Problem: current ambulance routing don’t optimize significantly on the contextual cases for stroke patients

Stroke hospitals: PSC is smaller than a CSC.

Previous work

Routing methods—

• route all patient to nearest PSC, which is worse than
• route high risk patient to CSC, which is worse than
• always route to CSC

This is counter-intuitive. How do we solve, given a stroke condition, available PSC/CSC locations, traffic, etc., for where and how to route a patient?

Hello! Welcome to the series of guided code-along labs to introduce you to the basis of using the PyTorch library and its friends to create a neural network! We will dive deeply into Torch, focusing on how practically it can be used to build Neural Networks, as well as taking sideroads into how it works under the hood.

Getting Started

To get started, let’s open a colab and import Torch!

import torch
import torch.nn as nn

The top line here import PyTorch generally, and the bottom line imports the Neural Network libraries. We will need both for today and into the future!

You are no doubt familiar with the Iris dataset: a dataset containing flower pedal shapes and their corresponding sub-type of Iris flower: Setosa, Versicolour, and Virginica.

We are going to take those pedal measurements, and predict the type of Iris we are looking at!

Let’s get the Iris dataset first. Turns out, Scikit Learn (your old friend from last semester) ships a copy of the Iris dataset with itself. So, we will load the dataset from it.

Hello y’all! This quick post about… writing your first “article” (ahem, MA) for this class. To me, the most rewarding part of our journey together is to be able to support everyone through writing very presentable reports—even if it is on old or simple problems—but in the format from which you can easily jump off and write a fully-blown scientific article in the future.

exemplar we discussed

(Kameswari, Sravani, and Mamidi 2020)

• analog: raw, continuous signal directly written down onto some kind of channel which accepts a range of values
  • magnetic tape, with a range of magnetism to write down music
  • film, which is directly sensitive to light
  • phone, the sonic amplitude directly placed onto the phone wire
• digital: storing whichever signal into bits; using only 0/1 bits to represent the entire signal

Analog Communication

• message to be communicated is one of a continuum of possibilities
• can never fully remove the effect of noise which the communication channel gives

Digital Communication

• message to be communicated is one of a finite set of choices (0/1)
• can remove the noise induced by the communication channel by rebinarizing (“on-off keying”)—i.e. small fluctuations between voltages of transmission will not influence on/off measurement