How to Edit Your De 2063 Online With Efficiency
Follow the step-by-step guide to get your De 2063 edited with efficiency and effectiveness:
- Select the Get Form button on this page.
- You will enter into our PDF editor.
- Edit your file with our easy-to-use features, like adding text, inserting images, and other tools in the top toolbar.
- Hit the Download button and download your all-set document for reference in the future.
We Are Proud of Letting You Edit De 2063 Seamlessly


How to Edit Your De 2063 Online
When you edit your document, you may need to add text, fill in the date, and do other editing. CocoDoc makes it very easy to edit your form with the handy design. Let's see the simple steps to go.
- Select the Get Form button on this page.
- You will enter into our PDF editor web app.
- Once you enter into our editor, click the tool icon in the top toolbar to edit your form, like inserting images and checking.
- To add date, click the Date icon, hold and drag the generated date to the field you need to fill in.
- Change the default date by deleting the default and inserting a desired date in the box.
- Click OK to verify your added date and click the Download button to use the form offline.
How to Edit Text for Your De 2063 with Adobe DC on Windows
Adobe DC on Windows is a popular tool to edit your file on a PC. This is especially useful when you have need about file edit without using a browser. So, let'get started.
- Find and open the Adobe DC app on Windows.
- Find and click the Edit PDF tool.
- Click the Select a File button and upload a file for editing.
- Click a text box to give a slight change the text font, size, and other formats.
- Select File > Save or File > Save As to verify your change to De 2063.
How to Edit Your De 2063 With Adobe Dc on Mac
- Find the intended file to be edited and Open it with the Adobe DC for Mac.
- Navigate to and click Edit PDF from the right position.
- Edit your form as needed by selecting the tool from the top toolbar.
- Click the Fill & Sign tool and select the Sign icon in the top toolbar to make you own signature.
- Select File > Save save all editing.
How to Edit your De 2063 from G Suite with CocoDoc
Like using G Suite for your work to sign a form? You can integrate your PDF editing work in Google Drive with CocoDoc, so you can fill out your PDF without worrying about the increased workload.
- Add CocoDoc for Google Drive add-on.
- In the Drive, browse through a form to be filed and right click it and select Open With.
- Select the CocoDoc PDF option, and allow your Google account to integrate into CocoDoc in the popup windows.
- Choose the PDF Editor option to begin your filling process.
- Click the tool in the top toolbar to edit your De 2063 on the target field, like signing and adding text.
- Click the Download button in the case you may lost the change.
PDF Editor FAQ
Is Thessaloniki a good place to retire to?
Thessaloniki is a much better city than Athens. There are only really 2 neighborhoods that are bad one is far away from where almost everyone goes which is where the gypsies live and one is near One Salonica mall where there are a ton of illegal immigrants. Both areas can be easily avoided.Thessaloniki is not an expensive city to live in but for newcomers it has a confusing public transportation system as there is no metro. There will be a subway system in Thessaloniki either in 2023 or 2063 as the metro was supposed to be done in the early 2000’s.Thessaloniki has arguably the best beaches (after Crete) in Greece an hour away in a place called Xalkidiki, (Hal-key-de-key). Thessaloniki has closer to a normal climate, if Thessaloniki has 5 months of summer like weather, Athens has 6 and Crete 7.It is more likely that you will want to have a car if you live in Northern Greece.
Was it only the Greeks in the ancient world who were obsessed with the Golden Ratio?
Not even the Greeks were obsessed with the Golden Ratio—let alone anyone else.For those of you who do not already know, the so-called “Golden Ratio,” or φ, occurs when the ratio of the greater of two quantities to the lesser of two quantities is equivalent to the ratio of the sum of the two quantities to the greater of the two quantities. Expressed using incomprehensible math symbols, it looks like this:Many people believe that the “Golden Ratio” is the pinnacle of aesthetic perfection and that, the closer something is to the Golden Ratio, the more beautiful it is automatically. Many people also believe that the ancient Greeks were obsessed with the Golden Ratio and that they incorporated it into all their buildings and works of art. Unfortunately for those who love a good math story, we have no good evidence to support either of these conclusions.In fact, the Golden Ratio is not even mentioned in any Greek text until as late as the early third century BC. The Greeks were arguably fascinated with the idea of using mathematical proportions in art to a certain extent, but they were by no means obsessed with the Golden Ratio in particular. The story of how we came to believe that the Greeks were obsessed with the Golden Ratio, though, is as fascinating as it is bizarre. It involves a friend of Leonardo da Vinci, an eccentric nineteenth-century German psychologist, and Donald Duck.Drawing rectangles and spirals is fun!You often see images on the internet like the ones shown below, which supposedly illustrate how the design of the Parthenon perfectly fits the Golden Ratio. I found the images below just by doing a Google Images search for “Parthenon Golden Ratio”:Here is a close-up of the first two images I found:The problem is that the spirals and rectangles in these images don’t actually line up with the building, which you can tell just by looking at the pictures. If the rectangle lines up in one place, it doesn’t line up in another. Often, these images deliberately use very thick lines or are taken from a particular angle in order to disguise this fact.The thing is, drawing a bunch of rectangles and spirals on photographs of buildings and works of art doesn’t automatically prove that those buildings were constructed according to the Golden Ratio. You can superimpose rectangles and spirals over literally anything. For instance, here is an image of a Golden Ratio spiral superimposed over a dumpster:Can you even begin to fathom how incredibly aesthetically appealing this dumpster is? Is it not the most beautiful dumpster you have ever seen?Here is an image of a Golden Ratio spiral superimposed over the illustration of Satan from the Codex Gigas:Isn’t Satan so amazingly beautiful? Who could ever hope to resist such a magnificent Devil!Here is an image of a Golden Ratio spiral superimposed over my own face:Clearly, this proves beyond a shadow of a doubt that my face is designed according to the Golden Ratio and is mathematically perfect. This image clearly proves that I have the most aesthetically appealing face in the world. All hail my magnificent face!Ok. Enough silliness. I think you get my point; imposing a Golden Ratio rectangle or spiral over an image of an object doesn’t automatically make the object in that image correspond to the Golden Ratio and, if you look closely at the images of the Parthenon with the Golden Ratio rectangles and spirals superimposed on them, you will see that the rectangles and spirals do not really fit the building.The Parthenon—not built according to the Golden RatioOf course, looks can be deceiving. What we really need here is something better than just a photograph of the building with geometric figures superimposed over it; what we really need are the exact measurements of the Parthenon and the mathematical relationships between them.I would give an in-depth mathematical debunking of the idea that the Golden Ratio was used in the construction of the Parthenon, using actual measurements from the Parthenon rather than just photos of it. Unfortunately, I was never a particularly talented math student and I doubt I could do a mathematical debunking convincingly, so, instead, I will quote for you a very sound debunking from this very well-written article by New Zealand classicist Peter Gainsford, which looks at the actual measurements of the Parthenon and demonstrates that it is not constructed according to the Golden Ratio. Gainsford writes:“Myth 1(a): In the Parthenon frieze, each square metope + rectangular triglyph together form a golden rectangle. The triglyph is another golden rectangle.”“Reality: To avoid problems with foreshortening, let’s get some accurate measurements. I’m taking my figures from Lehman and Weinman 2018: 167.”“On the west facade, the average metope width is 1275 mm, and the average triglyph width is 844.6 mm, making a total rectangle of 1275 × 2119.6 mm. A golden rectangle of the same height ought to be 1275 × 2063 mm, or if the same width, 1310 × 2119.6 mm. On the east facade, the figures are almost the same: average metope width 1274 mm, average triglyph width 844.5 mm, total rectangle 1274 × 2118.5 mm. The triglyphs are more than 7% too fat to be golden rectangles.”“The actual ratio intended between metope and triglyph is 3:2. On the west facade it’s 3.019:2, on the east facade 3.017:2. Combined, each metope + triglyph would then produce a 5 × 3 rectangle, not φ × 1. They miss φ by 2.7%, but they miss 5 × 3 by only 0.23% to 0.25%.”“Myth 1(b): A rectangle the width of a metope + triglyph, and the height of the entablature, is a golden rectangle.”“Reality: The height of the entablature is 3295 mm, so based on the figures above, the rectangle is 2119.6 × 3295 mm (west facade) or 2118.5 × 3295 mm (east). A golden rectangle of the same height ought to be 2036 mm wide, or if the same width, 3430 mm high (west) or 3428 mm high (east). The entablature is 4% too short, or alternatively, the metopes + triglyphs are 4% too wide.”“Myth 1(c): Each pair of columns and the space between them form a golden rectangle.”“Reality: The columns are 10.433 m tall. The diameter at the bottom is 1.905 m, and the average intercolumniation is 4.296 m (not counting the corner columns, which are more narrowly spaced). This gives a rectangle of 6.201 m × 10.433 m. A golden rectangle with that width ought to be 6.201 × 10.033 m (so the real columns are 4% too tall), or with that height, 6.448 m × 10.433 m (so the real columns are 4% too close together).”In addition to pointing out how the measurements of the Parthenon do not fit the Golden Ratio, Gainsford also observes that the architects who created the Parthenon could have made the Parthenon fit the Golden Ratio if they had wanted to:“If the architects of the Parthenon had wanted to embed the golden ratio in the building, they certainly could have done so: ancient Greek temples do display various other ratios, to fairly high precision, as documented by Lehman and Weinman (2018: 61-104). But they’re ratios like 2:1, 9:4, 7:3, and in some parts of the Parthenon, 81:30. The golden ratio doesn’t enter into it.”In other words, the reason why the Parthenon does not fit the Golden Ratio is clearly because the architects who designed it were not trying to make it fit the Golden Ratio.A word from a mathematicianClassicists are not the only ones who agree that the Parthenon is not built according to the Golden Ratio; mathematicians also agree. In a blog post from May 2007, Keith Devlin, a professor of mathematics at Stanford University, writes concerning the notion that the Greeks constructed the Parthenon according to the Golden Ratio: “…they did not; which is to say, there is not a shred of evidence that they did any such thing, and good reason to believe they did not.”Devlin goes on to comment later in the article regarding the images that are so pervasive on the internet depicting the Parthenon with rectangles and spirals superimposed on it. He writes:“As to the Parthenon, all it takes is more than a cursory glance at all the photos on the Web that purport to show the golden ratio in the structure, to see that they do nothing of the kind. (Look carefully at where and how the superimposed rectangle – usually red or yellow – is drawn and ask yourself: why put it exactly there and why make the lines so thick?)”In other words, Devlin is saying basically the same thing I just said: that drawing rectangles on an image doesn’t prove the building or object in the image is constructed according to the Golden Ratio.The beginning of the myth of the Golden RatioAs far as I am aware, there is actually no evidence that the Greeks even knew about the Golden Ratio at the time when the Parthenon was constructed at all. The earliest known description of the Golden Ratio comes from the Greek mathematical writer Eukleides of Alexandria (lived c. 325 – c. 270 BC) in Book Six of his mathematics textbook Elements of Geometry. Eukleides doesn’t call it “the Golden Ratio”; instead he calls it “the extreme and mean ratio.” Also, Eukleides says nothing about the ratio being widely used in art or even having any aesthetic relevance at all.The Golden Ratio first began to be mythologized by the Italian Renaissance mathematician Luca Pacioli (lived c. 1447 – 1517), a friend of Leonardo da Vinci. In 1509, Pacioli published a treatise titled De Divina Proportione, which is Latin for “On the Divine Proportion.” The title referred to none other than the Golden Ratio and the book was illustrated by none other than Leonardo da Vinci himself.ABOVE: Portrait from 1495 of the Italian Renaissance mathematician Luca Pacioli, whose treatise De Divina Proportione arguably marks the beginning of the modern mythologization of the Golden RatioAn eccentric GermanThe real beginning of our modern obsession with the Golden Ratio, though, came with the eccentric German psychologist Adolf Zeising (lived 1810 – 1876), who became thoroughly convinced that the Golden Ratio was everywhere in nature. He thought that the Golden Ratio could be found in nearly everything living, from plant leaves to the human skeleton.In 1854, Zeising published a book in German titled Neue Lehre von den Proportionen des menschlichen Körpers (i.e. “New Teachings on the Proportions of the Human Body”) in which he argued that the Golden Ratio is “das Grundprinzip aller nach Schönheit und Totalität drängenden Gestaltung im Reich der Natur, wie im Gebiet der Kunst enthalten ist,” which means “the founding principle for all creative striving for beauty and wholeness, both in the realm of nature as well as in the domain of art.”Zeising wrote about the Golden Ratio in subsequent work. His own obsession with the Golden Ratio gradually spread to other mathematicians and art theorists, eventually giving birth to the myth of the Golden Ratio as we know it today. Art historians went back through old works of art and architecture and retrospectively concluded that many of them were constructed according to the Golden Ratio, even though they really weren’t. Thus, just about any rectangle or spiral in an old work of art was automatically interpreted as a Golden Ratio.ABOVE: Illustration from 1866 showing the German writer Adolf Zeising at a party. Zeising was the one who popularized the idea that the Golden Ratio is the basis for all aesthetics.Pheidias and φIn around 1910, the engineer Mark Barr (lived 1871 – 1950), a dual citizen of the United States and Great Britain, proposed the idea of representing the Golden Ratio with the Greek letter phi (φ). Barr reportedly proposed this partly because φ is the first letter of the name of the great Athenian sculptor Pheidias (lived c. 480 – c. 430 BC), whose name in Greek is Φειδίας (Pheidías). Pheidias was in charge of designing and creating the sculptures for the Parthenon.Barr seems to have therefore been operating under the assumption that Pheidias used the Golden Ratio when designing the sculptures for the Parthenon. There is no evidence to support this assumption and it is quite likely that Pheidias did not know of the Golden Ratio’s existence, since, as I have already noted, the earliest known description of it comes from Eukleides’s Elements of Geometry, which was written over a century after Pheidias’s death.Nonetheless, Barr’s notation eventually became accepted and it is now standard in mathematics to use the Greek letter φ as a symbol for the Golden Ratio. Thus, the Golden Ratio’s symbol comes from the first letter of the name of a man who may very well have not even known of its existence.ABOVE: Pheidias Showing the Frieze of the Parthenon to his Friends, painted in 1868 by the English Academic painter Sir Lawrence Alma-Tadema, correctly depicting the Parthenon Frieze as having originally been paintedDonald Duck joins in on the fun!The myth of the Golden Ratio was further propagated through the twenty-seven-minute-long animated children’s educational film Donald in Mathmagic Land, which was produced by Walt Disney in 1959. This film claimed that the ancient Greeks regarded the Golden Rectangle as “a mathematical law of beauty.” In reality, it was not the Greeks, but rather Adolf Zeising who believed this.The film goes on to claim that many famous buildings and works of art, including the Parthenon, the Notre Dame de Paris cathedral, the Mona Lisa, and the Venus de Milo all contain Golden Ratios. In reality, there is no evidence that any of these buildings or works of art really contain Golden Ratios. Nevertheless, Donald in Mathmagic Land proceeds to draw rectangles all over them, claiming that they are built according to the Golden Ratio. Because the versions of the buildings and works of art shown in the segment are animated, the film is able to make the rectangles look somewhat more convincing than they would if they were drawn over a real photograph.Nonetheless, despite its egregious errors, Donald in Mathmagic Land has been commonly shown to schoolchildren throughout the English-speaking world ever since it first came out roughly three generations ago. People tend to have a strong attachment to information they learned as children, so many people have a very strong attachment to the idea that buildings such as the Parthenon were constructed according to the Golden Ratio, even though there is no evidence to support this.ABOVE: Image of Donald Duck from the Golden Ratio segment of Donald in Mathmagic Land, which propagated the misconception that many ancient Greek buildings and sculptures were deliberately designed according to the Golden RatioNot a magic numberUnfortunately, most of what you hear about the Golden Ratio is pure malarkey. The Golden Ratio isn’t a magical, mystical, esoteric number that all of nature intentionally patterns itself after; that’s not how nature works. The Golden Ratio does show up in nature sometimes because Fibonacci Sequences occur in nature and Fibonacci Sequences tend to result in the Golden Ratio, but it doesn’t show up nearly as often as Zeising and others obsessed with the Golden Ratio have claimed.Furthermore, there isn’t really good scientific evidence that the Golden Ratio is naturally aesthetically appealing to humans. In fact, there is actually some experimental evidence to suggest that people have no natural preference for the Golden Ratio at all. For instance, Keith Devlin, the same mathematics professor at Stanford University whom I quoted earlier, has conducted an exercise with students at his university, in cooperation with the university’s psychology department, for years.As part of the exercise, students are shown images of different rectangles. Only one of the rectangles is constructed according to the Golden Ratio. Each student is instructed to pick their favorite rectangle of all the ones shown. Devlin has found that students are about as likely to pick the Golden Rectangle as any of the others, which suggests that the Golden Ratio is not inherently as aesthetically appealing as early theorists believed.Greek use of numbers in artNow that we have seen where the idea that the Greeks were obsessed with the Golden Ratio comes from, let’s get back to the Greeks. It is true that at least some ancient Greek artists tried to use numbers and mathematics in their art. For instance, the fifth-century BC Greek sculptor Polykleitos of Sikyon is known to have written a treatise titled Canon of Proportion in which he laid out in exact detail the ideal proportions for a realistic-looking but idealized sculpture of a nude male. Polykleitos is known to have used these proportions in his sculptures.Polykleitos’s Canon of Proportions has not survived to the present day, but we know about it because it is mentioned and even occasionally quoted in a number of surviving ancient texts. Unfortunately for people who want to believe the Greeks were obsessed with the Golden Ratio, though, no surviving ancient text that I am aware of ever links Polykleitos’s Canon of Proportions to the Golden Ratio in any way. Furthermore, the proportions of the surviving copies of Polykleitos’s sculptures do not correspond to the Golden Ratio. I think we can safely say, then, that Polykleitos’s Canon of Proportions was not based on the Golden Ratio.One thing Polykleitos’s Canon of Proportions does demonstrate, however, is that numbers and measurements really were very important to at least some ancient Greek sculptors. Greek sculptors and architects may not have been obsessed with the Golden Ratio, but it is quite possible that some of them may very well have been obsessed with mathematics in general.ABOVE: Roman marble copy from the Naples Archaeological Museum of the Doryphoros, or “Spear-Bearer,” a larger-than-life bronze sculpture of a nude male warrior bearing a spear that was originally cast sometime around 440 BCMathematics and the ParthenonIndeed, not only were numbers and mathematics important in ancient Greek art in general, they were even important in the designing of the Parthenon. The Parthenon may not incorporate the Golden Ratio, but it certainly took a lot of impressive math to design that building.The architects who designed the Parthenon were these two fellows named Iktinos and Kallikrates. They incorporated all kinds of optical illusions into the building’s design in order to compensate for the effects of foreshortening and perspective. Even though the Parthenon looks to the viewer as though it is full of straight lines and right angles, it actually does not contain a single straight line or right angle at all.You see, to compensate for foreshortening, the columns of the building are ever so slightly more slender at the tops than at the bottoms and they swell in the middles, making them look straight. Meanwhile, the steps leading up to the building swell in the middle so that they look straight. In actuality, though, if you set your hat at one end of the step, go to the other end, and peer over the edge of the step, you won’t be able to see your hat, because the swell in the middle of the step will be blocking your view.ConclusionAncient Greek sculptors and architects, especially the designers of the Parthenon, were absolutely brilliant. Nonetheless, the notion that the ancient Greeks—or any other people from the ancient world for that matter—were in any way “obsessed with” the Golden Ratio is a misconception. Quite simply, at least as far as we know, the Greeks of the Classical Period did not use the Golden Ratio in their art, partly because there is a good chance they did not even know about its existence and partly because the Golden Ratio is not actually uniquely aesthetically appealing.There is a small degree of truth here in that ancient Greek sculptors and artists really did rely on mathematics to an extent to enhance their buildings. The Greeks, of course, were not the first ones to use mathematics in architecture in this way; mathematics has been used in architecture since at least the time of the earliest Egyptians and Sumerians. I do not think that really matters all that much, though, in the grand scheme of things. What really matters is that we have these sculptures and monuments to admire in the first place. When admiring the Parthenon, does anyone really think about the ratios that make it up?ABOVE: Photograph from Wikimedia Commons of the Parthenon at night on the Athenian Akropolis(NOTE: I have also published a version of this article on my website titled “Were the Greeks Really Obsessed with the Golden Ratio?” Here is a link to the version of the article on my website.)
What are some of the megastructures built or being built in India?
Here are 5 interesting facts about Sardar patel's Statue of Unity1) The Statue of Unity will be double the height of the Statue of Liberty in the USA and five times taller than the Statue of Christ the Redeemer inRio de Janeiro, Brazil. The construction is estimated to cost Rs 2063 crore, and will be completed in four years.2)The proposed 182-meter tall Sardar Patel's statue will be erected on a small rocky island in the middle of the Narmada riverbed facing SardarSarovar Dam at Kevadia. The statue will have steel framing, reinforced cement concrete, and bronze coating.3)It is believed that the iron to be used in the contruction of the statue will come for farmers in the region.A team of BJP workers are connecting with farmers to collect iron from their farming tools. The agricultural iron collected from farmers in theform of used tools is only a symbolic contribution highlighting the participation of farmers in the idea of paying tribute to Sardar. Since it is only a symbolic contribution, only 1 piece of metal not weighing more than a few kilograms would be taken from an entire village (which would be donated collectively by the residents of the village) and hence would not be a burden on the farmers.The metal will be used in a re-melted or compacted form in the construction of parts of the statue and other structures around it in an artistic way to represent the contribution from people from different parts of the country.However, not all the iron pieces donated by farmers will be used to build the main statue. The pieces not fit for the main statue will be used in other structures within the complex. The remaining iron will be procured from the Steel Authority of India.4)A heavy-load open lift with a panoramic view will be built alongside the Statue of Unity. Visitors will be able to rise up to the height of the structure’s head, walk into a viewing gallery and enjoy a panoramic view of the Sardar Sarovar Nigam project and the surrounding region from an astounding height of close to 400ft.5)The observation deck at 500ft can accommodate 200 people at a time. The panoramic view from this level will enable visitors to see the beautifulSatpuda and Vindhyachal mountain ranges, the 256kms long Sardar Sarovar Reservoir and the 12kms long Garudeshwar Reservoir.
- Home >
- Catalog >
- Life >
- Calendar Template >
- Monthly Calendar Template >
- Blank Monthly Calendar Template >
- blank calendar may 2017 >
- De 2063