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Somebody recently told me that I will be able to compose more pleasing pictures if I use the Golden Ratio instead of the Rule of Thirds, and that the Rule of Thirds was an inferior way to compose photographs. What is the Golden Ratio, how can I apply it to my photography, and why is it better than the Rule of Thirds?

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    \$\begingroup\$ Don't forget: there aren't any strict rule to follow. The term "rule" in "rule of third" is so wrong. Those are guidelines, not rules. Just go as you feel is the best for you and your subject. No guideline is inferior to another. Rules are meant to be broken anyway. \$\endgroup\$ Commented Feb 18, 2011 at 19:50
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    \$\begingroup\$ Isn't it interesting how the "Rule of Thirds" and "Theory of Gravity" aren't? \$\endgroup\$
    – zzzzBov
    Commented Feb 18, 2011 at 20:34
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    \$\begingroup\$ @decasteljau: Some guidelines are inferior to others, though your point is basically valid. @zzzzBov: Ahh, but they both are, just with different meanings of those two words ("rule" as "something regarded as a normative example"; "theory" as "a well-substantiated explanation of some aspect of the natural world" (both selected from a dictionary app on my phone)). And in fact Newtonian physics has been shown to be "wrong"; you get more accurate predictions with Einstein's relativity... But people still use Newton's rules because they're "close enough" in many situations and much easier to apply. \$\endgroup\$
    – lindes
    Commented Feb 18, 2011 at 22:05
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    \$\begingroup\$ man you guys think it's tough applying the golden ratio to photography try it with music!! \$\endgroup\$
    – user21187
    Commented Jul 21, 2013 at 16:37
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    \$\begingroup\$ I wished the rules was commonly called the "rule of off-center". \$\endgroup\$
    – Tom
    Commented Jan 29, 2014 at 22:28

9 Answers 9

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There are several good and very thorough technical answers, so I'll try to provide some practical usage of these two guidelines. Neither rule is "better" or "worse" than the other...both are simply general guidelines of composition. A simpler way to compare the two is as so:

The Rule of Thirds is a grid division into even thirds (33/33/33).
The Golden Ratio is approximately a 62/38 division.
The Golden Ratio leads to the intersection of important diagonals.

When composing a scene, there is nothing that says you can't apply both rules. Dividing a scene into 9 cells on a 3x3 grid is easy and quick, and many camera viewfinders/LCD's already present us with such a grid that we can work with.

The Golden Ratio is a little harder to use, however when you use it to align your primary subjects (such as a facial portrait), it can lead to the most pleasing compositions. To borrow from @cabby's fibonacci spiral image, you can also view it as so:

enter image description here

Note the point of convergence of the red and green lines. That particular point is the key point when using the Golden Ratio in photography. The simple rule here is to start from one side of the image, and visualize a square starting from that edge. Bisect that square along a diagonal. Bisect the entire image from the opposing corners, and place the key element of your key subject at the intersection of those bisecting lines. In the case of a portrait (where this rule is commonly used), you would want to place the eyes right around the point of intersection. You can also use this rule to photograph still subjects. It should be noted that the Golden Ratio is infinitely divisible (as you can see in the spiral image above), so you could identify multiple points of intersection for sub areas of a photograph, and place key still subjects at those points. You also have the option of following the spiral, and placing key subjects at the intersection of any two lines and part of the spiral curve.

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  • \$\begingroup\$ The Golden Ratio is ((1+sqrt(5))/2) which is approx 1.61 \$\endgroup\$
    – Julian
    Commented Jul 10, 2014 at 17:30
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    \$\begingroup\$ @Julian 1/1.61 is approximately 0.62, which is the proportion given in the answer. \$\endgroup\$ Commented Jan 19, 2015 at 23:18
  • \$\begingroup\$ Ratios can always be expressed as either a : b or b : a. The latter will always be 1 / x of the former (unless irrational or imaginary numbers are involved.). \$\endgroup\$
    – Michael C
    Commented Sep 29, 2020 at 2:17
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Background: I am a mathematician. The golden ratio certainly exists mathematically, it does appear on occasion in nature (though not as often as people think) and when it does occur then there are proper scientifically falsifiable theories as to why it occurs (the spirals on a pinecone are one example, I believe, though the spirals on a nautilus are not). However, it is equally well known that if you take enough different measurements then you will find any number or ratio that you want to find. Simply finding the golden ratio somewhere is not anything exciting. Explaining why it should be there is the important thing.

As to its presence in art, I have nothing to say. I'm a mathematician, after all.

But that's by-the-by and has already been adequately covered in all of the other answers. What I haven't seen yet is an image with the direct comparisons. So here is one. In the upper picture, the green lines are a third of the way in from the top left corner, the "golden" lines are the appropriate version of the golden ratio in from the top left corner. As many have said, there ain't a lot in it.

The bottom picture refers to something I'm a little surprised hasn't been mentioned. That is that the sensor size, and the size of the "standard" photograph, aren't in the correct ratio for the golden ratio to be correctly applied! For a photograph to be taken seriously as "having the golden ratio" property, then I'm afraid that it would need to be sized in the ratio of 1:1.6180... The standard photograph should thus be 4 inches by a shade less than 6.5 inches.

Speaking purely speculatively, and ignoring the "nature versus nurture" aspect of this, I'd say that the fact that standard photographs are 6x4 says that we tend to prefer things that are a bit rectangular, but not too much, and so I would go along with a theory that placing the object of interest appropriate to the picture size makes for a more pleasing picture. But the fact that we're happy with 6x4 pictures and there isn't a huge clamour for 6.4721x4 pictures shows that we're actually not that fussy and can't actually tell the difference between 0.666666 and 0.6180

Here's the pictures:

golden ratio

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  • \$\begingroup\$ Well put, and an important point about sensor sizes. \$\endgroup\$
    – jrista
    Commented Feb 21, 2011 at 5:23
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    \$\begingroup\$ @jrista: Thanks. I've remembered an occurrence of "nearly phi": the ratio of the mile to the kilometre is 1.609 which is pretty close to phi! Also, while writing this answer I decided that since cropping is possible, it's the size of the final image that is more important than the sensor size. I'm tempted to put up an online quiz with lots of boxes asking if people can tell which are divided up by the 1/3rds ratio and which by the golden ratio - would make an interesting survey! \$\endgroup\$ Commented Feb 21, 2011 at 8:40
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    \$\begingroup\$ That's a good idea. Another interesting experiment would be to take a list of images, and do several different croppings of each and ask users what cropping they find most pleasing (but don't tell them that some obey certain "rules"). I.e. the original, a "rule-of-thirds" type crop, and a golden ratio type crop. \$\endgroup\$ Commented Feb 24, 2011 at 14:46
  • \$\begingroup\$ The whole debate touches on a subject that Eugene Wigner famously wrote about in his paper 'The Unreasonable Effectiveness of Mathematics in the Natural Sciences': dartmouth.edu/~matc/MathDrama/reading/Wigner.html Why does mathematics describe the world so well and give it such predictive ability? And here is the Wikipedia article about the same subject: en.wikipedia.org/wiki/… \$\endgroup\$
    – labnut
    Commented Feb 25, 2011 at 15:46
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    \$\begingroup\$ @labnut: I'm a mathematician. It's dangerous to talk about such questions with a mathematician in the room! We have a habit of trying to answer ... \$\endgroup\$ Commented Feb 25, 2011 at 16:05
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Essentially the Rule of Thirds is a simplification of the Golden Ratio. The golden ratio is about 1.62, but for photography, we'd typically write its inverse, of .62. There is a whole host of stuff on this ratio, but let me just say that it's significant in terms of beauty.

The rule of Thirds actually comes from this same source, it's just an approximation of the Golden Ratio Rule. The rule of thirds would have a ratio of .67, which is pretty close to .62.

All of the same tricks that apply to the Rule of Thirds apply to using the Golden Ratio. Rather than explain them all again, I'm going to point you to this question.

The bottom line is, if you have an exact third line drawn, you should go slightly to the inside of it, and it'll be a slightly more pleasing location than the exact third point would be.

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    \$\begingroup\$ Again, I is slow on the button. Upvoted for preemptively copying my answer. \$\endgroup\$
    – user2719
    Commented Feb 18, 2011 at 18:46
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    \$\begingroup\$ The rule of thirds and composition with the golden ratio are both used as rules of off-center composition, but I don't think it's historically or technically accurate to say that the one is a simplification of the other. \$\endgroup\$
    – mattdm
    Commented Feb 18, 2011 at 18:46
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    \$\begingroup\$ Using the golden ratio is restrictive -- it requires that the ground also be on the golden ratio or the subdivisions won't work. Call the rule of thirds an adaptation if you wish, but that's where my art history tells me it came from. \$\endgroup\$
    – user2719
    Commented Feb 18, 2011 at 18:58
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    \$\begingroup\$ The difference is negligible, and the adjustment to Phi from 1/3 would only be beneficial if you have a solid line (building corner or flat horizon) to place. A human figure or a tree spanning the 1/3 line would also cross the Phi line. In other words, any real object will likely be positioned on both lines, but if you like, err on the inside. \$\endgroup\$ Commented Feb 18, 2011 at 22:56
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    \$\begingroup\$ I use the golden section rather than the rule of thirds simply because I have noticed it does seem slightly more pleasing, though I wouldn't throw out a photo just because it doesn't fall exactly on the golden section. That being said, the golden ratio isn't really restrictive. I apply the golden section to my subject, regardless of whether the background is aligned with any particular point of the section. \$\endgroup\$ Commented Feb 19, 2011 at 1:55
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Here is a real world example. I took this shot last night and the way I framed it landed on the Golden Section. I have cropped both images to maintain the same field of view, as pictured. The original was slightly larger but still landed on the GS.

Golden Section Example

Now what happens when you crop to create a composition on the rule of thirds?

Rule of Thirds Example

To me, both have merits, though I'm a sucker for the Golden Section. In the Thirds example, he's a little too far left to really nail the composition. That's totally my opinion though.

You can see that I prefer to frame my shots using the golden ratio even if it's competely in my head (maybe it's golden because it comes to me naturally haha). I think to compose with either isn't so much an issue of correctness, but more of personal taste.

enter image description here

enter image description here

This is the band, Amy Meredith, by the way.

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    \$\begingroup\$ Just a thought of my own...in the thirds composition, I think it is slightly better composed since it does not have half of the other guitarist in the scene. The golden ratio version has that extra "distracting" element behind the lead singer, which competes for eye attention. I like the thirds composition because you look at the key subject, and there isn't anything competing for attention. If you were to zoom in a bit, and magnify the lead singer more, I think a golden ratio composition would work better. \$\endgroup\$
    – jrista
    Commented Feb 19, 2011 at 4:32
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    \$\begingroup\$ What you've got there is a classic confirmation bias, you find the golden ratio in the image because you want to, because you feel it's important. What's special about the singer's cheek in the first image where the lines I intersect? You could just as easily decide another facial feature was most important and fit rectangles with ratio 1:1.65, 1:1.55 etc. In fact you could pick any arbitrary ratio and draw lines on an image to make it seem important. In a proper blind trial I doubt you'd be able to tell the difference. \$\endgroup\$
    – Matt Grum
    Commented Feb 19, 2011 at 5:21
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    \$\begingroup\$ @Matt: absolutely agreed! @Nick: in the first composition, there are several very prominent vertical lines, and none of them line up with the golden ratio. Just roughly eyeballing, I think if you set up that picture with a √2 ratio grid over it, the lines would coincide quite well with some significant features of the photograph. On the other hand — while I think you’re overinterpreting the mathematical aspects of the composition, those are some gorgeous photos! Lovely how you pick up on and get great results from what must have been pretty tough lighting to work with. \$\endgroup\$
    – PLL
    Commented Feb 19, 2011 at 5:56
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    \$\begingroup\$ Matt Grum, please understand I mean that the golden ratio is seemingly where I place things approximately, not the cheek all the time, not the eye, not his hand. It's just "confirmationally biased" coincidence that this so called golden ratio is what I naturally prefer to work with for composition, without an aid, and what has been found by mathematicians and others to be a significantly frequent occurrence. Pure coincidence, not me seeking to find the golden ratio, but seemingly that the golden ratio is what I find more satisfying, which is the fundamental trait of that ratio. \$\endgroup\$ Commented Feb 19, 2011 at 6:37
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    \$\begingroup\$ @MichaelJ.Calkins "Think of it the way the scientific method works. Action, observation, theory, conclusion. We've found that the golden ratio is a naturally occurring ratio that is found among "pleasing" design" That's what he said, about being "scientific". Either you're being scientifically-proven-as-naturally satisfied, or purely-preferentially-alone satisfied which does not align with any scientifically proven pattern, not both. \$\endgroup\$ Commented May 24, 2018 at 9:44
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The golden ratio being important to photography is a bit of a myth to be honest. The value is the only number whose reciprocal is exactly 1 less, and it has a few interesting mathematical properties see cabbey's answer for more details.

Supposedly you find the golden ratio all over the human body, and the proportions of a "beautiful" face (Tom Cruise is often used as an example) all follow the ratio 1.61803399 but when you evaluate the results closely turns out that the features only approximately follow the ratio. And given enough measurements of any face you'll find lots of measurements that are about 1.5 times each other.

Psychologists have done experiments where they have shown people rectangles with varying proportions and asked which they found more pleasing. Rectangles whose ratio was the golden ratio were not rated any more pleasing overall. I'll see if I can find the reference.

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    \$\begingroup\$ It's "golden" largely because it's so imprecise. Get "close" (with very large error bars) to the golden ratio, take a lot of pictures, find one that looks nice, and proudly proclaim that it's because you followed the golden ratio (rather than the subject being in focus, or the color quality). \$\endgroup\$
    – zzzzBov
    Commented Feb 18, 2011 at 20:38
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    \$\begingroup\$ Picking a nit: The ratio, per se, is not a myth. It has a precise mathematical definition, and very much exists - if only as an abstract mathematical concept. The universality of its application could certainly be said to have achieved mythical proportions, though. \$\endgroup\$
    – lindes
    Commented Feb 18, 2011 at 22:14
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    \$\begingroup\$ @Nick the point is it's nothing to do with the golden ratio itself, you wouldn't be able to tell the difference between a ratio of 1:1.618 and a ratio of 1:1.6, or 1:1.5 for that matter. It turns out something being three times bigger than something else looks pleasing, this has nothing to do with the solution to 1/x = x - 1 \$\endgroup\$
    – Matt Grum
    Commented Feb 19, 2011 at 5:00
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    \$\begingroup\$ @Nick: but I think the point is, it doesn’t occur in nature (nor in art, nor music, nor probably in your photography) nearly as much as the myth can lead us to think. There are a few examples in nature (eg phyllotaxis) where it’s been plausibly demonstrated that the golden ratio itself — that exact value — really is significant. But for many of the claimed examples, its apparent presence is largely selection bias. It’s clear that there’s a range of numbers around that value which are objectively aesthetically preferable, and are statistically common in art. [cont’d] \$\endgroup\$
    – PLL
    Commented Feb 19, 2011 at 5:39
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    \$\begingroup\$ There’s a lovely recent book “The Golden Ratio” by Mario Livio, in my opinion the best of the Golden Ratio books I’ve read. It takes quite a skeptical approach, and debunks some of the common claims — but that, to me, make the many fascinating things which remain all the more impressive and beautiful — knowing that they really do stand up to a lot of careful scrutiny. \$\endgroup\$
    – PLL
    Commented Feb 19, 2011 at 5:48
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There are a lot of "magic numbers" in math, lots of folks are familiar with Pi for example. In this case, the number in question is Phi. Where it comes into visual arts like Photography is that you can construct a very graceful spiral shape that mathematically approximates Phi. Since that curve is viewed as being very graceful and classically beautiful, the argument is that that ratio itself must be, so we should use it.

Fibonacci spiral
(public domain image from wikipedia)

So how can you use that ratio in your photography? Just like the RoT says to put interesting features of an image on the 1/3 marks of the image, here there is a magic mark you can use for composing your image, it's just a little more difficult to measure. It is easiest to see it in a simple 2D line:

line segment example
(another public domain image from wikipedia to explain the ratio in 2D line form)

The golden ratio works out as follows: A + B / A == A / B == 1.6180....

Or, in simple english: the ratio of the little part to the big part, is the same as the big part to the whole thing.

There's a SECOND way you can leverage the golden ratio, and that's by image AREA. There's a classical image that demonstrates this, but I can't find it online for the life of me, and there's just a ton of folks that tried to mimic it, but didn't understand it... so searching for the image with google image search is utterly pointless. But here's a thought exercise to explain it.

The image is a simple leaf laying on the grass, or a brightly colored Koi swimming in a dark pond. Some small element on a larger area with a striking visual difference, be it color, texture, whatever. Let's use the fish as our example. Say that in the area of the print, the fish occupies 10 square inches total area. The rest of the image then would need to be sized such that it satisfied the above ratio. So let's say roughly 16 square inches. The two together then are roughly 26 square inches; so if you print the image as a 4x6.5" print then your koi will occupy the golden ratio of the image and will be, in theory, classically proportioned and beautiful.

More reading on the ratio at wikipedia

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  • \$\begingroup\$ @mattdm glad to see I balanced it correctly. :) \$\endgroup\$
    – cabbey
    Commented Feb 18, 2011 at 19:23
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    \$\begingroup\$ Not familiar with the 'classical image' you're referring to and your description doesn't help much... +1 if you can dig it up, or dig up a link at least... \$\endgroup\$ Commented Feb 18, 2011 at 19:45
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The rule of thirds appears to have been invented, or at least codified by, John Thomas Smith in the 1797 book Remarks on Rural Scenery, without regard to the golden ratio. (See my digging into that in a different q/a, if you're interested.)

As normally applied, the rule is used for dividing compositions into logical sections both vertically and horizontally (as in division of sea, land, and sky), and also by using the intersections of the horizontal and vertical third-lines as placement points for objects of interest in the composition.

This isn't necessarily worse than the golden section, and, unless the object is very small, is generally close enough to the same that any harmonic/beautiful/mystical properties that apply to one might apply to both.

When using a frame with a 3:2 aspect ratio — as in 35mm film or in most current dSLRs (the 4/3rds system excepted) — the rule of thirds happens to hit another compositional technique intended to produce harmony, balance, and geometric "satisfaction" in the viewer.

This is the concept of the rabatment of the rectangle, or, the "hidden squares" of the rectangle. There are two of these hidden squares in every rectangle, corresponding to each of the two short sides. Take the length of a short side and measure that distance along the long side, and draw a line there, completing the square. (That line is the rabatment.)

The argument goes that squares are such a simple, primal geometric shape that the brain automatically looks for them, mentally completing this rabatment whether it's made explicit or not. When a composition uses elements of the scene to match, the square feels complete in itself, producing a feeling of harmony. (And, because exposing "secrets" like this is mentally rewarding, a sense of success and satisfaction in the viewer.)

If your rectangle is twice as wide as it is high, the line is — somewhat boringly — right down the middle and the two squares are side by side. If the rectangle has wider proportions than that, the squares don't overlap. If it is narrower, they do. And in the case of a 3:2 frame, the rabatment lines happen to exactly correspond with the rule of thirds lines.

So, with a 3:2 frame, if you buy the theory that rabatment produces harmony, balance, and general satisfaction, the rule of thirds — at least along the wide dimension of the rectangle — may have a harmonic advantage over the golden ratio.

If you take a look at the classic "golden spiral" image (shown in cabbey's answer here), you'll note that the aspect ratio of the frame is the golden ratio, and the spiral is produced by drawing the rabatment lines that match that ratio.

In fact, this may account for some of the feelings of balance and harmony ascribed to that shape — not the particular ratio chosen at all. If you look at Nick Bedford's answer, you'll find an example of a spiral inscribed in a 3:2 frame using the golden ratio rather than rabatment. To me, this spiral appears squished and non-elegant, and it was considering that along with Andrew Stacey's answer which led me to explore the idea of "natural" squares within rectangles, only to find out that it is in fact an established principle with an official name and everything.

In investigating this, I was surprised to learn that there's surprisingly little hard evidence of the historical use of the golden ratio in art. While Euclid wrote about it around 300BC, he merely noted it as interesting mathematically. And it appears to have been lost in the dark ages, and didnt't resurface widely until Italian mathematician Luca Pacioli wrote a book around 1500 in which he described the ratio and named it "the divine proportion". (It wasn't called the "golden ratio" until some time in the 19th century, in fact; it got that name from German mathematician Martin Ohm in 1835.) Leonardo da Vinci drew illustrations for Pacioli's book, and so clearly he knew of the ratio, but he espoused a different theory of proportion, the Vitruvian system. In fact, Pacioli also advocated for that system for aesthetics — the significance he attributed to 1:161803... was religious — hence the divine label he gave it.

From Pacioli onward, many works of art are widely suspected to employ the golden ratio in their composition. But direct confirmation from the artists is surprisingly hard to come by. (I'd love to see some references if you can find them!). And since the elements of the paintings, sculptures, and etc. which are said to use the golden ratio in one way or another often line up only imprecisely, or when carefully selected, it's hard to conclusively demonstrate. In fact, even if we accept that the golden ratio does have a certain aesthetic power, perhaps the Renaissance masters simply used similar proportions unconsciously.

It turns out that it isn't until the 19th century that suddenly the golden ratio conclusively becomes important to composition. German intellectual Adolph Zeising put forth a comprehensive system of aesthetics built around the ratio, and this appears to have caught the interest of a number of artists — particularly, the Cubists found it interesting, and an artist named Paul Sérusier wrote about it in a book on composition in 1921.

But, really, it seems that most of our modern conception of the aesthetic value of the golden ratio can be traced to Zeising! That, of course, doesn't mean that he was wrong inherently. It's just very interesting to know where these ideas come from. Note that rabatment is also without a long, distinguished pedigree — while there's plenty of suggestion that the rule may have been used in some Renaissance-era compositions, the name seems to have been first applied by Charles Bouleau in 1963.

So, in summary: the golden ratio and the rule of thirds are different tools to help with placement of lines, divisions, and other elements in composition. They're similar, but aren't directly related. One isn't necessarily better than the other. With a 3:2 frame, the rule of thirds applied along the long dimension of the rectangle happens to match another harmonious geometrical aspect, which is nifty and may be useful in composition on its own — painters using this technique certainly aren't constrained to 3:2.

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    \$\begingroup\$ Note that I'm not knocking the cool properties of phi here. In fact, another way of phrasing this is: a golden rectangle is one where successively drawing a rabatment square and and then applying the same process to the resulting left-over rectangle can continue infinitely. If you start with a 3:2 rectangle, one hits "indivisible" squares after only a couple of iterations. \$\endgroup\$
    – mattdm
    Commented Feb 23, 2011 at 22:26
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    \$\begingroup\$ +1 This makes sense. I've heard a lot of arguments (both here and in other places) stating that using "golden sections" really only makes sense for a golden rectangle crop. The special rule isn't the "rule of thirds" or the "golden ratio," but rabatment of the rectangle. Looking more into the golden ratio leads me to believe that this might be the underlying "rule" that makes the golden rectangle (or rule of thirds) attractive in the first place. emptyeasel.com/2009/01/20/… \$\endgroup\$ Commented Feb 25, 2011 at 15:11
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    \$\begingroup\$ See this question for some other interesting references: cogsci.stackexchange.com/questions/1627/… \$\endgroup\$
    – Francesco
    Commented Sep 10, 2012 at 13:40
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I've written two long answers on these topics, here and here, but I think there's benefit in a concise one as well. If you're interested in references, check those. But to get right to it:

The golden ratio and the rule of thirds are similar but competing recommendations for dividing the frame of a composition (in painting, photography, film, and architecture). It's often also given that the intersections of these divisions may provide strong points for aligning objects of interest.

The golden ratio suggests that the division of lines or of areas should be in the ratio of 1:φ, or approximately 1:1.618. The rule of thirds argues for ⅓:⅔, or simply 1:2. In either case, intersections of horizontal and vertical lines dividing the frame at the given ratio are often considered to be "power points".

The rule of thirds as an actual rule was invented by a minor British artist and commentator, John Thomas Smith, in 1797. He doesn't give a strong rationale for his choice. The primary argument is that evenly-weighted composition suspends the viewer's attention rather than leading it. He doesn't given a specific argument in favor of 1:2, but simply claims it to be "much better and and more harmonizing" than "any other proportion whatever".

The golden ratio, as a tool for aesthetics, was popularized by a minor German intellectual, Adolph Zeising, in about 1854. The ratio itself was known to Euclid and in 300BC, but he simply noted its mathematical interest. Luca Pacioli wrote about it as "the divine proportion" around 1500 at the dawn of the Renaissance, but it didn't really catch on the way people now think it did. Pacioli used the word divine because he found religious significance, not an aesthetic one. Much later, in Germany in 1835, the ratio got the name "golden section", which Zeising picked up and expanded into a comprehensive theory of the universe. This theory is much more developed than Smith's rule of thirds, but ultimately it's an artifact of the Romantic Era, and hinges on the idea that elegance in pure mathematics must indicate some corresponding beauty in reality.

So: while there's certainly plenty of experiential evidence that off-center composition works, the magic of these particular exact rules is quite dubious. They also do not have the long history of use in art that many people attribute to them. They may have special power — and certainly there's a wide body of 20th-century literature in support of that notion — but don't put too much stock in their precise values.

I think people would really like to have a magic "make this composition good!" button — but there's really no such thing. Or if there is, we haven't yet found it in these rules.

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    \$\begingroup\$ Aw man. That didn't turn out to be concise either. :) \$\endgroup\$
    – mattdm
    Commented Dec 10, 2011 at 19:21
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I find this information interesting but I need to share in my words information I gained from Axel Bruchs book on composition.

In brief he said that on a blank or mono coloured frame the golden ratio aplies in the macro format of the frame, however as soon as a picture element enters the frame it infleunces the composition as well as peoples preference of the frame format. He states that his research shows that approximately 6% of artists used frame formats using the golden ratio and the majority prefered formats that were closer to 1.2 and 1.4 ratios.of these can be asumed to be influencedd by the subject matter. e.g. in modern landscape or architecture a photographers is starting to prefer > 1.8 formats. Even preferred movie formats is folowing suit.

I am a bit of a right brain person I find these compositional rules/guidelines of creater value in post photography evaluation, in why I liked and selected a certian composition. What I have found is that too little is made of the planes within the frame and its effect on these ratios either on the global frame or squares or micro frames within the photographs. Control of these rules/guidelines only can only be proactively applied on signal effect or minimalist composition and is best left to intuition in more complex compositions. I see some of this in the responses above...

The terms stability in a picture is bandied about and the term is further enhanced by the balance and in balance concepts. I believe the subject determines these in agreater sense and for imovable objects such as classic arcihtecture the use of the golden rule make sense. But why would you want an athlete or dancer in perfect balance/stability when the intention is to provide a sense of imbalance. Some said that the rule of thirds produce a slight imbalance that enhances these subjects. I dont know... A picture just feels right to me as either in balance or not and is informed by many aspects of a complex picture such as tilt tone an blur.

Sorry... I my right brain is too dominant today!

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