Realm of Possible
Designs by lukas.suess
We found 45 products by lukas.suess
by
lukas.suess
This ring has eight ternary crosses dirtributed aroud it's perimeter. As they go around these crosses make one full turn around themselves.
I suggest ordering it in Strong White and Felxible and painting it with nail varnish in a metallic color. This will give it a nice look (see picture).
This was my first object designed in openSCAD.
I suggest ordering it in Strong White and Felxible and painting it with nail varnish in a metallic color. This will give it a nice look (see picture).
This was my first object designed in openSCAD.
by
lukas.suess
A piece of jewelery wit a futuristic look.
It is based on the koch curve.
The hexagons are 25mm edge to edge.
It is based on the koch curve.
The hexagons are 25mm edge to edge.
by
lukas.suess
This is a casting box intended for the creation of pendants for necklaces.
If you have something beautiful and maybe fragile that you want to show off
then you can use this form to embed it in clear resin.
usable: length x width x hight = 5.6 x 3.2 x 2.0 ccm
total: length x width x hight = 7.6 x 3.2 x 2.1 ccm
The rod has a diameter of 7mm and is located 1cm from the top.
First cover the inner surface of the box and the rod thoroughly with releasing agent.
Put the rod through the holes.
Recheck that the surfaces are flat and and edges are sharp.
Embed your object with resin as the manual says (resin is not included!)
Finally demold grind and polish it.
If you have something beautiful and maybe fragile that you want to show off
then you can use this form to embed it in clear resin.
usable: length x width x hight = 5.6 x 3.2 x 2.0 ccm
total: length x width x hight = 7.6 x 3.2 x 2.1 ccm
The rod has a diameter of 7mm and is located 1cm from the top.
First cover the inner surface of the box and the rod thoroughly with releasing agent.
Put the rod through the holes.
Recheck that the surfaces are flat and and edges are sharp.
Embed your object with resin as the manual says (resin is not included!)
Finally demold grind and polish it.
by
lukas.suess
With these tiles the rhombic Penrose Tiles can be freely intermixed with the Kite&Dart Penrose Tiles.
by
lukas.suess
These are compatible to the rhombic penrose tile set.
http://www.shapeways.com/model/132549/penrose_tiles___13_skinny_rhombs___part_1_of_2.html?gid=ug32142
http://www.shapeways.com/model/132549/penrose_tiles___13_skinny_rhombs___part_1_of_2.html?gid=ug32142
by
lukas.suess
This is a plate with the Haskell sign designed to be worn on the body.
If you don't know the programming language Haskell you can take a look here:
http://www.haskell.org/
It's slightly arced shape makes it optimal as the mainpiece of a headband or a wristband.
It's size is roughly 38x18mm.
The holes are 3mm in diameter so that a leather strap can be feed through.
There is also a version with slits instead of holes aviable on my shop.
If you don't know the programming language Haskell you can take a look here:
http://www.haskell.org/
It's slightly arced shape makes it optimal as the mainpiece of a headband or a wristband.
It's size is roughly 38x18mm.
The holes are 3mm in diameter so that a leather strap can be feed through.
There is also a version with slits instead of holes aviable on my shop.
by
lukas.suess
Background information:
http://en.wikipedia.org/wiki/Penrose_tiles
You need the 21 fat rhombs too (preferably in an other color) to have a complete set. The tiles are 2mm thick and their edges have a length of 20mm.
The connecting rod is intended to be cut off.
ONLY TESTPRINTED IN THE STRONG&FLEXIBLE MATERIAL
http://en.wikipedia.org/wiki/Penrose_tiles
You need the 21 fat rhombs too (preferably in an other color) to have a complete set. The tiles are 2mm thick and their edges have a length of 20mm.
The connecting rod is intended to be cut off.
ONLY TESTPRINTED IN THE STRONG&FLEXIBLE MATERIAL
by
lukas.suess
Decorative part, which may be used as sunchime.
If you turn it, from three directions you can see through and an interesting pattern emerges.
It is 60mm long.
The connecting parts are square and 1x1mm thin, therefore the material restrictions.
If you turn it, from three directions you can see through and an interesting pattern emerges.
It is 60mm long.
The connecting parts are square and 1x1mm thin, therefore the material restrictions.
by
lukas.suess
Background information:
http://en.wikipedia.org/wiki/Penrose_tiles
You need the 13 skinny rhombs too (preferably in an other color) to have a complete set. The tiles are 2mm thick and their edges have a length of 20mm.
The connecting rod is inteded to be cut off.
Results of my testprint in "Strong White and Flexible":
It comes as a wobbly snake and it takes one only five minutes to loosen the parts from the connecting rod.
still wating for the skinny rods
http://en.wikipedia.org/wiki/Penrose_tiles
You need the 13 skinny rhombs too (preferably in an other color) to have a complete set. The tiles are 2mm thick and their edges have a length of 20mm.
The connecting rod is inteded to be cut off.
Results of my testprint in "Strong White and Flexible":
It comes as a wobbly snake and it takes one only five minutes to loosen the parts from the connecting rod.
still wating for the skinny rods
by
lukas.suess
A very simple recursive structure.
It may be usable for table settings, or whatever you can think of.
It is 120mm long and the bars are 1x5mm thick.
It was gernerated with two self- and mutual recursive functions.
the longest bar conects the "infinite many" disconnected parts of it's natural form.
It may be usable for table settings, or whatever you can think of.
It is 120mm long and the bars are 1x5mm thick.
It was gernerated with two self- and mutual recursive functions.
the longest bar conects the "infinite many" disconnected parts of it's natural form.
by
lukas.suess
This part can be screwed in the small square holes of 7-league boots (7 Meilen Stiefel) with a single M5 screw (hexagon head).
With it you are able to mount a lightmod, a bottleholder or something else onto your Stilts.
I suggest buying two of them per stilt in the sturdy white or dyed Strong & Flexible material.
With it you are able to mount a lightmod, a bottleholder or something else onto your Stilts.
I suggest buying two of them per stilt in the sturdy white or dyed Strong & Flexible material.
by
lukas.suess
A rodlogic gate as featured in
Drexler, K.E. Nanosystems: Molecular Machinery, Manufacturing, and Computation.
New York: John Wiley & Sons (1992). (Chapter 12)
http://e-drexler.com/d/06/00/Nanosystems/toc.html
Mainly usable for demonstration purposes of logic gates.
The nobs on the lower side should be compatible with lego-technic.
The basis cubic grid size is 3mm.
It's untested, so ordering is blocked for now.
Drexler, K.E. Nanosystems: Molecular Machinery, Manufacturing, and Computation.
New York: John Wiley & Sons (1992). (Chapter 12)
http://e-drexler.com/d/06/00/Nanosystems/toc.html
Mainly usable for demonstration purposes of logic gates.
The nobs on the lower side should be compatible with lego-technic.
The basis cubic grid size is 3mm.
It's untested, so ordering is blocked for now.
by
lukas.suess
Pair of mirrored earrings.
Also usable as keychain pendants.
pendant-hole: 2.5mm diameter;
square bars: 3mm width;
designed with OpenSCAD
Very sturdy!
Also usable as keychain pendants.
pendant-hole: 2.5mm diameter;
square bars: 3mm width;
designed with OpenSCAD
Very sturdy!
by
lukas.suess
Clearance testing part for different "crystallographic" orientations.
Meant for Strong White & Flexible!
/*
(markings: X-axis: one carve; Y-axis two carves; Z-axis three carves)
clearance = 0.1mm*c___
The small part has the different inner diameters.
The big 7-legged part has overall outer diameters of 3mm.
This is the list of the clearings for the different crystallographic directions:
*/
c100 = sqrt(3); // calculated
cx01 = c100; // 10x=x01
c11x = c100; // 11x=xx1
c010 = 0.2; // recommended
cx10 = c010; // x10=1x0
cx11 = c010; // x11=1xx
c001 = 2.25; // a little bigger
c0x1 = c001; // 0x1=01x
c1x1 = c001; // 1x1=x1x
//remaining clearance tests in only one orientation [110] or [111]:
c110 = 1;
c101 = sqrt(2); // 1.414..
c011 = 2.5;
c111 = 0.5; // powder clearing
http://en.wikipedia.org/wiki/Miller_indices
Please ask if something's unclear.
Meant for Strong White & Flexible!
/*
(markings: X-axis: one carve; Y-axis two carves; Z-axis three carves)
clearance = 0.1mm*c___
The small part has the different inner diameters.
The big 7-legged part has overall outer diameters of 3mm.
This is the list of the clearings for the different crystallographic directions:
*/
c100 = sqrt(3); // calculated
cx01 = c100; // 10x=x01
c11x = c100; // 11x=xx1
c010 = 0.2; // recommended
cx10 = c010; // x10=1x0
cx11 = c010; // x11=1xx
c001 = 2.25; // a little bigger
c0x1 = c001; // 0x1=01x
c1x1 = c001; // 1x1=x1x
//remaining clearance tests in only one orientation [110] or [111]:
c110 = 1;
c101 = sqrt(2); // 1.414..
c011 = 2.5;
c111 = 0.5; // powder clearing
http://en.wikipedia.org/wiki/Miller_indices
Please ask if something's unclear.
by
lukas.suess
One fat and one skinny Penrose-Tile.
They have holes inside the grasping knobs, so that they can be put on a thread.
If you want a set by those two in different colors:
http://www.shapeways.com/model/132549/penrose_tiles___13_skinny_rhombs.html
http://www.shapeways.com/model/132547/penrose_tiles___21_fat_rhombs.html
They have holes inside the grasping knobs, so that they can be put on a thread.
If you want a set by those two in different colors:
http://www.shapeways.com/model/132549/penrose_tiles___13_skinny_rhombs.html
http://www.shapeways.com/model/132547/penrose_tiles___21_fat_rhombs.html
by
lukas.suess
Scaled up version of Crossfractal-3D 60mm for printing in alumide.
This one is 90mm long.
I'am sorry.
Though it abides the minimum wallthickness for alumide (1.5mm)
Shapeways still won't print it because of it's aspect ratios.
So I have to deacivate the alumide option. :(
Maybe painting a White Strong & Flexible print is an acceptable solution.
In Strong & Flexible also the smaller and cheaper 60mm version of it is definitly printable.
I know because I got a testprint.
This one is 90mm long.
I'am sorry.
Though it abides the minimum wallthickness for alumide (1.5mm)
Shapeways still won't print it because of it's aspect ratios.
So I have to deacivate the alumide option. :(
Maybe painting a White Strong & Flexible print is an acceptable solution.
In Strong & Flexible also the smaller and cheaper 60mm version of it is definitly printable.
I know because I got a testprint.
by
lukas.suess
This is a four hole English pendant style ocarina.
There is a NEWER VERSION:
http://www.shapeways.com/model/149924/microocarina_four_hole.html
It was originally designed for printing in (unglazed) glass, considering its higher stiffness.
But it turned out that glass has too much of an uneven shrinkage to work properly.
The hole diameters where originally calculated for a tuning in F6 major.
The range is a full octave.
There is a NEWER VERSION:
http://www.shapeways.com/model/149924/microocarina_four_hole.html
It was originally designed for printing in (unglazed) glass, considering its higher stiffness.
But it turned out that glass has too much of an uneven shrinkage to work properly.
The hole diameters where originally calculated for a tuning in F6 major.
The range is a full octave.
by
lukas.suess
This is a replacement hull for the scientific pocket calculator TI-30Xa (solar or battery).
The endorsements depict the a bit of the interesting planegroup p31m.
This model will become aviable for sale as soon as I ordered and tested it for functionality.
The walls are 2mm thick.
The endorsements depict the a bit of the interesting planegroup p31m.
This model will become aviable for sale as soon as I ordered and tested it for functionality.
The walls are 2mm thick.
by
lukas.suess
This is a plate with the Haskell sign designed to be worn on the body.
If you don't know the programming language Haskell you can take a look here:
http://www.haskell.org/
It's slightly arced shape makes it optimal as the mainpiece of a headband or a wristband.
It's size is roughly 38x18mm.
The slits are 3mm in wide so that a leather strap can be feed through.
There is also a version with holes instead of slits aviable in my shop.
If you don't know the programming language Haskell you can take a look here:
http://www.haskell.org/
It's slightly arced shape makes it optimal as the mainpiece of a headband or a wristband.
It's size is roughly 38x18mm.
The slits are 3mm in wide so that a leather strap can be feed through.
There is also a version with holes instead of slits aviable in my shop.
by
lukas.suess
Use it as fey-fob, necklace pendant, erarring, or whatever you can think of.
by
lukas.suess
This two lightweight skeleton grids can hold twelve CCFLs (cold-cathod-fluorescent-lamps) in place.
Eight on the upper layer (in my case UV) and four on the lower layer (in my case white).
The CCFLs to use are the ones for case modding
with 1.5cm sidelength plexiglass cubes at the ends (I used Revoltec).
Once it's acomplished to get them all in their pockets at the same time
which can be quite tricky they are hold in place very thightly.
by
lukas.suess
This is a four hole English pendant style ocarina.
It's tuned in G6 major.
The range is a full octave from G6 to G7.
A Fingering table is included in the images above.
The highest notes are pretty loud.
The lowest are modest; blow in very gently for them!
Keep it dry and don't enclose it airtight!
Only the White Strong & Flexible material was tested yet.
This material works really fine.
Its paintable too.
It's tuned in G6 major.
The range is a full octave from G6 to G7.
A Fingering table is included in the images above.
The highest notes are pretty loud.
The lowest are modest; blow in very gently for them!
Keep it dry and don't enclose it airtight!
Only the White Strong & Flexible material was tested yet.
This material works really fine.
Its paintable too.
by
lukas.suess
Easy readable binary encoded highly symmetric die.
(designd for sandstone printing, not tested yet)
This die was designed so that the value representing markings
preserves all the symmetries of the cube-faces
namely one fourfold rotation axis
and four mirror planes per face.
The markings are encoded in binary.
But you don't need to know that to read it!!
Due to the quadruplication and overlapping
of the marks the die is easy and naturally to read for everyone.
Just count all pluses of the whole face and the minuses of only one edge and add them.
If you want to read it in binary and fully understand the system
here is how it works:
You read three bars from the center of one edge.
The bar in the center of one edge counts one (it overlaps exactly with its mirror image).
The bar between the edges center and edges corner counts two.
The bar near the corner counts four (it forms a plus by overlapping with its mirror image).
(designd for sandstone printing, not tested yet)
This die was designed so that the value representing markings
preserves all the symmetries of the cube-faces
namely one fourfold rotation axis
and four mirror planes per face.
The markings are encoded in binary.
But you don't need to know that to read it!!
Due to the quadruplication and overlapping
of the marks the die is easy and naturally to read for everyone.
Just count all pluses of the whole face and the minuses of only one edge and add them.
If you want to read it in binary and fully understand the system
here is how it works:
You read three bars from the center of one edge.
The bar in the center of one edge counts one (it overlaps exactly with its mirror image).
The bar between the edges center and edges corner counts two.
The bar near the corner counts four (it forms a plus by overlapping with its mirror image).
by
lukas.suess
Easy readable binary encoded highly symmetric die (small version).
Optimal for printing in sandstone.
Still good for the detail materials.
In steel or glass the fine details might not come out very readable.
This die was designed so that the value representing markings
preserves all the symmetries of the cube-faces
namely one fourfold rotation axis
and four mirror planes per face.
The markings are encoded in binary.
But you don't need to know that to read it!!
Due to the quadruplication and overlapping
of the marks the die is easy and naturally to read for everyone.
Just count all pluses of the whole face and the minuses of only one edge and add them.
If you want to read it in binary and fully understand the system
here is how it works:
You read three bars from the center of one edge.
The bar in the center of one edge counts one (it overlaps exactly with its mirror image).
The bar between the edges center and edges corner counts two.
The bar near the corner counts four (it forms a plus by overlapping with its mirror image).
Optimal for printing in sandstone.
Still good for the detail materials.
In steel or glass the fine details might not come out very readable.
This die was designed so that the value representing markings
preserves all the symmetries of the cube-faces
namely one fourfold rotation axis
and four mirror planes per face.
The markings are encoded in binary.
But you don't need to know that to read it!!
Due to the quadruplication and overlapping
of the marks the die is easy and naturally to read for everyone.
Just count all pluses of the whole face and the minuses of only one edge and add them.
If you want to read it in binary and fully understand the system
here is how it works:
You read three bars from the center of one edge.
The bar in the center of one edge counts one (it overlaps exactly with its mirror image).
The bar between the edges center and edges corner counts two.
The bar near the corner counts four (it forms a plus by overlapping with its mirror image).
by
lukas.suess
Easy readable binary encoded highly symmetric die.
(designd for glass printing, not tested yet)
This die was designed so that the value representing markings
preserves all the symmetries of the cube-faces
namely one fourfold rotation axis
and four mirror planes per face.
The markings are encoded in binary.
But you don't need to know that to read it!!
Due to the quadruplication and overlapping
of the marks the die is easy and naturally to read for everyone.
Just count all pluses of the whole face and the minuses of only one edge and add them.
If you want to read it in binary and fully understand the system
here is how it works:
You read three bars from the center of one edge.
The bar in the center of one edge counts one (it overlaps exactly with its mirror image).
The bar between the edges center and edges corner counts two.
The bar near the corner counts four (it forms a plus by overlapping with its mirror image).
(designd for glass printing, not tested yet)
This die was designed so that the value representing markings
preserves all the symmetries of the cube-faces
namely one fourfold rotation axis
and four mirror planes per face.
The markings are encoded in binary.
But you don't need to know that to read it!!
Due to the quadruplication and overlapping
of the marks the die is easy and naturally to read for everyone.
Just count all pluses of the whole face and the minuses of only one edge and add them.
If you want to read it in binary and fully understand the system
here is how it works:
You read three bars from the center of one edge.
The bar in the center of one edge counts one (it overlaps exactly with its mirror image).
The bar between the edges center and edges corner counts two.
The bar near the corner counts four (it forms a plus by overlapping with its mirror image).
by
lukas.suess
This is the Broad Thorn Pendant.
(The ten necessary gemstones are not included.
You can get them for example from this unaffiliated shop: nahoppla-shop.)
It has two grommets, one on each end.
So depending on your taste you can wear it upright or sideways.
With 3.9cm length it is quite big and eye catching.
On each of the two twisted sides five 5mm diameter gemstones goes in.
You can even make it multicolored if you'd like,
but single colored designs are definitely more elegant.
Thorns are always assoziated with roses and they have simply to be red
so I've choosen red gemstones for the one depicted above.
It's wonderfully sparkling in bright sunlight.
length ............ 39 mm
approx. diameter .. 16 mm
grommet diamter ... ~4 mm
gem diameter ...... 5 mm (not included)
It was only test-printed in unpolished silver. Note that especially the steel versions could have surface roughness that might prefent the gemstones from fitting in properly. Alumide Is very brittle and probably won't be polishable. If you really want to try it give me a note.
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