I ran your code and the offending obj file and it looks like the problem is indeed scaling. If you add a line before model(teapot) like: scale(20); model(teapot); You should see the teapot now. Please let me know if for some reason you aren't. Regarding the widely differing models, perhaps we can add a note somewhere in the documentation to look out for model scale. It seemed like the model scale of your teapot was not only in centimeters, but also very small centimeters.

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Unfortunately, objs don't have a measurement scale marker. Numbers are simply floating point, so we can't add a flag in p5 to convert between cm, mm, inches, feet, etc. That said, Three.js has a clever way of normalizing various model sizes using software-specific exporter scripts: It sounds like maybe a better long term solution to help users work with consistent models is to adopt the THREE.js approach, or someone could develop a web app utility to check and normalize models for p5. Howdy guys, I checked the version of p5.js being used and the 1st line reads: /*! P5.js v0.5.0 May 02, 2016 */ I think this is the latest distributed build around.

If what I need are fixed in the repository but not yet distributed in a build, then I'll wait for a build refresh. I tried a 1000,1000 canvas. The canvas showed at the correct size but no sign of an object.

I also added a 'scale(20)'. But still not sign of any objects. If it would be useful, I'd be delighted to screen share live as needed. Hi, I can confirm after downloading a fresh copy of the 0.5.0 release that loadModel is not actually included in there. What's unusual is that you should be seeing an error message saying 'loadModel is not defined', which is what I see when I run your code with 0.5.0 taken directly from the github release. If you pull the latest commit from the master branch, you shouldn't have any problems running your code.

I'll reopen this issue for now, until we build a new release tag including proper loadModel functionality. Thanks for letting us know. I am new to p5.js and what I did was download 'p5.js' complete from this location. After extraction, I found that there was a sample called 'empty-example'.

That contains a subfolder called 'libraries' that appears to have its own copy of 'p5'. When I edited the 'sketch.js' in the folder and added the 3D sample, I did indeed get the 'loadModel' not found. I figured that the copy of p5 contained in the libraries folder in the sample was out of date, so replaced it with the copy of 'p5' found in the root of the extraction of the download. That satisfied the 'loadModel'.

I figured that the download contained TWO p5 versions. Not in synch with each other. Fishing craze game download.

And that the sample had been missed. Thanks for checking in. I have validated that I have 0.5.1 installed. And, unfortunately, the call to model() is not showing my loaded 3D object (teapot). Same symptoms and setup as before.

I am 100% available to provide a skype screen sharing session (as desired) at 'neil.kolban' (US Central Time Zone). If there are any traces or logs or other tests I can run for y'all, I'll be delighted to do so. I am assuming that the sample programs are working 'fine' on y'all system. So it is likely my combination of environment: • Windows 10 • nVidia graphics card • Dual monitors • Native resolutions of 2560x1200 •. Something else.

Results The peak compression occurs at an insertion depth of −3.1 mm, −2.8 mm, 0.9 mm, and 1.5 mm for the Acutrak Mini, Acutrak Standard, Herbert-Whipple, and Synthes screws respectively (insertion depth is positive when the screw is proud above the bone and negative when buried). The compression and insertion torque at a depth of −2 mm were found to be 113 ± 18 N and 0.348 ± 0.052 Nm for the Acutrak Standard, 104 ± 15 N and 0.175 ± 0.008 Nm for the Acutrak Mini, 78 ± 9 N and 0.245 ± 0.006 Nm for the Herbert-Whipple, and 67 ± 2N, 0.233 ± 0.010 Nm for the Synthes headless compression screws. Conclusions All 4 screws generated a sizable amount of compression (> 60 N) over a wide range of insertion depths. The compression at the commonly recommended insertion depth of −2 mm was not significantly different between screws; thus, implant selection should not be based on compression profile alone. Conically shaped screws (Acutrak) generated their peak compression when they were fully buried in the foam whereas the shanked screws (Synthes and Herbert-Whipple) reached peak compression before they were fully inserted. Because insertion torque correlated poorly with compression, surgeons should avoid using tactile judgment of torque as a proxy for compression.