Senior Manager, People Analytics – Deloitte – Toronto, ON
From Deloitte – Wed, 24 Jul 2019 22:39:17 GMT – View all Toronto, ON jobs
This post argues that beating human benchmarks on tests do not mean that the AI is actually better at the task. This seems to go well with recent controversies around BERT but is more fundamental than that.
Core argument (details and evidence in post):
submitted by /u/techczech
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I thought you guys might find this interesting. I slightly modified an image classifier to take audio, then recorded myself sticking keys and picks into locks for 45 minutes respectively. This was in order to create my dataset. I broke those long clips into 5 second segments, which left me with about 1000 clips for training. After 5 minutes of training and 15 epochs, I achieved a little more than 90% accuracy on my training and validation set, which is good enough for a fun project like this.
What this means is that I can put my microphone next to a lock, then detect in live time whether that lock is being picked or if a key is being inserted. I can then record the time the event happened and save the audio clip that triggered the event.
Here is a video demonstration of the project.
Here is an article I wrote where you can see the code.
For anyone that’s into lock picking, I created my training data on Sargent, Corbin Russwin, and Schlage mortise cylinders. I used both single pin picking and raking. I might play around with bumping in the future, if I come back to the project.
submitted by /u/NNFAK
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So I trained a VAE on 1-D Sparse data, and I am attempting to use the encoded latent variables for a similarity metric. However, the latent space has an extra dimension that I have no idea where it came from, and I am not sure which variable to use. I am attempting to use z_mean as my latent variables. But the shape of the output from the z_mean layer is somehow (8*512), even though my latent size was 512. Can someone help me understand what is going on here? Thank you!
submitted by /u/that_one_ai_nerd
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I’m not sure if this is the right place to ask this. What are your views on this? Thank you
submitted by /u/iNeedSleep-
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I know that there are a bunch of simple self help/mental health apps in which you input your “data”, such as, how you are feeling that day, what you have eaten, what you have done and then highlights things which supposedly maybe makes you feel worse/anxious/good/happy or what not. Is there any app or something which uses regression analysis/machine learning which makes better correlations between input data and visualize them? I at least imagine that using machine learning, you could make a lot better personalized assumptions about which things are important to your well being and which things make you feel x way (of course, it also depends on the quality of input data, but i think it would still be a lot better than these simple apps)
P.S. I know that i could have written this better, but i am quite tired and will go to sleep soon and want to ask this here before i have forgotten about it lol
submitted by /u/epwik
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How to find if a table with more than a million records contains a rule (if A=… then B=C) where A, B , C are column names and if the rule is present then which columns satisfy this condition.
submitted by /u/gursi1
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To find this out, we looked at 300 DS vacancies from StackOverflow, AngelList, Dice, and similar websites. Here’s what the data — and experts like Carla Gentry, Andriy Burkov, Dr. Ganapathi Pulipaka, and Lon Riesberg — say.
Surprising or expected?
submitted by /u/Lexandrit
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Hey all, Let me introduce our new work on real-time photo-realistic neural rendering. The method allows you to render complex scenes from novel viewpoints using raw point clouds as proxy geometry and require no meshes. Pipeline is following: scan object with ordinary video camera, produce the point cloud using widely available software (e.g. Agisoft Metashape), feed the point cloud and video to the algorithm and that’s it! The core ingredient of our algorithm is 8-dimensional descriptors learned for each point in the cloud, instead of common 3-dimensional RGB colors. Rendering neural network interprets this descriptors and outputs RGB image. We train the network on large Scannet dataset to boost it’s generalization capabilities on novel scenes. For more details please refer to the paper, as well as short description of the method on the project page and video demonstrating the results. Paper: https://arxiv.org/abs/1906.08240 Project page: https://dmitryulyanov.github.io/neural_point_based_graphics Video: https://youtu.be/7s3BYGok7wU submitted by /u/alievk91 |