This blog post will take us through how a business which need to ensure customer due diligence (CDD) can automate the KYC (Know Your Customer) processes using deep learning and computer vision based solutions. But before we get started, let's familiarise ourselves with some basic terminology. Customer Due Diligence - CDD involves verifying that your customers are who they say they are and assessing the risks associated with each customer like the possibilities of fraud, money laundering, terrorism financing, etc. This includes verifying your customer's name, address, photograph by analysing bank documents, utility bills, etc. Anti Money Laundering - AML refers to a set of laws, regulations and procedures meant to prevent criminals from disguising illegally obtained assets and funds as legitimate income by safeguarding against trading illegal goods, tax evasion, market manipulation, corruption of public funds, etc. Know Your Business - KYB involves vetting a business trying to establish a relationship with a bank by determining their Ultimate Beneficial Owners (UBO) and enforcing compliance by assessing risks associated with the business. You can learn more about beneficial ownership structures and a risk based approach to counter laundering here.

I found out about LSTM recently and was interested by it, so I read a lot of blogs and watched many videos about it. From what I learned, I know that the cell state serves as the memory of the network, but what exactly should the initial value of the cell state be equal to? For example, if I'm trying to predict the last word of the sentence: "My favorite car is _______", where each of the word will be the input value in a form of vector. The cell state of the current cell is some function of the cell state from the previous step. So in this case, what should be the cell state when the input is "My"?

PyTorch is quickly becoming one of the most popular deep learning frameworks around, as well as a must-have skill in your artificial intelligence tool kit. It's gained admiration from industry leaders due to its deep integration with Python; its integration with top cloud platforms, including Amazon SageMaker and Google Cloud Platform; and its computational graphs that can be defined on the fly. In this course, join Jonathan Fernandes as he dives into the basics of deep learning using PyTorch. Starting with a working image recognition model, he shows how the different components fit and work in tandem--from tensors, loss functions, and autograd all the way to troubleshooting a PyTorch network. Jonathan Fernandes works for a consultancy and primarily focuses on data science, AI, and big data.

PyTorch is quickly becoming one of the most popular deep learning frameworks around, as well as a must-have skill in your artificial intelligence tool kit. It's gained admiration from industry leaders due to its deep integration with Python; its integration with top cloud platforms, including Amazon SageMaker and Google Cloud Platform; and its computational graphs that can be defined on the fly. In this course, join Jonathan Fernandes as he dives into the basics of deep learning using PyTorch. Starting with a working image recognition model, he shows how the different components fit and work in tandem--from tensors, loss functions, and autograd all the way to troubleshooting a PyTorch network. Jonathan Fernandes works for a consultancy and primarily focuses on data science, AI, and big data.

PyTorch is quickly becoming one of the most popular deep learning frameworks around, as well as a must-have skill in your artificial intelligence tool kit. It's gained admiration from industry leaders due to its deep integration with Python; its integration with top cloud platforms, including Amazon SageMaker and Google Cloud Platform; and its computational graphs that can be defined on the fly. In this course, join Jonathan Fernandes as he dives into the basics of deep learning using PyTorch. Starting with a working image recognition model, he shows how the different components fit and work in tandem--from tensors, loss functions, and autograd all the way to troubleshooting a PyTorch network. Jonathan Fernandes works for a consultancy and primarily focuses on data science, AI, and big data.

PyTorch is quickly becoming one of the most popular deep learning frameworks around, as well as a must-have skill in your artificial intelligence tool kit. It's gained admiration from industry leaders due to its deep integration with Python; its integration with top cloud platforms, including Amazon SageMaker and Google Cloud Platform; and its computational graphs that can be defined on the fly. In this course, join Jonathan Fernandes as he dives into the basics of deep learning using PyTorch. Starting with a working image recognition model, he shows how the different components fit and work in tandem--from tensors, loss functions, and autograd all the way to troubleshooting a PyTorch network. Jonathan Fernandes works for a consultancy and primarily focuses on data science, AI, and big data.

PyTorch is quickly becoming one of the most popular deep learning frameworks around, as well as a must-have skill in your artificial intelligence tool kit. It's gained admiration from industry leaders due to its deep integration with Python; its integration with top cloud platforms, including Amazon SageMaker and Google Cloud Platform; and its computational graphs that can be defined on the fly. In this course, join Jonathan Fernandes as he dives into the basics of deep learning using PyTorch. Starting with a working image recognition model, he shows how the different components fit and work in tandem--from tensors, loss functions, and autograd all the way to troubleshooting a PyTorch network. Jonathan Fernandes works for a consultancy and primarily focuses on data science, AI, and big data.

PyTorch is quickly becoming one of the most popular deep learning frameworks around, as well as a must-have skill in your artificial intelligence tool kit. It's gained admiration from industry leaders due to its deep integration with Python; its integration with top cloud platforms, including Amazon SageMaker and Google Cloud Platform; and its computational graphs that can be defined on the fly. In this course, join Jonathan Fernandes as he dives into the basics of deep learning using PyTorch. Starting with a working image recognition model, he shows how the different components fit and work in tandem--from tensors, loss functions, and autograd all the way to troubleshooting a PyTorch network. Jonathan Fernandes works for a consultancy and primarily focuses on data science, AI, and big data.

PyTorch is quickly becoming one of the most popular deep learning frameworks around, as well as a must-have skill in your artificial intelligence tool kit. It's gained admiration from industry leaders due to its deep integration with Python; its integration with top cloud platforms, including Amazon SageMaker and Google Cloud Platform; and its computational graphs that can be defined on the fly. In this course, join Jonathan Fernandes as he dives into the basics of deep learning using PyTorch. Starting with a working image recognition model, he shows how the different components fit and work in tandem--from tensors, loss functions, and autograd all the way to troubleshooting a PyTorch network. Jonathan Fernandes works for a consultancy and primarily focuses on data science, AI, and big data.

In the context of convolutional neural networks (ConvNets), LBH mention pooling, but not its pioneer (Weng, 1992), who replaced Fukushima's (1979) spatial averaging by max-pooling, today widely used by many, including LBH, who write: "ConvNets were largely forsaken by the mainstream computer-vision and machine-learning communities until the ImageNet competition in 2012," citing Hinton's 2012 paper (Krizhevsky et al., 2012). Earlier, committees of max-pooling ConvNets were accelerated on GPU (Ciresan et al., 2011a), and used to achieve the first superhuman visual pattern recognition in a controlled machine learning competition, namely, the highly visible IJCNN 2011 traffic sign recognition contest in Silicon Valley (relevant for self-driving cars). The system was twice better than humans, and three times better than the nearest non-human competitor (co-authored by LeCun of LBH). It also broke several other machine learning records, and surely was not "forsaken" by the machine-learning community. In fact, the later system (Krizhevsky et al. 2012) was very similar to the earlier 2011 system. Here one must also mention that the first official international contests won with the help of ConvNets actually date back to 2009 (three TRECVID competitions) - compare Ji et al. (2013).