<p>There are ESD safe nylon filaments available, but even they will be well above their glass transition (= softening and sagging under their own weight) before they get up to 165 °C.</p>
<p>What I'd recommend is looking for a method to resin print the parts and add your ESD protection as a post-process.  Most UV cure resins are thermoset, in that they won't soften at temperatures below where they start to break down (i.e. char) -- but few if any are conductive enough to be ESD safe.</p>
<p>If you don't mind a coating that needs to be reapplied regularly (possibly before each bake cycle) I've seen liquid fabric softeners used to provide a conductive coating on home built ribbon tweeters (electrostatic speakers).  Something in the formula of these liquids produces a coating that's quite a good conductor of high voltage static charges.</p>

CC BY-SA 4.0
2021-07-09T17:54:09.770Z
Thanks for the response! I hadn't thought about using a coating post-print so I will look into that to see if I can find something that will work (ideally for more than one bake cycle but if it is a simple dunk to get ESD protection then that is do-able)
Bobby Jones
CC BY-SA 4.0
2021-07-12T13:38:48.607Z
Hydrophilic surfactants depend on humidity to dissipate ESD.  A hot oven usually has near 0% relative humidity.  If you use a coating, it needs to conduct independent of humidity.
Perry Webb
CC BY-SA 4.0
2021-07-12T14:25:07.630Z
Learn something every day -- I wasn't aware this stuff depended on humidity (though I was well aware humidity in a hot oven tends to be very low).
Zeiss Ikon
CC BY-SA 4.0
2021-07-09T17:46:53.930Z
2021-07-09T17:46:53.930Z
Zeiss Ikon
<p>I am trying to develop a process to print fixtures/jigs that can withstand a convection oven temperature of 165 °C. The tricky thing is that these parts have to be considered ESD safe (surface resistivity of <span class="math-container">$10^4 - 10^11, with 10^5 - 10^7$</span> being optimal).</p>
<p>I have found tons of options where I can get one property or the other, but have had little to no luck finding any companies that are able to fulfill both requirements.</p>
<p>Also: the parts that I need to print need a high level of detail, (X/Y/Z accuracy of at least .005&quot;, ideally tighter) so from my experience, I have focused my efforts on resin printers, but am also open to filament printers if they can provide the accuracy I need.</p>
<p>If anyone has any suggestions on printers to look into or companies that I may be able to reach out to for an inquiry it would help me a ton.</p>

CC BY-SA 4.0
2021-07-09T17:42:37.030Z
Please prepare a list of materials that meet your needs. With that list, we might suggest various manufacturing methods. It may be that your can print something like PEEK or PPSU in near-net-shape, and then machine it to your tolerances (if needed).
Davo
CC BY-SA 4.0
2021-07-09T17:48:28.070Z
Material selection is where I am struggling right now, from my research PEEK has a surface resistivity of about 10^16, which is considered insulative so it will not provide ESD protection against the electronics I am working with
Bobby Jones
CC BY-SA 4.0
2021-07-09T19:10:18.127Z
There was a recent article on the subject here: https://3dprinting.com/3d-printing-use-cases/esd-safe-materials-for-3d-printing/
Ron Jensen
<print-material><resin><sla><material><temperature>
3D printing ESD safe/high temp parts
Bobby Jones
# 3D printing ESD safe/high temp parts

(Asked by: username_0 on 2021-07-09)

I am trying to develop a process to print fixtures/jigs that can withstand a convection oven temperature of 165 °C. The tricky thing is that these parts have to be considered ESD safe (surface resistivity of $10^4 - 10^11, with 10^5 - 10^7$ being optimal).

I have found tons of options where I can get one property or the other, but have had little to no luck finding any companies that are able to fulfill both requirements.

Also: the parts that I need to print need a high level of detail, (X/Y/Z accuracy of at least .005", ideally tighter) so from my experience, I have focused my efforts on resin printers, but am also open to filament printers if they can provide the accuracy I need.

If anyone has any suggestions on printers to look into or companies that I may be able to reach out to for an inquiry it would help me a ton.

**Tags:** print-material, resin, sla, material, temperature
> **Comments:**
> **username_1**: Please prepare a list of materials that meet your needs. With that list, we might suggest various manufacturing methods. It may be that your can print something like PEEK or PPSU in near-net-shape, and then machine it to your tolerances (if needed).  
> **username_0**: Material selection is where I am struggling right now, from my research PEEK has a surface resistivity of about 10^16, which is considered insulative so it will not provide ESD protection against the electronics I am working with  
> **username_2**: There was a recent article on the subject here: https://3dprinting.com/3d-printing-use-cases/esd-safe-materials-for-3d-printing/  

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## 1 answers

### Answer by username_3 on 2021-07-09. Score: 1

There are ESD safe nylon filaments available, but even they will be well above their glass transition (= softening and sagging under their own weight) before they get up to 165 °C.

What I'd recommend is looking for a method to resin print the parts and add your ESD protection as a post-process. Most UV cure resins are thermoset, in that they won't soften at temperatures below where they start to break down (i.e. char) -- but few if any are conductive enough to be ESD safe.

If you don't mind a coating that needs to be reapplied regularly (possibly before each bake cycle) I've seen liquid fabric softeners used to provide a conductive coating on home built ribbon tweeters (electrostatic speakers). Something in the formula of these liquids produces a coating that's quite a good conductor of high voltage static charges.

> **Comments:**
> **username_0**: Thanks for the response! I hadn't thought about using a coating post-print so I will look into that to see if I can find something that will work (ideally for more than one bake cycle but if it is a simple dunk to get ESD protection then that is do-able)  
> **username_4**: Hydrophilic surfactants depend on humidity to dissipate ESD.  A hot oven usually has near 0% relative humidity.  If you use a coating, it needs to conduct independent of humidity.  
> **username_3**: Learn something every day -- I wasn't aware this stuff depended on humidity (though I was well aware humidity in a hot oven tends to be very low).  

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