Animation and animatronics are kinda Disney's thing. Imagine what could be done if all this time, money, and talent were being used on something other than a tourist trap.
Don't kid yourself, "they" also don't come up with this stuff. Researchers at universities do, and companies buy the project and continue to hone it for their sole purposes.
Specialty plastics are always going to be needed for good compliant mechanisms. It's incredibly difficult to not doubt the durability claims. The other thing is, traditional mechanisms have more readily replaceable parts. Avoids having to tear down a whole model/animatronic to replace the mechanism is one flecture breaks.
But,counterintuitively,compliant mechanism have been shown to be more durable than their contemporary counterparts. Besides, any decreased performance is made up in the time and cost of device construction
"It's incredibly difficult to not doubt the durability claims." Their technique specifically optimises to minimise the torque. It obviously cannot remove durability concerns, but it specifically optimises the design to reduce the damage, to increase durability. Not to mention compliance almost completely eliminates backlash that exist in "traditional" mechanisms.
They surely both have their pros and cons, but keep in mind it's also possible to build flexure mechanisms with off-the-shelf and replaceable parts like sprint sheets and wires, although with that method complex shapes as in the video are harder to build.
In the first mechanism you demonstrate(not the walking one),How do you ensure that the output profile is maintained if there is any load applied to output arms end point. An example would be if, the output arm was attached to a pen that draws the profile on paper. If the pen dragged heavy on the paper would the profile change? It looks as though there is an additional degree of freedom added to the output arm from the added flexure.... Now you've completely piqued my interest I'm going to have to build one of these out of lego...
Here you go: s3-us-west-1.amazonaws.com/disneyresearch/wp-content/uploads/20170711145348/A-Computational-Design-Tool-for-Compliant-Mechanisms-Paper1.pdf
Brilliant. This video really inspiring to creating innovative mechanisms. Given accessibility to 3d printers and other material manufacturing techniques it is much easier to explore such designs. Too bad there are not easily accessible design tools that make such explorations available to a larger audience. (maybe there is, and I'm just not aware). Pointers in the video description to additional resources, or references would have been helpful. Thanks for sharing and enlightening us.
Check out Theo Jansen on YT. He's an artist/engineer. That first leg design is straight up one of his. He said it himself "The lines inbetween art and engineering exist only in our minds", or something like that lol.
Better than things with say minges that slide over pins or bushings. The sliding parts wear against each other and the shape changes slightly with use.
That is very impressive, but what are the use cases for these compliant joints where they surpass rigid joints in functionality? So far it just seems like classical kinematics with extra steps and additional calculations.
ain't no way Disney is going to open source this! They might publish a research paper showing the results, but they are more likely to patent it than to release it. They are in the business of making animatronics for all of their theme parks after all!
This has the potential to change so many industries, from medical to even aeronautics. It'll be real selfish of Disney not to share this software. At the very least offer a payed version
Can this also be adapted to measure the inverse reactive current in unilateral phase detractors? It would be a great application for a (inrush current) panel meter imho.
I don't think there is a single linear spurving bearing on the market that can handle those stresses yet. Let alone one with underlayed wafer vertices to increase lifespan.
1min 33s if behind it add like door stucker, then making it able to move forward by wheel maybe nice robot? As legs. Wheel leg robot. Maybe it will be silent but fast?
This was said b4 i think in the past. Someone wanted to commit suicide decide to harass area of interest(robots) maybe. Since the move is silent, maybe if 1 is wheel to move forward fast then maybe need to be slower to crawl like that.
It's kinda wild how humanity went this long before exploring the engineering potential of using the tensile strength of materials in this way. I know flexures have been around a good while but it's really only since jwst was in development that it's getting real attention.
It’s always nice to see developments I’ve never seen before. This has interesting applications. Too bad you had to develop this under the awful thumb of Disney.
Compliant mechanisms is a very recent advancement in the mechanical industry. They've been around for a few years now. Nobody has a patent on them because it's a method, not an invention.
I feel like they put a lot of empty-speak in there, complicated sentences + too many fancy words, when in actuality what is being said is quite simple. I may be wrong, but here's my try at an example translation: Original: _"Our method takes as input a conventional mechanism and replaces rigidly articulated joints with flexures. Thin blades of elastic material whose shapes are automatically computed in order to optimize the performance of the compliant mechanism, there are several design objectives that need to be taken into account."_ My version: _We turn a conventional mechanism and replace rigid joints with flexible ones. These joints are made of thin, elastic blades, and the shapes are created by a computer. Several aspects need to be taken into account._ Original: _"Furthermore, when using 3d printing, residual support material increases friction in the joints. As shown in this example, these drawbacks can amplify in unfortunate ways leading to unforeseen deformations in the structure and even failure. We show the ability of our method to scale to miniature designs found for example in small-scale animatronics. By explicitly modeling compliance we can predict and leverage the deformation of the structure and maintain proper functioning with good precision."_ My version: _When 3d printing, ressidual filament can make the joints harder to move. As you can see here, this can lead to unpredictable deformations and even failure. This design can also be used in a very small scale, for example in animatronics. Our compliant design is very precise and predictable._
In general the idea is that these mechanisms are actually more robust as the movement of any given point is far less than a typical mechanism and instead it spreads out the movement by flexing over the greater length. but I agree that in these examples, a lot of sections seem to be flexing too much, to the point where it looks like it would fail easily, also there is the added downside that it cannot be repaired, only replaced, which is fine for something like a space object or a industrial application where replacement would be done anyway so the added time between that is preferable. in the case of something like a car I'd rather replace a small part frequently than need to completely replace the entire steering mechanism when it catastrophically fails at some point haha
Dunno the name (ACM?), or if the software is available anywhere, but here's a page with the research paper about it. la.disneyresearch.com/publication/a-computational-design-tool-for-compliant-mechanisms/
Dunno the name (ACM?), or if the software is available anywhere, but here's a page with the research paper about it. la.disneyresearch.com/publication/a-computational-design-tool-for-compliant-mechanisms/ I really want it too, hopefully it will be available online.
Dunno the name, or if the software is available anywhere, but here's a page with the research paper about it. la.disneyresearch.com/publication/a-computational-design-tool-for-compliant-mechanisms/
is anyone even use fixtures for movie production anymore? seems pretty rare. flextures will probably see the most use in manufacturing or maybe the medical industry
You were so busy asking yourself if you could that you forgot to stop and ask yourself if you should, and now just look at what you've done... Backward flying dragons.. I mean have you ever even _heard_ of such a thing?.. ... Just when you think you can relax and take a breath with your hinge and bearing collection and your completely normal flying dragons, and there goes the neighborhood.
from time to time I forgot that disney have their own terrifying advance R&D department
Animation and animatronics are kinda Disney's thing. Imagine what could be done if all this time, money, and talent were being used on something other than a tourist trap.
Five nights at disneys?
Don't kid yourself, "they" also don't come up with this stuff. Researchers at universities do, and companies buy the project and continue to hone it for their sole purposes.
Chebyshev was the first to develop such systems in the early 19th century!!!
Great math
Jaw-dropping, luckily it moved back to it’s original position.
*its
Chebyshev was the first to develop such systems in the early 19th century.
Legendary comment 😂😂
Imagine having a jaw.
This reply was made by the mollusc gang.
Specialty plastics are always going to be needed for good compliant mechanisms. It's incredibly difficult to not doubt the durability claims. The other thing is, traditional mechanisms have more readily replaceable parts. Avoids having to tear down a whole model/animatronic to replace the mechanism is one flecture breaks.
Yes.
But,counterintuitively,compliant mechanism have been shown to be more durable than their contemporary counterparts. Besides, any decreased performance is made up in the time and cost of device construction
"It's incredibly difficult to not doubt the durability claims."
Their technique specifically optimises to minimise the torque. It obviously cannot remove durability concerns, but it specifically optimises the design to reduce the damage, to increase durability.
Not to mention compliance almost completely eliminates backlash that exist in "traditional" mechanisms.
They surely both have their pros and cons, but keep in mind it's also possible to build flexure mechanisms with off-the-shelf and replaceable parts like sprint sheets and wires, although with that method complex shapes as in the video are harder to build.
@@jonasdaverio9369 this is exactly not what a compliant mechanism is
In the first mechanism you demonstrate(not the walking one),How do you ensure that the output profile is maintained if there is any load applied to output arms end point. An example would be if, the output arm was attached to a pen that draws the profile on paper. If the pen dragged heavy on the paper would the profile change? It looks as though there is an additional degree of freedom added to the output arm from the added flexure....
Now you've completely piqued my interest I'm going to have to build one of these out of lego...
Your work is really impressive. This software will be useful, especially for those who have 3D printers.
Absolutly stunning!
Is there a paper that goes with this video. Very interesting and impressive.
yes, you can find it if you search google scholar for the title of the video. if i post a link, youtube will probably delete this comment
Here you go:
s3-us-west-1.amazonaws.com/disneyresearch/wp-content/uploads/20170711145348/A-Computational-Design-Tool-for-Compliant-Mechanisms-Paper1.pdf
Beautiful! Thank you for sharing.
This would be veeeeeeery useful for MEMS research, especially the FEM computational stuff, like microgrippers
Very true indeed, youforgot to mention the major aplications in STDS!!
i'm impressed, this is simple but very clever
All in all a pretty cook design tool.
This man speaks in MLA format
Likely following a script
This is really rad.
This is my favorite Disney Production.
Brilliant. This video really inspiring to creating innovative mechanisms.
Given accessibility to 3d printers and other material manufacturing techniques it is much easier to explore such designs. Too bad there are not easily accessible design tools that make such explorations available to a larger audience. (maybe there is, and I'm just not aware).
Pointers in the video description to additional resources, or references would have been helpful.
Thanks for sharing and enlightening us.
I love the eyeball at 3:29.
I did not know disney does these kinds of things.
Its like transforming engineering to an art
Check out Theo Jansen on YT. He's an artist/engineer. That first leg design is straight up one of his.
He said it himself "The lines inbetween art and engineering exist only in our minds", or something like that lol.
@@lvbboi9 They call it the Jansen leg in the video. I'm sure they wouldn't present it as their own invention.
i am very glad that the samples in this video have their copyrights reserved by Hewlett-Packard© and the entire video has the rights reserved by the HP Development Company, L.P.©
Hi Bernhard this is amazing could I beta try it for a physical project im working on?
Very nice... very very nice
I hurts me a lot, seeing the dragon wing running backwards.
Despite this, awesome work!
Same.
ok, but how do you account for significant dynamic loads in the directions of motion?
Definitely cool!
how is the ratio of motion between one axis compared to a secondary axis computed? doesn't this also largely influence the overall design?
curious how this handles itself after a large amount of use, I feel like things that flex tend to break down and warp easier.
Better than things with say minges that slide over pins or bushings. The sliding parts wear against each other and the shape changes slightly with use.
Only if they reach plastic deformation, if they're properly designed they won't break down.
search CZcams for compliant mechanisms for much more on this topic!
That is very impressive, but what are the use cases for these compliant joints where they surpass rigid joints in functionality?
So far it just seems like classical kinematics with extra steps and additional calculations.
This is very useful for precise positioning. It avoids almost any kind of backlash and convert motion in a huge ratio
Thank you Theo Jansen!
That’s insane… that can be widely applied in many industries with strong advance in the future
I shared this with Dr. Midha, I'm sure he will think it is very interesting!
Beautiful work!
Why did I think the thumbnail was a bunch of airpods tied to a string 😭😭
Could you use the same concept but making the movement of the dragon wings by a sliding shaft that runs through a groove on a plate?
How do we get this software? It's awesome!
does anyone else really want a gauntlet extendo hand now?
your whole body is created from fiber strands that work like this. Crazy
Hi, is this software open source? can I find the code anywhere? This is amazing!
I was thinking the same thing.
ain't no way Disney is going to open source this! They might publish a research paper showing the results, but they are more likely to patent it than to release it. They are in the business of making animatronics for all of their theme parks after all!
@@TomSepe wrong.
czcams.com/video/IUe3mGkngs4/video.html
Open sourced Disney, I can hear Walt laughing from his grave.
This has the potential to change so many industries, from medical to even aeronautics. It'll be real selfish of Disney not to share this software. At the very least offer a payed version
Awesome
Can this also be adapted to measure the inverse reactive current in unilateral phase detractors? It would be a great application for a (inrush current) panel meter imho.
I don't think there is a single linear spurving bearing on the market that can handle those stresses yet.
Let alone one with underlayed wafer vertices to increase lifespan.
Won't someone think of the panametric fan! The modial interactions can't be understated here
@@DOCTOROCTAGONAPUSS Love your username.
@@AndrewDasilvaPLT Lol thanks.
This is so so awesome
i would like to know if there is a open source software from this or an kind if software to this.
I think the example with the wings is reversed and it flies backwards? Cause it pushes air forward unless it flies with its head pointed to the ground
Like their breath weapon, dragon flight is magic based.
Probably someone just connected motors the other way to the power supply
2:30 - aren't those motors rotating backward?
1min 33s if behind it add like door stucker, then making it able to move forward by wheel maybe nice robot? As legs. Wheel leg robot. Maybe it will be silent but fast?
This was said b4 i think in the past. Someone wanted to commit suicide decide to harass area of interest(robots) maybe. Since the move is silent, maybe if 1 is wheel to move forward fast then maybe need to be slower to crawl like that.
It's kinda wild how humanity went this long before exploring the engineering potential of using the tensile strength of materials in this way. I know flexures have been around a good while but it's really only since jwst was in development that it's getting real attention.
wait what disney?
They gotta start taking over the world sometime
yeah, they're quite big into robotics. With stuntrobots etc.
What software is used to simulate the compliant mechanisms?
It’s always nice to see developments I’ve never seen before. This has interesting applications. Too bad you had to develop this under the awful thumb of Disney.
Oh no, how awful Disney funds research into compliant designs which could be used in the design of safe animatronics, how evil of them ( ~ ._.)~
@@Soken50 once you're shackled to the mouse you're in for life.
@@Fry09294 it's just research, even if they patent it anyone can use it in 20 years, relax bud.
@@Soken50 I am relaxed.
Compliant mechanisms is a very recent advancement in the mechanical industry. They've been around for a few years now. Nobody has a patent on them because it's a method, not an invention.
I got this recommended to me and I’m so fascinated by something do not understand even remotely
With this technology, you save in materials. By saving materials it becomes lighter, and also cheaper.
Same lol
I feel like they put a lot of empty-speak in there, complicated sentences + too many fancy words, when in actuality what is being said is quite simple.
I may be wrong, but here's my try at an example translation:
Original: _"Our method takes as input a conventional mechanism and replaces rigidly articulated joints with flexures. Thin blades of elastic material whose shapes are automatically computed in order to optimize the performance of the compliant mechanism, there are several design objectives that need to be taken into account."_
My version: _We turn a conventional mechanism and replace rigid joints with flexible ones. These joints are made of thin, elastic blades, and the shapes are created by a computer. Several aspects need to be taken into account._
Original: _"Furthermore, when using 3d printing, residual support material increases friction in the joints. As shown in this example, these drawbacks can amplify in unfortunate ways leading to unforeseen deformations in the structure and even failure. We show the ability of our method to scale to miniature designs found for example in small-scale animatronics. By explicitly modeling compliance we can predict and leverage the deformation of the structure and maintain proper functioning with good precision."_
My version: _When 3d printing, ressidual filament can make the joints harder to move. As you can see here, this can lead to unpredictable deformations and even failure. This design can also be used in a very small scale, for example in animatronics. Our compliant design is very precise and predictable._
@@slaveNo-4028 it was really nice of you to write this
noice so well explained ^w^
I wonder if Fourieranalysis could help working out the 2d path more precise.
How small can you make a 2 axis gimbal ?
down to micrometers.
It's probably a good bet that some chemist is working on a molecular gimbal right now.
Do these type of designs suffer from fatigue failure? It seem like this could potentially fail under high frequency cycles testing.
In general the idea is that these mechanisms are actually more robust as the movement of any given point is far less than a typical mechanism and instead it spreads out the movement by flexing over the greater length. but I agree that in these examples, a lot of sections seem to be flexing too much, to the point where it looks like it would fail easily, also there is the added downside that it cannot be repaired, only replaced, which is fine for something like a space object or a industrial application where replacement would be done anyway so the added time between that is preferable. in the case of something like a car I'd rather replace a small part frequently than need to completely replace the entire steering mechanism when it catastrophically fails at some point haha
@@audi4444player well said. design for small max stresses in the deflecting members so you remain under the fatigue life of the material.
Well as long as the stress in the material maintains to be in the elastic region.
I'd like to know what the software is called too please!
Dunno the name (ACM?), or if the software is available anywhere, but here's a page with the research paper about it.
la.disneyresearch.com/publication/a-computational-design-tool-for-compliant-mechanisms/
"Proprietary Disney Software Now Sign This NDA"
dope
Woah
👏👏👏
Still always love Disney research :)
Problems for Disney is answered at the 3:55 of this video: czcams.com/video/ZU6rN8Vm_pI/video.html
How is the software called and where can I download it?
If you find let me know!!
Dunno the name (ACM?), or if the software is available anywhere, but here's a page with the research paper about it.
la.disneyresearch.com/publication/a-computational-design-tool-for-compliant-mechanisms/
I really want it too, hopefully it will be available online.
You won't find it. Its Disney, after all. It'll be proprietary. sorry :(
@@TomSepe wrong.
czcams.com/video/IUe3mGkngs4/video.html
you can't download it though, but you can use it
🔥💕👍
Where can I try this tool?
What about the fatigue life of the material??
Its the reason why this will never be largely used.
Cleverness is so damn sexy to my brain.
man, disney got their hands in everything ^^
👍
Where is the software avaiable?
I just saw another guy presenting this contents, in person
this on disney channel?
Where is this tool?
Damn
Name of software?
Dunno the name, or if the software is available anywhere, but here's a page with the research paper about it.
la.disneyresearch.com/publication/a-computational-design-tool-for-compliant-mechanisms/
is anyone even use fixtures for movie production anymore? seems pretty rare. flextures will probably see the most use in manufacturing or maybe the medical industry
motion of the ocean
So that’s how Nobodies walk!
Ah yes. The hoo hah lassos the whomp womp uncle
this some science buushie mann give me cartoon or some shi
I want the flexure hand, give me one please ^^
Why Disney?! ... Wait! -- it's the Dragon!
Smallscale Animatronics
why does it say copyright disney?
Cycle life?
2:16
Disney copyright???
Damn that's interesting, sucks hard that it's Disney tho.
Replacing bearings with bendable materials isn't an improvement, its a guaranteed point of failure
I know some application for this
It's all fun and games 'till your flexures wear out and break.
Looks like the travelling salesman problem. Would like to see more math presented. Nice work.
Механика Чебышева А.П.
What's with the Disney watermark?
Wtf. We are in da future!
What does Disney use this technology for? Animatronics?
Yes
What’s Disney doing in engineering r&d
Animatronics for movies/parks
@@ignacioaguirrenoguez6218 ah right. Dumb question.
Why does disney own this
whats the point of this though? where would this be used?
Why is disney involved in this ?????
Disney is a visionary company, they know what to invest in
They use animatrontics on their parks. They also have a grant program for scientific and engineering innovations.
Iulian Marinescu disney imagineering
You were so busy asking yourself if you could that you forgot to stop and ask yourself if you should, and now just look at what you've done...
Backward flying dragons..
I mean have you ever even _heard_ of such a thing?..
...
Just when you think you can relax and take a breath with your hinge and bearing collection and your completely normal flying dragons, and there goes the neighborhood.
Clickbait: I thought it said Complaint Mechanism!
Why disney though?
3:53 I see wh40k