Mastering blur – a month with the Otus 28mm f/1.4, 55mm f/1.4 and HCam Master TS

The Tuileries Garden in Paris. Handheld, maximum diagonal tilt, @f1.4.

• Introduction

About a month ago, I was extremely fortunate to test two of the best and most impressive lenses for full frame cameras, together with a new tilt/shift adapter meant to mount manual lenses on a mirrorless system.

Namely, I got to test the HCam Master Tilt Shift adapter together with a couple lenses from the Otus line from Zeiss: the Nikon mount 55mm f/1.4 and the yet to be released Nikon mount 28mm f/1.4.

The main purpose of these lenses is admittedly for high-resolution stills and video, I like to do things differently. This is why I spent a few weeks in France testing them, and I was especially interested in seeing how well they would perform with long exposures, or when they are shifted, tilted, and of course how sharp they are wide open.

• Disclaimer:

The purpose of this article is to share some of the images I shot with these lenses and some of my impressions. I am not sponsored nor have been paid by either ZEISS nor HCam for this test. Additionally, it is not meant to be a formal test with charts, or shooting a wall of bricks at different apertures to look at distortion and such. Its purpose is really to see how the adapter and lenses behave in the field, when used for fine art still photography. Unless mentioned otherwise, the images you will find below have been shot on a Sony a7RII in uncompressed RAW mode, imported in Camera RAW and Photoshop for minimal editing (curves, contrast etc). They have only been edited by applying minor white balance, curves, and contrast tweaks, and nothing more except for a B&W conversion with Silver Efex Pro2 for a few of them. Each image was eventually downsized for web browsing and saved as high-res jpgs files. The behind the scenes images were shot with a Sony RX100 IV.

• The HCam Master TS adapter:

This very solid and precisely machined adapter is German-made. A detail worth mentioning as it sticks to the reputation, and is extremely well built and sturdy. It is meant to mount Canon EF lenses (or other adapters for medium format for that matter) on a Sony E mount mirrorless. Unfortunately, it does not have electronic connections, which means that you can only use fully manual lenses with it (unless you are willing to go through this route). For that reason, I was sent Nikon mount Otus lenses with an extra slim adapter, but I’ll get back to this later.

Unlike any other adapter though, the HCam Master TS allows the photographer to tilt and shift the lens with respect to the camera body. It allows for 10° tilt and up to 15mm shift in each direction if the image circle is large enough, which brings and incredible freedom of creation and control for the position of the focal plane and the perspectives, respectively.

Thanks to a very smart and secure system that can be locked in place when needed, it is possible to rotate both the lens and camera independently, and this allows for manipulating the direction in which the lens is shifted and tilted, as well as the orientation of the camera (landscape or portrait). The HCam Master TS system can therefore be used for either architectural, fine art, and/or portrait photography.

The Master TS system is meant to be used on a tripod: the foot can be securely tightened through a couple of screws onto an Arca/Swiss type plate (included in the box), and because both the lens and the camera can be rotated, it is no problem to orient, tilt and shift to the maximum amount the setup. Since the camera/lens setup is mounted on the tripod using the foot, it is good to note that it is the camera that shifts and tilts with respect to the lens, which is opposite and an advantage compared to modern FF T/S lenses. In some occasions during my trip to France however, the use of a tripod was forbidden, which forced me to use the system handheld. In some rare cases I ran into the issue of not being able to tilt all the way because the system would come into contact with the camera. Using the Otus lenses however was nice because I only had to open slightly more the aperture in order to “increase” the amount of blur in camera, so it was not a real issue.

For more details on the adapter, please see the images below:

Front view of the adapter mounted on the Arca/Swiss type plate. Canon EF mount (lens) side.

Back view of the adapter mounted on the Arca/Swiss type plate. Sony E mount (camera) side.

Front view of the adapter; Canon EF mount (lens) side, zoomed on the lens release and rotation system (no rotation here).

Front view of the adapter; Canon EF mount (lens) side with about 20° rotation of the camera mount.

Back view of the adapter; Sony E mount (camera) side with 15mm shift one way or the other and roughly 20° rotation of the camera mount.

Side view of the adapter with with 10° tilt of the camera mount.

Side view of the adapter with with 10° tilt, 15mm shift, roughly 10° rotation of the camera mount and 45° rotation of the lens mount.

• Nikon F to Canon EF mount adapter:

Because the HCam Master TS has no electronic connection and the Canon versions of the Otus lenses require it, I decided to test the Nikon F mount versions. Which means that I needed a slim, sturdy and secure Nikon F to Canon EF mount adapter in order to mount the lenses on the Master TS and keep infinity focus (the flange distance for Nikon being larger than Canon, one such adapter exists).

After reading a few reviews online, I settled for the FotodioX Pro adapter (without focus confirmation chip), which was well rated and allowed me to remove it in the field from one lens and put it on the other in a matter of seconds, with no need for extra tools.

• Zeiss Otus 55mm f/1.4 & 28mm f/1.4, Nikon mount:

What to say besides these are two exceptional lenses?? They are solid, and they are things of beauty. The front and back lenses are amazing to look at, the focusing ring is smooth, precise and a pleasure to rotate, and the aperture ring (only for the Nikon mount versions) is precise, and lets you choose aperture with a 1/3rd stop precision on small f-stop numbers, and larger steps at smaller apertures (see picture below).

BTS image in Paris at the Pantheon of me shooting with the Sony a7RII, HCam Master TS with 10° tilt and Otus 55mm f/1.4 fully open.

To address the elephant in the room, these lenses are BIG and HEAVY, especially the ZEISS Otus 1.4/28  it is bigger than the (ZEISS Otus 1.4/85). But this is exactly what you want in such fast lenses: a large front element (77mm filter thread for the 55mm, and 95mm diameter for the 28mm!!), huge image circle, especially if like me you want to tilt and shift them.

Phone snapshot of the Otus 28mm f/1.4 when I received it, with a quarter coin as a size reference. Please forgive the low quality and keep in mind this is a pre-production lens, and that the box was therefore not the box it will be shipped in.

• BTS images:

1. Otus 55mm f/1.4 @1.4 (in Paris, in front of the Pantheon):

My setup for most of my shooting in France: Sony a7RII, HCam Master TS and either the Otus 28mm or the 55mm (here with the 55mm, tilted at 10°)

Front element of the 55mm. As you can see, it was rainy, but thanks to such a wide aperture and the added tilt, the rain drops are invisible in the final image (see below).

Zoom on the 55mm lens / Nikon F to Canon EF Fotodiox / Master TS adapters. No light leak visible for normal exposures, no problem under slight rain.

Live view on the back screen of the Sony a7RII. It’s hard to tell here, but only the top of the cross on the Pantheon is sharp. See image further down for confirmation.

Final image after conversion from uncompressed RAW file shot with the Sony a7RII. Only the cross is focused, the lower parts of the image blurring out very nicely. For those interested, we can see two nice out of focus highlights with 9 sides, as expected from the 9-blade aperture. Please not that with a full 10° tilt, no vignetting can be seen.

   2. Otus 28mm f/1.4 (at one of the most beautiful Loire Valley Chateaus, Chenonceaux)

Sony a7RII, HCam Master TS and Otus 28mm (with 10° tilt and camera ~5mm shifted down).

Live view on the back screen of the Sony a7RII. Only the castle is focused.

My setup for long exposure: additional Cokin Z-Pro adapter and holder, Formatt Hitech ND16 Firecrest 100x100mm filter and storm jacket to protect from light rain and any possible light leakage coming from the multiple adapters.

Final image after conversion from uncompressed RAW file shot with the Sony a7RII. No light leakage after ~3 minutes long exposure @f8. The Zeiss Otus 28mm f/1.4 is a great lens for long exposure tilt/shift photography!

•  More images shot with this system:

1. BTS:

 

Shooting ~3 minutes long exposure with the Zeiss Otus 55mm f/1.4 @f5.6, together with tilt and shift at Villandry, one of the nicest castles of the Loire Valley, famous internationally for its French-style gardens.

   2. Otus 28mm f/1.4:

     Shooting in the rain at the Luxembourg Gardens in Paris. Handheld, maximum tilt to the right, @f8.

Shooting in the rain at the Luxembourg Gardens in Paris. Handheld, maximum diagonal tilt, @f8.

   The Tuileries Garden in Paris. Handheld, maximum tilt down, @f2.8.

Zoom of the previous image.

The Tuileries Garden in Paris. Handheld, maximum tilt down, @f5.6.

Chambord. On a tripod, maximum diagonal tilt @f5.6 and ~5mm vertical shift (camera lower than lens). Slight vignetting in the upper left corner.

Zoom of the previous image. Maximum sharpness is clearly located on top of the highest tower.

Chambord. On a tripod, 6 images stitched (3 horizontally, over an approximate 10mm distance total; 2 vertically shifted positions accounting for about 5mm), no tilt @f2.8. Slight vignetting in the upper left and right corners.

Chambord. On a tripod, 6 images stitched (3 horizontally, over an approximate 10mm distance total; 2 vertically shifted positions accounting for about 5mm), no tilt @f8. Each image is a ~5 minutes long exposure. No more vignetting is visible.

Chambord. Handheld, maximum tilt to the right @f4.

Chambord. Handheld, maximum tilt to the right @f4.

Chenonceau. On a tripod, maximum tilt and ~5mm shift down (for both) of the camera @f5.6.

A few extra images shot in Boston, MA:

On a tripod, no tilt nor shift @f8.

Zoom of the previous image, top left corner.

Zoom of the previous image, bottom right corner.

On a tripod, maximum tilt down, no shift @f2.8.

  Zoom of the previous image.

On a tripod, maximum tilt down, no shift @f1.4.

 Zoom of the previous image. Please note that at f1.4, only the eyes are sharp, the rest getting blurred as you move away from the focal plane.

On a tripod, maximum tilt down, no shift @f4.

 Zoom of the previous image.

2. Otus 55mm f/1.4:

Pantheon, Paris. On a tripod, maximum diagonal tilt @f4. Vignetting is visible but still very manageable.  

  The Tuileries Garden in Paris. Handheld, maximum diagonal tilt, @f5.6.

The Tuileries Garden in Paris. Handheld, maximum tilt down, @f4.

The Tuileries Garden in Paris. Handheld, maximum diagonal tilt, @f4.

The Tuileries Garden in Paris. Handheld, maximum diagonal tilt, @f4.

The Tuileries Garden in Paris. Handheld, maximum tilt to the right, @f2.8.

The Tuileries Garden in Paris. Handheld, maximum diagonal tilt, @f1.4. 

The Tuileries Garden in Paris & Concorde Square in the distance. Handheld, maximum tilt to the right, @f1.4.

Zoom of the previous image.

The Tuileries Garden in Paris & Concorde Square in the distance. Handheld, maximum diagonal tilt, @f4.    

The Louvre Museum in Paris. Handheld, maximum diagonal tilt, @f5.6.

Villandry. On a tripod, maximum diagonal tilt @f5.6.

Villandry. Handheld, maximum diagonal tilt @f5.6.

Chambord. On a tripod, maximum tilt to the right @f4. Three images stitched in post, vertically shifted over an entire ~15mm course. Vignetting is clearly visible in the upper left, right and lower right corners.  

Chambord. Handheld, maximum diagonal tilt @f4.

• Final thoughts:

As you probably have noticed, I’m very excited about this particular setup: either 28 or 55mm Otus lens mounted on the HCam Master TS and a Sony a7RII mirrorless camera. The Otus lenses themselves are AMAZING and top quality, very pleasant to use and optically perfect. The HCam adapter is top notch, strongly built (which is a necessity when dealing with lenses like the Otus), and very precise and easy to adjust. As you have seen, paired together, you will be able to tilt the camera 10° with almost zero vignetting, unless you add a good amount of shift with it (about 5mm each way with the 28mm or 7mm each way with the 55mm). You have probably noticed that it’s also very easy to control the width and position of the focal plane, and that if pushed to the maximum (Master TS tilted at 10° aperture set to f1.4), you can make it extremely shallow!

As a conclusion, the Otus lenses are unique, because of course of their optical quality, but also because their wide image circle make them perfect tools for fine art still photography, and not only for video. They leave you quite a lot of freedom to unleash your artistic vision. Using the ZEISS Otus lenses and the HCam Master TS adapter on my Sony a7RII is the most exciting experience I’ve had with gear and artistically speaking in a very long time.

 

• Gear:

You can find any of the gear mentioned in this article through the links below:

– HCam Master Tilt Shift

– Nikon mount 55mm f/1.4

– Nikon mount 28mm f/1.4.

– Sony a7RII

–Sony RX100 IV

Fringing removal – Processing Private Mentoring

Being a fine art photographer (and a scientist) means that you have a high attention to details. Sometimes it’s a gift, sometimes it’s a curse. But it’s mostly a gift 🙂
It’s almost like having OCD for me at times, and it sure does feel like it when I process my images to allow extremely large printing.

This is what makes the difference between an average photograph and a hit! Here you see the image before and after removing fringes (respectively), zoomed in at 500% :

If you want to learn how to process images that will WOW people, send me a message and we’ll organize private mentoring sessions.

Ask your questions to top Sony developers and engineers

Guys!! I have the unique opportunity to ask any questions to some of the top Sony employees who developed the new cameras that got released a couple days ago: the RX10II, the RX100IV, and extremely anticipated a7RII.

This is the chance for you to ask your own technical questions and hopefully get an answer!!
How? Just ask you questions in the comments below, and I will try and pass them along. Maybe not all of them, but as many as I can!

The answers will come in a future blog post early next week.

PS: no need to ask for future releases or the directions the tech is going. This meeting is only about the new releases

Sony a7RII: my opinion in 7 points

Yesterday, Sony announced 3 new cameras: the RX10 II, the RX100 IV, and the rumored a7R II, which we were waiting for and hearing about for a loooooong time.

Every camera is interesting and a huge step forward, but being a landscape photographer (mostly), I will tell you more about what excited me most about the a7RII, and especially in the light of long exposure photography.

Specs

• 42MP Full-Frame Exmor R BSI CMOS Sensor
• BIONZ X Image Processor
• 5-Axis SteadyShot INSIDE Stabilization
• 399 Phase-Detect AF Points & 5 fps Burst
• Internal 4K XAVC S Video & S-Log2 Gamma
• Weather-Resistant Magnesium Alloy Body
• Built-In Wi-Fi Connectivity with NFC
• ISO 102,400
• no shutter blade motion
• 3.5x faster than the A7r
• A7rII focus is almost 40% faster than the one of the A7r
• Shipping in August

Estimated Price: $3200 USD

 

My opinion in 7 points:

1- The 42MP sensor:

Very little info has surface about it, but given the quality of the previous Sony sensors (including those being used by other major camera manufacturers), I expect and HOPE for a high dynamic range, a very low noise level and limited number of hot pixels. Two of the most important aspects for long exposure.

2- No low pass filter:

Back to one of the greatest features of the original a7R in my mind: the absence of a low pass filter. This feature will lead to crispier images, and you’ll see how sharp your lenses actually are…

3- The 5-Axis SteadyShot Stabilization system:

It will give stabilization to EVERY lens available on the market, including 3rd party lenses. That’s right, you read it: EVERY lens available! From zoom lenses to 30+ years old medium format glass. From the latest Zeiss beauties to the highly technical and fully manual Canon tilt/shift lenses. And all of the others as well 🙂

Potentially, it also means that it is possible to move the sensor around in the camera body. What’s the point you’ll ask me, right? Well, if you move the sensor one way, take a shot, move it the other way, take a shot and stitch them together, that’s a pretty good way to increase the resolution of your image… sort of like doing a pano.

4- New silent shutter with no blade motion:

No noise!! How cool is that for genuine street and portrait photography?

Even better in my mind (very biased toward long exposure of course), no blade motion, meaning less vibrations in the system, meaning even crispier images!

5- Internal 4K:

Sure I’m a photographer, sure I normally don’t do video. But hey, 4K!! And no need for an external recorder, it does it all internally. So damn, I think I’ll get into video at one point or another

6- ISO 102,400:

Why ISO 102,400? Hell, why not! 🙂 Again, high sensitivity can be a nice addition. Not that I would personally use it too much, but having the option seems like a great way to sweeten the deal: you can use fast or not so fast lenses for street or action photography more easily

7- faster everything:

Sony heard the complains that people had with the a7R: slow-ish auto-focus, especially with 3rd party lenses. Well, to go hand in hand with a higher sensitivity, they were able to speed things along: the camera itself is 3.5x faster than the A7r, and auto focus is almost 40% faster than the one of the A7r. I even heard somewhere that Canon lenses will have next to the same speed as on Canon bodies.

Conclusion:

I am very excited about this new release. Sony was able to take the best of every camera in the alpha line and concentrate it in this body: high sensitivity, higher resolution, 4K video recording, image stabilization, to name just a few.

One big question that remains unclear however is how the sensor will behave in terms of noise level, dynamic range and hot pixels.

Working closely with Sony, I hope to have more info soon on these aspects, and I also hope to get my hands on a body ASAP, take it in the field and let you know more about it… So hang tight!

Your thoughts:

What do you think about this new release? Are you excited? Indifferent? Would you have wanted to see more features and then, which ones? Let me know in the comments below!

Testing the Sony FE PZ 28-135mm f/4 G OSS for long exposure photography

I was very fortunate to get my hands on a Sony FE PZ 28-135mm f/4 G OSS and could not help but test it for long exposure.

You will see below some straight out of camera shots, as two new images that I was able to process. This is not meant to be a full review of the lens, more of a road test to see how well it works for long exposure photography.

General Comments: First of all, let me say that the lens is HUGE! It takes 95mm diameter filters, and feels very sturdy and smooth when using it. It also has a nice foot to mount it directly on a tripod head, which is a nice addition. I never used it though, because my setup was steady enough that I was not bothered by vibrations, however big the lens is.

A quick snapshot of my bag with the lens inside, together with the very nice 16-35 f/4:

One tip for doing long exposure: no matter the camera or lens, I ALWAYS wrap my setup with a cloth to avoid light leakage from the sides of the mount or lens. I used this lens in the same way, and you’ll see below that I had no diffraction issue: mission accomplished 🙂

 

Un-processed images: Now let’s look at a few “almost SOOC” images: (almost because some have been stitched)

EXIF: 28-135mm @28mm, f/8, ~8 minutes, ISO 50, ND16 Firecrest filter

EXIF: 2 images after stitching, 28-135mm @45mm, f/8, ~4 minutes each image, ISO 50, ND16 Firecrest filter

EXIF: 3 images after stitching, 28-135mm @72mm, f/8, ~3 minutes each image, ISO 100, ND16 Firecrest filter

 Pretty good, right? 🙂

Final images: Now let’s see a couple images after processing:

EXIF: 3 images after stitching, 28-135mm @72mm, f/8, ~3 minutes each image, ISO 100, ND16 Firecrest filter

EXIF: 3 images after stitching, 28-135mm @80mm, f/8, ~3 minutes each image, ISO 100, ND16 Firecrest filter

 

Conclusion: I have made up my mind. Even if the lens is mostly made for video, it’s an amazing piece of hardware, including for long exposure. The constant f/4 aperture is also a great treat. I am going to make this lens a permanent addition to my gear!

As usual, don’t hesitate to comment or ask questions below or in PM.

Building a technical camera – Part IV

Step Four of Building a technical camera: adding left/right shifting to the back element

Last time, I showed you the results of milling out a chunk of the back element of the Fuji camera. Today, I’ll show you why I did it, and how to mount different parts together and insure they are perfectly parallel or perpendicular to each other.

For that particular step, I bought a cheap Chinese precision rail system on eBay. For $8 USD, it’s hard to get a better system that can be modified, drilled, cut or tapped. The following picture shows you exactly what this part looks like before modifying and mounting on the camera.

First step was to take apart the rail itself (with the screw sticking out of the slot), from the support piece that is originally meant to attach on the tripod head. In the final design, the parts will be flipped: the rail will become the support (attached to the camera, see below) and the other part with the precise movement knob and the stopper. The latter part will be modified so I can attach a support plate for the camera.

You will find below a few pictures that I shot while adjusting the rail to the camera so that these two part are perfectly perpendicular to each other. This step is very delicate, because the slightest misalignment between them will lead to the sensor plane not being perpendicular to the lenses, effectively creating unwanted tilt.

To make sure the parts were perpendicular, I used the precision of the milling machine and an indicator, see below:

Just so you have a better sense of what things will look like eventually, here is a photograph of the back element with the inverted support part that I’ll drill and tap in order to mound the camera standard:No a few photographs of the camera with the rail system, where you can see how left/right shift will work:

Next step:

Drill the rear standard support (part with the two knobs in the pictures higher).

Conclusions:

1/ this was one of the most delicate but easiest steps so far. Easiest when you have the right tools, but these are hard to come by and even harder to let a machinist let you use his toys 🙂

2/ I found a solution to add rear swing (left/right tilt) by ordering a precise optical rotating stage for about $80 USD from China. I’ll give you the details in a later post if you are interested (please use the comment below if so). I’ll first work on a prototype that won’t have swing, see how it goes and then add the rotating stage.

Building a technical camera – Part III

Step Three of Building a technical camera: milling out part of the back element

Good news! I was able to modify the back element of the Fuji GX camera that I took apart some time ago (see here for details about taking this guy apart).

Did I mention this project is VERY exciting? Yes? Well, I’m even more excited, and using power tools is something I really enjoy.

And so I was really happy to use a milling machine (see picture higher; big fancy machine) in order to remove parts of the back element of the camera in order to make a nice platform I will use to fix a rail for left/right (pano) movement.

ATTENTION: I would like to stress out that you should not use power tools and machine aluminum (or any other material for that matter) yourself if you do not know how to use such tools. They are extremely dangerous if not used properly, and they can injure badly, or worse… So please be careful, and let the “pros” handle them 🙂

As a reminder, you’ll find below the picture of the camera “skeleton” showing with red arrows the parts of the back element that need to be removed (milled):

You will see in the next few photographs the part after milling. For those who are not familiar with machining, you can see where I removed metal because it looks all shiny / silver. As I mentioned before, I had to remove the posts for the screws entirely, as well as some of the front and back vertical stands to make a nice leveled platform.

Let me point out that the level must be as close to perfection as possible, if one want to ensure movement in the horizontal plane rather than having a left/right shifted image that will be higher or lower than the previously shot image.

Let’s do a comparison of before and after milling:

Next step:

Fix the rail system where you can see the nuts in the last two pictures. This rail will be used in order to shift the camera left and right in order to make panoramas. This is another very delicate step, as the rail needs to be perfectly parallel to the stands of the back element (that is perfectly perpendicular to the optical axis), unless it will introduce a change in the position of the sensor plane while shifting, therefore leading to unwanted blur in the final image.

Conclusions:

1/ I had lots of fun milling the back part of the Fuji camera. Making chips and machining using tools like a milling machine is incredibly fun, but you have to be very careful and need to know what you’re doing, so PLEASE don’t do it yourself if you have not been taught how to.

2/ Now that’s it, even if I wanted to go back and put the camera in it’s original state I could not. I am not overly concerned the project won’t work, but when you take one like this you have to keep in your mind you may waste a lot of money and time. But it’s a risk I’m willing to take because it’s fun, and also because the goals are well worth the risks 😉

3/ You have to plan well in advance about the next steps you’ll take, if only because you have to order parts which may come from China and take time to get there. I have to admit I am better advanced than I’m showing right now, and things are looking good for now.

Building a technical camera – Part II

Step Two of Building a technical camera: taking apart a GX680

For those of you who did not see my first post about it, you can find it here. In a few words, after many discussions with my photographer friend Satoru Murata, I decided to throw myself into a new project: building a technical camera that I can use to mount almost any lens on a Sony a7/II/R/S body, much like the Cambo Actus system, but on the cheap side.

Getting to it now. You will find higher and below a few pictures of the (very functional) Fuji GX6800 III I bought recently and took apart these last few days…

Scary, right? 🙂

Because it was the first time I took one apart, I actually ended up removing more parts than I should have, but I guess it does not matter too much since I’ll show you next that I basically milled (cut out with a power tool) entire parts of the camera (already done) and I’m now too committed to go back and put things back together.

To get to the bare minimum of the camera (front, back elements and railing, see the terrible phone picture below), all I needed to do was de-attach the bellows from the front and back elements, and mostly to unscrew and remove the camera body (back element) from the railing system.

The idea now is to keep the front standard as is, because it has all sorts of movements (tilt, shift, swing) for the lens. However, I want to modify (mill) the back element in order to remove the different parts with red arrows on the picture below: a couple of posts that were used to screw the body on and the front and rear metal parts on which it rested.

The goal is to create a platform on which I can fix a 2-way rail. This rail will eventually be used as a support for the camera board and it will allow for left/right shifting of the camera (great for shooting panos, blue arrows on the picture below).

I’m also thinking about adding swing to the back of the camera. The way I see it, it will require a precision rotating stage (similar to what can be found in science labs doing optics), but I’m having issues finding something cheap and precise enough. Ideally, it also has to be about 1 to 2 inches (~25-50mm) in diameter and I would like to have: a knob to rotate the stage, and one to lock in it place. It also needs to handle 3-4 pounds (~2kg) of weight. If you have suggestions, please fire away!

Conclusions of this part:

1/ Taking this guy apart was easy peasy, and probably the most straightforward part of the project. I can’t stress enough that I’m happy I’ll never have to put the Fuji back together. It seems now that I have multiple small parts all over my work table, and I have no clue where most of them would go 🙂

2/ Next part is using a milling machine to reduce some of the back element in order to create a nice resting platform. I’ll show you some pictures of this step, but if you are not familiar with how to work these machines, please don’t go ahead on your own repeating what I’ll do. You can get hurt. Badly. If not worse.

3/ If you are aware of where to acquire new or used (small 1 to 2” dia) rotating stages (with a precision adjustment knob and able to carry ~3-4 pounds), please shoot me a message. I am currently designing the next steps, and would love to get my hands on one. Worse case scenario, I’ll start with a prototype that does not have swing if I can’t find one.

4/ As usual, if you have questions or ideas, send them my way!

Till next time!

Building a technical camera – Part I

Fuji GX680 III basic body with rear and front elements and bellows. Missing lens, film back and viewfinder.

Step One of Building a technical camera

I have a new project: the ultimate DIY camera fun.

After much discussion with my buddy Satoru Murata, I decided to take on a project for the next few weeks. I will share with you some of the steps I will take into building a technical view camera… of sorts.

For those who are not familiar with such cameras, you can find a description here and a sketch below: http://en.wikipedia.org/wiki/View_camera

In a few words, this camera is made of a front board which holds a lens, and bellows that ensure the image coming from the lens goes without interference to a back element containing film or a digital sensor (there are also other types of capturing media but no need to go into such details here). What makes this type of camera special is the ability to move the front (and back) element in order to obtain large amounts of tilt and shift.

If you have been following me for a little while, you know that I use tilt and especially shift in my work, and sometimes using such special lenses in particular situations (for instance when you find yourself very close to the subject). For those who are into technicalities, another limitation of regular modern style T/S lenses is that movement happens at the front of the camera and not at the back. Back movement is however preferable because moving the front element changes the position of the image circle, and it usually is better to tilt (in particular) the rear element rather than the lens in order to avoid such changes in image circle position.

Now, you also now that I use Sony cameras for my work, as well as different sorts of lenses, ranging from modern and old Full Frame lenses to 30-ish years old Medium Format lenses (and I even also do Large Format film for fun). All these lenses are great, and MF provides a larger image circle, meaning that I can do larger movements than with FF lenses. Unfortunately, none of the adapters available on the market allow for full access to the MF lenses image circle, and some of them simply cannot be used, period (such as Mamiya RZ67). It is also impossible to use LF lenses on modern FF or MF dSLRs and backs.

So here is the idea: build a technical camera that will let me mount ANY (and I insist on ANY) lens (FF, MF, LF) on a modern digital FF mirrorless dSLR or MF back, and give TILT and SHIFT movement both at the front and back elements.

After some research online, I found that people can hack a Fuji GX680 body into doing something like this.

So I present you a new member in the family: a cheap (~$200 USD) Fuji GX680 III body which I will start stripping off its different elements in order to keep only the base body and moving elements.

Next steps to come, after I removed all the unnecessary parts! 🙂

On a different note, I’ll need to find this camera a name after it’s finished… let me know if you have suggestions! 🙂

Upcoming Long Exposure Workshop in Maine

Well, seems like it took me a little longer than expected to share it, but behold! 🙂

I am glad to announce that I will be mentoring a workshop with Satoru Murata in Maine March 28-29.
You will learn how to shoot and process unique and breathtaking long exposure seascape photography, and we will visit 5 of the most iconic lighthouses of the Portland and Rockland areas.
This workshop is supported by some of the major players in the industry: @Sony, Formatt-Hitech, SmugMug, Mirex and HCam.de, so be prepared for some surprises!

Places are limited to 8 in order to give you the best experience possible, and the first two to register will have a 10% discount.
Attendees are welcome to register to any or both days of the workshop.
Sunrise and sunset options are also available.

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So check out the details and program here:
http://www.thibaultroland.com/Workshops
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And don’t hesitate to get in touch if you have questions!

For examples of what subjects we will shoot, take a look at my series:
http://www.thibaultroland.com/Beacon-of-Hope

Please feel free to share, thanks!