Senior Business Data Visualization Architect – TELUS Communications – Toronto, ON
From TELUS Communications – Tue, 13 Aug 2019 06:06:42 GMT – View all Toronto, ON jobs
Abstract:
The microscopic assessment of tissue samples is instrumental for the diagnosis and staging of cancer, and thus guides therapy. However, these assessments demonstrate considerable variability and many regions of the world lack access to trained pathologists. Though artificial intelligence (AI) promises to improve the access and quality of healthcare, the costs of image digitization in pathology and difficulties in deploying AI solutions remain as barriers to real-world use. Here we propose a cost-effective solution: the augmented reality microscope (ARM). The ARM overlays AI-based information onto the current view of the sample in real time, enabling seamless integration of AI into routine workflows. We demonstrate the utility of ARM in the detection of metastatic breast cancer and the identification of prostate cancer, with latency compatible with real-time use. We anticipate that the ARM will remove barriers towards the use of AI designed to improve the accuracy and efficiency of cancer diagnosis.
submitted by /u/LudicrousAbode
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Hi everyone!
Few months ago I released Notify17, a tool to generate mobile notifications from simple web requests.
I think redditors of this sub may be interested in using it when dealing with models training, or any similar long lasting tasks, where you need to wait a long time between each iteration.
The most basic concept would be that, as soon as a model training finishes, you can invoke a function to let yourself know that the event occurred, and get the notification on your phone/browser:
from notify17 import n17_raw n17_raw("RAW_API_KEY", 'Model training finished')
I’m looking for feedback from people in multiple fields, because I believe that Notify17 could be useful in many multiple scenarios than just backend development.
I’d love to know if anyone of you finds this tool to be useful for the machine learning field and/or what could be added/changed to make it worth the use for you all.
P.s. also MATLAB and LUA examples are around. In any case, a cURL request is enough to trigger any notification, e.g:
url -X POST "https://hook.notify17.net/api/raw/RAW_API_KEY" -F title="Model $MODEL_NAME training completed"
Thanks a lot, I’m here to answer any question about this post!
Alberto
submitted by /u/Cmaster11
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Hello everyone,
I was trying to train an autoencoder which takes a melspectrogram as input and outputs the same melspectrogram. It’s a reconstruction task. However, the model seems to be generating random noise. It’ll be great if anyone could point me towards any relevant github repos/papers which solve this task.
Thank you! 🙂
submitted by /u/aimldlcv
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I have been playing around with DeOldify this past week, which as been a lot of fun. During my testing, I colorized a video of a Tasmanian Tiger which managed to reach the front page and resulted in an article from Daily Mail… which was awesome! Anyway, while playing around, I realized it might be cool to visualize the colorization process by colorizing a hyper-realistic drawing time lapse. The hope was that using this method I could see when the network recognized a face, hair, eyes, etc.
Achieving this was pretty simple as I didn’t need to write any code myself. I found a great time lapse from a talented artist drawing Cara Delevingne, downloaded it (with permission) and colorized it. I put the two videos side by side, and I was done!
I hope you guys find it interesting. It was a little less eventful than I expected, but still pretty cool to see!
submitted by /u/NNFAK
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Hi,
I’d like to share the following toy dataset with you which is readily available in form as raw videos and tfrecords:
The dataset consists of 90 000 color videos that show a planar robot manipulator executing articulated manipulation tasks. More precisely, the manipulator grasps a circular object of random color and size and places it on top of a square object/platform of again random color and size. The initial configurations (location, size and color) of the objects were randomly sampled during generation. Different from other datasets such as the moving MNIST dataset, the samples comprise a goal-oriented task as described, making it more suitable for testing prediction capabilities of an ML model. For instance, one can use it as a toy dataset to investigate the capacity and output behavior of a deep neural network before testing it on real-world data.
https://github.com/ferreirafabio/PlanarManipulatorDataset
Feel free to use, share and comment 🙂
submitted by /u/whiletrue2
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Recently I submitted my paper with a very novel but easy to replicate idea to the CIKM conference. However, it seems reviewers would like to reject the paper with any arbitrary reason they came up with. Because the idea is very simple to replicate, I am very worried about that they may steal my idea to submit to upcoming conferences. In addition to submitting to arxiv, what else can protect my idea from being stolen? Thanks!
submitted by /u/PCCheater
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Current CNNs have to downsample large images before processing them, which can lose a lot of detail information. This paper proposes attention sampling, which learns to selectively process parts of any large image in full resolution, while discarding uninteresting bits. This leads to enormous gains in speed and memory consumption.
submitted by /u/ykilcher
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Even the most experienced doctors can’t catch every tiny polyp during an endoscopy, a screening of the digestive system.
But even in routine exams, the stakes are high — missing an early warning sign of cancer can lead to delayed diagnosis and treatment, lowering a patient’s chances for recovery.
To cut down on the rate of missed precancerous lesions, one Japanese endoscopist is turning to AI. His startup, AIM (short for AI Medical Service), is building a GPU-powered AI system that will analyze endoscopy video feeds in real time, spotting lesions and helping doctors identify which are cancerous or at risk of becoming so.
AI screening could also help clinicians manage a demanding workload: Japanese endoscopists must check more than 3,000 medical images a day, on average. Stomach and colon cancer are two of the three leading causes of cancer-related deaths in the country.
“Coming from 23 years of experience as an actual endoscopist, I saw firsthand the challenges facing experts in the field,” said Tomohiro Tada, CEO of AIM. “GPU-powered AI can help manage the overwhelming demand for checking endoscopic images, while improving the overall accuracy of lesion detection.”
A quarter of precancerous lesions are overlooked in endoscopy screenings, according to one Japanese study. In preclinical research trials, AIM’s AI model achieved 92 percent sensitivity in detecting stomach cancer lesions from endoscopy videos. The startup’s deep learning tool could help endoscopists better distinguish hard-to-spot lesions and improve consistency across different clinics.
During an upper gastrointestinal endoscopy, a doctor examines a patient’s esophagus, stomach and upper region of the small intestine using a long tube with a small camera attached to it. The video feed from this camera is displayed on a larger screen for the clinician, who looks for bleeding, cancer or other conditions.
While doctors examine the endoscopy video footage live to check for polyps, they also check still images after the procedure. Having an AI to assist in real-time detection during a procedure could help doctors save time spent on secondary screening, Tada said.
AIM plans to deploy its AI model, which can identify different kinds of stomach lesions, in an NVIDIA Quadro RTX 4000 GPU-powered device that connects to existing endoscope systems. The device would receive the live endoscopy video feed and simultaneously process the footage to assist doctors during the procedure.
The startup uses a variety of NVIDIA GPUs, including the TITAN Xp and Quadro P6000, to train its deep learning models. It’s using an NVIDIA Quadro mobile workstation for inference in the prototype of its real-time AI device.
AIM’s deep-learning based object detection and classification algorithms are developed using tens of thousands of annotated endoscopy images from Tada’s clinic and from research partners including Japan’s Cancer Institute Hospital and the University of Tokyo Hospital.
The post Gut Feeling: Endoscopy Startup Uses AI to Spot Stomach, Colon Cancer appeared first on The Official NVIDIA Blog.