Bentham's 18th-century invention of the Panopticon. But the advent of 20th-century technology, plus George Orwell's 1984, gave new life to those fears, which Halford taps into on "Electric Eye." "Up here in space / I'm looking down on you," he snarls, adding, "Feel my stare, always there." Then he confirms the governmental source of said surveillance: "I'm elected electric spy."
4. Jill Scott, "Watching Me"
R&B singer Jill Scott sounds anything but strident on "Watching Me." In the 2000 song, a silky groove underpins her airy, supple vocals. As the song progress, Scott's vocals quicken then curdle—and the nature and target of her outrage becomes obvious. "Satellites over my head / Transmitters in my dollars," begins her litany of transgressions against civil liberties, which includes her righteous condemnation of "video cameras locked on me." The fact that "Watching Me" was written only a little more than a year before 9/11—and the subsequent passage of the PATRIOT Act, which helped pave the way for the NSA's current overreach—makes it that much more chilling.
5. The Firm, "Phone Tap"
Not all tunes about electronic surveillance are concerned with governmental tyranny. Some are all about good, old-fashioned cops-and-robbers stakeouts. On "Phone Tap," a 1997 song by the hip-hop supergroup The Firm, the quartet of Nas, AZ, Nature, and Dr. Dre hold forth on the criminal ins and outs of dodging bullets—as well as detectives' bugs. "We got your phone tapped / What you gonna do," raps Dre over a deceptively laidback track, "'Cause sooner or later we'll have your whole crew." The game of cat-and-mouse that ensues foretells a dynamic that would be more intricately explored in the HBO series The Wire.
6. The Rolling Stones, "Fingerprint File"
In 1974, the American record-buying public was reeling from the resignation of Richard M. Nixon, whose presidency ended in August of that year following an investigation into his wiretapping of political enemies in the Watergate scandal. The same month, The Rolling Stones released "Fingerprint File." An example of the band's dalliance with funk, the song embodies the disillusionment and fear brought on by Nixon's deviousness. "Listening to me / On your satellite," Mick Jagger sings in a moment of paranoid prescience. "What a price, what a price to pay / Good night, sleep tight," he then whispers devilishly as the song dissolves into an eerie silence.
7. Bauhaus, "The Spy In The Cab"
When the real-world issue of electronic surveillance gets too scary, leave it to Bauhaus to make it scarier—by making it unreal. The goth group's 1980 song "The Spy In The Cab" feels like a spider crawling into one's ear, and Peter Murphy's vision of being watched is suitably creepy. Frozen in terror after discovering, "Hidden in the dashboard / The unseen, mechanized eye," Murphy layers on the atmospheric dread in the face of omnipresent surveillance via the lenses of cameras in cars: "A 24-hour, unblinking watch / Installed to pry, installed to cop."
8. Pigmeat Markham, "Your Wire's Been Tapped"
Songs about electronic surveillance aren't new, and neither are they always about the government tyranny or police oppression. Long before Watergate, and back when the NSA was in its infancy, the comedian, actor, and recording artist Pigmeat Markham released "Your Wire's Been Tapped," a cautionary tale against running around with married women—or at least against getting caught. "Now things have changed / And nothing is like it was in yesteryear," Markham barks, lamenting the fact that a cuckolded husband might be bugging the line when you're phoning his wife. "If you hear quick exposure like a face has been slapped / Watch it, skip it, your wires have been tapped," he advises, then adds, "Watch out, don't answer that phone!" Wise words then, wise words now.


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Intellectual Disability
Definition: A child with an Intellectual Disability shall have reduced general intellectual functioning existing concurrently with deficits in adaptive behavior and manifested during the development period, which prevents the child from receiving reasonable educational benefit from general education.
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We know that many times those working with students with significant needs may be isolated and lack the opportunity to collaborate with colleagues or find the expertise they need in a timely and safe setting. This is a place to ask questions, have discussion and share ideas with those in the field that are having the same experiences.
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All evolutionist efforts to establish beneficial mutations have ended in failure. In order to reverse this pattern, evolutionists have for decades been carrying out experiments on fruit flies, which reproduce very quickly and which can easily be subjected to mutations. Scientists have encouraged these insects to undergo all kinds of mutations, a great many times. However, not one single useful mutation has ever been observed.
It is a striking, but not much mentioned fact that, though geneticists have been breeding fruit flies for sixty years or more in labs all round the world—flies which produce a new generation every eleven days—they have never yet seen the emergence of a new species or even a new enzyme.186
. . . geneticists have subjected generations of fruit flies to extreme conditions of heat, cold, light, dark, and treatment by chemicals and radiation. All sorts of mutations, practically all trivial or positively deleterious, have been produced. Man-made evolution? Not really: Few of the geneticists' monsters could have survived outside the bottles they were bred in. In practice mutants die, are sterile, or tend to revert to the wild type.187
In short, like all other living things, fruit flies possess specially created genetic information. The slightest alteration in that information only leads to harm.
186 Gordon R. Taylor, The Great Evolution Mystery, p. 48.
187 Michael Pitman, Adam and Evolution, London: River Publishing, 1984, p. 70.


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2012 MIT Men's Water Polo Headlines
Ivovic Selected as MIT's Head Water Polo CoachApril 18, 2013CAMBRIDGE, Mass. – Ivan Ivovic has been named MIT's head water polo coach, it was announced today by MIT Director of Athletics and Department Head, Julie Soriero. Ivovic brings almost 20 years of playing and coaching experience to the Engineers' program.
Mark Lawrence Steps Down as MIT Water Polo CoachJanuary 14, 2013CAMBRIDGE, Mass. – Mark Lawrence, MIT's head water polo coach, has announced that he will be stepping down as the Head Coach of the Engineers' program. He will be moving on from MIT to become an assistant with the Brown University men's water polo program.
MIT Water Polo Wraps Up Season With Loss to Harvard at Eastern ChampionshipNovember 18, 2012PRINCETON, N.J. - In the fourth meeting between the two Cambridge rivals this season, MIT water polo lost to Harvard, 10-7. The Crimson evened the season record following a 19-7 loss and a 13-12 win during the regular season. At the Northern Division Championship, the Engineers won, 15-14, in sudden death overtime...
Navy Defeats MIT Water Polo, 21-9November 17, 2012PRINCETON, N.J. - In its second game of the Eastern Championship at Princeton University, the MIT water polo team lost to Navy, 21-9. Sophomore Jack Clark (Laguna Beach, Calif.) scored the most goals among the Engineers, tallying three throughout the game.
Water Polo Suffers Tough Loss to Mercyhurst, 6-5November 16, 2012PRINCETON, N.J. - In its opening game of the 2012 Collegiate Water Polo Association (CWPA) Eastern Championship, No. 6 MIT water polo lost to Mercyhurst University, 6-5, which is the lowest scoring affair so far in this year's tournament. Junior Craig Cheney (Sherwood, Ore.) was the only Engineer to net more than one goal.
Three Engineers Named to CWPA All-North Teams, Rogers Receives Rookie of the Year HonorsNovember 16, 2012CAMBRIDGE, Mass. – MIT freshman Kale Rogers (Newberg, Ore.) was named the conference's Rookie of the Year as announced by the Collegiate Water Polo Association (CWPA) on Friday morning. He joined fellow freshman Ory Tasman (Orlando, Fla.) on the All-Northern Division Second Team...
Water Polo Takes Two of Three at Northern Division ChampionshipsNovember 03, 2012PROVIDENCE, R.I. - At the Northern Division Championships over the weekend, MIT water polo defeated Iona, 12-11, and Harvard, 15-14, both in triple overtime, but lost to host Brown, 17-8, earning third place overall. The Engineers' performance earned them a spot at the Eastern Championships on Nov. 16-18 at Princeton.
Water Polo Sinks Connecticut College, 13-9October 27, 2012CAMBRIDGE, Mass. – After a disappointing loss at Brown the night before, the water polo team defeated Connecticut College for the third time in the last three weeks with a score of 13-9 on Saturday night. The Engineers are now 9-10 for the season.
MIT Water Polo Downed by Brown, 12-9October 26, 2012PROVIDENCE, R.I. - MIT water polo was defeated by No. 12 Brown, 12-9, on the road on Friday night after a very close game. Junior Craig Cheney (Sherwood, Ore.) scored the first goal of the game just 30 seconds into the first period, giving the Engineers a quick lead over the Bears.
Engineers Finish Second in Tournament After Losing to JHU, 15-13October 21, 2012CAMBRIDGE, Mass. - Following victories over Washington & Jefferson and Connecticut College yesterday, MIT water polo narrowly lost to Johns Hopkins, 15-13 on Sunday afternoon. The Engineers wrapped up the final day of the Division III Eastern Championships in second place...
Day One of Water Polo Div. III Eastern ChampionshipsOctober 20, 2012CAMBRIDGE, Mass. – MIT water polo opened the first day of the Division III Eastern Championships with wins against Washington & Jefferson (19-10) and Connecticut College (15-9). They will continue the tournament tomorrow with a game against Johns Hopkins at 11:30 a.m. to battle for first place.
Water Polo Edged out by St. Francis, 14-11October 06, 2012BROOKLYN HEIGHTS, N.Y. – After defeating Connecticut College earlier in the day, MIT water polo fell to St. Francis College (N.Y.), 14-11. Junior Scott Stephens (Los Altos, Calif.) led MIT with three goals. The Engineers are now 6-8 for the season.
Connecticut College Falls to MIT Water PoloOctober 06, 2012NEW LONDON, Conn. – MIT water polo defeated Connecticut College, 14-9, on Saturday afternoon, remaining undefeated in games against the Camels since the series began back in 2000. The Engineers are now 6-7 for the season as they head to Brooklyn Heights, N.Y. for their final game of the weekend against St. Francis College.
Water Polo Takes Three of Four in Weekend Road TripSeptember 30, 2012LEWISBURG, Pa. - MIT's water polo team hit the road for the Bison Invite at Bucknell University over the weekend and came away with a 3-1 record after losing to host Bucknell (18-12), and defeating Navy "B" (17-11), Notre Dame College (14-5) and Toronto University (13-9).
Water Polo Loses to Iona but Defeats FordhamSeptember 25, 2012CAMBRIDGE, Mass. - MIT's water polo team lost to Iona College, 13-10 but defeated Fordham University, 9-6 at home on Saturday after being edged out by Harvard the night before (13-12).
MIT Water Polo Edged Out by Harvard, 13-12September 21, 2012CAMBRIDGE, Mass. - In their second game against Harvard this month, the first of which MIT won, 19-7, the Engineers were edged out by the Crimson, 13-12. MIT's record dipped to 3-5 for the season.
Water Polo Loses to Mercyhurst, 9-12September 14, 2012CAMBRIDGE, Mass. - In a back and forth game against Mercyhurst at home on Friday night, the MIT water polo team lost, 9-12. Ory Tasman (Orlando, Fla.) recorded four goals throughout the game, while fellow freshman Kale Rogers (Newberg, Ore.) added three more. The Engineers are now 3-4 for the season.
Kale Rogers Earns CWPA Weekly HonorsSeptember 12, 2012CAMBRIDGE, Mass. – Following his first appearance at the Princeton Invitational, freshman Kale Rogers (Newberg, Ore.) claimed the Northern Division Rookie and Player of the Week Awards as announced by the Collegiate Water Polo Association earlier this week.
Water Polo Wins 2 of 4 Games at Princeton InvitationalSeptember 09, 2012MERCER COUNTY, N.J. - MIT's water polo team traveled to New Jersey on Saturday to take part in the Princeton Invitational, a two-day tournament that took place at Princeton University. The team returned home on Sunday with a 2-2 record, falling to Princeton (14-8) and California (17-4) but defeating George Washington (13-6) and No. 2 ranked Johns Hopkins (13-11).
MIT Water Polo Falls to Brown and ChicagoSeptember 03, 2012CAMBRIDGE, Mass. - Following impressive wins over Yale and Harvard the day before, MIT's water polo team hit the road on Sunday for the second half of the Labor Day Invite at Brown University but ultimately fell to Brown (1-13) and Chicago (10-11). Freshman Matthew Orton (Los Altos Hills, Calif.) scored the lone goal against the Bears.
Freshmen Lead Engineers in First Half of Labor Day InviteSeptember 01, 2012CAMBRIDGE, Mass. - In the opening tournament of the 2012 season, the MIT water polo team defeated Yale (23-7) and Harvard (19-7) but was unable to hold off Diablo Valley (13-7), who won the final game of the Labor Day Invite, hosted by MIT on Saturday.
MIT Athletics Fall 2012 Webcast Schedule SetAugust 27, 2012CAMBRIDGE, Mass. – Webcasting is back for the 2012-13 season for MIT Athletics, with a schedule that includes 23 different contests lined up for the fall it was announced today. Games for field hockey, football, men's and women's soccer, women's volleyball and men's water polo will all be included in the lineup.
2012 Water Polo Schedule ReleasedAugust 13, 2012CAMBRIDGE, Mass. – The water polo team will open its 2012 season on September 1 with the Labor Day Invite, a home event where it will face Yale, Harvard and Diablo Valley College. After heading to Brown for day two of the tournament, the Engineers will spend the following weekend in New Jersey at the Princeton Invite (Sept. 8-9).


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We met Katy Thompson at the degree show. We really liked her stuff and asked her to come and do something for the fringe. So here is her proposal for the front room back wall:
Proposal for the 'Old Hat Books' area of the Forest Café.
I propose to make an installation of curiosity-type boxes and book shelves for the wall above and surrounding the 'old hat books' seating area of the entrance café. The installation will be positioned up the wall with a canopy of hand-made aeroplanes and parachutes reaching across towards the book cabinet. the shelves and boxes will have a sprawl of spider plants, jars and houses, all of which will be fixed to the various surfaces.
The bulk of the installation will be created off-site, ready to be installed in its various parts when convenient.
All segments are able to be fire-proofed with spray for safety. I intend to make most of the installation relatively out of reach of the public so it creates an atmosphere and display but does not impose upon the actual seating space.
Idea for wall based detail of installation. The pictures already in existence on this wall I intend to use as part of the installation however all arranged differently. Some of the areas will still be functional as book shelves but also interacted with other objects.
Idea for canopy area of installation. (as separate drawing for clarity) The parachutes have Cowboys and Indians attached and the model aeroplanes will be made from pages of old books.
The piece over-all acts to tell the pre-quell to the story of 'the battle' that I exhibited at the Edinburgh College of Art Degree show this year. The pre-quell to this tells the story of the ancient war that waged between the Cowboys and Indians and how they came to eventually join arms after the militia waged war on both sides regardless of their feud. It follows the story of Eli the cowboy and George the Indian who came together over a breakfast of porridge and decided to join forces in the fight for their ancestral lands.
Katy Thomson Graduated from Edinburgh College of Art with BA Hons in Drawing and Painting.
Examples of previous work can be found on my website.
Proposal installation front room
Front of House, garden etc.
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Proposal installation front room
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tack och hej leverpastej
Re: Proposal installation front room
It's really cool to see all these new proposals coming in - good work!
It's really cool to see all these new proposals coming in - good work!
Re: Proposal installation front room
lets do it and have free porridge for the opening!
lets do it and have free porridge for the opening!
Re: Proposal installation front room
cool cool cool!
"We all tend to idealise kindness and tolerance, then wonder why we find ourselves infested with losers and nutcases." Sebastian Horsley
Re: Proposal installation front room
Re: Proposal installation front room
told you katy was awesome!!!
Re: Proposal installation front room
Date decided, she's coming in on the 26th!
tack och hej leverpastej
- scoutwinter
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Re: Proposal installation front room
that sounds awesome, nice that it will somewhat fit with the library theme. Can we make sure though that all the pictures that may get moved get kept cos we put a lot of time and gold paint into those!
rad. great proposal.
rad. great proposal.
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This thread will offer a place to list local and state geocaching organizations in the South Atlantic area:
Delaware, Maryland, District of Columbia, Virginia, West Virginia, North Carolina, South Carolina, Georgia, and Florida.
All images below should be links to the referenced site. At this point, I have listed all the groups I could find. If you know of any others, please let me know.
And be sure to check out the "Other Areas" forum for a list of global organizations too!