After just over a year of work in spare time and for a dedicated period while at University, my short film is finally done!
Fancy shooting some stuff in space?
Thought I'd post this little game I worked on as the lead-and-only artist (and musician, thank you GarageBand) while at university with a couple of friends who did the programming. It's a simple twin-stick shooter in low poly style, with multiple levels! It's actually quite challenging (I only managed to complete it once!). Unfortunately, it's only available on Android devices, so those of you (including myself) with an Apple phone or something else entirely, I'm afraid you're gonna miss out.
I've (re)ventured into the world of Instagram, and will be posting a lot of renders, images from my upcoming film 'The Interstellar Medium', and most likely some other unrelated stuff there too. If you want to keep up to date with me, go find my over there on my handle: james.tf
So this probably should have been the first blog post in this series, seeing as it was the first thing that I did - however this model went through so many changes that it's only now at the end of creating the film I have something to show off!
The main focus of the film (as i'm sure you are aware if you've read my other posts) are the Pioneer Probes 10 & 11. Both probes are extremely similar, the only main difference being Pioneer 11 carried an extra instrument to measure the magnetic fields of Jupiter and Saturn, however for easy I created just Pioneer 11, as the difference was almost impossible to spot.
I found a number of technical drawings, and some pictures of individual instruments which really helped when it came to modeling. I was able to create everything to scale, which was ideal given I was rendering with Cinema 4D's Physical renderer (which is physically accurate!). Below are some of the reference images I used.
The first part of the probe that I modeled was the dish, and then piece by piece positioned other devices, connecting supports, wires, nuts, bolts and sensors to the dish, trying to keep as close to the drawings and pictures as I could.
Below are a number of images featuring key groups of models for the probe. I modeled at reasonably high poly count due to using a high detailed sub-poly displacement material for a lot of the surfaces. I went into a large degree of detail as I was unsure how close I would be getting to the probe for some of the shots, so things like screws and bolts were modelled for many parts of the probe. Because the bus (main body) of the probe is covered in a golden foil, I put everything into a subdivision surface to smooth out any edges - also adding more polygons in certain high detail areas would cause the foil material to appear more creased, adding another level of realism.
Below is an example of the golden foil material - 3 total versions of this material were made with different subdivision levels according to the geometry the material was being applied to - higher poly areas didn't always need as much sub-poly subdivision. The second image is a screenshot of each of the materials used for the project.
I revisited the model multiple times throughout the project, and made some pretty major changes, adding in more detail and working on look dev for hours getting the foil texture right. In the end, the total number of objects created for the model was 804, and a total of roughly 1 million polygons, which still ran relatively smoothly for playback. Having everything organised meant I could easily turn certain objects on and off to speed up my workflow - and most importantly it made each object very easy to find!
And lastly, the final model rendered out! There'll be plenty of shots to see it in the final film once it's released - which will be very soon now! Thanks for reading.
Saturn is a cool planet. It has rings, over 60 moons and is made of gasses - this always amazed me from even a young age - I remember reading 'The Magic School Bus Explores the Solar System' and then playing the computer game on my fathers computer. The rings in particular really captivated me... But we're getting a little off topic here, lets get a little more into the shot itself.
But just before we do that, this shot is actually somewhat accurate to how astrophysicists believe the rings may look. The shot takes place at the innermost 'D' ring of Saturn, which is the least dense ring.
So, this shot was to set the scene of Saturn, the next shot was fairly static so some movement here was necessary, so the rings felt like a good way to achieve this. The rings were made of many standard geometric shapes (cubes, spheres, pyramids) which were randomised in scale and vertex position, and then displaced via a displacement texture. These objects were then cloned, randomised, and had dynamics applied to them. This cause a lot of playback issues, but by separating each set of rocks (of which there were 10) into separate scene-files, I was able to work efficiently and get near real-time playback. I also rendered them seperately with depth passes as this left me more flexibility in post. Here is the C4D scene with all the ring ice (yes, they're made of ice, not rocks!) merged into one file.
The below image shows the ring texture (which was an alpha material) being used to create the shadow on Saturn's surface and atmpsphere.
In post I had to do a little masking and re-positioning of layers, and then added in a light near the top to highlight Pioneer's location. Click the image above for a more detailed view!
And there you have it! The full sequence will be available for viewing once the film is release. Thanks for reading!
I've done a lot of typing, and you've done a lot of reading - so here is a video of me sculpting an asteroid in Mudbox and doing some test compositing in After Effects, all to some repetitive music. This was part of my research into sculpting asteroid, and I ended up making 6/7 other asteroids for the final shot, however only 4 were used in the end.
Okay, so there is a little more reading... The final shot as two of the asteroids impacting each oth- yes, I KNOW that asteroids in the Asteroid Belt aren't this close together (by a good 600,000 miles), it would have been a damned miracle if anything made it through the belt given it is around 1 AU wide. But rocks smashing into each other is pretty cool, so lets throw astrophysics out of the window for this one (again). Okay back to the more technical aspects - multiple impact rocks were made in C4D which consisted of mostly very low poly spheres which were then displaced further. I used a number of standard Cinema 4D emitters to sling rocks out from the impact zone in all directions, but with a slight emphases on the direction the asteroids are moving.
Pioneer just survives the impact and glides past the chaos, and using lens effects to emulate sunlight glinting off Pioneers golden foil, I was able to draw the viewers eye from the impact, to Pioneer, and back to the impact. Below is the compositing file, however I wont go into any detail here as it was a fairly straightforward colour correct job other than the flare keyframing and depth passes.
I was aiming for a look similar to the images taken by the Rosetta probe, in terms of visual style, and think the goal was met! Finally, the bit everyone has been waiting for, the final image; and as always, the full sequence will be available for viewing once the film is finished! Thanks for reading.
Nebulae. Great word. This was by far the most challenging shot as fluid dynamics were something I was not that experienced with - specifically Turbulence FD (I had some previous experience with Maya's Fluid Effects). This shot was originally intended to be a matte painting, however I wanted to create something new instead of an already existing nebula, so instead opted for fluid effects. Not only was generating the Nebula a challenge, but compositing the shot was too difficult.
Now, before we get started, I am fully aware that if you were this close/inside a nebula you would not be able to see that you were inside one - but that's no fun, and I can change that with a computer! Alright, lets have a look at how this was done.
Above are the Cinema 4D scene files - in the top one you can see some of the settings I used. One of the most important settings for generating a nebula like simulation was the density dissipation. This meant the fluid would stay in dense clumps throughout the sim in certain areas based on a noise map that the fluid was emitted from. By using one light with soft shadows to save on render times, i was able to set it up in such a location that dark shadows would appear in the densest areas, emulating the effects seen in many emission nebulae, but more commonly in dark nebulae.
After colouring the nebula with a gradient in the density render settings, I was able to pick out dense areas and colour them differently, specifically darker alluding to their density. These image sequences were then sent into After Effects for post.
Both compositions had many adjustment layers and effects applied to them to tie the whole image together (The 'shy' button is your best friend in compositions like this!). For both compositions I rendered out a noise layer which was applied to a plane positioned within the nebula in 3D space. This plane was then screened onto the composition below and had its opacity reduced. This created the wispy plumes of dust/smoke seen around nebula - they rarely suddenly fall off straight into space - nor is the space directly behind them always pure black. To create a contrast from the rest of the film which features quite a similar colour palette, I wanted the film to go out with a super colourful image to surprise the audience. I was aiming for a similar effect with the close ups of the stars seen previously in the film a this point. (Remember to click the images above for a more detailed view!).
Above are two screenshots from the finished shot, and as usual, the final version will be available for viewing once the film is finished, and these images are subject to change!
Aldebaran is a giant orange star in the constellation of Taurus. Pioneer 10 is on a trajectory in the general direction of this star, so it earned a place in my film. I already had one shot of a star in the film, so I needed to make this one particularly stand out.
I decided to create another close up shot, however this time using a particle system to generate huge solar flares across the surface, with Pioneer racing around the star (at a not so safe distance). Despite the clear scientific inaccuracies, I wanted something dramatic, and nothing is quite as dramatic as fireballs exploding from a gigantic orange star.
The particle simulations were done with X-Particles, you can see my set up below:
I set up multiple emissions, one major flare arcing away from the surface, and a few other more subtle ones inside the Star. Using particle groups, I was able to separate each flare and create varied dynamics for each one.
Below, you can see the procedural shader I set up - this consisted of various noise shaders animated in varied ways to get an interesting pattern across the Star's surface. I rendered this as a greyscale image and colourised it in After Effects. Each noise layer from the shader was rendered out individually, as well as a layer which was painted in bodypaint to mask areas where the particle flow was emitted from the Star.
The Pioneer model was also rendered out, and then composited in After Effects. You can see my After Effects scene file below:
Quite a difference right? As you can see I used many adjustment layers, which I can cover more extensively if there is any interest, but they mostly consist of various glow effects, lots of masking, blurs, lots of colour correction and finally distortions.
And, as always, the animated version will be available for viewing once the film is released, for now, here is a screenshot of the composited shot!
Mars was one of the more challenging shots to complete given my time restraints. This shot is particularly unique as it is on the surface of a planet, rather than looking at an object from a distance, whether that be the Pioneer probes which the film revolves around or a planet. Not only was I pressed for time when it came to creating the visual effects, but I was pressed for time when it came to rendering too. This was one of the main issues with this shot, given most of the screen is filled with things that need to be rendered unlike many of the other shots which have matte backgrounds. Through separating everything into separate render passes and rendering those passes individually, as well as lots of tweaking of GI settings, I managed to get my render times a lot more workable (from 50 minutes a frame to around 7-12).
Enough about the rendering though, let's take a look at how I achieved some of the effects. The easiest part to do was the foreground rocks. For these, I used Quixel's Megascans, as it was a fast, relatively inexpensive to create a foreground effect without having to create complex models and find textures myself.
The mid-ground wasn't as straight forward though. After initial research, I downloaded some high resolution images from the HiRise sensor on NASA's Mars Reconnaissance Orbiter. The high resolution images are unfortunately in black and white, so using Photoshop, I recoloured them using other photos from the HiRise orbiter that were in colour as reference when painting in details. The black and white image was then brought into B2M to extract height information for use as a displacement map.
The maps were then loaded into a Cinema 4D material and by tweaking displacement settings I was able to achieve the desired effect.
The animated version will be available for viewing once the film is released, for now, here is a screenshot of the composited shot!
One of the first shots I've worked on for this film was one that featured a black hole. After seeing Interstellar's 'Gargantua', I was inspired to create something similar, given the scientific accuracy of Interstellar's black hole.
I worked for a couple of days experimenting with various methods of creating a black hole, my first attempts were in After Effects - hoping to achieve something with various warp and distort effects. The result wasn't convincing, so I moved to Cinema 4D and started experimenting there instead.
I came across a viable method which involved setting up a torus object to take the place of the gravitational lens. Adding a transparent and refractive material to the torus allowed the stars behind to distort through the mesh, and zip around the outside of it. A pure black sphere was placed in the centre to act as the black hole, and then a disk was placed intersecting these two objects, which was animated to rotate. The disk had a texture map applied to it that I built inside Photoshop. Below, you can see an un-textured, and a textured version of the black hole.
A background of stars was loaded into a sky object, and I also composited a separate layer of stars directly behind the black hole to exaggerate the stars movement. The one hindrance that using this effect yielded is that the effect of the stars moving is only controllable based on the cameras position in relation to the torus (which is actually accurate, albeit not that flexible). I came up with a method to keep the distortion the same as the camera moved by having the torus constantly target the camera. This kept the facing of the torus constant, in turn keeping the level of distortion constant.
The animated version will be available for viewing once the film is released, for now, here is a screenshot of the composited shot!