Hey people,
I've been around for some time now and if you recall me by name, you might remember me with some SFF case design ideas here and at [H] forum. I've had some very mainstream ideas as well as quite unconventional ones (at the time, that is). One of those unconventional ideas that didn't gather much attention then now finds itself being implemented by a very talented and successful designer these days... What I'm trying to get to is that SFF is evolving rapidly and an unconventional idea now will likely be in a product sooner than you think. Something to consider for everyone; those with the ideas, and those who are at the criticizing end...
This brings me to the realization that although I've had some great case ideas (most not shared), I've never attempted to see them through. Not due to laziness, mind you. I'm hard pressed with work, family and very limited financial resources, and I know that nothing less than full commitment can make an initiative successful, and I know that failure had huge stakes on my part. That is why I never could get myself to step into it.
That said, I observe that as the SFF became more mainstream in recent years, the manufacturing interests and capabilities also grew immensely. There are exponentially more small-scale names with awesome end products.
So, now I have this idea on not one but two cases (same concept, same design language, two sizes) that I've started working on, and I'd like to try and make it happen. However, I have some roadblocks on which I need input:
Now on to the concept: While it's not completely outlandish, AFAIK it was never done before.
More on 10lt version:
More on 7lt version:
I believe three facts with this concept might cause friction, so I'd like to comment on those:
Like I said above, I am looking forward to getting any and all input and guidance, as well as other thoughts on successfully seeing this project through, and on the case design as usual. Please keep it coming through comments on the thread or through PM...
Many thanks in advance!
I've been around for some time now and if you recall me by name, you might remember me with some SFF case design ideas here and at [H] forum. I've had some very mainstream ideas as well as quite unconventional ones (at the time, that is). One of those unconventional ideas that didn't gather much attention then now finds itself being implemented by a very talented and successful designer these days... What I'm trying to get to is that SFF is evolving rapidly and an unconventional idea now will likely be in a product sooner than you think. Something to consider for everyone; those with the ideas, and those who are at the criticizing end...
This brings me to the realization that although I've had some great case ideas (most not shared), I've never attempted to see them through. Not due to laziness, mind you. I'm hard pressed with work, family and very limited financial resources, and I know that nothing less than full commitment can make an initiative successful, and I know that failure had huge stakes on my part. That is why I never could get myself to step into it.
That said, I observe that as the SFF became more mainstream in recent years, the manufacturing interests and capabilities also grew immensely. There are exponentially more small-scale names with awesome end products.
So, now I have this idea on not one but two cases (same concept, same design language, two sizes) that I've started working on, and I'd like to try and make it happen. However, I have some roadblocks on which I need input:
- To begin with, I still don't have substantial financial resources. So, I need some input on the cost of bringing a new case or two to life, and getting at least a batch production going.
- Closely related, I do not have access to a reliable and good quality manufacturing capability in the country where I live. After living most of my life in the US, I am now in Turkey. Awesome country, great people, sensitive politics and economy, and unfortunately pretty much zero know-how on PC case manufacturing. So, I'd like to get the manufacturing done elsewhere, and I need input on where it could be, or who (possibly among the household SFFN names) could/would do it.
Now on to the concept: While it's not completely outlandish, AFAIK it was never done before.
- Form-factor is mini ITX slim tower with minimal foot print as possible. As little visible perforations as possible, and no windows.
- The concept relies on liquid cooling for CPU and also preferably for GPU.
- Two sizes: 10lt and 7lt
More on 10lt version:
- Cooling: Up to TWO 240mm radiators, both with thin 120mm fans on them. Max fan+rad thickness support is 46mm (max recommended is 43mm). Max radiator length is ~280mm. Both AIO or custom liquid cooling setups are to be supported.
- Cooling: Waterblock height limit is ~33mm when both CPU and GPU are liquid cooled.
- Power: SFX or FlexATX or internal bricks (up to two HDPlex-size units) are supported.
- Cooling/Power/GPU: FlexATX PSU (or a single internal brick) is supported with long GPUs (up to ~300mm PCB length) that are dual-slot (founder's edition type, stock fan left intact).
- Cooling/Power/GPU: SFX PSU (or two internal bricks) is supported with long GPUs (up to ~300mm PCB length) only when the GPU is reduced to single-slot width (stripping off all stock cooling).
- Cooling/Power/GPU: Custom loops with internal pump-res units (max 70x70mm cross section) are supported with FlexATX (or a single internal brick) and short GPUs (up to ~190mm PCB length).
- Cooling/Drives: Two 80x15mm fans (OR two 7mm 2.5" drives) are supported at the bottom along with two other 7mm 2.5" drives (up to four 7mm 2.5" drives).
- Cooling/Power/GPU/Drives: Two 80x15mm fans at the bottom AND four 7mm 2.5" drives (two on the bottom, two vertical) are supported with FlexATX (or a single internal brick) along with GPUs with PCB length up to ~280mm.
- Cooling/GPU/Drives: If the GPU is not liquid cooled, up to two 3.5" drives are supported. In this case, the supported rad+fan thickness for the CPU increases to 63mm (supporting push-pull with thin fans).
- Material/construction: 2mm aluminum construction with 1.5mm aluminum cover and brackets. Three main parts, disregarding the small brackets: two structural parts and a U-shaped cover. Main body is single-piece, which ensures rigidity while saving space. Second structural component is the radiator bracket.
- The U-shaped cover is currently intended to screw on from both sides using a total of 8 screws. I will look into using another mechanism (push-pins?) and eliminate all screws.
- Dimensions: 322 (height) x 311 (front-to-back depth) x 100 (side-to-side width) = 10 lt
- Pictured below is the Sketchup draft that sufficiently depicts the main points. I am currently working on a detailed model using Solidworks.
More on 7lt version:
- Cooling: Up to TWO 120mm radiators both with thin 120mm fans on them. Max fan+rad thickness support is 46mm. Max radiator length is ~175mm (virtually all are supported). Custom liquid setups are not supported internally, but a pump+res combo can be installed on the outside (although I haven't fully worked that usecase out).
- Cooling: Waterblock height limit is ~33mm when both CPU and GPU are liquid cooled.
- Power: FlexATX or a single internal brick is supported at the bottom.
- GPU: Up to ~190mm PCB length dual-slot GPUs are supported.
- Cooling/Drives: Two 7mm SSDs are supported (vertically, on the front) along with radiators up to ~160mm length (virtually all).
- GPU/Drives: Two more 7mm SSDs are supported on the front along with GPUs up to ~175mm PCB length.
- Cooling/GPU/Drives: If the GPU is not liquid cooled, a single 3.5" drive is supported. In this case, the supported rad+fan thickness for the CPU increases to 63mm (supporting push-pull with thin fans).
- Material/construction: 2mm aluminum construction with 1.5mm aluminum cover and brackets. Three main parts, disregarding the small brackets: two structural parts and a U-shaped cover. Main body is single-piece, which ensures rigidity while saving space. Second structural component is the radiator bracket.
- The U-shaped cover is currently intended to screw on from both sides using a total of 8 screws. I will look into using another mechanism (push-pins?) and eliminate all screws.
- Dimensions: 348 (height) x 201 (front-to-back depth) x 100 (side-to-side width) = 7 lt
I believe three facts with this concept might cause friction, so I'd like to comment on those:
- Reliance on liquid cooling. This is why this concept would never see the light of day couple of years ago. However, AIO liquid cooling became increasingly common, and pretty much mainstream these days. Plus, I don't think anyone can argue against the cooling chops of two 240mm radiators compared to anything else you can fit in 10lt (or two 120mm radiators in 7lt).
- Inclination towards FlexATX (in case of the 7lt version, it is rather "reliance on FlexATX"): FlexATX now is what SFX was 3 years ago. You see the trend? Better FlexATX units are bound to come as demand for "smaller" keeps rising, and as PSU technology keeps improving, and as power efficiency of PC components keep improving. More and more FlexATX units are being introduced every year at CompuTeX etc... So, believe me when I say, FlexATX is the tomorrow of mainstream SFF, and it will come sooner than you think.
Note: SFX PSU is supported just fine by the 10lt version (read details above). I currently intend to support the truly SFF power solutions with internal bricks, but if the usecases will be too narrow (especially in the 10lt version), I might not pursue that.
- Using two radiators "like that": No discussion about it, using two radiators independently from each other would give better thermal results. However, there are best and worst application scenarios on this matter. Namely, 1) it is easily verified that the GPU will dump far greater heat to the radiator than a CPU, so arranging the CPU side as the intake and GPU side as the exhaust will give far better thermal results than the other arrangement, and by experience (mine and many others') I can confirm that the delta compared to "independent radiators" is very little, 2) Using two sets of fans instead of a single set of fans (sandwiched) will give significantly better thermal results. Hence, the arrangement in the picture above...
FURTHERMORE, this case allows for both radiators to exhaust, creating a negative pressure in the case, in which case there is no heat transfer between the radiators. As soon as I get my hands on a prototype, I will test for multiple scenarios and I suspect that the negative pressure setting will give the best thermal results.
Like I said above, I am looking forward to getting any and all input and guidance, as well as other thoughts on successfully seeing this project through, and on the case design as usual. Please keep it coming through comments on the thread or through PM...
Many thanks in advance!