HISTORY40 - Photography
This article is about the history
of photography. For my purposes,
photography is the process of creating durable images by recording light,
either chemically, by means of a light-sensitive material, such as photographic
film, or electronically, by means of an image sensor. The word “photography” was created from the
Greek roots of two words that combined mean “drawing with light.”
Note: Photography has been an important part of Ring-family life for 116 years. In 1905, my Grandfather Ambrose Ring began taking photos of his mining exploits in southern Arizona. In the 1990s, my brother Al Ring and I (re)discovered these old prints, started exploring where the images were taken, and began research about the mining history of the region. Our research culminated in the publication of the book, “Ruby Arizona - Mining, Mayhem, and Murder,” in 2005. This history of a borderland mining ghost town, set us off on a (retirement) career of Arizona historical research and writings that included newspaper columns, additional books, and a dedicated website (ringbrothershistory.com). Pat and I continue the Ring-family photography tradition today by recording family events and exploring creativity in making interesting pictures.
The history of photography began
in remote antiquity with the discovery of two critical principles: pin-hole
image projection and the observation that some substances are visibly altered
by exposure to light. The birth of
photography was then concerned with inventing means to capture and retain
images - an invention that did not occur until the 1820s.
This article will cover
photography’s enabling principles, the quest for permanent images, early camera
improvements, popularization of photography, instant photos, influence of WWII
photography, advanced image control and smart cameras, digital photography, and
the future of photography.
The Phenomenon of Camera
Obscura
A natural phenomenon, known as camera obscura, or
pinhole image, can project an image through a small opening in one surface onto
an opposite surface. This principle may
have been known in prehistoric times, but the earliest known written record of
the camera obscura effect is to be found in Chinese writings dated to the 5th
century BC. For the next 1,500 years or
so, various scientists observed the camera obscura effect and conducted
experiments to better understand the behavior of light. The first person to suggest that an image
from one side of a hole in a surface could be projected onto a screen on the
other side of the surface, and prove the concept, was Iraqi scientist Ibn al-Haytham, in his Book of Optics in 1021. Ibn al-Haytham, known as the “father of modern
optics,” is credited with the invention of the camera obscura.
The camera obscura (Latin for “dark
chamber) consists of a dark room, tent, box, etc., with a small hole in one of
the walls (or the ceiling). The light passing through the small hole will
project an image of the scene outside the chamber onto a surface in the chamber
opposite to the hole. Since light moves
in a straight line (first law of geometric optics) through the hole, the
projected image will appear to be flipped (upside-down) and reversed (left-to-right), but with color
and perspective preserved.
The figure below illustrates the
camera obscura effect.
This diagram illustrates the phenomenon of camera obscura.
The
light from the top of the candle travels down through the hole to the bottom of
the wall opposite. Similarly, the light from the bottom of the candle appears
projected at the top of the wall inside the box, making the image appear upside
down. Similarly, the image is also inverted,
or reversed, left-to-right.
Camera obscuras were used in 13th
century for safe observation of solar eclipses, without having to look directly
at the sun. At the same time, the effect
was used as a projector for entertainment. Artists started using camera obscuras in 15th
century.
Artist using a room-size camera obscura.
In the 17th century, portable versions of the
camera obscura were developed and commonly used - first as a tent, later as
boxes. In
1685, the first portable box camera obscura that was small enough for practical
use was built by German author Johann Zahn. Basic lenses to focus the light and provide a
larger aperture, compared to the pinhole, were also introduced around this
time.
The
box-type camera obscura often had a 45-degree angled mirror projecting an
upright image onto tracing paper placed
on the box’s glass top, restoring the scene’s original up-down, right-left
projection. Artists
discovered this phenomenon and used it to help them create (tracing, drawing,
and painting) realistic images of the outside world on a two-dimensional
surface.
A camera obscura box with an internal mirror, projecting an upright image at the top.
Note: The human eye (and those of animals
such as birds, fish, reptiles, etc.) works much like a camera obscura, with a
small opening (pupil), a convex lens, and a surface where the image is
formed (retina). The human brain
provides the geometric translation to preserve the original scene’s up-down,
right-left arrangement.
The camera obscura concept was
developed further into the photographic camera in the first half of the
19th century, when camera obscura boxes were used to expose light-sensitive
materials to the projected image.
Light Sensitive Materials
The
notion that light can affect various substances - for instance, the sun tanning
of skin or fading of textiles - has been around since very early times, but it
was not until the late Middle Ages that light sensitive material critical to
photography would be discovered.
German Friar Albertus Magnus discovered silver nitrate in the
13th century, while German poet, historian, and archaeologist Georg Fabricius
discovered silver chloride in the 16th century. These chemicals were observed to be sensitive
to light (becoming black on exposure to light), but were not applied to
photography for many years, despite early knowledge of the camera obscura.
In
1777, Swedish chemist Carl Wilhelm Scheele was studying the more
intrinsically light-sensitive silver chloride and determined that
light darkened it by disintegrating it into microscopic dark particles of
metallic silver. Of greater potential
usefulness, Scheele found that ammonia dissolved the silver chloride,
but not the dark particles. This discovery could have been used to stabilize or
"fix" a camera image captured with silver chloride, but was not
picked up by the earliest photography experimenters. Scheele also noted that red light did not have
much effect on silver chloride, a phenomenon that would later be applied in
photographic darkrooms as a method of seeing black-and-white prints
without harming their development.
First Permanent Images
Around
the year 1800, British inventor Thomas Wedgwood made the
first known attempt to capture an image in a camera obscura by means of a
light-sensitive substance. He used paper
or white leather treated with silver nitrate. His experiments yielded only faint images that
were not light-fast, but his conceptual breakthrough and partial success have
led some historians to call him "the first photographer.”
In 1816, French inventor Nicephore Niépce began experiments trying to produces permanent images with a camera obscura. His initial efforts with silver chloride failed, so he turned his attention to light-sensitive organic substances.
The oldest surviving photograph of an image formed in a camera was created by Niépce in 1826 or 1827. It was made on a polished sheet of pewter, and the light-sensitive substance was a thin coating of bitumen, a naturally occurring petroleum tar, which was dissolved in lavender oil, applied to the surface of the pewter and allowed to dry before use. After a very long exposure in the camera (traditionally said to be eight hours, but now believed to be several days), the bitumen was sufficiently hardened in proportion to its exposure to light that the unhardened part could be removed with a solvent, leaving a positive image with the light areas represented by hardened bitumen and the dark areas by bare pewter. To see the image plainly, the plate had to be lit and viewed in such a way that the bare metal appeared dark and the bitumen relatively light.
The world's oldest surviving photograph, a view outside the window of French photographer Nicephore Niépce, 1826 or 1827.
In partnership, Niépce and fellow
Frenchman Louis Daguerre refined the bitumen process, substituting a
more sensitive resin and a very different post-exposure treatment that yielded
higher-quality and more easily viewed images. Exposure times in the camera,
although substantially reduced, were still measured in hours.
Daguerreotypes. Niépce died suddenly in 1833,
leaving his notes to Daguerre. More interested in silver-based processes than
Niépce had been, Daguerre experimented with photographing camera images
directly onto a mirror-like silver-surfaced plate that had been exposed to iodine vapor,
which reacted with the silver to form a coating of silver iodide. As with the bitumen process, the result
appeared as a positive (image showing lights and shades or colors true
to the original) when it was suitably lit and viewed. Exposure times were still impractically long
until Daguerre made the pivotal discovery that the non-visible image produced
on such a plate by a much shorter exposure could be "developed" to
full visibility by mercury fumes.
This brought the required exposure time
down to a few minutes under optimum conditions. A strong hot solution of common salt served to
stabilize, or fix, the image by removing the remaining silver
iodide.
On January 7, 1839, this first
complete practical photographic process was announced at a meeting of the
French Academy of Sciences, and the news quickly spread. Known as the daguerreotype process,
it was the most common commercial process until the late 1850s, when it was
superseded by the collodion process.
Emulsion Plates. The collodion (or wet plate) process was named after collodion, a
light-sensitive syrupy emulsion solution of nitrocellulose in a mixture of
alcohol and ether, that was used to coat the photographic material. The process was less expensive than
daguerreotypes and required only two or three seconds
of exposure time, but required the photographic material to be coated with
collodion, sensitized, exposed, and developed within the
span of about fifteen minutes. This
timeline necessitated a portable darkroom for use in the field. Photographers needed
to have chemistry on hand and often traveled in wagons that doubled as a
darkroom. Many photographs from the
Civil War were produced on wet plates.
Collodion could
also be used in dry form, at the cost of greatly increased exposure time. This made
the dry form unsuitable for the usual portraiture work of most professional
photographers of the 19th century. The use of the dry form was
therefore mostly confined to landscape photography and other
special applications, where minutes-long exposure times were tolerable.
Dry Plates. In the 1870s, photography took another huge
leap forward. English photographer and physician
Richard Maddox invented lightweight gelatin negative
plates that were nearly equal to wet plates in speed and quality.
These dry plates
could be produced and stored for later use, rather than made as needed during
the photo-taking process. This allowed photographers much more freedom in
taking photographs. The process also allowed for smaller cameras that could be
hand-held.
Early Camera Improvements
In the mid-1850s, bellows
were added to cameras to help with focusing by changing the distance between
the aperture and the image plate.
As exposure times
decreased, the first camera with a mechanical shutter was developed in the
1880s.
Popularization
The
daguerreotype proved popular in response to the demand
for portraiture that emerged from the middle classes during the
second half of the 19th century. This demand, which could not be met in volume
and in cost by oil painting, added to the push for the commercial development
of photography.
In
1884, George Eastman, of Rochester, New York, developed dry gel on
paper, or film, to replace the photographic plate so that a photographer
no longer needed to carry boxes of plates and toxic chemicals around.
The
flexible roll film allowed Eastman to develop a self-contained wooden box camera that
held 100 film exposures that gave circular images of 2 5/8-inch diameter. The
camera had a small single lens with no focusing adjustment. After taking a photograph, a key on top of the camera was
used to wind the film onto the next frame. There was no viewfinder on the
camera; instead, two V-shaped lines on the top of the camera were intended to
aid aiming the camera at the subject.
In
1888, Eastman's Kodak camera went on the market. The original camera sold for $25, loaded with
a roll of film, and included a leather carrying case. Now anyone could take a photograph and leave
the complex parts of the process to others.
The first Kodak camera designed for the public hit the market in 1888.
Photography became available for the mass-market in 1901 with the introduction of the Kodak Brownie, a long-running popular series of simple and inexpensive cameras. It was a basic box camera with a simple lens that took 2 1/4-inch square pictures. Because of its simple controls and initial price of $1 (equivalent to $31 in 2020), along with the low price of Kodak roll film and processing, the Brownie became very popular.
The
consumer would take pictures and send the camera back to the factory for the
film to be developed and prints made, much like modern disposable cameras. This was the first camera inexpensive enough
for the average person to afford.
Snapshot photography became a national craze. By 1898, just ten years after the first Kodak camera
was introduced, one photography journal estimated that over 1.5 million
roll-film cameras had reached the hands of amateur shutterbugs.
Cameras
and photography continued to evolve. Kodak
soon added optical viewfinders to their cameras. In 1898, Kodak introduced the first pocket folding
camera, and came out with an improved model in 1903 that was produced through
1915. In 1912, Kodak introduced a small
vest pocket camera. In 1925, Leica
introduced the 35 mm format to still photography. In 1932, Kodak introduced the first 8 mm
amateur motion picture film, cameras, and projectors. In 1936, the German company IHAGEE introduced
the first 35 mm Single Lens Reflex camera that
permitted the photographer to view through the lens and see exactly what would
be captured in the image. The popular Kodak Brownie series continued to
be improved and was manufactured until 1986.
My grandfather used a Kodak No. 3A Folding Pocket Camera like this one to take photos of mining activity in the western U.S.
Camera manufacturers gradually added capability for basic image control, including capability to set the camera aperture, shutter speed, and exposure time.
The
first widely used method of color photography was
the Autochrome plate, a process inventors and brothers Auguste
and Louis Lumière began working on in the 1890s and commercially
introduced in 1907. But the process was
complex and expensive. It wasn’t until the 1930s that film was
sensitive enough for hand-held snapshot-taking; color photos served a niche
market of affluent advanced amateurs.
A
new era in color photography began with the introduction
of Kodachrome film, available for 35 mm slides in 1936. It captured the red, green, and blue color
components in three layers of emulsion.
In
1942, Kodacolor film was introduced - the first roll film for snapshots that
yielded negatives for making color prints on paper. Kodacolor was not available in 35 mm cameras
until 1958.
War Photography
Around 1930, Henri-Cartier Bresson and other photographers began
to use small 35 mm cameras to capture images of life as it occurred, rather
than staged portraits. When World War II started in 1939, many photojournalists
adopted this style.
The posed portraits of World War I soldiers gave way to graphic
images of war and its aftermath. Images
such as Associated Press photographer Joel Rosenthal's photo, Raising
the Flag on Iwo Jima, brought the reality of war home and helped
galvanize the American people like never before. This style of capturing
decisive moments shaped the face of photography forever.
Joel Rosenthal's photo, Raising the Flag on Iwo Jima, an example of capturing decisive moments, shaped the face of photography forever.
Instant Images
The
invention of commercially viable instant cameras, which were easy to use, is
generally credited to American scientist Edwin Land, who
unveiled the first commercial instant camera, Polaroid’s Model 95 Land
Camera, in 1948. The Model 95, used a
secret chemical process to develop film inside the camera in less than a
minute.
This
new camera was fairly expensive, but the novelty of instant images caught the
public's attention. By the mid-1960s, Polaroid had many models on the market
and the price had dropped so that even more people could afford it.
In
2008, Polaroid stopped making their famous instant film, and took their secrets
with them.
Polaroid introduced the Model 95 instant image Land Camera in 1948.
Advanced Image Control and Smart
Cameras
While
the French introduced the permanent image, the Japanese brought easier image
control to the photographer.
In
the 1950s, Asahi (which later became Pentax) introduced the Asahiflex camera and
Nikon introduced its Nikon F camera. These were both Single Lens Reflex (SLR) cameras
and the Nikon F allowed for interchangeable lenses and other accessories.
For
the next 30 years, SLR-style cameras remained the camera of choice for serious
photographers. Many improvements were
introduced to both the cameras and the film. Image control in these cameras
grew to include settings for film sensitivity, white balance, clarity,
contrast, brightness, saturation, and hue.
In
the late 1970s and early 1980s, compact cameras that were capable of making basic
image control decisions on their own were introduced. These "point-and-shoot"
cameras calculated shutter speed, aperture,
and focus, leaving photographers free to concentrate on composition. Automatic
cameras became immensely popular with casual photographers.
Simple,
inexpensive disposable cameras were introduced in the mid-1980s and continue to
be popular today. Photographers can
capture moments of most value to them, such as weddings, and mail in the camera
for photo processing.
Professionals
and serious amateurs continued to prefer to make their own adjustments and
enjoyed the image control available with SLR cameras.
Digital Photography
Digital
photography uses an electronic image sensor to record the image as a
set of electronic data rather than as chemical changes on film.
The charge-coupled
device (CCD) was the image-capturing component in first-generation
digital cameras. A CCD is a light sensor that sits behind the camera lens and
captures the image, essentially taking the place of the film in the
camera. It was invented
in 1969 by Willard Boyle and George E. Smith at
AT&T Bell Labs as a memory device. It was Dr. Michael
Tompsett from Bell Labs however, who discovered that the CCD
could be used as an imaging sensor. After
years of use, the CCD has increasingly been replaced by CMOS, complementary metal-oxide-semiconductor technology, that emerged as an alternative to
CCD image sensors and eventually outsold them by the mid-2000s. (Too
complicated to explain here.)
Photography infrastructure
additions helped make digital photography more efficient and easier to
share. JPEG standards were created for
digital images in 1988. Mosaic, the
first web browser that let people view photographs over the web, was released
by the National Center for Supercomputing Applications in 1992.
Today,
digital photography is used by billions of people worldwide, dramatically
increasing photographic activity and material and also fueling citizen
journalism. The web has been a
popular medium for storing and sharing photos ever since the first photograph
was published on the web in 1992.
Since then, sites and apps such
as Facebook, Flickr, Instagram, Imgur, and Photobucket have
been used by many millions of people to share their pictures.
Here
are a few benefits of digital photography over film photography:
a. Photo resolution, even in point-and-shoot
cameras, is often 12-20 megapixels - high enough for large prints. Can choose images to print. Can print any desired size - at home or at a photo
lab.
b. Can change “film” speeds between individual
shots.
c. Digital cameras are generally lighter than
film cameras.
d. Memory cards are tiny and can store many
images.
e. Images can be viewed immediately and then
retaken, or adjusted, if necessary.
f.
Images can be
viewed on a large-screen TV.
g. Images can be edited right on the camera, or
easily processed with photo-editing software.
h. Many cameras offer built-in filters.
i.
No cost for film
or developing. Rechargeable battery
packs are economical.
Digital photography dominates the 21st century. More
than 99% of photographs taken around the world are through digital cameras,
increasingly through smartphones.
Digital
Cameras. In 1981, Sony unveiled the first
consumer camera to use a CCD for imaging, eliminating the need for
film: the Sony Mavica. While the Mavica saved images to disk, the images
were displayed on television, and the camera was not fully digital.
The
first digital camera to both record and save images in a digital format was the
Fujix DS-1P created by Fujfilm in 1988.
In the 1980s and 1990s, numerous manufacturers worked on cameras
that stored images electronically, starting with basic point-and-shoot cameras.
Today, even the most basic
point-and-shoot digital cameras take high quality images.
By 1991, Kodak had produced the first digital camera that was
advanced enough to be used successfully by professionals: the DCS
100, the first commercially available digital Single Lens Reflex camera. Although its high cost precluded uses other
than photojournalism and professional photography, commercial digital
photography was born.
First professional digital camera, the Kodak DCS 100, was introduced in 1991.
Other manufacturers quickly followed and today Canon, Nikon,
Pentax, and other manufacturers offer advanced digital SLR (DSLR) cameras.
In
2008, the first mirrorless camera, the Panasonic Lumix DMC-G1, was released in Japan. Mirrorless
cameras are the latest in professional cameras - they are basically more
compact DSLRs, without the internal mirror that reflects light onto the sensor. Mirrorless cameras are smaller and lighter
than DSLRs with optical capabilities rapidly approaching DSLRs.
In the last 10 years or so, there has been a lot of
development of reduced-size sensors that achieve picture quality approaching
that of so-called “full frame” sensors by virtue of advanced electronic design
and increased computational power.
Examples of this are the “four thirds” sensor and more recently popular
“micro four thirds” sensors that greatly reduce size and weight of mirrorless
cameras.
The
Camera Phone. The big digital revolution was the
camera phone. The Kyocera Visual Phone VP-210, in 1999, and the Samsung
SCH-V200, in 2000, were the first camera phones. A few months later, the Sharp Electronics
J-SH04 J-Phone was the first that didn't have to be plugged into a computer. It could just send photos, making it hugely
popular in Japan and Korea. By 2003,
camera phone sales overtook digital cameras.
One of the first camera phones, the Samsung SCH-V200, introduced in 2000.
In 2007, Apple launched the iPhone, and the smartphone age truly began. The cameras built into phones quickly improved, but a number of factors combined to transform everyone into a photographer: phone memories got bigger so you could take more pictures; CCD sensors were replaced by CMOS chips that use less power; 3G, 4G and 5G made it possible to share photos instantly; and photography sites like Flickr soon gave way to social networks like Facebook and Instagram as a place to share shots.
Today's best camera phones routinely come with two,
three or four cameras to capture even better images. Smartphones' computer
power has also grown rapidly to keep up with improving lenses and image
sensors. If you shoot in “burst” mode,
you can take several photos at a set interval (for example of a moving child),
and later choose the best one to keep.
In addition, today’s camera phones offer good quality video. You can even look through the video, frame by
frame, and choose a frame for a still photo.
Camera phones are rapidly replacing traditional point-and-shoot camera.
Image
Processing. An important difference between digital and
chemical photography is that chemical photography resists photo
manipulation because it involves film and photographic
paper, while digital imaging is a highly manipulative medium. This difference
allows significant post-processing opportunities for digital images.
In
the 1980s, photo editing computer programs for personal
computers were introduced. The first version of Adobe
Photoshop was released in 1987. Since then, with continual updates, it has
become one of the most popular photo editing programs. It is so popular that many people now use the
word "photoshop" to mean photo editing in general.
Adobe
Photoshop Elements, released in 2001, is a graphics editor for
photographers, image editors, and hobbyists. It contains most of the features of Adobe
Photoshop but with fewer and simpler options. The program allows users to
create, edit, organize, and share images.
In
2008, another powerful post-processing software program, Adobe Lightroom, was developed
by and for photographers, to supplement the much more complex Adobe
Photoshop. In Lightroom, you can
both organize your photo library and edit photos. Using Lightroom,
you can easily create image collections, keyword images, share images directly
to social media, batch process, and more.
These
photo-editing programs provide tools for such functions as cropping, resizing,
red eye removal, teeth whitening, straightening, spot healing, erasing, and
painting. They also allow the user to
make adjustments in such image characteristics as white balance for temperature
and tint for correct colors, exposure, contrast, clarity, color saturation,
sharpening for contrast control in light-meets-dark areas, noise reduction,
lens correction, perspective correction, grain for creative effect, vignette
for edge darkening or brightening, radial filter for photo oval-area selection,
graduated filter for rectangular-area selection, brush tool to “brush” on
changes with a mouse or pen/tablet, and HSL to fine tune color properties.
In
2011 the first photo editing mobile apps were released on the
online App Store. The first was Fotolr
Photo Editor. Many, many other apps have been made for other mobile
operating systems. These apps allow easy
editing and photo sharing by tablet computers and smartphones.
Future of Photography
Here are five predictions for the future
of photography from expert Craig Hull in Photography News.
Smartphones Will Kill Off Compacts. Since 2010, digital camera sales have fallen 80%. Where digital camera systems fail, smartphones
will pick up the slack. The rise
of smartphones will continue to bring many advancements: better sensors, higher resolutions, and
intuitive concepts. These will allow
people to take better pictures more easily. After all, the best camera is the
one you have with you. Smartphones
already have constant connectivity, enabling the user to share images
instantly. For most people, a smartphone
does everything that they need. On top of that, there are hundreds of apps to
use. Compact cameras will no longer
provide anything that the smartphone can’t do better.
Death of the DSLR? Over recent years, mirrorless cameras have
improved beyond all predictions. Every
major camera manufacturer now has mirrorless systems. The advantages of these systems over DSLRs,
are they are smaller, lighter, and thus, way more portable. On top of this, the lack of a mirror means
true silent shooting, less camera shake, and a faster rate of continuous burst
shooting. DSLRs had the edge in image
quality, but that gap has now closed.
The Sony A7 RIII mirrorless camera has a full frame sensor and 42.4
effective megapixels. The highest resolution from any DSLR in the world comes
with the Canon EOS 5DS at 50.6MP.
Mirrorless cameras can’t compete on battery life, but that’s just a
matter of time. Slowly, mirrorless
cameras will continue to pick up the slack. We’ll see a slow but sure
shift to the smaller, cheaper models.
Constant Connectivity. Today you can only wirelessly transfer Jpgs,
not Raw. The speeds are slow and you are
limited by distance. These problems
won’t exist forever. Imagine not needing
a memory card for your camera. This
would allow camera manufacturers to make smaller systems. It also saves you money and means you are no
longer limited to 8, 16, 32, 64 or 128 GB.
After
perfecting this technology, next to come will be wireless charging. Imagine a camera that isn’t limited to
batteries or the maximum power they hold.
A portable battery pack could allow you to shoot for days, not hours.
The technology exists for smartphones, so it’s only a matter of time.
Immersive
Photography. What is to stop us from capturing objects to
allow us to see it from all sides. We
already have this technology with 360-degree product images. Sneakers float and rotate in a white
space. You can walk around a statue, as
if you would in real life. You can spin, zoom and move around at your own
leisure. This technology isn’t new. Google
has been using 3D technology for its Google Maps and Earth for a while now.
Attach
these images and concept to a Virtual Reality headset and what do you
have? Something between the Matrix and
the Metaverse. An immersive idea where
you could actually see and touch said statue, building, city. Looking at a family photograph is a
great way to reminisce over past memories. But what if you could walk around
the image as if suspended in time.
Digital
sensors will only grow (albeit with limitations). They will provide us with
more and more detail in larger resolutions. Processes like these are quite lengthy to
capture and process. As technology gets better, the time spent will also
reduce. An image holding a terabyte of
information is not a million miles away.
Immersive photography technology will enable us to see/experience objects and scenes from all sides.
AI Will Change Everything. We already covered photographs creating a 3D world that would be completely immersible. AI (Artificial Intelligence) is what we have to thank for this technology. In the future, we will see AI take over a lot of our photographic tasks. We could all enjoy better, faster and more intuitive autofocusing. Imagine entire scenes and subjects, captured with a perfect exposure automatically.
Not
only will we see improvements with our cameras, but also, with our computers
and image editing software. Machines
will improve and software will recognize every element in your scene. If
it knows what it is, it can act accordingly.
Once
AI becomes well implemented, time spent editing will reduce. Imagine your uploaded photographs
automatically cull themselves, leaving you with the best shots. Then you don’t
need to go through hundreds of images to find where the person’s eyes are open.
On top of selecting these images, applied adjustments will base themselves on
previous behavior. That’s the benefit of AI, it learns from your choices.
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