Scanning Software Matters

This is a quick comparison of how VueScan and Epson Scan produce high quality images from negative film. I’m not a scanning or film services vendor; I’m just a film user who tries to get the most from his tools, and believes this information may be helpful to others who feel the same.

Introduction

You’ve gone to all the trouble to set the right exposure and composition in your film camera. You’ve been really careful developing the film. Now it comes time to scan the negatives, and it could all fall apart unless you know the ins and outs of your scanner software.

But that’s all automatic, isn’t it??  Isn’t all scanning software the same?

I admit it’s a rhetorical question. Of course they’re not the same, in some of the most important aspects, including the ability to fully manage the scanner and make it do what you need  it to do: Get all the detail possible from the negative without clipping (or dumping) the shadows and without clipping the highlights.

Well, you say, if the exposure is perfect and the development is perfect, won’t any scanning software accomplish the same thing? And my reply is… theoretically. But anytime you deviate (intentionally or unintentionally) from the ideal situation, such as pulling or pushing film, or departing from normal development time or temperature (or developer formulation), or missing the exposure reading by a 1/2 stop or so because of an aging light meter, then all bets are off. So you need a scanning software program that can direct the scanner to ‘record’ all the grains of silver in as many situations as possible. Or, you can continue throwing useful negatives away based on imperfect scans.

If you think about all the images (and/or negatives) you’ve trashed because the shadows were dumped or the highlights clipped once scanned, it might be time to question your scanning software and how you’re using it.

But first, you’ll need to trust that most modern scanners are highly capable machines. My 10 year old Epson V700 (rated at DMax 4.0) can easily record tonal differences between film base + fog (FB+F)(0% Luminance, L) and an adjacent shadow luminance of 0.1% L. It can record differences in the highlights contained WITHIN the brightest specular highlight, recording separate tones on a negative within a specular highlight of 100% L at the center and 99.7% L from a peripheral area of the same specular highlight. The dynamic range of my V700 easily records metered values from 2EV (I’ve got a bit of flare in my Sekonic meter) and >18 EV, and it’s all captured on my negatives and, most importantly, in my scanned images.

Of course, such fine differentiation won’t matter in a print except to create smooth tonal transitions and discernible shadow and highlight textures, which are important to fine art prints of large size. If your scanner (or how you’re using it) can’t differentiate very fine differences (which are actually delicate transitions) in film densities on the negative, no amount of processing and/or printing expertise will overcome that shortfall.

Let’s compare scans from VueScan® and Epson Scan®.

I know lots of photographers who use film. I know none (except myself) who use VueScan (from https://www.hamrick.com/).  Most if not all of them use Epson Scan that came with their scanner.

Before I get into this, let me say that I’m not associated with VueScan nor Epson in any way. What I share here is only from the perspective of a user, okay?

My strong preference is for VueScan because of its much greater capability to direct the V700 (or many other scanners) to read negatives having vastly different levels of density, contrast, color, and grain structure. I’ll cover some of those capabilities below.

I have rarely used Epson Scan. I think it’s grossly simplistic and constraining to users who want to get the most from their negatives. And even though its User Manual doesn’t even cover any of its so-called advanced adjustments for levels or curves, I’ve experimented enough with them to feel okay about sharing my experiences with Epson Scan.

On the contrary, I’ve used ViewScan for years, and have scanned several hundreds of negatives, both B&W and color. Its User Manual is thorough, and it needs to be because of the comprehensive range of settings available for a great number of scanner models. I’ve already covered my basic approach to getting the most from my negatives in this article, so I won’t go into them again. Regardless, my approach is merely a starting point and you’ll want to experiment and develop your own workflow.

For this article, I’ll use a single negative having an extreme range of subject brightness (EV -5 to +6, not including specular highlight reading). I scanned the same negative using both VueScan and Epson Scan, each optimized to record as much of the density range in the negative as possible.

The scene is test scene I use routinely to quality check my workflow. I’m lucky to have a pure white van. When  I open the rear doors on a sunny day, I get a composition having a full scale of brightness ranges, from the deep shadows within the van to the bright highlights (including specular highlights) on the exterior. I exposed TMY rated at 400 by metering the passenger seat up front and placing that EV on -2 (i.e., Zone 3). The brightest reflections from the white paint, not including the linear and specular highlights fell on EV +6 (i.e., Zone XI) using my Sekonic 758. Of course, the specular highlights, if I were to try to measure them specifically, would likely fall around EV +9 or above (or Zone 14).

Below is a picture of the scene and the negative made from it. The luminance range was extreme: from fine shadows in the cargo area of the van to very high and specular highlights on the sunlit areas of white paint. The goal in exposure, development, and scanning is to retain every bit of density range above the film base + fog into useable information for processing the negative, without clipping!

Test Image having wide range of subject brightness and dynamic range
Test Image
Test negative
Test negative (TMY rated at 400 ASA, developed in Gainer’s PC at 100%, 75 deg F, 6 min)

Ok, it’s a difficult negative due to the extreme density ranges, but let’s compare the optimized scans using VueScan and Epson Scan to see if there are significant differences in the image produced.


VueScan Record

Epson Scan Record

 

Shadow Detail Results

Shadow detail (1:1) from VueScan scan. Blue areas indicate clipped shadows created by selectively setting black point to allow direct comparison. Inset shows area of original image.
Shadow detail (1:1) from EpsonScan scan. Blue areas indicate clipped shadows created by selectively setting black point. Inset shows area of original image.

Comparison

Even though the levels and histogram settings for both scanning software was intentional to avoid clipping black and white points, this was much more difficult using Epson Scan due to its user interface (or perhaps my inexperience with Epson Scan). Regardless of the fact that I had to adjust levels in LR6 to make a comparison to the VueScan image, it was clear that Epson Scan compressed shadow detail, even to the point of losing details below Zone IV.  While the histogram for the VueScan image was nicely evenly spread out, the histogram for the EpsonScan image pushed nearly all shadow densities to the left.

The effect of this was particularly obvious in the 1:1 details of the same shadow area on the negative. Compared to the VueScan image, the tones of the passenger seat back and much of dashboard became completely featureless. Note these values weren’t clipped, merely compressed, by Epson Scan.

Both Epson Scan and VueScan treated highlights about the same. VueScan treated the highlights with slightly less aliasing of the grain clumps, creating more pleasing transitions across highlight tones.

Wrapping Up

If I were a photographer tied to Epson Scan as my sole tool to convert negatives into digital images, I probably would have thrown the test image described in this article in the trash after scanning it. Even after adjusting levels and curves to get the most information from the negative, Epson Scan’s inability to record shadow densities gave poor results. Where my light meter differentiated relative exposure values (rEV) between 0 (Zone V) and -3 (Zone 2), Epson Scan dumped Zone V to Zone IV and compressed Zones III, II, and I all into about Zone I (no discernible detail). This is a subjective conclusion more than objective.

Being confronted with the Epson Scan result, a smart photographer would go back to his ISO and film development workflow to try to get better separation of the shadows by shooting at less than film box speed and tweaking development time to compress highlight densities to avoid clipping. Sound familiar?

It’s possible that so many photographers recommend shooting film at 1-2 stops less than box film speed is because of scanning failures more than shooting failures. Without being able to fully control the scanner, via the right software, you’re left with settings and electronic algorithms developed by engineers, not photographers, and they develop them based on rather ideal shooting/developing scenarios that are actually quite rare in practice.

I used this extremely challenging scene to learn more about the differences in scanning between VueScan and Epson Scan scanning software. The negative was perfectly exposed and developed. The scan using VueScan was fairly straightforward and required very little adjustment to my normal scanning workflow. It gave me a image having useable information from Zone 1(L*=4.4) to Zone X (L*=100). The negative itself did not challenge the capacity of the scanner to record this wide range of densities (i.e., no clipping low or high).

This direct comparison between VueScan and Epson Scan indicated a couple things. First, the two software programs do not read or record the same negative equally, even after optimizing the levels pre-scan. Second, built-in settings are locked from the user in Epson Scan. Unlike Epson Scan, VueScan permits directing the scanner to adjust Exposure, RGB Gains, Film base colors, and Image color to tailor the scanning process to any individual negative. This flexibility is a great enabler when scanning any challenging negative.

The most obvious explanation for the difference between EpsonScan and VueScan might be their use of a different gamma correction built into the software, but I think it goes way beyond that. I’m working on a Mac and routinely rely on the native Mac gamma setting of 2.2.  Adjusting the VueScan curve in LR to represent a decreased gamma created a histogram much like the Epson Scan histogram. However, adjusting the Epson Scan curve in LR to mimic the VueScan histogram was not possible. The lost detail in the deepest shadows was still missing, and the shadow contrast too severe. It might be that an adequate correction before scanning in Epson Scan could give better results.

I’ll leave you with this:  Get to know your scanning software; scanning software matters. If your current program doesn’t let you manually adjust settings like Exposure, Levels, Curves, RGB Gains, FB+F color, and Image color, try VueScan or other program that does. Modern scanners are highly capable machines, but if you’re tied to an engineer’s guess as to what you actually need, you may not be getting everything you paid for, or that you need.

 

Easily verify the focus on your flatbed scanner

Wet Mounting on the Epson V700 V750 V800 V850

This article describes a way to make sure the placement of negatives above your scanner’s platen is within the depth of field of your scanner’s lens for best sharpness.

If your film holders don’t place the film where the scanner focuses its lens, then you’re going to get fuzzy images. And that may be causing you to pull your hair out. Neither are good situations to find yourself in.


Now, let’s talk about checking the focus of your scanner.

Many flatbed scanners have a fixed focal distance set by the manufacturer, and they provide holders that place the negative “precisely” at that distance.  Most of the time, this works well.

But there are times when you might suspect that the fixed focus (or even auto focus) isn’t behaving right. If you are getting consistently blurry scans or scans that you believe should be sharp and aren’t, you may have a scanner that isn’t focusing precisely, or a holder that isn’t placing the negative where the lens is focusing.

In this short article, I’ll show you an easy way to verify the depth of field on your flatbed scanner’s lens.  Then, you can take steps to make sure your negative carrier places negatives precisely at the optimum distance above the scanner platen for maximum sharpness and resolution.

To verify the focusing capability of your flatbed scanner, all you’ll need is a transparent ruler and a second ruler to measure with.

I’ll be using the Epson V700/V800 for this instruction, but the procedures should work for any flatbed scanner.

Concept

Like any lens, your scanner’s lens has a range of acceptable focus, or depth of field (DOF) where it performs best.  You can determine DOF by scanning a transparent ruler that has been placed on an incline, with one end well below the minimum DOF height and the other end placed well above the maximum DOF height. The graduations on the scanned image of the transparent ruler will be sharp within the scanner’s DOF.

Procedure

  1. The first step is to place the transparent ruler on an incline relative to the scanner platen. In the following picture, I placed one end of the ruler on the platen and placed the other end of the ruler to rest on the top of the scanner bed, shimmed by approximately 1/4″.   Shimming the elevated end of the ruler will steepen the incline and help differentiate the sharpness along the entire length of the ruler.  It’s important to check that when you lower the lid on the scanner that you don’t move or warp the ruler. You don’t need to lower the lid all the way; just close it enough to avoid touching the end of the ruler.  Now, open the lid and tape each end of the ruler down to avoid movement during scanning.

    Shows the inclined placement of the transparent ruler on the V700 platen. The upper end is shimmed to increase the steepness of the incline. The white sheet of paper is only for illustration purposes so you can ‘see’ the scanner’s glass platen in this illustration (it’s not used during the actual scan).
  1. Scan the ruler using your normal scanning settings (i.e., high resolution, 2400 ppi) without sharpening, and open the file in your photo viewing software, like Preview, Photoshop, or Lightroom. Do not move the transparent ruler yet; you’ll need it in exactly the same location in Step 4.
  2. On the scanned image, examine the ruler along its entire length, looking for the sharpest delineation of the numbers on the ruler. There should be a range of numbers/graduations that will be sharper than anywhere else along the ruler. If your scanner’s depth of field is very wide, you may not see any difference in sharpness along the ruler. This is good, because it means you shouldn’t be experiencing out of focus situation no matter where the negative is placed above the platen. But you need to examine closely to rule out minor differences in sharpness as you examine along the length of the ruler.  In my example below, maximum sharpness was seen about 23-24 cm on the ruler, call it 23.5 cm. The differences in sharpness between 0 and 4 inches on this image is difficult to show, but careful inspection at 50% in Preview clearly shows the difference.  You should see a clear difference. V700FocusTest003
  3. Now you need to determine the distance above the platen where you found the sharpest graduations on the ruler. Use a different ruler for this step. A micrometer may also be used if you have one, but you don’t need that much precision. I used a simple wooden ruler that  began graduations at the very end of the ruler. So, at the point on the transparent ruler (still resting on the scanner) where I found maximum resolution, I measured the distance above the platen surface and found it to be 1/8″. Your results may vary.  This measurement told me that my scanner’s best performance was 1/8″ above the platen. IMG_2946
  4.  Now compare this distance to the height of the negative plane on your negative holder to see if your holder is placing the negative where the scanner has its maximum resolution. First place your negative holder on a flat hard surface (e.g. a table top) and find the lip on the holder that holds the negative during scanning. Measure the distance from the table top to the top of the lip. This tells you exactly where your holder is placing the negative during scanning. IMG_2978 copy
  5. Interpretation

    If you’re lucky, the height measured in Step 5 is exactly the same as the height measured in Step 4. It means your holder is placing the negative exactly where the scanner lens is focusing.

    If the holder doesn’t place the negative within an acceptable distance for the scanner’s lens, you’ll need to modify your holder or change to a holder that does. The Epson holder comes with adjusting feet; merely changing the setting on the feet may fix the problem.

    For the vast majority of scanners, the distance you find is sharpest will be very close to the distance measured on the negative carrier. But this quick test of focus on your scanner should at least confirm that scanner focusing is or is not optimal, and you can take actions to fix it.

    It’s possible that after doing this test, you find that there is no region of perfect sharpness along the entire length of the transparent ruler. There are two possible reasons: 1. the ruler moved or deflected during the scan when the lid is closed (re-read Step 1 in Procedures above), or the scanner’s lens is faulty and you may need to replace or repair the scanner.

Bonus utility: I used this test to determine where my custom negative carrier had to sit for maximum sharpness. I modified my scanner to accommodate a wet-mount under-mount design, and knowing my scanner’s specific DOF told me how much shimming I had to do for correct placement of the negative in this custom carrier. We’re not constrained to using the manufacturer’s film carriers once we know the scanner’s true DOF.

What does it mean when the negative is placed optimally, but the scans still appear ‘fuzzy?’

First, make sure your shooting technique is perfect.  Barring the case where the scanner is not functioning properly, finding that your images still appear unsharp most likely suggests a fault in technique. BY FAR, this will be the cause of unsharp images (i.e., not the scanner). It’s been the same since the the advent of modern cameras and lenses; it’s not the tools but the technique that causes most situations of unsharp images. You already know this, right?  Do you use a tripod when sharpness is important to the image? Do you practice appropriate aperture/shutter speed relative to subject motion? Technique remains one of the most important factors in acquiring an image on the negative that is sharp or not sharp. It’s always been that way.

Second, make sure to minimize your subjective bias toward those hyper-acute images shot with modern digital cameras. I suspect this bias is a leading cause for people new to film   thinking their scans are ‘blurry.’ This topic is probably worth a separate article; because it took me a couple years after returning to film scanning after a year shooting with digital to realize that comparing the two technologies is an apples and oranges comparison. In short, never compare a 1:1 depiction of a digital image to a 1:1 depiction of a scanned image unless the two images are exactly the same resolution (i.e., 20 MP to 20 MP), and even that is a stretch.  The best evaluation of sharpness for a film scan is by looking at an appropriately sized print, not a file on your computer monitor.  Don’t toss your scanner or give up on shooting film before making a print comparison!

I hope this article helps you determine whether your scanner is functioning properly, and how to determine where the optimum focal point of your scanner’s lens is.  Feel free to ask questions.

 

 

Let me hear your questions or comments below.

Myths About Scanning Film for Maximum Quality

Update 3/31/2016

I published this article back in 2011, and at that time I had 3 years experience personally scanning negatives. Add 5 years since, and probably 500 hours scanning, and well, you get the picture.

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This article dispels many myths related to the technical process of scanning negative (print) film. Developing photographers may save themselves time and money and produce higher quality scans by knowing these myths exist.
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It bears repeating: Take lessons you read on the internet (or anywhere) with a grain of salt unless it comes with substantiating explanation.

I like reading “tips”, “lessons”, “warnings”, “advise” etc from posters on internet blogs or fora. It helps me understand what others have found to be useful so that I might use this information to solve my own problems. Believe me, growing up in the pre-internet era makes me very thankful that we now have the wealth of information available at our fingertips.

Scanning film is a necessary evil for photographers who choose to use a hybrid workflow, where film is used to capture the image and digital processes are used to produce the final image for sharing or printing.  For whatever reason, the art of communicating film scanning techniques by those who choose to  do so is like reading early software “user’s manuals”: Users couldn’t understand a word in them.  If you’re an electronics engineer, you might find that last statement funny (or not), but it’s still true. But unlike modern software developers who have learned how to communicate clearly to non-technical users, scanner developers have not.

I’ve been scanning color and monochrome negatives for about 3 years, and I think I’ve just about got it down. I can produce a digital scan of a 35mm, 6x7cm, or 4x5inch negative without unacceptable noise having very high resolution, and requiring only minimal corrections in my imaging software. My success isn’t so much due to what I’ve read in the blogs or scanning fora as much as it is about TENACITY. Which brings me to my point: Don’t take for granted that what you read in the blogs means exactly what you think it means or that it even applies to your own photographic situation.  This is doubly true if the blogger fails to substantiate (or thoroughly explain) what he/she really means, and ideally includes pros and cons with their recommendation.

Here are examples of myths I’ve read on expert sites that I accepted as truth, didn’t take the time to investigate them on my system using my workflow, and which literally set me back weeks to months in getting to the level of scanning competence that I have currently:

Myth 1. “Scanner manufacturers claim much higher resolution than they can actually deliver, so there is no need to scan above 2400 ppi.”  I use an Epson V700 scanner that Epson claims can scan at 6400 optical resolution. It also has a lower resolution lens that can scan at 4800 ppi. Experts have repeatedly scoffed at Epson’s claims, and have consistently recommended not to scan above 2400 ppi because “..you won’t get any better details from the shadows above 2400 ppi.”  What I’ve learned in my experience is that while I may not get additional shadow details when scanning at 4800 or 6400 ppi, the digital file produced is much better. I’ve found that with this scanner, when using the OEM negative holders provided to ensure optimal focal point of the higher resolution lens, I do not get what I presume is aliasing in the digital file. The effect I get when scanning at low resolution is best termed ‘blotchy’ –clear blue skies looked like wet cotton candy.  When scanning at the optical resolution of one of the lenses, clear blue skies look more like clear blue skies. For whatever reason, forcing the V700 to scan at less than the highest optical resolution for the lenses seems to produce artifacts in the scanned image.  Based solely on the quality of the resulting image, I always scan at the highest optical resolution. Yes, this requires more time scanning and more disk space, but it is the technique that produces a result that is minimally acceptable to me. I deal with the disk space requirement by buying more disk space. All of my negatives that don’t deserve printing are later compressed to “proof” resolution and archived at 5 megapixels or so.  (I always have the negatives that can be re-scanned if needed.)

Myth 2. “Scan at the minimum resolution for your intended purpose and do not compress the file.” Update:  I no longer consider this to be a myth..I’ve found it to be a good practice. But since my intended purpose is to make really large prints, I’m always scanning at maximum resolution to get the largest file size I can. 

Myth 3. “Don’t use the scanner software to set the contrast levels or balance the color; do these tasks in your image processing software instead.”  Again, until I investigated this, I abided by the expert advice and then fought the losing battle of adjusting the levels and colors in Photoshop or Lightroom without ruining the quality of the image. The result was excessive artifacts, noise, and artistic frustration painted all over the images. What these experts must presume is that every negative is perfectly exposed and taken in the best lighting God can make. As a landscape photographer, such circumstances are very rare. I typically express images that have wide latitude (meaning deep blacks and paper white highlights). If a negative has no such attributes, I will adjust the contrast to produce them.   Whoops…adjust too much and the histogram will look moth-eaten and introduce compression artifacts in the image. The more you adjust, the worse it gets.  What I’ve found works best is to get really close to the final image contrast and color balance using the scanner software. This means much less fidgeting in post-process and fewer artifacts in the final image.  Update:  I still find that the scanner algorithms for converting the continuous tones of a negative into digital bits is better than how Photograph CS5 or Lightroom 4.0 converts one tone to another.  Even my 1980s-era Howtek 4500 drum scanner does a better job than CS5 or LR at setting levels, white/black point, and perhaps even curves.

As an example, the two images below are from the same negative. The left image is straight from the scanner without any post processing; the right image received minor enhancements to adjust local and global contrast, saturation, and highlighting. No artifacts resulted from the post-processing. The negative was captured using a Nikon F5 onto Kodak Portra 400 film. I scanned the 35mm negative at 4800 ppi using VueScan with no compression. This produced a 30 megapixel image file. In Vuescan, I locked the film base color to neutral black and the image color to neutral white. Modest post-processing included cropping, adjustment to both global and local contrast, minor sharpening (but no output sharpening), and targeted adjustments to brightness and contrast to the foliage and water. The full resolution image has no processing artifacts that I can see at 100% zoom.

If you find yourself fighting your post-processing technique on flat, low contrast scanned negatives produced using the common expert recommendations, then break the rules.  Set levels and color balance in the scanner software and see for yourself if the final result is better.

Myth 4. “Scanning wet mounts will result in higher quality scans.”  Well, I tried this and found no difference in quality of the resulting scan, just a lot of additional work and cost. The scans I get using Epson V700 negative carriers, scanned at 4800 ppi, have the same detail in the shadows, the same detail in the highlights, and have the same latitude as those scanned using KAMI wet mount system. I did note that I didn’t have the dust problems when using KAMI, but otherwise I noted no improvements.  Update:  My main scanner is now a drum scanner, which requires wet mounting, so of course that’s what I do.   I think the point should be made that sometimes, you need to do what you need to do. If you have a terrible dust problem in your scanning workstation, you may find wet mounting really helps, and may be essential.  There is a far greater difference between a CMOS scanner (desktop scanner) and a PMT (drum) scanner then there is between wet mounting and dry mounting. 

Myth 5. “Amateurs use negative (print) film and professionals use transparency (slide) film.” The implication here is that transparency film somehow has qualities that so far surpass print film to make print film significantly inferior.  Such statements could lead developing photographers to adopt the use of transparency film without even exploring what I consider to be the strong points of print film. When I decided to begin shooting color about 4 years ago, I made the decision to use print film precisely for the reasons most “experts” claim as its weaknesses: exposure latitude and development latitude.

Transparency film typically has a 4-5 stop exposure latitude, about the same as most 2005-era digital cameras could detect. In landscape photography, a typical scene can deliver brightness ranges spanning 8, 9, or even 10 stops or more. This means that the photographer has to decide at the time of capture, whether to clip the shadows and lose most low light detail or to clip the highlights.  Digital photographers are well aware of this situation; most digital sensors also have latitude limitations that result in ‘blown out highlights” or “dumped shadows.” Fortunately for digital photographers, the technology is improving as new sensors are invented.

Print film has no such limitations. In fact, print film can capture the thinnest density having detail on the negative (i.e., the deepest shadows of a scene) while also capturing fine details in the most dense areas (i.e., bright whites like sun lit clouds). Easily.

Scanners of the qualify of my Epson V700 also have a very wide latitude of detection. The figure below is a scan of a 31-step density wedge made on the Epson V700. Each step is 1/3 of a stop from its nearest neighbor, so from one end of the strip to the other is 10 stops. When I scan this step wedge as in the figure below, I can easily detect 31 distinct steps, indicating that the V700 has a detection latitude somewhat over 10 stops.

As a practical example, the scene below presented me an extreme range of brightness. This range had to be captured in one shutter click due to movement of the water, the geyser eruptions, and the sun. Then, the scanner had to detect detail in both the sun and the shadows among the foreground grasses. The picture was captured using Kodak Portra 400 film, with no neutral density gradient  filters used. I developed the film  normally. The original scan retained detail/color in the sun spot and the shadows concurrently.  If I had captured this using a digital camera or if I had used transparency film, this scene would have required multiple shots and later processed using HDR techniques and/or by compositing multiple images, which can introduce their own artifacts in the final image. Shooting with print film gave me the exposure latitude I needed to capture this scene.

I admit to never using slide film for my artistic work, so my experience is limited. However based on the knowledge that slide film has a much narrower latitude and my own experience using print film with its proven (in my hands) wide latitude, I completely dismiss expert contentions that “professionals should use transparency film while amateurs use print film”.  Don’t hesitate to use print film seriously. I’ve found that much of my landscape and nature images require the exposure latitude that only print film can deliver.

If this article helps you decide to try scanning print film or if it simplifies problems you’ve had in your scanning techniques, then it accomplishes its purpose. While the internet forums are full of information, take what you read with a grain of salt. The information is only accurate in the hands of the writer and may not relate one bit to your situation. If you have the time to test such advice, that would be a wise decision. It just may save you a lot of time and money.

Update:  To be serious photographers, we have to invest in equipment we need.  We need to learn the techniques that are important to our craft. I’ve never been one to collaborate with others in creating my photographs, and that means outside film scanners, printers, etc. If you want to use the hybrid workflow, then go ahead and invest in a scanner, learn to use it, spend the time testing various ways to get the job done using the equipment you have. At the least, the growing interest in film photography these days means a growing market for used equipment, so you can always sell the scanner later if you decide scanning is not for you!

J Riley Stewart